research interests particularly focus on what prevents students from being able to integrate and extend the knowledge developed in specific courses in the core curriculum to the more complex, authentic problems and projects they face as professionals. Dr. Koretsky is one of the founding members of the Center for Lifelong STEM Education Research at OSU.Prof. John L. Falconer, University of Colorado Boulder John L. Falconer is the Mel and Virginia Clark Professor of Chemical and Biological Engineering and a President’s Teaching Scholar at the University of Colorado Boulder. He has published more than 225 papers and has 12 patents in the areas of zeolite membranes, heterogeneous catalysis, photocatalysis, and atomic and
mechanical engineering technology student. Proceedings of the 1998 American Society for Engineering Education Annual Conference & Exposition (CD-ROM), American Society for Engineering Education.[2] Somerton, C.W., Elliott, G., Vance, R., (1999), Incorporating the design of experiments into a heat transfer laboratory course. Proceedings of the 1999 American Society for Engineering Education Annual Conference & Exposition (CD-ROM), American Society for Engineering Education.[3] Somerton, C.W., Smith, M., Lu, M., (2001), A MATLAB program for teaching convective heat transfer. Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition (CD- ROM), American Society for Engineering
fundamental content of chemical engineering, and c) develop computer skills with modeling and simulation packages that the students will need in the co-op program with industry and in all subsequent chemical engineering courses. Computer-Aided Modeling and Simulation (CAMS) – A Pathfinder Course In 1999, the authors along with their colleagues received a Nation Science Foundation CCLI-A&I (Course, Curriculum, and Laboratory Improvement – Adaptation and Implementation) grant. This led to the initiation of a prototype course to integrate problem- based learning (PBL) pedagogy into the chemical engineering curriculum by use of computer-aided modeling and simulation packages. It starts with a new course, CAMS (Computer Aided Modeling and Simulation
those capabilitiesalready incorporated. For instance, the machine for which the VAL-CAM program wasoriginally written does not have an automatic tool changer, whereas one of the recently installedmachine tools does have such a tool changer. The program module for this new machine allowsthe user to specify the codes that are used by the new machine that will effect an automaticchange of tool. A variety of standard and non-standard codes are also provided so that the usercan tailor the code to operate most new machine tools.The significance of this project is that the generality and modularity of the post-processor lendsitself to utilization in similar laboratories at other educational facilities.Introduction and Problem StatementA CNC code
Session 1332 Development of an Undergraduate Course in Radar Systems Habib Rahman, Beshara Sholy Saint Louis University Saint Louis, MO 63103-1110AbstractThis paper outlines and presents the results of the development and teaching of a unique coursein radar systems to undergraduate students in electrical engineering and avionics majors at SaintLouis University. It also discusses the challenge of offering such a course, and proposes a coursecurriculum that is specifically tailored for undergraduate students.The important and
participate in the exploration of advanced materials.Materials Content of the Mechanical Engineering CurriculumThe curriculum aims to cover all 1four corners of the materialstetrahedron shown in Figure 1. Itis supported by a sophomore levelbasic materials science course, a 2junior level manufacturing 3 4processes course, two laboratory Figure 1classes and is capped with a senior Materials Tetrahedron1level course in materialsengineering. In addition, there are 1. Advanced Processingsome technical elective courses in 2
the failure. In the case of fatigue failures, the service history of the componentcan sometimes be read from the fracture face in a manner similar to the way that aforester interprets the growth rings of trees. Fracture patterns in glass and in variousbrittle materials, can also be very revealing as to the origin and progression of thefracture, and thus the likely cause.Fundamental to an understanding of design for failure avoidance is an equally thoroughunderstanding of how and why materials, in their fabricated forms, fail. The latterunderstanding is not generally obtainable from studying laboratory fractures of standardtest specimens. These fractures are usually quite different in appearance from thefractures typically found in
the electric grid. He is the Principal Investigator for UTPA’s three main solar facilities: the ENGR PV Fixed Array, the TXU Sun Tracking Arrays, and the Solar Observatory. Ramos is a licensed Professional Engineer in the state of Texas and Chair of the Rio Grande Valley Chapter of IEEE Power & Energy Society. Before coming to Texas, he accumulated significant experience in manufacturing, consulting, and teaching electrical engineering courses. He obtained a Ph.D. in electrical engineering in 1976 from Stanford University. Ramos has been an educator since 1977 of national and international universities including the University of Texas, Pan American, Edinburg, Texas; Universidad Autnoma de La Laguna, Mexico
