Counseling Center
College Park, Maryland
Engineering Curriculum Transformation Project (ECTP):
An Evaluation of First-Year Initiatives
Jennifer L. Vest, Glenna Chang, and William E. Sedlacek
Research Report #5-96
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Counseling Center
University of Maryland at College Park
College Park, Maryland
Engineering Curriculum Transformation Project (ECTP):
An Evaluation of First-Year Initiatives
Jennifer L. Vest, Glenna Chang, and William E. Sedlacek
During the Fall 1995 semester, the Engineering Curriculum Transformation Project (ECTP) was formally implemented in the A. James Clark School of Engineering at the University of Maryland at College Park. This initiative focused on facilitating the development of engineering course curricula based on diverse learning styles, more inclusive examples, and the incorporation of diversity and societal issues into the classroom. Nine faculty members and ten undergraduate teaching fellows from six engineering courses and representing a variety of engineering disciplines were selected as pilot participants in the project. During Fall 1995, they attended a series of six seminars to prepare them for revising their course curricula for implementation during the Spring 1996 semester. ECTP was led by Deborah Rosenfelt, Director of the Campus Wide Curriculum Transformation Project at UMCP, and was also supported by the Women in Engineering (WIE) Program and the Engineering Coalition of Schools for Excellence in Education and Leadership (ECSEL).
The following report contains a summary of all Engineering Curriculum Transformation Project initiatives during the 1995-1996 academic year. Based on results from formally implemented evaluation measures with faculty participants, undergraduate teaching fellows, and engineering students enrolled in the revised ECTP courses, the following topics will be explored in depth: (1) rationale for curriculum transformation, (2) recruitment of participants, (3) fall semester initiatives, (4) spring semester implementation, (5) program evaluation and preliminary outcomes, and (6) plans for future initiatives in engineering curriculum transformation.
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Although each year approximately 25% of all engineering bachelor's degrees are awarded to women and people of color, for the most part engineering schools have been slow to accommodate the needs of their increasingly diverse populations (Anderson, 1995). Thus, attention is increasingly being directed toward the "chilly climate" inherent in many institutions toward women, students from different racial and ethnic backgrounds, and other nontraditional students, particularly in the disciplines of science and engineering. A number of recent studies have also shown that classroom climate issues have a significant impact on students' abilities to learn as well as their likelihood of being retained.
Rosser (1993) proposed a model for curriculum transformation in the sciences that includes the following six phases: (1) absence of women and people of color is not noted; (2) recognition that most scientists are male; (3) examination of the barriers that have prevented large numbers of women from becoming scientists; (4) search for women scientists; (5) focus on work done by women scientists; and (6) development of the "inclusive curriculum." Rosser (1993) concluded that:
This changed pedagogy attracts more students from more diverse backgrounds to become scientists. This diversity will increase the perspectives of the scientific community and strengthen the rigor of the scientific method. Curricular change combined with transformed pedagogy will result in more scientists from diverse backgrounds to confront the increasingly complex problems of our scientific, technological society. (p. 215)
Similarly, Nair and Majetich (1995) focused their attention on the impact of curriculum content, teaching methods, and teaching style in physics and engineering -- all of which are salient factors that lead large numbers of students, particularly nontraditional students, to leave these fields. They cited earlier introduction of engineering courses, teaching science and
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engineering in context (both historically and in terms of practical application in the field), and providing opportunities for students who need help getting up to speed as important interventions toward curriculum transformation (Nair & Majetich, 1995). However, Nair and Majetich (1995) also acknowledged the extreme difficulty inherent in the curriculum transformation process and stated the importance that "colleges and universities provide rewards and opportunities for faculty to engage in innovative teaching techniques and to move toward a student-centered learning environment" (p. 40). Significant differences by gender in educational persistence among engineering students have been noted by several authors. For example, Astin (1993) of the Higher Education Research Institute conducted a longitudinal study of 25,000 students at 217 institutions and found that only 44% of all students majoring in engineering during their freshman year persisted until their senior year. In addition, women students were found to be more likely to leave engineering than their male peers (Astin, 1993). Thus, college appears to be a time when women may exit the engineering "pipeline" in significant numbers. Published in 1988, the Greer Report at the University of Maryland at College Park provided an impetus for change toward improving the campus climate for women students at the University. This report proposed:
. . . a series of workshops, training materials, and resources for faculty in the college to help them understand how difference and diversity affects dynamics in the classroom and how they, as faculty members, can develop effective techniques for encouraging the participation and learning of all students. Training packages will focus on assisting faculty to develop a framework for understanding how age, disability, ethnicity, gender, national origin, race, religion and other types of cultural differences affect learning and teaching styles and interactions between faculty and students, and among students themselves, both inside and outside the classroom.
