questions about what they learned from the program, if the programchanged their goals/plans, and their satisfaction with the program. The pre-survey also gathereddemographic information and background academic information.Table 2: Questions from the pre-survey administered at the start of each summer program. Pre-Survey Question Question Type Participant identification (Student ID Number, Year, Faculty Text boxes and Lists Mentor) Participant background academic information (Major, GPA, etc.) Text boxes and Lists Participant demographic information (Gender, Race and Ethnicity) Select from lists Q: What interested you about this summer program? Open-ended comment Q
first months of the program, fellows are required to designate a faculty mentor. Thefellows must then meet with their mentor to develop a professional development plan (PDP) thatfocuses on areas of teaching, research, and/or outreach that have been identified as needingimprovement. As a part of their plan, fellows can interview faculty, shadow administrators,participate in faculty meetings, present a paper at a conference, or participate in predefinedactivities designed to teach them about the professoriate. Fellows submit a monthly report ofactivities completed as a part of the program. At the conclusion of the program, each fellow willhave completed an electronic portfolio detailing his or her work, developed separate teaching andresearch
briefly present the salient features of the IFYEP model as manifestedin a pilot program at SBC.IMPLEMENTATION OF IFYEPFor purposes of comparison, we briefly indicate the structure of the first semester at SBC beforethe implementation of the IFYEP. Students typically had a fixed schedule of classes their firstsemester, with some divergence (depending upon degree plan) taking place in the secondsemester. For example, first semester students take courses in student success (PSYC 100),computer skills (CSCI 101), composition (ENGL 110), and math (MATH 099 thru 103) inalignment with their placement test. The classes and the instructors more or less operatedindependently, with few students ending up in multiple classes together.The development of the
data was collected across three instruments. Thedemographic questionnaire collected data about participants’ demographic information andacademic background. The Doctoral Student and Development and Outcomes Survey, createdusing the research of Nettles and Millet (2006) and Lovitts (2001), was used to assess thesatisfaction and scholarly engagement of the students’ academic experience20,21. The CareerDecision Self-Efficacy Scale (CDSEC), which was originally derived from the Competence Testportion of the Career Maturity Inventory, included five sub-scales measuring self-appraisal(knowing yourself), occupational information (knowing about careers), goal selection (selectinga job), planning (looking ahead to the future) and problem solving (what
my ability to apply knowledge ofmathematics, science, and engineering.” 12 statements were derived from select items in theEvaluative Criteria for Accreditation of Physical Therapy Programs (CAPTE) [15]. For example,“I am confident in my ability to exhibit caring, compassion, and empathy in providing services topatients/clients.” The two remaining statements were “I plan to pursue a career is assistivetechnologies” and “I plan to pursue a career in rehabilitation engineering.” The students indicatedtheir confidence on a Likert scale from strongly agree to strongly disagree. The focus groupquestions included questions about the program overall as well as each component of theprogram. The schedule of data collection events is summarized in
byparents in planning and preparing for their young people’s careers. CM is adolescents’perceptions of their parents’ career-related modeling behavior. ES is adolescents’ perceptions oftheir parents’ attention to the affect they experience about educational and career developmentissues. VE is adolescents’ perceptions of their parents’ encouragement of their pursuit ofeducational and career goals. Each of the CRPSS scales is scored on a 5-point Likert scale (1 =Strongly Disagree, 3 = Neither Agree or Disagree, 5 = Strongly Agree), with higher scoresindicating more agreement. Sample items are: “My parents teach me things that I will somedaybe able to use at my job” (IA), and “My parents have shown me where they work” (CM).Parent’s career-related role
