/Agilent Technologies • Hughes Electronics Corporation/The Boeing Company • Northrop Grumman • Johns Hopkins Applied Physics LaboratoryTogether, these agencies have provided well over $2 Million in financial support andequipment/software donations. Funds have been directed toward the purchase of equipment, andthe payment of associates’ tuition, fees and stipends. Following are the key factors that havecontributed to the successful establishment of these relationships:• performing immediate-impact and traditional research and development initiatives,• providing cost-effective contractual services,• providing expeditious technology transfer, and• sharing highly-skilled technical talentIII. COMSARE Recruitment and
. Page 6.15.1 1I. Background InformationSalt Lake Community College (SLCC) is a large metropolitan community college, surroundedby rural communities, with an overall budget of nearly $70,000,000 per year. SLCC consists offour campuses, and five teaching centers, for a total of nine locations within the Salt Lake City,Utah area. There are approximately 12,000 full-time equivalent (FTE) students, and 25,000actual student head count. This number includes approximately 3,200 skill center students.Students attending SLCC take credit courses as well as non-credit courses. Students completeAssociate of Engineering Degrees, Associate of Science Degrees, Associate of Applied ScienceDegrees, diplomas, and
. More effort is needed to raise women’sskills in mathematics, science, and technology if women are to be able to compete.This paper describes a pre-college science and engineering education program conducted everyyear at Penn State Altoona for middle school (7th and 8th grades) girls and their teachers. Theprogram is designed to address each one of the above mentioned skills. The objective of theprogram is to expose middle school girls to careers in science and engineering. In addition toproviding a detailed description of the program, the paper analyzes the outcomes of this program.Recommendations for further improving the effectiveness of the program are also given.I. IntroductionVarious research literature shows that women face numerous
bedifficult for faculty to swallow it all at once. A more flexible approach, now being implemented under NSFsponsorship, includes rewriting the MIT/DMSE Mechanics topics as discrete web-available modules (seehttp://web.mit.edu/course/3/3.11/www/modules.html). This would permit an instructor to use only those portionsshe finds effective for the current term, without being locked into a new book. Such a modular approach might beuseful in many subjects beyond Mechanics or even engineering. Almost no one finds a text perfectly matched totheir particular needs, and this would allow each instructor to tailor-make a text for her own desires. Problems withcopyrights and payments arise, but if the value and demand are there these could certainly be
movement functions would notwork as expected. Often the cause of these incorrect behaviors would remain unseen for days.While the software development group scrutinized the control code for the robot’s main CPU,the electrical systems group would examine Phoenix to determine if the problem was related tohardware. While they did not always uncover problems that pertained to the situation at hand, Page 3.94.3this approach allowed the electrical systems team opportunities to identify potential hardwareproblems. The cooperation between the software development group and the electrical systemsgroup always led to effective and expedient solutions to the
design and implement reform model for undergraduate engineering education To provide tested alternative curricula to improve undergraduate engineering education quality To create exchange and resource linkage among institutions To increase diversity and the number of women and under represented minorities and people with disabilities The coalition’s home page must be specifically indexed for each aspect of undergraduate Page 2.123.1 curricula relevant to areas specific needs Solving the logistic of curricula and need of each state or region and offering of service through Internet and home page. A sound mechanism to
. Improvementsin thermal efficiencies continue to be a driver for research because of the significant impact that increasedefficiencies have on the reduction of CO2. Improvements by one point in efficiency for turbines in the USadds $7 billion of economic benefit and is the CO2 equivalent to removing two million cars from the road[3]. Additionally, the use of gas turbines to replace coal power in the US could result in over a 50% reductionin CO2 output with no loss in generation level or reliability [4], [5]. In addition, it is more critical than everto develop a diverse workforce for this field. The Department of Defense is increasing the requirements ofsuppliers, such as gas turbine manufacturers, to diversify their workforce. As such, our proposal aims
