. universities/colleges. The samplepopulation of tenured and tenure-track faculty in chemical engineering programs was identifiedthrough an online search. Chemical Engineering faculty were defined as the faculty belonging toABET accredited programs. In total 176 different programs were identified for chemicalengineering [12].Contact information of faculty members with the rank of Assistant or Associate Professor wascompiled from an internet search of the various department/school websites. Thedepartments/schools were further identified and categorized according to the 2018 CarnegieClassification of Institutions [13] they belonged to as follows: • R1: Doctoral Universities – Very high research activity, • R2: Doctoral Universities – High research
Student Attitudinal Success Inventory [e-SASI]), the evaluation of engineering teacher professional development programs, and the investigation of P-16 students’ spatial ability to understand its association with their academic performance and talent development in STEM fields.Miss Yi Kong, Purdue University, West Lafayette Yi Kong is a doctoral student in biology education and a graduate research assistant for the Institute for P-12 Engineering Research and Learning (INSPIRE) at Purdue University. She received her M.S. in agriculture in Fishery Resources from Huazhong Agricultural University and B.S. in Biological Sci- ence from Shaanxi Normal University in China. Her research includes investigating elementary school
AC 2010-932: INTEGRATING HANDS-ON DESIGN EXPERIENCES INTO THECURRICULUMRichard Goldberg, University of North Carolina, Chapel Hill Richard Goldberg is a Research Associate Professor in the Department of Biomedical Engineering. He is also the Director of Undergraduate Studies for the Curriculum in Applied Sciences and Engineering, which houses the undergraduate BME program. He teaches several instrumentation courses and senior design. His primary interest is in rehabilitation engineering and assistive technology for people with disabilities.Robert Dennis, University of North Carolina Bob Dennis is an Associate Professor in the Department of Biomedical Engineering and Chair of Applied
experience and motive using student comments and survey data on perceptions of the Page 24.189.2course. Those who work in graduate teacher training and graduate student development may beinterested in this paper.IntroductionMany universities and colleges provide teacher training for graduate teaching assistants (GTAs).The GTAs play an important role as instructors, lecturers, laboratory and recitation teachers,graders, tutors, proctoring exams and grading homeworks. An Internet search on trainingmanuals or programs will bring up dozens of these teaching tools for GTAs, suggesting thatthere are a variety of methods and strategies to prepare graduate
installation in the Western Desert and getting their in-home kitsworking. Integrating online learning with hands-on experiential learning and real life, community-based engineering challenges facilitated international internship experiences without physicaltravel. Student experiences were evaluated through feedback forms and compared to the 2018 in-person version of the program. The impact on the community is evaluated qualitatively throughinterviews and quantitatively when data is available.1.1 BackgroundThis international engineering internship addressed fundamental engineering challenges linked tothe sustainability of ecosystems, societies, and economies, and thus topics the global communityshould address through concerted action. Eliminating
Experiences for Students and Teachers project, Learning through Engineering Design and Practice (2007-2011), a National Science Foundation Award# 0737616 from the Division of Research on Learning in Formal and Informal Settings. This project is aimed at designing, implementing, and systematically studying the impact of a middle-school engineering education program. Page 22.208.1 c American Society for Engineering Education, 2011 Analyzing Subject-Produced Drawings: The use of the Draw-an-Engineer Assessment in ContextIntroductionIn this paper, an example of
students participate in an organized service activity that meets identified communityneeds and reflect on the service activity in such a way as to gain further understanding of coursecontent, a broader appreciation of the discipline, and an enhanced sense of civic responsibility."(Bringle & Hatcher, 1995). Many past studies (e.g. Eyler and Giles, 1999) have shown service-learning to result in positive outcomes in cognitive and affective measures for students as well asbenefits to the community, faculty, and institution.Different embodiments of service-learning have developed in engineering in recent years. Directplacements in the community are utilized in the first year programs, such as at Cornell andVirginia Tech, for example. More often
