related to her interests in engineering education and graduate student success. Luchini-Colbry is also Co-Director of the national CyberAmbassadors training project and Director of the Engineering Futures Program of Tau Beta Pi, the Engineering Honor Society, which provides interactive seminars on interpersonal communications and problem solving skills. The CyberAmbassadors and Engineering Futures Programs includes a national network of volunteer facilitators who conduct hundreds of sessions serving thousands of STEM students and professionals each year.Dr. Dirk Joel-Luchini Colbry, Michigan State University Dr. Dirk Colbry is a faculty member in the Department of Computational Mathematics, Science and Engineering
LPRDS – A Requirements-Driven team-Based Design of a 2kW Solar Energy System William D. Jemison and Christopher T. Nadovich Electrical & Computer Engineering Lafayette College, Easton, PA 18042AbstractThis paper will describe a capstone senior design course that features a team-based requirements-driven project. The project scope is selected such that thetechnical requirements are sufficiently complex to require a team-based solution.The project implementation is designed to force the students to consider realisticformal engineering requirements and specifications while offering significantopportunities for student leadership. The most recent embodiment of
LPRDS – A Requirements-Driven team-Based Design of a 2kW Solar Energy System William D. Jemison and Christopher T. Nadovich Electrical & Computer Engineering Lafayette College, Easton, PA 18042AbstractThis paper will describe a capstone senior design course that features a team-based requirements-driven project. The project scope is selected such that thetechnical requirements are sufficiently complex to require a team-based solution.The project implementation is designed to force the students to consider realisticformal engineering requirements and specifications while offering significantopportunities for student leadership. The most recent embodiment of
Monitoring Industry-ClassroomProgram for Undergraduate Biomedical Engineering Students Dr. Alexis Ortiz-Rosario,1 and Ali Kaveh Rahimi21 Department of Biomedical Engineering, The Ohio State University, Columbus OH, USA; 2Ohio AtHome Health Care Agency, Columbus, OH, USA AbstractThe at-home remote monitoring sector of healthcare is a growing industry. This healthcaremarket is valued at $24 billion, and it is projected to reach $166 Billion by 2030 [1]. Thisgrowing industry has unique challenges and can promote unique learning opportunities forundergraduate biomedical engineering students [2]. A collaborative industry-classroomprogram was developed along with Ohio At Home Health Care Agency
, administration, students, and communitypartners are different. The pedagogy can be used to meet many different learning outcomeswhich need to be defined by local faculty. The scope of the engagement effort can range fromlarge programs such as the SLICE program at the University of Massachusetts-Lowell [18] orPurdue University’s EPICS Program [19]. Successes include programs that engage first-yearengineering students in diverse project experiences and partnerships [13,14,17]Models for EngagementModels have been developed to conceptualize and evaluate community-engaged learning andservice-learning that have served as useful tools.. These include an approach for examining thebalance and linkage of the words service and learning by Sigmon [20]. TABLE
Education, 2022 Powered by www.slayte.com CONTROLLING A ROBOTIC ARM WITH AN ELVIS IIAbstractThe Design Technology II course is intended to give the students a real-world approach to designprojects. The students are expected to design projects that are innovative, interesting, and uniqueby using the techniques, skills, knowledge, and experiences they have gained in the numerousdisciplines that are offered in the Electrical/Electronics Engineering Technology Program. Theobjective of this undergraduate project was to control the five movements of a robotic arm usingthe National Instrument ELVIS II Board. The ELVIS II was chosen to act as a microcontroller inthis project.The ELVIS II is a National
(NSF) Advanced Technological Education (ATE) grant, seeks to enhance techniciancybersecurity awareness through education and training. The paper provides details on theprocess the project team utilized to develop an initial micro-credential in the area ofcybersecurity for robotics/automation/mechatronics. The paper focuses on the badge creationprocess and outlines how the badge modules developed can be shared to help raise cyberawareness in other fields, such as semiconductors, solar power, and electric vehicles. The badgeleverages the work of other NSF ATE projects, providing a no-cost avenue for automationtechnicians to expand their background by earning a digital badge that enhances their resume.BackgroundToday’s manufacturing involves
this study demonstrate that there is significant value in getting students toconsider both technical and professional competencies concurrently as they work through project-based experiences in academic settings. Importantly, this study shows that a little reflection can goa long way in improving student outcomes and supports an argument that professional competencyreflection as a regular feature in the engineering curriculum.1.0 IntroductionThe motivation for this work stems from a need to help engineering undergraduates in therecognition and development of professional competencies. An important challenge forundergraduate programs is to provide students with experiences, inside and outside of theclassroom, that give insight on what it means
