/components within a complex rocket - Design/integration of more advanced payloads - Demonstrated experience and competency in o Motor/ignitor Safety/Storage/Transport & Range/Launch Operations o Often will incorporate HPR motors, requiring NAR certificationHaving developed a program capable of dealing with these issues provides an excellent opportunityfor students and faculty researchers alike to conduct advanced engineering, applied science research,and significant launch operations, thereby continuing to attract students, faculty, research scientists,and outside partners/opportunities for the university program. Hands-On Aerospace Engineering – Learning By Doing: RocketryApplication to UAF
inclusion into engineeringcourses. Specifically, the third author works to integrate content concerning folks withdisabilities and teaches an upper-division course on design for disability. In dynamics, the thirdauthor incorporates modified versions of this content and helps emphasize the ways in whichengineering solutions can contribute to equity and access. In addition, the fourth author hasexperience with issues of engineering and social justice and teaches an upper division class onengineering design theory and social justice. Similarly, the fourth author works to incorporatesociotechnical topics into all their courses, including engineering statics. We note ourpositionality because the topics we teach likely influenced student responses to the
Paper ID #36549Theory to Practice: Application of Problem-based learning,Flipped-classroom, and Just-in-time-teaching in an AdvancedGeotechnical Engineering CourseJes Barron (Assistant Professor) Jes Barron is an Assistant Professor in the Department of Civil and Mechanical Engineering at the United States Military Academy, West Point, New York. He holds a Bachelor of Science degree in Civil Engineering from West Point (2009), a Master of Business Administration from Oklahoma State University (2015), and a Master of Science degree in Underground Construction and Tunnel Engineering from Colorado School of Mines
AC 2011-2024: USING DESIGN-CENTERED CHALLENGE BASED IN-STRUCTION TO TEACH ADAPTIVE EXPERTISE IN HIGH SCHOOLENGINEERINGTaylor Martin, University of Texas, Austin Taylor Martin received a B. A. in Linguistics and an initial teaching certification from Dartmouth College in 1992, an M.S. in Psychology from Vanderbilt University in 2000, and a Ph.D. in Education from Stanford University in 2003. She joined the faculty at the University of Texas at Austin in 2003. Her primary research interest is how people learn content in complex domains from active participation, both physical and social. She is cooperating with local elementary schools to improve assessment tools for young children’s mathematics and to examine how
methods has been supported by the National Science Foundation and the Sloan Foundation and his team received for the best paper published in the Journal of Engineering Education in 2008, 2011, and 2019 and from the IEEE Transactions on Education in 2011 and 2015. Dr. Ohland is an ABET Program Evaluator for ASEE. He was the 2002–2006 President of Tau Beta Pi and is a Fellow of the ASEE, IEEE, and AAAS.Dr. Alice L. Pawley, Purdue University, West Lafayette Alice Pawley (she, her, hers) is an Associate Professor in the School of Engineering Education and an affiliate faculty member in the Women’s, Gender, and Sexuality Studies Program, Environmental and Ecological Engineering, and the Purdue Climate Change Research Center
-specific theory of writing andnudging them into the novice status needed to learn how to address writing in a new context [2],we (Jenn Mallette, a faculty member in English/technical communication, and Harold Ackler, afaculty member in materials science and engineering) approached the writing components injunior- and senior-level materials science lab/project classes with two goals: 1.) asking studentsto engage in reflection throughout the semester to connect learning not only from prior classes,but across assignments, semesters, and years; and 2.) encouraging students to generate their owntheory of writing that will help them address the demands of writing for engineering withinschool and beyond.ContextThe students in this study are juniors
scores, math course experience, or general math confidence to enter at that level. Inuniversities that offer test-optional admission or have minimal admissions criteria forengineering students related to math, these strict math requirements take an early toll on manystudents who enter programs at a lower math level, often resulting in their departure from theprogram. This study, framed in self-efficacy theory, aims to help better understand thesestudents’ experiences, what causes them to leave, and what struggles they face in an effort togenerate solutions that address these issues and improve retention. Through analysis ofparticipant interviews and interaction data, personal narratives are derived to help explain andexplore the participant's
