engineering and medicine, the programme introduces engineering students tothe realities and challenges they will face when developing practical solutions for rehabilitationengineering.IntroductionBioengineers provide the bridge between medicine and engineering. The bioengineeringeducation should ensure the students are able to acquire the vital engineering knowledge in thefield of biomedical engineering, and also to gain an appreciation of the art and science ofmedicine. Besides the occasional visits to hospitals and interaction with medical professionals,extended period of immersion in the hospital and first-hand interaction with the patients will bevery beneficial. An Engineering in Medicine (EIM) programme in Rehabilitation Engineeringhas been co
integration with lecture courses in thermodynamics, fluid flow, heattransfer and solid mechanics. hey represent applications of theoretical concepts taught in mechanical engineering, Ineach experiment theoretical predictions are compared with experimentally obtained results. Although crude measuringtechniques are used at home, comparison between theoretical and experimental results is usually satisfactory. A key feature of the experiments is that they are simple and easy to carry out, requiring approximately one hour toperform. Aside from enhancing students’ comprehension of theoretical concepts, they provide opportunities for hands-onexperience-, encourage resourcefulness and raise questions about accuracy, approximations, assumptions and
brochure, “Its goal is to make science fin and exciting for girls asthey earn Gh-1 Scout recognitions by supporting Gkl Scout leaders through training and hands-on science kits.”gScience activity kits were developed, each fulfilling the requirements of one science-related Gh-1 Scoutrecognition. The k:ts are then available to Gh-1 Scout leaders who receive training through the NSP. The NSP kits and reference material do an excellent job of preparing leaders to help girls learn aboutscience and earn the science-related badges. Unfortunately, none of the science badges included in the programeven mentions the word “engineering”. Other than a listing of the addresses of most of the major engineeringprofessional societies found in the
have been taught at SJSU as application courses forInformation Technology, using IT concepts learned previously in the curriculum. Thesecourses were designed to emphasize large-scale system integration.Yerba Buena High School in East Side Union District, has served as our model forcurriculum and articulation issues with other high schools. Yerba Buena has anEngineering Magnet program that has been in existence for eleven years. They offerstudents a strong program in math and science with a selection of pre-engineering coursesthat focus on problem solving through the use of hands-on collaborative projects.Students take courses in the processes of technology, engineering graphics/design, andelectronics concepts, as well as developing a senior
in the country, with morethan two-thirds of undergraduate engineering students LatinX and most of them the first generation incollege. This education practice is offered through a new robotics course, “Introduction to autonomousrobotic systems.” The development of this course was initially motivated by limited opportunities to engagein hands-on projects resulting in a lack of preparation to work on complex robotic competitions. Withfunding from the Office of Naval Research, the course was designed as a convergence engineering learningexperience for students from all major engineering disciplines. The course ultimately enrolled students fromall disciplines of the College of Engineering, Computer Science, and Technology (ECST), and not
of EiE selected as most appropriate to each school district's science curriculum, thegrade in which the unit will be used and the field of engineering on which the unit focuses areshown in Table VI. Each unit of EiE is also adjustable to different ability levels within a grade ora classroom. Table VI: Units of Engineering is Elementary by School System District Grade Engineering is Elementary Unit Title Engineering Field District A 3 The Best of Bugs: Designing Hand Pollinators Agricultural District A 4 Catching the Wind: Designing Windmills Mechanical District B 4 An
, University of Virginia Susan Donohue is a lecturer in the School of Engineering and Applied Science at the University of Virginia. Her engineering education interests include the teaching of design, creativity and curiosity; engineering misconceptions and remediation; K-12 outreach; spatial skills development; and STEAMd integration in K-20 engineering education. c American Society for Engineering Education, 2016 Embedding Mathematics in Engineering Design ProjectsAbstractFor many years, students and faculty at the University of Virginia have been developingmaterials to teach pre-college students about engineering. These materials, Engineering TeachingKits (ETKs), introduce and reinforce
Technology by 20%.2. A strong scholastic foundations and devoted career awareness in science and engineering.3. Provide students with skill building through workshops.4. Improved professional communication and team working skills.5. Enhanced students’ creativity and ability for problems solving.6. Improved laboratory testing skills and Hands-on experiences.7. Prepared competitive students who, because of their research training and enhanced curriculum, are well prepared for SMET careers.References1. New Jersey Center for Advanced Technology Education, Summer Workshop I, 1998.2. David Hunkeler, Julie E. Sharp “Assigning Functional Groups: The Influence of Group size, Academic Record, Practical Experience
