improved. Areas for improvement included a betterintegration across courses, increased design experiences particularly in the thermal sciences, andbetter integration of computer skills throughout the program.Define Objectives Through numerous discussions in faculty meetings and curriculum committee meetings,objectives for the design of a new curriculum were formulated by the faculty in Spring 2003.Initially the design objectives were listed without grouping. It was found that the objectiveswere more easily conveyed and understood when grouped into two main objectives. Theseobjectives are:1) IMPROVE DELIVERY - To encourage deeper student learning by: a. Integrating theory with practice b. Integrating concepts across courses c. Requiring
Session 2559 Teaching and Curriculum Development of Microprocessor Classes Roman Stemprok University of North TexasAbstractThis paper addresses teaching and curriculum development for several microprocessorclasses in the Engineering Technology Department at the University of North Texas.Fundamentals of computer hardware and assembly language were presented inundergraduate and graduate courses with emphasis on a processor to control externaldevices. Students studied microprocessor structure, became proficient in assemblylanguage programming techniques, developed basic microprocessor interfacingtechniques
Session T3A3 Promoting Program Outcomes Early in the Engineering Curriculum Ronald E. Barr, Thomas J. Krueger, and Ted Aanstoos Mechanical Engineering Department University of Texas at Austin AbstractProgram outcomes are the knowledge, skills, and abilities that students should be able todemonstrate at the end of a degree program. ABET requires that accredited engineeringdepartments must define a set of program outcomes, publicize them broadly to all constituents,and put into place a process for
, Fort Wayne Metals, Alcoa, Group Dekko, BAE Systems, DePuy, Zimmer, Biomet, and 39 other manufacturing companies as shown by the survey conducted by the department in April 2007.BibliographyDeryn M. Watson, “A curriculum development team under the challenge of change”, Educationand Computing, Volume 5, Issues 1-2, 1989, Pages 21-27Rodrigo Lozano, “ Diffusion of sustainable development in universities’ curricula: an empiricalexample from Cardiff University” Journal of Cleaner Production, In Press, Corrected Proof,Available online 17 July 2009 Page 15.377.11 10
Session 2525 Spacecraft Instrumentation: Integrating Design across the Curriculum Michael Ruane Electrical & Computer Engineering, Boston UniversityAbstractSpacecraft instrumentation presents challenging and engaging design problems forinterdisciplinary teams of students from electrical, computer systems, aerospace and mechanicalengineering. Recently, senior design teams and UROP students have collaborated withastronomy researchers to help design sounding rocket and satellite instrumentation payloads.The Spacecraft Teaching and Research for Students (STARS) Project is extending these
technical curriculum is, to a degree, measured by the success with which thestudents are properly prepared to enter the job market. A successful educational program is one,which changes its structure and content to adapt to rapidly changing occupational requirements. Page 4.270.1Due to the many advancements which have been made in the construction field since itsexistence, it was important that construction programs be reviewed periodically to determinehow effectively they meet the needs of the students and industry. This is especially true with therapid changes in computer communications since the last updated study.The study sought to answer the
Session 1432 Digital Signal Processing in the Undergraduate Curriculum Thomas L. Hemminger, Ralph M. Ford Electrical and Computer Engineering School of Engineering and Engineering Technology The Pennsylvania State University at Erie, The Behrend College Erie, PAAbstractThe use of high-speed data acquisition and digital signal processing (DSP) technology hasbecome the cornerstone of many areas of electrical engineering. This is particularly true in thefields of communications, controls, intelligent systems, signal
AC 2012-4280: ASSESSING MULTIDISCIPLINARY DESIGN IN A ROBOTICSENGINEERING CURRICULUMProf. Michael A. Gennert, Worcester Polytechnic Institute Michael A. Gennert is Director of the Robotics Engineering Program at Worcester Polytechnic Institute, where he is professor of computer science and professor of electrical and computer engineering. He has worked at the University of Massachusetts Medical Center, Worcester, Mass., the University of Califor- nia/Riverside, General Electric Ordnance Systems, Pittsfield, Mass., and PAR Technology Corporation, New Hartford, N.Y. He received the B.S. in computer science, B.S. in electrical engineering, and M.S. in electrical engineering in 1980, and the D.Sc. in electrical
