alumni and industrial advisors.The role of IAC was then expanded to include advising the department across all programs,participating in our ABET EC2000 continuous improvement process, and helping organize andexecute other outreach activities. Current members of IAC are from government and small andlarge industries such as the US Army Research Laboratory, GE Aircraft Engines, LucentTechnologies, Corning-Lasertron and Cambridge Applied Systems. These outreach activities define the third and fourth areas of university-industrycollaboration - co-organizing our annual Thermal Manufacturing Workshop and sponsorship ofdesign projects. As part of the outreach activities and in order to involve the local engineeringcommunities, Tufts University
was designed to help students visualize theserelationships and develop a deeper understanding of mass balance principles. The model was usedto separately demonstrate how to measure elevation-storage and stage-discharge relationships.The scale of the model makes it suitable for real-time, in-class demonstrations and experiments.All required equipment fits on a standard laboratory cart, and can be easily transported to theclassroom. A second objective of the model reservoir was to provide a system of sufficient simplicityto allow mathematical modeling. If a step function is used for the inflow hydrograph, and a vesselhaving a regular shape is used for the reservoir (e.g., cylinder), the differential mass balanceequations can be
Page 7.1117.4Conference Travel/Fees $1950 "Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ã 2002, American Society for Engineering Education" Course Material - The course material included a combination of hand-on laboratories used in the Mechanical Engineering Technology program at OIT, workshops on space related technology, brainstorming sessions with the counselors to arrive at an experimental idea, Logo 7 robotic exercises, and a field trip to a nearby military air base. A schedule of activities that the high school students followed throughout the week is given in Table 4 below. Table 4. Technology Space Camp activity schedule.Time
inextensive hands-on learning in numerous shoreside laboratories, but much of the experientiallearning required to develop students into competent officers in a ship’s engine department iscompleted on the Training Ship State of Maine (TSSOM), shown in Fig. 1 on the next page.Various ships have supported student learning at MMA since the beginning: the currentTSSOM is a former U.S. Naval Ship, now owned by the US Maritime Administration andoperated by MMA since 1997. It is approximately 500 feet long, displaces over 16,000 tons,and is propelled by an 8,000-horsepower diesel engine [3].Students in the MET program are required to cruise on the ship in the summers after theirfreshman and junior years. Faculty in MMA’s Engineering Department, many of whom
it in mechanics. The goal wasto design the course such that its materials would cater to the strengths and weaknesses of thestudents. The course was first offered in the Fall of 2022 as a technical elective to be taken byengineering students, primarily from the aforementioned majors.Course OverviewStudents were introduced to basic concepts and applications of robotics, including topics onsensors and actuators, kinematics, control systems, localization, and state-of-the-art industrypractices and future directions. The project-based course included laboratory exercises thatallowed students to develop programs and assemblies to work on robotic manipulators andmobile robots. To begin with, students needed to understand and analyze the five
prerequisites are omitted from the training data as outliers. To address the impactof noise in the dataset (e.g., outliers and missing parts), which can significantly impairclassification accuracy and prediction quality, we excluded data older than seven years. Thisdecision considers various evolving factors affecting academic performance, such as curriculumchanges, teaching methodologies, policy shifts, and extraordinary circumstances like theCOVID-19 pandemic. Aberrations in student records, like unexpectedly low grades from studentswith otherwise high prerequisite GPAs, are considered noise. These anomalies, possibly due topersonal or medical reasons, are treated as outliers for data integrity.3.3 Feature EngineeringGiven the differences among
teaching resource for materials science and engineering," in Proceedings of the 28th Annual Conference of the Australasian Association for Engineering Education (AAEE 2017), 2017: School of Engineering, Macquarie University, pp. 1201-1208.[2] T. M. Squires and S. R. Quake, "Microfluidics: Fluid physics at the nanoliter scale," Reviews of Modern Physics, vol. 77, no. 3, pp. 977-1026, 10/06/ 2005, doi: 10.1103/RevModPhys.77.977.[3] D. J. Beebe, G. A. Mensing, and G. M. Walker, "Physics and applications of microfluidics in biology," (in eng), Annu Rev Biomed Eng, vol. 4, pp. 261-86, 2002, doi: 10.1146/annurev.bioeng.4.112601.125916.[4] A. Huebner, S. Sharma, M. Srisa-Art, F. Hollfelder, J. B. Edel
