Paper ID #38033RVfpga: Computer Architecture Course and MOOC Using a RISC-V SoCTargeted to an FPGA and SimulationDr. Sarah L. Harris, University of Nevada, Las Vegas Dr. Harris is a Professor at the University of Nevada, Las Vegas (UNLV) in the Electrical & Computer Engineering Department. She earned her M.S. and Ph.D. at Stanford University and has worked at Hewlett Packard, Nvidia, and the Technical University of Darmstadt. Before joining the UNLV faculty in 2014, she was a faculty member at Harvey Mudd College for ten years. Her research interests include embedded systems, biomedical engineering, and robotics, and she
curriculum for our Engineering programs. Here is aflowchart of the sequence of courses explaining relations of these courses with other coreEngineering courses (Figure 1): Figure 1: Flowchart of courses with the newly designed Physics and Engineering Math courses (highlighted in yellow) along with their relations with some core Engineering courses. The arrows show the prerequisite structure.In the first semester, a declared Engineering major is advised to register for Introductory Mathfor Engineering Applications I (ENGR 121L) and Physics for Engineers I (ENGR 215) coursesalong with other Freshman Engineering and General Education courses. ENGR 121L is offeredas an eight-week course during the first half
education for an equally long time.In 1968, the ASEE stated “In engineering colleges it is vital that there be the fullestpossible integration of research with the educational purpose of the university.” 12Although research experiences give students significant educational benefit, they do notreplace the skills learned through a rigorous and disciplined design process. Theoutcomes of design are vastly different than those of research. Those differences make itnecessary to differentiate between the experiences and ensure students receive theeducation necessary to function as an engineer in today’s society. While it is clear thatdesign is an absolute requirement of an engineering curriculum, the shades of gray willcontinue to challenge the
solving in an engaging and cost-effective way? It is clear that other programshave invested a prohibitive amount of capital. Space is another limited resource. Without lab benches andstorage, we would need to be creative in developing a hands-on equipment-based module. The finalresource to be considered is time. This precious commodity would also make it challenging to start fromsquare one to develop a curriculum to teach hardware-driven program development. These conditionsinspired a search to determine how to make programming come alive for our students given thelimitations described.Challenge #3: Experience. While there is a core of instructors responsible for the majority of the 20+course sections from year to year, there are also some who
, innovation space design, curricularprogram development, indigenous knowledge integration, greenhouse design and businessstrategy development. The low-cost innovation space will enable students and entrepreneurs todesign and create products that will add value to their daily lives and promote entrepreneurialendeavors. Universal connectors will be used in this innovation space for rapid prototyping oflocally-relevant technology products. An innovative science curriculum in the form of acertificate program for secondary school science teachers was developed. This curriculum willintegrate the innovation space into the formal education system and help sustain it. An affordablegreenhouse was prototyped and field-tested as a compelling example of a game
time at Rowan and UMass, she developed a passion for undergraduate education. This passion led her to pursue a career as a lecturer, where she could focus on training undergraduate chemical engineering students. She has been teaching at UK since 2015 and has taught Fluid Mechanics, Thermodynamics, Computational Tools and the Unit Operations Laboratory. She is especially interested in teaching scientific communication and integration of process safety into the chemical engineering curriculum. c American Society for Engineering Education, 2019 Understanding the gap between communication in the classroom and communication during an industrial internshipAbstractWhile it
EACCriterion 5, stipulating expanded incorporation of DEI (diversity, equity, and inclusion) intocurricula. While these topics have begun to enter the broader civil and environmentalengineering curriculum and have made monumental gains in coverage [1], they have less oftenbeen integrated into structural engineering. The current undergraduate structural engineeringcurriculum at our institution lacks the incorporation and facilitation of the necessary skills tosupport the entrepreneurial mindset development needed for multi-faceted disaster riskmanagement. As many structural engineers begin their practice after undergraduate education, itis critical to begin to integrate and build these skills before they enter practice [2], [3]. Therefore,we develop an
teaching strategies for K-12 STEM educators integrating engineering design and the development of engineering skills of K-12 learners. c American Society for Engineering Education, 2019 Becoming in Action: An Autoethnography of My Professional Identity Development During the Rising Engineering Education Faculty Experience (Research)AbstractOn the road to obtaining a graduate degree in engineering education, graduate students havelimited opportunities to develop a comprehensive toolbox required for a future career as anengineering education faculty member. The current professional development trajectory focuseson acquiring technical knowledge through required courses and research
