successful. While more uniform among the sexes, thenumbers in the combined fields of Computer Science/Mathematics are also discouraging, withsuccess rates of only 38.5% for men and 32.7% for women. On the other hand, students wishing Page 9.1068.1 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Educationto pursue a bachelor's degree in business exhibited success rates of 71.8 % for men and 63.7%for women. Clearly, there are a variety of factors influencing student retention and success inengineering
., Canada, which are over 400 km (250 miles) from each other. The newestprogram offered in the Faculty of Applied Science at the University of British Columbia is theundergraduate Manufacturing Engineering program. It is the first of its kind within the Faculty ofApplied Science to be offered across both campuses and a relatively new program with the firstcohort of students starting in 2019. On the Vancouver campus, the program was developed andhosted by the Department of Materials Engineering and the Department of MechanicalEngineering. On the Kelowna campus, the program is hosted by the School of Engineering.”Manufacturing is the fourth largest industry in British Columbia, supporting roughly 161,000jobs and accounting for 7% of the provincial
courses will have to be replaced.At Wentworth, the ‘hands-on’ aspect of education has several meanings, including;demonstrative laboratory exercises in the engineering mechanics, hydraulics, materials and soilmechanics classes, problem-solving laboratory exercise in structural analysis and structuraldesign, software application exercises in highway design, and design experiences in municipalplanning, foundations, earthwork, water and wastewater treatment subjects. Surveying, which isobviously hands-on, is also part of our present curriculum. What of these elements can weretain, or do we need to retain?We must be cognizant of the ‘hands-on’ elements that enhance student learning, and thisassessment is best made internally. Comment is sought from
, and communications), anintegrated freshman curriculum framework has been developed. The ET Core is built onthe six major physical systems (electrical, mechanical, thermal, fluid, optical, andmaterial) common to the engineering technology programs in the South Carolina systemand identifies the freshman level mathematics, science, and introductory technologyperformance objectives. Because technical communication is essential, a communicationframework will also be part of the integrated ET Core. Industry has been involved invalidation of the performance objectives and identification of problem-based exercises toallow the classroom activities to model the workplace by focusing on teamwork,communication, and problem solving as well as technical
Figure 3. Total Lab Setting.Implementing the total lab concept requires coordination between experimental labs, computerfacilities and class activities. Activities include mastering the basics of the theoretical method,collecting and processing information, and presenting results. The class material or the suitabletexts will depend on the engineering field. In the computer lab, students should be trained to usecomputers to manipulate information. Experimental labs should be used to train students to designexperiments and to write experimental procedures to run an experiment. Instruction techniquesshould utilize the findings and discoveries of cognitive science, psychology and the theories oflearning. Evaluation methods must employ different
, - provide undergraduate students with the opportunity to work on projects related to sports and sports technology, - collaborate with health and exercise science faculty and students, particularly in the study of sports science and related injuries - host activities for targeted audiences such as K-12 outreach, teacher training and new Page 12.1374.2 faculty preparation - disseminate lab handouts and course materials that other colleges and universities may be able to implement to introduce biomedical principles in sports The first component of this project is the development of a series of hands-onexperimental
connectionbetween material properties and machining techniques, and non-causal associations found in the text data it has been trained on.This data includes public technical literature, manuals,engineering guides, and other available information onmachining, materials science, and manufacturing processes.When presented with a specific task, such as machining NationalPipe Tapered (NPT) threads in aluminum, the LLM processesthe input query and uses its internal language and knowledgemodel to generate a response that is both contextually relevantand accurate based on its training. B. Optimization of Material and Design Machinability: Since the component will be CNC We are going to constrain the manifold to a
