AC 2012-4794: INCREASING STUDENT INVOLVEMENT IN A SUSTAIN-ABILITY COURSEDr. Brandon S. Field, University of Southern Indiana Brandon Field teaches in the thermal fluids area of mechanical engineering at the University of Southern Indiana, Evansville.Dr. Zane W. Mitchell Jr., University of Southern Indiana Page 25.767.1 c American Society for Engineering Education, 2012 Increasing Student Involvement in a Sustainability CourseAbstractStudent projects that have been included as part of an engineering course for the past two yearsare described in this paper. It is a new course, which is
AC 2012-3456: EMBEDDED RF SYSTEM DESIGN WITH THE RFPIC12F675Prof. Omer Farook, Purdue University, Calumet Omer Farook is a member of the faculty of electrical and computer engineering technology at Purdue University, Calumet. Farook received the diploma of licentiate in mechanical engineering and B.S.M.E. in 1970 and 1972 respectively. He further received B.S.E.E. and M.S.E.E. degrees in 1978 and 1983, respectively, from Illinois Institute of Technology. Farook’s current interests are in the areas of embedded system design, hardware software interfacing, digital communication, networking, image processing, and biometrics, C++, PHP, and Java Languages. He has a keen interest in pedagogy and instruction delivery
AC 2010-1131: THE CASE FOR CASE STUDIESJohn Robertson, Arizona State University John Robertson is a Professor in the Engineering Technology Department at Arizona State University Polytechnic. He was formerly an executive with Motorola and now participates in many senior technical training programs with the JACMET consortium. Page 15.1208.1© American Society for Engineering Education, 2010 The Case for Technology Case StudiesAbstract. The paper describes a two-target solution that uses industry short courses for‘front-line’ trials followed by condensation of the outcomes into academic programs.The
educational enterprise.To keep engineering courses relevant, faculty often bring in current topics to their undergraduateclasses. In the ideal world (or department), faculty engaged in research will teach undergraduatecourses in the same discipline area. Bringing in research work performed by undergraduatestudents into undergraduate courses has the important benefit that the coursework is still fresh inthe undergraduate student's mind. The key benefit a faculty member has when integratingresearch results from undergraduate students is by observing how the undergraduate researchstudents learn the necessary research material based on the foundation concepts originally usedin the classroom. From these observations, the faculty mentor can determine the
includecomputer software engineering technology, computer engineering technology, electronicengineering technology, mechanical engineering technology, manufacturing engineeringtechnology and environmental science. While teaching is the focus of the schoolmission, two research departments are active; these are the GeoHeat Center and theOregon Renewable Energy Center.Course Development Ongoing assessment of student outcomes for the civil engineering graduates utilizingthe ABET 2000 criteria identified several areas that could be improved1. Particularlyhelpful assessment tools included feedback from the Industrial Advisory Committee forthe Civil Engineering & Geomatics department, employers, and graduates, as well asclassroom assessment tools for
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divisionof responsibility for course materials between upper division (3 rd and 4 th year) and lower division(1st and 2 nd Year) courses resulting in an overlap of course material between these two types ofprograms. Secondly, there was no clear definition of course expectations of level of complexitybetween upper and lower division course work. Thirdly, the "old" criteria allowed for a staticprogram, that is, a program that does not change in response to student needs or respond tochanging technology. Lastly, and most importantly, it did not provide a standard by whichanyone could measure the effectiveness of the delivery of the program. There was no realemphasis on an assessment of the outcome of the education offered. Basically all
AC 2011-2166: PROPOSING A STRUCTURED GRAPHICAL MODEL US-ING IDEF THAT CAN BE USED FOR STORING, ORGANIZING ANDSTUDYING FACTORS THAT INFLUENCE GIRLS AND YOUNG WOMENTO CONSIDER A CAREER IN ENGINEERINGDavid E. Culler, Oregon Institute of Technology 2007-Present: Associate Professor of Manufacturing and Mechanical Engineering and Technology, Ore- gon Institute of Technology Ph.D., Industrial Engineering, Manufacturing Emphasis, New Mexico State University, Las Cruces, New Mexico. American Society of Engineering Education Member Faculty Ad- visor, Society of Manufacturing Engineers (SME)Marcella K. MinsterIrina Demesko-Prosnik, Oregon Institute of Technology
