-extended period on the ISS. This type of student real world hires in an actual work environment. Another benefit of thisexperience could not be possible without the Public, particular project was its multidisciplinary nature. ThePrivate, Academic partnership established by NASA, T project integrated two teams, one from ESET that had theSTAR and MISL. responsibility of developing the embedded system and one Proceedings of the 2018 ASEE Gulf-Southwest Section Annual Conference The University of Texas at Austin April 4-6, 2018from the manufacturing and mechanical engineering
requirements arefulfilled with elective courses chosen from technical and innovation management disciplinesappropriate for individual students’ background and interests.Each student in the program arrives with strong undergraduate preparation in a technicaldiscipline; a wide range of different fields in engineering and science are represented in a singleclass. Approximately 40% of each recent class have also pursued a second engineering mastersdegree in one of the traditional engineering departments at CMU (Biomedical, Chemical, Civiland Environmental, Electrical and Computer, Materials Science, or Mechanical) as part of a dualdegree program.E&TIM students begin their studies as a cohort with the spring semester. The program follows acalendar year
Paper ID #34482Computer Interfacing to Real-world: Low-cost ApproachDr. Rungun Nathan, Pennsylvania State University Dr. Rungun Nathan is a professor and program chair for the mechanical engineering in the division of engineering at Penn State Berks. He got his BS from University of Mysore, DIISc from Indian Institute of Science, MS from Louisiana State University and PhD from Drexel University. He has worked in Electronic Packaging in C-DOT (India) and then as a Scientific Assistant in the Robotics laboratory at Indian Institute of Science, Bangalore, India. He worked as a post-doc at University of Pennsylvania in
Paper ID #15511”Patenting” a New Engineering Librarian at an American University in theUAEMrs. Amani Magid, New York University Abu Dhabi Amani Magid has a degree in Integrative Biology and a minor in Arabic from University of California, Berkeley. In her career as a scientist, she has worked as a researcher in Pharmaceutical Chemistry and managed biology lab classes at a community college. She soon realized her passion was in finding and locating science information and earned her Masters in Library and Information Science at University of Pittsburgh while interning at Bayer Material Science Library. She worked in Qatar for
Catching the Wind: A Sticky Situation: EiE Unit Designing Windmills Designing Walls Motion, Energy & Rocks, Minerals & STE Unit Mechanical Engineering Materials Engineering Each STE Unit has one long (90 – 120 minute) engineering design process lesson thatrepresents the culmination of the unit. The engineering design process involves five steps, asdescribed by the EiE curriculum, in which students identify a problem, brainstorm ways to solvethe problem, select one way to solve the problem and plan for their first design, build and testtheir first design, and
% natural gas Page 6.419.1 24% Figure 1. Renewable energy sources are a small part of total U.S. energy consumption.1 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Education A four-year mechanical curriculum for technology or engineering students typicallyincludes two thermodynamic courses. After covering crucial concepts such as conservation ofmass and conservation of energy, there is a limited amount of time “left over” for specificapplications
. With a focus on providing students with a broader experience base, the multidisciplinary program applies teams of engineers, business, design, and other students to work with companies to help them be more competitive. Rogers expanded this one-year program to a four-year Integrated Business and Engineering (IBE) honors program. Rogers earned his Ph.D. at the University of Massachusetts, Amherst, focused on mechanical engineering and manufacturing.Dr. Denny C. Davis, The Ohio State University Dr. Davis is Visiting Professor in the Engineering Education Department at The Ohio State University and Emeritus Professor of Engineering Education at Washington State University. For three decades, he taught
sharingpresentations focuses on a different set of personal or professional development topics(Appendix A). The first set of presentations focused on personal development, with topics suchas personal accountability, establishing a routine, organizing materials, eating a balanced diet,and stress relief. The second set of presentations focused on learning strategies, with topics suchas creating concept maps, interleaving, crafting study guides, and utilizing the FeynmanTechnique. The third set of presentations focused on topics related to time and energymanagement. For the final set of presentations, students could choose one area of interest to themand create their own presentation topic. While the purpose of the curated list is to direct studentsto effective
