information assurance and security in domains such as embedded real time avionics/vehicular, energy delivery systems, supply chain, cryptographic key mgmt. He received the Sigma Xi research and UT- Battelle key contributor and significant event awards and is an IEEE/ACM Sr. Member. He has degrees from the University of Minnesota and Texas at Arlington. American c Society for Engineering Education, 2021 Computer Science Technology – Cybersecurity OptionWith the growing interest in cybersecurity and lack of institutions with a degree program in thediscipline in our region; designing, promoting and implementing a degree program in aninstitution that traditionally
students have already submitted their workto earn the Explorer badge in fall 2018. Figure 3. Case study database and competency badges.Furthermore, students that take MET 451 or the senior design course, graduate with additionalknowledge and understanding of applying technical standards to practical, industry driven Proceedings of the 2019 Conference for Industry and Education Collaboration Copyright ©2019, American Society for Engineering Education Session ETD 355projects. Students have a series of presentations and well documented projects that will highlighttheir use of technical standards to
Page 12.1154.2 Safety management Communication skills Ethical decision making Team skills Professional development and responsibility Career planningAlthough these are covered in many other courses in the curriculum, the engineeringManagement course provides an important aspect of the education in each vital area thatcould not be slighted in coverage.Coverage, however, did not require use of lecture, written assignment, and exams. Infact, more memorable mechanisms would be preferred. It was determined that acombination of pedagogical techniques could be used to advantage and a syllabusconstructed that relied heavily on: Class discussion Case studies Independent and group research and
least six of the ninestudents were engineering graduates with Bachelor of Science degrees and the remainingstudents were bright undergraduates whose related coursework included multiplefunctional modeling applications and experiences.Previous research by the authors showed that historical relationships could be foundbetween common electro-mechanical components and their associated functions12. Adesign tool, termed component functional templates, was developed to assist thefunctional modeling process. The templates are a simplified connection to the physicalcomponents with which they are familiar. The idea behind the templates is that theyprovide novice functional modelers function definition to common components. Thisshould help the students to
Associate Professor of Technology and Construction Management at Missouri State University. He earned his B.S. degree (Physics, 1981) from University of Maryland Baltimore County, M.S. (Materials Science & Engineering, 1984) from the Johns Hopkins University, and Ph. D. (Materials Science & Engineering, 1987) from the Johns Hopkins University. Dr. Jones is currently teaching at Mis- souri State University. His interests are in scanner technology, nondestructive evaluation, manufacturing processes, and quality assurance. c American Society for Engineering Education, 2017 Incorporating Engineering Design Content in an Engineering Technology CurriculumAbstractThis study presents a series of
, ”Introduction to Entrepreneurship” and ”The Entrepreneur Experience.” Previously, he worked as a New Venture Manager with the University of Akron Research Foundation, where he focused on technology commercialization and due diligence, co-managing the University of Akron’s National Science Foundation I-Corps Sites program, and managing deal flow for the ARCHAngels Investor Network. Mr. Hampu has a B.A. in Business Administration – Marketing from Mount Union College and a J.D. in Law and M.B.A. in Finance from the University of Akron. c American Society for Engineering Education, 2019 The Toy Box Project: Connecting First-Year Engineering Students with
Paper ID #14208An Elective Mathematics Readiness Initiative for STEM StudentsDr. Janet Callahan, Boise State University Janet Callahan is the Founding Associate Dean for the College of Engineering at Boise State University and a Professor in the Materials Science and Engineering Department. Dr. Callahan received her Ph.D. in Materials Science, her M.S. in Metallurgy and her B.S. in Chemical Engineering from the University of Connecticut. Her educational research interests include freshmen engineering programs, math success, K-12 STEM curriculum and accreditation, and retention and recruitment of STEM majors.Ms. Judith A
ensure that the experimental facilities are adequate enough to test andverify basic concepts so that the learning experience for the student leads to a good foundation 1on which to build a successful engineering career. There are many areas of engineering to whichthe student is introduced in the engineering technology curriculum, each of which requiresunique experimental facilities to reinforce theoretical concepts. These facilities range fromsimple to very complex and are proportionately expensive to provide. For example, inaerodynamics there is typically a mismatch between the engineering problems introduced in theclass room and the ability to study them in a hands-on type of setting because the
