[ieee 2014 zone 1 conference of the american society for engineering education (asee zone 1) -...

8
Proceedings of 2014 Zone 1 Conference of the American Society for Engineering Education (ASEE Zone 1) 978-1-4799-5233-5/14/$31.00 ©2014 IEEE Abstract—Electronic portfolios (eportfolios) are proposed as an ideal mechanism to enhance experiential learning in undergraduate internships. Eportfolios can enhance instructors’ ability to assess student learning outcomes and the ability of industrial mentors to supervise and direct interns. Further, eportfolios, through student reflection and direct assessment of activities, can help programs meet the challenges of program accreditation. In particular, we show the use of an assessment model for difficult-to-assess ABET outcomes. Index Terms—Eporfolios, internship, experiential learning, assessment, ABET I. INTRODUCTION A. Experiential learning and assessment challenges According to Kolb, et al., learning as defined by experiential learning theory is the “process whereby knowledge is created through the transformation of experience. Knowledge results from the combination of grasping and transforming experience.”[1] Kolb describes experiential learning as a holistic process – joining the traditional concept of cognition with broader issues of thinking, feeling, perceiving and behaving. [2] In this work, the Kolbs explain the need to consider the learning space, consisting of both the student and their environment, in the assessment of learning from experiences. The learning space in which experiential learning occurs is broader than just the physical space, and includes the life experience of the learner outside the course or the classroom, and in fact outside the specific internship as well. Learning is enhanced when the context is understood, and our assessment should take into account a context which includes how a learning experience is connected to (encouraged or inhibited by, as well as supported by) the other aspects of the student’s life and experiences. The difficulty lies in understanding how the student experiences learning within this broad conceptual space. How do they connect learning in a course, a curriculum, or a research or internship experience with their other activities? How do they see how the interconnection amongst formal curriculum and experiential learning activities influences their ability to learn and their method of learning? How do they see their personal philosophy and their life goals developing as a result of their learning activities? To assess student learning gains as accurately and completely as possible, it is critical that educators build and use tools which can reach into this learning space, and provide data which can be evaluated. Electronic portfolios are proposed as an ideal tool for this purpose, one which is especially valuable for the assessment of learning gains in STEM education. At one time, engineers learned their trade primarily through a process of apprenticeship. The student-master tradesman/artisan relationship allowed for an in-depth, real time observation of student learning and accomplishment, and provided a high level of mentorship and direction. With the growth of engineering, technology, manufacturing (and many other areas) with industrialization, urbanization, modern warfare, and needs of large populations, academic programs were designed to rapidly provide engineers in large numbers. Unfortunately, this reduced the opportunity for direct observation and personalized directed learning. Programs and schools responded with processes for accreditation, best- practices in curriculum design, and development of independent learning processes within the contact of structured curricula – primarily internships and research experiences. While these have clearly helped in complementing classroom based instruction, they have presented particular challenges to assessment and evaluation. B. Electronic portfolios in engineering education Multiple studies over the past decade have shown strong evidence that portfolios, and by extension, electronic portofolios (eportfolios), benefit student learning and acquisition of skills to enhance student success in STEM fields.[3,4,5] In an ASEE article, Knott, et al. offer a simple, concise definition: “A portfolio is a purposeful collection of artifacts to demonstrate effort, progress and achievement. Within an educational setting a portfolio can be prepared in the context of a course, a program, or an institution; the author of the portfolio can be the student, a faculty member, an administrator, or an organization; and the purpose of the portfolio may be developmental, evaluative, and/or representative. With the ever increasing use and advancement of technology, the electronic portfolio (ePortfolio) is emerging as a viable option to the traditional paper portfolio.” [6] Engineering students must develop a systematic, ordered approach to the gathering of data and solving of problems. As the student transitions into the workforce, she must continually learn and master new applications and materials, advancement in design and technologies, and societal complexities. The Enhancing Assessment of Experiential Learning in Engineering Education through Electronic Portfolios Gary P. Halada, Member, ASEE, and Nancy McCoy Wozniak

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Page 1: [IEEE 2014 Zone 1 Conference of the American Society for Engineering Education (ASEE Zone 1) - Bridgeport, CT, USA (2014.04.3-2014.04.5)] Proceedings of the 2014 Zone 1 Conference

Proceedings of 2014 Zone 1 Conference of the American Society for Engineering Education (ASEE Zone 1)

978-1-4799-5233-5/14/$31.00 ©2014 IEEE

Abstract—Electronic portfolios (eportfolios) are proposed as an ideal mechanism to enhance experiential learning in undergraduate internships. Eportfolios can enhance instructors’ ability to assess student learning outcomes and the ability of industrial mentors to supervise and direct interns. Further, eportfolios, through student reflection and direct assessment of activities, can help programs meet the challenges of program accreditation. In particular, we show the use of an assessment model for difficult-to-assess ABET outcomes.

