AC 2010-2373: RESEARCH EXPERIENCES FOR UNDERGRADUATES INMICROMANUFACTURINGWayne Hung, Texas A&M UniversityJorge Leon, Texas A&M UniversityLuis San Andres, Texas A&M Univeristy Page 15.1033.1© American Society for Engineering Education, 2010 Research Experiences for Undergraduates in MicromanufacturingAbstractTexas A&M University provides research experiences to undergraduate students for microturbomachinery development. The NSF-sponsored summer program allows undergraduatestudents, selected from a large pool of students nationwide, to work closely with TAMUinvestigators and graduate students on topics related to the
2004-824 Changing the paradigm of power in the classroom to teach, promote, and evaluate leadership training within an existing Civil Engineering curriculum Authors: P. Palazolo, C. Camp, A. Lambert, E. Lambert, N. Dennis University of Memphis/University of Memphis/University of Memphis/ University of Memphis/ University of ArkansasAbstract:This project evolved out of three years’ worth of data from junior/senior-level engineeringmajors who completed both pre and post-semester surveys asking them to rate their perceptionsof preparation and training in a variety of areas. Not surprisingly, the majority of
, pooling limited resources, decreasing theadministrative responsibilities of the faculty advisers, enhancing the project experiences,increasing the effectiveness at which project activities are used as recruiting and marketingagents, and integrating “extracurricular activities” into the curriculum. Best practices gainedduring the over four years of SPEED’s existence are also described.introduction Many universities provide project-based team opportunities to their undergraduate studentsvia competition engineering design projects. Usually these projects “live” in individualengineering departments; e.g. the Formula SAE Racing Car project is offered throughMechanical Engineering Departments and the Steel Bridge competition project is
skills (i.e. algebra) were a source of weakness.The ultimate goal is to develop a transferable, sustainable and impactful roadmap to curriculumcollaborations with all the partner disciplines. Before the start of the grant, there were small, adhoc, often accreditation related, conversations about course content. Ideally, we hope to establisha systematic schedule for classroom visits, curriculum conversation meetings, quantitativeassessment of student transfer of knowledge, and qualitative assessment of faculty and studentattitudes of preparedness. After the initial outreach to all the partner disciplines, the team decidedto start small, concentrating on the Differential Equations course, which is comprised of 75-80%engineering students (98
, curriculum, student experience, faculty,learning resources and administrative support. A two-day long site visit was conducted by apanel of two external and two internal peer reviewers. This paper presents planning, preparationand lessons learned from this recent academic review of the program. Some of the highlightedlessons learned are plan early, develop and implement a continuous improvement plan, securefaculty and administrative support to drive success in a graduate program.IntroductionAccreditation is an integral part of most undergraduate Engineering Technology (ET) programsin the USA. Accreditation bodies like ABET ensure that a program meets the quality standardsthat produce graduates prepared to enter a global workforce (ABET, 2019
. Figure 1 is the initial specification sheetdescribing the design goals and quality control specifications. It should be noted that the graphsand equations, along with discussions, were exclusively taken from turned in student reports. Page 8.136.3 Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education FLUID AND THERMAL SYSTEM DESIGN ME 482/582 C.J. KobusDESIGN AND DEVELOPMENT OF A TECHNIQUE FOR AUTOMOTIVE
so that groups of students who need to know a particular skill to complete theirprojects could acquire these skills in a just-in-time (JiT) learning mode. However, some seniorsare still acquiring particular necessary skills even after taking five semesters of design. Thislearning curve sometimes hinders progress on developing these valuable designs and performingsubsequent testing. These sessions have also become inadequate, as the student enrollment has Page 24.1331.4grown. To effectively instruct this larger group of students, we decided that a new strategy wasneeded early in the curriculum. Therefore our goal was to have a significant
are integratedthroughout the course, which allows participants to partially fulfill graduate trainingrequirements in the responsible conduct of research. This paper discusses the development of thiscourse, which is based in part on curriculum developed as part of an ongoing training grant fromthe National Science Foundation. Eighteen graduate students from Engineering and other STEMdisciplines completed the course in Spring 2019, and we present data gathered from theseparticipants along with lessons learned and suggestions for institutions interested in adaptingthese open-source curriculum materials for their own use.IntroductionGraduate students in STEM (science, technology, engineering, mathematics) gain a wealth ofdisciplinary knowledge as