2006-1966: NAIT OR ABET? HOW DIFFERENT IS DIFFERENT?Rasha Morsi, Norfolk State University RASHA MORSI is an Assistant professor in the Department of Engineering at Norfolk State University. She has a B.Eng. degree from King’s College, University of London (1991), an M.E. in Computer Engineering (1996), and a Ph.D. in Electrical and Computer Engineering (2002) from Old Dominion University. Her research interests include Digital Cellular Mobile Communication Networks and Protocols, Object Oriented Modeling and Simulation, and Technology Based Engineering Education.Wael Ibrahim, ECPI College of Technology Wael Ibrahim, is the Associate Dean for Computer Electronics Technology at ECPI College
engineers and engineering educators that fundamental knowledge ofscience and mathematics, and the creative application of this knowledge in the design of systems,components and/or processes are two essential elements of the engineering profession. Engineersmust have the ability to solve technical problems, master scientific knowledge, be creative, andapply the proper judgement to provide real solutions to real needs. The focus of engineeringeducation is on the acquisition of knowledge through class lectures, personal study, engineeringdesign and lab experimentation. Time constraints and costs associated with laboratories anddesign activity may prove to be challenging and often discouraging. Nonetheless, these factors
AC 2012-5384: INFUSING A SUSTAINABLE GREEN MANUFACTURINGCOURSE INTO MANUFACTURING/MECHANICAL ENGINEERING TECH-NOLOGY PROGRAMDr. Devi K. Kalla, Metropolitan State College of Denver Devi K. Kalla received a Ph.D. in industrial engineering from Wichita State University in 2008. He is currently an Assistant Professor in the Department of Mechanical Engineering Technology at Metro State College of Denver. He has a strong experience on composite manufacturing, machining, and modeling. His research interests include environmentally conscious manufacturing, green manufacturing/sustainable engineering, energy efficient manufacturing processes, and automated design and product development.Prof. Aaron Brown, Metropolitan State
://wac.coloradostate.edu/intro/pop4a.cfm2 “Writing Across the Curriculum and Writing in the Discipline.” http://owl.english.purdue.edu/handouts/WACBiographical InformationDarin Ridgway is an Associate Professor and Assistant Chair of Undergraduate Studies of Chemical Engineering atOhio University. He received his B.S. from Rose-Hulman Institute of Technology, M.S. from Louisiana TechUniversity and Ph.D. from Florida State University. His current research interest is in optimization of fungalfermentations.Valerie L. Young is an Associate Professor and Assistant Chair of Graduate Studies in Chemical Engineering atOhio University. She received her B.S. from Lehigh University and Ph.D. from Virginia Tech University. Hercurrent research interest is in
Association for Industry-EducationCooperation. Jim earned an undergraduate degree from Middle Tennessee State University, a master’sdegree from the University of Tennessee at Knoxville, and a doctorate from the University of NorthCarolina at Chapel Hill.SCOTT CHRISTMAN Scott Christman is a native of Poquoson, Virginia. He attended Newport News ShipbuildingApprentice School, from which he graduated as a pipefitter in 1986. Scott continued his education at OldDominion University and completed his BS degree in engineering technology in 1992. Scott becameinterested in education and training and sought additional education. He completed his second BS degreeand his MS degree in occupational and technical studies in 1994. Scott attended West
WORK EXPERIENCE University of California at Berkeley, College of Engineering, Berkeley, CA, 1993- present Professor of Mechanical Engineering, 1993-present Professor of Bioengineering, 1998-present Director of the Medical Polymer and Biomaterials Group, 1993-present Mechanical Engineering Equity, Diversity, and Inclusion Officer, 2009-present Vice Chair of Undergraduate Studies, Department of Bio- engineering, 2002-2003 Director, Engineering Systems Research Center, College of Engineering, 2003- 2004 Chancellor’s Professor, 2004 2009 Associate Dean for Lifelong Learning and Outreach Education, College of Engineering, 2005-2007 Lawrence Talbot Chaired Professorship in Engineering, 2007-present University of
Ph.D. degree in Engineering from TTU in 1999. From 1999 until 2004 he was employed by Square D Company / Schneider Electric in Nashville, Tennessee, where he served as a senior electrical engineer, then as an engineering manager. He is currently an Associate Professor of Electrical Engineering at Western Kentucky University in Bowling Green. His research in- terests involve computational electromagnetics, application of electromagnetics to the analysis and design of electromechanical devices, and photonics. Page 22.1090.1 c American Society for Engineering Education, 2011
