systems framework, used in the design ofproducts and manufacturing processes. Design of modern day products involves the knowledgeof different engineering disciplines, as well as an ability to communicate and work well in multi-disciplinary teams. Because engineers are traditionally trained in fields such as eitherMechanical or Electrical engineering, many of today’s engineering graduates are not wellprepared to function competently in environments that require them to work on products whereelectrical and mechanical knowledge areas are intertwined.An ongoing NSF-funded project addresses these competency gaps through the development oftwo courses incorporating team-oriented and project-based activities, as a follow-up to previousefforts centered
- and post-surveys were statistically significant for the researchskills and knowledge construct, but not significant for self-efficacy, intentions towardgraduate school, attitudes toward the discipline of the assigned REU project, help seekingand coping behaviors, grit, scientific leadership, or scientific identity. A second evaluationwas conducted, comparing student and faculty mentor post-survey scores on the self-efficacyconstruct. The results were not statistically significant, suggesting that students and facultymentors had similar opinions on the ability of students to perform discrete research processesby the end of the REU. In this paper, we will describe the REU program recruitmentstrategy, structure, and activities; provide student
Virginia University Institute of Technology offers an annual summer program for highschool and rising high school students interested in the Science, Technology, Engineering, andMath (STEM) fields. During this program, students spend a week on a college campus attendingSTEM classes taught by college professors, participate in engineering design projects andproblem solving challenges, and attend a STEM related field trip. Participants are mentored byand interact with both STEM professors and undergraduate STEM students throughout the weeknot only during classes and projects, but also during meals and free time. This less formalinteraction outside of classes is crucial in developing rapport with students so they feelcomfortable asking questions and
launched the Technology, Research, and Communication (TRAC) Writing Fellows Program, which has grown into an organization of 80 discipline-based peer writing tutors who, in total, work with more than 1,300 students at Lehigh each semester. His research interests include topics in writing across the curriculum, composition theory, argument theory, and peer learning with a special focus on writing fellows programs.Dr. Siddha Pimputkar, Lehigh University c American Society for Engineering Education, 2019WIP: Integration of Peer Communication Fellows into Introductory Materials Science CoursesAbstractThis study is a work in progress. The purpose of this project was to enhance the
helpalongside an engineering faculty member and for open build time (currently all day Fridays),where individual students or student teams can come into the makerspace for peer assisted helpwith any aspect of their projects.3) Human-Centered Design & Societal Needs: Utilizing human-centered design for societalneeds was chosen to engage first-year students through the impact engineering can make to helpsociety. The goal was to engage and excite students by bringing them into being part of thesolution for designing and prototyping for the purpose of helping humanity. The 7-step human-centered design process shown in Figure 2 was created for the Engineering Design & Societycourse [1] to support both integration of human centered design and cover
- Related Workforce Development ProgramI. AbstractThe main objective of this nuclear-related workforce development (NWD) program is to use thescholarships provided by the federal funding agency ($5,000 per semester) in conjunction withWestern Carolina University’s engineering project-based learning sequence to recruit and retainstudents who will sustain our existing program for serving nuclear-related industry andacademia. Our secondary objective is to increase the quality, quantity, and diversity of studentsseeking these engineering degrees. The program seeks to recruit engineering studentsspecializing in electric power, mechanical, and electrical disciplines, jointly called EPME. Aprogram requirement is that these students pursue an
through service learning Jennifer Benning1, Andrea Surovek1, Stuart Kellogg1, Christopher Shearer1 1 South Dakota School of Mines & TechnologyAbstractService-learning programs have been identified as an important contributor to campus andcommunity or “town and gown” relationships. These relationships offer the potential to tacklesocietal problems that are too large for any single organization. In addition, assessments haveshown that engineering students engaged with community partners on design projects havea stronger view of engineering as a means to better society and are more likely to beinvolved in their communities after graduation. This paper presents an overview of
