Session 2263 On Development of a New Manufacturing Engineering Program at Washington State University Jack Swearengen*, Hakan Gürocak Washington State University 14204 NE Salmon Creek Ave. Vancouver, WA 98686-9600Abstract: A new Bachelor of Science degree program in Manufacturing Engineering atWashington State University branch campus in Vancouver is described. We discuss industrialparticipation in curriculum and program development, and review cooperation with communitycolleges. A planned center for
15.0406. The description for this CIP code is“A program that prepares individuals to apply basic engineering principles and technical skills insupport of engineers and other professionals engaged in developing, installing, calibrating,modifying, and maintaining automated systems. Includes instruction in computer systems;electronics and instrumentation; programmable logic controllers (PLCs); electric, hydraulic, andpneumatic control systems; actuator and sensor systems; process control; robotics; applicationsto specific industrial tasks; and report preparation.”Curriculum:• MET 2000 or MET 2100 (ME Measurement and Instrumentation/ME Instrumentation and Automation Control) - initiates the student in the application of sensors and actuators
Page 22.187.5experiences pertaining to topics emphasized in the curricula, professional skills and problemsolving, and design skills development. In Table 1, below, we first show the comparison of theP2P data to the Irish set. In the table, mean, standard deviation as well as the significance of thedifferences across means are provided. As it can be observed in the following table, on the fourdistinct items, Irish data and the P2P data significantly differed, three of which are in the topicsin engineering. While Irish students perceived that the ethical issues in the engineering practiceare addressed better in their curriculum, the comparisons indicated that the US sample studentsperceive the inclusion of emerging engineering technologies and
enrichment programs. With the wireless communications research experience for teachers, she coordi- nated logistics during the summer and provided day-to-day curriculum development and implementation support for teacher participants throughout the year. Having extensive experience in working with both rural and urban education settings, her current responsibilities at Columbia’s School of Engineering in- clude building partnerships between educational institutions, industry partners, and community schools in an effort to create greater access to high-quality STEM education opportunities for all.Dr. Jonatan Ostrometzky, Electrical Engineering, Columbia University Jonatan Ostrometzky received his B.Sc. degree (Magna Cum Laude
and teacher self-efficacy. She received her B.A. from Pomona College and her M.A. and Ph.D. in Educational Studies from Emory University.Dr. Meltem Alemdar, Georgia Institute of Technology Meltem Alemdar (PhD) is Associate Director and Senior Research Scientist at Georgia Institute of Tech- nology’s Center for Education Integrating Science, Mathematics and Computing (CEISMC). Her research focuses on improving K-12 STEM education through research on curriculum development, teacher pro- fessional development, and student learning in integrated STEM environments. Dr. Alemdar is currently co-PI for research on various NSF funded projects. In addition, she has been external evaluator for various NSF Projects over the
Civic-Minded Graduate scale; (2) the InterpersonalReactivity Index; (3) two relational constructs developed by the authors; and (4) the DefiningIssues Test-2. Results suggest that current Earth Science curriculum, overall, positivelycontributes to students' ethical growth. However, the Biomedical Engineering courses showed noevidence of change. As the Earth Science courses do not explicitly focus on ethics, one potentialexplanation for this trend is the community-engaged nature of the Earth Science curriculum.These findings will be beneficial locally to help direct improvements in departmental STEMinstruction. In addition, these findings pave the way for future comparative analyses exploringhow variations in ethical instruction contribute to
currently the Director of the Aeropropulsion, Mechatronics and Energy Center established in 2012. He is the coordinator of the ME Senior Capstone Design Curriculum and the dual degree B.S.-M.S. program. c American Society for Engineering Education, 2016 The Development of Cross-Institutional Senior Capstone Design Project Collaboration – A Pilot ProjectAbstractFor years, engineers in industry have collaborated in teams with colleagues who are separatedgeographically. The accelerating pace of the globalization of design makes long-distancecommunication and project management necessary skill sets for engineers since many companiesnow operate internationally. Although the concept of a
