Blanchard, Virginia Polytechnic Institute and State University Sam Blanchard is currently Assistant Professor of Studio Art in the School of Visual Arts at Virginia Tech in Blacksburg, VA. He received his Bachelor of Fine Art in 2002 from Ohio University and Master of Fine Art in Sculpture from the Rhode Island School of Design in 2004. Past research includes hybrid sculp- tures, installation, performance, and video artworks. Sam utilizes technology based fabrication methods to interweave everyday materials and objects to become extended metaphors of experience. He has an active international exhibition schedule, with upcoming solo exhibitions of his artwork at such venues as the Las Vegas Contemporary Art Center, the
! articles.Curriculum Connections thus linked information on people and careers in transportation toSTEM (Science, Technology, Engineering, and Mathematics) material taught in the classrooms.3. Evolution of ¡Vamos!¡Vamos! was designed as part of the larger Go! web site and occupied a sub-directory. Thus, itshared a common domain name with Go!. This created technical, functional, and fiscalchallenges for the design team. Technical challenges related to hardware and software issues;functional challenges included user experience with the web site, such as usability of the website; and fiscal challenges concerned with funding ¡Vamos!.3.1 Technical ChallengesSince ¡Vamos! was designed as a static web site (Figure 1), it called for specific skills for
higher graduation rates1. In addition, exposure to undergraduate researchexperiences is pivotal in attracting undergraduate students towards graduate degrees inengineering. The Intel Undergraduate Research program is a mechanism which facilitates boththe retention and continuing education efforts at North Carolina A & T State University. TheIntel Foundation and Intel Corporation currently invest over $100 million per year in over 50countries to promote education in mathematics, engineering and science areas. The IntelUndergraduate Research Program (IURP) was created with the intent of encouraging minorityundergraduate students to pursue advanced degrees in a field concentrating in science,technology, engineering and math (STEM). Students
component of engineering education is helping students understand how the informationof a given class is applied to the current technology and applications of that field. In addition, it isalso critical for students to understand the broader impacts of a product during the design,manufacturing, and useful life stages as well as how the materials are disposed of, recycled, or re-used afterwards. One method of helping students achieve this insight is through the use ofmarketing-based presentations in which groups of students present competing technologies.This paper will describe such presentations that encourage students to explore both the technicaldetails of a product as well as the economic, environmental, and societal impacts in order toconvince
developmentally, there must be aproper balance of both a challenging curriculum and support for the individual learner. Aprogram that provides neither a challenging curriculum nor support for the learner tends to leadto stasis. Worse yet, students who encounter a challenging curriculum without having thesupport mechanisms necessary will actually retreat on the developmental scale.Although developmental theory has strong implications for student learning, it is not alwaysconsidered when looking at new instructional design. Creative or open-ended problems can bevery effective but only when they are designed around the appropriate developmental stage ofthe learner. A more recent model, Steps for Better Thinking20, provides a useful conceptualframework for
Paper ID #22439Flipped Classroom and Emotional Learning in an Engineering LeadershipDevelopment CourseDr. Dean H. Lang, Pennsylvania State University, University Park Dr. Lang is the Associate Director of the Engineering Leadership Research Program at Penn State Uni- versity. She holds a BS in Mechanical Engineering from West Virginia University, an MBA from Johns Hopkins University, and a PhD in Kinesiology with a focus on Biomechanics from Penn State University. Dr. Lang’s previous professional experiences and research interests range from mechanical engineering facilities design to research that applied engineering
Paper ID #27239Board 45: Physics Innovation and Entrepreneurship (PIE) Introduced intothe First-year Physics CourseDr. Randall S Jones, Loyola University Maryland Randall Jones is an associate professor in the Department of Physics at Loyola University Maryland. He obtained his PhD degree in theoretical condensed matter physics from Cornell University in 1983 and joined the faculty at Loyola University in 1991.Ann M Ernst, Loyola University Maryland Physics I am an Undergraduate Research Assistant studying Materials and Mechanical Engineering at Loyola Maryland.Dr. Bahram Roughani, Loyola University Maryland Bahram
