partnerswith their global peers.The ASEE’s Green Report6 puts engineering education in an international context and urges thatengineering programs respond with appropriate changes to their curriculum to “incorporate anappreciation of different cultures and business practices, and the understanding that the practiceof engineering is now global.” The National Academy of Engineering is also concerned thatstudents are prepared for the future.7 Their 2004 report8 states that the “…economy in which wewill work will be influenced by the global marketplace for engineering services, as evidenced byoutsourcing of engineering jobs…” Re-engineering engineering education is proposed with theneed for further research on learning. There is a need for the development
Session 1353 Module-based Freshman Engineering Course Development Christopher J. Rowe, Anita Mahadevan-Jansen Vanderbilt UniversityAbstractThe freshman year of engineering continues to be one of the most critical components ofundergraduate curriculum development for engineering schools. There is an ongoing challenge indeveloping an introductory engineering course that meets the needs of the school/college as wellas the students in an effective manner. A major complaint of students is that there is no formalmechanism that helps students make an informed decision on their choice
elsewhere in the current curriculum. Because of his involvement in theproject, one student has expressed interest in pursing graduate education in Technical Graphics.Two students are completing capstone course projects through their participation in this projectand all the project team members benefited from the close student, faculty interaction. Anotherbenefit has been in the area of faculty currency. Much like the students, the faculty involved inthis project has gained valuable knowledge and experience with current multimedia software andmethods.The last benefit to the department has been the development of multimedia technology, bothsoftware and hardware, for future classes. The Technical Graphics curriculum is currently a two-year program
. A Teaching Strategy and Engineering Curriculum Transformation Workshop given at the University of Maryland addressed such topics as the impact of ABET 2000 on course development, the integration of cooperative learning teaching models, development of an inclusive classroom, and the development of student-friendly syllabi.• “In Their Own Words,” a video and accompanying workshop that addresses student experiences in the classroom and how to enhance the student learning environment, is under continuing development. The video will be tailored to fit the demographics of each of the ECSEL campuses. On May 11, 1999 Penn State conducted a training program for facilitators of the video workshop. Twenty-one participants
of Industrial Technology at Southeastern Louisiana University. The secondauthor was given a laboratory, but the equipment in the laboratory was outdated. The two authors found thatthey had many mutual interests and thus the project described in this paper was born.Laboratow Development Plans Initially, in seeking funding for this project it was planned that this laboratory would support threecomputer science courses which address both specific guideline subject matter as well as supporting thephilosophy of the Role of the Laboratory as recommended by Computing Curricula 1991 a Report of theACM/IEEE-CS Curriculum Task Force [7]. These courses are: Computer Architecture, MicroprocessorSystems, and Robotic Sofiware Systems. It was
Louisville andplan a visit to study and see what replicable measures of their community engagement inLouisville’s challenged neighborhoods could enhance our signature community engagement.Descriptions and Results of Engineering Leadership DevelopmentAs described above, Engineering Leadership Development encompasses a three part process: (1)enhancements to undergraduate courses, (2) a 1 credit hour leadership seminar course, and (3)continuing education for young alumni. Each of these three development exercises werepresented this year. The following section describes each offering and some initial resultsavailable at this time. Much credit for the leadership learning curriculum goes to Stayer facultyPeter A. DeLisle, PhD. Peter DeLisle is the retired
in depth by Bruhl and Klosky6.Exactly how to develop creative and innovative engineers has been a topic of discussion andstudy for many years. The third edition of the ASCE Civil Engineering Body of Knowledgestates that undergraduate education should provide opportunities for students to acknowledgeand practice "professional attitudes relevant to the practice of civil engineering, includingcreativity, curiosity, flexibility, and dependability."3 It is clear that these skills are mosteffectively taught across the curriculum rather in a specific course, isolated from otherengineering content.7 Importantly, the necessary background and skills should be introducedearly in the curriculum so students value creativity skills and develop in steps
