STEM Youth Literacy Program, which provides Detroit Public Schools with STEM educational sessions.Prof. Yinlun Huang, Wayne State University Yinlun Huang is Professor of Chemical Engineering and Materials Science at Wayne State University, Detroit, Michigan. His research has been focused on the fundamental study of multiscale complex systems science and sustainability science, with applied study on sustainable nanomaterial development, integrated design of sustainable product and process systems, and manufacturing sustainability. He has published widely in these areas. He directs the NSF funded Sustainable Manufacturing Advances in Research and Technology Coordination Network. c American
AC 2012-4902: WORKING COLLABORATIVELY AMONG UNIVERSI-TIES: A DENSE NETWORK APPROACHProf. Cynthia C. Fry, Baylor University Cynthia C. Fry is a Senior Lecturer of computer science and Assistant Dean of the School of Engineering and Computer Science, Baylor University.Dr. Sridhar S. Condoor, Saint Louis University Sridhar Condoor is a professor in the Aerospace and Mechanical Engineering Department. He is also the Program Director for Mechanical Engineering, a KEEN fellow, a Coleman Fellow, and the Editor of the Journal of Engineering Entrepreneurship. Condoor teaches sustainability, product design, and entrepreneurship. His research interests are in the areas of design theory and methodology, technology
have proficiency in the basic languages of math and science in order toaffect the physical world. Engineers must understand phenomena on an elemental levelas they seek to pilot the laws of nature. Consider that -- the laws of nature are based onuniversal principles of order, organization, and efficiency – all basic tenets of design.Design mediates between tangible and intangible forces. It fuses the immediacy of thephysical world with the illusiveness of beauty. Design is driven by a museful urge tocreate; and, it is tempered by the physical limitations of the material world. In this paper,we explore design theory and design process in the context of art as a means to structurecreative processing into engineering curricula. Our perspective is
as an electrical engineer for Valley Electrical Consolidated Inc. (Girard, OH) before starting my Ph.D. studies. Dr. Borra served as a chair of the Toledo section’s IEEE Young professionals group. His research interests include characterization and fabrication of electronics materials, controlled whisker growth, thin-film fabrication and characterization, and condensed matter physics-related research. He was recently awarded a patent to mitigate whisker growth Nickel Oxide sublayer.Dr. Frank X. Li, Youngstown State University ©American Society for Engineering Education, 2023 Low-Cost DC Motor Control System Experiments for Engineering Students Abstract By and large, the control
Paper ID #38326WORK-IN-PROGRESS: An Interdisciplinary Model for Teaching TechnicalCommunication in Multidisciplinary Capstone CoursesMr. Bob Rhoads, The Ohio State University Bob Rhoads currently functions as the Multidisciplinary Capstone Program Director for the Department of Engineering Education at Ohio State University. He has a Bachelor of Science in Mechanical Engineering from Ohio State University and Masters in Business Administration from Regis University. Prior to his involvement as the program director, he had over 11 years of experience in industry with roles that varied from process engineering to sales
checked before the studentcould proceed. The Equation Activity we discuss here is the outgrowth of this desire.Previous attempts at this type of activity involved either of two common assessment methods.The program could be pre-coded with as many possible correct answers as the developers couldanticipate, and the students’ answer was checked against this list for a match. Otherwise thestudents’ equation and the correct equation could each be numerically evaluated, and thosevalues compared to within certain set tolerances. The latter is called the zero equivalenceproblem4.The mission of Project Links is to develop educational materials that link mathematical topicswith applications in engineering and science. We needed an activity in which module
, Virginia Tech Prof. Paretti holds a PhD in English as well as a B.S. in Chemical Engineering. She has worked as an engineer, a technical writer, and an educator, teaching in and directing technical communications programs for two decades. At Virginia Tech, she has been the Director of the Engineering Communications Program for Materials Science and Engineering and Engineering Science and Mechanics since 2003. She is Co-Director of the Virginia Tech Center for Engineering Communication (VTCEC), where she is developing communications curricula and assessment methodologies for engineering students and faculty, and conducting on-going research.Mary Leigh Wolfe, Virginia Tech Prof. Wolfe
AC 2007-316: ASSESSING ENGLISH-AS-A-SECOND-LANGUAGE MIDDLESCHOOL STUDENTS' ABILITY TO LEARN ENGINEERING CONCEPTSPaul Klenk, Duke University Paul A. Klenk, Ph.D., is a Visiting Scholar at Sigma Xi, the Scientific Research Society, developing K-12 engineering education programs. He received a Ph.D. in Mechanical Engineering and Materials Science from the Pratt school of Engineering at Duke University in 2006. He is the Duke Project Director for the TeachEngineeirng Digital Library Project at Duke, and was formerly the Graduate Student Coordinator for the Techtronics After-School Program at Rogers-Herr Middle School in Durham, NC. In addition to his K-12 outreach work, he has researched
