Graduate Program at the University of Hartford attracts a diverse studentpopulation. There are native and international students of many faiths and cultures, and typicallya small number of Muslim students. Over the years we have had students from Saudi Arabia,Turkey, India, Pakistan, Egypt, Ethiopia, and Palestine. The majority of our students have littleif any exposure to the Muslim faith and culture. Therefore, for some a great deal of research isrequired for this 6-week long architectural design project.Project LocationIn an effort to keep the project fresh, we have used different sites, all of which come with uniqueissues. We have used sites in NYC (the Mosque at Ground Zero), in Hartford, CT (in the Proceedings of the 2018
Paper ID #29700A Collaborative Framework to Advance Student Degree Completion in STEMDr. Ali Zilouchian, Florida Atlantic University Ali Zilouchian is currently the Associate Dean for Academic Affairs and a professor in the College of Engineering and Computer Science at Florida Atlantic University. He is also currently the Director of ”CAPTURE” program which is related to increasing pipeline, graduation rate as well as future jobs in the State of Florida related to STEM graduates especially Computer Science and Engineering fields. His recent projects have been funded by DOE, Florida BOG, National Science Foundation
DescriptionThis is a professional track work study academic program combined with application training onactual industrial problems. At the same time students are exposed to real-world problems throughhands-on experience. The program consists of one program coordinator from GE Transportationand one program coordinator from Gannon University. Students are selected for this track basedon academic background, self motivation, and leadership, interpersonal and communicationsskills. Each student is assigned a Gannon University professor as a mentor while working at GETransportation. The mentor advises the student on his academic work and guides the student onengineering projects related to GE Transportation. The projects are carefully chosen to
teaching, students become self-motivatedlearners.Being in a self-motivated learning atmosphere enables students to develop strong professional skills. Ways in whichthe IRE model promotes professionalism are: practicing professionalism, practicing teamwork, and working alongside peers and superiors.Practicing everyday professionalism that one would experience in the work place. Including social aspects, 40-hourworkweeks, business attire, and every day ethics.Practicing teamwork on teams of multi-disciplined engineering students. This allows students to gain differentperspectives of a shared focusWorking along side peers and superiors. Students are members of semester long project teams that are led byfaculty mentors.Freedom within this program
electrical circuit theory class. Since much of engineering designculminates in a manufactured product, the ability to read an engineering drawing should be adeveloped communication skill. This would promote communication between engineers during theentire design process, thus advancing the progress of the design paradigm termed “concurrentengineering”. These skills can be taught by integrating engineering drawings into existing designprojects. This paper describes the integration of graphics and rapid prototyping into an electroniccircuit design class and the outcome of the project. I. Introduction In the context of concurrent product engineering, the end result of an engineering design isa
wellhead stress analysis. Professor Dyer has worked on projects with the FAA and the OU Department of Aviation to implement the Ground Based Augmentation System, a Differential-GPS based aircraft landing system. He has also worked on projects involving passive multilateration for aircraft tracking, Distance Measuring Equipment (DME, a standard FAA navigation technology), and Space Based Augmentation System (SBAS) error analysis. Dr. Dyer is a Commercial-rated pilot and occasionally lends his piloting skill set to test flights for assessing navigation technology performance.Mr. David Sandmann MSEE, University of Oklahoma Obtained Bachelors’ and Masters’ in Electrical Engineering from the University of Oklahoma in 1994
professionalmasters’ workplace readiness in China, each of which exemplifies a major approach in organizingthe practical studies for professional master’s students in engineering: The first case examines a“practice base,” a broker institution that connects students to companies that are committed to theeducational objectives determined by the participating universities. In the second case, theuniversity provides a list of options for practical studies, each linked to a partner company, forstudents to choose. This paper adopts the double case study method, focuses on how universities and partneringinstitutions negotiate common interests and ensure the sustainability of the partnerships throughpractices of matching students to projects, articulating
