Session 1533 Back to the Future Manufacturing Engineering at Stout Danny J. Bee University of Wisconsin-StoutAbstractManufacturing engineering education at the University of Wisconsin-Stout has gone back to thefuture. Today’s undergraduate manufacturing engineering program utilizes laboratory- andindustrial project-based instruction throughout the professional component of the curriculum.The century old Stout tradition of hands-on, minds-on instruction emphasizes engineering andindustrial applications balanced with a strong basis of engineering sciences. In
within Cal Poly, San Luis Obispo's Industrial and ManufacturingEngineering (IME) program is underway. A model "Mechatronics Design Studio" has recentlybeen developed to support the Mechatronics and Manufacturing Automation courses and coursemodules offered at the IME Department. Our approach to the development of Mechatronics focusis presented in section II. Select student projects are documented in section III followed by anoverview of the Mechatronics Design Studio in the last section of the paper.II. MECHATRONICS FOCUSSeveral courses are being modified and new course modules in Mechatronics are beingdeveloped within Cal Poly, San Luis Obispo's Industrial and Manufacturing Engineering programin order to create a better understanding of how new
, manufacturing and analysis in an introductory course. Also, aseries of constraints which are developed to induce more realism into the pedagogicalenvironment are described. Finally, quality control, time and budgetary issues are addressed.INTRODUCTIONFor more than 20 years, the Mechanical Engineering sophomores at GMI have been taking acourse entitled "Introduction to Design." The main objectives of this course have always been tolearn the design process and apply it to a realistic design project where a device is designed,manufactured and entered into a competition. This is a 3-credit course (1 hour of lecture and twotwo-hour labs) offered every term, which consists of 11 weeks of instruction and one week offinals.For the past three years, we have
Session 2309 FOUR YEAR BIOMEDICAL ENGINEERING DESIGN AT THE MILWAUKEE SCHOOL OF ENGINEERING John D. Gassert, Ph.D., P.E., Vincent R. Canino, Ph.D., P.E. Milwaukee School of EngineeringAbstract A unique feature of the design process at MSOE is the Biomedical Engineering “seniordesign project” that begins in term two of the freshman year. Each student must apply tobecome a member of a particular team and most students will stay in that design team. Duringthe next ten quarters, the students are expected to apply course material pertinent to theirengineering project and present that
Engineering in 2009 from the Imperial College of London and his doctoral degree in 2020 from the University of Georgia, College of Engineering.Jack Yang, New York University Tandon School of Engineering ©American Society for Engineering Education, 2024 An Interactive Platform for Team-based Learning Using Machine Learning ApproachAbstractThis complete evidence-based paper explores the feasibility of developing an interactiveplatform with chatbot feature to facilitate project-based learning. Teamwork pedagogy is widelyused in engineering courses, particularly in first year (cornerstone) and senior-year (capstone)design courses, but also across the curriculum. Faculty have several
this field continue to advance and profoundly affect various aspects of themodern world, educational institutions are recognizing the crucial need of a specializedcurriculum tailored to these domains. By establishing a curriculum that emphasizes thesespecialized areas, educational institutions can equip students with skills and knowledgerequired to address the challenges and opportunities present in the microelectronics and VLSIlandscape. Such curriculum shall extend from theoretical foundations to practical hands-onexperience, exposure to industry-standard tools, and collaborative projects to foster innovationand problem-solving abilities. Such integration of microelectronics and VLSI-focused courseswill help bridge the gap between academia
Bioengineering Capstone DesignAbstractStudy abroad course-work presents unique collaboration potential with capstone engineeringdesign, specifically as a source for student projects. Project-based instruction of bioengineeringcapstone design hinges upon engaging the students’ interest and commitment early in the project.Strategies to achieve this level of student commitment can include encouraging student-originated project ideas, seeking projects from real-world external clients in research andindustry, or offering instructor-originated projects orchestrated specifically to elicit studentinterest. Another alternative, soliciting student-originated engineering design projects derivedfrom study abroad courses, allows for practical projects with real
