other fields such as business, medical science, and military-related programs, strive to develop applications to exploit the advantages of simulations.However, construction engineering and management programs have been less prone to adoptingsimulations in their curricula. So far, only a few instances of simulation application have beendeveloped and tested in construction programs, therefore there is a need to fill this gap. Thispaper explores the outcomes of a simulation application as a project-based pedagogical model,and investigates how construction project management concepts can be perceived byconstruction management students. Transformation of traditional subject-based lectures ofconstruction project management to project-based, virtual
that has a similar goal; this project utilizes afour bar mechanism to investigate planar rigid body mechanics (Jolley, et al., 2003). Page 9.1203.2 Proceedings of the 2004 American Society for Engineering Annual Conference and Exposition Copyright © 2004, American Society for Engineering EducationMethodsThe project that was given to the students is provided in the Appendix. The handout outlines ouroverall approach: (1) assign related homework problems to secure a foundational knowledge andunderstanding of the governing equations and parameters affecting the problem, (2) design andbuild the car with an emphasis on
traditional case study in which problem parameters vary from one student toanother. This ameliorates the problem of inappropriate student interactions, since each studentworks on a different problem. This advantage accrues at the cost of an additional burden on theinstructor who evaluates the students’ work. This paper reports on research that was performed toinvestigate the feasibility of having the microcomputer - the platform used to deliver the case studyto students - also serve to generate base-line solutions to the multitude of problems that result.1. IntroductionThis paper is organized as follows. The next section relates the student outcomes attendingtraditional case studies to those specified in Engineering Criteria 2000. Section 3 provides
stiffness is predicted, and they are mechanically tested for stiffness. A number ofparameters are discussed and used, such as geometry and volume fraction. However, the effectand importance of these parameters on mechanical behavior can be hard to grasp. Hand analysisis cumbersome, and may not be friendly to relational analysis.Modeling can address these issues by allowing the student to readily change material anddimensional parameters to observe their consequences on mechanical behavior. This approachhas been successfully used in other MET Program courses such Mechanics of Materials andTechnical Dynamics. Examples include the effect of length on the moment of a cantilever beamand the effect of various beam shapes on mechanical behavior.This study
impact of globalization.Teaching issues like cultural diversity to technical students can be a hard sell. It is not enough tosay that ABET requires it or that “Engineer 2020” desires it. We can provide lists of reasons whycertain organizations and task forces have come to see cultural understanding as an essential partof technical education. Still many technical students remain skeptical about the need to studytopics not directly related to their specializations in technology. The authors propose that thiskind of skepticism can be allayed in a classroom situation if students can be guided, through casestudies, to comprehend the connection between innovation and cultural understanding in a globaleconomy. There are two case studies, of dissimilar
such as design workinvolve the aspect of creativity. But, a lot of engineering has to do with the math applicationthereof through engineering science and analysis courses. There is a very heavy focus on theprimary course work in teaching students how to do math and analysis to make sure what theybuild is safe, but a lack of courses that encourage the creativity of students in their work.Creativity in this aspect could be in the design itself, the flexibility allowed, or other ways tosolve a problem. In pursuit of this issue, the question gets brought up in how does the schoolsystem prepare for and promote creativity in early schooling?Colloquially (and euphemistically), undergraduate engineering programs "beat” the creativity outof students
Paper ID #15968Using a Delphi Approach to Develop Rubric CriteriaGayle Lesmond, University of Toronto Gayle Lesmond is a Research Assistant in the Department of Mechanical and Industrial Engineering at the University of Toronto. Her area of specialization is rubric development and testing.Nikita Dawe, University of Toronto Nikita is a M.A.Sc. candidate in the Department of Mechanical and Industrial Engineering at the Univer- sity of Toronto. She is completing the Collaborative Program in Engineering Education.Ms. Lisa Romkey, University of Toronto Lisa Romkey serves as an Associate Professor, Teaching Stream with the
