Paper ID #18768IR Sensing Integrated with a Single Board Computer for Development andDemonstration of Autonomous Vehicle FollowingDr. H. Bryan Riley, Ohio University Dr. H. Bryan Riley, who joined Ohio University in 2010, has taught courses in signal processing, electrical communication systems, EE capstone design, electric machines, adaptive signal processing, and hybrid and electric vehicles. Riley, who spent his early career in the automotive industry, has managed multi- disciplined and global engineering teams responsible for introducing advanced electronic features on production passenger vehicles such as
Beta Pi. His research on passive radon-resistant new residential building construction was adapted in HB1647 building code of Florida Legislature. Najafi is a member of numerous professional societies and has served on many committees and programs, and continuously attends and presents refereed papers at international, national, and local professional meetings and conferences. Lastly, Najafi attends courses, seminars and workshops, and has developed courses, videos and software packages during his career. His areas of specialization include transportation planning and management, legal aspects, construction contract administration, and public works.Miss Sarah Rajkumari Jayasekaran
demonstrated how knowledge will generalize whenit is taught in multiple contexts [3,9]. This lead to the premise that exposing students to basic constructsof programming across multiple programming languages could lead to an increase in their abilities andconfidence to engage in complex problem solving contexts involving computational modeling. Thispremise lead to identifying two to three programming languages to develop students’ programming skillsinvolving interesting engineering contexts to support learning and interest in engineering as a career. Python was selected as the first programming language for students for several reasons. First,Python can be used for a wide range of applications including numerical modeling, database
Paper ID #17745A Pharmacokinetic Simulation-Based Module to Introduce Mass Balancesand Chemical Engineering Design Concepts to Engineering FreshmenGrace Katherine Harrell, Oklahoma State University Graduate of Oklahoma State University class of 2016 with a degree in chemical engineering. Currently pursuing a career in software engineering at Quorum Business Solutions in Dallas, TX.Ms. Alexandra Nicole McPeak, Oklahoma State University In 2016, Alexandra McPeak earned a B.S. in Chemical Engineering from Oklahoma State University. She is currently employed by International Paper at their Valliant, OK Mill. Her current role is in
accumulate a broad range ofskills.MetricsEngineering design self-efficacy: We previously measured engineering self-concept (self-association with engineering) as a psychological construct, and found that it did not change overthe course of a single semester, and possibly not even over the course of an entire career [16].Thus, in the intervention year we instead measured self-efficacy – self-perceived ability orwillingness to engage in engineering – using the 36-item “Engineering design self-efficacyinstrument” [17] – that is, whether students believe they will be: 1. Able, and 2. Motivated to engage in engineering design tasks, whether they feel they will be 3. Successful in doing so, and how 4. Apprehensive they would be in
Paper ID #17844William and Mary. Prior to is academic career Dr. Dean was Director of Operations and Business De-velopment for Clark-Smith Associates, P.C., and served as an Electrician in the US Navy aboard the USSSouth Carolina and the USS Enterprise. c American Society for Engineering Education, 2017Active Duty Training for Support of Navy’s Additive Manufacturing StrategyAbstract Additive manufacturing has recently gained the attention of multiple stakeholders, includingthose in the advanced manufacturing industry, research and government labs, academia, and theNavy community. Various efforts within the Navy focus on studying the best way for parts to bebuilt and repaired for marine and naval vessels. Rapid
that this project may go on to aid the university, our robotics program, and people inthe autism community has made it more meaningful than other projects we’ve been involvedwith in our regular engineering coursework. Our lab regularly hosts local school groups andprospective student visits, and when we demonstrate our project we invariably receive a positivereaction from the students and their parents. Seeing the robot in action inspires the studentvisitors to consider engineering as a future career path, while the parents appreciate theapplication of our engineering knowledge to address a real-world problem that has no clear-cutsolution. We have been able to see first hand how our engineering work can impact and improvepeople’s lives in a