of software, hardware,and mechanical design makes this platform an excellent choice for undergraduate studentprojects in both design and research aspects. Senior CS students have required programmingexperience to develop software programs, EE seniors have sufficient knowledge to understandthe basics of radio frequency, signal processing, and circuit design, and while ME seniors havesufficient knowledge to understand the basics of structural dynamics and thermodynamicanalysis. This integration of complex programming, electrical hardware, and mechanical systemdesign provides an excellent educational experience for undergraduate students. Also, this interdisciplinary platform is systematic and integrated that involves investigating acomplex
Paper ID #44805Developing Moral Agency in Undergraduate Engineering Students: AnOngoing Exploration of Ethical-Epistemic Analysis PedagogyDr. Caitlin Grady, The George Washington University ©American Society for Engineering Education, 2024Work in progress: an Approach to Integrating Ethical-Epistemic Analysisinto Engineering EducationCaitlin A. Grady Caitlin A. Grady is an Assistant Professor in the Department of Engineering Management and Systems Engineering at George Washington University. She earned her Ph.D. in Civil and Environmental Engineering and her M.S. in Agricultural and Biological Engineering from
of internationalization inhigher education given by Dr. Jane Knight, who described it as a process of integrating aninternational dimension into teaching, research and service.5, 6, 7There have also been many professors from U.S. universities who have gone overseas to helpmake improvements to global higher education, who play important roles in global highereducation, and who provide services for changes to be implemented into the education systemsof other countries. This also serves as an opportunity for the U.S. professors to be able to learnabout other educational systems worldwide and then identify best practices that they canincorporate into their own educational system.8There are also many cultural benefits that can beobtained by the
AC 2007-1755: CHARACTERISTICS OF CAPSTONE DESIGN PROJECTS ATUNIVERSITIES IN US AND CHINA: AN ANALYSISTianrui Bai, Southwest Jiaotong UniversityJinwen Zhu, Missouri Western State UniversityVirendra Varma, Missouri Western State University Page 12.353.1© American Society for Engineering Education, 2007 Characteristics of Capstone Design Projects at Universities in US and China: An AnalysisAbstractThe objectives of the capstone or other integrating experiences in the engineering andtechnology curriculums are to: 1. Pull together the various diverse elements of thecurriculum, and 2. Develop student competencies in problem-solving utilizing bothtechnical and
Professional Practices in Engineering, An Introduction for Second Year Civil Engineering Students Edward F. Glynn and Frank E. Falcone Department of Civil and Environmental Engineering Villanova University, Villanova, PA 19085The Department of Civil and Environmental Engineering at Villanova Universityrecently introduced a new required course, Civil Engineering Fundamentals, inthe fall semester of the sophomore year of its civil engineering curriculum. Oneof the primary objectives in the course is to introduce students to the professionalpractice of civil engineering. This paper focuses on the professional practicescomponent of the course. In particular, the paper
/03043797.2023.2171852.[5] J. L. Plass, B. D. Hommer, and C. K. Kinzer, "Foundations of game-based learning," Educational Psychologist, vol. 50, no. 4, pp. 258-283, Feb 2015, doi: 10.1080/00461520.2015.1122533.[6] S. Domagk, R. N. Schwartz, and J. L. Plass, “Interactivity in multimedia learning: An integrated model,” Computers in Human Behavior, vol. 26, no. 5, pp. 1024–1033, Sep. 2010, doi: 10.1016/j.chb.2010.03.003.[7] E. Andersen, “Optimizing adaptivity in educational games,” in Proceedings of the International Conference on the Foundations of Digital Games, Raleigh North Carolina: ACM, May 2012, pp. 279–281. doi: 10.1145/2282338.2282398.[8] D. Leutner, “Guided discovery learning with computer-based simulation games: Effects of
design projects in EGR 100. In the course, the studentslearn the fundamentals in lecture, and practice these skills in the laboratory environment. Basedon the results of the assessment, the course objectives of developing the ability to work in teamsand understanding the engineering profession and curriculum were found to be achieved by thestudents in the course. The course objectives of developing the ability to solve open-endeddesign problems and improving their communication skills were still found to be achieved, but toa lesser degree and needing improvement.References[1] S.P. Walton, D. Briedis, M. Urban-Lurain, T. Hinds, A. Idema, C. Davis-King, N. Buch, andT. Wolff , “Building the Whole Engineer: An Integrated Academic and Co-Curricular
