ourunderstanding of their perceptions and values about stakeholder experiences within the contextof infrastructure decisions, as well as their agency beliefs to combat inequities in this context.Each framework is further described in the following sections.Critical ConsciousnessGrounded in the pedagogical practices of Brazilian educator-philosopher Paulo Freire (1921-1997), critical consciousness comprises three components: (1) critical reflection, which is thecritical analysis of inequitable social conditions; (2) critical motivation, which is the interest andagency one has to redress such inequities; and (3) critical action, which is the action taken toproduce or participate in activities aimed at promoting societal change [3]-[6]. The likelihood
global, cultural, social, environmental, and economic factors. 5) an ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts. 8) an ability to acquire and apply new knowledge as needed, using appropriate learning strategies.Riley’s text uses a modular format that engages students in a four-step process (Engage, Analyze,Reflect, and Change). Figure 1: Learning Process for ModulesThe modules presented in Riley’s text can be integrated “as-is” into typical thermodynamicscourses. However, as the modules are not
privilegeinfluence student teams and team-based design, as well as short reflections asking students toapply such lenses to their teamwork experiences, following emancipatory pedagogy suggestionsof Freire [14], hooks [15], and others. For example, we assigned a reading on groupconversational characteristics, which led to a number of interesting reflections from somestudents about how much they enjoy “ritual opposition” (a method of testing ideas by tearingthem down, which Tannen [16] claims is common amongst men) and from other students abouthow those same interactions make them feel unsafe and silenced. Most reflections indicated 1students realize that neither
perspectives ofDEI, the team designed the research activities to isolate those factors in the questionnaire andinterviews.MethodsThe project is a sequential mixed methods study combining quantitative and qualitative aspects toexamine connections between involvement in HEP, professional formation, and views of DEI. Thequantitative aspect of this project will be a questionnaire which will guide the development of theinterviews for the qualitative aspect. Current engineering students at Lipscomb as well as alumniof the engineering program will be asked to participate in the questionnaire and interviews.Students will reflect an immediate impact on DEI from a pre/post-questionnaire due toinvolvement in HEP whereas alumni will represent the long-term
institute of Technology. Sriram received a B.E degree in Computer Science and Engineering from the University of Madras and M.S and Ph.D. degrees in Computer Science from Indiana University. During his time at Rose-Hulman, Sriram has served as a consultant in Hadoop and NoSQL systems and has helped a variety of clients in the Media, Insurance, and Telecommunication sectors. In addition to his industrial consulting activities, Sriram maintains an active research profile in data science and education research that has led to over 30 publications or presentations. At Rose-Hulman, Sriram has focused on incorporat- ing reflection, and problem based learning activities in the Software Engineering curriculum. Sriram has
reflection on howour grading practices impact equity mirrors conversations around using standardized testingmechanisms like the SAT, ACT, and GRE for admissions decisions. These high-stakes examsmay hugely impact accessibility of higher education for certain demographics of students[18]–[20]. Mounting criticism of standardized tests have pointed out that performance appearstied to lack of preparation and under-resourced schools, rather than students’ ability to succeed inundergraduate or graduate degree programs [21]–[24]. As underrepresented students are stronglyaffected by using test score thresholds to admit candidates, several movements have proposedthat their use be discontinued.While grades are a deeply ingrained part of higher educational
helpengineers and their communities meet their needs, and clarifies that engineering does notinherently require technocratic solutions to communal problems and needs.PositionalityThe primary and secondary authors are both engineers, labor organizers with the AmericanFederation of Teachers (AFT) local GEO-3550, and children of union members fromworking-class backgrounds. Both were participants in the 2020 GEO-3550 abolitionist strike fora safe and just campus for all [29]. The first author was also taking graduate coursework inintroducing the concepts of engineering education research during the writing of this paper,which provided a critical reflective space for learning and grappling with theoretical frameworksand their applications. We reached out to
patterns that reflect a central organizing concept. Weaimed to create a set of themes that were distinctive yet complementary. Next, we came togetherto review and define themes via consensus, moving from a summative to interpretative positionand seeking to ensure clarity, cohesion, and precision.ResultsThe participants’ reflections on their personal and academic experiences as engineering studentsrevealed shared experiences of wanting to solve personal problems independently, whilestruggling to balance academic responsibilities with other aspects of their lives as students. Uponfurther discussion, students described the unique factors of their personal identities and theirengineering student status that facilitated and hindered their help-seeking
without implicitly placing theonus for change on students” [8, p. 576]. A focus on student success within institutions thatweren’t built with them in mind is important for reframing the narrative regarding “achievementgaps,” but this theory can also be helpful for illuminating misalignment between assets possessedby students from groups systemically marginalized in STEM fields and the capital valued byacademic institutions. In doing so, we can identify levers for institutional transformation thatcould help elevate the value of community cultural wealth beyond counterspaces/ethnic enclaveswithin the university setting.By identifying areas of misalignment between student assets and institutional values reflected inpolicies, we can illustrate the
