(CFD) simulation of a wind turbine above a forward facing step. Upon completion, he joined the National University of Singapore, where he taught mechanical design related courses. He also started work on enclosed narrow-track electric vehicles and carried out wind tunnel testing and CFD simulations to optimise the aerodynamics of the enclosure. He joined the University of British Columbia – Okanagan campus as an instructor in 2016.Dr. Claire Yan P.Eng., University of British Columbia, Okanagan Dr. Claire Y. Yan is a tenured senior instructor (Professor of Teaching Stream) in the School of Engi- neering, Faculty of Applied Science, University of British Columbia. She received her B.Sc. and M.Sc. degrees from Xi’an
, teaching activities, and related pursuits include advanced electric power and energy generation, transmis- sion, and distribution system technologies; power electronics and control technologies (FACTS, HVDC, and MVDC systems); renewable energy systems and integration; smart grid technologies and applica- tions; and energy storage. Dr. Reed has over 27 years of combined industry and academic experience in the electric power and energy sector, including engineering, research & development, and executive man- agement positions throughout his career with the Consolidated Edison of New York, ABB Inc., Mitsubishi Electric Corp., and DNV-KEMA. He is an active member of the IEEE Power & Energy Society and the American
Vexor First Robotics, thus reducing the time commitment for students.During the 2021/22 academic year, the combined engineering outreach activities were attendedby over 900 individuals. In addition, this provided opportunities for approximately 60 ECSstudents to volunteer and mentor in some capacity.Engineering Education ResearchThe results and observations are based on a quantitative survey and student comments eitherverbal or written provided in a variety of contexts. The survey was designed to evaluate studentgrowth and changes in attitudes from the fall of each year to the spring of the same academicyear as an integral part of the latest S-STEM award. Each semester the survey is sent to anaverage of 480 ECS students. The fall response rate
AC 2009-551: WHAT NEW FACULTY NEED TO KNOWSusan Murray, Missouri University of Science and Technology Susan L. Murray is an Associate Professor in the Engineering Management and Systems Engineering Department at the Missouri University of Science and Technology. Dr. Murray received her B.S. and Ph.D. in industrial engineering from Texas A&M University. Her M.S. is also in industrial engineering from the University of Texas-Arlington. She is a professional engineer in Texas. Her research and teaching interests include human systems integration, productivity improvement, human performance, ergonomics, and engineering education. Prior to her academic position, she spent seven years working
cars were used. Three channels were needed,and it was discovered that only two frequencies were used for all the toys examined.Attempts to modify the circuits or the control strategy were unsuccessful, and modelairplane components were the next candidates. These required different batteries,and were abandoned at the last instant for an umbilical cord. The students felt thatwould have won the contest, had the operator sufficient experience with the latterfeature. Throughout, students became acutely aware of the need to consider Page 5.689.6manufacturing-fabrication aspects in the integration of the design.Figure 5 Final toy-tank based design
ofimprovement, many upper-division students wished the curriculum was presented in a morehands-on fashion, included more labs to complement the courses, involved more collaboration,and exposed them to more real-world applications of the material covered in class.Both upper- and lower-division students commented on the need to expose people to engineeringearlier in school and in life. Both upper- and lower-division students also commented on the lackof diversity, leaving comments such as “Engineering, as is, is a profession that attempts to beexclusionary discipline [sic]. An attempt should be made to expose underrepresentedcommunities to engineering on a personal level and portray engineering as less of a difficultscience but a fun one
Laboratory Work from Extinction?" Research and Development in Higher Education, vol. 15, pp. 420-425.10. Komerath, N., "Experimental Curriculum in Diagnostics and Control of Unsteady Flows", ASEE Journal of Engineering Education, July 1996, pp. 263-268.11. Ertugal, N., "New Era in Engineering Experiments: An Integrated and Interactive Teaching/Learning Approach, and Real-Time Visualization." International Journal of Engineering Education, vol. 14, 1998, pp. 344-355.12. Livshitz, V. and Sandler, B., "Teaching Mechatronics in a Mechanical Engineering Department", European Journal of Engineering Education, vol. 23, 1998, pp. 353-364.13. Magin, D. and Kanapathipillai, S., "Engineering Students' Understanding the Role of
