assessing preservice teachers' knowledge of new literacies by
TRANSCRIPT
Assessing Preservice Teachers' Knowledge of New Literacies
by
Tala Karkar Esperat, M.P.A.
A Dissertation
In
Curriculum & Instruction
Submitted to the Graduate Faculty of Texas Tech University in
Partial Fulfillment of the Requirements for
the Degree of
DOCTOR OF PHILOSOPHY
Approved
Patriann Smith, Ph.D. Chair of Committee
Jaehoon Lee, Ph.D.
Aaron Zimmerman, Ph.D.
Mark Sheridan, Ph.D.
Dean of the Graduate School
August 2019
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DEDICATION
This dissertation is dedicated to my loving parents, Aida and Michael Karkar,
who gave me the gift of a love for learning and the resilience, work ethic, and
perseverance to study throughout my life.
To all my former students, and my nephew and nieces -- Ameer, Teya, Mark,
Chris, and Kenzey -- who inspired me to pursue my dreams and believe in tomorrow. I
did, and I do.
Thank you to my triplet siblings, Diala and Tariq, and my older sisters, Hadeel
and Nadeen, who have been my life-long supporters and cheerleaders. All of you have
always been there for me. I dedicate my work to my family and friends who supported
me throughout my doctoral journey.
Also, I dedicate this work to my incredible, supportive uncle, Dr. Jack Karkar and
my guardian angel, Auntie Stella, and to my brilliant mentor and role model, Dr. Patriann
Smith.
And lastly, to the love of my life, my best friend, and my husband, Dominic R.
Esperat and my loving and supportive extended parents, Dr. Christina Roble Esperat and
Oswaldo Esperat. Thank you for all your support throughout the past years, thank you for
treating me like your own daughter, and for making Lubbock a home for me.
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ACKNOWLEDGMENT
First and foremost, I would like to thank my unsung hero, my Committee Chair
and mentor, Dr. Patriann Smith, for all her commitment, feedback, and efforts in
inspiring me to always do my best and for assisting me in putting my vision into a
workable mission. I am truly thankful for all your efforts, and I am where I am today
because of you. You will always be part of my success. You taught me to be kind to
myself, and to take care of myself. Thank you, for always reminding me to be faithful to
everything I do, to share enlightenment with others, to stay focused, and to present good
work.
Thank you, my committee members, Dr. Jaehoon Lee, thank you for being patient
and for believing in me. You said one day, “I will be a pioneer in the field.” Hearing you
say that gave me confidence to pursue developing my Pedagogical Content Knowledge of
New Literacies (PCKNL) research instrument. Every time I asked you a question you
gave me brilliant answers. Thank you, Dr. Aaron Zimmerman, for always challenging me
to give my best and for preparing me to work hard in the field of education.
Thank you, Drs. Bill Cope and Mary Kalantzis, for your inspiring work that
served as a foundation for my PCKNL model and instrument. Thank you to the external
reviewers for my PCKNL survey, Dr. Bill Cope, Dr. Allan Luke, and Dr. Jennifer
Schneider, for taking the time to validate the content of my instrument.
Thank you, Dr. Sonya Sherrod, for being a dedicated doctoral support coach and
for always being there for all the students. Throughout my consultations with you, I was
able to structure and organize my thoughts. I appreciate all the feedback you gave me and
thank you for assisting with the formatting of my dissertation. Thank you, Cynthia Henry,
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for assisting me in locating surveys and articles that accelerated my work in completing
my dissertation. I learned from you how to navigate different databases. Thank you,
Texas Tech Library, for your incredible services and wonderful staff. Your services gave
me access to the most valuable and updated resources.
Thank you, Dean Dr. Mark Sheridan, for making my last year at Texas Tech
count. Working with you as the Graduate Assembly President for Texas Tech University
helped me advocate for my fellow graduate students, launch the wellness campaign, and
embrace cultural diversity. Your support to the graduate students enhanced my
experience at Texas Tech. I really appreciate all the support you have given me. It gave
me the confidence to complete my dissertation in a timely manner. Thank you, Dr. Carol
Sumner, for all your support and for reminding me to always remain passionate and help
others.
Thank you, Dr. Dough Hamman, Dr. Amani Zaier, Dr. Raymond Flores, Dr.
Linni Greenless, Dr. Laura Brown, Sherre Heider, Anjanette Franklin, Linda Musquiz,
and everyone who helped me distribute my survey.
Also, thank you to my family – my parents Aida and Michael, my siblings, Diala,
Tariq, Hadeel, and Nadeen, and my extended family, Dr. Christina Roble Esperat and
Oswaldo Esperat – for your continuous support. Thank you to all my family and friends
who have been part of this journey, especially Uncle Jack, late Auntie Stella, and my dear
friends Jumana Sakakini, Dana Abu Lail, Elias Halabi, Rima Halabi, and Nadeen Bahour.
To my husband and best friend, Dominic R Esperat, thank you for believing in me
and not letting me give up. I appreciate all your support. This is just the beginning of our
amazing future together!
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TABLE OF CONTENTS
DEDICATION .................................................................................................................. ii
ACKNOWLEDGMENT ................................................................................................. iii
ABSTRACT ...................................................................................................................... ix
LIST OF TABLES ............................................................................................................. x
LIST OF FIGURES .......................................................................................................... xi
I. INTRODUCTION .......................................................................................................... 1
Problem Statement ....................................................................................................... 2
Purpose of the Study and Significance ......................................................................... 4
Theoretical Framework ................................................................................................ 6
Research Questions ...................................................................................................... 9
Overview of the Methodology ..................................................................................... 9
Definition of Terms .................................................................................................... 11
Summary .................................................................................................................... 15
II. LITERATURE REVIEW .......................................................................................... 17
Theoretical Framework .............................................................................................. 18
Overview of Social Constructivism ........................................................................... 19
The Epistemology of Social Constructivism ........................................................ 20
The Ontology of Social Constructivism ............................................................... 22
The Axiology of Social Constructivism ............................................................... 23
Constructivism and Pedagogy .................................................................................... 24
Overview of New Literacies ....................................................................................... 26
Dual Level New Literacies Theory ...................................................................... 27
New Literacies Pedagogies ................................................................................. 28
Pedagogical Literacy Practices .......................................................................... 30
Paradigmatic Shifts in Reading and Literacy Leading to New Literacies .......... 31
Pedagogical Content Knowledge ........................................................................ 40
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Models of Pedagogical Content Knowledge ....................................................... 42
Pedagogical Content Knowledge and Preservice Teachers ............................... 45
Pedagogical Content Knowledge and Information Technology ......................... 49
Technological Pedagogical Content Knowledge and Preservice Teachers ....... 51
PCK and Reading ................................................................................................ 54
The Use of New Literacies in the Classroom ...................................................... 57
The Significance of New Literacies to Preservice Teachers in Teacher Education ............................................................................................................ 60
Pedagogical Holistic Model of New Literacies .................................................. 62
Surveys Used in the Field ........................................................................................... 63
Summary .................................................................................................................... 73
III. METHODOLOGY ................................................................................................... 75
Purpose and Objectives .............................................................................................. 75
Research Questions .................................................................................................... 76
Research Design ......................................................................................................... 76
Survey Instrument ................................................................................................ 94
Item Selection ............................................................................................................. 95
Three Form Design ............................................................................................. 95
Survey Dissemination and Administration .......................................................... 96
Sampling .............................................................................................................. 98
Analysis .................................................................................................................... 100
Statistical Analyses ............................................................................................ 101
Data Analysis for Quantitative Data ................................................................. 102
Data Analysis for Qualitative Data ................................................................... 105
Positionality ...................................................................................................... 110
Limitations ............................................................................................................... 113
IV. RESULTS ................................................................................................................ 115
Purpose of the Study ................................................................................................ 115
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Review of Research Questions ................................................................................. 116
Description of the Sample ........................................................................................ 116
Quantitative Results ................................................................................................. 121
Missing Data ..................................................................................................... 121
Confirmatory Factor Analysis ........................................................................... 122
Findings From the Qualitative Data ......................................................................... 140
Preservice Teachers’ Partial Knowledge of New Literacies That Align With Preestablished Modes ............................................................................... 140
Preservice Teachers Misconception of Technologies and New Literacies ....... 148
Preservice Teachers Need More Exposure to the New Literacies Standards ........................................................................................................... 150
Pedagogical Content Knowledge Practices as Cultural Relevant Teaching ............................................................................................................ 152
Summary .................................................................................................................. 153
V. DISCUSSION AND CONCLUSION ...................................................................... 155
Interpretation of the Results ..................................................................................... 155
Quantitative Results .......................................................................................... 155
Qualitative Results ............................................................................................ 164
Ideological Model Versus the Autonomous Model ........................................... 164
Pedagogies of New Literacies ........................................................................... 165
Preservice Teachers and Constructivism .......................................................... 167
The Ontology and Axiology of Constructivism and Pedagogy ......................... 168
Preservice Teachers Have Misconceptions Between Technologies and New Literacies ................................................................................................... 170
Preservice Teachers Need More Exposure to Applying the New Literacies Standards .......................................................................................... 172
The Understanding That Integrating Student Cultural Knowledge is New Literacies ................................................................................................... 174
Conclusion ................................................................................................................ 176
Limitations ............................................................................................................... 177
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Implications for Research ......................................................................................... 178
Final Thoughts .......................................................................................................... 180
REFERENCES .............................................................................................................. 181
APPENDICES ................................................................................................................ 204
A. IRB Approval ...................................................................................................... 204
B. A Survey on Pre-service Teachers’ Pedagogical Content Knowledge of New Literacies ..................................................................................................... 205
C. Email to Participants ............................................................................................ 215
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ABSTRACT
The purpose of this study was to assess the pedagogical content knowledge of new
literacies (PCKNL) among preservice teachers within and beyond the United States.
Through this study, I developed an instrument – the PCKNL survey – that assessed
preservice teachers’ pedagogical content knowledge of new literacies. The survey was
administered to a sample of preservice teachers who are in a wide range of teacher
preparation programs. Findings from the survey reflect the extent to which preservice
teachers possess knowledge of how to teach new literacies. It is expected that the study’s
findings will be generalizable to preservice teachers in teacher preparation programs
beyond those surveyed in the study. Through this study, implications for enhancing
literacy curriculum in teacher preparation programs are provided.
Keywords: Pedagogy, preservice teachers, new literacies, literacy, reading, survey
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LIST OF TABLES
1. Surveys Used in Literacy, Pedagogy, and Technology .............................................. 65
2. Example of the Documentation of the Search for Surveys in Different Database ..... 79
3. Example of Article Analysis ...................................................................................... 81
4. Defining Pedagogical Approaches and Modes of Meaning Making .......................... 83
5. Linguistic Mode .......................................................................................................... 84
6. Gestural Mode ............................................................................................................ 85
7. Visual Mode ............................................................................................................... 86
8. Audio Mode ................................................................................................................ 87
9. Spatial Mode ............................................................................................................... 88
10. Synesthesia Mode ....................................................................................................... 89
11. Example of Survey Item Analysis Indicating the Source and Potential Survey Item Questions for New Literacies Linguistic Mode ................................................. 91
12. Classifying Items in Relation to the Pedagogical Approaches (Functional, Authentic, Didactic, and Critical Approaches) .......................................................... 93
13. Overview of Universities to Which Survey was Disseminated .................................. 99
14. Qualitative Data Analysis of the Pedagogical Content Knowledge of New Literacies .................................................................................................................. 107
15. Participant Demographics ........................................................................................ 118
16. Item Loadings – Initial Model .................................................................................. 124
17. Factor Correlations – Initial Model .......................................................................... 127
18. Composite Reliability – Initial Model ...................................................................... 129
19. Item Loading – Revised Model ................................................................................ 132
20. Factor Correlations – Revised Model ....................................................................... 134
21. Composite Reliability – Revised Model ................................................................... 135
22. Participant Average Scale Score .............................................................................. 137
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LIST OF FIGURES
1. Social Constructivism Framing Pedagogy for Learning of New Literacies. ................. 26
2. Integration of Pedagogical Literacy Practices, Content Knowledge Pedagogy, and Critical Pedagogy. .................................................................................................. 31
3. Pedagogical Holistic Model of New Literacies. ............................................................ 63
4. Word Cloud of the Keywords Used in the Searches. .................................................... 78
5. PCKNL Survey Process Development. ......................................................................... 97
6. Full Model of PCKNL. ................................................................................................ 136
7. Revised Model. ............................................................................................................ 139
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CHAPTER I
INTRODUCTION
Teacher preparation programs focus on training future teachers to teach
effectively. Throughout the coursework in teacher preparation programs, preservice
teachers are exposed to a variety of content knowledge (CK), teaching methods, and
theories (Gee, 1996). As a result of these experiences, these teachers develop pedagogical
expertise (Borko & Livingston, 1989). Preservice teachers are then expected to translate
their knowledge into the classroom, using a wide range of resources and new perspectives
on literacy education called new literacies (Cervetti, Damico, & Pearson, 2006;
Lankshear & Knobel, 2011). The term “new literacies” refers to the skills that learners
can utilize in various forms to infer meaning that goes beyond reading and writing, using
different modes of meaning making (Leu, Kinzer, Coiro, & Cammack, 2004; Rowsell &
Walsh, 2011). Students use different resources to obtain information, which include text
messages, blogging, social networking websites, and listening to or reading information
from electronic devices (Moss & Lapp, 2010). Using new literacies, students are
expected to identify, analyze, and synthesize information independently, and teachers are
required to use different modes of meaning making (Kalantzis & Cope, 2012; Leu,
Kinzer, Coiro, Castek, & Henry, 2017; New London Group, 1996).
With the ongoing changes in the education field, teacher preparation programs
should reexamine how they prepare preservice teachers to teach new literacies. This
reexamination is necessary because preservice teachers often feel uncertain about finding
options to customize learning for their students (Leu et al., 2004; Li, 2017; Miles &
Knipe, 2018; Miller, 2015; Yi & Angay‐Crowder, 2016) One way to ensure that teacher
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preparation addresses new literacies is for instructors to conduct assessments that
examine preservice teachers’ pedagogical content knowledge (PCK) of new literacies and
for preservice teachers to conduct self-assessments. Conducting such assessments can
inform instructors of pedagogical practices needed by preservice teachers to address K-12
student needs. This research study intends to provide one such assessment.
Problem Statement
Effective teacher preparation programs provide coursework in specific content
curriculum and content pedagogical learning. Similarly, teacher preparation programs
offer preservice teachers opportunities to practice what they have learned and select
teaching practicums in which preservice teachers will practice what they will teach in the
future (Boyd, Grossman, Lankford, Loeb, & Wyckoff, 2009; Darling-Hammond et al.,
2007). Darling-Hammond, Burns, Campbell, Goodwin, and Low (2018) argued the
urgency of focusing on “system-building” (p. 13) of teacher preparation programs,
indicating that “the quality of teachers depends on the quality of their preparation” (Risko
& Reid, 2019, p. 423). In this process, pedagogical content knowledge and content
knowledge play a critical role.
The term “pedagogical content knowledge” represents the integrated knowledge
that teachers have, which guides their classroom practices and determines their ability to
reflect sufficient content knowledge, effective teaching methods, curriculum knowledge,
and curriculum resources (Shulman, 1987). The term “content knowledge” refers to
knowing the content needed by unpacking, representing, and making this content
accessible to students (Ball, Thames, & Phelps, 2008). Specifically, teachers’ content
knowledge is the knowledge that teachers possess in a specific content area, the
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knowledge of how to teach that content area, and the knowledge to understand students’
misconceptions and use different strategies to address them (Ball et al., 2008). Research
has shown that preservice teachers have inadequate CK and PCK (Cochran-Smith, 2003a;
Darling-Hammond & Bransford, 2007; Gray, Tale, & O’Rear, 2015). With insufficient
PCK, teachers will have difficulty selecting appropriate materials when presenting
lessons in the classroom (Ayoubi, El Takach, & Rawas, 2017; Shulman, 1987).
However, even when PCK is formulated, it has been difficult to identify how to
scaffold PCK development and assess it (Metz, 2018). As a result, research has shown
that a gap exists between theory and practice (Borrero, Flores, & De La Cruz, 2016;
Risko et al., 2008). Without a clear mechanism to address this gap, such an obstacle will
continue to present challenges for teachers who complete teacher preparation programs
and must translate theory into practice in their classrooms. In turn, K-12 student needs
will remain unaddressed. I argue for the need to assess preservice teachers’ PCK while
they are in teacher preparation programs to determine if and what gaps may be present in
their PCK.
The Pedagogical Content Knowledge of New Literacies (PCKNL) survey is, thus,
proposed in this study to address the aforementioned concern and is intended to function
as a mechanism for assessing preservice teachers’ PCK in the area of new literacies. This
proposed instrument is a multiple-choice, fill-in-the-blank, and open-ended survey
instrument. The PCKNL survey includes six sections that represent modes of new
literacies, based on the literature, which have been identified as linguistic, gestural, audio,
visual, special, and synesthesia (Kalantzis & Cope, 2008; 2015; New London Group,
1996). It is also designed to assess four pedagogies that have been known to be central to
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addressing these modes in classrooms: authentic, functional, didactic, and critical
(Kalantzis & Cope, 2008, 2015). The PCKNL survey is proposed for preservice teachers
in their first, second, third and fourth years of their teacher preparation programs.
Currently, there is no such instrument specifically designed to assess preservice
teachers’ pedagogical content knowledge of new literacies. Such an assessment will help
educational instructors identify the pedagogical needs of preservice teachers in new
literacies, allowing instructors to determine how they might help teachers to address these
needs successfully. By proposing the PCKNL for assessing preservice teachers’ PCK of
new literacies, teacher preparation programs and the instructors who teach in these
programs are provided with a mechanism to help teachers refine their teaching in ways
that will facilitate their ability to teach using new literacies. Administering the PCKNL,
will also allow preservice teachers to identify their standing in terms of their preparation
to teach new literacies.
Purpose of the Study and Significance
It is largely established that knowledge of how to teach reading instruction, that is
“pedagogical content knowledge of literacy,” is critical to the preparation of reading
teachers (Haid, 2006). Evidence from the field has reiterated the usefulness of such
knowledge, previously described as practical knowledge, for reading teachers (Risko et
al., 2008). However, despite the evolved definition of reading as involving multiple
literacies—multiliteracies or new literacies—there remains a focus on pedagogical
content knowledge for reading that concentrates on traditional notions of literacy (Cope
& Kalantzis, 2009). Such notions of PCK as they relate to reading do not often capture
what teachers must know about how to teach new literacies (Kalantzis & Cope, 2012;
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Leu et al., 2004, 2017). Yet, new literacies have become increasingly representative of K-
12 student education and function as the primary techniques that learners utilize in
various forms to infer meaning in the 21st century, even while teachers continue to teach
reading in ways that reflect these changes by using multimodal modules that include
reading and videos (Li, 2017). For instance, K-12 students use a variety of resources to
obtain information such as text messages, blogging, and social networking websites from
electronic devices (Moss & Lapp, 2010), which requires teachers to know how to teach
students using various forms of meaning-making: audio, visual, gestural, tactile, oral, and
written (Kalantzis & Cope, 2012). Moreover, teachers who address new literacies in their
practice are required to acquire knowledge about different pedagogical approaches—
didactic, authentic, functional, and critical—to teach new literacies (Kalantzis & Cope,
2012; Cope & Kalantzis, 2015). In the absence of pedagogical content knowledge of new
literacies, teachers will struggle to meet the needs of 21st-century students who rely
heavily on technologies that lend themselves to multiliteracies. In turn, students will
continue to receive instruction based on the PCK of reading instruction that does not
align with the PCK of new literacies in the 21st century. As a result, they will not be
prepared for a multiliterate world.
The purpose of this study was to propose an instrument that assesses preservice
teachers’ pedagogical content knowledge of new literacies, which can serve as a
mechanism for ensuring that teachers are prepared to teach K-12 students in multiliterate
environments. Guided by the new literacies theory and social constructivism (Leu et al.,
2004; Vygotsky, 2005), I did the following: (a) developed an instrument (i.e., survey) that
assesses pre-service teacher pedagogical content knowledge of new literacies and reliably
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measures preservice teachers’ pedagogical content knowledge of new literacies; and (b)
administered the survey to a sample of preservice teachers who were in their first, second,
third, or fourth years in teacher preparation programs to determine the extent to which
they possessed knowledge of how to teach new literacies. It is expected that findings
from the study can be generalized to teacher preparation programs beyond those reflected
in the current study, thereby stimulating them to modify or develop new literacies
curriculum based on the needs of their preservice teacher populations.
This study is significant because it provides a mechanism to assess preservice
teachers’ knowledge using different modes of new literacies and various approaches in
their teaching. It can also assist instructors in preparing curriculum for preservice
teachers that meets their needs. Often, teachers’ pedagogical content knowledge is
overlooked and remains unassessed. This study fills a gap because it is the first, and
currently, the only instrument developed to assess teachers’ pedagogical content
knowledge of new literacies. In doing so, the study provides a mechanism to
continuously assess pre-service teacher knowledge, creating an avenue for teachers to
receive support that allows them to feel ready to teach with new literacies after
graduating from their teacher preparation programs.
Theoretical Framework
The social constructivism (Vygotsky, 2005) and new literacies (Leu et al., 2017)
theories that undergird this study served as lenses for examining the assessment of
preservice teachers’ pedagogical content knowledge of new literacies in teacher
preparation programs. According to the theory of new literacies, students learn through
practice by communicating, exchanging, negotiating, and applying what they learn in
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meaningful literacy experiences (Lankshear & Knobel, 2011). The theory of new
literacies aligns closely with Street’s (1984) theory, which presented a new perspective of
literacy as social change. Street described differences between the autonomous and
ideological models of literacy. The autonomous model indicated that introducing literacy
to people enhances their cognitive skills and economic prospects and helps them become
better citizens, regardless of their social, ideological, and economic conditions. In
contrast, the ideological model highlighted literacy as a social practice and called for
more cultural sensitivity that impacted how literacy was taught. Specifically, the
ideological model reflected that literacy “varies with social context, and with cultural
norms and discourses” (Street, 1997, p. 48) in more than one form. While it is universal,
learning experiences are created based on the learners and their cultures. The purpose of
learning is to enable the application of content in different contexts.
When new literacies are incorporated into classrooms based on the ideological
model of literacy proposed by Street (1997), students are provided with multiple avenues
and opportunities to engage in the current lessons, which may foster deep understanding
and higher order thinking among students (Kalantzis & Cope, 2012; Leu et al., 2004).
Using new literacies pedagogies—authentic, functional, didactic, and critical—based on
an ideological perspective of literacy, results in higher levels of student engagement, as
well as the design and redesign of meaning making (Kalantzis & Cope, 2012; Leu et al.,
2004). The similarities that exist across different modes of the representation of meaning
making (Kalantzis & Cope, 2012) allow for connections to be made that would not occur
without these modes. Identifying dissimilarities among these modes alerts teachers to
individualized instruction needed to attend to each student’s needs (Kalantzis & Cope,
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2012). As a result of the emphasis on meaning-making in new literacies, which aligns
with the notion of literacy as a social practice (Street, 1997), teachers and students are
presented with a vast expanse of ideas that extend beyond those found in a traditional
textbook. Identifying literacies as a social practice thus embraces the affordances
provided by social contexts for actively recognizing ways of learning.
New literacies theory then clearly emanates from the social constructivism
paradigm, which states that students must engage in authentic literacy activities and skills
in context (Kalantzis, Cope, Chan, & Dalley-Trim, 2016; Leu & Zawilinski, 2007).
Social constructivism embraces “active engagement in processes of meaning-making”
(Au, 1998, p. 299), text development, and the varied nature of knowledge. It is human
practice and social interaction that form the basis of knowledge. By planning appropriate
activities, promoting group work, providing timely evaluations, and offering clearly
defined directions, teachers can cultivate the conditions that maximize student learning
(Vygotsky, 2005). Vygotsky (2005) proposed that interaction among peers effectively
promotes the development of skills and knowledge. Thus, social interaction among peers
plays a vital role in learning. Teachers are urged to facilitate student learning by
providing multiple resources and guiding students to gather, comprehend, evaluate, and
communicate information (Leu et al., 2017).
Some of the essential factors in constructivist pedagogy are that teachers serve as
facilitators of learning and present the content in various ways from different
perspectives. The constructivist learning environment involves the ongoing process of
social interaction, by which students can increase their communication capabilities and
become comfortable speaking in public (Miltiadous & Savenye, 2003). Teachers create a
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collaborative community, using group-based instruction, managing dialogue among
students to promote deeper learning, and acknowledging student contributions (Kalantzis
& Cope, 2012). Given the connections between new literacies theory and social
constructivism, social constructivism functions as the broader paradigm through which to
understand the concept of new literacies. In turn, new literacies theory functions as the
lens through which to examine and analyze data in this study that reflect the multiple
modes through which meaning making tends to be enacted. New literacies theory also
provides an avenue to examine and analyze data regarding the corresponding pedagogies
through which new literacies tend to be leveraged.
Research Questions
Two questions guided this study:
1. Can pre-service teacher pedagogical content knowledge of new literacies be
measured reliably?
This question was addressed by describing the survey development and
psychometric properties as well as conducting statistical analyses (internal consistency
reliability: Cronbach’s alpha, item-total correlation, etc.) based on the survey.
2. What is the pedagogical content knowledge of new literacies reflected by pre-
service teachers?
This question was addressed by using descriptive statistics and interpretive qualitative
analysis based on survey responses from preservice teachers.
Overview of the Methodology
The current study used survey methodology to investigate pre-service teachers’
use of new literacies in the classroom. Overviews of surveys that have been developed
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were used to examine constructs similar to those examined in this study. Quantitative
data collected from a sample of pre-service teachers across a variety of teacher
preparation programs were analyzed using descriptive statistics and bivariate tests. Using
the student responses, confirmatory factor analysis was conducted to examine the
constructs of the pedagogical content knowledge of new literacies (PCKNL). The main
goal of confirmatory factor analysis is to validate the psychometric properties of items in
a survey. I investigated how well the hypothesized factor structure described the
relationships of the observed variables (items) with their respective factors (modes) as
well as the associations among the factors. Analysis results were used to inform current
and future instructors’ pedagogical content practices. Missing data, due to either attrition
or nonresponse, were handled by Monte Carlo Markov Chain Multiple Imputation
(Enders, 2010). All measured variables were incorporated into the imputation process as
auxiliary variables, thereby achieving greater recovery of missing data (Schafer &
Graham, 2002).
Qualitative data was also collected based on one open-ended question in the
survey to investigate pre-service teachers’ use of new literacies in the classroom. The
answers were analyzed using inductive and interpretive qualitative analyses (Cohen,
Manion, & Morrison, 2011). An interpretivist perspective is based on the assumption that
individuals create personal, subjective, and intersubjective interpretations of the world
with which they interact (Paul, 2005). Interpretivism functions on the premise that
knowledge is socially constructed by the participants involved in the research. Therefore,
the researchers’ social constructions are equally as valid as the constructions of the
participants involved in their studies (Paul, 2005). From this perspective, an inextricable
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link exists between the knower and knowledge (Paul, 2005). Furthermore, language
mediates reality via the active role of the mind, given that meaning about the world is
transformed to fit the shape of human sentences (Paul, 2005).
I used an interpretivist approach in analyzing the data, which allowed me to tap
into the meaning ascribed by preservice teachers to their own experiences with new
literacies, based on their open-ended responses. Their experiences could not readily be
captured in the assessments of these literacies, based on predefined survey questions as
provided in the rest of the survey. Through inductive analysis, via an interpretive
approach, I used open coding and constant comparative analysis (Charmaz, 2006) to
incorporate preservice teachers’ perspectives about new literacies into the notion
pedagogical content knowledge of new literacies. Such an avenue allowed me to extend
the theory of new literacies and redefine new literacies based on the unique perspectives
of preservice teachers.
Definition of Terms
New literacies. The term “new literacies” refers to the technique that learners can
utilize in various forms to infer meaning. Students use different resources to obtain
information, which include text messages, blogging, social networking websites, and
listening to or reading information from electronic devices (Moss & Lapp, 2010). “New
literacies include the skills, strategies, and dispositions necessary to successfully adapt to
the changing technologies that influence all aspects of our personal and professional
lives” (Leu, Kinzer, Coiro, & Cammack,, 2004, p. 3).
Muliliteracies. The term multiliteracies is defined as “metalanguages to describe
and interpret the design elements of different modes of meaning” (New London Group,
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1996, p. 83). It includes negotiating a multiplicity of discourse and “extends the idea and
scope of literacy pedagogy to integrate a variety of texts forms associated with
information and multimedia technologies” (New London Group, 1996, p. 61).
Pre-service teacher. A pre-service teacher is a college or university student
involved in a school-based, field experience. Under the supervision of a cooperating
instructor, the pre-service teacher gradually takes on more classroom management and
instructional responsibilities (Virginia Wesleyan College, 2019).
Pedagogy. Pedagogy “involves a vision (theory, set of beliefs) about the society,
human nature, knowledge and production, in relation to educational ends, with terms and
rules inserted as to the practical and mundane means of their realization” (Davies, 1994,
p. 26).
Pedagogical content knowledge (PCK) in the field of education. Shulman
(1987) described PCK as follows: “It represents the blending of content and pedagogy
into an understanding of how particular topics, problems, or issues are organized,
represented, and adapted to the diverse interests and abilities of learners, and presented or
instruction” (p. 8). Pedagogical content knowledge is the knowledge of how to teach the
specific content, which includes developing and using a variety of curriculum materials,
instructional strategies, technological resources, and assessments selectively and
appropriately (Haid, 2006).
New literacies approaches.
a. The didactic literacy pedagogy involves teacher-centered learning. Teachers
use textbooks or a syllabus to transmit the rules of language to passive learners. Learners
copy, repeat, memorize, follow, and apply rules (Kalantzis & Cope, 2012).
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b. The authentic literacy pedagogy is a student-centered approach. It focuses on
learning by doing and is derived from student interests. Teachers facilitate the learning
process for the students, and they guide them through questioning. Students take
ownership of their learning and are considered social actors (Kalantzis & Cope, 2012).
c. Functional literacies pedagogy is concerned with text and its social function. It
aims to establish structure and content in literacy teaching and emphasizes meaning-
making. Learners explain the ways texts deliver meaning to them and then apply their
knowledge of language and meaning making in social contexts. They are exposed to
different types of texts that enable them to succeed in the real world (Kalantzis & Cope,
2012).
d. Critical literacies pedagogy is one approach to teaching students “to challenge a
text” (Moss & Lapp, 2010, p. 287). It focuses on using or creating authentic texts that
address challenging issues, like discrimination, which are of interests or concerns to
learners. Learners are seen as social actors as they are encouraged to raise questions and
identify problems. They learn about differences in language, power, cultures, and new
media. This pedagogy aims to assist learners to understand how things are constructed by
people’s actions, cultures, and values (Kalantzis & Cope, 2012).
Modes of meaning making.
a. Gestural meanings are expressed in bodily appearances, movement, and
positioning. They are multilayered, connected to behavior, feeling effect, and gesture. It
includes body spacing (posture), bodily movement (feelings of motion), and gaze
(gestural meets visual; Kalantzis & Cope, 2012).
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b. Spatial meanings are proximity and movement shaped by the places in which
we live. Spaces have meaning based on the functions and meanings designed by people.
As observed by Kalantzis & Cope (2012), “spatial communication includes giving
directions, making maps, drawing plans, creating models, and diagramming flows” (p.
283).
c. Visual communication involves creating the meaning from mental images such
as paintings, photographs, pages, advertisement, and colors (Kalantzis & Cope, 2012).
d. Audio meaning refers to sound effect such that “meaning making occurs when
we put signifiers together into a coherent system that more or less corresponds with the
sense of the world of our experienced meanings, or what signified” (Kalantzis & Cope,
2012, p. 177).
e. Linguistic meanings are text-based meanings that traditionally dominate the
field (Kalantzis & Cope, 2012).
f. Synesthetic approach. This approach involves using more than one mode --
multiple modes -- to represent and communicate ideas that can facilitate deeper
understanding (Kalantzis & Cope, 2012).
The distinction between new literacies and new technologies. Literacies build
on traditional elements of literacy that include comprehension, writing, phonics, and
phonemic awareness by emphasizing strategies to identify important questions, search
texts, read, evaluate, synthesize, and communicate information (Leu et al., 2004). From a
new literacies perspective, students are expected to use various forms of text such as
electronic texts, visual texts, graphic books, and resources that may include the use of
technology, all of which connects them to modes of representation and meaning-making,
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which include visual, audio, spatial, oral, and written elements (Kalantzis & Cope, 2012).