learning assignments, ad the use of technology in the classroom. Boni hopes to pursue a career in academia with a focus on teaching and engineering education.Bettina K ArkhurstStuart Montgomery, Georgia Institute of TechnologyDerek Ashton Nichols, Georgia Institute of TechnologyJennifer Molnar, Georgia Institute of Technology ©American Society for Engineering Education, 2024 Promotion of Graduate Student Well-being via Successful Navigationthrough Conflict Resolution PathwaysDr. Boni Yraguen, Bettina Arkhurst, Derek Nichols, Jennifer Molnar, Dr. Macrae Montgomery 1 Addressing advising and departmental issues can
atherosclerosis, fat build-upcan lead to hardened arteries which is associated with increase in peripheral vascular resistanceand decreased blood velocity as arteries narrow [4]. Microfluidic devices can study effects ofshear stress and resulting elongation of endothelial cells [5]. A single chip can test multipleshearing regimes.Using microfluidics in a teaching environment specifically doing hands on microfluidicsexperiments combined with modeling has a number of advantages. It allows students tocontextualize research level techniques in an approachable learning environment and providestudents with useful experimental and computational skills.For this experiment, a microfluidic vascular model was designed to model the vascular systemrepresenting
andmore complex waveforms and the effects of varying amplitude and frequency. They are thenintroduced to the concepts of harmonics, additive synthesis, and Fourier series representation ofperiodic signals. This activity provides a solid foundation necessary for the spectral analysisperformed in the Musical Instrument Acoustics activity. The Introduction To Waves and Soundactivity unfortunately could not be deployed without significant modification outside a universityelectrical engineering laboratory, as it requires access to expensive test equipment not generallyavailable to high schools. Deployed with the greater constraints of a GK-12 module, theinstructors were forced to provide only a surface-level introduction to these concepts.Additionally
). Before joining MSU Mankato, Dr. Kim was a Visiting Assistant Professor in the School of Engineering at Purdue University, teaching courses in the thermal fluid sciences, and conducting research in nanotechnol- ogy. His research expertise and interests lie in the controlled synthesis of CNTs for thermal and biological applications. While at Purdue, he was actively involved in research sponsored by DARPA (Defense Ad- vanced Research Projects Agency) in the development of carbon nanotube (CNT) enhanced wicks for vapor chambers (Thermal Ground Plane Program), and in enhancement of thermal interfaces using CNTs (Nano Thermal Interface Program). Currently, his research activities are concentrated in the area of engineering
Paper ID #7783Software and System Engineering Education: Commonalities and Differ-encesDr. Massood Towhidnejad, Embry-Riddle Aeronautical Univ., Daytona Beach Massood Towhidnejad is the director of NExtGeneration Applied Research Laboratory (NEAR), and a tenure full professor of software engineering in the department of Electrical, Computer, Software and System Engineering at Embry-Riddle Aeronautical University. His research and teaching interests include autonomous systems, and software and systems engineering with emphasis on software quality assurance and testing.Dr. Thomas B Hilburn, Embry-Riddle Aeronautical Univ
social group (e.g., gender or race) in the academic environment canraise concerns among women and minorities that poor performance may appear stereotype-confirming to others27, 6, 7. The isolation that these students feel on their teams may lead to alower feeling of belonging in their field and lower retention among these individuals8. Theseprocesses have been examined in social science research in the areas of stereotype threat, genderdifferences in small group dynamics, and active learning.Stereotype Threat. A large body of social science research has demonstrated that genderstereotypes exist purporting than men have more ability than women in math and science fields,including engineering. Laboratory studies on the topic of stereotype threat
Paper ID #7758Variety of Community Partnerships in Related ProgramsMiss Sarah Marie Brown, Northeastern University Sarah Brown is a Ph.D. student in Electrical Engineering at Northeastern University, Draper Laboratory Fellow and a National Science Foundation Graduate Research Fellow. She completed her B.S. in Elec- trical Engineering at Northeastern University in May 2011. In addition to her studies, Sarah has been an active member of the National Society of Black Engineers, having previously served as a chapter leader at Northeastern’s Black Engineering Student Society and as the National Technical Outreach Community
Paper ID #45305Empowering Electrical Engineers: Project-Based Learning for EnvironmentalSustainabilityDr. Uma Balaji, Fairfield University Dr. Uma Balaji received her Ph. D from University of Victoria, B.C., Canada in Electrical Engineering. She was a Canadian Commonwealth Scholar. She is the Chair of Electrical and Biomedical Engineering Department at the School of Engineering and Computing of the Fairfield University. Her research focused in novel modelling techniques to design components for wireless and satellite application. She was awarded the IEEE Region 1 Award as ’Outstaning Teaching in an IEEE Area of Interest (Pre