engineers. 2. Assess current instructional and student evaluation practices. EVALUATION 3. Assess state-of-the art teaching practices and inclusion of high technology techniques for instruction. 1. Propose revisions to current educational system, where necessary. 2. Integrate state-of-the-art instruction and learning practices, e.g. Distance Learning. 3. Determine the cost and socioeconomic benefits MODEL of the new educational model. DESIGN 4. Identify and implement role of computer in the educational model. 5
laboratory,interwoven using J.I.T. methodology. More than 45 participants have taken the courseand provided feedback via a questionnaire. A Supervisors’ Course is being developed.Labs are provided; the supervisors will analyze and evaluate the lab material from theicons backwards.IntroductionFor several years, Northeastern University’s Continuing Education Center for CorporateOn-Site Training has been working to devise new courses that apply the Just-In-TimeEducation™ technique. This technique examines the technical topics desired to betaught to potential participants. It then sequences these topics so the knowledge andskills are gradually applied in the course. Potential participants are given a mathematicsDiagnostic Tool developed by the authors
cr.Advanced Mathematics 3 cr.ENGINEERING SCIENCE: (34 credits)Computer Science 3 cr.Freshmen Engineering 4 cr.Statics 3 cr.Dynamics 3 cr.Solid Mechanics / Lab 4 cr.Fluid Dynamics 3 cr.Thermodynamics 3 cr.Linear Vibrations 3 cr.Linear Systems 3 cr.Electrical Eng. / Lab 5 cr.ME MAJOR: (41 credits)Foundation to Eng. Design 3 cr.Kinematics 3 cr.Machine Design 3 cr.Material Science 3 cr.Measurements 3 cr.Manufacturing 3 cr.Mechatronics 3 cr.Applied Thermodynamics 3 cr.Heat Transfer 3 cr.Design I & II 6 cr.ME Laboratory 2 cr.Technical Electives 6
Engineering and Engineering Technology, actualindustry experience is greatly appreciated not only by future employers, but also by the students.Employers feel more comfortable with future employees that have some experience beforegraduating from college, and have acquired a basic knowledge on how their specific industryworks (Lessard, 1996). Students recognize that the lectures and laboratory experiences deliveredwhile in college are necessary to learn the basic and theoretical principles for a given subject.However, they also recognize that due to the limitations of the campus infrastructure, they cannotreproduce as much as would be desirable, the actual industry settings. This is especially true inBiomedical Engineering Technology, as the teaching
processing of voice and musicsignals can add interest and understanding to the basic concepts that are taught in electricalengineering technology. The applications presented below are some of the ways that the soundsof voice and music can be included in technical laboratories and demonstrations.Transduction and display of soundThe function generator is the standard device for the creation of waveforms in the laboratory.Such waveforms can be displayed and measured with an oscilloscope. However, waveforms canalso be gathered from physical media and transduced with a microphone and amplifier circuit.The author has successfully used this method on a number of occasions to demonstrate to highschool students and teachers the nature of sound, electronics
with ten community colleges. Students complete a two yearengineering technology degree at the community college, then complete the bachelors primarilythrough live videoconferencing. One of the most challenging aspects of this program is thestudent laboratory experience. The focus of this paper is on a bottling process that allows forremote monitoring and control.Comments on Engineering Laboratory InstructionIn the last thirty years there has been “major paradigm shift in technology, starting from analogto digital, macro to micro, from fixed (or wired) communication to mobile (or wireless)communication, etc.”1. Tiwari also notes that there is a lag in traditional engineering laboratoryexperiences, especially with regards to remote monitoring
development, implementation, and assessment of this team-taught course at LafayetteCollege will be discussed.IntroductionFlow visualization is a family of techniques used to reveal the details of fluid flow. Leonardo daVinci is widely recognized to be one of the first practitioners of this scientific art. He spentmany years in his makeshift laboratory and in the field observing the movements of water andair. During his research, he maintained detailed notes and drawings to record his observations. Asketch from Leonardo’s notebooks of a free water jet issuing from a square hole into a poolrepresents perhaps the world’s first use of visualization as a scientific tool to study turbulentflow.As the quintessential “Renaissance man,” Leonardo would likely