Paper ID #38359Community-University Relationships in Environmental EngineeringService-Learning Courses: Social Network Vectors and Modalities ofCommunicationHannah Cooke, University of Connecticut Hannah Cooke is a doctoral student in Curriculum and Instruction with a focus on Science Education at the University of Connecticut. Her research interests include critical, antiracist science teaching that works to dismantle systems of oppression. Currently, she is a research assistant on the DRK12 project COVID Connects Us: Nurturing Novice Teachers’ Justice Science Teaching Identities, which uses design-based research to
entitled Engineering Projects for the Community in the School of Engineering which brings experien- tial learning into the engineering curriculum through projects with partners in both the local and global community. She has also developed the course, ”STEM Outreach in the community” that provides oppor- tunities for engineering students to go out into the community and provide hand-son activities and lessons on engineering. She was named ”Woman of the Year” for 2013 for the 25th Assembly District of Cali- fornia for her dedication to students both inside and outside the classroom and for her role in motivating young women and other marginalized communities to pursue STEM careers. Shoba Krishnan received her B. Tech
strategies [28]. Working on a relevant,topical problem also allows students to experience a more authentic form of work in theirdomain [25]. Faculty respondents in a 2019 bioengineering design education workshop reported thatbioengineering departments have specific strengths in teaching interdisciplinary knowledge,communication, client needs, human anatomy and physiology, biological constraints, andinteraction with clinicians [26]. The fact that bioengineering applications are broad and open-ended casts a wide net for the types of projects which end up being proposed and run throughbioengineering senior design courses. This variety presents a challenge for faculty who deliversenior design courses in bioengineering to ensure consistent
Engineering EducationIn materials science education, there have been attempts reported in the literature to enhance theeducational experience of students3-7. However, most reported efforts typically revolve aroundcomputer use through enhanced graphics, animations, virtual experimentation, etc., which areagain factory packaged. However, it is not common to come up with open-ended problems, i.e.PBL, and let the students on their own define what the problem really is and solve it within somegiven guidelines, especially problems that involve hands-on type work. In this paper, the authorattempts just that by providing here a list of small project/assignment ideas that serve as PBLexperiments a materials science/engineering teacher can possibly assign to
Session F1A1 Tapping Indigenous Resources to Enhance the Decision Making Process in Senior Projects Mohan Ketkar Department of Engineering Technology College of Engineering Prairie View A&M University, Prairie View, TX AbstractCase studies are proven techniques to enhance the learning skills and the level of classparticipation in the project-oriented courses. Typical case study exercise involves reading theproblem, forming student teams, research
with anexperientially-based authentic context for solving real world projects for clients from industry and governmentand, thus, represents an ideal setting for introducing students to the ~ and practice of Total QualityManagement (TQM). Rather than lecture about these topics, we introduce TQM concepts using a series ofmodules and then allow students to immediately adapt and apply these concepts as they complete project workfor their customers. This paper will describe the TQM modules we have developed and illustrate how use ofthese modules has improved the quality of student project work in EPICS. We will also report data whichmeasure changes in student attitudes and perceptions towards the value of TQM in problem-solving, teamprocesses, and
2006-449: INDUSTRIAL ENGINEERING APPLICATION IN SPACE MISSIONDouglas McLennan, Goddard Space Flight Center Dr. Douglas McLennan is the Project Manager of the Space Technology - 5 (ST-5) at the Goddard Space flight Center (GSFC) in Greenbelt, Maryland. Dr. McLennan received his B.Sc. in Physics in 1978 from Carleton University, Ottawa, Ontario Canada. He received his M.S. in 1980 and Ph.D. in 1983 from Georgetown University, Washington D.C.Guangming Chen, Morgan State University Dr. Guangming Chen is an Associate Professor in Industrial Engineering at Morgan State University. He joined Morgan State faculty in 1990 as an Assistant Professor. Since September 2002, he has worked with ST-5
Education, 2017 Engagement in Practice: Adding Service Learning to an Online Introduction to Engineering CourseA wide body of research shows increased student engagement and student retention from the useof high-impact practices such as learning communities, first-year experiences, undergraduateresearch, or service learning. However, many of these practices pose challenges on a virtualcollege campus or in an online classroom. This paper explores a case study where servicelearning projects were incorporated into two introductory engineering classes, one taught in atraditional face-to-face format and the other taught online. In this case study, the face-to-facestudents worked in small groups with a local historical
