Engineering graduates are able to work in a variety of environments and quicklyextend their fundamental knowledge to the focus required by a new or rapidly changingenvironment. The following subjects are presented and discussed: the constituency that initiallyproposed establishing an Integrated Engineering degree program; the original curriculum; theshortcomings, growing pains, and maturing of that curriculum; and the programs current ideals.Introduction Engineers today impact society to a greater extent than ever before. We depend upon thesystems, machines and processes developed by engineers in virtually everything we do. Solvingproblems in our modern world mandates the use of technology that changes virtually as it isembraced. In this
AC 2007-3068: DEVELOPING ENGINEERING CURRICULUM IN ANINTEGRATED KNOWLEDGE ENVIRONMENTJosef Rojter, Victoria University of Tech. Page 12.495.1© American Society for Engineering Education, 2007 Developing Engineering Curriculum in an Integrated Knowledge EnvironmentAbstractUnlike curricula in professional courses such as medicine and law which are focused onspecific discourses such as health and justice respectively, engineering curricula at Australianuniversities lack, by and large, a unifying ideology. In general schools and faculties ofengineering at Australian universities have failed to address this issue and resisted calls forchange in professional engineering
AC 2007-654: AN INTEGRATED APPROACH TO MANUFACTURING DESIGNRobert Creese, West Virginia University ROBERT C CREESE is a professor in the Industrial and Management Systems Engineering Department in the College of Engineering and Mineral Resources at West Virginia University in Morgantown, West Virginia. He obtained his BS, MS, and Ph.D. degrees from The Pennsylvania State University, The University of California-Berkeley, and The Pennsylvania State University. He is a member of ASEE and also a member of AACE International, ASM, AWS, AIST, ISPA, SCEA, AFS, and SME.Deepak Gupta, West Virginia University DEEPAK GUPTA is a graduate student in the Industrial and Management Systems Engineering
country’s elementary and highschool system, which show low performance levels when compared to international standards3.According to the opinion of many, this last is the key factor that explains why a significantpercentage of the population (approximately a 20%) is not capable of generating an incomesufficient for a dignified life.The second part of the article briefly describes the structure of the actual curriculum, which isvery similar to the one in the Universidad de Chile. Being both schools the leaders in thecountry, the remaining universities have shown a tendency to follow these curricular designs. Inthis perspective, what these two schools develop in the area of curricular change will most likelygenerate curricular changes in all the
students expressedexcitement regarding the ability to simultaneously review global and internal behaviors incomplex systems. [6],[8]6. RecommendationsFrom these observations, we present a set of recommendations for improving the SystemVisionsoftware integration into engineering curriculum. As well, suggestions for a more quantitativeassessment of the tool’s effectiveness in improving student learning are addressed.6.1 CAD Project • Adopt the method of integrating SystemVision into individual homework assignments with simple examples of each technique required in the project. This will reduce the learning curve encountered by the students when the project is first assigned, and establish an understanding of the tool’s application
AC 2007-1077: INTEGRATED LIBERAL AND PROFESSIONAL PEDAGOGY: ANINTERDISCIPLINARY COURSEAbdul Kamal, Western New England College Abe Kamal has been an Associate Professor of Industrial Engineering for the past four years at Western New England College, located in Springfield, MA. He received a BS in Electrical Engineering, an MS in Industrial Engineering, and a Ph.D. in Industrial Engineering, all from the University of Nebraska, Lincoln. Prior to joining academia, he was employed at National Crane in Waverly, Nebraska as an Industrial Engineer for 7 years and subsequently at Telex Communications in Lincoln, Nebraska as a Quality Engineer for 4 years. He is a member of IIE and ASEE, and has
of the RV-7 Aircraft in Project #3Integrating the Lab Course Material into the CurriculumIt has been a challenging task to integrate the resulting laboratory course materials into theexisting aerospace curriculum on an ongoing basis. The first step was to obtain special statusfor this course so that a student can take different subtopics for credit under the same course Page 12.918.8number and title, as described in the “course content” section above. The next step was toallow special credit at either undergraduate or graduate level for specialized, experiencedProceedings of the 2005 American Society for Engineering Education Annual Conference