school, this means building engineering into biology, chemistry, and physicsunits. This paper describes an in-progress curriculum design effort funded by the NationalScience Foundation with the goal of building an interdisciplinary, NGSS-aligned unit for highschool physics that features engineering design as one of its fundamental components. Workingaround the phenomenon of space weather affecting satellite function, our collaboration hascreated a new storyline unit that is currently being piloted in 9th grade physics courses. Wedescribe our ongoing partnership, our design commitments that are informing our work, and thedesign of the unit. We then pose questions for discussion and feedback
be performed on the NERMLAB hardware. TheNERMLAB consists of some key hardware pieces, such as, STM32 Nucleo development board,motor driver, and a Brushless DC (BLDC) motor (Figure 1). STM32 Nucleo houses aSTM32F401RE Microprocessor Unit (MPU), which is a 32-bit processor with an 84 MHz clockspeed and up to 512 Kbytes of flash memory. -Nucleo-IHM07M1 (a three-phase brushless DCmotor driver) was selected as motor driver for the NERMLAB. The X-Nucleo has a nominaloperating voltage of 8V-48 VDC with a 2.8 A peak current output. Ipower GBM2804H-100TBrushless Gimbal is used as the primary motor. An on-axis magnetic hall-effect position sensoris used to do position feedback. The encoder consists of 14-bit on-axis magnetic rotary positionsensor
Page 17.7.15A QUALITATIVE ANALYSIS Page 17.7.16 ASYMMETRIES IN OUR TECHNICAL EDUCATION SYSTEM ] Asymmetry ] Disparity ] Divide ] Imbalances ] Diversity ] InequitiesCHARACTERISTIC A B Geographical Regions with high density of Regions with low density of Institutions Institutions (SR, SWR, WR) (ER, NER) Disciplines IT - related courses Conventional courses Level Degree
Paper ID #14324Teaching Creative Problem SolvingLaura Lee Lang NBCT, Sauk Prairie High School Laura Lang is a National Board Certified Teacher who began her career as a chemical engineer at Dow Chemical Company. She has used this valuable experience to teach and model engineering practices while problem solving or during labs with her physics students at Sauk Prairie High School where she has taught for the past 30 years. She is also currently teaching a University Physics course at Madison College. Page 18.28.1
a B.S. from Tuskegee University and a M.S. from Michigan State University, both inMechanical Engineering. His research interest is exploring formal and informal K-12engineering education learning contexts. Specifically, he is interested in how the engineeringdesign process can be used to emphasize the humanistic side of engineering and investigatinghow engineering habits of mind can enhance pre-college students’ learning abilities.2) Aran W. Glancy is a Ph.D. candidate in STEM education with an emphasis in mathematicseducation at the University of Minnesota. He is a former high school physics and mathematicsteacher and has also taught courses in mathematics for computer science. Aran’s researchinterests include STEM integration at the
, partially thanks to their familiarity with Visual Studio and .Netenvironment, which is the same tool/environment as their fundamental programming classes.Challenges exist, including the F# language’s syntax, FP paradigm thinking, number ofexercises, etc.We found comparisons between different paradigms, OOP vs. FP in our case, to be effective inhelping students learn new paradigms. Comparison can happen at all levels, such as at thestatement level, module level, and project level.Our class concluded the discussion of FP by completing a project using F# (learn by doing), andstudents presented an improved understanding of FP afterward.SummaryWe present our experience of teaching F# as a functional programming language toundergraduate students. The
AbstractSmart manufacturing technologies improve the productivity, efficiency, and competitiveness forU.S. industries. Key enabling technologies in smart manufacturing are to 1) acquire real-timeheterogeneous data from IoTs, sensors, and machines tools, and 2) make decisions from the datausing analytics. This Maker project discusses the development of a prototype Application softwarefor a 3D printer based on MTConnect protocol. This Application is able to collect, visualize, andstore data from additive manufacturing processes. This project aims to train students about 1)MTConnnect on Adapter, Agent, and Application development, 2) additive manufacturing, 3)database, and 5) communication protocols, for manufacturing operations. The results
Paper ID #48258BOARD # 417: NSF S-STEM: Tracking Sense of Belonging and Grit AmongLimited Income Students in STEMDr. Maxine Fontaine, Stevens Institute of Technology (School of Engineering and Science) Maxine Fontaine is a Teaching Associate Professor in Mechanical Engineering at Stevens Institute of Technology. She received her Ph.D. in 2010 from Aalborg University in Aalborg, Denmark. Maxine has a background in the biomechanics of human movement, and she currently teaches several undergraduate courses in engineering mechanics. Her research interests are focused on improving engineering pedagogy and increasing diversity in
