enrolled in EGR 1301 and graduatedwith an engineering degree from Baylor University.The data analyzed show an overall graduation rate of about 22.1% for the first two groupsstudied. The next two groups show graduation rates of approximately 32.3%. For comparison,the Higher Education Data Sharing (HEDS) Consortium, a group of private universities thatshare data, show the average five- year graduation rate for students entering and graduating inengineering is 42.0%. The 1999-2000 SMET Retention Report contains the retention andgraduation rates of 1992-98 entering science, mathematics, engineering, and technology majorsin 119 colleges and universities. The study showed that the average six- year graduation rate forthe SMET majors from a SMET
universities from Black Engineering faculty,” https://blackinengineering.org/action-item-list (retrieved 2020 July 29).Ashlee N. Ford VersyptAshlee N. Ford Versypt is an associate professor at the University at Buffalo. Dr. Ford Versyptbegan her academic career at Oklahoma State University where she rose to the rank of associateprofessor. She was the 2020-2021 Chair for the ASEE Chemical Engineering Division. She hasreceived a number of awards including the NSF CAREER Award, the ASEE ChemicalEngineering Division Fahien Award, the ASEE Midwest Section Outstanding Service Award,AIChE 35 Under 35, the OSU Outstanding Achievement for the Mentorship of Women, and theOSU College of Engineering, Architecture and Technology Excellent Teacher Award
Session 1161 The Communications-centered Senior Design Class at Virginia Tech Eric Pappas, Jack Lesko Virginia TechI. Introduction In "Engineering and Art," our 2000 ASEE presentation in St. Louis, we noted that thenon-technical Accreditation Board for Engineering and Technology (ABET) 2000 "a-k" requirements appeared to describe more than the typical technical skills necessary forstudents to become competent engineering professionals. We suggested that these requirementsdescribed many of the characteristics of a well-balanced, productive, and creative individual,rather
the latest technology. It ensuresthe continuation of our acclaimed “learn by doing” pedagogy; it symbolizes the very future ofundergraduate engineering education. To prepare students for the 21 st century, we must expandour time-proven, hands-on, project-centered teaching model. Most importantly, we must providephysical locations that allow students an opportunity to undertake “real world” projects –interdisciplinary and multidisciplinary projects that provide a seamless connection between thediscipline dominated academic sphere and the function dominated professional world. Studentsmust have access to the tools of modern research; access to state of the art technology andequipment and access to the growing database of engineering and
and building technologies, with emphases on efficiency, economy, and sustainability • Supporting programs – Manufacturing and Construction Equipment – Manufacturing Enterprise Systems – Materials Processing and Engineering – Nanomanufacturing Nanomanufacturing Discovery, learning, research infrastructure, and stewardship 4 Current CMMI Research Clusters Mechanics and Engineering Materials • Research aimed at advances in the transformation and use of engineering materials efficiently, economically, and sustainably • Supporting programs – Geomechanics and Geomaterials – Materials and Surface Engineering – Mechanics of Materials – Nano/Bio
and building technologies, with emphases on efficiency, economy, and sustainability • Supporting programs – Manufacturing and Construction Equipment – Manufacturing Enterprise Systems – Materials Processing and Engineering – Nanomanufacturing Nanomanufacturing Discovery, learning, research infrastructure, and stewardship 4 Current CMMI Research Clusters Mechanics and Engineering Materials • Research aimed at advances in the transformation and use of engineering materials efficiently, economically, and sustainably • Supporting programs – Geomechanics and Geomaterials – Materials and Surface Engineering – Mechanics of Materials – Nano/Bio
on Diversity, Equity, and Inclusion (CDEI). Themajor tenets of this initiative can be described by three pillars. The pillars are: The Faculty andAdministrators pillar, The Engineering Design Teams Pillar, and The P-12 Parents andGuardians Pillar. These pillars are focused on engaging engineering and engineering technologystudents, faculty and administrators in colleges of engineering and engineering technology, andparents and guardians of students grades pre-kindergarten to 12. This paper focuses on the effortsof the P-12 parents and Guardians pillar.To explain our rationale and goals for the ASEE Year of Impact on Racial Equity, we quotecontent from the Summer 2021 ASEE Prism article: “In light of ASEE President Sheryl Sorby’s
