learning and educational objectives.Objective 5. Routinely link and share with others to transcend individual, disciplinary, and intra-institutional and inter-institutional boundaries.Objective 6. Imbed Assessment and Evaluation, as well as continuous improvement, as a fundamental ingredient of the educational process. Page 6.707.1II. Objective Setting ProcessesThese Coalition-wide objectives were developed through an iterative process involving theDeans and Governing Board Members from each of our seven partner institutions. A multi-stepprocess was established in order to identify and define specific
sustainable energy elective. These preliminaryresults suggest that whether a course is elective as opposed to required may have an impact on the maintenanceof attitudes through the semester. The observed lack of positive shifts in the Perception of Design courseindicates that the significant positive shifts seen in the Flow Visualization course are only partly explained bythis elective factor.Introduction Efforts to bridge the cultural divide between science and art have gained momentum in recent years.One such effort at the University of Colorado, Boulder, is a course on the physics and art of flow visualization.First offered in 2003, the course brings together engineering majors with students from a range of otherdisciplines; mostly
experience,perception, cognition, and behavior.1 For this model to be successful the learner must: activelybe involved in that experience (concrete experience), reflect on that experience (reflectiveobservation), conceptualize the experience (abstract conceptualization), and apply what waslearned to new experiences (active experimentation).1Experiential learning is a component of education that “emphasize[s] the central role thatexperience play in the learning process.”1 As explained by Hey, Van Pelt, Agogino, andBeckman, some areas, such as practical and teamwork skills that are important in engineeringdesign education, are best taught through experience instead of through formal lectures.5In that regard, experiential learning has many benefits
then set off the inflation of the air bag quickly enough to protectpassengers before the collision's impact reaches them.Dr. W. David Williams director of Sandia's Microsystems Center, says "I honestly believe that[MEMS] are the new way to keep the country safe".Williams isn't alone. "The government has its hands on almost every area of [MEMS] research,from cars to optics," says Eric Pearson, director of the Applied Physical Sciences Laboratory atSRI International, a Silicon Valley group that has worked closely with the military for more than30 years. "They're watching this area very closely."The government is spending nearly $200 million per year on MEMS research through twoagencies: Sandia and DARPA, the Defense Advanced Research Projects
engineer and project manager on projects throughout the United States. He is a licensed professional engineer in multiple states. Dr. Barry’s areas of research include assessment of professional ethics, teaching and learning in engineering education, nonverbal communication in the classroom, and learning through historical engineering accomplishments. He has authored and co-authored a significant number of journal articles and book chapters on these topics. c American Society for Engineering Education, 2018Revising the Civil Engineering Body of Knowledge (BOK): The Application of the Cognitive Domain of Bloom’s TaxonomyAbstractIn October, 2016, The American Society of Civil Engineers
to integrate sustainability into higher education is underscored by the growingimportance of the United Nations Sustainable Development Goals (SDGs), including embeddededucation-related targets. Incorporating the SDGs into curricula provides a compelling context foreducation for sustainable development (ESD) and supports the development of sustainabilitycompetencies that extend beyond technical knowledge to include cognitive and behavioral aspectsof decision-making [5], [6]. Moreover, practical experiences are essential for equipping studentswith the competencies needed for sustainable problem-solving [7]. These experiential learningopportunities not only enhance technical skills but also inspire innovation and leadership, asdemonstrated in
discriminationcan occur through gender biases, different forms of sexism, and microaggressions, which arecommon behaviors that promote hostile, derogatory, or negative conceptions about women [3].In a literature review, Malicky found that women experience a chilly climate in engineering dueto two primary factors: “discrimination and the competitive/weed-out culture” [4]. Our studyfocuses on discrimination by looking at different forms of sexism, gender biases, andmicroaggressions that contribute to the hostile environment described by women in engineeringprograms. Forms of sexism contributing to this chilly climate include overt and covert sexism [5].Overt sexism is experienced less frequently by female students than covert sexism in engineeringeducation
; products along with supporting user research studies, and Media & Accessible Design (MAD) Lab, focused on printing & production of braille and tactile maps. Sean is a low vision user of assistive technology and is focused on developing partnerships with external organizations to support the BLV community through the LightHouse Social Enterprise businesses, including collaborations with large tech companies, startups, UX design agencies, and leading universities like Stanford, Berkeley, and Cornell to improve the accessibility/usability of current and future products/services. His previous work experience is in the Education Technology (EdTech) space, where he worked on the Google for Education team leading co
