and to transpose simple equations. The need for basicmathematical skills and knowledge is considered as many students found the abovemathematical requirements problematic. The testing of students’ mathematics on this unit,the results, and the reasons for the response chosen to address these problems along with thenecessary mathematics required on this unit, are outlined.1. IntroductionComputer Installation & Maintenance (CIM) and are ‘hands on’ units run by the ComputingScience department at ECU. This unit was designed and introduced as a result of surveys ofjob advertisements in papers in Western Australia. Subsequent interviews with potentialemployers in the computer and network support who had recently advertised for staff lead toa
all should have the ability to designand conduct experiments and to analyze and interpret data-skills which are central to practice ofquality engineering. In this paper, we present the plan and implementation of a guided projectthat integrates the learning and application of the Taguchi Method into a hands-on productdesign and test optimization experience. Made popular by Japanese manufacturers, the Taguchimethod has since received widespread acceptance as the de facto standard technique to optimizethe process and quality of engineering in major industries such as automotive and aerospace.With the task of design and construction of a catapult as the context of activities, the projectserves as an ideal vehicle through which students can learn
, includingbenchmarking, technical difficulty, etc. They are then expected to use the QFD results, and otherdata collected, to propose design changes that should be made in the product. Page 3.267.3 3 FIGURE 1: REVERSE ENGINEERING AND REDESIGN METHODOLOGY. 1. Investigation,Prediction,andHypothesis • Develop black box model • Use/Experience product • Gather and organize customer needs • Perform economic feasibility of redesign • State process description or activity diagram • Hypothesize refined functional
Session 3461 Section 3461 IMPROVING ENGINEERING STUDENTS’ WRITING THROUGH COLLABORATION BETWEEN WRITING CENTERS AND ENGINEERING FACULTY Audeen W. Fentiman The Ohio State UniversityIntroductionEngineering Graphics 166 (EG166) is required of all beginning engineering students atThe Ohio State University. The course has always focused on graphical communications.In it, students learn how to make 3-D sketches that would allow a non-technical audienceto understand their ideas for new equipment or products, detailed drawings that
Paper ID #43399Board 168: Preliminary Design of an Engineering Case Study for ElementaryStudents (Work in Progress)Latanya Robinson, Florida International University Latanya Robinson is a doctoral candidate pursuing her degree in STEM Education at Florida International University (FIU). Her research interests include professoriate interdisciplinary collaboration, K-12 engineering education, and mathematics education.Dr. Alexandra Coso Strong, Florida International University As an assistant professor of engineering education at Florida International University, Dr. Alexandra Coso Strong works and teaches at the
Paper ID #44118Board 255: Enabling In-Class Hands-On Electronics Opportunities throughFlipped Classroom using Openly Available VideosProf. Jennifer Hasler, Georgia Institute of Technology Jennifer Hasler is a full professor in the School of Electrical and Computer Engineering at Georgia Institute of Technology. Dr. Hasler received her M.S. and B.S.E. in Electrical Engineering from Arizona State University in 1991, received her Ph.D. from California Institute of Technology in Computation and Neural Systems in 1997, and received her Master of Divinity from Emory University in 2020. ©American Society for
Paper ID #42468Board 363: Reimagining Essential Computing Content for High School StudentsDr. Julie M. Smith, CSEdResearch.org Dr. Julie M. Smith is a senior education researcher at CSEdResearch.org. She holds degrees in Curriculum & Instruction and Software Development. She also completed a doctoral program in Learning Technologies at the University of North Texas. Her research focus is computer science education, particularly the intersection of learning analytics, learning theory, and equity and excellence. She was a research assistant at MIT’s Teaching Systems Lab, working on a program aimed at improving equity in
Paper ID #43833The Value of Participating in the Grand Challenges Scholars Program: Students’Perceptions Across Three YearsAmy Trowbridge, Arizona State University Amy Trowbridge is an Associate Teaching Professor and co-Director of the Grand Challenges Scholars Program (GCSP) in the Ira A. Fulton Schools of Engineering. Her teaching focuses primarily on first year engineering students, and she is interested in curricular and co-curricular experiences that broaden students’ perspectives and enhance student learning, and the use of digital portfolios for students to showcase and reflect on their experiences. Amy has
