Ali Baumann is a Senior Lecturer within the freshman engineering education team in the Ira A. Fulton Schools of Engineering at Arizona State University. Prior to her 8 years at ASU, she worked as a Senior Systems Engineer at General Dynamics. Her degrees are in Electrical Engineering from the University of Wyoming. Currently, she focuses on enhancing the curriculum for the freshman engineering program to incorporate industry standards into hands-on design projects. She is an instructor for the Introduction to Engineering program and the Electrical Engineering department at ASU. She is also the director of the Engineering Undergraduate Teaching Assistant program. She is a 3-time winner of the Fulton Top 5% Teaching
vocational education as a Master Teacher in the Plastics Technology program at Minuteman Regional Technical High School. He is also an adjunct professor for the Plastics Engineering Program at the University of Massachusetts, Lowell. He has been a consultant to Ford Motor Company, Polaroid Inc., Timken Aerospace, and SMITHS Industries. He was also a guest scientist at the Army Materials Research in the Composite Development Division. He continues to co-teach Technology Studies courses with the technology faculty at Keene State College. He has published numerous articles over the years in engineering technology and materials research. He is a consultant on the Virtual Ideation Platform (VIP) project for Central Maine
at the University of SanDiego was made beginning in the Spring 1992 semester. The vehicle chosen is a course taughtby the Electrical Engineering program for non-engineering and non-science/math majorsentitled, "Engineering 2 - Introduction to Electro-Technology" which is taught every Springsemester. This new technology course is unique in that it fulfills the General Education PhysicalScience requirement for non-engineering and non-science/math majors. The goal of Engineering2 are:1. Provide an additional opportunity for General Education study in science and technology in the liberal arts curriculum which develops the foundation sciences necessary to understand the nation of fundamental technical applications.2. Integrate the scientific
Session 3553 Incorporation of Fourth Generation Computing Environment into a Freshman Engineering Program: An Historical Perspective Christopher Rowe, Richard Shiavi, Jim Tung Vanderbilt University/The MathWorksAbstractHistorically, the incorporation of computing into Vanderbilt University School of Engineering’s(VUSE) curricula began in the mid-1960s. Mainframe computers were purchased, and studentsinitially learned computing using the language FORTRAN (formula translation). The early1980s saw two significant advancements: the introduction of personal computers madecomputing hardware much
Screen keys are pressed is used toprint a hard copy of the current EGA graphics screen as in Figure 1, This feature allows students to have apermanent record of their session, that can be analyzed in the fiture or offered as an assignment.CONCLUSION Since cast-off computers and printers were available to us, we have been able to provide to ourstudents, a logic signal generator and recorder/analyzer for about $25 a setup. Our students performexperiments parallel to material presented in their texts and in lectures in a format similar to this material,They have had no trouble testing combinational logic circuit by just defining all possible combinations of theinputs on their GUI, executing and then recording their test circuit’s output(s
in specific courses in the core curriculum to the more complex, authentic problems and projects they face as professionals. Dr. Koretsky is one of the founding members of the Center for Lifelong STEM Education Research at OSU. c American Society for Engineering Education, 2018 Cultivating the Next Generation: Outcomes from a Learning Assistant Program in EngineeringIntroductionA growing tension in higher education in science, technology, engineering, and mathematics(STEM) disciplines is the need to produce a greater number of STEM graduates [1] whilemaintaining learning effectiveness in the resulting large-enrollment STEM courses. One way tomitigate this tension is to create
designed to help familiarize students with theDyKnow system; these problems were simple and very general; they focused on usingDyKnow features such as the status report, panel submission, and display control.DyKnow was used in almost all classes. Standard PowerPoint slides along with classactivities were uploaded to the DyKnow server prior to the start of the class. Each studentwas loaned a Tablet PC for the class period. At the beginning of the class students loggedon to a DyKnow session to access the lecture notes. Although DyKnow allows studentsto scroll back through charts presented earlier during the lecture, students were asked toremain synchronized with the instructor’s display throughout the class. A one-clickDyKnow command takes care of
