their degrees, etc. Thesevisualizations could be very helpful in describing students’ paths through programs. Secondly,colleges considering changes to admissions and/or transfer processes into and within the collegecould use the visualizations to get an accurate “as-is” view of student paths. This could be helpful indeveloping new processes as well as benchmarking for evaluating the performance of any changes.Specific research questions (RQs) of this project were: RQ1: Are there differences in entrance and/or exit patterns of undergraduate engineering programs that can be visualized with Sankey diagrams? RQ2: Do patterns in student flows suggest where in a particular program, or on which students, resources aimed at improving retention
background is in propulsion systems and combustion. Dr. Husanu has more than a decade of industrial experience in aerospace engineering that encompasses extensive experimental investigations related to energy projects such as development of a novel method of shale natural gas extraction using repurposed aircraft engines powered on natural gas. She also has extended experience in curriculum development in her area of expertise. As chair of the Engineering Technology Curriculum Committee, she is actively engaged in aligning the curricular changes and SLO to the industry driven student competencies. Her main current research interest is in engineering pedagogy, focusing on development of integrated mechanical engineering
in the context of higher education institutions in Latin America and theCaribbean, which are directly related to some advances in compliance with SustainableDevelopment Goals (SDG) number 4 on quality education of the countries of this region inthe SDG Index. The obtained data allow us to understand the existence of educational needsof university professors from Latin America and the Caribbean, who wanted to learn not onlyabout STEM and migration but also about the intersectionality of DEI with other minorities,such as black communities, natives, Hispanics in the United States, and LGBTIQ+.IntroductionSignificant efforts have been made to promote gender equality in higher education. However,addressing broader projects on Diversity, Equity
beach.Ms. Connie Syharat, University of Connecticut Constance M. Syharat is a Ph.D. student and Research Assistant at the University of Connecticut as a part of two neurodiversity-centered NSF-funded projects, Revolutionizing Engineering Departments (NSF:RED) ”Beyond Accommodation: Leveraging Neurodiversity for Engineering Innovation” and In- novations in Graduate Education (NSF:IGE) Encouraging the Participation of Neurodiverse Students in STEM Graduate Programs to Radically Enhance the Creativity of the Professional Workforce”. In her time at the University of Connecticut she has also has served as Program Assistant for an summer pro- gram in engineering for middle school students with ADHD. Previously, she spent
Paper ID #38522A Comparative Literature Review: Comparing Approaches to TeamworkAssessment in Engineering Education in the US and ChinaMiss Yi Cao, Virginia Tech CAO Yi is a Second-year PhD student at the Department of engineering education in Virginia Tech with the guidance of Dr. Jennifer Case. She has been working as research assistant at the International Center for Higher Education Innovation(ICHEI), a UNESCO Category 2 Center for two years. She did several researches related to project-based learning, teamwork assessment and comparative education research.Dr. Qin Zhu, Virginia Tech Dr. Qin Zhu is Associate Professor
engineering is an interdisciplinary major that offers lectures, team projects, andlaboratory tasks. One of the milestone courses, Biothermodynamics, which encompassesformulas, equations, and physical applications of biology systems, is traditionally taughtpassively through lecturing and note-taking. In the past two decades, active learning methodshave been studied and promoted vastly in engineering education, including adding group workand peer interaction into the teaching and learning of such courses to increase studentengagement [1-4]. This work-in-progress study further explores the ability to create a“neighborhood” in a sophomore-level Biothermodynamics classroom. The present study aims todesign a new learning environment that maximizes students
(under 1%),only changing from 117 doctorate degree recipients in 2010 to 120 in 2019 [3].NASA Historical Efforts with Tribal Colleges and UniversitiesAccording to Maynard [3], NASA has supported an effort called “Tribal Colleges andUniversities Project (TCUP)” since 2010, as one of various STEM education and outreach grantprograms specifically targeted to support Tribal Colleges and Universities-related initiatives.“The overall goal of the project is to expand opportunities for the nation’s STEM workforcethrough capacity building, infrastructure development, research and engineering experience,outreach, and information exchange” [4]. In 2008, Congress directed NASA to establish a projectthat was focused on climate change education. The Global
subjects, and effectivelycommunicating results to academic, industry, policy, and other audiences.This paper reports on a research project, supported by an NSF EAGER award, that exploresinnovative ethnographic research methods for studying engineering practice. Here we primarilyfocus on the experiences of three students who were directly involved in our data collectionefforts. One undergraduate student engaged with one field site (a utility company, “UtilityCo”)through job shadowing and informal interviewing, while two graduate students collected data asparticipant observers at a second site (a small software start-up, “SoftCo”). In this paper, ourprimary research objective is to examine how these three students experienced their roles
