Shelving the Hardware: Developing Virtual Laboratory Experiments T. Hannigan, K. Koenig, V. Austin, E. Okoro Mississippi State UniversityAbstractTime is at a premium in a crowded aerospace engineering curriculum, and offerings oflaboratory classes in lock step have become a stumbling block to students who deviate from thetraditional paths. Students who participate in cooperative education programs, internships, andthose who transfer into the upper division from other disciplines and colleges have often sufferedgraduation delays from limited course offerings. These delays often arose from prerequisites forand sequencing of laboratory courses. However, a survey of activities
Paper ID #15300Incorporating a Software System for Robotics Control and Coordination inMechatronics Curriculum and ResearchDr. Maged Mikhail, Purdue University - Calumet Dr. Maged B. Mikhail, Assistant Professor, Mechatronics Engineering Technology Ph.D., Electrical Engi- neering, Tennessee State University, Nashville, Tennessee, August 2013. Dissertation title: ”Development of Integrated Decision Fusion Software System For Aircraft Structural Health Monitoring” M.S., Electri- cal Engineering, Tennessee State University, Nashville, Tennessee, May 2009. Thesis title: ”Development of Software System for Control and
school analytics curriculum andeducation to reach underserved students, such as those from rural areas. At least thirty 9th-12thgrade mathematics, computer science, and pre-engineering teachers will participate in AR-DATAand work with faculty mentors, graduate students, curriculum coaches, and industry experts in asix-week RET Summer Program and academic-year follow up to develop and disseminatelearning modules to enhance current curriculum, attain new knowledge of data analytics andengineering applications, and benefit professionally through the RET program activities. Thelearning modules developed will reflect current cutting-edge analytics research, as well as thedevelopment needs of next-generation analytics workforce.KeywordsData Analytics
will be implemented throughout thecivil engineering undergraduate curriculum at CSU, and CSU College of Education and HumanServices researchers will cooperate with the authors to develop and test assessment materials.Assessment will be added into the program of faculty workshops. In summary, there is a need for failure awareness in the undergraduate engineeringcurriculum. Engineering students can learn a lot from failures, and failures play an importantrole in engineering design. This need has been expressed in a number of papers and at a numberof conferences over the past two decades. This proposed research is a specific response to thatneed and will provide (1) much needed access to examples, and (2) a heightened appreciation ofthe
enabled him to utilize many of theExCEEd tools and apply them directly to the development of his courses within theBioengineering curriculum. It is recognized that many individuals may have already spentsignificant amounts of time developing their courses, therefore in addition to describing whatwas done to develop the course using the ExCEEd method, the authors will also describescenarios as to how one may be able to adopt aspects of the ExCEEd method and apply them intheir own classrooms. By no means are we suggesting this is the only way to teach, nor are wesaying that this is the best way to teach. Our hope is for educators to reevaluate their teachingmethodologies and determine what is best not only for them to be effective communicators
Session 067 Development of an Undergraduate Communications Simulation Laboratory Ahmed Musa (1), Virgilio Gonzalez (2) Electrical and Computer Engineering Department The University of Texas at El Paso ahmed@ece.utep.edu (1), virgilio@ece.utep.edu (2) Mehdi Shadaram Electrical and Computer Engineering Department The University of Texas at San Antonio mshadaram@utsa.edu AbstractThis paper describes the
research at other local institutions and through NSFREU and other similar programs. The number of students engaging research have been growingrapidly along with graduate study.Students will be utilizing research databases such as Scopus, Proquest, and Google Scholar, beguided on research methods and scholarly work production. Intellectual Property informationand Google Patent will also be an important part of the course if the students develop an originalproduct or process. This course will not replace the interdisciplinary capstone course, IntegratedEngineering Design but will be a good complement to it along with Engineering Practice. Thispaper includes a literature review on including research in undergraduate curriculum, thesyllabus including
Paper ID #15527Development of PBL Students as Self-Directed LearnersMr. Ronald R. Ulseth, Iron Range Engineering Ron Ulseth directs and instructs in the Iron Range Engineering program in Virginia, Minnesota and he teaches in the Itasca Community College engineering program in Grand Rapids, MN. He was instrumental in growing the Itasca program from 10 students in 1992 to 160 students in 2010. In 2009, he worked with a national development team of engineering educators to develop the 100% PBL curriculum used in the Iron Range model. He has successfully acquired and managed over $10 million in educational grants including
