Paper ID #16572Design of an Economical Student-built Automatic Control SystemDr. David Clippinger P.E., U.S. Coast Guard Academy CDR Clippinger graduated from the U.S. Coast Guard Academy in 1995 with a B.S. in Naval Architecture and Marine Engineering. He then served as student engineer and damage control assistant aboard the Coast Guard Icebreaker Polar Star (WAGB 10), homeported in Seattle, Washington, and deployed in support of operation Deep Freeze 1996. From 1997 to 1999, he participated in the U.S. Navy officer exchange program aboard the U.S. Navy destroyer Peterson (DD 969), serving as Combat Information Center
each student does final assembly, soldering, and debugging oftheir completed PCBs. The final step is configuring the firmware on the Bluetooth module anddeveloping a user interface on the LCD.1 IntroductionThe engineering programs at York College of Pennsylvania have always placed a heavy emphasison hands-on learning. Experiential learning is a core component of these programs from students’very first semester. This paper describes a Bluetooth audio amplifier project that was recentlycompleted by undergraduate computer engineering students in an embedded systems course. Theamplifier accepts connections from Bluetooth audio sources such as smartphones, tablets andcomputers. The wireless audio signal is amplified and output via a standard pair
that address fundamental problems to operate robotic and autonomoussystems, including path planning, localization and mapping, perception, kinematics, and sensorfusion. It also aims for the students to work effectively in a team to solve challenging problemswithout clearly prescribed solutions.TopicsThe course covered the fundamental theories of autonomous navigation of ground mobile robotsthrough recitation sessions. The topic includes programming basics in Python and ROS, sensorsand actuators, locomotion, mobile robot kinematics, perception, vision, path planning, Proceedings of the 2022 Conference for Industry and Education Collaboration Copyright ©2022, American Society for Engineering Education
]. Faculty in science, technology, engineering, and math (STEM) face issues suchas little preparation related to online pedagogy and technology, lack of knowledge about how toeffectively deliver online course content, the inability to conduct laboratory courses online, fearof student disengagement, and difficulties in adopting active learning techniques to the onlinecontext [2] - [4]. Here, active learning refers to individual or group activities designed to engagestudents in their learning during class (e.g., answering questions and group discussions) [5]; andit has been shown that, when it is implemented effectively in online settings, active learning canincrease student engagement, improve learning outcomes, and create more inclusive
: troubleshoot, and maintain technology related software,Teresa.Piliouras@BestWeCanBe.org).978-1-4799-5233-5/14/$31.00 ©2014 IEEEProceedings of 2014 Zone 1 Conference of the American Society for Engineering Education (ASEE Zone 1) hardware, and systems. solving and learning within digital environments (which are As noted above, SCANS makes a distinction between deemed practical life skills) [4], [13].foundation skills and competencies – which require higher In comparison to SCANS and ATC21S, The Partnership fororder knowledge and behavior. Foundation skills are useful in 21st Century Learning Skills’ learning framework addsall occupations. For instance, foundation skills are
in computer graphics applications (computer-aided design, modeling, animation, and 3D fabrication) and concepts pertaining to Computer Science.Dr. Malini Natarajarathinam, Texas A&M University Dr. Malini Natarajarathinam joined the faculty of Industrial Distribution Program at Texas A&M Univer- sity in 2007. Natarajarathinam received her Ph.D. in Supply Chain Management from The University of Alabama. She received her Bachelor of Engineering (Major: Industrial and Systems Engineering) from Anna University [Tamilnadu, India], her MS in Industrial Engineering from Auburn University, her MA in Management Science and MS in Applied Statistics from The University of Alabama. She has experi- ence working with
Critical Role of Communication Abstract In line with the engineering accreditation board’s guidelines for program outcomes, thisstudy narrows in on the ability of undergraduate engineers to function in foreign teams (althoughnot multidisciplinary) and their ability to communicate effectively. The purpose of this researchwas to assess the effects of systematic membership change within teams and the role ofcommunication on student’s perceptions of learning. In an attempt to mirror the reality of engineering work life, a systematic membershipchange was imposed on an electrical engineering class to situate students within a permanentteam, while still engaging in the
FEDERAL BUREAU OF INVESTIGATIONCASE EXAMPLE: RESEARCH PARTNERSHIPSCHINESE ENGINEER’S TARGETING OF HIGHLY SENSITIVE DEFENSE MATERIALSA Chinese citizen and lawful permanent resident of the UnitedStates worked as a senior engineer and scientist at a U.S. compa- The U.S. Air Force declared theny, working on engines used by the U.S. Air Force’s F-22 and F-35 documents in the Chinese citizen’sfighter aircraft. The Chinese citizen expressed to others his desire possession could have compromisedto return to China to advance his career and work on research proj- broader research andects related to his work at the U.S. company. The Chinese citizen development effortsthen sought out