students in 11both the 2018 (n = 10) and 2022 (n = 13) versions of the course. Six assignments comprised thetotal coursework for the EGR 340 course: (1) Homework assignments, (2) the Borrow/Fillsimulation project, (3) The Atterberg project, (4) Gravity Dam project, (5) a midterm, and (6) acourse final assessment. The projects–Borrow/Fill, Atterberg, and Gravity Dam–are detailedabove (see the section titled Development & Delivery of EGR340). All six assignments wereequally weighted in both 2018 and 2022. All quantitative analyses were carried out using Rsoftware (R Core Team 2020).Qualitative analysis followed a process of grounded analysis of themes
byexcluding cattle and establishing riparian buffers along streams and rivers. This requires establish-ment of mechanical watering systems for the cattle. In this senior capstone project, we developeda monitoring alert system that notifies the farmer in the event of a watering system failure. Werecognized from the outset of the project the importance and high value of having to actively andprofessionally interact with our client. We have also realized the significant opportunity and riskwe were presented with when the client offered us his farm as a platform to exercise our ideas andtest our system prototypes.To meet our client’s requirements, two senior students, under the guidance of their senior cap-stone project advisor, designed a system that
allow 3-D visualization, to perform calculations in rudimentarythermodynamic processes (e.g., isobaric, isothermal, and isentropic) for water, R134a and otherrefrigerants. The project began in Jan 2021 and concluded in Dec 2022, supporting participationsof several undergrad/graduate students and class evaluation. This Toolkit is essentially a desktop calculator app with convenient programming featureswith a goal of replacing the interpolation that students generally do in standard thermodynamicscourses in mechanical, chemical and biomedical engineering. The tabulated discrete data in thetextbook and/or published by NIST are converted into a database, and the intermediate values arecomputed by built-in linear interpolation consistent with
faculty to fit existing equipment using simple fabrication and 3D printing. Asnecessary, sensors and materials were purchased to create additional experiments. In theacademic year leading up to the fall roll out of the course, two test stands (Pendulum Test Stand,Variable Speed Single-Plane Balancer) were designed by students as senior design projects. Fordata acquisition and processing, low-cost, National Instruments USB data acquisition cards wereused together with MATLAB data processing applications. Prior to the initial implementation ofthe course, faculty refined the basic equipment to meet the needs of each experiment. During theterm modifications were made based on student response and effectiveness of thedemonstrations.Goals of Laboratory
, software packages, instrumentation and project organization that will berequired in upper-level classes. The motivation for developing a freshman course came from asense of declining student interest in the electronics field; the initial objectives we had for thecourse were to a) engage with freshmen entering our program who faculty would otherwise notcome into contact with until the sophomore/junior years, b) generate interest in and motivationfor the electronics field through lab exercises and projects, as well as to acquaint students withthe topics noted above.Although we did not evaluate our objectives for increasing interest in the field, there seemed tobe another problematic aspect of students entering the program. In the past number of
demonstrates a possibleapplication of small scale hydroelectric generators.This design provides many applications in the realm of engineering education, as it provides anintroductory-level design project and solution with a design process that can be taught and appliedin a wide level of introductory engineering education. This project exposed us to the fundamentalsof problem solving, research, design, and construction and serves as a basis for further engineeringresearch and development.Introduction/BackgroundSince their introduction and spread during the Industrial Revolution, fossil fuels such as coal andoil have accounted for the majority of society’s power generation. Although concerns about thesustainability of oil, gas, and coal reserves have
goals and understandings. A healthy space-in-between lays the foundation for effectiveexperiences that inclusively value multiple perspectives while fostering group and individualagency. This paper shares insights from undergraduate student experiences in a multi-disciplinary design project and the influences an optimal space-in-between has on innovativedesign education.Our focused analysis highlights initial findings from an eight-week, intensely iterative, cross-disciplinary design experience (completed in Spring 2021) of a three-year project. The project’saim is to create and commercialize Lunar Life: Designation Mars, an interactive “Moon toMars” traveling exhibit designed for children’s museums and smaller science centers. Duringthis