thetopics. As they lack comprehension of the underlying concepts, they may even perceive acontradiction of the concepts as taught by different instructors. Page 12.549.2In an effort to directly assess student learning and to assure consistency of the topics as taughtthroughout the curriculum, a concept inventory of three-dimensional Hooke’s Law,transformation of stress and/or strain, etc. was developed collaboratively by the instructors thatteach those topics in various courses. The assessment tool serves at least three distinct purposes.First, since it was developed collaboratively, it provides baseline-data design of assessment as itassures
undergraduatestudents rarely have the opportunity to use commercial systems as part of their curriculum. Inthis paper, we describe a framework for teaching enterprise decision-making, and examine thevalue of incorporating a hands-on module using the Oracle E-business Suite in a productionplanning and control course. We developed task-specific measures of student achievement andself-efficacy to examine learning, and found that use of the ERP-based modules improvedstudents’ confidence in their knowledge of ERP-based systems as well as traditional productionplanning and control topics.1. IntroductionToday’s organizations are structured around integrated business processes (e.g., productdevelopment, supply chain and order fulfillment) that require close
opportunities and be able to apply it to various projectsthroughout the whole curriculum including the senior capstone research project.Bibliography1. P. D. Galloway, The 21st-Century Engineer: A Proposal for Engineering Education Reform, ASCE (2008).2. B. Barron, “Doing with understanding: Lessons from research on problem- and project-based learning.” Journalof the Learning Sciences. v.7, pp.271-311 (1998).3. J. R. Meredith and S. J. Mantel Jr., Project Management: A Managerial Approach, Sixth Edition. Wiley (2003).4. P. Sanger, C. Ferguson, and W. Stone, “Integrating Project Management, Product Development and SeniorCapstone into a Course Sequence that Creates New Products and Patents for Students.” ASEE Annual Conference,paper AC2009-888 (2009).5
Curriculum developmentEarly in the project, the decision was made to utilize the LabView graphical programminglanguage developed by National Instruments. The students were inspired by the versatility andease of use and were motivated to learn LabView on their own. Their enthusiasm resulted infunding from the College of Engineering and the Student Government Association to obtain dataacquisition hardware and a College-wide license for LabView. As a result, a dedicated course in Page 15.145.9LabView and virtual instrumentation has been developed and added to the ECE curriculum as adually-listed senior/graduate technical elective. Since more and more
that does not have readily apparent real-worldapplication. The curriculum was designed to reflect that assumed bias and the teaching methodsmust follow suit.As such the ESIM program will specialize in a pedagogy that combines lecture and concepttransfer with case and use-case discussion and analysis. Concept transfer is considered to be anessential component of the system-theoretic curriculum. That is, learning to think in terms ofenterprise systems has required the attending faculty to develop concepts and terms that are newto the holistic understanding of the enterprise. These concepts (vocabulary) comprise theparadigm shifting perspective of the general systems framework. Students must become familiarwith the vocabulary of systems theory
components. The PLC trainer typicallyconsists of static components, such as switches as the input devices and pilot lamps and seven-segment LED displays as the output devices. Therefore, various assignments using thoseinput/output (I/O) devices could be given to students to develop ladder logic diagrams. But moredynamic applications with motion control components are necessary to train students to preparefor the real world. The proposed motion control teaching components consist of a humanmachine interface (HMI) terminal, a commercial industrial control trainer (ICT), a stepper motordrive and an ac servo motor drive. For the first exercise, the lesson on the PanelView HMIterminal from Rockwell Automation is given to the class. The students will
application, criticalthinking, and other higher-order learning. One barrier to flipped-classroom approaches has beenthe amount of time required for an instructor to developing adequate support for student learningoutside of class. The Mechanical Engineering Technology program at Kansas State UniversityPolytechnic is in its second year of drawing from online modules from Tooling U-SME,originally developed for technician-level learning of manufacturing technologies, to supportfoundational learning outside of the engineering technology classroom, as well as to assurestudent exposure to industry-standard manufacturing content competencies.Tooling U course modules were mapped across the freshman and sophomore engineeringtechnology curriculum to coincide