that are common to all of the engineering curricula. The second part of the reform was developed inside the Aerospace Engineering department, and addressed the portion of the curriculum unique to Aerospace, as well as how the Aerospace department chose to implement the recommendations of the college-wide effort. The primary elements of the reform are: The adoption of a four-credit per course/four course per semester/eight semesters to graduation (4 x 4 x 8) model. One engineering course each semester of the freshman year - the first an intro- duction to engineering; the second an introduction to computers and computing. Enhanced flexibility for students to tailor their senior
1560 Engineering Computing. It is offered only inthe Spring Semester. This three semester hour course replaced various computing and CADcourses in the different curriculums. The course meets for an equivalent two hours lecture andthree hours of lab per week. It is scheduled as a combined lecture/lab course typically three daysper week at one and a half hours per day. This class is typically limited to thirty students and isconducted in a computer lab classroom where each student has a computer. The instructor has avisual presenter and computer connected to a classroom projection system so that lectures can be Page 9.610.8 Proceedings of
Paper ID #6942PERFORMANCE-CENTERED ADAPTIVE CURRICULUM FOR EMPLOY-MENT NEEDSProf. Clara P´erez-Molina, DIEEC - National Distance Education University Clara P´erez Molina received her MSc degree in Physics from the Complutense University in Madrid and her PhD in Industrial Engineering from the National Distance Education University (UNED). She has worked as researcher in several national and European projects and has published different technical reports and research articles for journals and conferences, as well as teaching books. She has received the UNED’s Social Council Award for the best Didactic Materials in
teaches studentsbasic programming skills and how to develop algorithms to solve problems in a variety ofengineering disciplines. Plotting and other graphical techniques help students visualize the resultsof their work. Students also make use of various computational techniques including matrixsolution of a system of linear equations and symbolic math. The book applies an array of math andscience problems in each section that reinforce programming techniques, but these problems donot directly align with our curriculum. Instead of using the book problems, we changed oneproblem on each homework set to directly match with the current PHY160 curriculum and requiredthe students to use the problem-solving strategy to arrive at a MATLAB based solution
Session 2548 Curriculum Diversification in Mechanical Engineering Technology Programs John W. Lipscomb, Jr.AbstractMechanical Engineering Technology is a very broad field of study that may include thefollowing topics: structural design, machine design, fluid design, thermal design, manufacturingprocesses, engineering economics, quality control, electronics, computers, automation, andmany others. Such a breath of topics is difficult to fit into a four-year curriculum and the depthof study in each is expected to vary between programs. A nationwide study of the TAC/ABETaccredited
reputed Center for Arrhythmia Research at the University of Michigan, Ann Arbor, MI, for his postdoctoral training followed by a research faculty position at the University of Toledo, OH. Dr. Deo’s research interests are in computational modeling of bioelectrical systems and optics-based biosensing. Dr. Deo’s research has been funded by National Science Foundation, National Institutes of Health and American Heart Association. American c Society for Engineering Education, 2022 1 Session XXXX Application-Centric Math Curriculum
AC 2007-618: HUMANITARIAN ENGINEERING CURRICULUM: DEFININGSTUDENT LEARNING OUTCOMESBarbara Moskal, Colorado School of Mines Barbara M. Moskal received her Ed.D. in Mathematics Education with a minor in Quantitative Research Methodology and her M.A. in Mathematics from the University of Pittsburgh. She is an Associate Professor in the Mathematical and Computer Sciences at the Colorado School of Mines. Her research interests include student assessment, K-12 outreach and equity issues. In 2000, she received a New Faculty Fellowship at the Frontiers in Education Conference and in 2006, she received the William Elgin Wickenden Award with colleagues, Barbara Olds and Ronald Miller.Joan Gosink
