include pedagogical discourse analysis, human-computer interaction, social network assistance, and assessment of student collaborative online activities. She leads synergistic work among machine learning experts, educational psychologists, NLP researchers, and STEM instructors. She is the PI of five NSF projects including the CCLI/PedDiscourse, CCLI/PedWiki and NSDL/SocRecomm projects under the EHR Directorate and CreativeIT/PedGames and IIS/PedWorkflow projects under the CISE Directorate. Under the PedWiki effort, her team is developing instructional assessment tools based on discourse analysis and identifying scaffolding opportunities to promote engagement and collaboration.Jeon Hyung Kang, ISI/University of Southern
Session 3249 Enhancing the Education of Engineering Technology Students Through an Honors Program Kathleen A.K. Ossman, Ph.D. University of CincinnatiAbstractThis paper describes the Honors Program in the Electrical and Computer EngineeringTechnology Department at the University of Cincinnati. Included in the paper is a discussion ofthe requirements of the program, the benefits to both the students and the faculty, and adescription of a specific honors project completed by students at the end of their freshman year.IntroductionThe Honors program
communication skills, project management, as well as overview lectures on major technical and non-technical disciplines.2. Creation of a large, interdisciplinary undergraduate laboratory, used by students from many disciplines to plan a variety of engineering experiments in a common space.3. Use of laptop computers as design tools that are integrated into the Engineering courses.I. IntroductionOur world is becoming ever more complex. It is no longer possible to cope by relying onexpertise from a single discipline. Concurrent Engineering is now a practice used throughoutindustry, and its participants are expected to be able to work in an inter-disciplinary environment.A second trend is the renewed emphasis on design, as opposed to analysis, in
being traditional college students and also having had minimalexposure to experiential approaches in their prior schooling. Earlier studies amongst thisstudent population indicate that when they engage in project-based learning, their self-efficacyto design and to build increases significantly [4], and this effect is strong enough to manifesteven when the project-based approach is offered online [5]. However, it is worth expandingthe view of what constructs are most relevant to this set of students. The self-efficacy constructwas designed in the Western context, and some argue that it reflects motivation rather thanperceived capability [6], motivating a broadened scope of what constructs may be most apt.Drawing from the author’s observations
Service Learning in Engineering at Cal Poly Brian P. Self, Lynne A. Slivovsky, Kevin Taylor, and Sema Alptekin Mechanical Engineering/Computer and Electrical Engineering/Kinesiology/ Industrial and Manufacturing Engineering California Polytechnic State University, San Luis Obispo, CAIntroductionThe benefits of service learning have been demonstrated in a number of different settings(Jacoby, 1996; Tsang, 2000). By participating in projects with a community-based focus,students gain an appreciation for the role they can play in society by reflecting on a variety ofsocioeconomic and ethical implications of their experience. Cal Poly has long had a strongdesign
intensify their skills of critical thinkingand problem solving and they are organized to work on course projects in a team. Furthermore, with thehelp of faculty members, they develop their course projects or innovative ideas into conference papers ortutorial/postal topics and present them in educational and technical conferences. Their performancesworking in a team and dialogue with professionals in the field, will build up their confidence and skillsfor their future jobs in the area of mechatronic engineering.OVERVIEWTo enhance students’ communication capabilities through mechatronic engineering program, this paperwill specifically address the following topics 1. Implementing teamwork and classroom presentation in core computational project
required little encouragement to start usingthis system, many project teams quickly learned to use it productively and obtained good results. Thesystem allowed sponsor mentors to share project information with a broader audience within theirorganization. It enabled them to provide better and timelier feedback to students and faculty; therefore,the students were able to explore more realistic design solutions. The faculty advisers were also able toassess a team’s progress, problems, and individual contributions more effectively by monitoringinformation posted by the team. The system made a significant impact on the project outcome andstudents’ learning experience.IntroductionThe O. T. Swanson Multidisciplinary Design Laboratory (MDL) at Rensselaer
ENHANCEMENT OF FLEXIBLE MANUFACTURINGSYSTEM INSTRUCTION TO IMPROVE UNDERGRADUATE EDUCATION Farouq Alhourani f.alhourani@moreheadstate.edu Morehead State University 210 Lloyd Cassity, Morehead, KY 40351 Abstract The Industrial and Engineering Technology Department (IET) at Morehead State University (MSU) has worked on Flexible Manufacturing System (FMS) project funded by a joint grant from MSU and National Science Foundation. The goal of the project is to improve the undergraduate education of IET students in the area of Manufacturing Technology, Electrical/ Electronics Technology and
