the effects of carbon footprint calculation on student trip leaders
TRANSCRIPT
EFFECTS OF CARBON FOOTPRINT CALCULATION 1
The Effects of Carbon Footprint Calculation on Student Trip Leaders: A Pilot Study
Lee Collette and Keith Crawford
Appalachian State University
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Abstract
The purpose of this pilot study is to conduct an in-depth investigation of the
characteristics and possible relationship between having University-Sponsored Outdoor Program
(OP) student leaders calculate the carbon footprint of an OP trip and the decisions they make
while planning that trip. The decisions the researchers focused on are the distance traveled and
food choices. This intervention may be useful to other programs at colleges and universities
across the United States as a means of promoting environmentally sustainable programs
throughout the outdoor recreation industry.
Researchers collected archival data from the previous academic year to calculate
carbon footprint data prior to any intervention. To encourage student trip leaders to analyze the
ecological impacts of their proposed trips, a carbon footprint calculator was included with all trip
proposal forms in the fall of 2011. The trip proposal form has been in use at OP since the 2010-
2011 school year and collects basic trip details (such as destination, meals, and travel needs),
which makes it a logical place to have trip staff begin to think about the carbon footprint of their
trip. The Greenhouse Gas (GHG) emissions and other variables were compared to those of the
previous semesters’ proposed trips. Data analysis revealed significantly lower average carbon
footprints for the post-intervention semester. A -47.1% magnitude of change from the fall 2010
semester and a -54.9% magnitude of change from the spring 2011 semester.
Researchers also investigated the environmental attitudes of student trip leaders
compared to those of a representative sample of students. Online surveys using the New
Ecological Paradigm (NEPR) (Dunlap, Van Liere, Mertig & Jones, 2000) were used to make
this comparison. The analysis of the surveys revealed that student trip leaders had a slightly
lower NEPR scores than the control group.
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To provide insight into the quantitative results from survey responses student
trip leaders were invited to a focus group. Major trends from these groups included: study
participants feeling that there was a positive impact (sustainably speaking) on their trip proposals
as a result of completing the carbon footprint calculation, OP should continue the practice of
having student trip leaders calculate carbon footprints for proposed trips, and lastly that an
educational workshop would have been beneficial prior to the trip proposal so that they would
have a better understanding of why they were calculating carbon footprint.
If outdoor professionals proclaim to be stewards for the environment, then how
can college outdoor programs begin to create awareness in staff about their impacts on the
environment? The authors believe educating student trip leaders in the early stages of their
development will lead to a ripple effect of positive changes within and beyond the outdoor
industry. This pilot study will provide insight into educational interventions with OP student
leaders and methods to measure carbon footprint of university sponsored OP trips.
Keywords: carbon footprint, college outdoor program, environmental attitude,
environmental sustainability
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The Effects of Carbon Footprint Calculation on Student Trip Leaders: A Pilot Study
According to President Barrack Obama, “the threat from climate change is serious, it
is urgent, and it is growing. (2009)”. While many college outdoor recreation programs place
great emphasis on respecting and caring for the environment while in the field, few programs are
aware of the impacts their decisions outside of the field are having on our planet. The purpose of
this pilot study is to use Appalachian State University’s Outdoor Programs (ASU OP) to conduct
and in-depth investigation of the characteristics and possible relationship between having student
leaders calculate the carbon footprint of a trip and the decisions they make while planning that
trip. For example, if a student calculates the amount of carbon produced by a trip they are
proposing, will this impact student decision-making on issues such as the distance that they will
travel or the types of food they will purchase? This study will also provide a model of how to
measure greenhouse gas (GHG) emissions of outdoor programs. This model may be useful to
other programs at colleges and universities across the United States as a means of promoting
environmentally sustainable programs throughout the outdoor recreation industry.
Researchers collected archival data from the previous academic year to calculate
carbon footprint data prior to any intervention. In the fall student trip leaders will then receive
an updated version of the trip proposal form, which will have a new section asking them to
calculate the GHG emissions created by the travel and food consumption associated with their
proposed trip. These will then be collected by researchers and the GHG emissions and other
variables compared to those of the previous semester’s proposed trips. Surveys will also be used
to compare the trip leaders’ environmental attitudes to those of a representative sample of the
ASU student population. Additionally, focus-groups will be held clarify the meaning of the data
collected.
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By using student trip leaders, the researchers plan to reveal how educating staff about
GHG emissions and asking them to calculate their trip’s carbon footprint affect their trip
planning decisions and environmental attitudes. The decisions we will focus on are the distance
traveled and food choices. While there are many other aspects of outdoor recreation trips which
impact the environment we have chosen to focus on these for two reasons. The first reason is
that these are the factors which student trip leaders at ASU OP have direct control of, the second
reason we chose these factors is because they are two which are currently easiest to quantify in
terms of GHG emissions.
If outdoor professionals proclaim to be stewards for the environment, then how
can college outdoor programs begin to create awareness in staff about their impacts on the
environment? The authors believe educating student trip leaders in the early stages of their
development will lead to a ripple effect of positive changes within and beyond the outdoor
industry.
Research Questions
1. What is the relationship between having student trip leaders calculate their trips’ carbon
footprint and their decisions for trip planning?
2. What is the relationship between carbon footprint calculation and environmental
attitudes?
Review of the Literature
Literature in the fields of outdoor recreation and higher education is void of research on
the behavioral and attitudinal effects of calculating carbon footprint. Only one published article
is available that discusses the carbon footprint of an outdoor recreation program. This case study
from Texas Tech University analyzed the carbon footprint of its Outdoor Pursuits Center (Lloyd-
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Strovas and Hayhoe, 2009) and that study was a catalyst for the creation of this project. This
article does an excellent job of explaining the methodology behind measuring the carbon
footprint of a college outdoor program and the reasons why they measured certain components
and not others. The researchers will utilize the information from the Lloyd-Strovas and Hayhoe
(2009) article and create a pilot study to determine if carbon footprint education and calculation
is an effective means of reducing carbon footprint and creating more environmentally aware
student trip leaders at Appalachian State University.
