promotes faculty buy-inand minimizes institutional cost, we believe that the above outcomes may be more fullyrealized if the curriculum were more flexible, viz, provide basic engineering scienceskills and tools to the students on an as-needed basis to complete the project. Thus, theobjective of the planning grant is to pilot a project-driven, “course-less” curriculum. Inthis setting, “course-less” does not mean to “no courses.” Rather, there would be “less”of them, because traditional courses that teach basic concepts would be replaced withself-paced IT modules. The pilot study consists of four phases: 1) develop electronicmodules to deliver content from fluid mechanics on a just-in-time basis; 2) beta-test themodules with students who have not
the lack of certainknowledge and skills among civil engineering graduates, while at the same timeengineering programs were facing pressure to decrease credit hour requirements inundergraduate curriculums. ASCE formed a committee to study and develop a CivilEngineering Body of Knowledge (BOK)1 to document the requisite knowledge, skills,and attitudes necessary for future civil engineers. Two key areas that resulted from theBOK and an effort to demonstrate the BOK outcomes by the ASCE CurriculumCommittee2 were a need to define expected performance levels by these new engineersthrough Bloom’s taxonomy3 as well as the addition of four new outcomes focused onadditional professional topics and discipline depth. Very quickly it was determined by
25.486.3discussed in detail in Section III. After determining the global learning aspects already presentin our curriculum, we categorized those aspects into each of the three global learning outcomesof sustainability, diversity and global engagement. From there, we could see which global learn-ing outcomes were already well-supported in our curriculum, and only needed formalization andassessment, and which outcomes were only weakly supported, needing development of furtherefforts to strengthen that global learning outcome in our curriculum. To minimize additional fac-ulty workload, the aspects that would support the particular global learning outcome should alsosupport our ABET and program outcomes whenever possible, so that assessment can target multi
technical topics forsenior theses required of all undergraduate students; to develop a focused area for a recentlydeveloped co-op program in the engineering school; to provide a team focused competitiveexperience in ICAR that was being formed at the time.To accomplish these goals, UVA has initiated two courses in motorsports engineering toaugment its newly revised engineering curriculum and compliment an existing mechanicalengineering technical elective, Automotive Engineering. Several students have held summeremployment with professional race teams, including two NASCAR Winston Cup teams and aPro Tour truck racing team. Two graduating students are employed by Ford Racing. Nearly adozen senior thesis projects related to motorsports have been
Session 1626 PARTICLE TECHNOLOGY IN THE ENGINEERING CURRICULUM AT NJIT Ian S. Fischer, Rajesh N. Dave, Jonathan Luke, Anthony D. Rosato and Robert Pfeffer New Jersey Institute of Technology Newark, NJ 07102Abstract This paper discusses the development of a three-course concentration in particle technology at NJIToffered across the engineering curriculum which addresses the urgent need for undergraduate and graduateeducation in this vital field of manufacturing. Funded by an NSF-CRCD grant, a major goal is to integrate recentparticle
papers, over 20 conference proceedings, and two book chapters. He was the 2009 recipient of the Outstanding Faculty Performance Award in Research from Tuskegee University.Dr. Jin Wang, Auburn University Dr. Jin Wang is B. Redd Associate Professor in the Department of Chemical Engineering at Auburn University. She obtained her BS and PhD degrees in chemical engineering (specialized in biochemical engineering) from Tsinghua University in 1994, and 1999 respectively. She then obtained a PhD degree (specialized in control engineering) from the University of Texas at Austin in 2004. From 2002 to 2006 she was a development engineer and senior development engineer at Advanced Micro Devices, Inc. Dur- ing her tenure at
. Material covered in lectures andtutorials is complemented by hands-on laboratory exercises and real-world examples of spacemissions, which will be used to illustrate the use of the analytical techniques and demonstrate therelevance of the material.IntroductionFaculty members across the engineering disciplines are aware of the importance of Systems Thinkingcapability of engineering students, yet find it very hard to implement the same concepts in ameaningful way in the curriculum. There are enough literature published in this and otherconferences highlighting the fact that Systems engineering educators are struggling to addressworkforce development needs required to meet the emerging challenges posed by increasing systemscomplexity1 and the