Index Terms—Eporfolios, internship, experiential learning, assessment, ABET

I. INTRODUCTION A. Experiential learning and assessment challenges

According to Kolb, et al., learning as defined by experiential learning theory is the “process whereby knowledge is created through the transformation of experience. Knowledge results from the combination of grasping and transforming experience.”[1] Kolb describes experiential learning as a holistic process – joining the traditional concept of cognition with broader issues of thinking, feeling, perceiving and behaving. [2] In this work, the Kolbs explain the need to consider the learning space, consisting of both the student and their environment, in the assessment of learning from experiences. The learning space in which experiential learning occurs is broader than just the physical space, and includes the life experience of the learner outside the course or the classroom, and in fact outside the specific internship as well. Learning is enhanced when the context is understood, and our assessment should take into account a context which includes how a learning experience is connected to (encouraged or inhibited by, as well as supported by) the other aspects of the student’s life and experiences. The difficulty lies in understanding how the student experiences learning within this broad conceptual space. How do they connect learning in a course, a curriculum, or a research or internship experience with their other activities? How do they see how the interconnection amongst formal curriculum and experiential learning activities influences their ability to learn and their method of learning? How do they see their personal philosophy and their life goals developing as a result of their learning activities? To assess student learning gains as accurately and completely as possible, it is critical that educators build and use tools which can reach into this

learning space, and provide data which can be evaluated. Electronic portfolios are proposed as an ideal tool for this purpose, one which is especially valuable for the assessment of learning gains in STEM education.

At one time, engineers learned their trade primarily through a process of apprenticeship. The student-master tradesman/artisan relationship allowed for an in-depth, real time observation of student learning and accomplishment, and provided a high level of mentorship and direction. With the growth of engineering, technology, manufacturing (and many other areas) with industrialization, urbanization, modern warfare, and needs of large populations, academic programs were designed to rapidly provide engineers in large numbers. Unfortunately, this reduced the opportunity for direct observation and personalized directed learning. Programs and schools responded with processes for accreditation, best-practices in curriculum design, and development of independent learning processes within the contact of structured curricula – primarily internships and research experiences. While these have clearly helped in complementing classroom based instruction, they have presented particular challenges to assessment and evaluation.

B. Electronic portfolios in engineering education

Multiple studies over the past decade have shown strong evidence that portfolios, and by extension, electronic portofolios (eportfolios), benefit student learning and acquisition of skills to enhance student success in STEM fields.[3,4,5] In an ASEE article, Knott, et al. offer a simple, concise definition: “A portfolio is a purposeful collection of artifacts to demonstrate effort, progress and achievement. Within an educational setting a portfolio can be prepared in the context of a course, a program, or an institution; the author of the portfolio can be the student, a faculty member, an administrator, or an organization; and the purpose of the portfolio may be developmental, evaluative, and/or representative. With the ever increasing use and advancement of technology, the electronic portfolio (ePortfolio) is emerging as a viable option to the traditional paper portfolio.” [6] Engineering students must develop a systematic, ordered approach to the gathering of data and solving of problems. As the student transitions into the workforce, she must continually learn and master new applications and materials, advancement in design and technologies, and societal complexities. The

Enhancing Assessment of Experiential Learning in Engineering Education through Electronic

Portfolios Gary P. Halada, Member, ASEE, and Nancy McCoy Wozniak

Page 2: [IEEE 2014 Zone 1 Conference of the American Society for Engineering Education (ASEE Zone 1) - Bridgeport, CT, USA (2014.04.3-2014.04.5)] Proceedings of the 2014 Zone 1 Conference

lifelong development, organization, and application of creative and critical thinking skills are vital to the success of an engineer. The goal of the engineering educator is to help students strengthen these abilities and guide them through the continuous processes of inquiry. Inquiry-Based Learning involves questioning, investigating (analyzing data), creating (synthesizing data into information), communicating (discussion and presentation), and reflecting on the knowledge gained. Reflecting on the evidence and conclusion produces more questions and the cycle of learning and discovery continues. Evidence-based reflective thought connects the inquiry cycle processes and serves as the catalyst to move to the next level of learning and discovery. In particular is it very important that eportfolios build the inquiry-based and life-long learning skills of students. Through reflection, a primary component of portfolio-based learning, students express the skills which they require in order to become life-long learners. This is especially important for the success of students engaged in undergraduate engineering programs, as per the learning outcomes required in engineering and technology programs for accreditation by ABET [7]: “ a recognition of the needs for and an ability to engage in lifelong learning.” It is very difficult to devise assessment schemes which demonstrate attainment of this outcome – hence we have another valuable use for electronic portfolios in undergraduate engineering programs. Likewise, experiential learning can provide methods for assessment of several other ABET outcomes, including (d) the ability to function on multidisciplinary teams, (f) an understanding of professional and ethical responsibility, and (k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice. Even in the case of ABET outcome (a) “an ability to apply knowledge of mathematics, science, and engineering,” experiential learning may provide one of the very few opportunities to evaluate how well a student can synthesize knowledge from coursework and apply that knowledge in to a new situation of set of problems. Therefore using eportfolios in which students summarize their experiential learning and activities can provide a powerful tool for assessment of engineering programs. The eportfolio process itself, which consists of collecting, selecting, reflecting, and connecting evidence of learning, provides an organized digital thumbprint and timeline of knowing, doing, knowing how you know, and proceeding to the next level of inquiry. It allows the owner to synthesize learning, build knowledge, demonstrate learning connections, and project evidence of professional skills and abilities over a lifetime.[8] Using this for evaluation of attainment of ABET outcomes allows faculty coordinators to better understand how a student can integrate knowledge, use their skills in real-world situations and continue to develop those skills in a professional manner. C. Evaluation of integrative learning Integrative learning is a key skill for students to succeed in both life-long learning and in building self-identity as STEM learners and self-efficacy. In the AACU Integrative Learning