Session 2633 Development of an Interdisciplinary HVAC Course William J. Hutzel, John R. Koontz Purdue UniversityABSTRACT The Building Construction and Contracting (BC) and Mechanical Engineering Technology (MET)Departments at Purdue University are developing innovative programs that target two rapidly expanding areasof specialization. Mechanical Contractors specify and install equipment for both commercial and residentialspaces, while Maintenance Engineers operate and service the equipment on a daily basis. As part of thedevelopmental
2006-319: PROFESSIONAL DEVELOPMENT FOR COMMUNITY COLLEGETEACHERSTheodore Branoff, North Carolina State University Ted is an associate professor of Graphic Communications at North Carolina State University and has been an ASEE member since 1987. He has taught courses in introductory engineering graphics, computer-aided design, descriptive geometry, instructional design and course design. Ted has a bachelor of science in Technical Education, a master of science in Occupational Education, and a Ph.D. in Curriculum and Instruction. His current academic interests include spatial visualization ability, geometric dimensioning and tolerancing, constraint-based modeling, graphics education, and
Session 1432 Systematic Development of Successful Innovative Programs Satinderpaul Singh Devgan Tennessee State UniversityAbstractAn analysis of national critical technologies and the grand challenges indicates that two of themost critical technologies are manufacturing, and information and communications. Also theemployment opportunities in the future are for professional with background in systemdevelopment or system integration. Thus it is very important to systematically analyze theindustry needs and understand the expectations from the graduate before
technologies influence the traditionalmethods of designing products and manufacturing systems. While the lower-level coursesintroduce the concept, the upper-level courses provide opportunities to gain expertise in specialareas of Mechatronics (Figure 1) (Alptekin and Freeman). Several projects integrate the coursesoffered at the different levels of the curriculum. The design and manufacturing laboratories of theIME Department are utilized in the design and development of these products and systems. Thefollowing courses utilize the Mechatronics Design Studio that is the topic of this paper: IME101: Introduction to Industrial and Manufacturing Engineering, IME 356: ManufacturingAutomation, IME 416: Automation of Industrial Systems, and IME 516
organization that serves the Detroitcommunity. The Center for Advanced Technologies (CAT) is Focus:Hope’s multi-level trainingfacility. Greenfield Coalition was conceived to develop an innovative manufacturing technologyand engineering curriculum. The electric machines course introduces industrial electric power sources and industrialapplications of motors, generators, and transformers to associate level manufacturing engineeringand technology students. The course is developed from an industrial electric systems perspectiverather than from an electric circuit perspective. The goal of writing this paper is to partially enable future developers of CBI material,especially in mathematically intensive courses, to understand the dimensions
and methods, simulation output analysis and validation, standards,and domain specific applications will need to be developed in the full implementation.The current plan includes the development of modules (one to two hours each) thatshould provide greater flexibility for infusing simulation into the curriculum atappropriate points (e.g. a one hour simulation using physics engines in conjunction with a Page 9.398.8physics course). Modules that will be developed include: Simulation using Physics “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004, American
Development of Freshman Seminar Design Project Eric Musselman University of Minnesota DuluthAbstractThis paper discusses the challenges associated with the development of a design project for afreshman seminar course in engineering. Two different projects that the author has used in classwill be described and compared. The effectiveness of the projects at achieving both the courseand overall departmental objectives will be discussed.IntroductionThere are many challenges when planning an Introduction to Engineering course at the freshmanlevel. These challenges revolve around achieving the objectives of the course in a limited timeand taking into
2006-108: DEVELOPING AN ENERGY MECHATRONICS LABORATORYHenry Foust, Nicholls State University Page 11.436.1© American Society for Engineering Education, 2006Developing an Energy Mechatronics Laboratory March 8, 2006 Abstract Oil forms a major component of U.S. energy policy and economy. It is imper-ative today to determine viable alternatives to oil (expected to be depleted withinthe next fifty years), because the infrastructure for a viable alternative will takedecades to develop. The purpose of this research is the design of a mechatronicslaboratory applied to the broad area of system analysis and control for Ocean
