Evaluator (PEV) for Bioengineering and Biomedical Engineering programs. c American Society for Engineering Education, 2019Work-in-Progress: Approaches to Introduce Biomedical Engineering Designin a Short Summer CourseAbstractRising high school seniors from all over the country take summer college courses as a trial runfor choosing potential majors before applying to colleges. In the initial offering of the summercourse described in this paper, high school seniors took a six week, introductory, project-basedcourse in biomedical engineering (BME). This introductory course incorporated bothengineering design and clinical applications. Students were introduced to basic principles ofBME design by exposure to the process of
the curriculum.The approach presented herein consists of two parts: tactile and software. In part one, studentsare tasked with sculpting a p-v-T surface using any foodstuffs and bringing the completedsculpture to the following class. In part two, a CAD model is to be created and subsequentlyimported into a freely-available scientific visualization tool, with the best submitted modelselected for 3-D printing. Page 26.938.3Figure 1 below illustrates the process. It begins with adjusting the grading scale to accommodatethe projects. For this project-based approach to succeed, the course syllabus must be modified bythe instructor such that the
Day, and Engineering Projects in Community Service (EPICS) at Drexel, among others. In collaboration with other College of Engineering faculty and staff she co-teaches a sequence of classes for the Paul Peck Scholars Program. Alistar received her B.A. from Drew University and Master’s from Duke University.Ms. Sherry Levin, Drexel University (Eng. & Eng. Tech.) Sherry Levin, Associate Director of Graduate Programs and Research, provides vision and leadership to the design, organization, development and implementation of graduate programs for the College of Engi- neering. Sherry is responsible for promoting the capabilities, recommending research areas, developing proposals and conducting strategic analysis to
Implementation of Problem Based Learning into Materials Testing lab Jonathan Kuchem, Nicolas Ali Libre Department of Civil, Architectural and Environmental Engineering, Missouri University of Science and TechnologyAbstractEntrepreneurial Mindset Learning (EML) and Problem-based learning (PBL) are recent trends inhigher education that develop the necessary skills and enhance learning in engineering education.A problem-based learning project was implemented into Materials Testing Lab to promotestudent interaction in class and increase problem solving, time management, and teamworkskills. A three week project was developed in order to expose students to open-ended
Society for Engineering Education, 2008 DEVELOPMENT OF AN INTERDISCIPLINERY LABORATORY CURRICULUM FOR EMERGING PRODUCT MANUFACTURINGAbstractThis paper summarizes an effort to develop an interdisciplinary capstone design projectcourse and laboratory in manufacturing. As manufacturing laboratories are veryexpensive to develop, this program is designed based on distributed and integratedmanufacturing processes on campus. As students can gain access to various facilities,they will be able to make various products, including some emerging products, such asEDM machines, fuel cells, etc. As this capstone design project provides opportunities forstudents to design, manufacture, it stimulates the students’ interest in real-world productrealization. Both
projects. Similarly, we teach our students the virtues of use-cases andspiral development models, frequently ignoring the true keystones of student success in theproject world: teamwork, collaboration and the processes that tie everything together.There are really two objectives for this paper. One is to describe a method for teaching process,quality and measurement in a way that is engaging and enables students to really internalize thematerial. The second objective is to describe an approach that helps students understand (andexperience) the role and importance of sociological issues and how to address them in a way thatsubstantially increases the probability of project and personal success. It is based on the premisethat software engineering is
tool that allows construction engineering students to interactively generate aconstruction sequence for a project in an immersive environment. The results of theseeducational initiatives were assessed through two experiments. The first experiment assessed theeducational value of having students develop 4D CAD models for a building project. Thesecond experiment was a preliminary study to determine the educational value of immersingstudents in a virtual construction project and allowing them to develop a construction plan for thefacility.The results of these experiments suggest that students can understand construction projects andplans much better when advanced visualization tools are used. The conclusions from theimmersive virtual reality