summarize our progress and accomplishments in these three areas:(1) the identification of curriculum-specific indicators of overpersistence (which refers to whena student persists in a major yet does not progress toward attaining a degree for that major)conducted through Chi-Square Automatic Interaction Detector (CHAID) analysis; (2)development and validation of the Multidimensional Inventory of Decision-Making Competency(MIDC); and (3) the design process of the Academic Dashboard for students with functionalitiessuch as tracking their study habits, predicting exam grades and developing their meta-cognitionattributes.Project OverviewThe main purpose of this project is to help students learn to make adaptive decisions to besuccessful in their
Introduction to Engineering and Design. He is also the Director of the Vertically Integrated Projects Program at NYU. His Vertically Integrated Projects course is on the future of engineering education. His primary focus is developing curriculum, mentoring students, and engineering education research, particularly for project-based curriculum, first-year engineering, and student success. He is active in the American Society for Engineering Education and is the NYU ASEE Campus Representative. He serves on the First-Year Programs Division Executive Board as well as the Webmaster for the ASEE First-Year Programs Division and the First-Year Engineering Experience Conference.Victoria Bill (MakerSpace Director) Victoria Bill is the
team’s conception of the nature of a design problem for a givenproject will have a marked effect on what criteria and constraints are identified, what ideas areexplored, what models or prototypes are tested, and ultimately what artifact emerges from theirprocess. For engineering design instructors, deeply capturing students' conceptions of theirdesign problem could prove to be a useful reflection tool for design projects, particularlycapstone design. While student generated problem statements and enumeration of criteria andconstraints begin to reveal students' design problem conceptions, these formats may not allowthe full details of students' understanding of the problem to emerge. In this work we propose toadapt an approach used in policy
,understanding other’s perspectives, and matching other’s emotions. Hess et al. [3] offerednaming conventions for each of Batson’s empathy concepts, including: (1) empathic accuracy ortheory of mind; (2) motor mimicry; (3) emotional contagion; (4) projection: imagine-self withinanother’s position; (5) perspective-taking – imagine other; (6) perspective-taking; imagine-self-as-if-self was the other; (7) empathic distress; and (8) empathic concern or sympathy.While complex, Batson’s [5] list is not comprehensive. For example, Cuff et al. [6] identified 43distinct definitions of empathy. They suggested that definitions of empathy vary by eight themes,including whether empathy is cognitive or affective, a congruent or incongruent feeling, a trait ora state
developing computational representation and reasoning support for managing complex system design through the use of Model Based approaches. The goal of Dr. Morkos’ manufacturing research is to fundamentally reframe our understanding and utilization of product and process representations and computational reasoning capabilities to support the development of models which help engineers and project planners intelligently make informed decisions. On the engineering education front, Dr. Morkos’ research explores means to improve persistence and diversity in engineering education by leveraging students’ design experiences. Dr. Morkos’ research is supported by federal [National Science Foundation (NSF), Office of Naval Research (ONR
Powered by www.slayte.com The Design of Interactive Video Modules using Asset- based Participatory Design Thinking to Increase Student Engagement in EngineeringAbstractThis paper presents the methodology and findings of a collaborative research project that aims atexploring effective strategies to make instructional videos more relevant and engaging toengineering students. During the research process, two pilot interactive videos were developedusing participatory design thinking (PDT), where students with diverse cultural backgroundsserved as co-designers to closely work with the faculty in each of the design stages, namelyempathize, define, ideate, prototype, and test. The pilot video was
manufacturing, Quality Engineer / QA Specialist - examining medical products after/duringmanufacturing process, Biomedical Engineering Researcher - research on medical solutions - Researchscientist/Research engineer, Physician - this could be a "Pre-Med" program leading to medical school.BMET Market AnalysisThe driving forces to create a Biomedical Engineering Technology (BMET) concentration are the following:• Program Health: Positively trending 3-year enrollment trends (+15.5%) with most students migrating into theprogram as new to the institution.• Workforce Demand: Both state and national data projects the target occupations related to the biomedicalconcentration within the Engineering Technology program to increase; ten-year projections 2022 2032
