Paper ID #42598Quantifying the Ability of the Digital Engineering Factory to Address theDigital Engineering Competency FrameworkDr. Joe Gregory, The University of Arizona Dr. Joe Gregory is a postdoctoral research associate at the University of Arizona. His research interests include engineering education, digital engineering, model-based systems engineering, and the application of semantic web technologies to support engineering. In 2022, he received his PhD in Aerospace Engineering from the University of Bristol for his development of the SysML-based ’Spacecraft Early Analysis Model’. He is the co-chair of the Digital
AC 2011-500: USING THE ENGINEERING DESIGN PROCESS TO DE-VELOP AND IMPLEMENT A HIGH SCHOOL INTRODUCTION TO EN-GINEERING COURSEEugene Rutz, University of Cincinnati Eugene Rutz MS, PE is an Academic Director in the College of Engineering & Applied Science at the University of Cincinnati. He manages the college’s dual degree programs and the outreach to local high schools. Mr Rutz has experience as a mechanical design engineer, in nuclear power engineering and as a radiological engineer. He teaches courses for the College using distance learning and instructional technologies. Page 22.1644.1
AC 2011-561: FINDING YOUR WAY AROUND THE ENGINEERING LIT-ERATURE: DEVELOPING AN ONLINE TUTORIAL SERIES FOR ENGI-NEERING STUDENTSJanet Fransen, University of Minnesota, Twin Cities Janet Fransen is the librarian for Aerospace Engineering & Mechanics, Electrical & Computer Engi- neering, Computer Science & Engineering, and History of Science & Technology at the University of MinnesotaTwin Cities. Jan earned her MLIS from Dominican University/College of St. Catherine in 2008, joining the library world after two decades as a computer programmer, trainer, and writer. Her undergraduate degrees are from the University of Minnesota: a B.A. in Speech-Communication, and a B.S. in Aerospace Engineering and
technology be used to infuse engineering economics into curricula and courses? ≠ How can engineering economy topics be integrated into existing courses in any BS-level engineering curriculum? ≠ When is a separate course in engineering economy justified?The panel is comprised of individuals with varied backgrounds and different engineeringdisciplines, who come to the discussion with significantly different views of the need andformat of engineering economics in engineering curricula. The panel members include:Dr. Dave Holger ABET, President 2009-2010 Iowa State University: Associate Provost for Academic Affairs Dean, Graduate College
Computer Engineering that are developing faster processors, systems, channels,signals, and detectors and are ever going to be even more extensive in the future2-4.In order to provide a better understanding of the importance of the cross disciplinary nature ofHSSE one needs to identify the important concepts and subject matters for the future engineeringneeds. We identify the important emphasis in the future of electronics, networking, andcommunication technology. • Networking and dependable systems: Networks methods, protocol, fault tolerance, dependable design • Optics and optical measurement: Understanding of what needs to be done and how is it done in the field at the physical layer
Communication Technology thematic group for UNESCO’s Teacher Task Force for Education 2030.Ms. Rosario Davis, Texas State University c American Society for Engineering Education, 2020 Cross-cultural engineering skill development at an international engineering summer boot campAbstractInternational cross-cultural experiences have become essential components in the education ofengineering students to enhance teamwork and communication skill development acrossdifferent cultural and language boundaries. To this end, a customized 12-day internationalsummer boot camp was designed to bring together third-year students from UniversidadPolitécnica de Guanajuato (Mexico) and post-grad students from two
Paper ID #5833Blending Sustainable Design, Systems Thinking, and Engineering ScienceConcepts in an Introductory Engineering CourseDr. Robert L. Nagel, James Madison University Dr. Robert Nagel is an Assistant Professor in the Department of Engineering at James Madison University. Dr. Nagel joined the James Madison University after completing his Ph.D. in mechanical engineering at Oregon State University. He has a B.S. from Tri-State University (now Trine University) and a M.S. from the University of Missouri-Rolla (now Missouri University of Science and Technology), both in mechani- cal engineering. Dr. Nagel has performed
in research, that cross traditional disciplinarydepartmental boundaries3. Nanoscale science and engineering provides a multitude of newinterdisciplinary teaching opportunities for engaging the interest of students and for broadeningtheir vision of science, engineering, and technology. Nanoscale science and engineering thuspermit the development of new strategies for enhancing science literacy, preparing the workforcefor emerging technologies, and attracting a diverse group of talented students to the workforce oftomorrow.A wide variety of nanotechnology educational programs are in various stages of developmentand implementation across the United States and in other nations, spanning K-12, associate and
