, seminars, reflection Proceedings of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education ETD 505writings, and tailored resources to improve retention rates [12]. These services are crucial forstudents to navigate their program's academic demands effectively and stay on track to graduate.Furthermore, ETS-IMPRESS has a broader mission to increase the representation of first-generation, underrepresented students, women, and veterans in ET degree programs. Since itslaunch in 2018, the program has not only recruited first-year scholars but also
graduate student is once again involved at this point,and is included as a voting member of the committee that determines whether the prospectiveclient will be accepted into the Incubator program. Page 9.489.3 3 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004, American Society for Engineering EducationQualified and interested undergraduates are openly invited to participate in the Incubatorprogram at all stages. Although there are few individual undergraduates that are prepared todedicate the
Paper ID #37563Theory to Practice: Professional Development for CulturallyResponsive Technician EducationCynthia Pickering Cynthia Pickering is a PhD Student, Research Program Manager and Process Architect at the Center for Broadening Participation in STEM at Arizona State University. Cynthia has 35 years of experience working in industry with demonstrated technical leadership in software development, artificial intelligence, information technology architecture / engineering, and collaboration systems research. Cynthia is currently studying Human and Social Dimensions of Science and Technology in the School for
with K-12education or the local community, talk to them about participating in one of their programs andask them to provide you with a letter of collaboration. Educational plans do not necessarily needto be new and “out of the box”. It is much more important that they are realistic and effective. Page 14.429.3Recommendation #2—Define your audience.Typical audiences are: ≠ Higher Education: Postdoctoral fellows, graduate students, and/or undergraduate students ≠ K-12 Outreach: Students (elementary school, middle school, high school) and/or teachers, and occasionally policy makers (e.g. the state Department of Education
electronics and photonics, advanced materials and manufacturing, bio- and neurotechnology, and Nano Environmental Health and Safety (nano-EHS) Emerging research in controlled self-assembly; nanomodular materials and systems by design; novel aspects of semiconductors, nanophotonics and plasmonics; and nanotechnology for water-energy-food processes Research infrastructure including the National Nanotechnology Coordinated Infrastructure (NNCI) and Network for Computational Nanotechnology (NCN) Technology translation and collaboration with industry through partnerships 24National Nanotechnology Coordinated Infrastructure (NNCI) Successor program to
of US educators in the SEFIannual meeting. US participants were engineering faculty and administrators who want tobring greater familiarity with international issues to their teaching and serviceresponsibilities at their home institutions.The short, concentrated workshop took place in the day and a half preceding the SEFIconference – on Monday evening, 10 September and all day Tuesday, 11 September2001. Participants attended presentations and discussions providing a comprehensiveoverview of current trends and issues in European engineering education. Particularattention was paid to explaining the relevance of these topics to US higher education atboth the undergraduate and graduate levels. In addition, selected sessions of the SEFIconference
applications, science and mathematics, electronics, and general engineering. Some issues could arise in terms of EAC or TAC requirements for engineering graduates. 4) Engineering and Engineering Technology programs are not differentiated in Chinese engi- neering curriculum3 . Practical experience is a major part of the curriculum versus being less emphasized in some American engineering curricula. Because ”practical series” (somewhat like internship here in the States, but it is required for every student and organized by the university.) is carried out through industry-university collaborations in China, it may provide valuable experience for our students to better understand the engineering and manufacturing
Rate High (over 80%) -- Bucknell, Dartmouth, Harvey Mudd, Olin, Tufts Medium (50% to 80%) -- Ohio State, Rose-Hulman, Stanford, USD, WPI Low (under 50%) -- ASU, Oregon State, Purdue, Rowan, U. Texas-EP, W. KentuckyThe groupings for “High,” “Medium,” and “Low” were selected arbitrarily but do provide anindication of the range of institutions involved in the workshop. Examples of the full range ofdata are shown in Fig. 1. Figure 1(a) gives an indication of the overall size of the undergraduateengineering program at each of the participating institutions, with Arizona State Universityhaving the largest total number of engineering undergraduates with 11,572 (#1 in the countryaccording to [19]) and Olin College of Engineering having the