storytelling curriculum that is now required for all biomedical engineering students. Shaffer is also currentl ©American Society for Engineering Education, 2023 Applications of Teams and Stories: Augmenting the Development of Entrepreneurial Mindset in EngineersAbstract Calls from the American Society of Civil Engineers and the National Academy ofEngineering, and a similar but more recent statement from the National Association of Collegesand Employers all assert the need for engineers that are not only competent with a certain set ofknowledge and skills, but also have a mindset for creating value. In order to accomplish this,engineering content needs to not only engage the students
Paper ID #18459Development and Application of a Questionnaire to Measure Student Atti-tudes Toward and Understanding of EngineeringDr. Jan DeWaters, Clarkson University Jan DeWaters is an Assistant Professor in the Wallace H. Coulter School of Engineering at Clarkson University, in Potsdam, New York. She is part of the development team for Clarkson’s First Year Engi- neering/Interdisciplinary course that was the motivation for the work that is described in this paper. Her current research interests include the implementation and evaluation of evidence-based effective learning practices in STEM education, environmental
Initiative Pilot Program structure and curriculum. The pilot program focuses onthe development of qualitative and quantitative methods of assessment. In addition, it aims to provide some limited evidence that theproposed methods are effective at improving students’ desire to be retained in the college of engineering until the completion of theirundergraduate level degrees. The pilot consists of two phases: the recruitment and training of potential mentors which was completedin the Fall of 2014 and the execution of a Robotics Summer Academy during the Summer of 2015. This paper outlines the programstructure for Bulls-EYE Mentoring and the logistics of the program’s curriculum. Potential mentors are selected and trained through partnerships
evaluators and thesuggested evaluation tools are summarized as follows: Outcome 1: Project improves knowledge and skills of students Suggested assessment tools - outcomes assessment in class (faculty), SIR II surveys (students), industry training feedback (industrial partners/trainers) Outcome 2: Project helps evolve SV&V community – focus groups work together in developing appropriate pedagogical tools for enhancing SV&V education: Suggested assessment tools – Organization of meetings, workshops and seminars, e- mail based communication, surveys, LinkedIn group membership, revisions, YouTube videos, new curriculum or revision developed and delivered at other institutions
country.MethodsTo develop team-based learning curriculum and its evaluation in Japanese engineering education,we first replicated Ohashi’s survey [2], “What is an Engineer?.” The answers to the questionnairereflect the sociocultural value of engineering in Japan from the perspective of future engineers. Morespecifically, we asked a hundred freshmen in the Department of Mechanical and SystemsEngineering at Kogakuin University, the following question, “Who do you associate with the word‘Engineer’? Please write down the names of three people. If the person is not popular, please add abrief explanation.”In response to the lack of interdisciplinarity in the pipelines of our default educational system, wedeveloped a high-quality interdisciplinary curriculum for
Session 2525 Re-Engineering Open-ended Problems & Computer Simulations For Effective Development of Student Design Skills R. J. Eggert and S. A. Tennyson Boise State University Boise, Idaho 83725ABSTRACTConsidering the broad philosophy of Design Across the Curriculum (DAC), a variety ofstrategies can be employed to integrate engineering design coursework during the four-yearcurriculum using just-in-time learning, an increasing breadth-then-depth approach. Thesophomore and junior years, in particular, can be used to reinforce
and experience in larger engineering projects is important tocontinuously develop CPS competency.Figure 1. An integrated model of developing complex problem-solving competency in differentphases and different courses* The courses are classified according to the categories in the training programsFactors that affect teachers’ engagement in cultivating and evaluating students’CPS in classAccording to the interviews, teachers’ current attention and engagement in CPScompetency are highly based on their individual interests and self-motivation, insteadof on official, organizational initiations. Below are some quotes from the data: “No one asked me to evaluate this ability...we have the motivation to evaluate our curriculum objectives, but
1 Use of Student Surveys to Improve Efficacy of Lab Experience and Guide Lab Development Robert W. Williams, Salam F. Rahmatalla Civil and Environmental Engineering The University of IowaAbstract One way to refocus the importance of hands-on education is to allow students to haveownership of their lab experience so that, in time, the lab curriculum is tailored to their needs andwants. This paper discusses the use of student surveys to help improve the efficacy of labexperience for undergraduate Civil &