New technologies (O’Brien, Salinas, Reinhart, & Paratore, 2018) serve as supporting
tools and machines used to deliver information for representation and meaning making
that occur through new literacies, and they are continuously developing. Educators used
new technologies to support the learning of their students, and new technologies may be
considered as part of new literacies.
Summary
This study proposes the PCKNL survey to assess preservice teachers’ pedagogical
content knowledge of new literacies with a broader goal to ensure that preservice teachers
are equipped to address K-12 students’ needs in multiliterate environments. The
dissertation describes the process of development and validation of this instrument. There
is no instrument currently available to measure preservice pedagogical content
knowledge of teaching new literacies for preservice teachers despite the need for this
assessment. Thus, the study fills a gap in the field.
Social constructivism, in conjunction with new literacies theory, serve as lenses to
undergird the study. Social constructivism supports the principle that learners actively
construct meaning through their individual experiences and schema (Schuman, 1996).
Meaningful learning happens when learners are engaged in social interactions,
negotiation, communication, application, and reflection in meaningful literacy
experiences (Lankshear & Knobel, 2011; Prawat, 1992). Acknowledging the social
constructivist foundation of new literacies, this study examines teachers’ knowledge of
how to teach reading for developing and using a variety of curriculum materials,
instructional strategies, technological resources, and assessments selectively and
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appropriately (Haid, 2006), it is cognizant that such knowledge is instantiated within the
social contexts in which literacies evolve.
The PCKNL instrument may be administered by teacher preparation programs at
the beginning of an academic semester to determine preservice teacher knowledge and
the resources and educational materials required for their success. This instrument may
also be used at the end of the semester to determine the progress preservice teachers have
made in acquiring PCKNL. Teacher preparation programs as well as instructors can use
this information to direct curriculum development and to facilitate preservice student
learning and progress with regards to new literacies. The implication of this study is for
teacher preparation programs to develop new literacies curriculum that aligns with the
needs of preservice teachers based on indications obtained from the PCKNL.
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CHAPTER II
LITERATURE REVIEW
As established earlier, pedagogical content knowledge (PCK) refers to a
combination of content knowledge and the skills to teach effectively (Shulman, 1986),
while content knowledge refers to knowledge of facts, concepts, and theories in the
subject area in which teachers expect to teach and students are expected to learn (Ball,
Thames, & Phelps, 2008). Teacher pedagogical content knowledge impacts their content
knowledge and performance (Ball & Bass, 2000; Ball et al., 2008). Previously, the focus
of literacy teacher preparation has been on the teachers’ need to possess pedagogical
content knowledge (Ball, 2009; Cochran-Smith, 2003b; Ladson-Billings, 1994).
However, today, the field of teacher education, and specifically literacy teacher
preparation, has identified a disconnect between theory and practice (Borrero et al., 2016;
Risko et al., 2008), creating the need for pedagogical content knowledge that is aligned
with contemporary strides made in our thinking about literacy (Street, 1997). Thus, the
focus has become how teachers deliver instruction and the resources they provide to
prepare students in this digital age (Loos, Ivan, & Leu, 2018). Students having equal
access to information is imperative (De Jong & Rizvi, 2009). As a result of the ongoing
changes in conceptions of literacy, teacher dispositions are focused on using different
pedagogies, employing different skills, beginning with identifying resources to
synthesizing information with students and identifying literacies as a social practice—
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new literacies (Kalantzis & Cope, 2012). I asked two questions in proposing the
development of the pedagogical content knowledge of new literacies (PCKNL) survey:
1. Can pre-service teacher pedagogical content knowledge of new literacies be
measured reliably?
2. What is the pedagogical content knowledge of new literacies reflected by pre-
service teachers?
To facilitate an understanding of the development of the PCKNL tool, this chapter
provides an extensive review of the literature on social constructivism theory, new
literacies theory and pedagogies, and pedagogical content knowledge in relation to
preservice teachers in the new literacies era. In doing so, I demonstrate the progress made
in the field, identify tensions in conceptions among constructs, confirm gaps that indicate
a need for the current study, and problematize the ways in which previous research has
examined constructs in this work, thereby providing a rationale for the development of
the PCKNL assessment proposed.
Theoretical Framework
New literacies theory (Leu et al., 2017), derived from social constructivist theory
(Vygotsky, 2005), provides a framework for this study. Social constructivism is a major
theory of learning used in literacy education research to show how leaners “structure
knowledge” (Hruby, 2001, p. 48). Social constructivism theory supports the principle
that learners actively construct meaning through their individual experiences and schema
(Schuman, 1996). Meaningful learning happens when learners are engaged in social
interactions, negotiation, communication, application, and reflection in meaningful
literacy experiences (Lankshear & Knobel, 2011; Prawat, 1992). Social constructivism
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theory is most associated with the developmental theories of Lev Vygotsky, Jerome
Bruner, and Albert Bandura's social cognitive theory (Schunk, 2000). Knowledge via
social constructivism is seen as a social product, influenced by cultural and historical
factors, as well as contextual understanding brought about when teachers build on
students’ background and knowledge (Derry, 1999; McMahon,1997; Prawat & Floden,
1994). Social constructivist methods may include approaches that involve reciprocal
teaching, peer collaboration, cognitive apprenticeships, and problem-based instruction
(Schunk, 2000). Using the social constructivist framework within the context of new
literacies, this study focused on pedagogical content knowledge of preservice teachers,
which includes the knowledge of how to teach reading for developing and using a variety
of curriculum materials, instructional strategies, technological resources, and assessments
selectively and appropriately (Haid, 2006)
Overview of Social Constructivism
The fundamental principles of constructivism are adopted from developmentalist
teaching practices of the 18th century, which were a consequence of the rigid educational
practices in both Europe and America (Stone, 1996). French philosopher Jacques
Rousseau, John Dewey, G. Stanley Hall, and Arnold Gesell were involved in this period
(Stone, 1996). Developmental education indicates that learning occurs naturally. Dewey
posited that child educational development starts with the child rather than external-
mediators, like teachers (Boydston, 2008). Social constructivist theory sparked a shift
from traditional, teacher-centered teaching to a more interactive, shared interplay of
knowledge that is learner-centered (Prawat, 1992). Constructivism, a contemporary
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movement in education, was derived from the work of the Swiss developmental
psychologist Jean Piaget (1973) and Russian psychologist Lev Vygotsky (2005).
The Epistemology of Social Constructivism
What is knowledge? Knowledge is a product of interactive social practices
(Vygotsky, 2005). Constructivism explains that learners construct knowledge through
their social interactions with their world (Vygotsky, 2005); the learners’ engagement in
activities through their social interactions with their peers and teachers will affect what
they learn. Goodman (1986) referred to interaction as “the dialectical interplay of more
than one mind” (p. 87). Constructivism embodies physical and temporal events gained
through the senses, interactions, beliefs, roles, and mental processes (Paul, 2005).
Learning is contingent on “actual and concrete situations” (Paul, 2005, p. 60).
Constructivism brings objectivity and subjectivity together (Crotty, 1998), a shared
medium in which humans construct meaning through facts and a meaningful reality
presented in the learning process (Crotty, 1998). Vygotsky (2005) was the theorist who
had a great influence on literacy from a constructivist perspective; this perspective
included active learning and knowledge development through social interaction and the
“engagement processes of meaning making” (as cited in Au, 1998, p. 299). People make
meaning through social exchange, using social artifacts (Schwandt, 1998). Au (1998)
specified that constructivism is a sociological learning approach.
Social constructivism research focuses on the process of knowledge construction
by collaboration and social integration within a social group and the concept of mediated
learning to further knowledge and cognition (Vygotsky, 2005). Social constructivism
centers attention on the dimensions of literacy: cognitive and motivational. The form of
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motivation is grounded in the intrinsic view of motivation for literacy learning that is
based on the social processes in which learning takes place. Meaning is constructed and
facilitated within the school culture through interaction (Oldfather & Dahl, 1994).
Learning is based on the learner’s motivation and interests, which act as mediators in the
social construction of meaning in literacy learning. In turn, the learner’s motivation is
grounded in his or her cognitive processes (Oldfather & Dahl, 1994). Literacy is a social
accomplishment as learners engage in meaning construction (Allen, Michalove, &
Shockley, 1993; Bloome, 1986). Social constructivism emphasizes the role of the
teachers, peers, and family members in facilitating learning and the practices of the
classroom instruction (Au, 1998). Constructivist teaching strategies help teachers
understand how to incorporate effective methods and practices. Teachers are the
facilitators of learning. Social constructivism is an effective method of teaching by which
social interaction and cooperative learning are considered the integral parts of acquiring
knowledge. Social constructivism includes a “wide range of phenomena from historical,
political, and cultural trends to face-to-face interactions, and reflecting group processes”
(Au, 1998, p. 299). Learners are involved in constructivist dialogue and are encouraged
to find information. Teachers convey information and use effective tools like
conversation, discussion, and inquiry (Powell & Kalina, 2009).
Social constructivism undergirds the new literacies theory, which is used to
explain the importance of adopting pedagogical content knowledge of new literacies into
teacher preparation programs with a social paradigm. Vygotsky (2005) advocated for
students to engage in authentic literacy activities and teachers to teach skills in context.
When new literacies are incorporated into classrooms, students are provided multiple
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ways and opportunities to engage in the relevant lessons, which may foster deeper
understanding and higher order thinking among the students (Kalantzis & Cope, 2012;
Leu, Kinzer, Coiro, & Cammack, 2004). Using new literacies pedagogies—authentic,
functional, didactic, and critical—results in higher levels of student engagement as well
as the design and redesign of meaning making (Kalantzis & Cope, 2012; Leu et al.,
2004).
The Ontology of Social Constructivism
What is reality? Paul (2005) explained that reality is constructed through the
interaction of (a) a physical and temporal reality that consists of interactions with tangible
objects, such as streets, desks, families, and coworkers; and (b) an enacted reality in
which individuals produce meaningful understanding by “meaning making, sense
ascribing, holism producing, and role assuming activities” (p. 61) through the interaction
of the physical world and the human mind. The study of ontology is focused on the
learner’s environment and surroundings and the reality in which they are constructing
knowledge. Learners are expected to use their senses, visual tools, and audio tools that
are part of their norms. With ontology, the reality is different for the learners and
teachers who must recognize that these differences will actually assist them in planning
and individualizing instruction. The reality is teachers and students can construct
meaning through their environment. By understanding new literacies, teachers are
expected to recognize student individualities and realities. When teachers use new
literacies, they step into the child’s world and teach them, using tools with which they are
comfortable. Reading and writing are cultivated through social, historical, cultural, and
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economic practices by which teachers can use resources to acknowledge student
identities (Lankshear & Knobel, 2006).
The Axiology of Social Constructivism
Axiology refers to the intent of the research (Hart, 1971). Research inquiry is
infused with human values. The teachers’ values, ethics, commitment, and love that they
share with students impact the way they plan lessons, implement instructions, and assess
students. With new literacies, teachers are expected to use four different approaches for
learning: didactic, authentic, functional, and critical. They are compelled to use these
approaches to make sure their students are able to identify, summarize, analyze, and
synthesize text (Kalantzis & Cope, 2012). Constructivism is based on the values that
humans ascribe to their research (Paul, 2005). Constructivist teachers believe they are the
facilitators of the educational process and that students are active learners (Vygotsky,
2005). They value originality, student uniqueness, and creativity (Matthews, 1994).
Teachers’ values provide students with an engaging environment to assist them in
constructing meaning. Teachers use online discussion forums and group activities to
allow social negotiation. They also encourage a variety of interpretations. Teachers
expect learners to take responsibility for their learning, utilize their prior knowledge, and
continuously reflect on their learning. Teachers provide learners with opportunities to
serve as peer editors. Additionally, they are constantly exploring content and reflecting
and assessing their learning (Matthews, 1994). Within new literacies, teachers use
different modes (audio, visual, and spatial modes) of learning as a reflection of their
belief that each student is unique and has unique needs. These experiences assist students
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in exploring a wide range of topics and applying what they have learned (Kalantzis &
Cope, 2012).
Constructivism and Pedagogy
Pedagogy is the art of teaching and learning. It involves teachers, students, and
content knowledge (Daniels, 2016). It answers the question of what to teach in terms of
theory, as well as constructing and communicating knowledge (Daniels, 2016). Social
constructivism provides the framework of how to teach within a social context. For
Vygotsky, pedagogies are “shaped in particular social circumstances” (Daniels, 2016, p.
5). Vygotsky (2005) posited that authentic teaching and learning take place when adults
cooperate with children and adolescents. Vygotsky pictured pedagogy as a social act that
focuses on learners. It bridges thought processes, conceptual development, and social
communication with instruction (Daniels, 2016). Vygotsky (2005) argued that
pedagogical concepts are not constructed in pre-packaged form. He believed that the
pedagogical experience of direct instruction is “pedagogically fruitless” (p. 170). As a
result of direct instruction, the child learns words but not the concepts because of
insufficient application. Also, Vygotsky (2005) observed, “Sometimes instruction and
development do not coincide . . . . Instruction is only useful when it moves ahead of
development” (p. 212). Vygotsky theorized the concept of the zone of proximal
development theory (ZPD) to explain how participatory and social leaning occur.
Vygotsky argued that individuals develop meaning through engaging with content and
concepts within social activity. He defined ZPD as:
the distance between the actual developmental level as determined by independent
problem solving and the higher level of potential development as determined
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through problem solving under adult guidance, in collaboration with more capable
peers. (Vygotsky, 2005, p. 86)
Vygotsky (2005) wrote about helping children learn through collaboration and providing
direction, demonstrations, and leading questions. Vygotsky recommended using semiotic
mediation to facilitate learners’ understanding by using artifacts to build knowledge
(Bussi & Mariotti, 2008). According to Vygotsky, teaching and assessment should be
focused the learners’ capabilities instead of achievement. Daniels (2016) explored the
pedagogic implications under the influence of Vygotsky’s ZPD to understand teaching
and learning practices in schools. Daniels (2016) stated that pedagogy should be
“constructed as referring to forms of social practice which shape and form the cognitive,
affective, and moral development of individuals” (p. 1). Pedagogy “involves a vision
(theory, set of beliefs) about the society, human nature, knowledge . . . to educational
ends” (Davies, 1994, p. 26). Vygotsky informed the design of social context in learning.
His work suggests that social, cultural, and historical factors influence individual
development (see Figure 1). The principles that influence the design of instructional
environments include “meaning is negotiated and refined, and classrooms invoke
multiple zones of proximal development; meaning is negotiated and refined; ideas are
appropriated; common knowledge and distributed expertise are both essential” (Daniel,
2016, p. 119). Social constructivism thus frames the pedagogy for learning within the
new literacies era.
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Figure 1. Social constructivism framing pedagogy for learning of new literacies.
Overview of New Literacies
The definition of “new literacies” has changed over time with the development of
technology and the growing knowledge of literacies. New literacies mean different things
to different people, depending on their reality and the way they construct knowledge.
According to Leu et al. (2004), “New literacies include the skills, strategies, and
dispositions necessary to successfully adapt to the changing technologies that influence
all aspects of our personal and professional lives” (p. 3). In using new literacies, students
are expected to use various forms of text. Students use different activities to obtain
information, which include text messages, blogs, social networking websites, and various
electronic devices (Moss & Lapp, 2010). New literacies pedagogy is associated with an
ascending social paradigm (Lankshear & Knobel, 2011) in which teachers help students
learn to the best of their abilities in different social contexts, using the different modes of
new literacies and encouraging group collaboration and peer review. Through these social
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experiences, students learn the soft skills of being better collaborators, communicators,
community members, and problem solvers with these developed social skills. Effective
teaching requires educators and learners to be active participants in this social paradigm,
reflecting social change and engagement in critical issues.
Dual Level New Literacies Theory
Dual level new literacies theory, proposed by Leu, Kinzer, Coiro, Castek, and
Henry (2017), takes advantage of “multiple perspectives . . . [and] captures the
complexities” (Leu et al., 2017, p. 4) by defining literacies using both a lowercase theory
of new literacies and an uppercase theory of new literacies. The lowercase theory of new
literacies explores a specific area of new literacies and/or new technology such as using a
multimodal application (e.g., Glogster). Scholars from a particular discipline or
conceptual approach can develop and present a lowercase theories of new literacies. In
order to see the commonalities and trends among lowercase theories of new literacies, an
uppercase theory of new literacies is used. This uppercase theory of new literacies allows
scholars the opportunity to see the trends from a broader point of view. I use the
uppercase theory of new literacies in this study—New Literacies—to refer to the broader
theory and conception of new literacies as it applied across contexts. When I use the
lowercase theory of new literacies—new literacies—I refer to the modalities of new
literacies being used in this study within the specific context of the field of literacy.
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New Literacies Pedagogies
The following new literacies pedagogies have been found to be effective for
preparing preservice teachers: authentic, critical, functional, didactic (Kalantzis & Cope,
2012).
Authentic literacy pedagogy. This pedagogy is a student-centered approach. It
focuses on learning by doing and is derived from student interests. Teachers facilitate the
learning process for students and guide them through questioning. Authentic pedagogy
promotes the natural growth of using the language, starting with spoken language.
Reading and writing experiences are guided by the needs of learners (Kalantzis & Cope,
2012). Learners use “authentic resources” instead of following formal textbooks. They
take ownership of their learning, and they are considered social actors. They make
meaning for themselves depending on reading and writing choices based on their
interests. Learning is purposeful and relevant to the learners themselves (Kalantzis &
Cope, 2008, 2012).
Functional literacies pedagogy. This pedagogy is concerned with text and its
social function (Kalantzis & Cope, 2008, 2012). It aims to establish structure and content
in literacy teaching and emphasizes meaning-making. Learners explain the ways texts
deliver meaning to them, and then apply their knowledge of language and meaning
making in social contexts. They are exposed to different types of texts that enable them to
succeed in the real world. Reading and writing take place in three phases, starting with
the modeling phase in which students are exposed to a variety of texts to learn about a
topic and then encouraged to explore different genres. Learners are involved in a joined
“negotiation of a class text” (Kalantzis & Cope, 2008, p. 141) in which they participate in
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a set of activities: observing, researching, interviewing, discussing, and taking notes.
Students subsequently write their own reports in the third phase, guided by the teacher.
They engage in peer conferencing, and critically evaluate their texts.
Critical literacies pedagogy. This pedagogy is one approach to teaching
students “to challenge a text” (Moss & Lapp, 2010, p. 287). It focuses on using or
creating authentic texts that address challenging issues such as discrimination, that are of
particular interest or concern to the learners. Learners, seen as social actors, are
encouraged to raise questions and identify problems. They learn about differences in
language, power, cultures, and new media. This pedagogy aims to assist learners in
understanding how things are constructed by people’s actions, cultures, and values.
Critical literacy “creates a space for modes of expression that have historically been
suppressed and devalued” (Kalantzis & Cope, 2012, p. 181). Learners are engaged with
real-world issues. They are consistently asked to use their critical analysis skills to
analyze and interrogate the purpose of text and give reasons for these analyses. This
pedagogy requires applying higher order thinking.
Didactic literacies pedagogy. This is the traditional approach that is most often
applied in schools. The didactic approach in literacy requires students to learn the formal
rules and correct usage of a language such as how letters and sounds correspond.
Teachers closely follow the syllabus and the textbooks. Students are expected to give the
correct answers. They are engaged in literacy activities such as copying, repetition,
memorization, and applying rules (Kalantzis & Cope, 2012).
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Pedagogical Literacy Practices
Research shows that teachers’ capacity to teach diverse learners can be improved
by combining pedagogical content knowledge with content knowledge pedagogy and
critical pedagogy, the interrelationship of which is presented in Figure 2.
Content knowledge pedagogy. Content knowledge is an important predictor of
student success (Monk & King, 1994). This pedagogy focuses on teachers’ having
adequate knowledge of the subject matter that they teach. As observed by Howard and
Aleman (2008), “Mastery of the subject matter is the most essential aspect of teacher
capacity” (p. 159). It involves teachers having “accurate” command of the language and
being able to communicate it in different and effective ways to diverse learners
(Grossman, 2006). Research shows a connection between a teacher’s mastery of the
subject she/he teaches and his/her student’s achievement (Ball & Bass, 2000). Preservice
teachers can make a positive change in all of their prospective students’ learning by
thoroughly understanding the area they are teaching (Howard & Aleman, 2008). The
National Board for Professional Teaching Standards requires teachers to show their
integration of content and pedagogical knowledge, “ensuring teachers knowledge of
subject matter is not negotiable” (Howard & Aleman, 2008, p. 160). Howard and Aleman
(2008) suggested content knowledge pedagogy because it recognizes student background
knowledge and culture.
Critical pedagogy. This pedagogy involves higher order thinking skills:
questioning, investigating a problem, discussing solutions, analyzing, creating
knowledge, and reflecting (Kalantzis & Cope, 2012). It encourages preservice teachers to
develop a critical stance to challenge biases, such as racism (Nieto, 2000), and engages
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them in reflection of their own practices (Milner, 2003). By adopting this pedagogy,
preservice teachers can help their students develop critical habits to question things
(Parker, 1987) and empower culturally and linguistically diverse students. Beyer (2001)
advocated for critical pedagogy “to focus on the social dimensions and consequences of
educational practice, the ideological meaning of the text . . . and the need to integrate
theory and practice in new ways” (p. 155). Teachers should encourage students to
question things around them, prioritize issues, and identify solutions. All these
pedagogies have proven to be effective for preservice teachers.
Figure 2. Integration of pedagogical literacy practices, content knowledge pedagogy, and critical pedagogy.
Paradigmatic Shifts in Reading and Literacy Leading to New Literacies
Seven paradigmatic, overlapping, and interdependent shifts have been reflected in
reading and literacy research, beginning with the moment of invention and leading up to
the media moment (Robinson, 2005), all of which have influenced the emergence of new
literacies theory. The first three moments were the moment of intervention; the moment
of instruction; and the clinical moment, focused on reading instruction, depth of
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comprehensive instruction, reading achievement, and teacher effectiveness (Duffy, 1983;
Durkin, 1978; Robinson, 2005).
Intervention. During the moment of intervention, Edmund Huey’s Psychology
and the Pedagogy of Reading was published in 1908, and afterwards, educators and
education researchers began to think and reflect on the learning process of reading (Huey,
1908). Thorndike (1917) explained, “Understanding a spoken or printed paragraph is then
a matter of habits, connections, mental bonds” (as cited in Robinson, 2005, p. 114). In
this moment, reading was thought of as an active process. Researchers, such as Allington
(1983), believed that success in reading was determined not only by reading ability, but
also by instruction and individual learning styles.
Instruction. During the moment of instruction, researchers looked for the amount
and depth of comprehensive instruction that teachers provided during reading lessons. In
her classroom studies, Durkin (1978) offered the following definition of comprehensive
instruction: “Teacher does/says something to help children understand or work out the
meaning of more than a single isolated word” (p. 488). Vocabulary instruction was found
to be an important practice in helping students learn to read. Dolch (1936) compiled a list
of words that was present in 75% of all primary school reading materials, such that
learning to spell involved memorization. Other techniques involved phonetics and draft
writing (Sipe, 2005). Reading comprehension itself was seen as an important practice in
comprehensive instruction, leading to the creation of a model of reading comprehension
instruction in which teachers would assume a primary and active role (Pearson, 2005).
Clinical. Prior to the clinical moment, researchers viewed reading achievement as
an outcome produced when certain variables were manipulated in the classroom.
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However, during this clinical moment, researchers focused on observing real classrooms
to gather primary data and gain insights in reading instruction and teacher effectiveness
(Duffy, 1983). One area of importance in the classroom was the reading process itself and
how it has been assessed. Reading tests were used to measure reading ability, but the
results were used in other important areas like class placement, teacher evaluation, and
the choice of reading materials (Robinson, 2005). Teachers themselves played an
important role in the response and remedy to reading difficulties in children. As Betts
(1934) claimed, “Educators, not the parents, are primarily responsible for the early
emphasis on reading” (as cited in Robinson, 2005, p. 208). The clinical movement and its
focus on what went on in the classroom, thus helped researchers see what teaching
methods were truly effective in reading instruction (Duffy, 1983). During this time,
researchers emphasized two of the most important elements in reading: teachers and
students.
As seen in the description above, the first three moments were focused on reading
instruction as an isolated practice. In these moments, there was largely an absence of the
influence of social contexts in ways that are emphasized by new literacies. The focus was
only on the rules of the standard language. Thus, students passively acquired elements of
literacy (e.g., phonic rules, spelling, grammar, reading, writing). This focus corresponded
with the didactic approach, identified by new literacies pedagogy and presented by new
literacies theory (Kalantzis & Cope, 2008; 2012). In the absence of a view of literacy as a
social practice by which teachers could provide students with opportunities to apply
knowledge or skills in different contexts (Street, 1984), this period lacked the use of a
wide range of diverse texts that could have helped students negotiate meaning through
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different contexts and styles (Kalantzis & Cope, 2008). In these three moments, literacy
was about the right usage and representation of meaning but not about communicating
meaning effectively in different settings (Kalantzis & Cope, 2008).
Street (1984) brought a new perspective to literacy; he foresaw it as social change.
Street talked about the autonomous and ideological models of literacy. The autonomous
model indicated that introducing literacy to people enhances their cognitive skills and
economic prospects and helps them become better citizens, despite their social,
ideological, and economic conditions. In contrast, the ideological model highlighted
literacy as a social practice and called for more cultural sensitivity that impacts how
literacy is taught. The ideological model corresponded to the functional, authentic, and
critical approaches of new literacies pedagogy by which learning “varies with social
context, and with cultural norms and discourses” (Street, 1997, p. 48) in more than one
form. The ideological model offered cultural sensitivity. Using this model, instructors
created learning experiences that their students could relate to, use and apply their
knowledge, based on their background and identities (Street, 1984).
Moving beyond the emphasis on reading comprehension, reading instruction,
teacher practices and choice of textbooks, the cognitive, collaborative, critical and media
moments ensued. Street’s (1997) proposition of an ideological approach to literacy,
which aligned closely with social constructivism (Vygotsky, 2005), set the groundwork
for these moments, through which emerged the theory of new literacies (Leu et al., 2004).
Cognitive. Early reading instruction focused on the process of learning to read,
but during the cognitive moment, educators placed more emphasis on teaching students
how to comprehend and understand what they were reading. Dreher and Singer (1981)
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conducted studies in the area of reading comprehension. They tested the instantiation
hypothesis, which posits, “As people read, they spontaneously infer and store
contextually appropriate instance for general terms in sentences” (Dreher & Singer, 1981,
p. 223). They found that college students were able to use their comprehension skill when
they read, but school children were not. These results highlighted the importance of
improving reading comprehension for school children and finding ways to motivate them
to read. The study indicated that teachers play an important role in the development of
their students’ love of reading, and that they must embrace recreational reading
themselves, practice it, and find books that will attract the interests of their students.
Collaborative. According to the collaborative moment of reading, effective
reading was achieved when students could apply those reading skills to a variety of areas
and subjects (Robinson, 2005). For the collaborative moment to occur, both teachers of
reading instruction and specific content areas were required to introduce literacy skills to
their students. Teachers of every school subject and activity were expected to teach
reading and literacy (Robinson, 2005). By building a solid base of reading capability,
students were thought to be able to use reading to improve their content literacy.
McKenna and Robinson (1990) defined content literacy as “the ability to use reading and
writing for the acquisition of new content in a given discipline” (as cited in Robinson,
2005, p. 167). In the collaborative moment, it was thought that students could use their
reading skills outside of the classroom in their consumption of popular culture
(Alvermann, 1990). Students would be expected to develop their critical media literacy
by using their reading skills.
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Critical. The critical moment was a response to the cognitive and collaborative
moments in the form of social media. During the critical moment, a considerable amount
of work was done by schools, administrators, and teachers to put together class
curriculum (Allington, 2002). Allington (2002) explained that the factors most
responsible for the dilemma in reading during this critical moment was the confusion
about the reading requirements of content-based books, the individual reading levels of
students, and the overall lack of support for students in Grades 5-12. It was thought that
the way to curb this textbook discord was through exemplary teaching (Allington, 2002).
Allington studied teachers who had addressed these issues and found that they followed
three practices: (a) used a variety of texts that were written on multiple levels; (b)
accepted feedback from students and offered choice in how lessons were taught; and (c)
individualized their teaching instruction for students.
Media. The media moment describes the current paradigm in the field of research
on reading and literacy today (Robinson, 2005). Many different uses of technology have
been registered in the history of reading instruction (Robinson, 2005). Eye movement-
measuring systems, programmed reading systems, and speed-reading machines have all
been used in this regard. Since the 1970s and 1980s, the computer has established itself in
the reading classroom. However, during this time, teachers only used the computer as an
instrument of supplemental instruction (Robinson, 2005). Today, computers are not the
only technological tools used in the classroom. The ubiquity of the Internet has made
computers more useful and even made other tools, such as mobile phones, essential in
classrooms. These new technologies can help teachers meet the different needs of
students from diverse backgrounds (Balajthy, 2007). During this current paradigmatic
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shift, teachers have been forced to adapt their teaching methods and nurture their
students’ literacy with different technological tools (Smolin & Lawless, 2003).
In the media moment, new technologies have been shown to affect reading
instruction and literacy instruction, thus requiring new literacies to fully utilize these
technologies (Leu et al., 2004). Based on the media moment, the words may be the same
on both a printed page and a digital screen but that does not mean reading and
understanding those words will be the same (Coiro, 2003). The major implication of new
technologies in the media moment for new literacies is that teachers need additional
support in the classroom environment. Professional development for teachers needs to
match the ongoing changes in technology (Sutherland-Smith, 2002).
The media moment, emerging out of the collaborative and critical moments, has
led to an era of a multiliteracies (i.e., new literacies) approach to literacy, which has also
been identified as new literacies/New Literacies (New London Group, 1996). As stated
earlier, new literacies acknowledges traditional reading and writing approaches and
supplements those with new adaptive approaches, which allows learners to make
meaning and communicate meaning using multimodal communications (i.e., linguistic,
spatial, visual, gestural, and audio). This leads to an acknowledgement of the importance
of teaching practices and teacher pedagogical knowledge that align with these forms of
communication.
The media moment saw the importance of adopting multicultural education and
using differentiated instruction to meet all students’ needs. Multicultural education is the
movement towards equity pedagogy, which intends to give equal opportunities to
marginalized and economically disadvantaged students so they can obtain the highest
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standards of academic excellence (Bennett, 2001; Silverman, 2010). Bennett (2001)
suggested the curriculum should include multiple perspectives on and experiences with
various events, detect bias in text and stereotypes, focus on inaccuracies, adopt equity
pedagogy, and center on providing a positive classroom environment. And Cochran-
Smith (2003a) offered a “conceptual structure for interrogating the multiple meanings of
multicultural framework” (p. 8). She focused on multicultural education in the school to
best serve culturally and linguistically diverse students. In her framework, she questioned
how schools serve all students coming from different backgrounds, the knowledge that is
most useful for these students, and the purpose of schooling itself. She recommended the
adoption of a comprehensive understanding of multicultural education, which should
permeate all teacher preparation practices. Banks (2008) also identified five dimensions
of multicultural education, which are content integration, knowledge construction, equity
pedagogy, prejudice reduction, and empowering school culture. Ladson-Billing (1995)
proposed culturally relevant pedagogy. The prevailing belief is that the culturally relevant
pedagogy actually empowers students (Ladson-Billings, 1994).
In the media moment, differentiated instruction has been foregrounded as a
teaching and learning approach that focuses on students. It is a tailored way to teach
learners with “diverse needs and behaviors” (Rock, Gregg, Ellis, & Gable, 2008, p. 39),
and warns that adopting one style of teaching would not work for all learners, especially
ethnically diverse learners. Tomlinson (2004) defined differentiated instruction as
“ensuring that what a student learns, how he/she learns it, and how the student
demonstrates what he/she has learned is a match for that student’s readiness level,
interests, and preferred mode of learning” (p. 188). Stanford and Reeves (2009) further
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proposed a universal design for learning (UDL) literacy framework that emphasizes the
success of the students by requiring teachers to be proactive facilitators, planning diverse
instruction for multileveled learners. The UDL framework, when used in the classroom,
considers “processes of timeline manipulations, performances, presentations, technology
utilization, demonstrations, and experiments” (Rock et al., 2008, p. 6). Teachers plan
instructional formats, including mini-lecture and station teaching centers. Teachers use a
variety of assessments, activities, and teaching styles. The UDL framework builds on the
notion of the teacher–student relationship and on the assumption that this relationship
contributes significantly to student motivation to learn.