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Based on UMCP's Campus Wide Curriculum Transformation Project in the arts, humanities, and social science disciplines, the Engineering Curriculum Transformation Project (ECTP) was the first initiative at UMCP to focus exclusively on transforming course curricula in the A. James Clark School of Engineering. According to Berman (1994), past endeavors in curriculum transformation at UMCP have demonstrated that intensive faculty development activities are the most effective means by which to achieve curriculum reform. Based on these findings, facilitating six intensive faculty seminars over the course of the semester appeared to be the most effective structure for implementing this start-up initiative.
During the Spring 1995 semester, ECTP was first introduced to the engineering department chairs by the Dean of the A. James Clark School of Engineering. Information was then disseminated to all engineering faculty. Engineering departments received a total of $5,000 per selected faculty member or team of faculty members to allow for release time from a course, research and travel expenses related to transformation initiatives, and the procurement of course materials. In order to provide faculty the opportunity to more thoroughly involve themselves in the process of curriculum transformation, release time was highly recommended.
In addition, all participating faculty were provided the opportunity to have at least one undergraduate teaching fellow funded through the Women in Engineering Program. Teaching fellows attended ECTP seminars with faculty, assisted them in revising their course curricula, and worked with the actual implementation process in the classroom during the Spring 1996 semester.
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A diverse cross section of the A. James Clark School of Engineering was represented in this initiative. All faculty participants and their engineering departments, undergraduate teaching fellows, and revised engineering courses are listed below.
Faculty Participants |
Engineering |
Undergraduate |
Engineering |
|
Departments |
Teaching Fellows |
Courses |
John Anderson |
Aerospace |
Kamini Kothari (Fall/ |
ENAE 282: Introduction to |
|
Engineering |
Spring) & Michelle |
Astronautical Systems |
|
|
Kurtz (Spring) |
|
David Bigio & Jim |
Mechanical |
Summer Gilbert |
ENME 342/343: Introduction |
Duncan |
Engineering |
(Spring) & Jayna |
to Fluid Mechanics and Fluid |
|
|
Richardson (Fall/ |
Mechanics Lab |
|
|
Spring) |
|
Bob Harger |
Electrical |
Margaret Peng (Fall) |
ENEE 425: Digital Signal |
|
Engineering |
|
Processing |
Patricia Mead |
Mechanical |
Rhonda Sands (Fall) & |
ENES 100: Introduction to |
|
Engineering |
Deedee Rosenfeld |
Engineering Design |
|
|
(Spring) |
|
Mike Ohadi, |
Mechanical & |
Rita Lin (Fall), Jacinta |
ENCH 468K/ENCH 489K: |
Reinhard |
Chemical |
Kadoma (Fall/Spring), |
Environmental Energy |
Radermacher, & Jan |
Engineering |
& Ezmeralda Khalil |
Engineering |
Sengers |
|
(Spring) |
|
Norman Wereley |
Aerospace |
|
ENMA 489Y: Smart Materials |
|
Engineering |
|
|
Over the course of the Fall 1995 semester, six intensive two-hour curriculum transformation seminars were held for ECTP faculty; teaching fellows; and other UMCP faculty, staff, and students who had an interest in the topics being explored. The ECTP seminars were jointly organized by Julie Goldberg, Assistant Program Coordinator of WIE, and Deborah Rosenfelt, Professor of Women's Studies and Director of UMCP's Campus Wide Curriculum Transformation Project. Each seminar was followed by a period of discussion and reflection
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focusing on how the information presented could be used for practical application in transforming participants’ course curricula.