for di- verse students. Her research focuses on engagement strategies for large classrooms and developing K-16 curriculum in earthquake engineering and spatial visualization.Mrs. Jessica TuazonMr. Daniel Yang, UC San Diego Daniel Yang is a PHD student in the mechanical engineering department at UC San Diego. He specialized in robotics and control with an interest in engineering education. c American Society for Engineering Education, 2020 Development of a Spatial Visualization Assessment Tool for Younger Students Using a Lego™ Assembly TaskAbstractIt has increasingly been recognized that spatial visualization skills are important in supportingstudent success in Science
practices and in promoting the use of higher-level cognitive skills in engineering problem solving. His research interests particularly focus on what prevents students from being able to integrate and extend the knowledge developed in specific courses in the core curriculum to the more complex, authentic problems and projects they face as professionals. Dr. Koretsky is one of the founding members of the Center for Lifelong STEM Education Research at OSU. Page 26.516.1 c American Society for Engineering Education, 2015 Development and Usability Testing of a Student Mobile Application for
. Page 12.773.1© American Society for Engineering Education, 2007 Gauging Student Interest in a Design for Developing Communities Course at the University of HartfordAbstractCommunity service learning projects are an important part of the curriculum in the College ofEngineering, Technology, and Architecture at the University of Hartford. To further this servicelearning experience, an interdisciplinary engineering course has been developed to provideinterested students an opportunity to design and implement a project for a developingcommunity. During the second semester of the sophomore year, students are given a choice towork on a contemporary engineering problem. Starting in spring 2007 semester, a design
implementation impact. However, the inherent complexity and variability presentwithin economic evaluation models often limits practical use for assessment of theeconomic impact of field implementations as well as within Total Quality Management(TQM) curriculums. In response to the limitations of traditional accounting andengineering economics methods, Engineering Technology faculty at IUPUI and otherPurdue regional campuses have created an Excel-based spreadsheet model for evaluation ofthe economic impact of quality improvement projects throughout the implementation cycle.Although this tool was specifically developed for use within healthcare, we have found thismethodology to be invaluable for supporting project initiation and assessment of
Paper ID #6822Developing an instrument to assess student’s prior knowledge and possibleinterest in public policy coursesJohn Alexander Mendoza-Garcia, Purdue University / Pontificia Universidad Javeriana John Mendoza-Garcia is a Ph.D. student and a research assistant in the School of Engineering Education at Purdue University. He worked for industry seven years and then became an academic. He has been a professor of the Department of Systems Engineering at Pontificia Universidad Javeriana in Bogota, Colombia since 2005. He is interested in understanding the development of systems thinking, and the development of student’s
, predictive engineering is a reality in many companies.Surface modeling tools traditionally employed by industrial designers are now available in mid-range CAD packages. Low cost 3D printers are increasingly common. MCAD collaborationtools are used to improve communications within the product development team.How might engineering educators capitalize on these exciting trends? One possibility is toemploy associatively linked modeling, analysis, and prototyping tools in a dedicated course;another more ambitious possibility is to make the concerted effort to use these same tools acrossseveral design and analysis courses. The latter approach offers the potential of a more tightlyintegrated curriculum; instructors would develop a better understanding and
entries. This openness is intended to facilitateunderstanding of the entire curriculum, as each instructor has the opportunity to see the weeklytopics, goals, and objectives for each pre-requisite, concurrent, and subsequent course. Theinstrument was tested for functionality and placed in service at the beginning of the Fall, 2003semester.Faculty PreparationPrior to the start of the semester, a training session was held for interested faculty. This trainingsession focused on instructional design issues, particularly the development of Learning Goalsand Learning Objectives. The instrument itself was secondary to an understanding of the designprinciples on which it was based. The terminology was taken from the education literature inorder to have
) program. Funds support teachers working with researchers on their projects both insummers and during the school year. Dissemination of faculty research, when appropriate, to thecooperating teacher’s students is strongly encouraged as a way for students to learn about theresearch activities of academic scientists and engineers. The VaNTH ERC obtained RET fundsto allow secondary school teachers of physics, chemistry, and advanced biology to come togetherwith university faculty in both biomedical engineering and education, to consider how conceptstaught in college level biomedical engineering might be transferred to the secondary school level. In the summer of 2001 and during the school year 2001-2002, five curriculum moduleswere developed and