2006-1630: DEVELOPING A WIN-WIN ENVIRONMENT WITHSERVICE-LEARNINGGuy Hembroff, Michigan Technological University Mr. Guy Hembroff is an Assistant Professor within Michigan Tech University's School of Technology Department. His research interests are within the areas of cyber security, network protocols, encryption methods, health-care security, and biometrics. He has six years of industrial experience as a systems engineer and advanced network engineer. Mr. Hembroff is currently pursuing his Ph.D. degree in Computer Information Science.Yu Cai, Michigan Technological University Dr. Yu Cai is an assistant professor at School of Technology in Michigan Technological University. His research
. Page 25.936.1 c American Society for Engineering Education, 2012 Middle and High School Teacher Professional Development Through University Research Experiences and Curriculum DevelopmentAbstractA professional development model for middle and high school STEM teachers has beendeveloped, implemented over two years, and assessed. The model involves a partnershipbetween the middle and high school teachers and administrators, education graduate students andfaculty, STEM graduate students and faculty, and a NOAA research center. The highlight of theteacher experience was a three week intensive Summer Research Institute in which teachersdeveloped modules connected to
©American Society for Engineering Education, 2023 Implementing Integrated Project-Based Learning Outcomes in a 21st Century Environmental Engineering CurriculumAbstractEngineering education research and accreditation criteria have for some time emphasized that toadequately prepare engineers to meet 21st century challenges, programs need to move toward anapproach that integrates professional knowledge, skills, and real-world experiences throughoutthe curriculum [1], [2], [3]. An integrated approach allows students to draw connections betweendifferent disciplinary content, develop professional skills through practice, and relate theiremerging engineering competencies to the problems and communities they care about [4], [5
Society for Engineering Education, 2017 Continuing Assessment of Sustainability Skills Within the Environmental and Civil Engineering CurriculumAbstractSustainability in engineering practice and design is increasingly important as an outcome forengineering education for Civil and Environmental Engineers. ABET criteria for bothEnvironmental and Civil Engineering stress sustainability, and the development of curriculumcomponents for these degree programs continues to evolve; efforts are directed at spreadingsustainability across the curriculum either in a modular fashion or in directed course sequencesspecifically focused on sustainability. To evaluate curricular sustainability outcomes, wecontinue a longitudinal study to
driving data-supported changes to pedagogy and curriculum. • ABET Outcome 2: An ability to apply engineering design to produce solutions that meet specified needs o Performance Indicators: Each milestone demonstration and report, final competition and report • ABET Outcome 3: An ability to communicate effectively o Performance Indicators: Milestone reports, final report • ABET Outcome 5: An ability to function effectively on a team o Performance Indicators: Each lab exercise, milestone and project demonstrations • ABET Outcome 6: An ability to develop and conduct appropriate experimentation o Performance Indicators: Each lab exercise • ABET Outcome 7: An ability to
, 2018 Using student video presentations to develop communication skillsIntroduction Communication skills continue to be one of the important professional skills that are requiredfor engineering graduates [1] that pose difficulties for engineering educators. The issues aroundthese skills include what to teach, how to teach them, and how to assess students’ abilities[2, 3]. As part of a curriculum reform project that is a component of a larger department changeeffort, three required classes of the third year curriculum of an Electrical and ComputerEngineering (ECE) program at Colorado State University have added a knowledge integrationcomponent that occurs approximately every five weeks. During these integration efforts, studentsare
ample opportunity for studentsto practice ethical decision-making in real-life ethical scenarios, guided by faculty. The paperalso documents the ethical development activities and discussions that the students complete aspart of the ethics curriculum during the year. The results inform engineering educators of theexperience of using a particular ethical development curriculum model, specifically, small groupdiscussions of ethical dilemmas moderated by team mentors and faculty members, followed bywritten student reflection.Future WorkThe faculty at IRE and TCE plan to continue to lead ethics discussions in small groups, then to Page