Three of the six seminars included outside consultants who were working on curriculum transformation in engineering and the sciences at the national level, including Sue Rosser from the National Science Foundation, Patricia Hynes from the Institute on Women and Technology, and Brian Coppola from the University of Michigan. Through bringing in these outside consultants, ECTP participants were provided the unique opportunity to gain exposure to curriculum transformation initiatives at other institutions; learn about important statistics, trends, and student demographics impacting this area; and seek models on which to base their own course revisions. The three remaining seminars were facilitated by Deborah Rosenfelt and gave participants the opportunity to focus more specifically on their own course curricula.
The chart on the next page contains a complete listing of all ECTP seminar topics, dates, and speakers. A brief description of each of the six seminars follows. Each seminar that featured a guest consultant was videotaped for inclusion in the ECTP resource collection, and these tapes can be borrowed from the WIE Office by anyone who is interested. In addition, one-minute surveys were distributed at the end of each seminar to gain feedback and evaluate their quality and effectiveness. The results from these evaluation measures were compiled in a separate report during the Fall 1995 semester.
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Date of Seminar |
Topic |
Speaker |
Wednesday, September 13, 1995 |
Kick-Off Meeting |
Facilitated by |
|
|
Deborah Rosenfelt |
|
|
(UMCP) |
Wednesday, September 27, 1995 |
"Female-Friendly Science and |
Sue Rosser |
|
Engineering" |
(Senior Program Officer for |
|
|
Women's Programs, National |
|
|
Science Foundation) |
Wednesday, October 11, 1995 |
"Gender and the Teaching and |
H. Patricia Hynes |
|
Learning of Engineering" |
(Director, Institute on |
|
|
Women and Technology) |
Wednesday, October 25, 1995 |
"New Wine in Old Bottles: |
Brian Coppola |
|
The Liberal Art of |
(University of Michigan) |
|
Undergraduate Chemistry |
|
|
Instruction" |
|
Wednesday, November 15, 1995 |
"Gender Equity and Teaching" |
Facilitated by |
|
|
Deborah Rosenfelt |
|
|
(UMCP) |
Wednesday, December 6, 1995 |
Syllabus Revision Workshop |
Facilitated by |
|
and Faculty Presentations |
Deborah Rosenfelt |
|
|
(UMCP) |
Seminar One: The first ECTP seminar, designed as a kick-off meeting to begin the semester, was facilitated by Deborah Rosenfelt. The purpose of this meeting was to provide participants with a general introduction to Fall semester initiatives, present current demographic profiles of women and minorities in science and engineering, provide examples of types of syllabi revisions from other courses at UMCP, and to introduce the evaluation component of the project. In addition, faculty and teaching fellows participated in an interactive exercise that explored gender bias in science and engineering.
Seminar Two: The second seminar, "Female-Friendly Science and Engineering," was led by Sue Rosser, Senior Program Officer for Women's Programs at the National Science Foundation (NSF). Based on her research, Rosser presented six phases of curriculum transformation for engineering and the sciences, introduced innovative pedagogical techniques
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that can be employed by educators, presented relevant demographics as a rationale for change, and showed specific ways in which science and engineering have been developed from a masculine paradigm.
Seminar Three: The third ECTP seminar, "Gender and the Teaching and Learning of Engineering," featured Patricia Hynes, Director of the Institute on Women and Technology. Based on her research and publications in physics and engineering, Hynes discussed the prevalence of gendered language and gendered concepts in the sciences, as well as the differing socialization processes between men and women. These processes often leave women reluctant to take on leadership roles in the classroom.
Seminar Four: The fourth seminar was led by Brian Coppola, Lecturer of Chemistry and Coordinator of the Undergraduate Organic Chemistry Curriculum at the University of Michigan. His seminar presentation was titled "New Wine in Old Bottles: The Liberal Art of Undergraduate Chemistry Instruction." Coppola discussed the innovative revisions to the chemistry curriculum he introduced and charged that too many disciplines within the academy have become isolated, but can be strengthened through interconnection with other courses and disciplines. Coppola challenged passive learning through engaging students in hands-on and group projects, and also provided a number of concrete suggestions for changing teaching styles and methods in the sciences.
Seminar Five: The fifth seminar, "Gender Equity and Teaching," was facilitated by Deborah Rosenfelt. In this seminar, faculty participants and teaching fellows viewed a video on gender equity and discussed the issue both in the classroom and on campus. Two faculty members, Bob Harger and Pat Mead, presented their revised course curricula for Spring 1996.
