Session 2464 A Research Driven Multidisciplinary Curriculum in Sensor Materials Sheikh A. Akbar and Prabir K. Dutta Center for Industrial Sensors and Measurements (CISM) The Ohio State University 291 Watts Hall, 2041 College Road Columbus, OH 43210, USAAbstract The multidisciplinary research at the NSF Center for Industrial Sensors and Measurement(CISM) at The Ohio State University (OSU) has led to the development of an innovativecurriculum. The new multidisciplinary industry-oriented curriculum is currently being
, and Synthesis. Each subgroup is comprised of several universities, colleges, and/orcommunity colleges. Their missions vary slightly, but are centered primarily on engineering edu-cation and curriculum improvement. In addition, the research program: Fluid Dynamics andHydraulics was a co-sponsor of the workshop and we are maintaining our contacts with that Pro-gram Director.Although we are aware of no other study that directly parallels our effort, significant energy hasbeen expended recently toward improving undergraduate fluid mechanics. These efforts can bedivided roughly into the following three categories: integrating fluid mechanics and thermal sci-ences into a sequence of undergraduate courses7, 9, 11, 14, 15; using computational fluid
Session 2220 Hyperdisciplinary Courseware: A Means of Integrating the Curriculum MAJ Curtis A. Carver Jr. and CPT(P) William J. Adams Department of Electrical Engineering and Computer Science United States Military Academy West Point, NY 10996Abstract1This paper will discuss the development of hyperdisciplinary courseware: World-Wide Web(WWW)-based, tightly coupled, interdisciplinary courseware. It will also discuss the tools re-quired to create hyperdisciplinary courseware, a
courses.Within the computer science program facing similar challenges in terms of enrollment and rapidexpansion, separating more of the curriculum content allows both programs to better tailorcontent towards their specific disciplinary applications while reducing pressures within theregistration and scheduling systems. The new applied content includes the implementation ofalgorithms and data structures, the bridging of concepts between computer organization and thefunctionality of processors, discussions around operating system security, distributed systemswithin engineering, and data management for engineering applications.New courses to address disciplinary gaps:The consultation and mapping process revealed a disciplinary gap around full
them for emerging trends in the field. The senior-level course in microwave circuits atMontana State University has been redesigned using this philosophy based on materialsdeveloped at another university as described by Furse et. al.. 1 Even those electrical engineeringstudents pursuing specialties other than microwave electronics can benefit from rudimentaryknowledge of high-frequency effects. For example, an understanding of transmission line andother high-frequency effects is of vital importance for engineers involved in high-speed digitaldesign.This paper describes educational materials that integrate key concepts in high-frequencyelectronics into several courses within the electrical and computer engineering curriculum. Thematerials
. Curriculum deficiencies were found in the following areas:statistics, probability and data analysis; computer applications for design and analysis; thermalsystems design; multidisciplinary applications; and general education (ABET outcomes: h -understand the impact of engineering solutions in a global and societal context and j -demonstrate the knowledge of contemporary issues). The deficiencies in the area of studentservices included inadequate advising and inadequate experimental labs. The above findingsfrom the assessment are addressed by systematically reviewing the curriculum. The changesmade to our curriculum, the details of which are discussed later.Alumni SurveyAn alumni survey was conducted in early 2003 asking the recent graduates (1993
Session 3547 Electronics Engineering Technology Curriculum at a Thinkpad University Michael D. Rudisill Northern Michigan UniversityAbstractNorthern Michigan University became the largest public university to be an IBM ThinkpadUniversity in the Fall of 2000. Each student was issued a laptop (only freshmen andsophomores were mandatory for the first year) during registration complete with a “standard”software package. The challenge is to fully utilize the laptops - not necessarily in Web-basedcourses, on-line courses or distance
