several sections, including PV (photovoltaic engineering),H2PEM (Proton Exchange Membrane hydrogen fuel cells), wind energy technology and solarenergy assessment. The impact of these technologies on a future hydrogen economy, the impact onsmart grids, and job creation are also introduced. The curriculum draws heavily on the experienceand background, both theoretical and field experience, of the instructors including NSF and DOEgrants that allowed the design and implementation of a certified hydrogen development laboratory,and development of instructional materials for PEM training. The curriculum integrates key topicssuch as MATLABR and SIMULINKR modeling and simulation of critical components includingPEM Fuel Cells, PV with storage and grid
training, and athleticcompetition. Acceptance rates are low, around 12% [12], but graduation rates are high,approximately 80-85% [13]. Unlike many other academic institutions, incoming USAFAstudents are not accepted to a college or school associated with a major’s program (e.g., Collegeof Engineering). USAFA has nine institutional outcomes, and one is devoted to all graduatesbeing able to apply the engineering method. To meet this outcome, all students take fiveengineering courses as a part of the general education curriculum regardless of their major. Theearly general education engineering courses present an opportunity to recruit undeclared studentsinto engineering during their first year.Field Engineering and Readiness Laboratory ContextIn
(i), (ii) were deployed in 2-, 3-day PIC device characterization bootcamps, co-organized bythe collaborators’ Laboratories for Education, Application, and Prototyping (MassachusettsLEAP Labs) [19]. A Three-Legged Stool (3LS) training model that combined lecture, VR simtraining, and lab-site physical tool trainingwas developed to structure and pace this high-volumecontent, short-duration intensive training experience.The 3LS emphasis on hands-on experiential education in a lab or lab-like setting, is an integralcomponent of most Science, Technology, Engineering, and Math (STEM) learning processes,including in the manufacture of PIC chips. In addition to mastering fundamental concepts insemiconductor electronic and photonic device design and
of Connecticut conducted a PBSL experience where approximately 400first-year engineering students designed and built Corsi-Rosenthal (C-R) boxes (DIY AirPurifiers) that trap 56-91 % of respiratory aerosols and improve indoor air quality. The C-Rboxes were built for a nominal cost of $60 per box, using a 20” box fan, four 20”x20”x2”MERV-13 filters, the box from the fan, and duct tape. The project was carried out by smallgroups (3-4 students) working in the First-Year Design Laboratory over four weeks. At the endof the project, the C-R boxes were distributed to the local elementary schools. During the pandemic, these first-year engineering students had completed their final yearin high school remotely, under lockdown. Thus, this C-R box
who were interested in exploring research opportunities inengineering faculty laboratories. An application process brought in five applicants whointerviewed with engineering faculty who had indicated interest in taking a CREATE scholarinto their laboratories for a research experience. These five scholars will spend 40 hours duringthe Spring 2021 semester in the research laboratories undergoing an undergraduate researchexperience. At the end of the semester an evaluation of the scholars' performance will berequested from the faculty research mentors. The performance evaluation incorporates questionsthat were compiled by the CREATE Principal Investigator team and included: 1. how often theymet with the scholar, 2. if they worked directly with
the Journal of Engineering Education (JEE). Prior to joining ASU he was a graduate student research assistant at the Tufts’ Center for Engineering Education and Outreach.Dr. Jumoke ’Kemi’ Ladeji-Osias, Morgan State University Dr. J. ’Kemi Ladeji-Osias is Professor and Associate Dean for Undergraduate Studies in the School of Engineering at Morgan State University in Baltimore. Dr. Ladeji-Osias earned a B.S. in electrical engi- neering from the University of Maryland, College Park and a joint Ph.D. in biomedical engineering from Rutgers University and UMDNJ. Dr. Ladeji-Osias’ involvement in engineering curricular innovations includes adapting portal laboratory instrumentation into experiments from multiple STEM
Paper ID #34713Hydro-Island: Undergraduate Research Modeling an Ocean Thermal En-ergyConversion (OTEC) SystemMs. Leah Hope Sirkis, University of Pittsburgh Leah is an undergraduate student at the Unversity of Pittsburgh Swanson School of Engineering. She is studying Mechanical Engineering with a minor in French. She participates in ocean renewable energy research in the Energy Systems Research Laboratory under Dr. Tony Kerzmann.Dr. Tony Lee Kerzmann, University of Pittsburgh Dr. Tony Kerzmann’s higher education background began with a Bachelor of Arts in Physics from Duquesne University, as well as a Bachelor’s