acomputer would be an impossible task. In select MET curriculum, using a computer to helpsolve various engineering problems is implemented to achieve the following two educationalgoals:First, students develop a better understanding of the fundamental science and mathematics of aparticular problem, as they are required to construct a computational model.Second, students gain a basic understanding of a specific software tool which is portable toindustry, thus making them more marketable and prepared to enter the work force.For classes where computer software is employed, it is typical to use the customary commercialcodes that are available. Basic instruction into the operation of this software is presented as part
emerging societal changes is not surprising in that higher education plays asupporting role in the preparation of talent and knowledge which is central to scientific Page 24.471.2innovation. Therefore, higher education, in turn, cannot adopt a reactive posture and mustalways seek innovation within itself through the content and style of instruction with which itreaches out to newer generations. The creation of the computational and experimental (ComEx)studios is a good example of an innovative learning assistance tool developed to ensure that themechanical engineering curriculum provides a flexible and enduring preparation for theirprofessional
” in the Business Management area were ranked first by thecontractors. 6 CONCLUSIONS and RECOMMENDATIONSCONCLUSIONS The following conclusions were made on the basis of the findings of this study:1. A slightly more concentrated emphasis in the construction subject area was important to asuccessful two-year construction curriculum.2. A two-year construction curriculum should include basic and applied courses inLeadership, Computer Science, and Plan Reading.3. Construction majors should take the general study courses, English Composition, Speech,Technical Writing, College Algebra, Trigonometry, and Physics in their two-year curriculum.4. A construction curriculum should
STEM outreach and college student superior undergraduatelearning experiences and higher confidence and motivation in their individual abilities as well aswith their technical backgrounds for their respective STEM fields (Dakeev, Mazumder, Yildiz &Baltaci, 2015). As suggested (Reisel, Walker & Cancado, 2016), engineering undergraduatestudents change their discipline after learning more about their majors, implying that theundergraduate engineering students are dependent on the material content to remain in theirrespective STEM disciplines. STEM outreach activities have utilized various concepts during curriculum servicelearning activities, such as 3D software and associated computer-aided design exercises. Theexpected proficiency
Session 2793 Forging New Links: Integrating the Freshman Engineering Curriculum Ronald E. Musiak, Eric W. Haffner, Steve Schreiner, Alan K. Karplus, Mary B. Vollaro, Richard A. Grabiec School of Engineering, Western New England College, Springfield, MassachusettsAbstractThe School of Engineering at Western New England College is redesigning its traditional corecurriculum to provide Freshman engineering students with a more integrated and challengingeducational experience. We began this evolutionary process by
changes in the core thermal-fluid science curriculum for engineers have been initiatedat Rensselaer. We seek to improve the context in which material is presented, so that the physicalintuition of our students is enhanced, their ability to think critically and to synthesize information isstimulated, and the relevance of the learning process to advanced analytical and computational toolsavailable to the students is made clearer.This has been accomplished through the development of two distinct, but closely related, courses.The first course, Thermal and Fluids Engineering I (TF1), is a consolidation into a single four-credit course of the essential, fundamental aspects of classical thermodynamics, fluid mechanicsand heat transfer, in a context
initiated based on the concept of using the existing resources toaccomplish the mission, and thus has been a very challenging task in terms of resources.This is especially problematical for a manufacturing program as it requires costlymanufacturing facilities for a quality curriculum. As the manufacturing engineeringdiscipline includes materials, processes, and management, it is a logical step to set up aninterdisciplinary program structure. However, as it is different from the traditionalacademic departments, the challenge is program coordination. The program currently has40 faculty members from around the campus, including faculty from Basic Engineering,Ceramic Engineering, Chemical Engineering, Computer Science, Electrical andComputer
