someone’s personhood before mentioning their disability (e.g., “person withdisabilities”). Identity-first language mentions the disability before the person (e.g., “disabledperson”) [17]. All authors identify as disabled and use both identity-first and person-first languagein their writing. However, it is also important to note that we both prefer identity-first language forourselves. We believe that using identity-first language is important to bring visibility to thedisability as an identity, build community, and seek needed resources. We ask that non-disabledpeople mirror and respect the identity labeling preferences of the disabled person or group thatthey are interacting with and/or communicating about. In this paper, we use person- and
oneself when faced with obstacles to determinehow she felt about a situation and what support there was to assist her: But yeah, being mindful and making time to be with myself, so that I'm checking in and also recognizing, "Okay, you're kind of drowning in this area. What's going on? Who is your support around you? What can they do? How can you reach out to them? And then, what can you now do for yourself?"Family Support/PeersMentees also report appreciating the ability to seek out family/peer support, and being able to be honestand transparent with their support networks. For example, Amy leaned into family for guidance: Yeah. Within my troubles, I go to my family first. I say, "Okay, I don't know what I'm
conferences and has been published in peer-reviewed journals. ©American Society for Engineering Education, 2024 Defining, Measuring, and Recording Professional Skills: An Explication of a Professional Skills Certification Framework and Assessment RubricAbstractThe lack of professional skills in engineers, a skill gap long recognized by employers, hascreated a demand for student development processes that facilitate the acquisition of technicaland professional skills. In contrast to typical course-based learning, technical and professionalskills are best acquired through experiential learning activities such as internships, researchprojects, and other co- and extra-curriculars. The purpose of this paper is to
write the same word (e.g.,“male”) for both their self-described gender and sexual identities. It is unclear whether thesestudents were indicating they were attracted to the same gender or if they misunderstood whatwe meant by “sexual identity.”The survey also asks if the student is “an active member or veteran of the U.S. Armed Forces,Reserves, or National Guard” and if they are a U.S. Citizen. These identities are particularlyinfluential in aerospace engineering because of the connections between the field and nationaldefense. It would not be surprising if military service were to, for example, influence students’perceptions on the MIC. Furthermore, many non-U.S. Citizens have difficulty securing a job inthe aerospace industry because of
who are enrolled in theHE minor. It is also open to any other student at Mines and counts as an upper-level elective. Inthis course, students work on community development projects and design engineering solutionsto real problems affecting real people. The course focuses on HCD protocols, project scoping,research techniques, brainstorming tools and approaches, technical writing and presenting, andtechnical topics as needed for the design challenge. It is a combination of lecture hours and a lab.At the conclusion of the course, it is expected that students will achieve the following learningoutcomes:1. Apply appropriate technical knowledge to solve a design challenge as demonstrated by peer review and partner review.2. Demonstrate empathy
.”“Remaining open to new ideas, especially if they [were] coming from someone else”,“improvement in [our] ability to draw sketches and convey design ideas” and “a focus ongood brainstorming techniques” were also themes. Some students found that the “lack ofresources helped stimulate better ideas, by closing off the obvious paths” and helpedthem “overcome design hurdles” by encouraging them to “ask for help from experts”.The lack of resources also help them “trust more what [they] already knew and to “view[their] own knowledge and skills as the greatest design resource”. Many students weresurprised by “how much [they] could learn outside of a classroom”, and that they found iteasier to “learn something new, like a skill, […] from a peer [rather] than
than might be expected to attend thesame kind of event if it were hosted at the training center. As of Fall 2014, ASCENDsuccessfully hosted the first community public screening event “Seeding Innovation”showcasing four films at the Exploration Center. The event attracted over 100 viewers whoparticipated in post-viewing discussions, explored demonstration materials provided by projectteams and partners, and gave additional feedback by writing their responses to four prompts onpaper “leaves” that were fixed to the ‘branches” of a three-dimensional cardboard tree locatedjust outside the theater. This event was significant for attending VTC apprentices because theirwon work was being featured and because the Exploration Center represents a