AC 2012-3904: CURRICULUM INCUBATION: DATA-DRIVEN INNOVA-TIVE INSTRUCTIONAL DESIGNDr. Judith A. Sunderman, University of Illinois, Urbana-Champaign Judith Sunderman is a consultant focusing on program and curriculum development, research, and eval- uation in education. She has recently served with the Illinois Foundry for Innovation in Engineering Education (iFoundry) at the University of Illinois, Urbana-Champaign, providing technical assistance for curriculum development. As evaluator with the I-STEM Education Initiative at the University of Illinois, Sunderman focused on small-scale evaluation using short-cycle, coached-change to increase academic performance. Other work has included evaluation of faculty training
not in land locked states, or are too expensive to implement. We have addresses these issues inour state by remanufacturing and re-sourcing the parts used by SeaPerch , making it more affordable forschools, and by developing a curriculum that promotes STEM by explicitly having learning objectives thathighlight STEM complements such as: functions, variables, arrays, and Booleans, computational thinking,basic circuitry, hydrodynamics to name a few.Study The following is a technical breakdown of the program, as it exists at present. Last year weimplemented our ROV efforts at 10 schools with approximately 300 students. Our efforts included 1.)Purchasing and providing each school the sufficient ROV kits to cover the number of students who
hydrocarbon pyrolysis, combustion of propane in a fluidized bed and ethane dehydro-genation by catalytic membrane reactors.Stephanie Farrell is an Associate Professor of Chemical Engineering at Rowan and her positive impact on educa-tion will be recognized with the 2000 ASEE-Dow Outstanding Faculty Award. She has generated novel pedagogi-cal techniques and numerous exciting laboratory experiments and new courses for freshman through graduate level,and she has published and presented extensively in these areas. She has integrated bio-related topics and experi-ments throughout the ChE curriculum, from freshman to graduate level. In this project she will be responsible forthe development and set-up of the enzyme and whole cell experiments.Mariano J
Paper ID #6311Transforming a Middle and High School Robotics CurriculumMs. Mercedes M McKay, Stevens Institute of Technology (SES) Mercedes McKay is Deputy Director of the Center for Innovation in Engineering and Science Education (CIESE) at Stevens Institute of Technology. She has led several national and statewide K-14 teacher professional development and curriculum development programs in STEM education. McKay is co- PI and Project Director for the NSF-funded Build IT Scale Up project to develop and disseminate an innovative underwater robotics curriculum for middle and high school students. She is a former practicing
Science Standards. The project includes summer professional development and curriculum writing workshops, paired with coaching, to allow teams of teachers to design engineering curricular units focused on science concepts, meaningful data analysis, and measurement. Each unit goes through an extensive design research cycle to ensure its quality and is published in an online format. The unit, Hooves, and Paws, and Claws shared with the teachers in the summer professional development program and teachers were asked to develop a unit similar to this unit. Unit Description This five-lesson unit is designed for students in grades 5-8 to learn about adaptation and engineering design. The unit addresses the
expected shared mental model between successfulentrepreneurs and the students in our program. As an indicator of our program’s success, weexpect to see student’s mental models to become increasing similar to experienced entrepreneursas the program proceeds. Entrepreneurs’ Mindset Interactions (Entrepreneurial Education Programs) Students’ Mindset Shared Shared Mental Model Mental Model at pre- EAC post EACFigure 2. Shared Mental Model in Entrepreneurship Across the Curriculum There are three available methods for developing shared mental models 11: pair wiseratings, repertory grid technique
requiring innovative curricula, newcourses and laboratories to educate students to work in this rapidly developing industry andbecome acquainted with these new technologies. Moreover, the pace of change in engineeringeducation is accelerating due to technology advances and administrative constraints. Educatorsare modifying curriculum content to embrace technological advances in the program or courselearning outcomes. In modern world where everything changes at an extremely fast pace keepingup with technology changes is not only desirable but necessary. The renewable energy, greendesign and manufacturing are highly interdisciplinary, crossing boundaries between researchareas, making difficult to cover each of them in a single course. However, they
Session 3257 An Integration Approach to Industrial Engineering Curriculum Design John E. Shea, Tom M. West Oregon State University INTRODUCTION Engineering curricula at most major research universities are driven, in part, by research and technology.Research directions are often defined by funding agencies and major corporations. Faculty learn, develop, andapply the technologies necessary to obtain external funding. This knowledge, combined with individual interests,eventually impacts the