public obligation, and the difficulty in fixing problems once decisions aremade.The options provided for Question 10 were updated for Fall 2018 after many Spring 2018respondents took issue with the options available to them, explaining their concerns in the open-ended Question 11. Table 2 displays the updated question and options. The impact that thischange may have had on students’ responses is currently being examined. Pending the results ofthis analysis, the data from this question is not included here. 7Table 2: Student-recommended changes for Question 10 Spring 2018 Fall 2018Question wording Engineers have special Engineers
Paper ID #48385Redesigning a Chemical Engineering Capstone Course: Integrating Sustainability,Social Responsibility, and Entrepreneurial MindsetDr. Courtney Pfluger, Northeastern University Dr. Courtney Pfluger is a Full Teaching Professor in Chemical Engineering at Northeastern University, where she helped redesign the First-year Engineering curriculum, developed an innovation driven Capstone design course, and created and for 11 years has run a faculty-led, international program to Brazil focused on Sustainable Energy. She has interests in sustainability-focused engineering entrepreneurship, educational opportunities to
], [12], few studies exist that document theimplementation of critically reflective pedagogical strategies. One study of a new engineeringdesign program in Sweden, developed to increase students’ social justice literacy, used textualcontent analysis to understand if and how students reflected critically on issues of social justicewithin their final essay submissions [13]. Authors found evidence that students did begin to “seesystems” as a result of the program and seem to begin to critically question different stakeholderperspectives and contextualize engineering development practices. However, it is unclearwhether students considered their own role as aspiring engineers within the structures of powerthat they were uncovering through their
, how you have a bunch of old white professors that … [are] causing major issues.”They also discussed how conservatism among the engineering professors detracted fromthe power of the strike. This is not unexpected, because engineering has been shown tohave one of the highest percentages of conservatives among all academic disciplines [12].Matilda described faculty conservatism in a refusal to acknowledge the political nature oftheir work: “I think that department leadership and many engineers think that they can somehow avoid making it political. That it's not political until they make it political and that's where I think they're wrong. It's already political whether or not they want to accept and address the fact
experiential learningthat guides many of today’s introductory CS curricula 5,6,7,8 .Our goal is to help settle this controversial debate with a systematic empirical study that exploresthe impact of introducing novices to code quality and its improvement. Although our study cannotfully resolve this contentious issue of introductory computing pedagogy, we gained new impor-tant insights. Specifically, we focused on evaluating the impact of automated tools on helpingbeginner Scratch programmers to learn how to refactor code duplication. Refactoring is a softwaredevelopment technique that transforms a program to improve its code quality while preservingits behavior 9 . Although industry practitioners have fully embraced this technique as part of
design tasks of the students remains completely within the academic domain. Theparticipating industrial partners function as mentors and consult the student team on specificitems and provide a direct link to standard industrial practices. The strategic aims of ETHZ are the promotion and maintenance of quality in teaching at thehighest international level. In order to support institutes in using advanced learning techniques, afunding project was initiated by ETHZ to promote the:• Use of new information technologies in teaching• Gain effective knowledge for advanced studies and interdisciplinary competence• Self responsible learning techniques and self organized arrangement of studies• Problem oriented working• Improvement of student social
for thesystem.References:[1] “More Americans Concerned with Plastics Pollution then Climate Change”, https://www.globenewswire.com/news-release/2019/06/19/1871135/0/en/Americans- Are-More-Concerned-About-Plastic-in-Oceans-Than-Climate-Change.html[2] Ritchie, Hannah, and Max Roser. "Plastic pollution." Our World in Data (2018[3] Kodi, Hareesh, “More Plastic Than Fish In Oceans---Reassessing Our Plastics Usage”, https://www.youthkiawaaz.com/2021/07/innovation-we-wish-never-happened/[4] “Huge Device Aims to Capture Pacific Oceans Plastic Garbage”, Science and Technology, September 14, 2018, https://learningenglish.voanews.com/a/huge-device- aims-to-capture-pacific-oceans-plastic-garbage/4570636.html[5
educational. Therefore, with the current PMPtechnology, it can be said that podcasting lectures is not equivalent to the webcasting experience,however it can be useful when the student does not have access to a PC or a WAN. There issome concern regarding cost, but this can be defrayed through university-sponsored programs.Because podcasts are publicly available, there may also be issues regarding intellectual property.This would have to be fully investigated under each school’s policy. At this point, TheUniversity of Texas at Austin is still working on intellectual property concerns for the lecturesthat may be freely distributed across the Internet. As a result, podcasting lectures is stillconsidered experimental at The University of Texas at Austin