All students should have the best available opportunities to learn and to become
active and productive citizens. The frameworks presented in the media moment, as
described above, serve as key approaches that assist students in becoming their best
selves. When teachers adopt these frameworks, they acknowledge individual student
needs, differences, and ultimately, they motivate students to learn elements that build
upon the social constructivist paradigm from which the new literacies theory emerged.
Being literate today, as part of the media moment, means being able to use
multiple sources, especially the Internet. Learners are able to use multiple sources, and
literacy requires them to use the Internet (Leu et al., 2017). Literacy practices are driven
by the changes in social practices and technologies, such as the Internet, as well as public
policy that combine literacy practices and the Internet in instruction (Leu et al., 2017).
Teachers are expected to use various modes of design for teaching content knowledge
that include the linguistic, audio, gestural, spatial, and visual design. As a result, teachers
in the current media moment are required to use a variety of pedagogical teaching
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approaches that are didactic, authentic, functional, and critical to meet the needs of 21st-
century students, who rely heavily on technologies that lend themselves well to new
literacies/multiliteracies.
Pedagogical Content Knowledge
Shulman (1986) introduced the concept of “pedagogical content knowledge”
(PCK) in the mid-1980s. Pedagogical content knowledge refers to the knowledge
required for teaching, which includes content knowledge and teaching methods
(Shulman, 1986, 1987; Wilson, Shulman, & Richert, 1987). Shulman considered PCK as
the foundation for teaching because it combines the knowledge of the subject with the
pedagogy of the teaching process (Shulman, 1986, 1987). PCK is an understanding of the
order composition of concepts, teaching strategies, the student’s prior knowledge, and
subject-specific conceptions and misconceptions (Hill, Ball, & Schillings, 2008; Shulman
1986). Shulman (1987) described PCK as follows: “It represents the blending of content
and pedagogy into an understanding of how particular topics, problems, or issues are
organized, represented, and adapted to the diverse interests and abilities of learners, and
presented or instruction” (p. 8). Zeichner (1988) wrote that teachers develop their PCK
throughout their enrollment in teacher education. PCK is considered a teacher’s
knowledge base about their subject matter and how to make it accessible and
comprehensible to students, using illustrations, examples, and explanations (Carter, 1990;
Depaepe, Verschaffel, & Kelchtermans, 2013; Shulman, 1986). PCK connects content
knowledge and pedagogical content knowledge; pedagogical content knowledge is
defined as the ability to teach both types of knowledge that are used for instruction that
has resulted in successful student outcomes (Baumert et al., 2010; Förtsch, Werner, von
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Kotzebue, & Neuhaus, 2016; Mahler, Großschedl, & Harms, 2017; Sadler, Sonnert,
Coyle, Cook-Smith, & Miller, 2013; Trobst et al., 2018)
According to Shulman (1986), PCK is comprised of three general components of
knowledge: (a) knowledge from subject area teaching; (b) knowledge from representation
of ideas; and (c) knowledge from student understanding of these ideas. In 1987, Shulman
expanded on PCK and suggested seven categories of subject knowledge for teaching that
he considered the base knowledge for teaching: content, pedagogy, learners and learning,
contexts of schooling, educational philosophies, goals, and objectives. Tamir (1988)
extended Shulman’s ideas by including the knowledge of evaluation as an element of
PCK. Grossman (1990) further contributed to Shulman’s and Tamir’s work by adding the
conceptions of: (a) the purpose for teaching a subject matter; (b) curricular knowledge;
and (c) the knowledge of instructional strategies to the conception of PCK. Many
scholars agreed that the critical factor for developing PCK is teaching experience (Gess-
Newsome & Lederman 1993; Van Dijk & Kattmann, 2007).
In contrast to Shuman’s detailed definition for PCK, Kind (2009) defined PCK
holistically, stating, “It represents the knowledge teachers use in the process of teaching.
It is the hidden knowledge” (p. 3–4). Kind’s definition points to the instructor beliefs,
knowledge, actions, and values that are reflected in their teaching that should be
considered when examining PCK. Similar to Shulman’s definition, Abell (2008) believed
PCK includes subject matter knowledge, pedagogical knowledge, and knowledge of
using appropriate instruction. In other words, teachers combine content and pedagogy in
instruction to promote student learning. The teachers’ pedagogical content knowledge
guides the teachers’ practice in the classroom and helps them to develop an interactive
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process in the classroom (Grossman, 1990; Jang, 2011; Shulman, 1986). PCK is
imperative for improving classroom instruction and student achievement (Baumert et al.,
2010; Hill, Rowan, & Ball, 2005; Tröbst et al., 2018) because PCK focuses on the
“knowledge about teaching and learning of the topic” (Bucat, 2005, p. 2). Demonstrating
PCK in the teacher preparation program assists in improving the quality of teachers
(Kind, 2009).
Models of Pedagogical Content Knowledge
It is agreed that teaching knowledge is derived from the teachers’ personal
knowledge, knowledge of the curriculum, and knowledge of professional practice
(Fernández, 2014). Shavelson and Stern (1981) created a model of pedagogical content
knowledge that states that the teachers’ beliefs and conceptions about the subject they are
teaching influence their planning. There are different models of PCK, starting with the
models based on Shulman’s proposals.
Marks (1990) established a model of PCK based on data gathered from eight
primary mathematics teachers. He added media for instruction and used the instructional
process to refer to instructional strategies. Marks (1990) listed student learning
difficulties as student misunderstandings, based on the findings from the data in this
study. He noticed that teachers did not take the mathematical concepts seriously and
teachers focused on pedagogy and important ideas more than on content knowledge.
Teachers were unable to characterize their teaching as an amalgamation of their content
knowledge and pedagogy. Fernández-Balboa and Stiehl (1995) found evidence similar to
that of Marks (1990) with university lecturers. They suggested that PCK should include
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knowledge of subject content, students, and instructional strategies. Fernández-Balboa
and Stehl believed that lecturers’ competence was determined by the knowledge and
beliefs that directed their actions and the decisions. By taking PCK into consideration,
teachers could prepare instructional strategies based on the content to be taught.
Certain models of PCK are employed based on theoretical perspectives. For
instance, Cochran, King, and DeRuiter (1993) believed that teacher PCK is always
changing based on the students’ needs and the teacher environment, requiring teachers to
modify their instructional strategies based on an understanding of students’ needs.
According to this perspective, the teacher environment is influenced by different factors,
including social, cultural, political, and physical factors. In contrast, Veal and MaKinster
(1999) indicated that PCK should be based on a hierarchical structure and that the
components of PCK for teaching science could be classified into four layers. The first
level, at the base, is an understanding of the pedagogical concepts that are applied to
different subjects. The second layer, the one above the base layer, is the subject-specific
PCK knowledge. The third layer, the one below the top layer, is subject-specific or area-
specific strategies. Finally, the last layer, the layer at the top, is the topic-specific PCK
strategies. Extending beyond the two models already presented, Banks, Leach, and Moon
(2005) posed a model of teacher professional knowledge that combines school
knowledge (how knowledge is adjusted for school use), subject knowledge (the teachers’
understanding of how their subjects are organized for teaching objectives), pedagogical
knowledge (the practices and beliefs that inform teachers’ teaching), and the teachers’
personal subject area teaching knowledge (teachers’ beliefs about teaching their subject).
This model focuses on the process of learning.
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Some researchers see PCK differently and have thus proposed different models
based on their research findings, some of which focus on subject matter knowledge
(SMK) within PCK. Both models by Grossman (1990) and Magnusson, Krajcik, and
Borko (1999) identify SMK as a separate category, and posit that teachers use PCK to
translate their SMK to support student learning. These models were created to connect
teaching to curricular knowledge, directing teachers to teach with a purpose in mind.
Grossman based her model on data she had gathered from conducting an empirical study
on the curricular knowledge of English literature teachers. She observed a teacher
assisting students in making connections “between the texts and their lives” (Grossman,
1990, p. 8) and another teacher using strategies only to analyze text. Grossman mentioned
that the teachers’ purposes, “the overarching conceptions of teaching a subject” (p. 8),
inspire their adoption of instructional strategies that contributes to PCK. Grossman added
that curricular knowledge, since teachers used “horizontal and vertical” (p. 9) curricula in
teaching, in essence, is knowing which books are needed to teach different age groups
and the timing by which to teach those books. Magnusson et al.’s (1999) model for
teaching science notes different purposes, which they called orientations, that include
discovery, conceptual change, process, inquiry orientation. Teachers can use different
strategies dictated by the purpose of the study. For instance, using the discovery approach
allows the student to take initiative in searching for information. Koballa, Gräber,
Coleman, and Kemp (1999) added “multidimensional knowledge” (p. 278) to the SMK
model. After they collected data from preservice chemistry teachers, who were preparing
to teach high school in German “gymnasium” schools, they learned that chemistry
knowledge should be the focus of teacher PCK.
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A teacher’s subject matter knowledge has historically been the focus of teacher
education (Shulman, 1986). More recently during the last several decades, research in
teacher education has shifted towards examining the efficacy of methods of pedagogy
that are not related to subject matter content (Ball & McDiarmid, 1990), such as the
assessment of student performance, the use of questions by teachers, and the makeup of
curriculum and assignments. Research in the area has shown that there is a large number
of instructional strategies that also helps increase student achievement, such as pre-
instructional strategies, wait time, manipulatives, concrete examples, and formative
testing (Cochran et al., 1993; Gess-Newsome et al., 2019; Tröbst et al., 2018). In most
instances, these educational issues have been examined in the context of the general
classroom, apart from material that is specific to content.
Pedagogical Content Knowledge and Preservice Teachers
Research has been conducted to examine the effectiveness of PCK for both
inservice and pre-service teachers. For instance, there is evidence that PCK has been
examined with inservice teachers. Ayoubi, El Takach, and Rawas (2017) focused on the
extent to which the inservice chemistry teachers improved their PCK after attending a
professional development training program at the Faculty of Education Training. It is the
general consensus that PCK training impacts both content and pedagogical knowledge,
which further improves student learning. The findings from the study were that PCK
training helped teachers use active teaching approaches and constructivist approaches in
planning student-centered activities. Jang (2011) used an instrument to evaluate college
students’ perceptions of their teachers’ PCK knowledge to assist their teachers in
understanding how they teach. Mulholland and Wallace (2005) indicated that teacher
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PCK requires years of teaching experience. Ayoubi et al. (2017) recommended more
research on teacher PCK knowledge on student learning.
Similarly, research has been conducted on examining the pedagogical content
knowledge effectiveness for preservice teachers, which is the focus of this study. Studies
of preservice teachers’ PCK are on the rise. The context of the studies varies, although
most focus on science, and the methodologies include both quantitative and qualitative.
The current literature documents a variety of trends. In one study, Aydogdu and Celebi
(2017) used a questionnaire to explore the extent to which training teachers in pedagogy
benefits teacher candidates. The results of the study indicated that teacher candidates
recommended that the courses of the teacher training education program be delivered
face-to-face over 4 years of undergraduate education, within eight semesters. Van Driel,
Jong, and Verloop (2002) explored the effect of PCK on 12 pre-service teacher practices.
They found classroom experiences had the greatest influence on PCK development and
positively impacted the preservice teacher knowledge of representation or instructional
teaching and teaching approaches they used. Gee (1996) studied 58 senior-level students,
specializing in science, in the teacher preparation program. Findings from observations,
surveys, interviews, and self-evaluations indicated that students, with their own
interpretation of the interdisciplinary nature of science knowledge, did not practice what
they learned in the teacher preparation program. Few students incorporated innovating
teaching strategies in their science lessons. The study suggested that paper-and-pencil
assessments could not predict what would happen in future classroom practices.
Most research on teacher formation of pedagogical knowledge has been
conducted using qualitative interview methods, (Depaepe et al., 2013; Schneider &
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Plasman, 2011) with limited longitudinal research of individual pedagogical content
knowledge and development (Schneider & Plasman, 2011). For instance, Ball et al.
(2008) explored pedagogical content knowledge in science and mathematics education.
When learning from instruction on pedagogical content knowledge, they concluded that
the actual content knowledge was an important consideration. According to Krauss et al.
(2008), high levels of pedagogical content knowledge were displayed by biology and
chemistry teachers, even though they had limited content knowledge. Content knowledge
helped teachers address common concepts and misconceptions (Halim & Meerah, 2002).
Baumert et al. (2010) and Förtsch et al. (2016) found that teacher pedagogical content
knowledge positively affected the cognitive activation in instruction, which led to
improved student outcomes. Tröbst et al. (2018) conducted an experimental study with
preservice teachers participating in two days interventions of seven hours, learning to
teaching fractions and fractional arithmetic in elementary mathematics education to test
three hypotheses. Hypotheses of this study focused on using a combination of content and
pedagogical knowledge for teachers to construct pedagogical content knowledge.
Considering the challenges that preservice teachers encounter when they start
teaching, Adams and Krockover (1997) examined preservice mathematics and science
teachers’ perceptions about their readiness to teach. They found that teachers lacked
teaching preparation, time management, and classroom management. De Jang’s (2010)
study showed that preservice teachers were anxious to exclusively rely on their own
subject knowledge to prepare lessons on concepts for students. They lacked confidence
and expressed concerns regarding their pedagogical content knowledge. Halim and
Meerah (2002) studied 12 teachers’ utilization of PCK in teaching physics concepts.
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They found that most of the pre-service teachers had misconceptions, much like those of
their students. Lederman, Gess-Newsome, and Latz (1994) reported that the act of
teaching the instruction of combining content and pedagogical content knowledge
promoted pre-service teachers to consider integrating pedagogy with subject matter to
make content relevant and easy to comprehend for students. Simmons et al. (1999)
carried out a longitudinal study of preservice teacher perceptions of their practices in nine
universities. They found that the teachers’ perceptions of their subject matter and
pedagogical knowledge were not consistent with their practice. Preservice teachers were
aware of the good teaching practices for math and science, but their practices did not
mimic those learned in their early years of teaching. Pre-service teachers needed to be
provided with opportunities to practice the concepts they had learned.
Connelly, Clandinin, and He (1997) studied how teacher personal knowledge is
expressed in practical knowledge. They asserted that the teachers’ personal and
professional knowledge and how they express their knowledge were significant to student
knowledge acquisition and teaching practices. The teachers’ knowledge was also
reflected in their work. Gee (1996) examined teachers’ science pedagogical content
knowledge and content knowledge to determine the effectiveness of new teacher
preparation programs. Findings from the study showed teachers encountered a challenge
in “translating theory into practice” (p. 15). Only a few pre-service teachers used
innovative approaches in their science lessons, such as cooperative learning, problem-
solving, and the learning cycle. The rest of the preservice teachers were in the process of
understanding suitable pedagogical content knowledge. Gee explained that the extent of
PCK used in the classroom was related to classroom management and content
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knowledge. Additionally, the lack of available technology in the schools impeded the
delivery of the content.
In regard to pedagogical practices, observations of pre-service teachers were
telling. Kennedy, Ball, and MacDiarmid (1993) stated, “Observations of actual preservice
teachers’ practice reveal . . . how the teacher knowledge and beliefs come together in
making decisions and pedagogical moves” (p. 99). According to responses to the
Capstone Science Survey (Gee, 1996), nine preservice teachers were confident they were
prepared enough to teach science to elementary students even though they failed to show
sufficient pedagogical content knowledge in their teaching. Gee recommended a change
in how undergraduate science courses are taught and a change in the focus on teaching
pre-service teachers, a “conceptual change learning techniques . . . on continuing basis,”
to prevent them from teaching the way they were taught (Gee, 1996, p. 17). Hill,
Schilling, and Ball (2004) also developed a measure of teachers’ mathematics knowledge
for teaching, recommending that mathematical content knowledge be well-planned and
organized to deliver the lesson smoothly and provide clear explanations (Smith, 1985).
Schneider and Plasman (2011) pointed out the importance of teacher reflection for
rearranging ideas and developing their own PCK.
Pedagogical Content Knowledge and Information Technology
Technological pedagogical content knowledge (TPACK) incorporates technology
knowledge into Shulman’s framework (1986) of PCK to address the growing need to
integrate technology into teaching (Mishra & Koehler, 2007). Koehler and Mishra (2005)
defined TPACK as the connection between content knowledge (subject area teaching),
technological knowledge (TK; computer, Internet, digital video, interactive whiteboard),
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and pedagogical knowledge (practices, strategies, methods of teaching and learning).
Teachers play a key role in implementing technology in teaching; thus, they should be
prepared to use technology (Lau, 2018). TPACK originated from the theoretical
framework of PCK (Mishra & Koehler, 2006). Shulman’s definition of pedagogical
content knowledge is that “it represents the blending of the content and pedagogy into
understanding of how particular topics, problems, or issues are organized, represented,
and adapted to the diverse interests and abilities of learners, and presented for instruction
(Shulman, 1987, p. 8).
PCK is concerned with the teachers’ knowledge of pedagogies, teaching practices,
and planning procedures for teaching a subject. TPACK consists of seven constructs:
content knowledge, pedagogical knowledge, technological knowledge, PCK,
technological content knowledge, and technological pedagogical knowledge,
technological pedagogical content knowledge (Apau, 2016; Mishra & Koehler, 2006).
Recent studies have used the TPACK theoretical framework to review pre-service teacher
preparation through coursework, workshops, and experiences with technological, content,
and pedagogical integration to become effective teachers. The TPACK framework has
been used in various areas, such as the use of digital video in K–12 classrooms (Hofer &
Swan, 2008), online teaching and learning (Archambault, 2008; Archambault & Crippen,
2009; Doering, Scharber, Miller, & Veletsianos, 2009), newly established areas of usage
(Angeli & Valanides, 2009), and in higher education field (Lau, 2018; Liu, Zhang, &
Wang, 2015). For instance, Schmidt et al. (2009) created 47 Likert-type items based on
these seven components, reporting high levels of internal consistency and reliability for
each of these constructs, with Cronbach’s alpha between 0.75 and 0.92. According to
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Schmidt et al. (2009), pre-service teacher perceptions of TPACK elements can be
measured by a survey of preservice teacher knowledge of teaching and technology.
Koehler and Mishra (2005) argued:
The concept of TPACK allows teachers, researchers, and teacher educators to move beyond oversimplified approaches that treat technology as an “add-on” instead to focus again, and in a more ecological way, upon the connections among technology, content, and pedagogy as they play out in classroom contexts. (p. 67) Teachers perform a critical role in integrating technology in teaching and learning
(Teo, 2015). In this information era, preservice teachers need to be equipped with the
knowledge, skills, and dispositions to “transform education” (Forkosh-Baruch, 2018).
Evidence from literature illustrates that teacher technological knowledge is a critical
factor that could contribute to teaching effectiveness (Angeli & Valanides, 2009;
Archambault & Barnett, 2010; Chai, Hwee Ling Koh, & Tsai, 2013; Chai, Koh, Tsai,
2010).
Technological Pedagogical Content Knowledge and Preservice Teachers
Teacher knowledge of incorporating content, pedagogy, and technology has
become significant in the 21st century. The integration of technology in the classroom
centers teaching and learning on student needs and allows teachers to focus on the
process of teaching (Garba & Alademerin, 2014). These skills are shown to be
particularly useful for preservice teachers. For instance, Amankwah, Oti-Agyen, and Sam
(2017) used a survey design study to explore pre-service teacher perceptions on campus
teaching practices in the teacher preparation program at the College of Technology
Education of University of Education, Winneba. Findings showed that the pre-service
teaching practice program was critical in assisting pre-service teachers in gaining
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knowledge, skills, and experience. It also set the foundation for their careers and
supported their learning. Preservice teachers indicated they were satisfied with the
program despite the fact they lacked administrative support and faced challenges
resulting from inadequate planning by the administrative team and an absence of teaching
aids. Cruickshank (1996) referred to four components that helped in preparing quality
teachers, which the University of Education in Winneba used in preparing their teachers
to implement the intended curricula: (a) liberal and general studies; (b) content subject
studies; (c) professional and pedagogical studies; and (d) integrative studies.
Some pre-service teachers encounter challenges in applying TPACK for a variety
of reasons. Apau (2016) conducted a study to assess the TPACK of pre-service teachers
in the Department of Arts and Social Sciences Education at the University of Cape Coast
Ghanna. Apau found that pre-service teachers lacked TPACK and recommended that
lecturers continuously model the use of technology for pre-service teachers to observe
and learn how to integrate technology into their teaching. Liu et al. (2011) argued that
technological knowledge is included in the core standards for literacy for the 21st century.
Cuhader (2018) yielded similar results. Preservice teachers specified that their teacher
educators did not model the use of information and communication technologies, thus
they did not receive sufficient training in using these technologies. Koehler and Mishra
(2005) concluded that teachers have inadequate experience in using digital technologies
in education processes, as there is most often a lack of support of technology integration.
Similarly, Brun, and Hinostroza (2014) found pre-service teachers lacked education and
experience of information and communication technology (ICT) integration.
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Educating preservice teachers in using TPACK is imperative in teacher
preparation programs. Deng, Chai, So, Qian, and Chen (2017) recommended that pre-
service teachers need to be introduced to the TPACK framework at the beginning of their
teacher education program. They explained that preservice teachers should be able to
create a holistic understanding and appreciation for courses that are centered on
technology, content, and pedagogy. Additionally, other authors have recommended that
teacher educators design their courses in a way that allows them to model a process of
drawing conclusions and making decisions based on TPACK (Voogt, Fisser, Roblin,
Tondeur, & van Braak, 2013). Harris, Grandgenett, and Hofer (2010) suggested using a
rubric and TPACK surveys to explore how ICT courses improve pre-service teacher
knowledge of TPACK. Harris et al. stated that dimensions of the rubric should include
technological pedagogical knowledge, technological content knowledge, and/or TPACK
elements.
Pre-service teachers engage with digital literacies as they incorporate technology
in the classroom (Burnett, 2011; Niess, 2015). They are expected to utilize ICT in their
teaching (Forkosh-Baruch, 2018). Using digital technologies requires pre-service teachers
to understand their professional identity within a new digital world and the impact of
their pedagogical perceptions and actions. Preservice teachers are required to have ICT
knowledge and skills, to prepare for integrating ICT and pedagogies, and to develop up-
to-date technology curriculum design skills (Deschaine & Sharma, 2015; Niess, 2015) to
assist their students in becoming digital citizens. However, most pre-service education
programs are not successful in preparing preservice teachers to be self-assured in using
ICT in their own classrooms.
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A review of literature focused on the practice of teacher educators to establish a
framework for preservice teachers to use ICT in school settings (Forkosh-Baruch, 2018).
Recommendations for building education programs included building a vision of ICT in
education (Stürmer et al., 2015), a comprehensive curriculum that consists of practicum
and courses, professional development of teacher educators for modeling lessons, and a
technical ICT plan of devices, software, and infrastructure (Forkosh-Baruch, 2018).
Beyond this, the study showed that different factors have contributed to the lack of
success in ushering teacher education into the digital era (Forkosh-Baruch, 2018).
Factors included time limitations in the traditional schedule, teaching paradigms that
were not relevant to current conditions, faculty’s lack of technology skills, faculty’s
negative perceptions toward technology, and misunderstandings of ICT inclusion in
teaching.
PCK and Reading
A number of studies examined pedagogical content knowledge of literacy
strategies to train teachers in the dispositions, knowledge, and practices in different
settings, including their coursework and clinical internships (Cash, Cabell, Hamre,
DeCoster, & Pianta , 2015; Hammerness, Darling-Hammond, Grossman, Rust, &
Shulman , 2005; Kleickmann et al., 2013). Darling- Hammond (2006b) drew a strong
connection between the teachers’ pedagogical content knowledge for using suitable and
adaptive strategies and their ability to produce positive student outcomes. In literacy, this
indicated that teachers need to have a deep knowledge in the following areas: literacy
content, literacy assessments, research-based pedagogies that develop student literacy
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abilities, and when and how to monitor student literacy development (Darling-Hammond,
2006a). Having pedagogical content knowledge means possessing knowledge to make
instructional decisions that are in the best interest of the students (Magnusson et al.,
1999), to follow curriculum maps that include materials, and to adjust the pace of
instruction as needed (Achinstein & Ogawa, 2006; Eisenbach, 2012; Gelfuso & Dennis,
2017).
Teacher preparation programs require at least one literacy course for preservice
teachers from all content areas such as English, science, arts, and agriculture (Romine,
McKenna, & Robinson, 1996). The focus of the literacy course has traditionally been
placed on general literacy strategies such as paraphrasing, note taking, concept mapping
(Romine et al., 1996). Beyond this, a literacy teacher’s knowledge has been identified as
their understanding of the role of language and literacy in disciplinary learning and
socialization. This knowledge is referred to as literacy pedagogical content knowledge
(LPCK). According to Love (2009), LPCK has three components:
Knowledge of how spoken and written language can be structured for effective
learning, recognition that subject areas have their own characteristic language
forms and hence entail distinctive literacy practices, and capacity to design
learning and teaching strategies that account for subject-specific literacies and
language practices. (p. 541)
LPCK is important for literacy preservice teachers since discipline-specific content in
secondary schools is presented using different modalities like technical, abstract,
metaphorical (Fang, Schleppegrell, & Moore, 2014). Helping preservice teachers to
develop literacy strategies will help them develop strategies to cope with the language
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demands of reading and writing in the discipline and help them develop an understanding
of how language and other semiotic practices vary across disciplines (Fang & Pace,
2013).
In other contexts, Draper, Broomhead, Jensen, and Nokes (2012) studied how
literacy teacher educators prepare preservice teachers to support literacy of adults. The
literacy teacher educator in Draper et al.’s study met with the teacher candidates twice
per month. Literacy teacher candidates reviewed existing theories about texts, literacies,
and pedagogies. As a result of these meetings, these preservice teachers implemented
and supported literacy instruction in their courses. Draper et al. (2012) reported that
teacher candidates were more likely to embrace and use literacy instruction when content
teacher educators promoted similar strategies. Kukner and Orr (2015) determined how
preservice teachers were at different levels of PCK after interviewing teachers of math,
science, social studies, and specialties such as physical education, art, and music. Some
preservice teachers showed their willingness to use literacy instructional strategies, and
others shared their unwillingness or inabilities to engage in literacy strategies within their
disciplines in which they are planning to teach. Kukner and Orr concluded the context of
the preservice teachers’ field experience influenced their use of literacy practices. They
added that the preservice teachers’ stance towards using literacy practices is likely to
change within the first few years of their teaching.
Extending the ideas presented by Kukner and Orr (2015), Gelfuso (2017)
examined 26 preservice teachers’ pedagogical content knowledge of literacy and agentive
identities. Preservice teachers were required to complete three literacy courses. The study
highlighted how the intentional language, structure of the class, and opportunities created
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for preservice teachers helped them use PCK and develop agentive identities.
Additionally, the study indicated the importance of creating “wiggle room” (Bartlett,
2012), in which the preservice teachers could demonstrate what they know about literacy
teaching and learning to the teacher educators. For this to be successful, preservice
teachers needed to believe that the teacher educator was not evaluating them but was
there to support them in using LPCK (Gelfuso, 2017). According to Gelfuso, the wiggle
room space is an “opportunity for preservice teachers to engage in guided, imaginative
thinking” (p. 45). It is also the space and time “devoted to preservice teachers rehearsing
professional language and constructing PCK, with guidance, as they notice and name
significant aspects of their field experiences” (Gelfuso, 2017, p. 45).
As shown, teacher education has focused extensively on PCK, primarily in regard
to science. These studies examined the preservice teachers, their pedagogical content
knowledge, and their literacy content knowledge. The predominance of literature on PCK
in reading reflects that a gap does exist in researcher on PCK of preservice teachers in
teaching their content within teacher preparation programs.
The Use of New Literacies in the Classroom
Literacy and the Internet are becoming integrated under the paradigm of New
Literacies. New literacies can motivate disadvantaged students in the K–12 classroom to
build their identities by expressing their voices and their points of view in multiple ways,
such as with written, visual, audio, spatial, or gestural meanings (Kalantzis & Cope,
2012). New literacies enable students to read a wide range of texts, including digital and
traditional texts (Moss & Lapp, 2010). The teacher’s role in authentic learning, therefore,
should be to facilitate meaning-making, based on the use of these texts, in the learning
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environment. Student background knowledge is a key for their success. Students must
possess both the computational skills and literacy skills to critically examine a problem,
identify relevant and irrelevant information, and choose a problem-solving strategy
(Kalantzis & Cope, 2012). When new literacies are incorporated into classrooms,
students are provided with multiple ways and opportunities to engage in the lessons at
hand. Higher levels of engagement and participation then result in higher academic and
literacy achievements.
New literacies affect meaning making because it allows students to be responsible
in developing their own meanings regarding the information they are presented or tasked
with learning (Cope & Kalantiz, 2015). The similarities that exist across modes of
representation are the fact that these modes are open for anyone to use, which in turn
allows for a very diverse atmosphere of information and communication. Similarities
that exist among modes also allow for connections to be made that would never occur
without these modes. As a result of multimodal meaning making, we are presented with a
vast expanse of ideas that go far beyond that of a traditional textbook. Multimodal
meaning making allows students to cultivate a much more original stance on a topic
(New London Group, 1996).
New literacies mean many different things to many different people (Leu et al.,
2017). Teachers need to use electronic text to encourage their students to use critical
thinking skills that they will need to read, manage, organize, and evaluate text. Teachers
need to provide their students with texts with a wide range of complexity. It is important
for students to determine the author’s perspective by using new literacies pedagogies
such as critical literacy. Teachers are encouraged to use different new literacies
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pedagogies mentioned above to support a range of technology tools that they could use in
classroom instruction such as VoiceThreads. However, students need to learn procedural
knowledge before they use a virtual tool such as Glogster. They need to examine the
images and videos and make sure they present a unified message. Concurrently, teachers
need to assess the students’ reading and writing and provide differentiated instruction
(Karchmer‐Klein & Shinas, 2012). Teachers can promote the use of visual aids by
displaying information and using graphs to organize information to detect patterns in the
data. Teachers facilitate student learning by providing them with different resources and
guiding student in gathering, comprehending, evaluating, and communicating
information to conduct research in order to solve problems (Leu et al., 2017). Students
can use social networking to voice their arguments, engaging in collaborative
environments to address different issues, and solve problems (Andriessen, Baker, &
Suthers, 2003; Beach & Doerr-Stevens, 2011; Zhang, Beach & Sheng, 2016).
Teachers need to expose their students to different genres to help them gain
knowledge and find their own interests in books. Learning must connect to the real world
(Anderson, 2004). Students are more motivated when learning is more relevant to them.
Using new literacies in online reading comprehension emphasizes using higher
order skills such as analysis, synthesis, and evaluation (Coiro & Dobler, 2007). Acquiring
reading skills from different genres will help students apply those skills across the
curriculum of other areas. Teachers should provide a variety of materials to encourage
reading and promote investigation (Fisher & Frey, 2012). Adopting new literacies helps
students become critical thinkers, independent, and problem solvers.
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The Significance of New Literacies to Preservice Teachers in Teacher Education
Using new literacies in the classroom helps all students with different individual
abilities, specifically students who come from diverse backgrounds. According to the
National Center for Education Statistics (n.d) in the United States, the percentage of
English learners grew in 2014–2015 to 9.4%, which is approximately 4.6 million
students. However, only one in eight teachers has been shown to be prepared to work
with culturally and linguistically diverse students (McCloskey, 2002), and the latest
findings suggest that some challenges exist in the integration of language and linguistic
diversity into teacher education, which stems from the following issues: limited policy
support, lack of faculty proficiency in English language learning, and program
constraints. Li (2017) proposed that teacher preparation programs focus on cultural
diversity to prepare teachers with “sociolinguistic complexities” in the classrooms.
Maxwell, Hilaski, and Whelan-Kim (2018) indicated that teachers need to be well-
equipped with knowledge pertaining to instructional strategies, learning differences, and
language and cultural impacts, and they recommended to extend field placements for
preservice teachers and use the professional development school model to improve the
teacher preparation programs. Despite the changes in the school demographic population,
deep content knowledge is the focus of teacher preparation (Ball et al., 2008; Darling-
Hammond, 2006b; Gess-Newsome et al., 2019). In 1913, Franklin Bobbit argued that
teacher knowledge acquisition needs to be continued throughout their entire service
(Howard & Aleman, 2008). Risko and Vogt (2016) proposed a professional learning
approach to address the needs of teachers and to respond to the changes in education.
The framework by Chicago educators, Gillette and Schultz (2008), also indicates that
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preservice teachers need to attain a base of content knowledge in multicultural education.
