unique way and (b) attemptvery difficult and dry topics. One example is the explanation of a microcontroller (µC), its building blocks, andtheir fabrication/operation. A microcontroller is a computer chip that is the brain of today’s consumer products including those based onmicro- and nano-systems. It is a computer-on-a-chip suitable for applications that require high integration, lowpower consumption, and low cost. An electrostatic switch, called an MOS (Metal Oxide Semiconductor)transistor, is the basic building block of a microcontroller. Using the basic MOS concept different types ofcomputer switches are made, which are needed for computing and memory devices. Some examples are n-channel MOS (NMOS), PMOS (p-channel), and CMOS (a
unique way and (b) attemptvery difficult and dry topics. One example is the explanation of a microcontroller (µC), its building blocks, andtheir fabrication/operation. A microcontroller is a computer chip that is the brain of today’s consumer products including those based onmicro- and nano-systems. It is a computer-on-a-chip suitable for applications that require high integration, lowpower consumption, and low cost. An electrostatic switch, called an MOS (Metal Oxide Semiconductor)transistor, is the basic building block of a microcontroller. Using the basic MOS concept different types ofcomputer switches are made, which are needed for computing and memory devices. Some examples are n-channel MOS (NMOS), PMOS (p-channel), and CMOS (a
AC 2008-1040: RISK ASSESSMENT OF A MECHANICAL ENGINEERINGDEPARTMENTGreg Kremer, Ohio University-Athens Dr. Kremer is an Associate Professor and Chair of the Mechanical Engineering Department at Ohio University. He teaches in the Mechanical Design area and has primary responsibility for the Capstone Design Experience. His main research interests are Energy and the Environment, especially as related to vehicle systems, and engineering education, especially related to integrated learning and professional skills. Dr. Kremer received his B.S. degree in Mechanical Engineering from Rose-Hulman Institute of Technology in 1989, his Ph.D. degree in Mechanical Engineering from the University of
understanding and learning process engagement that enable individuals toflourish in ever-changing contexts. ABET and other organizations have recently asked educatorsto promote the development of students’ lifelong learning skills through their curricula,5,6 butcalls for self-directed learning approaches are not new. In 1969, Carl Rogers articulated the needfor flexible, independent learners: “Teaching and the imparting of knowledge make sense in an unchanging environment. This is why it has been an unquestioned function for centuries. But if there is one truth about modern man, it is that he lives in an environment which is continually changing…We are, in my view, faced with an entirely new situation in education where the goal of
, 2008 A First Year Seminar for Surveying Engineering and the Effects on RetentionAbstractA first-year seminar for surveying students in the college of engineering was added to thesurveying engineering curriculum in 1998. The course is used to introduce students to collegeacademics, the scholarly community, and the surveying profession. Class sizes are limited to 20students in order to keep the student-teacher ratio low and provide the students an opportunity tomake friends with 19 other students in their major. Team exercises are used in several elementsof the course. One of the purposes of the course is to build a comfortable academic relationshipbetween the first-semester surveying student and a
coursemay serve as a curriculum model for others who seek to build technology assessment skills fornon-engineers.Contextualizing the CourseWith the support and guidance of the graduate program committee within the Department ofIndustry and Technology at Ball State University, the Technology: Use and Assessment coursewas developed in 1999 by Jim Flowers. The rationale for the development of this 3-credit,graduate-level course included two arguments: (1) to provide practicing technology teachers withan opportunity to build their knowledge of usability and technology assessment; and (2) to pilotthe delivery of an online graduate course. Since the fall of 2000, this course has been offered100% online to on- and off-campus students using the Blackboard
areas: • Engineering Design16,17,18,19 • Professional Communications • Professional Tools • Engineering Ethics20Engineering Design Plan integrates design-and-build experiences with a structuredapproach to problem solving across all four years of the curriculum, culminating in a yearlong senior project. Professional Communications and Tools are concurrently introducedin the design courses throughout the four-year sequence to support the execution ofdesign projects. The Engineering Ethics component provides students with a frameworkfor understanding and accommodating professional expectations.The interdisciplinary greenhouse heating project with the WKU Agriculture Departmentprovided an excellent vehicle for this integration and