Paper ID #43652Work in Progress: Evaluating the Current State of the First-Year SeminarProgram at Penn State UniversityProf. Bradley J. Sottile, Pennsylvania State University Brad Sottile is Assistant Teaching Professor of Computer Science and Engineering, and Aerospace Engineering in The Pennsylvania State University’s College of Engineering, School of Electrical Engineering and Computer Science.Mrs. Abbie Canale, Pennsylvania State University Assistant Teaching ProfessorMs. Yu Xia, Emporia State UniversityDr. Tim Kane, Pennsylvania State University TMOTHY J. KANE, Ph.D is Professor of Electrical Engineering and
limitations to the modelare that (1) constant fluid properties are assumed, and (2) the flow remains laminar, since theeffects of turbulence from the equation are not considered and would serve to enhance the heattransfer via additional mixing in other directions.This paper primarily serves as a basic outline of the model, its uses, and illustrates sample sets oftemperature variations in the model. The radial and axial variations in temperature can both beused to determine the Nusselt number relating convective and conductive forms of heat transfer.As uniform heat flux (UHF) and uniform wall temperature (UWT) are commonly cited boundaryconditions for Nu which can be developed without the need for experiments, these values will beconfirmed first. Then
experience to many students. This paper presents a roundup of relevant basic conceptsand the rudiments for effective learning of the virtual work method and aims to demystify theperception of this method as a magic black box. In a nutshell, there are three major steps for ap-plying the virtual work method and a guiding strategy in choosing the virtual displacement fordetermining the specified unknown. The proposed steps and strategy for implementing the vir-tual work method have led to much better understanding and more effective learning for studentsI. IntroductionThe virtual work method has many applications, and it is often more powerful than the tradi-tional method in solving problems involving frames or machines. The virtual work method
the last century or so [13].Figure 6 shows the damage indicators obtained via Eco-indicator 99.5. EDUCATIONAL IMPACTS OF NANOTECHNOLOGYProceedings of the 2012 Midwest Section Conference of the American Society for Engineering EducationNanotechnology offers amazing benefits to human life and the environment, but it can lead toeducational consequences, as well. Research and development on nanotechnology andnanoproducts have been growing rapidly for more than a decade; however, educational progresshas not been as rapid as technological development. In other words, technical training is notsufficient for individuals working in the field; parallel training is required, which will be usefulfor the societal and ethical implications of the
Paper ID #42107Board 99: Utilizing the Solar District Cup Competition as a Case Study for aRenewable Energy Capstone to Enhance Students’ Learning ExperienceDr. Jin Ho Jo, Illinois State University Dr. Jin Ho Jo is a Professor of Technology at Illinois State University, teaching in the Sustainable and Renewable Energy program. Dr. Jo also leads the Sustainable Energy Consortium at the university. Dr. Jo is an honors graduate of Purdue University, where he earned a B.S. in Building Construction Management. He earned his M.S. in Urban Planning from Columbia University, where he investigated critical environmental
projectshave been received favorably by the students, the local companies, ABET evaluators, and ourindustrial advisory board. As in many PBL activities, we observed that students develop betterteamwork skills and better solutions to design problems. In addition, there are unique outcomesfor the younger students including a higher commitment to their chosen major, and a bettercontext for future classes. For the older students working with the younger students, theoutcomes include review of lower level topics and enhanced supervisory skills. This paper begins by reviewing the literature in the area of PBL and teams, describes theproject and processes involved in these project teams, and delineates lessons learned from boththe instructor’s and the
education tool.2. CNC Tabletop Lathe DescriptionThis section describes the CNC Tabletop Lathe that was redesigned in this project. An outline of all keycomponents and controls is detailed. The CNC Tabletop Lathe revitalized in this work is a 4-axismachine tool, originally equipped with a dedicated controller. It is important to note that some aspects ofthe machine not updated such as some features of the electrical systems and technical specifications arenot covered in this paper. These details may be found in the reference3. As seen in Fig. 2, the outer casingof the CNC Tabletop Lathe consists of several main components: Spindle, Spindle Speed Control, SafetyCover, Emergency Stop, Spindle Motor, Stepper Motors4 (X and Z tool post directions