There are a number of articles in the outdoor recreation and higher education literature
which act as a call to action, imploring these industries to take measures to lessen their overall
impact on the planet (Cortes, 2009; O'Connell, Potter, Curthoys, Dyment & Cuthbertson, 2005;
Irwin, 2010; Ross, 1996) These articles provide inspiration and good ideas yet stop at the point
of putting the ideas into practice and evaluating their effects.
Behavior and Attitude Modification As It Relates to Sustainability
Two articles have reported that training people about carbon footprint is an effective
way to create positive change in their environmental attitudes and behaviors. (Graham, Koo
& Wilson, 2011; Wakeland, Sears & Venkat, 2009) Using a computerized carbon footprint
education tool Wakeland, Sears and Venkat (2009) were able to show increased knowledge and
environmental influence beliefs in food consumers while Ghramam, Koo and Wilson (2011)
were able to decrease people’s driving by having them visit a website every other day and log
how many times they had avoided using their cars and then providing them with feedback about
money and/or pollution saved. Both of the aforementioned studies used college students. The
Wakeland, Sears and Venkat (2009) studies utilized college students who were taking courses in
Sustainability and Supply Chain Management, these students are likely to be more prone to adapt
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positive environmental attitudes and behaviors due to their previous interest in the subject. Both
of these studies provide optimism that education and implementation of a new tool may prove to
be an effective method for changing Appalachian State University Outdoor Program’s student
trip leaders’ environmental attitudes and actions.
Bamberg (2002) found that implementation intentions, or having someone create
concrete plans to implement a behavior (the use of a new bus route as an example), were
important in modifying the habits of the college students participating in his studies. Bamberg
states, “the results of both presented studies confirm that also in the field of environmentally
related behaviours the initiation of an intended new behaviour seems to be a barrier at which
people often fail” (2002, p. 408). The authors of this study are curious to discover if the
calculation of a trip’s GHG emissions will act as an implementation intention and assist trip
leaders in becoming environmental stewards. A limitation to Bamberg’s study is the use of
incentives to encourage participants to follow through with the intervention. The offer of
incentives may have skewed the data concerning the effectiveness of implementation intentions,
as more people may have followed through due to their desire to receive the incentive than based
solely on the fact that they created a plan.
Sustainability Education in Academe and Outdoor Recreation
There is a vast amount of literature discussing the integration of sustainability literacy
education in both higher education and outdoor recreation (Higgins & Kirg, 2006; Lugg, 2007;
Nicol, 2002; Parkin, Johnston, Brookes & White, 2004; O’Connell, Potter, Curthoys, Dyment &
Cuthberson, 2005). The United Nations Educational, Scientific and Cultural Organization
(UNESCO) have created an initiative to "re-orient teacher education towards sustainable futures”
(2004). According to Lugg (2007), “Higher Education has a role to play in developing
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sustainability literacy but understanding of what knowledge and skills are required is
emerging...” (p. 108). Wright (2009) expands on this notion stating “our institutions of higher
education are failing in that they teach skills and knowledge, yet do not provide a situation where
students can adopt positive attitudes towards the environment and society, and therefore graduate
ill equipped to deal with sustainability problems” (p. 112).
In reviewing these various authors’ statements, there is a common thread centered on
the need for a more holistic approach to how institutions deliver sustainability related curricula
(Cortesse, 2003; Ecologist, 2009; Lugg, 2007; Wright, 2009). Lugg goes on to state “there
is considerable potential for experiential methods such as community-based and/or outdoor
pedagogy to make a significant contribution to developing sustainability-literate graduates” (p.
103, 2007). One can infer from this passage that through a blending of traditional methods of
education and the experiential process associated with “outdoor pedagogy”, that institutions
stand to enhance the relevancy of sustainability for its’ students. Supporting this idea for
collaborative efforts, Cortese (2003) writes “designing a sustainable human future requires a
paradigm shift toward a systemic perspective emphasizing collaboration and cooperation. Much
of higher education stresses individual learning and competition, resulting in professionals who
are ill prepared for cooperative efforts” (p. 16).
Cortese (2003) goes on to state “Higher education institutions bear a profound, moral
responsibility to increase the awareness, knowledge, skills, and values needed to create a just
and sustainable future. Higher education plays a critical but often overlooked role in making
this vision a reality” (pg. 17). This statement provides insight into the imperative nature of
incorporating a holistic approach towards sustainability education for students. It suggests that
through a multi-pronged approach (i.e. theoretical curricula, practical application, and value
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assessment) students can take ownership over their role in creating a sustainable culture.
As this study seeks to use Outdoor Programs staff as it’s’ target population,
acknowledgement must be made of the “impediments” that stand to hinder educative sustainable
initiatives and subsequent student development (O’Connell et al., 2005). O’Connell et al. list
six factors that impede this development. These being: complexity of changing values and
lifestyles, Western society’s psychosocial history and conceptualization of the out-of-doors, the
lack of inclusiveness in outdoor recreation, the development of technology and implications for
outdoor recreation, the commodification of outdoor recreation, and disempowerment (pg. 82-
84). While this list is far from exhaustive, it does present some foundational ideas that must
be addressed in order for institutions of Higher Education to effectively create a culture of
sustainability in their respective outdoor student staff.
Most notably of these six, complexity of changing values and lifestyles is at the forefront
of consideration for creating sustainably literate students. O’Connell et al. (2005) state that
Many of these people, including outdoor recreation students, dutifully practice
LNT…However, when it comes to complex external stressors affecting protecting areas,
such as pollution, it becomes a much more difficult task to explore the relationship
between actions/behaviors and morality/ethics/personal philosophy. In this way, it has
become easier for students to embrace environmental ethics as a series of ‘rules’ to
follow and disregard factors external to their immediate experiences…Yet it is this task
that is central to sustainability education…(pg. 82).
