Paper ID #41568Board 218: Building Student Success in Assistive TechnologyDr. Li Liu, California State University, Northridge Prof. Li Liu innovated many assistive technologies that improve software accessibility for people with disability when they interact with new computing devices and emerging digital contents. His work on building a tongue-machine interface is the first one reported on using tongue as computer input device in a non-contact way. His research projects were funded by NSF, DoD, NASA, Amazon, Disability Communication Fund, Silicon Valley Community Foundation, and other foundations. At CSUN, Liu also
, 2024 1 Improving Students’ Sociotechnical Literacy in EngineeringAbstractThe Improving Students’ Sociotechnical Literacy in Engineering project aims to integrate socialjustice topics with technical knowledge in a first-year engineering course. The approach involvesredesigning an existing intro to computing course with justice-based activities, supported by anEquity Learning Assistant (ELA) program. This program trains upperclass students to facilitatein-class discussions on equity and social justice. The project targets improvements in students'critical sociotechnical literacy and engineering identity. Activities include analyzing
strategies [28]. Working on a relevant,topical problem also allows students to experience a more authentic form of work in theirdomain [25]. Faculty respondents in a 2019 bioengineering design education workshop reported thatbioengineering departments have specific strengths in teaching interdisciplinary knowledge,communication, client needs, human anatomy and physiology, biological constraints, andinteraction with clinicians [26]. The fact that bioengineering applications are broad and open-ended casts a wide net for the types of projects which end up being proposed and run throughbioengineering senior design courses. This variety presents a challenge for faculty who deliversenior design courses in bioengineering to ensure consistent
investigates the relationship between Leadership in Energy and EnvironmentalDesign (LEED) version 3 credit categories and the overall LEED score of multifamily residentialprojects to discern the actual contribution of each credit category in achieving the overall LEEDscore of the projects. The study compares the actual and the expected contribution of eachcategory in achieving the overall LEED score to understand the success of this system inproviding realistic and practical criteria for evaluating building sustainability and discuss theimplications of the findings for sustainable construction education. Data regarding LEED-certified projects was collected from the U.S. Green Building Council (USGBC) website andanalyzed using multiple regression
)-fundedproject on transdisciplinary education, known as the M3 (mission, meaning and making) project.The research project aimed to understand the transformative potential of transdisciplinaryapproaches in undergraduate education through a cross-college co-teaching model encompassingdisciplines such as engineering technology, anthropology, and business. Over three years, datawas collected and analyzed through interviews with over 100 students, faculty, andadministrators. During the NSF project research, graduate student researchers discovered thattheir endeavors not only signify an added value to the research but also embodied theconvergence of diverse disciplines. This convergence is vital for reshaping traditional highereducation paradigms, echoing the
Safety, Human-robot Interaction, and Engineering Education. ©American Society for Engineering Education, 2024 Enhancing Teamwork Skills in STEM Education: A Behavioral Theory-Based Approach AbstractThe ability to work in a team is one of the most important skills a college graduate can acquirefrom an educational institute. However, some students do not appropriately participate in courseprojects, making teamwork more challenging than it needs to be for others. As a result, manystudents fail to develop teamwork skills, and some become frustrated with course projects. Thisstudy adopted the Theory of Planned Behavior (TPB) to develop tools
specific, its aid in instructional and course design. The METM program curriculum offers courses that focus on Project Management,Strategic Planning and Management, Financial Resource Management, etc., that are included inthe Engineering Management Body of Knowledge (EMBOK)[3]. At the conclusion of theMETM program, students must research, design, and showcase a real-world project that requirescomprehensive application of the knowledge they have learned throughout the program, in orderto bring significant impact to the stakeholders of their chosen organizations. The Capstone course spans over two semesters, Fall (Capstone I) and Spring (CapstoneII); it was first offered in 2019, and in 2023, the fifth student cohort started their
-STEM Proposals: Capacity-Building WorkshopsMotivation and Project OverviewA series of workshops were developed and offered to build capacity for project teams to gatherand fully use institutional data as they develop their S-STEM proposals. The NSF S-STEMsolicitation includes a requirement that the project description “analyze institutional data … todetermine the potential number of eligible Scholars.” While faculty often are passionate aboutrecruiting and supporting engineering degree attainment for academically talented, low-incomescholars with unmet financial need, some might not be certain of how institutional data caninform and strengthen their project development. Additionally, faculty PIs often have
