Industrial Engineering.Dr. Bimal P. Nepal, Texas A&M University Dr. Bimal Nepal is a Rader I Professor in the Industrial Distribution Program at Texas A&M University. His research interests include the integration of supply chain management with new product development decisions, distributor service portfolio optimization, and engineering education.Glen Miller ©American Society for Engineering Education, 2023 Assessing Awareness and Competency of Engineering Freshmen on Ethical and Responsible Research and PracticesAbstractThis paper presents the progress made in the first year of a five-year National ScienceFoundation’s Ethical and Responsible Research (ER2) program-funded
circulatescontinuously as we perform continuous improvement to seek perfection. Figure 1: The Lean CycleValue DefinitionThe focus of this paper is on improving teaching efficiency for engineering faculty. Efficiency,however, is insufficient if the teaching is not effective. As such, this paper defines value as thecreation of an Efficient and Effective Engineering Educational Experience (5E). This includesboth student and instructor, though our focus here is on the instructor side of this value.Defining the Value StreamThe value stream is the process that produces the value. In a manufacturing process, the valuestream is typically a sequential process where a manufactured part goes from raw material tofinished product in a set
field of micro-manufacturing, precision control, manufacturing, and mechatronics. His research also includes control optimization and system identification. He is also a graduate teaching assistant of design for manufacturability.Prof. Leon Liebenberg, University of Illinois at Urbana-Champaign American c Society for Engineering Education, 2020 Paper ID #30769For the past 25 years, Leon Liebenberg has been engaged in engineering teaching, research, and commu-nity engagement. He was a professor of mechanical engineering at two South African universities (Uni-versity of Pretoria
outlines theprogram’s development, curriculum structure, industry collaborations, and role in addressingregional agricultural challenges, providing a model for interdisciplinary agricultural education. IntroductionThis interdisciplinary program offers students online and hands-on learning along with critical-thinking experiences with advanced tools, including sensors, unmanned aerial vehicles, software,and data analytics platforms that are transforming modern agriculture. Through partnerships withindustry and ongoing faculty-student engagement, the program not only enhances students’technical expertise but also encourages innovative problem-solving approaches to addressregional agricultural challenges, such
meaningfully contribute to the positive changes that are inprogress and encourage others to also contribute.”“One thing that stuck out to me in the documentary was how the EPA said they divided up the problem area intounits rather than looking at the problem as a whole. I really hope that the Smith engineering education will allowme to look at problems as a whole or at least be more aware of what my blind spots are/what things I may be lessknowledgeable about so that I will be able to look at problems more holistically and not create more problems bytrying to solve one problem.”Elements of SuccessThere are three main elements to the course design that were especially effective in this course: (1) The students were members of a strong cohort. They
T4C-1 - T4C-6. Available from: http://fyee.asee.org/FYEE2013/papers/1023.pdf. communicating with it. Even though the myRio connects via USB, it installs as a network device. This means that the device is subject to firewall settings and other [2] Jamshidi I, Lea P, Miller J, Sandvall E. A collaborative approach for network issues. The authors could have made better use first-year engineering curriculum. In: Proceedings of the 7th First of their contacts at NI, asking for help in resolving these Year Engineering Experiernce (FYEE) Conference [Internet
team that contributed the majority of the ideas to the project [6]. Then the PatentBoard would give its recommendations to the vice presidents of the two universities. Table I. Patent policy differences between the universities, showing LMU’s interim policy. Intellectual Property LMU’s Interim Patent ETSU’s Patent Policy Policy Resources used in work Any university equipment, University cost > $1000 Page 6.904.2 “Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright © 2001, American Society for
, Brooklyn, N.Y. Latif, N., Zahraee, M., Sikoski, A., Rosul, B., (2012) Manufacturing Workforce-report on NSF-ATE project pertaining to Mechatronics Technician Development. [CD-ROM]. 2012 Proceedings of the Annual Conference of the American Society for Engineering Education, June 10-13, San Antonio, Texas Latif, N., Wilson, N. (2011). Industry Education Partnership: Mechatronics Engineering Technology Program Development. Proceedings of the 2011 American Society for Engineering Education Annual Conference & Exposition, June 26 – 29, 2011, Vancouver, BC. Canada. Rosul, B., Latif, N., Zahraee, M., Sikoski, A (2011) Modular Curriculum Development for Mechatronics Technicians. Proceedings of the 2011 American Society
