AC 2012-3742: FACILITATING GROUP WORK: TO ENHANCE LEARN-ING IN LABORATORY BASED COURSES OF ENGINEERING EDUCA-TION IN INDIADr. Sujatha J., Mission10X, Wipro Technologies Sujatha J. is academically qualified with a Ph.D. in signal processing, from Indian Institute of Science, Bangalore, India, and has more than 24 years of academic and industry experience. Over the years, Sujatha has participated in not only academic teaching and research but also in academic counseling for students, professional development programs, curriculum development, industry-institution relationship activities, and prototype development and team building. Currently, Sujatha is a core member of Research Center, Mission10X, Wipro Technologies
methods, including common prototyping methods and industrial manufacturing methods. ● Design for X: Students will learn how to design for different scenarios, including Design for Assembly, Design for Manufacturing, and Design for Accessibility and Safety.Pedagogical Approach To better engage students with these CAD techniques and engineering design concepts, theFORM curriculum guides students through the consistent development of one project throughoutthe semester. The pedagogical approach used in the FORM course is a combination ofProject-Based Learning and Collaborative Learning. Project-Based Learning is a student-centered learning approach that is based on constructivistprinciples [3]. The freedom and challenge that students
AC 2011-830: TECHNOLOGICAL INNOVATION: A CRITICAL IMPERA-TIVE FOR ENGINEERING AND TECHNOLOGY DEPARTMENTS/COLLEGESMichael J. Dyrenfurth, Purdue University, West Lafayette Michael Dyrenfurth is professor in the Department of Technology Leadership and Innovation in the Col- lege of Technology at Purdue University. He is co-PI of two FIPSE-funded Atlantis projects: DETECT exchanging undergraduates with Ireland and German and Atlantis 2009 a concurrent Master’s degree project with Ireland and Spain. He collaborates frequently with ProSTAR to deliver industry-oriented graduate programs to professionals in the field. Active in international aspects of the profession, he teaches and researches in the areas of technological
Paper ID #15236Exploring Interdisciplinary Design in Relation to Workplace Success andCampus CommunityDr. Lisa M. Del Torto, Northwestern University Lisa Del Torto is an Assistant Professor of Instruction in the Bobbie & Stanton Cook Family Writing Program at Northwestern University. She teaches and coordinates Northwestern’s first-year design course, Design Thinking & Communication, a collaboration between the Cook Family Writing Program and the McCormick School of Engineering and Applied Science. Del Torto completed her PhD and MA in Linguistics at the University of Michigan and her BA in Linguistics and Spanish
-electronics and IGERT projects expect students to develop competencies towork in cross-disciplinary teams, and obtain solutions through this format.Third, these projects incorporated partnerships and collaborations in order to leverage impact andsustain changes. The integrated design project required collaboration across colleges on campus,as well as with other institutions in the state. The opto-electronics and IGERT projects requiredcollege and departmental collaboration across campus as well as partnerships with industry. Andfor the IGERT project, partnerships with regional and international laboratories were required.Fourth, all projects had expectations for evaluation as required in the respective NSF programsolicitation. The integrated design
interpreting information regarding analog integrated circuits for their application in electronic projects developed by industries.C. To participate in electronic design group projects emphasizing collaborative work, critical thinking, and decision making about different alternative devices using the newly developed concurrent engineering.D. To use different methods of analog electronics computer simulation for analysis and design of industrial and commercial electronic systems.E. To investigate electronic devices that directly impact the technological development of our society without compromising either the environment or the industries involved in the manufacturing or using those devices.Each course module includes a document with
, an individualcan interact efficiently with 2D and 3D computerized environments in real time using his/hernatural senses and skills.1 To meet the growing demand for the application of modeling,simulation and visualization in complex processes and systems, it is essential to educate anddevelop professionals who can incorporate advanced technologies to further the discipline andwho can collaborate with professionals from other disciplines to solve industrial and societalproblems. In this regard, the School of Technology at Purdue University Calumet (PUC)designed, developed and implemented a Master of Science Degree in Modeling, Simulation, andVisualization (MSV) to meet the “high-tech” workforce needs in this specialized area for theregion. In