Value Rubric, integrative learning is defined as an understanding and a disposition that a student builds across the curriculum, from making simple connections among ideas and experiences to synthesizing and transferring learning to new, complex situations within and beyond the campus.[9] A model for assessment of integrative learning, the Integrative Knowledge Portfolio Process Model (IKPP), has been developed by Peet, et al., at the University of Michigan.[10] The IKPP guides students with integrating, connecting, and synthesizing their learning experiences by identifying six dimensions of integrative knowledge and learning:

1. Identify, demonstrate and adapt knowledge gained within/across different contexts (i.e., the ability to recognize the tacit and explicit knowledge gained in specific learning experiences and the capacity to adapt that knowledge to new situations); 2. Adapt to differences in order to create solutions (i.e., the ability to identify and adapt to different people, situations, etc., while working with others to create positive change); 3. Understand and direct oneself as a learner (i.e., the ability to identify one’s prior knowledge, recognize one’s strengths and gaps as a learner, and know how one is motivated to learn); 4. Become a reflexive, accountable and relational learner (i.e., the ability to reflect on one’s practices and clarify expectations within oneself while also seeking feedback from others); 5. Identify and discern one’s own and others' perspectives (i.e., the ability to recognize the limitations of one’s perspective and seek out and value the perspectives of others); 6. Develop a professional digital identity (i.e., the ability to imagine how one will use current knowledge and skills in future roles and how to create an intentional digital identity).

The IKPP Learning Model depicts conscious and unconscious learning as lifelong and life-wide experiences. In her research, Peet demonstrates that in order to truly integrate their learning, students must first learn how to identify and demonstrate the tacit knowledge (the unconscious and informal ways of knowing people develop from informal learning experiences) they have gained from previous experiences, and connect it to the explicit knowledge (the formal concepts, ideas and methods learned through formal education) they develop in their academic courses.

II. DESIGN OF EPORTFOLIOS

A. Design of a template for internship eportfolios Our goal has been to work with students, faculty and industry to develop an electronic portfolio template and process which benefits all stakeholders. Students collect their experiences, reflect on their learning, and relate their internship to other academic and life pursuits, showing how it has expanded and enhanced their educational experience and provided key skills valuable for life-long learning. Faculty can use the portfolios to evaluate and assess the student experience, provide feedback, and relate internship learning objectives to institutional and programmatic learning objectives, relevant to accreditation. Industry and potential mentors are able to use the portfolios to track and advise students, monitor progress, and identify interns who may be offered permanent positions.

Page 3: [IEEE 2014 Zone 1 Conference of the American Society for Engineering Education (ASEE Zone 1) - Bridgeport, CT, USA (2014.04.3-2014.04.5)] Proceedings of the 2014 Zone 1 Conference

Integrative Learning ePortfolios (such as the ones created by our interns) are used to facilitate and organize the inquiry process as students make meaning of the knowledge and skills gained and connect (apply) them to other life experiences. The eportfolio serves as a learning space to scaffold and apply knowledge gained through inquiry and scientific, reflective thought. It also helps faculty to track and guide the students as they develop, organize, and apply their creative and critical skills. The Integrative ePortfolio Learning Process (Collect -gather and analyze data, Select - synthesize data into relevant information, Reflect, Connect, and Project to the next level of learning) provides an organized digital thumbprint and timeline of knowing, doing, knowing how you know, connecting what know, and proceeding on to another level of inquiry and knowledge. It allows the student to analyze and synthesize the learning experience, apply the learning to build knowledge, demonstrate learning connections, and project evidence of academic and professional skills and abilities over a lifetime. It allows the faculty to guide the student and authentically access the learning outcomes.

At the same time, the Integrative ePortfolio Learning Process helps the student to develop self-determined, lifelong learning skills. The eportfolios are owned by the students and provides an organized space for self-assessment. As students document and reflect on curricular, co-curricular, internship and job experiences, and service activities within the integrative eportfolio, they develop a sense of autonomy, self-relatedness, and self-efficacy as they extend their learning experiences beyond the bounds of the classroom. The learned concepts in the classroom, easily and confidently, can be mapped to the internship experience and into the workforce. B. Creating an assessment rubric and process

The grading rubric for the eportfolios is provided as part of the template used by students enrolled in ESM 488, the internship course in the Engineering Science curriculum at Stony Brook University. The rubric focuses on evidence presented in five categories: (1) demonstrate a professional attitude and work ethic; (2) excel at serving on multidisciplinary teams; (3) excel at communicating clearly and effectively; (4) excel at using the techniques, skills and technologies necessary for engineering; and (5) demonstrate independence and self-reliance (self-efficacy) in identifying information needed to complete tasks, in locating that information and in applying it to the task at hand. Tasks specific to a particular internship (collecting data, design, solving engineering problems, etc.) are also integrated into the rubric. Overall, the rubric and our assessment plan focuses on four categories: effective teamwork (cited highest as a skill desired in job applicants by the National Association of Colleges and Employers, 2012); professionalism (including ethics); the importance of being a life-long learner; and integrative learning (including applying science and engineering course-based knowledge to real-world situations).

