of project management”. In this paper we shall report on the currentformat of the course and how it overcomes many of the problems with our initial offering.Although only part way through the second offering, we recognize the need for new changes inorder to account for the increased maturity and experience of the students returning from their16-month internship experience. The changes needed to handle the 80% of our students who willreturn from internship in September 1999 are discussed.1. IntroductionTwo years ago the Canadian Engineering Accreditation Board (CEAB) placed a requirement thatall engineering students experience an extensive 4th year design project. With accreditationlooming, the Department put on an experimental team project
alternate Building Information Modeling track for civil Modeling engineering students in Engr Design course, using flipped classroom Systems Modeling Create context-rich and visually-rich examples and simulations for and Control Systems students to learn fundamental concepts Mechanical Design Integrate project-based learning into mechanical design courses Instructional-technology-focused initiatives Adaptive Learning Create an adaptive learning platform based on machine learning algorithms Engr Simulations Create a cloud-based platform to host simulation tools based on industry software Sketch-Based Create a homework assignment platform that provides
andinstructor providing real-time feedback gives the students a chance to integrate the exercises andtechniques.The presentation describes the concepts, building blocks, exercises and timeline necessary toachieve these steps in a limited time frame, how to assess progress, and how to contend with awidely diverse group of students working on very disparate topics of research. The furtherimplication of this effort is that multicultural students may be more effective in an increasinglydiverse environment filled with sudden, extemporaneous demands.General Background:Engineers and scientists are often perceived and portrayed as being both humorless anduncommunicative. While the former may be ascribed to a tendency to analyze rather thanimmediately react to
Paper ID #6035Using Leadership Education Practices to Enhance Freshmen EngineeringStudent Interviewing SkillsDr. David Bayless, Ohio University Dr. Bayless is the Loehr professor of Mechanical Engineering and the director of Ohio University’s Center of Excellence in Energy and the Environment. He is also the director of the Robe Leadership Institute, director of the Center for Algal Engineering Research and Commercialization (an Ohio Third Frontier Wright Project), and director of the Ohio Coal Research Center at Ohio University, where he is engaged in the development of energy and environmental technology, such as
through the use of communication deliverables.We present early work that demonstrates a strong correlation between student teams’ lowwritten communication scores and subsequent poor design performance. Then, wedescribe an intervention model designed to strengthen communication ability and teamperformance and thus to influence design performance.Background:At the Department of Aeronautics and Astronautics at MIT, 2nd year engineering studentsare introduced to the principles of flight in a rigorous, two-semester course, Unified Page 9.1390.1 Proceedings of the 2004 American Society for Engineering Education Annual Conference &
quality as they vary by location and over time. The master variable is hydrology and how it isaltered by storm flow. Participants will use classical hydrology methods to construct storm hydrographsand derive time of concentration. These will be correlated with water chemistry to produce a time seriesrecord of concentration that can be translated to flux and mass transport. At the spatial scale of a sub-watershed in an urbanized area, the methodological framework will seek to understand howenvironmental flows contribute to degraded water quality [6,7,8]. Hydrologic variability and interactionswithin the natural and engineered components alter biogeochemical fluxes [9] and ecological integrity [10,11] all of which are affected by storm water
analytical and experimental methods incorporate concepts experimental procedures and practical applications are beingmechanical engineering students learn in several core courses. introduced into the Mechanical Engineering Department’sHomework assignments and laboratory experiments exploring a Feedback Control Systems Course. Since 2008, the class hasphysical system serve to engage students and help them make incorporated a significant laboratory portion [2]. In these labs,connections between course material spanning the mechanical students become familiar with and perform experiments onengineering curriculum
the Department of Integrative STEM Educa- tion at The College of New Jersey. In his role, he prepares pre-service teachers to become K-12 technology and engineering educators. His research involves engaging college students in human centered design and improving creativity. He also develops biotechnology and nanotechnology inspired lessons that naturally integrate the STEM disciplines. He received his PhD in biomedical engineering from Drexel University and was an NSF Graduate STEM Fellow in K-12 Education (GK-12).Dr. Jamie Mikeska, Jamie Mikeska is a Research Scientist in the Student and Teacher Research Center at Educational Testing Service (ETS). Jamie completed her Ph.D. in the Curriculum, Teaching, and
