Department of Industrial Technology: Biotechnology Laboratory I,Biotechnology Laboratory II, and Bioinformatics Technology. The objectives of thispaper are to describe the implementation of the new curriculum. The courses within thebiotechnology minor prepare students including Industrial Technology to find careerswithin life science-based industries. These students will be the vanguard of a highlyeducated workforce contributing to the life sciences industry in Indiana. Page 10.385.1“Proceedings of the 2005 American Society for Engineering Education Annual Conference & ExpositionCopyright © 2005, American Society for Engineering Education
from the Advanced TechnologicalEducation Program at the National Science Foundation, has addressed this need bydeveloping technician-level educational materials, prototyping a teaching laboratory forplasma-aided manufacturing, and training community college faculty.[1] This paperprovides a summary of PCC’s three-year development and implementation effort.IntroductionThe lack of instructional materials is a major deterrent in developing and implementing atechnician-level course in RF plasma processing at the community college level. Asearch of the literature produced only graduate-level textbooks.[2,3]Equipment needed to implement a teaching laboratory to support a technician-levelcourse was also lacking. Equipment to support simple plasma
THE JAVA-DSP (J-DSP) PROJECT – FROM THE PROTOTYPE TO THE FULL IMPLEMENTATION AND DISSEMINATION* Andreas Spanias and Venkatraman Atti Department of Electrical Engineering, Ira A. Fulton School of Engineering, Arizona State University, Tempe, AZ 85287-5706, USA. e-mail: [spanias, atti]@asu.edu AbstractThis paper describes the roadmap followed to develop a prototype, obtain support for its fullimplementation, embed in the curriculum and assess, and then disseminate. We outline specifically howthe J-DSP online laboratory concept was conceived, how the prototype “proof of
The spring freshman Biological and Agricultural Engineeringcourse at the University of ArkansasDanielle Julie Carrier, Katherine S. Vaughn and Carl GriffisBiological and Agricultural Engineering, University of Arkansas,203 Engineering Hall, Fayetteville, AR, 72701The objective of this presentation is to report on the content of the spring semesterBiological Engineering freshman design class. In this class, contact with students is donethrough a 60-minute lecture that is interfaced with a 170-minute laboratory. Thisfreshman class is the second of our design studio sequence that extends through to thesenior year. The purpose of the class is to introduce the students to design, namelythrough the understanding of the problem, pertinent
approved interdisciplinaryprogram to develop the new degree program. As a subcontract of NSF grant number DUE-9950085, the university received funds to develop a four-year articulated curriculum in computernetworking. This funding provided the justification to acquire laboratory space, faculty, andequipment that would not have been available otherwise.Program DevelopmentTo articulate the community college curriculum, a faculty committee compared published courseoutcomes to develop equivalent courses offered by the university. Table 1 shows the original listof courses identified as transferable into the four-year degree. Of the 15 courses identified, ninehad academic equivalents already in place leaving six courses to be created. The content
donated a set of four Allen Bradley PLC 5/20 systems and additionalfunding from NSA to refine the DCS emulator and design a realistic DCS water system test-bed.During the fall of 2004, the results of these efforts were used to teach the students how to designDCS systems that are reliable, secure and survivable. This experience is described in detail in therest of this paper.II. Microprocessor-based Applications (EE411) EE411 is a 4 credit course with a 2 hour weekly laboratory experience. It builds uponearlier coursework in microprocessor programming as well as in higher level programminglanguages such as C++ and National Instruments LabVIEW, and in electronics design. It isrequired in both the electrical and computer engineering
Lessons Learned from a Mobile Robot Based Mechatronics Course Brian Surgenor*, Kevin Firth* and Peter Wild** * Department of Mechanical and Materials Engineering, Queen’s University ** Department of Mechanical Engineering, University of VictoriaAbstractExperience with an elective course in mechatronics is discussed. The course is structuredaround a series of laboratories involving a mobile robot. The course introduces students toselected sensor and actuator technologies and sensitizes them to mechatronic systems designissues. The course is organized to promote a high level of active learning. The course has beenvery well received by students to date
