Paper ID #38807Board 256: Development and Evolution of Workshops to Support OnlineUndergraduate ResearchDr. Robert Deters, Embry-Riddle Aeronautical University, Worldwide Robert Deters is an Associate Professor with the School of Engineering at Embry-Riddle Aeronautical University – Worldwide. He is the Program Coordinator for the Bachelor of Science in Engineering Technology. His research interests include online engineering education; wind tunnel testing of airfoils, propellers, and propeller-wing configurations; design of testing configurations for thrust performance of propellers and UAVs; and measuring propeller
group were asked to work on the same task but withoutdeveloping any concept map beforehand. The purpose of having two cohorts was to measure theeffect of the concept mapping intervention on students design problem statements and theirneurocognition.The participants included both undergraduate (n = 46) and graduate (n = 20) engineeringstudents. Students were primarily majoring in civil engineering, industrial systems engineering,mechanical engineering, or construction engineering and management. Females represented 30%of the sample. All students were compensated with a $30 Amazon gift card for their time. Allcomponents of the study were reviewed and approved by Virginia Tech’s Institutional ReviewBoard.The experiment began by participants in the
studentunion craft center [10] and an electrical and computer engineeringprofessor. Students were surveyed about their (self-reported) academicmajors. The students come from a wide range of campus majors,including literature; theater; astronomy; management; communications;linguistics; psychology; women, gender, and sexuality studies; publichealth; engineering; sociology; art; and accounting as shown in Fig.2. Inthis figure, “CHC” represents participation in Commonwealth HonorsCollege, which is a dual-major category. The majors having the largestrepresentation are theater and engineering. On the first day of class,students were asked to self-assess their knowledge background in Figure3.Studentbackgroundelectronics and computer programming, with results
to review the curriculum.Also, statistical surveys will track students in the program aimed at determining the success ofthe program in preparing them for their careers.IV. Dissemination Plans The results of this curriculum development effort is being disseminated through twomechanisms. The first is the presentation and publication of papers describing the curriculumtogether with descriptions of sample capstone design projects and the participation of industrialsponsors in these projects. Papers are being presented at the Frontiers in Education Conference,and at other professional society meetings and symposia. For example, CISM faculty havepresented the curriculum plans at: (1) the International Conference on Engineering Education
Page 7.1219.1programming is as follows: Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering Education A robot has a basic level of programming for motion. This program will execute indefinitely if left as is. In our layering schema, we put extra programs into the system. These programs could range from simple ones such as obstacle avoidance or low battery power, to higher ones such as search for heated objects that make sound. In either case, the additional program interrupts the normal run program to execute a function with higher priority. This type of programming can mimic
, technology, and science teachers; and faculty and graduate teaching assistants involvedwith undergraduate science and math teaching at the university. The activities implemented atthe institute followed Kolb’s experiential learning cycle with some adaptations. The participantsgot the opportunity to acquire concrete experiences involving teamwork, time management, andproject execution skills; reflected on their learning experiences through presentations at the endof the institute; developed concepts related to organic chemistry, engineering design,instrumentation, plant sciences, physics, mathematics, and environmental sciences; and activelyexperimented with virgin and used cooking oils to generate biodiesel, designed and set up asimple algae
Paper ID #26595Neurocognitive Evidence on the Impact of Topical Familiarity in CreativeOutcomesDr. Rafal Jonczyk, Department of Psychology, Pennsylvania State University, USA; Faculty of English, AdamMickiewicz University, PolandProf. Janet van Hell, Pennsylvania State University ¨ E. Okudan Kremer, Iowa State UniversityDr. Gul G¨ul E. Kremer received her PhD from the Department of Engineering Management and Systems Engi- neering of Missouri University of Science & Technology. Her research interests include multi-criteria decision analysis methods applied to improvement of products and systems. She is a senior member of
majors (up to catalog year 2020). Thecourse is an elective for students in the Environmental Engineering Technology program in theDepartment of Engineering Technology and the Manufacturing Engineering program in theIngram School of Engineering. The course format consists of two credit hours of lectureaccompanied by one credit hour of laboratory instruction. The course content consists of anoverview of metal casting processes, properties of foundry sand systems, solidification of metalsand alloys, design of gating and risering systems for metal castings, and properties of commonlyused foundry alloys. At the end of the course, the students are expected to be able to: • Demonstrate an understanding of various casting processes and their key