country. Faculty from both universities collaborated to develop the prompts outlined inTable 1. The faculty discussed what the students at both universities were covering or hadalready covered at that point in the termTable 1Discussion PromptsTopic PromptIntroductions Introduce yourself to the other students. Please mention your major, year, and career goals. Explain what interests you in the areas of green energy and why?Green Energy Systems Do you see any potential implementation of green
class.In order to underscore the explicit connections between spatial skills and other undergraduateengineering courses, careers and industries, a team based research project was introduced in Fall2016. The reasoning behind this addition was to encourage students to look more deeply at someclass, field, or hobby they were interested in, and explore the connections between that topic andspatial thinking. The students then report their findings to their classmates in the form of a finalteam project presentation. Less formally, the hope was that students who had this deeperunderstanding of the benefits of spatial skills instruction would then become ambassadors toother students, encouraging them to take the class to better prepare them for
-Capacitor (RLC) circuit to the standard 2nd order system transfer function incontrol course. This laboratory also teaches students about an application of standard 2nd ordertransfer function that they would see in their career. Students determine the 2nd order modelingfor a linear time invariant system. They exercise how the location of poles can be changed basedon the variation of damping ratio and natural frequency parameters. These responses illustrate asover damped, under damped, undamped, and critically damped. They learn about the impact ofdamping ratio and natural frequency responses on the step and the frequency responseperformances. In the second part of this laboratory students estimate the system parameters froma given time domain
, and are more pragmatic in their attack of the problems. They’re very academically competitive…and they wanted to know more just so they could demonstrate their knowledge and show other students what they had learned on their own before they came to class. - I feel like my groups as a whole showed more interest in STEM, and they liked seeing the application of their knowledge to specific careers. As a whole, I noticed that more introverted students had a voice, and they were more involved in the project than they had been in the past.Also as indicated by the surveys, 89% of the participating teachers would recommend ourtraining on Scratch programming to other teachers, the remaining 11% were neutral, and none ofthe
- neering and management positions during a 15 year career in the automotive industry.Ms. Mary Fraley, Michigan Technological University Mary Fraley is a Sr. Lecturer in the Department of Engineering Fundamentals at Michigan Technological University. Her research interests include online/blended learning methods, entrepreneurial mindset, and applying LEAN to the process of teaching and learning.Ms. Amber Kemppainen, Michigan Technological University Ms. Kemppainen is a Senior Lecturer in the Department of Engineering Fundamentals. Her research inter- ests include the improvement of STEM education, mental toughness, growth mindset, and online/blended learning methods. c American Society for
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 for Clark-Smith Associates, P.C., and served as an Electrician in the US Navy
conceptualizes these scientificand engineering practices as overlapping but distinct. Knowledge of both domains, it is argued, will helpstudents to become critical consumers of scientific information, to understand the impact of scientists’ andengineers’ work on daily life and how this work addresses major societal challenges (e.g., treating ofdiseases, addressing climate change or generating sufficient and affordable energy), and lead them toconsider a career in a STEM field. This new focus on scientific practices accompanies a call for more sustained emphasis on inquiryand engineering design activities, particularly as part of a constructivist science curriculum centered oncollaborative activities done in small groups. While the structure of the
andengineering. One study explored the relationship between mindfulness and innovation inengineering and found that dispositional mindfulness significantly correlated with innovationself-efficacy among students (Rieken et al, 2017). This study defined innovation self-efficacy asone’s confidence in their ability to innovate. There was another study that demonstratedmindfulness correlated with business skills self-efficacy (i.e. students’ confidence in performingbusiness skills) and the intent to pursue a career in a start-up or entrepreneurship (Rieken, Schar,and Sheppard, 2016). The purpose of this study is to evaluate whether engineering studentswould be receptive to potentially integrating contemplative practices such as mindfulnessmeditation to