In our design of an assessment process, we also leverage and adapt a number of best-practices. One is the IKPP Learning Model described above. Another is the AACU Foundations and Skills for Lifelong Integrative Learning Value rubric, which categorizes the objectives of the integrative learning process as: (1) Connections to Experience - Connects relevant experience and academic knowledge; (2) Connections to Discipline - Sees (makes) connections across disciplines, perspectives; (3) Transfer - Adapts and applies skills, abilities, theories, or methodologies gained in one situation to new situations; (4) Integrated Communication; and (5) Reflection and Self-Assessment - Demonstrates a developing sense of self as a learner, building on prior experiences to respond to new and challenging contexts. [11] In summary, we have developed an assessment methodology which leverages the dimensions of learning listed above and matches these with the skills and experiences relevant to key ABET learning outcomes in engineering knowledge and skills (outcome a), multi-disciplinary teams (d), life-long learning (i), and professionalism (k). In addition, we require each intern’s supervisor or mentor to rate the student’s skills or abilities in each area of the ABET learning outcomes they find relevant to the particular internship experience. The results of these assessments are summarized in tables 1 and 2 below. Table 1 provides examples of student language, culled from their reflections in their eportfolios, selected to reflect student gains. There are many more examples of such reflections in the eportfolios, and a faculty coordinator evaluating the eportfolios can use examples and a rubric to determine whether or not a student demonstrates that they have achieved particular learning gains. This can be done through a qualitative process, where by a student demonstrates, through a combination of direct evidence and reflection, that they have a demonstrated skill (for example, to extend classroom knowledge to new examples, or to participate in multi-disciplinary team meetings) or have gained an appreciation for extending their learning beyond curricular activities or have enhanced their self-identity as a STEM learner (and hopefully as a developing professional engineer). Our rubric (not shown) is somewhat subjective of course, and depends heavily on the expert opinion of the evaluating faculty. This is a sufficient methodology, as such expert opinion has been considered valid in rank-ordering methods and other forms of academic assessment of student reflections and self-assessment language in portfolios – for example, in the case of professional and medical education. [12,13] Table 2 summarizes the result of employer feedback generated through a survey which is included within the students’ eportfolio. By having their supervisors fill out the survey, not only do faculty have another tool for assessment but also the student is encouraged to explore the experiential learning nature of the internship with their mentor. The validity of the survey of course depends on employers/mentors interpretation of the questions. To date, only one employer expressed any difficulty in interpreting the questions (based on the nature of the experience).

Page 4: [IEEE 2014 Zone 1 Conference of the American Society for Engineering Education (ASEE Zone 1) - Bridgeport, CT, USA (2014.04.3-2014.04.5)] Proceedings of the 2014 Zone 1 Conference

III.

RES

ULT

S .

Stud

ent

(gen

der,

ye

ar)

Iden

tify,

dem

onst

rate

and

ad

apt k

now

ledg

e ga

ined

w

ithin

/acr

oss d

iffer

ent

cont

exts

(AB

ET

out

com

e a)

Self-

iden

tific

atio

n as

a li

fe-

long

lear

ner

in S

TE

M

(AB

ET

out

com

e i)

Abi

lity

to r

efle

ct o

n le

arni

ng

proc

ess

Abi

lity

to fu

nctio

n on

mul

ti-di

scip

linar

y te

ams

(AB

ET

out

com

e d)

Dev

elop

a p

rofe

ssio

nal

digi

tal i

dent

ity; a

bilit

y to

con

duct

self

prof

essi

onal

ly a

nd

ethi

cally

(AB

ET

f)

3rd

year

, fe

mal

e

“my

… sk

ills i

mpr

oved

tre

men

dous

ly a

nd I

have

ga

ined

mor

e co

nfid

ence

in

com

plet

ing

proj

ects

. I h

ave

lear

ned

it re

ally

isn'

t ab

out a

ll th

e cl

asse

s you

ha

ve ta

ken

and

have

seen

ho

w e

ngin

eers

bal

ance

m

ultip

le p

roje

cts a

t onc

e al

l at

diff

eren

t sta

ges o

f co

mpl

etio

n.”

“My

sum

mer

inte

rnsh

ip w

as

only

for a

bout

a m

onth

, but

ev

en in

that

shor

t of a

tim

e I

lear

ned

a lo

t and

wor

ked

with

so

me

real

ly a

maz

ing

peop

le!

… T

houg

h m

y tim

e th

ere

was

on

the

shor

ter s

ide,

I fe

el li

ke

I hav

e a

bett

er g

rasp

of

wha

t to

expe

ct in

the

real

w

orld

“I h

ave

gotte

n m

ore

fam

iliar

w

ith A

utoC

AD

Civ

il 3D

. I w

as

extre

mel

y ne

rvou

s at f

irst,

as th

is

seem

ed li

ke a

maj

or st

ep-u

p fr

om m

y cl

asse

s …. I

hav

e to

ad

mit

that

I w

as lo

st a

nd a

lway

s ne

eded

to a

sk fo

r he

lp to

be

wal

ked

thro

ugh

the

use

of

mos

t too

ls I

need

ed to

use

, but

th

at m

y co

nfid

ence

in u

sing

the

soft

war

e di

d gr

ow …

.”

Des

crip

tions

of

colla

bora

tive

task

s w

ith o

ther

em

ploy

ees

at c

ompa

ny.

Inte

rnsh

ip w

ell

inte

grat

ed w

ith

epor

tfolio

sect

ions

on

seni

or d

esig

n,

unde

rgra

duat

e co

urse

s ta

ken,

com

mun

ity

serv

ice,

clu

bs a

nd

activ

ities

3rd y

ear,

mal

e

“[A

n in

tern

ship

] not

onl

y gi

ves y

ou a

n id

ea o

f wha

t yo

u ar

e go

ing

to d

o, b

ut a

lso

a ch

ance

to u

se sk

ills y

ou

have

lear

ned

from

scho

ol.