alane detection scenario show that the car is able to drive autonomously by detecting andfollowing a white lane on a track.IntroductionTraffic accidents take the lives of nearly 1.3 million people every year [1]. The leading cause ofall these crashes is unfortunately not imputable to machine but to human mistakes (driving underinfluence, careless driving). To mitigate or eliminate all tragic consequences related to humanerror when driving, the use of autonomous driving cars has been considered.In this work, we present the RazorCar, a FPGA-based prototyping platform for autonomous radiocontrolled (RC) driving systems. Unlike in other existing projects such as [2], our primary goal isto provide a prototyping environment for the design of generic
communities and aid in global, clean- water initiatives. Next year, I will pursue a MS in Environmental Science and Engineering at UNC to collaborate with citizens of Spanish, Portuguese, and French-speaking nations, among others, to improve climate resiliency and water-resource management.Maria Christine PalmtagMs. Anna Engelke, UNC-Chapel Hill / North Carolina State University Anna Engelke is the Education Program Manager for the BeAM network of makerspaces at the Univer- sity of North Carolina - Chapel Hill. Her work focuses on developing makerspace learning environments, including maker course integration, instructional design for tool trainings, and mentor programs for mak- erspace staff. She is a current doctoral
to the project. In an attempt toreverse this trend and have more beneficial interdisciplinary design experiences for our students,our mechanical engineering and materials science program has adopted principles of cooperativelearning to improve team performance, increase knowledge acquired, and promote trulyinteractive experiences in the capstone design course. This paper will highlight the revisions tothe course and will use one project (the Medi-Fridge) as a case study for the effectiveness ofthese implementations.As an example project for these course revisions, this year a group of senior engineering students(three mechanical engineering and two electrical engineering students) worked on a method tokeep medication cool for extended
businessstrategy.With an increased focus on the diffusion of evidence-based instructional practices (EBIPs, alsoreferred to as research-based instructional practices (RPIPs)) in science, technology, engineering,and mathematics (STEM) education, the implications of knowledge transfer in CoP can increasethe understanding of how to facilitate the spread and adoption of these instructional techniques.This paper utilizes Wenger’s work on Cultivating Communities of Practice to define CoP as“groups of people who share a concern or a passion for something they do and learn how to do itbetter as they interact regularly.” Within post-secondary STEM education, this paper recognizescommunities of practice as the formal construct of individual departments related to a
tracing to an undergraduate audience.3. Course topics and pedagogyOur undergraduate ray tracing course, currently entitled “Image Synthesis using Ray Tracing”, isintended to provide the student with an understanding of the details of the algorithm through thedesign and implementation of a full-featured ray tracing program. Extensive programming inC++ facilitates knowledge development in the core areas related to image synthesis using raytracing: (1) the physical and mathematical underpinnings of the algorithm, and (2) efficientsystem design and implementation. A description from the course catalog is given in Figure 4. Image Synthesis using Ray Tracing. An introductory course in the design and implementation of the ray tracing
Teaching Professor working jointly in the College of Engineering and in the Department of STEM Education within the College of Education at North Carolina State University. She earned a B.S. in Biological EngineMicaha Dean Hughes, North Carolina State University Micaha Dean Hughes is a doctoral student in the Educational Psychology program in the Teacher Education and Learning Sciences department at North Carolina State University. Her research interests include community-engaged approaches to educational equity and access in STEM education, college recruitment and K-12 outreach practices for women and minoritized students in STEM, mathematical identity development for adolescents and young adults, and culturally
, function generator, video feedback and virtual analog control unit (green).The client also contains a built-in Web browser window. Therefore, students can run thesoftware, open all necessary windows for remote hardware access and the browser to readinstructions on the experiment.IV. Evaluation of the systemAs an initial test of the developed system the e-LabBook has been used in the Fall 2002 offeringof the ME 375 course. In this offering, we have not delivered the course at a distance yet.However, we tested the e-LabBook using a volunteer group of students taking the course. Thissemester 10 students took the course 4 of whom volunteered to remotely access the lab. TheManufacturing Engineering program is a growing, relatively