which they are not members isthat student learning often takes precedence over project outcomes, and community partnerssuffer as a result. The motivation for developing this course was to alleviate this problematicaspect of service learning. A curriculum was designed with the goal that students would seethemselves in solidarity with, instead of separate from or better than, struggles in their home orcampus communities.Background“Engineering to Help” (ETH) is a term coined by Schneider, et al., [1] to encompass the growingnumber of collegiate programs- including service learning, humanitarian engineering, sustainabledevelopment, and others- that share a mission to “help” communities “in need”. ETH programshave been broadly criticized on the
nosewheel control system for use by pilots early in their trainingprocess. The engineering students were challenged to create specifications for a turningradius for the device. This involved investigation of how a steerable nosewheel operateson an actual airplane. Based on these specifications, the students were challenged todesign a mechanical linkage system that allows the freedom of movement to meet thesespecifications.This design project gives engineering students an opportunity to apply design principlesto a practical project. The engineering students gain an understanding of work as a team;work with the client, and the sequence and process of design. Beginning pilots using thedevice gain an enhancement of motor skills that positively transfer
based on individual and team progress toward the previously established design objectivesCourse FormatThe reference course is intended to give graduate students a broad background into the issuesthat enter into the design and exploitation of structures and components fabricated using modernanisotropic composite materials. The course entails a combination of lectures (with homeworkand tests), as well as student team projects with individual and group criteria.The lecture topics are intended to integrate the traditional academic offerings in compositematerials, with a focus on issues related to design. In addition to the course offerings discussedpreviously, lectures (with sample problems) are given on a variety of topics, including
serves as the primary point of contact for external organizations who wish to engage Rose-Hulman Institute of Technology through the Rose-Hulman Ventures (RHV) program. Landess is responsible for the business development function at RHV; initiating new client relationships, negotiat- ing engineering contracts, and directing programs of projects where teams of faculty members, project managers, engineers, technicians, and interns develop new products for RHV clients. Landess earned both his B.S. and M.S. degrees in electrical engineering from Rose-Hulman Institute of Technology. He has 16 years of work experience. Landess’s industrial background is alternative fuel gasification, cryo- genic air separation, and power
. 2006 to Aug. 2009.Dr. John Hildreth, University of North Carolina, Charlotte Page 25.263.1 c American Society for Engineering Education, 2012BIMing Construction Engineering Curricula Page 25.263.2AbstractBuilding Information Modeling (BIM) has been used by various construction engineering (ConE)programs to fulfill the Body of Knowledge (BOK) requirements, such as cost estimating,construction scheduling and control, project administration, and contract documents. Currently anumber of BIM software packages are available to ConE educators. However, guidance to
Session 1532 Evolving an Undergraduate Software Engineering Course Mark J. Sebern Milwaukee School of EngineeringAbstractMany undergraduate software engineering courses combine team projects with discussion ofdevelopment cycle concepts. It can be difficult to connect these elements in a coherent way, especiallywhen the lecture is a broad survey and the project is sharply focused on meeting the needs of a client.This paper describes the evolution of a senior software engineering project course that incorporatesiterative development of a classroom example and an object-oriented
to be hired, inmany fields the half-life of an engineer is five years. Faculty need to be continually exposed tothe best practices of industry. Just as their counterparts in industry, the faculty need to belifelong learners1. One of the best ways for a faculty member to maintain technical currency is tobecome involved in industrial projects as a consultant or in a school center that conducts appliedresearch. Besides keeping faculty members’ technical skills up-to-date, involvement in appliedresearch and consulting renders other benefits such as: (1) providing real-world case studies to beused in classrooms and laboratories, (2) strengthening relationships between the school andindustry which can boost corporate donations to the school and
competition's objective is to inspire and attract a diverse array of undergraduate andgraduate students from various majors to engage in building science, fostering creative innovation,and addressing workforce gaps in the field. Each year, organizers introduce new challenges. For the2023-2024 competition, the challenge topics were Keepin’ it Cool (or Hot), That’s a Wrap!, and Youand Me, Carbon Free!. The author has taken this competition as an opportunity to promote project-based learning in the graduate course MENG 5318 – HVAC. Three teams of graduate students,participated in the competition with projects that also served as assignments for the course grade.Results from a survey applied to assess the project indicates that the assigned projects