For

me,

lear

ning

from

sc

hool

was

lear

ning

to fi

nd

the

piec

es o

f a h

uge

puzz

le

and

wor

king

for

[the

co

mpa

ny] w

as a

way

to

com

bine

the

piec

es in

the

righ

t pla

ce.”

“Stu

dyin

g in

scho

ol is

a g

reat

ch

ance

to g

rasp

the

basi

c kn

owle

dge

abou

t en

gine

erin

g. B

ut w

orki

ng in

an

eng

inee

ring

field

is a

to

tally

diff

eren

t exp

erie

nce…

I a

m e

xpec

ted

to g

radu

ate

at

2015

and

I ca

n't w

ait t

o go

ou

t to

the

field

and

hav

e a

grea

t fut

ure.

“Bei

ng a

n en

gine

er w

as

som

ethi

ng li

ke h

avin

g an

othe

r ey

e th

at n

orm

ally

peo

ple

do

not h

ave.

You

nee

d to

sear

ch fo

r yo

urse

lf to

see

wha

t you

can

fix

and

wha

t you

can

impr

ove…

en

gine

ers n

eed

to b

e cr

eativ

e an

d th

ink

from

all

diff

eren

t an

gles

. Tha

t is w

hy th

ey h

ave

mee

tings

to sh

are

thei

r ow

n id

eas a

nd th

ink

from

a d

iffer

ent

pers

pect

ive.

Gen

eral

ly p

eopl

e sa

y en

gine

ers n

eed

to

“thi

nk o

utsi

de o

f the

bo

x” a

nd th

at is

ex

actly

wha

t I

lear

ned.

. Tha

t is w

hy

they

oft

en h

ave

mee

tings

to sh

are

thei

r ow

n id

eas a

nd

thin

k fr

om a

di

ffer

ent

pers

pect

ive”

Inte

rnsh

ip se

ctio

n co

mbi

ned

with

spec

ific

cour

se se

ctio

ns, a

s wel

l as

reco

mm

enda

tions

, an

d a

vide

o cl

ip o

f a

mus

ical

per

form

ance

an

d co

nnec

tion

to

stud

ent’s

link

edin

pag

e.

4th y

ear,

fem

ale

“… o

vera

ll I l

earn

ed n

ew

skill

s, ab

ilitie

s, an

d w

orke

d w

ith in

dust

ry st

anda

rd

equi

pmen

t. Th

is in

tern

ship

su

rpas

sed

my

expe

ctat

ions

w

hich

was

to g

ain

real

w

orld

eng

inee

ring

kn

owle

dge

in a

n in

dust

ry

setti

ng.”

Each

day

that

I w

orke

d at

[th

e co

mpa

ny] I

lear

ned

mor

e an

d m

ore

new

skill

s and

en

gine

erin

g re

late

d kn

owle

dge,

and

I fe

el th

at

this

inte

rnsh

ip, t

urne

d in

to

sum

mer

job,

hel

ped

teac

h an

d m

old

me

into

a b

ette

r fu

ture

eng

inee

r.”

“Thr

ough

out m

y da

ily w

ork

I le

arne

d an

d re

fined

man

y sk

ills a

nd I

had

the

chan

ce to

see

how

oth

er e

ngin

eers

per

form

th

eir

daily

task

s….”

“In

a sm

all f

irm,.

no

one

pers

on h

as a

si

ngle

task

in a

giv

en

day.

The

y w

ork

on

mul

tiple

task

s and

m

anag

ing

mul

tiple

pr

ojec

ts.”

Exte

nsiv

e ep

ortfo

lio,

inte

grat

ing

two

inte

rnsh

ips w

ith

cour

ses,

club

s and

pr

ofes

sion

al so

ciet

ies,

volu

ntee

r wor

k, a

nd

even

hig

h sc

hool

ro

botic

s con

test

s.

4th y

ear,

mal

e

“Wha

t I h

ave

lear

ned

has

also

allo

wed

me

to a

pply

m

y le

arne

d sk

ills a

nd

“Thi

s exp

erie

nce…

hel

ped

me

orga

nize

my

acad

emic

w

ork

and

goal

s tow

ards

“I g

aine

d th

e ab

ility

to q

uick

ly

anal

yze

a si

tuat

ion

and

com

e up

with

a p

ossi

ble

solu

tion

with

“The

pat

h to

one

s su

cces

s is n

ever

eas

y an

d ca

nnot

be

take

n

Stan

d al

one

inte

rnsh

ip

epor

tfolio

, but

ver

y co

mpl

ete

and

Page 5: [IEEE 2014 Zone 1 Conference of the American Society for Engineering Education (ASEE Zone 1) - Bridgeport, CT, USA (2014.04.3-2014.04.5)] Proceedings of the 2014 Zone 1 Conference

ab

ilitie

s to

othe

r ar

eas o

f m

y lif

e.”

“Edu

catio

n is

not

lim

ited

to

just

the

clas

sroo

m o

r a

spec

ific

cour

se o

f stu

dy...

beco

min

g an

eng

inee

r in

the

field

of a

viat

ion.

” “K

now

ledg

e, e

xper

ienc

e,

dive

rsity

and

the

purs

uit f

or

answ

ers a

re th

e m

ain

corn

erst

ones

for s

omeo

ne’s

ed

ucat

ion

over

the

cour

se o

f th

eir

life”

little

mod

ifica

tion

of th

e so

lutio

n or

task

nee

ded.