designed to aid in the process are used. As shown in anaccompanying paper1, the objective of the undergraduate mechatronics courses at KetteringUniversity is to provide the student with a thorough appreciation of the power of utilizingmicrocontroller technologies. It is a further goal that the student learns that incorporatingmicrocontroller technologies in mechatronic applications should be thought of as a routine thing,and should be considered whenever a mechatronic design is initiated.In developing the mechatronics curriculum at Kettering University, it was desired to providelaboratory workstations with microprocessor trainers for each individual student. Because of thegenerosity of the Toshiba America Electronics Corporation, fifteen TLCS-900H
. Educate students inscience and engineering so that they can identify, understand, and solve technologicalproblems in society, 3. Provide students with the knowledge and opportunity which preparethem for practice or to pursue further education, 4. Provide students with breadth of knowledgein social and humanitarian issues, and 5. Maintain a nationally competitive electricalengineering program.Step 3 Demonstrate that the curriculum supports program objectives - The department mustdemonstrate clearly that the curriculum supports the stated objectives. Required and electivecourse objectives should contribute to the desired objectives in a progressive fashion such thatstudents have the opportunity to effectively develop their educational
A Capstone Course Integrating Student Leadership Development and CommunityBased Service Learning Jeffrey Birou, Alistar EricksonLudwig, Mira Olson, Kevin Scoles, Drexel University The Paul Peck Scholars Program in Drexel University’s College of Engineering provides a curriculum framework that helps develop students’ skills in leadership, management, communication and mentorship. The capstone course of this threeyear sequence is an engineering servicelearning project, where students must address the needs of a community partner by dovetailing their engineering coursework and internship backgrounds with the skills gained through the Peck Scholars program, in
from the University of Minnesota’s Electrical Engineering program. He works for Xcel Energy in their Strategic Technology Department, investigating renewable energy generation, storage and transmission technologies for Xcel. He was involved in the deployment of Xcel Energy’s “Smart Grid City” project in Boulder, Colorado. As an EE student, he helped develop curriculum and projects, as well as source materials required for BRIDGE’s outreach work. Mr. Sonnenburg became a member of the National Society of Black Engineers (NSBE) student organization, and continues to volunteer time with the student organizations.Munira Masoud, Xcel Energy Munira Masoud is currently
Session 1320 Development of a Universal Controller for Pedagogical Applications Involving Data Acquisition, Data Logging and Control Nicholas Krouglicof Union College, Mechanical Engineering DepartmentAbstractThis paper describes the development of a novel, low cost, microcontroller-based system thatenables students to interface a variety of sensors and actuators to their laptop computers in alaboratory or studio classroom environment. The system could potentially find applicationthroughout the engineering curriculum at Union College beginning with the freshmanIntroduction to
elements of teamwork include understanding team stages, recognizingmembers' strengths and weaknesses, fostering mutual trust, and managing roles and expectationsthrough tools like team charters. To address the gap in teamwork skill development, theUNdergraduates Improving TEamwork Skills (UNITES) project was launched to integrate verticallyaligned lecture modules into the engineering curriculum. The foundational module initially consistedof slide-based content focused on characteristics of successful teams, team dynamics, andexpectation management. However, instructor feedback revealed challenges such as unfamiliaritywith concepts, lack of student engagement, and excessive time required to cover materials duringlectures. The module was improved to
Paper ID #38386Conocimiento as a Framework: Promoting a CulturallyAffirming Identity Development for Latinx EngineersJoel Alejandro Mejia (Dr.) Dr. Joel Alejandro (Alex) Mejia is an Associate Professor with joint appointment in the Department of Biomedical and Chemical Engineering and the Department of Bicultural-Bilingual Studies at The University of Texas at San Antonio. His current work seeks to analyze and describe the assets, tensions, contradictions, and cultural collisions many Latino/a/x students experience in engineering through testimonios. He is particularly interested in approaches that contribute to a