interior-point methods.DR. JOSEPH W. NEWKIRK is an Associate Professor of Metallurgical Engineering at the University ofMissouri-Rolla, Rolla, MO. He holds a BS and MS in Physics from Miami University, and a PhD inMaterials Science from the University of Virginia. His research interests include high temperatureintermetallic alloys, metal-matrix composites, refractory alloys for nuclear applications, production andconsolidation of mechanically alloyed powders, aerospace materials and heat treating.DR. PETER L. SILSBEE received his Ph.D. degree in Electrical and Computer Engineering from theUniversity of Texas at Austin in May, 1993. Since August of 1993 he has been Assistant Professor ofElectrical and Computer Engineering at Old Dominion University
with knowledge about materials, weight, and mechanical design. Communication was key to the success of this project. We spent hours talking about how to approach the design, where to place the electronics, and how the robot would function. Some communication barriers had to be overcome since both our fields are specialized and we both had to understand how this project was going to come together. Because of our different backgrounds, when we did not communicate efficiently problems arose. For instance, because we each had our own ideas of how our project should look, the infrared sensors were too large for the specifications of the body design so the printed circuit boards had to be resized
Paper ID #14584A Building-Block Approach to Industrial Controls Laboratories Using Pro-grammable Logic ControllersProf. Robert J. Durkin, Indiana University - Purdue University, Indianapolis Mr. Durkin teaches courses in Mechanical and Electrical Engineering Technology; including the capstone design and independent study projects. He serves as a Faculty Senator and earned the 2013 Outstanding Teacher Award. He has over 25 years of engineering and manufacturing experience including; design, project management, and various engineering, research and manufacturing leadership roles. He has been awarded two US patents. He is an
Simultaneous Construction Model based on online collaboration and 3D visualization ispresented in this paper, and on this model students work together effectively from design phasethrough construction phase in several cases. From this model, students learn how to collaborate inconstruction engineering.IntroductionConstruction management is a comprehensive knowledge which includes techniques andpractices, and construction techniques concern not only civil engineering techniques such asproperties of materials, structural engineering method, and soil mechanics, but also other relevantengineering techniques such as air conditioning, plumbing, electrical systems, and elevators. Asmajority of undergraduates begin to study construction management without any
2001, American Society for Engineering Educationmapping, materials, structure, water resources, construction engineering and management,coastal engineering and public works engineering infrastructure. Specific civil engineeringresearch subjects include: in situ testing of soils; laboratory instrumentation; soil mechanics;foundations; soil-structure interactions; flow-through porous media and centrifugal modeling;pavement; rock; non-destructive testing; concrete; fiber reinforced polymers; global positioningsystem; airborne laser swath mapping; geographic information system; computer modeling;video imaging; simulation modeling; safety; signal timing and remote sensing.Research SourcesSome funding sources are presented in Table 1. In addition
PhD students are required to do the assignments and no students are allowed to audit thecourse. Faculty, post-docs and research scientists do not formally register for the course as wecurrently lack a facile mechanism to do so. The agreement is that they, too, must attend all theclasses for the full duration (not just for the guest speakers) and fully participate in the class.They serve as team members with students on commercialization projects and provide animportant element of mentorship and professionalism among the student teams with whom theywork.Assessment and OutcomesTo understand the backgrounds of participants, their motivations for taking the course, andmeasure changes in entrepreneurial intention and self-efficacy, data is
, determine that the velocities of the balls before and after thecollision must be calculated, and use the position and time data to calculate those velocities. Thelast step is to solve for the mass of the billiard ball. Thus, many characteristics of higher-orderproblem-solving skills are needed to solve the problem. Figure 5To motivate students to work together in solving problems, but not just share the final answers,WebAssign is used to randomize parameters of the animations and/or numbers in the text of thequestion. In Figure 6, the mass of the cart and also the position at which students must calculatethe mechanical energy is randomized.The question in Figure 7 demonstrates how multiple choice
consolidating learning from experiences, as many models ofservice learning and other experiential learning note. This paper addresses the mechanics ofassigning reflection, with an emphasis on assignment structure. The prompt should be open-ended enough to allow students to bring elements of their experience that they may think don’tpertain to the subject at hand -- precisely because those moments are often where the greatestlearning takes place. Drawing from years of experience with the Immersion Experiencecomponent of the Pavlis Honors College curriculum, this paper analyzes student reflections andoffers suggestions about the structure of reflective assignments and their placement in curricula.Experiential learning is increasingly recognized as a high