Org

aniz

atio

n of

th

e w

ork

proc

ess a

lso

was

ver

y im

porta

nt a

nd I

lear

ned

to p

lan

wor

k ou

t ahe

ad o

f tim

e to

m

inim

ize

dow

n tim

e.”

alon

e. T

eam

wor

k,

trust

, res

pect

and

lo

yalty

alo

ng w

ith

educ

atio

n, h

ard

wor

k an

d pe

rsev

eran

ce a

re

the

key

aspe

cts t

o ob

tain

ing

succ

ess.”

prof

essi

onal

. In

clud

es

bio,

resu

me

and

links

.

3rd y

ear,

fem

ale

“Wor

king

in a

n in

dust

rial

setti

ng h

elpe

d m

e to

see

the

dire

ct a

pplic

atio

ns o

f sc

ient

ific

info

rmat

ion

com

pare

d to

my

prev

ious

ex

peri

ence

larg

ely

in a

n ac

adem

ic se

tting

.”

“I p

lan

to p

ursu

e a

care

er in

th

e bi

omed

ical

eng

inee

ring

field

in th

e fu

ture

. My

prof

essi

onal

aim

is to

furt

her

adva

nce

my

stud

ies i

n en

gine

erin

g/sc

ienc

e by

pu

rsui

ng a

PhD

. “

“…m

y su

perv

isor

was

abl

e to

pr

ovid

e m

e w

ith c

onst

ruct

ive

criti

cism

that

hel

ped

impr

ove

my

know

ledg

e …

Thi

s int

erns

hip

allo

wed

my

inte

llect

ual a

bilit

y to

thri

ve a

nd …

und

erst

and

the

colla

bora

tions

bet

wee

n sc

ient

ists

an

d en

gine

ers.”

“The

ent

ire p

roce

ss

requ

ired

co

llabo

ratio

ns

betw

een

diff

eren

t de

partm

ents

whi

ch

relie

d on

eac

h ot

her…

.”

Stan

d-al

one

inte

rnsh

ip

epor

tfolio

, inc

lude

s re

sum

e, P

rezi

pr

esen

tatio

n on

ex

perie

nce

gain

ed in

in

tern

ship

.

3rd

year

, m

ale

“…Th

is e

xper

ienc

e al

low

ed

me

to se

e th

at th

e en

gine

erin

g fie

ld is

way

m

ore

than

just

cal

culu

s an

d ph

ysic

s and

bei

ng

isol

ated

. …

It h

as sh

own

me

that

ther

e is

a lo

t mor

e th

at g

oes i

nto

engi

neer

ing

then

I ha

d pr

evio

usly

re

aliz

ed.”

“ [T

his i

nter

nshi

p] h

as sh

own

me

that

for a

car

eer p

ath

I re

ally

do

enjo

y th

e en

gine

erin

g fie

ld…

Tw

o of

m

y bi

gges

t goa

ls a

re to

al

way

s kee

p le

arni

ng a

nd to

le

ave

a la

stin

g im

pres

sion

. T

he d

rive

to k

eep

lear

ning

is

som

ethi

ng th

at I

will

car

ry

with

me

thro

ugho

ut m

y lif

e….”

“Fro

m th

is in

tern

ship

I w

as a

ble

to se

e …

the

amou

nt o

f th

inki

ng th

at g

oes i

nto

ever

y st

atem

ent b

efor

e it

is m

ade.

E

ach

mov

e …

is c

aref

ully

ca

lcul

ated

as f

ar a

s wha

t all

poss

ible

out

com

es c

ould

po

tent

ially

be,

and

it is

in th

is

that

I no

ticed

the

bigg

est

diffe

renc

e be

twee

n pr

ofes

sion

als

and

stud

ents

.”

“It h

as sh

own

me

the

pow

er a

nd

sign

ifica

nce

of

wor

king

as a

team

an

d ho

w b

eing

abl

e to

com

mun

icat

e w

ith

your

team

is c

ruci

al

to a

succ

essf

ul w

ork

envi

ronm

ent.”

Stan

d-al

one,

wel

l-de

sign

ed in

tern

ship

ep

ortfo

lio, i

nclu

des b

io

and

resu

me.

“F

rom

this

inte

rnsh

ip I

was

abl

e to

see

how

pr

ofes

sion

al e

ngin

eers

ca

rry

them

selv

es a

nd g

o ab

out t

heir

wor

k…”

4th y

ear,

fem

ale

“It w

as r

ewar

ding

to b

e ab

le to

app

ly so

me

of th

e kn

owle

dge

I gai

ned

in

scho

ol o

utsi

de o

f the

cl

assr

oom

.”

“Thi

s int

erns

hip

taug

ht m

e …

how

sim

ple

intro

duct

ory

clas

ses t

hat w

e to

ok in

co

llege

cou

ld b

ecom

e ve

ry

appl

icab

le to

the

real

w

orld

.”

“Upo

n gr

adua

tion,

I w

ill st

art

my

care

er a

s an

engi

neer

for

a co

nstru

ctio

n m

anag

emen

t co

mpa

ny. I

bel

ieve

that

a

succ

essf

ul c

aree

r is a

lway

s dr

iven

by

the

pers

on's

desi

re

to c

ontin

ue le

arni

ng, w

hich

is

why

obt

aini

ng m

y M

BA

is

one

of m

y m

ost v

alua

ble

goal

s.”