and the American Society of Mechanical Engineers.Anthony Dean, Old Dominion University Anthony W. Dean is Assistant Professor of Engineering Technology at Old Dominion University. He received a Ph.D. in Engineering Management and a B.S. in Engineering Technology from ODU. Additionally, Dr. Dean received an MBA from the College of William and Mary. Prior to his appointment, Dr. Dean was Director of Operations and Business Development for Clark-Smith Associates, P.C., and served as an Electrician in the U.S. Navy aboard the USS South Carolina and the USS Enterprise. Page 12.42.1© American Society for
the necessary basic mathematical skills, it was difficult to justify the traditionalupper-division mathematics courses such as differential equations, vector analysis, etc.,as appropriate for the special needs of engineering technology students.To address this issue, the Department has undertaken the development of a new "systemsanalysis" course that will cover the necessary upper-division engineering technologymathematical needs for ET students and it will be taught around a MATLAB basedparadigm. While there are a number of fine computational software packages, MATLABappears to be gaining broad acceptance in the engineering work place as one of theprimary tools for advanced analysis. The course will consist of selected topics in
received hisundergraduate degree from Glasgow University (1981) and Masters (1983) and PhD (1995) from StrathclydeUniversity. His main research interests are in the field of industrial fluid mechanics and in particular two-phasefluid mechanics . His teaching interests involve curriculum development and the application of activeengagement techniques to large class environ ments.M. WHEELDr Marcus Wheel was appointed to a lectureship in Mechanical Engineering at the University of Strathclyde in1993 after having obtained his PhD from the Department of Mechanical Engineering, Imperial College . AtStrathclyde University Dr Wheel has taught a range of subjects including introductory mechanics, computerbased engineering analysis and computational fluid
courses besides thecourses they choose to attend during the "free period". The curricula was elaborated in accordingto the curricula directress established by the Federal Law No. 9.394 known as LDB - Basis andDirectress Law of Education, of 1996 5. Page 7.71.4 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering EducationVI. The Telecommunication Engineering ProgramTo attend the necessity of changes in the curriculum with the goal of modernizing the program,the blocs of courses were developed as it follows
Paper ID #6485University-community partnerships and program development in pre-collegeengineering educationMr. Ethan Alexander Peritz, Tufts Center for Engineering Education and Outreach Undergraduate researcher and curriculum developer focused on expanding the breadth and depth of engi- neering programs in public schools.Dr. Morgan M Hynes, Arizona State University Morgan Hynes is a Research Faculty Associate at Arizona State University conducting research on the impact of product archaeology dissection activities on students’ knowledge and abilities to engineer in broader contexts. Before joining ASU, Hynes was a
compare well with descriptors ofexemplary leaders. For example, “enthusiastic,” “inspiring,” “organized,” “prepared,”“stimulating,” “communicative,” “caring,” “available,” “accessible,” “approachable,”“respectful,” “fair,” “patient,” “dedicated,” “committed.”Bibliography1. ASME International, Leadership Principles, Professional Practice Curriculum Online, http://www.professionalpractice.asme.org/leadership/principles/, accessed 13 January 2004.2. Conley, C.H., Ressler, S.J., Lenox, T.A., Samples, J.W., “Teaching Teachers to Teach Engineering – T4E,” Journal of Engineering Education, January 2000, pp. 31-38.3. ASCE Program Design Workshop, “A Model for Faculty Development in Civil Engineering: The ExCEEd Teaching Workshop
that ensure quality in administering, interpreting, reporting, andmaintaining the ‘Design Team Readiness Assessment’ developed by the Transferable IntegratedDesign Engineering Education (TIDEE) consortium in the Pacific Northwest. A copy of theinstrument can be downloaded from www.cea.wsu.edu/tidee. The instrument assesses designprocess, teamwork, and design communication skills in three different contexts. Previous workhas demonstrated how to achieve high inter-rater reliability through explicit scoring criteria anddecision rules. For this reason, the ‘Design Team Readiness Assessment’ can be used toevaluate the preparation of beginning and mid-level engineering and engineering technologystudents across institutions and degree programs