learning objectives in this class. The students also witnessed that“Throughout this project I learned hands on design development skills. This project has showedme the importance of communication, scheduling, team work, and an understanding of the researchprogress. This was a great hands-on experience in addition to class in general. I will carry theseskills through the rest of my collegiate and professional career” [1]. Table 5 Student Indirect Assessment Survey Results COURSE OBJECTIVES STRONGLY AGREE DISAGREE STRONGLY AGREE DISAGREE 1 The ability to apply the knowledge and 3 tools learned in the undergraduate
the new course as described below. Figure 1 illustrates the presentationof a portion of the topics as organized in the Blackboard learning management system used byUC. Each thematic area extended over several weeks.Teams - students work in teams multiple times throughout their academic career, most notablyduring senior design. Focusing on teams in this course provides the opportunity to reinforce theimportance and further develop students’ skill in this area. General team processes anddynamics [8], [9] are covered to make connections with students’ prior learning and experiences.Material that deepens students’ knowledge of teams [10] and provides content specific to globalteams and virtual teams is also introduced [11]. Personality types and
Board (EAB) Faculty Resources Committee (FRC). The mission of the EAB FRC is ”to promote the continued evo- lution of engineering education and the career enhancement of Engineering, Computing and Technology (ECT) faculty through quality programs/products/services designed to advance innovation in educating engineers”. She is an Associated Editor in IEEE Transactions on Education. She collaborates regularly with many technical universities in Europe, Latin America and USA. Her research interests include math- ematical modeling, system dynamics, control theory, and educational methods in automation, robotics, and in engineering in general. c American Society for Engineering Education, 2018
, including a link between these experiences and the career trajectories of fe- male scientists. She continues to perform research on issues of inclusion, identity, and diversity in science c American Society for Engineering Education, 2018 Paper ID #22654 through collaborations with GAMES, the Committee for the Status of Women in Astronomy, and other organizations.Prof. Princess Imoukhuede, University of Illinois at Urbana Champaign Dr. Princess Imoukhuede is an Assistant Professor of Bioengineering at the University of Illinois at Ur- bana Champaign. She received her S.B. in Chemical Engineering with a
it utilizes a simple physical problem with an existinganalytical solution. Engineering software that is widely used in mechanical engineering practiceis used for performing three-dimensional simulations. Students learn to use such software tomake design decisions throughout their coursework and future career. At this stage, first-yearstudents learn to generate engineering plots, create three-dimensional models, and runsimulations during the activity.The activity is implemented in classes of 48 students and other classes of over 200 students. Theactivity is scalable and can be easily applied in any mechanical engineering first-year class. It isfound to have no limitations based on the class size as long as computers are available with
Paper ID #23165Is It Worth It? Implementation of Electronic Lab Notebook Software Amongthe STEM Community at an American University in the UAEMrs. Amani Magid, New York University, Abu Dhabi Amani Magid has a degree in Integrative Biology and a minor in Arabic from University of California, Berkeley. In her career as a scientist, she has worked as a researcher in Pharmaceutical Chemistry and managed biology lab classes at a community college. She soon realized her passion was in finding and locating science information and earned her Masters in Library and Information Science at University of Pittsburgh while interning at
international experiencesthroughout their career. For these reasons, awareness of diversity issues, biases, and generalcross-cultural competence are critical professional skills that are not explicitly addressed in mostengineering curricula. Opportunities to authentically expose our students to experiences thatbuild awareness and cross-cultural competence is limited by the diversity (or lack thereof) of ourown classrooms and campuses. Students in classrooms that happen to be less diverse may thusexperience an unintentional impediment to professional development as they prepare for “thereal world.”Technical and professional communication (TPC) is one essential professional skill that is, inmany ways, intertwined with diversity. Organizational demography
Paper ID #23695Just the Flippin’ FAQsDr. Julie L. P. Jessop, University of Iowa Dr. Julie L. P. Jessop is an Associate Professor of Chemical & Biochemical Engineering at the University of Iowa. She received her B.S. in 1994 and her Ph.D. in 1999, both in Chemical Engineering from Michi- gan State University. Dr. Jessop’s research interests include spectroscopy, epoxide/acrylate photopoly- merizations, dental resins, electron-beam polymerizations, and polymers from renewable resources. She has received a National Science Foundation CAREER award, the 2017 University of Iowa President & Provost Award for