undergraduateengineering curricula. Communication, especially in the context of working with teams and othersoutside of business organizations, was lacking in new engineers, and they emphasized teamworkskills from capstone design projects to hold the most value. Survey results also found that criticalthinking, seen in design skills for parts, processes, and systems were of utmost importance forsuccess in the workplace.Through a survey of Atlanta area construction engineers and managers, the highest emphasis wasplaced on competencies of “communication, ethics, professionalism, commitment to lifelonglearning, and multi-disciplinary team collaboration.” In comparing these industry preferences withundergraduate engineering programs, the study concluded that
technicaladvice and does not include the teamwork and project management support. Often (as atUMaine mechanical engineering) the lead faculty members in capstone have industry andteamwork experience, and collaborating faculty participate primarily due to their specifictechnical expertise. As such, in the volunteer model, the lead instructors continued to support theteamwork-relevant aspects, with the associated impact on their workload.Increased project diversity through externally funded projects is directly tied to the number ofprimary instructors, and the amount of past capstone experience by those instructors.Relationships with external clients have been built over a number of years and a diversity ininstructors assists with attracting clients from
AC 2007-519: SITE ANALYSIS AND ENVIRONMENTAL RESTORATIONAdrian Miron, University of Cincinnati Dr. Adrian Miron received his B.S. and M.S. in Applied Physics from University of Bucharest and his M.S. and Ph.D. in Nuclear Engineering from University of Cincinnati (UC). He is a research professor within the Mechanical, Industrial and Nuclear Engineering Department at UC, where he has developed and taught graduate core courses and has conducted research on various nuclear and radiological engineering topics. Previously, Dr. Miron worked at Argonne National Laboratory in the Diagnostic and Control Group within the Nuclear Engineering Division, and collaborated closely with the RESRAD team within
a tour of the primary structures andequipment which had been installed by a professional solar, hydroelectric power installationcontractor.The Rapid Center is a university-based research and development center. The Center’s industry-experienced faculty and staff work with business partners to address their specific needs and toremove obstacles to product commercialization and process improvement. The Rapid Centerfosters a culture of collaborative innovation that helps clients refine existing products, developnew ones and improve business practices. At the same time, the Center’s engineering andtechnology students, working with faculty mentors and course instructors, work to address real-world problems for project sponsors while they gain
AC 2012-4450: DEVELOPING INNOVATION SKILLS AND ASSESSINGSTUDENT LEARNING AT MUSEDr. R. Radharamanan, Mercer University R. Radharamanan is currently working as professor of industrial engineering and Director of Mercer Cen- ter for Innovation and Entrepreneurship (MCIE) at Mercer University in Macon, Ga. He has 38 years of teaching, research, and consulting experiences. His previous administrative experiences include President of International Society for Productivity Enhancement (ISPE), Acting Director of Industrial Engineering, as well as Director of Advanced Manufacturing Center at Marquette University and Research Director of CAM and Robotics Center at San Diego State University. His primary research and teaching
Airport.Gina Howe P.E., Seattle Pacific University BS degree in Electrical Engineering from Seattle Pacific University in 2003, and currently pursuing a MS degree in Electrical and Computer Engineering from Purdue University. She also worked in the industry for 15 years and is a registered professional engineer.Dr. Melani Plett, Seattle Pacific University Prof. Melani Plett is a Professor in Electrical Engineering and the Director of Engineering and Computer Science at Seattle Pacific University. She has over twenty years of experience in teaching a variety of engineering undergraduate students (freshman through senior) and has participated in several engineering education research projects, with a focus on how
Paper ID #38278Building a Sustainable University-Wide InterdisciplinaryGraduate Program to Address DisastersMarie C. Paretti (Professor) Marie C. Paretti is a Professor of Engineering Education at Virginia Tech, where she is Associate Director of the Virginia Tech Center for Coastal Studies and Education Director of the interdisciplinary Disaster Resilience and Risk Management graduate program. She received a B.S. in chemical engineering and an M.A. in English from Virginia Tech, and a Ph.D. in English from the University of Wisconsin-Madison. Her research focuses on communication and collaboration, design
ofengineering design. Students from different majors collaborate to work on multiple mini-projectsto integrate a programmable system into a working prototype, such as a step counter, automaticplant watering system, and a home security alarm system. Overall, this course provides afoundational understanding of software design and coding, and microcontroller interfacing withsensors, actuators, motors, etc. Students also develop 3D modeling and prototyping skills and areencouraged to use the makerspace. The course further exposes students to the interesting field ofdata science, as students gather real-life data from sensors and then clean, analyze and createvisualizations from the data set using common Python-based libraries. Preliminary feedbackfrom