naturalized trajectory of success in mathematics courses. This iswhere we find Peter. Calculus 1, a single-semester class on the flowchart, took him foursemesters. Peter has been at State U. for three years according to calendar time(accumulating student debt during this time), but according to “flowchart time” he is stillin his first year. Denied progress along the engineering flowchart, Peter finds himselftaking classes in the College of Arts and Sciences. Taking these classes does more thanadd to the amount of time and money Peter has given State University; it also distanceshim from peers in the College of Engineering while simultaneously pushing him outsidethe boundaries of the trajectory that the flowchart normalizes and legitimizes.Even inside
Paper ID #15175Learning to Conduct ”Team Science” through Interdisciplinary EngineeringResearchDr. Catherine G.P. Berdanier, Purdue University, West Lafayette Catherine G.P. Berdanier holds a Ph.D. in Engineering Education from Purdue University. She earned her B.S. in Chemistry from The University of South Dakota and her M.S. in Aeronautical and Astronautical Engineering from Purdue University. Her research interests include graduate-level engineering education, including engineering writing, inter- and multidisciplinary graduate education, innovative and novel grad- uate education experiences, global learning, and
applied solder toensure that it has not overflown, and at the same time, that it sufficiently covered the connectionarea. Kulkarni “felt sad and frustrated about missing the useful [soldering] repetition” throughoutthe course. She also reflected on the importance of soldering exposure, as a missed opportunityfor her, through her peers’ experiences in a lab that requires students to solder tens of LEDs tobuild an LED cube. She stated, “To some, the immense amount of soldering in this lab is one ofthe most memorable components of the class, for better or for worse… With the LED arrayproject, you're soldering repeatedly to learn the skill.” As a result of such exclusion due to theableist, primarily visual nature of lab tools, Kulkarni “focused much
computing and engineering students, wewill need to develop a research agenda that further elucidates this nascent area of study. Weparticularly expect that intentional work will be needed to uncover the as-yet poorly understoodecosystem surrounding TNB computing students, their advocates, and their allies. In particular,we see a clear need to understand intersections with race and disability, as the 2015 U.S.Transgender Survey showed that TNB people of color and people with disabilities had worseoutcomes than their already marginalized peers [3]. In order to be a force for change for thisgoal, we held a virtual workshop to develop a research agenda that includes TNB students inBPC/BPE for inclusive and intersectional policy, practices, and
Summer 2022. After opening the DesignCube, students are able not only to access commontools and material for their prototyping activities, but they can also move freely from oneworkstation to another to engage, brainstorm and discuss with peers. There is also storage roomfor prototypes. Figure 10: Students inside Makerere DesignCubeFigures 10 and 11: Summer Program Participants with the DesignCubeStudents from both schools have had the opportunity to collaborate on biomedical designprojects in the Makerere DesignCube (Figure 10). Eight Duke students travelled to Makerere inSummer 2022 through a DukeEngage program, a service-learning program where
extended to similarly innate forms of neurodivergence, thusly: bysituating similarly these forms of neurodivergence as something one can ‘have,’ person-firstlanguage perpetuates the idea that neurodivergence can always be separated from the self – andtherefore removed or ‘cured.’Steps towards the neurodiversity paradigmThe earliest instance of neurodiv* term use I found in the EER literature was in an articlepublished in 2015, three years after Walker first introduced the neurodiversity paradigm inpublished writing [2] and one year after she first posted “Neurodiversity: Some Basic Terms &Definitions” online [6]. Though all analyzed articles were published after these important works,none directly referenced Walker, and none were entirely
which can be found in Appendix B.Students were placed in different groups for the two activities. Each instructor provided feedbackfor all groups in both activities.An initial brainstorming exercise was completed at the very start of the program, where studentswere asked to work in groups and write on post-it notes in response to the following prompt:“About 50% of neonatal (newborn) deaths worldwide are due to hypothermia. Some reasonsinclude that newborns lack sufficient body fat and metabolic rates to maintain body temperature.Brainstorm: 1. Possible approaches to avoid hypothermia-related neonatal deaths in developingcountries. 2. What additional information do you need?” [8].The final direct assessment was made by evaluating student
Paper ID #38078A Self-Study of Faculty Methods, Attitudes, and Perceptions of OralEngineering ExamsDr. Darcie Christensen, Minnesota State University, Mankato Dr. Darcie Christensen is a probationary Assistant Professor in the Department of Integrated Engineering at Minnesota State University Mankato. She teaches for Iron Range Engineering, which is located at the Minnesota North Campus in Virginia, MN. Dr. Christensen received her Ph.D. in Engineering Education from Utah State University in the Summer of 2021. The title of her Dissertation is ”A Mixed-Method Approach to Explore Student Needs for Peer Mentoring in a College