Engineering HOFSTRA UNIVERSITY HOFSTRA UNIVERSITYINTRODUCTION The First-Year Introductory Engineering Design course at Hofstra University is examinedin detail. Because of the broad scope of components informing the course, it will be presented ina Series of three parts. Parts One and Two previously discussed the Lecture and Project Labsections, respectively. Part Three, discussed in this paper, focuses on how the Lecture andProject Lab build towards the last half of the semester with the Grand Design Challenge projectand competition.BRIEF REVIEW As previously discussed in Part Two, for the first five Seasons of DESIGN 15, the ProjectLab was comprised of six projects and one student presentation. During
required little encouragement to start usingthis system, many project teams quickly learned to use it productively and obtained good results. Thesystem allowed sponsor mentors to share project information with a broader audience within theirorganization. It enabled them to provide better and timelier feedback to students and faculty; therefore,the students were able to explore more realistic design solutions. The faculty advisers were also able toassess a team’s progress, problems, and individual contributions more effectively by monitoringinformation posted by the team. The system made a significant impact on the project outcome andstudents’ learning experience.IntroductionThe O. T. Swanson Multidisciplinary Design Laboratory (MDL) at Rensselaer
Integrating Online Learning to Junior-Level Electromechanical Design Salah Badjou, Ph.D. Department of Electronics and Mechanical Wentworth Institute of Technology, Boston, MA 02115 Session Topic: online and distance learning for engineering and technology AbstractThe following paper reports on the results of efforts at integrating online learning to the currentJunior-level Electromechanical Design course at Wentworth Institute of Technology. This is anintense course where in one semester students are expected to complete an original design and aprototype. Project and time management are critical. Groups are
Engineering HOFSTRA UNIVERSITY HOFSTRA UNIVERSITYINTRODUCTION The First-Year Introductory Engineering Design course at Hofstra University is examinedin detail. Because of the broad scope of components informing the course, it will be presented ina Series of three parts. Parts One and Two previously discussed the Lecture and Project Labsections, respectively. Part Three, discussed in this paper, focuses on how the Lecture andProject Lab build towards the last half of the semester with the Grand Design Challenge projectand competition.BRIEF REVIEW As previously discussed in Part Two, for the first five Seasons of DESIGN 15, the ProjectLab was comprised of six projects and one student presentation. During
toconsistently leverage evidence-based, high impact practices and redress obstacles, all of whichare necessary to catalyze institutional change at scale [3] [4].The Engineering PLUS Alliance posits that networked communities are needed to build aninclusive infrastructure that will drive the transformative, systemic and sustainable changeneeded to achieve 100,000 undergraduate and 30,000 graduate engineering degrees awardedannually to BIPOC and women students by 2026. Although many organizations, non-profits,grant projects, and universities have been working toward this change for decades, their effortsmay be siloed and disconnected from one another. To achieve such transformative, systemic,and sustainable change, the Engineering PLUS Alliance team aims
Paper ID #36836An Approach in Designing and Teaching Hands-on and ImmersiveConstruction Cost Estimating CourseDr. George Okere, University of Cincinnati George is an associate professor educator, and heavy highway chair (endowed position) in the Civil and Architectural Engineering and Construction Management Department in the College of Engineering and Applied Science at the University of Cincinnati (UC). George has over 23 years of construction indus- try work experience, and 11.5 years of which was with Kiewit, where he worked on various heavy civil projects. He received his PhD in Technology Management from Indiana State
-based and project-based learning.Higher education should be a transformative experience for The author’s previous works [6-8] describe the detailsstudents. A few years of studying and experience in college about the Freshman Engineering Discovery courses that havecan lead to a lifetime of success. During school years, been running for more than eight years at Marquetteengineering students develop technical and professional University – Opus College of Engineering. After introducingskills. But beyond those skill sets, education and experience the entrepreneurially minded learning (EML) as one of thein engineering school can