there is little deep interdisciplinary work or considerations. Thismay be due to the lack of communication between professors from different departments andlack of students taking courses outside of their department.” Student Band:One faculty proffered a practical issue, which should be explored further, by acknowledgingthat “… better solutions are made in multidisciplinary teams in real life, however, studentsmay learn slower when surrounded by students from different disciplines.” Faculty EStudents who volunteered to join in multidisciplinary projects were motivated to do sobecause:“Applicability/ employability/ research potential.” Student Dand:“Learning new skills that I might use in my future career.” Student EOther students
redundant array of independent disks (RAID) controllers. His research interests include engineering education, robotics, and literate programming.Ms. Jane N. Moorhead, Mississippi State University Jane received her B.S. in Electrical Engineering from North Carolina State University. Her career has been all about hardware and software development; with NASA she designed cut-down systems for weather balloons and telemetry systems. Working for IBM, she designing modems and routers and had the op- portunity to work at IBM Research Yorktown Heights on the first large-scale voice recognition system. Moving to Mississippi, Jane took a job at Mississippi State University teaching courses in Digital Design using FPGAs
from Pennsylvania State University (PSU) in 2010 and 2012, respectively. Dr. Ashour was the inaugural re- cipient of William and Wendy Korb Early Career Professorship in Industrial Engineering in 2016. Dr. Ashour’s research areas include applied decision making, modeling and simulation, and process improve- ment. He contributed to research directed to improve engineering education. c American Society for Engineering Education, 2018Mastery Learning and Assessment Approach in Operations Research CourseIntroductionStudents’ learning is the ultimate goal that instructors aim to achieve. The learning process isinfluenced by the teaching and assessment styles that teachers use. Teachers provide
paper describes recent development of a hands-on, laboratory exercise in a Thermo-fluidscourse. The benefits of using real world equipment for the lab provide curiosity among studentsand enthusiasm among faculty. As students were able to measure physical parameters on a realworld device, they began to see utility in their lab experience. This drives student engagement, asthey become invested in the lab, and the open-ended nature of the problem promotes the idea thatstudents must continually strive to update their skills throughout their careers. The short term goalsare to evaluate existing coursework and integrate more applications and labs that could make animpact on the students’ learning. There are many opportunities to improve the course
approximately half of students are first-time students and half are second-time students. • Experiments are categorized into three “focus areas”: Classical, Environmental, and Biological. Students complete a survey to identify their focus area preference based on their career interests. • Students are surveyed to identify other students with whom they prefer not to be grouped (based on past group work experiences or personal conflicts) and dates when they would prefer not to attend lab (e.g. due to job interviews or other personal commitments).A note on team assignment criteriaThe development of strategies for team assignment that maximize the performance and learningexperience of engineering students is an active area of
Paper ID #25939Board 104: Academic Pathways of Black Men and Women in Electrical andMechanical EngineeringDr. Marisa K. Orr, Clemson University Marisa K. Orr is an Assistant Professor in Engineering and Science Education with a joint appointment in the Department of Mechanical Engineering at Clemson University. Her research interests include student persistence and pathways in engineering, gender equity, diversity, and academic policy. Dr. Orr is a recipient of the NSF CAREER Award for her research entitled, ”Empowering Students to be Adaptive Decision-Makers.”Dr. Catherine Mobley, Clemson University Catherine Mobley
, nanophotonics, and optical/wireless networking systems. He has designed several models of high frequency oscilloscopes and other electronic test and measuring instruments as an entrepreneur. He has delivered invited short courses in Penang, Malaysia and Singapore. He is also the author of a textbook in power electronics, published by Prentice-Hall, Inc. His professional career is equally divided in academia and industry. He has authored several research papers in IEEE journals and conferences. His current research is focused on renewable energy technology, smart energy grid.Prof. Omer Farook, Purdue University Northwest Omer Farook is a member of the faculty of Electrical and Computer Engineering Technology at Purdue