International Affairs Mathematics Mechanical Engineering Material Science & Engineering Nuclear & Radiological Engineering Physics Special (exchange students, etc
with respect to helping you this item addressed the quizzes andlearn the material? homework assignments.What things would you suggest as a way of Most respondents noted hands-on activitiesimproving the effectiveness of this course for and classroom interactions as ways of makingstudents? the course more effective.Did this course impact your interests in future Five of the nine respondents indicated that thecomputer science courses? course did have a positive impact on their interests in taking future courses in computer science. They
hand-in-hand with industrypartners in developing leadership and growing the proficiency, effectiveness and dexterity ofselected high-potential, future leaders.The purpose of this paper is to introduce the unique structure, process and techniques used inachieving these objectives. What is the problem and why is it hard?The accelerating increase in discipline specific knowledge, deepening silos even within a singlefield of study, and the lack of consensus on the skills, knowledge and attitudes necessary to beimmediately effective in an engineering environment widen an already significant gap betweenthe needs of industry and society and the output of engineering education. Critically at risk isthe potential impact on the
Conference Copyright © 2015, American Society for Engineering Education 534 3. Online resources for Engineering and Computer Science from UNLV’s University Libraries;30 and 4. Resources of UNLV’s Graduate College.31In addition, this introductory workshop has gone over the resources provided by the TechnicalWriter of the College of Engineering and the Science, Technology, Engineering, andMathematics (STEM) Librarian. Finally, the schedule of other technical writing workshops forthat year has been presented.After the Introduction to Technical Writing workshop in September, the next two workshopsfocus on training the
andmultidisciplinary collaboration, and insight to the non-engineering features of a problem thatmust be addressed.NAE Grand Challenges at the Viterbi School of EngineeringAs an advocate for the Grand Challenges, the Dean of USC’s Viterbi School of Engineering hasorganized two national summits and was instrumental in the establishing the Grand ChallengesScholars initiative that provides specialized programs for Grand Challenge engineers thatinclude: 1) hands-on research that is tied to the Grand Challenges, 2) interdisciplinaryexperiential learning with a variety of stakeholders, 3) experience with innovation andentrepreneurship, 4) global and cross cultural perspectives and ) service-learning. Over a quarterof engineering schools in the US have or are in the
listed above while recognizing the limitations ofa freshman class. The time spent on the design project is balanced with an academic successportion of the course, with 1/3 of the course focused on the Wobbler design. The class is teamtaught, with the author covering the Wobbler portion of the course. Students in this requireddesign course are in their first semester, and are typically taking a material science course,calculus, and chemistry at the same time. Only ME students take this course, with each of theother WKU engineering programs offering discipline-specific design courses in the first semesteras well. The freshman design courses in the other disciplines have projects that can becharacterized by the three attributes above, but they use
-time review and supplemental instructional support, theindustrial engineering department embarked on a long term project to provide online self-correcting modules in the areas of finance, entrepreneurship, economic valuation, andmanagement science tools. This paper discusses a strategy for designing web-based tutorialsthat can help provide an element of scaffolding necessary for a developmental approach whilesimultaneously addressing alternative learning styles. Tutorial examples along with preliminaryassessment results are provided.IntroductionCalls for greater accountability in higher education are more strident than ever. Although statedin a variety of formats, these calls may almost always be couched within two distinct butoverlapping
2006-2486: IMPROVING ENGINEERING UNDERGRADUATE RETENTION VIARESEARCH AND INTERNSHIPSMelinda Seevers, Boise State University Melinda Seevers is the Engineering Co-op Coordinator for the College of Engineering at Boise State University. She develops and coordinates internships for lower and upper division undergraduates. She earned a B.S. degree in Mechanical Engineering from Cal Poly Pomona and has worked professionally in the aerospace and aviation industries.William Knowlton, Boise State University William B. Knowlton is an Associate Professor of Electrical and Computer Engineering at Boise State University. He has co-developed five new programs and a department in Materials Science