Paper ID #6038Project-Based Curriculum for Renewable Energy Engineering TechnologyDr. Florian Misoc P.E., Southern Polytechnic State University Dr. Florian Misoc is an Associate Professor of Electrical and Computer Engineering Technology. He joined Southern Polytechnic State University in August, 2011. Dr. Misoc earned his Ph.D. in Electrical Engineering from Kansas State University. He also holds a Master’s of Science Degree in Engineering Technology from Pittsburg State University, and a Bachelor’s Degree in Physics from the University of Bucharest, Romania. Dr. Florian Misoc is a registered Professional Engineer
Session 2238 A Comparison of Solid Modeling Curriculum Approaches Holly K. Ault, Ph.D. Mechanical Engineering Department Worcester Polytechnic Institute Worcester, Massachusetts 01609-2280AbstractMany schools have recently introduced solid modeling to their curricula in Engineering DesignGraphics. Some courses introduce solid modeling at the end of a traditional 2D CAD course,whereas others begin with the solid model. Some, but not all, of the concepts traditionally taughtin conventional drafting or CAD courses are necessary
, Yousef Sardahi2, and Asad Salem2 1 Department of Computer Science and Electrical Engineering 2 Department of Mechanical and Industrial Engineering Marshall University Huntington, WV 25705 ferdjallah@marshall.edu, sardahi@marshall.edu, asad.salem@marshall.edu AbstractThe proposed curriculum on wind and solar energy offers an educational opportunity to bothundergraduate and graduate students, allowing them to acquire essential skills in renewable energyand engineering design. The primary objective of this curriculum is to expose and
realm of a computer screen, and has increased my interest in the program.SummaryThis paper presents the results of a work-in-progress implementation of an idea to integrate theMakerspace into first-year engineering curriculum. So far, we have seen encouraging results,active participation and liking among the student participants as shown in Table 1.Since this was started a year ago, we plan to conduct future surveys to track whether thesestudents used the Makerspace in the future semesters since the time they were exposed to thefacility as part of this FED101 course offering.
sensing to solve engineering analysis, design, and environmentalproblems. As part of the curriculum revision, the two credit traditional surveying course wasexpanded to four credits by the addition of GIS and GPS. With this course placed in the firstsemester of the sophomore year, it serves as the introduction to Geospatial Analysis. Skillslearned serve as a basis for upper level courses such as Geotechnical Engineering, Water QualityEngineering, and Water Resources Engineering. The course also serves as an introduction toCivil Engineering as it is the first departmental course encountered by CEE students. It thereforeplays a role in retention.One of the major problems in teaching a course that relies heavily on computer systems, is theneed to
AC 2012-4762: EVALUATION OF DYKNOW IN A CHEMICAL ENGI-NEERING CURRICULUMDr. Allen Hersel, Trine University Page 25.6.1 c American Society for Engineering Education, 2012 Evaluation of DYKNOW in a ChE Curriculum (Poster)In the fall of 2008, all professors at small Midwestern University were given a Toshiba Tablet PCPortege m400, with the intent of increasing technology use in the classroom. A Tablet PC differs froma regular laptop PC, in that it allows the user to rotate the display 180 degrees to cover up theintegrated keyboard. In this mode, the user interface is
Session 2526 Designing Experiments in a Civil Engineering Curriculum Allen C. Estes and J. Ledlie Klosky United States Military AcademyIntroductionAs all ABET-accredited institutions become more familiar with the Engineering Criteria(EC) 20001 on which their accreditations depend, it is important for various institutions toshare information on how they are meeting these new requirements. The newaccreditation philosophy requires institutions to define their own missions and objectivesand to develop a process of assessment and continued improvement. The emphasis is ondemonstrating how the
offers ABET accreditedprograms in Chemical, Civil, Computer, Electrical and Mechanical Engineering. All theseprograms are built on the Multidisciplinary Engineering Foundation Spiral Curriculum(MEFSC). This foundation program was developed to provide students with a broadengineering background and to develop the essential skills needed for the practice ofengineering.Previous WorkConsiderable work has been done at several engineering schools to address some deficiencies inengineering education, resulting in many models of curriculum integration. The comprehensivearticle by Froyd and Ohland3 traces the history and discusses the merits of various models.Drexel University, an early pioneer, established the merit of integrating math and science