This notion suggests that sustainability education must incorporate a broader spectrum of
impacting forces in an effort to empower students to consider implications of the entire
experience, not just time spent in wilderness areas.
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Additionally, authors Raines and Hobbs have stated “...many organizations have done
an excellent job of incorporating LNT into their backbountry operations, fewer have examined
their entire organization from a more holistic perspective” (Raines and Hobbs, 2007). This
sentiment furthers the idea put forth by O’Connell et al. that in order for Outdoor Programs to
instill a sustainable attitude in its staff, it must take intentional steps to alter its front country
programmatic culture.
What Others Are Doing
The National Outdoor Leadership School (NOLS) is not only the world leader in
wilderness education but also seems to be leading the way in environmental sustainability in
outdoor recreation. NOLS has three full-time staff dedicated to environmental stewardship and
education. With the help of these staff they have created a sustainability initiative which
encompasses their entire organization and includes several different methods of reducing their
impact on the earth. One of the many things NOLS has done is implement the third largest solar
panel array in Wyoming to power several of their buildings, this is part of a goals NOLS has to
reduce its carbon footprint by twenty percent before 2020 (NOLS). To measure their progress in
meeting this goal, NOLS has created an online reporting system that allows the manager of each
of their branches to report the carbon emissions associated with that branch’s activities
(NOLS). Another impressive thing NOLS has done is hire an external reviewer to produce a
sustainability report for the entire organization. This was done in 2008 and NOLS made the
results available to all of their employees through an internal website (NOLS).
On April 20th of 2010 the Outdoor Recreation program at the University of South
Carolina (USC) began their carbon neutral campaign (University of South Carolina). To
accomplish this, the program calculated their total carbon footprint, in this calculation they
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included travel and office electricity and paper usage, but not food. They then planted an
equivalent number of trees to offset their footprint (University of South Carolina). The program
has also hired a Service and Sustainability Manager to help coordinate the carbon neutral
efforts (University of South Carolina). The researchers feel that Appalachian State University’s
Outdoor Programs unit could look to the efforts of USC as a model for its practices related to
carbon emissions reduction.
Outdoor Programs at Appalachian State University in Boone, N.C. has been looking for
ways to become more environmentally friendly for several years and one of the ways they have
done that is by offsetting the GHG emissions associated with their Student Outdoor Learning
Expeditions (SOLE). These are typically month-long expeditions and may involve international
travel. The GHG emissions associated with these trips are calculated using a calculator created
with the help of a professor in the Sustainable Development department and trees are planted to
offset total footprint calculated (R. Cambell, personal communication, March 5, 2011).
One of the researchers of this study sent out an informal survey to the Association
of Outdoor Recreation and Education email listserv to determine if any college or university
programs were regularly calculating the carbon footprint of their trips. None of the seven
schools that responded said they did. One of the respondents mentioned their university was
considering selling carbon offsets as an option when signing-up for a trip (AORE Listserv,
personal communication, February5, 2011) (see Appendix C).
To gain a broader perspective the researchers looked to the Association for the
Advancement of Sustainability in Higher Education (AASHE). AASHE stands as a unifying
body for institutions of higher education in terms of sustainability practices. Through their
mission, “to empower higher education to lead the sustainability transformation...by providing
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resources, professional development, and a network of support to enable institutions of higher
education to model and advance sustainability in everything they do, from governance and
operations to education and research”, AASHE has the potential to generate a powerful
presence in the movement to create sustainable campuses that also educate students about living
harmoniously with nature (AASHE: Mission, Vision, and Goals, 2011).
Just as much of the aforementioned literature (Higgins & Kirg, 2006; Lugg, 2007;
Nicol, 2002; Parkin, Johnston, Brookes & White, 2004; O’Connell, Potter, Curthoys, Dyment &
Cuthberson, 2005) suggests, AASHE has developed a measurable, multi-pronged approach to
sustainability action through education and practical application of research initiatives. While
AASHE tends to focus on campus-wide interventions, in the future Outdoor Programs could use
AASHE ideas as a staging ground for implementing sustainability practices.
Higher Education & Sustainability
Based on the literature reviewed, we feel it is critical for institutions of higher education
to look at their current methods of sustainability education and training in its students and
student staff. The research has shown that by adding an educational element combined with
a concrete goal, positive change is possible. The various studies mentioned above serve as a
springboard for our research to move forward. The relative lack of research, as it specifically
applies to our study, leads us to believe that this study will stand to contribute to the existing
body of knowledge surrounding carbon footprint education and its effects on participants.
Intentional interventions and collaborative efforts between educational and administrative
bodies are the foundation for institutions to establish positive practices for creating “sustainably
literate” graduates (Graham, Koo & Wilson, 2011; Lugg, 2007; O’Connell, 2005; Wakeland,
Sears & Venkat, 2009; Wright, 2009). This study will offer a lens from which the research
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questions can be critically assessed through implementing both a research and intervention
structure that utilizes: behavior and attitudinal modification, curricula development, and study of
environmental awareness.
Methodology
This project has been reviewed by the Institutional Review Board at Appalachian State
University and was exempt from further review; the project has the support of the professional
staff at Appalachian State University Outdoor Programs (ASU OP). The researchers utilized a
mixed-methods approach to determine the effects of carbon footprint calculation.
Background
The Trip Proposal Form at ASU OP provided a great place to collect carbon footprint
information because it is where the logistics and the goals of the trip are first expressed by the
Trip Leader. Trip proposal forms have been in use at ASU OP since the 2010-2011 academic
year. The original forms collect the following information: staff name(s), trip location, activities,
date(s), risk management strategies, minimum and maximum number of participants and meeting
location.
