also received the title of Chemical Engineer in 2012. His research interests include cognition and metacognition in the engineering curriculum.Prof. Tamara J. Moore, Purdue University at West Lafayette (COE) Tamara J. Moore, Ph.D., is a Professor in the School of Engineering Education and Interim Director of the INSPIRE Research Institute for Precollege Engineering at Purdue University. Dr. Moore’s research is centered on the integration of STEM concepts in K-12 and postsecondary classrooms in order to help students make connections among the STEM disciplines and achieve deep understanding. Her work focuses on defining STEM integration and investigating its power for student learning
. Page 24.1350.1 c American Society for Engineering Education, 2014Using the Four Pillars of Manufacturing Engineering Model to AssessCurricular Content for Accreditation PurposesAbstractMany manufacturing programs seek accreditation from ABET1 (formerly The AccreditationBoard for Engineering and Technology) and ATMAE2 (The Association of Technology,Management, and Applied Engineering). Both ABET and ATMAE provide accreditationstandards, proposed and endorsed through professional organizations such as the SME3, that areused for self assessment by manufacturing programs. On a regular basis ABET and ATMAEevaluate compliance of accredited programs, including visiting institutions to review assessmentprocesses for
asunderrepresented minority (URM) students. Not only do these students often underperformcompared to their majority counterparts, but they also often drop out, change majors, or otherwisefail to complete engineering or other STEM discipline programs of study.37 Assessment and Sustainable Development GoalsIt has been recognized that institutions of higher education play an important role in meeting thesustainable development goals. Because sustainability is best understood through the 3-pillar modelof economics, social, and environmental contributions, universities should take a broad and holisticapproach the integrating sustainability into the curriculum.38 Beyond this broad responsibility,higher education also impacts specific SDGs in
summarizes the experience of three university service-learning programsengaging in community development in rural and peri-urban Honduras from differentdisciplinary starting points and who have shared information along the way. The program at theUniversity of Vermont started as a series of community development and added engineeringcomponents and expertise over time. The Ohio State University and Colorado School of Minesbegan their respective work through the College of Engineering and encountered challengesrequiring the “soft-skills” of community development disciplines. The latter developed a minorcalled humanitarian engineering to help prepare interested students for the practicum to follow.Over time the programs have sought to learn from each
Technology, earning a Master of Science in Engineering and Management. His research interests include: engineering education, systems architecture, and supply chain optimization. American c Society for Engineering Education, 2021Adapting Online Learning for the United States Military AcademyAbstract:This research explores how online learning is conducted for higher education. This is a rapidlygrowing field that allows student-teacher interaction to occur beyond the traditional classroomenvironment. This work specifically considers the various modes that online learning can use todisseminate information. It reviews the current and emerging technologies that allow forconnectivity and
classroom. Previously, Dr. Cutler worked as the research specialist with the Rothwell Center for Teaching and Learning Excellence Worldwide Campus (CTLE - W) for Embry-Riddle Aeronautical University. c American Society for Engineering Education, 2019 Work-in-Progress: An exploration of students’ conceptualization of research after participating in an undergraduate research experience. Research Experiences for Undergraduates (REU) programs are designed to provideresearch-intensive summer experiences for undergraduate students, particularly those from lessresearch-focused institutions. The REU program, funded through the National ScienceFoundation, is viewed as a mechanism for increasing graduate
portfolios. Recent searches for faculty in engineering technology and mathematicspositions at Kansas State University yielded few applications which incorporated evidences ofteaching performance beyond statements of classes taught and possibly statements of teachingphilosophy.Lack of historical use and examples of teaching portfolios has been partially responsible for alack of adoption. Others resist consideration of a practice which seems to be yet anotherpaperwork burden. However, the teaching portfolio should not be viewed as a rigid documentrequirement, but rather as a flexible opportunity for summarizing and documenting teachingeither for performance evaluation or for teaching improvement. Material and structure can beselectively adapted and
technologyand, progressively, computers have been used to provide information, instruction, tutoring,testing, and more for students. With the advent of the World Wide Web in the 1990s and thesubsequent development of mobile technologies in the twenty-first century, the use of computer-based mobile devices to provide learning experiences beyond the classroom has expanded.Sharples reported that mobile ICT supports lifelong learning in a number of ways.7,8 Mobilehardware and software together with the infrastructure of the Internet provide a platform forlearning and teaching that is highly portable and, thus, available whenever and wherever the userneeds to learn. In addition, the variety of mobile hardware and software makes mobile learningadaptable to
