assignments consisted of a written report and alsoa creative presentation that focused on the use of chemical reactors in one of four differentindustries/sectors: food generation, pulp / paper-based products production, energy andenvironmental control, or pharmaceutical/therapeutics production. A quantitative rubric wasdeveloped and used to score the written reports, and student peer review was used to evaluatethe creative presentations. The quantitative assessment data from the written reports showthat the majority of the student teams met or exceeded expectations. Suggestions for how theproject may be expanded in the future are provided.Introduction Arizona State University instituted a program in 2019 to infuse entrepreneurialmindset (EM
making and technical writing, three technology-policy electives, and a three course capstone series. The first course in the series providesstudents with highly scaffolded assignments to practice skills learned in both our program andtheir technical programs while also learning project management skills. The last two courses arethe EPP Projects course where students work to structure and solve a large complex problemwith multiple dimensions in an interdisciplinary group. The EPP Projects course is taken inaddition to the design requirement course of the traditional engineering program. All EPPstudents take the EPP Projects course twice, typically once in the Junior year and once in theSenior year, or twice during Senior year. Each EPP Project is
question; no student's question was professor-rated above a 4.The common problem seen was an inability to write correct and precise English.Keywords: Crowdsourcing, rating, authoring, student-made content, web-native content,interactive content, programming, computer science, digital learning, digitally-enhancededucation, online learning.IntroductionTextbooks are giving way to online interactive material[15][20][23]. Interactive materialbenefits student learning with immediate feedback and higher levels of engagement[8],which may be a better match to a modern student's learning style.However, interactive material is hard to make, whether authoring a new textbook orconverting an existing textbook. One possibility is to have students help create
learning occurs, such as peer to peer discussions, students are still sitting.Learning science has shown that the brain and physical activity are connected. An active body canlead to an active mind. Significant work has been done on how to create intentional movement inelementary and middle school classrooms, but it is limited in higher education settings.This paper discusses how an “escape room” learning activity has been implemented and assessedin two small-sized engineering programs, York College of Pennsylvania and Iron RangeEngineering. Escape rooms are a physical adventure game to challenge players, where they mustsolve a series of puzzles to escape the room in a given time limit. In this activity, using movementto review content in
Cross6, learning communities are more thanjust another curricular fad. Why are educators so impressed with learning communities? Crossargues the reasons fit into three categories: “philosophical (because learning communities fit intoa changing philosophy of knowledge), research based (because learning communities fit withwhat research tells us about learning), and pragmatic (because learning communities work)”(original italics, p. 4).In this paper we will describe the Agricultural and Biosystems Engineering (ABE) first-yearlearning community at Iowa State University, a learning community that includes linked courses,a living community option, peer mentors and tutors, faculty-student dinners, and service learningopportunities. We have found that
promote a sense of community where learning (which includes admissions of“not knowing”) is welcomed, and therefore are not aligned with HPL framework four lenses1, 2.Tablet PCsIn an increasingly collaborative, mobile and globally inter-connected environment, UDLAPenvisions ubiquitous computing as a natural, empowering component of every teaching, learning,and research activity. UDLAP is committed not only to adopting and adapting technologies to allits scholarly endeavors, but also to playing an active role in their development4, 7. Tablet PCscombine a standard notebook computer with a digitizing screen and a pen-like stylus device toproduce a computer that allows ease of input of natural writing and drawing. Pedagogically,applications for the
, most students Page 22.1314.9find they no longer outperform most of their peers. All students were more confident in theirwriting and speaking preparation at the end of the first year. It may be that through the course oftheir first year, they found their writing and speaking abilities were on the same level as theirfellow engineering freshmen.Table 7: Comparisons of confidence in preparation at end of first year by quartiles based onPSVT:R score. p’s reported inside table are statistical significance of difference between aresponse and the response from the group that scored 21 and below on the PSVT:R. PSVT:R score 28
