from the Georgia Institute of Technology in Atlanta, Georgia. Before joining the University of San Diego, she had worked as a Senior Process Engineer at Intel Corporation in Hillsboro, Oregon and Santa Clara, California for nearly three years. She had also taught in the Engineering & Technologies Department at San Diego City College as an Associate Professor for five years, where she established the Manufacturing Engineering Technology program.Dr. Susan M Lord, University of San Diego Susan M. Lord received a B.S. from Cornell University and the M.S. and Ph.D. from Stanford University. She is currently Professor and Coordinator of Electrical Engineering at the University of San Diego. Her teaching and research
Paper ID #36532First-Year-Scholars (FYS) in Engineering Program (WIP)Cyril B Okhio (EngineeringProfessor) Cyril Okhio Ph.D., C. PEng., is a faculty of Engineering in the Southern Polytechnic College of Engineering and Engineering Technology, Kennesaw State University. He graduated with a Ph.D. from Queen Mary/Imperial College London and was a Post-Doctoral research Fellow of the Science & Engineering Council SERC, United Kingdom UK. He is registered as a Chartered Professional Engineer with the Council of Registered Engineers, UK; a Member of the Institution of Mechanical Engineers UK, a Trustee of the Georgia
engineering technology, computer science andengineering, and other technical professional degrees. Proceedings of the 2019 Conference for Industry and Education Collaboration Copyright ©2019 American Society for Engineering Education
Math Readiness: The Implications for Engineering Majors Lloyd Heinze, James Gregory, John Rivera College of Engineering Texas Tech University AbstractGood Math skills are essential to obtain academic success in engineering majors incollege. Timing of when these skills are developed, while not a requirement for success,is highly correlated with success in engineering programs.At Texas Tech University, Calculus III is a required course for all programs in theCollege of Engineering except for degrees in the Engineering Technology Department.Success of a “C” or better grade in Calculus III is usually associated
Paper ID #16009Mixed Reality Tools in Engineering Drawing CourseDr. Tumkor Serdar, University of Pittsburgh, Johnstown Serdar Tumkor is an Assistant Professor of Mechanical Engineering Technology at University of Pitts- burgh at Johnstown. Dr. Tumkor has more than 20 years of experience in education, having taught at Stevens Institute of Technology and Istanbul Technical University. His engineering experience includes design, manufacturing, and product development. He has been lecturing Manufacturing Processes, Ma- chine Design, Engineering Design, and Computer Aided Technical Drawing courses. c
Paper ID #7178Abstract: The Four Pillars of Manufacturing EngineeringDr. Christopher P. Pung, Grand Valley State University Page 23.130.1 c American Society for Engineering Education, 2013 The Four Pillars of Manufacturing EngineeringUsed with permission “The Four Pillars of Manufacturing Engineering essentially differentiatesthe unique character of the manufacturing, manufacturing engineering and manufacturingengineering technology disciplines. It defines the standard for advanced manufacturing topics,and provides a
career awareness.• The center will help to establish an early awareness of an engineering career path - especially critical to populations that are underrepresented in engineering.• The center will lead in learner-centered, hands-on, engineering activities with K-12 students.Engineering Programs in DeliveryThe center’s objectives are being met through various programs being delivered tostudents in grades K-12 and their current and future teachers. In a mobile roboticsprogram utilizing Legos and “Not Quite C” programming, an engineering course wascreated which provides technological literacy, hands-on learning activities, and fieldexperiences for future teachers. “Toying With Technology1,2,” as this program is titled,brings these hands
. Blackboard allows instructors to publish course material, conductcommunications and coordinate class events online with minimal knowledge of HTML orWeb design. Users in general, have claimed that through the use of this technology,more material can be covered with improved understanding; greater participation amongstudents is possible with a sense of ownership. Engineering Mechanics – Statics is atraditional engineering science course required of almost all engineering majors in theprogram. This paper presents the findings and discussion on how effective this approachhas been in a typical engineering science course.
