. Dor’s research areas revolve around the nexus of food, energy and wa- ter systems and how these relate to various socio-economic dimensions. His research focuses on the regional impact of cities and sustainability driven financial and political decision making. On the local level, his research also explores the influence of community energy projects, and how to overcome the challenges and barriers facing wide-scale community-centered energy independence.Dor is also passion- ate about improving undergraduate STEM education especially as it pertains to curriculum enhancements in engineering disciplines.Prof. Saniya LeBlanc, George Washington University Dr. Saniya LeBlanc is an associate professor in the Department of
-Packard Inkjet. Henderson was featured in the book—Engineers Write! Thoughts on Writing from Contemporary Literary Engineers by Tom Moran (IEEE Press 2010)—as one of twelve ”literary engineers” writing and publishing creative works in the United States. Henderson’s current project is a textbook pioneering a new method for teaching engineers workplace writing skills through the lens of math. Page 24.64.1 c American Society for Engineering Education, 2014 A Math-Based System to Improve Engineering Writing OutcomesIntroductionThis paper
Session 1510 STEPing into the Classroom: An Alternative Capstone Experience Karen C. Davis, Megan L. Perkey, Nicholas B. Harth, Nathan Dees Electrical & Computer Engineering and Computer Science Department University of Cincinnati Cincinnati, OH 45221-0030This paper describes the experiences of three Electrical Engineering seniors who chose analternative to a traditional capstone design project; they applied their undergraduateengineering education in high school math and science classrooms as NSF STEPFellows. Project STEP: Science and Technology Enhancement Program is sponsored bythe
changing faculty) is being explored in an NSF-supported project “Changing Faculty throughLearning Communities.” The project employs four mechanisms to promote change in facultymembers: speakers, workshops, faculty learning communities (FLC), and matching grants tosupport women students. Specifically, the project aims to catalyze changes in the way facultythink about four concepts that are tightly linked to the concept of gender diversity: 1) mentalmodels, 2) development and invitation, 3) personal vision and commitment, and 4) the culture ofengineering and science. The following paper describes change mechanisms, highlighting FLC,and four changes that learning community participants report. Participants a) shifted fromsearching for external
engineering and management, road safety, public transportation, pavement design, and engineering education. He has more than 35 years of professional and academic experiences.Dr. Abdelhaleem Khader, An-Najah National University Dr. Khader is the head of the civil and architectural department at ANNU. He is an associate professor in Environmental Engineering with 10-year experience in graduate and postgraduate education, mainly: community-based learning, project-based learning, distant learning. and competency-based learning. He participated in many virtual exchange projects, including one between ANNU and two US based institutions (Clemson University and Bucknell University). Dr. Khader is a Fulbright Alumni and a IIE
including the humanities, the social sciences, the professionalschools (i.e., medicine, law, business), and the engineering. All this teaching effort is supportedby sustainability oriented research projects and specific functional structures like the MascaroCenter for Sustainability Innovation, the Office of Sustainability, the Student Office ofSustainability and many more at the various schools, with leading officers at the Vice Provostlevel.Our Department of Chemical and Petroleum Engineering has been a main actor in thisdevelopment, mainly from sustainability-focused research (i.e., process intensification, carboncapture).However, the implementation has been slower at the teaching level. A few instructorshave been introducing sustainability
, Microcomputer Principles, Computer Architecture, Compilers,Embedded Systems) as students progress through a Computer Engineering curriculum. Thesystem consists of a fully pipelined, MIPS-like processor with surrounding support hardware.The support hardware includes a programmable interrupt controller, VGA controller andframebuffer, UART, memory controller, simple cache, timer, and GPIO hardware. Allcomponents are written in Verilog HDL, are open-source, and are freely available. To supportthe hardware components, a unified assembler, cycle accurate simulator, and board interfacesoftware package is included. The software is written in Java, works on Linux, Windows, andMac OS, is open-source, and is freely available from the project website[1].With only
Paper ID #38104Impact of the digital design process in an architectural engineeringtechnology program: Integration of advanced digital tools (work inprogress)Mr. Eugene Kwak, State University of New York, College of Technology at Farmingdale Eugene Kwak is a licensed architect and an assistant professor in the Department of Architecture and Construction Management at Farmingdale State College, State University of New York. He has been running research-based projects, including the most recent project ”Togather” which has been featured in the New York Times and Dwell. ”Togather” focuses on the regional food systems, land access