. Itallows for the effective assessment of some design skills and practices in an exam environmentwithout placing undue stress upon the student. The approach involves a short case studyprovided to the students as part of an exam review sheet, the construction of design questionsbased upon the case study, the definition of detailed rubrics to assess the quality of the design,and the administration of the exam in a controlled setting. Student achievement is discussed, aswell as the advantages and disadvantages of this approach to assessing design skills.IntroductionThe teaching of design skills to engineering students is paramount to their success as anengineering professional. ABET outcome C specifically states that graduates of an engineeringprogram
parts and programmed in the high-level NQC language using the Robolab RCX microcontroller module. As the semester proceeds,students tackle an array of interrelated problems that motivate the study of sensor signal process-ing, control, scheduling, and resource sharing. In a final project, the students tackle a distributedintelligence project in which an odometry-equipped robot communicates with a PC-based pro-gram that tracks the robot’s position. To encourage adoption by other electrical engineering andcomputer engineering programs, a detailed description of the required resources and their cost isincluded.IntroductionThere is no doubt that developments in microelectronics and computing technology in the last halfof this century have changed
outcomes. An original expectation of this research wasthat sophomore students would perform at approximately a "2" level across the rubric categories.This would result in a total score of 10. On average, the students in this study had a total scoreof 8.6, slightly lower than anticipated. However, we believe that the use of the scoring rubricprovided a valuable tool for both measuring student performance and stimulating curriculumimprovement.As a result of using the proposed scoring rubric, we found that students who completed thesophomore EPICS course in the spring were performing at a lower level than were their peerswho completed the EPICS course in the fall. This stimulated further investigation and thedetermination that availability of
. Page 5.215.1Kettering University, formerly GMI Engineering & Management Institute, has an eighty-yearhistory of educating exceptionally talented and motivated engineers. Central to its success isKettering’s unique full cooperative education experience. This world-renowned trademark ofKettering University requires all students to alternate 12-week semesters between school andindustry throughout their undergraduate experience. The outcome of this program isengineering graduates that are firmly rooted in the foundations of engineering, and are also wellprepared for innovation and leadership in all aspects of industry.For Kettering University’s mechanical engineering graduates, who have traditionally beenplaced in positions of leadership in
. in 1998, all in mechanical engineering from Michigan StateUniversity.ROBERT W. DAVISRobert W. Davis is currently a senior in the undergraduate, mechanical engineering program at theUniversity of Portland, with an anticipated graduation date of May 2000. Once his degree is conferred, hewill be commissioned as a Second Lieutenant in the United States Air Force, where he will serve as amaintenance officer prior to beginning his engineering endeavors with the Air Force. Cadet Davis intendsto pursue graduate studies in Mechanical Engineering emphasizing in Aerospace Engineering, as well asobtaining as Masters of Business Administration.CRAIG W. SOMERTONCraig W. Somerton is an Associate Professor of Mechanical Engineering at Michigan State
literature fell into the engineering domain andthat each lab type had value while focusing on different learning objectives. The authorsdid acknowledge that no standard criteria to measure the effectiveness of the lab work hasbeen developed. Several other researchers have demonstrated the effectiveness of virtuallabs in the sciences. For example Shin8 and colleagues found virtual labs in chemicalengineering “help students to understand the fundamentals of unit operations…” and hadother learning benefits. The authors note, “It is also expected to contribute to increasingstudents’ adaptability by working in real world process plants after graduating.” Anadditional example is the Virtual ChemLab9 which provides a parallel to this project.The creators
literature fell into the engineering domain andthat each lab type had value while focusing on different learning objectives. The authorsdid acknowledge that no standard criteria to measure the effectiveness of the lab work hasbeen developed. Several other researchers have demonstrated the effectiveness of virtuallabs in the sciences. For example Shin8 and colleagues found virtual labs in chemicalengineering “help students to understand the fundamentals of unit operations…” and hadother learning benefits. The authors note, “It is also expected to contribute to increasingstudents’ adaptability by working in real world process plants after graduating.” Anadditional example is the Virtual ChemLab9 which provides a parallel to this project.The creators