in which to get there. In addition to his engineering work, he also competes on Saint Louis Universities division 1 cross county and track and field team year round. Since he first stepped foot on campus he has continually pursued community service and giving back.Mr. T. Alex Ambro, Saint Louis UniversityWilliam HiserMr. Andrew RiddleDr. Sanjay Jayaram, Saint Louis University Dr. Sanjay Jayaram is an associate professor in the Aerospace and Mechanical Engineering Department of Saint Louis University. He obtained his Ph.D. in Mechanical Engineering from University of Central Florida in 2004. He teaches control systems/mechatronics, space systems engineering and astronautics related courses as well as engineering
AC 2008-2264: WHY A LIBERAL AND MULTIDISCIPLINARY EDUCATION ISNEEDED TO SOLVE THE ENERGY CRISISMatthew Heun, Calvin College Matthew K. Heun received his Ph.D. in Mechanical and Industrial Engineering from the University of Illinois at Urbana-Champaign. He was a staff engineer at the Jet Propulsion Laboratory in Pasadena, California and a Senior Engineer at Global Aerospace Corporation in Altadena, California before joining the Engineering Department at Calvin College in Grand Rapids, Michigan.Steven VanderLeest, Calvin College Steven H. VanderLeest is a Professor of Engineering and currently the Engineering Department Chair at Calvin College. He has an M.S.E.E. from Michigan Technological
- chanics and Engineering Graphics. In 2012, he joined Western Illinois University as an assistant professor, and he has been teaching there the following courses: • Thermodynamics • Heat Transfer • Thermo- Fluids • Dynamics • Engineering Graphics • Computational Methods in Fluid Dynamics (CFD) • Fluid Mechanics. • Finite Element Method Dr. Zbeeb’s research devotes itself to the theoretical and computational modeling of thermo fluid and energy systems. His interests span both low and high speed fluid mechanics, multiphase flows, hydrody- namic and acoustic instabilities, engine internal flow fields, vorticity dynamics, combustion, alternative fuels and CFD. His research activities since 2008 have materialized in over
resources limit most civil engineering courses to asingle offering per year and prerequisites are generally strictly enforced. This often limitsstudents from taking required courses earlier than their scheduled offering. For example,consider a student wanting to take CE321 Structural Mechanics I earlier than the fall quarter oftheir junior year. Only offered only in the fall quarter, CE321 has a prerequisite of EM203Mechanics of Materials. Offered only in the winter quarter, EM203 would then be taken in thewinter quarter of the freshman year. However, EM203 has a prerequisite of EM120 EngineeringStatics, which would need to be taken fall quarter of freshman year. EM203 could not be taken inthe fall quarter due to its MA111 Calculus I prerequisite
have settled on the last approach. Any type of material that lends itself to individual andgroup exploration and experimentation is best. The students at our academy are not required toexhibit any scores or grades for acceptance. Therefore, the capabilities and backgrounds of thestudents are varied. Incorporating ways in which a student can progress at her individual pace,and feel successful, is important. Finding a way to learn about a subject through exploration andhands-on activities is the goal. The less one uses lectures to teach, the better it is.We believe that an effective academy features mathematics that is accessible to students with anaverage grasp of the grade-level mathematics, but is outside what they will encounter in
identification of dynamic systems and DC motor control. Student response and implementation experience are also described.(I) IntroductionIt is well established that hands-on experience can significantly improve student learningand interest level in the course materials [1]. This is especially important in courses thatare theoretical with a high degree of mathematical analysis. However, a number ofconstraints prevent the broad base integration of experiments into engineering courses.For examples, laboratory facilities/hours, safety issues, and software development effortare a few of the limiting factors that most instructors would encounter. With the increasein bandwidth through high speed and ISDN data lines, web-based distance experimentscan
problem-solving process – from ideasformation to solutions – with their peers. To evaluate the effectiveness of the implemented lab strategies, students in theparticipating courses were randomly divided into experimental and control groups. Bothassignment grades and students' feedback via surveys were used to evaluate students' learning.Participants in the control group were learning in labs through the materials that were alignedwith core concepts by following predetermined procedures. Students in the experimental grouplearned through inquiry-based lab materials that required them to work in teams by integratingcore concepts together to find a solution and while following one of potentially manyapproaches. To maximize the online lab
