utilizecompetencies developed in the first three years of the curriculum in the solution of a complexdesign problem.Educational excellence requires exposing students to the current edge of research. To ensure thatstudent projects are along the same trajectory that the industry is moving, educators mustcontinually introduce emerging techniques, practices, and applications into the curriculum. Thefields of Internet of Things (IoT) and Wireless Sensor Networks (WSN) are growing rapidly, andthere is increasing interest in providing undergraduate students with a foundation in these areas.This paper presents IoT and WSN projects that our undergraduate computer and electricalengineering students have done in their senior capstone course in wildfire
high school.However, this can be difficult in the United States since engineering courses and thecorresponding interactive design projects for practical engineering products are not alwaysincluded in middle school, even high school curriculum. In this paper, we try to explore thepossibility of developing a short-time workshop with an interesting engineering project whichcan motivate middle or high school female students to learn engineering, and eventually pursuecareers in engineering. For the workshop, we need to consider two factors to develop it: (1) thetime period allowed for the students to complete the project and (2) the expense of the projectproduct. The workshop was included in the event, Next Generation Science, Technology
thedevelopment of new courses and degree programs in engineering and computer science that fullysupport five pathways including: civil engineering, computer engineering, electrical engineering,mechanical engineering, and computer science. The major components of the ETS Program aredesigned to address several barriers that hinder the success and retention of students.2.1 Addressing Barriers to Student SuccessThe educational effectiveness research offices of numerous community colleges largely identifythat the Calculus I course serves as a major barrier for an exceedingly high number of students(60-80%) who enter at remedial math levels. Statewide, only 4% of community college studentsstarting at Intermediate Algebra pass through to enroll in Calculus I
to introduce automation topics.One new element that is introduced to the Mechanisms and Robotics course described in thispaper is the Arduino microcontroller. The use of the Arduino allows the course to bridge the gapbetween a traditional mechanisms course and an automation-based mechanisms course.The Arduino platform is commonly used in Mechatronics courses. Grover et al [1] use anArduino platform for a semester-long project to build a mobile robot using Arduino controllers.Chancharoen et al [2] describe the use of Arduino-based learning kits to provide hands-onlearning experiences in a mechatronics course. Other examples of Arduino use in Mechatronicscourses include Asato et. al, [3], and Riofrio and Northrup [4].Arduinos also appear in
Page 6.1021.2engineering’s content as one of higher priorities in the mechanical engineering departments. Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering EducationDally and Zhang7 in the University of Maryland describe the integration of the design from thefirst year of mechanical engineering throughout a project approach in three phases: design,construction and assembly all of which were made by students.Starkey et al8 in the Purdue’s University show the curriculum design of one freshman course ofmechanical engineering where basic sciences, Machine Design, Fluid Mechanics and others, areintegrated.Miller and
systems, it is essential to determine the optimal inverter topology sothat maximum power can be extracted. Outside of the solar panels themselves, the inverters arethe most important constituent of the solar power system as they take the DC electrical powerthat the solar panels produce and convert it into AC power before injecting it onto the grid. Thegoal of this project is to compare the performance of solar panel arrays fitted with stringinverters, DC power optimizers, and micro-inverters. Together students from both institutionsspent twelve months studying, installing, and analyzing the various inverter technologies.The result of this work is mutually beneficial to all parties involved. The university students gainpractical, hands-on
exhibit a higher level of satisfaction with the course asindicated by Pape4. Casey et al5 reported that, while project work was always seen as an integralpart of later semesters in the curriculum, the need became evident to apply project-based learning(PBL) earlier, primarily to motivate early-stage students that otherwise failed to recognize theapplicability of what they were studying to their future professions.Electric Vehicle InstructionThere is tremendous interest in electric vehicles today. Several major automotive manufacturersare developing an electric car for mass production, and the United States is on the eve of massproducing an electric car for the first time in history. US Economic Stimulus funding and similaractivities are
