, Virginia Tech Dr. Vinod K. Lohani is a Professor of Engineering Education and also serves as the Director of education and global initiatives at an interdisciplinary research institute called the Institute for Critical Technology and Applied Science (ICTAS) at Virginia Tech. He is the founding director of an interdisciplinary lab called Learning Enhanced Watershed Assessment System (LEWAS) at VT. He received a Ph.D. in civil engineering from VT. His research interests are in the areas of computer-supported research and learning systems, hydrology, engineering education, and international collaboration. He has served as a PI or co-PI on 16 projects, funded by the National Science Foundation, with a $6.4 million research
. However, vacuum technology is ahighly specialized area. It is costly to develop, deliver, and sustain technical programs(curriculum, equipment, instructional talent, numbers of students available locally) at communityand technical colleges. Therefore, finding a way to share programmatic resources becameessential. The partnership with Normandale Community College’s (Normandale CC) existingVacuum Technology program was developed as a result.Normandale CC offers a curriculum in Vacuum Technology using video conferencing(telepresence classroom) to teach classes synchronously to distance sites. This distanceeducation mode was developed as part of a NSF-ATE funded project and incorporates a hands-on component utilizing a Vacuum Equipment Trainer (VET
and current projects include designing and teaching undergraduate and graduate-level coursework intended to help teachers develop effective science teaching practices and culturally relevant pedagogy for their classrooms, mentoring pre-service science teachers, working with in-service science teachers to develop and implement integrated STEM curricula, leading STEM integration professional development for in- service science teachers, working with administration and teachers to develop STEM programming in their schools, and developing a K-12 STEM observation protocol that can be used in a variety of educa- tional contexts through an online platform.Jeanna R. Wieselmann, University of Minnesota Jeanna R
ideas” and “ really respected my ideas and opinions, and was very encouraging”. In addition, the value of responsibility was not as highly ranked in the survey responses, but was revealed as important in individual comments such as “I felt a large sense of ownership of the project, and really think I did something valuable. He or she trusted me with completing my work…”. Overall, faculty perspectives also showed generally positive characterizations of these partnerships with respect to the values assessed. Although the faculty perspectives were more diverse than the student perspectives, the value of respect characterized these partnerships most significantly from a faculty point of view. In fact, four out of five faculty participants
case study to initiate aconversation in which students discuss potential solutions to the problem at hand.Brad is in the second year of his first full-time job after graduating from EngineeringTech. He enjoys design, but is becoming increasingly concerned that his work is notbeing adequately checked by more experienced engineers. He has been assigned to assistin the design of a number of projects that involve issues of public safety, such as schoolsand overhead walkways between buildings. He has already spoken to his supervisor,whose engineering competence he respects, and he has been told that more experiencedengineers check his work. Later, he discovers to his dismay that his work is often notadequately checked. Instead, his drawings are
luncheon was scheduled to alignwith the annual Project Day events in which the graduating seniors set up and present theircapstone projects. These capstone projects are industry sponsored and multi-disciplinary. First-year students were able to interact with the seniors, to ask questions about the program, and tosee the types of projects and real world applications that students in the engineering programwere involved with.During the welcome luncheon the seating for the meal was organized by the sections of theIntroduction to Engineering Design I course, the first of the engineering courses that the studentswill be taking. The faculty member who will be instructing the course is placed at the table withstudents enrolled in their class so that they
Total Cost = Based on prices in this table Demo $71.25 Total estimated build time: 60 minutes Figure 4. Critical Pick Building DimensionsClassroom ImplementationDisplay the 2x6 beam at the front of the class, but do not have anything connected to it. Let thestudents build their answer as they work to solve the problem. Bruhl et al3 and Bruhl, Hanus, andKlosky4 discuss the importance of developing engineering judgement and using self-discovery inthe classroom. This demo can function as an IBLA to help develop engineering judgement ifpresented beyond the traditional instructor guided demo method. The scenario is as follows; thestudents are new project engineers on a job site. The project