Session F1A1 Tapping Indigenous Resources to Enhance the Decision Making Process in Senior Projects Mohan Ketkar Department of Engineering Technology College of Engineering Prairie View A&M University, Prairie View, TX AbstractCase studies are proven techniques to enhance the learning skills and the level of classparticipation in the project-oriented courses. Typical case study exercise involves reading theproblem, forming student teams, research
Session F1A1 Tapping Indigenous Resources to Enhance the Decision Making Process in Senior Projects Mohan Ketkar Department of Engineering Technology College of Engineering Prairie View A&M University, Prairie View, TX AbstractCase studies are proven techniques to enhance the learning skills and the level of classparticipation in the project-oriented courses. Typical case study exercise involves reading theproblem, forming student teams, research
her research with the Collaborative Learning Lab, exploring ways to to promote collaborative problem solving in engineering education and provide students with team design experiences that mimic authentic work in industry.Dr. LuEttaMae Lawrence, Carnegie Mellon University LuEttaMae Lawrence is a Postdoc Fellow at Carnegie Mellon at the Human-Computer Interaction In- stitute. She received her PhD in Curriculum and Instruction from the University of Illinois at Urbana- Champaign and her BFA in Graphic Design from Iowa State University. As a learning scientist and design researcher, Lu studies co-design processes to build educational technology and investigates how designs are embedded in authentic learning contexts
Session 3247 Linking Industry & Academia: Effective Usage of Industrial Advisory Boards Peter R. Schuyler, Howard Canistraro, Vincent A. Scotto University of Hartford/New England Institute of TechnologyAbstractWith the advent of ABET Engineering Criteria 2000 and beyond, the emphasis of the evaluationof engineering and engineering technology programs has shifted from the strict examination ofcurriculum content, to measuring outcomes based assessment. As these programs are required tocreate and demonstrate a process for the evaluation of curriculum objectives, industry
A Global Design Competition Lawrence Whitman, Zulma Toro-Ramos, Dan Allison, Colin Davidson, Martha Shawver, Shelly Belles and Chris Wilkinson Wichita State University Spirit AeroSystemsAbstractIndustry has made it clear that engineering graduates should be more prepared tointeract in an integrated product team with colleagues around the world. WichitaState University has initiated the Spirit Global Design Challenge mainly due toindustry and the Accreditation Board for Engineering and Technology (ABET)and the College of Engineering’s Engineering 2020 program which have stressedthe need for engineering graduates to function on multi-disciplinary teams and ina
Meritorious Achievement Award in Informal Education in 2009 and by the YWCA with an appointment to the Academy of Women for Science and Technology in 2008. Her program received the WEPAN Out- standing Women in Engineering Program Award in 2009. Her work was featured on the National Science Foundation Discoveries web site. She is a member of Sigma Xi, past chair of the K-12 and Precollege Division of the American Society of Engineering Educators and a Senior Member of the IEEE.Amber C. Spolarich, North Carolina State University Amber Spolarich is currently a senior at North Carolina State University majoring in chemical engineering with a concentration in green chemistry. She has worked with outreach programs through the
Title: How to conduct oral exams as a more equitable and inclusive alternative format for knowledgeassessmentDuring the 2020 pandemic, remote classes became the standard for engineering and technology coursesacross the country. Oral exams have been frequently deployed as a means to ensure academic honesty.This presentation explores, analyzes, and discusses multiple factors that makes oral exam a moreequitable and inclusive alternative format for knowledge assessment. The focus is on the loosely-structured, dialogue-type oral exams evaluated by the course instructor.Oral exams are known to help improve students’ oral communication skills and performance underpressure, but it is also known to be very time consuming and subjective. Another
