developed for superior educational experiences7, 8, including thelegacy cycle, i.e., an approach to design a challenge-based learning environment in classrooms.The legacy cycle is widely used from K-12 to post-graduate education to help educators focus ondifferent aspects of developing the initial challenge and guide students throughout the learningprocess, including the engineering design process. It also gives students a framework to organizeand manage their learning activities to assess their knowledge. The implementation of theengineering design process with the legacy cycle in the current robotics project is also a viableapproach to attract, and guide freshman college students to do research in science, technology,engineering, and mathematics
SE also presents some challenges. There are not many POGIL activities for CS and SE,and developing them requires significant time and effort. CS and SE courses and curricula varywidely, and portions of the content change rapidly, making it more difficult to adapt or adoptmaterials developed elsewhere.This paper describes an ongoing NSF funded project to develop POGIL activities for CS and SE.First, it reviews relevant background on effective learning and POGIL, compares POGIL toother forms of active learning, and describes the potential of POGIL for CS and SE. Second,it describes a sample POGIL activity for SE, including the structure and contents, student andfacilitator actions during the activity, and how activities are designed. Third, it
seated around a table in their simulated office, modeling adesign-related activity. They might brainstorm solutions to a problem, make an objectives tree,or interview their “client” for the quarter, a local bike manufacturer who has asked them to helphim design a recumbent bike for campus use. At some point in the hour, students are drawn intothe discussion, becoming an integral part of the NU Concepts Design Team.Later in the week, EDC students meet in groups of 16 with pairs of the design faculty—onecommunication specialist and one engineer—at the new Engineering Design Studio. Drawing onwhat they saw and heard on Monday, student teams work on design projects for clients of theirown. During the first quarter of this two-quarter course, the
), and was designed to give students an overview of the diverse field of engineering. Inorder to learn what engineers actually do, the students engaged in a variety of projects and hands-on activities to find out how things work and to practice their own engineering skills. This paperwill provide an overview of the syllabus and goals of the course. Specific activities and designprojects will also be documented such as the mechanical and computer engineering designchallenges, teamwork and student presentations, and the on-line web-based assignments.Detailed examples of student work and student feedback will be reported. The quality of studentwork, as well as the positive feedback about the class, indicates that these high school studentswere not
programs haveworked with the authors in numerous “research” projects. These experiences have beenrewarding and fulfilling to both constituencies.IntroductionNew Jersey Institute of Technology is an inner city urban institution located in Newark, NewJersey with a social, economic, and academically diverse student body consisting of 5007undergraduate and 2830 graduate students. The undergraduate population is approximatelycomposed of one third (women, Hispanic, and Afro-American) minority.NJIT has a long history of outreach programs for elementary through college level students withmany originating in the Department of Chemical Engineering and Chemistry over the past 30plus years. It is therefore not unusual to find departmental faculty being
with Renewable Energy TechnologiesAbstract The DESSERT (Designing Equitable and Sustainable STEM Education with RenewableTechnologies) project focuses on designing equitable STEM education modules centered onrenewable energy technologies to engage middle and high school students from underrepresentedgroups in STEM fields. Led by an interdisciplinary team of faculty and undergraduate studentsfrom two universities, the project aims to inspire interest in sustainable energy-related careersamong students from diverse backgrounds. The activities emphasize hands-on learning, empathy,and STEM literacy integration. Two sets of lab activities were developed. The first set of labactivities focuses on energy storage with a classroom set of pumped
AC 2011-2498: OPTIMAL DESIGN OF A PUMP AND PIPING SYSTEMCurtis Brackett, Bradley University I am a senior mechanical engineering major at Bradley University in Peoria, IL. I am originally from Aurora, IL. I am the team captain for Bradley’s Formula SAE senior project. I am very interested and plan on developing my career in the field of energy generation.David Zietlow, Bradley University Professor of Mechanical Engineering at Bradley University The primary author is Curtis Brackett, candidate for BSME May 2011 Page 22.1126.1 c American Society for Engineering Education, 2011
