thelocation of some of the sensors being used to gather the building data. All of this was done withthe specific goal of using the building as a ‘living’ laboratory.As originally envisioned the data obtained from the building would be used in various courses inthe Engineering & Technology curriculum. For example, students in Thermodynamics would beable to study the mixing of hot and cold air streams. Directly overhead in the Thermo-Fluidslaboratory room is a large air mixing chamber that combines hot and cold air flows. The flowrate of the hot and cold air streams is controlled through a feedback circuit in order to maintainthe desired temperature in the room. The bare minimum data that is used to run the building’sdaily operation already takes
Paper ID #6995Team-Based Learning and Screencasts in the Undergraduate Thermal-FluidSciences CurriculumDr. Georg Pingen, Union University Georg Pingen is an Assistant Professor in the Engineering Department at Union University in Jackson, TN. He teaches courses across the Mechanical Engineering curriculum with a focus on thermal-fluid- sciences. His research interests are in the areas of computational fluid dynamics, topology optimization, and engineering education. He received his Ph.D. from the University of Colorado in aerospace engineer- ing sciences
teaching through constructive alignment. Kluwer Academic Publishers 1996. Higher Education 32: 347-364. 5. Anderson, M. F., Pérez, L. C., Jones, D. and Zafft, C. (2011). Success Factors for Students Transferring into Undergraduate Engineering Degree Programs. 41st ASEE/IEEE Frontiers in Education Conference 2011. 6. Watermeyer, R., (2011). Curriculum alignment, articulation and the formative development of the learner. International Baccalaureate (IB) literature review report, 2011. 7. Jenkins, D., & Fink, J. (2016). Improving bacclaureate transfer outcomes for community college students: New measures of two- and four-year college efficetiveness. New York, N.Y: Columbia University, Teachers
Metallurgy and a diploma in Industrial Administration (Aston University). He was the recipient of the Henry Morton Distinguished Teaching Professor Award in 2009. In his prior role as Associate Dean, Prof. Sheppard had a leading role in the development of the undergraduate engineering curriculum at Stevens, including innovations in design education and initiatives to include entrepreneur- ship, sustainability, and global competency for undergraduate students.Dr. Gail P. Baxter, Stevens Institute of TechnologyDr. Frank T. Fisher, Stevens Institute of Technology Frank T. Fisher is an Associate Professor in the Department of Mechanical Engineering and former co- Director of the Nanotechnology Graduate Program (www.stevens.edu
the designof pressure sensors with different sets of diaphragm geometries. The design and analysisprocedures were documented and followed by students enrolled in the Nanosystems Engineeringcourse to design and analyze the sensor type of their choice.Keywords: MEMS laboratory, Nanotechnology education, Pressure Sensors2.0 Introduction The purpose of this study was to develop the procedure and streamline the steps for adesign project within an undergraduate course, focusing on an introduction to Micro Electro-Mechanical Systems (MEMS), combined with nanotechnology. The decisions concerning thecontent of this course faced numerous challenges characteristic of an introductory MEMScourse, as outlined by McAfee et al. [1]. These challenges
, with 3D applications. Over these years a number of CADsystems have been employed and all were successful in their time in providing valuableknowledge applicable to post-graduation practitioners. However no system developed asufficient following among the general faculty that they regularly employed CAD as aproblem-solving tool for their course’s technical content. Other applications such asExcel™ have become somewhat ubiquitous across the curriculum, but certainly not Page 6.1098.1CAD. That will change with the availability of Alventive’s IronCAD™.After having used IronCAD™ in several courses during the Fall 2000 semester, a numberof faculty decided
Session 1149 Build It and Will They Come? Refurbishing and Restoring an ECET Curriculum Professors Peter Schuyler and Tom Eppes University of HartfordAbstractSince the 1990’s, nationwide enrollment in engineering technology programs has been declining.It has become increasing difficult to attract and retain students. A number of reasons have beenattributed to this trend including; outdated curricula, loss of manufacturing jobs, off-shoring ofjobs and a weak economy. As a result, competition to enroll students interested in theseprograms is
SUBMITTED TO THE AMERICAN SOCIETY FOR ENGINEERING EDUCATION PACIFIC SOUTHWEST SECTION CONFERENCE UCR, APRIL 18-20, 2013 Using Arduino Microcontroller Based Robot Projects to Teach Mechatronics in a Hands-On Mechanical Engineering Curriculum Andrew Siefert, Jonathan Hoy, Keith Christman, Dr. Kevin R. Anderson, P.E. California State Polytechnic University at Pomona Mechanical Engineering Department Mechatronics and Robotics Laboratory