paper describes the author’s experiences with teaching an industry-based capstone designcourse. In this course, students work as members of small teams to complete softwaredevelopment projects. These projects proceed from requirements gathering, to analysis, design,implementation, and delivery of products to real-world clients. In recent years, several of theseprojects have involved the development of serious games for real-world clients. Serious gamesare games whose purpose is education in its various forms, rather than entertainment. Seriousgames and simulations can be good candidates for student projects that provide them withopportunities to manage projects with real-world development constraints and deadlines. A finalcumulative written
AC 2008-2131: GEARUP: TEACHING ENGINEERING, SCIENCE, ANDMATHEMATICS TO JUNIOR HIGH AND HIGH SCHOOL STUDENTSTHROUGH THE USE OF K’NEX BRIDGESHeath Tims, Louisiana Tech University Dr. Heath Tims is an assistant professor of Mechanical Engineering at Louisiana Tech University. He received his B.S. in Mechanical Engineering from Louisiana Tech University in 2001. He received his M.S. and Ph.D. degrees in Mechanical Engineering from the University of Texas at Austin, in 2003 and 2005 respectively. His research focus is dynamic systems, modeling, and controls. He is also involved with STEM educational research at the college and pre-college level.Galen Turner, Louisiana Tech University Dr. Galen Turner
Oklahoma offers aRobotics Lab course, which fulfills the requirement for experimental elective in both the AE andME degree programs. The course is typically taken by junior or senior undergrads, though theoccasional graduate student may also enroll. Many colleges and universities now include one ormore robotics courses in their curriculum. Many are being used in CS departments to promotethe CS curricula and increase the otherwise declining number of CS majors.10, 6, 4 Our class hasalmost the opposite motivation. The fields of ME and AE are both becoming more softwaredependent -- yet many of the undergrad majors say that they selected one of these fields becausethey do not like working with computers. This robotics course forces them to face
applications on the Working Model 2D installation CD, or on thecompanion CD of one of the Mechanisms textbooks listed in the Bibliography.Bibliography1. Boronkay T.G.; Caldwell L. and Earley, Ronald D. “Application of the Working Model software in mechanicalengineering technology,” Proc. of the 1999 ASEE Annual Conference and Exposition: Engineering Education toServe the World, Jun 20-23, 1999, Charlotte, NC, p 787-7942. Crown S.W., Freeman R.A.; Fuentes A., “Asynchronous computer based training as a means of integrating theuse of engineering software into the curriculum,” Computers in Education Journal, Vol. 14, 2004, p. 61-703. Ganatos, P. and Liaw, B, “Computer-animated teaching software for engineering dynamics and mechanicalvibration,” Journal of
upon nurturingcontinuous engineering progress and innovation as an essential ingredient in America’s industry,which depends in turn upon nurturing the further professional growth and graduate developmentof the nation’s engineers in industry who bring this progress about in the global arena.2.1 The Imperative ─ Engineering Progress and Innovation inAmerica’s Industry is Essential for U.S. Competitiveness and National SecurityNew products, new processes, new industries, and the creation of new jobs require a continuousflow of new ‘ideas and concepts’ that evolve from the engineering practitioner’s professionalapproach to creative problem-solving and deliberate application of the engineering method tobring about effective solutions responsive to
really taught in the Materials Science & Engineering Department.Discussion and ConclusionAn opportunity to broaden the impact of this laboratory is its integration into a series of coursesutilizing the Undergraduate Core Lab, which was established by the Honors Program at ourinstitution. The goal of these courses, premiering in Spring 2008, is to increase life scienceknowledge of mathematical, chemistry, physics and engineering undergraduate students and toincrease mathematical, chemical, physical and engineering knowledge of life sciencesundergraduate students. In short the courses as well as the laboratories are meant to betransdisciplinary and interdisciplinary. The feasibility of transitioning the developed laboratoryto an
AC 2008-749: BIOTECHNOLOGY AND BIOPROCESSING ANDMICROBIOLOGY LABORATORY COURSES: A MODEL FOR SHARED USE OFINSTRUCTIONAL LABORATORIES BETWEEN ENGINEERING AND SCIENCESusan Sharfstein, Rensselaer Polytechnic Institute Susan Sharfstein is an Assistant Professor in the Departments of Chemical and Biological Engineering and Biology at Rensselaer Polytechnic Institute. Her research interests are in mammalian cell culture for bioprocessing. Her teaching interests are in biotechnology and biochemical engineering and in integrating engineering and life science education. Professor Sharfstein received her Ph.D. in Chemical Engineering from UC Berkeley. She is the recipient of an NSF CAREER award whose
). a. System performance modeling. b. Trade-off curves. c. Trade-off analysis (cost – speed – power/energy consumption – number of pins). d. System optimization.Laboratory Material.The laboratory is scheduled as 12 lab sessions of 3 hours each. Lab activities are based on thePSoC development board (Eval 1) from Cypress Semiconductor. (PSoC is a mixed-signal SoCwith an integral 8-bit microcontroller, on-chip flash/RAM memory, reconfigurable analog/digitalarray, and a variety of other blocks commonly used in embedded applications1.)Each of the 12 lab sessions focuses on a particular concept, but all are tied together with theunderlining theme of constructing a temperature-compensated, fan controller.The lab sessions topics are: Lab 1