of engineers from relevant industries to provideadvice and help guide their programs. At the University of Colorado at Boulder, for example, ourIndustrial Advisory Committee (IAC) meets semiannually. At a recent IAC meeting, theimportance of including GD&T in the ME curriculum was reiterated.Companies typically send design engineers to intense courses to learn GD&T, often as long as 40hours, which is approximately as many contact hours as a typical three credit-hour universitysemester course. Such a course is typically supported by a comprehensive reference text such asFoster.1 On-line GD&T courses are also available.2A logical place to introduce GD&T is in a first-year design graphics course. However, with thesignificant
Preliminary Designwhich made students even more accepting of the team teaching arrangement in Aircraft DetailDesign. In fact, after a few semesters, students have begun to expect HU/COM instructors intheir senior design courses, and first-year engineering students already know which HU/COMfaculty is teaching in which AE senior design course.While the first critical challenge was classroom related, the second critical challenge is moreadministrative in nature. To understand the nature of this challenge, one must also understandthat as an undergraduate teaching institution, ERAU has many degree programs but none that arehoused in the HU/COM department. Rather, HU/COM is a service department, teaching general Proceedings of the 2009 American
Paper ID #9858Studying & Supporting Productive Disciplinary Engagement in STEM Learn-ing EnvironmentsDr. Milo Koretsky, Oregon State University Milo Koretsky is a Professor of Chemical Engineering at Oregon State University. He received his B.S. and M.S. degrees from UC San Diego and his Ph.D. from UC Berkeley, all in Chemical Engineering. He currently has research activity in areas related engineering education and is interested in integrating technology into effective educational practices and in promoting the use of higher-level cognitive skills in engineering problem solving. His research interests particularly
occurs due to a variety of reasons that have been long reported [4]. As such,Tablets may indeed enable engineering programs to effectively bring computing into theclassroom. To see if this is indeed the case, the reader should follow with interest thepedagogical innovations that will (or will not) be made at institutions that have adopted a TabletPC requirement for their engineering students (such at Virginia Tech beginning in Fall 2006 [5]).AcknowledgementsThis project was enabled by a HP Technology for Teaching (TfT) grant which provided the HPTC1100 Tablets for student use. Additional support was provided through a Microsoft ResearchTablet PC Technology, Curriculum and Higher Education award and UVM’s InstructionalIncentive Grant program
AC 2011-838: MACHINE DESIGN LAB: USING AUTOMOTIVE TRANS-MISSION EXAMPLES TO REINFORCE UNDERSTANDING OF GEARTRAIN ANALYSISRoger A Beardsley, Central Washington University Roger Beardsley is an Assistant Professor in the Mechanical Engineering Technology program at Central Washington University in Ellensburg, WA. He teaches courses in energy related topics (thermodynamics, fluids & heat transfer), along with the second course in the undergraduate sequence in mechanical de- sign. Some of his technical interests include renewable energy, appropriate technology and related design issues.Charles O. Pringle, Central Washington University Charles Pringle is an Assistant Professor in the Mechanical Engineering Technology
interests include the utilization of lignin as an alternative renewable chemicals feedstock; lignin-based plastics; green chemistry and engineering for the development of next-generation lignocellulosic biorefineries; and bio-based polymers and composites. His work has been published in Green Chemistry; ChemSusChem; ACS Sustainable Chemistry & Engineering; ACS Applied Materials & Interfaces; the Journal of Applied Polymer Science; and the Journal of Non-Crystalline Solids. He is currently collaborating with scientists at Drexel University, the University of Delaware, and the Army Research Labs. While at the University of Delaware, he completed the Higher Education Teaching Certification program, a program that is
CoEd Faculty Award for Outstand- ing Service to the Education Profession (2016), UW CoEd Honored Fall Convocation Faculty (2017), and UW CoEd Faculty Award for Outstanding Research and Scholarship (2019).Since beginning at UW, Bur- rows has written, implemented, or evaluated over 50 unique grants. She has been the Program Director for GenCyber as well as PI of NSF grants for STEM and CS work. The core of her research agenda is to deepen science, mathematics, engineering, and technology (STEM) partnership involvement and un- derstanding through STEM interdisciplinary integration with in-service teacher professional development (PD) and pre-service teacher coursework. Her research agenda is composed of a unified STEM