experience, and still others, a combination ofthe two. Faculty in the Industrial and Engineering Technology (IET) department at CentralMichigan University (CMU) have been involved in both. As a result of these experiences theyhave selected the three-week international experience model as that which best fits the needs oftheir students. This exchange has become a useful course option in the IET department at CMU.Exchange participants who have graduated and are now working in industry continue to providepositive feedback concerning the lasting influence of this exchange program. They cite increasedindustrial and social awareness as the most meaningful benefits, not to mention lastinginternational friendships and industrial network contacts.II. HOW THE
Technology, Old Westbury, NY, USA, in 2016, and the B.S. degree in intelligent transportation engineering from Shanghai Maritime University, Shanghai, China, in 2014. He was Graduate Teaching Assistant for ECE1013 Foundations in ECE, ECE1022 Foundations in Design, ECE4713/6713 Computer Architecture, and ECE4753/6753 Introduction to Robotics at the undergraduate level and as a guest lecturer delivered graduate-level courses, ECE 8743 Advanced Robotics and ECE8833 Computational Intelligence. He received the ECE Best Graduate Researcher Award from the Department of Electrical and Computer Engineering, Mississippi State University in 2023. He received the Research Travel Award from Bagley College of Engineering, Mississippi
documentation done directly on BIM models andtherefore provides for much better project scheduling and control – a key component ofmanaging a construction project.The 3D laser scanner is a powerful data acquiring and capturing equipment with the ultra-high-speed laser scanner. Working together with software, it provides a full set of geo-referencing,surveying, and CAD integrated engineering tools for creating accurate drawings and models. 445These three technologies can be integrated together for new construction and major remodelingprojects. By putting together the VR, the BIM and the 3D Laser Scanner, students will have thecutting edge capacity to seek potential nationally competitive jobs. These
Session 1532 Use of AutoCAD in An Electrical Engineering Curriculum Lisa Anneberg and Craig Hoff Ece Yaprak Departments of Electrical and Division of Engineering Technology Mechanical Engineering Wayne State University Lawrence Technological University Detroit, MI 48202 Southfield, MI 48075 (313) 577-8075 (810) 204-2539 FAX: (313) 577-1781 e-mail: anneberg@ltu.edu e-mail: yaprak@et1.eng.wayne.edu and hoff@ltu.eduThis paper was initiated at an Undergraduate Faculty
and to act as a coach in directing the process to its ultimategoal. 3. Students should be given sufficient time and opportunity to practice what they learn sothat they can discover and create their own knowledge, where knowledge is defined as that whichresults from use of information for a particular application. To this end students must beengaging in activities similar to the ones they will be faced with in their professional careers. Fora discipline like construction engineering this is especially challenging in view of the difficulty ofthe scale of things that go on in this industry and bringing them into the classroom. However,new technologies as well as new approaches have helped significantly in addressing this
Session 2793 Integration of GIS in Civil Engineering Curriculum M. Saleh Keshawarz, Donald Leone, David Pines, Beatrice Isaacs Department of Civil and Environmental Engineering University of HartfordAbstractGeographical Information System (GIS) has traditionally been used in geography and naturalresources curricula in the United States. The University of Hartford is among a few institutionsthat early on recognized the impact of the new GIS technology on Civil Engineering programs.GIS technology is rapidly expanding into most areas of Civil Engineering. As part of a
Session 1313 CAPSTONE CHEMICAL ENGINEERING LABORATORY COURSES AT MICHIGAN TECH Anton J. Pintar, Edward R. Fisher, and Kirk H. Schulz Michigan Technological University Session on Capstone Design Issues in Chemical Engineering Chemical Engineering Division 2001 ASEE Annual Meeting Albuquerque, NM June 25, 2001 ABSTRACTAfter a switch from quarters to semesters in academic year 2000-01
Engineering Our Future New Jersey: Middle School Program Liesl Hotaling Stevens Institute of Technology Center for Innovation in Engineering and Science Education Dr. Susan Lowes Institute for Learning Technologies Teachers College Columbia UniversityAbstractEngineering Our Future New Jersey (EOFNJ) is a collaborative effort between Stevens Instituteof Technology, New Jersey Department of Education, the Museum of Science, Boston, andother partners to bring exemplary technology and pre