Timothy Hinds First-Year Engineering CoRe Experience Michigan State University, East Lansing, MI 48824 sarkarde@msu.edu, hinds@msu.edu IntroductionEngineers are global communicators. Our first-year engineering students write and present technicalreports, lab reports, capstone projects, formal emails, posters, elevator pitches and more, tocommunicate their technical knowledge globally to a wide variety of audiences. They are required topresent information as concisely and objectively as possible. Although the importance ofcommunication may seem self-evident, our students need to be more motivated to
construction management (CM) courses are often challenging due to different learningstyles. Students are expected to generate three-dimensional (3D) models by mentally visualizingall project components and supporting task sequences. Students with little or no practicalexperience find such exercises challenging, spending unnecessary time developing and scheduling3D digital models. This research investigates 4D implementation based on an Industry-Academiccollaboration in the classroom. 4D allows connecting schedule activities with an industry-provided3D model to use data to understand the project timeline and build a building during the constructionphase.Furthermore, a real-time construction schedule with all the project components to visualize a
Paper ID #37902Design of a Mechanical, Electrical, and Plumbing (MEP)Course to Enhance a New Construction Engineering ProgramRobert J. Rabb (Chair, Mechanical Engineering) Professor, Mechanical Engineering, The CitadelNahid Vesali (Assistant Professor) Dr. Nahid Vesali is an Assistant Professor in the Department of Engineering Leadership and Program Management (ELPM) in the School of Engineering (SOE) at The Citadel. She joined The Citadel in January 2020 and teaches courses in project management and construction engineering management fields. Dr. Vesali earned her PhD in Civil Engineering from Florida
Paper ID #36738Work in Progress: Aligning a Professional DevelopmentProgram with Industry NeedsAudeen W. Fentiman (Crowley Family Professor in Engineering Education) Audeen Fentiman is the Crowley Family Professor in Engineering Education at Purdue University and principal investigator for an NSF-sponsored project to develop, deploy and evaluate online instructional modules in model-based systems engineering. She spent more than a decade in industry and 25 years as a Nuclear Engineering faculty member before transferring to Engineering Education.John W. Sutherland (Chair)Daniel DelaurentisKerrie A Douglas (Assistant
, writing workshops, graduate school applicationpreparation, and industry visits. Furthermore, some of these professional development activitiesare also conducted in large group settings with students from other research programs beyond theREU cohort. The rationale behind combining REU students with other researchers is to create acommunity of learners and provide them with an opportunity to build/extend their professionalnetwork. Although professional development activities are an integral part of the REU sites, thereis often very limited coverage of such activities in the existing literature on REU projects. Thispaper presents the impact of professional development activities on the experience of REUparticipants in a manufacturing REU site at a
and course and curriculum development. He is a Fellow of the ASME. © American Society for Engineering Education, 2022 Powered by www.slayte.com Mobile, hands-on experiments for classroom demonstrations and student team-based exercisesIntroductionExperiential learning can be very effective in getting students to interact with the engineeringconcepts and see them in action shortly before or after being exposed to the theory. Team basedactivities that accompany hands-on learning are a further way of enhancing learning as studentscollaborate with each other to discuss and test their ideas. This project aims to amplify suchhands-on experiences by
students and faculty in STEM. © American Society for Engineering Education, 2022 Powered by www.slayte.com Early lessons learned from pivoting an REU program to a virtual formatSince the summer of 2006, the NSF-funded Automotive and Energy Research and IndustrialMentorship (AERIM) Research Experience for Undergraduates (REU) program in thedepartment of mechanical engineering at Oakland University (OU) has been offering richresearch, professional development, networking and cohort-building experiences toundergraduate students in the science, technology, engineering and math (STEM) fields [1].With a focus on 10-week long hands-on automotive and energy research projects and a