AC 2007-348: INTEGRATING TEAMWORK ACROSS THE CURRICULUMCharlie Edmonson, University of Dayton Charlie P. Edmonson is an Associate Professor and Program Coordinator of Industrial Engineering Technology at the University of Dayton. Prior to joining the faculty at UD, he retired from the U. S. Air Force after 30 years of engineering design, industrial engineering, and experience at various levels of management.Donna Summers, University of Dayton DONNA C.S. SUMMERS, Ph.D. is a Professor of Industrial Engineering Technology at the University of Dayton. Her major areas of concentration are Quality Assurance and Human Factors. She holds a Bachelor of Science in Mechanical Engineering from the
offers ABET accreditedprograms in Chemical, Civil, Computer, Electrical and Mechanical Engineering. All theseprograms are built on the Multidisciplinary Engineering Foundation Spiral Curriculum(MEFSC). This foundation program was developed to provide students with a broadengineering background and to develop the essential skills needed for the practice ofengineering.Previous WorkConsiderable work has been done at several engineering schools to address some deficiencies inengineering education, resulting in many models of curriculum integration. The comprehensivearticle by Froyd and Ohland3 traces the history and discusses the merits of various models.Drexel University, an early pioneer, established the merit of integrating math and science
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
classroom teacher in all grades. Her main focus has been in the intermediate grades. Presently, she “loops” with her class from 4th to 5th grade, thus keeping them for two years. Deborah has experience writing curriculum using the Backwards Design Process and has worked with the state to create, revise and edit the math questions used on the statewide test for fifth grade. Page 12.489.2© American Society for Engineering Education, 2007 Developing and Aligning Engineering Elements in an Elementary School’s Integrated Engineering CurriculumBackgroundDouglas L. Jamerson, Jr. Elementary School was
AC 2007-56: TEAM PLAY! INTEGRATING SPORTS INTO THE ENGINEERINGCURRICULUMJennifer Kadlowec, Rowan University Jennifer Kadlowec is an Associate Professor of Mechanical Engineering at Rowan University. She received her BS in physics at Baldwin-Wallace College and her MS and PhD in Mechanical Engineering at the University of Michigan. She has been actively involved in ASEE, serving in officer roles in the Mechanics and ERM Divisions.Howard Pearlman, Drexel University Howard Pearlman is an Associate Professor of Mechanical Engineering at Drexel University. He received his BS, MS and PhD in Mechanical Engineering at Northwestern University. His research interests are in combustion and low
AC 2007-305: INTEGRATION OF BIOINFORMATICS IN SCIENCECURRICULUM AT FORT VALLEY STATE UNIVERSITYRamana Gosukonda, Fort Valley State University Assistant Professor computer scienceMasoud Naghedolfeizi, Fort Valley State UniversitySanjeev Arora, Fort Valley State University Assistant Professor of Computer Science Page 12.936.1© American Society for Engineering Education, 2007 Integration of Bioinformatics in Science Curriculum at Fort Valley State UniversityAbstractThis paper provides an overview of design and development of recently started bioinformaticscurriculum at Fort Valley State University (FVSU) and reviews the key challenges
AC 2007-869: INTEGRATION OF A WIND POWER ASSESSMENT PROJECTTHROUGHOUT THE UNDERGRADUATE CURRICULUMBradley Rogers, Arizona State UniversityMark Henderson, Arizona State UniversityChell Roberts, Arizona State University Page 12.935.1© American Society for Engineering Education, 2007 Integration of a Wind Power Assessment Project throughout the Undergraduate CurriculumAbstractIn the summer of 2005, simultaneous with the initial admission of a freshman class to a newgeneral engineering program at the Polytechnic campus, ASU entered into an agreement with theHopi nation in northern Arizona to assess the potential for development of wind energy
AC 2007-2464: CURRICULUM DEVELOPMENT AND INTEGRATION FOR K-6ENGINEERING EDUCATIONMegan Holmes, Worcester Polytechnic Institute MEGAN HOLMES is a graduate student in Biomedical Engineering at Worcester Polytechnic Institute. She received her Bachelors of Science degree in Biomedical Engineering in May 2005 from Worcester Polytechnic Institute and began working on the PIEE project in June 2005.Jill Rulfs, Worcester Polytechnic Institute JILL RULFS is Associate Professor of Biology & Biotechnology at WPI. In addition to being a former public school teacher herself, she has remained active in university/public school partnerships. She has served as a consultant for the Massachusetts
enhance students’ critical thinking capabilities. Page 12.284.1© American Society for Engineering Education, 2007 Assessment of Ethics Modules in an Engineering CurriculumAbstractDecisions made by engineers have a profound effect on the quality of life for citizens of theentire world. As such, their actions and decisions need to be governed by honesty, integrity,impartiality and fairness. Public health and safety considerations should dictate theirprofessional behavior. (Unger, 1994). Engineers are expected to demonstrate that they adhere tothe highest principles of ethical conduct. About 5% of questions on the F.E. exam correlate