an example of one that serves educators generally as well as its owncampus, even though there is also a center for entrepreneurship in the Stanford BusinessSchool. Rensselaer has a Vice-Provost for Entrepreneurship and a wide range ofprograms to make the whole institution an entrepreneurial environment. Olin College ofEngineering has integrated entrepreneurship into their education of engineers and usesthe impressive resources of Babson College to supplement its own. A number of schoolsinvolve their students in incubators both with their own companies and in workopportunities with start ups. Internships for engineering students in entrepreneurialcompanies have been used for over a decade, and Rose-Hulman Institute of Technologyhas been
engineering student to find the functions thatmost apply to their course and hence a better organization is needed to help teach and understandconcepts. In this paper, we will explore a new Startup kit that has been developed to address thisconcern. We will explore the current environment and the areas that can be improved upon andpresent the free biomedical startup kit and discuss the pros and cons of this approach1. INTRODUCTIONBiomedical Engineering education has evolved significantly in the recent years to encompassadvanced areas from the life sciences, as well as electrical and mechanical engineering such asadvanced signal and image processing, data acquisition and instrumentation. With the inclusionof such areas in the curriculum comes the
electricalengineering curriculum. The prerequisite for this course is an introductory course on digitaldesign. The microcontroller course covers the fundamentals of microcontrollers with emphasison hardware interfacing, software design, and applications. Topics include microcontrollersoftware architecture, assembly instruction set, addressing modes, memory map, general purposeinputs/outputs (GPIO), analog-to-digital converters (ADC) , timers, input capture, outputcompare, pulse-width modulators (PWM), serial communication interfaces, and interrupts. Thiscourse also gives students the training necessary to effectively use an integrated developmentenvironment (IDE) for developing their application programs in assembly language and C. Manyof these topics are
research interests include structural dynamics, structural health monitoring, and undergraduate engineering education. He has received the Rose-Hulman Outstanding Teacher Award and the SAW Ralph R. Teetor Educational Award.Don Richards, Rose-Hulman Institute of Technology Don Richards is a Professor of Mechanical Engineering at the Rose-Hulman Institute of Technology. Don led the coordinated efforts to establish the integrated sophomore engineering curriculum at Rose-Hulman, authored the notepack used as the ES201 course textbook (course website: http://www.rose-hulman.edu/~richards/courses/es201/index.htm), and has been instrumental in establishing the Rose-Hulman Center for the
Review of the Research,” Journal of Engineering Education, Vol. 93, No. 3, 2004, pp. 223-231.[2] Carlson, L.E., “First Year Engineering Projects: An Interdisciplinary, Hands-on Introduction to Engineering,” Proceedings of the ASEE Annual Conference and Exposition, pp. 2039-2043, 1995.[3] Aglan, H.A. and Ali, S.F., “Hands-on Experiences: An Integral Part of Engineering Curriculum Reform,” Journal of Engineering Education, Vol. 85, no. 4, pp. 327-330, Oct., 1996.[4] Regan, M. and Sheppard, S., “Interactive Multimedia Courseware and the Hands-on Learning Experience: An Assessment,” Journal of Engineering Education, pp. 123-131, April, 1996.[5] Catalano, G.D. and Tonso, K.L., “The Sunrayce ‘95 Idea: Adding Hands-on Design to an
, making theICT program the largest program in the College.In the meantime, distance education (DE) sections constitute an increasing portion of the studentenrollment of the ICT program. Studies have shown that this trend will continue in the futureyears. To deliver hands-on experience to the online teaching, with a quality equivalent to whatstudents can get from the face-to-face laboratory environment, has been an eminent requirementfor further expanding our DE program.A number of studies on remote computer networking and technology laboratory have been donein recent years. These studies can be classified into four categories.1. Remote access system and remote lab architecture designSome studies1, 2, 3 intend to create remote access methods for
. However, students often cite poor teaching as a reason for leaving engineeringmajors.6 Moreover, most teaching does not stimulate intellectual excitement because it ispassive and does not place material into real-world contexts. Thus a need exists to enhancestudent learning through the use of effective teaching techniques that include hands-on and real-world activities that are thoughtfully integrated into courses.At the ___ College of Engineering, minorities and women comprise approximately 50% of thestudents in the Civil and Environmental Engineering (CEE) department. Thus students fromunderrepresented groups will be directly affected and involved in all aspects of this project. Thisproject addresses the need for more underrepresented