AC 2008-1476: USING APPROPRIATE TECHNOLOGY AND SOCIALENTREPRENEURSHIP TO HELP TRANSFORM POOR COMMUNITIESWilliam Jordan, Baylor University WILLIAM JORDAN is the Mechanical Engineering Department Chair at Baylor University. He has B.S. and M.S. degrees in Metallurgical Engineering from the Colorado School of Mines, an M.A. degree in Theology from Denver Seminary, and a Ph.D. in mechanics and materials from Texas A & M University. He teaches materials related courses and does research concerning appropriate technology in developing countries. He also writes and does research in the areas of engineering ethics and engineering education
member of the editorial board of several peer-reviewed highly ranked journals. His research is published in recognized journalsMichel Elkhoury, Lebanese American University Dr. Michel Khoury is the Dean of the School of Engineering at the Lebanese American University (LAU), where he leads strategic initiatives in academic innovation, industry partnerships, and program development. Previously Assistant Provost and Associate Dean, he played a key role in implementing LAU’s strategic plan and launching new programs such as Engineering PreMed and Chemical Engineering. A Professor of Mechanical Engineering, he has led ABET accreditation renewals, curriculum modernization, and major lab expansions. His research focuses on
most products,pervasive computing devices require technological functionality, user-centered form, andan adept marketing plan. In addition, pervasive computing products require designunderstanding of technologies that work computationally rather than mechanically, andbusiness models that provide services more than selling a device1. More generally,interdisciplinary teaming is increasingly acknowledged as a skill needed in undergraduateengineering education, as evidenced by the ABET outcome of being able to workeffectively in multidisciplinary teams and numerous cross-disciplinary studies, includingan Oxford Handbook in 20102. Our work focuses on interdisciplinary teaming in designsettings, acknowledging that design is central to conceptions of
faculty and staff, continuous curriculum revision, periodic review,assessment and replacement of equipment and associated resources, and ongoingevaluation and updating of instructional methodologies and teaching materials. Suchefforts require institutional commitment and support, and must precede hand-in-handwith advances in technology and in the IT workplace. An active industry advisorycouncil, together with ongoing feedback from graduates and employers, provides animportant mechanism to ensure that this occurs. These industry partnerships canprovide many forms of support to the two-year college, including curriculum advice,industry training materials, in-service opportunities for faculty, a source of adjunctfaculty, equipment donations
students learn to focus their attentionwholly on the internal structure of problem solving. They are trained to value the repeatedapplication of a stabilized method. The only thing that should vary from course to course andmajor to major is the type of problem and the appropriate mathematical tools for solving it.Yet life on the job requires something that the mastery of mathematical problem solving does notprovide, an ability to interact with and engage positively perspectives other than one’s own. Byfocusing on discipline-based problem solving, for example, does a mechanical engineeringcurriculum prepare students adequately to interact with other types of engineers who define theirproblems differently? By defining problems in mathematical terms
, 6 For example,a reflection index correlates to endothelial function,5 and a stiffness index can provide an arterial Page 15.40.2stiffness measure that relates to pulse wave velocity.6According to the World Health Organization, cardiovascular disease (CVD) is the leading causeof mortality in the developed world,7 so the development of pulse oximeters which offer high-fidelity photo-plethysmographic data that can facilitate early detection of CVD is an importantstep towards the creation of effective CVD-prevention therapies. From an engineering educationperspective, pulse oximeter technology offers excellent study material in areas such as
course throughreadings, homework and weekly quizzes (Tranquillo, 2007). But much of the materialwas delivered just-in-time to individual groups. A series of 12 custom-made LabViewexercises led student teams through the basics of graphical programming (LabView,National Instruments) and Data Acquisition (DAQ). Several of the labs also built inlearning MIDI. An individual lab practicum, focusing on both hardware and software,was administered toward the end of the term to ensure that teams did not specialize toomuch.The biomusic project was layered on top of the traditional course material through sevenproject assignments. At the end of the second week, student teams submitted abstractswith ideas for three possible instruments. After the first month