AC 2008-769: PREPARING FOR EXPANDING THE NUCLEAR WORK FORCE INTEXASMitty Plummer, University of North TexasLee Peddicord, Texas A&MJerome Davis, University of North Texas JEROME J. DAVIS is a lecturer in Nuclear Engineering Technology at the University of North Texas. He is a Registered PE in Illinois and Wisconsin. He has 14 years of nuclear power industry experience. He is a member of the American Nuclear Society and the American Society of Mechanical Engineers. His NS and MS degrees are in Nuclear Engineering from the University of Wisconsin.Charles Bittle, University of North Texas CHARLES C. BITTLE has been a Lecturer at the University of North Texas since 1997. He earned his
Session 2793 STOMP: Student Teacher Outreach Mentorship Program Merredith Portsmore, Chris Rogers, Melissa Pickering Tufts UniversityAbstract The Student Teacher Outreach Mentorship Program (STOMP) at Tufts University bringsengineering students to educational settings to support engineering education. In December2000, Massachusetts incorporated engineering into its state science and technology frameworks.Educators are now working to integrate these new standards into their classroom teachings.Many educators are not familiar with engineering concepts so they are working
The FUTURE OF AEROSPACE Current Trends and ImplicationsFrank DiBello 2017 Engineering Deans InstitutePresident & CEO April 4, 2017Aerospace Industry … … Status / Trends• Modest Defense Force Build‐up – Leveling in Commercial Aviation Marketplace, except China• Modest Defense Budget Increase … 3‐5% – Sequestration Provisions under ‐ 2011 Budget Control Act likely modified• Continued Industry Consolidation / Space M&A Activity• Continued Transitioning of Defense Technologies – Some New Program Starts … … Upgrade and Replenishment of Forces – Increased emphasis on adaption of commercially developed technologies – Space Systems to play an increasingly important role
Session 3615 STRUCTURAL ANALYSIS DESIGN: A DISTINCTIVE ENGINEERING TECHNOLOGY PROGRAM Alberto Gomez-Rivas, and George Pincus Professors of Structural Analysis and Design, University of Houston-DowntownAbstractGraduates of the Structural Analysis and Design Engineering Technology program, University ofHouston-Downtown, are successful in reaching responsible positions in industry andgovernment. The strong emphasis on computer technology provides an advantage to graduates ofthe program because they are highly productive.The Structural Analysis Design (SAD) Engineering Technology
Session 2647 A Twenty-Year History: Perspective From the Past James L. Hales, Beverly J. Hunter University of Pittsburgh at Johnstown ABSTRACT All new graduates of the University of Pittsburgh at Johnstown are surveyed annually bythe Office of Career Services. The Engineering Technology Division has done periodic surveysof all its alumni. This paper examines the data collected through these instruments. Conclusionsdrawn from the results are useful in evaluating the effectiveness of the programs and in planningfor the future
understand the more complex and sophisticated electricalsystems that are emerging [7]. Electro technical officer (ETO) is defined as a licensed member ofthe engine department of a merchant or passenger ship and is in a critical position in thetechnical hierarchy of modern vessels with automated and conventional electrical and electronicsystems [8]. Under the direction of the chief engineer, electro-technical officers are responsiblefor monitoring and repairing the ship’s electrical and electronic equipment to ensure that it isoperating as safely and efficiently as possible [8]. In view of the above factors, the MarineEngineering Technology Department at Texas A&M University has decided to develop an ETOprogram in support of the future workforce
Session 2426 MAPPING OF THERMO-FLUIDS LABORATORY EXPERIMENTS INTO WEB-BASED EXPERIMENTS S. K. Chaturvedi, R. McKenzie, O. A. Akan and A. Priyadershini College of Engineering and Technology Old Dominion University, Norfolk, VA 23529Abstract A methodology is being developed for transforming physical experiments from theundergraduate thermo-fluids laboratory into a web-based virtual experiments. Importantcharacteristics of physical experiments are identified in order to preserve them in physical tovirtual domain mapping. Several commercially available
1 The Vault- Smart Desk Michael Anjorin, Andy Appau, Nawal Elsadig, Andres Escobar, Hao Zhang, Gokul Venugopal, M. Moges Engineering Technology Department University of Houston AbstractEfficiency and productivity are vital factors that individuals seek to encompass in their accustomedconduct. The developing desire to sit and stand desk has been seen as essential elements in anabundance of business corporations, universities, and personal establishments. A 2016 studycomplied by the Texas A&M Health Science
