graduation requirement in this area. This provides students an opportunity to practice team skills. Such experience is important for practicing engineers, with the ever increasing diversity of engineering science and applications. Required activities for students are defined by each individual program, and may include items such as: ‚ Team senior project ‚ CO-OP or internship employment ‚ Certain club activities ‚ Working with faculty on a sponsored project ‚ Project embedded in curriculum ‚ Taking certain courses ‚ Service learning projectWe plan to implement the MD certification via a course requirement. Programsemploying a list of options for their students can implement the validation step in a
TABLE 1 ENERGY CURRICULUM FOR A TWO-YEAR COLLEGEEnergy Resources CourseUnderstanding the resources that are present on Native American Lands will help tribalcommunities to better plan the use and exploitation of these resources. The Energy Resourcesclass is designed to present a balanced view of traditional and alternative energy sources. Thefor each energy resource, a life-cycle analysis approach has been designed. The sources are: ≠ Oil and Gas ≠ Coal ≠ Nuclear ≠ Hydroelectric ≠ Geothermal ≠ Solar ≠ Wind ≠ Biomass ≠ Synthetic Fuels ≠ Fuel CellsThe life-cycle analysis will address the topics: ≠ Geologic or geographic occurrence ≠ Cost of extraction ≠ Efficiency in
, physics, solid state devices, CAD, and energyconversion—all combined in one project. The project proposes a new methodology to optimizecompound semiconductor thermal and electrical properties optimized for high speed operationand properly interfaced across the composite device layers. The mathematical modelincorporating the differential equations with boundary conditions across various interfaces wasdeveloped. The paper details the research plan, methodology, and the findings of the project.This model was chosen to build on pre-requisite materials covered in ECE, ME, and Physicscurricula such as thermal sciences, semiconductor devices, solid state physics, electromagnetics,CAD, and mathematical simulation tools. The results obtained during one
Directive introduced the obligation for nearly zero energy buildings(nZEB) and stated that “Member States shall ensure that (a) by 31 December 2020, all newbuildings are nearly zero-energy buildings; and (b) after 31 December 2018, new buildingsoccupied and owned by public authorities are nearly zero-energy buildings” [6, p. 153/21]. In theUnited States, the Department of Energy (DOE) has established guidelines for homesparticipating in the DOE Zero Energy Ready Home Program [7]. In addition, the U.S.government has mandated “that all new construction of Federal buildings greater than 5,000gross square feet that enters the planning process is designed to achieve energy net-zero and,where feasible, water or waste net-zero by fiscal year 2030.” [8, p
4 Integration of society and technology 2, 4 Overview of engineering disciplines 4 Field trips providing exposure to the impact of 2, 4 technology on society Ethical and professional behavior 4 History of technology 7 Course Topic ABET Criterion 3 Student Outcomes Engineering project planning and management 7 Computer aided design (CAD) 7 Prototyping methods
Group Activities Content Project-based Learning Cooperative Learning Problem-based Learning Interactive Lectures Page 12.533.3 Figure 1: Project and companion module structure used in the sophomore year. 2Page 12.533.4The resulting plan was quite complex, integrating activities from several modules into each week;the plan was represented in a Gantt chart schedule that was color coded with each module andthe project in a different color. Several of the PBL
committingto purchasing initial production units once the new vehicle has successfully passed Federal TransitAdministration (FTA) certification testing. The project provides exposure to a very real industryapplication which is similar to what many of the students will face when entering their career fields,and will allow for practical application of project planning, design innovation, budgeting, working withindustry standards and government regulations, as well as manufacturing process planning andexecution. An industrial approach is being utilized for the design process which emphasizes use of severalautomotive industry best practices including Quality Function Deployment (QFD), Design FailureMode Effects and Analysis (DFMEA), as well as
as survey results, student profiles, and brief project descriptions. Outcomes from studentprojects will be reported and future plans to improve retention will be discussed. Page 25.1103.21. IntroductionIncreasing the quality of undergraduate students while keeping the retention rates steady if nothigher has been one of many challenges in undergraduate education, particularly in science andengineering fields. Therefore, the research on the student engagement in engineering researchprojects have been one of the main goals of National Science Foundation’s education divisions.There are a numbers of requests for proposals through the agency such as