, Ben Seitz, Gary Harwood,and Cesar Salire. Their technical paper on the topic is reference [1]. The College of Forestry,Wildlife, and Range Sciences (CFWRS) at the University of Idaho funded this project. Dr.Edwin Krumpe, Professor of Wildlife and Recreation Management represented the CFWRS.The photograph shown in Figure 3 was purchased from the Moscow-Pullman Daily News,Pullman, Washington.Bibliography[1] B. Seitz, C. Salire, G. Harwood, J. Peterson, and H. Hess, "Taylor Ranch Micro-Hydroelectric Generation System," Proceedings of the 30th North American Power Symposium, Cleveland, Ohio, 19 October 1998, pp. 7-13.[2] B. Seitz, C. Salire, and G. Harwood, "A Feasibility Study for Installing a Hydroelectric Generating Facility at Taylor
developed as part of a multidisciplinaryundergraduate certificate in power and energy. The course was designed to address the policy,economic, and societal issues of energy, in order to complement the more technical coursesrequired as part of the undergraduate certificate. In order to minimize any additional credit hoursrequired of students pursuing the certificate, the course was also designed to fit within theUniversity’s new General Education requirements as a “Global Dynamics” course. The course isalso well suited to cover the broader “impacts” of engineering as required by ABET. The paperalso overviews class structure and teaching method to promote active student inquiry into thematerial. I. IntroductionIn Fall 2010, the University of
Design Heuristics in a concept generation session for their project. Studentswere first asked to individually generate 4 concepts for their design problem in 20 minutes.Then, they were given instruction on Design Heuristics as an idea generation technique andpractice on an unrelated problem. The detailed instruction video can be found onwww.designheuristics.com.Then, the students were asked to apply Design Heuristics to generate4 new concepts in 20 minutes. Design Heuristic cards were divided before the session into twosets of 5 (“A” and “B”) to include a variety but limited number of cards appropriate to the timelimit (See Table 1). We selected several cards that encouraged user interactions and productmodifications. Each team was given either
established.Peiyang University, together with Tsinghua University and Zhejiang University became themain engineering and technical institutions before 1949. During this period, China'sengineering education mainly used European and American education model, and was mainlyengaged in "general education", to enable students to obtain a solid basic theory.After 1949, China's engineering education structure has undergone the followingdevelopment process:(1) Large-scale faculty adjustment and subject classification stage (1949-1960). This stage took cultivating "engineers" as the goal, and the undergraduate system changed from 4 years to 5 years, some 6 years. The number of colleges and universities increased rapidly from 28 in 1949 to 44 in 1957, and the
; (4) generate ideas to solve the problem taking into consideration actual user’s behavior;(5) build a prototype; and (6) test the prototype [2]. Fig. 1: The Six Design Thinking StagesThe first three stages form the «problem domain», whereas the latter three represent the «solutiondomain».Spending a significant amount of time on problem analysis, identifying potential users and gettinginsights about their relevant needs, allows the participants of Design Thinking sessions to avoid acommonly encountered issue of «jumping to the solution» which is often the reason behind manyproduct launch failures [9]. By the end of the third stage of the «problem domain», participants havedeveloped an actionable problem
Simon’s “problem space”12). Some ideas in this space are easy tofind because they are obvious, or they have been seen before in existing products. Other, lessobvious ideas require more effort to identify. Ideally, this search for less obvious ideas wouldentail visiting all feasible ideas in the design space. The resulting set of design solutions is betterinformed by understanding all possibilities.Novice and experienced designers often struggle with divergent thinking13. Sometimes,limitations in technology or technical expertise make it difficult to generate multiple differentsolutions to a design problem. Often, novices struggle to think of solutions that differ fromexisting products or examples. Attempts at diverging from these solutions either
units must be primary. Accompany SI units with conventional units in parentheses when necessary ordesirable as in “.3 m (1 ft)” or “1600 m (ca. 1 mile)” or “26.6 mm ID (1 in. nominal) pipe”. Note the period with “in.” for inch.PREPARING HIGH QUALITY TECHNICAL EXHIBITS General Features of Exhibits. Employ only the highest production qualities in all exhibits such as figures, illustrations,and tables. Cite (i.e., mention) in the text every exhibit and include every exhibit cited. Provide a unique identifying number anddescriptive title. Avoid a perfunctory title such as “Figure 1. Voltage versus Temperature.”. Use consistent capitalization style inall table headings, figure captions, and other exhibit titles. Titles must be centered and