EngineeringMethodologies for designing to cost (DTC) and treating cost as an independent variable (CAIV)have become standard techniques for achieving ambitious cost targets20,21. Including thesesystem level approaches in the curriculum provide students with tools for designing anddeveloping cost-sensitive products.Earned ValueThe earned value measurement system (EVMS) integrates project scope, schedule and resourcesto provide an objective measure of completed work, work in progress and scheduled work22.(Some of you may know EVMS as the DoD Cost Schedule Control Systems Criteria(C/SCSC)22.) EVMS is introduced as a technique to monitor and control cost during projectexecution. In the homework, students use their WBS to develop their own EV baseline. Thisexercise
alsoreflect upon both the plusses and minuses of this approach from the faculty perspective.IntroductionSenior design is the capping experience in undergraduate chemical engineeringeducation, wherein students undertake a design process compiling elements from each oftheir undergraduate courses. Until recently a course of this nature was specified byABET. While ABET current rules are less proscriptive, there is general agreementamong Chemical Engineering programs that senior design continues to be an importantand required course. The common goals of this course are for students to realize the Page 13.661.2design of a chemical facility
. Fabricating the plasma torch required the use of computer-aided design tools, and close interaction with the model makers who ran the computer numericalcontrolled milling machine.Anticipating the bizarre behavior of plasmas, the students integrated the ability to tweak theirdesign after the first operational tests. After the lengthy design process, the test-and-refine phaseproceeded quickly. Each student contributed to the understanding and improvement of theperformance, engendering a spirit of teamwork, appreciation for diversity, increased problemsolving ability, and an appreciation for the value of a thorough design phase. In this paper webriefly review the plasma torch biomass reactor concept, explain the lessons learned by thestudents, and
paradigm of engineering curriculum towards a more well-roundededucation. The commonality among these three documents is improving students’ problemsolving techniques. The future will inevitably bring unanticipated crises; engineers will need toidentify the problems and collaboratively formulate innovative, feasible solutions. This researchhypothesizes that service-learning can serve as a mechanism that will allow students to developthe necessary problem solving skills. To investigate this hypothesis, an education assessmentinstrument is employed to examine whether students who have participated in service-learningprojects have stronger analytical, practical, and creative abilities than students who have onlybeen exposed to the conventional
the University of Maryland, College Park. Chin is an active member of ASEE. He has presented numerous papers at annual conferences, FIE, mid-year conferences/meetings, and Southeastern Section meetings. He has had numerous journal articles published including several in the Engineering Design Graphics Journal. He has served as the ASEE’s Engineering Design Graphics Division's annual and mid-year conference/meeting program chair, and he is presently a review board member for several journals including the EDGJ. Chin has been a program chair for the Southeastern Section Meeting and has served as the Engineering Design Graphics Division's Vice-Chair and Chair and as the Instructional Unit's
laborers, working inconcert. Helping future professionals innovate in such an atmosphere is difficult because itrequires a multidisciplinary learning perspective, which challenges the traditional universityparadigm. Toward this end, Professors from Geology and Geophysics, Civil and EnvironmentalEngineering, and Biology at the University of Utah working in collaboration with designprofessionals have developed a new multidisciplinary project-based learning environment forstudents interested in sustainability. The Sustainability Practicum course is described below andthe benefits of involving sustainable design professionals as mentors to student teams and usinglocal, on-going projects are described. Survey and interview responses are used to present
Comparison of Differing Credit Hour Allotments for Thermodynamics and Fluid Mechanics CoursesAbstractEach institution determines how many credit hours will be allotted for each course.Thermodynamics and fluid mechanics in an undergraduate Bachelor of Science MechanicalEngineering curriculum in the United States typically are allotted three or four credit hours. Fora semester system, this allows for 42-45 or 56-60 fifty-minute class sessions in three and fourcredit hour courses, respectively.Opinions vary whether thermodynamics and fluid mechanics should each be three credit hours,each be four credit hours, or one should be three and the other four. Two universities haveconducted a study to determine the advantages, disadvantages
technology.Third, enrollments in our programs have increased significantly, especially in the distanceeducation sections, which has stretched laboratory resources to their limits, making it hard tomeet demands for remote labs. With virtual machine technology, it is possible to deploy adiversified virtual network lab at a minimal cost. The virtual machine technology permits rapidchanges, deployments, and adaptation of curriculum and laboratory experiences in step with the Page 13.80.2advances in technology. The purpose of this paper is to present the design and implementation ofa portable virtual network security lab, as part of our ongoing effort to