not reinforced in the academic program because subjectmaterial is not coordinated across the curriculum. We believe entry-level manufacturing engineerswould be better prepared if their undergraduate classes worked together in an integrated manner.The Manufacturing Enterprise Company (MECO)The MECO approach introduces an actual industrial project into the academic sequence everyyear. The project requires design or redesign, development and process planning, casting andCNC machining to create prototypes, and cell layout and group technology for productionplanning as it moves through various classes over the four semesters. Students in variousmanufacturing courses (see Table 1), usually in work teams, to advance the part from adesign/redesign
AC 2011-1296: INTEGRATION OF MOBILE TECHNOLOGY INTO UN-DERGRADUATE ENGINEERING CURRICULUMTao Xing, Tuskegee University Tao Xing is an assistant professor of mechanical engineering department at Tuskegee University. He re- ceived his Ph.D. in Mechanical Engineering from Purdue University in 2002. His recent research focuses on computational fluid dynamics, most recently applied to renewable energy, and integration of mobile technology into engineering courses and laboratories. Address: Mechanical Engineering Department, College of Engineering and Physical Sciences, Luther H. Foster Hall, Room 532, Tuskegee University, Tuskegee, AL 36088 Ph: (334) 727-8986 (O), Fax: (334) 727-8090, Email: taox@tuskegee.edu, Web
ship are underway inindividual projects, such as the ONR Young Investigator Program, as well as large consortia,such as the Electric Ship Research and Development Consortium including Florida StateUniversity, Massachusetts Institute of Technology, Mississippi State University, PurdueUniversity, U.S. Naval Academy, University of South Carolina and University of Texas-Austin.The increased demand in industry and needs for engineering talent in naval related researchprovide an opportunity for universities to look at integrating naval shipboard power systemapplications into the curriculum. Like many topics, naval power system topics lend themselveswell to graduate courses. However, our university is working to integrate naval power systemsinto
theopportunity to participate in such an integrated curriculum at Texas A&M for the past two tofour years. Several major changes were made in the first-year calculus sequence in order topresent various topics at the times they were applied in other courses. We have found that thesechanges not only serve the needs of the partner disciplines, but also provide a more unified andcoherent treatment of some topics from the point of view of mathematics itself. Vectors,parametric curves, line integrals, and especially centers of mass and moments of inertia aretopics that students traditionally find difficult, unmotivated, or confusing because of inconsistentnotation or terminology in different courses; covering them “early” actually improves
collection and analysis. Section 6 presents the results achievedfrom data analysis. Section 7 concludes the paper and discusses possible future work.3 Background3.1 Integrated Learning (IL)There is often a gap between what academia teaches to students and what industry needs fromgraduates [14]. To effectively participate in teams within industry, some high-level skills areneeded. In real projects, challenges in combining different concepts will arise. Designing a qual-ity curriculum can accelerate the required skill-learning speed. In traditional teaching models,courses are offered in vertical sequence, and students may not have the chance to contribute tosimulated realistic projects [3]. IL is an approach used to help students face challenges
Session 3253 Teaching an Integrated First-Year Computing Curriculum: ‡ Lessons Learned D. Cordes, A. Parrish, B. Dixon, R. Pimmel, J. Jackson, R. Borie University of AlabamaAbstract: This paper describes an integrated first year curriculum in computing forComputer Science and Computer Engineering students at the University of Alabama.The curriculum is built around the basic thrusts of the Foundation Coalition, andprovides an interdisciplinary introduction to the study of computing for both majors.IntroductionThe University of Alabama is one of
teaching areas are in Electronics, Computer Aided Design (CAD), and Alternative Energy Systems. Research interests include: low power energy harvesting systems, renewable energy technologies and education.Dr. Ulan Dakeev, Texas A&M University, Kingsville Dr. Ulan Dakeev is an Assistant Professor in Industrial Technology Department in the College of En- gineering, Texas A&M University - Kingsville. His areas of research include renewable energy (wind energy), quality in higher education, motivation, and engagement of students. c American Society for Engineering Education, 2019 Integrating Geothermal Energy Education to an Engineering Technology
Session 3647 Development of an Integrated Mechanics Curriculum for Engineering and Engineering Technology. Mukasa E. Ssemakula, Roger W. Pryor, Paul J. Eagle and Jonathan M. Weaver Division of Engineering Technology, Wayne State University/ Institute for Manufacturing Research, Wayne State University/ Department of Mechanical Engineering, University of Detroit Mercy/ Department of Mechanical Engineering, University of Detroit MercyAbstract Understanding of mechanics is a fundamental requirement in many areas of studyin both engineering and engineering technology. This paper describes a
Paper ID #27263An Integrated Four-year Hands-on Design Curriculum: A Case StudyDr. Emad W. Jassim, University of Illinois at Urbana-Champaign Dr. Emad W. Jassim is an Assistant Dean for Undergraduate Programs in the College of Engineering at the University of Illinois at Urbana-Champaign. Prior to this position he was the Director of Under- graduate Programs at the University of Illinois at Urbana-Champaign Department of Mechanical Science and Engineering (MechSE) where he also served as Chief Advisor, Senior Design Project Coordinator, and lecturer of thermal/fluid science courses. He received his BS, MS, and PhD from the
inBrigham Young University’s College of Engineering and Technology has integrated theleadership curriculum into its individual graduation requirements for seniors graduating in 2014and beyond. Early adopting departments now have several years of experience. Enrollment inthe required sophomore Leadership Foundations course has risen from several dozen students toroughly 1,000 students annually including approximately 20 percent student participation fromoutside the college since it is an approved General Education course. This paper presents thelongitudinal evolution of the curriculum in response to faculty concerns, student interest andexperience levels, and departmental constraints.Introduction and BackgroundLeadership skill development has become
among students. Simultaneously, the level of trust in public and private institutions, interms of the honesty and integrity of those in leadership, is dwindling. For engineers, whoseoccupation allows them potential for positive or negative societal impacts, it is critical that theirdecisions involve sound ethical judgment. Despite this obvious need, the amount of time given toethics in an engineering curriculum is minimal. With all the knowledge and skills needed inengineering, it seems as if there is neither time nor space to teach ethics.Consequently, the results are predictable. During a recent meeting of engineering students,the students were asked what kinds of ethical questions they encountered at work or intheir studies. The majority
at Loyola University Chicago. She teaches graduate-level courses in program evaluation, qualitative research methods, and mixed methods. She has been the PI on seven major evaluation projects that ranged from one to five years in length. Her scholarship focuses on practitioners’ data use and evaluation capacity building within non-profits through coaching. She received a Bachelors in Psychology from Calvin College, and a PhD in Educational Psychology from the University of Illinois, Urbana-Champaign. c American Society for Engineering Education, 2019 An Integrated Social Justice Engineering Curriculum at Loyola University ChicagoIntroductionIn
graduates to become entrepreneurs. Even for those with a more conventionalcareer path, entrepreneurial skills and an entrepreneurial way of looking at problems will helpthem to maximize their professional success.Of course, practically all engineering programs are already overloaded with critical learningobjectives ranging from highly technical skills to highly interpersonal and communication skills.As a result, it can be a great challenge to find an opportunity to incorporate even a small amountof entrepreneurship into an existing engineering curriculum.The authors present an ongoing effort at their university to integrate entrepreneurial projects andmodules directly into required ECE courses in all four years of the curriculum. The effort
Session 10-1 Cooperative Learning: An Integral Part of Mechanical Engineering Technology Curriculum James Mayrose, David J. Kukulka State University of New York College at Buffalo AbstractStudents are confronted with an enormous amount of engineering content during their course ofstudy. Due to the tremendous amount of pressure placed upon performance in the way of grades,students often look for ways to “cut corners” or do “just enough” to get a decent grade. Studentswill only learn to master engineering concepts
curriculum.2.3 ME 290: 3-D “Integrated Course” in Engineering DesignThe desire to ease the curriculum at USAFA, especially for the 160-semester hour MechanicalEngineers, was the driving force to move CAD back into the sophomore level design course. Adowngrade in software performance was not acceptable and an expansion of the course wasobjectionable. This dilemma birthed a compromise: award an additional credit hour (4 vs. 3) byadding a 2nd hour laboratory to this already time intensive course and teach only the 3-D solid-modeling software (neglecting GD&T) to include drafting and assembly creation. The context ofthe original course could then be used to develop software and design skills concurrently. Due to