technology. They spendtheir first year in the BSEMET program (the junior year) cross-training in their alternatediscipline. Students spend the senior year of the program learning specialized technicalknowledge in selected areas of engineering technology related to the electro-mechanicaldiscipline. Both components (associate degree and the junior and senior years) consist of highlystructured curriculum schedules. While a large number of baccalaureate degree engineeringprograms at US institutions encourage students to participate in co-op programs (programswhich require students to work in industry at least one full-time semester per year), Penn StateAltoona BSEMET students cannot participate in a co-op program without falling out of theBSEMET course
AC 2010-1145: HERMANAS: DISEÑA TU FUTURO: INTEL CORPORATION ANDESTRELLA MOUNTAIN COMMUNITY COLLEGE PARTNER TO INCREASELATINAS IN STEMArlisa Labrie Richardson, Estrella Mountain Community College Arlisa Richardson earned her Bachelor of Science in Physics from Grambling State University, a Masters of Science in Physics from the University of Texas at Dallas, and a Masters of Science in Engineering of Materials from Arizona State University. In 2008, she completed a Ph.D. in Curriculum and Instruction specializing in Science Education at Arizona State University. Her research focused on the development of students’ tinkering self-efficacy during a freshman engineering design course
Electrical engineering this is unnecessary, and displaces other useful techniques from Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationalready full curriculums. Consider the very fundamental case of a falling mass experiencing aero-dynamic drag which results in an equation of the form, 2 My'' + 0.8 ( y' ) = Mg . The velocity squared term will prevent the equation from being converted to a transfer func-tion, and prevent system analysis with Laplacian methods. However, this system can be integratedas a separable equation, or integrated numerically by converting it to a state
based learningsystem available to all educators, without requiring that they have computer expertise.Bibliography1. Bonwell C. C. and J.A. Eison, Active Learning: Creating Excitement in the Classroom. Washington, DC: George Washington University, 1991.2. Brooks, J. G., and M.G. Brooks, The case for constructivist classrooms, Alexandria, VA: Association for Supervision and Curriculum Development, 1993.3. Johnson, L.A., and D.C. Montgomery, Operations Research in Production Planning, Scheduling, and Inventory Control, John Wiley and Sons, 1974.LOUIS J. PLEBANILouis J. Plebani is an Associate Professor of Industrial and Manufacturing Systems Engineering at LehighUniversity. He received his Ph.D. in Industrial Engineering at Lehigh, after
variety of reasons. Student may not have had the opportunity foradequate mathematics preparation or may not have the ability necessary to handle college levelmathematics. They may need to improve upon their problem solving skills and other learningskills. They may need time to explore whether or not their interests and abilities are sufficient toeffectively learn the mathematics and science that are prerequisite for success in engineering.They may need more exposure to engineering to make a final commitment to the intenseeducation process that lies in front of them.Such students have unique advising and educational needs. Thus, a fundamental issue in anyengineering curriculum is how to engage these students in the engineering educational process
Submission System.5.1 Observed SuccessesThe instructional team gains a better understanding of the general feeling within their classroomfrom the responses and can change behavior, or teaching approaches based upon studentresponse. Administratively, responses are read and used to assess course progress and overallstudent satisfaction.In the past, responses have been used to assess the use of technology in the classroom, andmeasure student satisfaction in instructional team, teaching styles, curriculum decisions, policies, Page 7.162.8 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition
Engineering Education, 2022 2022 ASEE Annual Conferenceappreciate differences in language, culture, policy, and more. For example, Embraer ExecutiveJets manufactures the fuselage of mid-size jets in Botucatu, Brazil and their wings in Évora,Portugal. Afterwards, these critical structures are carefully shipped to Melbourne, Florida for finalassembly. To achieve safe aerostructures like this, technical interaction between team membersspanning several countries must be very effective. Exposing engineering graduates to other cultures is a distinct advantage to the employerand the employee [1]. Global awareness can be installed in college students via study abroadexperiences. As a result, students are better