critical role that caregivers play in supporting and guidingchildren’s learning across out-of-school settings and over time. Hands-on family workshops usefamiliar themes (such as home, school, animals, clothing) to introduce children to the steps ofthe design process by inviting them to identify problems they want to solve and create aprototype of their design idea. An app offers additional support both during the workshops andat home, and take-home resources support families in starting design projects at home aftercompleting a workshop. Toolkit components Learning outcomesThe Toolkit Includes:1. Workshop Facilitation GuideThe Workshop is a step-by-step, scripted guide for makerspacefacilitators
, the Entrepreneurial Mindset, and pedagogies including Inquiry-Based Learning, Project-Based Learning, and Active Learning. He serves the Grainger College of Engineering at UIUC as an Entrepreneurial Mindset Fellow for the Academy of Excellence in Engineering Education.Marcia Pool (Assist. Dir. for Education and Teaching Assoc. Prof.) Marcia Pool is the Assistant Director for Education at the Cancer Center at Illinois and a Teaching Associate Professor in Bioengineering. She holds a Ph.D. in Biomedical Engineering and has served for thirteen years as teaching faculty/staff in bioengineering and six years in departmental/institute educational administration. She focuses on identifying and evaluating mechanisms to enhance
students’ current knowledge and thelevel of research being done at universities. This gap can create issues when scoping out a projectand creating an opportunity for students to gain an authentic research experience (i.e., learn aboutthe research process and obtain valuable research results) [8]–[10]. An additional obstacle is theamount of time university researchers need to commit to catching students up on a particularresearch topic. This creates less time for students be involved in the research project and mayultimately lead to students feeling left out of the research community and removing them from theSTEM pipeline. We contend that these highly motivated high school students can be exposed to ideas in afield and be engaged in
competency by interventions, counseling, pedagogy, and tool selection (such as how to use CATME Team-Maker to form inclusive and diversified teams) to promote DEI. In addition, he also works on many research-to-practice projects to enhance educational technology usage in engineering classrooms and educational research by various methods, such as natural language processing. In addition, he is also interested in the learning experiences of international students. Siqing also works as the technical development and support manager at the CATME research group.Andrew Katz (Assistant Professor)Christopher Greg BrintonMatthew W. Ohland (Dale and Suzi Gallagher Professor of EngineeringEducation) Matthew W. Ohland is Associate Head
Summer Evaluation Institute. Besides teaching, she has worked as an evaluator in grants awarded by the National Science Foundation (NSF), National Insti- tutes of Health (NIH), US Department of Agriculture (USDA), and National Oceanic and Atmospheric Administration (NOAA). Currently she is the internal evaluator for the projects Recruiting, Retaining and Engaging Academically Talented Students from Economically Disadvantaged Groups into a Pathway to Successful Engineering Careers (PEARLS) and for Building Capacity at Collaborative Undergraduate STEM Program in Resilient and Sustainable Infrastructure (RISE-UP). Both projects are funded by NSF.Maryliz Soto, University of Puerto Rico, MayaguezDr. Carla Lopez Del Puerto
freshman success. Student success will bedefined in this paper by freshman retention rates, student feedback, increased upper-level courseand course learning outcome comprehension.In the fall of 2022, the course included three of the six offered technology disciplines. The coursewas being taught by assigning readings, in-class activities, homework, and a project assignedhalfway through the semester. The setup of the course led to two distinct eight-week coursesbeing combined into one. The first part attempted to address the heterogeneity of mathcapabilities which ranged from remedial math to calculus II, while the second part attempted toteach engineering technology fundamentals and Microsoft competency. It was observed thatstudents in higher
) paper describes a National Science Foundation funded RED (RevolutionizingEngineering Departments) Adaptation and Implementation (A&I) grant focused on changing the culture ofa large traditional mechanical engineering department at Texas A&M University (TAMU) and is anadaptation of the “Additive Innovations” model developed by Arizona State University in their REDproject[1]. The TAMU RED project is focused entirely on culture change via faculty development, withthe goal of shifting from a culture where teaching is secondary to research and courses evolve via sporadic,undocumented, individual innovations to a culture that recognizes teaching’s role in both faculty andstudent success and encourages a sustained process of incremental
070Transforming Passive Listeners to Active Learners in the Engineering Classrooms M. M. Darwish and M. H. AkramIn the traditional approach to college teaching, most class time is spent with the professorlecturing and the students watching, listening, and taking notes. Students are usuallygiven individual assignments and are not exposed to group work/projects until theirsenior year. This type of traditional instructor-centered teaching process has proven to beless effective as compared to the use of active and cooperative learning methods.Transforming passive and individualistic learning into active learning is the mostchallenging form of teaching. Active learning can revitalize students-faculty interactionby