ofmeritocratic ideologyIn the television series, The 100 and The Expense, audiences are given two complex andinteresting characters – both women of color and both engineers. As made clear by reportsdiscussed earlier in this paper (Gena Davis Institute on Gender in Media, 2018; The Office ofScience and Technology, 2016), media representations of women of color in engineering rolesare needed and important. Additionally, in line with the call to “change the conversation”(National Academy of Engineering, 2008) about engineering and making it more inclusive, weneed to see more positive media representations of exceptional women of color withunquestioned engineering skills. Thus, Reyes and Nagata provide much-needed positiverepresentation and can act as role
Latin America. Steve has experience in multi-disciplinary collaborations, in addition to collaborations with businesses, non-profit organizations, and community- based organizations. Involved in efforts that engage communities in designing, implementing, and maintaining varied sustainable energy technologies and using them as vehicles for economic and community development.Ankita Kumar Ankita Kumar has bachelors degrees in Computer Science and English, and has experience working in education as a tutor. She is passionate about social justice, and is invested in bringing the compassion and empathy of the humanities into STEM.Mariam Tongelidis Alkattan © American Society for Engineering
Introducing Sustainable Design into First Year Engineering Education Amber J. Kemppainen, Alex S. Mayer, Jacqueline E. Huntoon Michigan Technological University, Houghton, MI 49931 Abstract Engineering students at Michigan Technological University are introduced to sustainability through completion of integrated coursework during their first semester engineering class. From this course, students are able to define sustainability, determine the sustainability of their individual lifestyles, and investigate the sustainability of technological advancements. In their second semester, students learn that engineers need to evaluate the economic, environmental and social aspects of their designs in order
University of Southern California Viterbi School of Engineeringoffers a continuum of k-12 programs that provides a pipeline into engineering as a college major.Our efforts begin with a program for elementary school students – Mission Science. Located in eightsites in both the University Park (central Los Angeles) and Health Sciences (east Los Angeles)campus neighborhoods, Mission Science provides hands-on workshops, with tools and workbenchesso students can develop projects on their own, experiment with equipment and ideas, and learn aboutscience in an informal setting. The fundamental purposes of Mission Science are to reinforce thenatural curiosity of children and to help develop enthusiasm about science and technology byproviding "hands-on
classroomsetting, those difficulties are exasperated when the course is offered online. This paper and/orpresentation will highlight personal experiences teaching Engineering Economy online toconstruction management students.What is Engineering Economy?Engineering Economy is a technical course that deals with the financial aspects of investments tohelp engineers and managers make decisions that are beneficial to the stakeholders. The course“provides a systematic framework for evaluating the economic aspects of competing designsolutions.”1 It is a required course in most engineering, engineering technology, andconstruction management programs. Sullivan et al (2006), observed that “Engineering (andconstruction management), without economy, usually makes no
documents.Introduction Two engineering courses at the University of Illinois at Urbana-Champaign (UIUC) were taughtutilizing Asynchronous Learning technology in order to facilitate interaction among students andinstructors. One is a senior electrical engineering and bioengineering elective entitled Modeling ofBiological Systems, with an enrollment of 25, in which the conferencing package First Class was used. Theother is a freshman elective Introduction to Bioengineering: Focus on Medical Imaging, with an enrollmentof 10 for which PacerForum provided conferencing capability. In both courses students were encouraged to use conferencing software for the discussion of all mattersrelating to the course. The courses shared a common approach to homework in
feel incapable of performing the tasks involved with these jobs. Society must discover what is causing women to avoid choosing careers in science and engineering. There are many different theories about why women seem to avoid technological careers. One such theory is that women are discouraged fi-om these careers in early grade school. It is thought that women leave high school feeling that they are incapable of participating in difficult math and science careers. This is a problem society needs to address. Many people believe the education system needs to be reformed. Some think segregated classes would be the answer. Since boys and girls learn differently, they believe the best way to