Page 13.1082.2organization would not be competitive. Dupont realized that they must optimize both customerand stakeholder value and Six Sigma evolved to what is known as the Third Generation. Animportant part of Six Sigma Generation III, was tying Six Sigma projects to the organization’sstrategic objectives.While working with industry, it is clear that many know Six Sigma simply as a quality programand think that it is nothing new. It is true that many of the tools in the Six Sigma toolkit can betraced back to AT&T Bell Laboratories in the 1920’s where Shewhart introduced his revolutionson variation. Components from Deming, Juran, Feigenbaum and others are prevalent throughoutSix Sigma as well. However, Six Sigma has evolved far beyond a
insure thatall participants (faculty and students both) receive merit-based credit for participation. At theauthors’ home institution, “Creative Inquiry” is a program course structure, which strives toengage students in the process of learning and discovering through faculty-mentored researchand outreach activities across multi-disciplinary departments. Students that participate in theseCreative Inquiry classes have been shown to learn and to think in new ways, learn non-classskills designed toward their interests, enhance their academic performance in other classes,improve their satisfaction with their learning environment, and improve their relationships withfaculty. In addition, instructors that teach Creative Inquiry classes develop
weresuccessfully publishing papers. Nettles and Millett suggest closer examination of the factors thatare beneficial to African American engineering graduate students, as these might illuminate thefactors that contribute to the lower success of African Americans and other minority students inscience and engineering fields.Higher education studies of graduate student socialization, which have typically focused on thedevelopment of new professors (that is, the anticipatory socialization to the academic professionthat takes place during graduate school), also provide glimpses into the lives of graduatestudents. Austin’s research12 on the preparation of the new generation of faculty, for example,found that graduate student development is shaped by factors
movies and picnics, which delayed the weeding-out of Page 3.187.1those who would not survive the “real” courses. A few years ago the course was re-worked and 1taught by several senior faculty, using different approaches. In 1996-‘97, the course was movedinto the Freshman 3rd quarter to strengthen the motivation of the new recruits. This course had toappeal to people who had little background in calculus or mechanics. Options included ideassuch as hands-on projects, lab demonstrations, multimedia, invited speakers, industry tours, andan approach which had been laughed off in the past: teach Aircraft
and PhD from Texas Tech University in Physics. He worked as a Technology and Applications Engineer for ISI Lithography and was a post-doctoral research fellow in Chemical Engineering at the University of Texas, prior to his faculty appointment at TTU.Dr. Heather Greenhalgh-Spencer, Texas Tech University American c Society for Engineering Education, 2021 Solar-Powered-Digital-Classroom-in-a-Box: A Digital System to Mitigate the Digital Divide of Post-Pandemic EducationabstractIn the context of the COVID-19 pandemic, many schools (primary, secondary, and tertiary) havebeen forced to go online, using fully virtual and hybrid models of schooling. Leveraging
themes dealprimarily with issues encountered in the workplace, but if our premise holds true that thedecision-making process in academic and professional settings is similar, they may also need tobe included in a new model.References1. Bowers, W. J. (1964). Student Dishonesty and its Control in College, Bureau of Applied Social Research, Columbia University.2. McCabe, D. L. (1997). "Classroom Cheating Among Natural Science and Engineering Majors." Science and Engineering Ethics 3: 433-445.3. Beck, L. and I. Ajzen (1991). "Predicting Dishonest Actions Using the Theory of Planned Behavior." Journal of Research in Personality 25: 285-301.4. Blankenship, K. L. and J. Whitley, B.E. (2000). "Relation of General Deviance to Academic
Session 2433 Honors Thesis Work in Renewable Energy for an Undergraduate Student Robert S. Weissbach, Timothy S. Meyers Penn State Erie, The Behrend CollegeAbstractRenewable energy has become an important area of research and development for bothenvironmental as well as economic reasons. At the academic level, it is possible to introducestudents to issues related to renewable energy. This paper discusses the effort one student has putin, as part of a thesis, to develop an economically feasible, self-sufficient, renewable energysystem for a
Paper ID #9375Beyond Persistence: Graduate School Aspirations of Hispanic EngineeringStudents at HSIsDr. Lorraine N. Fleming, Howard University Dr. Fleming is the chair of the 2015 Middle States Accreditation Periodic Review and led the University’s Middle States Accreditation Self-Study Taskforce in 1999. She is currently the interim dean of the College of Engineering, Architecture, and Computer Sciences and a professor and former chair of the Department of Civil Engineering at Howard University. She is a licensed professional engineer, who, since joining the Howard faculty in 1985, in addition to leading the