sophomore-engineering students to focus on alternate energy sources and sustainable technology.Research in microbial fuel technology (MFC) has been gaining popularity within the past decadeor so worldwide. MFCs can use various types of microorganisms for metabolism of variousorganic materials. The organic materials include agricultural, industrial and residential wastes.Microbial electrochemistry provides immense opportunities for promoting multidisciplinaryapproaches in engineering education. Benetto 6-8 developed simple and advanced experiments todemonstrate microbial generation of electricity. A simple microbial fuel cell costing less than£50 is available from the National Center for Biotechnology Education at the University of
Session 1648 Problem-Based Learning and Interdisciplinary Instruction James C. Wood, Ph.D., Lynn G. Mack Tri-County Technical College/Piedmont Technical CollegeAbstractThis paper describes the development and implementation of a problem-based learning approachfor interdisciplinary instruction in introductory courses for engineering technology majors.Required general education courses in mathematics, physics, and communication have beenintegrated with introductory engineering technology courses. This project was undertaken toimprove the retention of students in engineering technology curricula and
specific need of an individual client. Early results of merging engineering educationand an area of social significance have been very positive. Students have welcomed both thehands-on and personal contribution aspects of their projects. In many cases, projects have led toresearch extensions, additional community connections, and for many students, inspiration tocontinue with graduate studies. The objective of this paper is to report on the motivation, design,and results of the capstone course sequence in assistive technology. Specific projects, past andcurrent, are also highlighted.1. IntroductionIn recent years, assistive technology has gained an increasing importance for people with visual,auditory, cognitive, or physical disabilities
Paper ID #9091Integration of Materials Instruction in the Field of ManufacturingProf. Robert L. Mott, University of Dayton Robert L. Mott, P.E. is professor emeritus of engineering technology at the University of Dayton. He is a member of ASEE, SME, and ASME. He is a Fellow of ASEE. He holds the Bachelor of Mechanical Engineering degree from General Motors Institute (Now Kettering University) and the Master of Science in Mechanical Engineering from Purdue University. He serves the Society of Manufacturing Engineers through the Manufacturing Education & Research Community and the SME Center for Education and he is a
Session 1447 Incorporating a Flexible Manufacturing System into a Design Course Salvatore A. Marsico Penn State University AbstractThe Associate Degree in Mechanical Engineering Technology program as offered by Penn StateUniversity requires a series of three courses in industrial engineering technology. Theeducational objectives of these courses are to provide students an understanding of fundamentalconcepts in manufacturing, materials processing, and production design. To promote a workingknowledge of production design
Session 3148 Installation of a Solar Refrigerator in South Africa Daniel K. Jones1, Joshua Hill2, Oral LaFleur2, and Matthew Govindsanny3 1 Department of Industrial and Engineering Technology, Central Michigan University, Mt. Pleasant, MI, USA 2 School of Technology, Texas Southern University, Houston, TX, USA 3 Department of Electrical Engineering, Eastern Cape Technikon
Paper ID #19796BridgeValley STEM Scholars ProgramMrs. Melissa Thompson P.E. P.E., BridgeValley Community and Technical College Melissa Thompson is an Associate Professor and the Outreach Coordinator at BridgeValley Community and Technical College located in South Charleston and Montgomery, West Virginia. She holds a Bachelor Degree in Civil Engineering from WVU Institute of Technology and a Masters Degree in Engineering from Marshall University. Melissa is a Registered Professional Engineer in the state of West Virginia. She is the Principal Investigator (PI) for the BridgeValley S-STEM Scholars Scholarship Program funded
UNCLASSIFIED The U.S. Army Research Laboratory’s Open Campus: Redefining Defense Research Dr. Joseph N. Mait Chief Scientist U.S. Army Research Laboratory U.S. Army Research, Development and Engineering CommandUNCLASSIFIEDUNCLASSIFIED UNCLASSIFIED U.S. Army Research Laboratory Mission Innovative science, technology, and analyses to enable full spectrum