exercise, with curriculumbeing designed to minimise competition with other regional Higher Education Institutions(HEIs). Courses are often planned to attract students who are ‘initiative-’ or ‘technology-aware’ (for example, the recent explosion of courses in Internet Engineering). It is bothdifficult and resource intensive to maintain meaningful advisory relationships with a broadrange of current engineering practitioners. Therefore many HEIs prefer to simply consult aselect band of industrially-based departmental friends when proposals are all but complete.One should therefore not be surprised that our curriculum is not always ideally suited to thecomplexities of the current industrial environment.The University’s PerspectiveThroughout the rapid
AC 2010-1804: PROJECT-BASED CURRICULUM FOR THERMAL-SCIENCECOURSESBrandon Field, University of Southern IndianaDavid Ellert, University of Southern Indiana Page 15.993.1© American Society for Engineering Education, 2010 Project-Based Curriculum for Thermal Science CoursesAbstractThe incorporation of semester-long projects into two different courses are discussed in thispaper, one project in a senior-level Fluid/Thermal Design course (F/TD) in the Engineeringcurriculum and two projects in a junior- or senior-level Thermodynamics and Heat Transfercourse (T-HX) for the Industrial Supervision/Advanced Manufacturing curriculum. The contentof both of these courses has been
Session 1155 Improving Undergraduate Fluid Mechanics across the Curriculum Marc Perlin, William W. Schultz, Marc K. Smith, John F. Foss University of Michigan/University of Michigan/Georgia Institute of Technology/Michigan State UniversityAbstractWe initiated an NSF-sponsored workshop of Faculty and a few representatives from industry toinvestigate methods to increase student expectations and performance in the fundamentals ofundergraduate fluid mechanics education. We originally planned to build a pool of fluidmechanics exam problems and a consortium to provide feedback on evaluation of these
important that the students graduating from our program have the skills required to seek answers and learn on their own. An engineer’s education must continue throughout his or her career.2.a. New and emerging technologies. Give students increased flexibility to focus elective courses or pursue a minor in areas important to the current industry needs: MEMS, nanotechnology, biotechnology, automotive, fuel cells, health science, etc. One way to increase the flexibility in the curriculum, for example, is to reduce the number of required ME core courses and create a four-credit advanced engineering course option. Some topics currently being considered for the advanced engineering course include Manufacturing for Designers
together.One of the benefits of spending many years in industry – over 50 years of combined experience –in new product development, is the experience of leading and managing teams who areconstantly innovating. This includes creating and inventing ways to build new products andprocesses and ways to significantly improve or replace existing products and processes andleading and managing teams of various professions and skills types (engineering, finance,marketing (product and outbound), manufacturing, service and support, etc.), from new hires, toseasoned, to end-of-career professionals. From that experience, we have realized that (1) theformulaic approach to engineering (and business) education has pushed innovation to thewayside, and (2) lack of
Electrical, Electronic and Information Technology, Germany) is one of the largest technical and scientific associations in Europe, interested in manufacturing and process automation, transport and medical Page 10.1123.2 technology, and transfer of technical knowledge. Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright (c) 2005, American Society for Engineering Education d. CE14 (European Commission of the European Union) initiated the "New Approach" to standardization, implemented in 1985, resulting in a new
Paper ID #36464Integrating Universal Design and Accessibility intoBioengineering CurriculumAlyssa Catherine Taylor (Dr.) Associate Teaching Professor in Bioengineering with a decade of teaching experience across introductory, lab, and senior design courses. Interested in topics such as curriculum innovation (e.g., universal design and accessibility), inclusive teaching strategies, incorporating diversity, equity, and inclusion-related course content, technical communication, and accreditation best practices. © American Society for Engineering Education, 2022
moral character and ethical integrity. This professionalrequirement also calls on the engineering educators to develop the engineering curriculumenriched with ethics and professionalism.An engineering undergraduate can passively learn professionalism and ethics through seniorcapstone design, summer internships and undergraduate research. However, these opportunitieshave limitations. Hence, as the instructors in an engineering program, the authors felt more onthe formal teaching and practice on ethics and professional conduct needed to raise theawareness in accordance with ABET Student Outcomes-f and i, and the professional bodyexpectations. Environmental engineering curriculum in the authors’ institution introduces ethicsand professionalism to