Session 2793 Integrating Critical Thinking and Writing Curriculum into Freshman Engineering B. Richards*, H. Alnajjar**, A. Ader*, R. Adrezin**, B. Isaacs** & P. Tempel* University of Hartford alnajjar@mail.hartford.eduAbstractBeing able to use critical and analytical skills, as well as the ability to communicate this thinking,are essential to people in engineering. At the University of Hartford, three faculty members fromintroductory engineering courses, and three faculty from the freshman writing program teamedfor fall
Session 1221 Collaborative Learning in the Construction Technology Curriculum Erdogan M. Sener Indiana University - Purdue University at Indianapolis Introduction/The Need As is the case for all disciplines, the skills that the workplace requires of engineeringkdmology graduateshave changed over the years in parallel with evolving technologies and soeio-economic requirements. TheNational Science Foundations’s task force on TQM has the following definition for contemporary engineeringeducation ‘: “Quality
Session 3233 Stepper Motor Applications Across Electrical Engineering Technology Curriculum Ilya Grinberg, D. Steven Barker, Stephanie Goldberg, Ronald Matusiak, David Andruczyk State University of New York College at Buffalo1. IntroductionIndustrial, commercial and institutional facilities have grown significantly more complex in thelast decade. The rising level of technologies and equipment utilized in these facilities hascomplicated the elements of their engineering maintenance and operation. As an example of suchtechnologies, consider robotics
Introducing Information Security Courses in the ECE CurriculumKamesh Namuduri, and Ravi PendseECE Department, Wichita State UniversityAbstract Federal organizations such as the National Science Foundation and the NationalSecurity Agency are encouraging universities and community colleges throughout thenation to offer graduate and undergraduate programs in Information Assurance andSecurity. Today, there are more than 100 universities and colleges that offer degreeprograms and courses in information security. At Wichita State University, the Electricaland Computer Engineering (ECE) department took the lead in introducing InformationAssurance and Security related courses in the curriculum. This presentation is aimed atsharing our
background in thermal and contrDr. Nancy Romance, Florida Atlantic University Dr. Romance is Professor of Science Education in the College of Education at Florida Atlantic University (FAU) and a graduate faculty member in both the College of Engineering and Computer Science and the College of Science at FAU.Her research interests a ©American Society for Engineering Education, 2023AbstractThis paper presents the development and curriculum implementation of a combined alternativeenergy course for both mechanical engineering and electrical engineering programs at the Collegeof Engineering and Computer Science at Florida Atlantic University (FAU). The course contentsand hands-on activities are divided into
Session 1526 Ceramic Composites: Integrated Materials and Mechanics Curriculum P. K. Liaw 1 and N. Yu 2 1 Department of Materials Science and Engineering, The University of Tennessee, Knoxville, Tennessee 37996-2200, and 2 Department of Mechanical and Aerospace Engineering and Engineering Science, The University of Tennessee, Knoxville, Tennessee 37996-2030The research in ceramic matrix composites (CMCs) is of industrial and national importance. Forexample, continuous fiber reinforced ceramic composites (CFCCs) have been successfullyfabricated by chemical
additional conference proceedings (>40) and presentations (>70). Her re- cent publications mainly focus on biotechnology and bioengineering related modeling and experimental research. Page 26.986.1 c American Society for Engineering Education, 2015 Integrating biofuels education into chemical engineering curriculum Q. Peter He1 and Jin Wang2 1 Department of Chemical Engineering, Tuskegee University, Tuskegee, AL 36088 2 Department of Chemical Engineering
A Missile System Design Engineering Model Graduate Curriculum Conrad F. Newberry, PE, DEnv. Professor Emeritus California State Polytechnic University, Pomona and Naval Postgraduate School AbstractA missile system design engineering design model graduate curriculum is presented fordiscussion. The rationale for the program is discussed in detail. Three levels of educationalobjectives which support the program are addressed. A course matrix for a master’s level degreeis presented as is a shorter missile