Page 9.73.3 Copyright 2004, American Society for Engineering Educationpatterns that are shown on the computer screen. De La Harpe has compared the screen output of aDPS system with that of standard word processor screens noting that: “… the only difference to acasual observer would be that the screen would display patterns rather than text” 4.The DPS program was written to test both the design of the patternsets and the general feasibilityof such a system. The DPS consists of an easy to use graphical user interface allowing patternsetsto be designed, saved, tested and used as a default. The variables in patternset design are: thenumber of elements, the shape of elements, the element color, the background color, and
in the classindicated that they are more confident about their ability to communicate engineering topics tovarious audiences. The course also instilled a greater sense of volunteerism. Due to the ongoingpandemic eight weeks of instruction was conducted online through synchronous class meetingsand asynchronous video recordings made available by the instructor. Students worked ondesign projects such as the robotic arm, automatic mobile camera and mobile robots. Theywere successful in preparing design plan, drawings and programming Arduino and presentedit to the instructor and rest of the class online. A future run of the course is expected to studyin-depth, the learning outcomes of the course.References[1] EdSight Insight into Education
Proceedings of 2014 Zone 1 Conference of the American Society for Engineering Education (ASEE Zone 1) Laboratory Experiments for Enhanced Learning of Electromechanical Devices Tomislav Bujanovic and Prasanta Ghosh, Senior Member, IEEE new smart grid workforce. In the Department of Electrical Abstract— In advanced Power Engineering and Smart Grid Engineering and Computer Science we have developed smartLaboratory environment students get opportunities to grid laboratory to support both undergraduate and graduatedemonstrate their ability to design and conduct experiments
“Camp Concrete” – An Experiment in Undergraduate Research Chris Ramseyer, Beth Brueggen University of Oklahoma, Norman OklahomaAbstract:The summer experience of a faculty member, two graduate research assistants and tenundergraduate research assistants is discussed. The students who participated in the inaugural2004 program coined the name "Camp Concrete" after they cast and tested more than 50,000pounds of concrete specimens at Fears Structural Engineering Lab, University of Oklahoma.The goal of Camp Concrete is to involve undergraduate students in high-quality research.Research projects are selected to address immediate needs of local businesses and agencies, suchas the
telecommunications chairholder at Trinity College in Dublin, Ireland, and director of CONNECT – the Science Foundation Ireland Centre for Future Communications and Network. DaSilva is a Fellow of the Institute of Electrical and Electronic Engineers (IEEE) for his contributions to cognitive networking and to resource management in wireless networks. He pioneered the application of game theory to analyze and design wireless networks, authoring the first book on the topic. He is also responsible for seminal work on cognitive networking and spectrum and network sharing. He has authored two books, more than 300 peer-reviewed papers, and is a frequent keynote speaker and invited lecturer around the world. He has also been an IEEE
associated withHyFlex courses, see the chapter “1.1 Beginnings: Where Does Hybrid-Flexible Come From” inBrian J. Beatty’s free eBook Hybrid-Flexible Course Design. [4]Engineering and Engineering Technology programs face challenges when attempting to offer anoption for 100% online course experiences: • In manufacturing and automation education, experience with industry-relevant equipment is required. • Engineering and engineering technology students tend to learn better with hands-on experiences.Challenges to the instructor implementing HyFlex options include: 1. Developing and managing both in-person and online learning opportunities within the same class section with quality and sustainability. 2. Scheduling and
addition, engineers with better communication and teamworkskills are needed to ensure U.S. competitiveness in today’s global economy.In order to address this competency gap a team of faculty members (consisting of faculty fromboth ME and EE departments) started work in the late nineties to integrate Mechatronics-basedactivities at all levels of the undergraduate engineering curriculum at University of DetroitMercy. These included a new senior level technical elective in introductory mechatronics alongwith mechatronic activities in freshman design and in the introductory electrical engineeringcourse for non-EE majors. This effort has been very successful, and now mechatronics activitiestake place in many pre-college programs that the school