Douglass.Prof. Michael L. Falk, Johns Hopkins University Michael Falk is Vice Dean of Undergraduate Education at Johns Hopkins University’s Whiting School of Engineering where he has served on the faculty since 2008 as a Professor in the Department of Materials Science and Engineering with secondary appointments in Mechanical Engineering and in Physics and As- tronomy. He holds a B.A. in Physics (1990) and a M.S.E. in Computer Science (1991) from Johns Hopkins University and a Ph.D. in Physics (1998) from the University of California, Santa Barbara. He has been c American Society for Engineering Education, 2017
engineering, the environment, health care, and government operations, but afundamental understanding of how it can best be applied is required to make optimal progress(National Science Foundation, 1999). Recognizing this change in industry expectations, variousinstitutions are seriously looking into modifying their curriculum (Sorsby et al., 1999). Forexample, the mechanical engineering department at MIT has been transforming the undergraduatemechanical engineering curricula from one primarily based on physics to one based on acombination of physics, information science, and biology (Suh, 2000). Therefore, the first goalof this project is to develop course materials that introduce engineering students to thecomplexity of real-world problems and show
sciences“Proceedings of the 2003 American Society for Engineering Education Annual Conference & ExpositionCopyright © 2003, American Society for Engineering Education”and engineering which should prepare the student for a successful career. RochesterInstitute of Technology offers a unique educational and research program that leads to aPh.D. in Microsystems Engineering. This multi-disciplinary program builds on thestrengths in microelectronic fabrications, photonics, imaging and micro-power researchprograms at the institute. The program is designed to be application oriented withoutsacrificing the scientific and engineering fundamentals. Students will be involved incutting edge research and have access to modern facility, the largest of its
majorgroup of technology teachers were formerly known as industrial arts — or simply “shop” —teachers. Their orientation is hands-on, product-oriented and usually industry-specific. AsHutchinson & Hutchinson (1991, P. 4) point out, “Much of current practice in technologyeducation is mere ‘cosmetic change’ from [industrial arts]. Bird houses have been replaced withCO2 or mouse-trap-powered cars; the t-square with a computer and CAD software.” Neither thecomputer teacher nor the re-tooled industrial arts teacher involves students to any great extent inthe analysis and design of technologies. Where will the new technology teachers come from? TEACHING EXPERIENCES FOR ENGINEERING STUDENTSBoth National Science Foundation (1995
of activity that the material they are expected tolearn requires. The situative approach offers a level of dynamic activities in that a learningenvironment that utilizes this approach gives the students ownership of their learning while stilloperating within an acceptable amount of guidance by the instructor.While learning approaches such as problem-based and inquiry based have been discussed as noteffective for engineering and science classrooms because the students operate with minimumguidance, their applications in a situative learning environment has been discussed as not onlyincreasing students conceptual gains but also in helping students develop collaborative learningskills [29]. The heavy emphasis placed on learning content
project isto obtain an understanding of the extent to which life and physical science teachers understandthe set of engineering concepts and associated sub-concepts that were identified for the project.More specifically, since the goal of introducing science teachers to engineering concepts is tofacilitate the learning of science content, it is important to embed the assessment of engineeringconcepts into science-based scenarios and content. A key assumption of the project is that it isimportant for science teachers to develop a base level conceptual understanding of engineering inorder for that understanding to facilitate the learning of science. This is opposed to simply“doing” engineering-types of activities or “hands on” projects without a
units, and finally field test the curricula. Teachers actuallyexperienced the design problems and implemented them in the classroom. One of the guidingprinciples of this project is that the knowledge needed to solve the problem at hand is whatteachers will help students learn. Teachers are not encouraged to stick to a traditional, rigidcurriculum schedule.19At the middle school level, the Technology, Science, Mathematics (TSM) Integration Projectprovided professional development to teams of technology education, science, and mathematicsteachers who agreed to field test curriculum integration materials written by the project. TheTSM focus is on students deliberately applying mathematics and science to the design andtesting of technological