. The CPU usage percentage dropped from 100% to almost 0%. Every VI was added with a timer and tested to see the CPU usage that each VI loop produced. Table '1' shows the result of our testing. Page 10.775.7 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering Education Table 1: System Results with Timers1 After every VI loop was added with timers and tested, the entire program was tested to see if improvements were made. The CPU usage dropped drastically from 100% to 14-57
a co-inventor on 3 US patents related to control systems. Dr. McLauchlan is a member of ASEE and was the 2012-2014 Chair of the Ocean and Marine Engineering Division. He is also a member of IEEE (senior member), SPIE, Eta Kappa Nu, ACES and Tau Beta Pi, and has served on the IEEE Corpus Christi Section Board in various capacities such as Chair, Vice Chair, Secretary and Membership Development Officer. Dr. McLauchlan has received the Dean’s Distinguished Service Award twice and the Dean’s Outstanding Teaching Award once for the College of Engineering at Texas A&M University-Kingsville.David Hicks David Hicks is an Associate Professor in the Electrical Engineering and Computer Science Department at Texas A&M
forsaking their jobs andreturning to school on a full-time basis10. These Executive Degree programs proved to be highlysuccessful and they proliferated in many urban campuses across the US. Today, just about everyBusiness School has an Executive MBA program that utilizes short intensive periods of on-campus instruction, typically 3-4 weeks a year, combined with correspondence work. Otherschools and programs especially in the field of Physical Sciences (e.g. Nursing, Rehabilitation,etc.) soon followed suit.Schools of Engineering and Technology have been slower to give up the “thinking within a box”and adopt the more flexible formats of teaching and learning11. While this is understandablewith regard to the time-constrained courses, surprisingly it
. By letting students determine forthemselves how processing conditions affect material behavior, Material World will enable themto use scientific inquiry as an integral part of the learning process. This paper describes theconcept, technological hurdles, and implementation plan for Material World within the contextof other state-of-the-art courseware being delivered on the Internet.2. INTRODUCTION2.1. Laboratory ExperiencesVirtually all U.S. degree programs in Mechanical Engineering include a course on EngineeringMaterials. These courses often include hands-on laboratory experiments (e.g., the University ofSouth Carolina’s EMCH 371). There is no substitute for the knowledge students can gain byphysically touching the materials and
explore. For this paper, researchers present findings from theanalysis of the final cohort(s) of the original pilot program with an emphasis on characteristics ofinterest, as well as an exploration of the factors involved in place-attachment for alumni.IntroductionThe Bowman Creek Educational Ecosystem (BCE2) in South Bend, Indiana is a community-university, cross-institutional partnership [1] developed with a multiplicity of outcome aims – toattract and retain underrepresented groups in engineering and science; to improve the quality oflow-income neighborhoods; and to build STEM literacy across the regional workforce. Corepartners in the BCE2 pilot have involved a diversity of higher education institutions (Ivy Techcommunity college, Indiana
2022 ASEE Southeast Section Conference Data Acquisition for Collegiate Hybrid and Solid Rocketry - An Undergraduate Research ExperienceAbstract Involving undergraduate students in engineering research provides an opportunity and anavenue to gain in-depth and hands-on experiential learning with topics related to their major.Students involved learn about contributions to the field they study through research andunderstand the value of meaningful contributions, specifically experimentation and hardwaredevelopment. Working with a research advisor provides students with mentoring, teamwork, andinteraction with peers and graduate students. Research experience for undergraduate studentsprovides a unique
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
dynamics) or are heavily based in engineering design. c American Society for Engineering Education, 2019 Design for Community using Problem-Based Learning: Perspectives from Professors, Students and Community PartnersAbstractSanta Clara University has a commitment to educating students of competence, conscience, andcompassion. To support this goal of producing technically-proficient, empathetic graduates,engineering education has a need for more real world, hands-on, and team-based problemsolving. This paper aims to showcase a collaboration between an engineering course,Community-Based Engineering Design (CBED), and Bronco Urban Gardens (BUG), a FoodJustice Outreach Program, which has successfully
easy to achieve). The famous CIH virus mentioned above was due to an out ofcontrol computer virus.3. Engineering Courses (in the curriculum) With Security ModulesSeveral engineering courses are natural candidates of covering security as discussed so far: Page 11.1109.5Operating system course with security topics like viruses, buffer overflow, access control;computer network courses with security topics like encryption, authentication, attack on certainprotocols, and programming courses where programs on security can be given to let the studentswrite compute programs doing security. These courses with enhanced security components willform in
