UniversityAbstractPenn State University has hosted an NSF-sponsored GK-12 Outreach project for the past fiveyears, and has just begun the second phase of the project. The Penn State project utilizes thetalents of many science and engineering graduate students as teachers, mentors and role modelsfor the K-12 classrooms. The project focuses on developing skills of students in the areas ofscience, technology, engineering and mathematics through the use of Advanced TransportationTechnologies. A new project component was devised and implemented--the interaction of K-12students with college freshman via a website project. The college freshmen were asked to createa website describing a component of "Clean Energy", which was to include an assessment tool toprovide
interests include Robotics, Vibrations, Controls Systems, Internet-based Quality Control, and Renewable Energy Systems. Page 22.515.1 c American Society for Engineering Education, 2011 E-Quality Control Method for Measuring Solar Cell EfficiencyAbstractRecent results of laboratory and course development under an NSF, CCLI sponsored project,“CCLI Phase II: E-Quality for Manufacturing (EQM) Integrated with Web-enabled ProductionSystems for Engineering Technology Education” (NSF Award # 0618665) are presented. Thispaper discusses an educational effort that incorporates Renewable Energy in a senior
) community impacts from project implementation. [4-6, 13,14]. Through support of an NSF IUSE Development and Implementation Tier grant, the C-EEEMis now in its second year for replication in two cities, Youngstown, Ohio and Louisville,Kentucky.By operating in the complexity of a real-world context and providing more personalized learningand professional skill building supporting personalized learning and professional skill building,the C-EEEM represents and example of the future of engineering education [15]. Nonetheless,the C-EEEM learning environment also supports a range of STEM and STEM-adjacentdisciplines. Through a careful curriculum that centers on community-driven, strategicallydeveloped projects in critical areas for these communities (e.g
the control group, theexperiment group was shown how many intentionally buggy instructor solutions their testsexposed.Our results measured the quality of student test cases for the control and experiment groups. Afterstudents in the experiment group completed two projects with additional feedback on their testcases, they completed a final project without the additional feedback. Despite not receivingadditional feedback, their test cases were of higher quality, exposing on average 5% more buggysolutions than students from the control group. We found this difference to be statisticallysignificant after controlling for GPA and whether students worked alone or with a partner.2 IntroductionTesting is an integral part of software development that
Links to Retention Research," Minnesota Campus Compact, Minnesota, 2008.[14] T. Kennedy and L. Houghtalen, "Engagement in Practice: Lessons Learned While Developing Community Partners (and a New Engineering Program) for Service Learnin," in Proceedings of the American Society for Engineering Education Annual Conference, Salt Lake City, 2018.[15] W. Oakes, E. Coyle and L. Jamieson, "Curriculum, EPICS: A Model of Service-Learning in an Engineering," in Proceedings of the American Society for Engineering Education Annual Conference, St. Louis, 2000.[16] W. Oakes and M. Thompson, "Integration of Service Learning into a Freshman Engineering Course," in Proceedings of the American Society for Engineering Education Annual
continuing education.In addition to laying out requirements for assessment, the criteria document also requiresprograms to demonstrate that assessment results are used in a formal continuous improvementprocess to further develop the program.Assessment AcronymsThe MET program utilizes the centralized assessment process provided by the college ofengineering (COE). The COE first began an integrated process of strategic planning,measurement, evaluation, and feedback in 1992, with the purpose of identifying continuousimprovement opportunities. The principal components and their interactions are summarized inthe Assessment Triad shown in Figure 1. Figure 1 – Assessment TriadAs illustrated above, the continuous improvement
Education, 2021 CSUN Data Science Program with Career Support and Connections to IndustryData Science Program with Career Support and Connections to Industry, supported by NSF DUEIUSE, is an interdisciplinary workforce training program that encompasses a summer bootcamp,year-long research projects, biweekly seminars, and career support. Our program has had twocohorts, one in 2019-2020 and the other in 2020-2021. This paper discusses how to design, imple-ment, manage, and assess a data science program for undergraduates.California State University Northridge (CSUN). CSUN is a federally designated Hispanic ServingInstitution (HSI) and Minority Institution (MI). It is among the largest single-campus