of every engineering discipline. One such fundamental concept ismolecular diffusion. Although traditionally a hallmark of chemical engineering education,historically, civil engineering education has presented diffusion concepts as a “just in time” toolto solve particular problems. However, a change in this presentation paradigm is necessary if thediscipline is to meet one of the major challenges of the 21 st century. It is anticipated thattomorrow’s employers will give junior engineers assignments that require an expandedexperience and knowledge base of such concepts so that they will be able to immediately relateto and work effectively within interdisciplinary engineering and science teams. It is relatively easy for civil engineering
+ Women Strong Leadership in Diversity Faculty Award.Dr. Edward W. Davis, Auburn University Edward W. Davis received his PhD from the University of Akron in 1996. He worked in the commercial plastics industry for 11 years, including positions with Shell Chemicals in Louvain-la-Nueve Belgium and EVALCA in Houston TX. He joined the faculty at Auburn University in the fall of 2007. In 2014 he was promoted to Senior Lecturer. He has regularly taught courses in three different engineering departments. In 2015 he began his current position as an Assistant Professor in the Materials Engineering Program.Prof. Virginia A. Davis, Auburn University Dr. Virginia A. Davis’ research is primarily focused on using fluid phase processing
describes high school STEM lessons created by three undergraduate MechanicalEngineering students. The students participated in a classroom outreach program called ComputerScience Investigations (CSI: Cincinnati) as part of the Mentoring for Connections to Computing effortfunded by the National Science Foundation’s Broadening Participation in Computing program. The CSIprogram performs computing-themed pre-college outreach with a team of undergraduates who deliveroriginal lessons with hands-on activities and interact with high school students in their classroom. Thispaper describes three lessons: (1) pipe design layout based on CAD drawings for an industrial bakerykitchen, (2) computer vision systems using optical illusions and cupcake decorating
success, in turn, buildmiddle school students’ self-efficacy and their desire to enroll in STEM courses in the future(Britner & Pajares, 2006).Although literacy-infused instruction leads to positive outcomes in science, little researchexists on how comparable practices might be implemented in middle school engineeringcourses. The purposes of this research was to provide ongoing professional development formiddle school technology and engineering (TE) teachers on the infusion of literacyinstruction and to identify whether and how they infused literacy instruction in the context oftheir own teaching.Literacy InstructionResearch on literacy instruction (e.g., Christenbury, Bomer, & Smagorinsky, 2009) suggeststhat literacy-based supports are
Association of Schools and Colleges. Dr. Wilczynski was named the 2001 Baccalaureate College Professor of the Year by the Carnegie Foundation, the only national award which recognizes outstanding college teaching.Prof. Corey S O’Hern, Yale UniversityProf. Eric R Dufresne, Yale University Director, Center for Engineering Innovation and Design Associate Professor of Mechanical Engineering and Materials Science Page 24.1320.1 c American Society for Engineering Education, 2014 Using an Engineering Design Center to Infuse Design Experience into a Mechanical Engineering
in Engineering Statics1 IntroductionA thorough understanding of basic science and engineering concepts is one of the core objectivesof engineering education. It is frequently observed that for many students, typical introductorycourses are not successful in generating such an understanding. Studies show that this contributesto high drop-out rates in technical (STEM) fields. 1,2,3 Changes in the instructional settings, suchas incorporating more active learning formats, can help enhance learning outcomes, but effectiveinstruction in introductory science and engineering may require more than the mere adoption of aproper learning format. Educational research based in the science disciplines, especially inphysics, has identified specific
a series of hands-on projects in a multidisciplinary laboratorysetup established from a grant from the Department of Education. The LEGO Mindstorm robots,FLOTEK 1440 wind tunnel, PC TURN 55 CNC machine, SolidWorks 3D software withDimension 3D Printer rapid prototyping machine are primarily used in the laboratory componentof the “Principles of Engineering Analysis and Design” course taught at the sophomore levelwhich carried 30% of the final course grade. The laboratory class introduced in 2001 has become astrong motivational tool for our engineering students inspiring them to continue with the upperlevel courses. Apart from exposure to multiple equipment and software, students gain an insightinto how a task can be accomplished by first
communication via the social web include collaboration,searching for relevant content, documenting original materials, promoting one’s work, buildingpeer networks, extracting and organizing information, and conducting peer reviews.4,5 Scientificand professional communication online supports diversity in the sciences and engineering. Itprovides a platform for role models from diverse backgrounds to connect with new scientists andengineers.6 Online scientific communication also allows individuals in specialized areasdispersed over a wide geographic area to easily communicate as a discipline in a designatedvirtual environment.4 It gives a venue for identifying and/or purchasing parts, information onuser opinions or demographic information, and competitor
