Outstanding Scholar Award from Cal Poly with a cash prize of $1500, along with three other teaching and research cash awards plus student council recognition for outstanding service. He has been chair of the aerospace engineering department at Cal Poly (2001-2004), the associate dean of AFIT (1988-1989), and chair of the electrical engineering dept. at AFIT (1986-1987). He is an associate fellow of the American Institute of Aeronautics and Astronautics (AIAA) and a senior member of the IEEE. Dr. Biezad has authored a book published in 1999 in the AIAA Education Series titled Integrated Navigation and Guidance Systems, along with 70 technical articles, book chapters on systems identification, three magazine articles, and
and more recently by professionalassociations and individual organization criteria. The paper “Six Sigma: Does it belong in theManufacturing Curriculum?” discusses this issue in more detail.2 Dr. Mikel J. Harry,(http://www.mikeljharry.com) the Co-creator of Six Sigma and the world’s foremost expert onSix Sigma, is a graduate of Ball State University’s Department of Technology. Dr. Harrydonated his Mindpro™ Lean Six Sigma Training Software to Ball State University3 and worked Page 15.665.3with the University to develop Ball State’s Minor in Process Improvement and criteria for LeanSix Sigma Certification2: ≠ Students who complete the Minor
and manufacturing. In subsequent summers, two of thepartner universities will host summer enrichment opportunities in Boston and St. Louis.Throughout the week, the camp participants explored the core competencies of creativity andinnovation through activities and games. In addition, the students studied and implementedvarious methodologies of creative problem solving through teamwork on various problems andproduct development projects/tasks. To further emphasize innovation as it relates to Americanhistory, two of the five days were spent visiting The Henry Ford which includes the Henry FordMuseum, Greenfield Village, a Ford F-150 truck assembly plant, and the Benson Ford ResearchCenter where they participated in a pilot version of the new
University of Maryland (at Mtech, Maryland Technology Enterprise Institute) and at Johns Hop- kins University (at the Center for Leadership Education), where he researched and delivered processes for creative and innovative problem solving. For his unique contributions, he received the prestigious Distin- guished Teacher of the Year Award, the Faculty Talon Award, the University Researcher of the Year AEA Abacus Award, and the President’s Leadership Award. Raviv has published in the areas of vision-based driverless cars, green innovation, and innovative thinking. He is a Co-holder of a Guinness World Record. Raviv received his Ph.D. degree from Case Western Reserve University in 1987 and M.Sc. and B.Sc. degrees from the
Engineering Education Annual Conference & Exposition Page 6.246.1 Copyright 2001, American Society for Engineering EducationI. IntroductionDuring the authors’ extended industrial careers they gained a detailed view of what specific skillsengineers need. Repeatedly they saw that graduate mechanical engineers did not understand howthe most common stock material was manufactured and specified, nor how the productionmethod and specification greatly affected the finished raw material’s strength, appearance,tolerances, availability, etc.. For example, a majority of recent graduates could not even tell thedifference
would probably be a long-term longitudinal study, taking lots of your time, but it would be worth it. In Table 3, it is not clear which method of teaching was used for the 1999 and 2002 classes (deductive and inductive, respectively?).ABSTRACTThis paper presents a method to teach several courses in engineering that will appeal to theinductive learner. A deductive learner prefers to proceed from general to specific, while aninductive learner prefers to proceed from specific to general. Studies have shown that inductionpromotes deeper learning and results in longer retention of the information to students.Induction, in many cases, is also the method in which the original material was discovered! Thisstyle of teaching is
Session 3432 PACE - Project Automation and Collaboration Environment, a Web-based system developed for a Senior Design course in Electrical Engineering Purvesh Thakker, Gary Swenson University of Illinois at Urbana-ChampaignAbstract With the creation of the Internet, the world has standardized a way to share information overcomputer networks. Such a standard will have no less an impact on communication thanstandardizing a verbal or written language. The Project Automation and CollaborationEnvironment (PACE) provides a case study that illustrates these
Paper ID #37566HORIZONTAL PROPULSION USING MODEL ROCKETENGINES (PART B)Huseyin Sarper (Master Lecturer) HUSEYIN SARPER, P.E. is a master lecturer with a joint appointment in the Engineering Fundamentals Division and the Mechanical and Aerospace Engineering Department at Old Dominion University. Earlier, he was a professor of engineering and the graduate program director at Colorado State University – Pueblo between 1988 and 2014. He was also a regional director of Colorado’s NASA Space Grant Consortium. His degrees, all in industrial engineering and operations research, are from the Pennsylvania State University (BS