Paper ID #24838The Education of Science, Engineering and Technologies in War-affected Coun-triesDr. Bahawodin Baha, University of Brighton Dr Bahawodin Baha is a principal lecturer at University of Brighton in England since 1989, where he has been teaching and conducting research in electronic engineering. Besides his teaching in the UK, he has been helping Higher Education (HE) in Afghanistan since 2005 and has conducted my projects on improving higher education in Afghanistan. Recently, he was on sab- batical leave for two years and was technical advisor at the Ministry of Communication and Information Technology
of industrial studies traced the design processcommonalities between engineering disciplines across a broad spectrum of industries [5-7].These studies identified a six-stage transdisciplinary design process, which is widely acceptedand applicable across engineering disciplines. The six stages are Planning, ConceptDevelopment, System-Level Design, Detail Design, Implementation and Testing, andProduction. In light of current transdisciplinary design practices in the industry, Ertas [8]identifies challenges currently faced by engineering education and suggests responding to thesechanges by introducing transdisciplinary engineering design education. This paper is part of an empirical research project carried out at the Engineering Faculty at
© American Society for Engineering Education, 2019 2019 ASEE 126th National ConferenceMethodThe active learning environment was implemented using desktop flight simulation (Fig. 1) and alarge screen flight simulator that had three out-of-window views (Fig. 2). The desktop set upincluded a joystick with an integrated throttle. The large screen out-of-window views weregenerated by three ultra-short-throw LCD projectors set up in a rear projection mode. The LCDprojectors were driven by three dedicated PCs which were slaved to a fourth PC that served as themaster. The Wideview [24] shareware was used to slave the out-of-the-window computers to themaster computer through the FSUIPC [25] shareware. The master PC also powered
set-up of the spaces vary greatly between locations, agrowing number of universities have shifted from more traditional machine shop equipmenttowards digital design and rapid manufacturing tools (Wilczynski, 2015). These technologies areavailable to students through their coursework, their participation in certain extracurricularactivities, their status as an engineering student, or simply through their university enrollment.Students visit the Makerspaces for academic, personal, and extracurricular projects (Ali et al.2016; Wilczynski, Zinter & Wilen 2016). Since its establishment at the University of Texas atAustin in 2014, more than 30 courses offered by the university have included course projects thatprompt students to utilize the
toprogram Quad-Copter Drone by using the software called scratch developed by Massachusetts Instituteof Technology (MIT). This paper will also discuss the student group projects presented on the last dayof the summer session and performance based on attainment of learning outcomes are evaluated by thefaculty members. Some the items that were evaluated during the labs were how to follow FederalAviation Administration Part 107 Regulations including pilot certification and drone safety, dronesystem components, aerodynamics, programming, flight preparation and planning and lastly summaryreporting. In addition, the paper will also present the results of the survey given to the participants todetermine the effectiveness of the five-week summer
with their finalgrade in an engineering graphics class [8], [14], [15]. Hsi et al. found that, in an engineeringgraphics class, spatial visualization ability was correlated with the overall course grade, such thatwomen, who had lower average spatial visualization scores, also tended to have lowerperformance in the course. However, the gender difference was not present for grades onhomework or projects. Therefore, they attributed the discrepancy in final grade to the lowerexam scores of women compared to that of men [2]. It has been hypothesized that femalesemploy slower strategies in solving rotation problems than males, which may contribute to thediscrepancy in scores observed on time-restrictive spatial visualization tests [13] and
theclassroom. The expectation is that students who experience classrooms led by ISE-2 faculty willhave higher engagement, success, and retention than students in non-ISE-2 classes. Additionally,although students from all backgrounds are expected to benefit from experiencing ISE-2classrooms, underrepresented minority (URM) students in Engineering programs (i.e., women,ethnic minorities, first generation) are expected to have an even greater positive outcome thantheir non-minority peers, because the content of the development program directly addressessome of the causes of experiences that lead URM students to report feeling less welcomed in thefield of Engineering [1], [2]. The project period is March 1, 2017 to February 29, 2020 [3].As part of the
a licensed Professional Engineer in Pennsylvania since 1998. Dr. Walters worked in industry as a process controls and automation engineer for eighteen years prior to joining the faculty at Behrend in 2010. Most of his experience is in the design, development, and commis- sioning of PLC-based control systems for the food & beverage and cement industries. He has developed and teaches a course on PLC-based control systems for engineers. He also teaches a course on advanced digital design using FPGAs, a course on embedded systems using 8- and 32-bit microcontrollers, and the two-semester capstone project sequence for electrical and computer engineers at Behrend.Dr. Jessica Resig, Pennsylvania State University Dr