bending configurations.On the first day of class, the students form teams of 5 to 6 students per team. Each team picks itschoice of a vehicle, machine or system from which they will pick all mechanical components foranalysis and design in the course. Each team is required to carry out four mechanical componentprojects and write project reports and make presentations. Each project covers a time period ofthree to four weeks. For example, fasteners and springs projects are projects that require threeweeks; bearings and gears projects require four weeks. Each team makes a presentation on eachof the four projects during the semester. The presentations are judged by engineers fromindustry.The reports and presentations are required to cover analysis and
capital among three cohorts of first-year engineering students.AbstractThe COVID-19 pandemic disrupted the education of students of all ages and challenged teachersand academic support services to make major adaptations to continue to support student learningwhile also limiting the spread of the virus. Our team received an NSF grant in the Fall of 2018 tobroaden participation in engineering by recruiting and retaining students who have beenhistorically marginalized in engineering. We focused our research on first-year students whoparticipated in pathway programs which provided peer and formal mentoring, success coaching,shared classes, and social activities, that would provide a sense of community and sharedengineering identity for participants
interactions with peers and university? ≠ What strategies do mixed-race engineering students reporting Native American status use to adapt to, resist or negotiate the boundaries around identity based social spaces? ≠ How effective are student organizations and university programs in providing all Native American students small social enclaves of other students with similar backgrounds and interests? Page 14.679.2 ≠ How does finding community contribute to mixed-race Native American engineering students’ successful completion of a degree?The insights gained from this paper can be used to
lessons and submitting two ungradedassignments that included a one-page career goal paper and a one-page resume. The class wastaught in a large classroom space to sections of 75-90 students and was presented in a traditionallecture style format. This course was designed to introduce graduate engineering students to theUniversity’s Cooperative Education Program and focused on developing skills in managingworkplace expectations and requirements, resume construction, interviewing, and professionalethics. Employer panels were sometimes used to explore employment opportunities within thefields of engineering. Peer-based discussion panels allowed students to share stories about howthey found their job and their experience as an employee. The stated
Paper ID #39970Metaphor: The Key to Communicating with Both Specialists and the PublicAmanda Dawn Hilliard, The Johns Hopkins University Amanda Hilliard received her MA in Teaching English as a Second or Foreign Language and PhD in Applied Linguistics from the University of Birmingham in the UK. She has taught writing and communi- cation courses abroad in South Korea, Vietnam, and Ecuador, and in the U.S. in Georgia, Texas, Arizona, and Maryland. She currently teaches in the Center for Leadership Education at the Johns Hopkins Uni- versity. ©American Society for Engineering Education, 2023
and to introduce the next activity. The activitiesin the cross-curricular program included: a) learning about portfolios in general, b) evaluatingother portfolios, c) writing a professional statement, d) finding artifacts, e) deciding whichartifacts to include in the portfolio, f) writing annotations for the artifacts, g) getting peer andprofessional feedback, and h) presenting the portfolio to others. The interaction amongst peersand the teaching faculty member provided ample opportunity to deeply explore the issuesstudents faced, the component activities, and how those issues and activities interacted during theportfolio creation.Six students participated in this study. These students included two seniors on the verge ofgraduating, two
AC 2007-274: PROJECT-DIRECTED MATHEMATICSJohn Schmeelk, Virginia Commonwealth University Dr. John Schmeelk is a Professor of mathematics at Virginia Commonwealth University in Richmond, Virginia, where he is engaged in applied mathematical research in distribution theory. He is currently teaching mathematics at VCUQatar campus in Doha, Qatar. He received his PhD from George Washington University in Washington, D.C. He has been an invited speaker to conferences in Australia, China, Brazil, Bulgaria, India and many other countries.Jean Hodges, Virginia Commonwealth University Qatar Since Fall 2004, Jean Hodges has been an Assistant Professor of Writing and Writing Center Instructor at Virginia
have long struggled to create inclusive and equitable learningenvironments, and many engineering administrators remain skeptical about the benefits of suchinitiatives [1]. Thus, most of such work has been spearheaded by administrative groups such asdepartments of Diversity and Inclusion and Gender Studies who typically seek to promote equitythrough changes to broader institutional culture [2-4]. Student classroom experiences, however,remain relatively neglected and thus such efforts rarely inspire STEM faculty buy-in.Consequently, students from historically underrepresented groups, especially students perceivedto have lower social capital than their peers, may still face disparities in their classroomexperiences, disparities that may include