electric power delivery system transformation that will accommodate highpenetration of renewable energy sources and support new types of loads such as charging PHEVsor EVs [28-29].In spite of these research activities, the educational effort on energy storage technology isinefficient for the current and future needs. Several universities/colleges have implementedcurricula or degree programs in energy and renewable energy [30-32]. Only a few universities inthe nation and around the world have a specific educational program on energy storage.Pennsylvania State University and Ohio State University, two of the few on the list, have anenergy storage curriculum embedded within their Graduate Automotive Technology Education(GATE) programs [33-35
control.Title III, October 1, 2007—September 30, 2012. This project is to initiate two undergraduateteaching laboratories including Mixed Signal Systems Lab and DSP Solutions Lab. Also, anEngineering Technology Advanced Research Laboratory will be established in the ETDepartment to enhance the faculty body’s research capability.NSF HBCU-UP with Grant #0714885, September 15, 2008—August 31, 2010. This project isto revamp the current ET undergraduate lab courses with LabVIEW, aiming to improve thedelivery of laboratory and corresponding lecture contents, deepening student understanding ofthe abstract concepts through physical implementation, enhancing their comprehensive skillsfrom theory to practice, inspiring their interests in STEM subjects, and
relationship.Consultation Process DevelopedJones et al3 report in their findings that in a Product Based Learning approach, students that arethe most difficult to engage in a project are the ones involved in projects that don’t match theircareer goals. At NMSU, engineering students are given the option to select their top capstoneprojects and the instructor uses the students’ input to assign teams. This is done to ensure thatstudents will be working on a project of their interest and keep acceptable levels of engagementthroughout.The AIS-capstone integration process was developed to keep teams engaged, motivated, and ontask in meeting milestones throughout the semester while exposing them to interdisciplinaryresources to accelerate their resepestive technologies
ConsiderationsFrom the initial student team that started working with the QCar platform it ended up with agroup of two EET students to continue the initial work into a senior design project. Because ofthis, some curriculum considerations of the EET program are included here. The College ofEngineering at ODU is one of the few in the nation to include an Engineering Technology (ET)department along with the traditional engineering departments. The ET department includesprograms in electrical, mechanical, and civil engineering technology and recently added amanufacturing technology program. Bachelor’s Degrees are offered in each of these programs,but no graduate program in engineering technology is offered at this time, with studentsinterested in graduate
Page 15.49.5the most recent RIT survey. The percentage of response for 2002 and 1997 in all of thefollowing tables is for all alumni who responded to the survey. As is evident in Table 1, the mostcommon response was engineer, with specific modifiers such as electrical, power, civil, network,software, project, manufacturing and design. Senior management titles included president/ownerand vice president. Job titles in the Technician category were engineering technician (civil),nuclear reactor operator (mechanical) and voice repair technician (telecommunications).Technical Services was not a category for the 1997 survey but included the job title of consultantfor the 2009 survey. In 2002, the other category was split evenly between ET-related and
. Successful examples included: 1. Creation and continued funding of ET scholarships. 2. Program feedback for continued curriculum improvement. (10) 3. Capstone projects. Many of our grads and most of our advisors return to Senior Projects to reconnect. Many connections are made and jobs have changed because of our IAB. Just this year I had one grad come back and leave with a new job. They love it, we love it and everyone benefits. 4. Guidance for new majors and certificates. 5. Identifying new trends in the relevant industries. 6. Identifying areas for cross-linking to other programs. 7. Students are able to work on industry projects for their senior capstone projects. 8. Internship Fair
study’sthree components of boundary work (knowledge, expertise, and power) and how the ETprograms developed their curricular knowledge, emphasized their focus on applied expertise, andmanaged the power differential with their founder, Georgia Tech, as well as, the larger, morepowerful reality of engineering. The curriculum analysis looks as the similarities between thecivil and electrical ET programs and their corresponding SPSU engineering programs todemonstrate how close in knowledge and expertise these programs are. An online survey was sent to all ET and engineering faculty members and can be foundin Appendix B. The survey was anonymous and the respondents were only asked to identifythemselves as faculty members in ET, engineering, or both