students to chooseengineering as a career. With an emphasis on smart and connected cities, the SCR2 programprovides summer research experiences (eight weeks for students and six weeks for teachers).This paper presents our learnings and insights of the program for the past four years withevaluation findings. There have been 116 students and 44 teachers who have successfullyparticipated. The research program was conducted on campus in 2019, but due to COVID-19, theprogram was conducted online in 2020. In 2021 and 2022, the program was redesigned to behybrid, and six host sites participated. Despite the changes in the program, students' prowess wasenhanced by their teamwork and engagement in the projects. The post-program survey raisedconcerns about
Education and Outreach (CEEO) “works in the areas of outreach, research, and tool development to make engineering and design accessible and feasible in P12 classrooms” [3] . In this study, funded by an internal grant from the CEEO’s innovation fund, we have developed a game that integrates and scaffolds content knowledge of engineering design while allowing students to playfully engage in problem solving and teamwork skills. Engineering education researchers have worked with P12 teachers to understand their mental models of engineering and how professional development can help them identify
) to increase retention of URWM and WFC;(2) to support career progress for URWM and WFC; (3) to increase satisfaction and success ofURWM and WFC; (4) to stimulate advocacy for systemic change based on awareness of genderequity issues emerging from the programs implemented; (5) to create an integrated set ofcross-institutional programs that will be exportable to other regional universities that aim tosupport, retain, and advance the careers of URWM and WFC.COVID-19 ImpactThe global COVID-19 pandemic became a serious concern in the United States in March 2020,less than six months after the Partnership project’s official start date. Thus, the pandemic had aserious impact on the original implementation plans of the project components. It
Session 3225 Engineering Design – On-Line Rebecca Sidler Kellogg, Jerald Vogel, Vinay Dayal Iowa State UniversityIntroductionTransforming engineering curriculum to an on-line asynchronous format presents manychallenges and opportunities. Engineering design has typically been taught as a collaborativeinteractive course at Iowa State University where student involvement and engagement waspromoted in face-to-face synchronous learning environments. With the dawn of e-learning, anew opportunity to reach students on-line, faculty at Iowa State University re-examined
Page 14.392.6 and societal issues in the classroom,” Proc. ASEE Conf., Pittsburgh, PA, 2008.7. S. M. Lord, “Fabulous Fridays: Satisfying ABET 2000 criterion I and J in an optoelectronics elective,” Proc. ASEE Conf., pp. 6315-6322, 2005.8. P. Benkeser and W. Newsletter, “Integrating soft skills in a BME curriculum,” Proc. ASEE Conf., Salt Lake City, UT, pp. 7823-7830, 2004.9. L. J. Shuman, M. Besterfield-Sacre, J. McGourty, “The ABET "professional skills" - Can they be taught? Can they be assessed?,” J. Engineering Education, Vol. 94, No. 1, pp. 41-55, 2005.10. D. Carpenter, “Using a hybrid classroom environment for the instruction of ethics and contemporary civil engineering issues,” Proc. ASEE Conf., Honolulu
are connected (or short circuited). The two vertical columns at eachside are connected, and they are usually used as positive and negative power rails. If one flips overthe breadboard and looks at the metal connections, the student will have a better idea of howelectrical components should be placed on the board, in particular how an IC (integrated circuit,with multiple pins) component should be placed. Figure 1. Breadboard and illustration of connections.2 Mention of specific trade names is for reference only and not to imply exclusion of others that may be suitable.Using the NI myDAQ as an Oscilloscope and Controller with Bread Boarded CircuitsOften, it is necessary to integrate a breadboard with a simple
tutoring and peer-assisted learning (PAL) programs and provided pedagogical and academic success support to the General Engineering Learning Community. She is also co-developer of a framework of rigorously-documented, self-directed collabo- rative learning called Entangled Learning. Whisler has an M.A. in Music from The Pennsylvania State University and an M.L.S. from Indiana University.Dr. Elizabeth Anne Stephan, Clemson University Dr. Elizabeth Stephan is the Director of Academics for the General Engineering Program at Clemson University. She holds a B.S. and a Ph.D. in Chemical Engineering from the University of Akron. Since 2002, she has taught, developed, and now coordinates the first-year curriculum. She is the
