Paper ID #8236Global Engineering Competencies and CasesProf. Brent K Jesiek, Purdue University, West Lafayette Brent K. Jesiek is Assistant Professor in the Schools of Engineering Education and Electrical and Com- puter Engineering at Purdue University. He holds a B.S. in Electrical Engineering from Michigan Tech and M.S. and Ph.D. degrees in Science and Technology Studies (STS) from Virginia Tech. Dr. Jesiek draws on expertise from engineering, computing, and the social sciences to advance understanding of geographic, disciplinary, and historical variations in engineering education and professional practice.Qin Zhu, Purdue
them.The program must have a practical element to it. Partially this is a result of the nature of thestudents involved, and partially this is a result of the nature of the business. Much of what isdone in the industry is quite “hands-on.” An emphasis on design is critical to instill a practicalelement into the program. Although some graduates of the program are anticipated to be inoperations-type positions they will still be expected to perform design functions on the job fromtime-to-time. Page 10.581.4 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright
revealed that lab space dedicated to 3 courses in theCivil Engineering curriculum was only used 9 hours each week. The lab and a conference/breakroom were located in the same hall as the Program Office and the three Instructor’s offices andfunding for one Teaching Assistant was available. Page 25.312.3Identifying Student NeedsNothing is more beneficial to the success of a current assignment than having succeeded in aprior. Having successfully completed a job provides confidence in one's ability to repeat that joband to take on increasingly difficult or complex work. On the other hand, few things are moredemoralizing than failing. Students are
, several students that have completedthe course, to their dismay, did not perform very well on the electrical portion of theFundamentals Exam. While the course does provide quite detailed theoretical information, whatwe felt it lacked was numerous practical examples geared towards the FE exam. We also believethat understanding, say Wheatstone bridges, is indeed valuable, actual hands on usage of sensorsthat employ a bridge circuit would be even more beneficial. Finally, graduating engineers thathave actual experience hooking up; calibrating, conducting and reducing data might appeal topotential employers. That is to say, by introducing the students to basic circuit analysis,including operational amplifiers, strain gages, pressure transducers, load
Page 25.545.2program supported since 2004 by grants from the National Science Foundation and implementedat the University of Massachusetts Lowell. “SLICE defines service-learning as a hands-onlearning approach in which students achieve academic objectives in a credit-bearing course bymeeting real community needs. In engineering the students become better professionals andbetter citizens while the community benefits”.1The approach of SLICE is to integrate the service-learning (S-L) component into core credit-bearing courses (and not as elective courses as implemented by the EPICS2 model for example).The SLICE program aims to offer at least one service-learning project per semester to everystudent in every department within the college of
, and Strategies. In this study, Situation refers to KCURE Fellows’transition from their pre-pandemic to pandemic lived experiences; Self refers to perceived impactof pandemic on self; Support includes social, academic, familial, and any other on- or off-campus supportive resources; and Strategies refer to KCURE Fellows’ use of their availablesupports to maintain engineering degree progress.MethodIn fall 2020 we accepted 11 students into the KCURE program and in spring 2021 we acceptedtwo students. In total, during our first programmatic year, we accepted 13 students. All MCCKCURE Fellows were in their sophomore year, while all UMKC KCURE Fellows had justtransferred from MCC and were beginning their junior year at UMKC. Additional
write a synopsis of the presentation. Students presented their findings in teamsbased on their chosen fields within Engineering Technology. Each student 1) was responsible forpresenting his/her own information, 2) had 8-10 minutes to present their findings and 3) receiveda separate grade.Written communication skillsLaboratory reports were written, handed in and graded. Lab work was performed in teams, buteach student was responsible for writing his/her own lab report.Teams turned in typed synopses of their oral presentations. These synopses included the specificpurpose of the presentation, an outline of the organization (introduction, main points andconclusion), a bibliography of researched sources and a description of the roles each teammember
. In addition, their site includes a number of other rankings and lists. http://colleges.usnews.rankingsandreviews.com/best-colleges • The Times Higher Education listings include a table ranking the world's top 200 Page 15.1008.8 universities, and specialized lists for institutions focusing on Engineering and IT universities, Life Sciences & Biomedicine universities, Natural Sciences, Social Sciences, and Arts and Humanities. Recently they have dropped involvement with QS and now together with Thompson Reuters, the Times will establish its own methodology for its new ranking of world universities. http