system increases homework motivation instruggling students and is as effective as paper-and-pencil-based homework for teaching methodof joints truss analysis. In focus groups, students believed the system enhanced their learning andincreased engagement. This project will assess a range of engineering education researchquestions as well as have a broader impact through its positive impact on at-risk students. Toobserve the effectiveness of this system for this project, it has been implemented into variouscourses at three universities, with two additional universities planning to use the system withinthe next year. Student knowledge is measured using Concept Inventories based in both Physicsand Statics, common exam questions, and assignments
. Furthermore, it has alsobeen widely cited in industrial literature that there is a concern regarding the job readiness offresh college graduates and the gaps in skills sets needed to be successful in an industrial setting,especially in the engineering or manufacturing fields. One approach to bridge the skills gap is toprovide customized continuing education to current the workforce as per the industry need. Thispaper presents a case study of such customized continuing education offered by Texas A&MUniversity for oil and gas industry in Houston, Texas. Specifically, as a part of National ScienceFoundation Advanced Technological Education project, two professional development sessionswere organized in the summer of 2018 in Houston targeting the
other programs in the department was not appropriatefor the new program so this was revised into a two-semester project, typically in collaborationwith a local manufacturing facility. Expectations for the year-long project were developed usingUbD.Measurable Student Learning Outcomes. Stage 2 of the UbD approach is to develop carefulassessment tools that measure what is important, not what is simply easy to measure. As newcourses were developed, the techniques promoted by UbD were used to thoughtfully create theassessment tools that attempted to measure the big ideas. There is much literature on goodassessment and good student learning outcomes so this is not detailed in this paper. It is simplynoted that the outcomes were not just linked to the
negative effects; most notably, landfill waste. With a burgeoning worldpopulation, much attention is focused on how we sustainably use our ever-decreasing supply ofmaterials. This project was framed within the context of low-cost flat-pack furniture, which istypically made from non-biodegradable particleboard. The end-of-life for particleboard islandfill or incineration.The overarching research goal of this project was to determine whether post-consumer paper anda bioplastic binder were suitable for the creation of a more environmentally friendly composite(than its traditional particleboard counterpart) that has future potential to be composted with foodwaste. Specifically, we aimed to (1) empirically test how this composite performs understandard
design development cyclewas highlighted in his work. He asserted that the engineering curriculum at that time did notaddress the importance of prototyping and was less practiced in homework, projects, orlaboratories. An experiment was conducted with senior design students through an iterative design-fabrication-redesign-fabrication sequence to enable hands-on experience on desktop-levelmanufacturing equipment. His work strongly asserts the need to include practical training whileincluding design-intensive prototyping courses. During the initial phases, universities do not needto invest in commercial-level equipment, since desktop machines could provide students withuseful insights for basic understanding of processes. The same experimental
are encapsulated and modularized with friendly and easy-to-useinterfaces. AI curricula are developed based on constructivism, project-based learning andmultidisciplinary integration. Typical teaching cases, such as speech recognition, text recog-nition, image recognition, intelligent transportation, smart home, intelligent robots, etc.,which are used to enhance comprehension of AI concepts and applications, are also discussed. Keywords : AI Education, Innovation Capability, Constructivism, iSTREAM1. Introduction The radical and transformative technological revolution of artificial intelligence (AI) hasresulted in fundamentally new ways of science and engineering practice. Countries aroundthe world have released national strategies to
relating to the technical details of a particular project component or part, thetechnical or mechanical details of the larger product being created, and the immediate existingstructure surrounding the project – including course requirements or team competition rules. Anumber of students also mentioned considerations relating to the temporal elements of aproblem. For many, this meant an emphasis on the project timeline or time as a factor thatrestricted them from exploring other solutions. Several students mentioned looking at howsimilar projects had been addressed previously or how they might adapt their solution in thefuture.Other types of factors were less commonly mentioned among undergraduate engineers. Severalstudents mentioned factors