experiences,using examples that are associated with the foregoing issues. I. IntroductionThe Engineering Criteria 2000 is an outcome assessment process that requires various criteria forinstitution seeking accreditation. These criteria include; Criterion 1. Students Criterion 2. Program Educational Objectives Criterion 3. Program Outcomes and Assessment Criterion 4. Professional Component Criterion 5. Faculty Criterion 6. Facilities Criterion 7. Institutional Support and Financial Resources Criterion 8. Program CriteriaAlthough the process and criteria are designed to accredit quality-engineering programs, theyhave several weaknesses and their implementations demand enormous resources
Figure 2 illustrates the general I/O structure of any microcontroller. Class experience withstudents who lack background in microprocessor systems has shown that Figure 2 sends a veryclear image to students on how microcontrollers work, and also it heavily simplifies the learningprocess in the next topics on microcontrollers. Since there are many types of microcontrollers in the market with different capabilities de-pending on the number and functions of its I/O ports and system memory, students must be taughtto understand that each manufacturers provides all details on the critical information about eachof their microcontrollers. To that end, students will be told that the microcontroller specific in-formation found in textbooks is not
process, and simple queueing systems. The basicprobability portion of the course is intended to reinforce and deepen knowledge of the probabilityconcepts taught in the preceding statistics course. The reliability portion is meant to furtherstrengthen knowledge of basic probability concepts, while at the same time introducing animportant application. The remainder of the course is completely new material for most of thestudents. It is a standard part of the industrial engineering curriculum, although I suspect thatvery few students who learn it in a traditional way will ever apply it.As theory, probability is rich and beautiful, and students should be taught to appreciate it. Theyshould also, however, be taught to connect the theory to engineering
academic curriculum through MET/IEM 4953/5953 to train students in applyingenergy engineering principles through energy audits. The course introduces students to industrialassessments, primarily energy, quality, and productivity-management. In addition to training andclasses, the IAC also spreads awareness about the program and provide the students withleadership skills in promoting energy efficiency among the OSU students. IAC students are alsoinvolved in establishing two separate student chapters at OSU, namely (i) Society ofManufacturing Engineers (SME), and (ii) Association of Energy Engineers (AEE). The objectiveof SME is to educate students on manufacturing technology, manufacturing processes, and allowstudents to network. Similarly, the
, Villanova University Ever since I was a child, I’ve been intrigued by every aspect of technology. This curiosity would propel me toward learning about technology and want to learn how items are made. Fast forward a few years, I am an electrical engineer who wishes to focus on RF & optics. It’s been a hard journey getting through school but I enjoy every moment and lesson learned.Karla Trotman, Electro Soft, Inc Karla Trotman is the CEO and owner of Electro Soft, an American company that creates custom electron- ics manufacturing solutions for clients in aviation, rail, transit, OEM, and defense. She has a background in e-commerce, online marketing, purchasing, global scheduling, and supply chain logistics. She holds
Session 3561 Development of engineering professional abilities in a co-curricular program for engineering sophomores Charles Leiserson Barbara Masi Chris Resto Dick K.P.Yue MITIntroductionLike many engineering schools, MIT found itself faced with the challenge of providingengineering students with an educational program that develops an ever-broader range oftechnical and non-technical abilities. With the primary curriculum already
Science in Civil Engineering Curriculum. Category (Credit Hours) Engineering Year; Math & Topics Check if ContainsSemester or Course Basic Significant Design General Quarter (Department, Number, Title) Sciences (X) Education OtherYear 1, Fall ENGL 1013 Composition I 3 MATH 2554 Calculus I 4 CHEM
Paper ID #18001Student Perceptions of Concept Mapping in a Foundational UndergraduateEngineering CourseProf. Ning Fang, Utah State University Ning Fang is a Professor in the Department of Engineering Education at Utah State University, USA. He has taught a variety of courses at both graduate and undergraduate levels, such as engineering dy- namics, metal machining, and design for manufacturing. His areas of interest include computer-assisted instructional technology, curricular reform in engineering education, and the modeling and optimization of manufacturing processes. He earned his PhD, MS, and BS degrees in mechanical