AC 2012-3622: BUILDING CONSTRUCTION: INTERDISCIPLINARY CAP-STONE PROJECTSDr. Jose L. Fernandez-Solis, Texas A&M University Full CV can be downloaded from: https://howdy.tamu.edu/render.UserLayoutRootNode.uP?uP tparam=utf&utf=%2fcp%2fip%2flog ssb.tamu.edu/pls/PROD/bwykfupd.p init upload Page 25.277.1 c American Society for Engineering Education, 2012 BUILDING CONSTRUCTION: Integrating Undergraduate Interdisciplinary Capstone with Graduate Sustainable Construction CurriculaAbstractThe past four fall semesters, the COSC 440 Interdisciplinary Capstone
AC 2012-5125: UNDERREPRESENTED STUDENTS MENTORED LEARN-ING ENVIRONMENTDr. Blair J. McDonald, University of Texas, Pan American Blair J. McDonald is a Associate Professor and Civil Engineering Program Director. Page 25.1393.1 c American Society for Engineering Education, 2012 Under-represented Students Mentored Learning EnvironmentAbstractIn engineering programs, under-represented minority students come from many segments of thenation and often experience problems with learning early in their degree programs. Theirproblems may be associated with inadequate study skills, insufficient prerequisite knowledge
private environment much like when a studentvisits a professor during office hours. Second, it provided the instructor with the abilityto demonstrate software techniques and/or assist the students with portions ofassignments. Third, students was provided with a way to see their progress and grades inthe course. The NetMeeting Active-X component provided all of the functionality neededfor the first two activities. The video conferencing features allowed the student and theinstructor to speak in a live video teleconference. The collaboration and applicationsharing tools allowed the instructor to help the student with his/her assignment or todemonstrate techniques by broadcasting desktop applications. Finally, the authorimplemented a Microsoft
sparse and whatlittle data we have obtained suggest that to be effective, its use must be integrated in a completesystem of instruction. Page 5.664.10References1. Ambrose, D.W. (1991) The effects of hypermedia on learning: A literature review. Educational Technology, 31(12), 51-55.2. Ayersman, D.J. (1996). Reviewing the research on hypermedia-based learning. Journal of Research on Computing in Education, 28(4), 500-525.3. NSF Grant DUE-XXXXXX, “Development of Web-Based Resources for Teaching of Introductory Engineering Thermodynamics”, 1996.4. NSF Grant DUE-XXXXX, “Development of Video Media for Engineering Thermodynamics”, 1993.5
thestudent’s education, data communications and networking are often taught without thepracticality of the laboratory section. However a review of the literature shows increasinginterest in and merits of including a laboratory in a data communications and networking course.One such early work by Smith [1] emphasized a very basic approach to instruct in networkprotocol. His approach of limiting communication to the serial port of the PC’s allowed for thedevelopment of an inexpensive laboratory. A similar approach was presented by Akhtar [2]whose laboratory experiments emphasized different communication protocols. Building onSmith’s work, Classen , et al, [3] outlined the development of a data communications laboratoryemphasizing hands-on experience
music recording. (7) In addition to the areas of specialization described in Sec. II. D, there are two“areas of emphasis” available to undergraduates: (i)Computers and (ii) ManufacturingEngineering. An area of emphasis is a specific focus within a major which is more extensive andrequires more course work than an area of specialization. The Manufacturing Engineering optionis an interdisciplinary option in conjunction with the departments of Industrial and SystemsEngineering, Mechanical Engineering, Computer Science, and Materials Science, and wasdeveloped under the Southern California Coalition for Education in Manufacturing Engineering,of which USC is a member
. IntroductionOver the last few years, there has been considerable interest in using the internet fordistance learning. The reason for this interest is that there are a number of advantages ofinternet educational delivery systems over the more traditional approaches of mailingvideotapes or delivering live satellite broadcasts. Compared to videotape, for example,the internet allows for very rapid distribution of course materials to remote students, andis free from the problems associated with different video standards throughout the world.Delivering video across the internet also allows for much more efficient browsing ofvideo material. Specifically, the video may be indexed so that the viewer may quicklyjump to specific portions of the lecture. Or a scroll