licensure andaccess to free online review materials through department websites. Students should be exposedto the process and importance of licensure throughout their academic journey by introducing theFE exam as a degree-long goal, including the exam on 4-year plan advising sheets, FE-stylequestions in technical courses, and discussions of the licensure process in capstone courses.Departments may strongly consider offering an optional or required FE review course to refreshexam topic knowledge, share test-taking skills, and encourage peer study environments.Additionally, departments may consider developing a scholarship/reimbursement policy for aportion of the exam registration costs if a student passes to promote exam pass rates and reducethe
. Through his in- volvement in the UNR PRiDE Research Lab and engagement with the UNR and Northern Nevada STEM Education communities, he studied student motivation, active learning, and diversity; developed K-12 engineering education curriculum; and advocated for socioeconomically just access to STEM education. As a Ph.D. Candidate with the STRiDE Research Lab at Purdue University, Justin’s dissertation research focuses on the study of Intersectionality Theory and the intersectionality of socioeconomic inequality in engineering education, use of critical quantitative methodology and narrative inquiry to understand the complex stories of engineering students from traditionally minoritized backgrounds, and the pursuit of a
framework that can operate with any TCP/IP-capable microcontroller or embedded-basedsystem. This training exercise is offered to students as a workshop during the first two weeks oftheir two-semester capstone course. We believe the proposed platform teaches students a number of valuable skills that with theadvent of IoT can potentially make them more marketable upon their graduation. We emphasizethat the educational value of this training exercise extends well beyond the typicalimplementation of LAMP (Linux, Apache Web Server, MySQL database, Perl, Python, or/andPHP) stack [6]. In this exercise the students also learn about cloud services, advantages anddisadvantages of data pushing (or posting) and pulling for retrieving sensor data
projects combining both technical skills and elements of the entrepreneurial mindset.This lab modification is part of a curriculum-wide effort to integrate EML to different coursesequences. Students will be repeatedly exposed to entrepreneurial skills when applying them totheir capstone design as well in the other course sequences.CoE’s a long-term vision is to graduate students who have visionary leadership to create valueand innovative solutions not only for themselves but also for their employers and for the benefitof society. CoE also intends to address the ABET question, paraphrased as: where to do you seeyour graduates three to five years beyond graduation?The authors of this paper attended an “Innovating Curriculum with Entrepreneurial (ICE
engineering is a field that I want to continue to pursue, not because of the amount ofmoney I will make, but based on the fact that I am making something to help or improve aperson’s life. I also think that the concern of human life is a result of learning the beginnings ofengineering at a liberal arts institution rather than a school of engineering.” To conclude hernarrative, this student returns to the Webster dictionary definition of engineering, but does so inorder to move beyond it: “The stated definition is very general and through my experience inIntroduction to Engineering I was able to form my own definition. Engineering is applyingscientific and mathematical principles that are appropriate for the community [for which] thedesign is being
,” Eng. Stud., vol. 8, no. 1, pp. 1–26, Jan. 2016, doi: 10.1080/19378629.2016.1155593.[16] M. Ahmed, T. J. Muldoon, and M. Elsaadany, “Employing Faculty, Peer Mentoring, and Coaching to Increase the Self-Confidence and Belongingness of First-Generation College Students in Biomedical Engineering,” J. Biomech. Eng., vol. 143, no. 121001, Sep. 2021, doi: 10.1115/1.4051844.[17] E. Liptow, K. Chen, R. Parent, J. Duerr, and D. Henson, “A Sense of Belonging: Creating a Community for First-generation, Underrepresented groups and Minorities through an Engineering Student Success Course,” in Paper presented at the ASEE Annual Conference & Exposition Proceedings, New Orleans, Louisiana: ASEE Conferences, Jun. 2016, p
to the community of Robotics through volunteer means. He has served as an Adviser for BREED and Nestspace at HKU, where he offers consultation and guidance on various projects. Ryan’s technical proficiency includes 3D Printing, robotics, 3D modeling and mechanical machining. ©American Society for Engineering Education, 2025 Paper ID #46846With a passion for creating a better learning environment for fellow engineers, Ryan is dedicated toenhancing his skills and contributing to the advancement of mechanical engineering. ©American Society for Engineering Education, 2025Equipping Academic