autonomous vehicles. He received a PhD degree in Mechanical Engineering on dynamic modeling of flexible multi-body systems in 1999. He has graduated 8 Masters students, and has offered several senior design projects. He is currently supervising several full time and part time graduate students. He has taught several undergraduate and graduate level courses such as Dynamics, Vibrations, System Dynamics, Elasticity, Finite Element Method, Introduction to Robotics, and Advanced Robotics. He has authored a graduate level text book titles: Autonomous Robots; Modeling, Path Planning, and Control. c American Society for Engineering Education, 2019 Work-in-Progress: Layering
-intensive programintended for students in majors from the College of Engineering and Applied Sciences or theCollege of Arts and Sciences at who wish to learn about the emerging field of nanotechnology.The coursework in the Minor provides a broad background in the science, design, manufacture,and societal, health and environmental impacts of nanomaterials and nanoscale structures andtheir applications in engineering and health related areas. The inclusion of a minimum of twosemesters of research in the students’ own major areas, as well as choice of technical electives,will allow for integration into current interests and disciplines, and will provide knowledge andskills valuable to students planning to seek employment or graduate studies in fields
sent prior REU participants a survey askingthem to provide their perceptions of these workshops and what they learned from them. (SeeAppendix.) The authors designed the survey to collect data on student perceptions of both theirsummer REU experiences and post-REU activities. The authors planned to use this data toassess the efficacy of this interdisciplinary approach in terms of teaching soft skills toengineering students.Study DesignResearch Questions and ObjectivesThe question guiding the data collection for this project was RQ: To what extent do STEM students participating in integrated summer REU program believe this approach provided them with effective training in hard and soft skills essential to contributing in the
significant scale. In fact, the planning of a consortium needs experiencedconsortium management and leadership skills of the senior leadership team of a consortium,technical team leaders within partner organizations, and the senior management of localpartner organizations for successful funded program.Consortium Objectives:The objectives of a consortium management: 1. Favors a functional partnership between different universities and labs, by identifying the strength of each organization and create better arrangement across the partners in the consortium. 2. Identify and develop strategies for effective partnership within a consortium in order to increase the outcomes of the program. Since all the consortium
students with the possibilities for these fields. An overview of theSpring 2012 offering is presented below. Overall, the plan of the course was to start at the“micro” scale, with MEMS (microelectromechanical systems) and microsystems, and progress tothe nanoscale and finally to the intersection of nanotechnology and biotechnology. We wantedstudents to experience fabrication of nanomaterials, and also to make measurements on these. Page 23.53.2Also, we sought to inject as many applications as possible. Finally, due to the “overview” natureof this course, we have for now precluded introducing the operation of time-consuminginstrumentation such as an
Beyond Boundariesrelative to transforming undergraduate engineering education have been in the areas of: • Leading a change management process • Getting broad faculty involvement • Applying research on engineering education innovation from peer institutions and educational research.The work of the Engineering Beyond Boundaries (EB2) Task Force and Roundtable has beenfully supported from the college administrative leadership and increasingly has formed the basisof the college’s strategic plan. Department Chairs and Faculty have been invited to engage in theplanning process as members of the Task Force and/or Roundtable to provide ideas and create
Engineering from Rensselaer Polytechnic Institutein 1983. From 1982 to 1992 he was with IBM Microelectronics, conducting research and development inthe realization of advanced semiconductor technologies. From 1992 to 2008 he was with Louisiana TechUniversity, where he was the Entergy/LP&L/NOPSI Professor of Electrical Engineering, in recognition ofhis teaching and research contributions in the microsystems and nanotechnology areas. From September2000 to June 2008 he was the Director of the Institute for Micromanufacturing, where, from 1992, hehad contributed to the growth and development of the Institute, including through planning and settingup of laboratory resources and facilities, development and implementation of major sponsored
therequirements for an Engineering BS degree, each student will complete the program courserequirements including at least three of the following six activities:1. Undergraduate Research2. Cooperative Education or Internship3. Global Learning or Study Abroad4. Service Learning5. Leadership6. Multidisciplinary EducationPrevious papers have described global learning efforts8 and leadership9. The complete plan for―The Engineer of 2020‖ was also reported10, 11. The focus of this paper is centered on the servicelearning opportunity made available to engineering students by the CoE through the creation ofthe ENGR 202 course ―Service Learning in Engineering‖, which will be described in furtherdetail in a subsequent section of this