positive trade balance of any U.S. manufacturing industry4. Page 25.140.2As new and improved processes and materials are being integrated into aerospace manufacturingthe industry is faced with an aging workforce. The average age of a production worker is 54years based on the 2005 President’s report of findings and recommendations for the USaerospace industry5. These workers have continued to retire over the last few years as a result ofcorporate downsizing and employee reductions. These production jobs, when replaced in thecoming years, will lack the skill brought about through years of stewardship and mentorship thathave historically been linked to
educational research. Her research interests primarily involve creativity, innovation, and entrepreneurship education.Joseph C. Tise, Pennsylvania State University Joseph Tise is a doctoral candidate in the Educational Psychology program at Penn State University. His research interests include self-regulated learning, measurement, and connecting educational research to practice.Megan Huffstickler, Pennsylvania State University Megan Huffstickler in an Academic Adviser in the Biology Department at Penn State. Her undergraduate work is in Chemistry, and she will be receiving an MS in Educational Psychology from Penn State in May 2018.Dr. Keefe B. Manning, Pennsylvania State University Professor of Biomedical Engineering
the potential for follow-on activities inthe engineering science courses. Emphasis was placed on developing design materials which could be integratedthroughout the engineering curriculum and which were easily transportable to engineering programs at otherinstitutions. The Need for Improving Design Education There is a widely held perception that U. S. industry’s extended period of world dominance in productdevelopment, manufacturing innovation, process engineering, and productivity has ended. The relative declineof U. S. productivity and competitiveness can be attributed to several factors, including national fiscal policies,exchange rates, international labor rates, deficiencies in manufacturing
need to be measured in this fashion. A timed examination on dc circuittheory provides an indirect measure. Any EET student with poor calculator skills probably will notsucceed in an EET program.The EIA skill standards are much more open to interpretation and implementation. This is by design.Educators worked with industry representatives to develop the standards. Don Hatton (of the EIA) sharedhis perspective of the EIA approach with this writer on October 29, 1997.“Industry requires workers to perform. Knowledge without the skills necessary to implement thatknowledge effectively and efficiently is useless. However, the EIA recognized the importance ofleaving enough latitude to permit and encourage educators to integrate the standards into
– 2008, we collected KAI scores for a total of 363 students enrolledin a core course within our Systems Engineering curriculum*. As mentioned earlier, this course isalso an elective for students in other engineering degree programs, as well as students enrolled innon-engineering degree programs, such as Management, Leadership Development, andEducation (e.g., Instructional Design). Of the total sample we analyzed, 327 students wereregistered in one of three engineering degree programs (Systems Engineering, SoftwareEngineering, or Information Science), 12 were registered in a Leadership Development degreeprogram (offered by the Management Division), and 24 had undeclared majors at the time of theKAI administration. While these last two sub-groups
Paper ID #32311Understanding Factors of Engineering Student Persistence UsingPredictive ModelingDr. Daniel P. Kelly, Texas Tech University Dr. Daniel P. Kelly is an Assistant Professor of STEM education at Texas Tech University in the De- partment of Curriculum and Instruction. He earned his doctorate in Technology Education from North Carolina State University where he also served on the faculty. Previously, he worked as a middle and high school science, technology, and engineering teacher in North Carolina. Dr. Kelly serves as the Associate Editor of the Engineering Design Graphics Journal and Editor-in-Chief and
through culture-inspired project activitiesAbstractSome studies have shown that social integration between international and domestic freshmanuniversity students can both enhance international students’ well-being while concurrentlybenefitting domestic students’ cultural awareness and respect for diversity. The three basicpsychological needs autonomy, competence, and relatedness suggested by self-determinationtheory can be fulfilled through socio-cultural inspired learning activities in classroomenvironment to facilitate students’ intrinsic motivation, sense-of-belonging and quality ofperformance. This paper presents various curriculum interventions and student interactionsthrough culture-inspired product design
. Teaching ModulesTo implement the teaching of the leadership skill of conflict resolution for engineering students, wedeveloped a set of five modules, to be delivered across the first three years of an undergraduateengineering program with an emphasis on leadership. The modules, to the extent possible, integratedthe material on conflict resolution as integral parts of team-projects already assigned in the courses.The modules’ key elements comprised: • Lecture: Purposes and importance of active listening, types of conflict (task, relationship, and process), destructive and constructive conflict, and the five modes of dealing with conflict (collaborating, compromising, competing, accommodating, and avoiding). • Activity