, and installation of integrated systems of men, materials, and equipment. It draws upon specialized knowledge and skill in the mathematical, physical, and social sciences together with the principles and methods of engineering analysis and design, to specify, predict, and evaluate the results to be obtained from such systems.Roy observed, "We have interpreted the primary objective of this study as consonant with that[AIIE] definition."Given the emphasis on uniformity of academic programs induced by the process-orientedaccreditation standards of the Engineers' Council for Professional Development (the predecessorof the ABET, Inc.), the approach to curriculum model development that Roy and his colleagues
, expertise, and power of the correspondingengineering technology programs. The effects of this “boundary crisis” are materializing in thedeclining enrollments in the engineering technology programs that have correspondingengineering programs (Figure 1). This data demonstrates that the introduction of civil,mechanical, and electrical engineering has had a negative effect on the enrollments in thecorresponding engineering technology majors. Civil Engineering Technology has decreased inenrolled majors by 62%, electrical engineering technology by 44%, and mechanical engineeringtechnology by 30.4% during a five year period. Please note, however, that engineeringtechnology programs which do not have a corresponding engineering major, such as
will be dealing with the fabrication and characterizations of nanomaterials(e.g., nanoparticles, nanofibers, nanofilms, nanocomposites and micro - nanoscale devices) anddevices for undergraduate and graduate students in order to improve the hands-on laboratoryexperiences. It is assumed that this nanotechnology would be one of the targeted areas forscience and engineering in the near future, so the action should be taken on nanotechnologyeducation as early as possible.Email: ramazan.asmatulu@wichita.eduKey Words: Nanotechnology, nanomaterials fabrication and characterization, and undergraduate education. 11. INTRODUCTION Nanotechnology is simply the creation of materials, components
served as chairman of the Environmental Management Board, advising the Department of Energy on the cleanup of the U.S. nuclear weapons complex, and as a member of the National Research Council’s Board on Energy and Environmental Systems. Dr. Bodde holds the Doctor of Business Administration, Harvard University (1976); Master of Science degrees in nuclear engineering (1972) and management (1973), both from the Massachusetts Institute of Technology (MIT); and a B.S. from the United States Military Academy (1965). He was a soldier once, and served in the Army in Vietnam. Author of "The Intentional Entrepreneur: Bringing Technology and Engineering to the Real New
integration, electric and pneumatic actuators, power transmission, materials and static force analysis, controls and programmable embedded computer systems, system integration and robotic applications. Laboratory sessions consist of hands-on exercises and team projects where students design and build mobile robots. RBE 2001 UNIFIED ROBOTICS I First of a four-course sequence introducing foundational theory and practice of robotics engineering from the fields of computer science, electrical engineering and mechanical engineering. The focus of this course is the effective conversion of electrical power to mechanical power, and power transmission for purposes of locomotion, and of payload
). Page 10.1458.8 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education[9] Z. Bowles, P.E. Tissot, P. Michaud, A. Sadovski, S. Duff and C. Steidley, “Engineered Training Sets: Enhancingthe Learning Power of Artificial Neural Networks for Water Level Forecasts”, XIVth International Symposium onMathematical Methods Applied to the Sciences (XIV SIMMAC), San Jose, Costa Rica, February 17-20, 2004.[10] Z. Bowles, P.E. Tissot, P. Michaud and A. Sadovski “Artificial Neural Network Predictions of Water Levels ina Gulf of Mexico Shallow Embayment”, Third International Conference on Multivariate Approximation Theory
Paper ID #30127Conceptualizing a theory of ethical behavior in engineeringMr. Luan Minh Nguyen, Iowa State University Luan M. Nguyen is an MA/Ph.D. student in Anthropology/Civil Engineering, who completed his Master of Science in Biochemistry at Iowa State University and his Bachelor of Science in Chemistry at Hartwick College. His first master’s thesis focused on the structural analysis of the schizophrenic gene DISC1 using transmission electron microscopy and hydrogen-deuterium exchange mass spectrometry. For his second master’s thesis, he focuses on identifying the individual and institutional factors that contribute