Measuring Carbon Footprint
Trip proposals from the previous academic year (August 2010 - May 2011) were
collected from ASU OP administrators and the researchers utilized this archival data to calculate
the Green House Gas (GHG) emissions from trips prior to any intervention. In the subsequent
semester, a carbon footprint calculator was sent as an attachment to all trip proposal forms (see
Appendix D). This calculator was used as a tool by trip leaders to calculate their carbon
footprint as they planned their trip. The method of delivery for these forms was an email
attachment in the form of an editable Adobe Acrobat file; student Trip Leaders also had the
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option of having the form printed for them in the Outdoor Programs office. The electronic
version of the calculator was created in a way that automatically calculated the travel, food and
total GHG once the Trip Leader input their trip’s number of participants, mileage and number of
meals to prevent mathematical errors as much as possible. This calculator contained a space to
enter mileage, number of breakfasts, lunches, dinners and snacks and a way to note if these
meals contain meat. The multipliers for these categories were provided. To encourage
consistency in mileage calculations student trip leaders were asked to use Google Maps to
measure distance traveled. They were also be told to measure mileage to the put-in for water-
based trips and to the trail head for land-based trips.
The multiplier used to determine carbon emissions from travel is based on information
provided by Transport Direct. The gas mileage for the vehicles was collected from the
Environmental Protection Agency’s fuel economy website (Environmental Protection Agency,
2011). The numbers used to calculate the carbon emissions associated with food were retrieved
from the The Nature Conservancy. Knowing a vegetarian meal creates 42% less GHG than the
average American meal, the researchers will reduce the GHG of each vegetarian meal by this
amount (Eshel & Martin, 2006).
Measuring Environmental Attitude
Through analyzing literature, the researchers found an appropriate instrument to measure
the environmental attitudes of trip leaders and the general population of ASU, the New
Ecological Paradigm (NEP) created by Dunlap and Van Liere in 1978 was chosen. The NEP has
become a widely-used measure of pro-environmental orientation (Dunlap, Van Liere, Mertig &
Jones, 2000), in fact according to Cordano, Welcomer and Scherer (2003) “the impact of the
original NEP is difficult to overestimate given the continuing stream of studies using the scale”
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(p. 23). In 2000 the NEP was revised to address concerns about its validity and dimensionality
(Cordano, Welcomer and Scherer, 2003), this updated version of the NEP is named the New
Ecological Paradigm Revised (NEPR) and has a “good deal of internal consistency (coefficient
alpha of .81)” according to Dunlap, Van Liere, Mertig & Jones (2000). The revised version
contains 15 questions, divided into five sections to measure: (a) limits to growth, (b) anti-
anthropocentrism, (c) fragility of nature’s balance, (d) rejection of human exemptionalism, and
(e) belief in eco-crisis (Dunlap et al., 2000). The research team has received permission to use
this scale from Dr. Riley Dunlap (personal communication, April 5, 2011) (see Appendix E).
Another instrument considered by the researchers was the General Ecological Behavior
Measure (GEB) (Kaiser and Wilson, 2000). However, it seemed to be targeted at cross-cultural
applications. Also, the number of questions in the GEB could have a negative impact on the rate
of return considering our University setting.
An Internet-based NEPR (Dunlap, Van Liere, Mertig & Jones, 2000) survey was
used to compare the environmental attitudes of ASU OP’s trip post-carbon footprint calculation
and those of a representative, random sample of ASU students. The surveys were created using
Google Forms and the data were stored in a private Google Spreadsheet until the surveys closed
(see Appendix A). In addition to the questions based on the NEPR, several demographic
questions were included to gather information on the population surveyed (Dillman and Dillman,
2000). Also, a question was included on the survey to assess the previous experience of
participants with environmental sustainability education and carbon footprint calculation to
moderate this possible influence (see Appendix A). Using Dillman and Dillman (2000) as a basis
for implementation methods, researchers attempted to reach respondents with “multiple
contacts” in an effort to ensure a maximum rate of return. Additionally, it is suggested by
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Dillman and Dillman (2000) that the use of token incentives for participants is of vital
importance to entice a response (Dillman and Dillman, 2000). As an incentive, anyone who
completed the survey had a chance to win tickets to the Banff Mountain Film Festival in Boone,
North Carolina in 2012. Identical surveys were provided to student trip leaders and the control
sample of ASU students. The responses of the two groups were stored in separate spreadsheets
as a means of easily defining the groups from one another.
To provide further insight into the findings based on survey responses, student
trip leaders were invited to participate in one of two focus group sessions. To ensure validity,
the focus group questions (see Appendix B) were reviewed by ASU OP professional staff,
student development professionals from other departments, as well as published authors in the
field of recreation management. These focus groups were modeled on the suggestions provided
by Schuh and Upcraft (2001) and Pickering, Paredes, Zerwas & Danner (2010). These
suggestions include providing incentives to encourage participation (Pickering, Paredes, Zerwas
& Danner, 2010) and ensuring that the location is easily accessible to trip leaders (Schuh and
Upcraft, 2001). To accomplish this the researchers provided food and beverage and the
interviews took place in the Outdoor Programs facility. Schuh and Upcraft ( 2001) also suggest
that moderators have no stake in the study and begin with an opening statement and alert the
group that participation is voluntary. To accomplish this the researchers trained moderators,
who are college student development professionals and have not participated in this study, and
provided them with an outline for the meeting (Pickering, Paredes, Zerwas & Danner, 2010).
The moderators were asked by the researchers to ensure that only one person spoke at a time,
that people used names and that everyone felt comfortable to answer freely (Schuh and Upcraft,
2001). To refresh the memories of the student trip leaders a copy of the carbon footprint
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calculator was provided. The focus group was audio recorded and then transcribed verbatim into
an electronic text document. Each researcher independently examined the contents of the
transcripts to identify themes and the researchers compared their findings. An electronic text
parser was also used as another resource to identify repeating phrases in the focus group
transcripts.