Abstract 1299 Establishing an Integrated Mathematics, Engineering, and Science Curriculum: Lessons Learned James D. Nelson, Bernd Schröder College of Engineering and Science Louisiana Tech University Ruston, LA 71272AbstractThis paper presents successes, failures, and lessons learned from implementing a fully integratedmathematics, science, and engineering curriculum at the freshman and sophomore level. In theacademic year 2000-2001 the program is in its second year of full
from the new curriculum are provided, giving an example showingthat students are performing at a higher level of learning with the new curriculum than with theold curriculum. Finally future work for the curriculum is presented.Integrated versus Federated CurriculumThe old flying qualities phase curriculum was a collection of federated short courses that could beshuffled and presented in a way that matched aircraft and instructor availability. The sacrifice tothis system is a synergistic effect that occurs when material is integrated tightly such that topicsare reinforced, keeping threads of learning intact throughout a curriculum. The learning thatoccurred when the curriculum was federated was often described as a “mile wide and an inchdeep
Session 1658 Circuit Simulators and Computer Algebra - An Integrated Curriculum for Electronics Students Richard Parker, Walter Buchanan Seneca College/ Middle Tennessee State University Abstract There has been increasing acceptance of the use of electronics circuit simulators as part of the first yearcollege curriculum in electronics. These simulators assist in providing a richer class of circuits which canprofitably be studied by beginning students
Session 2561 Integrating Ethics into the Freshman Curriculum: An Interdisciplinary Approach Elisabeth Alford, Tom Ward University of South CarolinaAbstractTo ensure that undergraduate engineers have a deep and practical understanding of professionalethics, engineering colleges are developing ways to integrate ethics throughout their curriculum.The freshman engineering course is the logical and appropriate time to begin discussion ofprofessional ethics, long before students are confronted with the tough decisions they may haveto make later. The
ACCE accreditation modeled curriculum has been closely integrated with theexisting CIET program within the department. The curriculum will share a common lowerdivision with the CIET program thereby allowing students to wait until the end of the sophomoreyear to declare their preferred major. In addition, the two programs will share approximately67% of their major specific courses. It is believed that this will provide UNC-Charlotte with oneof the only programs within the United States that integrates an ACCE accreditation basedconstruction management program with a TAC of ABET accredited CIET program in thismanner.1 UNC-Charlotte Office of Academic Affairs, (Retrieved 1/17/2006). UNC-Charlotte Institutional Plan 2004-2009. URL http
satisfy the degree requirement.Thus the impact of differential treatment in freshman chemistry would be hard to isolate in thestudy, whereas most engineering students take physics and calculus in their first two years.Many engineering universities have implemented similar, as well as more comprehensive,changes to the curriculum 9, 10, 11, 12. Most of these changes are based on a common-senseassumption that an integrated curriculum is beneficial to student learning and will lead to a moreintegrative understanding of the discipline. While this assumption may be true, we seek toempirically explore the effects that integrative changes to the curriculum have on studentlearning. By taking this approach we do not take for granted that integration of the
engineering school tours and serves on student panels for prospective students.Prof. Feng Xiong, University of Pittsburgh American c Society for Engineering Education, 2021 Integration of COMSOL Multiphysics into an Undergraduate Electrical Engineering CurriculumAbstractThere is a need for multiphysics simulation in undergraduate electrical engineering curricula,however, many programs do not include this at the undergraduate level. This paper discusses theintegration of multiphysics simulation into an undergraduate curriculum at the University ofPittsburgh for the purposes of educational enhancement and undergraduate research.In this paper, we will discuss an internal grant award
circuit board(PCB) techniques are much more attractive for circuit prototyping work in manyinstances. Unfortunately, manufacturing printed circuit boards typically requires achemical etching process, making them inappropriate for student projects. However, atleast two commercial companies now offer desktop milling machine systems that canmanufacture prototype printed circuit boards quickly, safely, and at low cost, without achemical process.Three years ago, in an effort to find an alternative to either breadboard or traditional PCBtechnology, the Department of Electrical and Computer Engineering at Lafayette Collegepurchased a printed circuit board milling machine system and began integrating its useinto the ECE curriculum. Initially, the faculty