emphasizes theskills desired by the employer. Throughout the development process, the instructional integrityof the course is maintained. This paper will show how one college has used the PBL approach toeffectively balance the broad educational goals of a curriculum course and the more focusedrequirements of industry.IntroductionTo gain a competitive edge in the world market, manufacturing companies must continue to findnew ways of designing and producing high-quality products on time and at minimal cost. A well-trained workforce that contributes to the profitability of the company is vital to maintaining thiscompetitive edge. In the past, companies have relied on engineering professionals to providewide-ranging expertise; technicians were expected
Session 1526 Realistic Reaction Engineering Experiments for the Undergraduate Curriculum Kevin D. Dahm, Stephanie Farrell, Robert P. Hesketh and Mariano J. Savelski Department of Chemical Engineering, Rowan UniversityIntroductionThe pedagogy of teaching chemical reaction engineering is continually advancing through theuse of new computational tools such as POLYMATH and MATLAB; interactive computerapplications; and a new emphasis in textbooks on relating theory to industrially relevantchemical reactions. What is currently lacking in this area are chemical reaction engineeringexperiments that employ
Session 2260 INTERNATIONALIZATION OF THE LAFAYETTE COLLEGE ENGINEERING CURRICULUM Leonard A. Van Gulick, Michael A. Paolino Lafayette CollegeAbstractThree key features serve to internationalize the Lafayette College undergraduate engineeringcurriculum. Semester-long study abroad opportunities for students in all Lafayette B.S. engineering degree programs. A five-year, two-degree program in which B.S. engineering students acquire in-depth knowledge of a foreign language and culture and complete a semester-long capstone experience working abroad
approach is often developed as either engineering faculty andstudents participating in an interdisciplinary effort or engineering departments implementingethics education across multiple engineering classes. Most of the literature studying ethics acrossthe curriculum focuses on institutions which do either the former or the latter, but not bothsimultaneously. However, assessment of student learning outcomes showed that if bothapproaches are used simultaneously and are purposefully connected with each other, the capacityof students to identify ethical systems and practical foundations for making judgments isimproved, and students are better able to apply an ethical system to value judgments.As part of an intermediate engineering design class
Transforming a Civil Engineering Curriculum Through GIS IntegrationIntroductionThe role of Civil Engineers is evolving beyond that of a technical professional with recognitionthat civil engineers play a critical role in the planning, management, and development of theinfrastructure of a community. One critical element of Civil Engineering, as demonstrated byrecent reports developed by the American Society of Civil Engineers and the National Academyof Engineering1, 2, 3, is the ability to visualize the impact that design decisions will have not onlyon the technical aspects but also on economic, social, environmental, and politicalconsequences. Geographic information systems (GIS) enable users to visualize some of
Page 24.1354.1 c American Society for Engineering Education, 2014 Utilizing Rep-Rap Machines in Engineering CurriculumIntroductionIn this ABET accredited manufacturing engineering program, the lead author has been teachingthe Rapid Prototyping and Reverse Engineering course for 8 years at Robert Morris University(RMU). The basic curriculum has been well set other than the new developments. The newdevelopments are added to the course content on an annual basis due to the dynamic nature ofboth fields. In addition, the laboratories have been equipped with multiple relevant technologiesincluding Stereolithography (SLA Viper), Fused Deposition Modeling (Dimension Elite), and3D Printing (Prometal RXD
Session 3550 Integration of Virtual Instruments into an EET Curriculum Nikunja K. Swain, Mrutyunjaya Swain, James A. Anderson School of Engineering Technology and Sciences South Carolina State University Orangeburg, SC 29117 Email: nkswain2001@yahoo.comAbstractLaboratory exercises and computer usage are an integral part of the Engineering TechnologyPrograms. These exercises help to improve the students’ problem solving, critical thinking, andtechnical communication skills and require upgrading of laboratory and computer