Session 2526 Undergraduate Engineers for Curriculum and Laboratory Equipment Development Steven Barrett, Abbie Wells, Carrie Hernandez, Theodore Dibble, Yi Shi, Thomas Schei, Joshua Werbelow, Jerry Cupal, Lew Sircin, George Janack Department of Electrical and Computer Engineering University of Wyoming, Laramie, WY 82071-3295 e-mail: steveb@uwyo.edu, (307) 766-6181
Session 2566 Introducing Emerging Technology into the Mechanical Engineering Curriculum Gangbing Song, Jafet Lopez, Kairy Otero, Jason Ruby, Adam Shepherd, Jacob Salinas, Ross Kastor, and Richard Bannerot Department of Mechanical Engineering Josh Blankenship, Akbar Ng, Ben Stembridge and Paul Ruchhoeft Department of Electrical and Computer Engineering University of Houston AbstractIn the one semester, three engineering department, capstone design course taught in theCullen College of Engineering at the
technology while learning the fundamental concepts. In this paper, we present acurriculum design for teaching technology across a CEM curriculum and evaluate theeffectiveness of this curriculum both in terms of knowledge transfer and learning.Literature ReviewIn recent years studies such as [7], determined the technical and personal abilities required ofyoung professionals by today’s construction industry: today’s CEM graduates need to havestrong collaboration and teamwork skills; they need to have a broader perspective of the issuesthat concern their profession such as social, environmental, and economic; and finally, they needto know how to apply fundamental engineering science and computer skills in practice. Thispaper focuses primarily on this
, equity and inclusion (DEI). © American Society for Engineering Education, 2022 Powered by www.slayte.com Introducing Data Analytics into Mechanical Engineering Curriculum Xiyuan Liu Department of Mechanical & Aerospace Engineering, Syracuse University AbstractThe advancements in information technology, computing power, data mining and artificialintelligence have enabled all the engineering disciplines to take the advantages of large datasets tomodel, classify, and make proper predictions for numerous engineering applications. To educate next-generation
, Integration, and TestThe full four-semester sequence of spacecraft design and engineering classes is a key componentof the curriculum for cadets majoring in astronautical engineering. One method to increaseinvolvement across other academic disciplines has been to allow interested students to enroll inthe senior-level laboratory classes (Engr 433/434) without taking the junior-level classes insatellite subsystems (Astro 331/332). This enables us to form a team with the appropriate mix ofskills needed to design and build a satellite. We have involved cadets from seven academic Page 4.178.2majors (computer science, electrical engineering, engineering
test of these systems. These systems will be referred to as mixed-signal/telecomm (MST) systems. The field of electrical engineering is growing so quickly that it is a challenge to offer studentsbreadth and depth in their post-graduate curriculum. This is particularly true in the mixed-signaland telecommunications areas. The Electronic Design Automation (EDA) industry has madesuch rapid advances in the past decade that universities have struggled to provide students withthe knowledge of how some of the CAD tools perform their tasks. Indeed, in a bachelor’s degreeprogram in electrical and/or computer engineering it is difficult to even incorporate usage ofmany of the industry standard tools. It is just as challenging to study the complex
AC 2010-1804: PROJECT-BASED CURRICULUM FOR THERMAL-SCIENCECOURSESBrandon Field, University of Southern IndianaDavid Ellert, University of Southern Indiana Page 15.993.1© American Society for Engineering Education, 2010 Project-Based Curriculum for Thermal Science CoursesAbstractThe incorporation of semester-long projects into two different courses are discussed in thispaper, one project in a senior-level Fluid/Thermal Design course (F/TD) in the Engineeringcurriculum and two projects in a junior- or senior-level Thermodynamics and Heat Transfercourse (T-HX) for the Industrial Supervision/Advanced Manufacturing curriculum. The contentof both of these courses has been
AC 2007-1693: INTEGRATING SHIPBOARD POWER SYSTEM TOPICS INTOCURRICULUMNoel Schulz, Mississippi State University Noel N. Schulz received her B.S.E.E. and M.S.E.E. degrees from Virginia Polytechnic Institute and State University in 1988 and 1990, respectively. She received her Ph.D. in EE from the University of Minnesota in 1995. She has been an associate professor in the ECE department at Mississippi State University since July 2001 and holds the TVA Endowed Professorship in Power Systems Engineering. Prior to that she spent six years on the faculty of Michigan Tech. Her research interests are in computer applications in power system operations including artificial intelligence
