workshops and other supporting content. Several members of the full-timestaff in the makerspace come from an industrial design or creative technology background. Theyhost office hours and workshops on portfolio development through the Design Lab open to thewhole university. Students in the first-year course are encouraged to connect with them.In addition to the collaboration with the makerspace staff and Design Lab, these assignments andcourse expansion were supported by the new Assistant Dean of Student Life & Services, whosupervises the engineering career services office. Over the past academic year, she was invited tolead a guest lecture early in the semester, typically in the third week as shown in Table 1. Theengineering and writing
nation arecontinuously striving to update their curricula to prepare their graduates for success in both theindustrial and the research worlds.Machine learning (ML) is an emerging field that started as a topic in computing sciences butevolved to gain an increasing popularity in the industries related to Mechanical Engineering, ECE,as well as other fields in the humanities and social sciences. As a result, it is becoming a staple onthe list of “highly-demanded skills” for many of the ECE employers. In order to fulfill thisworkforce need and help increase the employability of our graduates, an undergraduate machinelearning course has been developed and is currently being taught for the first time in Spring 2022.Several challenges were encountered
degree in Communication, Technology, and Society, also from Clemson, and I have taught courses in communication studies and public speaking. American c Society for Engineering Education, 2022 Who Gets to Be the Player Character? A Visual Content Analysis of Representation in Video Game Design Programs The global video game industry is growing rapidly, with revenue reaching an estimated$179.7 billion in 2020—to put that in context, the international film industry just surpassed $100billion in revenue in 2019 while North American sports brought in an estimated $75 billion in2020 [1]. Indeed, 64% of US adults and 70% of those under 18 regularly play
multiple best paper awards and keynote presentations at international and national conferences and workshops.Dr. Joachim Walther, University of Georgia Dr. Joachim Walther is a Professor of engineering education research at the University of Georgia and the Founding Director of the Engineering Education Transformations Institute (EETI) in the College of Engineering. The Engineering Education Transformations Institute at UGA is an innovative approach that fuses high quality engineering education research with systematic educational innovation to transform the educational practices and cultures of engineering. Dr. Walther’s research group, the Collaborative Lounge for Understanding Society and Technology through
sources. These intelligent systems are ed e h a i e e e i e i hi a ecific d ai , ada he e e a d eado better in changing environments, and explain how they make decisions or take actions. Asopposed to PID, lead-lag, and state feedback control where the focus is on modeling and the useof this model to construct a controller that is described by diff erential equations, in fuzzy controlwe focus on gaining an intuitive understanding of how to best control the process, then we loadthis information directly into the fuzzy controller.2. Fuzzy Sets TheoryAs Professor Lotfi A. Zadeh from University of California, Berkeley, pointed out in 1965 in his e i a a e e i ed F Se ch i eci e defi ed e ca e a a i
: The goal of this project was to determine if active learning would improvecomprehension of 2 key concepts in “Introduction to Biomedical Engineering (BME)” class. Thefreshman-level core undergraduate course provides a broad overview of the field of BME and isintended to be taken first in the BME curriculum. Active learning is commonly defined as amethod that engages students in the learning process through meaningful activities thatrequire the student to think about what they are doing 1. This is in contrast to passive learningwhere students passively receive information from the instructor usually through lectures.1Active learning was pursued for the following studies as it is enjoyable,2 motivating to students(particularly underachieving
Paper ID #15947Integration of Engineering Practice into the CurriculumDr. Ibrahem E. Atawi, University of Tabuk Ibrahem Atawi received the B.S. in electrical engineering from King Fahd University of Petroleum and Minerals, Dhahran, Saudi Arabia, in 2005, the dual M.S. degrees in electrical engineering and engineer- ing management from Florida Institute of Technology, Melbourne, FL in 2008, and the Ph.D. degree in electrical engineering from University of Pittsburgh, Pittsburgh, PA, in 2013. Since 2013, he has been an Assistant Professor with the Electrical Engineering Department and Dean of Collage of Engineering