University. Duane is currently the PI on an NSF grant to provide online faculty development for community college STEM faculty. His research interests include factors that impact community colleges faculty view of their jobs. Page 12.377.1© American Society for Engineering Education, 2007 Community College Teacher Professional Development: Year Three Data from an Online Graduate Certificate Program in Community College TeachingIntroduction and Project OverviewThe departments of Adult and Higher Education (AHE) and Mathematics, Science andTechnology Education (MSTE) within the College of
Session 2563 Developing Competencies For Engineering Foundations Courses Nadia A. Basaly, Ph.D. The university of Texas at Brownsville College of Science, Math and Technology Brownsville, TX 78520Abstract Pre-college Minority Engineering Program has been designed to motivate and prepareminority middle and high school students for careers in science and engineering. The Program, called“Tex-PREP,” is an aggressive, pro active outreach system that introduces a joint curriculum betweenscience, math and technology to
Engineering Technology Program Development for Industry Harvey Lyons, Ph.D., P.E. Professor Mechanical Engineering Technology School of Engineering Technology Eastern Michigan University Ypsilanti, MI 48197 734-487-2040 hlyons@emich.edu 472 ENGINEERING TECHNOLOGY Program Development for IndustryIn the mid-eighties at Alfred University and in the early nineties at the Indiana Institute ofTechnology 9, the writer implemented freshmen programs in the curriculum to address the lackof connectivity between the topics in basic science
experience needs to blend into thecontext aware content. In addition, measurable goals and objectives that are challenge enough tostudents need to be counted.Standards. Standards of electronics and computer science curriculum and program goals must beinstilled and reflected to the projects. We need to consider the ABET requirement for thecomputer curriculum and program expectations. Overall, projects need to be developed byourselves to be authentic to students and local community. The research study is supported byNSF DUE program requirements are considered.In addition to the above project design issues, PBL carries the characteristics of pedagogicalunderpinnings.Innovation. Mobile computing is a new emerging area in computer science. Research
2006-2004: INFORMATION ASSURANCE FACULTY DEVELOPMENTWORKSHOPDouglas Jacobson, Iowa State University Dr. Doug Jacobson Associate Professor Department of Electrical and Computer Engineering Iowa State University Ames, IA 50011Thomas Daniels, Iowa State University Dr. Thomas Daniels Assistant Professor Department of Electrical and Computer Engineering Iowa State University Ames, IA 50011 Page 11.757.1© American Society for Engineering Education, 2006 Information Assurance Faculty Development WorkshopAbstractThe Information Assurance Center at Iowa State University received support from the
, ILAbstractThe learning enhancement brought on by hands-on experience is a well-established principle.For most engineering classes, laboratory (lab) experiments make an integral part of thecurriculum. In engineering education, we place a lot of significance on student participation inthe labs, but we seldom make students part of the curriculum and lab development. Throughactive involvement in lab development, students gain higher levels of learning andunderstanding. It is also well established that a good lab design involves open-ended design toprovide sufficient challenge to students for them to achieve cognitive learning and practicalskills. Our student-developed labs provide open-ended design opportunities to promptquestioning and higher-level
Session: 2263 A.R.I.S.E. CENTER: DEVELOPING INDUSTRY PARTNERSHIPS1 MARTHA A. CENTENO, JULIE A. JACKO, MARC L. RESNICK / MARCIA GROH-HAMMOND, SETH BERKOWITZ, AMANDA M. MITSKEVICH, JANET PARKER, JOHN SCHMIDT Florida International University / NASA – K.S.C. Miami, Florida 33199 / Kennedy Space Center, Florida 32899AbstractWe have developed a partnership between NASA and Florida International University (F.I.U.) toestablish the Applied Research in Industrial and Systems Engineering (A.R.I.S.E.) Center. Theintent of this
and setting up a new undergraduate research lab.BACKGROUNDState University of New York at Oswego is developing a new undergraduate program inelectrical and computer engineering (ECE) to better serve its communities and to meet theworkforce needs of the area. The development of a new program presents an opportunity tocreate a modern and innovative curriculum that challenges several aspects of traditionalengineering education and responds to the needs of the knowledge-based society we live in. Anew faculty member was hired (Fall 2008), temporarily based in the Physics department.Although more money will be available for equipment and laboratory at the actual start of theECE program (a few years later), there was little startup money ($12,000