deficient, theother both insufficient). Thus, even with similar knowledge on the settings for ESI educationwithin a program, individuals may have differing opinions on what level of ESI education issufficient.A number of the write-in comments to the open-ended question regarding broad thoughts on ESIeducation advocated for an ethics across the curriculum approach, and it seems reasonable thatfaculty with those beliefs would make this effort in their own courses. One example comment is: “Ethics is a very broad topic and I feel, much like it's subtopic of safety, it is best integrated across the curriculum rather than in a single course. In this way students do not compartmentalize ethics into a philosophical and case study
, which is a natural extension of the PBL experience. In additionto illustrating how we have incorporated PBL experiences in our curriculum, this paper willinclude examples of problems, tools, and assessment techniques designed to promote thelearning of these soft skills.IntroductionIn order to achieve ABET accreditation, engineering programs must demonstrate achievement ofa minimum set of program outcomes, as described in ABET’s Criterion 3. These outcomes arestatements that describe skills that “students are expected to know or be able to do by the time ofgraduation from the program.”1 A closer examination of these skills suggests that they can bedivided into two sets as illustrated in Table 1. The first set, one which engineering educators
research. While some repetition of resources and conceptsis valuable to include in classes with sophomores and upper level students, a balance must bereached to avoid that common response of “I already know about that.” Examples ofinformation literacy across the curriculum of specific engineering departments have beendescribed.7,8 This paper addresses efforts to fit information literacy into a more general designcurriculum that is in place at the authors’ institution.At Trinity University, a small liberal arts university with an engineering science department, aformal campus-wide information literacy program has been adopted that targets all students, atall levels of the curriculum and even across co-curricular activities (international programs
Session 2793 Integration of GIS in Civil Engineering Curriculum M. Saleh Keshawarz, Donald Leone, David Pines, Beatrice Isaacs Department of Civil and Environmental Engineering University of HartfordAbstractGeographical Information System (GIS) has traditionally been used in geography and naturalresources curricula in the United States. The University of Hartford is among a few institutionsthat early on recognized the impact of the new GIS technology on Civil Engineering programs.GIS technology is rapidly expanding into most areas of Civil Engineering. As part of a
Society for Engineering Education, 2013 Introducing a Business Acumen into an Engineering CurriculumAbstractThe Electrical and Computer Engineering (ECE) department at the Western NewEngland University began an effort to integrate business acumen into the ECEcurriculum. The effort started in academic year 2011 – 2012 with two required lab-basedECE courses and one lecture-based design elective course. For academic year 2012 –2013 the effort has been expanded to include four additional lecture-based courses.Students enrolled in the Junior EE Lab sequence, EE Lab I (EE 319) and EE Lab IIa (EE323), are required to develop a budget for each lab experiment. The budget is an estimateon the costs associated with performing the lab experiment. Students
Society for Engineering Education Annual Conference & Exposition and presented in the Chemical Engineering Division, June 27, 2022.[A7] University of Michigan. Process Safety Across the Chemical Engineering Curriculum. Process Control Safety Modules. Module 1: T2 Laboratories Explosion. http://umich.edu/~safeche/courses/ProcessControl.html[A8] S. Thorton, S. Folkmire, E. Smith. M. Zona, and M. Pfahles. Safety Assignment. Systems Engineering, I: Dynamics and Modeling. Unpublished material. University of Pittsburgh, 2021[A9] J. Rodriguez et al. Chemical Engineering Capstone Course Improved for Broader Impacts. 2023 ASEE North Central Region Conference. Morgantown, WV, 2023[A10] G. Nitchman, J. Simonelli, M. Smith, E
design suggestionsof the younger students and teachers as well as ensure that the STEM tools provide anunderstanding of a required learning outcome specified within the curriculum. Thus far, as aresult of the ALLIES collaboration, three STEM tools have been developed and donated toschools in both nations: a catapult and two table top wind tunnels. While the catapult wasdonated to a school in South Africa and the wind tunnels were donated to schools in the US, allthree STEM tools were designed and fabricated with input from both CPUT and UAHengineering design students. In 2013, the ALLIES effort expanded beyond the design anddevelopment of STEM tools to include workshops aimed at motivating and inspiringundergraduate students and educators