student learning.The undergraduate engineering curriculum at our institution is limited to built-in project-basedcornerstone, sophomore, and senior capstone design courses. The master of engineering in thepast few years has become mostly a two-year, course-only program. Clearly, there was a need fora broader strategy aimed at improving our student research capabilities by incorporating anembedded IBL component into the curriculum.BackgroundOur focus on multiphysics research began in 2006 when the University received a grant toinvestigate advanced laser processing as applied to the aerospace manufacturing industry. Thegrant was sponsored by the Connecticut Center for Advanced Technology (CCAT) under theNational Aerospace Leadership Initiative
environment, and the remediation of contaminated systems via Advance Oxidation Processes such as photocatalysis. His current research is on the conversion of waste biomass into nanocomposites for environmental and industrial applications. Samuel has been with Benedict College since the Fall Semester of 2004 and teaches both Environmental Science and Engineering coursesMr. Gurcan Comert, Benedict College Associate Professor of Engineering at Benedict College, has been teaching undergraduate transportation, mathematics, statistics, and computer science courses at different levels. He has been involved in under- graduate research experiences programs since 2011. He has been working on risk analyses and intelligent
professional firm. The conclusion of the workshop is a public show of student work;parents are invited to learn about what their student has accomplished in the program.Interdisciplinary MethodologyThe theoretical assumptions and operational methodology for the Discover Architectureworkshop can be summarized by the following: an emphasis on hands-on project-based learning,problem-solving, tactile and digital skills building, and peer learning alongside professionalmentoring. The academic content of the program consists of short presentations followed byinteractive experiences to stimulate the participants’ curiosity and interest in a myriad of issuessurrounding the creation of architecture. A joint design project with Architecture and
were provided as part of these initiatives including training foreffectively integrating the e-learning modules into courses, participation in workshops andconferences with a focus on entrepreneurial education, and involvement in organizing andfacilitating student activities. While a significant number of our engineering and computerscience faculty participated in these development opportunities, in general their enthusiasmrelated to entrepreneurial minded learning (EML) was not strong enough to sustain and furtherbroaden EML within the college. Therefore, we implemented a faculty development programaimed at fostering EM champions from different engineering and computer science disciplines,as well as a mini-grant program to stimulate faculty
respondentsindicated that there is a fair/equal representation of faculty by disciplines assigned to the capstoneeither formally or informally through consulting. This is a positive statistic in that not having anequal representation could be seen as having bias towards disciplines from a student perspective.As literature promotes industry involvement, the survey asked those programs that include industryto rank their level of participation in four categories, including lectures, project support, coursejurors, and student consultations / mentors. Ranking of their participation was based on the amountof interaction in the course and is shown in Figure 4. The results indicate that for those programsthat include industry involvement, there exists a significant
engineering students to engage with curricular and extra-curricular activities related toelectricity access, making it a pivotal area for educational focus. In 2022 and 2023, the NationalScience Foundation sponsored two workshops with the goal of identifying approaches to enhanceand expand electricity access education at the undergraduate engineering level in the U.S.,primarily within the electrical engineering discipline. In this paper, we summarize and synthesizethe insightful discussion from the second workshop, supplemented by results from in-workshoppolling of the participants. We identify perceptions of the state of electricity access education inthe U.S., and identify needs and barriers for improving related curricular and extra
Investigators, and mentors. Each LINCRFellow designed a research project that would benefit both of the research labs that they recruitedas partners. We used traditional qualitative methods to study the outcomes of the program—interviews, surveys, journals, and student-developed artifacts. This presentation will present thelessons learned that answer the question: In what ways can an undergraduate researcher fostercollaboration between independent labs doing similar work? Page 23.403.2 Introduction Interdisciplinary collaboration is common throughout industry, academia, the federalgovernment, and