system. In this paper, we present a low-cost, motivational (fun) roboticsplatform that can significantly enhance the laboratory instruction of advanced real timeembedded systems concepts. The robot was co-developed by a team consisting of facultymembers, graduate students, undergraduate students, and laboratory technicians for asenior/graduate level electrical and computer engineering course. In this course each two-student laboratory team is issued a mobile robot for use throughout the course. The studentsmust program basic tasks such as robot movement and maze wall-detection. The complexity ofrequired programming tasks escalates as the semester progresses. Students are required toprogram the operating system for the robot that must
education experiments, describing the ongoing challenge of implementing anexperimental protocol in a classroom environment, the expansion of the experimental protocol toinclude other test sites, and how formative assessment shaped the educational experiment.IntroductionThe goals and methods of Clemson’s EXPerimental Engineering in Real-Time project have beendescribed in detail in our earlier work.1,2,3 We seek to use real-time sensors in the classroom toprovide quicker feedback to students during hands-on laboratory modules. To establish theefficacy of using the real-time sensors to improve student learning, an educational experimentwas carefully designed to evaluate the laboratories in actual classroom situations, when used byvarious instructors
classrooms.2. Assessment PlanAssessment was accomplished using surveys given at the end of each day. This daily survey had Page 10.165.1two parts. The first part asked the K-12 teachers to identify, in writing, the best and worst things 1from that day’s activities. The second part asked for quantitative responses to six questions. Thefirst three questions covered instructional content and the last three covered laboratory content.Figure 1 below shows the 6 quantitative questions along with the numerical scale used in therating. Circle the
evaluations.BackgroundIn recent years, the U.S. Naval Academy has invested in a number of pieces of “self-contained”educational laboratory equipment. This type of educational laboratory equipment iscommercially available and generally comes completely instrumented. The individual units tendto demonstrate a single concept, and different units are available for a number of subjectsincluding thermal conductivity; free and forced convection; transient heat conduction; boilingand condensation heat transfer, heat exchangers, internal combustion engines, air conditioningsystems and many other topics. This type of equipment can and has been used effectively.Shawn Kim [1] presents an interesting article on getting students involved in thermal design byimproving existing
in these two programs, to provide a statusreport on their ongoing progress, and to highlight a few of the mechanisms that have led to the successof these graduate school “feeder” programs. Also, this article highlights some details within theseprograms that directly address one or more of the specific areas of interest to this special session andits audience, such as: • Use of distance learning in nuclear engineering, • Utilizing laboratory experiences to facilitate student learning, and • University nuclear engineering program interactions with industry and national laboratories. Page 10.37.1 “Proceedings of
A Modeling and Controls Course using Microcontrollers Hugh Jack, Associate Professor School of Engineering, Grand Valley State UniversityAbstractMicrocontrollers are being used to support the laboratory and project components of a junior levelmechanical/manufacturing engineering course in system modeling and control. Previously thecourse primarily used Labview and Data AcQuisition (DAQ) cards with Personal Computers.However, upon completion of the course students were not able to design and implement practicalcontrol systems. Recently the course has been evolving towards low cost commodity hardwarefound in mass produced consumer products. This past year the course used
Session 2068 Instrumentation and Control of an Ecological Life Support System in a Laboratory Project Micheal Parten Electrical and Computer Engineering Texas Tech University1. Project Laboratories The laboratory structure in the Department of Electrical and Computer Engineering (ECE) atTexas Tech University is somewhat different than most university laboratories.1-10 There are 5, threehour credit required laboratory classes. Although all of the laboratories have pre-requisites, they arenot
andexploration of research issues related to writing proficiency of DE students in engineering andtechnology. DE writing proficiency is evaluated based on two sets of data: i) Results of a university exit-writing exam for undergraduates. ii) Results of a junior level fluid mechanics laboratory taught as a traditional and as a distance education course.Exit writing examination overviewThe exit writing examination data was gathered at Old Dominion University (ODU), acomprehensive, state – supported institution with over 18,000 students. The university is locatedin the Tidewater region of eastern Virginia, a metropolitan area with a population ofapproximately 1.5 million. ODU is among the early pioneers in distance learning through asatellite