areas, manufacturingis a dominant economic activity that requires students be competent in the science, technology,engineering, mathematics (STEM) fields and typically requires a post-secondary education forsome of the better paying positions. In an effort to assist students with this challenge andeducate more students for the manufacturing work force, a partnership was formed to put asecondary STEM teacher and college faculty in the same classroom. The partnership allowedstudents to know the local post-secondary educational options related to STEM and to getcomfortable with the campus while being introduced to computer integrated manufacturing(CIM) practices. This initial class had ten students that participated and this paper will explainthe
STEM classroom indicated that students foundthe video-based instructional modules helpful, and student quiz scores increased after reviewingthe video demonstrations [10]. Another study also showed that student quiz and exam scoresincreased following the implementation of animations and videos into a geotechnical engineeringcourse in the Civil Engineering curriculum [3]. Several other studies have also found that studentscores increased following implementation of an enhanced visual explanation of course contentin both science and engineering classrooms through the use of video and animation learningmodules [1, 7, 10].Overall, research has shown that incremental learning, scaffolding, visual aids, and repetitionenforces subject matter [4, 7
because they dislike SEM, but because they wish to pursue abroader range of academic interests20,21,22. Similarly, students from lower socio-economic levelhigh schools may find that there is no opportunity for easing more slowly into the rigoroustechnical curriculum, a strategy that might give them a better chance for long-term success.Comfort is an important indicator for success in the first CS course23.Flexibility in degree paths would appear crucial for attracting a diverse population of ITprofessionals, but is generally not encouraged in traditional colleges of engineering, nor in newercolleges or departments of computer science. The higher educational system needs to provide avariety of training paths to IT careers. The system will be
students recognize and connect to their potential.Natalie Stringer, Clemson University Natalie Stringer is a senior at Clemson University, graduating in May 2018 with a Bachelor of Science in Biological Sciences with a minor in Microbiology. She has worked at the Academic Success Center as an organic chemistry tutor for four semesters. After completing CRLA Level 3 certification, Natalie served the tutoring program in a mentoring capacity as well, acting as a liaison between her colleagues in the sciences and the Assistant Coordinator for Tutoring. Natalie will continue her academic career and research efforts at the Medical University of South Carolina’s College of Medicine after her time at Clemson.Dr. Rachel K
presentations focused on application ofconcepts to industry. Distance education technology includes WEBCT-Vista and video chatsessions using web-cams provided to the students.The curriculum consists of 30 credit hours of coursework which follows a fixed plan of study. Inaddition, there are three one-credit hour modules which covers a directed (applied) project.Students are encouraged to select an area for improvement in their career area. The target size ofa cohort is 25 students.In 2005, a program was initiated in cooperation with Rolls-Royce Corporation that was modeledafter the Weekend Program. It also follows a fixed plan of study modified to meet the needs ofRolls-Royce and is delivered at the UAW/Rolls-Royce Training Center by Purdue
, anadapted PSS approach was used to teach facilities layout planning and design in a facilitiesdesign course which is a part of the senior year curriculum of an industrial engineering program.Attainment of learning objectives was measured using two sources, case studies which weredeveloped and executed using PSS techniques, and quizzes. For case studies, an assessment ofthree real-world case studies was compared to an identical assessment of a similar case studyutilized in a prior year. For quizzes, an assessment of quizzes was compared to identicalassessments in the two prior years. Quantitative techniques were used to analyze the outcomes ofthe case studies and the quizzes, while a thematic analysis was used to analyze the post-casestudy feedback
’),could encourage them to view IE as an approachable field.Reflections from the IISE definition - IISE defines Industrial and Systems Engineering as “Adiscipline concerned with the design, improvement and installation of integrated systems ofpeople, materials, information, equipment and energy. It draws upon specialized knowledge andskill in the mathematical, physical, and social sciences together with the principles and methodsof engineering analysis and design, to specify, predict, and evaluate the results to be obtainedfrom such systems.” Per this definition of IE, this activity addresses the idea of designing asystem consisting of materials and people, improving the system to make it more efficient, andincorporating methods of engineering
Learning about Scientific Inquiry Through Engineering Jessica Harwood, Al Rudnitsky Smith CollegeThe broad question addressed by this study is "how should ideas from engineering be integratedinto the school curriculum?" Efforts to include engineering in the K - 12 curriculum haveincreased considerably in recent years. Many of engineering's educational advocates hold theposition that engineering should not be a "stand-alone" school subject or, at the very least, not beexclusively so. This paper is a case study of integrating engineering into the existingcurriculum. The more focused questions addressed here include "what does engineering bringto