applications developed for teaching purposes. It also describesthe author’s experiences in developing one such application. Engineers are, at the core, problem solvers. Engineering educators spend a lot of time in theengineering curriculum teaching aspiring engineers the algorithms, heuristics, and methods tosolve problems for a given set of data. We typically give them a problem in a nice, tightparagraph which has all of the variables needed to solve the problem. Their goal is usually tofind the right method, plug in the given variables and get an answer that matches the one in theback of the book. If only the real world were so easy! Real world problems don’t come with aparagraph summarizing the problem and the few variables required to solve it
research interests particularly focus on what prevents students from being able to integrate and extend the knowledge developed in specific courses in the core curriculum to the more complex, authentic problems and projects they face as professionals. Dr. Koretsky is one of the founding members of the Center for Lifelong STEM Education Research at OSU.Dr. John L. Falconer, University of Colorado, Boulder Professor of Chemical and Biological EngineeringDr. David L. Silverstein P.E., University of Kentucky David L. Silverstein is a Professor of Chemical Engineering at the University of Kentucky. He is also the Director of the College of Engineering’s Extended Campus Programs in Paducah, Kentucky, where he has taught for
community of learning within the discipline of chemical engineering (ChE) focused onconcept-based instruction. The project plan is to develop and promote the use of a cyber-enabledinfrastructure for conceptual questions, the AIChE Concept Warehouse, which ultimately couldbe used throughout the core ChE curriculum (Material and Energy Balances, Thermodynamics,Transport Phenomena, Kinetics and Reactor Design, and Materials Science). Conceptualquestions, both as Concept Inventories and ConcepTests, will be available through an interactivewebsite maintained through the Education Division of the American Institute of ChemicalEngineers (AIChE), the discipline’s major professional society. The overall objective is to lowerthe activation barrier for using
4.0, regional workforce development, and gender disparities in the engineering fields. © American Society for Engineering Education, 2022 Powered by www.slayte.com Innovative University-Based Regional Workforce Development ExperienceAbstractStemming from requests from regional industrial employers primarily in the manufacturing field,an innovative, state-funded workforce development summer camp and related dual-enrollmentcourse was developed at Austin Peay State University. The focus of the camp and course was toprepare students in their junior and senior years of secondary education for entry-levelemployment in regional
suggested in terms of staff upgrading, curriculum modifications,upgrading of physical and administrative facilities by highlighting thespecificity of the newly-introduced Philippine-oriented accreditation 11 11system for Philippine engineering universities. This upgrading problemis very serious and complex due to the fact that tertiary education isoverwhelmingly in the control of profit-oriented private establishmentsthat resist any governmental attempts to investigate or control theiroperations. · TECHNOLOGICAL EDUCATION APPROPRIATE TO A DEVELOPING COUNTRYThe Republic of the Philippines is presently in the process of transitionfrom a purely backward agrarian economy to a more
Developing an Innovative Mobile and Wireless Networks Course Hetal Jasani Assistant Professor School of Technology Michigan Technological UniversityAbstractAll over the world, mobile and wireless courses become increasingly popular in colleges(including community colleges) and universities. This paper discusses about developing theinnovative course of mobile and wireless networks using laboratory activities. It elaboratesinnovative projects that are suitable for laboratory work in network engineering (includingtechnology) curriculum. It explores both hardware and software components that are
needs ofcommunities. As the demands on civil engineering continue to evolve, the workforce needs abroader set of skills to keep pace. Undergraduate education is an important component of thistraining process. Although learning can happen both inside and outside the classroom, thehistorically technical focus of the curriculum puts additional impetus on out-of-class activitiesto foster professional skill development. This project, supported by a National ScienceFoundation (NSF) CAREER award, employed a mixed methods approach to explore out-of-class engagement of engineering students including their decisions to participate (or not), typesof activities, barriers, and incentives. This research was designed to understand how co-curricular
Paper ID #26269Developing Reliable Lab Rubrics Using Only Two ColumnsProf. Joshua A. Enszer, University of Delaware Dr. Joshua Enszer is an associate professor in Chemical and Biomolecular Engineering at the University of Delaware. He has taught core and elective courses across the curriculum, from introduction to engineering science and material and energy balances to process control, capstone design, and mathematical modeling of chemical and environmental systems. His research interests include technology and learning in various incarnations: electronic portfolios as a means for assessment and professional development