Inventory at Multiple InstitutionsAbstract A concept inventory is a standard assessment tool that evaluates how well a student'sconceptual framework matches the accepted conceptual framework of a discipline. In this paper,we describe our development cycle to create a digital logic concept inventory. We show that theconcept inventory is a reliable and valid instrument even when administered at multipleinstitutions across the United States of America and can be used to evaluate the effectiveness ofdifferent pedagogies.1. Introduction Instructors in electrical and computer engineering and in computer science have developedinnovative methods to teach digital logic circuits. These methods attempt to increase
. Page 15.70.2 2The primary goal of the Ujima Scholars program is to prepare students for college-levelacademic performance. The ultimate goal of the program is to retain students through their firstyear, prepared to be accepted into the major of their choice as sophomores. The long-term goalof both NUPRIME and Ujima Scholars programs is to provide academic and cultural supportbeyond that pivotal first year to insure that students are first, able to gain access into the Collegeof Engineering and second, earn their undergraduate degrees in engineering.Presented in this paper is an overview of the programmatic transfer, retention and
AC 2010-1956: IMPROVING CONCEPTUAL UNDERSTANDING INPROBABILITY AND STATISTICSDean Jensen, South Dakota School of Mines and TechnologyStuart Kellogg, South Dakota School of Mines and Technology Page 15.691.1© American Society for Engineering Education, 2010 Improving Conceptual Understanding in Probability and StatisticsAbstractProgram as well as course assessments indicate that, while technical skills are generally good, aweakness remains in students’ ability to translate information and skill sets from one Carnegieunit (one course) to another. The inability to apply probability and/or statistical concepts indifferent problem contexts is particularly problematic for
help solve the world’s most pressing issues. In order to accomplish this, Iridescent usesvolunteer engineers to teach cutting edge science to students and their families.Through Iridescent’s partnership with the University of Southern California (USC), engineeringundergraduates enroll in “Engineers as Teachers” and receive 3 units of technical elective creditfor participating in the training program. During the 16-week training undergraduate engineerspartner with graduate students, faculty and professional engineers and learn to break downcomplex ideas into simple lessons, identify learning objectives, design aligned experiments andassess learning through a pedagogical theory-based approach.Throughout the training, engineer volunteers develop
students work on real industrial projects. Since the projects are fromindustry and do not cover all unit operations, the students do not learn the entire simulator butlearn what they need to know for their particular project. They learn to use the simulator more asa tool for developing and analyzing process models, rather than for designing purposes.However, some projects do involve design or redesign of equipment and could emphasize moredesign if desired.This paper will discuss how projects are obtained, the types of projects obtained, how the courseis conducted, and some of the key items students learn. It will also mention the course learningobjectives developed for the ABET criteria and the assessment of these objectives. Finally, somebenefits
Windows Form Controls. Web Service methods are implemented for initiating remote processes on the control server. In this paper, we state the motivations for this project, describe the various online activities and generic administrative features, and provide a description of the implemented technologies and system components.1. Introduction Recent efforts in engineering education have focused on supplementing traditional meansof experimentation with virtual laboratories that are remotely accessible through the World-WideWeb (WWW), despite allegations that such a shift from the physical laboratory environment toan online experimentation space detaches students from irreplaceable real-world experiencesgained through physical
Engineering Educationthe data. Once all of this data is available, it can then be evaluated with the qualitative datacollected from exit surveys and personal interviews.As stated previously, this project is a work-in-progress, and much of the data is currently in theanalysis stage because the Spring 2005 semester did not begin until January 24, 2005, and it wasimpossible to track retention data before this point. Results from other departments (MechanicalEngineering and Electrical Engineering) along with results from Mercer will be analyzed,evaluated, and compared with existing results, and it is expected that the final results will beavailable in late May 2005. Ultimately, due to the deadline associated with this paper forinclusion in the 2005 ASEE