. The learning communities mitigated risk for faculty.Across all of our programs, there were signs that learning community participation reduced the Page 26.1128.12risks that faculty associate with instructional change. Peer discussion and feedback helped earlyadopters of change to feel more secure; as one member of the University of WashingtonEngineering Writing Brown Bag remarked, “It was helpful just hearing some confirmation thatmy ideas for teaching weren’t crazy”. And the exchange of teaching narratives and resourcesamong the community helped all community members to see instructional change as worthwhile,and within faculty’s
finalized list of competencies is shown in Table 2 These competencies werebroadly similar to our initial list shown in Table 1, but combined some of the competenciestogether and reflects specific emphases in graduate engineering education.Behaviorally Anchored Rating ScaleWhile the competency model described above is the core structure of the assessment protocol,there is a distinct need to create a framework for students, advisors, and peers to provide morespecific, behavioral feedback. Behaviorally anchored rating scales (BARS) were adopted in thecurrent study to rate performance. Typically, BARS are presented as a scale with several pointsand the rater chooses a level to indicate an individual’s current performance. One of the criticalaspects of
Paper ID #26150How to Approach Learning: Engineering Students’ Perceptions of Project-based and Problem-based Learning at an International Branch Campus inthe Middle EastMiss Alaa Abdalla, Texas A&M University at Qatar Alaa Abdalla is a mechanical engineering student, class of 2019, at Texas A&M University at Qatar. Besides engineering she enjoys learning theoretical Math and Physics concepts. She pursued a minor in mathematics alongside her bachelor’s degree. She is also actively involved in writing and reading initiatives on campus. Currently, she is working on her undergraduate research thesis that looks at the
informationgathered about each participant to create a backdrop and contextual setting to complement theinterview data, 2) performing a narrative analysis method of the interview data and open codingthe emergent themes, and 3) constructing narrative stories that present themes and results. Anoverview of the study’s data analysis and management plan and the results of each step aresummarized in Table 3. The following paragraphs detail the steps in the data analysis process.Table 3. Summary of Data Analysis and Management Plan Data Analysis Step Action Result 1. Create a contextual Write backdrop summaries for each One backdrop summary backdrop summary
address problems or opportunities faced by organizationsor individuals; to assist in the creation of an effective project plan; to analyze the impact ofinformation technology on individuals, organizations and society, including ethical, legal andpolicy issues; to demonstrate independent critical thinking and problem solving skills; tocollaborate in teams to accomplish a common goal by integrating personal initiative and groupcooperation; and to communicate effectively and efficiently with clients, users and peers bothverbally and in writing.13Course Content The goals for Management in Information Technology are largely derived from thestandards articulated by ABET and SIGITE. These six central goals are the basis for the course’skey themes
student and their peers (independence). The emphasis in writing is on the process or development of the piece, whereby the student controls the various versions, not the instructor. 4. Use the tools – In languages the best way to learn is to continue to use it. Several tools are taught in systems engineering classes. The best way to learn and retain them is to use them. Again, the instructor is there pointing the way, and the student has to gather up the courage to go places theretofore unknown. They learn how to think about the engineering tools not from memorized rules, but through their use.ArtsThere are many activities that are used with art appreciation/visual art classes to engage studentsin active and
that students are self-guided through partof the instruction. Lastly, class time is organized in such a way that the instructor spends overhalf of the time working directly with individuals and small groups. This gives the students anopportunity to have explanations individually catered to their level of understanding, as well asplenty of time for peer and instructor assistance with debugging.The course initially ran under the new model in Spring, 2013. The course ran for 15 weeks andhad 37 students split into two different sections. There were no teaching assistants. Feedbackfrom the students indicated that they benefitted greatly from the course design. Improvementsfor the second iteration of the new course model, which will occur in Spring