Experiences for Underrepresented Students in Sweden, the Netherlands, and AustriaAbstractThe New York City Louis Stokes Alliance for Minority Participation (NYC LSAMP) at the CityUniversity of New York (CUNY) has, since its inception in November 1992, been at theforefront of a concentrated effort to substantially increase the number of underrepresentedminority students who pursue and graduate with Baccalaureate Degrees in Science, Technology,Engineering and Mathematics (STEM). Since its inception in November 1992, over 14,000baccalaureate degrees have been awarded to underrepresented minority students at CUNY. TheNYC LSAMP has been successful in establishing international collaborative partnerships inSweden, the
perspectives and experiences with teamwork in the classroom. He is also interested in developing and supporting college-industry partnerships in engineering curricula.Alexandra Werth, Cornell University Alexandra Werth is an assistant professor at the Meinig School of Biomedical Engineering, specializing in Engineering Education Research (EER). She focuses on developing evidence-based teaching methodologies to foster authentic learning environments. Dr. Werth holds a Ph.D. in Electrical and Computer Engineering from Princeton University, where she developed a non-invasive mid-infrared glucose sensor. She later conducted postdoctoral research in physics education at the University of Colorado Boulder, where she helped
] H. B. Karayaka, A. C. Thompson, and C. W. Ferguson, “Project based learning program for nuclear workforce development Phase I: Outreach, recruiting and selection,” ASEE Annu. Conf. Proc., 2019, doi: 10.18260/1-2--33203.[16] F. Kragh, J. Reed, C. Dietrich, and D. Miller, “Education in software defined radio design engineering,” ASEE Annu. Conf. Proc., 2008, doi: 10.18260/1-2--4112.[17] A. Fuentes, S. Crown, and B. Freeman, “Human bone solid mechanics challenge: functionally graded material structure with complex geometry and loading,” ASEE Annu. Conf. Proc., 2008, doi: 10.18260/1-2--4163.[18] J. L. Davis, N. Smith, and M. McLeod, “Collaborating with industry partner within an undergraduate finite
; Urbano, 2012).The influence of public policy, incentives, resources, culture and institutional mission areimportant factors when examining the motivation of researchers to participate in academicentrepreneurship. They comprise many elements and initiatives beyond TTOs, that supportacademic entrepreneurs. These include business incubators and accelerators which provide talentand financial support to university startups, as well as education and training programs designedto develop intellectual and tactical knowledge that can help bring innovations to market.Although there is increasing value being placed on university-industry collaboration andcommercialization, in addition to traditional academic work, a significant challenge is gettingmore
toward a dauntingarray of ends -- creating new knowledge, artifacts, and systems; stimulating economicdevelopment; creating wealth and jobs; sharpening the nation’s competitive edge; raising ourprospects for more productive and satisfying lives; caring for the environment; and strengtheningour national security"3. All of these expectations require technical innovation. The newexpectations for engineers represent a major transformation for the universities because over theyears the university culture and the competitive economic cultures have diverged. Accordingly,new models and techniques for collaborative knowledge sharing activities between universitiesand industries are being developed, and one such effort will be described in this paper.It
and STEM professionals); 2. Encourages students to develop and apply technical, teamwork, and problem- solving skills (by participating in the MATE ROV competition that is focused on building an underwater autonomous robot); 3. Provides funds, materials, and technical expertise to support student learning and provides industry with skilled individuals who can fill workforce needs (by school funding, fundraising and collaboration on federally funded projects).One of the examples of engagement events is the “Meet and Greet” annual events held during theinstruction session. These events included interaction with STEM and engineering role modelsthrough formal and informal discussions. In this way, high school girls who
students woulddo research that would appeal to a specific sector of business or industry, and therefore wouldattract funding and build sustainable relationships (leading to possible internships and future jobplacement, or other collaborations). For example, one proposal states: We are optimistic that there will be increasing recognition that the innovative approach of [IGERT program name] and similar programs must replace the narrow, traditional training programs in conservation and resource management, and that funding opportunities will emerge from the new interdisciplinary teams that materialize.In a similar vein, another proposal said, “We anticipate a membership agreement withindustry affiliates before the end of