Engineering Learningsupport system. Let us look at each of these classes of variables in turn in more detail tosee how they need to be specified to teach topics in Basic Electrical Engineering andElectrotechnology education.I - MANAGING GOALSIn the case of the industrial electrical engineering curricula the general areas and thetopics are clearly set out in the standard texts. The sequence of topics in POWERGUIDEis largely determined by the logical structure of the subject matter, basic concepts andcomponents are used to build more complex and inter-related systems and their Page 6.370.4characteristics are combined to yield the composite system dynamics
Calculus. -Let's convert our potential energy to kinetic energy. -Wanna come back to my room and see my 166mhz Pentium? -How about you and I go back to my place and form a covalent bond? -You and I would add up better than a Riemann sum. -You're sweeter than glucose. -We're as compatible as two similar Power Macintoshes. -Wanna see the programs in my HP-48GX? -Your body has the nicest arc length I've ever seen. -You're hotter than a bunsen burner set to full power! -My love for you is like a concave up function because it is always increasing.---------------------------------------------------------------------- Real Engineers consider themselves well dressed if their socks match. Real Engineers buy their
].We previously reported on 1) the ExSJ framework, 2) the infrastructure, mechanisms, andactivities we are using to apply this framework, and 3) the challenges and complexities we arefacing as we apply it [13]. At its core, the framework is meant to support the connection betweenengineering and social justice, and it operationalizes this effort through multiple mechanisms thatfit within the university context. For example, the ExSJ, “provides a system wherebycommunities are encouraged and supported to submit project ideas, which are developed andchanneled through a panel of professionals and academics to create suitable projects for studentsin a wide variety of programs inside engineering disciplines and across campus” [14]. One suchmechanism
-regulated learning in engineering education: exploring effects through Structural Equation ModelingAbstractA long tradition of studies in both psychology and sociology has shown that social ties havepositive effects on mental well-being of both the population in general and in educationalcontexts in particular. Specifically, researchers argue that mental well-being is systematicallyrelated to students' academic self-regulation. However, it is not clear how these three constructsare related, and what direct and indirect effects may exist from social ties to academic self-regulation. In the context of engineering education, this question is especially relevant becausethe literature has documented gaps in the formation of ties of minority social
Electric Energy Round Table, a multi-sector group that works on technical and policy alternatives for the future of Puerto Rico’s electric system, acting as the Group Coordinator from 2008 to 2010. He is a Senior Member of IEEE, an ABET Program Evaluator and a registered Professional Engineer. His views and work on integrative research and education activities, and his professional service have earned O’Neill-Carrillo UPRM’s Outstanding ECE Professor of the Year Award (twice), the Distinguished Elec- trical Engineer of the Year Award from the CIAPR in May 2004, an Early Promotion to Full Professor from UPRM in Nov. 2004, and the IEEE/PES Walter Fee Outstanding Young Engineer Award in June 2005.Prof. Miriam del Rosario
temperature experimentation with a 155-mm artillery tube and avariety of artillery projectiles. This research was performed by the faculty and students in the Department of Civiland Mechanical Engineering, United States Military Academy, West Point, New York. INTRODUCTION The mechanical engineering faculty at West Point has long recognized the value of integrating design,computer, and laboratory experience into the undergraduate engineering science courses *. More recently, thefaculty have developed creative methods of integrating basic engineering research into the program. Oneparticularly interesting example is the integration of research involving a 155-mm artillery tube into thedepartment’s
are adequate for some learners to grasp the operation, but manystudents need more. By animating the operation of a simple 8-bit microcontroller throughout the execution ofa program, it is believed that the more visually oriented and mechanically minded students can be helped tosee the big picture. Development of software to graphically animate this operation is currently under way.This paper attempts to justify the need of this method of instruction as well as describe the current progresstoward the intended end. Background Try to recall a subject that you learned in school that involved a complicated sequence of operations, Asan example this author recalls eighth grade shop class and the