Analysis
Researchers used a pre and post test method to compare the effects of carbon footprint
calculation. To compare the quantitative data raw scores were downloaded into a Microsoft
Excel Spreadsheet. The average carbon footprint per person per day of ASU OP collectively, of
each of the semesters before and after the intervention was computed. Calculations were then
performed to calculate the magnitude of change between the post-intervention semester and each
of the previous semesters.
To compare the environmental attitudes of student trip leaders to those of other students
the researchers exported a Microsoft Excel Spreadsheet from the Google Docs survey. In
Excel, the researchers cleaned the data by removing incomplete surveys, coded each response
for previous carbon footprint calculation, and removed participants from the control group who
had an extensive background in this area. The researchers calculated the average the scores of
the control group and the student trip leaders and the average age of each group. The average
environmental attitude scores were used to construct graphs in Microsoft Excel to provide a
visual representation of the data. Furthermore, the data was imported into Statistical Package
for the Social Sciences (SPSS) 19 to perform a one-sample T-test to help determine significance
between the (2) group means.
To compare qualitative data the researchers began by creating transcripts of the audio
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recordings from each focus group. Researchers then independently analyzed the transcripts
and noted trends discovered. The researchers then compared their independently created
lists of trends to create a master list. These trends were then compared to the literature for
help in determining their importance. The researchers discussed the trends with a broad
range of outdoor education professionals for further assistance in determining which trends to
highlight. Researchers implemented member checking to increase the accuracy and validity of
the qualitative section of the research (Yanow, & Schwartz-Shea, 2006).
Findings
Analysis of the proposed trips carbon footprint produced exciting results. There was a
significant decrease in the average carbon produced per person per day.
Figure 1. Average Carbon Produced on Proposed ASU OP Trips by Semester. This figure illustrates the average
carbon produced per person per day on proposed ASU OP trips by semester.
The results of the carbon footprint calculation were compared using simple means and then
analyzed further using a delta. As shown in Figure 1 the pre-intervention semesters produced
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much higher averages of carbon emissions per person per day than after the student trip leaders
began to calculate their trips’ carbon footprints. The fall 2010 semester average was 218.16
pounds of carbon per person per day with a sample size of 4. In the spring 2011 semester the
average increased to 255.76 with a sample size of 5. In the fall semester of 2011, when student
trip leaders calculated the carbon footprint as they planned their trip, the average decreased to
115.44 with a sample size of size of 6. This is a -47.1% magnitude of change from the fall 2010
semester and a -54.9% magnitude of change from the spring 2011 semester. This provides a
limited, yet intriguing, answer to the question, what is the relationship between having student
trip leaders calculate their trips’ carbon footprint and their decisions for trip planning?
In this pilot study, it appears the effect of asking student trip leaders to calculate their
trip’s carbon footprint has been to lower overall Greenhouse Gas (GHG) production in proposed
trips at Appalachian State University Outdoor Programs (ASU OP). These results align with
what Bamberg (2002) has previously found, that having a college student concretely identify
steps to help them meet a goal is an effective way to create positive change. The authors feel
that having an option to plan vegetarian meals may have been a major factor in the decrease. As
noted in the methodology section a vegetarian meal creates 42% less greenhouse gas emissions
on average than a meal containing meat (Eshel & Martin, 2006). Of the six trips proposed in the
fall 2011 semester, four of them included at least one vegetarian meal request.
The environmental attitude surveys showed that ASU OP student trip leaders had slightly
lower NEPR scores than a representative, random sample of ASU students.
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Figure 2. Average NEPR Scores. This figure illustrates the average NEPR score of a control group compared to
ASU OP student trip leaders. The minimum score is 15 (Anthropocentric) and the maximum score is 75 (Ecocentric).
(Dunlap et al., 2000)
The Internet-based surveys used to score environmental attitudes were sent out to six student
trip leaders (four male, two female) and had a response rate of 100%. The survey was also sent
to a random, representative sample of 1,000 Appalachian State University students and had a
response rate of 10.4% (n=104). Researchers determined that any control group participant that
noted any type (previous class, readings, major of study, etc) of sustainability training would not
have their responses used. After accounting for previous environmental sustainability education
the researchers were able to use the results of 71 (29 male, 42 female) of these surveys. The
average age of the control group was 20.54 and of the student trip leaders was 22.67.
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The post-intervention environmental attitudes of student trip leaders as compared to
a random, representative sample of Appalachian State University students showed that the
random sample scored slightly higher. ASU OP student trip leaders scored an average of
49.83 on a scale based on the New Ecological Paradigm Revised (NEPR) (Dunlap, Van Liere,
Mertig & Jones, 2000) and had a sample size of six. The control group had a sample size of
71 and scored an average of 55.66 on the same scale. The NEPR scores were shown to not be
significant in relation to being a student trip leader by performing a one-sample T-test (p = .13).
It is hard to draw any formal conclusions from this data for several reasons. A huge reason is
the discrepancy in sample sizes. Another reason is the fact that the averages are so close. The
researchers believe this data would be much more compelling had a more formal, educational
intervention been able to take place (see Limitations).
Independent analysis by the researchers revealed a few trends in the focus group data.
One trend that stood out is that student trip leaders would have liked to have had more education
about carbon footprint and sustainable practices in trip planning prior to performing the
calculation. When asked what could have been improved about the carbon footprint calculation
process one student trip leader said “I would have liked to have some background information,
and also to know what was high and what was low.” This education would help with the fact
that several participants reported not knowing exactly what it was they were calculating.
An additional theme that came about is exemplified by a participant’s response to the
question of whether the act of calculating a trip’s carbon footprint had effects on their life outside
of Appalachian State University Outdoor Programs (ASU OP). The respondent stated “I can
see how if this was put on every trip, it’s kind of right there in front of you all the time...then I
could definitely see that having an affect on your daily living in general considering your job
EFFECTS OF CARBON FOOTPRINT CALCULATION 22
is so close to that.” Specifically speaking to this study’s population, student trip leaders, there
is a notion that positive reinforcement of sustainability education and assessment of carbon
emissions has a powerful tie between one’s personal and professional practices.