a cost proposal and a Page 12.401.2detailed schedule. They must also make an oral presentation.A variety of assessment tools have validated the learning in this curriculum andspecifically in the final student competition. Throughout this comprehensive curriculum,construction provides the common context for integrating learning.BackgroundThe mission of the U.S. Air Force Academy Department of Civil and EnvironmentalEngineering (the department) is to, “Build and maintain nationally accredited undergraduate civil and environmental engineering programs with a clear linkage to the operational Air Force as we produce Air Force leaders of character
AC 2007-2017: AN INTEGRATED APPROACH FOR ENGINEERINGMECHANICS AND DESIGNJames Klosky, U.S. Military AcademyDecker Hains, U.S. Military AcademyTimothy Johnson, Department of Civil and Mechanical Engineering, USMAJakob Bruhl, US Military Academy, Dept of Civil & Mechanical EngineeringJared B. Erickson, U.S. Military AcademyJohn Richards, D/CME, USMA Page 12.217.1© American Society for Engineering Education, 2007 An Integrated Approach for Engineering Mechanics and DesignAbstractAs part of a major curriculum update undertaken over the last three years, the United StatesMilitary Academy at West Point has implemented a new course sequence in statics
last constraint is obvious and universal: the Accreditation Board of Engineering andTechnology (ABET) has several criteria that must be met by all accredited programs. Sinceaccreditation is essential, indeed vital, to all programs offered by public universities, fulfillmentof these criteria must be an integral part of all engineering curricula. B. Elements of the Mechanical and Energy Engineering curriculum:The curriculum of the Mechanical and Energy Engineering Department has been designed tosatisfy all the constraints of the previous subsection and four essential elements: • Mathematics and basic sciences courses: These courses offer the students a solid foundation in Mathematics and Natural Science as well as needed
Engineering Management from The University of Alabama Huntsville. Page 12.1273.1© American Society for Engineering Education, 2007 Service-Learning and Integrated, Collaborative Project ManagementAbstractThis paper describes the introduction of service-learning into an undergraduate course on projectmanagement. At ECU, engineering courses are taught in an integrated and collaborativeeducation environment. The core curriculum requires junior level students to complete a coursein project management as part of the program’s commitment to industry to supply immediatelyproductive, contributing new
AC 2007-516: INTEGRATING LEAN SYSTEMS EDUCATION INTOMANUFACTURING COURSE CURRICULUM VIA INTERDISCIPLINARYCOLLABORATIONNing Fang, Utah State University Ning Fang is an Associate Professor in the Department of Engineering and Technology Education, College of Engineering, Utah State University. His areas of interest include engineering education, manufacturing processes, and product design. He earned his PhD in Mechanical Engineering in 1994 and has published 30+ papers in refereed international journals. He is a member of ASEE, ASME, and a senior member of SME.Randy Cook, Utah State University Randy Cook is an Executive in Residence at Utah State University, with a joint appointment between
, TX 78666 AbstractThis paper provides an in-depth analysis to develop (or refine) manufacturing curriculum of anIndustrial Technology, Engineering Technology and Manufacturing Engineering Programs whenthey exist in single educational environment. A single educational environment can be defined asa department(s), school(s), or colleges(s). Such an arrangement provides an opportunity wherethe engineering and technology curriculum blend to offer the students a wide range of experienceand knowledge. In addition, it provides the local communities and industry with integratedworkforce that has a high diversity of engineering and technology skills. This paper is intendedto discuss guidelines, strategies to
workingcollaboratively to integrate an innovative robotics curriculum into science, technology,engineering, and mathematics (STEM) courses in the Boston Public Schools and other raciallydiverse and economically disadvantaged Massachusetts school districts. The project issponsored by the National Science Foundation (NSF) program, Information TechnologyExperiences for Students and Teachers (ITEST). The project targets 7th and 8th grade STEMteachers, with students participating during summer and after school. The project addresses theurgent need to enhance student interest and performance in STEM courses, while fosteringskills that are important prerequisites for IT careers. In the near term, the project is helpingMassachusetts schools and students meet statewide