Paper ID #34434Improving Programming Content Delivery in an Introductory BiomechanicsCourse Using a Blended Classroom ApproachMr. Jeffery Ethan Joll II, Vanderbilt University Ethan is in the final year of his Ph.D. in Biomedical Engineering at Vanderbilt University where he works under Dave Merryman. His laboratory work investigates the mechanobiological underpinnings of cal- cific aortic valve disease and post-menopausal osteoporosis. His education research focuses on blended learning strategies to improve content delivery in undergraduate biomedical engineering courses. He is investigating careers in educational research
Assistant Professor in the Department of Materials Science and Engineering and the Frederick Seitz Materials Research Laboratory at the University of Illinois, Urbana-Champaign since 2012. She graduated in Industrial Chemistry from Coimbra University in Portugal and received her Ph.D. in physical chemistry from Lund University, supervised by Prof. Wennerstr¨om. After working for a year in the Norwegian Radium Hospital, she joined Prof. Safinya’s Lab at the University of California in Santa Barbara as a postdoctoral fellow. Her research interests focus on the characterization and functionalization of lipid materials for cellular delivery. She is the recipient of a number of distinctions including the National Science
stronger than imagined. system for achieving this end goal. ● Lack of User Knowledge and Awareness: the sophisticated functionality of IoTs requires Our study aims to create a guideline for establishing serious awareness of the threats and reasonably affordable, relevant IoT cybersecurity vulnerabilities [16], [17]. Users’ lack of laboratories configured primarily for use at teaching knowledge can make them victims of social institutions. Furthermore, we deliver a set of engineering attacks. algorithms that can be used to better
class years. All engineering students take calculus-based Physics-Mechanics (PHY160) during the spring semester of their first year. PHY160 is a 5-credit coursethat meets for nearly 2.5 hours three days a week that combine lecture and laboratory together.Two professors are always present in the classroom to provide additional opportunities to answerstudent questions. There are two textbooks used in the course. “Exploratory Physics” by (nameomitted for anonymity) is used as an in-class workbook that includes active-learning activities andintegrated laboratories [11, 12]. “Fundamentals of Physics” by Halliday, Resnick and Walker isused for before and after class for prior reading and homework assignments [13]. Some of thetopics covered include
science. Interns wereexpected to work on their project from their home approximately forty hours per week under theremote supervision of their graduate student or postdoc mentor.In preparation for the remote program, the TTE Program Director discussed the technical needsof each project with the mentors and interns. Most interns confirmed they had sufficient internetaccess, computing capabilities, and data storage. An external hard drive was purchased for oneparticipant, and another was mailed a lensless camera by her research team. Interns were enrolledin a one-unit summer course to ensure they had access to all UC Berkeley remote resources,including library databases, software downloads, and remote control of laboratory machines.Most importantly
Program for High School Students. The course was open for rising highschool juniors and seniors. This class was designed to have approximately six hours a day ofstudent-instructor facetime over the five-day week. This instructional time included traditionallectures as well as field trips, laboratory experiments, and active learning activities. The homebase for the course was an active learning classroom with features such as pod seating, movabletables, and whiteboards. Additionally, the intention was for students to visit various campuslocations, view and participate in laboratory experiments, and learn more about the life of aresidential student.Initially, the course development focused on understanding the student population of the class;high
convey “rich media” that suits the task according to media richness theory [12]. Miroalso offers several functions, such as cursor position of each user on the screen, activity logs, andpersonalized notes, to uplift social presence—a vital element in online classroom settings. Thesefeatures define Miro as a strong tool for online or hybrid learning environments that require highlevels of collaboration [12]. In this study, we use mixed methods to investigate if and how the use of the Miroplatform affects engineering students’ ideation in small groups during virtual laboratory sectionsof a sophomore-level Design for Manufacturability course (n = 61 participants). We conduct acomprehensive analysis of students’ use of Miro’s virtual
each course focused on a specific construction topic.The department requires every student to take at least two of these topics courses prior tograduation. Previously, there was minimal BIM software or skills taught within the curriculum.After two years of course development and increased student interest, the BIM course became arequired course in 2015. The class meets four hours per week, for a ten-week quarter and istaught in a computer laboratory. This class is listed as an Activity, rather than a Lecture or aLaboratory. It is the goal of this course to introduce students to a number of BIM softwaresystems and tools used within the industry. The class covers eleven software systems in tenweeks. The software systems currently covered include