aresponse to the velocity of input (in this case the velocity of the ball). Finally, the integral termcan improve steady state response (in this case the final ball position). Commercial laboratory balland beam systems exist but can be prohibitively expensive for large class sizes. However, in recentyears, microcontrollers have become more accessible and easier to use, providing a potentialplatform to create inexpensive ball and beam systems. Examples of ball and beam systems usinginexpensive microcontrollers are available [2]. In this work, one such example was adapted tocreate a classroom experiment to study PID controllers [2]. Control systems courses can be mathand theory heavy. By engaging in this hands-on exploration, students gain insights
depart- ment at Iowa State University, USA and his MBA with emDr. Deify Law Dr. Deify Law is an assistant professor of mechanical engineering department at California State Uni- versity, Fresno. Dr. Law teaches undergraduate and graduate courses in the broad areas of thermo-fluids, transport phenomena, and fluid dynamics. ©American Society for Engineering Education, 2024 A Framework for Multidisciplinary Student Teams Participating in a Large-Scale Design-Build Competition Kim, S., Lin, J., Sullivan, M., Law, D., Omar, T., Salem, Y.AbstractCalifornia State Polytechnic University (Cal Poly Pomona, CPP) was selected as one of the
: h.kumarakuru@northeastern.edu Hari has 18+ years of educational leadership experience amplifying academic and scientific endeavours in the higher education setting that has brought him to four separate continents. He capitalizes on his in-depth competencies in curriculum implementation, instructional delivery, scientific research, technical writing, and student mentoring to provide students with the tools for academic and professional success. Since 2007, he has had the privilege of mentoring numerous undergraduate and master’s students, a pursuit he is most passionate about. He has applied his established teaching skills to a wide range of undergraduate courses in general physics, engineering physics, electronics for
was an NSF ATE Mentor Connect Mentor Fellow in 2022. She is an Emeritus Professor of Engineering and Physics at Bucks County Community College where she was the Principal Investigator of two NSF Advanced Technological Education (ATE) grants, focusing on workforce readiness, and creating pathways from non-credit into credit programs. She also taught at The College of New Jersey (TCNJ) in the School of Engineering for 15 years. With funding from these ATE grants she created two technician education programs, and enhanced the engineering major at her community college. Dr. Delahanty established technical, college level, programs of study for modernized classroom and laboratory including six online course platforms
retention of low-income engineering transfer students.Kameryn DenaroDr. David A. Copp, University of California, Irvine David A. Copp received the B.S. degree in mechanical engineering from the University of Arizona and the M.S. and Ph.D. degrees in mechanical engineering from the University of California, Santa Barbara. He is currently an Assistant Professor of Teaching at the University of California, Irvine in the Department of Mechanical and Aerospace Engineering. Prior to joining UCI, he was a Senior Member of the Technical Staff at Sandia National Laboratories and an adjunct faculty member in Electrical and Computer Engineering at the University of New Mexico. His broad research interests include engineering
tools andtechnologies in first-year engineering courses has proven to be quite beneficial in response to thedemanding requirements of higher-level classes, the engineering profession, and the broadertechnological landscape. This paper aims to highlight the importance of integrating digital toolsand technologies into the curriculum for first-year engineering students. Digital tools such asCAD, simulation and modeling software, virtual laboratories, interactive learning modules,SharePoint, data analysis and visualization tools, and programming environments offer diverseopportunities to enhance the learning experience, engage students, and prepare them for thechallenges of engineering practice, particularly in the higher-level classes. These tools
regional technicians. The firstapproach consisted of a survey sent to 88 advisory board members (n=36 for responses) of 82local representatives to gather input on their organizations' needs of graduates from the St.Petersburg College’s Engineering Technician Department. A meeting in the college'scollaborative laboratories was held to determine the skill needs for the engineering technicianpositions. St. Peterburg College' Workforce Division coordinated the meeting.Stakeholders from local manufacturing companies, workforce support organizations, and St.Petersburg College gathered at SPC’s collaborative labs to discuss an electromechanical workforcetraining program. The manufacturing representatives were presented with industry statistics forhiring