engineering and renewable energy technologies can readily involve electrical,mechanical, computer, civil, and chemical engineering aspects while still being accessible toundergraduate students.A natural and efficient way of teaching and embedding renewable energytechnologies into curriculum is the problem-oriented and project-based learning approach. In thispaper, we are discussing a series of renewable energy projects, included for over a three-yearperiod into the senior project design, power electronics and renewable energy technologycourses. Theoutcomes and observations are discussed in details, as well as the lessons learnedand the future improvements.Design, development and build renewable energy projectsallowstudents to work on projects that
environment from the Engineering Technology A.S. to B.S. degree programs.(3) Provide Professional Development that up-skills Engineering Technology Degree faculty as related to identified Industry 4.0 technician skill needs.(4) Create a short-term ET College Credit Certificate to prepare current and future technicians to apply these new skills in the manufacturing workspace.(5) Amplify the manufacturer's involvement with college engineering technology certificates and A.S.ET degree programs.(6) Create Post-A.S. Curriculum Advanced Technology Certificate (ATC) to facilitate skilled technician professional advancement.Statewide implementation of the curriculum changes is key to more robust programs and morework-ready technician graduates
new curriculum thatcovered a breadth of ET topics (e.g., electrical, industrial, manufacturing, and mechanical). Thispaper reports on a single cohort of twenty-seven Purdue Polytechnic New Albany students whovoluntarily completed an end-of-semester anonymous three-part online survey analyzing theirdemographics, perceptions, and the extent to which they believe they had or had not madeprogress in a variety of engineering related competencies (i.e., cluster of related KSAs). Twentyfive (92.59%) students agreed that the new gateway course had prepared them for futureacademic success in their selected major(s) (59.26% strongly agreed), but results show animbalance of perceived preparation across all engineering-disciplines. Multiple course
spectrum of students, from freshmen to seniors, from high school graduates to adult learners. She also has extended experience in curriculum development. Dr Husanu developed laboratory activities for Measurement and Instrumentation course as well as for quality control undergraduate and graduate courses in ET Masters program. She is coordinator and advisor for senior design projects for Engineering Technology.Dr. Yalcin Ertekin, Drexel University Yalcin Ertekin, Ph.D., CMfgE, CQE is a clinical professor in the College of Engineering, Department of Engineering Leadership and Society at Drexel University, Philadelphia, and serves as the Associate Department Head for Undergraduate Studies for the Engineering Technology
EducationWithin the scope of an individual or team endeavor, all professionals should aspire to andachieve a vision of their own realm of activity. Furthermore, communication of that vision isessential for anyone pursuing a project involving more than one person. This is perhaps the mostimportant underlying reason for us to emphasize communication in ET. If professional ETs havea clear understanding of how a complex technical task needs to be completed, they need tounderstand how it fits into the overall vision of the enterprise and then be able to communicatetheir own vision of their own task to others so that it can become part of the overall effort. Forexample, an engineering technologist may be the only one who understands why a particular,very
properties7. Failure criteria8. Design for fatigue strength9. Design of mechanical elements--screws and fasteners10. Design of mechanical elements--welded joints11. Design of mechanical elements—bearings12. Design of mechanical elements—gearsRecommended Text:Shigley, J.E., & Mitchell, L.D. (1989). Mechanical engineering design. McGraw-Hill BookCompany.Method of Course Evaluation: 2 Exams 30% (15% each) Final exam 20% Quizzes 25% Assignments/Project 25%Laboratory Experience in ET Program According to Dr. Israel3, the laboratory experiences should provide students with theability to do the following:1. Become familiar with test equipment2
), electrical and computer (ECE) engineering and computer science departments.Over the past two years, this project had active involvement of at least ten undergraduate ET Page 4.596.4students including minority and women and ECE students and four graduate students. The Two boundary lines making up a course Screen vertical center line Outside boundary of captured image Centroid of two lines Camera