groupstypically underrepresented in engineering, including Hispanic students who make up fortypercent of the sample. Results showed that EPICS High students who identified asHispanic/Latino were more likely to express an interest in studying engineering than EPICSHigh students not identifying as such. Students who identified as Hispanic/Latino whoparticipated in an EPICS high service learning project also showed a stronger interest in studyingengineering in college than students of Hispanic/Latino ethnicity in an ENGR 102HS coursewithout the service learning portion. Eighty percent of all the participants reported thatparticipation in the EPICS High unit increased their interest in engineering and no significantgender differences were found. Participants
often designed and used by electrical and mechanical engineering students. Likewise,the analyses of the data can be confusing and difficult to perform. Regardless of students’apprehension, instrumentation use grows because these tools can be used to validate importantdesign assumptions and monitor performance as the design is built. This is especially true insituations when unknown design parameters must be verified and workers safety may becompromised, such as a large earthwork and shoring projects. The experience CE students gainin instrumentation is non-existent or scant in many undergraduate and graduate programsthroughout the U.S. The holistic approach to this course includes; instrumentation selection, datacollection, data analyses, data
American Society for Engineering Education, 2018Differences and Similarities in Student, Instructor, and Professional Perceptions of “GoodEngineering Design" through Adaptive Comparative JudgmentScott R. Bartholomew, Purdue UniversityGreg J. Strimel, Purdue UniversityLiwei Zhang, Purdue UniversityEmily Yoshikawa, Purdue UniversitySenay Purzer, Purdue UniversityAbstract This project details the results from first-year undergraduate engineering students,engineering instructors, and industry professionals collaborating to assess student designprojects. Each group (students, instructors, and industry professionals) used adaptivecomparative judgment to rank the final projects from a first-year engineering course designed toengage students in
analysis ● An ability to design and conduct and Aurdino music projects experiments, as well as to analyze and interpret data● Designing and building a roller coaster ● an ability to design a system, component, or using PASCO bridge set and designing a process to meet desired needs within realistic gate at the end of the track to avoid the constraints such as economic, environmental, falling of the car. social, political, ethical, health and safety,● Recognizing that there is more than one manufacturability, and sustainability solution to a problem. ● An ability to identify, formulate, and solve
students who attend our school while already working full time or returning frommilitary service. The first years of using a new approach to teaching always have uniquechallenges. The computer faculty made decisions about what was important to address in the firstyear of the curriculum, and what projects to use to keep students engaged in and excited aboutthe field of computing. Since the studio model radically departs from the single instructorclassroom lecture model, multiple professors were utilized in the same freshman studio course,each bringing in their own unique areas of expertise.Along with the studio model, electronic portfolios were implemented for the assessment ofstudent learning, as a benchmark that students must pass to advance to
currently a partner in a small start-up venture. He received his BS degree in electrical engineering (1975) from California State University, Sacramento, and his MS (1980) and DE (1983) degrees in industrial engineering from Texas A&M University. His educa- tion and research interests include project management, innovation and entrepreneurship, and embedded product/system development.Dr. Jay R. Porter, Texas A&M University Jay R. Porter joined the Department of Engineering Technology and Industrial Distribution at Texas A&M University in 1998 and is currently the Associate Dean for Engineering at Texas A&M - Galveston. He received the BS degree in electrical engineering (1987), the MS degree in physics
and evaluation of an engineering design-themed SummerAcademy program geared towards exposing high school students, especiallyunderrepresented and underserved groups, to science, technology, engineering, andmathematics (STEM) fields and careers. The goals of the engineering design activities wereto (i) improve students’ competence in science and engineering, (ii) nurture students’enthusiasm for science and engineering, and (iii) create student interest in research or otherscience and engineering-related careers. The program targeted rural counties surroundingproject site and served eighty-one (81) students who received thirty-six (36) hours of hands-on STEM learning experience. Project evaluation data was gathered through StudentFeedback
integrate a set of “risk and resilience” focused coursesinto engineering education for workforce towards a hazard-resilient built environment. A set ofthree individual courses, namely, 1) Introduction to Risk and Resiliency in Engineering, 2)Reliability and Optimization Methods in Engineering, 3) Sensing and Data Analytics forInfrastructure Systems will be developed and incorporated into curriculum. These three courseshave been designed to be help address the fundamental knowledge and techniques needed forengineers to conduct the assessment, design and management of engineering systems to achievehazard resilience. The paper provides details about the rational and course objectives, coursecomponents, and sample course projects for design and