across the UW to foster an ecosystem of training and support for students and to develop innovative teaching practices focused on team- and project-based learning.Dr. Ken Yasuhara, University of WashingtonDr. Per G. Reinhall, University of WashingtonKathleen E Kearney, University of WashingtonJonathan T.C. Liu, University of WashingtonJonathan D. Posner, University of WashingtonErin Blakeney, University of WashingtonDr. Eric J. Seibel, University of WashingtonShayla Payne ©American Society for Engineering Education, 2024Innovations in Remote Teaching of Engineering Design TeamsProf. Soyoung Kang, University of WashingtonDr. Ken Yasuhara, University of WashingtonDr. Per G. Reinhall, University of
) how the engineering design process is enacted in the course and(2) how fabricating physical artifacts relates to course learning outcomes in design and analysis.In this work, we conduct an extensive review of undergraduate mechanical engineering curriculaacross several institutions to understand students’ design and analysis backgrounds prior totaking upper-division mechanical design courses. We also develop two survey instrumentsfocused on project-based learning within mechanical design courses. The first survey focuses onhow the design process is enacted by students during their projects. The second survey examineshow students make fabrication decisions to support their project work.A pilot study using both instruments was performed with
Paper ID #42989Assessing Sophomore Cornerstone Courses in Electrical and Computer EngineeringProf. Branimir Pejcinovic, Portland State University Branimir Pejcinovic received his Ph.D. degree from University of Massachusetts, Amherst. He is a Professor and former Associate Chair for Undergraduate Education at Portland State University, Electrical and Computer Engineering department. He has led department-wide changes in curriculum with emphasis on project- and lab-based instruction and learning. He was awarded the best paper award by the ECE division of ASEE in 2017 for his work on freshman engineering course
creation process, the students led the direction of the project. In addition tothe completed videos, it was a major goal of the author to develop project management skills forthe students as well as a passion and love for structural steel engineering. In terms of projectmanagement skills, it was observed that they all learned new ways to work with each other,particularly remotely as the pandemic interrupted film development. It has only been three yearssince their graduation, so it is yet to be seen how they pursue leadership roles at their respectivecompanies, but two of the four have confirmed their acquisition of their PE license. In terms ofloving structural engineering and steel design, two of the four students are currently working
dynamics.The importance of teamwork is undeniable in industries relating to new product development,and engineering professionals almost always collaborate in project teams composed of peoplefrom various, complementary engineering backgrounds [1-3]. As directed by the projectmanagers or leaders, these project teams are responsible for completing various time-sensitivetasks and producing long lists of deliverables. Professionals from different engineering fieldsmust therefore learn how to effectively collaborate on development projects to produce a productof the highest quality, with the highest efficiency, and ideally at the lowest cost. However,teaching engineering students (especially freshmen) team dynamics [4] and effective strategiesfor handling
; ManufacturingStandards:EK-ETA-11 AdvancedElectrical Diagrams/SchematicsEP-MP-1 Advanced SubtractiveManufacturing tinyurl.com/MillingPCB In response to the growing need to foster microchip literacy among K-12 students and the CHIPS and Science Act, educational institutions and educators are exploring innovative ways to introduce young learners to the world of microelectronics. This creates an opportunity to develop design projects that not only nurture students' interest but also equip them with practical skills for the digital age. In this context, the "Milling Circuit Pathways" project aims to empower students by enhancing their
programs incorporated lectures,hands-on labs, group projects and/or national lab intern experience. In the last three-year’simplementation, the student assessment and project completion result all showed theeffectiveness of the approach in enhancing students’ ability to understand the science foundation,identify real-world problems, analyze data and develop data-driven solutions in nuclear energyand security areas. The feedback from student surveys is also satisfactory and positive. Thisresearch is sponsored by Department of Energy/NNSA and intends to share the project team’sexperience and lessons learned with the STEM education community.KeywordsData Science, Workforce Development, STEM Education, Nuclear Energy and SecurityIntroductionData