andelectrical setup, and hardware resources used to build the platform. The reconfigurable platformcan be used by several majors in engineering and engineering technology to teach many conceptsof Industry 4.0. For example, Industrial Engineering students can use it to teach manufacturingsystems concepts, and Computer and Electrical Engineering Technology students can use it toteach programming concepts, robotics, and automation.The total cost for a single setup is $7,079.71, excluding the labor cost. The project was completedover three months in the summer. The design has managed to deliver an affordable-industrial level,reconfigurable robot arm, having a reliable interface for power and control circuits, adding a penand camera as end effectors, and
serving as the division’s Chair 2010 -2011. He is also a member of Mechanical and Industrial Engineering Divisions along with the College and Industry Partnership (CIPD) Division. He is a co-author of the book titled, A Comprehensive Approach to Digital Manufacturing, which was published in April 2023.Prof. Jameela Al-Jaroodi Jameela Al-Jaroodi is a professor and coordinator of the software engineering undergraduate program in the Department of engineering at Robert Morris University, Pittsburgh, PA, USA. She is also the coordinator of the master of science program in engineering management. She holds a Ph.D. degree in Computer Science from the University of Nebraska-Lincoln and a M.Ed. in higher education management
payoffs and a frameworkabove three methods, students were guided to the validation for continuous quality enhancement. Faculty members at theof assumptions of theories. university help to manage the contextualization of engineering design theory and practice. This would not only1. Introduction bring invaluable experience into design classrooms and In engineering education, educators found that some studios, but would also help to alleviate the burden ofstudents learn sequentially, mastering a material more or less faculties who want to teach design because they areas
. and Oreovicz, F. (2003) “Getting Homework to Work.” Prism. ASEE, 12(6), 42.10. Felder, R. M. and Brent, B. (2003) “Designing and Teaching Courses to Satisfy the ABET Engineering Criteria.” J. Engrg. Educ., ASEE, 92(1), 7-25.11. Buch, N. (2002) “Use of Student Management Teams (SMTs) as a Course Evaluation Tool.” J. Engrg. Educ., ASEE, 91(1), 125-131.12. Ponton, M. K. (2002). “Motivating Students by Building Self-Efficacy.” Profl. Issues in Engrg. Educ. And Pract., ASCE, 128(2), 54-57.BiographyDENNIS D. TRUAX is a Professor of Civil Engineering at Mississippi State University. He has over twenty-fiveyears in education, he has more than 80 published papers and reports and over 110 paper and poster
Session 1392 The TEAMS Leadership Institute: Encouraging Women to Take the Road Less Traveled Susan Scachitti, Barbara Mania-Farnell, Leslie Dorworth Purdue University CalumetAbstractThe TEAMS Leadership Institute is a program at Purdue University Calumet (PUC) that wasdesigned to promote women into leadership roles in fields that are generally known to have anunderrepresented female population. The mission of the institute is to aid current and futureleaders in the fields of Technology, Engineering, Architecture/Construction, Mathematics andSciences in
, advisory committee, and external evaluator input to enhance the current PIC training system through improved hardware and software designs that are capable of fulfilling ECE and EET curriculum requirements.2. Use open-source software to design and develop a web-based server to assist with video conferencing and course management for cyber-enabled learning via the PIC training system.3. Develop audio and video demonstrations, step-by-step guides on hardware and software designs, deliverable forms of instruction for iPod/iPad/flash drives, Google, Skype, Facebook, and YouTube internet technologies.4. Add six additional advanced course modules to meet engineering and engineering technology course objectives.5. Develop instructional
in Construction Science. He is teaching the Introduction to the Construction Industry, Leadership in the Construction Industry, International Construction and the Construction Safety Management Class. Page 23.175.1 c American Society for Engineering Education, 2013 An Innovative Partnering Approach: Industry Led Construction Labs AbstractThe University of Oklahoma Construction Science (CNS) program was challenged withimplementing a hands-on materials and methods lab to support related coursework. With the helpof the Board of Visitors (BOV
Engineering Technologyprogram at RIT recently developed a suite of web-based courses as part of the new Certificate inStructural Design. The online courses available include Structural Analysis, Timber Design,Reinforced Concrete Design, Structural Steel Design, and Applied Mechanics. The web-basedcourse management software used to create the e-learning environment is the Prometheus(or myCourses at RIT) platform developed at the University of Washington. This platformincludes an integrated e-mail list, discussion boards, live chat rooms and an online grade book.The purpose of this paper is to present a simple and effective approach used by the author inteaching a structural analysis distance-learning course. Structural analysis is a very