how does one explain each discipline in adequate detail in theallotted time? Two different methodologies were tested in a first-year engineering course at theUniversity at Buffalo. The first approach, called the disciplinary approach, covered each of the maindisciplines one at a time. The second approach, called the multidisciplinary approach, covered each ofthe main disciplines through a series of multidisciplinary projects. The results and discoveries of thisexperiment are presented.All freshman engineering students at the University at Buffalo (with the exception of computer engineers)take a course called Engineering Solutions. The goals of this course are threefold: to increase studentunderstanding of engineering, to develop teamwork and
how does one explain each discipline in adequate detail in theallotted time? Two different methodologies were tested in a first-year engineering course at theUniversity at Buffalo. The first approach, called the disciplinary approach, covered each of the maindisciplines one at a time. The second approach, called the multidisciplinary approach, covered each ofthe main disciplines through a series of multidisciplinary projects. The results and discoveries of thisexperiment are presented.All freshman engineering students at the University at Buffalo (with the exception of computer engineers)take a course called Engineering Solutions. The goals of this course are threefold: to increase studentunderstanding of engineering, to develop teamwork and
entropy formula has been accepted project to substantiate students’ interest on Generative AIas a calculation to measure the amount of information in a should contain a “safe” research component with guaranteedrandom trial. The recent success of Generative AI diffusion new results and exploratory research without guarantee of anymodel of text to image technology offers much inspiration new results. We have identified the use of entropy as a researchfor STEM students to learn about random processes in tool in student projects. The Shannon entropy formula hasresearch projects beyond the regular classes in a been accepted as a calculation to measure the amount
research investigates how individuals in an interdisciplinary team approach mental andphysical models to address a common goal. Deep modeling is understanding how a devicefunctions, the constraints of a project, and the dynamics of effective team collaboration. Incontrast, surface modeling is a less experienced and less effective approach to a design projectwhere designers tend to propose superficial ideas or use ineffective means to communicate how asystem works.Background & MotivationIn December 2019, COVID-19 became a threat in the United States and began to change howlife would be lived. Being able to verify infection status is important for slowing the spread ofthe virus in, and between, communities [7]. COVID-19 testing protocols were
-creation by developing a series ofworkshops to scaffold student learning. Scaffolds are instructional methods and interventionsthat are designed to foster skill development by allowing for interactions between what studentsalready know and what they have yet to learn. These workshops were designed using the tenetsof the gold standard project-based learning (PjBL). The PjBL framework is itself a scaffold thatis designed to build research competencies.Specifically, to introduce a challenging problem or question, we created multiple technicaloverviews of the cyber-physical system theme of interest that would constitute the eventualeducational modules. We scaffolded sustained inquiry by developing a workshop usingtechniques from the Right Question
Session ETD 545 Issues Associated with Capstone Courses and Growing and Expanding Engineering Technology Programs Joseph Morgan and Jay Porter Engineering Technology and Industrial Distribution, Texas A&M University, College Station, TXAbstractTen years ago, the Electronics Engineering Technology program at Texas A&M Universitytransformed their senior design course into a two-semester capstone design sequence basedaround a rigorous, real-world product design challenge. The projects undertaken by the studentswere almost all industry-sponsored
AC 2007-1561: ENGINEERING SUSTAINABILITY?!Roger Hadgraft, The University of Melbourne ROGER HADGRAFT is Director of the Engineering Learning Unit in the Faculty of Engineering at the University of Melbourne. He has been working on problem-based learning issues since 1991 and has implemented significant curriculum change using project-based learning at both Monash and RMIT Universities. He is a civil engineer with interests in hydrologic modelling, knowledge management and engineering education. He has recently moved to the University of Melbourne to assist in the implementation of the Melbourne Model.Jenni Goricanec, RMIT University Jenni Goricanec has 25+ years of experience in