person’s finger.However, fingerprint recognition systems are more accurate than face recognition systems2.These biometric systems rely on the use of efficient algorithms to extract the key informationfrom the input data and to search through large databases potentially considering millions ofmatches. Courses in biometric technology have predominantly been taught at the graduate leveldue to the mathematical background required for research in the area. As part of our NSF CCLIproject3, we have designed a course in Biometric Signal Processing which allows junior andsenior level undergraduate students in Electrical and Computer Engineering (ECE) to explorethese important technologies.Our course, which consists of traditional lectures and hands-on
is a useful paradigm fordeveloping these skills in our students. Furthermore, participation in groups representing adiversity of backgrounds and cultures prepares the engineering graduate to function in the globalarena.Many studies argue that the use of formal cooperative learning groups in engineering courses hasa positive effect on student outcomes. While the literature reports many successes with thisteaching methodology, it is more difficult to find practical strategies for beginning to integratecooperative learning groups in a significant way in courses that have traditionally been taught ina predominantly lecture mode.This paper approaches the adoption of a formal cooperative learning component from a practicalperspective. The first
AC 2010-544: WOMEN AND LEADERSHIP: PREPARING (FEMALE) STUDENTSFOR THE LEADERSHIP CHALLENGERalph Ocon, Purdue University CalumetOpal McFarlane, Purdue University Calumet Page 15.1378.1© American Society for Engineering Education, 2010 Women and Leadership: Preparing (Women) Students For the Leadership ChallengeAbstractThe workplace can provide many career opportunities and challenges for graduatingstudents. While pursuing their careers, many engineering and technology students willperform roles that are outside their principal academic field of study. In addition tohaving to deal with career issues related to global competition and technological
Paper ID #7955Systems Engineering Educators WorkshopDr. Valerie Maier-Speredelozzi, University of Rhode Island Valerie Maier-Speredelozzi is an Associate Professor in the Department of Mechanical, Industrial and Systems Engineering at the University of Rhode Island. Her interests include lean manufacturing, health- care, and transportation systems.Ms. Colleen Grinham Colleen Grinham is a graduate student in civil and environmental engineering at the University of Rhode Island. Her interests include renewable energy resources for developing countries.Dr. manbir sodhi, University of Rhode Island
considered for the design of appropriate KLAs in online labs.B. Online IoT development course The graduate level course in Wireless Sensor Networks (WSN) development, conducted at Coventry University, UK, aims to equip students with the skill set to develop and deploy large-scale, intelligent WSN. The course combines lectures in fundamental and applied aspects of WSN with in-person labs that include KLAs to set up Linux-based environments and program embedded devices such as TelosB motes. The course provides the students a unique opportunity to gain a solid understanding and experience in WSN development through hands-on experimentation and anchor their research in this field. Upon successful completion of the course, the students are
Paper ID #49667Cultivating Future Water Scientists in the Texas Panhandle: A STEM EducationProgramMr. Sandipon Chowdhury, West Texas A&M University Graduate research assistant at the College of Engineering at West Texas A&M University.Dr. Swastika Bithi, West Texas A&M University Assistant Professor of Engineering College of Engineering West Texas A&M University ©American Society for Engineering Education, 2025 1 Cultivating Future Water Scientists in the Texas Panhandle: A STEM Education Program Sandipon
instructor’s choice,Python/MicroPython as well as other open-source tools such as Arduino may be taught in a highereducation institution as an additional and/or alternative implementation of microcontrollerapplications.The author has taught Python-based programming in his graduate-level advanced embedded systemcourses over semesters. In his graduate-level course, students learned about C/C++, Assembly, andPython programming. The majority of programming lessons were based on Python. In Spring 2025,the author updated his undergraduate-level embedded systems course materials by the inclusion of theMicro-Python discussed in this paper. The further impact on the students due to the addition of theMicro-Python topics will be monitored and studied
faculty. Second, once these examples of artificialintelligence become widespread, their use will continue. And third, faculty will need to adjust. It hasbeen clear to the Engineering Education community for some time that our students’ learningoutcomes are better when we teach using research-based methods that have evolved beyond the1950s-versions of our classrooms. Just as the hand-held calculator in the 80s, the internet in the 90s,and cell phones in the 2000s changed the way engineering educators instructed and assessed, sotoday’s technology enhancers (some might say disruptors) require us to adapt. In this paper we willbriefly discuss the current state of AI in engineering classrooms and then discuss what we think canbe done to future-proof