1aspirations are shared and align closely with the aspirations of The Engineer of 2020. We thengathered evidence about the curricula of the institutions to determine the extent to which thecontent of the curriculum aligns with the aspirations. The evidence that we gathered (and presentin its entirety in the appendix to this paper) suggests that very few top-ranked institutions requireexposure to the humanistic dimensions of engineering by integrating coursework that helpsstudents understand the role engineers play in shaping the world, how they interact with otherstakeholders, or what it takes to succeed in engineering practice. All of the institutions requirecourses in the humanities and social sciences (HSS) and specify distribution requirements
thedesign of this course module will cover the first two dimensions. We want to curb the fear, andpromote healthy attitudes, and perceptions that freshman engineering students have abouttechnology and the engineering curriculum over the long term. As the students completeassignments, conduct research, and collaborate in teams, integrating and applying the acquiredknowledge is desired.There three objectives that were common to all activities that involved the use of mobiletechnology: ‚ Foster an environment that will allow the student to judge the strengths and weaknesses of computer ownership and how ownership may impact performance. ‚ The student will appraise advantages and disadvantages of various mobile platforms in a
offering of the courselacked cohesive integration. These prior course iterations were team taught with individualfaculty having responsibility for four to six week modules taught simultaneously across allsections, and faculty assigned to teach the course were not consistent from year to year. Thispaper represents an initial effort at executing an integrated course offering where course topicareas are interwoven throughout course, and faculty instructors are common throughout theentire semester. The new version of the course was taught experimentally to three coursesections during the Spring 2012 semester.The Introduction to Engineering course is laid out in modules: Engineering Science (ES),Engineering Design Process (EDP), and Components of
. The IAB reported that a seniorengineer with between 6 – 10 years of experience would be termed a systems engineerwithin their companies. The question becomes how can undergraduate students exitacademia without a formal systems engineering degree and still have an appreciation forsystems engineering concepts that are integral to industry?A Template for Teaching Systems Engineering using APP-B LearningOregon Institute of Technology has used a project-based education model for many yearsin their manufacturing and mechanical engineering technology programs. Projects areused to supplement the theory behind important engineering concepts used in industry. Aliberal mix of projects utilized throughout the “applied engineering” curriculum alwaystended
-making dilemmasuggests a pluralistic framework for structuring the chemical engineering curriculum. It adaptsconcepts and situations studied in business and social studies degrees to an engineering setting,creating an applicable, critical interdisciplinary and reflective curriculum [6-8]. The aim of thisstudy is to investigate how the integration of an entrepreneurial mindset into case-studies andcourse materials influences the perceptions of ethical dilemmas and develops critical thinkingskills in upper-level undergraduate chemical engineering students. It also identifies how thiscomplexity of the human factor and self-efficacy can be reflected in an assessment via a Likertscale survey and reflective journals.LiteratureEthics modules covered in
2006-461: SOLAR ENERGY EDUCATION FOR ENGINEERING STUDENTS IN AMIDDLE EASTERN COUNTRY - AN APPROACHDavid Dalton, The Petroleum Institute David F Dalton is a senior lecturer in Communications at the Petroleum Institute in Abu Dhabi. He has sixteen years experience of teaching language and communications at universities in the UK, Spain, Mexico and the UAE. He also has extensive experience of curriculum design and educational management. His current work focuses on teaching a range of practical, synthesized communications and research skills to students who will later work in the oil and gas industry as engineers, managers and administrators.Isoroku Kubo, The Petroleum Institute Dr
these three major components can be integrated into anexisting academic program. The study presents a comprehensive approach to integratethese three components into an existing Computer Information Systems (CIS) program.The goal of curriculum improvement is to help students gain and improve their practicaltechnical skills while they are still able to earn their academic credits.IntroductionAs the US industry globalization moves, industry and corporate infrastructure changesaccordingly. Those changes redefine new higher standards for worker’s technology skillsets. This study presents the impacts on US workers as a result of the changes and findsout that using computer software is an important tool for today’s workers to prevail inthis industry
establish a foundation upon which distance engineering concepts can be further integrated into the curriculum. These objectives are intended to provide a framework for expanding the use of distanceengineering techniques in student projects completed at the regional scale, the national scale, andeven the global scale through WPI’s Global Studies Program. The role of distance engineering isinvestigated by integrating remote communication technologies into CE 1030, an introductoryfreshman-level civil and environmental engineering (CEE) course at WPI. After a briefdescription of this course, this paper presents the technology and instructional model used inmodifying CE 1030 to achieve these objectives. The role of distance engineering in