Seminar Six:The sixth and final ECTP seminar gave remaining faculty members the opportunity to present their revised syllabi to the group, to provide each other feedback, and to prepare to implement their courses during the Spring 1996 semester.
During the Spring 1996 semester, two follow-up workshops were held in February and April to bring participating faculty together once again, to talk about what has and has not worked in their revised courses, to assess how well the ECTP seminars prepared them for their new role, and to discuss the challenges they have encountered in the implementation process. Many faculty also discussed results from evaluation measures they put into place to assess the impact of course revisions on their students. Faculty also completed evaluations about their overall experiences in ECTP and assisted in the development of a student survey (Appendix B) that was administered in a majority of the ECTP-revised courses. In addition, focus groups were held with all ECTP teaching fellows to assess the quality of their experiences and gain their input on improving the program in the future.
Evaluation of ECTP was conducted by Glenna Chang from the ECSEL Program and Jennifer Vest from the WIE Program in consultation with William Sedlacek, Assistant Director of the Counseling Center at UMCP and Professor in the College of Education. In the next section of this report, results from the faculty evaluation component will be discussed in detail.
In February 1996, the Engineering Curriculum Transformation Survey (Appendix A) was administered to faculty participants. In total, five of nine surveys were returned and provide the
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basis for evaluation on the experiences of the faculty project participants.
In response to the question, What were your initial expectations for the ECTP seminars?, faculty members indicated that they were interested in new attitudes and techniques for inclusion of women and underrepresented minorities in the classroom. The responses were as follows:
· "Some new insights with regard to gender education."
The question, Were your expectations fulfilled? met with some conflicted responses. While most participants indicated that their expectations were fulfilled, some individuals discussed some areas in which their expectations were not entirely fulfilled. The responses were as follows:
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The next question was more detailed: The goals of ECTP, stated broadly, were to focus on updating course curricula based on diverse learning styles, more inclusive examples, and the incorporation of diversity and societal issues. How well did the seminars meet these goals? Please explain. The responses suggest that information in the seminars was processed differently, depending on the professor's understanding of diversity prior to participating in the seminars. The responses were as follows:
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The responses to the question, What were the major strengths of ECTP?, illustrate the broad needs and interests of the program participants. The most frequently mentioned strength were the guest lecturers and speakers. The responses were as follows:
In response to the question, What were its major weaknesses?, the participants indicated that they needed more specific help, more time, more follow-up, and more attention to the integration of new material with the established institution of engineering education. One individual was satisfied by the information provided by the project. The responses were as follows:
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The responses to the question, What was the most useful portion of ECTP for your own work on revising your course(s)? showed that the participants found various portions of the project relevant to their particular courses. Several individuals mentioned the benefits of learning from one another, and the benefits of having the support of a teaching fellow. The responses were as follows:
The question, What was the least useful portion of ECTP for your own work on revising your course(s)? only elicited three responses. While the teaching fellows were listed among the most useful portions of ECTP, they were also mentioned in this section On individual indicated that s/he would have preferred more attention given to the status quo of engineering education. The responses were as follows:
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The following question was a Likert Scale item: For the most part, the topics were relevant to curriculum transformation in engineering. On a scale from one through five, one indicated "strongly agree," while five indicated "strongly disagree," with a continuum between. Four individuals responded to this question, the mean was 4.45 and the standard deviation was 0.5.
The question, What made you want to participate in ECTP? elicited a variety of responses, including the desire to be a good teacher and a personal investment in gender equality. The responses were as follows:
· "The course had already been dramatically transformed to use an interactive book in a computer classroom. Methods of learning in this novel learning environment are under continuous study. E. g., I am currently working out more detail in examples and projects, with the active participation of the class. Self-selected groups are allowed and the Final Project will be done in groups of four and presented before the class in the computer classroom using Mathcad (mathematics software). This technology based environment naturally allows increased experimentation, visualization, and motivating examples closer to actual engineering practice."