Undergraduate Mechatronics Couse Design Project MAJ Ryan A. Ebel, United States Military Academy MAJ Donald S. Abbott-McCune, United States Military Academy MAJ David Chang, United States Military AcademyAbstractThere is a real need to educate our engineering students in the application of electronics, controls,mechanics, and software; this multidisciplinary initiative has led to the creation of an undergraduateMechatronics courses at the United States Military Academy (USMA) and many other universitiesaround the world. The focus of these courses is to emphasize application and hands on laboratory work ingeneral, and design projects in particular. This paper presents an
development, implementation, and assessment of this team-taught course at LafayetteCollege will be discussed.IntroductionFlow visualization is a family of techniques used to reveal the details of fluid flow. Leonardo daVinci is widely recognized to be one of the first practitioners of this scientific art. He spentmany years in his makeshift laboratory and in the field observing the movements of water andair. During his research, he maintained detailed notes and drawings to record his observations. Asketch from Leonardo’s notebooks of a free water jet issuing from a square hole into a poolrepresents perhaps the world’s first use of visualization as a scientific tool to study turbulentflow.As the quintessential “Renaissance man,” Leonardo would likely
, their professionalization. Assuch, in this paper, the focus is on how PhD graduate students from historically minoritizedcommunities perceive their sense of belonging within their research laboratories, theirprograms/departments and their professions. It is also discussed how teaching self-advocacyeducation impact how students navigate environments in higher education, such as in knowledgeof policies and help seeking. Challenges in sustaining this type of programming will also bediscussed and opportunities for expanding them more broadly within graduate programs at otherHSIs and institutions interested in expanding their supports to include non-academic outcomes ofstudents.Programming Students are given opportunities to attend seminars
Beach. His research interests include microfluidics for organic synthesis, chemical and biological assays and fuel cells.Roger C. Lo, California State University, Long Beach,Department of Chemical Engineering Roger C. Lo is an Assistant Professor of Chemical Engineering at California State University, Long Beach. He received his Ph.D. from Texas A&M University in May 2008. Roger teaches undergraduate and grad- uate required courses (fluids, math, and transport phenomena) and also numerical analysis using Excel and MATLAB for chemical engineering calculations. Roger’s research interest focuses on microfluidics and its applications to solving chemical and biological problems, such as fuel cells, microreactors, and
AC 2011-270: EMERGING TECHNOLOGY INSTITUTE - TRAINING MID-DLE AND HIGH SCHOOL TEACHERS IN ALTERNATIVE ENERGYLiping Guo, Northern Illinois University Liping Guo received the B. E. degree in Automatic Control from Beijing Institute of Technology, Beijing, China in 1997, the M. S. and Ph. D. degrees in Electrical & Computer Engineering from Auburn Uni- versity, AL, USA in 2001 and 2006 respectively. She is currently an Assistant Professor in the Electrical Engineering Technology program in the Technology Department at the Northern Illinois University. Her research and teaching interests are mainly in the area of power electronics, renewable energy, embedded systems and automatic control. Dr. Guo is a senior member
component in developing public science literacy is teaching scientists to communicatewith and educate the public. NSF Director Rita Colwell recently said, "...we cannot expect thetask of science and math education to be the sole responsibility of K through 12 teachers whilescientists and graduate students live only in their universities and laboratories. There is no groupof people who should feel more responsible for science and math education in this nation thanour scientists and scientists-to-be." 2 "….We need to…reach out with clarity, explain what we Page 4.456.1do to the public, talk to the media, try new approaches to achieve a more inclusive
should result in change such as adoption of newtextbooks, teaching techniques and laboratory procedures/experiments. It is not theresponsibility of the program evaluator to discover the fruits of assessment; it is theresponsibility of the faculty to demonstrate how assessment has caused changes in the program.Assessment and continuous improvement require a plan of action. To demonstrate that graduateshave achieved desired outcomes, some programs use student portfolios, collecting student workfrom the freshman year to the senior year using a WWW based approach. This tool is useful indemonstrating that outcomes have been achieved. Others use an exit interview for all graduatingstudents that provide important program feedback. This interview is in
degrees are ABET accredited.We recently received a National Science Foundation (NSF) Curriculum (ILI) grant. Themajor thrust of implementation reflects the revolution caused by technology in civilengineering and survey. We give each student not only the theory but also actualexperience with the projects and equipment that are the "bread and butter" of civilengineering practice. Laboratories in cartography, photogrammetry, surveying and civilengineering are designed to integrate experiences in this new technology.In the area of Geographic Information Systems (GIS), the merger of information fromdifferent sources, often in different formats, is the norm in civil engineering technologypractice, using GIS-based systems. We must recognize and keep up