-training techniciansand engineers. The modules cover lithography, metalization, etch, chemical vapor deposition,statistical process control and design of experiments. Over 280 students have used the modules,in CD-format, in a variety of teaching settings, with expanded deployment in progress. The participating organizations include the Univ. of New Mexico, Albuquerque TechnicalVocational Institute, Maricopa County Community College District, Austin Community College,Arizona State Univ., Univ. of Texas-Austin, plus a curriculum consultant, an industrial advisoryboard, and industry partners.2. Introduction The relationship of technicians and engineers in the semiconductor manufacturing industryis somewhat unique in the manufacturing workforce
areas: • Engineering Design16,17,18,19 • Professional Communications • Professional Tools • Engineering Ethics20Engineering Design Plan integrates design-and-build experiences with a structuredapproach to problem solving across all four years of the curriculum, culminating in a yearlong senior project. Professional Communications and Tools are concurrently introducedin the design courses throughout the four-year sequence to support the execution ofdesign projects. The Engineering Ethics component provides students with a frameworkfor understanding and accommodating professional expectations.The interdisciplinary greenhouse heating project with the WKU Agriculture Departmentprovided an excellent vehicle for this integration and
. Cain Center for Scientific, Technological, Engineering and Mathematical Literacy. She is responsible for developing and implementing continuing education programs for K-12 science teachers. Dr. Nixon has been teaching for over 20 years and currently works in the redesigned high school teacher preparation program. Dr. Nixon has Master and Doctorate of Philosophy in Curriculum and Instruction in Science Based courses.Warren Waggenspack, Louisiana State University Warren N. Waggenspack, Jr. is currently the Associate Dean for Engineering Undergraduates and holder of the Ned Adler Professorship in Mechanical Engineering at Louisiana State University. He obtained both his
by alternating semesters of co-op and classroomeducation, followed by a final semester to complete course work including thecapstone design project. The student worked for a design and manufacturingcompany in the same metropolitan area as the university. The interaction of co-opand curricular educational experiences of the student is emphasized.The First Co-op PeriodCompleting an engineering curriculum, such as Mechanical Engineering, is nosimple journey. The subject matter is often complicated and intense. The workload can be overwhelming. A co-op program helps facilitate the learning processand allows the student to expand professional horizons as a developing engineer.Because of this, many universities today are implementing a co-op
%. This team project study demonstrated student’scritical thinking, product design skills, machining knowledge, layout skills, processing skills, andsimulation modeling skills. This group project not only encouraged the students to work as ateam but also encouraged their individual talents to shine. This group project gave students theconfidence to handle product from “drawing to production”. It was very satisfying to see howthese senior students are transforming themselves to competent engineers.IntroductionThe engineering students are required to take various courses in general education and technicaleducation to meet the graduation requirements. Please refer a typical manufacturing engineeringprogram curriculum flow chart in the reference
University of Technology Hanna Niemel¨a received the M.A. and PhD degrees in translation studies from University of Helsinki in 1993 and 2003, respectively. She is currently working as an associate professor with the Department of Electrical Engineering at Lappeenranta-Lahti University of Technology LUT, Lappeenranta, Finland. Her professional experience ranges from translating to teaching and language consulting. Her interests include electrical engineering, scientific writing, and special languages.Dr. Heikki J¨arvisalo, Lappeenranta-Lahti University of Technology Heikki J¨arvisalo received the M.Sc. degree in electrical engineering and the D.Sc. degree in electronics from the Lappeenranta University of Technology
B.S. in Mechanical Engineering from University of Belgrade, Yugoslavia, and an M.S. and a Ph.D. in MechanicalEngineering from the University of Washington. She pursues research in pollutant formation in combustion. email:teodora@seattleu.eduGreg Mason is an Associate Professor at Seattle University, Department of Mechanical Engineering. He received aB.S. in Mechanical Engineering from Gonzaga University, an M.S. in Computer Integrated Manufacturing fromGeorgia Institute of Technology, and the Ph.D. in Mechanical Engineering from the University of Washington.email: mason@seattleu.edu Page 10.1345.13 Proceedings of the 2005