. She holds a Ph.D. in Learning, Teaching, and Social Policy from Cornell University, and an Ed.M. in Administration, Planning, and Social Policy from the Harvard Graduate School of Education.Dr. Ebony Omotola McGee, Vanderbilt University Ebony McGee, associate professor of diversity and STEM education at Vanderbilt Universityˆa C™s Peabody College, investigates what it means to be racially marginalized in the context of learning and achieving in STEM higher education and industry. In partic ©American Society for Engineering Education, 2019 Development of the Persistence of Engineers in the Academy Survey (PEAS)AbstractThis paper reports the
. in Administration, Planning, and Social Policy from the Harvard Graduate School of Education. c American Society for Engineering Education, 2019 Underrepresented Minority Engineering Students’ Professional Experiences with Cooperative Education: Perceived Benefits, Drawbacks, and Pathways to ParticipationAbstractThis study examines underrepresented minority students’ perceptions of cooperative educationprograms (co-ops), and how these perceptions (and other influences) are related to students’decisions about whether to participate in co-ops. This study also examines current co-opstudents’ experiences, including identified benefits and drawbacks of co-op participation. EightAfrican
diversity); were comfortable voicing opinions about diversity topics; hadwitnessed tensions, stereotyping, or discriminatory acts on the basis of any of these minoritycharacteristics (implying a dominant cultural capital excluding minorities); and whetherminorities felt pressured to act in any particular way inside or outside of the classroom(reflecting both social and cultural capital).1 Climate indices were derived from factor analysesof each of these sets of questions (see the Appendix for index construction). Further, self-confidence as an engineer and in terms of academic suitability to engineering were assessed;indices for these sets of questions were also developed through factor analysis (see theAppendix); as were future plans to be
advisorThe second segment of the administered survey targeted the implementation of the IBIEE modelcomponents to recruit students. In this regard, two open-ended questions were utilized to inquireabout the disposition from the faculty advisor to proactively identify and recruit engineeringstudents into the research group. The questions posed on the survey were the following: 1. Prior to receiving an invitation to participate in research, did you have a good relationship with the instructor? 2. Did at any point prior to receiving an invitation to participate in research, did the instructor ask you about your short or long-term plans?In the process of performing undergraduate research, the faculty member serves as
researchexperiences in England, Sweden, Poland, Scotland, Spain, Italy, Germany, Austria, France, theNetherlands, Japan, China, Singapore, Australia, Vietnam, Sri Lanka, Honduras, Colombia,Costa Rica, Ecuador, Mexico, Brazil, Jamaica, Dominican Republic, St. Kitts, Ethiopia, Togo,Ghana, South Africa and Morocco [6].IR SITE PROGRAMS A summary of research sites with universities can be seen in Table 1, below. Previouspublications on IR for underrepresented minority students in Sweden, the Netherlands, andAustria provide a detail description of the university sites research facilities and activities [5,6].In the last six years, 25 students were hosted at TU Graz/U Graz and 12 were the recipients ofthe Marshall Plan scholarship. From 2008 to present, 32
nature of Black STEM and engineering students’encounters with faculty in this institutional context.MethodsSite of StudyThe broader project from which this current study draws was conducted at the A. James ClarkSchool of Engineering at the University of Maryland, College Park. The University of Maryland,College Park is a large, more selective Mid-Atlantic public university with a CarnegieClassification of “Doctoral University/Highest Research Activity” and a current enrollment of37,430 students as of the spring of 2017 (University of Maryland, Institutional Research,Planning, and Assessment, 2017). In the fall of 2018, 4,370 students were enrolled in its ClarkSchool, of whom 54% were White, 22% Asian, 8% Black, 7% Hispanic, 8% undisclosed
by the Purdue UniversityCalumet (PUC) Office of Planning and Institutional Research, the retention rate of first time, fulltime students, who began in Fall 2005 in the School of Engineering, Mathematics and Sciencewas 44.8%. This is in line with a previous study by the Departments of Engineering whichindicated that approximately 50% of freshman engineering students do not pass to thesophomore year of study. The results also showed that the retention rate for the School ofTechnology was 56.8%. Furthermore, the graduation rate for minorities needed to be increased.For example, out of 34 baccalaureate degrees issued in Engineering fields during the 2005-2006academic year, there were only five minority students - two African American, two