Engineering Higher Education Jerome P. Lavelle, Ph.D. College of Engineering, NC State University Abstract: This paper describes a new proposed model and way of thinking about the process of assessing and evaluating engineering higher education programs for accreditation, and the way that data is used and shared. Proposed is a new construct for formatting and using data collected on the program self study report. In addition, it is suggested that now, 20 years after EC2000 was first designed, it is time to re-design, re-configure and re-engineer our current accreditation processes in light of new technologies and all that we’ve learned in these
committee first met on July 31,2002 and will meet again in 2003. Once the draft standards have been completed they will begiven to SBEC for review and approval. Certification tests will then be developed withimplementation planned for fall 2005.Committee membership consisted of K-12 educators, engineering educators, and practicingengineers. The biggest hurdle faced by the committee was reaching a common understanding ofwhat engineering is and is not. The committee agreed that engineering is not the same asmathematics or science, not applied mathematics and science, and not technology. A consensuswas reached to use the engineering method, i.e., synthesis/design, as the basis of the standards.ABET EC2000 accreditation criteria also influence the
what theseexperiences are or should be, and we don’t know how to require them of all students.Approaches to the Integration of Engineering and Liberal ArtsTeaching Other Ways of Knowing: Fostering FamiliarityAccording to historian of technology Bruce Seely (1999), “[p]erhaps the most constantfeature of American engineering education has been the demand for change.” Thisdemand often grows from introspective reports such as that by Grinter (1955), or theNational Academy of Engineering’s Engineer of 2020 (NAE, 2004). Each call for reform“has sought to enlarge the core identity of the engineer from a technician skilled atcalculation and fabrication to a professional member of the wider culture” (Cohen,Rossmann, and Sanford Bernhardt, 2014). Indeed
Paper ID #7753Enhancing K-12 Education with Engineering OutreachDr. Cheryl D. Seals, Auburn University Dr. Cheryl Seals is an associate professor in Auburn University’s Department of Computer Science and Software Engineering. She graduated with a B.S. C.S. from Grambling State University, M.S. C.S. from North Carolina A&T State University and a Ph.D. C.S. from Virginia Tech. Seals conducts research in Human Computer Interaction with an emphasis in visual programming of educational simulations, user interface design and evaluation, and educational gaming technologies. Dr. Seals also works with computing outreach
Session 2270 Model for a K-12 Engineering Pipeline Howard Kimmel and Rosa M. Cano New Jersey Institute of TechnologyAbstractThe Center for Pre-College Programs at New Jersey Institute of Technology (NJIT) offersinitiatives and programs designed to increase educational opportunities for inner-cityyoungsters, and to improve the quality of education at the elementary and secondary schoolsin the region and the State. Of special significance are the long-term relationships that havebeen established with major urban districts such as Newark and Union City, and withindividual
Sustainable Environmentally Responsible Air Transportation • Technologies for Sustainable Environmentally Responsible Ground TransportationEnvironmentally Responsible Sustainable Aviation • Reduction in Energy Requirements - Reduce the Vehicle Mass Using High Strength Low Weight Materials (Advanced Composites) - Innovative Aircraft Designs (e.g. BWB) and Technologies (e.g. high L/D) - Innovative Engine Designs (e.g. P&W PurePower) - NextGen Air Traffic Management (ATM) - Changes in Aircraft Operations (Reduce MTOW and Range) - Air-to-Air Refueling, Close Formation Flying, Tailored Arrivals • Reduction in GHG Emissions - Alternative Fuels (Bio-fuels, Synthetic Kerosene) - Innovative Aircraft Designs (e.g. BWB) and Open Rotor
ASEE Mid-Atlantic Conference, Delaware, April 2012 Introducing Aerospace Engineering to High and Middle Schools Sean Pratt, Yapah Berry, Olivia Reed, and Gaffar Gailani Mechanical Engineering and Industrial Design Technology Dept. New York City College of Technology 300 Jay Street Brooklyn, NY 11201AbstractIn the past there was a common belief that research should only be introduced at the graduatelevel or at least the senior undergraduate year. Research in the freshman year was not even atopic for discussion. Today, throughout CUNY, colleges are stepping forward andconducting research at all