. The first module covers the commonscientific background required for all engineers. This module will be designed to improve the skillsand abilities needed in the future engineering workplace. The second module combines manyengineering courses of similar nature. This combination will reduce redundancy and the number ofcourses required for graduation. The third module is a detailed application of the above twomodules for students specializing in a certain field of engineering such as AE, CE, EE, ME, etc.This paper claims that this reform will help to replace teaching by learning and create environmentthat motivate students to creative and critical thinking, problem solving, and multidisciplinarylearning. Criteria 2 and 3 of EC 2000 are related
., Research advances in civil engineering, Civil Engineering, 1 (1930), 14-16.[5] Thompson, Larry A., Grey literature in engineering, Science & Technology Libraries,2001, 19 (3), 57-73, http://dx.doi.org/10.1300/J122v19n03_05 (accessed 2009 January 12).[6] Brin, Beth L., Building a library collection to support new engineering programs,Science and Technology Libraries, 2001, 19 19-37.[7] Chanson Hubert, Research quality, publications, and impact in civil engineering into the21st century. Publish or peris, commercial versus open access, Internet versus libraries?Canadian Journal of Civil Engineering, 2007 34, 946-951.[8] Williams, Virginia K., Christine Lea Fletcher, Materials Used by Master’s Students inEngineering and Implications for Collection
messengers, such as MSN andAOL, to communicate. They used equipment such as camera, video cameras, and electricalcomponents as needed. The team did not use the service learning program’s class managementsystem (i.e. WebCT) although it was available. The team relied on Internet search engines, i.e.Google, to search similar projects, specifications of devices, and other information relevant tothe projects. We valued the advices from professors in the service learning program, as well asthose in electrical, civil, and mechanical engineer departments.Community: The Traffic team formed three small sub-project teams on small projects.Members participated across sub-projects based on the needs for different expertise. Theprimary local community was the
collaborative learning and knowledge creation inconstruction education. The purpose of this paper is to present the use of wikis in a ConstructionManagement (CM) course as a case study. Knowledge Management System (KMS) for theconstruction and engineering industries is a new and exciting area of study, and wikis are a formof electronic KMS. In the last few years there have been studies done on the use of KMS as itrelates to a construction or engineering company’s internal tacit knowledge capture,collaboration, and retention. But little has been researched in the use of these technologies in theeducation sector. If the construction industry is using these types of technologies as a part ofnormal operations, then construction academic programs should
discrete input/output modules.3. ... be able to perform fundamental programming of a PLC using ladder logic.4. ... know how to program advanced functions in a PLC.5. ... be able to program a PLC using mnemonic code.6. ... know how to wire a complete PLC system.7. ... understand how analog I/O operates and be able to select analog I/O for a PLC.8. ... know how various types of discrete position sensors operate, and be able to select the best sensor for an application.9. ... understand and apply encoders, transducers and advanced position sensor.10. ... know how a PID control system works and be able to tune a PID.11. ... have a fundamental understanding of DC and AC motor controls and how to interface a motor control to a
consultant. His company, COMP-AID, specializes ininnovative applications, crisis consulting, e-commerce, Internet, computer aided design,computer graphics, efficientcomputing, and teaching computer courses, short courses, and seminars.REBECCA BRENTRebecca Brent is an educational consultant on the staff of the College of Engineering at North Carolina StateUniversity, Faculty Development Codirector of the SUCCEED Coalition, Adjunct Professor of Education at EastCarolina University, and co-director of the National Effective Teaching Institute. Page 7.614.9 Proceedings of the 2002 American Society for Engineering Education Annual
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
mustbe able to easily ascertain that purpose. Specialized vocabulary should and must be used toclearly express the technical ideas these students are researching but must be used appropriately.A good writer is at least collaborating with himself. He must learn to be “intelligently critical,detached, and tolerant…..while at the same time, be sensitive, enthusiastic and partisan…” 4Finally, the writer must make use of multiple drafts in order to refine his thinking and wordusage. This is not a “re-dream of your topic” but instead a “refinement of your topic”.Learning ImprovementsThe application of the principles learned in the Writing in the Disciplines (WID) program havechanged our perception of how our students think. As stated above, thinking
and their chosen careersFor the College: *Develop more committed learners in diversified programs; instill loyalty to the college, and develop respect and appreciation of others. *Motivate students to become more active in planning their education and broadening their cultural perspectives.Since the course is required of all freshmen at Ward College (approximately 75/year), three sectionsare ordinarily offered each fall. This has the advantage of keeping the class size relatively small.Under the revision, it was agreed that all three sections would use the revised curriculum and a teamteaching format would be used. Each team would consist of a faculty member and a staff member. Inan effort to involve as many