://news.bbc.co.uk/onthisday/hi/dates/stories/july/6/newsid_3017000/3017294.stmPiper Alpha was an oil rig in the North Sea that was producing crude oil. It had been modified to handlenatural gas as well. There were two large pumps both with relief valves on their discharge. One of thesepumps had been taken off line because of a problem with the relief valve. The valve had been removedand a blind flange (a round sheet of steel) had been used to block off the line from this pump. Normalobligatory maintenance procedure requires that a ticket must be filed with the operating personnel.Unfortunately there was some mix-up and the ticket was never properly processed. Upon start up of thepump with the working relief valve it developed problems and the operating
://news.bbc.co.uk/onthisday/hi/dates/stories/july/6/newsid_3017000/3017294.stmPiper Alpha was an oil rig in the North Sea that was producing crude oil. It had been modified to handlenatural gas as well. There were two large pumps both with relief valves on their discharge. One of thesepumps had been taken off line because of a problem with the relief valve. The valve had been removedand a blind flange (a round sheet of steel) had been used to block off the line from this pump. Normalobligatory maintenance procedure requires that a ticket must be filed with the operating personnel.Unfortunately there was some mix-up and the ticket was never properly processed. Upon start up of thepump with the working relief valve it developed problems and the operating
Paper ID #18235Project-Based Learning Curriculum for the Junior Year Based on Building aLaser Tag SystemProf. Brad L. Hutchings, Brigham Young University Brad L. Hutchings received the PhD degree in Computer Science from the University of Utah in 1992. He is currently an associate professor in the Department of Electrical and Computer Engineering at Brigham Young University. In 1993, Dr. Hutchings established the Laboratory for Reconfigurable Logic at BYU and currently serves as its head. His research interests are custom computing, embedded systems, FPGA architectures, CAD, and VLSI. He has published numerous papers on
. Page 13.1168.1© American Society for Engineering Education, 2008 Teaching Multi-Body Dynamics in an Undergraduate Curriculum: An Intuitive and Explicit Formalism Based on Parasitic ElementsAbstractTypical undergraduate mechanical engineering curricula in North America do not include acourse in multi-body dynamics. A rigid body dynamics course covering single-body kinetics isusually completed in early semesters, and often the material is not revisited before graduation.Students typically graduate without a sense of how to simulate the forward dynamics of evensimple multi-body systems such as slider-crank or four-bar mechanisms. Engineers should havesome increased depth of understanding in this
development engineer in crashworthiness. He hast taught extensively at both undergraduate and graduate levels in civil and mechanical engineering disciplines. Page 23.356.1 c American Society for Engineering Education, 2013 CURRICULUM DESIGN OF STATICS AND DYNAMICS: AN INTEGRATED SCAFFOLDING AND HANDS-ON APPROACHABSTRACT Statics and Dynamics are necessary fundamental components of the engineeringcurriculum for Mechanical Engineering (ME), Civil Engineering (CE), and some otherengineering disciplines. Students typically take these courses at the beginning of their second
knowledge, garnering poor retention of knowledge in students, and generally failing to create apositive enough association to thwart the attrition of students to other seemingly less challenging majors.The ubiquitous progression of technical classes which engineering students march through, coupled with thegeneral disregard of American students towards math, science and technology appears to create a mindset instudents that is quite difficult to change. Calls have been made for transformation in curriculum, bothfundamental and finite although these changes garner limited returns on investment.This project was created to provide a positive association with the declared major, civil engineering, and tocreate a lasting impression to get through the
. Delatte is a registered professional engineer in the States of Ohio and Alabama and in the Commonwealth of Virginia.Prof. Joshua Gisemba Bagaka’s, Cleveland State University Dr. Joshua Gisemba Bagaka’s is a professor of educational research design and statistics in the Depart- ment of Curriculum and Foundations in the College of Education and Human Services at Cleveland State University. He received his Bachelor of Education degree in Mathematics Education from the Univer- sity of Nairobi, a Master’s of Science in Probabilities and Statistics and a Ph.D. in Educational Research Design and Statistics both from Michigan State University. His research interests are in the utilization of hierarchical linear models in
Paper ID #41892Board 98: Engineering Education Curriculum Needs for Achieving SustainableEnergy and Decarbonize EconomyProf. Mansour Zenouzi, Wentworth Institute of Technology Dr. Zenouzi is a professor of Mechanical Engineering in the School of Engineering at Wentworth Institute of Technology. Zenouzi received his BSME (1976) from Iran University of Science and Technology, MSME (1981) from Tufts University, and Ph.D. from Northeastern University (1990). He is Fellow of ASME, EAC of ABET Commissioner, life member of ASHRAE, member of Phi Beta Delta International Scholars Honor Society, and licensed mechanical engineer (P.E