received his M.S. and Ph.D. in Computer Science from the University of Oklahoma, Norman, Oklahoma. His research focuses on diverse areas such as: Database Design, Data Structures, Artificial Intelligence, Robotics, Computer Aided Manufacturing, Data Mining, Data Warehousing, and Machine Learning. American c Society for Engineering Education, 2021 Haptics in AviationAbstractThe purpose of a capstone design project course is to provide graduating senior students theopportunity to demonstrate understanding of the concepts they have learned during their studies.As with many computer science and engineering programs, students of the
Engineering Education Center, and Caruth Institute of Engineering Education. He specializes in Engineering, STEM, and Project Based Learning instruction. American c Society for Engineering Education, 2021 Computer Science and Computational Thinking Across the Early Elementary Curriculum (Work in Progress)In 2016 Amazon announced an extensive search to identify a home for its second headquarters,HQ2. Our city, Dallas, TX was near the top of the list for most of the competition. However,when the final choice was announced two years ago, Dallas lost to Washington, D.C. and NewYork City. According to the Dallas Mayor, who was an active member of the
Education, particularly equitable classroom practices, integrated learning, and institutional change. She spent last academic year at Cal State LA where she taught and collaborated on research related to equity and social justice. With her colleagues at Cal State LA she recently received an NSF grant called Eco- STEM which aims to transform STEM education using an asset-based ecosystem model. Specifically, the Eco-STEM project focuses on shifting the metaphor in STEM education from a factory model to an ecosystem model. This Ecosystem model aspires towards an organic and healthy environment that nurtures students, faculty, and staff to become individuals fulfilled professionally and personally. She is also a co-advisor
for AM, process selection,postprocessing, software issues, rapid tooling, applications of AM and business opportunities. Italso shows how the skills obtained from this course can be implemented in senior design projects.One successful project conducted by Engineering Technology undergraduate student at ODU isdemonstrated in this paper. In addition, the contents of a similar course developed at ClarksonUniversity is also provided in this study for comparison purposes.New courseOne main issue that has been identified in academic institutions is that engineering and technologystudents do not acquire various skills related to 3D printing, beyond submitting a STL file to aplastic 3D printer, in universities before hiring at industries. Our
promote experiential and interactive learning in the entrepreneurialsurrounding. Students took two courses for credits: (i) Introduction to Customer-Driven TechnicalInnovation and (ii) Introduction to Product prototyping at Silicon Valley. During the program,students experienced the technology-driven world of Silicon Valley. Silicon Valley is theinnovators’ and entrepreneurs’ dream world and is ground zero for customer-driven technologyevaluation, innovation, invention, and prototyping. It is also an ideal location for inspiringinteractive and non-traditional college learning experiences. Students spent time visiting start-upsand large corporations and worked on a project where they advanced, through multiple iterationsof the design cycle, an
enterprise; graduate more and better prepared minority engineers;increase efficiency and productivity at MSIs; and develop a sustainable and effectiveinfrastructure to support minority students, faculty and staff at all universities. In time, IEC willgrow and the model being developed can be replicated and implemented for other disciplines.Experimental Centric Based Engineering Curriculum for HBCUs: The ECP project createdan HBCU Engineering Network which successfully demonstrated that an experimental centricpedagogy combined with hands-on educational technology stimulates student interest in theSTEM area, promotes content acquisition, and problem solving, and retention. Hands-onactivities were shown to be successful across a variety of
://belabs.seas.upenn.edu) in the Department of Bioengineering at the University of Pennsylvania. American c Society for Engineering Education, 2020 Under the Hood of a Bio-MakerSpace: Automating Lab OperationsIntroduction Can academic MakerSpaces and open educational laboratories, serving both structuredclasses as well as general project work, be efficiently staffed, managed, and operated?Traditionally, these spaces are regularly staffed by part-time student employees with regularturn-over. In addition, such lab spaces must quickly switch between different lab courses duringthe day, as well as open lab use, in a schedule that may vary from day to day. These constantchanges may