Despite reporting some technical difficulties with the electronic version of the calculator,
focus group participants unanimously stated they think ASU OP should continue to ask student
trip leaders to calculate carbon footprint. Several trip leaders mentioned, in some manner, that
calculating carbon footprint helps to illustrate that logistical planning decisions have implications
beyond just their trip. In this vein, several focus group participants mentioned that some type
of cumulative measure should be made for the entire program in terms of carbon emissions. In
respondents’ minds, being able to see an overall carbon footprint for the program would clarify
how their trip’s carbon footprint fits into the bigger picture.
To conclude, researchers found that there was a significant decrease in the GHG
emissions of trips that were proposed post intervention (-47% from fall 2010 and -54.9%
from spring 2011). While the researchers found no significance between being a student trip
leader and NEPR scores there were some interesting points which came out of focus groups.
Of greatest importance was the student trip leaders feeling that the act of calculating a carbon
footprint for a proposed trip is positive. Other notable trends from focus groups included trip
leaders not feeling there was a clear sense of why they were calculating their carbon footprint as
well as their desire to have a cumulative measure of ASU OP’s carbon footprint in an effort to
understand the overall impact of their decisions.
Discussion and Recommendations
Haque and Roper (2005) state “the adage that every journey starts with a single step
comes to mind when reviewing student actions. Each of these small steps is multiplied when
EFFECTS OF CARBON FOOTPRINT CALCULATION 23
they ask their roommates, friends or family to participate as well.” (p. 59) Numerous focus
group participants noted, the simple process of having to calculate one’s carbon footprint at least;
if only for a moment, creates an awareness that they as programmers are using consumptive
practices in their efforts. This notion put forward by the student trip leaders exemplifies this
sentiment put forth by Haque and Roper (2005). As such, it is the recommendation of the
authors that the practice of carbon footprint calculation continue to be used at ASU OP. While
present transportation and programming options truly limit the reality of a program being able
to go “carbon neutral” there is much to be said for generating discussions around changes in
programmatic culture that have this ideal at the forefront of its mission and guiding principles.
The authors feel that simply providing the carbon footprint calculator to the trip leaders will
make a positive impact.
Based on focus group results and the literature (Graham, Koo & Wilson, 2011;
Wakeland, Sears & Venkat, 2009) the researchers suggest that ASU OP add an educational
component prior to carbon footprint calculation. This should include: a definition of carbon
footprint, how the student trip leaders can affect their trip’s carbon footprint and information on
how to gauge the numbers they receive when calculating a carbon footprint. This last piece of
information could be simply included on the calculator itself. Beyond a single workshop for
student trip leaders, it should also be noted that professional development opportunities be
provided for professional staff as well. As we continue to enter an age where sustainability
becomes more and more important, it must be the aim of institutions to provide its professional
staff with guidance and meaningful educational opportunities. In having other campus entities
such the Office of Sustainability or the Appropriate Technologies department provide OP
professional staff with educational sessions, the program sets itself up to more effectively train
EFFECTS OF CARBON FOOTPRINT CALCULATION 24
its student staff in sustainable practices. Efforts such as this have the potential to have a ripple
effect where student staff then take these lessons into the field and train student participants, then
participants inform their friends and also take these lessons other jobs on campus, etc.
ASU OP should continue to offer the option of vegetarian meals on trips. The
researchers speculate that this is a major reason for the decrease in average carbon produced in
the fall 2011 semester. There were also several positive comments in focus groups regarding the
vegetarian menu options. This would be an area where the educational background previously
mentioned would be vital to prevent confusion in regards to the reasoning behind vegetarian
menus.
As O’Connel et al. (2005) suggest, the development and introspection of a programs
front-country identity must be addressed. It is no longer enough for programs to simply
teach and train leaders to use the ubiquitous “Leave No Trace” ethic. While this sentiment is
promoting a generation of outdoor leaders to serve as stewards for the environment, it is also
having the potential of limiting these individuals scope of how large the concept of “Trace”
really is. The ethic must extend to preservation and conservation practices in the office, in trip
planning decisions, as well as the wilderness. As noted previously, intentional interventions
and collaborative efforts between educational and administrative bodies are the foundation for
institutions to establish positive practices for creating “sustainably literate” graduates (Graham,
Koo & Wilson, 2011; Lugg, 2007; O’Connell, 2005; Wakeland, Sears & Venkat, 2009; Wright,
2009. OP units often stand as a powerful leadership development tool for student trip leaders
that they will take with them into professional careers in a variety of fields, often not related
to the outdoors. In this vein, it can be inferred that OP should seek opportunities for further
development of these individuals’ greater awareness of how decisions they make as professionals
EFFECTS OF CARBON FOOTPRINT CALCULATION 25
have far reaching ramifications. This instance of allowing them to recognize that the carbon
footprint of their proposed trip has global implication affords yet another developmental lens for
these students to develop their own perceptions and awareness from.
One major factor in the success of initiatives such as this must come from collaborative
efforts between universities on a national scale. Through using organizations such as the
Association of Outdoor Recreation and Education (AORE), the Association of Experiential
Education (AEE), the Association for the Advancement of Sustainability in Higher Education
(AASHE), and the National Intramural-Recreational Sports Association (NIRSA) we can begin a
national dialogue among industry professionals to establish programmatic practices and
standards for OP units. This can only come from a concerted effort to develop committees and
create standards. This would be mutually beneficial to the continued development of positive
programming opportunities and environmentally sound practices.