approximately 400 students. In this program,students worked in teams, under the guidance of a mentor professor, for 10 months. Theyutilized project management methodologies, Design Thinking, empathy mapping,persona development, and other tools to define, propose, develop, and present solutionsto community-related problems. All proposed projects were required to align with theUnited Nations Sustainable Development Goals (SDGs), be low-cost and replicable, andhave an external entity or community association as a partner. Throughout the months,students had the opportunity to develop their proposals, implement them, and at the endof the academic year, present the results in an open presentation to the entire academiccommunity. Aside from detailing the
generallydo not gain experience in open-ended design or entrepreneurial innovation – skills which may behighly valued by future employers or graduate schools, and even in upper-level project-basedcourses such as capstone design.Biofabrication Lab is an upper-level elective laboratory course offering students hands-onexperience in advanced cell culture, computer aided design, additive manufacturing, andprototyping related to translational bioengineering. Quantitative Physiology Lab is a requiredlaboratory course in which third-year bioengineering students conduct experiments to measureand model human physiological systems, while gaining experience in data analysis andpresentation. To expand the breadth of knowledge and experience gained by students, a
. Some of them: 1. Limited access to the didactic and pedagogical resources that urban areas enjoy. 2. Need for more familiarity with technology and its educational benefits.The ongoing pilot project aims to investigate and develop a methodology to address the needs of ruralschools. This methodology includes 1) providing well-prepared teachers through remote learning, 2)granting access to high-quality educational materials through a learning management system, and 3)implementing a hybrid learning approach that combines the expertise of urban teachers with thepractical support of local educators.The project has designed a condensed course focused on energy transformation and sustainability toassist rural students and educators in gaining
, researchshows that introducing HE projects and themes into courses can improve student retention [12]. Itfollows that a viable strategy for broadening participation in engineering could be to incorporateHE themes and engagement opportunities into the traditional engineering programs.The linkage between engineering and serving humanity varies unevenly by discipline. In a studyof 1900 undergraduate students, 73% of Civil and Environmental Engineering (CEE) majorsagreed or strongly agreed that “helping others is a central message in my discipline”, the most ofany engineering discipline [13]. However, only 45% of electrical engineering students agreed orstrongly agreed with the same statement. It may not be coincidental that CEE has double
formation sets the foundation for success (or struggle) in capstone design teams. Hence, asignificant body of literature has been dedicated to developing best practices in team formation.Researchers have suggested the consideration of more than a dozen different factors includingethnicity, culture, gender, personality, schedule, academic ability, engineering maturity,motivation level, project preference, prior relationships between team members, and teammember preference. Additional studies have documented the relative advantages anddisadvantages of instructor-based and student-based team selection. Recently, Lane (2011) andPearlstein (2020) developed and implemented hybrid methods that incorporate both student andinstructor perspectives. Both
for the course design. Building new context-richcourses can be a challenge that is often underestimated and undervalued [3-5]. Ultimately, wedesigned the course to prepare students for their senior engineering design experience through alocally informed engineering design project based on interviews with sustainability andeducation stakeholders. Through this work, we developed three objectives of the course: (1) helpstudents bridge their theoretical knowledge of energy with their understanding of the localenergy infrastructure, (2) give students the opportunity to apply sustainability concepts withinthe chemical engineering framework, and (3) analyze the economic, social, and technical impactsof engineering decision-making.IntroductionAs many
Department of Electrical and Computer Engineering, Mississippi State University 2 Department of Civil and Mechanical Engineering, Purdue University Fort Wayne 3 National Taipei University, and Tainan National University of the ArtsAbstractOptimizing robot path planning within computational intelligence and robotics is increasinglyimportant, and graph-based models are at the forefront of this advancement. Teaching thesecomplex subjects poses challenges, addressed in this study through a novel pedagogical approachthat combines sparrow-dissection and scaffolding with active, project-based learning (SDS-AL).This method, implemented in a graduate Computational Intelligence course, centers on
creating value in design into her core classes with project-based learning techniques. She continually spearheads K-12 initiatives, especially for girls and underserved youth, to get them excited about engineering. Outside work, Absi loves spending time with family. She enjoys traveling, hiking, biking, and the outdoors. Absi is trilingual in Arabic, English and French.Emily Williams Van Schaack, Vanderbilt University ©American Society for Engineering Education, 2024 Equity Diversity Inclusion (EDI) and Entrepreneurial Mindset Learning (EML) in Core Engineering Classes – Case Study in Statics1. IntroductionWith the high demand on civil engineers as we invest more in infrastructure