Industry Lessons Learned and Application to Engineering Education James D. Lang, Paul B. Hugge McDonnell Douglas Corporation Significant change is taking place in the way aerospace products are designed and developed. Thesechanges involve not just technology but represent some fundamental ‘Gre-engineering” of design anddevelopment processes. In addition, much of this “re-engineering” is representative of actions that are beingimplemented throughout all of U.S. industry. McDonnell Douglas Aerospace (MDA) has found that this newway of doing business has significant implications in the educational requirements for our techmcal workforce.These
and solid mechanics.Dr. Aaron W. Johnson, University of Colorado Boulder Aaron W. Johnson is an Instructor in Smead Aerospace Engineering Sciences at the University of Col- orado Boulder. He teaches courses in structures and vehicle design, and his research focuses on how mathematical models are taught in undergraduate engineering science courses and how these models are used in analysis and design. Before CU he was a postdoctoral research fellow at the University of Michi- gan and the Tufts University Center for Engineering Education and Outreach. He received his Ph.D. in Aeronautics and Astronautics from the Massachusetts Institute of Technology in 2014 and a bachelor’s degree in aerospace engineering from
Paper ID #16348Citizen Engineering: Disrupting Expertise in Classroom and CommunityDr. Donna M. Riley, Virginia Tech Donna Riley is Professor of Engineering Education at Virginia Tech.Jonathan Grunert, Virginia Tech Jonathan Grunert is a graduate student in Virginia Tech’s department of Science and Technology in Soci- ety, with backgrounds in history and library science. His broader interests are in the history of scientific representation. He has taught courses in American history, Science and Society, and Engineering Cultures.Mr. Yousef Jalali, Virginia TechDr. Stephanie G. Adams, Old Dominion University Dr. Stephanie
as a Post-doctoral Fellow in Biomedical Engineering (Neuroengineering) at the Georgia Institute of Technology, Atlanta, GA Page 26.1418.1 c American Society for Engineering Education, 2015 Student Learning in Challenge-based Ocean Engineering ProjectIntroductionIt is increasingly being realized by educators that when students are posed with challenges, it canmotivate them to explore and seek the desired science, technology, engineering and mathematics(STEM) knowledge and skills. This type of education is called Challenge-Based Instruction(CBI). Studies have suggested that CBI, as compared
November 15, 2015 - 19 programs at 15 institutions: Applied Science Accrediting Commission – 1 MS program, 2 BS programs, 1 AAS program (incl. occupational, health and fire safety) Engineering Technology Accrediting Commission – 5 BS programs (electrical, nuclear and construction technology) Computing Accrediting Commission – 6 BS programs (information technology/systems, computer science/networks) Engineering Accrediting Commission – 2 MS Engineering programs (AFIT and JHU Systems Engineering) – 2 BS Engineering programs (ASU and Stony Brook Electrical Engineering) Other accredited BS Electrical Eng. programs that are “mostly” online – U North Dakota (labs on campus) – Clemson U
standards are the language of engineering, their education needs to “ensure thehighest standards of engineering education, professional qualifications and professional practice”[1]. This ensures that graduates from any engineering school are able to work as professionalengineers even in any country, especially now when borders and jobs are more fluid andinternational. The Association of College and Research Libraries (ACRL) has InformationLiteracy Standards for Science and Engineering/Technology which parallel and enhance thestandards for the ABET and CEAB graduate attributes for engineering programs [in Criterion 3and Graduate Attributes 3.1, respectively]. The five ACRL standards and 25 performanceindicators evaluate information literacy skills
vehicle is high for well–to–pump and low for pump–to–wheel. Using E85 can significantly decrease green-house gases.III. EngineThe GM Ecotec L61 2.2L I-4 is a small internal combustion engine (ICE). It ismarginally lighter, more fuel efficient, produces lower emissions and is easier to packagethan many comparable engines. The L61 is the lightest engine GM has produced in itsdisplacement class, and one of the most compact four–cylinder engines available. Thisengine should produce more than 100 kW of power naturally aspirated on E85 andprovide very good fuel efficiency and low emissions over its speed range when operatingon a combination of hydrogen and E85.Ricardo’s WAVE17 software and Gamma technologies GT–Power have been used tostudy the engine
