engineeringtechnology program or advanced manufacturing science program, a student can come back toMSU Denver to pursue a BS degree in MET or AMS in the future. This certificate program hasbeen approved by MSU Denver board of trustees.ConclusionDue to the changes of the industry, traditional college degrees may not meet the exact need ofcurrent industry. “Business and postsecondary education have found common cause in recentdecades in the preparation of a highly skilled workforce to preserve the nation’s competitivenessand economic opportunity in response to rapid technological change and increasing globalcompetition…The only way to develop curriculum and instruction models that deliver this skillset to large numbers of Americans is for business and education
is a professor in the Department of Mechanical and Materials Technology at the Instituto Federal de Educac¸a˜ o, Ciˆencia e Tecnologia da Bahia. He is a mechanical engineer and holds Master’s degree in mechanical engineering, and a PhD in Engineering Education. He has been teaching at different levels, from the first year of technical high school to the final year of mechatronic engineering course, since 1995. He also has considerable experience in the design and implementation of mechatronic and production engineering courses. His non-academic career is centered on product development and manufacturing processes.Dr. Alberto W Mello, Embry-Riddle Aeronautical University Ph.D. in Aerospace from the
and in engaging K12 students in STEM. Holly received her BS in Materials Science and Engineering from Drexel University and her PhD in Engineering Sciences from Harvard University. American c Society for Engineering Education, 2021Adapting Soft Robotics Outreach to a Teacher-delivered Curriculum in theVirtual Classroom (Work in Progress)AbstractParticipation in educational robotics, tinkering, and making are common precursors toenrollment in engineering majors. By broadening the applications of robotics to human-centereddesigns, the field of soft robotics may be a platform to engage a diversity of students in K12robotics and later, engineering majors. Until now, most
, industrialengineering, operations management, art and design and others11.Curriculum of VET collegesThere are several types of Austrian VET colleges12. The reformed curriculum of 2011 includessubject courses with a total of 100 to 110 hours, depending on the engineering program13. It hasto be mentioned, that in the Austrian education system for everyone at a VET college about 15hours of mathematics and applied mathematics and 10 hours of physics and science arecompulsory, in addition to the engineering program. In total, 175 hours are basis of the reformedengineering syllabus. Page 21.41.3Not all discipline have their syllabus reformed at present, some have
Paper ID #10651Developing curriculum to prepare student engineers to engage with problemsfaced by underserved communities globallyDr. Bhavna Hariharan, Stanford University Bhavna Hariharan is a Social Science Research Associate at the Kozmetsky Global Collaboratory in the School of Humanities and Sciences at Stanford University. Her field of inquiry is Engineering Education Research (EER) with a focus on engineering design for and with underserved communities around the world. For the last nine years, she has worked on designing, implementing and managing environments for interdisciplinary, geographically distributed
Paper ID #45540A Cause-and-Effect Approach to Empowering Engineering StudentsDr. Mazen I. Hussein, Tennessee Technological University Mazen is an Associate Professor in the General and Basic Engineering Department at Regional University. His research interests include: Freight modeling and logistics, facilities planning and material handling, optimization and simulation modeling, production planning and control, reverse logistics and recycling, modern manufacturing systems, microalloying and mechanical behavior, teaching statistics and increasing the data analytics content in engineering curricula, and the impact of the
position at Stuttgart University, Germany, where he earned his Ph.D. in Computer Science. Over the past 15 years, Schaefer has conducted research on product modeling, variant design, product lifecycle management, design-with-manufacture integration, standardized product data exchange, as well as digital and virtual engineering. His current research focus concerns the highly topical area of Cloud- based Design and Manufacturing (CBDM). A passionate educator, Dr. Schaefer also conducts research on Design Education, Personalized Learning, Distance Learning, and Professional Faculty Development. He has published more than 120 technical papers on Computer-Aided Engineering & Design as well as Engineering Education, and