questions. Therefore, it is desiredto use a low cost open educational resource (OER) that can be adapted to the needs of eachcourse. One such OER is MyOpenMath, a mathematics based online tool that integrates intocommon learning management systems and is free for both faculty and students. In this paperwe discuss how this tool is currently implemented in a senior capstone design course and a unitoperations laboratory in chemical engineering. This presentation includes characteristics ofMyOpenMath, benefits for instructors, available instructor training, and benefits over usingcurrent quizzes in the Canvas LMS. Not limited to chemical engineering courses, MyOpenMathis applicable to any equation based course. This paper focuses on the faculty
basic computer skills and have an adequate understanding ofsecurity and privacy issues. This is the area that the authors feel is missing in undergraduateengineering education, particularly with the increased use of and dependence on digitaltechnologies in the delivery of engineering education.In thinking about developing a program, the authors have identified the following studentlearning outcomes: • Create and use Excel documents for complex computation, data analysis, and data presentation; effectively use Microsoft PowerPoint and Word to create documents that are visually appealing and meet specified formatting requirements. • Operate and maintain a personal computing device (Tablet PC, or notebook computer) for
AC 2007-2866: ENGINEERING TEACHING KITS: BRINGING ENGINEERINGDESIGN INTO MIDDLE SCHOOLSLarry Richards, University of VirginiaChristine Schnittka, University of Virginia Page 12.655.1© American Society for Engineering Education, 2007 Engineering Teaching Kits: Bringing engineering design into middle schoolsAbstractEngineering Teaching Kits (ETKs) introduce engineering concepts and methods intoexisting middle school science and math classes. We identify topics from science, math,and technology that have interesting engineering applications, and then help studentslearn science and math in the context of engineering design. Each ETK includes
are in the areas of (1) information systems applications development and the complementary nature of back-end developer and front-end developer skill sets and (2) managing IT services. Her research interests are program and student as- sessment, the impact of instructional technology on student learning, and the improvement of e-learning environments and experiences.Dr. Barbara Louise Stewart, University of Houston Barbara L. Stewart is a Professor of Retailing and Consumer Science at the University of Houston. Her teaching and research interests are in the application of strategies to improve student learning and life enhancement in online courses. She has served as an academic administrator and in leadership
process.Quality school environments enhance, even improve, attitude and achievement, and a well-designed school is one that carefully integrates the curriculum and the educational environment.At the foundation of this paper is the strong conviction that the physical environment has a directimpact on the educational process.Design PrinciplesAlmost everything about the design of a university facility flows from the principle mentionedabove. However, there are at least three other closely related principles that also shape manyaspects of school facility design: Every aspect of a school facility should be program-driven, or as architect Louis Sullivan Page
supports the curriculum and the teachers byacting as a regenerative research and resource center. Probably the most important issue thatschool designers and educators must understand is how the physical environment relates to andsupports the teaching and learning process. Teaching facilities must be nurturing, healthy,illuminating, exciting places to live, learn, and prepare for the future.Design PrinciplesAlmost everything about the design of a university facility flows from the principle mentionedabove. However, there are at least three other closely related principles that also shape manyaspects of school facility design: Every aspect of a school facility should be program-driven, or as architect Louis Sullivan said “form follows function
sessions. OSU EE 609. The Ohio State University DSP lab (eewww.eng.ohio-state.edu/ potter/EE609) introduces real-time applications using a fixed-point DSP microprocessor, theMotorola DSP56002. The quarter-long lab consists of six structured labs and a mini-project. Somefamiliarity with microprocessor architectures, assembly language programming, and discrete-timesignal processing is assumed from the required undergraduate curriculum.5 Connexions DSP labsIn 2001 we realized that Connexions could provide a new and better mechanism for sharing DSPlab materials and for enabling a community of authors to collaboratively develop a common in-structional resource of ever greater breadth and utility. Former UIUC ECE 320 teaching assistantsand