problem.Similar problems appear in Chinese engineering curriculum with the addition of advancedmaterials, such as FEA, optimization, and mechanism simulation materials to undergraduatecurriculum. The authors suggest the development of computer tools to alleviate this problem. Apossible approach is to "compartmentalize" the knowledge by developing units of teachingmaterial with associated computer programs. This approach, to some extent, actually has beenadopted by some engineering schools. Finite element analysis, for example, can be taught as aunit in the capstone design with an available software package. It can be a whole semesterelective course for undergraduates. However, it is probably not possible to cramp FEA,optimization, GD&T, and more
. But internship is not one of the requirements for B.S. degree. In China,most EE programs develop and manage practice courses to give all students a chance to work ina controlled real-life industry environment. These courses are focused on industrial practice andapplications. Most Chinese universities have built up their own engineering training center (orshop) to provide professional technicians and complete advanced equipments for studentstraining.Take SDU for example; there are five practice courses in its EE curriculum: 1. A 3 credits metal - engineering practice course in sophomore first semester. EE students work in the engineering training center for 120 hours to be familiar with the mechanical machining process and
teaches sustainability principles in civil and environmental engineering design, from first-year classes through capstone classes. Her primary research focus is advanced treatment methods for removal of emerging contaminants during water and wastewater treatment. At CalPoly, she works with both civil and environmental engineering undergraduate students to to expand her research into application of sustainable reuse of wastewater reuse, as well as effective storm water management via Low Impact Development techniques. She contributes to Sustainability Across the Curriculum efforts on campus as well.Ms. Tessa Gail Gallagher, California Polytechnic State University, San Luis Obispo Tessa is a fourth-year environmental
interviews have been conducted at companies across thecountry (support NSF-PEER, Award Number 1935674). These interviews have focused onmanufacturing-centric companies, specifically asking about current work force development.From initial qualitative interview results, an aspect of GD&T or engineering design had 84occurrences throughout these interviews. Many interviewees, were engineers within companies,stating that GD&T is currently lacking from the skillsets of engineers. There is a need to improveGD&T curriculum at the undergraduate and graduate levels as well as within the current workforce.This paper discusses the development of a three-tiered instructional framework to teach coreGD&T concepts to undergraduates, graduates and
implementedcurriculum and the learned curriculum6. Each of these phases is a part of the research and designprocess for curriculum as it is created and used in classrooms. In a similar vein, Kelly examinesthe use of design-based research in education by describing an example of research-basedsoftware development in mathematics education and points to ways engineering educationresearch could adopt design research methodologies5 for iteratively creating and testinginnovative teaching methods. Design has been used in engineering education primarily from the point of view of developingstudents’ abilities as designers and considering their use of design processes in learning to beengineers 7 or from the perspective of design professionals8. We use “design research
mathematics is the mostvaluable such skill and also the most difficult to develop. Many inner-urban programsmeant to revitalize or strengthen mathematics education focus on students in middle orhigh school. At this grade level, many students already feel they have no skill withmathematics; they have a correspondingly poor attitude towards mathematics that makesany attempt to improve the mathematics curriculum more difficult. A more useful, iflonger term, approach is to implement change from the bottom (elementary school level)up, rather than middle or high school, where ultimate change is so strongly desired. The authors have introduced a supplemental program in the Pontiac School Districtin Pontiac, Michigan to revitalize mathematics beginning
engineering professionals," in 2013 IEEE Frontiers in Education Conference (FIE), 23-26 Oct. 2013 2013, pp. 257- 263, doi: 10.1109/FIE.2013.6684828.[9] K. Walker, "Integrating Writing Instruction into Engineering Courses: A Writing Center Model," Journal of Engineering Education, vol. 89, no. 3, pp. 369-375, 2000, doi: https://doi.org/10.1002/j.2168-9830.2000.tb00538.x.[10] H. Warren, W. Warren, and B. David, "Assessing The Integration Of Communication Into Engineering Curricula," Honolulu, Hawaii, 2007/06/24. [Online]. Available: https://peer.asee.org/1940.[11] E. Yong and P. J. Ashman, "Integration of the structured development of communication skills within a chemical engineering curriculum at the