an emerging frontier of science and engineering and the collaboration would create anexchange of information that would allow us to develop our research activities in cooperationwith the CBBG. Second, a collaboration would connect our undergraduate students to CBBGresources and to the CBBG’s graduate students, researchers, and industry partners, and therebyexpose our students to research experiences well beyond our college. And third, a collaborationwould potentially help us to identify new questions that we might then be able to pursue in thefuture. Therefore, we decided to write a proposal to NSF that would not only support theresearch we wanted to conduct but would also support a collaboration among the new ERC, ourstudents, and
problem is three-fold: 1) Page 26.1769.3Publicize the many varied activities, 2) Promote, train, and support the mentors, and 3)Encourage corporations to promote mentoring. STEM mentoring is inclusive of the traditionalmentoring model and adds the STEM component by encouraging the pair to do STEM activitiesand through the recruitment of STEM professionals as mentors.Our GC has two K-12 school districts that have been active in collaborative learningenvironments with our youth serving organizations in both formal and informal learningenvironments. These are the basic building blocks that are required of a connected STEMlearning ecosystem. Our GC will
instruction. Due to the length of the practical, it is handle as a final project for a control orinstrumentation course 8) Networking. This practical is an implementation of a SLC network using the AIC AB modules.Usage of messaging and information exchange is the base of this practical. A protocol analyzer is connected toPIC interface in order to observe the behavior of the token-bus protocol used by this network,. 9) Man-Machine interfaces (MMIs). The main purpose of this practical is establishing the basis fordeveloping GUIs for industrial purposes. Three approaches are suggested: the first one is based on FIX, anIntellution® program for developing MMIs. The proper use of this package and implementing a GUI on one ofthe previous
Paper ID #26518Board 61: Insights from the First Two Years of a Project Partnering MiddleSchool Teachers with Industry to Bring Engineering to the Science ClassroomDr. Andrew L Gillen, Virginia TechDr. Jacob R Grohs, Virginia Tech Jacob Grohs is an Assistant Professor in Engineering Education at Virginia Tech with Affiliate Faculty status in Biomedical Engineering and Mechanics and the Learning Sciences and Technologies at Virginia Tech. He holds degrees in Engineering Mechanics (BS, MS) and in Educational Psychology (MAEd, PhD).Dr. Holly M Matusovich, Virginia Tech Dr. Matusovich is an Associate Professor in Virginia
members are offered coaching service and can craft theengagement frequency as well as the agenda topics in that coaching. This paper will highlightthe approach and common themes that emerged from these coaching engagements. The themesmay serve as framework for mid-career faculty development interventions more broadly.The next phase of the program will engage participants in an optional group coachingexperience. The objective of the proposed group coaching program is to reinforce and build onthe gains made by faculty who have participated in individual coaching and to emphasize sharedexperiences.Tags: Faculty Development, Coaching, Mid-CareerBackground – Mid-Career FacultyPromotion to Associate Professor rank places faculty in a new place in the
Kaleita, Iowa State University Amy L. Kaleita is Professor of Agricultural and Biosystems Engineering at Iowa State University, and a licensed professional engineer. She has a B.S. in Agricultural Engineering from Penn State University, an M.S. in Civil and Environmental Engineering from the University of Illinois at Urbana-Champaign, from which she also has a PhD in Agricultural Engineering. Her disciplinary research is in the area of data mining and information technologies for precision soil and water conservation.Prof. Sergio Horacio Lence, Iowa State University Professor of EconomicsProf. Robert Brown, Iowa State University Dr. Brown is Anson Marston Distinguished Professor in Engineering and Gary and Donna Hoover
, communication, and professionalism so that when a company hires an American engineer it expects him or her to lead that company or an international group of engineers.” 1Market conditions, which drive the engineering industry, indicate a need for industry-readyengineering graduates. Current business drivers include the virtual teams, global projects, theinternet, outsourcing, off-shoring, advanced technology, developing countries, restricted traveland immigration, and international teams. Walesh addresses the ramifications of current eventsin a very critical statement 2: “Technical competency, although necessary, is not sufficient for young engineers or other technically educated professionals who wish to quickly realize their
enroll. The advantage of doing is thatthe undergraduate students are exposed to these emerging computational intelligence field; andfor the graduate students, the course introduces them to four main paradigms and their interest inany of paradigms can be broaden by a full semester on either of the courses - neural networks, Page 10.454.2fuzzy logic, evolutionary computation, so on, which is offered at the University of Missouri-Rolla. The textbook used in teaching this course is entitled “Computational Intelligence” by A P “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition
Page 9.1314.1EG 220 and students who had done poorly in EG 220. Although not a formal study, some Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004, American Society for Engineering Educationinteresting facts emerged. For example, many students who perform poorly are students thatreceived transfer credit for calculus. This is somewhat surprising, since the majority of themathematics used in EG 220 doesn’t require calculus-related concepts. Apparently somestudents have problems making a transition between calculus and circuits, going from abstractmathematical drills to practical application of mathematical principles. They have a tendency
our students back, it is to entirelyreexamine our culture as an engineering department to challenge binaries or dualismscommonly used to create hierarchies in engineering thought and practice (rational-emotional, male-female, social-technical, mental-manual, hard-soft, concrete-abstract).As a new department, it is our hope that the CPE change initiative may offer a model forcreative departmental design within emerging and growing fields. With its attentiveness todeep cultural change, focus on faculty development, and a rejection of binaries withinengineering, our research aims to break new ground in inclusion.As this is the first year of our grant, there are few results to discuss. Therefore, this paper isprimarily dedicated to sharing the
for technician education including virtual reality tools, e-learning modules, and iBooks. ©American Society for Engineering Education, 2024 Initiating a research experience for teachers centered on manufacturing (Work-in-Progress)IntroductionManufacturing is a foundation of economic growth and job creation across the U.S. and is constantlychanging with improvements in technology, materials, and design. While this field is a pillar for economicgrowth within the US, manufacturing companies struggle to recruit a prepared workforce. This has spurredthe development of research experience for teachers (RET) sites funded National Science Foundation whosetheme
collaboratively developed a number of new and revised courses, including a new System Dynamics Lab. She has also worked with a number of SUNY students to investigate different aspects of 3D printed multi-material structures. ©American Society for Engineering Education, 2024 Introducing AI into an undergraduate Kinematics of Machines courseThe integration of emerging technologies, such as Machine Learning and Artificial Intelligence(ML/AI), into traditional mechanical engineering courses has the potential to transform howfoundational concepts are taught and applied. This paper discusses the initial implementation ofML/AI-related computational techniques in an undergraduate
at UT Arlington hold PhD degrees in nuclear and relatedengineering fields. Several members of the College’s Advisory Board are involved in power generation industry and have voiced unequivocal support for this program. The faculty and administration of the College of Engineering have been very supportive,providing both moral and financial support to initiate the minor.The nuclear industry, particularly nuclear power generating companies, hires engineers from alldisciplines. The majority of these hires come from mechanical or electrical engineering. Theseengineers are involved with design, construction, operations, maintenance, quality assurance,information technology and radiation protection / monitoring. The NE minor is
in nanotechnology. It is reported thatdevelopment in nanotechnology will change the traditional practices of design, analysis,simulation, and manufacturing for new engineering products. Therefore, it becomes a challengefor the academic community to educate undergraduate engineering and science students with allthe necessary information and leadership in this emerging field [1]. 1 There are a number of nanoscale materials, such as nanoparticles, nanotubes, nanofibers,nanocomposites and nanofilms that are all considered next generation of materials for faster carsand planes, more powerful computers and satellites, and better microchips and batteries becauseof their outstanding
have been undertaken both by the government and private sectors to intensify theteaching, research and development in nanotechnology. It is reported that development innanotechnology will change the traditional practices of design, analysis, simulation andmanufacturing for new engineering products. This is a challenge for the academic community toeducate engineering and science students with all the necessary information and leadership inthis emerging field [17].The corresponding author has developed two new courses, namely Nanomaterials Fabricationand Characterization (MS and PhD level) and Introduction to Nanotechnology (undergraduatelevel) in the College of Engineering at Wichita State University (WSU). In the firstnanotechnology course