Change'. Proceedings. , vol.1, no., pp.383-386 vol.1, 5-8 Nov 1997.9. J. Marchese, R. Ordonez, C. Sun, E. Constans, J. L. Schmalzel, R. Ramachandran, H. L. Newell, H. Benavidez and J. Haynes, “Integration of Multidisciplinary Design and Technical Communication: An Inexorable Link”, International Journal of Engineering Education, Vol. 18, No.1, pp.32–38, 2002.10. Bolding, K.; Bauman, E., "Integrating engineering into a freshman liberal arts curriculum," Frontiers in Education Conference, 1999. FIE '99. 29th Annual, vol.3, no., pp.13C2/1-13C2/5 vol.3, 1999.11. Heywood, J., "“Think…about how others think”, liberal education and engineering," Frontiers In Education Conference - Global Engineering: Knowledge Without
teaching and learning methods to power engineering education. c American Society for Engineering Education, 2016 An Introductory Laboratory in Power Engineering Technology: A Systems Approach Matthew TurnerAbstractThis paper presents the design of a curriculum and the associated hardware for the laboratory componentof an introductory power engineering technology course for sophomore students. The content wasdeveloped to implement a systems approach that uses the modern electric power network as aninterconnected system to be designed, analyzed, and tested. The major hardware components of theelectrical power system are studied and analyzed in individual laboratory
. Page 26.192.1 c American Society for Engineering Education, 2015 An Integrated Course in Programming for Laboratory and Process ControlIntroductionThe Engineering Technology program of Drexel University emphasizes a holistic approach toprogramming for laboratory and process control. In this approach we address not only the basicsof programming languages but also considerations relating to implementation such as cost,reliability, upgradeability, and maintainability as well as hardware issues such as powerconsumption and form factor. The approach spans several courses so that common problems areaddressed using, e.g., microcontrollers, microprocessors, or programmable
, telecommunications as well as other fields. Because of the rich anddiverse nature of medical information, it has created a fertile ground for innovations andapplied research particularly from the prospective of computer science and informationtechnology. Although medical informatics has been recognized as a standalone science,few colleges and universities with computer science programs have acknowledgedmedical informatics as a viable application and have recognized the importance ofincorporating medical informatics courses into their curriculum. Also, there has been nounified approach as to how topics in medical informatics should be integrated into thecurriculum. In this paper, we address the need to have a structured paradigm forembedding medical
and curricula design on an already packedcybersecurity curriculum with several prerequisites. In fact, such packed curricula are common inSTEM degrees, and pose challenges whenever new material needs to be integrated, such as AI.Moreover, instructors in AI and cybersecurity are not usually cross-trained. In other words, anexpert in cybersecurity rarely has expertise in AI, and vice versa. Unfortunately, this results in afew cross-trained researchers and practitioners in the future cyber workforce.Like most computing disciplines, cybersecurity relies on various computing sub-disciplines suchas networking, systems, and infrastructure. AI techniques have been widely used in a growingbody of cybersecurity literature to address the complex
Paper ID #18361UAS Curriculum for Students Using an Active Learning ApproachDr. Michael C. Hatfield, University of Alaska, Fairbanks Michael C. Hatfield is an assistant professor in the Department of Electrical and Computer Engineering at the University of Alaska Fairbanks, and Associate Director for Science & Education, Alaska Center for Unmanned Aircraft Systems Integration. He earned a B.S. in electrical engineering from Ohio Northern University; an M.S. in electrical engineering from California State University Fresno, and a Ph.D. in Electrical/Aeronautical Engineering from the University of Alaska Fairbanks.Dr
educationAbstractA grand challenge in the global engineering community is the recruitment and retention ofstudents. Previous research in engineering education has shown that pre-college exposure toengineering plays an integral part in student self-selection of engineering as a course of study atthe university level. Presented in this work is an international program which seeks to attracttalented students through the use of NSF GK12 Engineering Visiting Fellows and cross-cultural,hands-on problem based design projects. In this two-year study, 5 separate projects are carriedout involving 690 students split between urban high schools in the United States and partnersecondary schools in Kenya. Quantitative and qualitative analysis is carried out using