Paper ID #15994Cross-Disciplinary Collaboration and Innovation for Engineering and Busi-ness Student TeamsDavid G. Alexander Ph.D., California State University - Chico Dr. Alexander’s research interests and areas of expertise are in teaching pedagogy, capstone design, renewable energy systems, thermal sciences, vehicle system modeling and simulation, heat transfer, new product development, entrepreneurship, and technology transfer. He is PI and adviser of the Department of Energy Collegiate Wind Competition 2016. He is also working on an undergraduate research project modeling solar cells using a thermodynamics approach and
Degree will be able to work in avariety of medical facilities from doctor's offices to hospitals2. Specifically, they will beresponsible for problem solving, data interpretation, complex troubleshooting, preparation ofspecifications, scheduling, planning, analysis, project management, and decision making.BET CurriculumDrexel’s Engineering Technology undergraduate bachelor’s program consists of 187.5 totalquarter credits3. BET curriculum is based on ET core courses supplemented with a combinationof courses in biology, human factors, medical terminology, codes and regulations, medicalinstrumentation, and healthcare administration courses specific to the BET concentration, shownin red. Courses BET 301, BET 302, BET 303, and BET 305 have been
as it applies to spacemissions. Students learned key topics related to spacecraft and mission design, includingrequirements development, trade studies, the project life cycle, system hierarchy, risk analysis, andcost analysis. The concepts presented in this course were demonstrated with examples from recentspace missions. The students were exposed to concepts regarding team organization, designfundamentals, and work ethics. These topics are in preparation for the capstone design courseexperience. They learn that systems engineering is iterative and develop judgment that will allowthem to compare and evaluate engineering alternatives. They learn to discuss systems engineeringmethods and processes as well as engage in systems thinking
’ study abroad programs and lessons learnedfrom those programs. More importantly, we present a case study of a study abroad programoffered by Industrial Distribution Program in the Dwight Look College of Engineering at TexasA&M University. This program is sponsored by the industry partners meaning that studentsactually work on the real world industry projects. In this paper, we present a case study of 2014study abroad program to China. The project results and lessons learned from the program arediscussed in detail in the paper. We believe the paper provides a good benchmark for otherengineering schools that may be considering similar industry sponsored programs around theworld.IntroductionGlobalization has changed the way manufacturing and
(PLC) programming andindustrial automation to students in Mechatronics Engineering program at Vaughn College ofAeronautics and Technology. The first course, i.e. PLC Programming, introduces textedlanguages, such as instruction list and structured text, according to IEC61131-3 standard so thatstudents can learn a fundamental concept about PLC hardware and software using the standards-based programming languages. The advanced course, Industrial Automation, focuses on teachingstudents the sequence control concept and problem solving strategy, where Sequential FunctionChart, Ladder Diagram and Function Block Diagram are used to put the design of industrialmanufacturing assembly line into operation. The classes have been taught in project
from being a demo technology to being a hands on productiondevice. These days, engineering students can successfully build physical models of their designswith low-cost 3D printers. In this paper, the applicability of 3D rapid prototyping in a virtualmachine design course is investigated, and impact of this technology on student learning is alsoreported.The design projects were assigned to the selectively random group of students. Mechanicaldevices of different energy generation technologies involving both stationary and dynamic partswere designed and prototyped for a comparative study. Each team selected one of the followingenergy generation technologies: hydro, wind, solar, or tidal. Students identified the componentsof their design and
showcasing how those skills impact the current project in real-world ways that people can understand and be involved in. As part of a university that is focused on supporting the 21st century student demographic he continues to innovate and research on how we can design new methods of learning to educate both our students and communities on how STEM and STEAM make up a large part of that vision and our future.Mr. Pedro Arturo Espinoza, University of Texas, El Paso Pedro worked in the manufacturing industry as a Quality Control Engineer for some years before acquir- ing his current position as an Instructional Technologist at the University of Texas at El Paso (UTEP). For over 10 years in this role, he has worked with a