of the regular versus I2 classroom. Page 7.866.9 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering Education The primary method utilized will be a crossover design that helps to mitigate an order effectfor instruction. First, students from the two courses will be randomly assigned a group number, Ior II. Students with group I designation will attend class in the regular classroom on the first dayof instruction. Students with group II designation will attend class via a remote site with accessto the I2
Engineering Education Annual Conference & Exposition, 2004.3. M. Al-Haik et al., Introducing Nanotechnology to Mechanical and Civil Engineering Students Through Materials Science Courses, Journal of Nano Education, vol. 2, pp. 13–26, 2010.4. D. Pai et al., Introducing Nanotechnology into Traditional Engineering Curricula, 9th International Conference on Engineering Education, Session T1D, pp. 11-16, 2006.5. M. Uddin and A. R. Chowdhury, “Integration of Nanotechnology into the Undergraduate Enginnering Curriculum,” International Conference on Engineering Education, Session 8B2, pp. 6-9, 2001.6. N. H. E. Weste and D. Harris, CMOS VLSI Design, 4th edition, Pearson–Addison-Wesley, 2011.7. M. Prince, “Does Active Learning
construction graduates:Industry perspective. Journal of Professional Issues in Engineering Education andPractice, 138(2), 123-130.Haupt, T. (2012). Student attitudes towards cooperative construction educationexperiences. Construction Economics and Building, 3(1), 31-42Saad, I. (2018). Towards an assessment of SLO 9: Working in a multidisciplinary team. Journalof the American Constructor/American Institute of Constructors, Spring (March)Saad, I. (2014). Mapping the curriculum around student learning objectives and assessment,151st International Conference and Exhibition, American Society of Engineering EducationASEE, Indianapolis.Kotter, J. (1995). Leading Change: Why Transformation Efforts Fail, Harvard Business Review,March-April
. Page 11.763.1© American Society for Engineering Education, 2006 Infusing the Materials Engineering Curriculum with Sustainability PrinciplesABSTRACTIn order to better prepare our students for the complex, global world outside the confines of theuniversity, we have been making concerted efforts to incorporate sustainability principles (i.e.,balance of economics, society, and environment) within the materials engineering curriculum atCalifornia Polytechnic (Cal Poly) State University. Many future engineering tasks will requirethe understanding of complicated interplays of technology with the environment and society. Inaddition, energy demands and dwindling natural resources have emerged as
Paper ID #44620Developing Teamwork Skills Across the Mechanical Engineering CurriculumMs. Mary M McCall M.A., University of Detroit Mercy I taught Technical Writing and Business Communication at the university and community college level for more than 30 years before retiring in May 2023. My current focus at Detroit Mercy continues to be the Embedded Technical Writing Program for Mechanical Engineering, now in its seventh year.Dr. Nassif E Rayess, University of Detroit Mercy Nassif Rayess is Professor and Chair of Mechanical Engineering at University of Detroit Mercy. He was part of the efforts to introduce entrepreneurially
Page 7.650.1 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationand graduate levels, including biology and biochemical engineering components, laboratoryapplications and research projects.The Revised Curriculum The Chemical Engineering Department has offered an elective course in biochemicalengineering since the early 1980s. In the mid 1980s, a Biochemical Engineering Laboratory wasbuilt by the College, furnished by Duracell Corp., and equipped with grants from NSF, NIH andthe New York State Science and Technology Foundation plus donations from industry. Thelaboratory includes equipment for
conductexperimental evaluation and testing. The rubric was less informative on engineering analysisskills as design projects varied in scope and coverage of these areas.IntroductionThe Accreditation Board for Engineering and Technology (ABET) asks that all engineeringprograms work to achieve a series of educational objectives including: a. an ability to apply knowledge of mathematics, science, and engineering b. an ability to design and conduct experiments, as well as to analyze and interpret data c. an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability d. an ability to
critical thinking about topics and problems other thanthose they have been tutored to respond to for passing examinations.Owing to preconceived archaic notions, education is generally “one way”. Teachers lecture andstudents listen without questions or open discussion. This has resulted in minimum interactionbetween students and teachers. Generally, in western schools, student-teacher interactions areencouraged and expected. Enlightened educators today have come to realize that it is importantnot only to ask questions, but to learn how to ask the right questions. “Two-way” interactionbetween teachers and students stimulates learning, helps develop positive attitudes, and fosterscreativity and independent thinking.Curriculum: The curriculum is an