Page 25.1454.7instructors and physics instructors. It might also be beneficial to the curriculum design to includea non-math oriented instructor like a history professor to gain additional perspective.High School Physics CurriculumAn example of using engineering design to approach curriculum design was conducted at_______ University. Engineering faculty was tasked with redesigning a physics curriculum onthe high school level by making it a more hands on and project-based. The project leader, amechanical engineering faculty member, approached the design task with the IDEO philosophyin mind9. Knowing that a diverse team is ideal for design10, the leader assembled a groupconsisting of four mechanical engineering faculty members, one electrical
curriculum thatbest suits the graduate preparing for a career such that the industry can hire knowledgeable smartgrid employees. Multiple universities have partnered on a DOE-funded project calledGrid-Ready Energy Analytics Training with Data (GREAT with Data) to solve this shortage ofqualified workforce. These universities mentioned above that have partnered together consist ofthe University of California, Riverside (UCR), University of Texas, Austin (UT), Virginia Tech(VT), Stony Brook University (SBU), and Washington State University (WSU). To meet smartgrid requirements, these five universities have adapted courses for undergraduate and graduatestudents in different categories, including machine learning, cyber security, alternative
) MEdepartments can better focus on advanced/graduate level education with better utilization ofprofessorial staff.This article examines a 2-year common curriculum template for ME and MET programs basedon CDIO, and summarizes preliminary assessment results of the proposed educational modelcollected from industry participants. The template assumes a full-time course of study in 4semesters after which the student selects to either complete a BS in Engineering Technology in 2additional years, or transfer to an ME degree plan which may be 2-, 3-, or 4-years long. Bothplans are assumed to be constructed so as to be ABET Accredited by the appropriateCommission. An Electrical/Computer Engineering and Electrical/Computer ET 2-yearcurriculum template is being
, 1997.4. Bohmann, L.J. et. al. “Redefining the Introductory Electrical Energy Conversion Course,” ASEE Annual Conference Proceedings, 1998. NSF ESC 9619320.5. Schmaltz, P., Schmaltz, K., Duesing and Goodrich, “A Capstone Senior Engineering Design Course: A Project Case Study and Its Subsequent History,” ASEE Annual Conference Proceedings, 2001.6. Schmaltz, Duesing, Anderson and Zoerner, “Lessons Learned from Teaching Industry-Based Senior Projects,” ASEE Annual Conference Proceedings, 2001.7. McDonald, D., Schmaltz, K. and Walworth, M., “The Development of an Innovative Undergraduate Laboratory That Emphasizes Vertical Integration In Multiple Engineering Curricula,” ASEE Annual Conference Proceedings, 1999.8. Mahajan, A., Walworth
as an assessment technique for all goals.Core Electrical and Computer (ECE) Engineering Curriculum The structure of the curriculum is shown in Figure 1. Many of the course titles suggest contentthat is familiar in typical ECE programs. Features that differ substantially from traditional offerings aredescribed next. The core content of the curriculum has been planned to include both Electrical and ComputerEngineering as a combined degree. The early curriculum focused only on Electrical Engineering.However, it became obvious from our marketing efforts that there was strong demand from prospectivestudents for Computer Engineering. In addition, we believe that Computer Engineering is an integralcomponent of the practice of modern
Curriculum Electrical Engineering Design Course Figure 4 – Junior YearThe course outcomes include: understanding the structure and development of a large Page 6.612.5engineering project; being able to work to a common goal with students of other disciplines;Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Educationbeing able to complete a project involving public health and
AC 2007-2527: MULTIDISCIPLINARY EXPERIENCES FOR UNDERGRADUATEENGINEERING STUDENTSFred DePiero, California Polytechnic State University Dr. Fred DePiero received his B.S. and M.S. degrees in Electrical Engineering from Michigan State University in 1985 and 1987. He then worked as a Development Associate at Oak Ridge National Laboratory until 1993. While there he was involved in a variety of real-time image processing projects including a high-compression video transmission system for remote driving and several laser-based ranging systems. Fred began working on his Ph.D. at the University of Tennessee while still at ORNL, and completed it in May 1996. His research interests include
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
Place-based STEM educationdefinition of STEM from Vasquez et. al.: “…an Curriculum Inquiry in STEMinterdisciplinary approach to learning that removes Scientific and Engineering Practicesthe traditional barriers separating the four *Robotics Engineeringdisciplines of science, technology, engineering and Issues in STEM Educationmathematics and integrates them into real-world, STEM for ALLrigorous and relevant learning experiences for Using Research to Improve Teaching/Learning in STEMstudents.” [6] The Integrated STEM Masters is a Mathematics and Technology asprogram