Session 1501Global Engineering in an Interconnected World: An Upper Division General Education Cluster at Old Dominion University Sushil Chaturvedi, Gary Crossman, William Swart, Joseph Betit College of Engineering and Technology Old Dominion University Norfolk, Virginia 23529AbstractThe “Global Engineering in an Interconnected World” cluster of courses fosters among studentsan awareness and understanding of global technology, quality assurance standards, anddifferences in cultural, communication, and business practices and their impact
may actually turn out to be better for their society than for those of previousgenerations.Objectives for This StudySince we know that engineers are obligated, through the ABET Code of Ethics and similarengineering-based codes, to work for the benefit of public welfare,4 and that future engineers willnot escape this responsibility, we conducted this study to address the following questions:1. How well do first year students develop a basic understanding of ethical responsibility in theengineering profession, given the cultural orientation of the millennial generation?2. Is a one-session workshop sufficient to develop a basic understanding of engineering ethics?Research MethodologyDuring each of the Fall 2012 and Spring 2013 semesters, a total
general, if what you have to say 10is relevant to the situation at hand, a person shouldn’t be afraid to speak up—but effectivestatements are short and sweet. These insights come from observing teams in FIRST LEGOleague. Less effective teams do not communicate—members seem to keep objections tothemselves, leaving problems un-addressed. Teams that do well are open with each other andfocused on the task that they have at hand. Kids in FLL experience firsthand the various styles ofteamwork in a technical environment, giving them many years to develop their own approachbefore entering into the professional world.Communication From a coach’s perspective in FIRST LEGO League, a constant
sessions. Attending virtual office hours wasalso emphasized constantly in each lecture session for those who needed additional assistance withhomework sets. In addition, students who could not attend virtual office hours were encouraged tocontact the instructor and schedule a virtual appointment at a manageable time.Strategy 3. Reducing Number of Problems on AssignmentsAnother strategy implemented on the proposed CIRE model involved reducing the number ofproblems assigned on homework and exams. This approach was motivated based on: 1) thecomplexity of the technical themes covered at the outbreak of COVID-19, 2) for those study groupsunable to virtually connect, and 3) to alleviate the workload assigned from respective courses. Thisprecaution was
initiativesthroughout the country and to the growing technical demand of the country’s workforce.High School Initiatives and Inadequacy of the Common CoreMany states are looking closely at the specific learning outcomes of high school courses and anengineering economics course in college general education integrates well with these efforts.For example, Virginia has a policy for all public high school students to pass a Financial Literacycourse prior to high school graduation33. The topical coverage of this course links directly to acollege course in engineering economics due to an emphasis on decision making with the timevalue of money concept for individual decisions (e.g., obtaining a loan, developing a personalbudget, implications of a simple contract). The
Session 2253 A Laboratory-Driven General Chemistry Course for Engineering and Physical Science Majors Carmela Amato-Wierda, Christopher F. Bauer, Eleanor Abrams*, David Bourgeois, Anneliese Mueller*, and Emma Torbert Departments of Chemistry and Education*, University of New Hampshire, Durham, NH 03824AbstractA laboratory-driven General Chemistry course for engineering and physical science majors hasbeen implemented at the University of New Hampshire. The centerpiece of this effort is thedevelopment of Chemprojects. Chemprojects are three-week long
Paper ID #40540A MATLAB Toolkit to Generate and Visualize Thermodynamic PropertyDatain Undergraduate Thermodynamics CoursesDr. Ahmet Umit Coskun, Northeastern University Dr Ahmet Umit Coskun is currently Teaching Professor in Mechanical and Industrial Engineerting De- partment of Northeastern University. He holds BS, MSc, and PhD degrees from Middle East Technical University in Ankara, Turkey.Prof. Kai-Tak Wan, Northeastern University Professor, Mechanical and Industrial Engineering, Northeastern University 1988 B.Sc. (Hon) in Physics, University of New South Wales, Australia 1993 Ph.D. in Chemical Physics, University of