thesecontextual experiences into their formal education. In essence, the AI would function as an on-demand educator for construction engineering. Specifically, the primary objective of this projectis to design, develop, and evaluate an AI-powered learning platform that uses an innovativehybrid image-audio signal processing system to help students learn from their informalobservations and link them to their related course materials. Figure 1: Examples of construction projects visible from public areasProposed InterventionThe proposed learning system, named CeLens (Construction Engineering Lens), will beimplemented as a mobile application (Figure 2). Developed with a human-centered approach, theCeLens platform utilizes hybrid image-audio
demographic data. The next set ofquestions focuses on challenge-focused and potential-focused student encouragement modeledafter the AES and FES. The final set of questions focuses on the engineering climate and howfaculty members perceive how other faculty in their engineering department encourage URMstudents.Next StepsThe next phase is to pilot the FEBS instrument and evaluate its effectiveness in measuringfaculty perceptions. Once complete, data analysis will include validity and reliability of theinstrument and provide data on faculty use, knowledge, and comfort in providing encouragementto students.Significance and ImplicationsThere are several areas within faculty professional development where this study can highlightopportunities to improve
optimization and improvement, this mouse pad can be transformedinto a product that is ready to be commercially produced and distributed. We believe that thisproduct and others like it have the potential to generate a substantial amount of renewable energy!References [1] B. Maheswaran, "Teaching an Accelerated Course via Team Activities: Assessment and Peer Rating of the Team Impact". 2016 ASEE Annual Conference & Exposition, New Orleans, Louisiana, 2016, June. ASEE Conferences, 2016. https://peer.asee.org/26015 [2] B. Maheswaran, C. S. Stransky, and H. Kumarakuru, "Innovative Energy Elevator: a Physics and Engineering Wonder!". 2018 ASEE Annual Conference & Exposition, Salt Lake City, Utah, 2018, June
control systems (integration and testing) and the reliability and maintainability of complex systems. He has been selected as both a NASA and an ONR Faculty Fellow. He regularly teaches courses in Ma- rine Engineering and in Maintained Systems. Most recently Dr. Dean was on the Headquarters Staff the American Society of Naval Engineers. He received his Ph.D. from the Department of Engineering Management and Systems Engineering, and a B.S. in Nuclear Engineering Technology, from the Batten College of Engineering and Technology at Old Dominion University. Additionally, Dr. Dean received an MBA from the College of William and Mary. Prior to is academic career Dr. Dean was Director of Operations and Business Development
students via handheld transmitters, displaying theresponses with a computer projector, and then discussing responses.4,5 Audience responsesystems have been used for several years to improve learning and student participation inuniversity classes. Initial studies showing the effectiveness of audience response systems werereported in the late 1990s and a number of publications have appeared since then. A review ofthe literature about audience response systems is provided by Fies and Marshall.6Much of the research on audience response systems has been conducted in science classes.Reported use in engineering classes has been limited to mechanics classes with similar content tophysics classes (e.g. statics and dynamics). In an introductory dynamics
locations. However, the cost of the method multipliesquickly with the number of stations. More recently, mobile sensor platforms, such asRemotely Operated Vehicles (ROVs) and Autonomous Underwater Vehicles (AUVs), aredeveloped to provide a flexible method of data acquisition. Nevertheless, thesetechnologies can be very expensive, require a fulltime shipboard or land-based operator(ROVs), and often are not capable of real time data transmission (AUVs) 3. Moreover,although some ROVs and AUVs have been deployed in various missions (e.g.,REMUS6), difficulties arise for vehicles in shallow water and complex terrain2, 4. Therefore, there is a need to advance the aforementioned approaches and to provide arobust, cost-effective and flexible solution for
Page 9.536.2have been historically underrepresented (such as minorities and women). Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering EducationPrE-IOP is based on the assumption that effective science/pre-engineering secondary schoolcurricula (and effective teacher training), coupled with better understanding of the professionwould eventually lead to significant increases in engineering enrollment. Hence, thiscomprehensive program has two major components: the Instructional component and theOutreach component.The Instructional component, under the auspices of an Education and Training Institute, includes
werestudied and researched by political, environmental and medical science students in a Japaneseuniversity and the application development was entrusted to Indian engineering students. Themain contribution of this paper is in describing the design of this experiment and analyzing itsresult.The next section establishes the motivation behind the experiment which is elaborated in thesubsequent section. The paper then presents and analyses feedback of all the participants andends with concluding remarks.BackgroundThe Accreditation Board for Engineering and Technology of the Unites States (ABET) hasidentified criteria required of good engineers that includes ability to function on multi-disciplinary teams, ability to communicate effectively and the broad