, therefore, more like an industrial setting than an academicone. Only two engineers and a technician were involved and only a few high school students -just enough to provide a pool of drivers - were involved. This same model was essentiallyutilized in the second year as well.In the third year, WPI sought to fully utilize its project based educational program by havingsenior engineering students design and fabricate the robot. High school participation wasexpanded to include the Massachusetts Academy of Science and Mathematics, an on-campustwo-year high school. A single faculty member provided leadership and high school facultybegan to become involved. The robot design was divided into three portions, with anundergraduate project team responsible
Page 15.843.2learning some of the concepts of entrepreneurship. The students in our engineering classes areeager to learn about entrepreneurial opportunities and ideas. A recent survey 1 of undergraduateengineering students at five different schools showed that most (82%) were interested inpursuing some form of entrepreneurship after graduation. Students want to know how to taketheir ideas and get them into the marketplace. They want to use their engineering skills to helpreal people with real problems (and they see entrepreneurship as a means to that end). Theyunderstand that competing for engineering projects in a global context requires not only strongtechnical knowledge, but also business acumen. This strong interest translates into
Ship builders Mechanical c,d,e,f SKM Civil consultants Civil c,d,f Furntech Furniture research Mechanical b,f Zentel Medical software Mechatronics f Pasminco Co Smelting Mechanical c,f Rolls Royce Turbines Mechanical a,b,c,d,f a. General coursework content, b. Case studies within coursework c. Honours projects (unfunded) d. Honours projects (funded
College are described. The major elements of thecurriculum that is being planned include: (1) a set of modules for learning the basicsof entrepreneurship, (2) interaction with several on-campus and distributedhatcheries, (3) a set of in-depth learning interactions (projects, modules, courses) thatprovide depth of knowledge in engineering entrepreneurship and (4) capstoneexperiences in entrepreneurship during the sophomore year and the final year of theundergraduate curriculum. New courses/modules specifically targeted on technologyentrepreneurship are being designed between Babson College and Olin College.Babson College’s number one ranking in entrepreneurship is being fully leveraged byjoint appointments of faculty, cross registrations between
manufacturing line in a sequence of models thatwill mimic experience that could be gained by rotations through a series of jobs on the line. Thispaper describes competency gaps, project-based learning, case studies, and virtual reality. Thepaper then presents an approach to using virtual reality and to addressing the competency gaps.BackgroundCompetency GapsThe success of a manufacturing curriculum depends on its effectiveness in ensuring that the Page 7.1285.1graduates, in addition to understanding the principles and theory in manufacturing processes and Proceedings of the 2002 American Society for Engineering Education Annual Conference &
simulation,testing and debugging. Design of DSP embedded system using Synopsys COSSAP tools. Thestudents will do a set of lab projects and a large embedded system design project.A list of books and web references used in this course are given in the reference.The course topics are listed below and the time spent on these topics. 1. Introduction to Embedded System hardware, software and selection consideration (2 hr) 2. Quick review of DSP theory: Sampling, aliasing, quantization, fixed point / floating point arithmetics, Convolution, FIR/IIR Filters, DFT, FFT, Z Transform (2hrs) Page 7.447.1
Design in Real time systems course Subra Ganesan and Pat Dessert Product Development and Manufacturing Center, Oakland University Rochester, MI 48309 Email: Ganesan@oakland.eduAbstractThis paper describes the design topics and projects done in a course titled “ Real timeSystems”. The advancements in technology is taken into account in this course. Thiscourse emphasizes hard and soft real time computer system design for a single processorembedded system applications and distributed real time systems. Topics covered includecharacterizing real-time systems, performance measure, task
within Clemson Universityˆa C™s Glenn Department of Civil Engineering, the Founder and Owner of Integrated Resilience, LLC, he is a former Fluor Fellow, Director of Resilience Solutions, and Secretariat of the World EconomicDr. Jeffery M Plumblee II, JMP2 LLC Jeffery Plumblee is a project management, innovation, sustainability, and education consultant. He holds his BS, MS, MBA, and PhD from Clemson University, where he focused on civil engineering. Plumblee has managed a faculty grant and training program for an innovation and entrepreneurship nonprofit; served as a tenure-track faculty member in the Department of Engineering Leadership and Program Management at The Citadel; and developed and managed multiple