CourseAbstractCapstone courses for senior engineering students may be organized in numerous ways. Usually,the goal is to give students a significant development and design experience that will preparethem well for their work following graduation. Sometimes the focus of a capstone course is onsolving technical problems of an advanced project. Sometimes the focus is on getting thestudents to produce a design based on the scope provided by an industry partner. Sometimes thefocus is on giving the students a rich experience in how a team works together. Sometimes thefocus is on the business side of projects and engineering. Sometimes the focus is on coveringmaterial that doesn’t fit in any of the other regular courses. Most capstone courses try to formsome balance
projects. In the site remediation course at Tufts University, three designprojects required the development of a remediation scheme for actual brownfield sites in Boston,MA. In their designs, students had to consider both hard (limited and conflicting contaminantinformation for site soil and groundwater) and soft (the viewpoints of the various communitystakeholders) constraints.Based on student, faculty and staff feedback, the design experience carried more meaning andencouraged greater learning because it involved a real problem. Additionally, the experienceextended student learning beyond the technical aspects of site remediation as a result of workingand interfacing with people from a variety of interests and professional backgrounds
AC 2010-706: EVALUATION OF INTERCULTURAL LEARNING IN ANEDUCATION ABROAD PROGRAM FOR STEM UNDERGRADUATESChrysanthe Demetry, Worcester Polytechnic Institute Chrysanthe Demetry is Associate Professor of Mechanical Engineering and Director of the Center for Educational Development & Assessment at Worcester Polytechnic Institute (WPI), where she has been on the faculty since 1993. A materials scientist by training, she co-directs WPI's Bangkok Project Center and has advised approximately 75 off-campus student research projects in the Americas, Europe, Africa, Asia, and Australia. Her research interests include measurement of student learning outcomes from international education, active and
of Virginia. With more than 13 years professorial experience, he has taught a large variety of courses including statics, dynamics, mechanics of materials, graphic communications, engineering economy, and construction planning, scheduling, estimating, and management.Chung-Suk Cho, University of North Carolina, Charlotte DR. CHUNG-SUK CHO is an Assistant Professor at the University of North Carolina at Charlotte, Department of Engineering Technology. His teaching and research focus on project scope definition, pre-project planning, sustainable construction, project administration, construction safety, construction simulation, and project management. He has prior teaching experience at
Relevance on Product Design and Manufacturing CoursesAbstractThis paper presents the research work of a NSF CCLI project for analyzing the impact ofmedical device-related active learning pedagogies in two courses within the engineeringcurriculum: New Product Development and Manufacturing Processes. The main focus of thestudy is on the impact of these approaches on students’ engagement and conceptualunderstanding of course material. A project-based learning (PBL) approach was incorporatedinto both courses through real medical device projects to provide students with hands-onexperiences on the challenges of medical device design and development. The courses wereenhanced to provide a combination of lectures on theoretical concepts
Rural Nicaraguans Pritpal Singh1, Maria Virginia Moncada2, Edmond Dougherty1 and James Klingler3 1 Dept. of Electrical and Computer Engineering, Villanova University, Villanova, PA 19085 USA 2 Dept. of Electronic Engineering, Universidad Nacional de Ingieneria, Managua, Nicaragua 3 Dept. of Management, Villanova School of Business, Villanova University, Villanova, PA 19085 USAAbstractA collaboration between the Universidad Nacional de Ingieneria (UNI) in Managua, Nicaraguaand Villanova University was established three years ago. The initial collaborative efforts werefocused on a telehealth humanitarian development project. More recently, faculty members atUNI and
Communica- tion Technologies for Development and Sustainable Roll Out of Telecommunications Services for Rural Areas of Developing Countries. He has volunteered in the NapoNet project, deployed in the Peruvian Rain Forest, as technical, logistic and field deployments advisor under the supervision of Professor Alan Mickelson since 2008. Page 21.59.1 c American Society for Engineering Education, 2013 Presenting the NapoNet: Developing Global Competencies through Communications Technology in the Peruvian AmazonAbstract Since its beginning in 2009, the
able to achieve their personal and their employers’ desired goals andobjectives. These expected characteristics of the graduates are captured in the list of expectedoutcomes in the ABET Guidelines for Engineering and Engineering Technology Programs1.The first level of an Engineering Design Graphics course, as normally taught in many two yearand four year colleges and universities, leads a student through the steps in the development ofan industrial product. These steps range from idea generation to the final product specifications.Along side, and equally important, the students learn the standard methods of interpreting andcreating engineering drawings. Usually, the students work in teams and either pick projects oftheir own choice or one