AC 2011-2545: MASTER APPRENTICE: IS THIS A WORKING MODELFOR ENGINEERING SCHOOLS?Mani Mina, Iowa State UniversityEugene Rutz, University of Cincinnati Eugene Rutz, M.S., P.E., is an Academic Director in the College of Engineering & Applied Science at the University of Cincinnati. He manages the college’s dual degree programs and outreach programs with local high schools. Industry experience includes mechanical design engineering, the nuclear power industry and radiological engineering. Eugene also teaches courses for the college using distance learning and instructional technologies.Iraj Omidvar Page
first VRML simulations (Êregardingsafety glassesÊ) were developed. During the fall of 1998, a group of four students developed twonew VRML simulations (Êforbidding food and drink and requiring clear aisle ways in the labÊ) aspart of a virtual reality class project. A proposal was also submitted to the National ScienceFoundation (Êunder the Course, Curriculum, and Laboratory Improvement program of theDivision of Undergraduate EducationÊ) during that time, in order to continue this work as afunded project. Current activities (Êwinter 1999Ê) involve the integration of existing componentsinto a cohesive whole, and the conversion of one or more of the VRML programs into binaryexecutable format. Work is also progressing to develop a set of tools
development in aerospace engineering.Using a train-the-trainer mentorship model, graduate mentors are equipped to train peers andlead development activities, fostering a scalable and self-sustaining network that supports studentengagement and success in STEM fields.With support from National Science Foundation (NSF) grants, BP-AE expanded to fiveadditional institutions and provided summer research opportunities through the TransformationalTechnologies for Next Generation Aerospace Systems Research Experience for Undergraduates(TT-AE REU) program. Collaborations with universities and industry partners enhancedprogram sustainability and impact. External evaluations confirmed increased STEM engagementand retention, showcasing BP-AE’s effectiveness in
;Medicine (STEMM) disciplines are impacted by structural and cultural challenges aroundmarginalization, discrimination, tokenism, isolation, and imposter syndrome [1], [7]. Mentoringis one approach shown to mitigate the sensations of these experiences and improve overallstudent retention and satisfaction within programs [8], [9]. As a result, the purpose of this studyis to explore mentoring experiences and approaches in the engineering and computing college ata Minority Serving Institution (MSI) and to investigate the effect of mentorship on groups ofstudents from various identities. Characterizing the effect mentorship has within the graduatestudent population at this institution can serve as an example for other programs and institutionsto
strategies being developed are broadly applicablewe will just present one instance, with the civil engineering cartridge, of the identification ofmisconceptions and experimental design for assessing the impact of the DLM on learning. Theassessment includes a pre- and post-test assessment to determine improvement in understandingbasic concepts and persistence and/or repair of misconceptions. Concrete Experience IntroductionHands on teaching methods have a long historyof use in science and engineering. Usually this is Active Experimentation Reflective Observationseen in the form of laboratory classes that eitheraccompany a lecture course to reinforce con-cepts and teach research skills
process of gendering,classing, and racialization (i.e., process of differentiation) for Black women from the Caribbeanin entrepreneurship. Knight [32] discovered that many forms of oppression against Black womenhave influenced their entrepreneurial participation from unfair wages/tasks, primary childcareresponsibilities, obtaining loans, access to mentors, to the perception of Black women in society.Ultimately, these studies suggest that to improve diversity, equity, and inclusion (DEI) in STEMentrepreneurship through education, policy, and access for minoritized populations, it is criticalthat intersectional approaches are used to explore their unique challenges and barriers.To make a more effective impact on the economy, literature suggests
the Americas is to build engineering capacity, based onquality education that creates workforce capabilities for the solution of local needs and thatopens the way for the Americas to more effectively compete in today‘s global economy.EftA VisionEngineering for the Americas will provide global leadership and achieve economic impactthrough development of the hemisphere‘s engineers. A revitalized, holistic and multidimensionalengineering experience that is recognized as meaningful and portable that will enable thehemisphere‘s engineers to develop relevant skills and to excel in facing the challenges of thetwenty-first century.EftA MissionEftA seeks to build capacity of engineering talent in the Americas and to improve regionalinnovative capacity