degree to be five instead of four years (or 4.5 which is the actual average time to degreein our college).Various elements of the Engineering GoldShirt Program are designed to build community, igniteexcitement about engineering, and prepare students to succeed in engineering. GoldShirt studentsparticipate in a two-week Summer Bridge program to orient them to the challenges of college,building community among the students, and developing leadership skills through a wide rangeof activities. During their initial GoldShirt year, students learn in small, cohort-based classes orco-seminars in mathematics, introductory physics, writing and critical thinking. GoldShirtstudents are placed into appropriate mathematics classes based on an in-depth
research interests include STEM+C education, specifically artificial intelligence literacy, computational thinking, and engineering.Junaid Qadir, Qatar University Junaid Qadir is a Professor of Computer Engineering at Qatar University, Doha, Qatar, where he leads the IHSAN Research Lab. His research interests include computer systems, networking, machine learning applications, and ICT for development (ICT4D). With over 150 peer-reviewed publications in leading journals such as IEEE Communication Magazine and IEEE Transactions on Mobile Computing, he has received prestigious teaching awards and research grants from organizations like Facebook Research and Qatar National Research Fund. Junaid Qadir is also an ACM
Paper ID #19042Energy Science and Engineering Graduate Education at Tokyo TechProf. Jeffrey Scott Cross, Tokyo Institute of Technology Jeffrey S. Cross received a Ph.D. in chemical engineering from Iowa State University in 1992. He has worked in Japan at Fujitsu Lab Ltd., National Institute for Inorganics Materials, and at Tokyo Tech for over 20 years and is fluent in Japanese. Jeffrey is Prof. in the School of Environment and Society, Dept. of Transdisciplinarity Science and Engineering and graduate coordinate for the Energy Science and Engineering Major. He teaches online courses on academic writing and on education
learning. 5 4.75 I can apply what I learned in this course beyond the classroom. 4.25 4.25 I can apply what I learned in this course to my job or career goals. 5 4.5 Student Perception of Learning Mean 4.79 4.47 Figure 4: Student Assessment on LearningThe end-of-course survey reveals the Trifecta of Engagement framework greatly facilitatedstudents' engagement with course contents, peers and instructor. Students took a more active partin their learning process. They gained significant knowledge about the subject and their ability tothink critically, to do research, to write and speak has
scale items from an end-of-semester course evaluationsurvey, and (3) observations conducted from two assessment specialist, serving as externalevaluators.At the end of the semester, students (N=64) were administered a project evaluationquestionnaire, which included several open-ended questions about the project and provided ussome useful insights about students’ perceptions, learning outcomes, and satisfaction with thisreal-world design experience.In the project evaluation questionnaire, students were asked: “In your own words, how wouldyou describe this project to your parents or peers?” Overall, in reviewing students’ responses, itwas evident that students highly valued the real-world nature of the project as they described thevalue of having
interact with other students around their table and solvedthe problems collectively and this greatly facilitated their peer-to-peer learning process. Inaddition to this they interacted with the instructor and TAs on an individual basis. Thecollaborative peer-to-peer communication and individual interactions with the instructors and theTAs greatly enhanced their learning process. The instructor gave a 10 min lecture and discussionat the end of the class discussing the solutions to problems solved during class time. Thesolutions to these problems were posted on the course webpage after each class. Also, to measurestudents’ knowledge and learning abilities, other assessments besides the pre-quiz and class-quizsuch as research paper writing and lab
faculty mentorship and career outcomes, includingnumber of peer-reviewed articles, number of conference presentations, salary, and jobsatisfaction? Previous studies on mentoring faculty have largely focused on medical fields (Levinsonet al., 1991; Palepu et al., 1998; Reid et al., 2012). Our study extends the literature by focusingon faculty working across a wider range of fields, including engineering, science, health, andsocial sciences, as well as across different academic institutions, by analyzing nationallyrepresentative data from the National Science Foundation Early Career Doctorates Survey(ECDS). Research findings demonstrate whether the likelihood of having a formal/informalmentor differs across faculty subgroups, and identify
undergraduate students specifically. Previous work on peer mentorship focuseson how mentoring exposes and prepares undergraduates for graduate education, and wecontribute to this discussion by analyzing specific traits and strategies that make peer mentoringeffective towards cultivating students’ interest in graduate school. Our study explores successfactors in peer mentoring of students from underrepresented groups in STEM.We developed a mentoring program between Hispanic graduate and Hispanic undergraduatestudents to identify aspects of peer mentoring that may increase Hispanic representation inadvanced STEM degree programs. We aim to address these questions: 1) How do interactionsbetween mentoring pairs affect access to professional resources? 2