and IT occupations will“grow 13% from 2020 to 2030, faster than the average for all occupations” and add up to667,000 jobs [2]. Further, a CNBC survey reported that 57% of tech executives say “findingqualified employees is the biggest concern for their company.” That concern ranked higher thansupply chain issues and cybersecurity threats. [3] Clearly, there is a booming need for skilled ITworkers, driven in part by the fact that, as IT executive Josh Prewitt says, “companies need ITbrainpower everywhere.” [4] The IT worker is no longer part of a siloed team working in a darkserver room of a technology company; they are integral to all aspects of every kind of business.To help address this worker shortage and help better align curriculum with
software, there comes a perplexing problem. How does one balance the teaching of the basic concepts of a discipline and also teach complex software? If you concentrate on the software, students may become proficient but dangerous software users. They will not know its proper applications or the reasonableness of their solutions. If you concentrate on basic concepts at the expense of the software, students are not being exposed to the most efficient and effective tools of the respective discipline. The author teaches courses in Engineering Graphics in which Computer Aided Design (CAD) software is an essential and integral component of the discipline at the entry through advanced levels. But CAD software can be overwhelming to the student
developed and taught for the first time inour SE curriculum during the Winter Quarter 2000-2001 [8]. The students are first introduced tothe importance of requirements in SE-283 (Introduction to Software Verification), and SE-280(Software Engineering Process). The concepts of RE learnt in SE-3821 are reinforced in SE-380(Principles of Software Architecture) and the process is scaled up for the students in their three-quarter experience of “Software Development Laboratory”[5], where the students work on large-scale projects in a “real-world” setting.2. Curricular contextThe academic schedule at MSOE is based on a quarter system with three quarters in an academicyear. Each quarter involves ten weeks of instruction with the eleventh week devoted to
USB-6009 multifunction DAQ were chosen as astarting platform given the graphical programming environment, readily available tutorials, andintegration with the hardware. Students were shown demonstrations involving simplebreadboard circuits before the students worked in small groups to replicate and extend theLabVIEW code and breadboard wiring to include both measurements and control circuits. Aftercompleting the breadboard exercises with LabVIEW and the USB DAQ, students wereintroduced to the Arduino 1.0 Integrated Development Environment (IDE) and an Arduino Unomicrocontroller. As a high level programming language, students viewed the Arduino sketchesas easy to follow given a limited introduction in lecture and access to the Arduino website
aquestionnaire. The key results of the teacher focus groups were: • Instrumentalist approach to study and module choices. • High demand for accountability in marking schedules. • Studying to a perceived “expected answer”. • Confirmation that NCEA had resulted in a more modular (i.e. less integrated) approach to learning. • Identification that the new NCEA Physics Curriculum places less reliance on mathematical ability. It was now not possible to achieve a pass in an NCEA module without being able to adequately answer “explain” type questions. This represents a major departure from previous curricular practice.Predictors of SuccessThe key factors that lead to success in this course were investigated by
DesignThe core curriculum design for cloud computing leveraged the existing pathway for an associatedegree in computer networking, and partially pulled courses from the design of the bachelor’s ininformation systems technology degree (Figure 3). Figure 3. Integration of new cloud pathways.Using the above-mentioned foundational courses, the three cloud-specific courses added were:Cloud Essentials for the AWS Cloud Practitioner and Cloud Infrastructure and Services for theAWS Solutions Architect certifications. A project-based learning capstone class completed thepathway with industry experiential projects (Table 1). Table 1. Core Course Sequence Guide Courses
[32]; forexample, Clemson University has an ePortfolio program that is used to track student learning asthey progress through their undergraduate degree [44]. Badging is a more recent type ofcredentialing (e.g., Credly) that provides visible proof of participation, such as completingselected parts of the ePortfolio process[45].Promoting Feedback and Assessment ePortfolios can be used to provide both formative and summative assessment to graduatestudents. A “meta-rubric” evaluating integrative learning is one assessment method thatuniversities can adapt to fit their own needs[46]. Formative assessments can be provided via peerreview, which allows fellow graduate students to give feedback and observe elements in otherePortfolios that they
Session 1630 Encouraging Engineering Students to Become Teachers Gary Benenson, James L. Neujahr, Herbert Seignoret, Ed Goldman City College of New York (CCNY)/ CCNY/ CCNY/ Brooklyn Technical High SchoolA great divide exists between the dominance of technology in society and its nearly total eclipseas a topic of general study. Technology as a subject is basically non-existent in elementaryeducation, and reserved largely for specialized students in the secondary grades. Althougheducational reformers and standards writers generally recognize the importance of technology inthe curriculum, progress has been very slow in