Military Art I Military Art II PY 201 Philosophy Since the course was supposed to provide breadth within the civil engineering discipline,it essentially had limitless material to draw from. The following course objectives were finalizedafter presenting the course for two complete semesters: 1. Able to describe what civil engineering is to someone outside of the profession. 2. Able to communicate ideas/designs through sketches, drawings and models created by hand, and created with computer-aided drafting and design (CADD) software. 3. Able to use/apply the systems engineering approach to solve problems. 4. Able to plan and execute surveys using global positioning system (GPS) equipment. 5. Able to use/apply
resource. Pastresearch shows that this assessment methodology can be valuable, but does not focus on how tomake the methodology feasible for classroom use. In this paper, we describe how we created asuit of tools that support structural knowledge assessment for classroom use and a pilotevaluation of these tools that demonstrates the feasibility of such a method.1. DEVELOPING ASSESSMENT PRACTICES FOR ENGINEERING EDUCATIONAssessment, in the context of education, is the process of measuring what a student knows [1].The reasons to perform assessment can be quite varied. Such reasons include a need or desire to:(1) determine whether students have learned the material that is being taught, (2) determinewhether students have mastered knowledge that is a
skills gap is expected to result in 2 million of those jobs going unfilled.(4) There are twomajor contributing factors to the widening gap – baby boomer retirements and economicexpansion. An estimated 2.7 million jobs are likely to be needed as a result of retirements of theexisting workforce, while 700,000 jobs are likely to be created due to natural business growth.(5)In addition to retirements and economic expansion, other factors contribute to the shortage ofskilled workforce, including loss of embedded knowledge due to movement of experiencedworkers, a negative image of the manufacturing industry among younger generations, lack ofSTEM (science, technology, engineering and mathematics) skills among workers, and a gradualdecline of technical
high value partnerships with key leaders around the world,in organizations as well as the engineering education sector. From the economic sector to socialsciences, from political sciences to peace keeping, from banking to financial investors, IFEESshall carry out its mission hand-in-hand with all of them.One way to reach this goal is to involve students and student organizations in IFEES strategydefinition and IFEES events. The archaic vision of students as “customers” or (even worse) “endproducts” of engineering education process needs to be abandoned. IFEES wants and needs tohave students on board because they are key stakeholders and their vision, needs, and ideas areimportant. They are also important in matchmaking opportunities with and
Session ETD 526 Engineering Education Fostering University Industry Relations Claudio R. Brito President of IEEE Education Society President of Science and Education Research Council - COPEC São Paulo, BRAZIL E-mail: drbrito@copec.eu Melany M. Ciampi President of World Council on Systems Engineering and Information Technology Secretary of IEEE Education Society São
accurate design of products and processes. Also,the speed and efficiency which computers bring to the design process is highly desirable.But, is there a downside? The answer to this question may depend upon your point of view,but from the academic side of Mechanical Engineering we see several difficulties that need tobe addressed in various areas of the curriculum. Most Mechanical Engineering curriculums are Page 9.328.1rather diverse in the science and engineering topics addressed. However, from the Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright
visuallyintuitive, and interesting, as applications include solid prototype synthesis, biochemicalscreening and medical diagnostics, and new materials synthesis. Silicon oxidation is central tomicroelectronics device fabrication.. Collectively, these devices provide hands-on experience, and explanations, of moderntechnologies which are pertinent to the future of chemical engineering, in domains including the“big three” of federal research: biotechnology, nano-materials, and information science. We now describe the experiments briefly, including the principles illustrated, theirrelation to chemical engineering in the classical sense, and our initial results and evaluations.Whether a topic is “properly” a part of chemical engineering is up to
student retention oncethey enroll in one of our Engineering Technology programs.KeywordsSTEM, Diversity, Robotics, 3D Printing, Women in Technology.IntroductionUnderutilized Science and Engineering [S&E] human resources can have a negative impact on asociety’s ability to innovate and find creative solution to challenges. The stories of KatherineGoble, Mary Johnson, Dorothy Vaughan, and JoAnn Morgan who all worked in the STEM fieldsat NASA in the 1960’s serve to illustrate this point. A society is more successful when it finds away to harness the contribution of a diverse workplace.Queensborough Community College [QCC] of the City University of New York [CUNY] has amultifarious student population. QCC is located in one of New York City’s most