profoundsocial impacts.The overachieving goal of any engineering solution is the improvement of quality of life.Alleviating technical problems at the cost of creating new social problems does not constitutegood engineering. A sustainable design approach must focus on minimizing negative socialimpacts to allow a solution to be effective throughout its useful life. Engineers trained with anemphasis on sustainability in design will approach problem solving with non-technicalconstraints, like social engineering at the forefront of their design.Integrating sustainable design concepts into engineering education allows engineering students todevelop skills that extend beyond the scope of a traditional engineering curriculum by adding aglobal perspective. Using
systems8.Many schools offer courses or programs in renewable energy. Hassan9 reported the formulationof a Bachelor of Science in Electrical Engineering curriculum with a concentration on alternativeenergy. Somerton and Bernard10 discussed an alternative energy course at the Michigan StateUniversity which also introduced the related political, social, and economic issues. The courserequired students to complete a project on solar, wind, or fuel cell technology. Tamizhmani etal.11 at Arizona State University offered an introductory course in fuel cell technology whichincorporated a multi-disciplinary teaching approach. Shahidehpour and Li12 proposed setting upa world-class smart grid education and workforce training center at the Illinois Institute
with MET are computer-aided drawing(CAD), machine design, structural design, thermal design, fluid design, manufacturing,materials, safety, and others. After allowing for general education requirements, insufficienttime is available to study all of these topics in a Bachelor of science curriculum. Consequently,compromises must be made in designing the MET curriculum. Between MET programs,considerable latitude in the curricula may exist. Additionally, TAC/ABET may have causedmore topic depth and less breadth than would otherwise occur. Large MET programs may offera wider variety of courses than smaller programs, and local industry probably influences thebreath of topics offered. In order to answer some of these questions, this author
Pennsylvania on collaborative projects, educational research, and community outreach on climate change, air quality, and STEM education. American c Society for Engineering Education, 2020 Developed Curriculum for Introducing Quantum-Dots to High School Students, (Resource Exchange)Abstract A Ph.D. engineering student and high school chemistry teacher collaborated to teach theconcept of Quantum-dots (Q-dots) and their applications through three main stages: introductionto the topic, hands-on activity, and topic expansion. Students were engaged through a 5-minuteintroduction on “nanoscales” and “nanoparticles”. Students then made particles using a dye
information technology to improve upon traditional lecture classes is to use it to promotecollaborative learning19 and active learning12,13. Specifically, using information technology,simulated environments can be created that allow students to address realistic problem scenariosin a hands-on fashion using domain knowledge mastered in the relevant courses4.There are also many other challenges in education where information technology can be used asan enabler. For example, the traditional industrial engineering curriculum includes what may Page 9.688.1seem like loosely connected courses that address different elements of manufacturing and service
Paper ID #5713College of Engineering at King Saud University and its Partnership with In-dustryProf. Abdullah I. Almhaidib, King Saud University Prof. Abdullah I. Al-Mhaidib has been the dean of Quality at King Saud University since October 2012. He was the vice dean of the College of Engineering for Development and Quality. He is a professor of Geotechnical Engineering at the Department of Civil Engineering in the College of Engineering at King Saud University in Riyadh, Saudi Arabia. He graduated in Civil Engineering from King Saud University in 1982. He obtained his M.Sc. degree in Geotechnical Engineering from University
.6 These are not novel ideas in liberaleducation program design, but what makes the Miami plan unique is that it emphasizes varyingforms of inquiry and pedagogy. Often schools allow students to get liberal educationrequirements “out of the way” in the first or second year. As a result of implementing the Miamiplan, liberal education is integrated into the engineering technology curriculum all through fouryears..The Miami plan has two parts; Foundation and Focus. The ‘Foundation’ requirement is met bytaking 36 semester hours of courses (Table-I). The ‘Focus’ requirement, is met by taking aminimum of 9 hours in a thematic sequence outside the major and a minimum of 3 hours in asenior capstone experience taken in the final year of study (Table
“It is not easy to implement this new style of instruction, and I am not yet convinced that Iwill be able to get this style to work for my students. On the other hand, I am not yet ready tothrow in the towel…!” Yost is typical of instructors who struggle to implement ACL and thedifficulties she faced hinder other engineering instructors trying ACL. Additionally, faculty whothink they are using ACL may, in fact, not be using it effectively. Smith (1995) reports that“Many educators who believe that they are using cooperative learning are, in fact, missing itsessence.” Simply putting students in groups and telling them to learn together does notautomatically result in cooperative learning.V. ConclusionsWe believe that ACL and CAT have great