experience in curriculum development. Dr Husanu developed laboratory activities for Measurement and Instrumentation course as well as for quality control undergraduate and graduate courses in ET Masters program. Also, she introduced the first experiential activity for Applied Mechanics courses. She is coordinator and advisor for capstone projects for Engineering Technology.Mr. David English David English received and Associate in Electrical Technology Degree from New England Institute of Technology, presently David is about to complete his Electrical Engineering in Technology Degree from Drexel University. David has been employed in the power generation field for the past 10 years. The facility where David is presently
Paper ID #31275Challenges in a Freshman General Education ClassDr. Michelle Maher , University of Missouri-Kansas City Dr. Michelle Maher explores student research, teaching, and disciplinary writing skill development and higher education access and equity issues.Miss Kathleen O’Shea, University of Missouri - Kansas CityDr. Jacob M Marszalek, University of Missouri-Kansas City Education: Dr. Marszalek received his Ph.D. in Educational Psychology, Statistics and Measurement at the University of Illinois at Urbana-Champaign in 2006. Teaching: Dr. Marszalek teaches undergraduate quantitative statistics and graduate courses in
returning veterans patterned on his ideas. After becoming president ofOIT (then known as the Oregon Vocational School) in 1946, he gradually sought to upgrade thatschool to met the needs of industry by adding associate degree programs that focused ontechnical skills.This eventually led Purvine to seek accreditation for these degrees through the EngineeringCouncil for Professional Development (ECPD), and so he began to attend American Society forEngineering Education (ASEE meetings) in 1956. Purvine immediately became involved indiscussions about curriculum, which at that time focused on whether there was a need toincorporate calculus into the technical school curriculum. Wentworth College had successfullypersuaded the high schools in its state to
successfully achieve this goal, thereare three specific measurable objectives: 1) Develop innovative course modules to use in current undergraduate engineering curriculum to improve students’ career readiness, 2) Develop graduate certificate program to advance students’ professional preparedness, and 3) Create an online based cost-effectiveness structure to enhance education and learning impacts.There are four major components in this project, including 1) manufacturing related materialsstandards course module development, 2) manufacturing related quality control standards coursemodule development, 3) professional/graduate level certificate program development, and 4)industrial experience sharing through webinar. This two-year
Petroleum Institute is to impart world-class education in engineeringand applied sciences in order to support and advance the petroleum and energyindustries. The Institute strives to develop students as whole persons and as the futureleaders in their respective fields of expertise in the UAE and globally. The mission of ThePetroleum Institute is to provide high quality engineering and science professionalsthrough a continued commitment to excellence in its undergraduate and graduateacademic programs alongside fundamental and applied research serving the Oil, Gas andEnergy sectors’ need for talent, solutions and advanced technical innovations thatcontribute to the UAE society and economy..Curriculum at The Petroleum InstituteThe PI was created in
softwareengineering as one of the fastest growing professions in this decade [6]. This paper describeshow undergraduate programs in software engineering are being developed and how theycompare to more traditional academic engineering programs. In particular, we discuss howsoftware engineering fits into a college of engineering.The Nature of Software Engineering and Other Engineering DisciplinesOne of the obstacles to the advancement of software engineering is an understanding of how itrelates to more traditional engineering disciplines (such as chemical, civil, electrical andmechanical engineering). The 2001 ACM/IEE-CS SE Curriculum project, “SE 2004” [3] citedthe following characteristics that were common to all engineering disciplines, including
suppliers (figure 4).However, the essence of the program is to stimulate interactions between the participantsand to build on their experience. As a result, most of the program in its present form willnot translate easily into a distance-learning format. First-pass Certificate Q1, 2005 Develop courses Add new Add to courses academic “Trickle down” to curriculum Intro-level Offer
early part of the course curriculum includes the reverse engineeringmethodology and its place in product development and competitiveness along with tools such ascoordinate measurement machines (CMM) and 3-D scanners. It is followed by computernumerical control- and additive-based rapid prototyping subjects including fundamentals of rapid Page 15.1187.3prototyping and its role in product development, rapid tooling, and rapid manufacturing. Manualand Mastercam based numerical code (NC) generation, operation of CNC machines andprototyping systems facilitate the hands-on elements of the course allowing students to gainpractical experiences.The