their understanding of the course material). The engineering students’attention to writing was quite similar to a study showing carefully constructed emails ofinternational students requesting enrollment in the class of a professor with whom they wereunfamiliar.11 The implication of the current study is that the “trickle up” concern of someeducators1-3—that the informality of instant messaging and text messaging would adverselyaffect more formal rhetorical situations—is not substantiated here.However, the variability of the format and salutations and closings of the students’ emails toemployers and professors seems to justify some explicit instruction on writing emails to lessfamiliar audiences. Regular use of the typical email template, with
standard that covers mainengineering skills in sciences, mathematics and design. Students are prepared through arigorous curriculum. However, Universities fail to fully prepare students for aspects of theirlives beyond the academic scope. While the Accreditation Board of Engineering and Technology(ABET) requires student training in ethics, lifelong learning, communication, and working inmultidisciplinary teams, students remain insufficiently prepared with skills that help overcomemany challenges they face after leaving University.University of Illinois at Chicago (UIC) is a public research university registering greater than20,000 students. One of the colleges at the University is the College of Engineering (COE). TheDepartment of Mechanical and
Paper ID #17095Measuring Adaptive Expertise in Engineering EducationDr. Olga Pierrakos, James Madison University Olga Pierrakos is a Founding Faculty and Associate Professor in the Department of Engineering at James Madison University. She is currently a Program Director at the National Science Foundation in the Divi- sion of Undergraduate Education. Her expertise and interests focus on diversity and inclusion, engineer identity, PBL, innovative learning-centered pedagogies, assessment of student learning, engineering de- sign, capstone design, etc. She also conducts research in cardiovascular fluid mechanics and
-member team of biomedical engineering students has formed around a projectproposed by Physicians’ Group. Each year in the United States, three to four children are killedwhile playing baseball, softball, or ice hockey. The reason is Commotio Cordis, which is a stoppageof the heart caused by blunt blow to the chest. The team is developing a chest protector to helpreduce the risk of this condition. The members of the team are Betsy Mann, Kristi Holland, MarkMarini, Misti Marr, Ryan Kelley, and Shannon Maloy. ADTRAN is a manufacturer of telecommunications equipment. They presented the idea ofdeveloping a diagnostic instrument around the hand-held personal digital assistant. Currentlytesting is conducted in situ on equipment using a laptop
Example from Strength of MaterialsStudents designing a timber ‘T’ beam for a quiz question exemplified how a model and theaccompanying mathematics is, or is not, used in engineering. The beam is constructed using twoplanks by setting one on edge (the stem of the T) and nailing the other down the middle to thetop edge. The quiz question asked students to specify s, the maximum nail spacing required tosafely fasten the two planks together for the given loading. Students learn about internal forcesin statics and then shear flow and shear stress in strength of materials courses. They typicallywork several fastener spacing problems during class and in assigned homework. The quizproblem described a situation where V(x), the internal shear force in the
propertiesof Kevlar, examining the performance of polymer fiber-wrapped concrete systems,advanced vegetable processing technology, metals purification, combustion, membraneseparation processes and other areas of interest. Every engineering student participates inthese projects and benefits from hands-on learning, exposure to emerging technologies,industrial contact, teamwork experience and technical communication practice [23, 24]. These conditions make the Junior/Senior Clinics meaningful and exciting learningexperiences, but the pressure derived from the intense and often unpredictable Page 9.414.7Proceedings of the 2004
develop additional exchanges, bothwith English speaking programs abroad, and with those that require competency in the hostcountry language? There are multiple reasons which well be discussed in the remainder of thispaper.Background Union College is a liberal arts institution with engineering and computer science. It islocated in Schenectady, NY, and was one of the first colleges in the country to offer a degree inengineering (Civil Engineering, 1845). Out of the total student population of slightly more than2000, approximately 300, or 15%, are engineers and computer scientists. This proportion islower than historical levels, with the target for growth being to increase the proportion to 20%. Union has traditionally maintained an