existing classroompractices. To ensure that such adaptations do not under-cut the efficacy of well-designed material,it is essential to educate teachers regarding the underlying frameworks and engage them in thedesign of curricula [25]. Research suggests that involving teachers in curriculum developmentrequires PD that actively engages them in the design of new context-based units [26]. A five-phaseteacher PD model, created by researchers [27], to support such a process consists of: (i) dialogueabout research and national goals; (ii) articulation of personal beliefs; (iii) design of curriculum;(iv) alignment of curriculum with school environment; and (v) design of assessments. Studentstaught by the teacher participants of such PD programs
school and college as well as preparing students for the rigors of mathematics. His research interests include engineering education, excellence in instruction, water and wastewater treatment, civil engineering infrastructure, and transportation engineering.Dr. Jaskirat Sodhi, New Jersey Institute of Technology Dr. Jaskirat Sodhi is a University Lecturer in the department of Mechanical and Industrial Engineer- ing at New Jersey Institute of Technology. He is interested in first-year engineering curriculum design and recruitment, retention and success of engineering students. He is the coordinator of ENGR101, an application-oriented engineering math course for students placed in pre-calculus courses. He has also
attempts: 1) to address the well-publicizedchallenges of educating the current generation of American students with their short attentionspans, expectations of immediate rewards, and limited “hands-on” experience (vs. years of“fingers-on” experience with modern electronic devices), 2) to improve our graduates’professional skills as recommended by practicing engineers, and 3) to implement improvedpedagogical techniques via an overriding “design as knowledge” teaching philosophy1 that willteach through an emphasis on model-based design and product realization in a Student-drivenPedagogy of Integrated, Reinforced, Active Learning (SPIRAL) approach. That approach appliesBruner’s concept2 of a “‘spiral curriculum’ that turns back on itself at higher
theUndergraduate Education (DUE) under the Course, Curriculum, and Laboratory Improvement(CCLI) Program.ReferencesBloom, B.S.(1956). Taxonomy of Educational Objectives, David McKay, New York,NY.Beer, F.P., & Johnston, E.R. (1996). Vector Mechanics for Engineers, 6th Edition. McGraw Hill.Hake, R. (1998). "Interactive-engagement versus traditional methods: A six thousand-student survey of mechanics test data for introductory physics courses," Am. J Phys., 66 (1), 64-74.Hibbeler, R.C. (1998). Engineering Mechanics: Statics, 8th Edition. Prentice-Hall.Johnson, D., Johnson, R., & Smith, K. (1998). “Cooperative Learning returns to college: What evidence is there that it works?” Change, July/August, 27 - 35.Mazur, Eric (1997). Peer Instruction
. The IAB reported that a seniorengineer with between 6 – 10 years of experience would be termed a systems engineerwithin their companies. The question becomes how can undergraduate students exitacademia without a formal systems engineering degree and still have an appreciation forsystems engineering concepts that are integral to industry?A Template for Teaching Systems Engineering using APP-B LearningOregon Institute of Technology has used a project-based education model for many yearsin their manufacturing and mechanical engineering technology programs. Projects areused to supplement the theory behind important engineering concepts used in industry. Aliberal mix of projects utilized throughout the “applied engineering” curriculum alwaystended
Learning Association, and the National Society for Experiential Education. c American Society for Engineering Education, 2018 Using Experiential Learning in Course Curriculum: The Case of a Core Engineering Graphics CourseIntroductionIn Fall 2017, Nova Southeastern University (NSU) launched an experiential education andlearning program (ExEL) for all undergraduate students. In this paper, we describe a work-in-progress (WIP) that focuses on the establishment of this university-wide program and the re-design of an engineering graphics course that embeds experiential and active learningpedagogies. The paper is organized as follows. First, a brief overview of experiential educationand relevant theories
classes. Recently he has been awarded research grants to study the laser welding of plastics and assist with commercialization of the technology. Since 2005, Dr. Campbell has served as faculty for the Pennsylvania Governor’s School for the Sciences (a summer program at Carnegie Mellon) and currently sits on the Board of Directors for the PGSS Campaign, a nonprofit that is responsible for raising the funds to finance and sustain the program. He also serves on his local school board. c American Society for Engineering Education, 2019 Design and Delivery of an Electro-Optics Summer Camp for Secondary Students (P12 Resource/Curriculum Exchange)Abstract A one week summer