Evaluation Coach at Planning, Implementation and Evaluation (PIE) Org, where she manages multiple community-centered research projects. Her research interests includes mixed methods, global peace, and international affairs. Francisca earned her M.Ed. in Educational Research Methodology at Boston College and received a BA in Human Services and International Affairs.Dr. Nancy Lynn Raschke Deichstetter DNP, RN, CEN, CHSE, Loyola University, Chicago Nancy Raschke Deichstetter, DNP, RN, CEN, CHSE is a Clinical Assistant Professor in the Marcella Niehoff School of Nursing, Loyola University-Chicago. She teaches all simulation scenarios in the undergraduate program and designs scenarios specific to medical-surgical and emergency
to contribute. Thiscollaborative approach allows UG students to glean insights from a more diverse andcomprehensive range of graduate students, fostering relationships that might otherwise remainunrealized. In the context of fostering collaborative relationships between graduate and UG students,implementing an innovative-based learning (IBL) program serves as a catalyst for synergy. TheIBL program involves interdisciplinary projects that require collaboration between graduate andundergraduate students. These projects provide opportunities for innovation, addressing real-world problems, and leveraging the diverse skills of each student. The exchange of ideasbecomes a reciprocal process, enriching the learning experience for all
in various ways.However, these methods may not be as important for modern students entering industry orresearch, where the ability to be clear and succinct may be vital.As part of the capstone sequence at the Milwaukee School of Engineering (MSOE), students inthe Computer Science and Software Engineering Programs are required to prepare and deliver anelevator pitch related to their project during the first term once the initial requirements have beenestablished. This pitch helps to solidify the project scope and is used as part of the continuousimprovement process for the programs.To help improve the capstone experience, a subset of elevator pitches for the programs wereevaluated by external, industrial advisory board members to provide
typically workclosely with faculty and other researchers on a specific research project, and in some cases aregranted stipends [6]. Studies have shown that students who participate in REUs show increasedinterest in pursuing degrees and careers in the STEM fields [3]. REUs provide students withopportunities to develop skills valued by both graduate schools and employers, such as workingon challenging problems, presenting research to an audience, and communicating findingsthrough technical writing [3].While REUs have the potential to positively influence persistence in STEM fields, there areinequities in who gets to participate in these experiences. Questions have been raised as to whysome REU programs receive very few applications from students in
Engineering in 2009 from the Imperial College of London and his doctoral degree in 2020 from the University of Georgia, College of Engineering.Jack Yang, New York University Tandon School of Engineering ©American Society for Engineering Education, 2024 An Interactive Platform for Team-based Learning Using Machine Learning ApproachAbstractThis complete evidence-based paper explores the feasibility of developing an interactiveplatform with chatbot feature to facilitate project-based learning. Teamwork pedagogy is widelyused in engineering courses, particularly in first year (cornerstone) and senior-year (capstone)design courses, but also across the curriculum. Faculty have several
this field continue to advance and profoundly affect various aspects of themodern world, educational institutions are recognizing the crucial need of a specializedcurriculum tailored to these domains. By establishing a curriculum that emphasizes thesespecialized areas, educational institutions can equip students with skills and knowledgerequired to address the challenges and opportunities present in the microelectronics and VLSIlandscape. Such curriculum shall extend from theoretical foundations to practical hands-onexperience, exposure to industry-standard tools, and collaborative projects to foster innovationand problem-solving abilities. Such integration of microelectronics and VLSI-focused courseswill help bridge the gap between academia
University of Texas Rio Grande Valley (UTRGV). His research interests include Tribology, Lubrication, Biomaterials, Additive Manufacturing, and Engineering Education. Dr. Ortega has been involved in different research projects, including tribological and corrosion studies of surface-engineered biomaterials intended for hip joint replacements and developing vegetable-oil-based lubricants modified with nanoparticles as lubricant additives.Dr. Arturo A. Fuentes, The University of Texas, Rio Grande Valley Dr. Fuentes is a Professor of Mechanical Engineering at the University of Texas Rio Grande Valley where he has worked since 2001. He obtained his MS and Ph.D. degrees from the Rice University in 1997 and 1999