assist classroom teachers inimplementing activity and constructivist based engineering curricula. Massachusetts is the firststate in the nation to require engineering education at all levels in public schools, through theadoption of Science and Technology/Engineering frameworks; as a result, the need to developspecific curricula in support of these new frameworks is particularly important. This NSF grantfacilitated direct graduate student support of teachers recently charged with implementing noveleducational frameworks involving engineering, as well as indirect undergraduate student support.Tufts CEEO GK-12 Outreach ProjectThe Tufts University GK-12 project is a three-year project focused on pairing graduate-levelengineering and computer
of the Food Science and Technology Ph.D. program. The teaching, research, and outreach activities of this program focus on the safety and quality of poultry, seafood, and produce. Schwarz is focusing his research and teaching activities on food processing, food safety, and food defense. Schwarz received a M.S. degree in food engineering from Hohenheim University, Stuttgart, Germany, and a Ph.D. in food science and technology from Cornell University, Ithaca, N.Y. Prior to his academic career, he worked as a Project Manager in the Technical Research Department at a General Foods subsidiary in Bremen, Germany, on product and process development projects.Dr. Lurline Marsh
, reflection on learning achievement, and learning independently. These sevenoutcomes were then used to structure the course, and to provide a focused basis for assessment oflearning and continuous improvement.A significant component of the course involved independent student project work; each studentcompleted three projects, each of which involved learning advanced topics not discussed in class.Each project also involved substantive use of Matlab and Simulink software, which the studentswere also expected to learn independently. Finally, each project culminated in a writingassignment in which the students were challenged to consider what they had learned, how newmaterial fit into their previous knowledge base, and how this learning process related
the importance of connectivity and bandwidth. Through the use of advancedcommunication and information technologies, engineers and other project team members are nowfunctioning in an interconnected world. They can collaborate in virtual environments that transcendtime and space. To be effective in these virtual, or advanced engineering environments, engineers and Page 6.797.1 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Educationtechnologists must possess specific skills and knowledge that are necessary to
investigates the relationship between Leadership in Energy and EnvironmentalDesign (LEED) version 3 credit categories and the overall LEED score of multifamily residentialprojects to discern the actual contribution of each credit category in achieving the overall LEEDscore of the projects. The study compares the actual and the expected contribution of eachcategory in achieving the overall LEED score to understand the success of this system inproviding realistic and practical criteria for evaluating building sustainability and discuss theimplications of the findings for sustainable construction education. Data regarding LEED-certified projects was collected from the U.S. Green Building Council (USGBC) website andanalyzed using multiple regression
-on laboratoryprojects. We describe two third-year level laboratory projects used in a linear systems and signalprocessing course. These projects can be used in communication, computer networks, andinformation systems courses. One project addresses topics in satellite communications and theother covers data communications.IntroductionYears of experience by many educators coalesce around the widely-held belief that laboratoriesand hands-on learning are critical to understanding and long term retention of fundamentalconcepts in engineering. Taslidere, Cohen, and Reisman conclude that “undergraduate andgraduate students want more hands-on demos that link theory to real applications.”1 However,according to Corter, Nickerson, Esche, Chassapis, Im
from the manufacturer1. In this workshop, students were re-quired to work with different types of working drawings (part, subassembly, and assemblydrawings, standard parts; parts list) in order to find out about materials, dimensions, etc. of theproduct being dissected.Third, tolerancing was dealt with in the Design course before a more extensive treatment in theGraphics course. A concern for the stacking of tolerances was introduced “just-in-time”. Thissupported the requirement that the first project, a name plate or “logo”, should be mountable onthe vehicle chassis of Project 2; this required design of the mounting hole or slot sizes to allowassembly.Finally, and most significantly, Project 1 (see below) was designed in the Graphics
from Stanford's Product Design program and has a M.A. in Education from the Stanford School of Education program in Learning, Design and Technology.Larry Leifer, Stanford University Larry Leifer is a Professor of Mechanical Engineering Design and founding Director of the Center for Design Research (CDR) at Stanford University. A member of the faculty since 1976, he teaches the industry sponsored master's course ME310, "Global Project-Based Engineering Design, Innovation, and Development;" a thesis seminar, "Design Theory and Methodology Forum;" and a freshman seminar "Designing the Human Experience." Research themes include: 1) creating collaborative engineering design environments