black culturalcenters and multicultural centers were necessary to support and provide resources for minoritystudents on university campuses. McShay (2017) and Museus et al. (2017) describe howmulticultural centers increase students’ sense of identity and belonging on campuses. Diversity-oriented student organizations have also had a presence on campuses, mainly through studentchapters of professional organizations. Examples of these organizations include the Society ofWomen Engineers (SWE), National Society of Black Engineers (NSBE), Society of HispanicProfessional Engineers (SHPE), and Out in STEM (oSTEM). Diversity-oriented studentorganizations target specific marginalized communities such as women engineers, blackengineers, Hispanic
well with the audience, and post-training surveys indicated improved interest in pursuing Smart Manufacturing, see Figure 4b.Figure 4. a) (left) Incoming participant Smart Manufacturing familiarity. b) (right) Post-training interest in exploring Smart Manufacturing further.Recommendations and ConclusionsThe integration of Smart Manufacturing topics in manufacturing education will continue togrow. The Factory 4.0 Toolkit demonstrations provided useful information as we develop thematerials further for our programs. For dissemination, the materials described here are nowavailable through CESMII – The Smart Manufacturing Institute (cesmii.org), which sponsoredthe effort. We note that other manufacturing processes, beyond
]. Alternatively, the conceptualization ofdisability-as-oppression fits within the social model of disability [9]. The social model ofdisability presents disability as a consequence of a systemically excluding and oppressiveenvironment [3], [6], [7]. It acknowledges that we, as a society, have manufactured and enforcedsystemic barriers, derogatory attitudes, and social exclusion for individuals who are differentfrom those in power [7]. Additionally, some scholars view disability through a neoliberal-ableism critical lens. This model acknowledges both the realities of impairment and implicatessociety in the enforced disablement of “non-desirable others” [9]. It celebrates disability as anidentity that disrupts norms and subverts ableist values of society
ininformation network technologies through a two-semester course sequence. The courseworkincludes data communication and the information technology fundamentals basic to server,workstation, and network device operation and interaction. The successful student will be ableto place fundamental concepts into the context of the local area network (LAN) and wide areanetwork (WAN) operation. It is acknowledged that the curriculum does not contain detailedvendor specific information as, for example, is found in Cisco's Networking Academy, andtherefore our students will lack the skill set obtained by such instruction. It is furtheracknowledged that our program will not be as well positioned as programs that have created anentire specialty in communications
Paper ID #48473Affordances and Challenges in the Transition from Research Internship toGraduate Studies for Colombian Engineering Students in the USAMr. Manuel Jos´e Alejandro Baquero Sierra, Purdue University at West Lafayette (PPI) Alejandro Baquero-Sierra is a fourth-year Ph.D. student in Literacy and Language at Purdue University. He holds a Bachelor’s degree in Psychology and a Master’s degree in Public Administration. His research focuses on the intersection of psychology and education, particularly within K-12 settings, with an emphasis on promoting well-being, self-regulation, and trauma-informed practices. Recently
of the research plan we are presently usingto study CADEX in the context of a senior level biomedical engineering design course.IntroductionSeveral recent reports stress that the competitive advantage of the U.S. lies in its role as a leaderin technological innovation1,2. These reports make statements such as “leadership in innovationis essential to U.S. prosperity and security”3 and “innovation will be the single most importantfactor in determining America’s success through the 21st century”1. These reports send aresounding message that engineering education in the U.S. needs to emphasize and developknowledge and skills that are essential to innovation in a rapidly evolving technological society.From an education standpoint, there are many
study, while limited in scope, confirms what perhaps was already known through anecdotalinformation available to those interested in civil engineering education. That is, an analysis ofthe programs examined for this paper finds that civil engineering curricula are rather uniform intheir course requirements in the humanities and social sciences. Further the study affirms thatcurrent curricular requirements are consistent with the older ABET criteria (prior to EC 2000)that included a requirement for a minimum of one-half year of humanities and social sciencecourses and a requirement for both “breadth and depth.”IntroductionRecent reports have affirmed the importance of humanities and social sciences for the 21stcentury engineer. The National