holds the title of Senior Lecturer and focuses on designing the curriculum and teaching in the freshman engineering program. She is also involved in the NAE Grand Challenge Scholars Program, the ASU ProMod project, the Engineering Projects in Community Service program, the Engineering Futures program, and the Global Freshman Academy. Dr. Zhu also designs and teaches courses in mechanical engineering at ASU, including Mechanics of Materials, Mechanical Design, Mechanism Analysis and Design, Finite Element Analysis, etc. She was part of a team that designed a largely team and activ- ity based online Introduction to Engineering course, as well as a team that developed a unique MOOC introduction to engineering course for
aerospace structural design course. Page 26.1234.1 c American Society for Engineering Education, 2015 Practical Engineering Experience in Aircraft Structural DesignAbstractEngineering analysis and design topics in a senior-level aerospace structural design course aresupplemented with simple in-class demonstrations, hands-on experience in sheet-metalfabrication, and a comprehensive engineering project involving design, analysis, optimization,manufacturing, and testing of stiffened panels. Besides providing students with opportunities togain a deeper understanding of the concepts discussed
University. Daschil is a continuously curious individual who is always asking question of how and why. This curiosity has driven Daschil to explore the bridges between engineering and political science, par- ticularly the influence of gender in the decision making processes of both disciplines. Daschil currently works on a research project to understand how learning occurs in informal learning processes such as making and the influence of gender on learning.Bethany Popelish, James Madison University Bethany Popelish is a Communication and Advocacy graduate student at James Madison University re- searching learning in makerspaces as communities of practice. Bethany holds a Bachelor of Arts in So- ciology from Mary Baldwin
EPICS.Mrs. Pamela Dexter, Purdue University, West Lafayette Pamela Dexter graduated from Purdue University with a bachelor’s of arts degree in education and worked as the Gifted & Talented Program Coordinator and teacher for a local school corporation. Dexter was also the Director of Marketing and Resource Development for Lafayette Neighborhood Housing Services, Inc., before joining Purdue University’s EPICS (Engineering Projects in Community Service) program. Dexter has been the EPICS High School Program Coordinator since inception of the program in 2006. Dexter is dedicated to the national dissemination of engineering service-learning design education in schools across the U.S. and abroad. These efforts blend the
Education & Innovation at Texas A&M. Her education research interests are in active learning, inclusive teaching, inclusive teaching, project-based learning, and communities of practice.Hillary E. Merzdorf, Texas A&M University College of Engineering ©American Society for Engineering Education, 2024 A Student-Led Ethics Deep Dive, Discussion, and Content Generation Ethics Assignment in Computer Science & Engineering CapstoneAbstractAs senior capstone design represents the culmination of the knowledge and understanding gainedthroughout the four-year degree program, it has significant prominence in ensuring that wegraduate ethical and professional engineers. We implemented a
engineering and agricultural science acumen within the GSSEteams engaged in sustainable enterprises in developing countries. The latter need was addressedby assigning engineering and science students from the STESE course directly to the GSSEteams. In its first offering, the STESE course was cross listed between the Colleges ofEngineering and Agricultural Sciences, which yielded a total enrollment of 40 students among 6different majors. The course was jointly taught by faculty from three departments (Management,Mechanical Engineering and Agricultural Resource Economics) in a weekly format that includedlectures, project based learning, and guest speakers. The 16-week semester was divided into fourgeneral topic areas: the entrepreneurial mindset
in a large publicuniversity in the United States, a general engineering freshman cornerstone design course and asenior Mechanical Engineering design capstone course. These were analyzed throughobservations and other ethnographic methods. The third design setting is professionalengineering companies. This setting was analyzed through the research team’s experiencesworking on design teams for multiple companies. Data suggests that engineering education andindustry organizational contexts constitute processes of design differently. These findingschallenge the typical rhetoric that undergraduate education project courses are intended toprovide students with real-world design experiences.IntroductionEngineering design has been defined as a
of work being maintained. Following the theoreticalframework of an Activity System [16], we organized our analyses based on the components of anactivity system and conducted a thematic analysis of each component—Subjects, Objectives,Tools, Rules, Communities, and Division of Labor (see Figure 2).Subjects of the Study. Participants described occupational and organizational roles and positionsin various activity systems in the organization. We identified two categories of subjects—individual roles and teams/groups. Within those categories we identified five subcategories ofindividuals: engineers (structural, design, plant), systems operator, supervisor of engineeringteams, construction site coordinators (CSC), and project managers (PM). In