consisted of the application of Monte Carlo techniques to model a germanium detector for use in astrophysics studies. The study was part of the Gamma Ray Observatory program on the WIND satellite. In addition, the Monte Carlo technique was used to model the geometry of the Spectrometer for Integral (SPI) of the International Gamma Ray Astrophysics Laboratory, INTEGRAL. This project was launched in October 17, 2002. Cur- rent research activity has been in the area of Aviation Safety. In particular, the development of monitoring technologies to enable detection of unsafe behaviors in the flight deck. Have made presentations in in- ternational forums in Serbia, Japan, Spain, Australia and Ireland. Graduated with a B.Sc
research scientist at the Canadian Nuclear Laboratories (CNL) from 2013 through 2017. In addition, he was employed at Motorola as a senior soft- ware engineer from 2003 through 2007, and IBM from 2011 through 2013. He received his B.S. and M.S. degrees from Sichuan University, China in 2000 and 2003, respectively, and his Ph.D. degree from Southern Illinois University Carbondale in 2011. His research interests include high-performance com- puting, computer architectures, real-time systems, and wireless sensor networks. He has published over 30 peer-reviewed research papers. American c Society for Engineering Education, 2020 Undergraduate Summer Research in
experts in teaching and research directly related to the light hydrocarbon industry and shalefuel conversion. Second, we will send the survey to our list of 26 industrial partners. Thesepartners range from multinational oil and gas companies to boutique consulting and advisoryfirms focusing on oil and gas, energy, and chemicals. This list also includes national laboratories(i.e., Argonne, Oak Ridge, Pacific Northwest, and Sandia), international universities, andfoundations. The list will also be distributed through networks of the CISTAR faculty to expertsin the field. Together, this list encompasses a wide range of experts across a number of divisions.If the first survey reveals a lack of input from a particular sector, purposeful sampling will
students for successful careers inengineering by developing essential soft skills. This paper reports the approach taken to improvean engineering course by incorporating a PD component. This is a 3-credit first-year engineeringfoundations laboratory course, which focuses on the fundamentals of design processes. In its firstiteration, over 500 first-year students performed three sequential assignments to complete themodule. These students methodically engaged in a career readiness process within a program thatdocuments achievement while promoting their academic growth. The intent is to presentprofessional contexts as part of their undergraduate experience.The PD module in this course is initiated by students’ automatic enrollment in the
histogrambuilt on a large set of outcome data at one specific instant. Applications include the studies ofelectrical circuit noise [7], electrochemical noise [8], Langevin dynamics and free energyrelationship in biological systems [9], etc. During lockdown, laboratory generated noise orfluctuation experiments would be difficult. Thus, the use of online fluctuation data for Fokker-Planck equation application studies would be acceptable. A large set of outcome data usuallywould display a Gaussian- like distribution. A Fokker-Planck approach in tracking the timeevolution of the distribution could be applied. In mathematics, the Ornstein–Uhlenbeckstochastic process could be captured by the Fokker-Planck equation in terms of the underlyingprobability density
for civil engineering technology while others do not.One state describes civil engineering technologist duties as, “…may inspect portions of constructionprojects; take part in field survey work…make and check engineering computations; prepare portionsof written reports; assist in the design of highways and buildings including landscaping projects; andconduct complex field and laboratory tests of engineering materials [1].” This agency’s jobdescription goes further to state technologists may supervise technicians working for the agency.Although these persons are not in “responsible charge”, they have a large degree of responsibility andautonomy in performing their duties.Civil Engineering Technologist in IndustryASCE policy statement also
for Engineering Education, 2021 2021 ASEE Midwest Section Conferencewith a project conducted on Air Force Research Laboratory (AFRL) University Design Challengeand it illustrated that the approach enhanced the design functionalities stipulated by the AFRL. Figure 1 Subject matter experts (SME) integrated into the traditional series of steps in engineering design [4] 2. Description of the Program, Capstone Course and SME Integrated Approach The curriculum in mechanical & industrial engineering (MIE) emphasizes design,manufacture, and automation while preparing students for careers in industry and continuededucation. A four-credit engineering design course is designed