natural science. However, students are oftenfocused on fulfilling requirements and constraints necessary to achieve high grades, rather thanemphasizing creative ways of apply their knowledge. Past studies have shown that whileengineering instructors value creativity, they believe it to be lacking in their students, while atthe same time current engineering students do not think that creativity is valued by theirprofessors1. Similarly, while there is a greater industry emphasis on recruiting creative engineersand a greater interest in creativity from new engineering students, related literature questionswhether or not postsecondary institutions are teaching creative thinking to their engineeringstudents1. Postsecondary institutions must consider
received her B.S. degree in Metallurgical Engineering from the South Dakota School of Mines and Technology in 2007. She received her Ph.D. in Materials Science and Engineering in 2012 from the University of Illinois at Urbana-Champaign, studying mechanochemical reactions of a spiropy- ran mechanophore in polymeric materials under shear loading. She is currently an Assistant Professor in the Mechanical Engineering department at the South Dakota School of Mines and Technology where her research interests include novel manufacturing and characterization techniques of polymer and com- posite structures and the incorporation of multifunctionality by inducing desired responses to mechanical loading.Dr. Marius D Ellingsen
education of our students.AcknowledgmentsThe author would like to acknowledge the students of the College of Engineering and AppliedScience at the University of Colorado in Boulder. Through their Undergraduate ExcellenceFund, the development of this course was made possible.Biographical InformationDavid E. Clough is Professor of Chemical Engineering at the University of Colorado in Boulder. He joined thefaculty there in 1975 and also served as Associate Dean of the College of Engineering and Applied Science from1986 through 1992. His research and professional interests are centered on process control. Page 2.350.5
also collected from the students,but these responses are not analyzed for this paper.Research Question 1: Profile of Student Participants The participating civil engineering students included 4 women and 6 men, most of whomwere members of the Engineering without Borders chapter. Reasons for enrolling in the studyabroad expressed by the participants included travelling abroad and experiencing other cultures;experience in international/development work; the particular location (Latin America); receivingcourse credit; hands-on learning experience; and helping others. Six of the students had previousexperience with community service or volunteer work, three had foreign language coursework,and one had previous study abroad experience. Three
behalf. He is a steering committee member for the International Conference on Wear of Materials and an executive committee member of the Mechanical Engineering Division of the American Society of Engineering Education (ASEE). He serves as their delegate on the ASEE diversity committee. Prof. Sundararajan has been recognized for his accomplishments with the Young Engineering Faculty Research Award and Early Achievement in Teaching Award at Iowa State University. He received his B.E. degree in Mechanical Engineering from The Birla Institute of Technology and Science, Pilani (India) followed by M.S. and PhD degrees in Mechanical Engineering from The Ohio State University, Columbus, Ohio. c
it easier, whereas I know everyone in my material science class is a mechanical engineer. They have to be.”Participants in both focus groups expressed interest in more community within the GE+ major,and students in the second group strongly requested events for the GE+ students that could helpthem connect with each other more easily outside of class. As one junior student stated, “[GE+] Page 26.816.13is such a small community right now, I think there's a lot of potential for it to be a closecommunity.”Limitations of the studyThe findings of these analyses must be considered within the limitations of the study. The datapresented in this
were exclusive and taught the youngand brilliant girl scouts what engineering really is.IntroductionResearch has shown that children decide on subjects they like or dislike as early as elementaryschool or middle school [1]. Evidence suggests that female students can lose their interests inmath and science and eventually choose careers far from engineering around the age of ten totwelve. Results in the ratio between male and female engineers are quite large [2]. Therefore,introducing students to the exciting potential of engineering at an early age is of significance.A student’s choice of an academic track or career in engineering mainly depends on the studenthaving gained positive experience associated with the field during middle school or