skills.Postsecondary Student Engagement (PosSE) Survey OverviewThe PosSE survey was spearheaded by Dr. Denise Simmons at Virginia Tech as part of an NSFCAREER award6. Beyond student demographic information, the PosSE survey asks surveyrespondents to 1) identify the type of out-of-class activities they participate in, 2) what factorspromoted and hindered involvement in out-of-class activities (examples: “gain experiences thatmake me competitive in the job market” vs. “lack of time”, 3) the positive and negativeoutcomes from participation in out-of-class activities (examples: “personal development” vs.“academic timeline extended”), and 4) affectual responses about their involvement as a student attheir institution. Survey results were published in 2017 based on
& Javernick-Will, 2015; Riley, 2008; Wilson et al., 2011).First-year engineering courses are critical in helping students form their engineering identitiesthat help them persist through the curriculum (Meyers Ohland, Pawley, Silliman, & Smith, 2012;Tonso, 2007). However, while resources have been spent on increasing access for minoritized1students in engineering, these resources have been at odds with the values held in theengineering discipline that result in the continued exclusion of these students (Slaton, 2015;Rohde et al., 2020; Riley, 2017). The engineering curriculum implies a technical/social dualismin which the technical is more important and unaffected by social dimensions, which is counterto the lived experiences of those
MethodStudents were divided into two groups for a subject-control experiment. The students in bothsubject and control groups were told to assume that they were working for a design company andthat their client has asked them to design a next-generation alarm clock. Both groups of studentsused the modified 6-3-5 method to generate concepts for the next-generation alarm clock, afterinteracting with two standard alarm clocks. The control groups simply interacted with the alarmclocks freely. The subject groups were introduced to a defixating technique called ExtremeExperience Design (EED). The EED exposes the participants to an extreme experience with theproduct, by altering their senses through the use of disabling devices. In this experiment thedisabling
necessary? Will the interim play the role of seat warmer? Fixer? Contender?(3) An interim candidate should be prepared to go through the life-cycle of the interim role, fromentry to exit, and the interim’s supervisor, colleagues, and network would be well served to beaware of and help facilitate success in each of these roles. (4) Candidates and organizationsshould consider the factors influential to success, with the organization selecting a candidate whohas them and the candidate cultivating and emphasizing them.Anecdotal Advice LiteratureMany papers give anecdotal advice for interim Deans (e.g. [12], [13], [14], [15], [16]), usuallyfrom the perspective of someone who recently served in the role. Boyle et al. [13] provides aquality example of
to be creative in their lesson plans and produce waysfor the younger students to feel the forces and be able to reflect on the benefits of these structuresin their community and to society [12]. It is understood from the literature [13] that retention ofwomen in engineering programs increases when they can directly see the impact of the program.This activity gave students’ projects value beyond learning in a classroom. This activity was inline with a study completed by Davis and Finelli, where they noted that program retention forwomen and students of color increases when there is an opportunity to apply their skills in asocial setting [13].The subsequent course, AE/CIVE 105, went through multiple updates that required engineeringstudents
Paper ID #21734The STEM Gender Gap: an Evaluation of the Efficacy of Women in Engi-neering CampsMalle Schilling, University of Dayton Malle Schilling is a senior mechanical engineering student at the University of Dayton. This paper is a result of work done to complete her honors thesis through the University Honors Program. She is interested in engineering education, diversity in engineering, outreach and policy.Dr. Margaret Pinnell, University of Dayton Dr. Margaret Pinnell is the Associate Dean for Faculty and Staff Development in the school of engineering and associate professor in the Department of Mechanical and
analysis in this paper [32]. However, as a starting point, weconducted thematic coding [33] to identify the prevalence of engineering mindsets (Table 2:Uncritical Acceptance of Authority, Technical Narrowness, Positivism, Willingness to Help) [3-4] but soon realized that student characterizations of Con/Decon problems was more diverse. Asa pilot study, the analytical goal of the paper is to identify, through open coding, the diverseways that students perceive Con/Decon questions and the strategies they used to contextualizedecontextualized problems. We focus our analysis on P1-P4 (Table 1). The coding themesidentified here will help us develop hypotheses for future research.For R1 we open coded student prompts 1 and 2. Beyond the four engineering