Biomedical Engineering undergraduate program with an enrollmentof about 50 juniors and seniors. The course with laboratory is offered in the Spring semesterand it presents the analysis and design of analog electronic functions commonly found inmeasurement systems and medical instruments, as well as the components used to implementthese functions in hardware. The “Measurement and Instrumentation” (“Meas. & Instr.”)course is also a 4-unit required course which is offered both in the Fall and in the Springsemester to accommodate the ~ 60 senior students of our undergraduate program. The in-class part of the course presents principles of engineering design and graphical programmingin LabVIEW (National Instruments). Students work on their senior
dissemination of an Embedded System Course through activeparticipation of students in the virtual environment.The VLES has been designed to deliver technical instruction and course materials in embeddedsystem design course through audio-video based distance learning. The supporting distancelearning curriculum and laboratory modules, using modular instructional materials along withVLES training, will be presented. The curriculum has been tested through summer workshopswhich demonstrated that VLES can be used for real-time teaching and learning hands-ontechnical subjects. A curriculum focusing on embedded system programming and utilizing thedeveloped training system, with lessons focused on Assembly Programming with peripheralsinterfacing modules, will
the Rockwell Automation laboratory at Texas A&M University, a state-of-the-art facility for education and research in the areas of automation, control, and automated system integration.Dr. Kory J. Goldammer, Richland CollegeBrian Morgan FlemingProf. Roderick R. Crowder, Richland College Professor Roderick Crowder is full-time Lead Faculty, Program Coordinator, and Engineering Curriculum Chair in the School of Engineering & Technology at Richland College of the Dallas County Community College District. His research interests include sustainable energy systems, RFID, engineering education, intelligent manufacturing system design and manufacturing system process automation.Mr. Ralph S. Wiser, Richland College
THE ETHICS OF EMERGING TECHNOLOGYMany different models and approaches have been used to teach engineering students about theethics of emerging technology. Entire textbooks have been dedicated to the specific task ofteaching the topic of “engineering ethics,” which includes not only the issues surrounding emergingtechnology, but also issues of professionalism and safety (Johnson, 1991; Martin and Schinzinger, Page 12.837.21996; Petroski, 1982; Taylor, 1975; Gunn and Vesilund, 2002, among many others). In addition tothese resources, several national organizations have published resources designed to helpengineering educators impart ethical
facilitatestudents' ability to recall and interpret information. Furthermore, it should offer multiplechannels for faculty feedback and enable easy analysis of student performance data.Our study demonstrates how to address both student and faculty expectations in exam design andadministration. We opted for a Learning Management System (LMS) platform to develop ourcomputer-based exam and incorporated the Proctorio plugin for low-stakes monitoring, whichrecords student network traffic and screen activity without restricting their navigation. Studentswere allowed access to whitelisted resources during the exam, which lasted one hour toaccommodate laptop battery life. The exam utilized a web-based programming environment andsecurely stored multiple versions of
universities that will participate in the global distributed team projects iseven more difficult. Because of ongoing changes in industry, engineering faculty throughout theworld are rapidly introducing courses that are designed to teach students how to work in globallydistributed teams. The rationale for teaching these courses is that they allow students to learnnew types of skills by teaching them how to work in groups and share information. Thesecourses also provide a degree of realism, because they help students become sensitized to issuesin concurrent engineering and train them in interpersonal skills, communications, and systemintegration1. The importance of these experiences cannot be taken too lightly, especially giventhe need to prepare
many of the concepts and technical details. Students would otherwise not be able to appreciate many important issues, especially many of the engineering issues, with which such a software project would have deal. It empowers the students. They are more confident in their capability to tackle complicated issues. At the same time, they appreciate the delicate details a piece of successful software would have to deal with. • The project was manageable due to its well defined phases. Each phase concentrated on a section of the problem. When combined as a working search engine, there was not a sudden jump in complexity. • The project was designed for team work. Students learned pros and cons working in