Beyond this, teachers need to develop critical thinking skills to be able to help their
students be successful (Grant, 2008). There exists a spectrum of teacher capability that
has been identified: (a) knowledge—pedagogical content knowledge, curriculum
pedagogy, educational foundations context; (b) craft skills—planning, organizing,
conducting instruction, using instructional materials and technology, and monitoring and
evaluating; and (c) dispositions—beliefs, attitudes, and values (Howard & Aleman,
2008).
Darling-Hammond (2006a) asserted that teachers need to provide students with
“flexible” knowledge and opportunities to apply what they have learned and teach them
problem-solving skills. She advocated for a “strong, universal teacher education” (p. 5)
and for preparing teachers for a responsive practice. Some preservice teachers encounter
challenges due to their limited cultural knowledge and disconnection between theory and
practice (Borrero, Flores, & De La Cruz, 2016; Risko et al., 2008). Other challenges
include preservice teachers’ weak content knowledge and inconsistent supervision of
teachers in training (Darling-Hammond, 2006b).
The pedagogical literacy practices, beliefs, and knowledge in new literacies form
a framework for planning and conducting lessons on new literacies with preservice
teachers. Informing preservice teachers about the new literacies practices through the
pedagogical lens would set the foundation for preservice teachers to learn about new
literacies. What do preservice teachers need to know and what do they need to do with
new literacies? This is the guiding question that assisted me in forming a procedural plan
for planning the survey that would assess preservice teachers’ pedagogical content
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knowledge of new literacies. First, I present the pedagogical holistic model of new
literacies based on the literature reviewed in this work.
Pedagogical Holistic Model of New Literacies
Indications in the literature regarding new literacies, critical pedagogy, content
knowledge pedagogy, and pedagogical content knowledge suggest that links exist
between theory and pedagogy. The pedagogical holistic model of new literacies presented
in Figure 3, developed based on these indications, is seen in the diagram to be
undergirded by social constructivism. This model suggests that teachers use different new
literacies approaches—didactic, authentic, critical and functional approaches—based on
critical, pedagogical, and content knowledge, which are themselves steeped in social
constructivism, to reach all learners with diverse abilities. This model appears to be
useful for understanding how teachers can be guided to use different modes of design
based on meaning making and representation within and across linguistic, visual, audio
spatial, and gestural designs. The model emphasizes how the modes of design encourage
teachers to pay attention to the classroom dynamics, resources, materials chosen, and
their own body language in a way that serves all students’ needs when planning and
delivering instruction. This model appears to serve as a bridge between theory and
practice for teachers of any discipline and particularly for teachers being prepared to
teach literacy. Specifically, this model, based on the literature, may be used in teacher
preparation programs to frame or to extend conceptions of assessment of preservice
teacher knowledge and practices as they undergo their student teaching, based on their
specialized content knowledge in their various fields.
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Figure 3. Pedagogical holistic model of new literacies.
Surveys Used in the Field
A search for survey instruments for measuring preservice pedagogical knowledge
of New Literacies revealed no existing surveys. However, there are 59 surveys with the
following categories identified: new literacies/multiliteracies; preservice teachers’
knowledge of new literacies; digital literacies; and literacies. The surveys identified drew
from the following categories: (a) Shulman’s (1986) theory of teacher pedagogical
content knowledge, which consists of knowledge of content, teaching strategies,
classroom management techniques, education, and values; (b) New literacies concepts
that bridge traditional literacies with multiliteracies by which learning is focused around
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social and cultural activities, and the text is delivered in different modes of representation
(linguistic, visual, audio, spatial, and synesthesia; Kalantzis & Cope, 2012); (c) literacy
pedagogy that acknowledges student languages, cultures, interests and priorities (Gee,
1996; New London Group, 1996); and (d) technological pedagogical content knowledge
that integrates content knowledge, technological knowledge (e.g., computer, internet,
digital video) and pedagogy knowledge (practices, procedures, and strategies of teaching
and learning; Koehler & Mishra , 2005).
Some of the instruments developed for preservice teachers that combined
pedagogy, literacy, and technology are: (a) Survey of Preservice Teachers’ Knowledge of
Teaching and Technology; (b) A National Survey of Barriers to Integrating Information
and Communication Technologies into Literacy Instruction; (c) A Comparison of
Inservice and Preservice Teachers’ Technological Pedagogical Content Knowledge Self-
Confidence; (d) Teachers Beliefs Survey; (e) Engage Me: Using New literacies to Create
Third Space Classrooms that Engage Student Writers; and (f) Understanding New
Literacies for New Times: Pedagogy in Action (see Table 1).
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Table 1
Surveys Used in Literacy, Pedagogy, and Technology
Domain Study Title Authors Instrument Findings
Literacy The Reading Habits and Literacy Attitudes of Inservice and Prospective Teachers
Steven Nathanson John Pruslow Roberta Levitt (2008)
The Literacy Habits Questionnaire
Findings suggest: • Reading literacy present but no
interest in reading for pleasure. • Graduate Students understood that
teachers should read for themselves, but they did not practice personal reading.
• The results of the study suggest more can be done to promote personal reading with literacy instructors.
Who Educates Teacher Educators About English Language Learners?
Zaline M. Roy-Campbell (2013)
This study presents the findings of a survey on the preparation of teacher educators in the literacy field for preparing general education.
• The survey gives insight on the level of preparation that literacy teachers receive prior to working with ELL students. According to the results, ELL students would benefit more if their teachers received more received more focused training. The findings of the survey validates the current literature on this field.
• The study findings suggested that the respondents had limited experience or exposure to ELLs. Only 12% said they earned TSEOL degrees or Bilingual Education certification programs, and only 18% completed ELL coursework. However, 61% or more than half of the respondents admitted that they were exposed to ELL issues at conferences or professional development workshops.
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Table 1 Continued Domain Study Title Authors Instrument Findings
Literacy Helping English Language Learners: Preparing Teachers to Promote Critical Thinking and Language Acquisition
Myra Daniel, 2008
2005 Illinois Colleges Teacher Graduate Survey
• The percentage of first-year teachers who felt they were adequately prepared to work with English Language Learners was under 60%. Making literacy a priority and a biliteracy, the knowledge of second language acquisition, were two of the recommendations given by the study.
Literacy Curricula And Assessment: A Survey Of Early Childhood Educators In Two States
Karen L. Gischlar Joanne P. Vesay (2018)
Early Childhood Literacy Curricula and Assessment.
• The results of the study revealed that many teachers used general or literacy curriculum, even though those programs lack the research to prove how effective they really are.
• Considered to be unsound psychometrically. It can potentially show that they are not precise indicators of progress among students.
Teachers’ Use of Technology to Support Literacy in 2018
Irene Picton April 2019
Survey included many factors at play when using technology to support learning
• The survey revealed that a large number of teachers believed that technology was a productive teaching aid for promoting student access and amusement of both established and innovative tools of literacy.
• There were twenty-eight (28) parts
revealed to specific uses of technology. These included developing seamless learning from the classroom to the house. Nevertheless, some of the biggest challenges to those intending to use technology for literacy learning included hardware and software access, Wifi availability, and the obtainability of training.
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Table 1 Continued
Domain Study Authors Instrument Findings
Literacy Surveying preschool Teachers’ Use Of Digital Tablets: General And Technology Education Related Findings
Anna Otterborn
Konrad Schönborn
Magnus Hultén (2018)
Teachers’ use, experiences and opinions concerning digital tablets (e.g. iPads) in preschools, with an added focus on technology education survey.
• The survey showed high engagement level with computer tablet use in pre-schools, specifically with skills that involved in a variety of subjects and skills. The technology subject areas for the tablet activities included problem-solving, invention, design, construction and creation, and programming.
New Literacies
Understanding New Literacies for New Times: Pedagogy in Action
Potts, Schlichting, Pridgen & Hatch (2010)
The use of Digital Media and Online Environments to meet the 21st Century Standards Survey
• The students interacted among themselves in a significant way when digital storytelling was integrated into the daily literacy plan.
Engage Me: Using New Literacies to Create Third Space Classrooms that Engage Student Writers
Dredger, Woods, Beach, Sagstetter, 2010
Motivation to Write Out of School (Not for school assignments) Survey
• The survey results revealed a gap existed between student motivation for writing in school and the reasons they write when not in school. Based on these results, it could be assumed that English teachers can create a “third space” were literacy techniques could be incorporated into the school curriculum.
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Table 1 Continued
Domain Study Authors Instrument Findings
New Literacies
Reclaiming “Old” Literacies in the New Literacy Information Age: The Functional Literacies of the Mediated Workstation
Ryan Shepherd and Peter Goggin (2012)
Two informal surveys were conducted on writing instructors’ knowledge of computer peripherals and security.
• The surveys suggest that writing teachers might want to reevaluate functional literacies and its roles in the classroom. Functional technological literacy a necessity for today’s educators. This fact is supported by the continually changing technological infrastructure and the importance of teachers who are instrumental in the future of mediated education.
Composing with New Technology: Teacher Reflections on Learning Digital Video
David L. Bruce and Ming Chiu (2015)
Open-ended Survey on using Cechnologies in the classroom
• The results of the survey showed that there exists a great need for teachers to engage in hands on experiences with digital video (DV) and also schedule moments for content reflection and applications of pedagogy.
• Teachers who had previously finished projects said they felt more confident using technology and displayed more advanced practices than single user groups.
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Table 1 Continued
Domain Study Authors Instrument Findings
New Literacies
The Use of E-Books In New Zealand Primary Schools
Katie Bainbridge* and Brenda Chawner (2012)
Using a survey, this study examined the extent to which e-books are being used in New Zealand primary schools, what influences teachers to use them, and what obstacles prevent their use in this context.
• While the study found that interest in using e-books was high among respondents, only 23 or 30.3% really used e-books. There were many obstacles identified as reasons for not using them which included: a lack of training on using e-books, the need for higher quality curriculum materials and lesson plans, and the low e-book awareness and a knowledge of how to acquire them.
• In the questionnaire, the technology section received positive feedback. The respondents had positive attitudes towards computers and technology because they see them as important teaching tools, stating that they can be modified to assist a variety of teaching methods. On the other hand, respondents had inconsistent results when trying to list specific benefits of computers and technology.
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Table 1 Continued
Domain Study Authors Instrument Findings
New Literacies
New Technologies, Multiple Literacies and Teaching English as a Foreign Language
Silene Cardoso (2018)
Online questionnaire using new literacies in the classroom
• With these teachers, the use of new technologies appears to be part of their normal teaching methods, but it was undetermined if their use signified new, advanced teaching methods. It appears as if specific direction, appropriate training, and the creation of up-to-date materials must be applied if new technologies are to be integrated into the EFL classrooms.
• Through their answers, survey respondents suggested the technology could help their teaching and help improve the language skills of their students. When asked in the survey which skills (listening, writing, reading, speaking, cultural awareness, and critical thinking) they believed to be most developed by technology, teachers stated speaking or conversations. 40% of respondents felt that technology could help in vocabulary building, grammar consolidation, and learning.
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Table 1 Continued
Domain Study Authors Instrument Findings
Technological pedagogical and content knowledge (TPACK)
A comparison of in-service and pre-service teachers’ technological pedagogical content knowledge self-confidence
Fatih Saltan and Kürşat Arslan (2017)
A survey on teachers’ self-confidence scores on their technological pedagogical content knowledge and content knowledge
• Both pre-service and in-service teachers displayed high self-confidence levels in the domain of technological content knowledge, according to the results. However, both groups had different areas strengths and weaknesses. Pre-service teachers scored lowest in TPACK, but in-service teachers scored lowest in technological knowledge. Also, pre-service math teachers had lower TPACK scores than pre-service science teachers, but the level of in-service ICT teachers’ TPACK level was higher than science, math, and classroom teacher’s levels when the TPACK, pedagogical content knowledge (PCK), and technology knowledge (TK) domain was considered.
Survey of Preservice Teachers' Knowledge of Teaching and Technology Examining Preservice Teachers' Development of Technological Pedagogical Content Knowledge in an Introductory Instructional Technology Course
Denise A. Schmidt, Evrim Baran, and Ann D. Thompson Matthew J. Koehler, Punya Mishra, and Tae Shin (2009)
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Table 1 Continued
Domain Study Authors Instrument Findings
Technological pedagogical and content knowledge (TPACK)
Social network sites with learning purposes: Exploring new spaces for literacy and learning in the primary classroom
Patricia Thibaut (2015)
This paper seeks to understand how primary school teachers and students in Year 6 have been using a social network site with learning purposes called Edmodo in their everyday school practices, and whether or not its use supports learning and new literacies using a survey and interviews.
• The findings of the research indicated that using a social network platform can create opportunities in which teaching and learning can be expanded. This includes students interacting in digital practices of multimodal literacy and participating in self-directed learning and peer-teaching. These teaching methods yield benefits that are different than those gained in the traditional classroom space. By combining the physical and online classroom, the potential classroom benefits can be increased.
Relationships between Pre-service Teachers’ Social Media Usage in Informal Settings and Technological Pedagogical Content Knowledge Education
Lau, W. W. (2018)
Technology knowledge survey and items assessed the seven knowledge components TK, CK, PK, PCK, TCK, TPK, and TPACK.
• The survey was based on a sample made up of Hong Kong pre-service teachers. The results found that the rate of media sharing was a major positive indicator of technology knowledge and technology teaching knowledge, but the sharing of Internet searches or video games was not an indicator of any TPAC areas.
Among these instruments, there was a focus on technology knowledge, content
knowledge (social studies, mathematics, science, and literacy), pedagogical knowledge,
pedagogical content knowledge, technological content knowledge, and technological
pedagogical content knowledge (Bainbridge & Chawner, 2012; Bruce & Chiu, 2015;
Cardoso, 2018; Lau, 2018; Saltan & Arslan, 2017; Schmidt et al., 2009; Shepherd &
Goggin, 2012; Thibaut, 2015). Most surveys used the Likert scale, and were focused on
improving students’ literacy skills by providing them with different tools, such as
technology, technological applications, peer collaboration, and differentiated instruction
(Lau, 2018; Schmidt et al., 2009). The survey results indicated a common
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recommendation, which was providing teachers with more training to better prepare
them for teaching and improve their content knowledge. The results of the surveys
showed that teachers are open to using technologies in the classroom; however, many of
them lack the knowledge of how to use technologies effectively. Similarly, the surveys
focused on the pedagogy of teaching and supporting students’ interests and needs.
Differences were evident among the literacy, new literacies, and TPACK surveys.
The literacy surveys focused more on assessing teachers’ language skills and knowledge
(Gischlar &Vesay, 2018; Otterborn, Schönborn, & Hultén, 2018; Picton 2019). Most of
the studies in this area recommended providing different courses for preservice teachers
and professional development training for inservice teachers on strategies for teaching
reading and writing. The survey results recommended providing more content and
pedagogy courses for preservice teachers in the teacher preparation programs. However,
the new literacies surveys focused on the tools used to support the students’ knowledge
and learning, such as iPads and e-books (Otterborn et al., 2018). The results of these
surveys suggest that teachers need more training in planning and implementing lessons,
using different modes of new literacies. The TPACK surveys focused mostly on
assessing teachers’ experience and confidence in using different technologies in the
classroom (Lau, 2018; Saltan & Arslan, 2017). The results reflect that schools need to
provide more technical support for teachers in the area of technologies used to support
new literacies.
Summary
Chapter II provided a review of literature on constructivism, the paradigmatic
shifts that led to new literacies, the pedagogical content knowledge, the new literacies
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pedagogies, the empirical studies on preservice teachers and new literacies in the field of
teacher education, the models of pedagogical content knowledge, and an overview of
surveys that have been developed and used to examine constructs similar to those
examined in this study. This chapter also highlighted the relationship between theory and
practice that undergirds an assessment of new literacies. Social constructivism and new
literacies were used in this chapter as a framework for this research study, and the
importance of preparing preservice teachers for using pedagogical content knowledge and
integrating new literacies in the K-12 classroom were outlined. Based on the literature,
the pedagogical holistic model of new literacies was proposed. Additionally, based on the
search for surveys among the literature, no surveys of preservice teachers’ pedagogical
content knowledge of new literacies appeared to exist. Notwithstanding, this literature
review as well as elements of pre-existing surveys provide a clear basis from which to
develop survey items that assess preservice teachers’ PCKNL in the current work.
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CHAPTER III
METHODOLOGY
This chapter addresses the purpose of the study, research questions, study design
(procedures, item selection, survey administration, sampling, etc.), quantitative and
qualitative data analyses, and the researcher’s positionality in this study.
Purpose and Objectives
This study was conducted to develop and analyze an instrument, titled the
Pedagogical Content Knowledge of New Literacies (PCKNL) survey, designed to
measure the extent to which preservice teachers in a teacher education program possess
knowledge of how to teach new literacies in their classrooms. The concepts of the target
constructs were identified through three sources: (a) literature on pedagogies, theory, and
new literacies; (b) existing surveys on pedagogical content knowledge (PCK) in literacy
and technological content knowledge; and (c) previous empirical studies on new
literacies in the classroom. The PCKNL survey will enable instructors of preservice
teachers, nationally and internationally, to reliably measure and evaluate preservice
teachers’ PCK of new literacies. I sought to quantify and verify qualitatively preservice
teacher preparation, using different modes of new literacies, including linguistic, gestural,
visual, audio, spatial, synesthesia modes. The results of the survey will guide instructors
in prepare teachers to meet K-12 students’ needs in the 21st century. The specific
objectives of this study are:
1. Identify the constructs of pedagogical content knowledge of new literacies,
using different forms of meaning making in existing surveys and the
literature;
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2. Draft and refine items for each construct, using the modes of new literacies;
3. Have an expert peer confirm that the constructs are clear and are measureable;
4. Establish the content validity of the survey through a review by experts in the
field of new literacies;
5. Determine the construct reliability of the survey through statistical analysis;
and
6. Answer the research questions.
Research Questions
To achieve the purpose of the study, the following research questions were
formulated:
1. Can preservice teachers’ pedagogical content knowledge of new literacies be
measured reliably?
2. What is the pedagogical content knowledge of new literacies reflected by pre-
service teachers?
Research Design
The research questions will be addressed by using survey methodology (Baumann
& Bason, 2011). The term survey “is used most often to describe a method of gathering
information from a sample of individuals” (Scheuren, 2004, p. 9). Survey research
involves collecting information, and it is “powerful in producing statistical
generalizations to large populations” (Groves et al., 2009, p. 406). I used a technology-
enhanced survey, which was disseminated to the targeted population through the Internet.
This required creating sample lists of the targeted population from different resources,
such as literacy professors who have the email addresses of their students, the targeted
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popluation. Having access to the email addresses of those in the targeted population who
have access to the Internet is considered an effective approach to recruiting participants
(Dillman, Smyth, & Christian, 2016). The advantages of using an online survey are low
cost and speedy returns of responses.
To develop the items of the PCKNL, the pedagogies of new literacies were
identified, and the modes of meaning making were explored. A review of the literature on
new literacies, pedagogies, theories, and applications was conducted to write the second
chapter of this dissertation and informed the development of the items of the six domains
presented in the PCKNL. My teaching experience assisted in defining additional items of
the PCKNL survey.
The first step involved identifying the constructs of new literacies by conducting
database searches of PsycTest, ERIC, Google Scholar, Dissertation Proquest, PscyhInfo,
JSTOR, and Communication Source. A table was created for each of the databases to
record: search term, number of articles, limiters (peer reviewed), range date, and search
date. The combinations of terms used to search for surveys include survey/questionnaire
+ teacher education; survey/questionnaire + teacher's knowledge; survey/questionnaire +
teaching strategies; survey/questionnaire + teacher methodology; survey/questionnaire +
pedagogical content knowledge; survey/questionnaire + preservice teachers or student
teachers or pre-service teachers + knowledge; survey/questionnaire + preservice teachers
or student teachers or pre-service teachers + method; survey/questionnaire + preservice
teachers or student teachers or pre-service teachers + literacy; survey or questionnaire +
teaching strategies or teaching methods; survey or questionnaire + teaching strategies or
teaching methods + literacy; survey or questionnaire + new literacy studies + multimodal
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+ survey or questionnaire + modes; spatial learning + survey or questionnaire + modes +
survey or questionnaire spatial + classroom + survey or questionnaire + space +
classroom environment; pck or pedagogical content knowledge + communication +
visual; pck or pedagogical content knowledge + communication + survey or
questionnaire; multimodal + survey or questionnaire + literacy; survey + preservice
teachers or student teachers or pre-service teachers + pck or pedagogical content
knowledge; survey + preservice teachers or student teachers or pre-service teachers +
knowledge survey scale + preservice teachers or student teachers or pre-service teachers
+ literacy; survey + pedagogy content knowledge; survey scale + pedagogy content
knowledge (see Figure 4). Figure 4 includes the keywords that were used to search for the
survey articles.
Figure 4. Word cloud of the keywords used in the searches.
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Table 2
Example of the Documentation of the Search for Surveys in Different Database
Link Search Search Term
(Advanced Search) No of Articles Limiters Data Range Database Search Date
http://eds.a.ebscohost.com.lib-e2.lib.ttu.edu/ehost/resultsadvanced?vid=3&sid=bd40a797-7c12-46fb-890e061fabae0e31%40sessionmgr4007&bquery=(survey)+AND+(preservice+teachers+OR+student+teachers+OR+preservice+teachers)+AND+(pck+OR+pedagogical+content+knowledge)&bdata=JmRiPWV1ZSZ0eXBlPTEmc2l0ZT1laG9zdC1saXZl
Survey+ preservice teachers or student teachers or pre-service teachers+ pck or pedagogical content knowledge
156 Peer Reviewed
1993–2018 Education Source
28-Jul-18
http://eds.a.ebscohost.com.lib-e2.lib.ttu.edu/ehost/resultsadvanced?vid=15&sid=bd40a797-7c12-46fb-890e-061fabae0e31%40sessionmgr4007&bquery=(survey)+AND+(preservice+teachers+OR+student+teachers+OR+preservice+teachers)+AND+(knowledge)&bdata=JmRiPWV1ZSZjbGkwPVJWJmNsdjA9WSZ0eXBlPTEmc2l0ZT1laG9zdC1saXZl
Survey+ preservice teachers or student teachers or pre-service teachers+ knowledge
1,087 Peer Reviewed
1993–2019 Education Source
28-Jul-18
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The constant comparative method was used to identify the new literacies domains
from the literature (Glaser, 1965; Strauss & Corbin, 1994). The standards of new
literacies pedagogies and modalities were scrutinized multiple times. In addition to
reviewing the literature of new literacies, preservice teachers’ surveys on the web were
monitored for eight months to make sure that I reviewed all the surveys. A group of
tables (see Table 3 for an example) was used to organize the new literacies literature and
surveys and the literature on PCK and technological and pedagogical content knowledge,
each of which facilitated the analysis. More than 90 studies were identified, and data
from those studies were organized into the following categories: theoretical background,
predictor, gap spotting, purpose of the study, participant information, setting,
methodology, findings, argument, and notes.
NVivo (Version 12), a qualitative data analysis software, was also used to analyze
the literature and create codes that helped in writing the first two chapters of this
dissertation. Some of the codes used to write the literature on new literacies used were:
pedagogy, new literacies definition, epistemological shifts, knowledge of teaching
reading, modes of meaning making, challenges, and new literacies as a social paradigm.
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Table 3
Example of Article Analysis
Study Theoretical Background Predictor
Purpose of Study/Research
Questions Participant Information
Setting/ Country Methodology Key Findings References
Understanding New Literacies for New Times: Pedagogy in Action
N/A Two teachers reflect on their teaching and change their teaching pedagogy
To emphasize the complexities involved in the integration of technology within literacy instruction for a teacher, and to provide a context for our study, we pose the following questions: • How do teachers weave new literacies within their pedagogical practice? • What do teachers perceive to be the benefits of implementing new literacies in their pedagogical practices in relationship to literacy development?
Two teachers
USA Case study Incorporating digital storytelling into my student’s everyday literacy experiences allowed them to engage with each other in a more meaningful way. They learned how to work well with others as they learned new skills and new ways to utilize technology to enhance their literacy development. This project provided an avenue for children of all abilities to be involved, to have a role, and to be successful.
Potts, A., Schlichting, K., Pridgen, A., & Hatch, J. (2010). Understanding new literacies for new times: Pedagogy in action. International Journal of Learning, 17(8).
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After the analysis of the reviews was completed, another table was constructed
(see Table 4) to define (a) the new literacies pedagogical approaches: authentic literacy
pedagogy, didactic literacy pedagogy, functional literacies pedagogy, critical literacy
pedagogy; and (b) modes of meaning making: linguistic, gestural, visual, audio, spatial
meaning, and synesthesia.
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Table 4
Defining Pedagogical Approaches and Modes of Meaning-Making
New Literacies Pedagogical Approaches Modes of Meaning Making
The authentic literacy pedagogy is a student-centered approach. It focuses on
learning by doing, derived from student interests. Teachers facilitate the learning
process for the students, and they guide them through questioning. It promotes
natural growth of using the language starting with speaking the language.
Students take ownership of their learning and are considered social actors
(Kalantzis & Cope, 2012).
Synesthetic approach: is used for pedagogical support for learning to read and
write. Knowing how to represent and communicate things in multiple modes to
get a deeper understanding of things (Kalantzis & Cope, 2012).
The didactic literacy pedagogy is a teacher centered learning. Teachers use
textbooks or syllabus transmit the rules of language to passive learners. Learners
just copy, repeat, memorize, follow and apply rules (Kalantzis & Cope, 2012).
Gestural meanings are expressed in bodily appearances, movement, and
positioning. They are multi-layered, connected to behavior, feeling effect, and
gesture. It includes body spacing (posture), bodily movement (feelings of
motion), and gaze (gestural meets visual meaning) (Kalantzis & Cope, 2012).
Functional literacies pedagogy is concerned with text and its social function. It
aims to establish structure and content in literacy teaching and emphasizes on
meaning making. Learners explain the ways texts deliver meaning to them, and
then they apply their knowledge of language and in social contexts. They are
exposed to different types of texts that would enable them to succeed in real
world (Kalantzis & Cope, 2012).
Critical literacies pedagogy is one approach to teaching students “to challenge a
text” (Moss & Lapp, 2010, p. 287). It focuses on using or creating authentic
texts that address challenging issues, like discrimination that are of interests or
concerns to the learners. Learners are seen, as social actors where they are
encouraged to raise questions and identify problems. They learn about
differences in language, power, cultures, and new media. This pedagogy aims to
assist learners to understand how things are constructed by people’s actions,
cultures, and values (Kalantzis & Cope, 2012).
Spatial meanings are proximity and movement that are shaped in the places we
live. Spaces have meaning based on the functions and meanings designed by
people, “spatial communication includes giving directions, making maps,
drawing plans, creating models, and diagramming flows” (Kalantzis & Cope,
2012, p. 283.)
Visual communication is creating the meaning from mental images such as
paintings, photographs, pages, advertisement, and colors (Cope & Kalantzis,
2012)
Written meaning has been considered more powerful than visual meaning
(Kalantzis & Cope, 2012).
Audio meaning refer to sound effect. Meaning making occurs when we put
signifiers together into a coherent system that more or less corresponds with the
sense of the world of our experienced meanings, or what signified” (Kalantzis &
Cope, 2012, p. 177).
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Table 5
Linguistic Mode
Question Source Modified Survey Items Adapted by Researcher Notes
Pedagogical Content Knowledge (PCK)
Strongly Disagree = SD Disagree = D
Neither Agree/Disagree = N Agree = A
Strongly Agree = SA
28. I can select effective teaching
approaches to guide student thinking and
learning in literacy.
Schmidt, D. A., Baran, E., Thompson, A.
D., Mishra, P., Koehler, M. J., & Shin, T.
S. (2009). Technological pedagogical
content knowledge (TPACK) the
development and validation of an
assessment instrument for preservice
teachers. Journal of research on
Technology in Education, 42(2), 123-
149.
Pedagogical Content Knowledge
Strongly Disagree = SD Disagree = D Neither
Agree/Disagree = N Agree = A Strongly Agree =
To guide student thinking and learning in
literacy:
1. I can provide students with a list of prefixes
and suffixes, along with their respective
meanings, to guide them in decoding words.
(Functional approach)
2. I can give students examples using metaphors
(Functional approach)
3. I deliver information using multiple modalities
(visual, audio, linguistic) to focus on learning by
doing. (Authentic approach).
4. I can select effective teaching approaches to
engage students in analyzing multiple texts.
(Critical approach).
5. I can provide students with different texts
(procedural texts, newspapers, biographies).
(Didactic approach)
I used the Linguistic mode from the
New London Group (diagram provided
in the other document) and adapted to
Schmidt item survey construct. Please
note that I used ideas from the below
constructs and adapted it to New
Literacies
Spear-Swerling, L., & Cheesman, E.
(2012). Teachers’ knowledge base for
implementing response-to-intervention
models in reading. Reading and Writing,
25(7), 1691-1723.
To guide student thinking and learning in
literacy: 8. I can make the content relevant to the
local context. (Functional approach).
9. I can frame the content in a global context.
(Functional approach).
10. I can demonstrate for students how to
categorize information. (Didactic approach).
11. I can use effective strategies to help students
categorize information. (Functional approach)
12. I can select effective teaching approaches to
help students locate information. (Authentic
approach).
13. I can select effective teaching approaches to
help students evaluate and synthesize
information. (Critical approach).
14. I can select effective teaching approaches to
help students communicate information learned.
(Functional approach).
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Table 6
Gestural Mode
Question Source
Modified Survey Items Adapted by
Researcher Notes
I create a classroom
circumstance to promote
students’ interest for learning.
Jang, S. J., & Chang, Y. (2016).
Exploring the technological
pedagogical and content
knowledge (TPACK) of
Taiwanese university physics
instructors. Australasian Journal
of Educational Technology,
32(1).
1. I create a welcoming and safe
classroom environment (e.g., make eye
contact, call them by name, speak to them
in a gentle voice) to promote student
interest in learning. (Authentic approach).
I can provide leadership in
helping others to coordinate the
use of content, technologies,
and teaching approaches at my
school or district
Lau, W. W. (2018).
Relationships between Pre-
service Teachers’ Social Media
Usage in Informal Settings and
Technological Pedagogical
Content Knowledge. EURASIA
Journal of Mathematics,
Science and Technology
Education, 14, 12.
1. I can help my students understand the
content I am teaching by using intentional
gestures and body movements (Didactic
approach)
2. I can help my students comprehend the
content of my subject area by
demonstrating strategies and processes
using role-play or theater (Critical
approach).
3. I can help students apply what they
learn through theater or drama.
(Functional approach).
4. I can help students understand the
meaning of words using their five senses
(Functional approach).
5. I can help students analyze the
environment by asking them to observe
movements or change. (Critical
approach).
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Table 7
Visual Mode
Question Source
Modified Survey Items Adapted by
Researcher Notes
I use demonstrations to help
explaining the main concept.
Jang, S. J., & Chang, Y. (2016).
Exploring the technological
pedagogical and content
knowledge (TPACK) of
Taiwanese university physics
instructors. Australasian Journal
of Educational Technology,
32(1).
1. I use graphs to organize information
relevant to students to promote student
thinking and learning (Authentic
approach).
3. I use visuals through explanation or
modeling to guide student thinking and
learning (Didactic approach)
4. I use different teaching approaches and
interactive texts (texts that include visuals
and interactive activities) to guide student
thinking and learning (Authentic
approach).
5. I use a variety of visual resources like
texts, message board, or blogs to represent
the content of my teaching subject
(Authentic approach).
6. I use visual texts, graphic novels, digital
stories, primary source documents, or
advertisements to help students construct
meaning. (Functional approach).
7. I use different technologies in teaching
to guide student thinking and learning in
teaching my subject. (Authentic approach).
8. I use visual aids in the form of graphs,
maps, charts, or tables to help students
synthesize the main concept to guide
student thinking and learning in my
teaching (Critical approach).
Using the terms from the New
London Group and based on
this construct I adapted new
constructs.
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Table 8
Audio Mode
Question Source
Modified survey items adapted
by Tala Notes
I could support students use
ICT to demonstrate what they
have learned.
Finger, G., Jamieson-Proctor,
R., & Albion, P. (2010).
Beyond pedagogical content
knowledge: The importance of
TPACK for informing
preservice teacher education in
Australia. In Key competencies
in the knowledge society (pp.
114-125). Springer, Berlin,
Heidelberg.
1. I can guide student
understanding by asking them
to demonstrate what they
learned using theater and
music. (Authentic approach).