BS Maryland at Eastern Shore 15 Virginia State Computer, Manufacturing, Computer science BS, MS UniversityDemand for Engineering at HBCUsTable 1 also highlights the 15 ABET accredited engineering programs at HBCUs. The list alsoincludes Texas Southern University (TSU) in Houston, Texas; the institution was authorized bythe Texas Higher Education Coordinating Board (THECB) to begin offering two newengineering programs during the fall of 2015 in civil engineering and electrical and computerengineering [13]. According to the school’s enrollment database, TSU has seen consistentgrowth for both programs. Based on the 4-year and 6-year academic plan period, the institutionshould expect to see their first group
theseorganizations to offer the recently recommended student interventions.ACKNOWLEDGEMENTSFunding for summer internship provided by the UD Office of the Associate Dean for Diversityand Inclusion.REFERENCES1. Yoder BL. Engineering by the Numbers. ASEE 2017.2. Page SE. The difference: How the power of diversity creates better groups, firms, schools, andsocieties. Princeton University Press; 2008.3. Planning Commission for Expanding Minority Opportunities in Engineering. 1974. Minoritiesin Engineering: A Blueprint for Action: Summary and Principal Recommendations. New York,NY: Alfred P. Sloan Foundation.4. Ross M, Yates N. Paving the Way: Engagement Strategies for Improving the Success ofUnderrepresented Minority Engineering Students. National Society of
actually more comfortable approaching faculty.The differences in our findings offer implications for the cautionary nature of studies of diversityin postsecondary education. More specifically, our findings suggest that the “lens” – the methodsof data collection in a study and the units of analysis – does impact principal study findings, evenfrom the same undergraduate population. Given that the findings of our study were used to drivestrategic planning for diversity and inclusion efforts at our institution, we caution against relyingon a single methodology – however consistent the findings appear to be with existing literature –to set your course of action and/or generalize to larger populations. We most strongly advise amixed methods approach
-Oriented Learning and Identities: AResource-Centered Perspective,” Teach. Coll. Rec., vol. 119, no. 1, pp. 1–42, 2017.[16] University Center for Institutional Evaluation, Research and Planning, CIERP, 2019.[Online]. Available: [address concealed to protect identity] [Accessed: Jan. 11, 2019].[17] P. Atkinson and M. Hammersley, Ethnography: Principles in Practice, 3rd ed. NewYork, NY: Routledge, 2007.[18] I. Seidman, Interviewing as Qualitative Research: A Guide for Researchers in Educationand the Social Sciences, 4th ed. New York, NY: Teachers College Press, 2013.[19] R. M. Emerson, R. I. Fretz, and L. L. Shaw, Writing Ethnographic Fieldnotes, 2nd ed.Chicago: University Of Chicago Press, 2011.[20] J. P. Gee, “Semiotic Social Spaces and Affinity
access technologies available to them, there is more workto be done.LimitationsThis study has a few limitations. Based on the answers from the survey CAT student employeestook, a few students did not complete some areas asking for more information. For instance, noteveryone typed in their age. It seems, the mobile survey, where it asks for the person to type ininformation, is not intuitive. In other words, user experience design for the survey needs morework.For the focus groups, the original plan for the two focus groups (n=10) to consist of: 1.) fivestudents who did not report to supervisors A or B during the AY 17-18 and 2.) five students whodid not report to supervisor C during the AY 17-18. N = 5 per focus group x 2 groups equal 10.However
hashad more experience. The program emphasizes solving ill-defined problems; hence, participantsneed to be able to get the gist of the problem in the pre-planning stage prior to engaging inbuilding and using the robots. As such, program coordinators should reverse engineer tasks andtimes allotted to each phase of the engineering design.Lastly, several mentors pointed out that program administrators should expand the programactivities to expose the middle school youth to other areas within the STEM fields. For example,one mentor stated: expand more on the STEM aspect. Because it’s heavily [focused on] engineering and maybe mathematics, but less towards technology and science. Because we’re mainly doing robotics. Even in