incolleges of arts and science, they are not as much embedded into engineering curriculum17.Examples of engineering writing assignments can include tasks related to a job search, journals,or instructions for some simple projects such as paper airplanes18.Writing across the Electrical Engineering Technology CurriculumThe Electrical Engineering Technology curriculum at Old Dominion University includes severalrequired writing courses, such as English Composition and Engineering Technology InformationLiteracy/Research in freshman year, followed in sophomore year by English Composition coursethat culminates with the preparation of a fully-documented research paper. In upper divisionyears Electrical Power and Machinery Laboratory for example is a writing
projects.Systems engineering program assessment includes assessment of student outcomes that mirrorthe ABET a-k outcomes. These outcomes are assessed in the system engineering core courses(see Appendix: Table 1). The achievement of each of the 11 SYEN student outcomes (SOs) is tobe demonstrated by a primary core course and often by one supporting course. The assessment ofeach SO is based on quantitative performance measures that directly assess the SO. Assessmentmethodology is based on the student work, such as assignments, exams, projects, presentations,laboratory experiments, etc. Samples of student work supporting assessment of SOs are retainedand placed in the course binders maintained in the department office.The student outcomes are assessed as per
Surrey since 2014. Incidentally, the ArchiVision Company from Iranassisted the design of the structural components of this full-scale teaching kit and the tubularelements were manufactured in the University Workshops. Each group of students has todesign a configuration using (all or part of) the available structural components and check thepracticality of their design in the laboratory, Figure 4. To facilitate the design process, a set ofmagnetic bars together with steel balls are available for making small scale models. Also, thefull-scale structural components are available to the students for assembling the structure, orparts of it, in the lab. This would give them confidence about the practicality of the design.After the group meeting in the
, research experiences with faculty and outside laboratories, professionaldevelopment activities, academic support, social integration, and mentoring.15 As adult learnersmake up an increasing portion of enrollment at universities, understanding how to increase theperformance and retention of this subpopulation is a significant issue facing institutions of highereducation. Research on student retention has started to address the unique characteristics andchallenges of adult learners, but there are still open questions about the effectiveness of programproposals.14, 16 There has been significant research related to retention of other minority groups,which may be instructive to future research and program proposals to address adult learnerretention.15
University of Minnesota Duluth faculty, he spent four years at the Natural Resources Research Institute as a Research Fellow in the Center for Water and the Environment engaged in computational toxicology research. His current research interests include inquiry-based laboratory activities and the flipped classroom.Dr. Joshua W. Hamilton, University of Minnesota DuluthProf. Elizabeth M. Hill, University of Minnesota Duluth Dr. Hill is focused on active learning teaching methods and research for engineering education. After receiving her Ph.D. from the Georgia Institute of Technology, Dr. Hill spent several years working on polymer processing research and advanced materials manufacturing. She has an extensive background in
first part, the model development, students are guided (usuallythrough carefully crafted laboratory experiences) to develop concepts and gain familiarity withthe associated representations for those concepts. The students become accustomed to referringto their laboratory data as the authority on scientific relationships. In the deployment phase thatfollows, students apply the model to a variety of situations and test the limits of the model, oftenthrough problem solving and sometimes via lab practica. Incorporating engineering applicationsin the deployment provides the ideal structure for seeing the relationship between fundamentalscientific understanding and well-planned engineering.The Ohio State University has offered a series of Modeling
laboratory settings.The multi-disciplinary nature of ergonomics and its broad application in many domains (e.g.,transportation, manufacturing, aviation, medicine, product design, software development) meansthat potential course topics are numerous and therefore the instructor usually has much latitude indesigning course coverage and types of assignments.In practice, the broad range of topics within ergonomics can be included in a variety of IEundergraduate courses. Typical course names include Ergonomics, Human Factors, MethodsEngineering, Safety Engineering, Cognitive Engineering and Work Design, among others.6 In a2015 review of the 94 ABET accredited IE programs, Jane Fraser7 states that 90% of thoseprograms require work methods, human factors or