“…. I

now

kno

w fo

r sur

e th

at I

wou

ld li

ke to

pur

sue

a ca

reer

in

cons

truct

ion

man

agem

ent

I als

o kn

ow th

at I

have

muc

h m

ore

to le

arn

whe

n de

alin

g w

ith

cont

ract

ors a

nd p

uttin

g to

geth

er

cont

ract

s... D

espi

te e

very

thin

g I

still

hav

e to

lear

n, st

aff w

ere

alw

ays w

illin

g to

take

tim

e to

he

lp m

e as

wel

l as e

xpla

in n

ew

topi

cs”

“As I

obs

erve

d th

e w

ay c

o-w

orke

rs

effe

ctiv

ely

com

mun

icat

ed, I

re

aliz

ed th

e im

port

ance

of

wor

king

as a

team

an

d le

arni

ng to

acc

ept

and

adap

t to

the

pers

onal

ities

of

othe

rs.”

Stan

d-al

one,

wel

l-de

sign

ed in

tern

ship

ep

ortfo

lio, i

nclu

des b

io,

quot

es a

nd re

sum

e.

“Asi

de fr

om th

e te

chni

cal s

kills

I ga

ined

, I c

an a

lso

say

that

I gr

ew a

s a p

rofe

ssio

nal.”

4th

year

, m

ale

“Thi

s exp

erie

nce

gave

me

grea

t ins

ight

bec

ause

it

incl

uded

all

engi

neer

ing

disc

iplin

es…

Thi

s gav

e m

e gr

eat i

nsig

ht to

the

busi

ness

of e

ngin

eeri

ng, a

s

“Thi

s pro

ject

act

ually

hel

ped

me

deci

de w

hich

car

eer

path

in th

e en

gine

erin

g fie

ld I

wou

ld ta

ke.

Whe

n I

star

ted

on th

is p

roje

ct, I

was

a

mec

hani

cal e

ngin

eerin

g

“The

peo

ple

I wor

ked

for a

nd

with

wer

e ve

ry h

elpf

ul to

me

and

wou

ld sh

ow m

e th

e rig

ht w

ay to

co

mpl

ete

all o

f my

task

s. …

I le

arne

d a

lot f

rom

them

als

o,

beca

use

I wou

ld si

t in

on

“The

big

gest

thin

g I

gain

ed fr

om th

is

expe

rienc

e is

the

team

wor

k th

at g

oes

into

mak

ing

the

proj

ect a

succ

ess…

.

“The

re a

re m

any

acco

mpl

ishm

ents

I w

ould

like

to b

e ab

le to

sa

y I h

ave

achi

eved

w

hen

I loo

k ba

ck a

t my

wor

k at

the

end

of m

y

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wel

l as t

he d

ay to

day

task

s of

eac

h in

divi

dual

di

scip

line.

stud

ent …

but w

hen

I was

ex

pose

d to

the

envi

ronm

enta

l as

pect

, it i

nter

este

d m

e a

grea

t dea

l and

I de

cide

d to

pu

rsue

that

car

eer.”

mee

tings

and

take

not

es o

n th

e da

y to

day

ope

ratio

ns...

.”

This

exp

erie

nce

gave

m

e gr

eat i

nsig

ht

beca

use

it in

clud

ed

all e

ngin

eerin

g di

scip

lines

...”

care

er. T

he fi

rst t

hing

is

that

I w

ant t

o ha

ve h

ad

a po

sitiv

e ef

fect

on

my

cow

orke

rs a

nd th

e co

mm

unity

that

I ha

ve

wor

ked

in.”

3rd

yea

r, m

ale

“One

of t

he m

ost i

mpo

rtant

th

ings

I le

arne

d fr

om m

y in

tern

ship

exp

erie

nce

was

ho

w r

eal l

ife c

onst

rain

ts

affe

ct th

e ov

eral

l des

ign

of

the

final

pro

ject

. Man

y tim

es in

cla

ss w

e de

sign

a

proj

ect t

heor

etic

ally

ho

wev

er …

not

eve

ryth

ing

you

imag

ine

will

wor

k in

re

ality

.”

“ …

The

valu

e of

edu

catio

n w

hich

is a

lway

s con

tinui

ng

is k

ey to

the

succ

ess o

f the

pr

ofes

sion

... T

he b

asic

kn

owle

dge

I gai

ned

will

be

the

foun

datio

n fo

r my

cont

inua

lly g

row

ing

care

er in

th

e fie

ld o

f eng

inee

ring”

“…I c

ontin

ually

lear

ned

new

to

ols a

nd m

etho

ds to

car

ry o

ut

the

desi

gns I

wor

ked

on. T

his

help

ed to

lear

n th

e m

ore

effic

ient

w

ays t

o m

odel

a p

roje

ct a

nd

broa

dene

d m

y un

ders

tand

ing

of

the

softw

are.

“ M

any

times

the

inte

rnsh

ip a

ctiv

ities

w

ere

step

s tha

t co

ntrib

uted

to th

e bi

gger

pic

ture

of t

he

proj

ect w

here

the

othe

r en

gine

ers

relie

d on

my

task

to

mov

e fo

rwar

d w

ith

the

desi

gn o

n th

eir

proj

ect..

Stan

d-al

one

inte

rnsh

ip

epor

tfolio

, with

resu

me

and

bio.