Engineering and the Department of Sociology for assessment of the Professional Formation of Engineers (PFE). Professor Sepahpour did his undergraduate studies at TCNJ and has advanced degrees from New Jersey Institute of Technology (NJIT). He is the recipient of two (2) Best Paper Awards from the American Society for Engineering Education (ASEE) Divisions of Mechanical Engineering (ME) and Experimentation and Laboratory Oriented Studies (DELOS). He has served as the Chair of the Divisions of ME and DELOS of the ASEE. Prof. Sepahpour is an active member of American Society of Mechanical Engineers (ASME) and ASEE and has published and presented extensively through these societies. © American Society
Paper ID #33652Lessons Learned in a Mixed-mode Teaching ExperienceDr. Jennifer Retherford P.E., University of Tennessee at Knoxville Dr. Retherford is an alumna of the University of Nebraska, Omaha, and received her graduate degrees from Vanderbilt University. She currently teaches a variety of courses supporting the department of Civil & Environmental Engineering at the University of Tennessee. Among many structural engineer- ing courses, Dr. Retherford manages the Senior Design Project course for all undergraduate seniors.Dr. Kristen N. Wyckoff, University of Tennessee at KnoxvilleDr. Sarah J. Mobley, University of Tennessee
Paper ID #25856Work in Progress: Incorporating Microprocessors across the Mechanical En-gineering CurriculumDr. Lawrence Funke, Ohio Northern University Dr. Funke received his PhD in Mechanical Engineering from the University of Notre Dame in 2017. He is currently an assistant professor at Ohio Northern University.Dr. J. Blake Hylton, Ohio Northern University Dr. Hylton is an Assistant Professor of Mechanical Engineering and Coordinator of the First-Year Engi- neering experience for the T.J. Smull College of Engineering at Ohio Northern University. He previously completed his graduate studies in Mechanical Engineering at
Paper ID #18675The Question of Units: Bothersome Details or Keys to Understanding?Dr. Mark Schumack, University of Detroit Mercy Mark Schumack is Professor of Mechanical Engineering at the University of Detroit Mercy, where he teaches courses in heat transfer, thermodynamics, fluid mechanics, and energy systems. His ongoing pedagogical interests include developing ways to teach energy conservation and sustainability principles. His research interests include thermal/fluid modeling using computational techniques, with applications in the automotive, manufacturing, and energy fields. Dr. Schumack earned his BS, MS, and Ph.D
, critical infrastructure management and protection, interdisciplinary engineering education, and risk education.Dr. Julia M. Williams, Rose-Hulman Institute of Technology Dr. Julia M. Williams is Executive Director of the Office of Institutional Research, Planning, and Assess- ment and Professor of English at Rose-Hulman Institute of Technology. Her research areas include tech- nical communication, assessment, accreditation, and the development of change management strategies for faculty and staff. Her articles have appeared in the Journal of Engineering Education, International Journal of Engineering Education, IEEE Transactions on Professional Communication, and Technical Communication Quarterly, among others
Paper ID #11526Teaching software-engineering concepts through industrially used tools earlyin the undergraduate curriculumDr. Temesghen Kahsai , Carnegie Mellon University Dr. Temesghen Kahsai is a research scientist at Carnegie Mellon University Silicon Valley. His research expertise is in the intersection of formal methods and software engineering, with an emphasis on auto- mated reasoning about software systems. He has extensive experience in the development of formal foun- dations and tools for the analysis of complex critical systems. He is currently leading three projects on contract-based verification of flight
distinction between a game and gamification lies in the completeness of the gameexperience: a game is considered a complete gaming experience, whereas gamification willselect appropriate elements of game thinking to utilize. In terms of both games and play, the keyaction is that the tasks are voluntary; if the tasks are required, it ceases to be playful and is moreakin to work3.Since 2010, there has been extensive research into what exactly constitutes effectivegamification of academic courses4-9. These studies have many common game elements to beeffective in the classroom. The first common feature is that gamified classes have a clear goal.In some cases this can be as simple as earning a grade in the course. Next, a series of rules is putin place to