Technology (COE) Dr. Patricia Iglesias Victoria is an Assistant Professor in the Department of Mechanical Engineering at the Rochester Institute of Technology. Previously she served as assistant professor at the National Technical Institute for the Deaf and as associate professor at the Polytechnic University of Cartagena, Spain. Her research focuses on wear and friction of materials, ionic liquids as lubricants, nanostructured materials and magnetic materials. She maintains an active collaboration with the research groups of Materials Science and Metallurgical Engineering at the Polytechnic University of Cartagena and Materials Processing and Tribology at Purdue University, Indiana. As a result of these collaborations
concepts, number systems, Boolean algebra, logic circuits, combinational data- path elements, sequential logic, and storage elements. Finally, it covers DRAM control and I/O bus. This course is taught in every spring semester by ASU’s Computer Science department and is equivalent to Georgia Tech’s course of the same name that is also a required course for Electrical and Computer engineering majors at the sophomore level.d) ENGR 2001 – Introduction to Engineering Materials (Spring 2004) Primary objective of this course is to introduce students to the study of engineering materials. Building on an understanding of atomic structure and chemical bonding taught in General Chemistry, students are introduced to the chemical and size
foundationalMontessori concepts: the fundamental needs of all humans and the evolution ofhuman ingenuity. Engineering proved to be a perfect fit in the Montessori systemof education.Montessori education also proved to be an excellent fit with engineeringeducation at the elementary levels. Montessori education is holistic in nature anduses developmentally appropriate, hand-on, didactic materials to inspireengagement and learning in children. Inquiry is fostered through initialexperiences (lessons) that offer both inspiration and instruction, and through thefollow-up work (assignments) that encourage children to deepen theirunderstanding through continued exploration and application of the materials andconcepts. Design is an essential element of the Montessori
the two one-week Summer Campsoffered by the University of North Carolina at Charlotte’s (UNC Charlotte) EngineeringTechnology Department as a part of its Diversity in Engineering Technology project, funded bythe National Science Foundation. The purpose of the camps was to involve high school studentsin an intensive week-long program and show them that engineering and engineering technologycould be fun and rewarding.The Engineering Technology Department at UNC Charlotte has four disciplines: ElectricalEngineering Technology, Mechanical Engineering Technology, Civil Engineering Technology,and Fire Safety Engineering Technology. Faculty from each of the disciplines developed aneducational, but engaging, hands-on activity designed to pique the
societies and industries, especially in the high-tech industries. The evolution of modern technologies (mobile devices, Internet of Things, cloudcomputing, etc.) keeps bringing in challenges in system engineering education. Hands-onpractices may not be sufficient enough to educate engineering students to face the unknownand fast-paced competitions. Imagination should also be considered as one of the keycapabilities for the students to develop in system engineering education. Reflecting on thechanges of technologies, Taiwan governmental authorities (e.g., Ministry of Education, MOEand Ministry of Science and Technology, MOST) financially support some projects to addressdemands, challenges, and trends of the new educational technologies
5 Intro to Material Science w/ Lab 5 6 MATLAB 15 7 Design Process Overview and Exercise 5 8 Research Skills; Critical Thinking; Engineering Ethics 5 Page 22.1299.2 9 Professional Writing; Documenting Formal Calculations 5 10 Course Design-Build Project 20Visualization-related elements are included in all topics except #6 and are estimated to totalabout one third of total course time. The textbook used for early basic drawing
. Furthermore, it was felt that thetransition from procedural C++ to Java wouldn’t be significantly different than the transitionfrom procedural C++ to object-oriented C++ and any difficulties in the transition would morethan be made up for by not having to cover material such as pointers, memory management,operator overloading, and templates. Despite this, success rates still remained unacceptably low.In the fall of 2001, the CS2 course was split into two three-credit courses and these courses werecross-listed in both computer science and software engineering, since they were required for bothmajors. In this paper, the two resulting courses will be referred to as CSSE2-I and CSSE2-II.There were several reasons for the split. One reason was an attempt
is a program of KISS Institute for Practical Robotics, a private non-profiteducation and research organization that uses robotics as a means to engage students inscience, engineering, math, and computer programming. In Botball, teams of middle andhigh school age students are given two challenges: 1) build and program a team ofautonomous mobile robots to play the current tournament game; 2) create a website thatmeets this year’s defined challenges.The mission and purpose behind BotballBotball’s mission addresses three populations:For Educators: Botball exists to provide educators with knowledge, resources andequipment with which to foster an engaging and continuous hands-on learningenvironment for science, technology, engineering and math.For