“E

ngin

eers

mus

t pe

rfor

m th

eir w

ork

in

an e

thic

al w

ay th

at

prom

otes

safe

ty to

the

publ

ic in

whi

ch it

se

rves

.”

3rd y

ear,

mal

e

“Thi

s exp

erie

nce

show

ed

me

wha

t eng

inee

rs d

o on

a

daily

bas

is. P

rior t

o th

is, I

ha

d on

ly a

vag

ue id

ea b

ased

on

thin

gs w

e ha

d do

ne in

cl

ass.

…I h

ad to

app

ly a

lo

t of w

hat I

lear

ned

in

scho

ol to

the

job

and

had

to le

arn

even

mor

e.”

“Thi

s exp

erie

nce

has s

how

n m

e th

at I

wan

t to

wor

k as

an

eng

inee

ring

man

ager

.”

“Fur

ther

mor

e, I

beca

me

sign

ifica

ntly

mor

e se

lf su

ffic

ient

, res

earc

hing

and

le

arni

ng th

ings

for

mys

elf

rath

er th

an a

skin

g fo

r he

lp.”

“Ove

r the

cou

rse

of

my

inte

rnsh

ip …

, I

lear

ned

abou

t the

Six

Si

gma

prog

ram

and

ho

w to

bet

ter

optim

ize

grou

p pr

ojec

ts.

“Hav

ing

wor

ked

with

se

vera

l diff

eren

t en

gine

ers o

ver t

he

cour

se o

f my

inte

rnsh

ip, i

lear

ned

a gr

eat d

eal a

bout

the

skill

s and

abi

litie

s the

y im

plem

ent e

ach

day,

in

clud

ing

thei

r gre

at

wor

k et

hic.

” Ta

ble

1:Ex

ampl

es o

f epo

rtfol

io st

atem

ents

and

mat

eria

ls w

hich

pro

vide

evi

denc

e of

inte

grat

ive

lear

ning

as r

elat

ed to

AB

ET o

utco

mes

Page 7: [IEEE 2014 Zone 1 Conference of the American Society for Engineering Education (ASEE Zone 1) - Bridgeport, CT, USA (2014.04.3-2014.04.5)] Proceedings of the 2014 Zone 1 Conference

ABET LEARNING OUTCOMES EMPLOYER RESPONSE ON HOW WELL STUDENT MET LEARNING OBJECTIVES (AVERAGE) (FROM 1 – VERY WELL TO 5 –NOT WELL)

(a) an ability to apply knowledge of mathematics, science, and engineering 1.5 (0.16)

(b) an ability to design and conduct experiments, as well as to analyze and interpret data

1.31 (0.13)

(c) an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability

1.92 (0.24)

(d) an ability to function on multidisciplinary teams

1.25 (0.11)

(e) an ability to identify, formulate, and solve engineering problems

1.63 (0.16)

(f) an understanding of professional and ethical responsibility

1.63 (0.16)

(g) an ability to communicate effectively

1.56 (0.16)

(h) the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context

1.5 (0.17)

(i) a recognition of the need for, and an ability to engage in life-long learning

1.25 (0.11)

(j) a knowledge of contemporary issues 1.5 (0.13)

(k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.

1.88 (0.20)

Table 2: Results of employer/supervisor surveys. Results show average response, and the standard error of the mean (standard deviation/square root of number of responses).

IV. CONCLUSIONS

Clearly, the results of assessment indicate that students demonstrate considerable learning gains in integrated learning and, by extension, in ABET learning outcomes. This achievement is reflected in the results of employer/supervisor/mentor surveys which directly address these areas. In particular, employers found that interns ranked best in ability to function on multidisciplinary teams and in their recognition for and an ability to engage in life-long learning. Indeed, students’ self identification as life-long learners as a result of their experiential learning internships indicates that a key goal of engineering education has been attained, and is reflected in their eportfolio reflections. Employers were not universally satisfied with students’ design abilities, as well as the depth of their understanding of the tools and techniques of modern engineering practice (areas which received the lowest scores). Yet these are also the areas which students most often cited as challenges to their own learning. Engineering and technology (and indeed STEM areas in general) pose significant challenges for students due to the constantly evolving nature of the field – new materials, software, testing and modeling tools, manufacturing methods, and communications and presentation media provide both frustrations (for student and employer alike) and opportunities for growth. Through their eportfolios, it is clear that students recognize the need to improve learning in these areas, and their demonstrated growth in metacognition of learning and in self-efficacy (indicated by evidence and reflections) can only better serve to help them achieve these necessary learning gains. Some additional challenges in less technical areas also still exist – for example in helping students to present a professional identity and understand their professional responsibilities. We will respond in this area through additional student preparation for internships (using on-line resources and by interacting more with students through their eportfolios). Overall, the results demonstrate that electronic portfolios, along with a well-designed rubric and assessment methods based on best practices, meet the need of facilitating the ability of faculty to “measure the immeasurable” in regard to ABET learning outcomes in undergraduate engineering programs.

REFERENCES 1 Kolb, D.A., Experiential learning: Experience as the source of learning and development, Prentice-Hall, New Jersey (1984). 2 Kolb, Alice Y., and David A. Kolb, Learning styles and learning spaces: enhancing experiential learning in higher education, Academy of Management Learning and Education, vol. 4, no. 2, pp. 193-212 (2005). 3 Singer-Freeman, Karen, Linda Bastone and Joseph Skrivanek, Using E-Portfolios to support transfer student

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