outreach work focuses on creating resources for K-12 educators to support engineering edu- cation in the classroom. She is also the founder of STOMP (stompnetwork.org), LEGOengineering.com (legoengineering.com), and the online Teacher Engineering Education Program (teep.tufts.edu).Jessica Watkins, Vanderbilt UniversityDr. Rebecca Deborah Swanson, Tufts Center for Engineering Education and Outreach Dr. Swanson is a postdoctoral research associate studying teacher learning in an online graduate-level engineering education program at Tufts University. Prior to joining the CEEO at Tufts, Dr. Swanson worked on research projects studying professional development of formal and informal science educators, learning through citizen
Networking (SDN) has been a core technology in cloud computing and other cyber-physical systems whereSDN facilitates network management and enables network programmability and efficient network configuration to improvenetwork performance, monitoring, and security. In this paper, we will demonstrate our great efforts in the development of GENIand SDN learning and experimental modules for computer networking and security courses in order to achieve the goal of ourfunded NSF project. Specifically, we will first present our methodology for the design of our modules and then give the detail ofGENI and SDN modules including GENI account setup and resource reservation, measurement tool labs, as well as SDNlabs for network traffic management and the
61 91 course and overall competency from university. (Yes/No) Has your motivation for studying your course work increased or 83 69 decreased over the past few semesters? (Increased/Decreased) Do you believe that grades (e.g. projects, lab work, homework and numerical grades from examinations) and interest, passion 103 49 and motivation are intrinsically related? (Yes/No) Does knowing that you will not be able to cross into a higher- grade boundary undermine your motivation to study for your 111 41 finals or complete any related coursework given? (Yes/No) A continuous GPA system with a greater
trained on the hardware tools and softwarealgorithms for cryptography, identification of user, authentication of user and data, monitoring ofcritical digital activities, and prevention from intrusion. Students will also be engaged in real-lifeproblem solving process through design projects. Graduates of the program will be equipped withskill in state-of-the-art technology in the field and hence be competent to serve the public andprivate sectors to ensure security and privacy in the digital world and to help development andgrowth of the community.AREAS OF EXPERTISEThe curriculum will incorporate the following areas of expertise. 1. Computer Programming 2. Digital Logic and Systems 3. Cryptography 4. Computer Network 5. Data Security 6
materials, 3) thermodynamics, 4) fluiddynamics, and 5) heat transfer.Examples of student work are shown in Figures 1 and 2.Figure 1 –Student painting representing mechanistic and non-mechanistic insights, sentient andtranscendent knowledge.Figure 2 – Student drawings representing tension, compression, shear, flexure, torsion, stressconcentrations, fatigue, buckling, impact, and corrosion.OutcomesThe results of five years of conducting these creativity exercises in an introductory mechanicalengineering class are anecdotal and are based on less than one hundred students. When askedabout the abstract image project in which they were required to draw an abstract image of anassigned abstract noun, students reflected on their work in three ways: 1
Paper ID #25270Developing Instructional Design Agents to Support Novice and K-12 DesignEducationDr. Corey T. Schimpf, Concord Consoritum Corey Schimpf is a Learning Analytics Scientist with interest in design research, learning analytics, re- search methods and under-representation in engineering, A major strand of his work focuses on develop- ing and analyzing learning analytics that model students’ cognitive states or strategies through fine-grained computer-logged data from open-ended technology-centered science and engineering projects. His disser- tation research explored the use of Minecraft to teach early
people. The prototype generatoris based on the minuscule hydropower generator and will take advantage of water flow from faucets.This study explores the practicality of converting water flow energy into electrical energy with a minigenerator design using simple physics concepts. Effectively harnessing water flow could recover asignificant amount of usable electrical energy from simple, everyday actions with minimal impact to dailyoperation. This design shows promise for the future of off-grid energy generation. The skills learned fromthis fluid physics based project were invaluable, as research, design, trial and error, as well as technicalwriting are all important experiences within engineering education. This generator not only
Paper ID #25523Work in Progress – Development and Validation of the Ambassador Ques-tionnaireMrs. Melissa G. Kuhn, Old Dominion University Melissa G. Kuhn is a PhD Student in Educational Psychology and Program Evaluation at Old Dominion University. Additionally, she works at the Batten College of Engineering and Technology in educational projects and program coordination.Dr. Joanna K. Garner, Old Dominion University Dr. Garner is Executive Director of The Center for Educational Partnerships at Old Dominion University, VA.Dr. Shanan Chappell, Old Dominion University c American Society for