alarger institution which has entered the competition several times previously. The authors, asadvisors of two different ongoing projects share their years of experience with those colleagueswho are interested in sponsoring engineering students in such challenging competitions. Theybriefly discuss elements of group dynamics and discuss why the success rate of the projectsdepends heavily on successful team building. They discuss steps for successful creation of teamsthat the strength of their members complement each other and propose tested techniques thatmay significantly enhance the relative potential of such teams. The instrumental role of theadvisor is discussed. His/her project management activities must gradually be taken over by oneor
Session 2793 A New Course in Multimedia Systems for Non-technical Majors Wayne Burleson, Stephen Kelley, Santhosh Thampuran Department of Electrical and Computer Engineering University of Massachusetts, AmherstAbstractThis paper describes a project which has developed, piloted, evaluated, and is currentlydisseminating, a novel course in Multimedia Systems for non-majors. The course forms part ofthe new Information Technology minor program at the University of Massachusetts Amherst.The primary objective of the course is to expose students from non-technical majors to
Session 2366 Teaching Machine Design through Product Emulation Matthew I. Campbell Department of Mechanical Engineering University of Texas at Austin Austin, TX 78705 mc1@mail.utexas.edu1 IntroductionIt is widely accepted that in order to learn complex technical material well, some form of activeexperimentation or “hands-on” activities are required. Traditionally, in engineering educationthis occurs through laboratory experiments or through design projects. In
AC 2008-1031: HOW TO HELP SENIOR CHEMICAL ENGINEERING STUDENTSENHANCE AND DEVELOP THEIR LEADERSHIP COMPETENCEJoan Alabart, University Rovira i Virgili Joan R. Alabart is Associate Professor of Chemical Engineering at the Universitat Rovira i Virgili (URV). He received a B.Ch. and a Ph.D. from the University of Barcelona and an MBA from ESADE (Barcelona). His research, consultative, and training projects interests focus on the areas of Organizational Effectiveness and Leadership. He is co-founder and director of the Master in Business Administration program at the URV.Sibel Özgen, University Rovira i Virgili Sibel Özgen is currently a Research Assistant doing her Ph.D. at the Department of
. Joshi has worked on multiple industry sponsored research projects (Michelin tweel –low rolling resistance for non-pneumatic tires, IFAI ballast friction testing project). She was actively involved in mentoring and advising Capstone design projects. She has advised over 10 different design projects –BMW, Rotary, TTi and mentored over 100 students. While at Clemson, Dr. Joshi was also awarded endowed teaching fellowship as a part of which she has taught a sophomore class on Foundations of Mechanical Systems for 2 semesters. Dr. Joshi worked as a Post-Doctoral Fellow with Professor Jonathan Cagan at Carnegie Mellon University. She investigated the avenues of internet of things and connected products. While at Carnegie
[4]. However, in this program, consistent with most peer mentoring programs, only the beststudents are selected for mentor roles. Thus, only the most academically-successful students gainthe benefits of such an experience instead of all students.Our team was interested in the feasibility of a peer-mentoring program in which all students intargeted courses act as mentors in some fashion. We piloted a peer-mentoring program in twodepartments: Civil, Environmental, and Architectural Engineering (CEAE), and MechanicalEngineering (ME). Within each department, peer-mentoring projects were embedded intocourses in a similar program stream (i.e., upstream and downstream courses were related basedon content). This pilot program focused on three types
and leadership abilities, and that they weremore prepared to go into the workplace after their experience as a peer mentor in this program[4]. However, in this program, consistent with most peer mentoring programs, only the beststudents are selected for mentor roles. Thus, only the most academically-successful students gainthe benefits of such an experience instead of all students.Our team was interested in the feasibility of a peer-mentoring program in which all students intargeted courses act as mentors in some fashion. We piloted a peer-mentoring program in twodepartments: Civil, Environmental, and Architectural Engineering (CEAE), and MechanicalEngineering (ME). Within each department, peer-mentoring projects were embedded intocourses in