Development of an Acquisition Management Course Jason Wolter, M.S., Roger Burk, Ph.D., Bob Foote, Ph.D., Niki Goerger, Ph.D., Willie McFadden, Ph.D., Timothy E. Trainor, Ph.D. United States Military AcademyAbstract In response to external feedback and a continual desire to increase the diversity andapplicability of the curriculum for our students, the Engineering Management Program at USMAwill offer an acquisition systems management course for the first time in Spring 2005. Thiscourse will provide graduates with relevant skills related to the acquisition goals of strategicallymanaging, planning, and implementing acquisition programs and reforms. Topics will
, has been gradually integrated into the undergraduate curriculum, pushing the expectations of advanced aerodynamics courses up a few notches every year. This emphasizes the application of mathematics to identify the ideal performance under given constraints, and the Figure of Merit of a given configuration. Thus today we are able to take students to the point where they can do a credible drag analysis of a supersonic configuration at supersonic and subsonic speeds, and, more importantly, develop figures of merit for actual configurations against theoretical ideals.3.2 Implementation and Pedagogy in the Freshman CourseThe DCI has been taught to freshmen at our institution since 1997. Over time, and with differentstyles of
Paper ID #32807The Development of Techie TimesMr. Brian D. Tedeschi, Purdue University, West Lafayette Brian Tedeschi is a current Graduate Student at Purdue University with research interests in STEM Educa- tion and informal learning environments. Brian received his Bachelor’s Degree from Purdue University in Mechanical Engineering Technology and is currently working towards a Master’s degree in Engineering Technology.Ms. Julia K. Miller, Purdue University, West Lafayette Julia Miller is a Grad Student pursuing a masters in Engineering Technology with a specialization in engi- neering/STEM education research at Purdue
, Pennsylvania.https://peer.asee.org/3839[2] M. Habibi, M. Alaei, and A. Lillesve “Integrating Professionalism in a Project-BasedEngineering Curriculum,” Proceedings of the 2003 American Society for Engineering EducationAnnual Conference & Exposition, Atlanta, Georgia. https://peer.asee.org/19012[3] J. Mossbrucker, O. Petersen, and R. Strangeway, “Professional Development for ElectricalEngineering Students,” Proceedings of the 2005 American Society for Engineering EducationAnnual Conference & Exposition, Portland, Oregon https://peer.asee.org/14813[4] E. F. Glynn and F. E. Falcone, “Professional Development for Sophomore EngineeringStudents,” Proceedings of the 2012 American Society for Engineering Education AnnualConference & Exposition, San
includes a focus on student teamwork, a greaterconsideration of social factors, improved communication with diverse constituents, andreflection on ethical decision making and problem solving. This vision of engineering willproduce graduates who can address a wider range of societal problems bringing new perspectivesto traditional areas.Summary of Curriculum DevelopmentOne of the goals of our NSF RED grant is to: “Develop the foundation of a revised engineeringcanon and empower faculty to develop and deliver a professional spine that prepareschangemaking engineers.” Efforts to address this goal include creating new classes anddeveloping lectures, active-learning exercises and assignments that contextualize engineeringthrough social justice
AC 2007-1069: DEVELOPING AN ENERGY LITERACY SCALEJan DeWaters, Clarkson University Jan DeWaters, PE is currently pursuing a PhD degree in Environmental Science and Engineering at Clarkson University, with a focus on energy and environmental education. She has several years of experience as the curriculum coordinator for Clarkson's Project-Based Learning Partnership Program and is director of the Partners in Engineering Program that provides mentoring and engineering activities for eighth grade girls.Susan Powers, Clarkson University Susan E. Powers, PhD, PE is a Professor of Civil and Environmental Engineering and Associate Dean in Engineering for Research and Graduate studies at Clarkson
2006-1640: INFORMATION TECHNOLOGY COURSE DEVELOPMENT: SCRIPTPROGRAMMINGYu Cai, Michigan Technological University Dr. Yu Cai is an assistant professor at School of Technology in Michigan Technological University. His research interests include network protocols, distributed systems and cyber security. He received his Ph.D. in Computer Science from University of Colorado in 2005. He is a memeber of IEEE and ACM.Guy Hembroff, Michigan Technological University Mr. Guy Hembroff is an Assistant Professor within Michigan Tech University's School of Technology Department. His research interests are within the areas of cyber security, network protocols, encryption methods, health-care security, and