Limitations
The findings of this study should be considered only in light of the following potential
limitations. One limitation occurred because of an unexpected schedule change by the
Appalachian State University Outdoor Programs (ASU OP) coordinators. In the fall semester
of 2011 the coordinators decided to send out trip proposal forms electronically for the first time
and to do this at a much earlier point than in previous semesters. This prevented the researchers
from presenting an educational workshop on carbon footprint as an intervention to the student
trip leaders prior to them filling out the carbon footprint calculators. As mentioned in the review
of literature, the inclusion of education to promote sustainability is pivotal to the success of
intervention strategies.
Through our focus group discussions we determined that many of the student trip leaders
EFFECTS OF CARBON FOOTPRINT CALCULATION 26
have a high regard for issues of sustainability. This is exemplified by their statements to the
question of whether the process had any effects on their lives outside of OP. Most stated that
they already lived in a way that reflected having a solid definition of their personal ethics as it
relates to environmental sustainability. Due to this we can not conclude the reduction of trip
carbon footprints to our intervention of carbon footprint calculation.
Another limitation of this study is the small number of proposals and the small sample
size. Several proposals were not used in the calculations because they were proposed by one of
the researchers. The small sample size makes it impossible to generalize the results of this study
outside of ASU OP.
Additionally, there are potentially alternative explanations for the research findings
which the researchers were not able to account for. These could include, but are not limited
to: other programs on carbon footprint calculation on campus, weather in the region affecting
trip planning decisions, the turnover of student trip leaders, gear availability differing between
semesters.
As with all self-reported data, our surveys and carbon footprint calculators relied on the
participants to provide truthful answers. Since mistakes and misrepresentation are always
possible, we must list this as a limitation to our study.
Further Research
This pilot study has left much room for continued research in the area of the effects of
carbon footprint calculation. The researchers suggest conducting a longitudinal study using
multiple university outdoor programs units. Having a control group of student trip leaders to
compare to an experimental group of student trip leaders would also add to the validity of the
research. Increasing the sample sizes would dramatically improve the study as well.
EFFECTS OF CARBON FOOTPRINT CALCULATION 27
EFFECTS OF CARBON FOOTPRINT CALCULATION 28
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Appendix A
EFFECTS OF CARBON FOOTPRINT CALCULATION 32
Environmental Attitudes Survey and Informed Consent
This survey is part of a research project entitled: The Effects of Carbon Footprint Calculation
on Student Trip Leaders: A Pilot Study
Principal Investigators: Keith Crawford & Lee Collette
Department: Human Development & Psychological Counseling
Contact Information: Keith Crawford - (704)223-0460 - 173 Howard St. Boone, NC 28607,
Daisy Waryold - (828)262-6067 - Duncan Hall, Boone, NC 28608
You are being invited to take part in a research study about the effects of carbon footprint
calculation. If you take part in this study, you will be one of about 400 people to do so. By
doing this study we hope to learn how sustainability education and carbon footprint calculation
change a student trip leaders decision making.
The research procedures will be conducted at https://spreadsheets.google.com/viewform?
formkey=dElnVkJhOXF4LS1ZOWxVanpkZ2NCcFE6MQ. You will need to complete this
survey one time, which will take a maximum of 15 minutes.
You will be asked to answer an 18 multiple choice questions about yourself and your
environmental beliefs.
You should not volunteer for this study if are under 18 years of age.
There are no foreseeable risks in participating in this research.
EFFECTS OF CARBON FOOTPRINT CALCULATION 33
There may be no personal benefit from your participation but the information gained by doing
this research may help others in the future.
We will not pay you for the time you volunteer while being in this study. By completing the
survey you are able to enter a random drawing for a pair of tickets to the Banff Mountain Film
Festival in Boone, NC in 2012.
Your information will be combined with information from other people taking part in the study.
When we write up the study to share it with other researchers, we will write about the combined
information. You will not be identified in any published or presented materials.
We will make every effort to prevent anyone who is not on the research team from knowing
that you gave us information or what that information is. Your email address, if you decide
to provide it, will be removed from the rest of the data and will be kept for a maximum of 1
year. Email addresses will then completely be erased from any computer systems.
The people conducting this study will be available to answer any questions concerning this
research, now or in the future. You may contact the Principal Investigator, Keith Crawford, at
704-223-0460. If you have questions about your rights as someone taking part in research,
contact the Appalachian Institutional Review Board Administrator at 828-262-2130 (days),
through email at [email protected] or at Appalachian State University, Office of Research and
Sponsored Programs, IRB Administrator, Boone, NC 28608.
Your participation in this research is completely voluntary. If you choose not to volunteer, there
EFFECTS OF CARBON FOOTPRINT CALCULATION 34
will be no penalty and you will not lose any benefits or rights you would normally have. If you
decide to take part in the study you still have the right to decide at any time that you no longer
want to continue. There will be no penalty and no loss of benefits or rights if you decide at any
time to stop participating in the study.
This research project has been approved, as required, by the Institutional Review Board of
Appalachian State University. This study was approved on [Approval Date]. This approval will
expire on [Expiration Date] unless the IRB renews the approval of this research.
A Survey to Determine Environmental Attitudes at Appalachian State University
We would like to get your opinion on a wide range of environmental issues. For each of the
following statements please indicate the extent to which you agree or disagree.
We are approaching the limit of the number of people the earth can support.
Strongly Disagree 1 2 3 4 5 Strongly Agree
Humans have the right to modify the natural environment to suit their needs.
Strongly Disagree 1 2 3 4 5 Strongly Agree
When humans interfere with nature, it often produces disastrous consequences.
Strongly Disagree 1 2 3 4 5 Strongly Agree
Human ingenuity will insure that we do NOT make the earth unlivable.
EFFECTS OF CARBON FOOTPRINT CALCULATION 35
Strongly Disagree 1 2 3 4 5 Strongly Agree
Humans are severely abusing the environment.
Strongly Disagree 1 2 3 4 5 Strongly Agree
The earth has plenty of natural resources if we just learn how to develop them.