already full curriculum. This paperdescribes how 3D printing (3DP) and computer-aided design (CAD) were integrated into aMaterials Science and Engineering (MSE) curriculum and the impact of the integration over thepast five years. The integration focused on two senior-level courses that include both a lectureand a lab component as well as a design project. The fall course addresses materialsperformance and failure, including plastic deformation, fracture, fatigue and creep, and thespring course focuses on materials processing, including traditional routes such as extrusion,injection molding, forging and powder compaction, as well as a variety of 3DP (additivemanufacturing) methods. The lab activities and design projects incorporated into these
Chief Technology Officer in the private sector and 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.Mr. Hassanein Jaleel Radhi, California State University, Fullerton Page 26.533.1 c American Society for Engineering Education, 2015 Development of
Architectural Engineering. Here at Penn StateUniversity, architectural engineering (AE) encompasses: Mechanical HVAC Design, Lighting/electricalDesign, Structural Design and Construction Engineering and Management.The pinnacle of the program is the yearlong capstone with inherent multidisciplinary aspects to it. Withan industry interface, the capstone is critical to enrich the student experience in complex building designthrough simulating the project to be “more real world” than traditional capstones. This capstonedistinguishes itself by the level of relatively independent work done by the student teams (vs. teaching bythe faculty), heavy industry practitioner interactions, mentoring roles of the faculty and lastly, utilizingreal industry projects
communities) of many civilengineering projects and provide continuity for design projects that extend over multiple courses.Undergraduates go to the Garden City website to access projects and related data and designinformation. They are also able to store reports at the website, creating an electronic portfolio.Finally, the Garden City website provides a central location for course webpages, tutorials,modules etc. The purpose of this paper is to provide detail on the Garden City project,particularly as it affects teaching design principles throughout the curriculum.INTRODUCTIONThe following text is the Project Summary of “Sooner City - Design Across the Curriculum”,NSF grant # 9872505.1 It is included here to provide a brief summary of the Sooner
submit a projectreport. One of these manufacturing processes is a CNC turning process. The turning project ofthis course has historically had extensive average time for completion. As such, it was deemednecessary that a way to improve the quality of a turning project be generated. Industrial QualityControl (IENG 316) is also taught as part of the industrial engineering curriculum, and it wasdetermined that the quality tools in this course should be used to evaluate the initial performanceof the turning project. An executive activities sheet has been developed for this IENG 303turning project to collect data about the time required to finish this project and to check if thatwas meeting the expectation or not. The turning projects of Spring 2021
such as obtaining work for the firm,planning and running client meetings, and project management. Other essays introduce thestudents to technical aspects such as decision making in the schematic design phase, designingfor constructability, integrating gravity and lateral load systems, coordinating non-structuralelements, creating construction documents, responding to requests for information from the field,and the quality assurance process.The practicum requirements encourage the students to meet multiple engineers within the firm inorder to see their future career from the perspective of several different people. This papersummarizes feedback from the students and employers about the outcomes of the practicum,what worked well in the
Friday Morning Session 1- Student Integrated Engineering Database: A 21st Century Decision Aid Eric Haney, Lex Gonzalez, Amen Omoragbon, Amit Oza, and Bernd Chudoba Mechanical and Aerospace Engineering Department University of Texas at Arlington AbstractThe exponentially increasing amount of information accumulated from past and currentengineering projects has created an environment where retaining and utilizing existingknowledge is paramount. The modern engineer is tasked with leveraging the intellectual andfinancial efforts of legacy projects in order to ensure on-time, on
middle school students and to support entrepreneurship at primarily undergraduate institutions. Her background is in civil engineering with a focus on structural materials. She holds a B.S.E. degree from Princeton, and M.Eng. and Ph.D. degrees from Cornell.Ms. Sophia L. Poulos, Smith College Sophia Poulos is a 2016 engineering graduate from Smith College. She is interested in structural engineer- ing and has worked on earthquake engineering projects with NEES@UCLA. She is a research assistant on the CDHub 2.0 initiative and innovations in engineering design education at the capstone level. She is pursuing a masters degree in structural engineering at the University of California Davis.Ms. Laura Mae Rosenbauer, Smith