(36%) were female. (Targetedrecruiting of female students was done in each of the sixth and seventh grade classrooms in theschool, but no preference was given in the application process.) Approximately 20% of thestudents received scholarships to attend the camp. This portion of the camp was held at theCentennial Campus Middle School campus.The first day concentrated on teams and helping the students understand whom engineers are andwhat they do through team building exercises and a presentation on different engineeringdisciplines. In addition, we kicked off a project for the week, asking students to design a productof the future and prepare an exhibit to be displayed on design day. We closed with an Internet
application area where the utilization of IPTs is regarded as critical to theformation of strategic product development capabilities [2,3,4]. To prepare students for similarproblem solving responsibilities and to foster engineering principles learning, a comparableapproach to IPTs is currently used for several sections of the ED&G 100 course at thePennsylvania State University.ED&G 100 is a first year engineering course with an enrollment of more than 400 students eachsemester. The major course objective is to develop sound problem solving skills early on in thestudent’s education. This is accomplished through skill development focused on two designprojects. The first design project involves building a weighing system using strain gages
, Reno. Hank’s research interests include sense of belonging, identity formation, STEM identity, and retention of first-generation college students.Danxu Wang, University of Nevada, Las VegasDr. Emma Regentova, University of Nevada, Las VegasProf. Venkatesan Muthukumar, University of Nevada, Las Vegas Muthukumar is a Professor at University of Nevada Las Vegas, Dept. of Electrical and Computer Engineering, Entertainment Engineering, and Member of Transportation Research Center (TRC). He has over 24 year of teaching and research experience in the field of Embedded Systems. Some of his specific research areas and applications include: Design and Testing of Real-time embedded Systems (RTES), Autonomous navigation and
ofview (and are either victims of larger incidents or the disclosers of their own information), in theInformation Security course the students view it mainly as computing professionals asked to prepareagainst and handle such events.3.1. Computer Security CourseAccording to the university catalogue, the course is a survey of topics related to internet and intranetsecurity. It introduces the undergraduate students to many contemporary topics ranging from dataencryption, computer authentication, network security, to cyber-warfare and security ethics. The coursewas developed based on Pfleeger & Pfleeger’s textbook [17] with some materials from [18], followingNSA recommendations on terminology and content. An important component of the course
questionsconcerning their team functioning, complete peer evaluations, and weekly team symptomchecklists. All of this information is stored in the database and accessed as needed.The third main component of TeamCoach is the team process modules that contain theactual learning material on team process skills. The modules are sequenced to follow theteam life cycle developmental stages and to respond to problems reported on specificteams. Any module that has been previously viewed is available to students for laterreview.TeamCoach Design NotesTeamcoach is implemented as a CGI application using the Perl programming language.The original implementation used a departmental Linux/Apache server as the platform; in2001-2002 it was moved to a dedicated Windows NT/IIS
justified.2. Methodology The Electric Machines course emphasizes practical concept applications in electricalmachines and stresses the fundamental phenomena that underlie their operation. This instructionis intended to be learner driven and provides computer-based instruction (CBI), and self-pacedlaboratory experience. This development is carried out in coordination with the Focus: Hope’sCAT facility. The initial phase of the project involved the inputs of Focus: Hope students abouttheir shop floor experiences. Familiarity and mutual discussions of the project team with CATfacility engineers have helped devise suitable/pertinent applications. Discussions with theGreenfield Coalition authoring and design team provided available resources
analysis. In this research project, we develop an autonomousdrone-based detection system using Crazyflie drones. In the current phase of the project, we usedOpen Computer Vision techniques to detect wildfires with future use cases integrating objectdetection models for enhancing precision. This system will hopefully act as a warning tool capableof providing live data for necessary agencies to mitigate wildfire damage, and improve safety andenvironmental outcomes.Support is provided by ****, this project aligns with the mission of fostering innovation and theexpansion of new technologies. The significance of this research project extends past wildfiredetection and can be applicable across a range of natural disasters like floods, hurricanes