Strongly Disagree 1 2 3 4 5 Strongly Agree
Plants and animals have as much right as humans to exist.
Strongly Disagree 1 2 3 4 5 Strongly Agree
The balance of nature is strong enough to cope with the impacts of modern industrial nations. *
Strongly Disagree 1 2 3 4 5 Strongly Agree
Despite our special abilities humans are still subject to the laws of nature.
Strongly Disagree 1 2 3 4 5 Strongly Agree
Human destruction of the natural environment has been greatly exaggerated.
Strongly Disagree 1 2 3 4 5 Strongly Agree
The earth has only limited room and resources.
Strongly Disagree 1 2 3 4 5 Strongly Agree
EFFECTS OF CARBON FOOTPRINT CALCULATION 36
Humans were meant to rule over the rest of nature.
Strongly Disagree 1 2 3 4 5 Strongly Agree
The balance of nature is very delicate and easily upset.
Strongly Disagree 1 2 3 4 5 Strongly Agree
Humans will eventually learn enough about how nature works to be able to control it.
Strongly Disagree 1 2 3 4 5 Strongly Agree
If things continue on their present course, we will soon experience a major ecological disaster.
Strongly Disagree 1 2 3 4 5 Strongly Agree
If you would like to be entered to win a pair of tickets to the Banff Mountain Film Festival in
Boone, NC in 2012 enter your email address below. This is optional
What is your age?
What is your gender?
EFFECTS OF CARBON FOOTPRINT CALCULATION 37
Please list, below, any experience you have with carbon footprint or environmental sustainability
education.
Note. From “Measuring Endorsement of the New Ecological Paradigm: A Revised NEP Scale,” by R. Dunlap, K. Van Liere, A. Mertig A. and R. Jones, 2000, Journal of Social Issues, 56, 3, pp. 425-442. Copyright 2000 by The Society for the Psychological Study of Social Issues. Reprinted with permission.
EFFECTS OF CARBON FOOTPRINT CALCULATION 38
Appendix B
Focus Group Questions and Informed Consent
I agree to participate in a focus group described in this research project, which concerns the
effects of carbon footprint calculation. I understand that my comments will be audio recorded
and transcribed and used for a class project to be conducted by Keith Crawford and Lee Collette,
Masters students in the College Student Development program. The focus group will take place
one time and last for no longer than one hour. I understand that there are no foreseeable risks
associated with my participation. I also know that this study will be used as an assessment tool
for Outdoor Programs and its environmental sustainability.
During the course of the focus group discussions, I will not mention any personal or private,
identifiable information (such as names) of individuals who are not participating in the focus
group. In addition, I agree that all conversations, which take place in the focus group, should not
be discussed with anyone outside of the focus group and its participants.
I give Keith Crawford and Lee Collette ownership of the tapes and transcripts from the focus
group and understand that tapes and transcripts will be kept in researchers’ possession. I
understand that information or quotations from the transcripts may be published and that no
identifiers will be associated with these.
I understand that my participation is voluntary and I can end it at any time without
consequence. I also understand that if I have questions about this research project, I can call the
Faculty Advisor, Diane Waryold, at 828-262-6067 or contact the IRB Administrator at (828)
262-7981 or [email protected]. By participating I confirm that I am 18 years of age or older.
EFFECTS OF CARBON FOOTPRINT CALCULATION 39
Signature:________________________________
Questions:
1. Did you change any parts of your trip plan (such as location or menu options)as a result of
calculating its carbon footprint?
2. Has calculating carbon footprint caused you to change the way you use resources
(electricity, fossil fuels, water, etc) outside of OP? Has it changed anything else about your
life, big or small?
3. Has calculating a carbon footprint related to your trip changed your perceptions of OP in
any way?
4. What did you like about the carbon footprint calculator itself? What would you change
about it? (provide copy of calculator)
5. Do you believe you understood what it was you were calculating?
6. Should ASU OP continue to have trip leaders calculate the carbon footprint of their trips?
Why or why not?
7. If ASU OP does continue to have trip leaders continue to calculate their proposed trip’s
carbon footprint, what should they change about the calculation process?
EFFECTS OF CARBON FOOTPRINT CALCULATION 40
Appendix C
Informal Survey of Other Higher Education Outdoor Programs Results
Respondent Do you calculate carbon
footprint?
Lynchburg College Outdoor Leadership Program No
University of Michigan Outdoor Adventures No
Appalachian State University No
Colorado School of Mines No
North Idaho College Outdoor Pursuits No
CSU-Chico No
Sam Houston State University Outdoor Recreation
Program
No
EFFECTS OF CARBON FOOTPRINT CALCULATION 41
Appendix D
Carbon Footprint Calculator Worksheet
EFFECTS OF CARBON FOOTPRINT CALCULATION 42
Appendix E
NEPR Permission Email
Hi Dr. Dunlap,Myself and my colleague, Lee Collette, are Master's students at Appalachian State University in Boone, North Carolina. We are currently working on a research project entitled "The Effects of Carbon Footprint Calculation on Student Trip Leaders." We are hoping to use the scale created by you and your colleagues to compare the environmental attitudes of the trip leaders who go through our workshop to those of students who do not participate in this training. Please let me know how we could go about obtaining your consent to use the NEPR scale in our project. Our plan is to reproduce the scale in an internet-based survey. The only additions would be an informed consent section and a few questions to determine the participant's age, sex and major. Our project advisor is Dr. Diane Waryold ([email protected]). Thanks,Keith Crawford Dear Keith, It's fine for you and Lee to use the Revised NEP Scale in your project. I'm attaching an essay I wrote to commemorate the 30th anniversary of the publication of the original NEP Scale as it may provide some helpful background material for your project. Good luck with it. Riley E. Dunlap, ChairASA Task Force on Sociologyand Global Climate ChangeRegents ProfessorDepartment of SociologyOklahoma State UniversityStillwater, OK 74078405-744-6108