Illinois for purchase of instruments and construction ofa dedicated laboratory, a course has been developed with the goal of involvingundergraduate students in significant laboratory and field experience and having themrelate that experience to design applications.This course, which is a permanent addition to the Civil and Environmental Engineering(CEE) curriculum, is a hands-on laboratory course in which students are involved inacquisition of data necessary for the development of environmental programs, design oftreatment systems, and evaluation of compliance with regulatory requirements. Thestudents work with the analytical procedures that are used to generate the data used byprofessionals before they enter the work force. The benefits to the
Engineering department, Alabama A&M University, ASEE Paper, Session 1566, 2000 ASEE Annual Conference and exposition, St. Louis, Missouri.. 4. Development of Engineering Competencies in Freshman Courses. Ruben Rojas-Oviedo, Z.T. Deng, Amir Mobasher, A. Jalloh, Mechanical Engineering department, Alabama A&M University, ASEE Paper, Session 1566, 2000 ASEE Annual Conference and exposition, St. Louis, Missouri. 5. Synthesis of Engineering Best Practices and ABET AC2K into a New Mechanical Engineering Curriculum. Ruben Rojas-Oviedo, Z.T. Deng, Amir Mobasher, A. Jalloh, Mechanical Engineering department, Alabama A&M University, ASEE Paper, Session 2266, 2000 ASEE Annual Conference and
institutions and numerous disciplines, including Agricultural and BiosystemsEngineering, Chemical Engineering, Plant and Soil Sciences, Agricultural Economics, GrainScience, Microbiology, Education, and Agricultural Communications. In addition to monthlyconference calls, four face-to-face meetings of all faculty involved in program development havebeen held. Each of the four partner schools held a meeting on their campus, which includedfaculty professional development and tours of bioenergy program facilities and initiatives. Thefirst and second meetings focused on curriculum planning and course development and the thirdand fourth meetings focused on program implementation. One additional face-to-face meeting isplanned before the expiration of the
learned into revisions of first drafts. Themost student-appreciated aspect of this pedagogy was the division of a full scale formallaboratory report into smaller, more focused writing assignments.BackgroundThe significance of a student’s ability to communicate technical information is manifested by itsinclusion as an ABET required student outcome, namely, an ability to apply written, oral, andgraphical communication in both technical and non-technical environments 3. The ABETgeneral criteria has been used by this University’s curriculum committees to develop programspecific student outcomes. The general criteria and student outcomes are mapped to individualcourses in the Associate and Baccalaureate Engineering Technology Programs. In this manner
visited amanufacturing company and group members reported orally to the class about the companyorganization, processes, marketing, etc. While they responded positively to studying thecompanies, they did not all respond positively to working in groups. In fact some of the moreextreme resistance problems led me to propose that a curriculum development change be funded Page 5.375.2through the Women in the Curriculum (WIC) program at the University. The purpose of theproposed change was to improve students’ skills in dealing with diversity through teamworkdevelopment activities.The syllabus of MET 270 was discussed at our departmental Industrial
the final cost and the $200 allowance was covered byvarious donations either in kind or monetary.ConclusionsBoth projects will be integrated into the curriculum for the Applied Fluid Mechanics coursecommencing in the fall semester of 2024. A subsequent paper will analyze the influence of theseinternally developed laboratory tools on the Mechanical Engineering Technology (MET)curriculum, along with the evaluations linked to each upcoming laboratory experiment.In conclusion, the development and integration of in-house laboratory demonstration units haveproven to be essential in enhancing our engineering technology students' content knowledge,fostering curiosity, creativity, promoting effective teamwork and collaboration while creatingvalue for
commandnot only the theory relevant to his or her area of engineering, but also the skills and attitudesnecessary for the successful elevation of theory to practice. At Queen’s University, the Faculty has embarked on a major curriculum reform designed toimprove the professional skills of our graduates. These include communication skills in a widevariety of situations, team skills, design skills, and lifelong learning skills. And while continuing toeducate people in particular disciplines, we intend to make all engineering students more aware ofthe expertise of engineers in other disciplines. A second objective is to develop ethical standards, environmental and cultural awareness, and asense of social responsibility, all of which we think