Corporate Higher Education program man- ager in 2004, Brown became the leader of various programs and projects for predominately domestic higher education engagements. Due to Boeing’s desire for international expansion, the responsibility of growing Boeing’s Higher Education International engagements was added to her preview. Brown devel- ops corporate policy, procedures and guidelines for international university relationships for workforce needs, continuing education requirements, potential research projects, building the Boeing brand and rep- utation. She also establishes corporate infrastructure and leads a global network of Boeing executives for implementing Higher Education engagements for the company, and works
Paper ID #6311Transforming a Middle and High School Robotics CurriculumMs. Mercedes M McKay, Stevens Institute of Technology (SES) Mercedes McKay is Deputy Director of the Center for Innovation in Engineering and Science Education (CIESE) at Stevens Institute of Technology. She has led several national and statewide K-14 teacher professional development and curriculum development programs in STEM education. McKay is co- PI and Project Director for the NSF-funded Build IT Scale Up project to develop and disseminate an innovative underwater robotics curriculum for middle and high school students. She is a former practicing
materials science, the neuroscience of learning, humanitarian engineering, and undergraduate research involvement. ©American Society for Engineering Education, 2024 Implementing Entrepreneurial Minded Learning in a First-Year Seminar CourseEntrepreneurially minded learning (EML) was implemented in a first-year seminar course at ateaching-focused public institution in the Southeast United States. Entrepreneurial mindset (EM)is characterized by the Kern Entrepreneurial Engineering Network (KEEN)’s 3Cs, which arecuriosity, connections, and creating value. To assist the first-year students with the developmentof EM, a 7-week long project was developed and incorporated into the course
Director for the Integrated Business & Engineering Program (IBE) – a multidisciplinary, cross-college program serving both business and engineering honors students. In this role, Kennedy teaches the IBE First-Year Cornerstone and IBE Senior Capstone courses. Additionally, she oversees the program – creating meaningful experiences for students, raising funds, and forging industry partnerships for student success. Prior to her current role, Kennedy worked as an engineer with Honda Research & Development. Her roles included test engineer, interior quality lead and most recently, project leader for the Honda Odyssey and Acura MDX. During her time with Honda, she founded the first global Business Resource Group
enough to coverseveral of these topics should be used. The choice of what language to use for an indrotuctoryprogramming class is in fact a greedy algorithm in which you choose the most versatilelanguage. This greedy algorithm should yield the selection of the Perl programming languagesince Perl is a versatile enough language to cover all of the mentioned programming skills plusmany more. However, programming skills to be taught is not the only variable that should be takeninto consideration. One most also consider whether or not students will have access to theprogramming language on their personal computers. Since students are likely to spend more timeworking on programs and projects that can be done on their computers as opposed to
Series in early 2008. The authors redesigned the introductory course, now titled“Fundamentals of Systems Design and Management,” around a system thinking presentation, anindividual decision problem, and a group design project. We have continued to improve the course forthe past two years.IntroductionDesigning the first course of any academic program is always challenging. There are more foundationalconcepts than time in one semester. The first course of any engineering program is especiallychallenging. Several key questions need to be answered. What are the foundational topics that will beneeded in future courses to provide the knowledge for follow-on courses? Will students have thenecessary prerequisites? What pedagogy should be used?In the
Series in early 2008. The authors redesigned the introductory course, now titled“Fundamentals of Systems Design and Management,” around a system thinking presentation, anindividual decision problem, and a group design project. We have continued to improve the course forthe past two years.IntroductionDesigning the first course of any academic program is always challenging. There are more foundationalconcepts than time in one semester. The first course of any engineering program is especiallychallenging. Several key questions need to be answered. What are the foundational topics that will beneeded in future courses to provide the knowledge for follow-on courses? Will students have thenecessary prerequisites? What pedagogy should be used?In the
ASEE 2014 Zone I Conference, April 3-5, 2014, University of Bridgeport, Bridgpeort, CT, USA. Case Study: A Model Interactive Qualifying Project Energy Efficiency of the Worcester Friends Meetinghouse Matthew Foley, Matthew Janiga, John Adams, Yan Zhang, Leffi Cewe-Malloy, Aaron Sakulich College of Engineering Worcester Polytechnic Institute Worcester, Massachusetts, United States of America Abstract — Every student at Worcester Polytechnic Institute make the house impractically expensive for the groups thatis required to complete an interdisciplinary
create a Model-Eliciting Activity (MEA) in which the students were required todevelop multi-media example problems. This work in progress describes the basic objectives ofthe project and a preliminary assessment of its effectiveness through a thematic analysis ofstudent reports and a student survey. We will discuss what students thought was important inmultimedia example problems, show samples of what the students developed, and offerrecommendations for implementing this MEA.Course InformationThe Multi-Media MEA developed by the authors was used in an introductory, sophomore levelEngineering Dynamics course. The course format is three, 50-minute sessions per week insections of 35 students. Approximately 30 sections are offered each year, serving
(WIP) paper will explore the Grand Valley State University (GVSU)Seymour & Esther Padnos College of Engineering & Computing’s (PCEC) commitment todeveloping and sustaining industry and K-12 partnerships. Our engineering programs weredeveloped at the request of, and in collaboration with, industry stakeholders in order to bolsterthe professional workforce in West Michigan. Since conception, our programs have grownstrategically in response to the changing needs of local employers. Recently, the addition of anew Innovation Design Center with dedicated space for K-12 outreach, industry project work,and applied research and development has inspired us to think creatively about the ways inwhich we are engaging with industry and the
US public university. The feedback was gathered via end-of-term course-specificquestionnaires, separate from and much more detailed than the typical university-sponsoredcourse evaluations. In total, 162 students gave feedback, while 5 different instructors wereinvolved with the course, one of whom – the author of this paper – was actively engaged in all 8offerings.To give the reader a sense of scale, the end-of-term student questionnaires featured 60-150questions – mostly multiple choice questions, as well as some free-form short-answer questions.The subject of the questions were the course structure, the instructors’ teaching approach, classsessions, readings, writing assignments, project experiences, tools, the feedback that
Unmanned Systems Program Committee. His research at the Academy focuses on innovative design methodologies applied to UAV problems. c American Society for Engineering Education, 2017 Designettes in Capstone: Impact of Early Design Experiences in Capstone Education with Emphasis on Depth of Design Process Content Cory A. Cooper, Daniel D. Jensen, and Michael L. Anderson United States Air Force Academy, Colorado, USAAbstractThe engineering design process can be a complex and lengthy process, and be considered adaunting experience for engineering students embarking on their first full-length project.“Designettes” are a
UNICAMP in the area of solid state device processing and semiconductor devices design. In 1995, he began a career as a consultant. In 2006, he founded the BiLab-Business and Innovation Lab at UNIFACS, Salvador-BA, Brazil. Recently, Dr. Mons˜ao has been involved in nationwide science and technology outreach projects using a Robotic Musical Instrument he and a colleague have developed. His current research interests are in the areas of engineering education, robotics, mechatronics, automation, electronic instrumentation and innovation. He has now a Post Doc position in the Graduate Program of Mechatronics at the Federal University of Bahia, UFBA.Dr. Jes Fiais Cerqueira P.E., Federal University of Bahia (Brazil) J´es de
thiscontext can be effectively implemented, managed, and evaluated. Exploratory studies of theseissues at the graduate level in engineering and science disciplines will facilitate teaming andtraining strategies so future practitioners and researchers are prepared to operate effectively inhigh-performing cross-disciplinary teams.II. Literature ReviewA. Attributes and Definitions of Effective TeamsAccording to Katzenbach and Smith5, ill-structured problems require strong teams ofinterdependent collaborators. The idea of a team extends beyond a group of people who happento be working on the same project, emphasizing the importance of shared commitment andpurpose with performance goals to which they hold themselves and each other accountable.Similarly
journals. Dr. Sekulic is the Principal Investigator of the NSF TUES multi-year STFS project.Bob Gregory, University of Kentucky College of Engineering Bob Gregory is a senior staff writer in the College of Engineering, University of Kentucky. His MA and PhD degrees in English are from University of California, Irvine. After twenty years spent teaching college students how to write at a variety of colleges and universities, including Carnegie Mellon and University of Miami, Dr. Gregory currently assists faculty with multidisciplinary grant proposals and projects. Despite his lack of previous academic training in engineering, his background has been instru- mental in assisting faculty in cross-disciplinary work between