National Science Foundation (NSF) GK-12 program is managed through the Center forEngineering Educational Outreach (CEEO) at Tufts University. The CEEO is a nonprofitorganization working with area schools to incorporate engineering into preK-12 classrooms. TheCEEO supports roughly fifteen different programs. The programs range from a summer camp formiddle school students to workshops for teachers and educators.The GK-12 project is a three-year project focused on pairing graduate-level engineering andcomputer science students with classroom teachers. The CEEO had six graduate fellows and fourundergraduate fellows in the first year of the project, and currently has eight graduate fellowsworking in the classroom and four undergraduate fellows working
engineering programs create with the community.Dr. Amalia Kokkinaki, University of San Francisco Dr. Kokkinaki is an Assistant Professor at the University of San Francisco, teaching in the Departments of Environmental Science and Engineering. Her research focuses in the areas of groundwater transport and remediation, environmental modeling and statistical methods for environmental monitoring and char- acterization. She teaches Environmental Chemistry, Environmental Data Analysis and environmental engineering courses.Jes Parker, University of California, BerkeleyHana M B¨ottger, University of San Francisco Hana B¨ottger’s interests lie at the intersection of structural materials engineering and architecture, and she created
/ bioengineering,biomedical engineering and chemical engineering be pursued in a parallel and mutually beneficialmanner. The biomedical engineering component would typically be centered on medical devices,imaging, biomechanics and biophysics, prostheses and radiology. Biomedical engineeringintegrates physical, chemical, mathematical, and computational sciences and engineeringprinciples to study biology, medicine, behavior and health. It advances fundamental concepts,creates knowledge from the molecular to the organ systems levels, and develops innovativebiologies, materials, processes, implants, devices, and bio-informatics for the prevention,diagnosis, and treatment of diseases, for patient rehabilitation, and for improving health (NIH,2004). The broader
. Maintaining thosememories is an issue. Research in the field of memory demonstrates that how quickly andreliably students recall depends on; activation or how long since they last used the informationand strength or how well they practiced it. Standard departmental practice dictates passing aSenior Exam similar to the Fundamentals of Engineering exam, and completing a Senior Designproject. Data from several years of administering pre-tests of pre-requisite material clearlyindicate that student retention declines rapidly over time. A researched technique for memoryimprovement is Preview, Question, Read, Self-Recitation and Test or “PQRST”. This techniquepertains to our strategies. Our department has adopted two strategies to combat this loss
teams of globalmultidiscipline engineers interact via the internet. Universities are engaged with trying toreplicate this online, multidisciplinary experience for their students.In the project described here, a beginning multidisciplinary engineering course, the e-learningconcept was applied to “Engineering Computer Programming” (ENGR 1412) at Oklahoma StateUniversity. This course is a 2-credit course, with a lecture session to introduce programming andengineering concepts, and a lab session to give hands on experience for programming to thestudents. Help sessions were conducted by Graduate Teaching Assistants (GTAs) to assiststudents on projects, quizzes, and exams. The course projects were designed to introduceprinciples from various
formerWORTHY students that are in college. As requested by Northrop Grumman, the programconsisted of numerous hands-on activities which emphasized basic engineering concepts,problem solving skills, cooperation as teams, and an overall engineering design project. Many ofthese activities have stemmed from the high school outreach program that is part of our NSFfunded Science, Technology, Engineering and Mathematics, Talent Expansion Program (STEP –DUE-0230148)3. The engineering concepts were introduced with PowerPoint presentations that Page 10.111.2 Proceedings of the 2005 American Society for Engineering Education Annual Conference &
Engineering Education. His research is supported through various internal and external funding agen- cies including the National Science Foundation. He is a popular and well-respected instructor, and has received many teaching awards including the Regents Distinguished Teaching Award in 2010 at OSU.Dr. Kerri S Kearney, Oklahoma State University Dr. Kerri Kearney is an associate professor of educational leadership at Oklahoma State University. Her professional experience is in both education and organizational consulting. She holds an M.B.A. and an Ed.D. Her research agenda focuses on the emotional impacts of human transition, other mothering, visual methodologies in qualitative research, and other organizational and