4. I can support students’ use of
computer technology and
different types of audio to
create appropriate products.
(Functional approach).
I could support students use
ICT to communicate locally
and globally.
Finger, G., Jamieson-Proctor,
R., & Albion, P. (2010).
Beyond pedagogical content
knowledge: The importance of
TPACK for informing
preservice teacher education in
Australia. In Key competencies
in the knowledge society (pp.
114-125). Springer, Berlin,
Heidelberg.
2. I can support students in
using different approaches like
sound effects to communicate
their knowledge locally (in the
classroom). (Functional
approach).
3. I can support students in
using different approaches like
sound effects to communicate
their knowledge globally using
social media. (Functional
approach).
I could support students use
ICT to communicate locally
and globally
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88
Table 9
Spatial Mode
Question Source
Modified Survey Items Adapted by
Researcher Question
I can use appropriate technologies
(e.g., multimedia resources,
simulation) to represent the
content of science
Lin, T. C., Tsai, C. C., Chai, C.
S., & Lee, M. H. (2013).
Identifying science teachers’
perceptions of technological
pedagogical and content
knowledge (TPACK). Journal of
Science Education and
Technology, 22(3), 325-336.
1. I create a personalized space
(names, posters of student interests,
pictures) for each student to support
their learning. (Authentic approach).
2. I encourage students to read or
write on a place other than their desk
(beanbags, blanket, pillow) to support
their learning (Functional approach).
3. I encourage students to bring
artifacts from home that will cultivate
a sense of belonging or community to
support their learning. (Authentic
approach)
4. I ask students to describe the
classroom space in writing (Critical
approach).
5. I ask students to reflect on the
architectural design of the school
(Critical approach).
6. I take students on a field trip inside
the school or outside the school to
give them opportunities to support
their learning. (Functional approach)
7. I ask students to communicate the
importance of our country’s
geographic place in relation to the
world (Functional approach).
This is a new area that I wrote
questions based on using the
terms in the New London Group
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89
Table 10
Synesthesia Mode
Question Source
Modified Survey Items
Adapted by Researcher Notes
20. I know how to assess
student performance in a
classroom.
21. I can adapt my teaching
based upon what students
currently understand or do
not understand.
22. I can adapt my teaching
style to different learners. 23.
I can assess student learning
in multiple ways.
24. I can use a wide range of
teaching approaches in a
classroom setting.
25. I am familiar with
common student
understandings and
misconceptions.
Schmidt, D. A., Baran, E.,
Thompson, A. D., Mishra,
P., Koehler, M. J., & Shin,
T. S. (2009). Technological
pedagogical content
knowledge (TPACK) the
development and validation
of an assessment instrument
for preservice teachers.
Journal of research on
Technology in Education,
42(2), 123-149.
1. I can assess student
learning using combinations
of different texts (graphic
novels, digital stories,
primary source documents,
advertisement, or electronic
texts). (Authentic approach)
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90
The two preceding steps were used as a guide to develop a table for each of the
modes of meaning making after all surveys that could possibly be used to develop the
PCKNL survey had been gathered. I examined each survey multiple times, and then
categorized each construct based on the modes of new literacies, using the definitions
created in Table 4. A table was created for each of the modes of new literacies (see
Tables 5–11) with which I classified each of the items proposed for the PCKNL survey.
In proposing each question to be included in the instrument under development, I
indicated the source of the original survey item, a list of potential revisions of the
question, and the mode of new literacies reflected. My goal was to use this initial plan to
adapt the questions. However, after multiple trials, it was clear that new constructs and
corresponding items needed to be created to reflect the pedagogical content knowledge of
new literacies that did not currently exist in the literature. Therefore, I created new
constructs, using only some of the scales reflected in certain existing surveys.
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91
Table 11
Example of Survey Item Analysis Indicating the Source and Potential Survey Item Questions for New Literacies Linguistic Mode
Question Source
Modified Survey Items
Adapted by Researcher Notes
Pedagogical Content
Knowledge (PCK)
Strongly Disagree = SD
Disagree = D Neither
Agree/Disagree = N Agree =
A Strongly Agree = SA
28. I can select effective
teaching approaches to guide
student thinking and learning
in literacy.
Schmidt, D. A., Baran, E.,
Thompson, A. D., Mishra,
P., Koehler, M. J., & Shin,
T. S. (2009). Technological
pedagogical content
knowledge (TPACK) the
development and validation
of an assessment instrument
for preservice teachers.
Journal of research on
Technology in Education,
42(2), 123-149.
Pedagogical Content
Knowledge
Strongly Disagree = SD
Disagree = D Neither
Agree/Disagree = N Agree =
A Strongly Agree = To
guide student thinking and
learning in literacy:
1. I can provide students
with a list of prefixes and
suffixes, along with their
respective meanings, to
guide them in decoding
words. (Functional
approach)
2. I can give students
examples using metaphors
(Functional approach)
I used the Linguistic mode
from the New London
Group (diagram provided in
the other document) and
adapted to Schmidt item
survey construct. Please note
that I used ideas from the
below constructs and
adapted it to New Literacies
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92
After categorizing all the questions and developing all the questions for each
mode of new literacies, including the demographics, linguistic, gestural, visual, audio,
and synesthesia modes, I created a table and classified each question into its appropriate
pedagogical approach—functional, authentic, didactic, and critical approaches. I then
provided a justification for each of the proposed survey items developed based on the
literature (see Table 12). After multiple and iterative revisions, I updated the tables,
revised the questions, and presented them to the Dissertation Committee members for
feedback. Next, I developed six sections of the PCKNL, each of which corresponds to
one of the six modes of new literacies.
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Table 12
Classifying Items in Relation to the Pedagogical Approaches (Functional, Authentic, Didactic, and Critical Approaches)
Pedagogical Content Knowledge of New Literacies Approach Justification
1. I can provide students with a list of prefixes and suffices,
along with their respective meanings, to guide them in
decoding words. (Linguistic Mode- Functional approach)
Students have to decode words and apply what they learned
- emphasize meaning making.
2. I can help my students understand the content I am
teaching by using intentional gestures and body movements
(Gestural Mode - Didactic approach)
Teachers use textbooks or syllabus transmit the rules of
language to passive learners.
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I revised the questions and finalized the items for each of the modes of meaning
in developing the survey in Qualtrics (XM, May 2019). After iterative revisions of the
Qualtrics survey based on feedback from the Dissertation Committee Chair and the
Dissertation Committee Methodologist, I finalized the survey, and sent it to the external
reviewers for content validation. The three external reviewers were renowned scholars in
the field of new literacies. Two of the scholars, Drs. Allan Luke and William Cope, were
part of the New London Group (1996), a group of 10 researchers, educators, and
visionaries whose production has been considered a seminal research publication in the
field of New Literacies. The third is a literacy scholar, Dr. Jenifer Schneider, whose
scholarship focuses on multimodality and new literacies. After reviewing the
recommendations provided, corresponding with the scholars, and reading their suggested
publications, I made adjustments to the survey and returned it to the Dissertation
Committee Chair and Committee Methodologist for final approval.
Survey Instrument
The survey contained 19 multiple-choice questions and fill-in-the-blank questions
that collect basic demographic information, academic major, subject specialization,
student classification (e.g., freshman, sophomore, junior, senior), year in college, field
experience, and technology capabilities. The survey also contained six sections with a set
of questions for each of the modes of new literacies: linguistic, gestural, spatial, visual,
audio, and synesthesia. Each of these sections aimed to assess preservice teachers’
knowledge and experience in certain teaching practices in relation to the new literacies,
modes, and approaches. Based on the recommendation of one external reviewer, I
included one open-ended question about preservice teachers’ past practice or future
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applications of using new literacies in planning a lesson of their choice. As indicated
earlier, this question provided an avenue for teachers to indicate, beyond predetermined
and predefined constructs in the survey, an opportunity to write their responses to assess
their pedagogical content knowledge of new literacies based on the ways in which they
envision their use of new literacies in K-12 classrooms. The Texas Tech University
Institutional Review Board approved the research protocol [IRB 2018-1096] on
December 11, 2018 (see Appendix A).
Item Selection
Survey items were refined and finalized after they had been circulated among the
development team, which included the Dissertation Committee members and the external
reviewers. Each member of the development team provided feedback on item clarity and
conceptual accuracy. Face-to-face meetings were held to expedite the process. The final
PCKNL instrument consists of 19 demographic questions, 22 multiple-choice questions,
and one open-ended question. A copy of the survey is provided in Appendix B.
Three Form Design
I used a missing data collection protocol (Enders, 2010) to increase the success of
survey completion, since the original survey was lengthy and would have taken more
than 20 minutes to complete. Specifically, a three-form design (A, B, C) was developed
such that each of the three forms included the demographic questions in two blocks—one
at the beginning and one at the end of the survey, one third of the items for the six new
literacies modes, and the open-ended question. Each item for these modes was randomly
assigned to one of the three forms. With the three-form design, it took approximately 5–8
minutes for participants to complete the survey. I randomly assigned one of the three
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forms to preservice teacher participants. This method ensured that an equal number of
representations would be recorded for each construct. After the data were collected, all
three forms were merged together. Missing values from the structurally missing items
were imputed before analysis (Enders, 2010; Graham, Taylor, Olchowski, & Cumsille,
2006).
Survey Dissemination and Administration
I used different strategies to distribute the survey:
1. Step 1: Employed the snowball sampling method;
2. Step 2: Targeted universities; and
3. Step 3: Reached out to site coordinators.
In Step 1, the snowball sampling method (Biernacki & Waldorf, 1981), the Dissertation
Committee members sent the survey to their former colleagues at different institutions.
When I did not receive sufficient responses from the first step, I moved on to Step 2—
targeted universities with reputable teacher education programs in the United States and
Canada—and emailed at least two professors in the Departments of Teacher Education
and Curriculum and Instruction in more than 50 universities. To increase the possibility
that I would receive a sufficient number of responses, I also reached out to site
coordinators in the Teacher Education Program at the university in which I was enrolled,
and met with certain coordinators within the teacher preparation program at this site to
ask them to distribute the survey to preservice teachers. There was a waiting period of 10
days to gather the data. Figure 5 reflects the process of developing the PCKNL survey.
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Figure 5. PCKNL survey process development.
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Sampling
Some of the participants were chosen based on convenience and accessibility
(Creswell & Creswell, 2018). I also approached some professors identified by members
of my Dissertation Committee with a request to send out the letter of recruitment and the
link to the survey. Additionally, I used purposeful sampling (Creswell & Creswell, 2018)
to select a large number of participants who are in a teacher preparation program at over
50 universities that have a reputable teacher education program. An overview of these
universities is provided in Table 13. No identifiable information was collected to ensure
participant privacy.
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Table 13
Overview of Universities to Which Survey was Disseminated
Date sent State University Program Survey Design
4/24/19 Texas Texas Tech University Teacher Education Survey Design A
4/25/19 Texas Lamar University Teacher Education Survey Design B
4/25/19 Texas Sam Houston Teacher Education Survey Design C
4/25/19 Texas Sam Houston Teacher Education Survey Design C
4/24/19 Texas Texas A & M Teaching, Learning and culture Survey Design C
4/24/19 Texas Lubbock Christian University Education placement Survey Design A
4/24/19 Texas South Plains Teacher Education Survey Design A
4/24/19 Texas Baylor Teacher Education Survey Design B
4/25/19 Texas University of North Texas Teacher Education Survey Design C
4/25/19 Texas Stephan F Austin State University Department of Elementary Education
Survey Design A
4/25/19 Texas University St. Thomas Teacher Education Survey Design C
4/25/19 Texas University Texas at Arlington Department of Curriculum and Instruction
Survey Design C
4/25/19 Texas Trinity University Teacher Education Survey Design B
4/25/19 Texas The University of Texas at Austin Department of Curriculum and Instruction
Survey Design B
4/25/19 Texas Southern Methodist University Education / Reading Comprehension
Survey Design B
4/25/19 Texas Howard College Education/ Advising and Recruitment
Survey Design B
4/25/19 Florida University of South Florida Teacher Education Survey Design C
4/25/19 Arizona Arizona State University Teacher Education Survey Design B
4/25/19 Kansas University of Kansas Teacher Education Program Survey Design A
4/25/19 New York Cornell University Teacher education Survey Design B
4/25/19 New York University of Albany Department of Education Theory and Education
Survey Design C
4/26/19 New York Columbia University Teacher Education Survey Design C
4/25/19 Michigan Michigan State University Department of Teacher Education
Survey Design B
4/25/19 Michigan Oakland University Reading and Language Arts Survey Design A
4/26/19 Michigan University of Michigan Teacher Education Survey Design C
4/26/19 Michigan Western Michigan State Teacher Education Survey Design C
4/25/19 Chicago University of Illinois at Urbana-Champaign
College of Education Survey Design B
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Table 13 Continued
Date sent State University Program Survey Design
4/26/19 Ohio The Ohio State University Department of Teaching and Learning
Survey Design C
4/26/19 Alabama. Auburn University Dean/ College of Education
Survey Design B
4/26/19 Louisiana Grambling State University College of Education
Survey Design B
4/26/19 Maryland Johns Hopkins School of Education Coordinator for Elementary Education
Survey Design B
4/26/19 Hawaii University of Hawaii at Manoa College of Education Survey Design A
4/26/19 Hawaii University of Hawaii Pacific Teacher Education/ Elementary Education
Survey Design B
4/26/19 Hawaii Chaminade University Professor/ Elementary Education K-8, B.A.
Survey Design B
4/26/19 Hawaii University of Hawaii - West O‘ahu Master of Arts in Teaching Survey Design B
4/26/19 Alaska University of Alaska Southwest Art and Art Education Survey Design A
4/26/19 New York Columbia University Teacher Education Survey Design C
4/26/19 California Stanford University Teacher Education Survey Design C
4/26/19 Wisconsin University of Wisconsin–Madison Teacher Education Survey Design C
4/26/19 Georgia University of Georgia Teacher Education Survey Design C
4/26/19 Georgia University of Virginia Teacher Education Survey Design C
4/26/19 Utah Brigham Young University Teacher Education Survey Design A
4/26/19 Maryland University of Maryland Teacher Education Survey Design B
4/26/19 Florida University of Central Florida Teacher Education Survey Design B 4/26/19 Florida University of South Florida Teacher Education Survey Design B
4/26/19 Indiana Purdue University Teacher Education Survey Design C
4/26/19 Indiana Indiana University-Bloomington Teacher Education Survey Design C
4/26/19 North Carolina Appalachian State University Teacher Education Survey Design C
4/27/19 Colorado University of Colorado Teacher Education Survey Design C
Analysis
In order to address the structurally missing data, multiple imputation, was
conducted using the multivariate imputation by chained equations (Van Burren &
Groothuis-Oudshoorn, 2011) package in R. This method produced 100 imputed datasets,
using predictive mean-matching, to generate adequate placeholder values that retain the
distributions in the observed data. These imputed datasets were then exported to Mplus
for statistical analysis.
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Statistical Analyses
Confirmatory factor analysis (CFA) was used to examine the student responses.
CFA is a statistical method often used to test a hypothesized factor structure (model) that
describes the relationships of observed variables (items) with latent variables (factors), as
well as the associations among the factors. In CFA, the factor structure is a priori,
determined through a review of literature and/or theory (Kline, 2005). Since I had already
determined the target constructs to be measured and the candidate items (indicators) of
each construct based on the literature, I decided to use CFA. The modes of the new
literacies (e.g., visual, audio, spatial) are the latent constructs (factors), and the items
under each mode are the indicators of the constructs (observed variables). The CFA
model measured the fit of the hypothesized factor structure of PCKNL to the data. The
CFA model was modified to assess: (a) the items’ loading onto the respective factors
(i.e., item reliability); (b) the alignment of the hypothesized model with the data (e.g.,
factor loadings, goodness-of-fit, factor correlations); and (c) the discriminant validity of
the new literacies factors.
CFA in relation to PCKNL. The main goal of CFA is to validate the
psychometric properties of the items in the survey. To do so, I followed the following
steps after collecting the data.
1. I ran the CFA;
2. I estimated the factor loadings of the items to see how reliably they measure
the construct (new literacies mode);
3. I selected the items based on their factor loadings in CFA (i.e., deleting items
for which the standardized factor loading was less than 0.5, as this was an
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indication of a problematic item, and running a CFA on the revised model
without those flagged items). Ideally, four or more items of the instrument
should be identified as representing each construct;
4. I used the model that contains “good” items only, estimating the correlations
among the factors in CFA. The correlations should not be too strong or too
weak: they should be between 0.3 and 0.8;
5. I estimated the model fit, using different model fit measures;
6. I reported the constructs confirmed by the CFA and the validity of the survey.
Data Analysis for Quantitative Data
The analysis proceeded as follows. While a 5-point Likert scale was used for the
close-ended items for knowledge of new literacies, it was assumed that categorical
(ordinal) responses to the items are in fact a realization of continuous, multivariate, and
normally distributed responses, which allowed me to take advantage of maximum
likelihood estimation (Kline, 2016). This method of model estimation was used as the
default method by Mplus 7.0 (Muthén & Muthén, 1998–2010). The fixed-factor scaling
method (McArdle & McDonald, 1984) was employed in that the factor variances were
fixed to 1 and the factor means to 0. Although different but statistically equivalent
scaling methods provide identical modeling results, the fixed-factor method allowed me
to estimate the associations among the factors in the correlational metric that are readily
interpreted to gauge the strength of the associations (Little, Slegers, & Card, 2006). The
factor loadings were inspected as a test for item reliability. An item that did not achieve a
reasonably large loading (i.e., estimated significance of the item loading < .05) was cut
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from the model. Once these items were pruned from the model, the parameters were re-
estimated using the selected items, and model fit was re-evaluated (Kline, 2005).
Second, the model-data fit was evaluated with regard to both incremental and
absolute model fit, using multiple statistics, including the relative/normed model chi-
square (Wheaton, Muthén, Alwin, & Summers, 1977), comparative fit index (CFI;
Bentler, 1990), Tucker-Lewis index (TLI; Tucker & Lewis, 1973), root mean square error
of approximation (RMSEA; Steiger & Lind, 1980), and standardized root mean square
residual (SRMR; Muthén & Muthén, 1998–2010). The chi-square statistic (Jöreskog,
1971) was the conventional measure of overall model fit used to “assess the magnitude of
discrepancy between the sample and fitted covariance matrices” (Hu & Bentler,
1999). However, because of its well-known sensitivity to non-normalcy and sample size
(see Bentler & Bonett, 1980; Jöreskog & Sörbom, 1989), the relative/normed chi-square
statistic (χ2/df) was reported in this study. An acceptable χ2/df value ranges from 5
(Wheaton et al., 1977) to 2 (Tabachnick & Fidell, 2007). The CFI and TLI statistics
quantified how well a hypothesized model fits the data compared to a null model of
uncorrelated variables. A CFI or TLI value greater than .95 was the standard for a well-
fitting model (Hu & Bentler, 1999). The RMSEA and SRMR statistics provideed
information on the difference between the sample and fitted covariance matrices, as well
as model parsimony. In general, an RMSEA value less than .06 (Hu & Bentler, 1999) or
.07 (Steiger, 2007) indicated a good model fit (< .08 = fair fit, < .10 = mediocre fit;
MacCallum, Browne, & Sugawara, 1996). The SRMR was a measure of absolute mean
residual correlation and represented the overall difference between the observed
correlations and the correlations predicted by the model (Kline, 2016). A SRMR value
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less than .05 was considered as acceptable (Geiser, 2012), with an adequate-fit threshold
of .08 (Little, 2013).
Lastly, the associations (correlations) among the new literacies constructs were
examined. According to Kline (2005), correlations less than .85 supported discriminant
validity for the set of factors. An empirical test for discriminant validity could also be
performed by comparing the hypothesized model with alternative models for which the
correlation between each pair of factors was fixed to 1 (paired constructs test; Anderson
& Gerbing, 1988). A significant likelihood-ratio test indicated that the hypothesized
model was favored over the alternative model, from which discriminant validity could be
inferred.
Validation. Validity was the ability of an instrument to measure latent structures
it is supposed to measure (Kline, 2005). Three external reviewers and two university
faculty members with knowledge about new literacies and pedagogical content
knowledge provided feedback on the content validity of the survey items of PCKNL. A
Likert-type scale was used to evaluate the extent to which (a) pre-service teacher
pedagogical content knowledge of new literacies was measured reliably, and (b) the
understanding of pedagogical content knowledge of new literacies was reflected by pre-
service teachers.
Reliability. Reliability was the extent to which the measurement model measured
the intended latent construct (Kline, 2016). The assessment for reliability of the
measurement model was conducted using the following criteria:
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1. The composite reliability (CR) indicated the reliability and internal
consistency of a latent construct as measured by the manifest indicators. This
was accomplished when CR > 0.6 for every construct (Kline, 2005).
2. External content reliability was met when three expert scholars in content
knowledge of new literacies confirmed the content reliability for all the survey
constructs.
Data Analysis for Qualitative Data
I used an interpretivist approach (Schwandt,1998) to analyze the qualitative data,
gathered from the responses to the open-ended question, so I could capture the preservice
teachers’ knowledge of new literacies. This approach relies on the idea that knowledge is
created by the assumptions and ideas of both the respondents and the researcher. I used
open coding and constant comparative method to compare what they hypothesized with
what the survey participants were seeing as compared to existing theoretical assumption
(Corbin & Strauss, 1990). Through inductive and interpretive analysis (Charmaz, 2006),
the study captured the preservice teachers’ perspectives about new literacies, which were
incorporated into the domain of “pedagogical content knowledge of new literacies. Such
an avenue allowed for the theory of new literacies to be extended and redefined based on
preservice teachers’ perspectives.
After gathering all the data in an Excel spreadsheet, I first performed open coding
by reading through the data line by line several times and started creating tentative labels,
using inductive analysis (Charmaz, 2006). I used color-coding to help me in labeling
codes and sub-codes. After three rounds of open coding, I began aligning the excerpts
with the corresponding categories and kept going back and forth, examining the labels
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and adding new labels. Second, I analyzed the textual data and identified relationships
among the open codes. I designated 48 codes related to the preservice teachers’
knowledge of new literacies. Some of the codes where “incorporating cultures,” “text
choice,” “audio,” “digital applications,” and “classroom diversity.” After I continued the
process in the same manner, I consolidated the 48 codes into two categories and 11
subcategories. I identified these categories in Table 14. Third, I engaged in the process of
axial coding. After reading all the documents thoroughly, I established relationships
between categories and subcategories and unified these categories, using selective
coding, and created broader categories. One of these broader categories reflected
alignment with modes of new literacies (i.e., linguistic, spatial, gestural, gestural, audio,
and visual) and the other reflected notions emerging beyond the modes of new literacies
(Strauss & Corbin, 1990). Fourth, I reviewed the aforementioned categories and the
subcategories, identifying three overarching themes:
• Preservice Teachers’ Partial Knowledge of New Literacies that Align with
Preestablished Modes
• Preservice Teachers Misconception of Technologies and New Literacies
• Preservice Teachers’ Need for Exposure to New Literacies Standards
• Pedagogical Content Knowledge Practices as Cultural Relevant Teaching
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Table 14
Qualitative Data Analysis of the Pedagogical Content Knowledge of New Literacies
Research Question 2: What is the pedagogical content knowledge of new literacies reflected by pre-service teachers? Analytical Process and Findings: Inductively identified codes, categories, and themes based on techniques used in the PCK.
Inductive Codes (Frequencies) Examples of Corresponding Excerpts Categories and Sub-Categories Based
on Similarities Across Codes Corresponding
Themes 1. Incorporating culture (80) 2. Audio (15) 3. Text choice (66) 4. Acceptance (2) 5. Student support (2) 6. Making connections (21) 7. Increase student engagement (8) 8. Classroom diversity (2) 9. Vocabulary (17) 10. Learning style (2) 11. State standards (7) 12. Culturally responsive (7) 13. Graphic organizer (3) 14. Grade reading level (6) 15. Mentor text (8) 16. Interactive lesson (2) 17. Group work (9) 18. Home language (2) 19. Student needs (7) 20. Peer support (3) 21. Planning lessons (1) 22. Using rubrics (3) 23. Collaborative learning (4) 24. Differentiated instruction (6) 25. Research (1) 26. Individual guidance (1) 27. Field trips (2) 28. Gestural (2) 29. Think aloud (1) 30. Modeling (2) 31. Peer feedback (3) 32. Create a safe environment (1) 33. Cultural tolerance (2) 34. Visuals (40) 35. Scaffolding (5)
1. “Depending on the book/text, I would modify it to meet the needs of all students. Some students comprehend better when they have the book read to them, opposed to reading it themselves, and so providing students at a lower level of reading would be given technology that is able to read aloud the text to the student, while students who are at a higher reading level would read the text via the hardcopy. As for different cultures, I would be responsible in finding a text that applies to the students' culture, while also possibly be able to provide those who are not familiar with a culture, to access the text online where there is a possibility that unfamiliar words will be bolded and provide the context of the definition.”
2. “Find articles or stories online that are culturally relevant to students. Use it as an opportunity to learn more about the culture. Use multiple means of representation--students pick their strengths to demonstrate content knowledge. Ex. Native Hawaiians use storytelling as a way of teaching and passing down traditions, the student may choose to use storytelling as their assessment form.”
3. “I would be sure to incorporate vocabulary support, images, and opportunities to read, write, speak, and listen.”
4. “I will be able to distinguish what are the areas of strength and weakness in my students. The lesson plans can include differentiated instruction to support all students. “
5. “I would use the internet and find websites to help with the cultures as well as videos to demonstrate more information.”
6. “Having students create videos explaining what they have learned is an effective and engaging way to students to show mastery. Students really enjoy this activity when you introduce it as 'creating their own YouTube channel'.”
7. “I plan to use all different forms of literacy during our daily five rotation. There will be a listening station, reading station, writing station, and computer station.”
8. “I would use new literacy to reach the students of different cultures. I would chose things that they know and understand so that I could bridge the gap of information that they do not know.”
9. “I would incorporate a lesson with a read aloud, group work and individual work. I would encourage peers to work together on reviewing each other’s work by encouraging them.”
Similar codes Part 1: Themes aligned Pre-established Modes of New Literacies (Linguistic, spatial, gestural, audio, visual) for instruction 1. Linguistic Mode (mentor text,
choice of text, guided reading, reading fluency, read aloud, vocabulary) (115)
2. Spatial Mode (field trips, work stations, classroom diversity, cultural tolerance in the classroom, making connections) (32)
3. Gestural Mode (create a safe environment, use body language, story-telling, think aloud, modeling) (9)
4. Audio Mode (audio tools, applications, and read aloud) (39)
5. Visual Mode (visual graphs, charts, texts, and visual aids, digital applications, graphic organizers) (67)
Similar Codes Part 2: Themes emerged beyond the New Literacies Modes for teachers’ readiness for instruction 1. Technology (63) 2. Cultural integration (89) 3. State standards (7) 4. Collaborative learning (4) 5. Research (1) 6. Feedback (group, peer, and
individual support) (16)
• Preservice Teachers’ Partial Knowledge of New Literacies that Align with Preestablished Modes
• Preservice Teachers Misconception of Technologies and New Literacies.
• Preservice Teachers’ Need for Exposure to New Literacies standards
• Pedagogical Content Knowledge Practices as Cultural Relevant Teaching.
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Table 14 Continued
Research Question 2: What is the pedagogical content knowledge of new literacies reflected by pre-service teachers? Analytical Process and Findings: Inductively identified codes, categories, and themes based on techniques used in the PCK.
Inductive Codes (Frequencies) Examples of Corresponding Excerpts
Categories and Sub-Categories Based on
Similarities Across Codes Corresponding
Themes 36. Student interests (4) 37. Setting expectations (1) 38. Technology (24) 39. Digital applications (15
audio 24 visual) (39) 40. Work stations (5) 41. Read aloud (9) 42. Story telling (3) 43. Figurative language (2) 44. Guided reading (3) 45. Meaningful teaching (1) 46. Variety of resources (6) 47. Writing opportunities (2) 48. Reading fluency (3)
10. I would use different “definitions and articles that would be suitable for the students in my class.” 11. “I would be sure to incorporate vocabulary support, images, and opportunities to read, write,
speak, and listen.” 12. “I would find ways to find a lesson that would help my students be able to relate to each other
and understand each other in a new way. I would do stations and split the children up based on their reading level that way I can give each child the attention they need.”
13. “I will plan with student interest in mind. I know that by involving them or including their culture and interest I will be able to create a lesson that keeps them engaged and motivated.”
14. “I would use the internet and find websites to help with the cultures as well as videos to demonstrate more information.”
15. “I would use students interests and experiences to differentiate and plan a lesson.” 16. I would do research on culturally appropriate books for the class. I would then cater lesson
around a specific book and introduce concepts and ideas through each students’ funds of knowledge, careful not to choose
17. “I realize that it is important that students are able to learn as well as express themselves through different avenues such as music, diagrams, physical gestures, technologies, etc. I would incorporate all of the new literacies I have learned within my lessons to captivate and engage my students.”
18. “They can help in ELAR. It's important to introduce a wide variety of books within the classroom.”
19. “Use a wide variety of genres” 20. “I would choose a text that most students can have a connection to so everyone feels
included. This would be an interactive read aloud where the students would participate and speak about the text.”
21. “If I had complete choice on what I would read to students and teach them in a lesson I would read a picture book called Dear Primo: A Letter to My Cousin by Duncan Tonatiuh. In this book there are two boys who write letters to each other from their perspective about
22. “I would first select the appropriate TEKS and breakdown what the student needs to know for mastery and develop a content objective. Next, I would find a book that is culturally inclusive of the students represented in my classroom. Finally, I would develop a lesson that is appropriate and engaging for my students.”
23. “I use mentor texts to show students how to correctly use things such as adjectives, adverbs, and other things I feel they would benefit from hearing done correctly.”
24. “I would use an application called story-jumper on their iPads to engage students in writing. We would do research on inventors in science and tell stories about their lives to present to the class.”
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Table 14 Continued
Research Question 2: What is the pedagogical content knowledge of new literacies reflected by pre-service teachers? Analytical Process and Findings: Inductively identified codes, categories, and themes based on techniques used in the PCK.
Inductive Codes (Frequencies) Examples of Corresponding Excerpts
Categories and Sub-Categories Based on
Similarities Across Codes Corresponding
Themes 25. “I plan to use visual and audio cues such as hook videos, assessment tools such as Quizziz and
Quizlet, and ideally tools like Padlet to create interaction between students and with the teachers in a managed social classroom environment where students can share input either through a blog space or in a standard classroom question/answer format.”
26. “Based on the different cultures I would plan my instruction that would fit all differentiated needs for my students. I would allow students to bring objects that tie into the lesson from their background as well as give a specific amount of time throughout where students are able to incorporate their own ideas and experiences.” “I would prefer to work in an ELAR classroom for grades 2nd-4th. I would like to use a variety of text including online articles because I want to teach in a way that will be relevant to the students and the literature they will experience in everyday life.” “Based on my past practice I would use new literacies to plan a lesson by having student rotate centers while as a teacher have a small group as well.” book that is so ambiguous but can gain perspective from multiple lenses. “where they live. I feel as if I would be able to teach a variety of skills using this book; comparing and contrasting, letter writing, or fact and opinion. The students could translate the letters in the book into text messages, or they could take the position of a character and record themselves "vlogging" about where they live sharing facts and opinions. When it comes to New Literacies in the classroom the options are endless, so it can be hard to choose just one idea.”
“Providing lesson materials in various formats such as visual or audio methods so they can get the material at their own level. Providing videos of demonstrations with various coded subtitles and hands on lessons provides students with a way to visualize what is being taught even if they have not fully developed the English language. There are several students who struggle with reading, so presenting them with recorded instructions or reading the instructions aloud for a lesson as you perform actions or move through allows them to follow along if they cannot follow along on their own without disrupting the rest of the class.”
27. “I'd use music as the basis for bringing up the subject and getting the students' attention. This would allow an easy way to bring in different cultures and then branch off that.”
28. “I would assess what interests the students and choose an appropriate new literacy such as a voice over app like Chatterpix. The student can then listen to their recording and make adjustments.”
29. “I would give students a project with a Rubric that they would have to present to the class.” 30. “I would use the strategies we learned in our class, such as reading salads, different modes of
meaning, and providing rubrics.” 31. “I would plan a lesson with universal ideas that allows for students to respond in a variety of
ways according to their skill.” 32. “I would implement stories of the world to activate the interest of my students. This way all of
my multicultural students could share their cultures to the people who were born in the states.”