, the heat transfercourse is taught in the junior year over a 10-week quarter with three 65-minute classes and a 90-minute laboratory session per week.In 2015, heat transfer was taught in an Inverted Classroom (IC). IC promotes students’ self-directed learning in fundamental heat transfer principles using online videos, quizzes, andinteractive problems outside of class time. Class time was used, in part, for mini-lectures,demonstrations, questions/answer sessions to correct student misconceptions, and exams toensure attainment of engineering fundamentals. However, the majority of class time was freedfor students to work on authentic engineering problems (AEP). These problems are key to theinstructional framework. The problems were developed by
includes hands-on re-configurableelectronics laboratories, we will be able to provide students in these programs state-of-the-arttraining tools that match the expectations of industry.FPGAsFPGAs were created approximately 15 years ago by the Xilinx Corporation [3]. Xilinx is still thelargest manufacturer of this technology in the world [4]. FPGAs are not only programmedthrough a traditional schematic fashion, they are also programmed using HDL. HDL is used todescribe the behavior of the circuits that are being created. Although HDLs describe nearly alladvanced circuits, certain circuits can be automatically synthesized, meaning that HDL code canbe rendered from a computer directly into a working design. This is particularly true of“reconfigurable
environment suggesting thatnontraditional students may find active learning more disruptive. This preliminary study suggeststhat using classroom response systems (clickers) in the 1st year curriculum with large class sizesmay lead students to feel that the class was disruptive and that active learning was not as positiveof an experience as active learning environments later in the curriculum.Introduction The President’s Council of Advisors on Science and Technology recommends increasingthe number of STEM students by 34% annually using classroom approaches engaging studentsactively and replacing standard laboratory courses with discovery-based courses1. The number ofSTEM students in higher education is expected to rise over the next decade
Paper ID #16519Research and Instructional Strategies for Engineering RetentionDr. Claudia J Rawn, University of Tennessee, Knoxville Claudia Rawn is an Associate Professor in the Materials Science and Engineering Department at the University of Tennessee, Knoxville. She is also the Director of the Center for Materials Processing. Prior to joining the University of Tennessee full time she was a Senior Research Staff Member in the Materials Science and Technology Division at Oak Ridge National Laboratory and a Joint Faculty Member in the University of Tennessee’s Materials Science and Engineering Department. She received her
as possible. This paper is organized as follows. We initially provide an overview of the SoftwareFactory approach that is used with selected K-12 students. We then provide an overview of thecase study, followed by descriptions of the case study phases –selection, instruction andimplementation. We then describe the outreach component and the legal considerations whenworking with external partners. We conclude with outcomes, address threats to validity, andaddress future improvements to include additional K-12 students.The Software Factory The Software Factory is a pedagogical laboratory under the Software EngineeringLaboratory in the Computer Science (CS) Department at MSU, and is an educational facility forundergraduate
Paper ID #15935An International Study of the Teaching and Learning of Communication:Investigating Changes in Self-Efficacy in Four Undergraduate EngineeringProgramsDr. Lori Breslow, Massachusetts Institute of Technology Lori Breslow is the founding director emeritus of the Teaching & Learning Laboratory (TLL) at the Massachusetts Institute of Technology. An internationally recognized expert in teaching and learning in higher education, she conducts research on the development, diffusion, and assessment of educational innovation, particularly in science and engineering.Dr. Christina Kay White, Massachusetts Institute of
, ourapproach uses small reflective exercises distributed throughout the coop/internship period thatfocus on a set of professional competencies. Students complete Kolb’s cycle using the keyprocess steps of project management as a laboratory of generalization and experimentation withprofessional skills. It was concluded that students accelerated their professional developmentwith periodic reflection and experimentation along with timely assessment and feedback fromthe instructor.IntroductionAn online course was designed to promote professional development for chemical engineeringstudents during cooperative education and internships with industry. The mutual benefits ofindustrial cooperative education and internships for both engineering students and
. WCU FacilitiesManagement division has sought help in designing a project that will accomplish these goals. A10 kW grid-tied PV system has been proposed that will be centrally located on campus. Thesystem will serve as a living, learning laboratory for the campus community. The solar panels forthe system will be mounted on three structures approximately 10 to 14 feet off the ground, whichwill also provide shade and shelter from the elements. Underneath the solar panels will bebenches, tables, electrical outlets, and special hooks for students to hang hammocks. A smallgarden featuring native plant life will be planted around the solar panel structure. Smallinformational signage will be displayed throughout the garden informing visitors about