Paper ID #18057Work in Progress: Online Engineering Education Certificate ProgramRyan Barlow, Utah State University Ryan Barlow obtained his Bachelor’s Degree in Mechanical Engineering from the University of Utah in 2012 and his Master’s Degree in Science Education from the University of Maryland in 2016. He is currently a PhD student in Engineering Education at Utah State University where his research focuses on continuing professional development of engineering educators.Prof. Jacek Uziak, University of Botswana Jacek Uziak is a Professor in the Department of Mechanical Engineering of the University of Botswana. He
is the Director of the First Year Engineering program in the Faculty of Engineering at McMaster University, Hamilton, ON. Her responsibilities include supervising staff and instructors in the ENG1 Program, curriculum development, and planning and implementing programs to enhance retention. She is also a Professor in the Department of Civil Engineering and is a registered professional engineer in the State of Michigan. She has her Ph.D. in environmental engineering from Harvard University and is co-author of the textbook, Principles of Environmental Engineering and Science (McGraw-Hill). Page
analyses of exit tickets forthe teaching of engineers remain scarce.This study analyzes exit tickets employed in the Engineering Physics I course at the WentworthInstitute of Technology from the Fall 2020 to Fall 2021 academic semesters. This is a calculus-based introductory mechanics course geared towards future engineers at a primarilyundergraduate institution of approximately 4,000 undergraduates. Classes given these exit ticketsconsisted mostly of students majoring in one of several engineering fields, with a notableminority coming from computer science or applied sciences. Course capacity varied from 30 to36 students during the time of the study, with approximately 240 students across 8 sections ofEngineering Physics I responding to the exit
problems and explores the worldof engineering through hands-on projects. The problem solving skills learned in this courseprovide a solid foundation for success in the math, science and engineering courses that follow.This paper describes the evolution of the ÀclusterÀ learning community, the importance of theÀclusterÀ instructor team, the development of student success strategies and critical thinking skills,the enhancement of applied math skills through problem solving, the use of hands-on projects toexplore engineering and further develop applied math skills, and the development of team skillsthat support student learning. Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition
14 ENG Collaborative InvestmentsInvestments Advanced Manufacturing • Transformative manufacturing technologies, including – Nanomanufacturing research and the application of nanotechnology to existing manufacturing industries; – Fundamental research associated with Science and Engineering Beyond Moore’s Law (SEBML), its manufacturing challenges and opportunities; and – Basic research efforts on manufacturing enterprise systems and complex systems design and manufacturing Cyber–Physical Systems • Integration of information and control agents with physical hardware. – Devices – Components – Systems with builtin intelligence • Applications in
14 ENG Collaborative InvestmentsInvestments Advanced Manufacturing • Transformative manufacturing technologies, including – Nanomanufacturing research and the application of nanotechnology to existing manufacturing industries; – Fundamental research associated with Science and Engineering Beyond Moore’s Law (SEBML), its manufacturing challenges and opportunities; and – Basic research efforts on manufacturing enterprise systems and complex systems design and manufacturing Cyber–Physical Systems • Integration of information and control agents with physical hardware. – Devices – Components – Systems with builtin intelligence • Applications in
have proficiency in the basic languages of math and science in order toaffect the physical world. Engineers must understand phenomena on an elemental levelas they seek to pilot the laws of nature. Consider that -- the laws of nature are based onuniversal principles of order, organization, and efficiency – all basic tenets of design.Design mediates between tangible and intangible forces. It fuses the immediacy of thephysical world with the illusiveness of beauty. Design is driven by a museful urge tocreate; and, it is tempered by the physical limitations of the material world. In this paper,we explore design theory and design process in the context of art as a means to structurecreative processing into engineering curricula. Our perspective is
hand.”22• Probes. Probe questions signal that the interviewer wants a longer and more detailed answer, seek clarification, and signal that the interviewer is listening.• Follow up questions. These questions seek depth by pursuing themes and seeking elaboration and explanation.Fontana and Frey13 discuss the ethical considerations in interviewing, including informedconsent, right to privacy, and protection from harm. They stress that one must alwaysconsider the human side of those being studied.In engineering studies, Seat23 uses a thematic analysis of interviews with 21 womenengineers to reach two major conclusions about the socialization and to present strategiesfor changing the self-perception of women engineers. Pavelich and Moore21