. Peter Knox is a postdoctoral associate with Project CORE at the University of Vermont. His areas of interest and research include family engagement, social/familial capital, public education/school policy, school-community partnerships, and community-based organization involvement in schools, as well as equity/social justice in education. Originally from Montana, he has a strong interest in and experience working with and in rural, under-resourced communities and with policy implementation and evaluation methods using quantitative, qualitative, and mixed-methods data collection and analysis.Ms. Sawsan Werfelli, State University of New York at Binghamton Sawsan Werfelli received her undergraduate degree in English from
Paper ID #39660Board 360: Practicing Facilitating STEM Discussions: A Study on the Useof a Digital Simulation Tool for TeachersG. R. Marvez, Tufts University Marvez is a PhD student in the joint STEM Education and Cognitive Sciences program at Tufts University interested in games, language, and controversial discussions. In past research projects, they have worked on the development of virtual simulations for teachers to practice leading controversial discussions. They are interested in ways to prepare teachers to facilitate controversial debates with students in STEM class- rooms, such as through simulations and games
problem solving, based on the learning process, emphasizes thecross-integration of multiple technologies, and takes cultivating talents withcomprehensive scientific literacy and creative, practical ability as its fundamentalgoal[6]. It can be seen that STEM education is not simply an interdisciplinary courseformed by combining disciplines in form, nor is it just project-based learning thatfocuses on practical and hands-on ability[7].STEM education is centred on realproblems in real situations[8], and it flexibly uses the knowledge of various disciplinesof inquiry learning, has the characteristics of interdisciplinary, real situation andcooperation and communication[9].2.2 History of STEM education Historically, STEM education originated in
theclassroom to increase productivity and reduce defects [11, 27]. In pair programming, twostudents share a single screen (virtually or in person) while working on a project synchronously.One student uses the keyboard to write the code (the driver), while another observes, offeringfeedback, and suggesting alternate courses of action (the navigator). Pair programming has beenhighlighted in the literature as an active learning technique that benefits computer science (CS)students in several ways: it allows “continuous review" where defects are corrected as they arise,it increases confidence in the final product, and it is “40-50% faster than programming alone"[20]. If done properly, students experience an improvement in “programming assignment grades
with upgrades to theroom security and climate control. A glovebox using argon as the internal inert environmentalgas, with ppm O2 and H2O monitoring capabilities was installed. Coin-cell electrode punchingdies, a precision balance, cell assembly tools, micro-pipetting, and cell crimping capabilitieswere set up for use in the lab. A multi-channel cell cycling station was installed in the earlyspring of 2022 and full assembly and cycle-testing operations began in the late spring of 2022. Four LTU engineering students (two undergraduate students, and two graduate students)were employed as research technicians for this project. Two LTU faculty members alsosupported this work. Li-ion materials handling, cell assembly, lab techniques, and
- ogy receiving degrees in Construction Technology, Architectural Technology, and a Master’s in Facility Management. His field experience includes residential and light commercial construction. He has been an architectural designer as well as superintendent for single and multi-family residential construction projects. Mr. Ray worked as an engineering design manager in the Building Components Manufacturing Industry for over fifteen years.Brenda Morrow, Indiana University - Purdue University, Indianapolis Brenda Morrow is a Lecturer of Interior Design in the School of Engineering and Technology at Indiana University-Purdue University Indianapolis. She is NCIDQ certified and a Registered Interior Designer (RID) in
different orientations werealso attached to the base. This base is also indexed to the base of a table-top milling machine forintegrated exercises.The laboratory assignments are selected to show both the simplicity of concept and thecomplexity of implementing automation projects. A brief description of the assignments follows.• Introductory Assignment: Students see various video tapes such as the Society of Manufacturing Engineers (SME) “Industrial Robotics” illustrating different types of robots and equipment used in automation applications.• Resource Identification Assignment: Students search the Internet and report on vendors that sell automation products. Each student is assigned an automation component such as various types of
board, student, alumni and employer inputs, the interface with universityadministration, national trends in engineering education, and communications and teamwork arediscussed, and the results of this faculty team project are presented.The lessons learned and changes made in the assessment and measurement process, and theresulting modifications of the curriculum, should assist in insuring long-term continuous Proceedings of the 2004 ASEE Gulf-Southwest Annual Conference 1 Texas Tech University Copyright © 2004, American Society for Engineering Educationimprovement of the program in order to continue providing competent engineering graduates fortoday’s