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Positionality
Preservice teacher education and preparation affects student academic success and
student motivation towards learning. We live in the new literacies era where new
literacies are recommended to be incorporated into classrooms. Students are provided
with multiple ways and opportunities to engage in lessons. Teaching is customized to the
students’ needs, and it is inclusive (Leu, Kinzer, Coiro, & Cammack, 2004; Leu, Kinzer,
Coiro, Castek, & Henry, 2017). The role of teacher education programs is crucial in
preparing teachers to meet students’ needs by providing preservice teachers with training
courses to enhance their skills (Risko et al., 2008). Assessing teacher pedagogical content
knowledge of new literacies is important in helping students be successful in the
classroom, since teacher practices and knowledge reflect on the students’ learning. It is
deemed important to have teachers think thoroughly about their instruction and their
ways of reaching all students. Here, I describe my drive for conducting this research and
my own positionality.
Positionality is used to describe how people identify themselves that is "not in
terms of fixed identities, but by their location within shifting networks of relationships,
which can be analyzed and changed" (Maher & Tetreault, 1994, p. 164). Maher and
Tetreault (1994) also defined positionality as the "knower's specific position in any
context as defined by race, gender, class, and other socially significant dimensions" (p.
22). Regarding my positionality, I am Palestinian American, bilingual, as well as an
educator and a researcher who believes that teachers should find numerous resources to
support all their students’ needs and allow them to be creative. I realize that these are not
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the only attributes that define me. My learning experiences with my triplet brother and
sister, my family’s value for education, my spiritual beliefs, and the political contexts in
which I was reared contribute to my positionality. I believe that all learners should have
equal access to books and resources and that each individual is a special learner. It is our
responsibility as educators to find the ways and means to increase student engagement
and interests in learning.
I served previously as an English second language teacher and librarian at an
elementary school. Through my teaching experiences and my long conversations with my
mother, an educator of 43 years, I learned that focusing on the teaching rather than only
on delivering the content makes teaching effective and learning enjoyable. By putting
more thought into planning lessons, incorporating different strategies to introduce the
lesson, selecting the visuals, texts, resources, and how to differentiate instruction,
teachers can make a positive difference in the learner’s engagement and learning
experiences. Growing up with my triplet brother and sister, I discovered that we each
learned differently, and my mother always told us, “You are unique in your own way.” I
was a visual learner, my brother was an auditory learner, and my sister was a
combination of visual, auditory, and social learner.
When I became a teacher, I kept this in mind, and I used different modes of
literacies, which were visual, audio, linguistic, gestural, and spatial. I had great success
with my students. All of them progressed and enjoyed learning. I thought many teachers
did not use these modes at my school because they were focused on traditional teaching.
However, when I came to the United States I worked as a research assistant, and I
observed mentor teachers and in-service teachers’ classes for over three years. I was
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surprised when I found teaching and learning was didactic and was very similar to the
teaching back in my home country. Students had difficulty following along with the
lessons, and the material used was often not interactive; it was also not appropriate to the
student level. Ultimately, I noticed a disconnect between theory and practice. Teacher
practices often differ from those under which they learned, and from those practices, they
say they want to use. For instance, many learned that they need to diversify instruction,
yet they sometimes still use the same method, which was choosing one type of text,
asking students to write long essays without modeling for them, and not using different
tools of teaching to help their students, and knowing that they need to do that to meet
their students’ needs. A number of the teachers that I observed focused on teaching
students to pass the standardized, state-required exams, so they did not put much effort in
choosing texts that would interest students, embrace their cultures, or their intellectual
needs. It seemed to me they inadvertently used the one-size-fits-all method, despite
wanting to provide their students with success.
Fortunately, I had the opportunity to co-teach a six-grade science class in one
classroom in the United States, and I assisted the English language arts and reading
instruction of preservice teachers. I introduced both six graders and preservice teachers to
new literacies. I further learned that using different modes of new literacies was
universal and an approach that was effective with English as a second language students.
These experiences inspired me to think of a common way to make a change in the field of
education worldwide, which turned out to be the creation of a survey that preservice
teachers can take at the beginning and at the end of the semester to inform instructors of
their new literacies skills, as well as allow teachers to identify their areas of strengths and
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weaknesses. Additionally, this survey can be used as a self-assessment tool that could
provide insight to the teacher who took the survey. The survey items were created based
on the theoretical framework and literature of new literacies and my experiences and
insights as an educator. Three external reviewers validated the content of the survey, and
I relied on the participant responses to determine the results and avoid bias.
To further inform credibility and trustworthiness during my analyses of
qualitative data, given my positionality in the study, I triangulated the responses of the
preservice teachers to the open-ended question and the multiple-choice question (Lincoln
& Guba, 1985). The data included direct quotes from the participants. I established an
audit trail from the beginning of the data collection and documented the process
regularly.
Limitations
This study does possess certain limitations. First, the planned missing data
method used in survey construction and data generation did lead to a lack of coverage in
the planned missing variables that could have led to a lack of information used to inform
the imputation algorithm. The planned missing data design used in this study had a set of
common variables shared by the three forms: (a) demographic questions and teacher
training questions; (b) the section of questions measuring the participant’s capabilities in
using technologies, such as using computer for instruction, using Social media such as
Twitter, Facebook, using printing scanners, digital cameras, projectors, and smart boards
for instruction; and (c) learning a management system as a teacher, and learning
management system as a student.
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The item relating to the other five constructs were divided into three groups and
each survey was comprised of one third of the total item. The resulting missingness in the
data could be considered missing completely at random since its missingness was
controlled by me, which was the ideal situation for modern imputation methods (Little,
2013). However, the information in the shared block of questions might not have been
sufficiently informative to the imputation process, as evidenced by the poor reliability of
questions from Survey Form B and Survey Sorm C compared to those from Survey Form
A. The notably poor performance of these items appeared to not be present when the
Survey Forms B and C were analyzed independently, leading me to conclude that the
available shared information was not sufficient to inform the imputation of these items in
the combined data set. Other methods of planned missing data designs could be adopted
in future studies, notably the design put forth by Little (2013) in which each of the survey
forms were given two of the blocks of questions instead of one, reducing the structural
missingness from 2/3 to 1/3 in each of these blocks of questions, while also allowing for
overlap of the questions presented to participants. This would have ensured more
coverage of information in the data and provided more information for imputation of
these missing data.
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CHAPTER IV
RESULTS
This chapter presents the results gathered from 510 participants enrolled in
teacher preparation programs at 10 universities in the United States. First, I restate the
purpose of this study and the research questions. Then, I will describe the sample, the
findings, and the summary of the research will follow.
Purpose of the Study
Previous research has shown that there is a disconnect between theory and
practice and that preservice teachers feel unprepared to start teaching after they graduate
(Holmes Group, 1995; Levine, 2005, 2006; Maclver, Vaughn, & Katz, 2005; Maxwell,
Hilaski, & Whelan-Kim, 2018; Rust, 2010; Walsh, 2001). The literature also indicates
that pedagogical content knowledge can serve as a bridge for the gap between theory and
practice (Grossman & McDonald, 2008; Guerriero, 2017). In the area of literacy, which
has been redefined based on the multiliterate contexts in which K-12 learners function in
the 21st century (Au, 1998; Spires, Paul, & Kerkhoff, 2019), it is clear that a mechanism
is needed to determine how well preservice teachers are prepared to address the
requirements of new literacies in classrooms. The purpose of this study, therefore, was to
develop an instrument that reliably measures the preservice teachers’ pedagogical content
knowledge of new literacies, which can serve as a mechanism for ensuring that teachers
are prepared to teach K-12 students in multiliterate environments. This research further
attempted to learn about preservice teachers’ knowledge of new literacies by having them
answer an open-ended question as part of the PCKNL survey.
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Review of Research Questions
Two research questions were examined:
1. Can pre-service teacher pedagogical content knowledge of new literacies be
measured reliably?
2. What is the pedagogical content knowledge of new literacies reflected by pre-
service teachers?
Description of the Sample
A total of 630 individuals participated in the study (see Table 15). Among those,
312 (49.5%) were female, 141 (22.4%) were male, and 173 (27.4%) elected not to
identify their gender. Participants’ ages ranged from 18 to 63 years, with the average age
of 24.9 (SD = 6.6). The majority of the participants identified themselves as American (n
= 309, 49%), followed by Mexican (n = 101, 16%), Latin American (n = 22, 3.5%), and
others (n = 26, 4.1%). Of those who participated in this survey, 401 (63.7%) of
participants identified English as their first language. Participants for this study represent
several geographic regions of the United States, with 7 (1.1%) residing in the Northeast,
35 (5.6%) residing in the Midwest, 373 (59.2%) residing in the South, and 31 (4.9%)
residing in the West; 176 (28.4%) did not report a region of residency.
Of the individuals who participated in this study, 510 (81.0%) identified
themselves as preservice teachers and 117 (18.6%) as non-preservice teachers. Regarding
their academic status, 27 (4.3%) identified as first-year students, 36 (5.7%) identified as
second-year students, 100 (15.9%) identified as third-year students, and 324 (51.4%)
identified as fourth-year students. Of those surveyed, 429 (68.1%) were currently
enrolled or had already completed their practicum experience in a PreK-12 classroom,
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with 447 (71.0%) having taken at least one literacy course, 369 (58.6%) reporting to have
field experience working with a cooperating teacher on literacy, and 347 (55.1%)
reporting to have enrolled in a literacy course during their student teaching.
Participants were also asked about their future teaching aspirations; 387 (61.4%)
had planned to teach in primary schools, 36 (5.7%) had planned to teach in middle
schools, 20 (3.2%) had planned to teach in secondary schools, 23 (3.7%) had planned to
teach in high schools, and 21 (3.3%) had not yet decided as of the time of this survey.
Participants were also asked about their education majors; most students identified
TESOL/ESL/Bilingual Education (n = 163, 25.9%) as their specialization, followed by
Special Education (n = 123, 19.5%). The least selected specializations were School
Administration (n = 1, 0.2%) and Instructional Technology (n = 0). These categories were
not mutually exclusive, allowing participants to select multiple areas of specialization.
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Table 15
Participant Demographics
Min Max M SD Age 18 63 24.87 6.55
n %
Gender Female 312 49.52 Male 141 22.38
English as a first language
Yes 401 63.65 No 57 9.05
Country of Origin
Australia 3 0.48 Columbia 1 0.16 Germany 3 0.48 Ghana 1 0.16 Guatemala 2 0.32 Israel 1 0.16 Mexico 23 3.65 United States 422 66.98
Cultural Background
American 309 49.05 Asian 7 1.11 Arab 3 0.48 Caribbean 2 0.32 European 14 2.22 Mexican 101 16.03 Latin American 22 3.49
U.S. Region of Residence
Northwest 7 1.11 Midwest 35 5.56 South 373 59.21 West 31 4.92
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Table 15 Continued n % Participant University
Angelo State University 2 0.32 Grambling State University 2 0.32 Hannibal-LaGrange University 7 1.11 Howard Community College 18 2.86 Ohio State University 4 0.63 Texas Tech University 393 62.38 University of Hawaii at Manoa 4 0.63 University of North Texas 6 0.95 University of Texas at San Antonio 12 1.9 Western Michigan University 9 1.43
Preservice Teachers Yes 510 80.95 No 117 18.57
Participant Major
Early Childhood Education 129 20.06 Elementary Education 281 43.7 Secondary Education 41 6.38 Adult Education 2 0.31 Other 35 5.44
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Table 15 Continued
n % Area of Teaching Specialization
Art Education 6 0.95 Business Education 3 0.48 English Education 50 7.94 Foreign Language Education 11 1.75 Gifted and Talented Education 8 1.27 Health and Physical Education 3 0.48 History Education 30 4.76 Instructional Technology 0 0 Math Education 72 11.43 Music Education 6 0.95 School Administration 1 0.16 School Counseling 3 0.48 Special Education 123 19.52 TESOL/ESL/Bilingual 163 25.87 Vocational Education 4 0.63 Literacy 37 5.87 Reading 46 7.3 Writing 38 6.03 Other 84 13.33
Year in College
Freshman 27 4.29 Sophomore 36 5.71 Junior 100 15.87 Senior 324 51.43
Practicum experience in classroom.
Yes 429 68.1 No 58 9.21
Completed at least one literacy course.
Yes 447 70.95 No 21 3.33
Worked in a classroom with a cooperating teacher on literacy.
Yes 369 58.57 No 69 10.95
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Table 15 Continued
n % Participated in literacy course practicing student teaching.
Yes 347 55.08 No 87 13.81
Grades participants are planning to teach
Primary 387 61.43 Middle 36 5.71 Secondary 20 3.17 High School 23 3.65 Don't know/Undecided 21 3.33
Taught in the United States
Yes 120 19.05 No 340 53.97
Educational Computing Minor
Yes 268 42.54 No 174 27.62
Quantitative Results
Missing Data
An analysis of 630 observations, after merging the three forms used to collect
data, revealed that my data were 44.9% complete. Multiple imputation generated 100
imputed data sets, using 10 iterations each, with predictive mean-matching. The multiple
imputation with the chained equation (MICE; Van Buuren & Groothuis-Oudshoorn,
2011) method was used to calculate the probable values of missing data based on the
observed values. The goal of this process was to impute the missing values of the data, so
that the missing values do not bias the model estimates.
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Confirmatory Factor Analysis
I used CFA to answer the first research question, “Can pre-service teacher
pedagogical content knowledge of new literacies be measured reliably?” and part of the
second question. By examining the model parameters (i.e., factor loading, composite
reliability, residual variance), I was able to determine the reliability of the PCKNL
instrument.
The initial model loaded all items onto their respective latent constructs. Overall
model fit indices were excellent, RMSEA = 0.00, CFI = 1.00 and TLI = 1.00, and SRMR
= 0.081. This shows that the overall model fit was good, with SRMR being the only fit
statistic outside of an “acceptable” range. Therefore, I concluded that the overall model
was of good fit. From here, I moved on to examine the item loadings, latent factor
correlations, and composite reliability to evaluate how well the items related to their
latent factors to answer the first research question.
Twenty-two questions loaded onto the Linguistic Mode factor, with item Ling_5a
having the highest estimated loading of 0.699 with p < 0.001 and R2 = 0.501, and item
Ling_1c having the lowest estimated loading of 0.040 with p = 0.801 and R2 = 0.025.
Seven of the initial 22 items were deemed to have significant factor loadings. Eight
questions loaded onto the Gestural Mode factor, with item Gest_1a having the highest
estimated loading of 0.548 with p = 0.071 and R2 = 0.389, and item Gest_2c having the
lowest estimated loading of 0.022 with p = 0.916 and R2 = 0.041. None of the items that
loaded onto this factor initially demonstrated significance. Eight questions loaded onto
the Visual Mode factor, with item Vis_2a having the highest estimated loading of 0.531
with p = 0.088 and R2 = 0.353, and Vis_2c having the lowest estimated loading of – 0.016
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with p = 0.932 and R2 = 0.033. None of the items loading onto this factor initially
demonstrated significance. Six questions loaded onto the Audio Mode factor, with item
Audi_2a having the highest estimated loading of 0.537 with p = 0.039 and R2 = 0.344,
and item Audi_2c having the lowest estimated loading of 0.015 with p = 0.949 and R2 =
0.050. Only item Audi_2a had a significant factor loading (p = 0.039). Seven questions
loaded onto the Spatial Mode factor, with item Spat_2a having the highest estimated
loading of 0.704 with p < 0.001 and R2 = 0.513, and item Spat_2c having the lowest
estimated loading of 0.051 with p = 0.785 and R2 = 0.036. Three of the seven items had
significant factor loadings. Eleven questions loaded onto the Synesthesia Mode factor,
item Syn_3a having the highest estimated loading of 0.605 with p = 0.009 and R2 =
0.418, and item Syn_3c having the lowest estimated loading of – 0.025 with p = 0.918
and R2 = 0.056. Four of 11 items demonstrated significant factor loadings. Seven
questions loaded onto the Technology factor, with item Tech_7 having the highest
estimated loading of 0.777 with p < 0.001 and R2 = 0.627, and item Tech_3 having the
lowest estimated loading of 0.487 with p < 0.001 and R2 = 0.249. All seven items had
significant factor loadings. Therefore, I concluded that many of the initial item loadings
were poorly related to the latent construct and, therefore, insignificant.
Table 16 depicts the factor loadings for all items used in the initial model, their
estimated p value, and the estimated R2 value. The loadings are standardized, between 0
and 1, with a higher loading indicating a stronger relationship between the construct and
the item measuring it. The R2 value indicates the percent of variance explained by the
model. Table 16 depicts that the initial model, with all items included, shows weak
loadings with poor significance, which effects the reliability of the model overall.
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Table 16
Item Loadings – Initial Model
Construct Item Loading p R2
Linguistic Mode Ling_1a 0.500 <.001 .269 Ling_1b 0.086 .631 .037 Ling_1c 0.040 .801 .025 Ling_2a 0.659 <.001 .444 Ling_2b 0.119 .521 .046 Ling_2c 0.055 .768 .035 Ling_3a 0.440 <.001 .204 Ling_3b 0.131 .402 .040 Ling_3c 0.099 .519 .031 Ling_4a 0.615 <.001 .391 Ling_4b 0.069 .690 .032 Ling_4c 0.076 .634 .029 Ling_5a 0.699 <.001 .501 Ling_5b 0.067 .724 .038 Ling_5c 0.060 .721 .029 Ling_6a 0.624 <.001 .403 Ling_6b 0.047 .786 .029 Ling_6c 0.113 .462 .034 Ling_7a 0.695 <.001 .490 Ling_7b 0.093 .589 .036 Ling_7c 0.075 .672 .034 Ling_8a 0.670 <.001 .462
Gestural Mode Gest_1a 0.548 .071 .389 Gest_1b 0.054 .807 .049 Gest_1c 0.049 .823 .049 Gest_2a 0.447 .103 .272 Gest_2b 0.089 .727 .069 Gest_2c 0.022 .916 .041 Gest_3a 0.460 .086 .280 Gest_3b 0.070 .745 .048
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Table 16 Continued
Construct Item Loading p R2 Visual Mode Vis_1a 0.458 .065 .269
Vis_1b 0.262 .377 .118 Vis_1c 0.022 .896 .026 Vis_2a 0.531 .088 .353 Vis_2b 0.227 .374 .113 Vis_2c 0.016 .932 .033 Vis_3a 0.449 .072 .261 Vis_3b 0.252 .311 .122
Auditory Mode Audi_1a 0.345 .161 .176 Audi_1b 0.156 .430 .061 Audi_1c 0.071 .739 .048 Audi_2a 0.537 .039 .344 Audi_2b 0.032 .879 .042 Audi_2c 0.015 .949 .050
Spatial Mode Spat_1a 0.519 .002 .297 Spat_1b 0.069 .693 .033 Spat_1c 0.043 .820 .036 Spat_2a 0.704 <.001 .513 Spat_2b 0.028 .894 .043 Spat_2c 0.051 .785 .036 Spat_3a 0.672 <.001 .477
Synesthesia Mode Syn_1a 0.498 .016 .289 Syn_1b 0.152 .456 .062 Syn_1c 0.060 .767 .042 Syn_2a 0.480 .010 .262 Syn_2b 0.074 .754 .058 Syn_2c 0.027 .912 .058 Syn_3a 0.605 .009 .418 Syn_3b 0.097 .675 .060 Syn_3c 0.025 .918 .056 Syn_4a 0.534 .005 .319 Syn_4b 0.055 .790 .043
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Table 16 Continued
Construct Item Loading p R2 Technology Mode Tech_1 0.674 <.001 .475
Tech_2 0.711 <.001 .524 Tech_3 0.487 <.001 .249 Tech_4 0.536 <.001 .290 Tech_5 0.729 <.001 .533 Tech_6 0.767 <.001 .613 Tech_7 0.777 <.001 .627
Note. This depicts the factor loadings for all items used in the current model, their estimated p-value, and the estimated R2 value. All provided estimates are standardized.
All factors in the model were positively correlated with each other, with the
highest correlation between the Spatial Mode and Auditory Mode (r = 0.723) and the
weakest correlation between the Technology Mode and Gestural Mode (r = 0.020). The
only significant correlations were between Linguistic Mode and Spatial Mode (r = 0.356,
p = 0.031), Linguistic Mode and Synesthesia Mode (r = 0. 548, p = 0.009), and Spatial
Mode and Synesthesia Mode (r = 0. 534, p = 0.021). Correlations among latent factors
described how they change in relation to one another; related constructs were expected to
vary together in some way, and unrelated constructs were expected not to vary together
significantly. A high correlation (e.g., >.9) would indicate that two constructs may not be
separate constructs at all, and those constructs may need to be combined into one. This
was not the case in the data, and all correlations among factors are depicted in Table 17
and represent the hypothesized relationship among the latent factors. This helped answer
the first research question by showing that the latent factors, or modes, are positively
correlated with each other.
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Table 17
Factor Correlations – Initial Model
Factor Correlated Factor R p
Gestural Mode Linguistic Mode 0.626 .069 Visual Mode Linguistic Mode .421 .078
Gestural Mode .468 .122
Auditory Mode Linguistic Mode .505 .235
Gestural Mode .651 .233
Visual Mode .607 .224
Spatial Mode Linguistic Mode .356 .031
Gestural Mode .318 .252
Visual Mode .480 .139
Auditory Mode .723 .147
Synesthesia Mode Linguistic Mode .548 .009
Gestural Mode .506 .137
Visual Mode .589 .109
Auditory Mode .712 .141
Spatial Mode .534 .021
Technology Linguistic Mode .229 .064
Gestural Mode .020 .918
Visual Mode .122 .492
Auditory Mode .230 .512 Spatial Mode .099 .516 Synesthesia Mode .148 .436
Note. This model was estimated using the fixed-factor method, which fixes the variance of all latent factors to 1. This standardizes the factor covariances to be equivalent factor correlations. P-value significance judged with p < .05, r = correlation.
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Composite reliability (CR), calculated for each factor to evaluate the ratio of
explained variance in relation to total variance to determine how reliably indicators
measure a single factor, is depicted in Table 18. The following equation depicts how this
reliability coefficient is calculated: the product of the squared sum of the factor loadings
and the latent variance (fixed to 1 in the model) is divided by the sum of the residual item
variance and the product the squared sum of the factor loadings and the latent variance
(Kline, 2016).
Technology Mode reported the highest reliability with CR = 0.84, and Auditory
Mode reported the lowest reliability with CR = 0.22. Composite reliability is generally a
better alternative to Cronbach’s alpha, which does not directly measure the relationship
between the items and their latent construct in ways that composite reliability does
(Kline, 2016). The composite reliability estimated for this initial model shows poor
reliability, with all but two constructs below the preferred threshold of 0.6 (Kline, 2005).
This, combined with the insignificant loadings and correlations, indicated that the model
had poor local fit (e.g., item loadings) despite the overall model fit indicators. Therefore,
the model was pruned of items that had highly insignificant loadings and reevaluated.
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Table 18
Composite Reliability – Initial Model
Construct CR
Linguistic Mode .69 Gestural Mode .33 Visual Mode .40 Auditory Mode .23 Spatial Mode .43 Synesthesia Mode .42 Technology Mode .84 Note. A threshold of .60 is typically used to denote good composite reliability (Kline, 2005).
After pruning the model of all items with highly nonsignificant loadings, the final
model had good indicators and overall model fit: RMSEA = 0.000, CFI = 1.000 and TLI
= 1.080, and SRMR = 0.064. The improved TLI and SRMR demonstrated that this model
not only has excellent indicators of fit, but also improved indicators of fit compared to
those of the previous model. Therefore, I concluded that the model still has good overall
model fit. From here, I once again moved on to examine the item loadings, latent factor
correlations, and composite reliability to evaluate how well the reduced number of items
related to their latent factors to answer the first research question.
Eight questions were selected from the original model to load onto the Linguistic
Mode factor, with item Ling_5a having the highest estimated loading of 0.719, with p <
.001 and R2 = .521, and item Ling_3a having the lowest estimated loading of 0.436, with
p < .001 and R2 = .198. Three questions were selected from the original model to load
onto the Gestural Mode factor, with item Gest_1a having the highest estimated loading of
.685, with p < .001 and R2 = .479, and item Gest_2a having the lowest estimated loading
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of .506, with p < .001 and R2 = .268. Three questions were selected from the original
model to load onto the Visual Mode factor, with item Vis_2a having the highest estimated
loading of .680, with p < .001 and R2 = .474, and item Vis_1a having the lowest
estimated loading of .575, with p < .001 and R2 = .342. Two questions were selected from
the original model to load onto the Audio Mode factor, with item Audi_2a having the
highest estimated loading of 0.568, with p < .001 and R2 = .334, and item Audi_1a having
the lowest estimated loading of .444, with p < .001 and R2 = .204. Three questions were
selected from the original model to load onto the Spatial Mode factor, with both items
Spat_2a and Spat_3a having the highest estimated loadings of 0.719, with p < .001, and
item Spat_1a having the lowest estimated loading of .522, with p < .001 and R2 = .292.
Four questions were selected from the original model to load onto the Synesthesia Mode
factor, with item Syn_3a having the highest estimated loading of 0.691, with p < .001 and
R2 = .488, and item Syn_1a having the lowest estimated loading of .537, with p < .001
and R2 = .303. The original seven questions loaded onto the Technology factor, with item
Tech_7 having the highest estimated loading of .782, with p < .001 and R2 = .636, and
Tech_3 having the lowest estimated loading of .479, with p < .001 and R2 = .242. All
factor loadings were significant in this model, with p < .001 in all cases. This shows that
reducing the weak indicators increases the reliability of the instrument’s ability to
measure latent constructs. Table 19 depicts the factor loadings for all items used in the
revised model, their estimated p values, and the estimated R2 values. The loadings are
again standardized to be between 0 and 1, with a higher loading indicating a stronger
relationship between the construct and the item measuring it. The R2 value indicates the
percent of variance explained by the model. Table 19 depicts that the revised model with
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selected items included shows improved loadings, all of which are significant, further
demonstrating the improved reliability of the instrument to measure pedagogical content
knowledge of new literacies.
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Table 19
Item Loading – Revised Model
Construct Item Loading p R2
Linguistic Mode Ling_1a .509 <.001 .267
Ling_2a .673 <.001 .458
Ling_3a .436 <.001 .198
Ling_4a .641 <.001 .417
Ling_5a .719 <.001 .521
Ling_6a .640 <.001 .417
Ling_7a .714 <.001 .514
Ling_8a .698 <.001 .493 Gestural Mode Gest_1a .685 <.001 .479
Gest_2a .506 <.001 .268
Gest_3a .558 <.001 .324 Visual Mode Vis_1a .575 <.001 .342
Vis_2a .680 <.001 .474
Vis_3a .580 <.001 .352 Auditory Mode Audi_1a .444 <.001 .204
Audi_2a .568 <.001 .334 Spatial Mode Spat_1a .522 <.001 .292
Spat_2a .719 <.001 .524
Spat_3a .719 <.001 .528 Synesthesia Mode Syn_1a .537 <.001 .303
Syn_2a .544 <.001 .308
Syn_3a .691 <.001 .488
Syn_4a .599 <.001 .370 Technology Mode Tech_1 .667 <.001 .466
Tech_2 .705 <.001 .517
Tech_3 .479 <.001 .242
Tech_4 .532 <.001 .285
Tech_5 .724 <.001 .527
Tech_6 .771 <.001 .620
Tech_7 .782 <.001 .636 Note. This depicts the factor loadings for all items used in the current model, their estimated p-value, and the estimated R2 value. All provided estimates are standardized.
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All but one pair of factors in the model were positively correlated with each other,
with the highest correlation between Spatial Mode and Auditory Mode (r = 0. 860), and
the weakest correlation was between Technology and Gestural Mode (r = – 0. 003). All
correlations among the New Literacies modes were significant, with the exception of the
correlation between Spatial Mode and Gestural Mode (r = 0.320, p = 0.055). The only
correlation that was significant among these modes and Technology items was that with
the Linguistic Mode (r = 0.210, p = 0.044). All correlations among factors are depicted in
Table 20. This further supports the construct validity of the measure, with all modes
positively correlated with each other.
Composite reliability was again calculated using Equation 1 for each factor to
evaluate the ratio of explained variance to total variance to determine how well indicators
measure a single factor, and these composite reliability scores are depicted in Table 21.
Linguistic Mode and Technology reported the highest reliability with CR = 0.84 each, and
Auditory Mode reported the lowest reliability with CR = 0.40. This indicated that all
modes, with the exception of Auditory Mode, demonstrated adequate composite
reliability when judged by the 0.6 threshold. Reducing the number of parameters,
estimated by the model from the original number of indicators, improved model fit, item
loading, composite reliability, and correlations among latent factors, while explaining a
similar amount of variance compared with that of the initial model. This further answered
the first research question by demonstrating that pedogeological content knowledge of
new literacies can be reliably measured using the instrument designed in this study. Using
this instrument, we can measure teachers’ knowledge of pedogeological content
knowledge of new literacies.
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Table 20
Factor Correlations – Revised Model
Factor Correlated Factor R p
Gestural Mode Linguistic Mode .699 <.001 Visual Mode Linguistic Mode .449 <.001
Gestural Mode .470 .002
Auditory Mode Linguistic Mode .582 .008
Gestural Mode .740 .004
Visual Mode .728 .006
Spatial Mode Linguistic Mode .345 .006
Gestural Mode .320 .055
Visual Mode .499 .007
Auditory Mode .860 .003
Synesthesia Mode Linguistic Mode .542 <.001
Gestural Mode .537 <.001
Visual Mode .691 <.001
Auditory Mode .803 .003
Spatial Mode .523 .001
Technology Mode Linguistic Mode .210 .044
Gestural Mode .003 .983
Visual Mode .159 .326
Auditory Mode .257 .235 Spatial Mode .105 .459 Synesthesia Mode .124 .350
Note. This model was estimated using the fixed-factor method, which fixes the variance of all latent factors to 1. This standardizes the factor covariances to be equivalent factor correlations. P-value significance judged with p < .05, r = correlation.
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Table 21
Composite Reliability – Revised Model
Construct CR
Linguistic Mode .84 Gestural Mode .60 Visual Mode .64 Auditory Mode .40 Spatial Mode .71 Synesthesia Mode .69 Technology Mode .84 Note. A threshold of .60 is typically used to denote good composite reliability (Kline, 2005).