hardware description techniques providedby VHDL or VERILOG. Students who possess a working knowledge of VHDL or VERILOGhave a real advantage at job search time over students who have not been exposed to theseconcepts [2]. The Electronics and Computer Engineering Technology Department at Arizona StateUniversity has been teaching a senior level undergraduate and graduate course in VHDL sinceSpring 1993. This course integrates the students’ knowledge of high level languages, digitaldesign concepts, and microprocessors. Students are challenged by the course because they arerequired to actually understand how simple devices such as flip-flops work in order to design agood digital model using the techniques of VHDL. Students are given the basics
her bachelors degree in Psychology & Spanish and a Masters of Edu- cation in Administrative and Policy Studies from the University of Pittsburgh. She has been the Lead Education and Outreach Coordinator at the Department of Rehabilitation Science and Technology and Human Engineering Research Laboratories since 2007, where she has served as Co-PI on four training programs in the field of assistive technology for undergraduates, veterans, and Masters students. She is dually involved with the Research Experience for Undergraduates and Teachers programs, in addition to other education initiatives at the Quality of Life Technology Center, all funded by National Science Foundation. Ms. Goldberg is pursuing her PhD in
Con- ferences. His current research interests lie in the area of applied signal processing and physical layer of millimeter-wave communication systems, synchronization, channel estimation, interference cancelation, and performance optimization. For more information refer to www.mehrpouyan.info.Dr. Ronald Hughes, CSUB STEM Affinity Group ACADEMIC POSITION: (2009-Present) Associate Professor for the STEM Affinity Group, School of Natural Sciences and Mathematics, California State University, Bakersfield. Duties included teaching responsibilities in Undergraduate Biology, Graduate Level Science Curriculum, Philosophy, and Issues; Elementary and Secondary Science Methods; Student Teacher Supervision, and Educational
Undergraduate Mechatronics Couse Design Project MAJ Ryan A. Ebel, United States Military Academy MAJ Donald S. Abbott-McCune, United States Military Academy MAJ David Chang, United States Military AcademyAbstractThere is a real need to educate our engineering students in the application of electronics, controls,mechanics, and software; this multidisciplinary initiative has led to the creation of an undergraduateMechatronics courses at the United States Military Academy (USMA) and many other universitiesaround the world. The focus of these courses is to emphasize application and hands on laboratory work ingeneral, and design projects in particular. This paper presents an
well-rounded process ofadjusting concepts so that they can be efficiently applied to real world situations. The use of modelsas a form of experience to teach ideas, whether theoretical or design, can serve as a conceptualbridge between life situations which aids creativity, problem solving, decision making, andscientific research (11).The theory put forward by Kolb has been implemented in various ways, with varying degrees ofsuccess. Laboratory education has been found to benefit significantly from the application ofKolb’s cycle, including hands-on activities and pre- and post-lab tests to prepare and consolidatethe knowledge of the students (12). These theories were implemented within this activity byintroducing the models, providing theory
constructivist theory and issues of equity. Her research focuses on issues of gendeAmaneh Tasooji, Arizona State University Amaneh Tasooji, Arizona State University Amaneh Tasooji is an Associate Research Professor in the School of Materials at ASU and has been teaching and developing new content for materials science and engineering classes and laboratories. She has developed new content and contextual teaching methods from here experience as a researcher and General Manager at Honeywell Inc. She is currently working to develop new assessments to reveal and address student misconceptions in introductory materials engineering classes.Stephen Krause, Arizona State University Stephen Krause, Arizona
Columbia University and the Cooper Union in New York City. She received her PhD from Columbia University in 2006, where her research focused on the mechanical and frictional properties of articular cartilage. Dr. Basalo ’s teaching experience includes Thermodynamics, Computer Graphics, Materials Science and laboratory courses. Since 2015 she has been actively involved in the University of Miami College of Engineering’s ”Redefining Engineering Education” strategic plan on educational innovation. As part of this plan, Dr. Basalo worked with 2 other faculty members to organize inaugural Senior Design Expo in May 2017, an exposition where over 200 senior students showcased their Capstone projects to the University of Miami