support from the local industries..IV.3. UNDERSTANDING CONTEXTSIn performing the senior design course, understanding contexts is a vital liberal education element.Rather than rush to build the project, students participate in literature research and brainstormingsessions in the first part of the course. This helps the students to consider all aspects of theproject. Feasibility studies help students envision the effect their product will have once it isdesigned and produced.The central focus of the projects is engineering design; so all projects are required to have asignificant component of engineering analysis. Students generally find an industry sponsor to fundand mentor the project. This way, students gain a perspective outside the
rationale behind adopting cybersecurity measures."2. Types of Threats: "Identify and understand the various cybersecurity threats, the risks they carry, and their potential impact on digital safety."3. Web Security: "Discover the importance of securing websites and web applications, focusing on practices that protect user data and prevent unauthorized access."4. Email Security: "Explore mechanisms that protect email content, safeguarding against unauthorized access and various forms of email-centric cyberattacks."5. Safe Online Habits: "Study practices that enhance online safety, emphasizing routine actions and precautions that help maintain a secure digital environment."6. Mobile and IoT Security: "Examine security protocols for mobile
continue to speak with the students, always addressing them by name. Verysoon most begin to realize that I know all of them. Some, however, continue to doubt untilthey come to office hours and are greeted by name or until I happen to call on them duringclass.3 You all know this, right?One hidden difficulty in relating to a large class is the fact that the students often comeinto the class with a significantly different set of ideas and preconceptions than the professorrealizes. Recent research has indicated that this problem is not at all uncommon but, exceptin rare cases, is never explicitly addressed. A telling example comes from a Harvard study[4]. In this study investigators asked graduating seniors two questions which can be
research interests include dynamics and system modeling, geometry modeling, project based engineering design, and robotics in manufacturing, artificial intelligent in Manufacturing, and engineering education. ©American Society for Engineering Education, 2025 Work in Progress: Assessing ABET SO6 through Innovative Labs in Solid Mechanics: A comprehensive guide for Mechanical Engineering InstructorsAbstractDuring ABET Assessment Cycle 2 (Fall 2023-Summer 2024) Department of MechanicalEngineering at Wentworth Institute of Technology (WIT), unanimously included a sophomorecourse, Mechanics of Materials, to be assessed for Student Outcome 6 (SO6) starting from Fall2024 (September-December) semester. To assess this
., London, U.K., 1968). Since 1966, Dr. Fong has been a research engineer with the title of Physicist at the Mathematical and Computational Sciences Division of the National Institute of Standards and Technology (NIST) in Gaithersburg, Maryland. During his long association with NIST, he has published more than 80 technical papers and reports, and edited numerous conference proceedings in the areas of fatigue and fracture mechanics, nondestructive testing, mathematical and statistical modeling of inelastic behavior of materials, and engineering safety and failure analysis. In Jan. 2006, Dr. Fong was appointed Adjunct Visiting Research Professor of Structures and Statistics of the
Paper ID #26821Make to Innovate: Blending of Project-based Learning and Flipped Class-room Pedagogies to Provide Real-world Engineering Experiences to Engi-neering StudentsMr. Matthew Nelson, Iowa State University My background and interests are in RF and embedded systems as it relates to the aerospace engineering field. However, recently I have been doing research and have an interest in engineering education and how we can improve our education to our students. I have a B.S. in Electrical Engineering and a M.S. in Com- puter Engineering both from Iowa State University. I am now working towards my PhD in Engineering
. Roberts University of North Texas Denton, Texas 762034) Study of the Magnetostrictive Effect by John Marshall, University of Southern Maine5) Earthquakes, Materials and an Edible Village: An Educational Experiment for High School Students by Neda Fabris , California State University Los Angeles, Los Angeles CA 900326) Twisty Glue Sticks or Torsional Characteristics of Hot Melt All Purpose Glue Sticks by Alan K. Karplus Department of Mechanical Engineering, Western New England College, Springfield, MA 01119-2684 Page 6.666.1 Experiments in Liquid Crystals: Different States and Devices
and five other courses that runparallel in the curriculum. Dynamics is also the gateway to four courses in Civil Engineering. Inconsequence, students who fail to pass statics or dynamics in their first attempt willautomatically fall behind in their four-year graduation goal unless they retake one of thesecourses during the summer session.Students have to take statics in their second year of college when they still building theirfoundation in math and physics, and dynamics comes right after. There are numerous studiesthat indicate that students have difficulties understanding problems that involve forces andmotion [1]. These difficulties become more evident when there is a broad diversity spectrum inthe student population in the classroom. The