develop their skillsets and mindsets [3]. Theseopportunities can empower students to launch their careers in more intentional ways, whetherthey are early in their college careers or ready to graduate.This project was predicated on the research question: How can storytelling help STEM studentsdiscover their science and engineering identity? To enable students in this endeavor, we focusedon creating a low-barrier process for storytelling through podcasting. Podcasting is intimate yetdistanced, allowing students to comfortably share stories in a way that, like radio, is direct, yetstill controlled and separate.Furthermore, podcasting is an amenable medium for the listener to connect with others, whichmay motivate some students to participate in
the nature of the introductory design courses taught early in thesophomore year at many institutions, instructors can not expect a wide range of appliedengineering skills to be available. (i.e. Thermodynamics, Fluid Mechanics, MachineDesign, Strength of Materials etc.) As such in teaching introductory design, emphasis isplaced on the process of reaching design solutions, rather than on the technical skillsneeded to accomplish this. This rationale is supported by most MBA’s who believe theycan manage a technical company without any intimate knowledge of the technology. Abelief, one may arguably disagree with, but seen to be true if one considers the number ofnon engineers/scientists running technical corporations. In order to progress to a
AC 2008-614: POWER ENGINEERING TECHNOLOGY PROGRAMDEVELOPMENTRay Miller, University of Cincinnati Ray Miller graduated from Case Institute of Technology with a BS in Fluid and Thermal Sciences in 1977. Over his 30 career in the energy field Ray build large commercial power plants for several utilities. He has also become an AEE Certified Energy Manager, and an AWS CWI. He has taught as an adjunct at the College of Applied Science for 20 years and has served on the industrial advisory boards of the Mechanical Engineering Technology and Electrical and Computer Engineering Technology departments. Ray is a member of the AWS, AFE and AEE.Max Rabiee, University of Cincinnati Max Rabiee earned
, shop apprenticeship [21]. As training in these areas was replaced by coursesin the fundamental sciences and math during the postwar era, educators and practicing engineersworried that practical design skills "began to slip away" from engineering ([21], p. 295).Following the curricular changes, an industry demand for graduates with “hands-on designtalent” increased, which spurred American engineering programs to reorient towards designeducation ([22], pg. 50).Changes in the review and assessment of engineering programs reflected the same shift towardsdesign. Engineering design became a required student learning outcome for ABET accreditationin the United States, and the accreditation systems of other countries [23-25]. Design coursesbecame
achieved is anticipated. One major goal of thispaper was to propose strategies for presenting engineering to nontraditional students and somemethods for addressing concerns related such undertakings. Results of the PSD robotic program,which was run using these tactics, have been shown. Enhancement ideas for the program will bederived from comments and observations by all the participants of the program. Some of theseenhancements are: 1) the use of visual aids for every lesson taught, 2) a more detailed and muchmore visual explanation of circuit theory and programming and 3) quizzes at the end of each topic tomonitor each students progress in learning the materials presented.References 1. “Testimony for Hearing on Math and Science Education
a professor at both Purdue University and Arizona State Univer- sity, Mary’s specialty is computer and technical graphics. Dr. Sadowski received her B.S. from Bowling Green State University, her M.S. from The Ohio State University, and her Ph.D. from Purdue University.Dr. Sheryl A. Sorby, Ohio State University Dr. Sheryl Sorby is currently a Professor of STEM Education at The Ohio State University and was re- cently a Fulbright Scholar at the Dublin Institute of Technology in Dublin, Ireland. She is a professor emerita of Mechanical Engineering-Engineering Mechanics at Michigan Technological University and the PI or coPI on more than $9M in grant funding, most for educational projects. She is the former As
engineering was the motivational beliefin the intrinsic value of the study of engineering, with retained students having an average scoreof 5.81 and students who left engineering having an average score of 5.21. Qualitative datagleaned from the focus groups and one-on-one interviews appear to support this result. First-yearengineering students cited an interest in STEM and the perceived hands-on nature of engineeringas reasons they decided to pursue engineering as a college major and career [10]. As studentsprogressed in their engineering studies, they began to mention the philanthropic nature ofengineering (helping others, making a difference in the world) as motivational to their pursuit ofan engineering career. While the first-year program