of Engineering: i) theadvancement of personalized learning, which moves from a generic type of educational style toone with more innovative, engaging, computer enhanced teaching techniques; and ii) theenhancement of virtual reality to create imaginative environments for education andentertainment. CA2VES brings together the academic strength of three of the state’s largesttechnical colleges with significant A2 programs: the 3-D visualization development capability ofthe Southeastern Institute of Manufacturing and Technology (SiMT) at Florence-DarlingtonTechnical College; and the technical, research, engineering, and leadership strength of bothClemson University (CU) and CU-ICAR (International Center for Automotive Research). Thestate’s
might be: • Feasibility of converting campus waste streams into biodiesel, ethanol or methane • Design of active daylighting systems for campus building • Passive and active solar designs for new academic buildings • Energy usage behavior modification studies • Surveys to estimate student energy literacy • Cost/benefit business analysis for using alternative energy on campus • Energy audits for campus sectors such as dormitories, athletic facilities or computing equipment • Development of curriculum to educate local stakeholders about insulation • Estimating economic consequences of providing campus hot water via renewable resourcesStudents will be quite creative here. These activities not only
national conferences, Ahmad offered presentations and workshops in using technology in classrooms to enhance student engagement, and facilitate assessment and grading. He enjoys interactive teaching and is constantly exploring and using new teaching styles and technology tools to make the knowledge transfer process as smooth as possible. His unique teaching approaches are always recognized by his students and colleagues and have resulted in 3 Outstanding Teaching awards. His research interests include En- gineering Education, Additive Manufacturing, Computer Vision, Robotics, Active Vibration Control, and Optimization. www: http://bit.ly/DrFayed Research Gate: https://www.researchgate.net/profile/Ahmad- Fayed LinkedIn
American Institute of Aeronautics and Astronautics (AIAA) and American Society for Engineering Education (ASEE). Birch has over 20 years of experience in detail design, engineering, and engineering management in the aerospace and process equipment industries. Page 26.991.1 c American Society for Engineering Education, 2015Integrating MS Excel into ET Curriculum Page 26.991.2 Integrating MS Excel into ET CurriculumAbstract: All STEM (Science, Technology, Engineering, and Mathematics) fields requirefundamental knowledge and application of
course.IntroductionA meaningful educational experience for an undergraduate intending to pursue a career in high-frequency / microwave electronics requires involvement in a curriculum that both stressesfundamental concepts and provides thorough exposure to modern design tools and techniquesroutinely used by experienced practitioners in the field. To meet this need, several universitieshave developed courses that allow students to design, simulate and test microwave components.However, there are two key areas in which many of these courses could be further developed: (1)students should be given an opportunity to use their newly developed component-level designcapabilities toward a system-level problem and (2) students should engage in activities thatprepare
seeking students with powerengineering background. These companies include power equipment manufacturers, consultants,chemical companies, automotive companies and more.A new set of companies looking for power engineers are naval ship builders and other shipbuilding support industries. The new all-electric ship program provides a platform for increasedcontrol and utilization of electric power systems to improve ship features of reconfiguration andsurvivability. The industry now needs more electrical power engineers to solve its futurechallenges.This paper will describe efforts at our university to integrate more shipboard power system topicsinto the undergraduate and graduate curriculum. The shipboard power system provides someunique challenges
Session 2125 Integrating PLM Methods into the Undergraduate Curriculum Russell T. Frame, Charles Pezeshki, M. Grant Norton School of Mechanical and Materials Engineering Washington State University, Pullman, WA 99164Abstract The methodology used to design new products is changing as computertechnology advances. Companies worldwide are adopting Product Lifecycle Management(PLM) solutions to stay competitive. This technology allows control of all aspects of thedesign process from initial concept to obsolescence and disposal. A database manages allinformation, controls access to data, and lets