-solving and design? A simple " # $solution is emerging: recruit engineering students to become teachers. They have strongbackgrounds in math and science, awareness of their applications in analyzing and solvingtechnological problems, and typically a penchant for “hands-on” activity. The authors of thispaper have been part of a program to motivate engineering students to consider careers inteaching.% How feasible is this idea? Experiences from the City College program and others suggestthat under favorable circumstances, many engineering students might be attracted to teachingcareers. Unfortunately, all of this data is anecdotal. To our knowledge, no systematic
outcomes. This first yearcourse often plays an important role in teaching prospective majors about engineering andtechnology, and may be more likely to cover broad issues of technology and society than upperlevel, major-specific courses.The first year course is likely to include significant coverage of technological literacy in thecourse content. This link with technological literacy may or may not be recognized. The authorhas taught introductory level courses and an upper level course focusing on technologicalliteracy for non-majors. This paper will explore links between the two types of courses and theconcept of teaching technological literacy as a framework for material in first year courses.Finally, the paper will also discuss carrying the
focuses on advancing how engineering design research by integrating new theoretical or analytical frameworks (e.g., from data science or complexity science). Another strand focuses on con- ducting design-based research to develop scaffolding tools for supporting the learning of complex skills like design and advanced research methods like agent-based modeling. He is the incoming Program Chair for the Design in Engineering Education Division within ASEE. American c Society for Engineering Education, 2021 Engineering in Videogames: A Case Study of Iconoclasts Narrative and Interactive Portrayal of EngineersIntroductionOutside of pursuing degrees
,but engineering literacy among the general public is as well. Promoting understanding about thenature of engineering knowledge is relevant given both goals. Asunda and Hill (2008) studiedthe professional development for tech ed teachers and teacher educators around engineering andobserved that hands on engineering experiences is a key factor of importance to participants inworkshops. Infusing the nature of engineering knowledge in tech ed classrooms should thereforebe centered on reflection on engineering design experiences that draw out and debrief features ofengineering knowledge. This strategy for teaching about the epistemology of engineering hasbeen found to be effective in teaching about the nature of engineering (Deniz et al., 2020
Company and Senior Vice President and Chief Marketing Officer with Intuit in Silicon Valley. Dr. Schar has a BSS from Northwestern University, an MBA from the Kellogg School of Management and his PhD in Mechanical Engineering is from Stanford University.Dr. Sarah L. Billington, Stanford University Sarah Billington is Professor and Associate Chair of the Department of Civil & Environmental Engineer- ing at Stanford University. Her research group focuses on sustainable, durable construction materials and their application to structures and construction. She teaches an undergraduate class on introductory solid mechanics as well as graduate courses in structural concrete behavior and design. Most recently she has
future. Page 23.956.1 c American Society for Engineering Education, 2013 PaperBots, An Inexpensive Means for Engineering EducationabstractDue to economic issues, many school budgets are extremely strained by just the basic necessitiesof an educational institution. These budget limitations inhibit access to educational technologiesthat may promote engineering principle development within K-12 classrooms. PaperBots is aproduct that focuses on overcoming budget-driven limitations by utilizing materials like paper,office, and craft supplies already accounted for in a school’s budget. By effectively
objectives recognize that in the field of engineering, much information is used in graphicalform, because successful design is often accomplished in a graphical settings, and practical designskills are required for many engineering jobs.The course content of ET0011 is delivered in three formats – hand drawing and sketching, 2-DCADD, and 3-D CADD. The class meets three times a week, twice in a computer lab and once ina classroom equipped with drawing boards. In the computer lab, AutoCAD is taught for the firsthalf of the semester, and Autodesk Inventor for the second half. In the classroom the mainemphasis is on theory and problem-solving, and exercises are done in the form of sketches ratherthan mechanical drawing.Spatial visualization and graphical