– Co-Principal Investigator (Co-PI) of this NSF-ISE-funded initiative, aimed at integrating STEM learning into Out-of-School Time programs at community centers. 2. Junior Research Scientists Program – A program funded by After School Matters to support high school students in Chicago in conducting STEM research. 3. STEAM Learning Collaboration – Partnered with CCAS-NEIU to enhance STEM learning in the Upward Bound Math & Science program. Additionally, I co-founded and co-chair the student-led STEAM Conference and established ManifiestoSTEAM, a collaborative initiative promoting STEM education in Spanish-speaking, underprivileged communities across Latin America. I also collaborate with international
graduate engineering programs. There are 420 undergraduate and 150graduate students at Mercer School of Engineering. The ABET accredited undergraduateprogram has biomedical, computer, electrical, environmental, industrial, and mechanicalengineering specializations. There are 28 engineering faculty engaged in teaching undergraduateand graduate programs.The entrepreneurship certificate program was established through Kern Family FoundationGrants in 2007. This program is open to all engineering students at MUSE. Students whocomplete the course requirements will receive a Certificate of Achievement in EngineeringEntrepreneurship. The entrepreneurship certificate program requires completion of the followingcourses: Proceedings of the 2013
a wide rangeof demographic and background variables, women earn less than men [4, 5, 6]. For women ofcolor, the wage gap is even wider and not likely to improve soon. The COVID-19 pandemic hashad an economic toll that compounds existing inequities through shrinking industries that havebeen traditionally dominated by women (e.g. retail and travel) and the domestic responsibilitiescontinuing to predominantly burden women [7]. Wage gaps in post-secondary education persistamong faculty, particularly at institutions with the highest levels of research [8].Salary equity for women faculty in higher education has been long recognized and written aboutin terms of legal challenges [9] and statistical methodology [10, 11, 12]. Snyder, Hyer
the University of Colorado Denver and Anschutz MedicalCampus that draws together faculty, staff and students from across the two campuses, as well asentrepreneurs and leaders from industry, government, education and the community to addressproblems of importance to human society. The primary purpose of Inworks is to createinnovative solutions to some of the world’s most challenging problems while, in the process,creating lifelong innovators. We do this by scaffolding collaborative innovation and providingextensive facilities for rapid prototyping. Through hands-on, human-centered, team-based projects, students at Inworks learn to thinkcritically, creatively, integratively and transformatively; to develop solutions when the
. Broderick, "Training Industry," 27 April 2015. [Online]. Available: http://www.trainingindustry.com/content-development/articles/gamification-and-engagement-improve-ems- training.aspx. [5] P. J. Clarke, J. Pava, D. Davis and T. M. King, "Using WReSTT in SE Courses: An Empirical Study.," in the 43rd ACM Technical Symposium on Computer Science Education (SIGCSE '12)., Raleigh, NC, 2012. [6] P. J. Clarke, D. L. Davis, R. Chang-lau and T. King, "Observations on Student Use of Tools in an Undergraduate Testing Class," in the 121st American Society for Engineering Education (ASEE) - Software Engineering Constituent, 2014. [7] P. J. Clarke, J. Pava, Y. Wu and T. M. King, "Collaborative Web-Based Learning
sustainable materials from biomass, particularly renewable nanomaterials. She has built a research-education integrated platform towards advancing the commercialization of sustainable packaging and renewable nanomaterials and tackle these important research challenges with the help of students, industrial partners, and researchers. This program fosters entrepreneurial thinking to boost outcomes in sustainable advanced materials meanwhile offering career opportunities and professional development support to undergraduate and graduate students. Dr. Lavoine was recently awarded the 2022 TAPPI NanoDivision Mid-Career award and the 2022 Quanser Sustainability award; both awards recognizing her research and education activities
beoveremphasized. One of the issues that students must face with transitioning into the industry isthe application of school knowledge to their real-life practice. Engineering students are expectedto think critically, come up with original solutions, and collaborate with other team members onprojects. Often, traditional teaching methods are not enough to build these capacities in youngengineers, which has led to the introduction of new instructional methods such as theincorporation of virtual reality as an authentic learning technique. Several authentic learningtechniques have been used in the past to introduce students to virtual reality. While VirtualReality (VR) substitutes reality, transporting you to a different environment, Augmented Realityenhances