decision support system has been developed to: • Familiarize the user with the ISO 9000 quality standard and its elements. • Provide general guidelines regarding the implementation of an ISO 9000 quality system. • Provide guidance and recommendations in all aspects of certification. • Assist the user in documenting a quality system. • Provide examples of quality system documentation. • Give a contact list of registrars and other reference sources related to ISO 9000.The Decision Support System will help to save time in the quality system implementationprocess, assist users in documentation of the quality system, and provide an ISO 9000 learningtool for engineers and managers. It could also be recognized as a viable
learning communities engaging in ablended online and classroom approach will promote learning of professional skills such asproject and time management in thesis research activities. The purpose of this session is toestablish the connection between project management and thesis research, and demonstrate thebeginning progress of the GAPS program towards.Methodology/approach. The following progress is being made to establish GAPS learningcommunities through which to teach and practice professional skills. A website has beendeveloped to introduce the program, recruit participants, provide information on the onlinemodules, and survey results of participants’ current levels of knowledge and skills related toproject management. A new course
being performed at Michigan State University in the context of a newlyrevised undergraduate Computer Engineering Program within the Departments of ElectricalEngineering and Computer Science and in collaboration with three smaller universities inthe State of Michigan: Lake Superior State University, Grand Valley State University, andSaginaw Valley State University. These universities represent several types of engineeringprograms (from an electrical/computer engineering technology program to an electrical en-gineering program) which include an embedded system design component. The VESL namehighlights an important aspect of the curriculum development: use of laboratories to supportintegration of material throughout a student’s program. Moreover
California, Santa Barbara. She has been at Cal Poly for nearly 30 years and has held various positions on campus including Co-Director of LAES, Director of Women’s Engineering Programs, and CENG Interim Associate Dean. Although she has taught over 25 different courses she current teaches Financial decision making, First year engineering, Senior project, and Change management. Her research is in Engineering Education where she has received $9.8 million of funding from NSF as either PI or Co-PI. She researches equitable classroom practices, integrated learning, and institutional change. She spent the 2019-2020 academic year at Cal State LA where she taught and collaborated on research related to equity and social justice
AC 2008-708: DIGITAL MANUFACTURING AND SIMULATION CURRICULUMPaul Nutter, Ohio Northern University Paul Nutter, CMfgE, CQE, CQA, is an Associate Professor in the Department of Technological Studies at Ohio Northern University. He has been teaching industrial technology since 2000, and has 26 years experience in manufacturing and industrial engineering, primarily with Rockwell Automotive. Paul is active in the Society of Manufacturing Engineers as faculty advisor for SME Student Chapter S186, and has served on the 2007 SME Simulation Technical Group (chair), on the 2006 SME Member Council, and the 2005 Student Relations Subcommittee (chair
student, undergraduate and graduate, in designcompetitions related to intelligent and autonomous vehicles.IntroductionThe rapidly changing engineering technology and the needs of the global workforce in the 21stcentury compel engineering programs at universities across the world to adapt their curricula toprepare graduates for the new reality. The adaptation can be the restructure of courses intraditional subjects and/or the adoption of entirely new courses with content tailored to educateand train the student with the latest industry-approved tools thereby preparing each of them tofunction effectively in the engineering industry. Artificial intelligence (AI), machine learning(ML), deep learning (DL), and the internet-of-things (IoT) have been
Paper ID #45018Full Paper: Impacts of a Wellness-Focused First-Year Course on StudentRetention and Academic SuccessDr. Matthew Cavalli, Western Michigan University Dr. Cavalli is Professor of Mechanical and Aerospace Engineering and Associate Dean for Undergraduate Academic Affairs in the College of Engineering and Applied Sciences.Ms. Anetra Grice, Western Michigan University Anetra Grice is has served as the STEP Program Director for Western Michigan University’s College of Engineering and Applied Sciences for since 2010. 15th Annual First-Year Engineering Experience Conference (FYEE): Boston, Massachusetts Jul 28