this topic through first-hand experience as a visiting scholar from a Chinese engineeringuniversity. First, the engineering education reforming taking place in China will be described bylooking at Chinese current EE curriculum requirements. And then, the curricula, semesterarrangement, credit and degree systems are compared between Chinese and U.S. electricalengineering undergraduate programs. The emphasis on math, core EE subjects, project designand working experience in industry is stronger in Chinese EE programs comparing to that of U.S.universities. But the tendency of teaching as many core subject courses as possible has resultedin a complete neglect of computer aid and modern tool applications in the curriculum. Thesedifferences may have
Engineering Education” manufactured by Stanford Research Systems. Use of PS-310 requires a 50 kΩ limiting resistor in series with the power supply. The PS-310 produces output voltages with a one-volt resolution.Spectral Studies Using Gas Discharge TubesGas plasmas emit light as a result of the excitation-relaxation processes in the gas plasma.Specific wavelengths of light emitted by an excited gas provide a characteristicfingerprint for a given gas. Spectrum tubes for common gases, e.g. nitrogen, helium,argon, and neon, are relatively inexpensive, but require a spectrum tube power supply toproduce an excitation voltage of 5000 volts @ 10 mA.Traditionally, the spectra for a given gas plasma is viewed by students using a hand-heldspectroscope
Manufacturing Education) Hillsborough Community College 2 University of South Florida – Department of Electrical Engineering 3 University of South Florida – Department of Chemical EngineeringAbstractThe National Science Education Standards state that "any presentation of science withoutdeveloping an understanding of technology would portray an inaccurate picture of science." Itfurther notes; "High school students do not distinguish between the roles of science andtechnology". Today’s high school students are exposed to an ever-increasing amount of hightechnology that impacts their everyday lives. Still, the number of students that possessknowledge or understanding of the underlying principles
the students felt more confident that they could complete a more complexrobot. Overall, student’s self-reported knowledge of servos, motors and using manufacturingequipment increased based on survey results. The activity described in this paper has had a largeimpact on overall manufacturing confidence and course outcome for students.IntroductionUndergraduate mechanical engineering education usually places a high priority on designexperience. This is partly driven by the requirements the Accreditation Board for Engineeringand Technology (ABET) sets for engineering degrees1 . ABET criteria (a) through (k) includedesign explicitly, especially through criteria (c) and (b). The ABET criteria also implicitlyinclude design through requirements for
-Implement-Operate (CDIO), while making the key success-enabling principle ofthe Minority Engineering Program model--collaborative learning--an explicit and integrated partengineering curriculum design. The approach involves establishing a model framework foradapting and implementing CDIO so that it: can be generalized for and have programmaticimpact at other predominantly minority institutions similar to CSUN; can contribute to anevolving community of interaction, development and ongoing improvements in the education ofminority engineering students; and can significantly increase the number of minority studentsable to Conceive-Design-Implement-Operate new products and systems. The framework consistsof two components: adaptation and implementation
guides to assist the States in thedevelopment of technical education programs. The guide for Electronics Technology wasextensively used to design new electronics programs at the post-secondary level [1]. The statedgoal of the curricula proposed by the guide was to produce competent technicians that couldwork with engineers and scientists: doing research and development work or serving as customer(field) service, operations (manufacturing), and communications technicians. As already stated,although forty years has past and incredible technological change has occurred in the field, littlechange has occurred in the typical curriculum leading to a degree in the electronics area. Evenwith the addition of new technical subject matter into the typical
strategies.identification of the development IV. Pilot testing of materials.teams, facilitate the work of thedevelopment teams, and review the V. Revision of curriculum materials.products of the teams to ensureconsistency and continuity. The curriculum Table I Steps for Integrated Competencies Page 6.806.3development model was designed to draw Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Educationon the expertise of as many of the trained faculty members as