of the Center is on assessment-driven, open-ended problem solving applied toengineering design utilizing mathematics and science concepts. 3In an article in Prism Online [5] it was discussed that the key to success is therelationship with the teachers. Mrtha Cyr, a leader in the creation of the new engineeringframework standards in Massachusetts said that "the greatest percentage of our work is indirect support of the teachers, who can be intimidated by the prospect of teachingengineering material." Professional development helps, Cyr says, but "much of itdepends on the approach you use with the teacher. It's that interpersonal communicationhelping
.- 20007, Phone: (202) 403-5640, email: dsubedi@air.orgCharles Bunting, Oklahoma State University Charles Bunting is an Associate Professor of Electrical and Computer Engineering at Oklahoma State University. His research focus is electromagnetic modeling and microwave measurements. He is also interested in material characterization in the high frequency and microwave regime (500 MHz - 94 GHz) and the interaction of biological systems and electromagnetic fields. He is a Co-PI on a National Science Foundation grant to restructure undergraduate electrical engineering courses that focus on developing deeper levels of student learning. Address: 202 Engineering South, ECEN, Stillwater, OK 74078
learned she was good atprogramming and mechanics, and that she enjoyed designing the robots. She got soexcited about robotics that she went out and got an internship at NASA.An alternative school with a low graduation rate and a poor attendance rate adopted theBotball program as a hopeful measure to try to keep their students engaged. The studentsinvolved in the program showed a 100% attendance rate, and more students signed up todo the program the following year. Being on the Botball team became such a covetedposition that students had to sign and uphold behavior contracts in order to be allowed toparticipate. This school now graduates students who go on to good colleges, several evengoing on to the University of California at Los Angeles and
engineering curriculum requiresthe growth mindset of a lifetime learner. ImpetusA six member committee comprised of three engineering professors, with expertise in electrical,mechanical, biomedical, civil, and computer science, and three science professors, with expertisein chemistry, physics, and math, convened during the summer of 2016 to investigate the sourceof a more than 30% failure/drop rate for students in the physics mechanics course. Afteridentifying several contributing elements, they merged a proposed solution with many other Proceedings of the 2021 ASEE Gulf-Southwest Annual Conference Baylor University, Waco, TX
-Simon bet about thecost of materials [5]. The Bet, [6] is a book that details a famous bet between Paul Ehrlich,Biologist and Environmentalist and Julian Simon, Economist. Simon won the bet over thedecade 1980-1990. The lesson for students is that inflation adjusted prices of natural resourceshave a negative, not a positive trend, over sufficiently long periods of time. It is exactly this kindof insight, and arguments about the mechanisms that might give rise to it, that could be useful forengineering students in their careers. If they work as project planners and managers, it isvaluable to understand these larger trends and what they might mean for product development. Itcan promote a mindset sensitive to the impact of such external
portfolio that contained their comments about the pedagogytools used in the course. The portfolio, along with other tools, was used to assess the effects ofthis new teaching and learning environment. The design of multimedia tools in this course wasbased on the objectives of the department, the requirements by employers, and the new criteriaset up by the Accreditation Board of Engineering and Technology (ABET 2000).The instructor’s perception is that the video lectures enriched the learning process and enhancedefficiency of the class sessions, though they cannot completely replace every class sessions. Thecourse web site is an excellent archive for course material and a tool for constant interaction withstudents. The portfolio improved some of the
Adnan is a Ph.D. candidate in mechanical engineering with a focus on energy/environmental systems at the Ira A Fulton schools of engineering, Arizona State University (ASU). He holds a Bachelor of Science in mechanical engineering conferred from the Kwame Nkrumah University of Science and Technology (KNUST, Ghana, July 2018) and a Master of Science in same from ASU (May 2019). His research efforts focus on sustainable multi-pollutant abatement strategies leveraging additively manufactured multifunctional materials. To this end, Adnan works on novel catalyst development, characterization, and implementation in controlled catalysis experiments. Adnan is also a recipient of the 2021 Air and Waste Management Association
for the corporation. He also worked as a consultant in office automation for five years at Microlink Computer Services, Bangladesh. Dr. Choudhuri also taught undergraduate courses in the Mechanical Engineering Department at Bangladesh Institute of Technology for five years.Dr. Brian Krug, Grand Valley State University I have spent 24 years as an electrical engineer in both the telecom industry aerospace industry. Before joining the School of Engineering here at GVSU, I worked for Teradyne and Tellabs in Chicago and at Eaton Aerospace, GE aviation and Parker Aerospace in west Michigan. My research interests include sensors, embedded systems, control and power theory. My most recent work involved developing a new