dealing with manufacturing automation (asidentified by the Society of Manufacturing Engineers). The six courses composing theautomation concentration of ASU’s Bachelor of Science in Mechanical Engineering Technologydegree are briefly described. A more detailed description of the MET 451, Introduction toAutomation, course is also provided. The course’s content and the accompanying laboratoryequipment are described. Due to the industrial partners’ donations, the laboratory is based onfull-scale, standard industry components.IntroductionAs the U.S. manufacturing industry continues its quest for increasing efficiencies and reducingoperating costs in this global marketplace, it is turning to automation as the means to that end.Industrial automation
curriculum.A recruiting and retention plan is also being developed as part of the new curriculum design. Thedevelopment of this plan is considered to be a crucial and fundamental component of the overallEE program. One of the biggest concerns is the recruitment and retention of underrepresentedgroups in the engineering field.This paper describes the planning and development of the new Electrical Engineering program atEWU including the significance, infrastructure, goals, objectives, laboratory needs, programrequirements, and curriculum.IntroductionThe EE program was conceived on the basis of three factors: industrial demand within the regionand state, the small number of qualified graduates available to enter the workforce, and theincreasing pool of
A Senior Level Polymer Electronics Course: Unique Instruction or Just Low Cost? David Braun, California Polytechnic State University, San Luis ObispoAbstractAfter progressing from research laboratories to factories to the market, semiconducting polymersnow appear in commercial products and offer educational opportunities. Semiconductingpolymers are excellent materials with which to teach semiconductor device fabricationprinciples, device testing, optical and electronic properties, polymer synthesis, polymer filmpreparation, and structure-property relationships. Previous publications have emphasizedmultidisciplinary course modules based on semiconducting polymers.1 This work
Paducah, Kentucky. Six chemical engineering oriented laboratory experiments inprocess control are integrated into the course to enable students to make observations,draw conclusions, and establish relationships for specific cases. During subsequentlecture periods students develop the observations they make into general relationships,many of which they later test in the laboratory.Assessment conducted on student learning indicates that laboratory exercises were mostvaluable when they preceded classroom discussion (in an inductive structure), providedthat the instructions for the experiments and their analysis were very detailed. Non-inductive exercises were preferred for difficult material to aid in developing practicalunderstanding of theoretical
product. A call for proposalsaddressing the transfer of energy conservation and efficiency technologies into a workableprototype was issued by the Department of Energy. The ultimate goal is to stimulate regionaleconomical development and promote job growth. Resulting from an awarded contract, a uniquepartnership was formed among Oak Ridge National Laboratory, Western Carolina University,Asheville-Buncombe Technical Community College, and American Carolina StampingCompany to develop a marketable energy efficient hybrid water heating and dehumidifyingproduct. This partnership was made possible by securing funding from the Department ofEnergy's Office of Energy Efficiency and Renewable Energy through a competitive request forproposals. Benefits
High Speed Systems Engineering: A New Trent in Electrical and Computer Engineering Mani Mina, Robert Weber, Arun K Somani, Nathan VanderHorn, Rashmi Bahuguna High Speed Systems Engineering Laboratory Department of Electrical and Computer Engineering Iowa State UniversityThis paper introduces the main ideas and program objectives for High Speed SystemsEngineering (HSSE). HSSE (funded by NSF CISE-EAI)1 has been proposed by our team as anew and viable platform for integrating engineering education, research and development. Thisapproach identifies and integrates the common
studentsare able to realize the dream of going abroad. Using German as an example, this paper will outline how students can both stay on-trackin their engineering curriculum and gain valuable work and study abroad experience in thesummer which will help them in their job search and in their careers beyond graduation.Programs discussed will include RISE (Research in Science and Engineering) of the DAAD(German Academic Exchange Service), in which students receive paid fellowship positions inuniversity doctoral laboratories, CDS (Carl Duisberg Society), in which students work in paidinternships in offices in their field at companies such as Porsche and Siemens, and ICE(International Cooperative Education), in which students complete paid