in authentic cross-disciplinary design projects. While guidance fromprofessors with industry experience and teaching techniques such as project-based and servicelearning are common approaches to supporting student preparation, there is continued need fordesign education to include a focus on the development of skills to support communicationacross disciplinary and team boundaries (e.g., shared language and clarity of narrative). Theseskills, which are frequently thought of as non-engineering work, are as critical to the completionof cross-disciplinary projects as skills associated with conventional engineering design work(i.e., design and technical practices). As a result, a multiple case study was designed to explorethe practices of
Paper ID #6376Introducing 6-12 Grade Teachers and Students to Computational ThinkingDr. A. Dean Fontenot, Texas Tech University Dr. Fontenot is the Sr. Director of the Texas Tech T-STEM which provides professional development for K-12 teachers as part of the Texas STEM (T-STEM) initiative. The Texas Tech T-STEM Center focuses on project-based learning with the integration of the engineering design process. The Center provides professional development training for T-STEM Academies, T-STEM Early College High Schools, and all Texas school districts, public and private. She collaborates with Whitacre College of Engineering
?”), workshop simulations (e.g.,“How do we decide when to ship a product?”), journaling, and some unusual activities (e.g.,“Draw a picture of your team”). To gauge student progress we also used weekly reflectivewriting assignments as well as reflective questions on the take-home final exam. All of thesetechniques were well received by the students, as evidenced by anonymous, detailed end-of-course evaluations, as well as by feedback many students voluntarily provided four months afterthe course. Many have continued using several of the techniques after the course. Theexperience of applying reflective practices appears to have influenced a number of the studentsinto viewing their project, careers, social interactions, and life choices in a different
Paper ID #21861’It was a Failure, But a Good Failure’: A Qualitative Study Exploring Engi-neering Students’ Critical Entrepreneurship Experiences and Their ImpactsMr. Mark V. Huerta, Arizona State University Mark Huerta is a second year PhD student in the Engineering Education Systems & Design (EESD) program at Arizona State University. Mark is also the Chairman and Director of Projects of a non-profit called 33 Buckets, which empowers rural communities in developing countries to develop solutions for their drinking water problems. Before enrolling in the EESD program, Mark obtained a BS and MS in Biomedical Engineering
]. Male or Female Rank:1-6 (1 = least important; 6 = most important) Communicative Accessible Helpful with project Expert in the field Friendly Personal concernResults and DiscussionThe results of the SURE participants’ perception of mentoring relationship are organizedaccording to each research question. Investigating student perceptions of (1) good mentorcharacteristics and (2) the role of a mentor in research as differentiated by student sex.Research Question 1: Does the perception of male mentees at The Citadel about thecharacteristics of a good mentor differ from the perception of female mentees?The scores for the characteristics of a good mentor were computed by weighing the proportionsof students who
joined the Civil Engineering Department at Montana State University in 2016. Her research is focused in ecohydraulics and fish passage with a particular fondness for the application of hydraulic and fluid dynamic models to answer research questions in natural settings. She has worked with the US Fish and Wildlife Service (USFWS) both in Bozeman and at the Region 5 Headquarters in Amherst, MA on fish passage research projects and practical applications and assessments that culminated in the creation of a passage model for American shad in Steeppass (modified Denil) fishways. Her work has been financially supported by the DOE through the Hydro Research Foundation and the USFWS. Dr. Plymesser currently teaches Engineering
therecently-completed 2020 US Census, a set of up-to-date, publicly-available and geospatially-distributed population demographic information can be compared against atmospheric pollutantdatasets.Students selected census data for a minimum of five zip code tabulation areas (ZCTAs) neartheir homes. Students extracted relevant census data and compiled their findings against one yearof historical NO, NO2, and ozone concentration measurements from EPA Air Quality monitorsin the same ZCTA. As they find trends in their results, students develop a deeper understandingof the physical drivers behind air quality and the computational skills necessary to align, clean,and process their data. The open-ended nature of this project, combined with the