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The question, Do you plan any follow-up activities related to ECTP in your department,
the university, or a professional association? If yes, please explain. was designed to determine whether or not participation in ECTP has long-term effects in engineering education. Several participants mentioned that they intend to continue the efforts established by ECTP. The responses were as follows:
The role of the teaching fellows has been discussed previously in both the `most valuable' and `least valuable' questions. The question, What role has your teaching fellow played in the curriculum transformation process?, addresses this issue directly. Overall, it appears that the teaching fellows were helpful in providing support and insightful perspectives on the course content and revised syllabus. The responses were as follows:
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The question, What changes should be made if ECTP were to be offered again?, elicited a number of excellent suggestions. Many of these topics have been discussed earlier in this report, and illustrate specific themes in the professors' experiences. The responses were as follows:
Given that one of the goals of ECTP is wide-scale reevaluation of engineering education with an emphasis on inclusiveness, it is essential that a great many instructors become involved with the process. The question, What would encourage other engineering faculty to participate
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in ECTP? is aimed at finding the most effective manner to reach faculty members. The
responses were as follows:
The question, Suggestions for future ECTP seminar topics, solicited ideas for upcoming years in ECTP. ECTP is an evolving program with an investment in the most current pedagogical methods and research. Therefore, suggestions for the future would serve to broaden the scope of the project. The responses were as follows:
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available -- Gardner, Armstrong, ...)
Overall, this first year of the Engineering Curriculum Transformation Project appears to have been a successful endeavor. All participants indicated that they gained some knowledge and skills concerning inclusiveness in the classroom and teaching styles. Faculty participants appreciated the opportunity to work closely with teaching fellows, and enjoyed the workshop presentations. Most faculty members indicated that they were pleased with the program as a whole.
There were, however, some suggestions concerning the structure and content of the project. Generally, the participants enjoyed the speakers at the seminars, although some individuals indicated that more emphasis on issues specific to engineering would have been beneficial. In addition, participants would have preferred if the teaching fellows had been more active in the discussions at the conclusion of the seminars. Also, participants would have appreciated more specific suggestions for course restructuring, which would eliminate the ambiguity of the project. One participant was particularly concerned about the integration of the transformation information with the established status quo of engineering education. Finally, several suggestions concerned the inclusion of women in engineering students, educators, and professionals as speakers or consultants.
Although not all faculty in the A. James Clark School of Engineering will have the opportunity to become involved in ECTP, faculty who participate in the project each year will receive support to disseminate their knowledge and ideas to others in their department and discipline through publications and presentations. For the Fall 1996 semester, a graduate
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assistant has been hired through WIE and ECSEL to focus exclusively on curriculum transformation initiatives in the School of Engineering. In addition, two faculty members who participated in ECTP recently submitted a grant proposal to seek additional funding for the project.
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Anderson, V. (1995). Identifying special advising needs of women engineering students. Journal of College Student Development, 36(4), 322-329.
Astin, A. W. (1993). Engineering outcomes. ASEE Prism. September, 27-30.
Berman, M. (1994). Sloan grant proposal for women in engineering. A. James Clark
School of Engineering, University of Maryland at College Park.
Nair, I., & Majetich, S. (1995). Physics and engineering in the classroom. In S. V. Rosser (Ed.), Teaching the majority: Breaking the gender barrier in science mathematics, and engineering (pp. 25-42). New York: Teachers College Press.
Rosser, S. V. (1993). Female friendly science and engineering: Including women in curricular content and pedagogy in science. The Journal of General Education, 42(3), 191-220.
University of Maryland at College Park. (1988, April). Making a difference for women: Report of the committee on undergraduate women's education (The Greer Report). College Park, MD: Author.
A. James Clark School of Engineering
University of Maryland at College Park
1995-1996
What were your initial expectations for the ECTP seminars?
Were your expectations fulfilled? yes no
The goals of ECTP, stated broadly, were to focus on updating course curricula based on diverse learning styles, more inclusive examples, and the incorporation of diversity and societal issues. How well did the seminars meet these goals? Please explain.
What were the major strengths of ECTP?
What were its major weaknesses?
What was the most useful portion of ECTP for your own work on revising your course(s)?
For the most part, the topics covered in the seminars were relevant to curriculum transformation in engineering.
Strongly Disagree |
Disagree |
Neutral |
Agree |
Strongly Agree |
1 |
2 |
3 |
4 |
5 |
What made you want to participate in ECTP?
What major impact did ECTP have on you?
My perspectives, assumptions, and approaches to my engineering discipline changed as a result of the ECTP experience.