failure due to fatigue loading on cracked anduncracked structures, designing to prevent failure, analyzing stress corrosion cracking, andconducting ASTM standard tests. An outline of course topics and laboratory projects is includedin this paper along with detailed highlights of effective course activities. This paperdemonstrates that the topics of fatigue and fracture mechanics fit well with the mechanicalengineering technology (MET) curriculum and the MET student.BACKGROUNDThe course has two primary components: fatigue and fracture mechanics. This section provides abrief description of these two topics.The term fatigue, in the engineering sense, means the mechanical fatigue of materials. Allstructural materials (i.e. metals, timber, concrete
; Mekala, S. (2020). Fostering 21st century skills in the students of engineering in ESL classroom. IUP Journal of Soft Skills, 14(2), 59-69.10. Lee, S., Lee, J., & Ahn, Y. (2019). Sustainable BIM-based construction engineering education curriculum for practice-oriented training. Sustainability, 11(21), 6120.11. Seemakula, M., Liao, G., Ellis, D., 2010, “Closing the Competency Gap in Manufacturing Processes As It Applies To New Engineering Graduates”, ASEE Annual Conference and Exposition.12. Jiang, Z., Caicedo, J. M., & Petrulis, R. (2020, June). An NSF REU Site with Integrated Academia-Industry Research Experience–Development, Implementation, and Lessons Learned. 2020 ASEE Virtual Annual Conference Content Access.13
probability and statistics to engineering students arethe theoretical nature of the topic and the disconnection of the material taught with real-worldengineering problems. Although the engineering curriculum in most cases has been updated andexpanded to incorporate group work and project-based learning, most of the mathematicaloriented courses are still taught in a passive manner.Our goal is to enhance students’ critical thinking by integrating case studies to our introductorycourse in probability and statistics. This is typically a sophomore-level core course in theindustrial engineering curriculum. Students who complete this course, should be able tounderstand the role of uncertainty in engineering models, apply critical probability concepts
process. Thepremise of the study is that as resources increase in number and complexity, and time constraintspressure an overcrowded curriculum, professors are challenged to find new methods to trainstudents in the skills needed for the constantly changing workplace. A creative collaboration isone technique to address this issue.This paper discusses this creative collaboration, and its impact on the design team performance.First, the approach for inclusion of guided research into curriculum is explained thoroughly, andthen the results of the pilot study conducted in selected ED&G 100 course sections. Design teamperformance is measured using: 1) peer evaluations of the design demonstration (25%), and 2) ablind evaluation of the team’s design
for all student groups. By utilizing an equity-based approach, it is Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Educationhoped that these programs can help more directly address the inequities that have led to theunder-representation of women in STEM.The EAST Project program successfully met the required equities based on age, gender,race/ethnicity, socioeconomic status and academic status, but at a cost of approximately$100,000 per school. EAST was implemented as part of the regular school curriculum, offering atechnology lab including hardware, software, technical assistance and appropriate
are discussed. Finally,results of an alumni assessment survey are presented. The goal of the practice-based seniordesign experience at Baylor University is to produce engineering graduates who have the self-confidence and practical knowledge necessary to become immediately productive in today’sproject-oriented workplace. Interpretation of these assessment results supports the conclusionthat this goal has been met.I. IntroductionEngineering design is integrated throughout the curriculum at Baylor University, and meaningfuldesign work is required of students in many courses beginning with the introductory freshmancourse and progressing through the senior electives and laboratories. However, EGR 4390Engineering Design II is the capstone design
support the staffing needs of the nanotechnology industry. A new Computer ChipCommercialization Center (Quad-C) on SUNY Polytechnic Institute (SUNY Poly) campus inUtica, is part of the sprouting industry and alone is expected to create approximately 1500 directjobs.The intent of this paper is twofold. On one side it explains the rationale for recent changes to therequirements for the Nanotechnology minor while on the other side it explores the opportunitiesfor the expansion of the nanotechnology education that arise through the integration of SUNYITand CNSE into a single academic entity, SUNY Poly.The College of Engineering through its Engineering Technology Department in Utica hasengaged in a curriculum rejuvenation consisting of the creation of