Session 2213 Leadership and Mentoring in Undergraduate Engineering Programs Willie E. (Skip) Rochefort Chemical Engineering Department, Oregon State UniversitySUMMARYAs educators we often ask our Industrial Advisory Board (IAB) which qualities and skills theywould most like to see in new engineering graduates. Of course, good technical skills in the givendiscipline are always a priority and are what we as educators most closely monitor with ourgrading systems. However, following close behind are good oral and written communicationskills, the ability to work in interdisciplinary teams, and leadership skills. In the
Design4Practice program, which took at Northern Arizona University approximately five years to create and fully Page 3.402.1 Session 2530develop, represents a serious investment of time and resources by NAU. The program’s teachingdemands are high; two to five instructors are needed for each course, as all of CET’s1 studentsparticipate in the sequence. Each design class is hands-on which places a tremendous demandfor materials, computers, software, tools, and physical space. Given these unusual requirements,we are
laboratory. A two-stroke leaf blower is being dissected, analyzed, and tested duringthe “laboratory” periods. Computer software is learned, the engine test data are reduced, andtheir first laboratory report is written during the alternate “discussion” periods. There is littletime available for lecturing during these sessions, and no formal lectures are required in order forthe students to complete their assignments. Of course, our faculty naturally inject shortpresentations on material relative to their areas of expertise in order to make the dissectionexercise a meaningful introduction to the engineering education they are about to receive.For any course, especially a course in a new area, it is vital that a faculty member takesownership of the
course, multimedia instructional packagesExploring Chemistry and Introduction to General Chemistry, distributed by Falcon Softwaresupplement the standard textbook. The students are routinely called upon in class to provide evidence of their conceptual understanding, with emphasis being placed on questions that involve analysis, synthesis, and evaluation. In the laboratory the students are not given detailed procedures for most exercises but have to work out the details themselves in teams (except for matters related to safety). The lecture and laboratory components of the course are integrated to a much greater extent than in the standard curriculum.• In physics, variations on ideas in Workshop Physics (Priscilla Laws
Paper ID #41447Using Oral Exams to Assess Individual Contributions on Team ProjectsDr. Matt Gordon, University of Denver Dr. Matt Gordon is Professor of the Department of Mechanical and Materials Engineering. His research areas include numerical and experimental plasma physics, chemical and physical vapor deposition, electronic packaging, and bio-medical engineerIrvin R Jones, University of Denver ©American Society for Engineering Education, 2024 Using Oral Exams to Assess Individual Contributions on Team ProjectsAbstractMost, if not all, mechanical engineering programs recognize the value in
and Biomolecular Engineering from Cornell University, and his MS in Chemical Engineering Practice and his PhD in Chemical Engineering from MIT. His current research interests include developing engaging learning activities and building students’ intuition and conceptual understanding. ©American Society for Engineering Education, 2024Work in Progress: Do growth mindset interventions work? Observations from a case study in a chemical engineering core courseIntroduction Designing and analyzing processes to manufacture products for the benefit of the society andthe environment is the main role of a chemical engineer. When designs fail to meet the specifiedgoal, it can be quite frustrating and
. Page 22.975.1 c American Society for Engineering Education, 2011 Investigations on Solar Data and a Grid-tied Solar Photovoltaic ArrayAbstractThe purchase an installation of a grid-tied solar photovoltaic (PV) system in our institution forsupporting a course titled “Alternative Energy Systems and Applications” provided usopportunities to develop new tools to support hands-on engineering education as well as carryout research in the area of renewable energy sources, particularly solar energy. This paper dealswith the research we recently carried out on solar data availability and performance analysis ofthe grid-tied solar PV system. The academic goal of these
. The SPECTRE project originated in a proposal to NASA prepared as an interdisciplinary student project in an undergraduate astronomy Figure 1 NASA’s course. SPECTRE - the Student-run Program for Exoatmospheric Nike-Orion. Collecting Technologies and Rocket Experiment, has scientific, technical, educational, and public relations objectives. The scientificfocus is on measuring the high-energy solar emissions of the electromagnetic spectrum andobserving how different portions of the spectrum are absorbed by the earth’s atmosphere. Thetechnical objective is to use commercial off-the-shelf technology to develop compact,lightweight, solid state, and reliable instrumentation