foundation courses can too easily become a “blur” to the students—nothing more than a “bunch of words” intermingled with sines, cosines, integrals, Taylor seriesexpansion, etc., with no particular reason or intent.In the UMASS Lowell Mechanical Engineering curriculum, an effort is being made to try torectify this by interweaving some of the fundamental STEM material between multiple coursesso that students obtain a deeper understanding of important concepts. In particular, it is helpfulto integrate the well-defined, theoretical material of foundation classes with the hands-onenvironment of later laboratory classes. Laboratory can be effectively used to reinforce lecturematerial that is presented in related courses [2]. It can also be the perfect
offered on a regular basis. Meanwhile the Physics/Geophysics Department at TAMUK has developed a laboratory-based course in nuclear physics. This is the first upper division laboratory course offered atTAMUK in over a decade. The faculty members in the Department of Nuclear Engineering atTAMU are assisting TAMUK to ensure that the lab equipment is tailored to enhance the successof the students in their preparation for graduate studies. The courses provided at TAMUK andvia the TTVN network allow the students entering the graduate program at TAMU to follow thesame plan of study as students from TAMU or comparable nuclear/health physics programs
is needed.This paper reports on the ongoing effort to build an Artificial Sky Dome for the School ofArchitecture at Oklahoma State University. The paper discusses the technical challenges facedby the team in charge of designing the Artificial Sky Dome. Challenges that relate to thestructure of the dome, uniform distribution of light sources, avoiding the star effect, effect ofinternal reflections, models of different sky conditions, control of sky luminance, and the needfor a post-construction calibration of the lighting control system. The construction of theArtificial Sky Dome is expected to be completed by the end of summer 2005. This laboratory isfunded by the National Science Foundation, Division of Undergraduate Education, (CCLI)Course
A Competency Gaps Study for a Manufacturing Sequence Curriculum Kenneth W. Stier Department of Technology Illinois State UniversityAbstract This study was built on prior competency gap research conducted by the Society forManufacturing Engineers to provide a foundation for the development of the Department ofTechnology’s new Integrated Manufacturing Systems (IMS) laboratory at Illinois StateUniversity (ISU). The objectives of the study were to: a) investigate to what extent small andmid-sized Illinois manufacturing companies feel it is important for newly hired manufacturingengineering or technology graduates to
Developing STEM Educational Grant Proposals: Best Practices David Jeff Jackson Electrical and Computer Engineering The University of Alabama, Tuscaloosa, AL 35487-0286AbstractMany programs at the National Science Foundation (NSF), and other funding agencies, have agoal of the improvement of science, technology, engineering, and mathematics (STEM)education. Funding opportunities exist for laboratory development and curricula reform insupport of improvement in student learning and STEM educational pedagogy. Understanding allfacets of the grant proposal process, from inception through proposal review and, ideally, togrant awarding is critical in
electricalengineering class at Iowa State University. Discussion of classroom, laboratory, and out-of-classlearning is included, along with some of our results.IntroductionThe increasingly rapid growth of the various fields of engineering has led to great challenges ineducation, and many proposals have been made regarding changes in curriculum1-3. The needsof first-year university students have especially changed; quickly changing and evolvingtechnology demands more than ever that students continue to learn efficiently throughout theirprofessional career. To this end, a first year course must provide the student with a number ofobjectives:• Identify the scope of the particular field which he or she has chosen to study;• Begin to learn the process of
current,most modern device; the content explains the operation and principles underlying thedevice’s performance, and the laboratory forces confrontation of device utilization anddissection with device explanation. Devices visited, one per week, in the correspondingweekly laboratory period are bar code scanner, compact disc player and burner, FAXmachine, electric and acoustic guitar, electric drill, bicycle, internal combustion engine,optical fibers, photocopy and scanner, digital and video cameras, cell phones, and(model) airplanes.Introduction The author created, in 1992, a device dissection laboratory for incoming first yearengineering students. As “It seemed desirable to base a new lab on some modern andemerging technologies”1,2, the
The Idaho Universities’ Role with the New Idaho National Laboratory Jay F. Kunze, John S. Bennion, Michael J. Lineberry, and Mary Lou Dunzik-Gougar Idaho State UniversityPURPOSE and GOALS:The goal set by the U.S. Department of Energy is that the Idaho National Laboratory (INL) is tobecome the preeminent, internationally recognized nuclear research, development anddemonstration laboratory for nuclear energy. It is the intent of the Idaho Universities to partnerwith the INL so as to assist in achieving this mission, for the benefit of nuclear energy to the nation and the world, and for the benefit of the local