Strongly Disagree |
Disagree |
Neutral |
Agree |
Strongly Agree |
1 |
2 |
3 |
4 |
5 |
Based on the question above, provide specific examples:
Do you plan any follow-up activities related to ECTP in your department, the university, or a professional association? If yes, please explain.
What role has your teaching fellow played in the curriculum transformation process?
What changes should be made if ECTP were to be offered again?
What would encourage other engineering faculty to participate in ECTP?
Suggestions for future ECTP seminar topics:
The A. James Clark School of Engineering is concerned with providing a comfortable and supportive learning environment to all students. Based on your experiences in this class, please complete this anonymous survey. This survey will address your perceptions and experiences surrounding gender, race/ethnicity, and learning styles. Your response to this survey will in no way impact your grade in this class. The results of this survey will be used to enhance the learning experiences of students at the University of Maryland at College Park.
Please check the appropriate response.
GENDER: CLASS STATUS:
______ Male ______ First Year
______ Female ______ Sophomore
______ Junior
ETHNIC IDENTITY: ______ Senior
______ Other (please specify)
______ African-American/Black
______ Asian-American
______ Native American
______ White/Caucasian of European descent
______ White/Caucasian of Middle Eastern descent
______ Hispanic/Latino/Latina
______ Biracial/Multiracial: ______________________________________(please specify)
______ Citizen of another country:_________________________________(please specify)
______ Other: _________________________________________________(please specify)
Questions 1 through 14 pertain to your experiences in this class . . .
Strongly Disagree |
Disagree |
Neutral |
Agree |
Strongly Agree |
1 |
2 |
3 |
4 |
5 |
Please circle one:
1 2 3 4 5 1) The instructor provides a comfortable learning environment for all students regardless of their gender.
1 2 3 4 5 2) The instructor provides a comfortable learning environment for all students regardless of their race/ethnicity.
1 2 3 4 5 3) My classmates provide a comfortable learning environment for all students regardless of their gender.
1 2 3 4 5 4) My classmates provide a comfortable learning environment for all students regardless of their race/ethnicity.
1 2 3 4 5 5) The manner in which the course material is presented has increased my interest in this subject.
1 2 3 4 5 6) The manner in which the course material is presented has encouraged my participation in class discussions.
1 2 3 4 5 7) The manner in which the course material is presented has increased my interest in further pursuing this field of study.
1 2 3 4 5 8) The manner in which the course material is presented has facilitated my understanding of the course material.
1 2 3 4 5 9) The instructor uses examples that are inclusive of different groups of people in terms of race/ethnicity and gender in class lectures and discussions.
1 2 3 4 5 10) The instructor uses examples that are inclusive of different groups of people in terms of race/ethnicity and gender in written exams.
1 2 3 4 5 11) The instructor uses examples that are inclusive of different groups of people in terms of race/ethnicity and gender in homework assignments.
1 2 3 4 5 12) It is important that instructors use examples that are inclusive of different groups of people in terms of race/ethnicity and gender.
1 2 3 4 5 13) I consider the course instructor to be an individual skilled in supporting and encouraging all students.
1 2 3 4 5 14) As a result of taking this class, I have greater confidence in my ability to become an engineer.
15) What suggestions (if any) do you have for creating a more comfortable and supportive learning environment in this class?
For questions 16 through 24, please indicate the extent to which you agree or disagree with the following statements . . .
Strongly Disagree |
Disagree |
Neutral |
Agree |
Strongly Agree |
1 |
2 |
3 |
4 |
5 |
Please circle one:
1 2 3 4 5 16) Gender biases occur within the field of engineering.
1 2 3 4 5 17) Racial/ethnic biases occur within the field of engineering.
1 2 3 4 5 18) Gender biases occur in this class.
1 2 3 4 5 19) Racial/ethnic biases occur in this class.
1 2 3 4 5 20) Lack of gender diversity is a major problem within the field of engineering.
1 2 3 4 5 21) Lack of racial/ethnic diversity is a major problem within the field of engineering.
1 2 3 4 5 22) Lack of gender diversity is a major problem in this class.
1 2 3 4 5 23) Lack of racial/ethnic diversity is a major problem in this class.
1 2 3 4 5 24) Initiatives should be taken by the A. James Clark School of Engineering to create a comfortable and supportive learning environment for all students.