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Table 22
Participant Average Scale Score
Average Subscale Score Linguistic Gestural Visual Auditory Spatial Synesthesia Technology Gender
Female (N = 312) 4.33 4.38 4.41 4.28 4.10 4.36 6.13 Male (N = 141) 4.23 4.18 4.35 4.09 4.20 4.26 6.57
Year in Program Freshman (N = 27) 4.16 4.36 4.12 4.41 3.94 4.33 6.07 Sophomore (N = 36) 4.16 4.15 4.15 4.10 3.79 4.14 6.25 Junior (N = 100) 4.17 4.13 4.17 4.03 4.04 4.14 6.12 Senior (N = 324) 4.34 4.35 4.47 4.24 4.17 4.39 6.31
Specialization Art Education (N = 6) 3.68 3.78 3.61 3.50 3.53 3.75 6.07 Business Education (N = 3) 3.69 3.50 4.00 3.75 4.00 3.88 5.57 English Education (N = 50) 4.17 4.26 4.23 4.09 3.93 4.31 6.22 Foreign Language Education (N = 11) 4.17 4.33 4.12 4.18 4.12 4.23 6.13 Gifted and Talented Education (N = 8) 4.26 4.23 4.25 4.19 4.08 4.19 6.57 Health and Physical Education (N = 3) 3.05 3.33 3.22 3.33 2.56 4.12 6.14 History Education (N = 30) 3.97 4.07 4.17 3.93 3.77 4.09 6.08 Math Education (N = 72) 4.13 4.09 4.19 4.01 3.92 4.15 6.32 Music Education (N = 6) 3.18 3.94 3.17 3.67 2.89 4.00 5.57 School Administration (N = 1) 4.86 4.50 5.00 5.00 5.00 5.00 7.86 School Counseling (N = 3) 4.76 4.67 5.00 5.00 5.00 5.00 6.48 Special Education (N = 123) 4.35 4.32 4.37 4.28 4.10 4.34 6.32 TESOL/ESL/Bilingual (N = 163) 4.36 4.36 4.53 4.26 4.25 4.42 6.41 Vocational Education (N = 4) 4.17 3.75 4.17 3.62 3.38 3.81 6.29 Literacy (N = 37) 4.15 4.19 4.16 4.17 4.05 4.40 6.24 Reading (N = 46) 4.11 4.22 4.26 4.16 4.00 4.30 6.55 Writing (N = 38) 4.05 4.12 4.20 4.09 4.00 4.25 6.49 Other (N = 84) 4.31 4.30 4.41 4.17 4.13 4.33 6.22
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Table 22 Continued
Average Subscale Score Linguistic Gestural Visual Auditory Spatial Synesthesia Technology College
Angelo State University (N = 2) 4.29 4.00 3.83 4.00 3.75 4.00 6.93 Grambling State University (N = 2) 4.64 4.50 5.00 5.00 5.00 4.67 7.00 Hannibal-LaGrange University (N = 7) 4.00 4.00 4.14 3.86 4.43 4.19 6.53 Howard Community College (N = 18) 4.33 4.37 4.37 4.39 3.97 4.36 5.94 Ohio State University (N = 4) 4.25 4.08 4.58 4.50 3.88 4.06 5.68 Texas Tech University (N = 393) 4.32 4.32 4.41 4.22 4.14 4.35 6.29 University of Hawaii at Manoa (N = 4) 4.46 4.25 3.58 4.25 3.50 3.75 5.82 University of North Texas (N = 6) 4.55 4.33 4.58 4.33 4.58 4.40 6.76 University of Texas at San Antonio (N = 12) 3.98 4.00 4.08 3.79 3.78 3.83 6.00 Western Michigan University (N = 9) 3.74 4.41 3.85 3.89 3.63 4.08 5.35
Classroom Practicum Experience Yes (N = 429) 4.29 4.28 4.37 4.20 4.12 4.33 6.26 No (N = 58) 4.24 4.37 4.37 4.23 3.96 4.27 6.27
Completed at least one literacy course Yes (N = 447) 4.29 4.29 4.37 4.21 4.11 4.33 6.29 No (N = 21) 4.19 4.43 4.33 4.11 3.86 4.23 5.61
Field experience with a cooperating teacher Yes (N = 369) 4.32 4.31 4.42 4.22 4.16 4.38 6.32 No (N = 69) 4.12 4.20 4.16 4.11 3.88 4.09 5.93
Note. Linguistic, Gestural, Visual, Auditory, Spatial, and Synesthesia modes are measured on a 1-5 scale. Technology mode is measured on a 1-7 scale.
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Findings From the Qualitative Data
This study was also designed to capture the pedagogical content knowledge of
new literacies reflected by pre-service teachers in teacher preparation programs based on
an open-ended survey question, which asked:
You are asked to teach a reading/literacy/English arts class for the grade level you
teach that include students from different cultural and variety reading experiences.
Based on your practice or future application: How would you use New Literacies
to choose a topic of your choice?
Below, I begin by explaining the four themes that emerged from the analysis by
providing examples of responses, using the subcategories. I complete the findings by
describing each of the themes that reflect preservice teachers’ understanding of new
literacies.
The themes identified from the data are: (a) Preservice teachers’ partial
knowledge of new literacies that align with preestablished modes; (b) Preservice
teachers’ misconception of technologies and new literacies; (c) Preservice teachers’ need
for exposure to new literacies standards; and (d) Pedagogical content knowledge
practices as cultural relevant teaching.
Preservice Teachers’ Partial Knowledge of New Literacies That Align With
Preestablished Modes
Some preservice teachers demonstrated partial knowledge of new literacies that
align with the modes of literacies.
Visuals. The visual mode involves creating the meaning from mental images
through colors and photographs (Kalantzis & Cope, 2012). Pertaining to the visual mode,
67 (19%) preservice teachers described their use of visual graphs, charts, visual aids,
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digital applications, and graphic organizers (Kalantzis & Cope, 2012). Participant 61
explained, “I would plan a read aloud/video demonstrating the lesson's main idea and
create an anchor chart that would include pictures and words that we could hang up for
future reference.” Participant 170 reported, “I would use them to create an interesting and
engaging lesson that involves a graphic organizer.” Participant 49 said,
[I would] include books that are culturally responsive and relevant to the students’
lives. I would create a visual or graphic organizer to list important points in the
text. I would elicit a variety of thinking, have students turn and talk and include
the student’s response into the graphic organizer.
Several preservice teachers shared that they would use visuals to embrace student
cultures. For instance, Participant 10 said, “I would use as much visuals as I can. Videos,
audio, and pictures to words can help students from all different cultures.” Participant 91
explained, “I would make sure to incorporate visuals and text from the students’ home
language.” Participant 194 added, “I would provide visuals and multi-media, anchor
charts, labels, and sentence stems to support all learners. Have a read aloud and look at
the pictures with the students I would make sure the text is relevant to them and that it
meets all students.” Participant 111 expressed,
[I would] build a culturally competent lesson that allows students to bring in their
background knowledge of their culture and provides scaffolding/background info
for anything that might be new to any student in the class. I can also provide a
variety of texts (traditional, audio, visual, etc) to ensure the lesson is accessible.
Participant 136 stated,
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I would collaborate with the school librarian on what books I can implement to
my lessons that connect to the state standards we are learning but also including
different cultures for students can make connections and relate to the book. I
would decorate my room to promote classroom diversity.
Some teachers agreed they would use visuals to help students who have language
barriers. Participant 45 shared, “Anywhere when I can use pictures in the classroom to
assist my students, I would happily do this so that the language barrier is eased.”
Participant 81 concurred, “I would be sure to incorporate vocabulary support, images,
and opportunities to read, write, speak, and listen.” Participant 187 asserted,
I would make sure to incorporate visuals and text from the students; home
language. I would use news articles to plan a lesson over text features. If possible,
I would try and use articles that are familiar to the students from other countries. I
would have articles that have a lot of pictures, in case the students are ELL's.
Participant 123 stated,
Providing lesson materials in various formats such as visual or audio methods so they can get the material at their own level. Providing videos of demonstrations with various coded subtitles and hands on lessons provides students with a way to visualize what is being taught even if they have not fully developed the English language. There are several students who struggle with reading, so presenting them with recorded instructions or reading the instructions aloud for a lesson as you perform actions or move through allows them to follow along if they cannot follow along on their own without disrupting the rest of the class.
Participant 214 reported,
I would make an anchor chart of thinking steps that include pictures and the
thinking steps the students should ask themselves. I would plan "Think Aloud"
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during the time that I model. I would also demonstrate my modeling and
incorporate visuals.
Spatial. Responses of 32 (9%) preservice teachers showed their ability to use the
spatial mode of new literacies. The spatial mode is the ability of preservice teachers to
use the teaching space for educational purposes, and in this context, it included (field
trips, setting work stations, cultural diversity, cultural tolerance in the classroom, and
making connections; Kalantzis, Cope, Chan, & Dalley-Trim, 2016). For instance,
Participant 65 reported, “I would create a lesson with stations that include drawing, and
iPad applications to differentiate evaluation of need.” Additionally, Participant 23 said,
“Since I am wanting to teach first grade, I would have all students sit on the carpet and
have the book displayed on the projector for all of us to read/listen together.” Participant
191 wrote,
I would use technology such as videos, pictures, and virtual field trips to provide
my students with background knowledge on a variety of cultures. This will
activate their schema and provide more context as I introduce multicultural texts
to the classroom.
Participant 159 wrote,
I would incorporate different cultures in multiple types of texts to make sure my
students are getting information that is relevant to them while also teaching about
others. This type of teaching will allow students to be more tolerant and
understanding of their peers and surrounding communities.
Participant 25 reported, “I would absolutely use learning stations and a variety of
strategies such as the zoom in and thoughts hots strategies to enhance student writing.”
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Participant 141 added, “We would work in stations and make sure that the material is
culturally relevant to my students.” Participant 296 shared, “Use stations and hands on
activities so the students have a memorable learning experience.” Participant 301 said,
“I would incorporate different stations that contain group work, individual work,
technology, and others. Students would be able to pick from different genres and
materials to complete their work.” Similarly, Participant 331 documented, “I would
create groups to rotate in stations in order to meet all students needs while also being able
to work one-on-one with each of my students.”
Participant 193 stated,
I would find ways to find a lesson that would help my students be able to relate to
each other and understand each other in a new way. I would do stations and split
the children up based on their reading level that way I can give each child the
attention they need.
Gestural. Nine (0.02%) preservice teachers provided examples of their ability to
use the gestural mode in the classroom. This mode focuses on preservice teachers using
bodily appearances, movement, and positioning (Kalantzis & Cope, 2012). They are
multilayered, connected to behavior, feeling effect, and gesture (Kalantzis & Cope,
2012). For the purpose of this research, the gestural mode included providing a safe
environment; using body language, storytelling, and think aloud; and modeling.
Participant 214 said, “I would plan ‘Think Aloud’ during the time that I model. I
would also demonstrate my modeling and incorporate visuals.” Participant 154 described
her plan, “Native Hawaiians use storytelling as a way of teaching and passing down
traditions, the student may choose to use storytelling as their assessment form.”
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Participant 17 thought that the use of gestures helps struggling students. They shared, “I
will have many visuals and hand gestures to accommodate struggling students.”
Participant 177 asserted, “I would use technology in the classroom to help develop
literacy skills among students. Using things like audio read aloud apps and having
students design their own comics or record their own pieces.” Participant 135 shared,
“Making sure that I model all of my expectations and interactions and the thinking that I
want them to develop during the lesson.”
Participant 63 stated,
I realize that it is important that students are able to learn as well as express
themselves through different avenues such as music, diagrams, physical gestures,
technologies, etc. I would incorporate all of the new literacies I have learned
within my lessons to captivate and engage my students.
Likewise, Participant 74 said, “I would use new literacies to plan a lesson of my choice
by incorporating visuals and using physical gestures to reinforce student learning.”
Participant 32 asserted,
In order to teach and reach those of the different cultural backgrounds I would be
very dramatic and emphasize my body movements as I am communicating. I
would try to gear read aloud to fit in as much as possible that include lots of
pictures. I would also create multiple opportunities for student interaction.
Audio. Thirty-nine (0.02%) preservice teachers’ answers indicated their ability to
use the audio mode. The audio mode involves the use of elements that teachers deploy to
signify sound effect (Kalantzis & Cope, 2012). Within this research, the audio mode
included (audio tools, applications, and read aloud). For instance, Participant 93 said, “I
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would present a lesson with many visual and auditory supports.” Participant 234
elaborated, “I would use music as the basis for bringing up the subject and getting the
students' attention. This would allow an easy way to bring in different cultures and then
branch off that.” Participant 334 explained, “I would assess what interests the students
and choose an appropriate new literacy such as a voice over app like Chatterpix. The
student[s] can then listen to their recording and make adjustments.” Participant 165
indicated, “I would make sure that my lesson is full of differentiation! Station work
would have word sorts for vocabulary and interactive read aloud would have big pictures
to help students connect to the words and understanding.” Participant 123 said,
“Providing lesson materials in various formats such as visual or audio methods so they
can get the material at their own level.”
Participant 207 testified,
In my past experiences I have learned that young children are very active. They
need to constantly be moving around, with that being said I would incorporate my
lessons into dances and songs. We would use hands on activities to help them
maintain the information well.
Participant 140 reported,
I would have the students listen to the audio book and give them an activity that
supports the book and at another group I would have the physical book where the
students would also be completing a different activity related to the activity. They
would be able to use the physical book as a reference.
Participant 118 reported,
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Due to my background in music education I would use songs and their lyrics to
teach a literacy lesson. I would find out what cultures some of the students are
from and pick songs that are traditional folk songs of that culture. It would be a
lesson in history as well literacy. I would play the songs and students could follow
along with the lyrics. Hearing the words first will help some students be able to
read them by making associations between the sounds and the letters. After
listening to the songs there would be time for students to take turns reading the
lyrics and a bit of analysis on what the lyrics mean. Students would have time to
collaborate with a group and come up with a creative way to tell the class what
the song is about. I would be guiding the students in their discussions and make
sure they are on the right track. This would be an activity that 5th-12th graders
could complete depending on the difficulty of the song lyrics.
Participant 227 said,
I would read a book with my class. And then have a test or vocab quizzes about the book. I could also use videos to help with the process of showing students introductions and audio parts they can accomplish on their own. Students can find creditable sources and use them to do an autobiography research on the author of the book. .
Participant 20 reported,
Using visuals and audio is very important to my students in my classroom. I love the idea of incorporating music into a lesson also. Providing multiple resources like technology to teach is a great way to reach students who might need more help in understanding or explaining their learning. Planning a lesson which incorporates many learning tools to support the content would be ideal for me.
Linguistic. The responses of 115 (32.7%) preservice teachers reflected the
preservice teachers’ ability to use the linguistic mode, which is text-based meanings that
traditionally dominate the field, including spelling, vocabulary, and grammar (Kalantzis
& Cope, 2012). The linguistic mode in this research included (mentor text, choice of text,
guided reading, reading fluency, vocabulary, and read aloud). Preservice teachers
described how they would use these modes. For instance, Participant 247 said, “I would
bring in mentor texts that featured different cultures at different reading levels.”
Participant 267 explained, “[I would] use mentor texts to show students how to correctly
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use things such as adjectives, adverbs, and other things I feel they would benefit from
hearing done correctly.” Participant 172 shared, “[ I would use] guided reading lessons or
writer's workshop.” Participant 257 indicated, “In reading I would use IRA, SR and
guided reading with phonics activities to help a student read with fluency and learn
vocabulary.”
Participant 249 described,
I might also consider doing a reader’s theater, and I would try to choose a book
that would interest all of the students. I could also group students heterogeneously
according to their reading level, so students with a low reading level would
benefit from being in a group with higher-level readers.
Participant 81 asserted, “I would be sure to incorporate vocabulary support, images, and
opportunities to read, write, speak, and listen.” Participant 113 stated, “It is important to
use new literacies to help the student with all the subjects. This way students learn
through reading and also increase their reading fluency.” Participant 276, “I will use a
variety of techniques, mentor texts, and hands-on learning in order to meet the needs of
all students.”
Preservice Teachers Misconception of Technologies and New Literacies
Preservice teachers had misconceptions between technologies and new literacies.
They were able to make a connection at the surface level of connecting new literacies to
the use of technologies. However, the responses indicated a lack of depth of using
technologies to connect to the use of modes of new literacies (Swenson, Young, McGrail,
Rozema, & Whitin, 2006). These misconceptions were seen in a number of instances.
For instance, “I would use it [new literacies] to incorporate technology into the classroom
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to gain student interest and to improve learning,” said Participant 327. Participant 330
pondered, “I would use technology to help them understand and show examples in their
home language. I would incorporate all cultures in my class throughout lessons and
literacy.” Likewise, Participant 80 shared, “I would use New Literacies that include a lot
of current technology and media, like blogging/‘vlogging’, podcasting, and video making
to encourage learning and show the variety in cultures in the classroom.” Participant 95
shared, “I would include technology to promote literacy in my classroom.” Participant
327 inferred, “I would use it to incorporate technology into the classroom to gain student
interest and to improve learning.” Participant 88 explained in detail:
I will use new literacies to plan a lesson by using different forms of technology to
assist students from different cultures with a variety of reading experiences. For
example, I would create a hyper document to provide students with an assignment
where they can control their learning. They can be free to explore with the
resources provided. The text can be read aloud to assist students with help
emerging reading levels. They can also connect with professionals or people from
their same culture to connect and learn.
Some preservice teachers thought the use of technology would spark their
students’ interests and increase their classroom engagement. Participant 138 indicated
“using different modes of technology to preview the lesson for students before direct
instruction of the content.” Participant 230 stated, “I would definitely incorporate some
sort of technology into the lesson. Through Smart Board use or iPads I believe it would
help to engage the students more either it be playing games or activities or using digital
texts for the lesson.” Participant 70 confirmed, “I plan on using a lot of technology to
incorporate other cultures that I may not have access to in my local library.” Participant
70 mentioned, “Read aloud videos on YouTube give us access to books that we don't
normally have access to. I love to incorporate technology in the classroom, and it makes
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the children participate more.” Participant 181 shared, “I would use New Literacies by
incorporating technology in my classroom. With technology, you are about to establish
different needs for your students, such as having a variety of reading experiences,
cultures, and backgrounds.” Participant 177 said, “I would use technology in the
classroom to help develop literacy skills among students. Using things like audio read
aloud apps and having students design their own comics or record their own pieces.”
Some participants did not know about new literacies but made a direct connection
with technology. Participant 14 said,
I am not sure what is meant by New Literacies. It seems like when literacy is
mixed with technology. If that is the case, then we currently use technology in my
placement now. Students are able to listen to their text on their tablets. There are
also different apps they can use for reading and tracking their reading.
Similarly, Participant 128 answered, “I am not sure what new literacies are, but if it
means integrating technology into the classroom then, yes, I would do that.”
Preservice Teachers Need More Exposure to the New Literacies Standards
Based on the preservice teachers’ responses, a number of participants said they
would use new literacies, if the standards require them to, not knowing that there are
standards that refer to using new literacies that teachers are expected to use in the
classroom (Taffe & Bauer, 2013).
Participant 108 said,
I am currently not teaching students this semester. If I were to teach new
literacies and have a plan, I would follow the state standards and practice what the
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students already knows and work with improving the skills that they need to work
on and master before moving on to the next standard.
Participant 103 said, “I would make sure that it aligns with the Texas Education
(TEKS).” Participant 23 indicated, “I would look at my TEKS calendar to see what genre
the students need to be reading that week, then I would search online for a book that
would be read to the students with the words also on the book.” Similarly, Participant 211
shared, “I would first select the appropriate TEKS and breakdown what the student needs
to know for mastery and develop a content objective. Next, I would find a book that is
culturally inclusive of the students represented in my classroom.”
Participant 24 explained,
I always read the assigned test that we will be using for the week. After reading it,
I examine the TEK that we will be using and plan the lesson accordingly. After
planning the lesson, I review to ensure that it includes the accommodations for
those who need it. I always make sure the questions I ask, the activities I plan and
the way I present it will meet the TEK.
Participant 25 said, “I would use them to know and understand how to challenge students
as well as bring them to the meets and masters levels of the TEKS standards.” Participant
27 said,
I learned through my college courses to first identify the TEK that I want to teach.
Then I need to break down the TEK and understand the outcome. After that, I
need to develop my objectives including a Language Objective. During my
lesson, I need to begin my checking on prior knowledge. In this case, I need to
incorporate Literacy - Since I work in a Dual Language Classroom, we use
phonological.
Participant 136 shared,
I would collaborate with the school librarian on what books I can implement to
my lessons that connect to the state standards we are learning but also including
different cultures for students can make connections and relate to the book. I
would decorate my room to promote classroom diversity. I would provide visuals
and multi-media, anchor charts, labels, and sentence stems to support all learners.
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Pedagogical Content Knowledge Practices as Cultural Relevant Teaching
Eighty-nine (2.25%) preservice teachers who completed the survey inferred that
pedagogical content knowledge of new literacies are understood to include integrating
student cultures into the curriculum and teachers being culturally sensitive and aware. For
example, Participant 8 shared,
I would incorporate books that reflect the culture of my students. Making content
relative to students will help them to understand the content through background
knowledge. It will further create an environment of acceptance of all students and
support their participation.
Similarly, Participant 9 said, “I would ensure that I include their different culture
backgrounds and interests in my lesson to connect the lesson to period learning and
cultural background.” Additionally, Participant 111 shared that they would:
build a culturally competent lesson that allows students to bring in their
background knowledge of their culture and provides scaffolding/background info
for anything that might be new to any student in the class. I can also provide a
variety of texts (traditional, audio, visual, etc.) to ensure the lesson is accessible.
Many preservice teachers indicated in their responses that integrating the student’s
culture in the curriculum represented new literacies. For instance, Participant 139 said, “I
would incorporate literacy that is relatable to my students’ culture by using technology,
media, and texts that expose students to different cultural aspects.” Participant 188
affirmed,
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I would choose a book that has a different culture than we have that way I can
introduce a new culture than show videos and plan activities so the students can
experience different cultures rather than just hear about it.
Participant 190 asserted, “I would try to incorporate different ways of learning a
culture such as using visuals and movements along with some reading.” In the same way,
Participant 229 shared, “I would use the text to relate to individual cultures within my
class. When presented with a new culture I would open discussion so others can learn the
culture through their peers.” Similarly, Participant 344 indicated, “I would pick literature
that is diverse with every race and culture represented. I would not be able to do this in
one text every time, but I would pick a different cultural text each day.” Participant 100
said, “I would implement and introduce a variety of literacy for my students to ensure
that I include/accept each student's culture in my classroom.” Participant 197 specified,
“[I would] include Literature from different cultures and allow a group to pick. Then
present the book and compare and contrast the culture to their own.”
Participant 64 specified,
This reminds me of the part of the year where we discuss traditions and
incorporate different cultures. Selecting rich mentor texts about different cultures
to teach reading skills would be so fun and I would incorporate a fun "around the
world" project to go along with it. We would visit one country and read a text
aloud and learn all about the culture and stamp out passports. Each week we
would visit a new country and create different hands on projects.
Summary
To answer the first research question, the quantitative data indicated that the items
in Survey A had the most significant factor loadings. The modes of new literacies in this
survey were all reliable, except for the audio mode, since only two items had highly
significance factor loadings. The reliability and validity of the instrument were
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determined by using composite reliability, factor loading, and factor correlation. Three
external reviewers confirmed the content validity of the instrument. The findings of the
survey showed that there was low correlation between preservice teachers’ technological
skills and their use of the modes of new literacies. This means that teachers do not need
to have technological skills to be able to use new literacies in the classroom.
The qualitative results showed that preservice teachers appeared to possess a
knowledge of new literacies that did not always align with the elements of the constructs
presented by New Literacies/new literacies. Rarely did any of the participants use more
than one mode in their responses to reflect synesthesia (Kalantzis & Cope, 2012). Also,
some of the preservice teachers’ responses indicated a misconception of new literacies in
that this tended to be construed as the use of technology. More intriguing was the
indication that preservice teachers associated the notion of using new literacies to student
cultures, highlighting one of the key reasons for which new literacies was designed: to
broaden access to underserved and often invisible populations (Kellner, 2000). Some of
the preservice teachers referred to the knowledge that teachers should have to adopt new
literacies in the classroom but did not mention the skills, which involve using the
different modes of new literacies. These indications seemed to suggest a disconnect
between knowledge (theory) and practice, as previously highlighted in the literature
(Borrero, Flores, & De La Cruz, 2016; Risko, 2017; Risko et al., 2008).
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CHAPTER V
DISCUSSION AND CONCLUSION
The purpose of this chapter is to present explanations and interpretations of the
survey results and the qualitative data for Research Questions 1 and 2. This research
examined the reliability of the survey to measure the preservice teachers’ pedagogical
content knowledge of new literacies and the pedagogical content knowledge of new
literacies reflected by preservice teachers. I will discuss the connection of the themes in
relation to the literature. Chapter V includes: (a) interpretation of the results; (b)
conclusion; (c) limitations of the study; (d) implications of the research; and (e) final
thoughts.
Interpretation of the Results
Quantitative Results
Confirmatory factor analysis measures the fit of a set of variables (items in my
questionnaire created to measure a component of pedagogical content knowledge of
literacies [PCKNL]) to the construct (components of PCKNL). In this study, factor
constructs were determined through a review of literature and the new literacies theory.
Factor analysis helped select the items that best represent the constructs (Kline 2016).
The participants in this study came from different parts of the United States:
seven (1.1%) resided in the Northeast, 35 (5.6%) resided in the Midwest, 373 (59.2%)
resided in the South, and 31 (4.9%) resided in the West, with 176 (28.4%) not reporting a
region of residency. They indicated that they teach different levels: primary, secondary,
and high school. The intent of using new literacies is for teachers to individualize
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instruction, motivate students to learn, and guide their learning. Teachers at any level can
use the PCKNL questionnaire. From my personal experience, I learned that instructors
experience challenges in planning lessons that cater to all their students’ needs, and that
inspired me to design this survey. The goal of the PCKNL was to help instructors identify
students’ needs and fulfill them. Participants from different parts of the United States at
different public and private universities completed the survey.
The Revised Model provides reasonable evidence of construct validity and
reliability for the six modes of the PCKNL. The model-data fit was evaluated with regard
to both incremental and absolute model fit, using multiple statistics, including the
comparative fit index (CFI; Bentler, 1990), Tucker-Lewis index (TLI; Tucker & Lewis,
1973), root mean square error of approximation (RMSEA; Steiger & Lind, 1980), and
standardized root mean square residual (SRMR; Muthén & Muthén, 1998–2010).
A CFI or TLI value greater than .95 is the standard for a well-fitting model (Hu &
Bentler, 1999). An RMSEA value less than .06 or (Hu & Bentler, 1999) or .08 (Little,
2013) indicates good model fit (< .08 = fair fit, < .10 = mediocre fit; MacCallum,
Browne, & Sugawara, 1996). A SRMR value less than .05 was considered acceptable
(Geiser, 2012) with an adequate-fit threshold of .08 (Little, 2013).
The initial model loaded all items onto their respective latent constructs. Overall
model fit indices were excellent, with RMSEA = 0.00, CFI = 1.00 and TLI = 1.00, and
SRMR = 0.081. The standardized loadings showed that items from Survey A loaded
much stronger than items from Surveys B and C, and items from Survey A were shown
to have the most significant factor loadings as well. This reflects that despite good
indicators of overall model fit, some items themselves did not reliably load onto the
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factors. Based on these indications, overall, the model presented in the findings reflected
a good fit. However, when I evaluated the model at the item level, questions from
Surveys B and C were not as reliable as questions from Survey A. This was determined
by examining the loadings, which indicated how reliable a question is at measuring the
underlying latent construct. Based on these indications, questions from Surveys B and C
were shown not to be reliable indicators of the underlying constructs they were designed
to measure.
Correlations among latent factors describe how they change in relation to one
another (Kline, 2005). I expected related constructs to vary together in some way and
unrelated constructs not to vary together significantly. A high correlation (e.g., < .9)
would indicate that two constructs could not be independent of each other and that they
would need to be combined into one. This was not the case with the data presented for the
model developed. All of the correlations between the modes appeared to be moderate,
with weaker correlations reflected between the Technology Mode and the other six
modes. I expected the correlations among the factors measured by the PCKNL to be
positive and moderate, which was demonstrated to be the case in the results of the
PCKNL model. There were no cross-loadings, which would have indicated that an item
belonged to a construct other than the one for which it was created, further demonstrating
construct validity between the items and the underlying latent constructs.
Composite reliability (CR) was also calculated, using Equation 1 in the Results
section for each factor, to evaluate the ratio of explained variance in relation to total
variance and to determine how well indicators measured a single factor with CR between
0.84 and 0.22. The CR was obtained when CR>0.6. Composite reliability is generally a
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better alternative to Cronbach’s alpha, which does not directly measure the relationship
between the items and their corresponding latent construct in ways that composite
reliability does (Kline, 2016). The composite reliability estimated for the initial model
showed poor reliability, with all but two constructs below the preferred threshold of 0.6
(Kline, 2005). This, combined with the insignificant loadings and correlations, indicated
that the model had poor fit despite the overall model fit indicators. The model was
therefore pruned of items that had highly insignificant loadings and reevaluated.
After pruning the model of all items with highly nonsignificant loadings, the
indices for the final model were RMSEA = 0.000, CFI = 1.000 and TLI = 1.080, and
SRMR = 0.064. These fit indices are evidence of excellent overall model fit and the
improved values for TLI and SRMR are indications that the simplified model fit is better
than that of the previous version.
The Linguistic Mode was intended to measure the preservice teachers’ use of
language strategies to guide students in decoding words, locating information, engaging
in analyzing multiple texts, and assessing students’ comprehension skills. The loadings
for the remaining items were between 0.719 and 0.436, which is within the range of good
loading estimates (> 0.4), and all were significant, with p values less than .001. The
composite reliability of this factor was calculated to be 0.84, indicating that these items
are highly reliable indicators of the latent factor. The use of the new literacies approach
for each of these items was found to be justified. All four of the new literacies approaches
in this mode were met: the critical, the functional, the authentic, and the didactic. The
items for the linguistic mode measured the confidence that preservice teachers had using
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the linguistic mode in their past or future practices, and the results of the analysis showed
how this method reflected teachers’ knowledge of using the linguistic mode strategies.
The Gestural Mode refers to the preservice teachers’ ability and readiness to use
bodily appearances, movement, and positioning. Preservice teachers were asked about
their ability to help students understand the content by using gestures and body
movements, their ability to help students apply what they learned through theater and
drama activities, and their ability to create a welcoming and safe environment to promote
student interest in learning. These items measured the didactic, functional, and authentic
approaches. Results showed high factor loadings of significance and reliability. Three
questions were selected from the original model to load onto the Gestural Mode factor,
with factor loadings between 0.685 and 0.506, all of which were significant with p values
less than 0.001, and the composite reliability of these items was 0.60, the threshold for
good composite reliability. This section measured the confidence in preservice teachers’
use of teacher-centered and student-centered approaches and whether they could establish
structure in literacy learning using the gestural mode through social function. Results
showed that this section was reliably measured by the instrument.
The Visual Mode refers to creating meaning from images such as paintings,
colors, and advertisements. Preservice teachers were asked about their ability to use
graphics to organize information relevant to their students to promote thinking and
learning, their ability to use different teaching approaches and interactive texts to guide
student thinking and learning, and their ability to use different technologies in teaching to
guide student thinking and learning in teaching their subject. Three questions were
selected from the initial model to load onto the Visual Mode factor with loadings between
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0.680 and 0.506, all of which were significant with p values less than 0.001 and
composite reliability of 0.64, indicating that these items are reliable. These items
reflected using the authentic approach of new literacies, which measures the ability of
preservice teachers to use this mode that was derived from student interests, which my
model’s results support this survey’s ability to reliably measure this mode. The Audio
Mode refers to the effects of sound. Preservice teachers were asked about their ability to
guide student understanding by using music and any kind of sound effect and their ability
to use different approaches, such as read-aloud exercises, to increase reading
comprehension or to assess student understanding. Two questions were selected from the
initial model to load onto the Audio Mode factor with loadings of 0.444 and 0.568, with p
values less than 0.001 and composite reliability of 0.40, indicating that these two items
did not meet the minimum threshold for good reliability and only 40% of the total item
variance for these items was accounted for by the common factor. Since only two items
showed significance and because there should be at least three items to evaluate a latent
construct without having to impose model constraints, more indicators should be used to
evaluate this construct in the future. However, the item loadings greater than 0.4 do
indicate that these items did measure the underlying construct.
The Spatial Mode refers to the proximity and movement that are shaped by the
areas and places in which we live. Preservice teachers were asked about their ability to
support students’ learning by creating a personalized space for each student, asking
student to describe the classroom space in writing, and communicating the importance of
the country’s geographic location in relation to the world. Three questions were selected
from the initial model to load onto the Spatial Mode factor, with loadings between 0.719
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and 0.522 of which all were significant with p values less than 0.001. The composite
reliability of this latent construct was 0.71, indicating that this latent construct is reliable,
accounting for the variance in these items. This tells us that this is a reliable measure of
confidence in preservice teachers’ use of this approach. These items measure the
authentic, critical, and functional approaches. This mode demonstrates the ability to
measure preservice teachers’ capability to personalize the students’ learning environment.
The Synesthesia Mode refers to using more than one mode at a time. Preservice
teachers were asked about their ability to assess student learning using combinations of
different texts, their ability to help students make connections between words and images,
using visual and audio tools, their ability to use a combination of visual and sound effects
to demonstrate concepts learned in groups, and their ability to help students use different
discourses to formulate arguments to build alliances. These items used the authentic,
functional, and critical approaches. Four questions were selected from the initial model to
load onto the Synesthesia Mode factor, with loadings between 0.691 and 0.537 and p
values less than 0.001. The composite reliability of this latent construct was 0.69,
indicating that it is a reliable construct to measure preservice teachers’ ability to represent
and communicate concepts using multiple modes.
The CFA revised model showed different correlations among the modes of new
literacies. High correlation between the linguistic mode and the gestural mode shows that
the teachers’ use of gestures (body appearances and movement) when explaining text-
based meanings help learners analyze different texts, guide students’ comprehension
skills, and assist them in decoding words. The high correlation between the visual and
audio modes explained by the teachers’ choice of web applications required them to use
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both the visual and the audio modes. According to the preservice teachers’ answers,
many of them indicated using both the visual and audio modes together to support their
students’ learning. The PCKNL model showed a high correlation between the audio and
spatial modes. In using any audio tool, teachers need to consider the classroom space and
make sure that it is used effectively and appropriately to support student learning.