project whereby students in a biomedical engineering classproduced tutorial videos that demonstrated how to construct the Foldscope Microscope, aninexpensive paper microscope developed at Stanford University. The videos were then used in aSTEM outreach program for middle school students, in which the middle school studentsconstructed and used a Foldscope. The majority of students felt the project enhanced a number ofcommunication skills and broadened their perspective of how they could use their engineeringskills to serve others.KeywordsFoldScope, Origami Microscope, STEM Interest, Presentation SkillsIntroductionEmployment is dropping in manufacturing cities, deeming them the Rust Belt [1]. Rather thandeteriorate, these cities have started to
Paper ID #18380Broadening Participation of Female Students in STEM: Significant Outcomesin Less Than One YearMs. Donna Milgram, Natl Inst for Women in Trades, Technology & Science (IWITTS) Donna Milgram is the Executive Director of the Institute for Women in Trades, Technology, and Science (IWITTS) and has been Principal Investigator on 5 National Science Foundation (NSF) grants – including the CalWomenTech Project, which was highlighted by the NSF for demonstrating significant achieve- ment and program effectiveness and chosen as one of three model projects in the U.S. by the American Association of University Women (AAUW
motivation in academia.Dr. Lin Ding, The Ohio State University Lin Ding, Ph. D. Associate Professor Department of Teaching and Learning The Ohio State University c American Society for Engineering Education, 2017 Work in Progress: Assessing Motivation in Capstone Design CoursesAbstractEffective assessment of student learning outcomes desired by industry is required to truly impactcurriculum change. As part of a National Science Foundation (NSF) project, several workshopsand advisor meetings have guided the selection of outcomes and creation of the first draft ofassessment instruments to measure selected outcomes. Over 1000 respondents to a variety ofindustry surveys, including those identified by industry
excellence in engineering education and positioning itself for ABET accreditation,the College of Engineering (CoEng) at the University of Tabuk (UT), Tabuk located in SaudiArabia has integrated a strong engineering practice component into its educational programcurricula. This component relies on a series of courses that foster a variety of soft skills wrappedaround four design project courses and two four-week practical training periods at a company orresearch facility. Furthermore, students at the senior level are strongly encouraged to undertakerealistic projects. In this paper, we describe our experience with three groups of students fromthe Electrical Engineering (EE) Department who undertook projects sponsored by the SensorNetworks and
in higher and adult education. His research interests focus on how social capital is manifested in communities to support or negate educational attainment. c American Society for Engineering Education, 2019 WORK IN PROGRESS ADULT LEARNER PATHWAYS TO PROSPERITY THROUGH STEMIntroduction This work in progress is developing and implementing the Adult Learner Pathways toProsperity through STEM (ALPPS) research project. ALPPS is informed by evidenced-basedpractices to assist adult learners with navigating the process to return to college and earn acertificate or degree in STEM disciplines. The program targets adult learners in the DallasCounty, Texas metropolitan area
. I am a former member of Dallas Robotics Group at the Dallas Makerspace, and plan to enroll in the National Stem certification program. I have completed PLTW and Robotics and Automation certificate programs, and attended Ar- duino Project and Raspberry Pie. I have been a mentor for the College Readiness and Leadership Program (CRLP) with the goal of implementing student leadership in our school. In addition, I like to work with 3D printing and design, and am a member of Enabling Hand, a team that creates and assembles prosthetic arm designs.Dr. Sheng-Jen ”Tony” Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is a Professor in the Dwight Look College of Engineering at Texas A&M University. He
toultimately produce higher-quality products [4]. Most of the biomedical engineering teamsconsidered herein are composed primarily of biomedical engineering students, but we alsoinclude students from other engineering disciplines if their expertise would enhance the progressof the project. These out-of-discipline students apply to discipline-specific “openings” on theteam and are matched via a college-wide optimization of student project placement.In previous offerings of the course, we observed that teams suffered from undefined leadership,unstructured communication, and an inability to benchmark or evaluate their progress.Therefore, we have recently implemented a Team Leader model for these design teams.Team LeadersThe efficacy and benefits of the
Multidisciplinary Team AssessmentAbstractDuring a semester long course entailing a multidisciplinary team project, students in computerengineering, electrical engineering, and mechanical engineering were required to work togetherto design, build, and test a solar car. It is the hypothesis of the faculty that students who havemore multidisciplinary interaction in the design and implementation of the project will produce abetter project. To evaluate this hypothesis, the authors have designed a new assessmentinstrument to effectively assess the level of multidisciplinary teamwork and the students’ abilityto function on a multidisciplinary team. While there are some existing instruments available, fewhave documented reliability and validity1. For this reason
. There is a strong interest among faculty to seek interested undergraduatestudent participation in their research projects. The undergraduate research has often been usedas a recruitment tool for graduate schools. The undergraduate research participation in generalhas benefitted both students and the faculty and has given rich experience to the graduatestudents and researchers who otherwise would not interact with undergraduate students. TheNuclear Engineering student groups are generally small and this interaction has more impact onstudent learning. The undergraduate research during summer and during academic year innuclear engineering program is reviewed. Key lessons learnt by faculty and graduate studentsand feedback by undergraduate students
AC 2009-2123: UNDERGRADUATE VALIDATION OF CUTTING-EDGECALORIMETRY OF AN INDUSTRIAL AFFILIATE’S NOVEL ENERGY SOURCEPeter Mark Jansson, Rowan UniversityUlrich Schwabe, Rowan UniversityNathaniel Downes, Rowan UniversityPatrick Hoffman, Rowan UniversityMatthew Abdallah, Rowan University Page 14.1291.1© American Society for Engineering Education, 2009 Undergraduate Validation of Calorimetry of an Industrial Affiliate’s Novel Energy SourceAbstractA major component of the Rowan University (RU) engineering program is the clinic course,which gives students the opportunity to work with industrial partners on real projects, while stillmaintaining a classroom environment. The
troubleshooting of a “ ‘microcontroller-based autonomous mobile robot. Topics include robot design and control, microcontroller architecture, 6811 assembly and high-level (C) programming. Mini-lectures and workshops are scheduled on an “as-needed” basis. A robot competition is held at the conclusion of the course. The project-based course has proven to be highly motivating for the student participants. This project was supported, in part, by the National Science Foundation Advanced Technological Education under Grant No. DUE- -- 9454547. 1.0 Introduction A robotics-based microprocessor course has been designed for the associate degree electrical engineering technology program at the
graduate degree program in Aerospace and Ocean Engineering at Virginia Tech.Responding to strong industry comments, five engineering departments (AOE, ME, ISE, MSE, and ESM) atVirginia Tech have established a new practice-oriented master’s degree (MEng). The new degree fit withinexisting guidelines so that no new administrative approval was required. On an individual department basis theaddition of several new courses each would have been impossible. By working together it became possible toadd two new college-wide courses. We believe that the new program is unique in that it is trulymultidisciplinary. Students from the five different college of engineering departments will be taking classestogether and working on the design project teams together
2006-518: QCC TECHASCEND: NSF-SPONSORED AFTER-SCHOOL PROGRAMAIMED AT POTENTIAL TECHNICIANSDon Engelberg, Queensborough Community College Principal Investigator Dr. Don Engelberg holds a B. S. degree from the Massachusetts Institute of Technology and M. A. and Ph. D. degrees in physics from Columbia University. In addition to coordinating the entire TechASCEND project, he served as instructor for the fiber optics unit. Dr. Engelberg has served as P. I. for two previous NSF grants related to fiber optic telecommunications. In addition to his publications related to physics education, he has published on nuclear and particle physics and the history of physics. He has also directed grants under the
was around $3300.00. Theresults of the project are reported here. Page 11.360.2This case study presents the importance of reconfiguring, reengineering of an outdated, seldomused, material testing frame into more applicable laboratory equipment. This type oftransformation trend is based on existing equipment and can be useful in educational institutions,such as those in many third-world countries that do not have the budget or resources to purchaseand or maintain new off the shelf laboratory equipments. This budgetary restraint is an ongoingchallenge especially for many of the third-world countries which are to transfer theiragricultural-based
, hiring and staffing restrictions, and need tocontinue to execute engineering projects, the electric utility company needed an innovativeworkforce development solution. It was critical that any support services solution address theirimmediate and long-term talent needs and scale up or down to meet future businessrequirements.Engineering Services ModelShortly after the restructuring in 2010, the electric utility company entered into a partnershipwith EASi. EASi’s solution to addressing the electric utility company’s workforce developmentchallenges in Ohio was to create a unique engineering support services model that incorporated atalent development pipeline.According to Mr. Castelino, the structure and approach of the solution were designed to
Paper ID #19939Introduction and Application of Lean Manufacturing Techniques in Mechan-ical Engineering Senior Design PracticumMr. Jamison Taylor Bair , Colorado State University Jamison Bair is a Graduate Student pursuing a Masters of Science in Mechanical Engineering at Colorado State University. He received his BS in Mechanical Engineering from Colorado State University in May 2016. Jamison is one of the GTAs for MECH-468, the senior design capstone class at CSU. He is also the Project Manager for the CSU Vehicle Innovation Team competing in the intercollegiate automotive engineering competition EcoCAR3 and the
: Create Spaces to Highlight Local TalentAbstractThe paper will focus on a two-semester service-learning project in which ArchitecturalTechnology Students are partnering with a local entity called Reclaiming Community. Reclaimis a subsidiary of a larger local organization with a mission to bring about sustainableregeneration, improvement, and management of the physical environment through their Art Shedinitiative. Each semester will develop a separate set of shed designs, with separate assessmentmethods and outcomes. The over-arching goal of the project is revitalizing the neighborhoodsthat will house these sheds, and encourage the love of art and design in area. Sheds are designedwith the intent that after a
Practice to sustain andgrow the practice of operations research across the supply chain of a largecompany.The development and deployment of the program was co-created by a core teamof senior managers from the company and faculty from a US university. The coreteam identified the audience and established outcomes for the executiveeducation program. The curriculum was developed following “ADDIE”, aninstructional design methodology. The program evolved into three modules witha combination of on-line, on-site, synchronous and asynchronous modes ofdelivery. The assessment of learning and application was carried out withassignments and action learning projects with real-life problems, evaluated usingrubrics aligned to the program outcomes by a panel of
platforms Abstract: In this paper, we propose an efficient three-module pedagogical system for embedded systems learning, which will provide students effective ways of learning embedded systems through basic concepts, current technology for hardware and software design, and team projects. The proposed pedagogical approach is based on systematic learning through evidence-based teaching, knowledge mobilization, and research strategies. In our approach, it is recommended to use two platforms, µVision (simulator) and one microcontroller (hardware), such as Arduino or Raspberry Pi. Raspberry Pi is a small (900 MHz quad-core ARM Cortex-A7 CPU) single-board computer developed by Raspberry Pi Foundation and Arduino is the most popular
research examines how engineering students approach innovation. She also studies informed design practices among college and pre-college students . She serves on the editorial boards of Science Education and the Journal of Pre-College Engineering Education (JPEER). c American Society for Engineering Education, 2016 Work in Progress: A Preliminary Investigation of the Ways Engineering Students Experience InnovationIntroductionThis work in progress presents an ongoing study investigating the distinct ways engineeringstudents experience innovation in their engineering projects. Innovation has been a frequentobjective of course and program reform in engineering education1. Engineering
A Control System for a Small Autonomous Sailing Vessel Tobias Ferl and Stephen Hills Department of Engineering, Electrical Engineering United States Coast Guard AcademyAs a yearlong undergraduate project, we are developing a 1.2-meter autonomous sailboat for atrans-Atlantic attempt, from New England to Ireland, in the summer of 2020. The control systemfor the sailboat requires sensors for wind and location, a solar rechargeable power system, a low-powered microcontroller, and mechanical actuators for sail and rudder control. In addition to thehardware design, we are also developing custom software for autonomous navigation and controlof an
laboratory, training the students about process safety in aninherently low-risk environment. The approach is based on more than ten years of industrialprocess hazards analysis experience, which includes assessing for process-related hazards andreducing process-related risks. Before the students began the experimental phase of theirlaboratory project, they documented that they understood the potential hazardous events relatedto their project. The students completed a series of Project Risk Analysis (PRA) check sheetswhich listed both the hazards addressed in the OSHA Process Safety Management standard (i.e.,fire, explosion, and toxic release) as well as other area and personnel safety-related hazards (e.g.,noise, utilities, etc.). Then the students