, many researchers and educators areinvestigating anxiety interventions and their effects on student outcomes in science andengineering courses to improve student outcomes for underrepresented groups in STEM[12–15].For instance, Harris et al. tested the effectiveness of test anxiety interventions such as expressivewriting and reappraising physiological arousal on exam performance [13]. They found that theseinterventions, though they did not change the level of self-reported test anxiety in students, didincrease exam performance. Other studies have similarly shown that expressive writing exercisescan be effective in increasing cognitive abilities, particularly when performing problems requiringa high working memory [14]. Many other studies have
. Essentially, as acommunication platform itself, Zoom allows us to be “hands-on” with these topics. Wedeveloped such interactive exercises on topics including multi-level signaling, MIMO, mediumaccess control and network routing.In this paper, we will describe our experiences with implementing a set of such remotely-taughtlessons on wireless communication and networking offered to high school students. Thesecombine write-ups and interactive Zoom sessions that leverage Zoom features to engage studentsand have them experiment with the lesson concepts. Even after schools return to in-personlearning, these sessions could serve as the basis for remote summer camps or after-schoolprograms that could introduce communications concepts to high school students
Engineer of 2020 attributes. This study will also be ofinterest to educators considering how the attributes described in 2004 remain relevant in 2020and may spark conversation about how these attributes may need to be adjusted in the future.The study will be of particular interest to those responsible for recommending and implementingcurricular changes in engineering programs.BackgroundThe report titled The Engineer of 2020, published in 2004, is a product of the National Academyof Engineering[1]. The committee responsible for writing the document included 18 people: 12affiliated with academic institutions, 4 affiliated with technology-based companies (IBM, HP,Telcordia, and Reliant Energy), 1 affiliated with a national laboratory (Sandia), and 1
. She is an Associate Editor for the ”Journal of American Indian Education” and has authored or edited three books and numerous articles in peer reviewed national and international journals. Her most recent edited volume was published in 2019 and is called ”The Price of Nice: How Good Intentions Maintain Educa- tional Inequity.”Dr. Ricky Camplain Ricky Camplain, PhD is an assistant professor of Health Sciences and the Center for Health Equity Re- search at Northern Arizona University. Dr. Camplain is a Comanche scholar who was trained in epidemio- logic methods at the University of North Carolina at Chapel Hill Gillings School of Global Public Health where I received a Master of Science in Public Health (MSPH
felt the learning gainswere less because students were “missing the point” of the labs, as “we're not interested in whatyou got as a result. We are more interested in knowing why you've got what you got.” This couldmean that a targeted pedagogical training intervention specific to online-specific strategies topromote deeper, more critical thinking might be useful to GLAs and increase their self-perception of their role [6]. Strong peer support and a mentor system might also help relievesome of the pressure from adjusting quickly to a new role as a result of the transition tohybrid/online labs [14].Table 1: Salient themes from the graduate perspective and supporting quotes 1) Lack of “The interaction with students in the online
graduate schooltraining, which socializes future faculty toward traditional definitions of scholarship that remaindeeply held: that scholars create new knowledge for academic communities and demonstratetheir expertise in writing; and that discovery research is harder and requires more expertise thanteaching or service [24] [37]. In a multi-institutional case study of reform institutions, O’Mearacharacterized a “culture war” around decisions about promotion to full professor, wrapped up ininstitutional self-image and values of prestige associated with traditional scholarship [24].Ratcheting up of research expectations to improve rankings has also been identified as asignificant barrier [37]. In addition, CAOs have reported difficulty in expanding
ESPTs and in engineering praxis, they experience apowerfully rich and authentic identity, they experience becoming an engineer.In the following, we used three cases, that is, three women participants (Nickie, Bhee, and Annie– all pseudonyms) to illustrate the overall thematic findings noted in the passage above.Nickie is a member of an upper middleclass family with two parents (neither of whom areengineers), one sister and two brothers. She was born in the northeastern part of the UnitedStates. She differentiated herself from the other members of her family, “I was probably the leastathletic person ever, so I had to find other things….” She enjoyed reading, writing and drawing.“I became very artistic … and “was super curious” about space
where you’re just like, ‘book work. Here you go. Write it down.’ This actually revved up my mind and made me want to work harder in math and science to make sure it all works.One 8th grade student described how the hands-on STEM-ID course aligned particularly wellwith her learning style: It's hands on and you don't have to sit at a desk all day and do computer work. It actually gives you a chance to experience things. You get to learn up close. I'm a visual learner. I learn from what I see and what I can touch and play around with and it helps me function very well to know that I can do my hands-on work.Finally, as detailed further below, in describing their favorite aspects of the course, manystudents