. Ultimately, the success of this partnership has been a result ofGWHF’s appreciation of the learning opportunity that this work brings to undergraduateengineering students, and their ability to implement projects in complex environments. At the Spring 2015 Mid-Atlantic ASEE Conference, April 10-11, 2015 Villanova Universitysame time, the success of this partnership has been a result of VU’s appreciation of the projectpartner’s needs, and their ability to leverage humanitarian design projects with undergraduateengineering curriculum. Throughout this process, students have been able to gain valuableexperience in an international setting, collaborate with experts in the humanitarian technologyfield, and develop applied skills in engineering
, many engineeringstudents struggle to connect these experiences to the work they will do after graduation [54].Rather than nurture adaptability, they may just reinforce or evaluate students' existing adaptivetendencies. More research to clarify how we define, measure, and understand adaptability isneeded before engineering educators can effectively teach it.The past two decades have seen the integration of several other “human skills” [4] [55] intoformal engineering curriculum (e.g., ethics, communication, and societal and global issues),partly in response to changes in accreditation standards [5]. Other studies show that, whilehuman skills can be acquired in an experiential learning environment, they are best learned whenexplicitly taught and
mounting a campaign to a) take computer science to the high schools, b)increase the visibility of computing as a career, and c) develop curriculum and studies on how toconvey an appealing message that describes the opportunities and challenges of the field24.Compounding this problem is the fact that once we have prospective majors in the classroom,their prospects for success are not great. Low enrollments and high DFW rates are obviouslyconnected. Although computer science advocates claim computer science is not about mindless Page 22.985.6abstract programming done by lone hackers late at night, that is almost exactly what mostintroductory
Paper ID #49762Structured Pathways for Student Success: A Strategic Approach to CourseOptimization and Academic ExcellenceDr. Ragavanantham Shanmugam, Fairmont State University Dr. Ragavanantham Shanmugam is working as Department Chair and Associate Professor of Engineering Technology at Fairmont State University, Fairmont, WV. He has over 25 years’ experience in Engineering Higher Education and research and also an award-winning teacher and active engineer. His academic qualifications allow him to coordinate successful research activities, but his true talent is teaching all students by engaging them in STEM by
general education requirements leading to anine semester, 149 unit dual B.S./B.A. degree in Industrial & Systems Engineering.Introduction Page 10.1428.1Senior ISyE students are required to take a one semester senior capstone design course. As withmany capstone courses, the capstone experience is meant to be an integrative experience in “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright© 2005, American Society for Engineering Education”which students apply their Industrial Engineering knowledge and skills acquired over theprevious four years. The senior
extracurricular activities is voluntary andusually based on the inherent interests of the students [4], it can serve as an avenue for theindividual to develop student interests and talents, independent of the engineering curriculum [3].Typically extracurricular activities satisfy the following criteria [3]: (1) not a requirement forgraduation, (2) voluntary participation, (3) structured; participants meet regularly in a contextspecific to the activity, and (4) requires efforts; it must pose some measure of challenge to theindividual engaged in the activity. The motivations for getting involved in EPA P3 projects were to become more attractive topotential employers (e.g., resume builder), to learn hands-on experience on emergingtechnologies, and to
: applying continuous improvement practicesand realizing that, in a sense, the program is in start-up mode (as in an entrepreneurial start-up)and therefore we need to be nimble and willing to evolve the program as we improve it andexpand it.As we have grown, we have also seen an increase in the number of students transferring fromother majors within the institution and from other colleges and universities. These includestudents who have courses that may satisfy some courses in our curriculum, particularly theintroductory programming courses (Python, R, Object Oriented Programming). This hasmotivated us to develop a course equivalency list which benefits the students and our academicadvisors.More on these topics in the next sections.Program
medium-scale, closed-circuit subsonicwind tunnel facility used for undergraduate aerospace engineering laboratoryexperimentation and research represents a substantial investment in resources. Thelaboratory building housing a wind tunnel is often constructed around such a facility, andsupport facilities are sized and located accordingly. The facility housed in Patterson Hallat Mississippi State University (MSU) was moved into the building upon completion ofconstruction in the 1960s. Wood and machine shop facilities were located adjacent tothe tunnel to provide research and educational support. The tunnel has an octagonal Page 9.924.1