was seed-funded by an internal two-year university Strategic Initiative Award and advances four of USD’sEnvisioning 2024 goals: 1) enhancing student learning and success, 2) strengthening diversity,inclusion, and social justice, 3) elevating faculty and staff engagement, and 4) amplifying localand global engagement and reputation. Our Strategic Initiative funding concludes in 2021, and weare moving into a financial model that includes a combination of external and donor funding.The Engineering Exchange for Social Justice (ExSJ) FrameworkWhen we reflect on the critical questions inspired by materials engineer and socio-technical expertUrsula Franklin [14], who decides what is engineered and why? and who benefits and who pays?,in the ideal
underrepresentedbackgrounds that I worked with over two years as they engaged in engineering work through anout-of-school community engineering program. Designed by a team containing the author, theprogram engages youth in defining a community engineering problem of interest, researchingthat problem, and developing a solution. I led the programming multiple times over three yearswithin an afterschool and summer context. 75% of sessions were video-recorded, resulting in atleast ten hours of clearly visible video per youth. I interviewed youth via focus groups at the endof each project and collected all youth-produced artifacts. To conclude data collection, Iconducted reflective, stimulated-recall interviews with each youth. Per qualitative best practices,I member
lower-division students to engineering as a sociotechnical discipline—that engineering is inherently political, and that we must understand our own stances asindividuals in conjunction with considering social impacts of our engineering [1]. In keeping withthe university mission, all graduates must complete two courses with the diversity, inclusion,and social justice (DISJ) university core flag, which seeks to help students develop critical self-reflection and the ability to analyze the complexities of social constructions in everyday life. As aresult of our campus environment, our version of User-Centered Design has evolved to beunique in its objective to cover topics including justice, power, intersectionality, and privilege andoppression
or dismisses information that contradicts a shared group belief[12]. In an engineering classroom, a shared group belief is the engineering education’s pillar ofmeritocracy. To avoid identity-protective cognition, an unconscious bias curriculum forengineering education should illustrate how bias mitigation techniques leads to a system moreaccurately reflective of merit.ModuleThe curriculum is designed for a class of approximately 40 upper division engineering studentsand is intended to take about 45 minutes to run. The curriculum is suitable for lower divisionstudents with only minor modifications, though differences in how students would react to thecurriculum at different grade levels is beyond the scope of this exploratory study. The
Technology (ICAT). Her research interests include interdisciplinary collaboration, design education, communication studies, identity theory and reflective practice. Projects supported by the National Science Foundation include exploring disciplines as cultures, liberatory maker spaces, and a RED grant to increase pathways in ECE for the professional formation of engineers.Dr. David Reeping, University of Michigan Dr. David Reeping is a Postdoctoral Fellow with the Engineering Education Research Program at the University of Michigan. He earned his Ph.D. in Engineering Education from Virginia Tech and was a National Science Foundation Graduate Research Fellow. He received his B.S. in Engineering Education with a
programs.Limitations and Future Research The findings of this study are compelling, but are limited in their scope. The number ofparticipants recruited for the current study was appropriate for a qualitative study [18], but therewere much fewer women than men and much fewer students attending the HBCU than the PWI.These numbers reflect the larger population of males and students attending the PWI; however,the lack of female students and students attending the HBCU may suggest differences in theirexperiences that are an artifact of this study rather than a reflection of Latinx students’ livedexperiences. In addition to the differences in gender and institution participation, there were alsodisparities in representation across race and national origin
for Engineering Education, 2021Seeing the invisible: The year this white woman spent learning at an HSIIntroductionI have spent over 40 years in engineering. When I first attended the university to learnengineering, I was full of the messages of the 1970’s: Women can do anything men can do(better), I can have it all, the doors to access professional success are wide open. However, littledid I know that while this may be true, the cost to anyone not a tall white male from a privilegedbackground was great. It took me years to interpret what I experienced through the lens of thewhite patriarchy, but for the last 20 years, I have studied and reflected on how we in Engineeringand Education have participated in the inequities we see all around us
ofengineering, and a time for students to reflect upon and decide the majors and specialties theywill pursue thereon (Ngambeki, 2009). It is also a time when students’ beliefs of engineering andits education are reinforced (Hutchison et al., 2006). The content and experiences offered aspart of these courses present an opportunity to support students in developing their beliefs andattitudes towards engineering. We teach students that engineers design, apply math andscience to solve problems, program, make decisions, have different areas of specialty, but oftenmiss or convey only implicitly that engineering at its core is a human endeavor, one that ispracticed for people, with people, and as people (Fila et al., 2014). To engineer better meansengineering
deepening myunderstanding and empathy with my participants’ experiences.With this mentioned, I am aware that my subjectivities as someone within the community that Iam researching could present a quality threat to the findings of this research. To mitigate thisthreat, I engaged in memoing processes to help me to reflect upon all of the ways in which mysubjectivities could influence the findings. Additionally, I engaged in a “critical friends” protocolwith trusted mentors and colleagues to ensure that my framework was appropriate, my analysismethods were sound, and that my findings were representative of what the data present [33].Results & DiscussionSTEM IdeologyA recurring theme among all four participants was the reflection upon and