generation" was funded by the Division of theUndergraduate Education (DUE) at the NSF under their Course, Curriculum, and LaboratoryImprovement (CCLI) Program.References1. Angelo, T.A. & Cross, P. (1993). Classroom Assessment Techniques: A Handbook for College Teachers. JosseyBass Publisher, San Francisco, CA.2. Brent, R. & Felder, R. (1992). "Writing Assignments: Pathways to Connections, Clarity, Creativity," CollegeTeaching, 40(2), 43-47.3. Cross, Patricia (1998). “What Do We Know About Student Learning and How Do We Know It?” in Proceedingsof the 1998 AAHE National Conference on Higher Education, Atlanta, GA.4. Danielson, S.G., & Danielson, E.B. (1992). Problem solving: Improving a critical component of engineeringeducation. In
CurriculumAbstractThe Aerospace Engineering Department at Cal Poly State University, San Luis Obispo, is inthe later phase of a dynamic experiment to revitalize its “hands on” approach toundergraduate engineering education and bring it better in line with evolving accreditationstandards. Part of this plan is to introduce commercially available aircraft manufacturing andfabrication “kits” into its laboratory curriculum. This has been largely accomplished, and thechallenges of the initial phases of this task were presented in a previous publication. Thispaper presents how the lessons learned and resulting innovative learning experiences arebeing integrated throughout the aerospace curriculum with a critical eye towards meetingaccreditation standards. These
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
professor in the Engineering Education Department and an adjunct faculty in the Civil and Environmental Engineering at Virginia Tech. His research interests are in the areas of sustainability, computer-supported research and learning systems, hydrology, and water resources. In a major ($1M+, NSF) curriculum reform and engineering education research project (2004-09), he led a team of engineering and education faculty to reform engineering curriculum of an engineering department (Biological Systems Engineering) using Jerome Bruner’s spiral curriculum theory. Currently, Dr. Lohani leads an NSF/REU site on ”interdisciplinary water sciences and engineering” which has already graduated 45 undergraduate researchers since 2007
Illinois and California, directing research, business develop- ment, operations, quality assurance, sales and marketing. Ann is a licensed acupuncturist, holds an MS in Traditional Chinese Medicine and a BS in Nutrition from the Midwest College of Oriental Medicine. In 2010, Ann co-founded Point of Health Acupuncture and owns Birdhouse Acupuncture, both health and wellness businesses. Ann received her BS in Biology from the University of Illinois at Chicago. c American Society for Engineering Education, 2019 Optimizing the Integration of Computational Thinking into a STEM Curriculum for a Minority Girls’ After-School Program (prek-12, Work-in-Process-Diversity
referred as accreditationcriteria 2000 or AC2K by the accreditation board for engineering and technology (ABET).Therefore to begin defining a curriculum it was necessary to define a picture of the overallsystem of which the curricula would represent a subsystem.III. The system stakeholdersIt is not difficult to identify as external stakeholders national organizations such as: TheNational Research Council (NRC), the National Aeronautics and Space Administration(NASA), the U.S. Department of Energy, the American Society of Mechanical Engineers(ASME), the Society of Manufacturing Engineers (SME) , The American Institute forAeronautics and Astronautics (AIAA) ,the National Academy of Engineering, and allindustries, government agencies and corporations
details of a National Science Foundation (NSF) sponsored project todevelop multimedia educational material to enhance the educational experience of undergraduatemechanical and manufacturing engineering majors. The project approach departed from thetypical practice of developing supplementary instructional material for individual courses infavor of a scaffolded architecture which features scalable content for use in course groupings.Courses ranging from the sophomore to the senior level were arranged on thematic linesresulting in four groups or studios, namely: Materials, Thermo-Fluids, Design andManufacturing, and Dynamics, Vibrations and Controls. For each group, learning modules thatconnect experimental methods with foundational course content
, equity and inclusion (DEI). © American Society for Engineering Education, 2022 Powered by www.slayte.com Introducing Data Analytics into Mechanical Engineering Curriculum Xiyuan Liu Department of Mechanical & Aerospace Engineering, Syracuse University AbstractThe advancements in information technology, computing power, data mining and artificialintelligence have enabled all the engineering disciplines to take the advantages of large datasets tomodel, classify, and make proper predictions for numerous engineering applications. To educate next-generation