Session 2630 Freshman Calculus in an Integrated Engineering Curriculum David Barrow, Jack Bryant, Dante DeBlassie, Howard Seidel, Arlen Strader Texas A&M UniversityINTRODUCTION We are helping to develop, implement, and evaluate an integrated engineering curriculum thatemphasizes technology, active learning in the classroom, and teaming. We will describe our experiencesteaching calculus, during the past two academic years, to first year students in the integrated curriculum, whichalso includes courses in engineering, English, physics, and chemistry. This
are being added to the INSPIRES Curriculum in 2006-2007: Engineering inFlight: A Hot Air Balloon Case Study and Engineering Energy Solutions: A Renewable EnergySystem Case Study. Each introduces students to the engineering design and decision-makingprocess, while also teaching basic engineering concepts. In these curriculum modules, thestudents progress through a series of hands-on activities and demonstrations, web-based tutorials,and computer simulations during which they learn the principles that govern the system understudy. Next, the students are issued a challenge to design, build and evaluate their own systemsby utilizing results obtained from computer simulations. At the end of the project, the studentsreturn to the computer module to
transportation aswell as marketing and operations. They also mentioned that industrial distribution program wasinitiated from identifiable forces and events in the history of American business and engineeringeducation. Clarkson University and Texas A&M University were the first two universities thatfounded their industrial distribution program in 1954 and 1956 respectively.Further than the general education core and basic mathematics and sciences core, curriculum inindustrial distribution provides students with a combination of courses in industrial technology,distribution, and business, which are important in the distribution area. Courses in technologycore include general technology disciplines such as material science, computer graphics
Introducing Biomedical Microsystems into the Electrical Engineering Curriculum Ian Papautsky and Erik T. K. Peterson Department of Electrical and Computer Engineering and Computer Science Univerrsity of CincinnatiAbstractMicromachining or microelectromechanical systems (MEMS) technologies are considered anenabling technology with revolutionary impact on many areas of science and engineering.MEMS technologies are now being applied to health monitoring, diagnosis and therapeuticapplications, which is frequently referred to as BioMEMS or Biomedical Microsystems.Biomedical microsystems research includes biological, biomedical
millenium. Istanbul: IGIP, 1999. (in CD-ROM).10. Chevalier, G: 1998, La gestion opaque de la recherche universitaire, La Recherche, 306, 12.11. Brito, C. da R. “Engineering Education Curriculum: Innovations to get a more flexible and dynamic course”, In:Frontiers in Education Annual Conference, 15., San Juan, 1999. 1999 FIE Annual Conference Proceedings. SanJuan: FIE, 1999. (in CD-ROM).CLAUDIO DA ROCHA BRITOClaudio da Rocha Brito is a Professor of Electrical and Computer Engineering and Coordinator of Research andExtension of SENAC School of Engineering and Technology. He is Vice-President of Brazilian Chapter ofEducation Society of the Institute of Electrical and Electronics Engineers, Inc – IEEE – ES, Member of theExecutive Committee of Ibero
AC 2011-523: MEDICAL PHYSICS CURRICULUM FOR UNDERGRAD-UATE ENGINEERING STUDENTSRenat Letfullin, Rose-Hulman Institute of Technology Renat R. Letfullin is associate professor of physics and optical engineering department at the Rose- Hulman Institute of Technology. He has extensive academic credentials in nanotechnology and specializes in laser physics, wave and quantum optics, aerosol physics, biophotonics and nanomedicine, where he is using laser-induced explosion of absorbing nanoparticles in selective nanophotothermolysis of cancer. Letfullin served as senior researcher at the Lebedev Physics Institute of the Russian Academy of Sciences (Samara branch), 1993-2002, and research associate at Mississippi State
Session 2439 Using Shareware Resources in the IE Curriculum Denise F. Jackson, Ph.D., P.E. and Willie Ross, III Department of Industrial Engineering, The University of TennesseeAbstractThe World Wide Web (WWW or web) and the Internet allow access to a variety of resourcesthat can be incorporated into the Industrial Engineering (IE) curriculum. The use of informationtechnologies as an integral part of a course tends to increase student enthusiasm and makescommunications and data exchanges more efficient. The web contains a plethora of