and feedbackfrom the pilot course. According to Harriman5, the key to effective curriculum is makingsure that the needs of the student, the instruction, and the delivery mechanism are allcongruent with one another. Before being able to meet the needs of the students, theinstructor must know what those needs are. Because there are many various learning styles,the curriculum has implemented one of the more popular style surveys VARK (Visual, Aural,Reading & Writing, Kinesthetic). VARK is sometimes criticized for lacking empiricalsupport but continues to remain popular in education6.The curriculum has also incorporated the Community of Enquiry Framework7 by whichpresents the concept that students participating in community engagement can
these problemsthrough Blackboard. Moving these activities into the classroom allows for real-time feedbackand more extensive interaction with the instructor and teaching assistants. These in-classexercises also involved the integration of iPads and laptop computers, providing exposure touseful transportation engineering apps. Students also worked in teams on a semester project,which utilized real-world data provided by the State transportation agency for the state withinwhich the university was located.Lastly, students worked in small teams to develop content and learning aids that may beleveraged during subsequent course offerings. These materials included additional short videos,small-scale and practically-oriented design projects, and other
Page 25.872.6 This study also classified the 43 keywords into seven areas of educational research [6] [7]. Table 2contains the criterion that was used to classify each keyword. Note that keywords may fit into more thanone category. For example, the keyword ―grade*‖ belongs in both categories three and seven (refer toTable 2), because it is the organizational aspect of education and is also used for assessments. Classification Criteria Keywords in this area directly relate to how students learn and development. Furthermore, this area covers learning mechanisms
Catholic University of America.Dr. Mir M. Hayder, Savannah State University Dr. Hayder is an Assistant Professor in the Department of Engineering Technology at savannah State Uni- versity, GA. He received PhD in Mechanical Engineering from McGill University, Canada. His research interest lies in the areas of engineering education, fluid-structure interaction, flow-induced vibrations, syngas and blended fuel combustion, and flow and structural simulations. c American Society for Engineering Education, 2017 Environmental Monitoring Robotic SystemAbstractRobots are being developed and utilized as a fundamental data collection tool for environmentalmonitoring to meet the standards
that theassignment was too wide-ranging, and that it would be more productive to focus directly onpersuasive writing skills alone.In a meeting at the end of the Spring 2004 semester, Robert Kole, one of our writing consultants,suggested we assign a cover letter for a proposal instead. All present agreed that this was worth atry. That summer, Stephen Haggerty, the writing consultant for the summer session developedthe assignment and supporting materials and piloted it in his section. The results were encouraging. Our students were more focused and seemed to grasp thefundamentals of persuasive writing better and more completely than they had when writing anentire proposal. Their arguments were clear and coherent, and used evidence to support
- trollers, and MEMS applications.Dr. D.J. Pisano, West Virginia University Department of PhysicsDr. Yu Gu, West Virginia University Yu Gu was born in Huainan, China, in 1975. He received a B.S degree in automatic controls from Shanghai University in 1996, a M.S. degree in control engineering from Shanghai Jiaotong University in 1999, and a Ph.D. degree in aerospace engineering from West Virginia University in 2004. Since 2005, he has been a Research Assistant Professor in the Department of Mechanical and Aerospace Engineering at West Virginia University, Morgantown, W.V. His main research interests include sensor fusion, flight control, and small unmanned aerial vehicle (SUAV) design, instrumentation, and flight testing
entrepreneurship, and other students only aflavor of entrepreneurship due to their interests in other courses of study. Theselevels of interest will be addressed in three different entrepreneurship paths. Studentsfollowing the first path pursue entrepreneurship by pursuing entrepreneurship as theirconcentration under an Engineering and Applied Sciences degree. This concentrationmay be known an EASE, Engineering and Applied Sciences with a concentration inEntrepreneurship, and would appear on a student’s transcript. Students following asecond path may pursue another major, such as Mechanical or Electrical Engineering,but will earn elective credits for a certificate in entrepreneurship. The third path forstudents may follow will contain only the standard