UGLC. He shares with his student employees his practical experience in using electrical engineering concepts and computer technologies to help in everyday real-world applications. Perez has worked with the UTeach program at UTEP since its creation to streamline the transition process for engineering students from local area high schools to college by equipping their teachers with teaching strategies and technologies each summer. Oscar enjoys teamwork, believes in education as a process for achieving life-long learning rather than as a purely academic pursuit. He currently works on maintaining, upgrading and designing new computer classroom systems. Perez is inspired because he enjoys working with people and
Can Students Build Production-Quality Software? Gene Fisher California Polytechnic State University San Luis Obispo, CA 93407AbstractThe question posed in the title of this paper has been asked in many forms. There have beenthoughtful scholarly publications on the subject, and less than scholarly opinion pieces. Thispaper asks the question in the context of a year-long capstone course in software engineering,taught at Cal Poly University San Luis Obispo. Specifically, if product development is the over-riding goal for such a course, can a team of senior-level software engineering students deliverand deploy a genuinely
to implement this ap-proach, using Google App Engine, Python and HTML. We used it in an undergraduate courseon Principles of Programming Languages and compared the effectiveness of the discussion usingour approach, with another discussion that was conducted on a popular tool Piazza, which usesforum-like discussion format. The experiment and results are described in the next section.One important concern regarding the use of CONSIDER in STEM courses, as an anonymousreviewer noted, is that “in non-STEM the questions are usually asking for opinion, whereas, inSTEM-related majors, the answers might be very clear. A simple search using Google can providea simple answer for any STEM-related questions . . . ”. There are, in fact, two issues here
; Exposition Copyright © 2005, American Society for Engineering EducationFinally, it is also helpful to show an example Puzzle which serves as the closure bookend to thetopic at hand, as in the figure. The puzzle requires the students to go one step farther than theWarmUp questions, but is clearly related to them. Discussion of correct and incorrect puzzleresponses often provides other “teachable” moments because any students who have offeredanswers have high interest in knowing if their answers were correct. Many times, puzzlesprovide opportunities to spiral back to earlier concepts (here, to kinematics or forces, forexample) and at the same time to tie to future concepts (here, angular momentum and torque).Puzzle ExampleA
An Experiment with Flipped Classroom Concept in a Thermodynamics Course Amir Karimi, Randall Manteufel The University of Texas at San Antonio/Mechanical Engineering One UTSA Circle, San Antonio, Texas, 78249, USA E-mail: amir.karimi@utsa.edu Abstract how to use tables, charts, appropriate equations, and software programs to evaluate thermodynamic properties. Basic power, and refrigeration, cycles are Flipped classroom is
waste management and environmental fateand transport. She is also involved with program development of Environmental Engineering education. She is aregistered professional engineer and a member of several professional organizations.RENATA ENGEL is an Associate Professor of Engineering Graphics and Engineering Science and Mechanics. Shehas a BS in Engineering Science from Penn State and Ph.D. in Engineering Mechanics from the University of SouthFlorida. She has developed a research program in composite processing and development and has conductededucational research as it relates to instructional software development and implementation.RICHARD GILBERT is chair of the Chemical Engineering Department at the University of South Florida
compute awindowed moving average. In simulation they just cared about the final results for each series of16 samples, but when they went through the lab, they discovered that the original signal was anoisy sine wave and what they have just coded was a very simple low pass filter. In general mostof the students liked the example and related the operations performed with a real application. 4 During the laboratory exercise they were also given a Matlab m code program that generatedadditional values and by doing a copy & paste from the Matlab output directly to their look uptable, they were able to explore different frequencies and noise
using indirect calorimetry. This procedureinvolves performing a mass balance on inspired and expired oxygen in order to determine theamount of oxygen used per unit time. The stoichiometric relations between moles of oxygen andmoles of substrate utilized, and between substrate utilization and energy release, allow for thecalculation of energy utilization in kilocalories, given liters of oxygen consumed. 12 To obtainoxygen consumed, students collected into a Douglas bag their expired respiratory gases for a Page 8.712.4 Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition