, companies, and businesses, becomes anecessity to enhance engineering education. Technology education, on the other hand, is verydynamic and changes daily. At the technology education level, establishing a partnership andcollaboration with industry can help to address some of these challenges. The advantages ofuniversity-industry partnerships (UIP) are both incredible and numerous. The strength of anyuniversity's program depends on staying relevant to innovative technologies used and currentmarket trends, not only regionally but globally as well. The collaboration between PurdueUniversity Northwest (PNW) and LinMot USA is a great example of a successful university-industry partnership. Through a donation of hardware and software to the university
Teaching the 3 “Co’s” in the Engineering Classroom Judith R. Pearse University of MaineAbstract - The cornerstone of business success focuses around three fundamental “Co” words:Consideration; Cooperation; and Communication. Yet with so much emphasis on facts andfigures, Technology students have little or no time to learn them. Students are encouraged tobecome better-rounded by taking several humanities courses, but most technology students viewthem as a necessary evil to be endured. Through an innovative – and required – ProjectManagement class, students experience more of the “softer side” of engineering business. Role-playing, distance
attention to the rubric that you and your students create together for the case studyas many solutions will fit into the criteria, while some may be only a slight tweak of an existingdesign. Make sure students have data, drawings, designs and research to support the majorimprovements or minor changes to existing packaging.V. Engineering program descriptionThe course at Madison West High School, Principles of Engineering, is offered to sophomores,juniors, and seniors. We developed this course at the national level through a grant from theNational Science Foundation, its origin based on the need for pre-college survey courses thatstimulate interest in careers in engineering and technology. This course explores the relationshipbetween math, science
Robotics as a Vehicle for Engineering Education Gregory E. Needel Rochester Institute of Technology Rochester, NY 14623An important factor in an engineering education is the students' ability to apply their theoreticalknowledge to solving real world problems. Unfortunately, many schools are unable to providefull laboratories for experimental experiences due to a variety of constraints. This is a seriousproblem for educators who wish to provide practical learning for their students. One of the morecommonly employed methods of providing a “hands-on” approach to learning is through the useof educational
Maryland, Baltimore County.Emily J Yanisko, American University ©American Society for Engineering Education, 2025ENGINEERINGROLE MODELVIDEOSABOUT THE PROGRAMTo address the problem of low algebra proficiency and limited engineering career awareness withinBaltimore City Schools, Johns Hopkins University’s Center for Educational Outreach developed theBOAST program – a strategy to extend learning time in afterschool or school day – and received fundingfrom the NSF (DRL-2005790).The Baltimore Online Algebra for Students in Technology (BOAST) program provides high schoolstudents (Grades 9-12) opportunities to develop mathematics mastery and confidence through analgebra-for-engineering, problem-based curriculum. The role
also has expertise in providing professional development that includes strategies for the engagement and persistence of under represented populations in STEM disciplines. She has received awards from several organizations including the American Association for University Women (AAUW) for her work in addressing the need to increase females in engineering and technology fields as well as for her work in educating students with the skills required for the 21st century workforce.Marilyn Barger, Florida Advanced Technological Education Center, FLATE Dr. Marilyn Barger is the Principal Investigator and Executive Director of FLATE, the Florida Regional Center of Advanced Technological Education, funded by the National Science
repeatedly made it clear that these mattered mostto them. As a result, many of the specific comments on spaces, furniture, technology and thelike can be attributed to one or more of these basic principles. A more in-depth discussion of thepreferences of engineering users is listed below, broken down by major topic area.SpacesStudentsIn terms of library building use, the graduate student surveys of 2012/2013, as well as the earlierinterviews, showed that engineering students will use library spaces, but that convenience andproximity weigh heavily against need as deciding factors. Before the Hunt Library opened, 77%of survey respondents reported using campus libraries (see Table II), where library use wasdefined as having used library space at least
the 2003 ASEE Gulf-Southwest Annual Conference The University of Texas at Arlington Copyright 2003, American Society for Engineering Educationcurriculum, state-of-the-art technology, and best-in-class professional development for math andscience teachers.The Infinity Project curriculum teaches students firsthand how engineering touches everydayproducts. Students use math and science to create and design a variety of new technologiescentered around topics of interest to them, such as the Internet, cell phones, music, and video.The curriculum is delivered through an intimate connection of the textbook to hands-onexperiments and design projects. The year-long curriculum includes over 300
, hybridclasses can offer a format that allows the technology to become almost transparent, whileallowing for collaborations and rich content delivered by informed instructors and for developingcommunities of lifelong learners. The hybrid class provides the best practices of online and face-to-face learning environments.SteM 2 STEM: Utilizing Science and Math Standards to Enhance Technology and Engineering,an Improving Teacher Quality grant through the Ohio Board of Regents provided the funding Page 23.525.4necessary to offer a blended professional development opportunity for 21 teachers in NorthwestOhio during the 2012-13 school year. The teachers met
S tudies show that the demand for professionals in Science Technology Engineering and Mathematics (STEM) fields is increasing, with a projected increase of 11.35% [1]. Here inEngineering Education (ASEE) cataloged several strategies the U.S., the jobs of the future are STEM and the demand forand practices for retaining engineering and technologystudents in American universities, however, none of the professionals in STEM fields is projected to outpace the supplyinstitutions were a
undergraduate degree completion are provided inFig. 1 for the years 2007 to 2011. Figure 1: Percentage of the University of Pennsylvania SEAS graduates in engineering career after undergraduate degree completionNow let’s look at the overall job types of 2011 graduates as provided in Fig. 2 below.Information technology is the major career track for recent graduates followed by consulting,engineering and financial analysis. The reason for high percentage of engineering graduatesseeking career in other fields for our case study could be impacted by the school's geographicallocation and other job related factors in the northeast United States. However, fields such as IT,consulting, technical management and finance require a high
Paper ID #46899NSF DUE: Everyday engineering: Leveraging craft to deepen engineeringdesign and spatial visualizationDr. Anna Keune, Technical University of Munich Anna Keune is Tenure Track Assistant Professor of Learning Sciences and Educational Design Technologies and TUM-IAS Rudolf M¨oßbauer fellow at the Technical University of Munich. Anna’s research and teaching stands at the intersection of learning sciences and design. Anna investigates high and low-tech educational design technologies to advance knowledge about STEM learning, transforming what counts as participation and expanding who participates. Her research
undergraduate degree completion are provided inFig. 1 for the years 2007 to 2011. Figure 1: Percentage of the University of Pennsylvania SEAS graduates in engineering career after undergraduate degree completionNow let’s look at the overall job types of 2011 graduates as provided in Fig. 2 below.Information technology is the major career track for recent graduates followed by consulting,engineering and financial analysis. The reason for high percentage of engineering graduatesseeking career in other fields for our case study could be impacted by the school's geographicallocation and other job related factors in the northeast United States. However, fields such as IT,consulting, technical management and finance require a high
undergraduate degrees in Electrical Engineering and Sociology from Montana State University. Cech's research examines cultural mechanisms of inequality reproduction--specifically, how inequality is reproduced through processes that are not overtly discriminatory or coercive, but rather those that are built into seemingly innocuous cultural beliefs and practices. She investigates this puzzle through three avenues of research. First, she uses quantitative and qualitative approaches to examine inequality in science, technology, engineering and math (STEM) professions--specifically, the recruitment and retention of women, LGBT, and under-represented racial/ethnic minority students and practitioners and the role of professional
withadvisory board members.Other Multi-disciplinary Design Courses and ProgramsAs a first step, we searched the engineering education literature for programs and courses onmulti-disciplinary design. Many of the articles describing multi-disciplinary courses have aproduct-development focus.12,13,14,15,16,17,18 Our objectives seemed somewhat unique in thatwe wanted to include all College departments in our ultimate solution, even those whosedisciplines typically do not participate in a product development (civil and chemicalengineering, for example). Given that our College has five engineering programs, twoengineering technology programs, and a computer science program, the literature did notprovide much guidance
Foundation. The main elements were: three plenary talks by eminent engineers:Dr. Kristina Johnson, Provost at Johns Hopkins University, Dr. Priscilla Nelson, Provostat New Jersey Institute of Technology, and Dr. Richard Buckius, Assistant Director ofNational Science Foundation’s Engineering Directorate. Ms. Chineta Davis, a VicePresident at Northrup Grumman was the luncheon speaker, and Dr. Carlo Montemagno,Dean of College of Engineering at University of Cincinnati was the dinner banquetspeaker. A video recording of the plenary talks is available from the Workshoporganizers at NCA&T.Six technical tracks in Advanced Materials & Nanotechnology (two tracks due tosignificant interest in this area and the strength of NCA&T in this area
. Page 14.750.1© American Society for Engineering Education, 2009 Integrating Reverse Engineering Project in a Laboratory Based Introductory Engineering CourseAbstractRapid Prototyping technologies has made significant inroads in a number of manufacturingsectors over the last two decades because of ease of customization and quick turn around ofconcepts to prototypes. The process requires A CAD model developed from the design data as aninput which may not always be available. Introduction of affordable 3D scanners has providedthe opportunity of developing a 3D surface or parametric CAD model from scanned data by areverse engineering software. The original design can be further extended when the model isexported to a
A Novel Approach to Expose Students to Global Issues in Civil Engineering and Construction Engineering Management Antonella Sciortino, Lisa Star, and Tesfai Goitom Department of Civil Engineering and Construction Engineering Management California State University, Long Beach.AbstractThe availability of new technologies has resulted in great achievements in the civil engineeringand construction engineering management fields worldwide. Young engineers should beequipped with the necessary knowledge to perform their jobs in any region of the world, andthey should be able to understand the unique cultural and societal environment in
1 Work in Progress - Global Engineering Collaborative Undergraduate Engineering Program between the USA and China Lisa Anneberg1 and Suyun Luo2 Department of Electrical and Computer Engineering, Lawrence Technological University, 1 Department of Automotive Engineering, Shanghai University of Engineering Science, 2AbstractToday, internationalization of higher education is one of the important major developments of highereducation. Shanghai University of Engineering Science [SUES] and Lawrence Technological University[LTU, of Southfield, MI] have had a multifaceted academic
three freshman and sophomorecourses for fostering engineering identity. It is expected that the project will generate newknowledge on how to produce a more diverse and innovative engineering workforce, which arecritical for maintaining the United States’ position as a global leader in science, technology,mathematics, and engineering (STEM). IntroductionSTEM education researchers have produced compelling evidence connecting the lack of STEMidentity to high attrition rate and lack of diversity in STEM fields as well as connecting designexperiences to engineering identity formation1. It was found that “intentional implementation,including organization and framing of design thinking pedagogy, was an
Administration STEM education initiatives.Dr. Lizzie Santiago, West Virginia University Lizzie Y. Santiago, Ph.D., is a Teaching Associate Professor for the Fundamentals of Engineering Program in the Benjamin M. Statler College of Engineering and Mineral Resources. She holds a Ph.D. in Chemical Engineering and has postdoctoral training in ne ©American Society for Engineering Education, 2025 Work-in-Progress: Survey Development to Examine Connections Between Engineering Identity and Engineering Student SupportIntroductionSeveral instruments have been developed to assess students' science, technology, engineering andmathematics (STEM) identity (e.g., [1], [2]). These instruments include evaluation
- technology Wireless Biomedical Imaging Nano Bio- Device Technology Systems sensors Innovation Micro/Nano Digital Systems Media Renewable Fossil Integration Energy Energy USTAR Faculty22 USTAR Faculty associated with Engineering Guido Gerig Gianluca Lazzi Tom Fletcher Mark Porter Carlos Mastrangelo John White Tolga Tasdizen Ling Zang Massood Tabib-Azar Hamid Ghandehari Orly Alter
participation involves significant commitment by industry, which may involvetraveling and one or two days away from work. Considering the number of campuses involved we mustestablish a very large resource of kind industrial partners. This is certainly not feasible at a time when theindustries are operating on lean budgets.Use of Multimedia Network In consideration of these challenges, an integrated system of networked technologies and digitalresources is under development to support the redesigned first-year engineering curriculum. Many leadersin higher education agree that the structure of information technology is centrally important to strategicchange, and that while there are many examples of high quality digital applications that improve
2006-432: EXPERIMENTS IN DRUG DELIVERY FOR UNDERGRADUATEENGINEERING STUDENTSStephanie Farrell, Rowan University STEPHANIE FARRELL is Associate Professor of Chemical Engineering at Rowan University. She received her B.S. from the University of Pennsylvania, her MS from Stevens Institute of Technology, and her Ph.D. from New Jersey Institute of Technology. Prior to joining Rowan in September, 1998, she was a faculty member in Chemical Engineering at Louisiana Tech University. Stephanie has research expertise in the field of drug delivery and controlled release, and she is currently focusing efforts on developing laboratory experiments related to membrane separations, biochemical
sustainability, green chemistry, biofuels and appropriate technology for underdeveloped regions.Mr. John Christopher Higgins, University of Kentucky John Higgins is an undergraduate Mechanical Engineering student at the University of Kentucky College of Engineering, Paducah Extended Campus. John works for the University of Kentucky Appropriate Technology and Sustainability (UKATS) research team as an undergraduate researcher.Ms. Chandni A Joshi, University of Kentucky Chandni Joshi is an undergraduate Chemical Engineering student at the University of Kentucky College of Engineering Paducah Extended Campus. Ms. Joshi joined the University of Kentucky Appropriate Tech- nology and Sustainability (UKATS) research team in 2013 and has
and investigated: 1) the faculty that teach it, 2) the coursecontent and mechanics itself, and 3) the students that take the course. We are currentlyembarking on a follow-up data collection effort to conduct a longitudinal analysis of this priorstudy. This survey paper presents a review of the most relevant literature published since thissurvey. The pedagogy highlighted in this paper includes problems with current teachingmethods, modern technological advances in the engineering economy classroom, and newapproaches to enhance the classroom experience. These findings support our long term goal ofimproving engineering economy pedagogy by increasing visibility, enhancing instructorknowledge, and influencing external stakeholders such as
BEYOND EQUATIONS: TEACHING ORGANIZATION THEORY TO PRACTICING ENGINEERS Zbigniew J. Pasek University of MichiganINTRODUCTION AND MOTIVATIONIt has been long recognized that skills needed by the engineers in the technical workplacecomprise not only of the technical competence and familiarity with various types of technology,but also have to encompass communication, teamwork, ethics, and many other issues.Interestingly, many of these skills are activated only in the work-setting and universities ingeneral some of these skills are hard to acquire during an academic training. The alumni surveycarried out annually by the College of
pollution remediation and control. Scant attention,however, is paid to the social, political, economic, and technological, in short total, environmentwithin which environmental engineering principles and practices, mediated by legal and regulatoryforces, gets implemented. In this paper, I discuss the introduction of ethics, environmental policyand environmental regulatory issues into a regular introductory environmental engineering course.This is accomplished by beginning the course with a discussion of environmental ethics, followedby a general introduction to concepts in environmental law, focusing on what have become part ofaccepted legal practice, or have become evolving legal issues. Within the context ofenvironmental regulations and the
country.Introduction: Entrepreneurship is more than just the creation of business ventures. It calls forthe identification, assessment, and optimization of business ideas and opportunities tooffer goods/services and for economic gains. Innovation, substantial wealth creation, andhigh risks characterize entrepreneurial ventures. Entrepreneurship is significant toengineers in terms of equipping them with entrepreneurial knowledge and skills to startand run successful business ventures. Entrepreneurship enables engineers to beinnovative in the creation of technology-based products/services. The modern world 376continues to witness a growing inclusion of
4 Using Online Video Lectures to Enhance Engineering Courses Yacob Astatke, Farzad Moazzami, Craig Scott, Ladeji-Osias yacob.astatke@morgan.edu, kladeji@eng.morgan.edu Morgan State University, Baltimore ,Maryland Abstract:The use of technology in the classroom has greatly impacted engineeringeducation during the last 20 years. The expansion of the internet and the use of computers, tabletpcs, smart boards, and other wired and wireless devices have proliferated throughout education.One thing that has not drastically changed with the infusion of