brought to our attention through the Villanova Engineerswithout Borders chapter.One of the challenges with these projects is finding local weather and climate data, to estimatethe available solar insolation for potential conversion to electrical energy. A second challenge isto find local suppliers for components. The Internet has proven to be a very useful resource forobtaining supplier information in many developing countries.The designs of these systems are in process and are expected to be implemented within the nextyear.Cell Phone and Computer-Based Rural Health Care SystemThere is very limited access to quality health care in many rural communities of the world. Weare working on a project in the rural communities surrounding the town of
the modern technological society. His or her values and how he or she participates in the global economy is and will be a critical component of the well being of our society. As engineering educators we have a special role to play in forming the ethical values of the engineers of the future and tempering them in the application of ethics to their practice of the profession of engineering. This paper presents a brief overview of two resources from the National Society of Professional Engineers (NSPE) that are excellent tools for the instruction of engineering students in the ethical practice of their profession. One is a short video presentation that
. Karl A. Smith, University of Minnesota, Twin Cities Emeritus Professor of Civil, Environmental, and Geo- Engineering, Morse-Alumni Distinguished University Teaching Professor, Faculty Member, Technological Leadership Institute at the University of Minnesota; and Emeritus Cooperative Learning Professor of Engineering Education at Purdue University.. ©American Society for Engineering Education, 2024 Work in Progress: PLSG – An Observational Study of Student Questions to Identify Levels of Cognitive Processing Reached During DiscussionAbstract - This Work in Progress study reviews the PEERSIST (PEER-led, Student Instructed,STudy group) project, which explores the achievement and persistence of students
Resource Collections Cases & Scenarios Environment, Safety & Sustainability Ethics Codes & Guidelines Professional Practice Teaching Tools Employment Issues Annotated Bibliographies Responsible Research Evaluation Tools Emerging Technologies Institutional Programs Diversity Resource Collections A good example of the extensive resources that are available on the OEC today is the section under resource collections on environment, safety and sustainability. The three topics covered in this collection are on the list of realistic constraints in ABET
astudent’s oral communication skills. Although oral presentations were an existing component ofthe course, this assignment provided a separate and distinct venue for a student to use this skill.More specifically, students were required to use reason and analysis in presenting their finalargument. Second, an ethics component in this course would help bridge the transition betweencollege and the workplace. An ethical dilemma involving the choice between doing what is rightand maintaining a positive bottom line is often seen in industry. Exposure to previous examplesand the decision-making process involved would be beneficial for students. The case study used was generated by the Laboratory for Innovative Technology andEngineering Education
AC 2011-2155: COLLABORATIVE RESEARCH: INTEGRATION OF CON-CEPTUAL LEARNING THROUGHOUT THE CORE CHEMICAL ENGI-NEERING CURRICULUMMilo Koretsky, Oregon State University Milo Koretsky is an Associate Professor of Chemical Engineering at Oregon State University. He cur- rently has research activity in areas related to thin film materials processing and engineering education. He is interested in integrating technology into effective educational practices and in promoting the use of higher level cognitive skills in engineering problem solving. Dr. Koretsky is a six-time Intel Faculty Fellow and has won awards for his work in engineering education at the university and national levels.David L. Silverstein, University of Kentucky
performance on class projects as well as tests.The quantitative analytic methods that have been employed include descriptive statisticalanalyses to determine frequencies and averages. The qualitative methods were guided by Miles& Huberman’s1 framework of creating an initial coding schema, refining the codes, andexploring emerging themes and trends. Qualitative data are coded based on a schema thatexamined the relationship between actors (such as faculty and mentors), activities (such as thementoring supports), outputs (such as number of students and hours the course was offered) anddesired outcomes (such as interest in Clean Energy) and confidence to succeed in College.Results/FindingsThe ECE recruited and provided an early college experience to
. Her expertise extends to facilitating workshops and training sessions, catering to the needs of both staff and students within Purdue University.Sakhi Aggrawal, Purdue University at West Lafayette (PPI) Sakhi Aggrawal is a Graduate Research Fellow in Computer and Information Technology department at Purdue University. She completed her master’s degree in Business Analytics from Imperial College London and bachelor’s degree in Computer and Information Technology and Organizational Leadership from Purdue University. She worked in industry for several years with her latest jobs being as project manager at Google and Microsoft. Her current research focuses on integrating project management processes in undergraduate