lab class where they learn to implement a data acquisition system using LabVIEWand process the data using MATLAB. The purpose of this student paper is to show theimportance of data acquisition in engineering education, illustrate where data acquisition can beimplemented into the current engineering curriculum, and display some of its applications bydemonstrating the process of collecting and post-processing temperature, flow rate, and pressuredata in an example of heat/mass transfer experiment.KeywordsData Acquisition, LabVIEW, MATLAB, Undergraduate Student PaperIntroductionData acquisition (DAQ) is an integral part of many different research projects and has many usesthroughout the industry which is why there is a need in the engineering
submitting assigned work, was highly desirable.Obviously, the solution to such a problem is some form of distance education that allows astudent to access and work on lectures and course materials at a convenient time and place,independent of other students or the lecturer (asynchronous learning). Boston Universityis strongly committed to a close student-faculty and student-student collaboration thatevolves long term working relationships, and the majority of the faculty believes this is stillbest achieved in the classroom. The latter is not an objection per se to distance educationor the use of the Internet and web technologies in the classroom. In fact, most courses, thearts and humanities not excluded, have course web sites, complete with
integrated PBL curriculum to address this need. Additionally, the “soft skills” learningthat have been previously presented during the capstone sequence will now be delivered in thePBL curriculum. We have learned that faculty mentors are key role players in achieving successwith the project in terms of meeting the learning outcomes. The faculty member has to develop abalance between meeting the needs of the customer, a completed product, and the experimentallearning that must take place over the course of the project. Finally, student teams who engagethe customer frequently throughout the progression of the project meet the requirements of theproject more frequently. The 2010-2011 capstone year now requires faculty and industry mentorsto meet one
skills for deciding if a situation warrants intervention. Page 3.589.1 The second skills base, facilitating structure, was geared towards helping teamsaccomplish the task. Facilitators learned skills to help teams begin and end team meetings. Theyalso learned how to set and negotiate an agenda, keep a team discussion focused, and help teamsset up timelines. Because of the level of knowledge about engineering that these facilitators had,special care was taken in teaching this skills base to instruct trainees that they were not toinfluence the actual content of the project. The third skills base, problem solving, was also geared
stereotypical images about engineers compared to the Arizonasample. The differences found between the two studies may be attributed to the fact that theparticipants of our study were voluntary attendees of an engineering workshop, whichshowed their interest and initiative in integrating DET into elementary classrooms. Thissuggests that teachers with motivation to learn about engineering are more likely to projectengineering as a profession involving multi-faceted skills.We found significant differences based on teachers’ teaching experience, which were notevident in the Arizona sample. Teachers with more full time teaching and science teachingexperience were more likely to think that DET is important than teachers with limited ormoderate experience
professors often fall into the deductive approachto teaching. This contradiction serves as a barrier for effective learning amongst thestudents, especially those studying engineering. This is especially true for geotechnicalengineering and in understanding soil mechanics where students are constantly studyingengineering principles that are not easily accessible to observe or visible because it alloccurs underground. The connection between theories of why things occur is not easilyconnected with how they occur. In order to do so, a senior design team at the universitydeveloped, designed, and constructed an interactive laboratory demonstration that shallbe utilized in a soils engineering curriculum to aid in the understanding of importantconcepts
lifelong practices and habits for saving energy. This paperpresents an energy program developed to increase awareness of elementary school students onenergy sources and the need for saving energy. Energy related lecture and demonstrationsessions were integrated to the 4th grade science curriculum. Among various learning models,constructivism was chosen for teaching energy concepts since the active involvement of learnersin knowledge construction is emphasized in this model4,5. The paper presents detailedinformation on the implementation of energy program to a 4th grade pilot class in a HamptonPublic School. The energy program was implemented in conjunction to a Graduate Teaching Fellows inK-12 Education (GK-12) project, which included many