and retained the Multidisciplinary degree as well 5. Programs at research universities 6. Programs at liberal arts colleges 7. Programs that merge engineering and management.”A petition to become a Constituent Committee of ASEE, prepared by Dr. Gosink, was edited andthen signed by 17 attendees. The group decided to plan a program, with both a technical sessionand a business meeting, for the 2003 ASEE Annual Conference scheduled for Nashville, TN.Two areas of focus for technical session papers were suggested: multidisciplinary engineeringprogram curricula and multidisciplinary engineering program visibility. Those assembledelected Dr. Gosink as chair, Dr. Jim Farison, Baylor University, as vice chair (and
difficult to move those projects forward into the normal testingphase. Fortunately, we were able to anticipate this pending limitation and direct college funds topurchase standard quadcopter drone kits for almost every student (or pair of students who couldstill work together on the project). These kits allowed the students to independently conductflight planning and test flights with the autopilots. This technology is far easier with rotary wingdrone aircraft then with fixed wing aircraft. In the latter the aircraft cannot hover, so takeoffs,landings, and missions are far more difficult to program. Nonetheless, this helped students learnthe basic principles of programming drone missions.With no way for the students to test fly the fixed wing
of the Data Science and Engineering Summer School was to provide students aconnection between nuclear non-proliferation applications and data science. Lectures provided areview of key topics and introduced data science methods via hands-on tutorials. Students wereimmersed in a collaborative environment.The Data Science and Engineering Summer School was originally planned to be in-person.However, pandemic concerns in 2020 forced the school to transition to an on-line format. ThisPNNL-SA-160054transition had both benefits and challenges. One of the primary benefits was that the on-lineformat allowed for more participants resulting in 214 registrants for the course. The largenumber of registrations exceeded expectations and provided a challenge
increasing after incorporating assistive technology or real-world medical applicationsinto course projects [3, 4].Research regarding the development of these real-world biomedical application courses andassistive technology often encourage multidisciplinary teams [1]. One example combinedengineering and business students who worked on entrepreneurial assistive technologyprototypes and a business plan [5]. These projects were also used to introduce and involvestudents in technology transfer opportunities [5, 6]. Another course combined biomechanicalengineering and occupational therapy students, with faculty from both disciplines teaching thestudents and combined design teams. Feedback on the interdisciplinary teaching style waspositive, though there
will produce itsfirst graduates in May 2009 and it is planned to seek ABET-EAC accreditation under generalengineering criteria in the 2010-2011 academic year.The RBE program objectives are to educate men and women to: ≠ Have a basic understanding of the fundamentals of Computer Science, Electrical and Computer Engineering, Mechanical Engineering, and Systems Engineering. ≠ Apply these abstract concepts and practical skills to design and construct robots and robotic systems for diverse applications. ≠ Have the imagination to see how robotics can be used to improve society and the entrepreneurial background and spirit to make their ideas become reality. ≠ Demonstrate the ethical behavior and standards expected of
, engineering and design jobs will follow, as an engineer cannotdesign a product well without knowing how to manufacture a product. Althoughoutsourcing could be just a part of globalization, it may permanently hurt the U.S.industry’s competitiveness and product innovation capability if the trend continues. Inorder for the U.S. to stay competitive, product innovation is the best strategy so thatconsumers will continue to purchase higher priced yet higher value products. It is criticalto educate our future engineers about the importance of manufacturing1.To respond to the need for the enhancement of manufacturing education, theCoordinating Board for Higher Education in cooperation with the Missouri State Boardof Education prepared a Missouri State Plan
of resourceful problem-solvingwould have been less likely in a classroom or simulated setting.While modeling and simulation are both critical learning tools for students, they can only serve asa simplified picture of the realities faced by a real engineer [9]. Parts will break, wiring will shortout, and programs will encounter unexpected errors; the ability to overcome these challenges isfundamental to a successful career in engineering.A survey was conducted to see how this multidisciplinary project has helped students in “an abilityto function effectively on a team whose members together provide leadership, create acollaborative and inclusive environment, establish goals, plan tasks, and meet objectives” (newABET Criteria 5).The School of