©American Society for Engineering Education, 2024 Envisioning and Realizing a State-wide Data Science EcosystemAbstractThis paper describes the vision, strategy, plan, and realization of a state-wide rigorous datascience educational ecosystem. The need for developing data science degree programs andeducation has been well-established and, in our state, a blue-ribbon panel with industry,academic, and government representatives defined the needs of the state. Additionally, a well-established “think and do tank” published several reports on the importance of data scienceeducation and graduates. As we began to develop our programs separately, it occurred to us thatwe were in a small enough state that, if we chose to do so, we could work
minorities and women, find projects to helpthose with disabilities immediately relevant and highly engaging. The Hands-on Experiencesin Rehabilitation Engineering Program (HERE) provides a stimulating, hands-on learningexperience while fostering mentoring among students at different ages and levels ofengineering training. The student participants – frequently from the poorest and least servedcommunities of Los Angeles, range from 6th graders in Compton, CA to graduate students andinstructors at the California State University, Los Angeles and the University of SouthernCalifornia. HERE provides direct contact between students and individuals with disabilities inthe context of team design projects. Projects often build upon earlier student work, with
a new twist for learning andteaching in IT and CS.7. “Workshops Modules”: These modules are based on our experience from an NSF-funded STEPprogram. The success of this program indicates that incorporating its major concepts into the proposedprogram will meaningfully enhance students’ innovation-related skills. The “Workshops” modules willrun twice over two semesters. Participants will appreciate the importance and basic elements of teamworkin school, business and industry. They will understand the basic elements of effective work andcommunication in teams, understand the role of industry internships in engineering education, and beacquainted with the expectations that employers have for interns. In these workshops, students willunderstand
opportunities that have emerged from the pandemic years? And how can we build enoughbelief in positive assumptions to inspire engineering leaders to try something new?The leadership director and external consultant set forth four key objectives. The MichiganEngineering Positive Leadership Program would enable participants to 1) learn about keyprinciples of positive leadership; 2) develop shared language and practices around positiveleadership; 3) conduct, share, and reflect on experiments with positive leadership principles inday-to-day life; and 4) expand and deepen connections with colleagues. The director andconsultant then curated content from the consultant’s broader positive leadership curriculum togenerate five major units of study that aligned
of these teams. Educational institutions, unlike business, continues to educate students within particular functionalareas. While education serves many purposes, including stimulating students to acquire and utilize knowledgeto think critically, from a more practical viewpoint, education should assist students in developing skillsapplicable to their future careers. To prepare graduates for work in an interdisciplinary environment, cross-functional courses should be developed at the undergraduate level to expose students to the types ofinterdisciplinary problem-solving and team activities they will encounter in industry. At the University of Dayton, the Department of Industrial Engineering Technology in the School ofEngineering
professor in the Industrial Distribution Program at Texas A&M University. His research interests include integration of supply chain management with new product development decisions, distributor service portfolio optimization, pricing optimization, supply chain risk analysis, lean and six sigma, and large scale optimization. He has authored 30 refereed articles in leading supply chain and operations management journals, and 35 peer reviewed conference proceedings articles in these areas. He has B.S. in ME, and both M.S. and Ph.D. in IE. He is a member of ASEE, INFORMS, and a senior member of IIE. Page
throughcomputing clubs.HCB Goals and OutcomesThe purpose of the HCB initiative is to develop an innovative approach of stimulating andsustaining Hispanic students’ interest in learning and applying computing and embed thisinitiative in the College’s demonstrably successful efforts in recruiting and retaining Hispanicstudents. The intent of this project is to provide a program that: • Links service learning to student interests in the computing disciplines • Develops and/or increases students’ positive attitudes towards computing • Increases students’ knowledge of opportunities in computing disciplines • Exposes students to role models in computing with whom they can identify • Increases parental awareness of career opportunities in
for achieving educational goals of these participants as well as thelearners they engage in various learning experiences. This paper describes the critical principlesgoverning the design of an effective education and outreach program by a multi-site,geographically-distributed research center. These lessons will provide a framework for othersinterested in designing education and outreach programs at future large-scale research centers.IntroductionEducation, outreach, and training (EOT) programs are important to fulfilling the broader impactaims of large-scale research centers. These programs have the potential of attracting the nextgeneration of researchers to the field, increasing interest of K-12 students in pursuing careers inscience