outreach projects and the impact that these projectsare having on the educational community.IntroductionBased on the results of standards tests1,2, a number of well respected groups (e.g., NationalCouncil of Teachers of Mathematics, National Education Knowledge Industry Association,National Science Teachers Association, and the U.S. Department of Education) have raisedconcerns regarding the low-level of performance in mathematics and science that has beenwitnessed in the U.S. Students from low-income families are at an even greater risk of displayingweak mathematical and scientific knowledge when compared with their middle class peers.These findings and concerns that they have raised have resulted in a broad range of reformactivities, including
engineering education, is the Engineering Projects in Community Service (EPICS) programat Purdue University (http://epics.ecn.purdue.edu) that partners undergraduate students and localcommunity not-for-profit organizations to solve engineering-based problems in the communityService-learning is a type of experiential education where the students learn through "real-world"experiences that meet a community’s needs4. In the engineering curriculum, other forms ofexperiential learning include projects, clinics, internships, laboratory classes, field trips.Moreover, service-learning promotes student understanding of the impact of engineeringsolutions in a global/societal context, a requirement in the Accreditation Board of Engineeringand Technology (ABET
of these sitesdoes not correspond to a specific teaching method.Last year, we adopted a new teaching method for an advanced programming course in C++. Thegoal of the method, derived from problem-based approaches, was to support students inprogramming a large-scale project that lasted the entire semester (similar in spirit withapproaches suggested in 2,3). It was obvious from the start that an independent site for the coursewould be needed to provide a posting and collaboration space centered around the project. Page 7.807.1 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition
DesignApplications course is that most course assignments will be in project form and come fromindustry. The challenge in this area is having active and involved program advisory panels thatare willing to participate at a high level of cooperation with your program. At MCC we have hadvaried levels of participation from advisory committee members. Members are more thanwilling to give suggestions on project topics and possible design scenarios from their industry,but due to proprietary reasons, as of yet they have not been willing to share any parametric UGassembly files that we can use as a starting point for a real life industrial applications.As a result, prior to the start of the course I visited three companies, which gave me ideas forindustrial-based
campus and local high schools. The program exposes a diversegroup of high school students and teachers to engineering concepts and careers throughengineering projects within a mentoring framework. Seven high schools participated in the firstyear of the EEA program. The participating high schools included one private, one charter, andfive public with two of the public schools having a high percentage of students inunderrepresented groups.The high school teams completed one or more engineering projects in Spring depending on theproject length. Projects included: design prototyping using CAD and 3D printing, automaticwatering system, autonomous robots, digital music keyboard, and DC motor/fan control. Thehigh school teams were mentored by Georgia
and Theory to Teach Thermo-fluid ApplicationsSaman Aria, Tyreese Law, Brandon Perez, Landon Gaber, Sanjoy K. Bhattacharia, Roy Issa, Swastika S. Bithi College of Engineering West Texas A&M University AbstractThe objective of this project is to enhance the students' comprehension and appreciation of thephysical phenomena, mathematical models, and engineering principles that govern the behavior andperformance of thermo-fluid systems, as well as to develop their abilities and competencies inproblem-solving, critical thinking, and creativity. Through this project, students applied
pretty much the typical requirements of an MBA, though they somehowaccommodate engineering titles: o Engineering Management (gateway course) o Accounting for Engineers o Financial Issues for Engineers o Marketing Issues for Engineers o Decision Tools for Managers o Strategic Management for Engineers (capstone course)The students should take the above 6 cores and 6 others as electives; of which some are taught inbusiness school. The program allows optional concentrations in one of 3 areas: Supply Chain andOperations Management, Design & Innovation, or Project and Process Management.• Dartmouth University [4] also has a Master of EM (MEM) that is “jointly taught by facultyfrom Thayer School of Engineering and Tuck