How does ‘Group Project’ facilitate students’ skills in learning? M.Y. CHAN* and M.Y. LAU *Department of Building Services Engineering The Hong Kong Polytechnic University, Hunghom, Hong Kong *Tel.: (852)27665836 Fax: (852)27657198 Email: bemychan@polyu.edu.hkAbstract Project-based learning is generally regarded as a comprehensive approach toclassroom teaching and learning in which students are actively involved in investigation ofauthentic original problems from their daily lives. The objective of this paper is to provide ageneral overview of the use of group project as well as to
A COMBINED RESEARCH AND CURRICULUM PROGRAM IN SIGNAL PROCESSING FOR COMMUNICATIONS* Andreas Spanias, Venkatraman Atti, Cihan Tepedelenlioglu, Antonia Papandreou-Suppappola, and Tolga Duman Department of Electrical Engineering, Ira A. Fulton School of Engineering, Arizona State University, Tempe, AZ 85287-5706, USA. e-mail: [spanias, atti, cihan, papandreou, and duman]@asu.edu Abstract This paper describes a combined curriculum and research program that aims to provide scientificand investigative experiences to undergraduate (UG) students by
rapport, and encouraging studentinvolvement. This paper introduces the course, explains its pedagogy, summarizes the studentchosen professional contributions, and demonstrates its value through the IDEA student surveyresults, National Survey of Student Engagement results, and NDSU Student Rating of instructionresults.IntroductionThe one credit course titled "Introduction to Industrial and Manufacturing Engineering" is thefirst Industrial and Manufacturing Engineering (IME) Department course taken by studentsconsidering a career in Industrial Engineering and Management (IE) or ManufacturingEngineering (ME) at North Dakota State University (NDSU). As such, it was especiallydesirable to maximize the student ratings of the course, which was
takeadvantage of summer employment opportunities within their major to provide work experiencein their field of study and assist in financing their education. Some students find positions withconsulting firms or contractors. A large number of students however, take advantage of theEngineering, Scientific, and Technical Internship (ESTI) program sponsored by the PennsylvaniaDepartment of Transportation (PennDOT). Students completing their freshman year inEngineering Technology are eligible for the program. PennDOT Interns work on variousprojects throughout the state. Most are assigned to inspection positions on construction fieldprojects near their homes. Advantages of this program are the professional work experience, theminimum amount of education
Paper ID #44887Case studies offer opportunities for us to show the ”real world” ofengineering and science in the classroomDr. Susannah GAL, Wentworth Institute of Technology Associate Dean Dr. Susannah Gal has an undergraduate degree in Chemistry and Biochemistry and her PhD in Biochemistry. She has held academic positions at institutions in New York, at Penn State Uni- versity, and at the University of The Bahamas in Nassau and served as a program officer for the National Science Foundation before joining Wentworth Institute of Technology in January 2023. Her research has included work in plant enzymes, DNA computing, DNA
: K-12 Education, STEM Outreach, STEM Education, Engineering Education,Equity Diversity and Inclusion, K-12 OutreachIntroductionThe k2i academy at the Lassonde School of Engineering - York University works with K-12education sector partners to design and implement programs that address systemic barriersto opportunities in STEM. In 2019, the Ontario Network of Women in Engineering reportedthat 24.4% of undergraduate engineering students were women. (ONWiE, 2019) In 2016,Engineers Canada reported that only 1% of undergraduate engineering students enrolled inaccredited engineering programs identified as Indigenous peoples. (Engineers Canada,2016) In this paper, we will share our experience in designing a program that addressessome of the
Wisconsin - Stout Jennifer Astwood is Assistant Professor of Art and Design at the University of Wisconsin-Stout. Her area of focus is industrial design. Page 22.945.1 c American Society for Engineering Education, 2011Interdisciplinary Sustainability Design and Development Education: Research, Development and Discovery Jennifer Astwood Ronald Scozzari University of Wisconsin - Stout Page 22.945.2Abstract.The paper will describe our experience in solving
IPT Program at UAHuntsville: An Innovative Approach to Design Education and STEM OutreachAbstractThis paper will review the Integrated Product Team (IPT) program at The University of Alabamain Huntsville. The core of the IPT program is a multi-disciplinary, multi-university senior designexperience. This design experience involves students from engineering and non-engineeringdepartments at UAHuntsville as well as engineering and science students from four U.S.universities and two European universities. This year the program has been expanded to includeeight area high schools as part of a new outreach initiative called the Innovative Student Projectfor Increased Recruitment of Engineering and Science Students (InSPIRESS). The goal of