the website to the youtube channelsupporting the text and labs (a gift of the covid period). All are open source.Introduction:A request for collaboration on building of inexpensive controls labs occurred six or seven yearsago on the ET list-serve. This request was interesting in that it showed a genuine desire forinstructors in computer, PLC, auto controls and other similar coursework to come together andshare common experiences using less expensive laboratory equipment. It was encouraging tofind others interested in similar goals as myself – that is, inexpensive lab experiences that couldbe used over a number of technically difficult subject areas.Since these labs produce live data, the next step for many of them is the inclusion of the data
UniversityDr. John Joseph Helferty, Temple University Dr . John J. Helferty is an Associate Professor of the Department of Electrical and Computer Engineer- ing. He received his undergraduate degree in Electrical Engineering Technology from Temple University in 1983, his M.S. and Ph.D. in Electrical Engineering from Drexel University in 1984 and 1987, respec- tively. Dr Helferty has received four American Society for Engineering Education Faculty Fellowships, of which two were at the Naval Air Development Center in PA and the other two were at NASA’s Jet Propul- sion Laboratory in Pasadena CA. Currently he is working on NASA funded projects for the design and construction of autonomous mobile robots and rotorcraft that
conducting research on innovative tools for engineering education in the Intelligent Structural Hazards Mitigation Laboratory at SFSU with Prof. Zhaoshuo Jiang, he also serves the community as the President of the American Society of Civil Engineers for the SFSU chapter.Dr. Amelito G Enriquez, Canada College Amelito Enriquez is a professor of Engineering and Mathematics at Ca˜nada College in Redwood City, CA. He received a BS in Geodetic Engineering from the University of the Philippines, his MS in Geode- tic Science from the Ohio State University, and his PhD in Mechanical Engineering from the University of California, Irvine. His research interests include technology-enhanced instruction and increasing the
School, where he was a principal intern. His scientific research focused on the immunology of M. tu- berculosis, the bacterial pathogen that causes tuberculosis. He currently works with undergraduate and graduate researchers to investigate the evolution of microbes, and to improve how undergraduate students learn science at the university. c American Society for Engineering Education, 2017 Exploring Experiences of Graduate Teaching Assistants in Teaching Professional Development GroupsIntroductionMany universities rely on graduate teaching assistants (GTAs) to teach college courses or theircomponents (e.g., laboratories, recitations, seminars). For example, for doctoral
institutionThe Milwaukee School of Engineering offers an accredited Bachelors of Science degree insoftware engineering, and has been accredited since 2002. As an institution, there is a strongemphasis on small class sizes (14:1 student to faculty ratio) and extensive laboratory experience.Students graduating from MSOE spend on average 600 hours in laboratories related to theirmajor. Institutionally, there is more square footage devoted to lab space than lecture hall space.All engineering students are required to complete a three-course capstone experience. Whilemost students on campus are in the engineering fields, the school also offers a nursing program, auser experience program, and several business programs. MSOE prides itself in having very
studentsoverpassed those of students from New York State and the country. We believe that this is apractical course model can be easily replicated by programs with the same interest.I. IntroductionUndergraduate research is a high-impact practice leading to student success, engagement,interest in higher education, and skills development [1] [2]. There are two well-known modelsfor incorporating research experiences in a program: Undergraduate Research Experiences(UREs) and Course-based Undergraduate Research Experiences (CUREs) [3]. UREs representthe apprentice model. They feature individual students in faculty research laboratories andprovide the opportunity for one-on-one mentoring. On the other hand, CUREs are embedded intothe curriculum and are available
Laboratory 11Design Space / Meeting Rooms University of North Carolina Chapel Hill Makerspace 12Design Space / Meeting Rooms The Foundry at Duke University 13Instruction Space• Setup like a open format classroom• Preferably close to the workspace so instruction can happen in both a fontal lecture mode and within the workspace Yale Center for Engineering Innovation and Design 14Layout Example – Yale CEID
mathematics course pathways to improve student success and degree completion. During this time, he oversaw course development and was responsible for developing faculty supports and professional learn- ing opportunities. Dr. Connolly served for ten years as a faculty member in the Mechanical Engineering departments at Penn State University in Erie and The University of Texas at San Antonio, where he was the Principal Investigator for several engineering education research programs under the auspices of the National Science Foundation. These programs focused on remotely accessible collaborative experimen- tation and the merging of theory-based learning and laboratory-course activities using mobile computing technology to