presented above. Such advice isstrongly reflective of a postfeminist sensibility. This is not to say that the women on the siteidentity personally with postfeminism as a philosophy or are even aware of it. The advice theyprovide, however, aligns with dominant postfeminist narratives and cultural ideas about howwomen can achieve success in the contemporary workplace. They emphasize the need forwomen to overcome any other issues or obstacles they may encounter as individuals (whether ornot they perceive of them as being related to gender). Women on the site promote the idea of a‘can-do’ woman who takes control of the situation and is confident.Minimizing and ReframingOne common piece of advice to women often with respect to gendered barriers was to
research that indicates that the need to supportengineering faculty in curriculum development efforts so that all identities are represented andfully integrated into the engineering curriculum, assignments, and assessments [33], [37], [38].This is critical because students who have minoritized identities are able to recognize that notonly is their own identity excluded from the curriculum, but also other minoritized identities,which can amplify these students’ sense of isolation and lack of belonging in the engineeringmajor and career. Designing curricula, assignments, and assessments that reflect diverseperceptions of engineers and engineering work can help cultivate the professional formation ofengineering identity and encourage students with
review response as “just part of the game,” thesescholars are a part of a coalition of authors who have penned an anti-racist reviewer’s guide [19].In the development of this guide, the coalition has identified this kind of behavior for what it is:the centering of a particular way of knowing and communicating to the exclusion of other ways.The reviewer’s exclusionary behavior maps onto several faces of oppression, most notably,marginalization (of particular ways of making knowledge) [20]. Further, the proposedcommunication and knowledge-making suggested by the reviewer reflects Western ways ofknowing, making knowledge, and communicating [21]; as such, this aligns with culturalimperialism and, following Dotson, is a form of epistemic violence [22
in shifting student bias towards inclusion in the three interventions. The mostpromising approach is student-led, where senior students worked to change the student culturedirectly.Introduction and BackgroundImproving diversity in STEM fields is an important goal and has been widely studied. It is well-known that students and professionals in STEM careers in the USA do not reflect the generalpopulation of the country [1]. For example, white men make up 31.6% of the general populationwhile they make up 51% of scientists and engineers. Black men make up 6% of the populationand 3% of the STEM workforce. The percentage of non-white and non-Asian people in the USAis 31.3% while the percentage of this sub-population working in STEM is just 12%. In
’ professional development and thedevelopment of a community project, critical indicators, including student end-of-semestersurvey, reflection items, and the success of the implementation of the semester communityproject present evidence of the effectiveness of the model for this program. Specifically, end-of-semester survey results indicate positive trends concerning understanding, applying, anddescribing the Foundry overall. Additionally, presentations indicate a level of understanding ofthe Foundry as all community event designs were required to integrate the model as part of theirplanning and implementation. In terms of retention and engagement, end-of-semester surveyresults indicate that the majority of the students in the program will persist in
, Kim,& McDermott [57]. To recap key aspects of the discussions and opinions appearing in the precedingpages, I offer Table 4, in which I have listed my subjective rankings of various factorsthat help women’s participation and achievement in STEM fields, based on my personalobservations and experiences in the US and Iran over a 48-year academic career. I couldhave listed inhibiting factors, but perhaps accentuating the positive is preferable as wellas more intuitive (higher scores reflect greater desirability). The total score should betaken with a grain of salt, as not all factor have the same importance.Table 4. A comparative summary of factors helping women’s participation/achievementin STEM educational programs and careers (on
Niehans, Shelley Lemons, Wright CollegeEngineering Team, Mia Angara and in memoriam: Melissa Mercer-Tachick- MUSE Consulting,NSF-HSI “Building Capacity: Building Bridges into Engineering and Computer Science”evaluator. This material is based upon work supported by the National Science Foundation under Grant No. DUE-1832553. Any opinions, findings, and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Science Foundation. Wright College IRB protocol # 108007 10REFERENCES[1] C. Adelman, Women and Men of the
equity, which is reflected in her publications, research, teaching, service, and mentoring. More at http://srl.tamu.edu and http://ieei.tamu.edu.Samantha Ray, Texas A&M University Samantha Ray is a Computer Engineering PhD student at Texas A&M University. Her research focuses on creating intelligent systems for tasks that require human-like levels of understanding. She has previously worked on human activity recognition (HAR) systems for promoting healthy habits and educational tools using sketch recognition and eye tracking.Dr. Paul Taele, Texas A&M University Paul Taele, PhD, is an Instructional Assistant Professor in the College of Engineering’s Department of Computer Science and Engineering at Texas A
perspective, we assume the following principles: problematize status quo,look at the use of language as clues to how ways of thinking and behaviour are structured, lookfor existing mechanisms of inequality, and look for creative alternatives for a more just/equitableoutcome.First, in order to describe what mechanisms of exclusion exist and become significant in studentexperiences, we looked for student accounts of their direct experiences (e.g. of barriers to fullparticipation in engineering education). Students also reflected on their observations on thecontrast between exclusion and inclusion. This resulted in the identification of: the location ofrepresentation gap that became influential; socially-mediated mechanisms that actually lead