new curriculum, requires an extensive administrative initiative. Itwould necessitate entering a bureaucratic maze involving obtaining both internal and externalpermissions and approvals which usually take years to complete with no guarantee of finalapproval. Furthermore, budget and funding requirements for such an endeavor makes it veryunrealistic considering the current economic and political conditions of the state, country, andthe world. The second option is less cumbersome and more attractive in lieu of the problemsfaced with the first option. This is the option we have undertaken.Selecting Proper DisciplineThe School of Engineering (SOE) at Morgan State University (MSU) has four degree grantingdepartments; Electrical and Computer
, self-paced learning modules that will assist in solving computational problems, supply background information and data, and help facilitate execution of the projects.· To motivate and educate teachers to use electronic multimedia for curriculum design.III. Recruitment and Selection of FellowsEngineering Fellows are recruited both locally and nationally. As well, science and mathematicseducation senior undergraduate and graduate Fellows are recruited, both locally and nationally.The rationale for including education Fellows is the same rationale for encouraging interactionsbetween science and technology Fellows and K-12 teachers in the NSF Graduate TeachingFellows in K-12 Education Program; integration of those who know how to teach
the Fall 2000 through Fall2001 semesters. Course revisions ensured that the course content was appropriate andthe order of presentation was optimal for student learning. Curriculum modifications arecontinually under evaluation. For example, an on-going initiative is to ensure thatstudents enrolled in Engineering Physics II have passed Differential Equations I or beenrolled as a co-requisite. Students are also encouraged to satisfy College Algebrarequirements before enrolling in General Chemistry.The PVAMU course revision process has resulted in enhanced performance for students.Activities and procedures that have proven valuable to the process are shared with otherinstitutions. Because of our past success, the PVAMU team was requested to give
AC 2007-1702: ENGINEERING EDUCATION AND ELEMENTARYMULTI-SCALE MECHANICSGhodrat Karami, North Dakota State University Dr. Karami is an Associate Professor in the Department of Mechanical Engineering and Applied Mechanics at North Dakota State University.Robert Pieri, North Dakota State University Page 12.625.1© American Society for Engineering Education, 2007 Engineering Education and Elementary Multiscale MechanicsAbstractClassical Mechanics addresses the foundation of engineering education at conventional scales.To include mechanics at smaller scales and especially nanoscience as part of engineeringeducation
Session 2238 Implementing 3-D Modeling for Engineering Freshmen Paul H. Zang, Dale Eddy, Judson Singer Kettering UniversityAbstractKettering University has begun a process of replacing the existing 2-D CAD software(AutoCAD) and replacing it with an integrated set of CAE (SDRC Master Series) and PDMsoftware. The integration of a single source of data for many CAE operations allows the facultyto teach using a powerful set of tools beginning in the freshman year.Solid modeling techniques, which stress the design intent of the model, enhance the skill set offreshman engineers and excites
and cofounded NoPo Nanotechnologies in Bangalore India and NeuroRex in Houston Texas. He is an Assistant Professor of Industrial and Systems Engineering at Lamar University where he teaches online and face-to-face courses including senior design, technology entrepreneurship, and other graduate and undergraduate courses.Dr. James C. Curry, Lamar University Dr. James Curry is an Associate Professor in the Lamar Industrial Engineering department.Dr. Victor Zaloom P.E., Lamar University Dr. Zaloom is currently Interim Chair and Professor of Industrial and Systems Engineering at Lamar University . He has previously served as Interim Dean of the College of Graduate Studies, Interim Dean of the College of Engineering, and
support and minimal risk;• Including members of the K-12 community, education and learning science community, as well as industry on department and college curriculum committees; and• Integrating the design experience vertically by including K-12, freshmen, sophomores, juniors, and graduate students in engineering design projects; among others.However, one particular solution for engineering recruitment and retention is to train teachers inSTEM areas so that they can intercede while students are still young. Many universities conductsummer programs for middle and high school students; however, little has been done to train K-12 teachers. This paper documents the efforts to increase STEM awareness of pre-serviceteachers through a one-week
, mechanismdesign, and microcontroller programming in the context of robot design, and 3) motivate them toadopt a STEM career and become scientifically literate citizens. These goals are rooted in effectiveSTEM education, which seeks to build a cognitive and skill-based framework for students’ learn-ing. However, how to build an effective STEM education model and associated curriculum is stillan open topic. Widya et al. [16] have presented three implementations of STEM Education modelsas “SILO”, “Embedded,” and “Integrated”. In the SILO model, each subject is isolated, and theteacher leads the classroom to teach rather than to help students learn by doing. The Embeddedmodel is based on real-world problems and applications; however, students may not be able