-student and student-faculty social interaction. Whenpossible, it has been found that experiential learning can supplement online learning with verypositive results.14Shifting course content into online resources also has the potential for increasing the overallefficiency of the educational process both by reducing the individual repetition of lecturematerial and by promoting the collaborative use of “best materials” by educators acrossprograms or institutions.1 Although there is no doubt an investment in money and time toinitially create online materials, recent articles have shown how some schools are looking toonline content as a way to more efficiently use faculty time.15,16 Pressures from reduced publicfunding of higher education17 have
for liquid level measurement) and the DietLight Bulb (diode white lightbulb) have won accolades at regional business idea pitching competitions.Concurrently, Florida Tech’s intensive undergraduate engineering programs (in Electrical andComputer Engineering, Computer Science, Mechanical Engineering, Civil Engineering,Chemical Engineering, Aerospace Engineering, and Ocean Engineering) have resulted in anumber of outstanding Senior Design Projects. Examples include STEMSCOPE (a compactscanning tunneling microscope), Marvin (an autonomous robot with GPS navigation andproximity sensors) and Europa (a flying submarine).During the past three years, the Florida Tech Senior Design programs have become highlycoordinated across Engineering Departments
leaders in service to our nation.USCGA provides the U. S. Coast Guard (USCG) with approximately 190 new Coast Guardofficers each year. Each graduate earns both a commission (as Ensign, USCG) and a Bachelor ofScience degree in one of eight academic majors. Four of these majors are in engineeringdisciplines: Civil; Electrical; Mechanical; Naval Architecture and Marine Engineering.A typical cadet day at USCGA involves academics, leadership and military training, and somesort of athletic activity (NCAA division III or intramural). At least once each semester, eachcadet is required to participate in an outside community service project either individually or as agroup. All cadets must complete the academic requirements for their chosen major
resources, ergonomics, regression modeling, additive manufacturing, and building energy systems. He has been actively involved in development of new research proposal and completed a number of project successfully. Dr. Qian has also served as student mentor, conference judge and industry consultant to understand and develop new technologies.Ms. Jingwen Xue, Morgan State University ©American Society for Engineering Education, 2020 Paper ID #32000 Ms. Jingwen Xue received her Master of Engineering from Morgan State University in 2016 and her Bachelor of Mechanical Engineering in 2012. She worked as
curriculum ofECE 100: Introduction to Engineering Design, the first core course required of all engineeringstudents. The catalog description of the course is the following: Introduction to engineeringdesign philosophy and methodology: computer modeling of systems, processes, and components;design for customer satisfaction, profitability, quality and manufacturing; economic analysis;flow charting; sketching CAD; and teaming. A term design project is included.The curriculum was designed under the supervision of Dr. Barry McNeill, Assistant Professor, Page 4.380.2Department of Mechanical and Aerospace Engineering. The curriculum team was comprised
curriculum ofECE 100: Introduction to Engineering Design, the first core course required of all engineeringstudents. The catalog description of the course is the following: Introduction to engineeringdesign philosophy and methodology: computer modeling of systems, processes, and components;design for customer satisfaction, profitability, quality and manufacturing; economic analysis;flow charting; sketching CAD; and teaming. A term design project is included.The curriculum was designed under the supervision of Dr. Barry McNeill, Assistant Professor, Page 4.381.2Department of Mechanical and Aerospace Engineering. The curriculum team was comprised
ASEE-NMWSC2013-0023 Gas Turbine Dynamic Dynamometry: A New Energy Engineering Laboratory Module Zhiyuan Yang1 (yangz@msoe.edu), Hope L. Weiss2 (weiss@msoe.edu), Matthew J. Traum3 (traum@msoe.edu) Mechanical Engineering Department Milwaukee School of EngineeringAbstractTo integrate energy topics into STEM curricula, an archive of “Energy Engineering LaboratoryModules” (EELMs) is being developed by collaborating faculty and students at the MilwaukeeSchool of
passive heating (passive solar, building inhabitants, electrical equipment) and a heat exchanger that balances fresh air. In order to give examples of this type of construction in the classroom, instructors employ either a video or labeled diagram. Two freshman Materials and Methods of Construction classes, each with 24 students, were used to test these two visual learning methods. Both media sources contained the five un-numbered passive housing concepts listed above. One group was given a stationary, hand held, diagram of a section through a passive house from the New York Times, and the other group shown a YouTube video documenting a passive house under construction. Each group was allowed equal time to view the material, and