advancedmanufacturing, a skilled workforce is absolutely imperative. The impact of informationtechnology networks has been well researched and accounts for significant improvement inproduct quality, time to market, and increased market share through shared knowledge3. Stillothers point out that, “As markets become increasingly demanding for customized and low costgoods, enterprises must seek new organizational paradigms to keep competitive. In the last yearsinformation technologies have opened the door for the establishment of borderless profitableassociations”4. Finally, the potential for entrepreneurial endeavors is substantial 5.Theimplications are critical as the United States struggles to regain lost market share and capturenew markets. The VIP project
), 2-16.[4] Felder, R. M. (2012). Engineering education: A tale of two paradigms. Shaking the foundations of Geo-Engineering education, 9-14.[5] Deslauriers, L., McCarty, L. S., Miller, K., Callaghan, K., & Kestin, G. (2019). Measuring actual learning versus feeling of learning in response to being actively engaged in the classroom. Proceedings of the National Academy of Sciences, 116(39), 19251-19257.[6] Cutler, S., Borrego, M., Prince, M., Henderson, C., & Froyd, J. (2012, October). A comparison of electrical, computer, and chemical engineering faculties' progressions through the innovation-decision process. In 2012 Frontiers in Education Conference Proceedings (pp. 1-5). IEEE.[7] Froyd, J. E., Borrego, M., Cutler
systems based on classical control. The fuzzy controller achieves notonly a higher precision in stopping at any designated point, but makes each stop more comfortable; inaddition, it saves about 10% of energy. A complete list of other industrial projects, including controlproblems that are considered beyond the capabilities of classical control theory, that employ fuzzy Proceedings of the 2011 North Midwest Section Conferencecontrol would be too long. Fuzzy controllers have also been installed with great success in variety ofconsumer products, including TV sets, video cameras, vacuum cleaners, washing machines, automobiles(antiskid brake systems, automatic transmissions) and many others [10], [11].3. Objectives ECE 5831
greatly impacted student performance, even well into face-to-faceinstruction in 2022. Jonathan Malesic details this in the New York Times guest essay “Mystudents are not ok,” in which he discusses dwindling student performance and the perpetuationof poor study habits generated during the online years2. Keshvarz points out that one of severalshortcomings of total online education includes the lack of discipline and inefficient time usage3,which compliments Malesic’s viewpoint on the development of bad habits. However, theinstructors in this department have noticed a deeper issue that became apparent through Covid-19 and post-Covid-19 instruction: a lack of quality control in terms of course consistency andstudent retention of knowledge. While
experienceto broaden their academic experience and passion for the subject material. Further, they shouldalso encourage their home engineering departments and engineering schools to incorporate morehands-on engineering learning into their core engineering classes.Improved Language Skills and Understanding of Foreign Culture In addition to experiencing a scientific lab course, IPL required that each summer studenttake a French language course. On arrival at IPL, each international summer student wasevaluated for their French proficiency, and subsequently placed into a beginner, intermediate, oradvanced-level language course. Importantly, all levels, including the beginner class, did notemploy the use of English to facilitate instruction through
mechanicscourses (Statics, Dynamics, and Deformable Solids). The students were asked to grade their ownassessments using a rubric (the same one used by the grader) and comparing their work to theinstructor’s solution. To motivate accurate assessment, students are granted engagement points forobjectives where their grade matches the instructor’s grade. Thus, the best strategy is to seekalignment with the instructor and not to inflate or deflate their self-measure of success. Thisinformation is fed back to the students through the semester, giving them the opportunity to refinetheir self-assessment strategy. The scores that students have provided are compared to theinstructor’s grade to assess the accuracy of self-assessment. We have found that the
experiences to specifically target divergent thinking experiences beyond ideageneration of solutions. Thus, early in protocol development, we decided to use moreapproachable language than “divergent thinking”, such as explore alternatives and considermultiple options or perspectives. We developed an interview protocol to support students inunpacking multiple aspects in which divergent thinking could be possible in a wide range ofengineering work. The interview protocol for this study was developed through multiple roundsof iteration and to investigate student experiences in divergent thinking across variousengineering activities. Question structures were guided by recommended practices in qualitativeresearch, focused on gathering rich detail and