Page 11.916.4introductory computer sciences (CptS 121) course. The only demographics collected during thisstudy were regarding the student’s gender and academic major. As shown in Table 1, themajority of participants were male (92%). Based on all of the participants, Computer Science(40%) was the most reported major. Electrical engineering (18%) was the next highest number ofmajors, followed by Computer Engineering (14%), Mechanical Engineering (9%), Mathematics(7%), Management Information Systems (4%), Undecided (4%), and Physics (< 1%). A total of74% of the freshman reported that they were majoring in Computer Sciences or ComputerEngineering. For other undergraduates, 67% of them reported majoring in fields that were not inComputer
. American c Society for Engineering Education, 2020 Holistic Engineering: A Concept Exploration in a Cross- Disciplinary Project Course ExperienceAbstractHolistic engineering is an approach to the engineering profession, rather than an engineeringdiscipline such as civil, electrical, or mechanical engineering. It is inspired by the realization thattraditional engineering does not adequately harness professional skills in its problem-solvingrepertoire. Holistic engineering asks engineers to look outward, beyond the fields of math andscience, in search of solutions to entire problems. While engineering graduates are well preparedin the technical aspects of the engineering
Civil Engineering Classroom,” J Prof Issues Eng Educ Pract, vol 131, pp. 1-5, January 2005.[24] R.V. Schaaf, J.L. Klosky. “Classroom Demonstrations in Introductory Mechanics,” J Prof Issues Eng Educ Pract, vol 131, pp. 83-89, April 2005.[25] N. Mladenov, T. Kulkarni, M. London. “Use of In-Class Demonstrations and Activities to Convey Fundamentals of Environmental Engineering to Undergraduate Students,” Paper presented at 2014 ASEE Annual Conference & Exposition, Indianapolis, Indiana. https://peer.asee.org/23242.[26] Y. Zheng, W. Xia, P. Cao. “Developing of Air Pollution Control Engineering,” Advance Materials Research, vol 663, pp. 831-835, 2013. Available: https://doi.org/10.4028
engineering disciplines blur 7.For instance, in integrated circuit process development, a technologist must understand theintrinsic nature of the materials (physics), the dynamic equilibrium of the processing reactors(chemical engineering), the physical properties of the multiple layers (mechanical engineering),and the needed characteristics of the final devices (electrical engineering). A student graduatingwith a degree in any of these fields would have deep knowledge of one aspect of the problemsolution, but little knowledge of the other needed areas. As this industry progresses through thesub-micron range into nanometer scale devices, it will become even more difficult to separate thescience from the engineering of the devices.While it is
534: Microwave Devices and Circuits Solid State CAD/Software 420: Introduction to Quantum Electronics 477: Introductions to Algorithms 421: Properties of Transistors 481: Software Engineering 514: Adv. MEMS Devices & Technologies 574: Theoretical Computer Science 520: Elect. and Optical Prop. of Semicond. 575: Advanced Cryptography 521: High-Speed Transistors 581: Software Engineering Tools 528: Microelectronic Process Technology 582: Advanced Operating Systems 540: Applied Quantum Mechanics I 583: Advanced Compilers 541: Applied Quantum Mechanics II
Analysis Data collection and Industrial (contemporary) modelingDelivery of the Case StudiesEach case study is delivered over a period of two weeks in four one-hour lectures and one two-hour lab. The case study is introduced in the first lecture of the set. In the second lecture, thecontent is introduced (third column of Table 3), using the case study as a springboard. Thus, allcontent is introduced through a problem to be solved. The third lecture is devoted to thediscipline highlighted in the case study (fourth column of Table 3). In the last lecture, anyremaining case study material is presented, along with instructions for the preparation of thedeliverable. During the set of four
the others and must learn skills to focus their efforts. Page 5.665.5Data CollectionOnce the problem has been defined, an adaptive student will begin to search systematically forthe data needed to solve it. This search will tend to remain well within the bounds of thediscipline in which the problem was defined5. For example, if the student is asked to model aparticular mechanical system, he or she will probably restrict the search for information tomechanical engineering texts and examples. A more innovative student, on the other hand, whenasked to model the same system, may well extend the search for examples into other fields, suchas
of assessment are listedbelow.# 1 Communicate effectively through speaking, listening, and writing. These competencies will be measured by the ability to: Deliver clear, well-organizedverbal presentations that are appropriate for purpose and audience. Page 23.70.3 a) Use comprehensive listening skills to evaluate messages and respond appropriately. b) Demonstrate the ability to organize ideas, to write clearly and coherently, and to employ conventional mechanics, usage and grammar.#2 Use critical thinking to analyze and solve problems.These competencies will be measured by the ability to: a) Recognize the