Session 1657 Increasing Students’ Time on Task in Calculus and General Physics Courses through WebAssign1 Guoqing Tang* and Aaron P. Titus** *Department of Mathematics, **Department of Physics North Carolina A&T State University Greensboro, NC 27411 gtang@ncat.edu, titus@ncat.edu1. IntroductionThe purpose of this paper is to present an approach of using WebAssign, a web-based homeworkmanagement and delivery system, as a tool to develop and deliver dynamic active
awards are the ECE George Corcoran Award for engineering education, the NSF CAREER award, the Clark School of Engineering Kent Faculty Teaching Award, the CSE Keystone Professorship, the CSE Faculty Service Award, and the Distinguished Alumni in Science and Technology of the University of the Philippines. He has served as an Editor, an Editorial Board Member of the IEEE Transactions on Magnetics, the chair of the Technical Committee, and the General Chair of the Intermag Conference in 2006. c American Society for Engineering Education, 2017 Teaching Engineering in the General Education Program at the University of MarylandAbstractThe University of Maryland
The Millennium Generation: Are they ready for the Ultra-Low Power challenge? Antonio F Mondragon-Torres Electrical, Computing and Telecommunications Engineering Technology Rochester Institute of Technology Rochester, NY, USA afmiee@rit.edu Session: Tools, techniques, and best practices of engineering education for the digital generation Abstract— Millennials are a generation of smart young people currently in development at universities and colleges, and entering the workforce. They have several characteristics that could potentially make them the
titles of various groups for the first year of the activity of this university is given in the respective section of this reportE. Technical and Support Deputy This division consists of the following three departments that collectively handle all HQ services to the previously mentioned sections and also supports the Recording and Production. • Administration • Finance and Accounting • Technical Services and Network OperationF. Recording and Production This unit includes the web-casting for all centers that generate and record the educational programs. These centers are the kernels and main parts of the educational activities of this university that are the busiest parts, too
10 # of Students 10 8 8 7 6 4 2 2 1 0 0 Racial & Ethnic Distribution Gender Distribution Figure 2. Race/ethnicity and gender distribution of Go For Aerospace! participants.Orientation SemesterThe selected 30 high-school juniors will participate in four spring sessions shown in Figure 3.The aim of this phase of the GFA project is to acquaint the prospective students with the basics
Prepare Los Angeles for the 2028 Olympic Games?Curriculum. The three-week Program Curriculum started from macro-level down to micro-level, fromdrawing a big picture to gradually introduce various modern design tools. It started from a transportationsystem overview (day 1) to transportation planning (day 2), to transportation management (day 3), thento each transportation mode (day 4: water; day 5: air; day 6: railway). From day 7, we came back to focuson highway mode and then zoom in to each specific technical area: traffic safety (day 7), highwayconstruction and management (day 8, day 9), Building Information Modeling (BIM) (day 10). From Day 11to 14, we spent four days looking into the modern technologies offered by geospatial engineering
AC 2008-882: A RACE CAR DESIGN-BUILD-TEST PROJECT FOR LOWINCOME, FIRST GENERATION PRE-COLLEGE STUDENTSNicholas Oswald, Oklahoma State UniversityCharlie Huddleston, Oklahoma State University Charlie Huddleston is currently earning his Masters degree in electrical engineering at Oklahoma State University. His experience in embedded systems and electronic design has enabled him to be technical lead on a wide variety of technology development projects both at OSU and for small technology companies.Alan Cheville, Oklahoma State University Page 13.95.1© American Society for Engineering Education, 2008
Session 2530 Content Generation: Lessons Learned From a Successful High School Science and Mathematics Outreach Program Eric A. Roe1, Joseph D. Hickey1, Andrew Hoff2, Richard A. Gilbert1, and Marilyn Barger3 1 Department of Chemical Engineering, University of South Florida, Tampa, FL 33620 2 Department of Electrical Engineering, University of South Florida, Tampa, FL 33620 3 Manufacturing Technology, Hillsborough Community College, Brandon, FL 33619AbstractThe High School Technology Initiative
enhancing engineering education. ©American Society for Engineering Education, 2024Peru in State College: Providing Scholarswith a Global Perspective at HomeOur Story of Resilience 1 Lauren Griggs, PhD • Director, Clark Scholars Program • Director, Multicultural Engineering Program • Assistant Teaching Professor Julio Urbina, PhD • Faculty Advisor, Clark Scholars Program • Professor