AC 2009-750: EDUCATING GENERATION Y IN ROBOTICSDavid Chang, United States Military AcademyPeter Hanlon, United States Military AcademyKirk Ingold, United States Military AcademyRobert Rabb, United States Military Academy Page 14.510.1© American Society for Engineering Education, 2009 Educating Generation ‘Y’ In RoboticsAbstractWe present our approach to educating the new Generation ‘Y’ using robotics in undergraduateeducation. This course is a laboratory based education for life-long learners through a look at anew course for non engineering majors in the senior year. As the centerpiece of this course, weuse a robotics platform to integrate introductory
,” Journal of Engineering Education, vol. 106, no. 4, pp. 585–606, 2017, doi: 10.1002/jee.20176.[4] K. B. Wendell, C. Wright, and P. Paugh, “Reflective Decision-Making in Elementary Students’ Engineering Design,” Journal of Engineering Education, vol. 106, no. 3, pp. 356–397, 2017, doi: 10.1002/jee.20173.[5] N. Batrouny, “Student Strategies for Collaborative Disciplinary Decision Making in an Elementary Engineering Teaching Experiment,” Master’s thesis, Tufts University, Medford, 2019.[6] C. A. Toh and S. R. Miller, “How engineering teams select design concepts: A view through the lens of creativity,” Design Studies, vol. 38, pp. 111–138, May 2015, doi: 10.1016/j.destud.2015.03.001.[7] K. Miel
. Farhey, “First Year Civil and Environmental Engineering Design Experience,” J. Eng. Educ., vol. 90, no. 4, pp. 645–651, 2001, doi: 10.1002/j.2168-9830.2001.tb00654.x.[28] J. Song and G. G. Ma, “Different Lab Formats in Introduction to Engineering Course,” presented at the 2017 ASEE Annual Conference & Exposition, 2017.[29] K. Sanford Bernhardt and M. Roth, “Using Concept Maps to Assess Student Learning in a Multi-Section Introduction to Engineering Course,” presented at the 2018 ASEE Annual Conference & Exposition, 2018.[30] J. E. Shamma and R. Purasinghe, “Introduction to Sub-Branches of Civil Engineering Fields through a Creative Freshmen Civil Engineering Design Course,” presented at the 2015 ASEE Annual
software for the “correct” answer. Students must now graduatewith not only the knowledge of their field but also with the ability to use and evaluate technologytools that surround them. We previously found a correlation between overall GPA and problemsthat required information outside of class but related to prior knowledge and easily accessible viathe internet.24 Here, we further explore students’ performance on problems that “stretch” thestudent’s thinking to go beyond the question on the page, and to integrate their prior knowledge,draw on their experience, and evoke their curiosity. We use student success on these problems asour measure of engineering intuition, and are interested in identifying the common factors(major, career aspirations
. Espedido, "Why inclusive leaders are good for organizations, and how to become one," vol. 29, no. 03, p. 2019, 2019.[17] E. Wenger, "Communities of practice: A brief introduction," 2011.[18] C. J. T. B. L. Cuddy, "Cultivating communities of practice: A guide to managing knowledge," vol. 15, no. 2, 2002.[19] M. A. J. A. j. o. c. p. Zimmerman, "Psychological empowerment: Issues and illustrations," vol. 23, pp. 581-599, 1995.[20] J. Ferguson, "Say This, Not That: Activating Workplace Diversity Through Inclusive Language Practice," The Diversity Movement, Available: https://thediversitymovement.com/wp- content/uploads/2020/11/WW-SayThis-whitepaper_201116-F.pdf.[21] K. W. J. T. P. Thomas and I. Report, "Thomas
defined parameters similar to those given in theirassignments and exams, they become flustered when pushed beyond those comfort zones. Somehave argued that this kind of curriculum not only fails to foster creativity, it actually stiflesingenuity1, inhibiting innovation to solve the world’s greatest problemsWe sought to reverse this negative association between creativity and engineering education bymotivating a large engineering class with a combination of Ethic of Care2,3,4 andentrepreneurship. Ethic of Care is a concept grounded on value-guided practices to meet theneeds of those receiving the care, within a framework of justice and rights5. By incorporating awider view of stakeholders and their relationships in the engineering design process
mixed reality. This course will considerably improve CM students’understanding of BIM as a process instead of a modeling tools or software program andsignificantly broaden their insights into BIM beyond the existing 3D, 4D, and 5D applications.This paper will serve as a case study of an advanced level BIM course in CM programs.IntroductionThe rapid adoption of Building Information Modeling (BIM) in the architecture, construction,and engineering (AEC) industry has led to an increasing integration of BIM into constructionmanagement (CM) programs in the U.S. Offering new BIM courses is one popular approach thatmany CM programs have employed to incorporate BIM contents into their curriculum. Whileintroducing BIM in new courses is an effective
retained faculty who desire a balance ofresearch and teaching and who see student development (both undergraduate and graduate) asour primary mission. Pandemic and budget-related challenges recently disrupted our historicalpatterns of engagement with students in ways that make the status quo an unattractive option andhave created an openness among faculty and staff to change. Surveys and student focus groupsabout student and department culture over the past three years have revealed the prevalence ofanxiety and mental health challenges among students, the influence of multiple overlappinggroups (micro-cultures) on student behaviors that are well beyond our control, and the barriers toadoption of professional behaviors created by student attitudes