and multidisciplinary systems ; 2) use of pedagogies of engagement; and 3) instruction inqualitative and quantitative analysis. The theories of System Dynamics, Dynamic Systems, andOptimization are woven together with concepts from engineering design, engineering science, andsustainability taught in other courses in the curriculum. A five stage analysis process is utilized toprovide structure for the course content, as well as model the complete analysis thought process withfeedback loops scaffolding the students in their application and synthesis of the course material. Avariety of pedagogical approaches, including deep, collaborative, and problem-based learning, havebeen utilized to develop the course learning activities and materials. The
, several barriers toimplementing these types of frameworks exist. First, many engineers continue to hold atraditional, hierarchical view of leadership and thereby may resist the notion that engineering is aleadership profession [7], [8]. Additionally, while many opportunities to gain experience exist,support is needed to provide students with more meaningful development through intentionalengagement and reflection [9]. Providing a comprehensive framework for competencydevelopment faces many challenges, including lack of shared curriculum across engineeringmajors, lack of faculty expertise or commitment to leadership development [10], difficultyimplementing efforts at scale, and misconceptions that leadership is a field best suited for studentsin
achieve and maintain accreditation, and the constant enlargement of theknowledge base. The second part of the challenge is in helping these educators to learn how bestto integrate these realities into their approach to teaching. If faculty members do not adequatelyunderstand the fundamental changes occurring in the global economic landscape, as well as theirimportance6, these topics will not be incorporated into the curriculum and may even be activelydenied their place in the curriculum development process. Many faculty members have not hadexposure to these topics in their educational or professional background. This is perhaps truer ofacademics who have not worked in industry.Through the KEEN Innovators program at Baylor University, selected
practices: JLLA aims to develop leadership andprofessional skills in graduate engineering students through a collaborative “for us, by us”approach and curriculum. The student lead program enhances leadership skills through specializedworkshops and seminars, targeted training, and hands-on learning experiences that extend beyondthe confines of the UConn campus. The workshops address a diverse range of topics, includingleadership development, communication skills, ethical decision making, conflict resolution,feedback skills, and more. Typically, they are structured to provide a fundamental understandingof the topic through presentations, interactive activities, and informative sessions conducted bysubject matter experts. The speakers for the workshop
service. University guidelines recommendthat evidence of teaching excellence should include: ● a teaching philosophy, ● a list of courses taught and enrollment, ● examples of course development, ● course materials, ● self evaluation, ● peer evaluation, and ● measures of student opinion.Evidence of professional development should include an up-to-date curriculum vitae that detailssignificant contributions to the profession through scholarly publications and professional service. Itshould also describe how professional development will continue into the future. Finally, the portfoliomust include evidence of service to the campus and community, such as a list of committees andelective posts held as well as a
at the University of Dayton, and at thattime was a member of the Steering Committee of the SME Manufacturing Education &Research Community (SME-MERC), and Senior Staff of the NSF-sponsored NationalCenter for Manufacturing Education located at U of D.Figure 1: SME Four Pillars [1]Soon after this publication, several manufacturing education researchers, [3], [4], [5], [6],and [7] used the SME Four Pillars to describe curriculum development processes. Sinceits conception, the SME Four Pillars have been utilized across the country and 3internationally as a model for curriculum development for manufacturing engineering andmanufacturing engineering
excellence shallbe accomplished in a spirit of balance conducive to an equitable and respectful learningenvironment. Furthermore, advising has become a separate evaluation area in the new set ofrequirements. Responsibilities of the faculty advisors include: Developing and maintaining knowledge of University policies and curriculum requirements. Maintaining files to document academic progress for students who are assigned as advisees. Communicating to advisees the times and places where the faculty advisors will be available to meet with the student. Reviewing grade reports of that person's advisees and advising them of their significance. Assisting students in pre-registration, advising them