assigning the course grade. Fellow student evaluations(peer evaluation) are taken into consideration in evaluating individual students’ performance.Internet of Things (IoT) ProjectThe rapid increase and use of mobile technologies and wireless communications has opened thedoor for many smart home applications that monitor and control energy consumption. TheInternet of Things (IoT) has researchers investigating controlling appliances remotely in smarthomes. By utilizing the technology of IoT [15], the capstone team analyzed the main parametersthat should be taken into consideration when building an energy management system. Ourpartner, as a facility, is relatively large and presents unique challenges. The capstone team drewon previous work in this
the crucial connection between public policy, medical research and health issues– connections which the student himself was not aware of before starting SRR. After discussing ethics in Boot Camp, a student in anthropology and peace studiesbecame taken with the profound ethical issues implicit in research conducted in the conflictzones of the world. As her SRR project she undertook to develop a novel framework forrecognizing and addressing these issues. This framework then became the basis of a peer-reviewed published paper. 10 A third project took the results of the student’s engineering research and, using asmartphone app, made them available in a clear and accessible form to practitioners. This toolallowed the construction of
education curriculum with a focus on laboratory courses for the University of Minnesota, Twin Cities, Electrical and Computer Engineering Department. His courses leverage project-based learning, experiential learning, and self-paced activities. David has over ten years of industry experience specializing in mixed-signal RF integrated circuit design, power systems, and power electronics.Prof. Kia Bazargan, University of Minnesota, Twin Cities Prof. Kia Bazargan is an Associate Professor with the Department of Electrical and Computer Engineering at the University of Minnesota. Has has published over 70 peer-reviewed papers and book chapters related to FPGAs and VLSI computer-aided design. He received his Bachelors degree
. Johnson et al. write, “…there is nothing special about the waterthat stays in the pipe and that which leaks” [7, p. 342]. Still others note that careers are morecomplex than the “leaking only” action of the pipeline – some successful scientists may leaveand then return, or may find fulfillment in other fields [22]. As an alternative, authors haveproposed other models, such as Etzkowitz’s [23] “vanish box” in which underrepresentedstudents (women, in particular) tend to vanish from scientific careers, but reappear in careers thatcombine science with business or communication skills. Perna [24] also suggests a “multiplepathways” model, which has been picked up by advocates for minority engineers [19]. Perna’smodel allows for alternate routes within
through in-formation gathering, proof-of-concept, prototype development, beta testing and now production-on-order stages: 1. Research, design and build appropriately sized physical hardware (e.g., intake and sorting tables) and optimize flow through their use. 2. Develop, wire and test individual units that use industry-proven commercial electronics to build robust totalizers that reduce errors and that can be maintainable by NYSARC staff. 3. Employ an industry-proven commercial industrial electronic controller/ display and write software for it, to collect and log data from all totalizers in a given plant, provide a real-time display to staff, and allow for the printing of individual receipts or bag labels.Proof of ConceptIn
aimed at supporting underprepared students through theirprerequisites, both academically and emotionally. The program was designed afterinterviewing many students, both those who persisted and those who left engineering,researching programs at other schools, and building upon prior experience. The mainprogram goals include an increased retention rate in engineering amongstunderprepared students and the creation of meaningful relationships and networks forthese students within their engineering experience.Specific program goals: ● Support the development of meaningful relationships for underprepared first-year students within their engineering experience. A student survey about interpersonal experiences with peers as well as
]. Unfortunately, it is also perceived as an area of under-preparation by recentgraduates [26]. Women’s experiences in engineering design teams has been the subject of a number ofstudies, with several studies noting that women’s experiences in teams could potentially“recreate sexist environments already found in the university environment for undergraduatewomen if they are not properly managed” [28, pp. 82]. Negative experiences in teams (not beingaccepted, heard, or respected by her peers) could have significant long-term impacts, i.e., it couldbe the difference between staying or abandoning engineering after graduation. During teamwork activities, students negotiate their identities, status, and authenticity.[29] showed that gender is a