that goal.Furthermore, both programs thoroughly integrate technology throughout their curricula, buildingon a student’s current technological knowledge to show them how that knowledge can translateto the use of technology in their careers. Students are taught about technological trends, thehistorical evolution and development of technology, and how they can spot future trends thatcould be either opportunities or threats for their own businesses and careers.4. Recruiting Engineering Students to Graduate Management ProgramsStudents graduating with an undergraduate degree in engineering offer graduate managementprograms a unique opportunity. Their combination of technical and mathematical skills ensuretheir success in the analytical decision
2006-1963: SOFTWARE ARCHITECTURES FOR REMOTELY OPERABLE CIVILENGINEERING LABORATORIESPrakash Kripakaran, North Carolina State University Prakash Kripakaran is a post-doctoral researcher in the applied computing and mechanics laboratory at Ecole Polytechnique Federale de Lausanne, Switzerland. His research interests lie broadly in the area of computing technologies and their applications to civil engineering. He is specifically interested in design optimization and decision support for structural engineering. He was formally a doctoral student in the Department of Civil, Construction and Environmental Engineering specializing in computer aided engineering.Abhinav Gupta, North Carolina State
Session ???? Integrating Chemical Engineering into High School Science Classrooms Deran Hanesian, Lavelle Burr-Alexander, Howard Kimmel, Joseph Kisutcza, Reginald P. T. Tomkins The Otto H. York Department of Chemical Engineering/ The Center for Pre-College Programs New Jersey Institute of Technology Newark, New Jersey 07102AbstractEngineering and Engineering Technology education are essential today and influence almostevery aspect of our society. Yet, engineering enrollments
student leadership. This paper will outline suggestedstrategies for implementation by engineering educators ready to serve as leaders at diversifyingengineering.Overview of the Under Representation of Women and Minorities in Quantitative FieldsIt is estimated that over the next ten years, the U.S. will need an additional 1.9 million workers inscience, technology, engineering, and math (STEM).1 Traditionally, the STEM workforce hasconsisted of mostly white, non-Hispanic men, who made up 70% of the STEM workforce in1997.2 In the same year, underrepresented minorities - African-Americans, Hispanics, andAmerican Indians - comprised just over 6% of the general STEM workforce.2 This reliance on a
Paper ID #8495Engineers Can Interact in a Liberal Arts WorldDr. Pete Hylton, Indiana University Purdue University, Indianapolis Pete Hylton is an Assistant Professor at Indiana University Purdue University Indianapolis (IUPUI). He earned his B.S. degree in Mechanical Engineering from Rose-Hulman Institute of Technology, M.S de- grees from Purdue University (Mechanical Engienering) and IUPUI (Applied mathematics) and Ed.D. from Grand Canyon University (Organizational Leadership). Dr. Hylton is currently the Director of Motorsports Engineering at IUPUI and his interests include motorsports safety, automotive performance
, where a watershed is located, how beams and columns areconnected in a building frame, what work will need to be done to excavate a foundation,or how to lay out a roadway. With the advent of new computer technologies, it ispossible to take numerical 3-D data and render virtual computer models that arepresented in 3-D, enhancing the learning experience in relation to both analysis anddesign in the civil engineering curriculum [1]. To this end, the College of Engineering at Valparaiso University has establishedthe Scientific Visualization Laboratory to improve the learning experience for studentsfor 3-D concepts that are hard to represent in conventional 2-D space [2-4]. Examplesinclude electromagnetic fields, complex organic molecules
. Page 9.12.1Introduction Oregon Institute of Technology (OIT) is a public institution focused on undergraduateeducation with limited graduate offerings. The main campus is located in southernOregon on the high desert, eastern Cascades region, approximately 300 miles south ofPortland, Oregon and 350 miles northeast of San Francisco, California. Programs arealso offered at a Portland campus and in Seattle, Washington. The civil engineering degree program is the only engineering program currentlyoffered at OIT and is limited to the Klamath Falls campus. The department also offers adegree in geomatics and maintains a student population of about 130-150 students, with100-120 majoring in civil engineering. Other engineering-related programs
reflectthe breadth of scholarly activity that occurs under the engineering education umbrella. Thesescholarly activities include but are not limited to:• Quantitative and qualitative research on student learning and learning environments focusing on the abilities and skills engineering and pre-engineering students need to develop to be successful at each stage of their academic careers and beyond.• Development, implementation, and assessment of new instructional models, materials, and learning environments.• Dissemination of research results to a wide variety of audiences including engineering colleagues; math, science, and technology educators; and policy makers.• Preparation of the next generation of faculty and professionals