) This paper will describe a case study we developed at the University of Virginia for teaching thesocial and ethical dimensions of technology to engineering students. The case study concerns Monsanto’sefforts to be a cutting-edge life-sciences company in agriculture, developing genetically-modified seeds. Inorder to understand the case study, one has to understand the program out of which it emerged.A Graduate Option in Engineering, Ethics and Policy At the University of Virginia, we have created a graduate option in Engineering and Ethics thatlinks the Darden Business School, the Division of Technology, Culture and Communications and theDepartment of Systems Engineering. This engineering graduate option attempts to overcome the
) I am confident that I can understand physics outside 2.72 ± 0.02 2.24 ± 0.47 * of class (scale: 0-strongly disagree; 4- strongly agree) Others ask me for help in physics (scale: 0-strongly 2.78 ± 0.17 2.01 ± 0.61 ** disagree; 4- strongly agree)Attitudes About Technology I use technology more than my peers (scale: 0- 2.78 ± 0.10 2.01 ± 0.44 ** strongly disagree; 4- strongly agree) The benefits of new technologies greatly outweigh the risks (scale: 2.94 ± 0.03 2.57 ± 0.35 * 0- strongly disagree; 4- strongly agree)Science/Engineering
Outstanding Faculty Woman Award, a 2001 Hearin Professor of Engineering award, and the 1999 College of Engineering Outstanding Engineering Educator Award.Adrienne Minerick, Mississippi State University Dr. Adrienne Minerick is an Associate Professor of Chemical Engineering at Michigan Technological University having recently moved from Mississippi State University, where she was a tenured Associate Professor. She received her Ph.D. and M.S. from the University of Notre Dame and B.S. from Michigan Tech. At MTU, Adrienne has taught graduate kinetics. At MSU, Dr. Minerick taught the graduate Chemical Engineering Math, Process Controls, Introduction to Chemical Engineering Freshman Seminar
) (Adas, and manufacturing capacity to 2006). eventually reach a stage of high-mass consumption.Engineers and the questioning Development engineers Communities viewed in termsof technology (the 1970s). focused on providing of what they lacked communities’ basic needs in (deficiencies) and humans in shelter, food, and water with terms of basic need parameters the goal of making them (e.g., minimum body productive and incorporating temperature
humanitarian endeavors. He founded and currently serves as CEO and President of LIMBS International (LIMBS.org) a non-profit entity which develops low-cost pros- thetic devices for under-developed areas of the world. Gonzalez has worked with students in Africa, Asia, Europe, Australia, and Latin and South America on various international engineering research and hu- manitarian projects. He also has been awarded the American Society of Engineering Educators Teaching Award and the Minnie Stevens Piper Foundation Award as a Texas Piper Professor of 2008. He also serves as an engineering program evaluator for ABET (Accrediting Board for Engineering and Technology).Ms. Elsa Q. Villa, University of Texas, El PasoDr. Peter Golding
research is centered on the integration of STEM concepts in K-12 and postsecondary. ©American Society for Engineering Education, 2023 Middle School Student Connections Between Engineering Contexts and STEM ContentAbstractIntegrated STEM (science, technology, engineering, mathematics) curriculum can potentiallyincrease student motivation because it provides a real-world context, promotes learning, andstimulates “higher-order” thinking. Curriculum developers designed the integrated STEMcurricula for middle school students to utilize a problem-based learning approach in a science-focused lesson. Designers developed the curricula to incorporate STEM connections from allareas
particular, thearchetypal figure of Victor Frankenstein offers students a model of a negative “possible self” thatcautions against rogue engineering practices. The paper analyzes themes from Shelley’s novel asthey were used in courses in science, technology, and society (STS) to foster ethical reflection onthe perils of practicing irresponsible, presumptuous, unaccountable, and biased techno-science.IntroductionMary Shelley’s novel Frankenstein is widely regarded as a foundational work of early sciencefiction that cautions against misguided and unethical science and engineering. As such, the novelshould be poised to help engineering undergraduates cultivate moral imagination and acommitment to socially responsible techno-science. Along this line, a