Management. Based on experience acquired, observations aremade that may be generally relevant for others who might be considering the development ofsuch curriculum. This paper particularly focuses on the lifecycle factors addressed in thecurriculum, touching only lightly on the technical, social, and other associated factors.MIT CurriculumThe MIT graduate curriculum on Aircraft System Design is accessible through several masterdegree programs, each tailored to a different student audience. The Department of Aeronauticsand Astronautics3 (Aero-Astro) offers a Master of Science (SM) degree targeted at new or recentundergraduates seeking graduate aerospace engineering studies to enter industry or governmentemployment, or to pursue doctoral degree
school STEM and supporting teacher professional development related to engineering education. His research interests include engineering education, design thinking and teaching failure. c American Society for Engineering Education, 2016 Integrating Science and Engineering Curriculum in Elementary Classrooms Engineering is one of the pillars of STEM education, and is an explicit focus inthe Next Generation Science Standards (NGSS)1. The NGSS includes eight scienceand engineering practices central to both disciplines and extremely significant to studentinvestigations. Engineering is also included as a key theme in the NGSS’s DisciplinaryCore Ideas, thus
-enforced.However, it was not only industry, as the end user, who had demonstrated an interest in thesewider professional skills. Students themselves were beginning to perceive the importance ofstudying on a course which explicitly encouraged the development of knowledge and skillsfirmly rooted in the business-oriented context of the modern engineering industry. In the1992-3 Presidential Address, the President of the Institution of Electrical Engineers reviewedthe trends within engineering education, and drew attention to ‘the search by students forcourses which provide them with wider skills’7.The Engineering Council, in its 3rd Edition of SARTOR, continued the increasingly strongtrend of basing the curriculum within the vocational arena, and argued that
, operation parameters, work withothers to improve processes, efficiency and product quality, as well as proactively engage introubleshooting activities.With this new working paradigm and the new technical skills required a new 2- year technicalprogram be being developed at Hillsborough Community College (HCC) in Tampa, Florida.The curriculum for this Associate of Science Degree in Manufacturing Technology is based onthe input from the Florida High Tech Corridor Council, a consortium of high technologyindustries and academic institutions residing along Interstate 4 through central Florida. Thecurriculum has 4 major components that include; 1, general education requirements; 2, scientificand mathematical background requirements; 3, technical skills
the desirededucational outputs.Some of the points in this report that are relevant to manufacturing systems are:¨ Development of a highly adaptable and flexible system¨ Exposure to engineering practice and design principles¨ Exposure to team projects, business perspective and societal issues¨ Development of ability to work well in interdisciplinary teams¨ Satisfy local needs while keeping an eye on global perspective¨ Be amenable to use feedback from industry for continuous assessment and improvement¨ Emphasize communications skills¨ Train for life long learningASMEThe American Society of Mechanical Engineers (ASME) issued a report in 1995 entitled:Integrating the Product Realization Process (PRP) into the undergraduate Curriculum
Session 1221 Integrating Community Service in the Construction Technology Curriculum S. Gokhale and J. Aldrich Purdue School of Engineering and Technology, IUPUI Abstract The pedagogy of service learning has been documented since the mid-1970’s (Perry, 1970), but only in recent years have colleges and universities begun to integrate curricular-based service into higher education. During the fall of 1996, the Department of Construction Technology, IUPUI; NBD Bank, Indianapolis; and the
Paper ID #12092Web-Based STEM Curriculum for Rural High SchoolsProf. Richard Cozzens, Southern Utah University Richard Cozzens has worked in the Aerospace Industry as Manufacturing Engineer, Tool Designer, Re- search and Development and as and Engineering Manager for 13 years. He has taught Engineering and Technology classes for 14 years. He is the author of 5 CAD Workbooks and is currently working on his PhD in Engineering Education. Page 26.1715.1 c American Society for Engineering Education
by the "Vestibular", a selective exam to get into technological fields.VI. The Congress and the Preliminary WeekThis is a process of integration of theory with the practice because since early, in fact since thefirst year, the students have to concept projects. They have to propose, to develop and to get theconclusions in according to the proposition. The projects are presented in a Congress thathappens every year and some invited Professors evaluate together with the professors of theprogram all the works 6.The curriculum was elaborated in a way that the experience in what is called "Scientific andTechnological Training Project" is part of the program as a course. The main objective is todecrease the conflicts between the academic learning