experience as a bridge construction project engineer for a construction contractor and as a research engineer for the Naval Civil Engineering Laboratory in Port Hueneme California. His teaching interests include construction equipment, cost estimating and construction process design. His research interests include highway and heavy construction methods, road maintenance methods, innovations in construction process administration, engineering education, hybrid learning and online learning. c American Society for Engineering Education, 2016 A Flipped Classroom Approach to Teaching Transportation EngineeringAbstract: The flipped classroom approach has gained increasing popularity in higher
, Curriculum, and Laboratory Improvement (CCLI) program7. The use of theresearch-to-practice cycles, while an encouraging development, has not made a large enoughchange in the ways engineering education researchers think about framing their results for useacross the broad varieties of practices. We posit that the common understanding of the research-to-practice model is one of impeding factors and that resituating the research-to-practice model isa necessary, though not sufficient, step towards transforming engineering education practice. Theobjective of this paper is to examine the limitations of the current research to practice cycle andexpand the conversation to include a broader and more nuanced understanding of whysustainable change in
based on her mentoring of students, especially women and underrepresented minority students, and her research in the areas of recruitment and retention. A SWE Fellow and ASEE Fellow, she is a frequent speaker on career opportunities and diversity in engineering.Dr. Armando A. Rodriguez, Arizona State University Prior to joining the ASU Electrical Engineering faculty in 1990, Dr. Armando A. Rodriguez worked at MIT, IBM, AT&T Bell Laboratories and Raytheon Missile Systems. He has also consulted for Eglin Air Force Base, Boeing Defense and Space Systems, Honeywell and NASA. He has published over 200 tech- nical papers in refereed journals and conference proceedings – over 60 with students. He has authored three
California for about three years. He joined the faculty at the University of Notre Dame in 2001 and moved to The University of Texas at Arlington in 2008. Prof. Bowling’s interests lie in the areas of multibody dynamics, design, and control with a focus in robotic legged locomotion, as well as biomechanics at different time scales.Mr. Ashley Guy Ashley Guy is a doctoral student with the Robotics, Biomechanics, and Dynamic Systems Laboratory at the University of Texas at Arlington. He is currently pursuing his Ph.D. with Dr. Alan Bowling. His research includes micro- and nano-scale dynamics.Frasier Jones, University of Texas, ArlingtonDr. Maria Adamuti-Trache, University of Texas, Arlington c
students developing insect-size mechanisms at SmallMechanism Applications Laboratory (SMAL) at California State University, Sacramento. Ourgroup focuses on a class of millimeter-size mechanisms larger than micro-electro-mechanicalsystems (MEMS) but much smaller than ordinary mechanisms seen in our daily life. Seeing thetechnological trend of electro-mechanical products getting more and more minitualized, webelieve this class size of mechanisms has a wide range of future applications in manufacturing,bioengineering, the military, and many other areas. One of the difficult challenges to buildingthis class size of mechanism is a lack of actuator technologies for miniaturization. Today'scommonly used actuators for industrial automation, such as
Paper ID #15598Engaging Students in STEM Learning through Co-Robotic Hands-On Activ-ities (Evaluation)Saeedeh Ziaeefard, Michigan Technological University Saeedeh Ziaeefard is a PhD student and research assistant with Nonlinear and Autonomous Systems Laboratory (NASLab) in the Department of Mechanical Engineering-Engineering Mechanics at Michigan Technological University. Her research interests include engineering education, control and navigation of autonomous underwater vehicles.Dr. Nina Mahmoudian, Michigan Technological University Dr. Nina Mahmoudian is an assistant professor in the Mechanical Engineering-Engineering
support for events at the Eco Centro for raising awareness of the many possible STEM career opportunities and recruiting students into the STEM fields. Activity 2.2: The program will create a big brother/big sister mentorship between students in the participating institutions and industry or graduate school mentors. Activity 2.3: Texas State will facilitate a day-long tour for the participating students to Texas State labs and facility with STEM-oriented educational and entertainment programs. Activity 2.4: Texas State will provide research assistantship through the financial support to students in the minority institutions.Objective #3: Design and develop a replicable renewable energy laboratory to carry out thetraining and hands
. Verner, I. M., & Ahlgren, D. J. (2004). Conceptualising educational approaches in introductory robotics. International Journal of Electrical Engineering Education, 41 (3), 183–201.4. Yadav, A., Subedi, D., Lundeberg, M. A., & Bunting, C. F. (2004). Problem‐based Learning: Influence on Students' Learning in an Electrical Engineering Course. Journal of Engineering Education, 100 (2), 253- 280.5. Bolanakis, D. E., Glavas, E., & Evangelakis, G. A. (2007). An Integrated Microcontroller-based Tutoring System for a Computer Architecture Laboratory Course. International Journal of Engineering Education, 23 (4), 785-798.6. Castles, R. T., Zephirin, T., Lohani, V. K., & Kachroo, P. (2010). Design and