order to stay on topof their course- and team work.The larger implications for teaching mechanical engineering design in higher education settingscall for embracing the concept of the flipped format to allow novice engineers learn new contentat their own pace using the technological capabilities to their fullest and designing interactivemulti-media and engaging instructional materials that encourage further inquiry. The majorchallenge is to ensure that first exposure to new content is at the understanding and remembering(lower-order) thinking levels, and then to continue motivating learners. The in-class componentof the flipped classroom should be designed in ways that activates learned content by allowingfor application, analysis, synthesis
course for BC’s newDepartment of Engineering which will enroll its first class in fall 2021. Seventy students enrolledin MMW, representing all the BC undergraduate schools and a number of different STEM andnon-STEM majors.As a designated “Complex Problems” course, MMW includes three pedagogical components:lectures, labs, and reflection sessions [1]. Lectures examine topics from major branches ofengineering (civil, mechanical, and electrical) and the history of science and technology since1800, with a focus on sociotechnical systems and their relationship to gender, race, disability,immigration, and nationality. Labs involve hands-on engineering modeling tasks as well as amulti-week human-centered design challenge focused on issues of access and
into the programs.The CourseENMA 600 (Cost Estimation and Financial Analysis) is the required graduate course inengineering economics. Since the program accepts students with a wide range of undergraduatedegrees, there is no undergraduate course in engineering economics as a prerequisite for thiscourse. The course covers the material typically in an undergraduate engineering economicscourse during part of the semester and for the remainder of the semester covers more advancedtopics. Included in the more advanced topics are capital budgeting, risk, the stochastic nature ofprojects, multi-attribute analysis techniques, activity based costing in depth, and selected topicsfrom the current research literature.The course is typically taught as a
perception of acquisition of knowledgeand in the enhancement of skills, as it develops from basic science courses to circuits courses.We suggest techniques and tools to build desired skills and confidence. We also discuss thepossibility to quantify students’ reactions, attitudes and increased confidence, within a set ofmeasurable performances and surveys.Introduction: a daydream sceneSometimes, hopefully not frequently, when I teach an introductory physics or engineering classin a quantitative subject such as mechanics, electromagnetism, or thermodynamics, I might feelthe class is getting “lost”. Few students seem to follow and the rest of the class nervously looksat their watches or distractedly daydreams. Is this deja vu? Is this a familiar
Matlab/Simulink, a required software for the EE undergraduate curriculum. A series of lab sessions are introduced to the class to complement the lecture materials and to guide the students into the design project. The use of animation provides many advantages: better visual effects, improved communications, and higher interest levels. Student response has been very positive. A number of recommendations are made in this work based on instructor observation and course evaluations.(I) IntroductionSystem analysis is a multidisciplinary subject encompassing all fields of engineering applications.However, the traditional treatment (in the sense of teaching pedagogy) of this subject tends to behighly
discourse in pre-collegeengineering education. It is advancing knowledge on the genres of whole-class engineeringdesign conversations that can foster students’ knowledge building and socio-ethical reasoning.These contributions will help teachers of engineering facilitate more meaningful engineeringdesign activities that go beyond supporting students to move through the engineering designprocess, toward helping them make meaning about the problems, mechanisms, and social,ethical, economic, and political dimensions of engineering design. This research also has thepotential to shed important new light on how K-6 classroom engineering talk can attend tosystems and history to frame both problems of pedagogy and design.AcknowledgementsThis material is
), AlbuquerqueTechnical Vocational Institute (TVI) and several industry associations, including the NewMexico Building Branch – Associated General Contractors (AGC), the Mechanical ContractorsAssociation of New Mexico (MCA), and the New Mexico chapter of the National ElectricalContractors Association (NECA). Based on the results of a CAI funded research project todetermine needs and solutions, the certificate program was designed so that practicingprofessionals could take ten core construction courses offered at TVI and UNM and receive thecertificate. In the fall of 2001, the New Media and Extended Learning (NMEL) unit at UNMidentified the Certificate program as a priority program to disseminate across the state of NewMexico and offered to participate with the