technology, mechanical engineering technology, and flighttechnology. Among these were three former active-duty or national guard veterans.The literature already documents the attributes of student veterans in terms of their potentialwithin the engineering community. This paper describes the design competition and documentsthe actions of the team through the student design process. It then describes the veterans’ rolesand integration in the project, specifically how their veteran experiences directly influenced theteam’s success. Finally, it describes these veterans’ impact on model rocketry at the institutionas a whole and their legacy in subsequent competition teams.IntroductionUniversities have experienced significant growth of student-veteran
and systems. He has conducted several projects to reduce CO2 fingerprint of buildings by evaluating and improving the energy practices through the integration of sustainable systems with existing systems. Pro- fessor Shehadi also has an interest in air pollution reduction and in providing healthier environment by analyzing the various pollutants that are present in outdoor and indoor air. His current research focuses on sustainable and green buildings and energy conservation. He is currently investigating various ways to reduce energy consumption in office buildings. c American Society for Engineering Education, 2018 Occupancy Detection Chair Sensor – An Energy Conservation
WELCOME TO THE Increasing Awareness About Engineering Technology Programs A collaborative effort to reach out to HS students, teachers,parents and counselors to increase their knowledge about ET Programs History• During 2018 ETLI conference a group of attendees participated in a congressional visit and visit to National Science Foundation• NSF expressed its willingness to support a project to increase awareness about ET Programs• NSF requested a white paper Verma- ODU –ETLI- 2019 History (Contd.)• A marketing consultant was hired earlier this year and the marketing group and the task force has been meeting regularly• The
and workforce development, and University education programs.Stan Komacek, California University of Pennsylvania Stan Komacek earned a BS from California University of Pennsylvania, MEd from Miami University, and EdD from West Virginia University. He served as the Project Director for the PA State System of Higher Education in PA’s Nanofabrication Manufacturing Technology Partnership and for the PA Governor’s Institute for Technology Education. A Professor of Technology Education and Chair of the Department of Applied Engineering and Technology at California University of PA, Dr. Komacek is currently PI and Project Director for the NSF ATE Advanced Manufacturing in PA Project.Carol Adukaitis
. ObjectivesThe objectives of this phase of the research project are to: • Team with several instructors in integrating this experimental project and lessons learned into engineering curriculum. • Demonstrate this experimental project and evaluate its effectiveness as an innovative engineering design for students. • In collaboration with industrial partners, evaluate and explore the possibility of commercialization upon demonstrated success. Page 11.1185.3 • Work with industrial partners and other academic collaborators, to constantly improve on the modeling and simulation system design, based on the evaluations of this
anddepartments were brought together to implement an engineering project supporting county healtheducation in Gyatsa, China (Tibet Autonomous Region). The value of this experience isdiscussed with particular emphasis on the contributions to the engineering student education byteam members with a non-engineering background. It is concluded that the interdisciplinaryteam approach provides a valuable pedagogical tool for educating engineering students.Introduction Tufts University aspires to achieve an international reputation for educating engineeringleaders with an emphasis on communication skills, interdisciplinary technical preparation,management skills, globalization, and the societal impact of technology. The University missionstatement
of the school of engineering at Nazarbayev University. 36 studentsparticipated in this elective in a semester that was otherwise uniform for all second yearengineering students. The course was then offered as an elective for first year students in theirsecond semester starting in the 2012-13 academic year. 100 students enrolled in the course in itssecond offering. The aim of this course is to act as an introduction to engineering ethics whilealso exploring the societal impact of engineering projects and developing written and verbalcommunications skills. At the successful completion of this course, students are expected to beable to: evaluate and explain the position and responsibilities of the engineer in relation to industry
Page 8.81.1companies employing 3,000 people and producing $700 million in shipments [4]. The abundanceof food processing companies in New Jersey demands a steady pipeline of well-preparedengineering graduates. Rowan Engineering students respond to the regional emphasis on food processing with atremendous interest in the industry. In their senior exit interviews, an overwhelming number ofgraduating seniors strongly indicated a need for more exposure to food-oriented projects andcourses. To respond to student demand and regional industrial needs, Chemical Engineeringfaculty have secured support in recent years for undergraduate Clinic research projects withGeneral Mills, Campbell Soup, Pepperidge Farm, and C. W. Brown. Food experiments