Synesthesia is mostly correlated with the audio mode, which means that preservice
teachers feel that they need to use different modes when using the audio mode. The rest
of the modes were equally correlated with synesthesia, which means that using more than
one mode at a time to support student learning is a common method of implementing
pedagogical content knowledge of new literacies. The relationship among the modes was
revised and reflected in the PCKNL model, using the CFA revised model results.
Additionally, the results indicated that technology skills were only significantly
correlated with the linguistic mode and this correlation, though significant, was weak (r =
0.210). This means that teachers did not perceive the need for technology skills to be
able use the modes of new literacies effectively. The highest correlations between the
technology and modes of new literacies were found with the linguistic mode and the
audio mode. According to preservice teachers’ written responses, they relied on using
different web applications to support students’ comprehension skills. The audio mode
showed a higher correlation with technology than did the other modes since the nature of
using the audio mode is somehow dependent on the use of technology like the computer
and web applications.
All factors in the model were positively correlated with each other, with the
highest correlation between the Spatial Mode and Auditory Mode (r = 0.723), and the
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weakest correlation was between the Spatial Mode and Gestural Mode (r = 0.320 and p =
.055). The weak and insignificant correlations with these items to the other modes tell us
that technology is not strongly related to teachers’ ability to utilize new literacies.
There are different factors that influence the model fit (Little, 2013). First, the
interpretation of model fit, using different statistical exams determine the reliability of the
constructs (Little, 2013). For instance, the RMSEA value showed an acceptable model fit
at around an average of 0.8. A CFI or TLI value greater than .95 is the standard for a
well-fitting model (Hu & Bentler, 1999). Second, the quality of the indicators determines
model fit (Little, 2013). The indicators used in the PCKNL were explicit and complex.
The indicators asked preservice teachers about their use of a variety of new literacies
pedagogical knowledge, such as interactive texts (mentor texts, digital texts, visual
resources) and modes (visual, audio, linguistic) with students to identify, synthesize,
analyze, and apply information. All the indicators in the latent construct were correlated
with one another, which indicated validity. Additionally, CR (CR > 0.6) was calculated
for each factor to determine how well indicators measure a single factor. The results
showed that all the modes were reliable except for the audio mode, which reflected low
reliability. Third, a good model design should be logical and consistent (Little, 2013).
The indicators reflected the constructs they were measuring and the current statistical
conditions. For example, all the indicators under each latent construct reflected logic and
consistency. They were based on theory and the literature on new literacies across the
latent construct. All questions reflected the mode they presented and the different new
literacies approaches.
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Qualitative Results
Qualitative data were also collected based on one open-ended question in the
survey to investigate preservice teachers’ pedagogical content knowledge of new
literacies. The findings revealed that preservice teachers lacked pedagogical content
knowledge of new literacies in the classroom. The answers were analyzed using inductive
and interpretive qualitative analysis (Cohen, Manion, & Morrison, 2011). Preservice
teachers reported using some elements of new literacies in their respective practices.
However, they needed more depth of understanding in identifying literacy approaches
and applying new literacies by connecting to it to modalities and conceptual approaches.
This extends the findings of Metz (2018), who concluded that it is difficult to scaffold
pedagogical content knowledge (PCK) development and assess it.
Ideological Model Versus the Autonomous Model
Preservice teachers’ knowledge and practices reflected the ideological model as
opposed to the autonomous model of literacy that Street (1984) developed the ideological
model placed a strong emphasis on literacy being a condition of society, and he stressed
the importance of cultural sensitivity in literacy. Using this model, the instructors
developed learning environments that were relatable to their students and offered
opportunities for students to apply their knowledge. The ideological model indicated that
literacy is a social practice where students are engaged in the design and redesign of
meaning. Within new literacies using this model that was suggested by Street (1997),
teachers use different pedagogies of new literacies (authentic, functional, didactic, and
critical) to increase student engagement. For instance, Participant 82 shared, “I would try
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to read aloud to fit in as much as possible that include lots of pictures.” Participant 10
said, “I would use as much visuals as I can. Videos, audio, and pictures to words can help
students from all different cultures.” Participant 81 stated, “I would be sure to incorporate
vocabulary support, images, and opportunities to read, write, speak, and listen. I would
also create multiple opportunities for student interaction.” Preservice teachers reflected
some of the constructivist epistemological beliefs, which embraces “semiotic mediation”
that Vygotsky recommended for facilitating student understanding using artifacts (Bussi
& Mariotti, 2008). The preservice teachers’ responses lacked evidence of using students’
critical skills, such as providing students with opportunities to communicate, exchange,
negotiate, and apply what they have learned into meaningful literacy experiences
(Lankshear & Knobel, 2011).
Pedagogies of New Literacies
Preservice teachers shared that they plan on using various forms of text and
different resources to obtain information, including text messages, blog posts, social
networking websites, information from electronic devices (Moss & Lapp, 2010).
Preservice teachers also stated that they were most likely to use the authentic and didactic
literacy pedagogies. They implied that they would be using the authentic literacy
pedagogy, which is a student-centered approach. Authentic literacy focuses on learning
by doing and is derived from the students’ interests by which the preservice teachers
promote natural growth of using the language, and students take ownership of their own
learning (Kalantzis & Cope, 2012). For example, preservice teachers mentioned using
mentor texts, recorded materials, and different web applications. A majority of the
preservice teachers pointed out that they were planning to use the didactic approach,
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which is a teacher-centered learning approach. Teachers used textbooks, and learners
would follow and apply rules. Their answers indicated that they would be providing the
materials for the students to read and there would be no participation from the students to
select or research their own reading materials. Few preservice teachers reported using the
functional literacies pedagogy, by which learners explain the ways texts deliver meaning
to them, present different viewpoints, examine sociopolitical topics, address inequalities,
and provide students with opportunities to apply their knowledge in social context
(Hendrix-Soto & Mosley Wetzel, 2019). None of the preservice teachers’ responses
indicated that they used the critical literacies pedagogy, by which students are asked to
challenge a text, raise questions, and identify problems. Preservice teachers in this study
exhibited a lack of knowledge of using the critical and functional literacies pedagogies,
which involve higher order thinking skills, such as questioning, investigating, problem-
solving, and applying knowledge (Kalantzis & Cope, 2012). Hendrix-Soto and Mosley
Wetzel (2019) emphasized the importance of empowering teachers to use critical
literacies by providing them with opportunities to interact with theory and model and
practice critical literacies and providing them with a teacher education community to
support them in using critical literacies. Utilizing critical literacies within instruction
embraces the use of multiliteracies (New London Group, 1996). It is a powerful
approach to make the curriculum relevant to the students’ lives and use literacies to
empower students. This supports the idea of modifying the curriculum in teacher
education programs to focus on teaching pedagogies within the context of multiliteracies.
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Preservice Teachers and Constructivism
Preservice teachers exhibited some of the social constructivist principles. They
explained that they would be planning lessons based on their students’ interests and
needs, specifically choosing materials from the students’ cultures and using social
artifacts to introduce texts to engage them (Schwandt, 1998). Meaning, to preservice
teachers, was constructed and facilitated by social interaction within the school culture
(Oldfather & Dahl, 1994), which is what Goodman (1986) referred to as a “dialectical
interplay of more than one mind” (p. 87). Preservice teachers said they were planning on
using interactive activities in a group form and discussion board. They indicated that they
would integrate technology, a practice more likely adopted by constructivists. Some
preservice teachers had planned on providing students with activities to engage with the
content, more specifically social activities like drama, storytelling, and demonstrations.
Few preservice teachers said they would facilitate their students’ understanding. As we
live in the 21st century, preservice teachers should somehow adopt the social
constructivist approach in their teaching and have strong content knowledge and
pedagogical content knowledge. This research revealed that preservice teachers
recognized that students construct meaning through their environment, individualities,
and realities. Literacy pedagogy was understood by the participants in the study through
social and cultural practices (Lankshear & Knobel, 2006), but it lacks the big picture
viewpoint—the theory of new literacies that involves the modalities of new literacies
(lower case theory) and the trends of new literacies (upper case theory; Leu, Kinzer,
Coiro, Castek, & Henry, 2017).
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The Ontology and Axiology of Constructivism and Pedagogy
Preservice teachers indicated in their responses that they would construct the
reality for the students based on the students’ environment and surroundings. Teachers
recognized student identities by planning and individualizing instruction, using the
cultural resources to acknowledge student identities (Lankshear & Knobel, 2006).
Preservice teachers said that they would use the different modes (audio, visual, and
spatial) of learning, which is a reflection of their beliefs that each student is unique and
has unique needs. In doing so, teachers displayed their axiology, which is their intent in
teaching. These experiences assist students in exploring a wide range of topics and
applying what they have learned (Kalantzis & Cope, 2012). However, from the teachers’
responses, it was not evident what teaching methods they were planning to use or the
extent of the student involvement in planning their lessons. Preservice teachers need to
connect pedagogical content knowledge with content knowledge, which is the ability to
teach the content using the strategies most effective for the students’ level of
understanding and capability (Baumert et al., 2010; Förtsch, Werner, von Kotzebue, &
Neuhaus, 2016; Mahler, Großschedl, & Harms, 2017; Sadler, Sonnert, Coyle, Cook-
Smith, & Miller, 2013; Trobst et al., 2018). Preservice teachers’ intention shows their
willingness to use social constructivism practices and some elements of new literacies,
but it does not provide evidence of what their practices would be. This showcases the
disconnect between knowledge (theory) and practice (Borrero, Flores & De La Cruz,
2016; Risko et al., 2008; Risko & Vogt, 2016).
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Preservice teachers’ partial knowledge of new literacies. Preservice teachers
expressed their ability to use different modes of new literacies. Some participants said
they like to use visuals, audio, or spatial tools. For example, Participant 104 expressed,
If I had complete choice on what I would read to students and teach them in a
lesson, I would read a picture book called Dear Primo: A Letter to My Cousin by Duncan Tonatiuh. In this book, there are two boys who write letters to each other
from their perspective about where they live. I feel as if I would be able to teach a
variety of skills using this book; comparing and contrasting, letter writing, or fact
and opinion. The students could translate the letters in the book into text
messages, or they could take the position of a character and record themselves
"vlogging" about where they live sharing facts and opinions. When it comes to
New Literacies in the classroom, the options are endless, so it can be hard to
choose just one idea.
The participants’ responses implied that they practiced principles of social
constructivism (Vygotsky, 2005) and incorporated some elements of new literacies in
their classrooms (Leu, Kinzer, Coiro, & Cammack, 2004; Leu et al., 2017). Participant
104’s response was one of the few responses in which a preservice teacher explained the
use of new literacies in the classroom. The question here is: How we can get all
preservice teachers to think and plan at the level where they integrate PCK using new
literacies to meet all their students’ needs? Perhaps, one way could be by considering the
models of pedagogical content knowledge. Teachers’ preparation should include the
understanding of different subjects, subject specific PCK, area specific strategies, and
PCK strategies (Veal & MaKinster, 1999). Teachers need to feel confident using PCK
(Jang, 2011), and they need to overcome the challenge in applying what they have
learned (Gee, 1996). The main goal of the holistic PCKNL model is to facilitate the
performance of novice teachers to the level of that of experienced teachers who
demonstrate confidence and teach effectively. The PCKNL model is a model that
recognizes students’ individualities and needs. It integrates the modes of new literacies
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(visual, audio, spatial, linguistic, and synesthesia) while using a variety of new literacies
approaches (didactic, authentic, functional and critical) that builds on the students’
schema. When teachers use PCKNL, they are able to assess and reflect on the mode and
approach they are using. This is a major step that may build the confidence of preservice
teachers when they start teaching. As research has documented, novice teachers
encounter challenges when they start teaching (Rust, 2010; Walsh, 2001). So far, there is
no evidence that suggests that models of PCK or TPACK identified in the literature so far
have addressed the approaches that teachers have needed to incorporate in the classroom.
The PCKNL answers the following questions: “So what? How can teachers take the
students to the level they need to be by making sure they are engaged and perform to
their best of their abilities?” This model intends to serve as a bridge between theory and
practice for teachers of any discipline, especially teachers being prepared to teach
literacy, and specifically, new literacies.
Preservice Teachers Have Misconceptions Between Technologies and New
Literacies
In this study, some preservice teachers (12.5%) mistakenly referred to
technologies as new literacies when they were asked how they would use new literacies
in their classroom. For example, Participant 337 said, “I would use the technological
resources to research new lessons. I can also use all of the avid techniques to make
students ready to learn.” Participant 246 stated, “I would have children each create a blog
post about the story that we read, and they would each need to comment on each other’s
appropriately.” Participant 242 reflected, “I would use new literacies by typing out a
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lesson plan on Microsoft Word and if need some help with my ideas, I can post to
Facebook for additional ideas.” And Participant 244 explained,
I would definitely incorporate some sort of technology into the lesson. Through
SMART Board use or iPads, I believe it would help to engage the students more,
either it be playing games or activities or using digital texts for the lesson.”
Participant 242 also shared, “Students could Google slides to create a presentation. They
could create Fakebook pages for characters of a story.”
Some of the preservice teacher participants felt equipped to use technology in the
classroom, and they expressed their ability to use iPad apps, the Internet, and Microsoft
Office for instruction. This suggests that preservice teachers have the skills to support the
students, considering the technological demands for the 21st century. This teacher
centered-approach demands that preservice teachers be able to use a constructivist
approach in teaching. The social constructivist model requires students to be involved in
learning, using traditional and innovative resources (Vygotsky, 2005). However, new
technologies are part of new literacies, but they do not define new literacies. Teachers
using new literacies are expected to use various forms of text, such as electronic texts,
visual texts, and graphic literature books, and resources that may include the use of
technology. Within using new literacies, students are expected to search texts, read,
evaluate, synthesize, and communicate information (Leu, Kinzer, Coiro, & Cammack,
2004). Additionally, teachers are required to connect their use of materials and instruction
to modes of representation and meaning-making, which include visual, audio, spatial, and
linguistic elements, when using new literacies (Kalantzis & Cope, 2012). New
technologies act as education support tools and systems of information delivery that
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influence cultural representation and meaning making (O’Brien, Salinas, Reinhart &
Paratore, 2018). New technologies also occur through new literacies, and they are
continuously developing.
Preservice Teachers Need More Exposure to Applying the New Literacies Standards
Preservice teachers in this research study stated 18 times that they would use new
literacies if it were part of the standards. However, the term “new literacies” is nowhere
to be found in the Texas Essential Knowledge and Skills (1997) and Common Core State
Standards. For instance, few of the standards mandated by the state of Texas require
using new literacies:
(2) Reading/Beginning Reading/Strategies. Students comprehend a variety of
texts drawing on useful strategies as needed.
3. (A) use print or digital resources to determine meaning, syllabication, and
pronunciation;
12 (B) identify techniques used in media (e.g., sound, movement)
15 (B) locate and use specific information in graphic features of text.
16 (A) compare various written conventions used for digital media (e.g., language
in an informal e-mail vs. language in a web- based news article).
16 (B) explain how various design techniques used in media influence the
message (e.g., shape, color, sound). (Texas Essential Knowledge and Skills, 1997)
Teachers might be more encouraged to use new literacies if they were explicitly
identified as such in the standards. Participant 136 said, “I can implement to my lessons
that connect to the state standards we are learning but also including different cultures for
students can make connections and relate to the book.” Participant 108 clarified, “I
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would follow the state standards and practice what the students already know and work
with improving the skills that they need to work on and master before moving on to the
next standard.” Participant 25 said, “I would use them to know and understand how to
challenge students as well as bring them to the meets and masters levels of the TEKS
standards.” Participant 23 explained, “I would look at my TEKS calendar to see what
genre the students need to be reading that week, then I would search online for a book
that would be read to the students with the words also on the book.”
The teachers’ responses indicated that, perhaps, there should be a class that is
designated to help preservice teachers identify the state standards for the subject that they
plan to teach and assist teachers in identifying resources and planning lessons. This
research provides evidence of a gap in the knowledge of the standards that also reflects
the disconnect between theory and practice. It is important for teachers to learn and
practice the standards while they are in the teacher preparation programs. Draper,
Broomhead, Jensen, and Nokes (2012) reported that preservice teachers are likely to
embrace literacy instruction when their content teacher educators model similar
strategies. Kukner and Orr (2015) found that preservice teachers were at different levels
of understanding PCK in his study. In addition to embracing new literacies in PCK and
state standards, it is essential that all teacher educators have background in the literacy
pedagogical content knowledge (Love, 2009). Love (2009) noted the importance for
teachers to have LPCK. LPCK helps teachers develop literacy strategies, meet the
demands of disciplinary reading and writing, and develop understanding of how language
and other semiotic practices vary across disciplines (Fang & Pace, 2013). Literacy is the
foundation for all learning. However, the LPCK was not used as the basis for developing
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the PCKNL because it has yet to been embraced in empirical research. Using the PCKNL
model proposed in this study based on new literacies theory in conjunction with PCK,
allows for a more inclusive model that all teachers can use regardless of subject area.
The Understanding That Integrating Student Cultural Knowledge is New Literacies
Some preservice teachers indicated in their responses that integrating new
literacies in their teaching practice means incorporating their students’ culture in the
curriculum. This was a misunderstanding that some preservice teachers disclosed.
However, there is a relationship between multicultural education and multiliteracies in
that both are based on social change (Cope & Kalantzis, 2015). The pedagogy of
multiliteracies theory is derived from the multimodal design that encourages student
interaction with text and fosters social justice by customizing instruction to all students.
The different modes of literacies (audio, visual, spatial, linguistic) and the choice of text
are used to support students’ reading and writing practices in online classes (O’Bryne &
Smith, 2015). Hendrix-Soto and Wetzel (2019) identified critical literacies approaches
that include text-based and non-text-based approaches for preservice teachers, and they
concluded that it is a powerful strategy to create curriculum based on the students’ lives.
O’Bryne and Smith (2015) encouraged incorporating multicultural education into literacy
teaching. Both multiliteracies and multicultural education aim to promote literacies by
customizing instruction, empowering student culture, emphasizing equity pedagogy, and
focusing on teachers’ dispositions (Banks, 2008). Using multimodal design and
multiliteracies design, helps struggling readers and writers (Henry, Castek, O’Byrne, &
Zawilinski, 2012). Ladson-Billings (1992) used literacies to correct stereotypes students
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face and by using multiliteracies influenced by constructs of multimodal design that help
students to think critically (Cope & Kalantzis, 2015). As shared by Participant 22,
I will use their cultural background to select and introduce literature pieces that
will hook my students. In the future, I will be strategic to implement reading in all
content areas to give students the background knowledge they need for learning.
Participant 41 stated, “I will do my best to incorporate literature that represents all the
students in my class and their background. I would also give opportunities to make
connections between cultures.” Participant 28 expressed, “I would use literacies that
include different cultures including the cultures of my students.” Participant 47 also
conveyed,
I would search libraries for culturally relevant texts to share with my scholars that
would create direct connections to their lives. I would ensure to work in various
cultures and have students turn and talk about what they notice about the culture -
what is the same, what is different? I would look at my TEKS, find what I am
trying to teach, and locate culturally responsive texts that correlate to the TEKS.
Preservice teachers reported how they would plan curriculum that would be related to the
students’ cultures. However, it was not clear how they were going to implement it in their
classrooms. Their answers reflected the ontology and axiology of constructivism in their
teaching but did not identify the pedagogy of teaching. Using new literacies is a
significant step that will prepare teachers with “sociolinguistic complexities” in the
classrooms. Maxwell, Hilaski, and Whelan-Kim (2018) emphasized the importance of
equipping teachers with instructional strategies, learning, and knowledge of cultural
differences. Using students’ cultures in planning curriculum serves as motivation to
engage students in learning. However, new literacies is focused on assisting students in
using higher order skills, such as analyzing, synthesizing, evaluating, and communicating
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(Leu et al., 2017), for the students to be critical thinkers and independent learners. In
using new literacies, teachers are expected to purposefully select the new literacies
activities to teach the specific content in consideration of the students they are teaching.
Conclusion
To date, it is evident that there is no clear model that preservice teachers and
inservice teachers can follow to determine their use of modes of new literacies and new
literacies approaches. The pedagogical holistic model of new literacies (PCKNL)
proposed in this research will help teachers be mindful of the modes they are using and
will help them justify the approach they are using. This will assist them in diversifying
their instruction to meet students’ needs. Using this model will help teachers reflect on
their own teaching and offer them opportunities to develop and use new strategies. Future
studies that extend this work will need to include observations of preservice teachers’
practices in conjunction with their self-reporting or they may ask preservice teachers to
provide evidence for their answers, which could be used as a guide in planning
curriculum. The results from the study could guide curriculum creation in new literacies
for preservice teachers. There is a need for reading standards established by national and
international organizations to focus on what preservice teachers need to do with new
literacies. National and international measures, like the Teaching and Learning
International Survey, can include survey items to assess how teachers use new literacies.
Scholars who practice culturally relevant theory and those who study new literacies can
begin to find a common ground that informs the practice of new literacies based on the
findings from this study.
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Limitations
This study reflects certain limitations. First, the planned missing data method used
in survey construction and data generation did lead to a lack of coverage in the planned
missing variables, which could have led to a lack of information used to inform the
imputation algorithm. The planned missing data design used in this study had a set of
common variables shared by the three forms:
• They were demographic.
• They were teacher training questions.
• They measured the participants’ ability to use new technologies.
The questions relating to the other five constructs were divided into three groups, and
each survey was comprised of one third of the total items. The resulting missingness in
the data could be considered missing completely at random (MCAR) since its
missingness was controlled by the researcher, which is the ideal situation for modern
imputation methods (Little, 2013). However, the information in the shared block of
questions might not have been sufficiently informative to the imputation process, as
evidenced by the weaker performance of questions from Survey B and Survey C
compared to that of the questions from Survey A. The notably poor performance of these
items appears not to be present when the Survey B and Survey C are analyzed
independently. This led to the conclusion that the available shared information was not
sufficient to inform the imputation of these items in the combined data set. Other
methods of planned missing data designs may be adopted in future studies, notably the
design put forth by Little (2013), in which each of the survey forms are given two of the
blocks of questions instead of one, reducing the structural missingness from two thirds to
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one third in each of these blocks of questions, while also allowing for overlapping of the
questions presented to participants. This would ensure more coverage of information in
the data and provide more information for imputation of these missing data.
Second, the self-reporting of teachers is a limitation. During self-reporting,
participants do not always report what they do; therefore, it is likely that their responses
may not always mirror their reality in the classroom. Future studies could determine if the
results of this study apply to a wider selection of colleges and universities, or whether
participants from other universities have different outcomes measured by the instrument
proposed in the present study. The limited sample in the current study based on data from
select colleges limits our ability to evaluate these questions.
Implications for Research
This study has revealed that there is room for preservice teachers to significantly
enhance their pedagogical content knowledge of new literacies. On the basis of the results
from this study, I recommend that education programs introduce two courses that focus
on: (a) new literacies; and (b) the pedagogies of teaching using new literacies. To bridge
this information gap, policy makers must invest in teacher preparation programs by
providing curriculum and experiences that would focus on teaching and learning new
literacies and pedagogies to enrich preservice teachers’ teaching preparation.
The PCKNL survey created can serve as an assessment for preservice teachers’
pedagogical content knowledge of new literacies. I recommend that future studies ask
preservice teachers to provide anecdotal evidence for their responses, which could be
used as a guide in planning curriculum.
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Preservice teachers are expected to have strong content knowledge and PCK
(Shulman, 1987) to support their instructional practices decisions (Organization for
Economic Co-operation and Development, 2018). Teachers possessing content
knowledge means that they have deep understanding of the curriculum content goals
(standards), like using multimodal texts; theories of teaching; and an understanding of
child and adolescent development to know what content is suitable to present to the
students (Risko & Ried, 2019). Additionally, literacy K-12 teachers need to have
knowledge of “multiple literacies and the processes and phases of literacy and language
development” (Risko & Ried, 2019, p. 424). PCK is needed in designing and
implementing learning activities. It requires high analytical skills (Ball, Thames, &
Phelps, 2008) that teachers need to consider in evaluating their students’ needs, interests,
and the teaching environment in general before presenting any content.
We know that the teacher education programs are expected to prepare preservice
teachers. However, there is still a gap between theory and practice that requires some
changes to be made to the teacher education programs. There is evidence of a direct
relationship between teachers’ preparation, teacher learning, and teacher practice
(International Literacy Association & National Council of Teacher Education, 2017;
Risko et al., 2008). In addition to focusing on the content and pedagogical knowledge,
addressed by high quality teacher education programs, there is also a need to prepare
preservice teachers to teach the students they are going to meet in their classroom by
providing them with coursework that emphasizes language, culture, and equality (Boyd,
Grossman, Lankford, Loeb, & Wyckoff, 2009).
Risko and Reid (2019) reminded us,
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As educators, we hold firm beliefs about teaching and teacher preparation. These
beliefs often expressed quite directly, as when we claim that high-quality literacy
teachers beget – high-quality literacy instruction and, by associations, the quality
of teachers depends on the quality of their preparation.
Final Thoughts
This research intends to provide insights into how to improve teacher preparation
programs that ultimately impact our student knowledge and outcomes. Both the survey
and the holistic PCK model are tools that can assist preservice teachers in consistently
assessing their knowledge and use of the PCKNL.
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Appendix B
A Survey on Pre-service Teachers’ Pedagogical Content Knowledge of New Literacies
Thank you for taking time to complete this questionnaire. Please answer each question to
the best of your knowledge. Your thoughtfulness and candid responses will be greatly
appreciated. Your individual name or identification number will not at any time be
associated with your responses. Your responses will be kept completely confidential.
1. Are you a preservice teacher?
a. Yes
b. No
2. Major:
a. Early Childhood Education
b. Elementary Education
c. Secondary Education
d. Adult Education
e. Other: _________________
3. Area of Teaching Specialization
a. Art Education
b. Business Education
c. English Education
d. Foreign Language Education
e. Gifted & Talented Ed.
f. Health & Physical Education
g. History Education
h. Instructional Technology
i. Literacy
j. Math Education
k. Music Education
l. Reading
m. School Administration
n. School Counseling
o. Special Education
p. TESOL/ESL/Bilingual
q. Vocational Education
r. Writing
s. Other: ____________________________
4. Year in College:
a. Freshman
b. Sophomore
c. Junior
d. Senior
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5. Are you currently enrolled or have you completed a pretectum experience in
PreK-12 classroom?
a. Yes
b. No
6. Have you taken at least one literacy course?
- If yes, specify the semester and year completed? (Example, Spring 2019)
_________________________________
- If no, in what future semester and year do you plan to complete it? (Example,
Spring 2019)
_________________________________
- N/A
7. Have you been part of a field experience where you worked in a classroom with a
cooperating teacher on literacy?
- If yes, specify the semester and year completed? (Example, Fall 2018)
___________________________________
- If no, in what future semester and year do you plan to complete it? (Example,
Fall 2019)
____________________________________
- N/A
8. Have you been enrolled in a literacy course where you practiced student teaching?
- If yes, specify the semester and year completed? (Example, Spring 2018).
- If no, in what future semester and year do you plan to complete it? (Example,
Fall 2019)
9. Which grade levels are you planning to teach?
a. Primary
b. Middle
c. Secondary
d. High School
e. I don’t know, have not decided
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Imagine how you will organize your own future classroom to help your teaching as you read each of the following survey statements. Please answer all the questions, and if you are uncertain or neutral about your response you may select “neither agree or disagree”
To guide student thinking and learning in literacy: Strongly Disagree Disagree
Neither Agree/
Disagree Agree Strongly Agree
1. I can provide students with a list of prefixes and suffixes, along with their respective meanings, to guide them in decoding words.
2. I can select effective teaching approaches to engage students in analyzing multiple texts to personalize learning.
3. I can teach students which verbs take direct objects.
4. I can demonstrate for students how to categorize information.
5. I can select effective teaching approaches to help students evaluate and synthesize information using a rubric.
6. I can select effective teaching approaches to guide the development of students’ mechanical skills for adaptive instruction.
7. I can encourage students’ group collaboration and give constructive feedback to each other using a rubric.
8. I can select effective teaching approaches like students giving constructive feedback to each other to develop student problem-solving skills.
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Imagine how you will organize your own future classroom to help your teaching as you read each of the following survey statements. Please answer all the questions, and if you are uncertain or neutral about your response you may select “neither agree or disagree”
To guide student thinking and learning in literacy: Strongly Disagree Disagree
Neither Agree/
Disagree Agree Strongly Agree
1. I can help my students understand the content I am teaching by using intentional gestures and body movements.
2. I can help students understand the meaning of words using their five senses.
3. I encourage collaboration (group work) among students in the classroom.
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Imagine how you will organize your own future classroom to help your teaching as you read each of the following survey statements. Please answer all the questions, and if you are uncertain or neutral about your response you may select “neither agree or disagree”
To guide student thinking and learning in literacy: Strongly Disagree Disagree
Neither Agree/
Disagree Agree Strongly Agree
1. I use graphs to organize information relevant to students to promote student thinking and learning.
2. I use different teaching approaches and interactive texts (texts that include visuals and interactive activities) to guide student thinking and learning.
3. I use different technologies in teaching to guide student thinking and learning in teaching my subject.
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Imagine how you will organize your own future classroom to help your teaching as you read each of the following survey statements. Please answer all the questions, and if you are uncertain or neutral about your response you may select “neither agree or disagree”
To guide student thinking and learning in literacy: Strongly Disagree Disagree
Neither Agree/
Disagree Agree Strongly Agree
1. I can guide student understanding by asking them to demonstrate what they learned using theater and music.
2. I use different literacy practices that involve generating, communicating, or negotiating meanings audibly (singing, dialogue, monologue).
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Imagine how you will organize your own future classroom to help your teaching as you read each of the following survey statements. Please answer all the questions, and if you are uncertain or neutral about your response you may select “neither agree or disagree”
To guide student thinking and learning in literacy: Strongly Disagree Disagree
Neither Agree/
Disagree Agree Strongly Agree
1. I create a personalized space (names, posters of student interests, pictures) for each student to support their learning.
2. I ask students to describe the classroom space in writing.
3. I ask students to communicate the importance of our country’s geographic place in relation to the world.
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Imagine how you will organize your own future classroom to help your teaching as you read each of the following survey statements. Please answer all the questions, and if you are uncertain or neutral about your response you may select “neither agree or disagree”
To guide student thinking and learning in literacy: Strongly Disagree Disagree
Neither Agree/
Disagree Agree Strongly Agree
1. I can assess student learning using combinations of different texts (graphic novels, digital stories, primary source documents, advertisement, or electronic texts).
2. I can help students make connections between words and images using visuals and audio tools.
3. I can support students in exploring texts using a combination of different perspective, coherent geographic meaning or bodily movements.
4. I can encourage students to use a combination of visuals, sound effects, music, language or body language to demonstrate concepts they learned in groups.
5. I can help students use different discourses (visuals, sound effects, music, language or body language) to formulate arguments and build alliances.
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Open Ended Question You are asked to teach a reading/literacy/English arts class for the grade level you teach that include students from different cultural and variety reading experiences. Based on your practice or future application: How would you use New Literacies to choose a topic of your choice? To what extent are you capable of using the following technologies? Where 0 = not at all capable and 6= extremely capable
a. Computer in general b. Computer for instruction c. Social media such as Twitter, Facebook d. Blogging and creating wikis e. Printing scanners, digital cameras, projectors, and smart boards for instruction f. Learning management system as a teacher g. Learning management system as a student
Gender:
a. Female b. Male c. Prefer not to answer
Age (in years): ___________________ Is English your first language?
a. Yes b. No
Country of Origin: ________________ What is your cultural background?
a. American b. Asian c. Arab d. Caribbean e. European f. Mexican g. Latin American
Have you taught in the United States?
a. If yes, for how long? Year(y) or month (m) (example 1year or 12m) ________________________
b. No
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Region of residence in the United States a. Northeast b. Midwest c. South d. West e. n/a
Name of your University: _____________________________________ Are you completing an educational computing minor?
a. Yes b. No
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Appendix C
Email to Participants
Dear Members of the Oakland University Community, Hello! My name is Tala Karkar Esperat and I am a Doctoral Candidate focused on literacy in the Department of Curriculum and Instruction at Texas Tech University. I am reaching out to ask for your support in distributing my dissertation survey to pre-service teachers. Your support will help me to prepare teachers to use literacy in the 21st century. This survey research has been approved by the Institutional Review Board at Texas Tech University [IRB 2018-1096]. Here is the link to the survey:
https://educttu.az1.qualtrics.com/jfe/form/SV_0NiLG7tkCNcKZ8N