a senior mentor before they are assigned a major design. Many engineers may work on existing industrial processes without having the opportunity to perform a major plant design in their career. • Sophisticated process simulators are readily available both to senior industrial designers as well as to undergraduates. These simulators have become so familiar that they are sometimes the first and only tool considered in a chemical engineering design problem. • The challenge to chemical engineering education is the incorporation of engineering judgment to evaluate and to guide computer simulations. One prominent means to guide such judgments is engineering heuristics or rules-of- thumb
Introduction to General Chemistry, distributed by Falcon Softwaresupplement the standard textbook. The students are routinely called upon in class to provide evidence of their conceptual understanding, with emphasis being placed on questions that involve analysis, synthesis, and evaluation. In the laboratory the students are not given detailed procedures for most exercises but have to work out the details themselves in teams (except for matters related to safety). The lecture and laboratory components of the course are integrated to a much greater extent than in the standard curriculum.• In physics, variations on ideas in Workshop Physics (Priscilla Laws, Dickinson College) and Studio Physics (Jack Wilson, RPI) are used to
AC 2010-658: INCREASE STUDENT PROJECT OUTCOME IN EMBEDDEDSYSTEM COURSE THROUGH DESIGN COMPETITIONMichael Kimbrough, University of Tennessee at MartinRhett Chrysler, University of Tennessee at MartinSomsak Sukittanon, The University of Tennessee at Martin Page 15.719.1© American Society for Engineering Education, 2010 Increase Student Project Outcome in Embedded System Course through Design CompetitionAbstractIn 2007, an upper division elective course in embedded systems at the University of Tennessee atMartin was switched from the Intel 8085 to the ATMEL AVR microcontroller. The objective isto teach students how to design a hardware interface and to
AC 2010-431: APPLYING DESIGN PROCESS TO REDESIGN A PERSONAL CAREPRODUCT – INTEGRATION OF TECHNICAL AND MARKETING ISSUESJorge Rodriguez, Western Michigan UniversityAlamgir Choudhury, Western Michigan UniversityLuis Rodriguez, University of Wisconsin - Waukesha Page 15.186.1© American Society for Engineering Education, 2010 Applying the Design Process to Redesign a Personal Care Product Integration of Technical and Marketing IssuesAbstractAs part of the curricula in the College of Engineering and Applied Sciences (CEAS), there is arequirement of an Interdisciplinary Senior Design Project for the students to complete duringtheir last year in school. The
of Editor-In-Chief, Journal of Applied Packaging Research, US. His research in- terest include: Packaging Performance Prediction using mathematic modeling ,barrier packaging material development and transport packaging design. Page 22.211.1 c American Society for Engineering Education, 2011 Anti-Counterfeiting Technology in Product Design and Manufacturing: An Opportunity for Engineering Technology ProgramsIntroduction:Counterfeit products have drawn considerable attention in recent years as a consumer problemand crime of growing concern. When considering the issue of counterfeit
organizations. He is a senior member of IEEE and is a member of ASME, SIAM, ASEE and AGU. He is actively involved in CELT activities and regularly participates and presents at the Lilly Conference. He has been the recipient of several Faculty Learning Community awards. He is also very active in assessment activities and has presented more than thirty five papers at various conferences and Assessment Institutes. His posters in the areas of Assessment, Bloom’s Taxonomy and Socratic Inquisition have received widespread acclaim from several scholars in the area of Cognitive Science and Educational Methodologies. He has received the Assessment of Critical Thinking Award twice and is currently working towards
science and engineering, thin films and coatings depositions using physical vapor deposition systems and related analysis, coatings for wear and corrosion resistance improvement, environmental protection, protection against electromagnetic interference, and antibacterial coatings. Before joining Mercer University, Dr. Dorina Mihut worked as Associate Professor at The University of Texas Pan American, TX, USA, and as Process Engineer at Ion Bond, IHI Group, USA. Education Ph.D Materials Science, University of Nebraska, Lincoln Ph.D Technical Physics, Babes- Balyai University, Cluj-Napoca, Romania M.S. Mechanical Engineering, University of Nebraska, Lincoln B.S. Mechanical Engineering, Technical University of Cluj