the 2016 ASEE ChE Division Raymond W. Fahien Award. Dr. Cooper’s research interests include effective teaching, conceptual and inductive learning, integrating writing and speaking into the curriculum and professional ethics.Dr. Lisa G. Bullard, North Carolina State University Dr. Lisa Bullard is an Alumni Distinguished Undergraduate Professor and Director of Undergraduate Studies in the Department of Chemical and Biomolecular Engineering at North Carolina State University. She received her BS in Chemical Engineering from NC State and her Ph.D. in Chemical Engineering from Carnegie Mellon University. She served in engineering and management positions within Eastman Chem- ical Company from 1991-2000. A faculty member
systemengineering curriculum. Smart grid courses should cover projects that are aligned with the theoreticalunderpinnings introduced in the course and should also embed a project-based learning approach[12]. According to the study [13], a smart grid education module should include the emergingsmart grid technologies, such as energy storage technologies, advanced power electronics,control systems, automation, renewable energy systems integration, system optimization, real-time control, and other related topics as well as to meet the challenges ahead in the electricpower sector. Authors in [14] discussed power systems engineering in terms of curriculum,supply, and demand for education, faculty careers, and alternative strategies and emphasized
Physics RedesignCommission, and fellow of the AAPT in 2015. The University of Arkansas Alumni Association named heras their 2007 teacher of the year. She was the 2019 winner of the Oersted Medal of the AAPT, for heroutstanding, widespread, and lasting impact on the teaching of physics through her pioneering nationalleadership in physics education, her exceptional service to AAPT, and her mentoring of students and in-service teachers.Rachel Pauley, Director of Technology, Raleigh County West Virginia Schools, is a leader in bringing CSeducation to West Virginia’s students and integrating technology into their classrooms. In addition to herrole as senior personnel for the Secure and Upgrade Computer Science in Classrooms through an Ecosystemwith
Paper ID #37640Identifying Students’ Connections to Advanced Topics in anIntroductory Materials Engineering CourseBreejha Quezada Breejha Sene Quezada is an Engineering Education PhD student at Purdue University.Emily Haluschak Emily M. Haluschak is a Research Assistant in the School of Engineering Education at Purdue University. Emily primarily works on integrated curriculum for K-2 computational thinking and post-secondary microelectronics workforce development efforts. Her research background is comprised of K-2 student problem scoping and teacher actions in response to implementation of STEM integration in
. Page 11.478.1© American Society for Engineering Education, 2006 Development of Online Multimedia based Prototype e-Lecture Interface using Human-like Animated Pedagogical Agents for Effective Dissemination of the Finite Element MethodAbstractMultiple e-Learning platforms have been designed, implemented and evaluated over the pastdecade for effective implementation of teaching and learning in engineering education. Thisstudy deals with the development of an interactive prototype interface for the finite elementmethod e-Lecture. The e-Lecture interface integrates life-like animated pedagogical agents,computer mediated communications and multimedia technologies. The use of animatedpedagogical agents in
and receiving her Ph.D. in Educational Studies (Science Education), Dr. Merritt was a high school chemistry and physics teacher in Charlotte, NC. Her areas of expertise and research focus on: (a) designing science and engineering curriculum materials and assessments to investigate P-20 student learning, and (b) preparing teachers to teach science equitably in the inclusive, culturally and linguistically diverse classroom. Her work has been funded by the National Science Foundation and Department of Education. She has authored or co-authored a book, several book chapters and journal articles.Joel Alejandro Mejia (Dr.) Dr. Joel Alejandro (Alex) Mejia is an Associate Professor with joint appointment in the Department of
documented various aspects of the program over its first 9 years. The purpose of thispaper is to describe the current state of the integrated teaching and learning strategies that theprogram uses to facilitate engineering design learning with an entrepreneurial mindset in a PBLmodel.Awareness of the IRE program has increased recently with the program being recognized as theABET 2017 Innovation award winner and in the top ten emerging leaders in engineeringeducation in the “Global state of the art in engineering education” report by Dr. Ruth Grahamreleased in 2018 [1].Purpose of researchThe purpose of this paper is to describe how the Iron Range Engineering (IRE) program leadsstudent engineers to ”become the engineer they want to be” by working with