which students used the engineering design process todesign a park. For the second and third segment, students were able to choose two of six quasi-major-specific seminars. Each three-week seminar had a class size around 33 students, a lab sizeof about 16 students, and featured a team-based hands-on project. Seminar titles included:Engineering Athletics, Programming a Computer, Green Engineering, Flinging Things, PastaTowers and Digital Logic Design. Not only did these seminars allow a smaller classroom settingand more in-depth study, we found that it provided an opportunity for both students and facultyto take ownership of the course. The final section was also taught in the large classroom settingand centered on ethics and professional
7.4 million dollar award that leverages the skills and resources of the schools, community, and businesses in three high-minority, low- resource Baltimore city neighborhoods. The goal is to integrate science into a child’s world as opposed to bringing a student into the world of scientists.Prof. Michael L Falk, Johns Hopkins University Michael Falk is a Professor in the Department of Materials Science and Engineering at Johns Hopkins University’s Whiting School of Engineering where he has served on the faculty since 2008 with sec- ondary appointments in Mechanical Engineering and in Physics and Astronomy. He holds a B.A. in Physics (1990) and a M.S.E. in Computer Science (1991) from Johns Hopkins University and a
Paper ID #27672Board 44: Engineering Design in Scientific InquiryDr. Leslie Atkins Elliott, Leslie Atkins Elliott is an Associate Professor of Curriculum, Instruction and Foundational Studies at Boise State University, specializing in Science Education. Her research focuses on fostering participation in the practices of science - particularly writing and design - and how science instruction can reduce barriers between classrooms and everyday life. Her work with scientific practices emphasizes students’ rights to their own ideas and the emergence of scientific practices, including design, from disciplinary
Atlantic University and a Master of Arts in Education from the University of South Florida. Prior to her position as Reading Coach, Kim’s experience included fifteen years as a classroom teacher in grades one through five. Kim has presented at various county and state venues.Marilyn Barger, University of South Florida MARILYN BARGER is the Executive Director of FL-ATE, the Florida Regional Center for Manufacturing Education housed at Hillsborough Community College. She earned a B.A. in Chemistry at Agnes Scott College, and both a B.S. in Engineering Science and a Ph.D. in Civil Engineering from the University of South Florida. She has over 16 years of experience in developing curriculum
equations throughexposure to a wide variety of examples from their spheres of experience. The material will bepresented in a series of 18 modules developed by thermal science instructors from the Universityof Detroit Mercy, Wayne State University, and the University of Michigan. The Thermophysicscourseware development is one of the three stems constituting the Engineering Physicsknowledge area for the Greenfield Coalition. The other two stems are Mechanophysics andElectrophysics. Initial delivery of the thermophysics material is slated for January of 1997. Page 2.439.2 2II. APPROACHComputer-based
to defineapplications, to establish specifications, and to test the systems in real-case applications.With a systematic training, they can serve as an important bridge betweenhardware/software design engineers and machinery system design engineers. To prepareBAE students for these jobs, fundamental knowledge and training on real-time embeddedsystems need to be included in the BAE curriculum.Prompted by these needs, a faculty member in the BAE Department joined an effort of aninterdisciplinary team in research and curriculum development on real-time embeddedsystem design. Participants of the project included three faculty members in Computingand Information Sciences (CIS) and a faculty member in Electrical and ComputerEngineering (EECE
Paper ID #10733Creating a STEM Identity: Investment with ReturnJanet Callahan Ph.D., Boise State University Janet Callahan is the Associate Dean for the College of Engineering at Boise State University and a Professor in the Materials Science and Engineering Department. Dr. Callahan received her Ph.D. in Materials Science, her M.S. in Metallurgy and her B.S. in Chemical Engineering from the University of Connecticut. Her educational research interests include freshmen engineering programs, math success, K-12 STEM outreach, and retention and recruitment of STEM majors.Ms. Patricia Pyke, Boise State University Patricia
.” constraints, and materials; and having students cycle through building and testingTo recap, Ana and Ben (and their respective teaching partners) both involved their elementarystudent teams in solving a community problem through designing, building, and testing atangible artifact. However, they set up different expectations for what their students would learnvia this engineering design experience. Ana’s interactions with her students and reflections onteaching suggest that she wanted her students to build knowledge collaboratively about howthings work with equal emphasis on engineering design and science reasoning through designtasks. Ben’s management of his students’ design process and his reflections on the