disks, Braille, and image enhancement.Career and Vocational Support Services: assistance with career planning and development;opportunities for work site experiences, interviewing skills, requesting reasonable, on-the-jobaccommodations; assistance with career counseling and raised awareness about meeting thedemands of a chosen occupation.Culture of Acceptance: The barrier-free architecture and accessible academic programs haveenabled WSU to attract a large number of students, staff and faculty with disabilities, totaling anacademic community of well over 1000 individuals. In exit polls of graduating students, manystudents without disabilities comment that one of the most important lessons they learned oncampus was to understand and accept
redesigned to allow the projects for each semester to bepresented to students, discussed and problematized in the classroom by all of the teachers. As anexample of the changes made, a specific discipline was created to focus on planning and teamwork, computer programming was brought forward to the first semester and physics (kinematicsand dynamics) was moved to the second semester. Curriculum design was also directed towardsthe automotive and petrochemical industries which are part of the local economy.2.2 The model adoptedIn each semester a project was defined with specific guidelines and students were divided intoteams of 10. One teacher was designated as a general advisor, although all teachers of alldisciplines were to support the project by
semester-longteam research experience. The students impacted by one and/or both of these initiatives areexpected to form an excellent talent pool for traditional graduate engineering programs, as wellas non-traditional graduate programs planned for the near future at our university, such as thegraduate programs of the ERC-supported Bioengineering Department and/or Joint School ofNanoscience and Nanoengineering. The content organization of the paper is as follows: (a)Development of Nanotechnology-I: An interdisciplinary nanotechnology theory-cum-laboratorycourse, (b) Development of Nanotechnology-II: A semester-long hands-on research-basedcourse, (c) Infusion of nanotechnology modules in existing undergraduate courses, (d)Organization of REU
feedback. Thelecture and lab topics covered in order during the 30 weeks of the course are as follows:Lecture LabDesign Process and Methodology Background Research/Requirements/SpecificationsTeamwork: Theory, Skills, Practice Team Building ActivitySystems Engineering QFD – House of QualityCreativity and Idea Generation Creative Problem Solving ExperienceConceptual Modeling Shop Orientation/Hand Tools ExperienceIdea Selection/Decision Schemes Teamwork Revisited: Personalities, CommunicationProject Planning Engineering EconomicsSafety and Risk Basic
Page 24.791.5year and more in depth instruction in the senior seminar. In between, we do not stress the word“sustainability,” but simply use sustainability topics throughout the courses. We now giveexamples of changes made in specific courses that demonstrate these strategies.We have added topics on sustainability in first year courses including introduction toengineering, engineering computer programming, and engineering graphics. In the introductionto engineering course, we include a module on sustainability (with pre and post tests of studentknowledge and attitudes). Material from our city’s sustainability plan is used as well asinformation on the National Academy of Engineering’s Grand Engineering Challenges; of these14 challenges, the
Page 22.1284.4basic information and expectations before volunteer days so that all volunteers arrive prepared.This preparatory information includes respect towards all persons, safety with machinery andlandscape, appropriate dress for the work and varied weather conditions. When organizingvolunteer days, it is important to ensure that the amount and level of work that is planned for theday is appropriately matched with the number and capability of volunteers (e.g. something easyfor younger kids, or something more involved for older ones). Some backup work is alwaysplanned, in the event that the group works quicker than expected or more volunteers show. It iseasier to decide to do less than planned than it is to come up with extra tasks during
Electrical orComputer Engineering) or a Biomedical Sciences minor (through Mechanical Engineering) 1;both options offer students an opportunity to take coursework and some laboratory work in thebiomedical area well into their plan of study. Implementing a full scale biomedical engineeringprogram is not feasible without significant additional recourses or an affiliated medical school.There is little opportunity to work in a laboratory setting on projects related to biomedicalengineering in the first year of study, as is the case for most if not all engineering programs.Engineering faculty met with faculty from the Department of Nursing while pursuingopportunities for undergraduate student research projects and, together, an undergraduateresearch and