ETD 315 Mini-Grants Revealed Marilyn A. Dyrud, Oregon Institute of Technology (retired); Hadi Alasti, Purdue University Fort Wayne; Maurizio Manzo, University of North Texas; T. Sean Tavares, University of New Hampshire; Paul McPherson, and Margaret Phillips Purdue UniversityAbstractEvery two years, the Engineering Technology Division solicits proposals for mini-grants,matching grants that help fund projects beneficial to the larger engineering technologyeducational community. This session features a brief explanation of the grant process(application, evaluation, and
gender neutral toys allowed students the ability to setup and executeexperiments for mechanistic evaluation with emphasis placed on generating, testing andimplementing technical solutions to the toy design. Topics such as manufacturing, safety, costanalysis, materials selection, and marketing were directed from lecture portion of the class andapplied to the toy analysis. From the observations and mechanistic evaluation of the toys,students were capable to design and fabricate a working prototype to a technical challenge. Thispaper describes a case study project demonstrating the process of relating toy evaluation toengineering fundamentals and reports feedback from faculty and students. Observations are alsooffered on the manner in which
Paper ID #45425A Mercer on Mission (MOM) to Identify Educational Needs through CollaborativeEngagementDr. Amro Khasawneh, Mercer UniversityDr. Sarah K. Bauer, Mercer University Dr. Sarah Bauer is an Assistant Professor in the Department of Environmental and Civil Engineering at Mercer University. Her primary research interests include water and wastewater treatment and renewable energy technologies. Her work focuses on developing techniques for the production of clean energy and clean water. She has also worked on a variety of projects to enhance engineering education, including a project introducing the humanities into
request. Being able to fill out forms, incident reports, and daily progress reports in thefield increases efficiency and overall accuracy of such reports. These technologies also save timeby reducing the amount of trips back and forth to the job trailer to acquire needed information, Proceedings of the 2014 American Society for Engineering Education Zone IV Conference Copyright © 2014, American Society for Engineering Education 167allowing for more immediate decision making in the field. Ultimately, readily availableinformation allows companies and project teams to reduce risk and exposure to failure as projectteams will
for the academic community. ©American Society for Engineering Education, 2025 1 Session XXXX Enhancing Engineering Education Through Faculty-Library Collaboration Chassidy Miles, Meranda Roy, Ana Krahmer University Libraries University of North Texas AbstractIn the rapidly evolving landscape of engineering education, academic libraries can play a criticalrole in supporting project-based learning and career development. This
4334 capstone design course, required of all students in the Departmentsand Industrial Engineering and Mechanical Engineering. This paper describes thechallenges and the specific problems encountered and the changes, i.e., solutions, thathave been implemented. The capstone design course that existed in 1998 had beenessentially unchanged since 1981. The Pre-Existing CourseThe pre-existing course was a one-semester, 3-hour credit course that was offered everyfall and every spring on an alternating day-night schedule by a single instructor. Teamsof four students were assigned (through a bidding process) a project. About 80% of theprojects were provided and sponsored by local industry and a majority of them
Paper ID #38690Skillsets of Top-Performing Specialty Field Leaders: A Study of SiteSuperintendents, General Foremen, and Crew Leaders in the Sheet Metaland Air Conditioning TradesTolulope Ibilola OgundareRebecca Kassa, University of Kansas PhD Student in the department of Civil, Environmental and Architectural Engineering at the University of Kansas. Specializing in Construction Engineering and Management.Dr. Omar Maali, City of Lawrence, Kansas Omar Maali, Ph.D., PE., PMP., is a Senior Project Engineer at the City of Lawrence, Kansas. He has a PhD in the Civil, Environmental, and Architectural Engineering department from the
motivation and engagement. Projects were developed by academics (research facultymembers or doctoral students) in their research laboratories. The purpose of this exploratorystudy is to understand the motivation the academics had to engage with students and invest timeand resources in creating research projects not attached to students' grades or credits. Weconducted interviews with academics to understand why they decided to engage with theresearch projects. Our results suggest that the most important thing was to develop student-teacher engagement, which had an implication later on in their classrooms. Similarly, they saw itas a mentoring opportunity and as a way to improve their time-management skills.IntroductionStudent motivation and engagement