by department, muchof the material in the course covers other areas as well, ranging from campus health services toweb page construction. This paper will first provide an overview of the content and structure ofthe Engineering 100 program from the perspective of a first year student, then from theperspective of a student facilitator, and finally from an administrative point of view. In addition,it is a goal of this paper to convey some of the educational philosophy that has driven thisprogram forward over the last six years and, in our opinion, made it so successful.IntroductionEach fall at the University of Illinois, Urbana-Champaign (UIUC) over 1,100 new engineeringstudents begin their careers as engineers. In their first semester, every
building deforms under the action of forcesprovides a concrete example of how the abstract concept of linear equations is used in a real-worldstructural design. Learning through concrete examples of forces-displacements instead of abstractvariables enables the students to apply these concepts to other areas of study. I have realized theimportance of grounding abstract concepts in real-world applications. Students appreciate thepractical aspects and the links to real-world examples as reflected by student comments such as“Loved that you used real life examples to teach the material, I learned really well because of theexamples”.In thinking about how to approach the geotechnical engineering course, I hoped to apply some of thestrategies of using
of electricalengineering is linked to their conceptual understanding of engineering material. In the workdiscussed here, we examine the relationship between students’ course and concept inventoryperformance and their reasons for studying engineering and experiences in the engineeringcoursework.Previous work on students’ understanding of signals and systems has focused on their conceptualunderstanding of the content.1,2 This work has found that interactive pedagogy has a positiveimpact on students’ learning of the content as measured by the Signals and Systems ConceptInventory (SSCI), which is described in further detail in the methods section.3 In previous work,we have examined how students use different types of language (formal and
feel that they were misleading in this respect.Question: Did they ask you to have that background coming in?Student 2: If I had been a design coop in our department that would have been a requirement.But I was under product support, so I did a lot more product testing and improvement ofproducts instead of designing. The coop in my department already had mechanics and otherthings so it wasn’t a requirement for my job specification.Student 1: My first project was an electric actuator – It would have been a lot more helpful if Iwould have had an actual course in electronics or electrical engineering or something like that.I learned a lot as I went.Student 6: Sitting there listening to my supervisor tell me all the material properties
asense of order and plans ahead. The Quick start individual innovates, takes risks, improvises, andplays hunches. When asked to give a presentation, the Quick Start comfortably ad libs. TheImplementor uses space and materials, builds, constructs, and uses hands-on equipment with ease.This person creates handcrafted models and insists on quality materials. Everyone has each ofthese abilities to some degree.However, people are most productivewhen they are able to utilize theirstrongest conative talents.The picture to the right graphicallydepicts the degree to which each ofthese abilities is present. The fourstriving instincts are expressedthrough three possible operatingzones, indicating how the individualwill make use these talents. A scoreof 7
Paper ID #20382Focusing on Writing to Learn Approach to Increase Engagement and Perfor-mance in Digital Design LabDr. Salman Siddiqui, Georgia Southern University Dr. Salman Siddiqui joined Georgia Southern in 2013 and is currently working as a Lecturer in the Depart- ment of Electrical Engineering. He received his B.S.E.E., M.S.E.E., and Ph.D. in Electrical Engineering from Florida State University, Tallahassee, FL. He previously taught as an Adjunct Professor at Florida Agricultural and Mechanical University (in Tallahassee, FL) in the Division of Engineering Technology from 2010 until 2013. His research interests include
. International Gaming Technology Website. Retrieved January 4, 2005, from http://www.igt.com/16. Learning Technology Dissemination Initiative Website, Likers Scale Example. Retrieved February 28, 2005, http://www.icbl.hw.ac.uk/ltdi/cookbook/info_likert_scale/17. Carnegie Mellon Robotics Curriculum Website. Retrieved January 4, 2005, from http://www.rec.ri.cmu.edu/education/roboticscurriculum/Biographical InformationFaruk TABAN is currently serving as an instructor at University of Nevada, Reno. He holds Ph.D. in MechanicalEngineering at University of Nevada, Reno, M.Sc. in Materials Engineering at University of Southern California andM.Sc. and B.Sc. both in Mechanical Engineering at Istanbul Technical University.Erdinc ACAR is an Academic