AC 2007-879: PLANNING A LIVING-BUILDING LABORATORY (BUILDING ASA LABORATORY) THAT WILL INTEGRATE WITH ENGINEERINGTECHNOLOGY CURRICULUMJason Durfee, Eastern Washington University JASON DURFEE received his BS and MS degrees in Mechanical Engineering from Brigham Young University. He holds a Professional Engineer certification. Prior to teaching at Eastern Washington University he was a military pilot, an engineering instructor at West Point and an airline pilot. His interests include aerospace, aviation, professional ethics and piano technology. Page 12.1156.1© American Society for Engineering Education
the Department of Industrial and Enterprise Systems (formerly General) Engineering in August 1999. His educational background includes an MS in Mechanical Engineering (1993) from the University of Washington, a BS in Ocean Engineering (1980) from Florida Atlantic University, and a BA in Art History (1974) from Indiana University. His current research interests include engineering education, integration of CAD/CAE software in the engineering curriculum, spatial visualization, and reverse engineering. Professor Leake’s publications include the book Autodesk Inventor, published by McGraw-Hill in 2004 and a CD series, Learning to Use AutoCAD 2D & 3D, published by Thompson Delmar Learning in
the design and prototype realization ofcircuits and systems they always wanted to build and the place for hands-on experience Page 12.930.3throughout their freshman year. The Hobby Shop will be an integral part of the freshman yearcourses, namely, ENGR 1200-Engineering Methods, and EENG 1201-Electrical Engineering I.The size and level of sophistication of the Hobby Shop projects are usually determined by theavailable budget and time. Robotic bugs and vehicles with track and obstacle sensors were themost common choice of students enrolling in the Hobby Shop. Other interesting projects thatstudents chose
outsourcing of ECE expertise. The intent is to offer suggestions on howto revise the ECE curriculum to; 1) help future graduating ECE engineers work in aglobal environment, and 2) strengthen areas of ECE that are not likely to be outsourced,and to minimize focus of areas of the ECE discipline that are most likely to beoutsourced. These recommendations will in no way weaken the fundamental requirementfor understanding basic ECE principles, but are merely an attempt to structure the ECEcurriculum to be more resilient to outsourcing, so that ECE graduates in the United Stateshave expertise that are not easily outsourced and can compete in a global environment.Research of what’s being currently outsourced clearly identifies the need for USengineering
is Elementary: Engineering and Technology Lessons for Children (EiE) wasdesigned to meet the need for an appropriate and engaging engineering curriculum, whileaddressing the challenge of adding a new subject to the elementary school curriculum. Bycreating and testing lessons that are closely integrated with elementary science topics, EiEstrengthens the science program while introducing key engineering concepts and fosteringpositive attitudes towards engineers in ways that include girls and boys from a wide variety ofethnic and cultural backgrounds. EiE also seeks to expand children’s images of engineering, andbroaden their interests and expectations for the future.The EiE project is unique in a few ways—it focuses on engineering and it
. Page 12.977.2As a result of concerns related to some of these new technologies, safety and health issues nowplay a key role in many fields of Engineering and Engineering Technology. This is especiallytrue in the Biomedical Engineering field whose growth rate has outpaced other traditionalengineering disciplines in recent years 2. In the health care industry, patient safety and healthissues lead to many injuries and death with resulting litigation every year. Unfortunately, eventhough the importance of health and safety considerations is well established for many fields ofengineering, it is not taught as an integral part of most engineering or engineering technologycurricula, and is not tested as part of the Fundamentals of Engineering (FE) or
, the extent to which these applications are utilized in the curriculumbeyond those specific courses, and the extent to which programs are including content on,building information modeling. As a result, a research study was conducted to collect datarelated to the use of these technologies in curriculums. More specifically, the study focused onarchitectural engineering curriculums based on two assumptions. First, it is assumed thatarchitectural engineering education emphasizes an integration of both engineering andarchitectural design content, a position supported by review of many AE programs. Second, it isassumed that industry developments such as the GSA mandate will require all disciplinesinvolved in design and construction to utilize