problem solvingskills extends also to social and behavioral sciences (Woods et al., 1997). The ChemicalEngineering Department at McMaster University restructured its curriculum to create four newundergraduate courses dedicated to problem solving and related issues such as motivation and self-confidence (Woods et al, 1997). Barrett et al. (1998) describe a visual environment for teaching anddesigning digital systems, which presents guidance and tools as needed for each step. The authorsreport a quantitative improvement in student performance resulting from the availability ofinformation as needed during the design process.Several key findings from the thorough case study at McMaster University by Woods et al. (1997)are quoted below: “(Faculty
first survey. Over one-third ofthe students stated that lack of data, minimal client access, or confusing information aboutdeliverable expectations was the biggest issue. One student voiced his/her frustration in thefollowing comment: “The least enjoying part of the project is that the data from questions andanswers could have been made available more efficiently. This is really in regards to whatquestions were answered and the time frame the information was available for the groups.”Project turn-in concerns like deadline expectations received the second most student comments(26.3%). One student specifically addressed the time needed to complete the project; “I didn'tenjoy not having the time to put the effort that we needed to truly give our
Outcomes Following Industrial Attachment in KenyaIntroductionUnemployment is a major concern for the youth of Kenya. One important part of the solution tothis issue is the implementation of technical education programs such as the one in place atTumaini Innovation Center in Eldoret, Kenya. These programs provide the skills necessary forstudents to enter the workforce (Ohagwu et al., 2022) and give students relevant experiencethrough industrial attachment programs in which students are paired with employers and workprior to receiving their certification. However, technical education programs throughout theworld can run into several challenges such as a mismatch between student skills and marketdemands (Sang et al
hand-pump repair, and • Model 3: An REU site on water resources in developing countries (supported by the NSF Research Experience for Undergraduates program) involving students from multiple universities who train at Notre Dame and then join faculty from Notre Dame, the University of New Mexico (Dr. Michael Campana), or the University of Nevada, Reno (Dr. Scott Tyler) for research experiences outside the United States. The classroom experience involves students from a variety of disciplines who study thetechnological, economic, political and social aspects of developing water resource projects (ofvarious magnitudes) in developing countries. The course involves student projects completed incooperation with contacts in developing
Engineering from Bahonar University in Iran.Dr. Saira Anwar, Texas A&M University Saira Anwar is an Assistant Professor at the Department of Multidisciplinary Engineering, Texas A and M University, College Station. She received her Ph.D. in Engineering Education from the School of Engineering Education, Purdue University, USA. The Department of Energy, National Science Foundation, and industry sponsors fund her research. Her research potential and the implication of her work are recognized through national and international awards, including the 2023 NSTA/NARST Research Worth Reading award for her publication in the Journal of Research in Science Teaching, 2023 New Faculty Fellow award by IEEE ASEE Frontiers in
ASEE Annual Conference 3. Increasing the number of students in the social work program may have practical benefits for the university and the department – Some practical benefits of encouraging nontechnical skills include a greater understanding of the influence of science and technology, ability to respond critically to sociotechnical issues, and understanding the greater interactions between science, technology, and ethics.In further support of point number 2 - that minor programs can attract greater diversity to a field- other scholars have also noted that minors can be a powerful way to create spaces whereminoritized students can feel like their concerns and experiences are valued.12 Goodstein andGyant add that this
discussion of how our plan provides us with critical and timely information aboutwhat, and how, our physics students are learning will be presented. While assessment is oftennot viewed as a favorite item on the “to do” list of any faculty member or administrator, we havefound enormous value in the continued attention we place on our annual assessment efforts. Wehope that by sharing the evolution of our curricular efforts, others will find useful ideas andstrategies that could be adapted to an existing assessment plan; or, that could be used to helpbuild the foundation for a new one. The overarching goal of this paper is to share successfultechniques that we’ve used to assess student learning. We hope these techniques will be usefulfor others as