instructor questions. They prefer to ask other women students.”3.2.3 Lack of practical hands on experience Additionally, the Liberian students describe their engineering education system as lacking in practical activities and laboratories, which they have recognized is far different and inferior to the experiences of their international peers. “Hands on materials, more of the practical material. It will help you more than what we learn in class. We don’t have it here. Teachers tell us about concrete, mortar, have to draw a picture or go on the internet to find other people reports. Stress and strain, trusses, all that from internet. If we had a lab, would not need to go to the internet. It would be my own work if
concern for educational researchers and educators has been finding ways to improve currentlearning techniques to consequently improve students’ conceptual understanding. Examples of suchstrategies consist of including computational and laboratory activities, and components of cyberlearningtools used along with traditional materials.This study explores the use of multiple student-generated and computer-generated representations as afeasible mechanism to improve conceptual understanding of electric circuits 8–10. Thus, the guidingresearch questions are: How effectively do students use multiple representations of electric circuits? Andwhat is the relationship between students’ conceptual understanding of circuits and their performance ona
learning were implemented in a senior capstonedesign class where student learning is assessed. The capstone students are required to identify aneducational need within the mechanical engineering technology program. This need is discussedwith the faculty for the development of a hands-on laboratory instrument that will facilitatelearning in the program. The results from these discussions determine the design requirementsfor the capstone project. These capstone students must also learn the design process that hasmilestones with deliverables associated with a Gantt chart and work breakdown structure. Theymust also develop an instructional lab with a series of questions that helps reinforce the theorytaught in the classroom. And finally, they are
engineering courses could provide an authentic laboratory experience that helpsimprove students’ conceptual understanding of engineering mechanics concepts. Moreover,physical manipulatives are easy to implement, easy to duplicate and distribute,13 and can beextended to include different engineering subjects.Other studies have investigated the use of physical manipulatives in a variety of STEM areas. Theuse of hands-on (physical) manipulatives has helped engineering students in modeling andengineering problem solving.7 For instance, Coller indicated that the manipulatives helpedstudents increase their understanding of engineering concepts when they used manipulatives andwere able to see and feel reactions created by the manipulative.7 Another study
National Research Council postdoctoral researcher at the Air Force Research Laboratory, he joined the faculty of the Department of Materials Science and Engineering at Univ. Illinois, Urbana-Champaign in 2006. He was a TMS Young Leader International Scholar in 2008, received the NSF/CAREER award in 2009, the Xerox Award for Faculty Research at Illinois in 2011, the AIME Robert Lansing Hardy Award in 2014, co-chaired the 2011 Physical Metallurgy Gordon Research conference, and became a Willett Faculty Scholar at Illinois in 2015. His research focuses on defects in materials using density-functional theory, and novel techniques to understand problems in mechanical behavior and transport.Prof. Andrew Ferguson, University of
qualification, their teaching and research potential, requirements for the graduate qualifying works, the quality of students’ knowledge, facilities fully meet all the requirements of the HSE educational standard and provide a high level of training quality; 2. Faculty and students of SE program carry out active research work in framework of scientific seminars and laboratories, including the international ones. Teachers demonstrate a high publication activity; 3. Dynamics of the basic quality indicators of SE educational program, level of applicants allow suggesting that this program will be actively developed.The whole training process is organized on the basis of the curriculum which is developedaccording to the HSE
theoretical analysis and experimental investigations such as designing and testing of propulsion systems including design and development of pilot testing facility, mechanical instrumentation, and industrial applications of aircraft engines. Also, in the past 10 years she gained experience in teaching ME and ET courses in both quality control and quality assurance areas as well as in thermal-fluid, energy conversion and mechanical areas from various levels of instruction and addressed to a broad spectrum of students, from freshmen to seniors, from high school graduates to adult learners. She also has extended experience in curriculum development. Dr Husanu developed laboratory activities for Measurement and Instrumentation