the Shingo Prize and the Department of Business Administration. He holds a Ph.D. degree in Operations Management from Duke University and teaches operations management courses based upon lean principles, and also supports the Shingo Prize by conducting site examinations. He also consults and trains for companies in the areas of lean systems, quality and continuous improvement.Karina Hauser, Utah State University Karina Hauser is an assistant professor in the Business Information Systems department at Utah State University. She received her PhD in Decision Science and Information Technology at the University of Kentucky on a Toyota Fellowship. Her research interests are Lean Manufacturing
Paper ID #18204Integrating Computer Engineering Labs with ”Video Theme”Dr. Pong P. Chu, Cleveland State University Dr. Chu is Associate Professor in the Department of Electrical Engineering and Computer Science. He has taught undergraduate and graduate digital systems and computer architecture courses for more than two decades, and he has received multiple instructional grants from the National Science Foundation and authored six textbooks in this area. c American Society for Engineering Education, 2017 Integrating Computer Engineering Labs with a “Video Theme”1. Introduction A good
A service/technology economyreflects the need for effective interpersonal skills, including civility, when interacting withclients, customers, co-workers and diverse people. According to Human Resource Magazine,“top skills college graduates lack: relationship-building/soft skills.”19 Therefore, for careersuccess, students in engineering and technology will need to be competent, both technically andinterpersonally.1, 183. Civility Promotes Career SuccessIn today’s work environment, effective interpersonal skills are a necessity.18 The era of peoplelearning to behave as machines or competing with machines is ending.18 Civility education canprovide students with the social skills necessary for career success. Examples of how civility
assigned by their instructor for homework and tests.All courses have access to the same online lectures that are QuickTime based. A detaileddiscussion about online lectures and discussion groups is explained later in the paper.III. CD-Based CoursewareAlthough the web site has homework’s, quizzes, tests, syllabus, utilities, and lectures-on-demand, the students still need core theory and examples. For this course, the theory, examplesand simulations are delivered to the student on a CD-ROM that was developed previously by theauthor [3, 4]. The CD-ROM, which is presented in a case study approach, contains all relevanttheory for Statics and Dynamics courses. Each major topic is introduced through the use of atypical engineering problem. Each case is
, to study, and to store their materials. The junior design students also haveaccess to the services of the department machinist and the department electronics technician. Inmost semesters, the students purchase the materials they need at their own expense. There is notextbook required for the course, so they operate under the guideline that each individual studentmay spend an amount on materials during the course not to exceed the cost of an averageengineering textbook (approximately $100). However, a company specified and funded theproject for the fall 2001 semester.The majority of students enter the junior design course with little or no experience using tools,little knowledge of materials, limited construction and assembly skills, and
standardized or even recognized by most faculty. Yet, we will showthat these steps are always there in new original work! Most undergraduate lab work, even usingreal physical experiments, does not show the student this seven step process. Some publishedindustrial procedures use similar but not identical steps.In reality we train undergraduate or graduate students to do original work. The same goes for alaboratory or experimental technician whether at the two year associate level or as a four yeartechnologist. These people are not wanted for repetitive work; they are hired and put to work onsome facet of a project that has original development as an integral part of its content. In orderto illustrate this process to an ECCD audience, I have selected a
labs. Interdisciplinary instruction also addsto the richness of both the ECE and MAE curricula.Another main focus of the lab is that it include visually stimulating physical devices to control. Avery comprehensive undergraduate controls lab has been developed around controllingEducational Control Products Magnetic Levitation systems. Using a single general-purposedevice for all laboratory experiments rather than a plurality of devices (which each have a specialpurpose) results in economies of space, money, and student time (as only one device needs to bethoroughly understood; hence, more time may be devoted to studying how control-systems theoryapplies to it).The laboratory we have built comprises four work centers. Each work center has a