aircraft. The capstone course mini-project experience during this first semester hasbeen initiated to teach students when and how to operate disciplinary design tools thatprepare them for design trade-studies they will encounter in the second semester seniordesign project. The class has been divided into three groups of 14 people and assigned theMesserschmitt Bf 109, Supermarine Spitfire, and the North American P-51 Mustang.This paper is the story of the group that focuses on the North American P-51 Mustang.The engineering team first forms a methodology that parametrically reproduces thedocumented aircraft performance specifications; the simulation results are validated bydirect comparison with historical data found in research; this validation
MechanicalEngineering at WSU and actively involving in teaching, research, and scholarship activities inthe same department. She received her PhD degree from the Department of Industrial andManufacturing Engineering at WSU in May 2013, which was mainly focused on the “Life CycleAnalysis of the Advanced Materials”. Prior to the WSU, she also worked in the EnvironmentalHealth and Safety at WSU and Composite Manufacturing Laboratory at NIAR of WSU.Throughout her studies, she has published 8 journal papers and 23 conference proceedings,authored 8 book chapters, presented 8 presentations, and reviewed several manuscripts ininternational journals and conference proceedings. Dr. Asmatulu is currently conducting researchon “e-waste recycling, water recycling, active
revision and updating of 5 existing courses atCity Tech and HCC. The project will result in i. Developing curriculum for two new multidisciplinary courses “Introduction to Research Management”, and “Special Topics in Remote Sensing”. ii. Updating and revising six courses to incorporate NASA-relevant material (4 courses at City Tech and 2 at HCC); the courses will be detailed in the next section. iii. Acquiring a limited amount of engineering laboratory equipment to support the new course and the revised courses. iv. Overall, improving the quality and content of the offerings at City Tech and HCC.(3.c) To enhance students’ skills in research. The project helps students in developing their
theexisting plug flow activated sludge tanks, and development of an educational poster explaininghow nitrogen is removed in the wastewater treatment process.Informal feedback and assessment data indicate that the service-learning projects have beenextremely helpful in exposing students to professional practice issues in the water quality field,in deepening student understanding of water and wastewater treatment processes, and ininspiring students to use their technical expertise to serve the public. The Civil Engineeringfaculty hopes to expand involvement in service-learning projects in the future.BackgroundService-learning has been defined as “a method of teaching, learning, and reflecting that tiescommunity service with academic learning outcomes
Temple University in19961 and was subsequently expanded in 20012 at Rowan University. A third paper followed at the ASEEAnnual Meeting at Montreal in 2002.3The author has been blessed with many good students that become enthusiastic to undertake newchallenges without routine tests and examinations. The empowerment analogy can be traced back to theideas of Deming. He campaigned for the abolition of fear and the encouragement of the full andparticipative engagement of employees in the industrial workplace. Ray and Yates4 at a Frontiers inEducation Conference in 1995 proposed two ‘philosophies’ for the classroom: “The first philosophy isthat to graduate without a strong knowledge base and the ability to continually ``self-teach'' is of noadvantage
Technology Jacqueline Tawney is a Ph.D. candidate in GALCIT (Graduate Aerospace Laboratories of the California Institute of Technology). Jacque is a National Science Foundation Graduate Research Fellow, a leader within the GALCIT Graduate Student Council, and the founder of Women in GALCIT. In the Kornfield group within Caltech’s Chemical Engineering department, Jacque researches associative polymers, their rheological properties, and their potential for agricultural and industrial applications. She is passionate about creating positive change within her communities and being a compassionate scientist and leader. ©American Society for Engineering Education, 2024 Compassion and Engineering Ethics
laboratory for fabrication of the panels. Bibliography 1. Callister Jr., William D., “Materials Science and Engineering: An Introduction,” 7th edition, John Wiley and Sons, 2007. 2. Schwartz, M.M., “Composite Materials handbook,” McGraw-Hill Inc. New York, 1984. 3. Reihart, T.J. et al., editors, “Engineered Materials Handbook Volume I Composites,” ASM International, Materials Park, OH, 1987. 4. Gdoutos, E.E., Pilakoutas, K. and Rodopoulos, C.A., Editors, “Failure Analysis of Industrial Composite Materials,” McGraw-Hill, 2000. 5. Mallick, P.K., “Fiber-Reinforced Composites: materials, manufacturing, and design,” CRC Press
U.S. National Academies Committee on Maximizing the Potential of Women in Academic Science and Engineering. 2006, National Academies Press, Committee on Maximizing the Potential of Women in 6 Academic Science and Engineering, National Academy of Sciences, National Academy of Engineering, and Institute of Medicine: Washington, DC.[6] Gilmartin, S., et al., Gender ratios in high school science departments: The effect of percent female faculty on multiple dimensions of students' science identities. Journal of Research in Science Teaching, 2007. 44(7): p. 980-1009.[7] Phipps, A., Re-inscribing gender binaries: Deconstructing the dominant discourse