recent findings regarding risk-averse behavior among engineers and engineering educators. Seron and Silbey describe what they refer toas Type II errors of over-specification, which they find within engineering education. Their article, “Thedialectic between expert knowledge and professional discretion,” focuses on quantitative accreditationstandards and how they adversely impact an emphasis on professional judgment in engineering.10 Andalthough EC 2000 was an attempt to move beyond quantitative standards, the implementation of “a-k”outcomes and their assessment merely affirm Seron and Silbey’s findings. For many, this list simplybecame a different set of requirements to be met, rather than a change that would enable genuineeducational innovation
Sustainability with Innovation Driven Learning: Observation on the Application of the Engineering-for-One-Planet Framework Guided by the Renaissance Foundry ModelAbstractThis work in progress investigates how the role of an educational intervention that coupledsustainability principles with an innovation-driven learning platform guides students through thedevelopment of a protype of innovative technology. Specifically, the intervention includes thepurposeful pairing of the Engineering for One Planet (EOP) framework1 with the RenaissanceFoundry model (i.e., the Foundry)2 in an undergraduate chemical engineering course that requiresstudent teams to address societal challenges as learning outcomes. We argue that pairing the
Sustainability.Manoj Jha, Morgan State University Manoj K. Jha is Associate Professor of Civil Engineering at Morgan State University. He is a member of ASCE's BOK2 Committee and chairs its subcommittee on Globalization.Ronald Harichandran, Michigan State University Ronald S. Harichandran is Professor and Chair of Civil and Environmental Engineering at Michigan State University. He is a Fellow of ASCE and serves on the its Accreditation and BOK2 Committees, and is chairman of the Michigan Transportation Research Board. Page 12.846.1© American Society for Engineering Education, 2007 Implementing Sustainability
notes and weekly workshop assignments. (3) Finally, a guidancesection is prepared to provide a ROAD MAP to guide students through different subjects in theclass. Each thermal-fluid related topic is discussed in one web page with the help of manyhyperlinks to relevant references on the web. An additional Web Pages of the Week section isalso included to link to web pages that introduce students to beyond-the-textbook experience ofsubject matters discussed during that week. Two of these supplements, Quantitative FlowVisualization and A Hypermedia Road Map for the Teaching of Thermal and Fluids courses,have been submitted to the Southern University and College Coalition for Engineering Education(SUCCEED) and was included in the CD-ROM Greatest Bits
learning into STEM curricula [8], [9] [10].The development of global identity and intercultural competence is particularly crucial for first-year university students [11]. The transition to higher education presents a unique opportunity forstudents to expand their worldviews and develop skills necessary for global citizenship [12],[13]. Early exposure to diverse perspectives and global issues can set the foundation for ongoingintercultural learning throughout their academic careers and beyond [3].1.2 Factors Influencing Global Identity Development in Higher EducationResearch has shown that global identity development can vary based on demographic factors,including gender. Several studies have found gender differences in various aspects
implemented in colleges of engineering that disrupt the status quo regarding who gets to participate in engineering education as students and faculty members; and (3) increased participation and comfort among Black and Brown K– 12 students in pre-college engineering activities that signal to parents and young learners that an engineering career is an option for anyone. These outcomes map to three strategic pillars of the Year of Impact on Racial Equity.”Volunteers for the Year of Impact on Racial Equity were divided into three taskforces, eachfocusing on a distinct pillar: (1) student organizations at Colleges of Engineering and EngineeringTechnology, (2) faculty and administrators in Colleges of Engineering, and (3
students will apply information learned infoundational courses to a wide variety of problems in higher level courses, and later asprofessionals.A critical component in students’ transition to adaptive expertise is their engagement inmeaningful reception learning [4] via on-demand information. In the learning process, studentssearch through content repositories (e.g., textbooks, lecture notes, videos, web-based materials,etc.) to fill gaps in their knowledge and to search for the information needed to solve problems.This need is filled to some extent by textbooks, but their linear layout presents a limitation: theyare unable to highlight the highly interconnected nature of the information being presented.Everything is presented in a lockstep
effective toolto implement in their classrooms. Tablet PCs and pen slates provide a stylus that allows the userto input data (in the form of digital pen strokes) through a variety of applications, such as inkannotations in word processing software and handwriting in notebook software. While theseinnovations offer a promise of improved student learning and faculty teaching, researchers areonly beginning to measure these impacts in any systematic way.Since 2003, faculty members at our institution have been implementing digital ink through tabletPCs and slates in engineering, humanities, mathematics, and science courses. As theseimplementations have been developed, we have conducted assessments of the projects andreported these results to the faculty