the level of vice president or director] from area firms and public agencies toassess industry support for an interdisciplinary transportation program. All were in agreementthat an interdisciplinary transportation degree, though a non-engineering degree, would bevalued by their organizations. There also seemed to be a consensus that the interdisciplinaryapproach would help satisfy a need for a workforce with a broader perspective needed inmanagement-level positions. It should be noted that this group was almost entirely engineers. 10Approaches to Interdisciplinary EducationThis paper is not an inventory of transportation degrees and certificates currently being offered.Nor is it an assessment or an evaluation. This section of the paper simply
student innovation and entrepreneurship isnot a guarantee of their success [5]. Innovation and entrepreneurship are complex undertakings whichrequire participants with certain traits and concerted guidance and specific support throughout the entirelifecycle of innovation [6]. Universities face challenges such as in [7]. • Students, educators and industry partners are often unaware of initiatives and resources available to them. Despite each of these resources being promoted to a greater or lesser extent across the campus, they frequently are advertised in isolation • Resources are often not presented in the context of the various stages of innovation in order to demonstrate the availability of support throughout the
excellent access to the medical campus due to the Department of Bioengineering'srelationship with the College of Medicine (jointly within Colleges of Medicine and Engineering).Additionally, the UIC Innovation Center offers a neutral space where all of these disciplines cancome together on equal footing. We believe this is an important facet of an interdisciplinarycourse in that no single department has primary ownership of the course. In Fall 2012, theprogram was launched in the Department of Bioengineering as Interdisciplinary Medical ProductDevelopment (IMPD), with cross-listed course offerings to include Industrial Design (bothgraduate and undergraduates) and Business (undergraduates and MBA students). In Fall 2013,the program was expanded to
Heads Association (ECEDHA), the group created a new organization,the Inclusive Engineering Consortium (IEC), consisting of a core group of collaborators and asecond, much larger group of affiliated members from other universities, industry andprofessional societies.The overall IEC vision is to be a collaboration of Minority Serving Institutions Working as Oneto Advance the ECE Enterprise. It is organized as a virtual super department with broadly basedstrengths in education, scholarship and service. Collectively, IEC can function as the equal ofany ECE program, accomplish more and have a greater impact through access to resources andopportunities not available individually. IEC works to more fully engage MSIs in the USeducation and research
engineering mechanics and civil engineering courses.Results from surveys and focus groups of both students and faculty are presented, along withrecommendations for improving assessment instruments and processes. The students enjoyedthe case studies and believed that they contributed to learning the course material. The casestudies stimulated their interest. Most faculty who had participated in the one-day case studyworkshop and who responded to the survey had made at least some use of the cases in theircourses. All fourteen respondents that had used case studies believed that the benefits justifiedthe cost.Introduction Failure case studies may be used in engineering courses to address technical topics aswell as non-technical topics, such as
Paper ID #7365 Award. He teaches courses in both analog and digital electronic circuit design and instrumentation, with a focus on wireless communication. He has more than fifteen years experience in the development and de- livery of synchronous and asynchronous web-based course supplements for electrical engineering courses. Dr. Astatke played a leading role in the development and implementation of the first completely online undergraduate ECE program in the state of Maryland. He has published over 40 papers and presented his research work at regional, national and international conferences. He also runs several exciting summer camps geared towards middle school, high school, and community college students to expose
science,industry, community or non-profit organizations.Participant responses to the issues around teacher preparation were remarkably similar across thegroups and reinforced input from previous efforts. In general, participants agreed current teacherpreparation programs needed to be aligned with the integrated nature of STEM, i.e. the science and Page 25.869.11math professors in colleges of education currently had no real impetus to collaborate with each otheror colleagues from other STEM disciplines. Students were rarely exposed to engineering in pre-service contexts, and technology remained a subject largely restricted to instructional