Session 1602 Acoustic Shaping in Microgravity: 3 years of flight tests S. Wanis, N.M.Komerath, E. Armanios Georgia Institute of Technology, AtlantaAbstractThis paper summarizes 3 years of participation in the NASA Reduced-Gravity FlightOpportunities program. The Acoustic Shaping project was started by a team of AE sophomoresin 1996. Results from the project have demonstrated the feasibility of forming complex anduseful shapes in microgravity from pulverized material using sound waves, and correlated theshapes to mathematical predictions. In this paper, the genesis and evolution of the program
andcenters for research and innovation are located in the area. The program proposed intends toorganize activities related to technology based project development, theory related tofeasibility and risk analysis for technology based start-ups, team work, return on investment,benefits analysis, investment and return cash-flows, environmental issues, technology andsociety, etc. The program is design for a two -year degree and should be implemented in themiddle of 2002. Page 7.518.1 “Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering
, orclassroom/office locations. With the issue and pain points isolated, the team can create anapplication that marries the strengths of each idea, while avoiding the identified pain points.In the proposed application, there will need to be a high focus on privacy and data security, ascertain aspects or features of the project involve knowing people’s location and where they aregoing. In addition to location security, the application will need to comply with the FamilyEducational Rights Privacy Act (FERPA), which focuses on keeping student informationconfidential. With that, the application has to be developed securely and comprehensively toencapsulate the entirety of the campus. To begin scoping features for the application, the teamdistributed a
institution offers an ABET accredited engineering degree (Engineering Scienceand Industrial Engineering) and each graduates ~7-12 engineers per year. Sharing expertise,capabilities, and faculty time are important considerations in developing the program because ofthe very small size of each school’s departments.The mission of the program is to allow students to practice engineering skills while they developstrong communication and teamwork skills, gain global perspective, and learn socialresponsibility through projects for persons with disabilities that otherwise could not affordassistance, both locally and globally. At each institution the program is incorporated intorequired sophomore and junior-level design-intensive courses. The course is offered
assessment of student ability in these often difficultto assess areas. This paper presents the method of the course and the method usedfor assessment.Introduction and motivationCapstone design projects are common in engineering curricula. In response toindustry demands for more practical engineering graduates, many engineeringcolleges have implemented capstone design projects as well as to respond toemerging ABET requirements1. A survey by Todd, et al. found that about 60% ofengineering programs use industry based projects for some or all of their capstonedesign courses1. Dutson, et al. performed a literature review of over 100 papers.The survey identified the course duration, format, content, and evaluation as wellas a review of team size and
Vigeant is a professor of chemical engineering and an associate dean ofengineering at Bucknell University. Her research interests center on teaching andlearning in engineering, and in particular the ways that active learning techniques canenhance conceptual learning. Current projects include developing and testing differentmodes of inquiry-based activities for learning in heat transfer, studying changes insituational curiosity and motivation associated with different pedagogies, and the impactof student-produced instructional videos. Upcoming projects include considering howmaker spaces impact student learning and the use of games to teach engineering concepts.She is an Apple Distinguished Educator, and has previously presented versions of
Implementation of an Experiential Learning Strategy Based on a Classroom/Industry Partnership Zachary Bensusan, Leslie Gregg, William Leonard Rochester Institute of Technology, 78 Lomb Memorial Drive Rochester, NY 14623abstractThe classroom/industry connection is an often-underutilized tool, which could prove to beinvaluable in an educational setting. The experience of working with an outside company inorder to complete a class project not only emphasizes the importance of organization andteamwork, it also enhances the students’ education through experiential learning by illustratingthe processes that companies often employ. A
sentiment From my experience, art studio courses have been almost exclusively project-oriented. Each pro-that individuals who are art-inclined are mutually exclusive from those who are science-inclined, ject involved the production of an artwork: a drawing, a painting, a photograph, or a print. Pro-and thus engineering-inclined, make it difficult for people to understand why I might be inter- fessors would introduce projects by defining project objectives and requirements, by displayingested in both. Having had extensive exposure to both in my university education, I believe art and discussing relevant works by prominent artists, and by teaching technical skills specific toand engineering share a stronger
] called it The Battle for the Soul ofeach of these five courses, students in different American Business, where he referred to the financialdisciplines and backgrounds work together on team projects executives as “bean counters” and referred to the engineers asrelated to course material. These multidisciplinary teams “car guys” [4]. In this comparison, he makes the distinctionexperience real-world between those who value profits and cost cutting with those who prioritize design and innovation. The result was a big loss
compensation for participating in the course. Inaddition, a course coordinator has overall responsibility for the course and tracks students’progress throughout the semester. The result has been an improvement in instructor motivationand attitudes, the quality of student products, and student preparation for successful graduatecareers.Overall Course StructureAn example overall course structure follows. Each instructor has a three-week module to discussa specific topic related to sustainability at the graduate level. The remaining weeks are devotedto an overview of sustainability, soft skill development, and project presentations. • Weeks 1-2: Introduction; Panel discussion: “What is Sustainability?”; Student project selection and planning
342 Work in Progress: Understanding Student and Workplace Writing in Civil Engineering Susan Conrad, Peter Dusicka, Timothy Pfeiffer Department of Applied Linguistics, Portland State University / Department of Civil and Environmental Engineering, Portland State University / Foundation Engineering Inc.AbstractThis project addresses a continuing problem in engineering education: the mismatch between thewriting skills of engineering program graduates and the demands of writing in the workplace.The project, funded in part by the National Science
) research projects to study BIM interoperability scientifically and develop an interoperable BIM prototype system for automating building code compliance checking and modular construction analysis, respectively, through collaborations with experts in Civil and Construction Engineering, Mechanical and Aerospace Engineering, Civil and Environmental Engineering, Engineering Technology, Computer and Information Technology, Construction Management Technology, and industrial partners. c American Society for Engineering Education, 2019 Paper ID #24757Dr. Yunfeng Chen, Purdue University Dr. Yunfeng Chen is an
[1]. This includes higher education makerspacenetworks like the Be a Maker (BeAM) Network at the University of North Carolina at ChapelHill, a liberal arts and R1 research institution that serves a diverse community of 18,000+undergraduate students from across disciplines. Integrating makerspaces into academic coursecurricula provides flexible and creative learning activities to instructors that want to addressmultidisciplinary learning outcomes [2]. Faculty at UNC-Chapel Hill have integratedmakerspace projects into more than 75 different courses across more than 30 academicdepartments [3]. These projects are creatively devised by faculty and makerspace staff,challenging students to analyze and apply course content throughout an iterative
bonding, (2). Pre-departure Symposium: during the first week of June, thePI hosts a 4-day in-person symposium aimed at providing technical and professionaldevelopment training for the IRES students. Additionally, this symposium serves to furtherencourage team bonding amongst the students and PI, and (3). 10-week research experience inStockholm: From June-August the students work in different host labs at SciLifeLab on a diverseset of bioinformatics-related projects. During the last week of the program, the PI hosts aresearch symposium where all IRES students present their research findings to their mentors andpeers. Lastly, all IRES students with accepted abstracts are given the opportunity to present atthe annual biomedical engineering society
. David P. Wick, Rochester Institute of Technology David Wick is an Associate Research Professor in the School of Individualized Studies and Assistant Vice President in the Division of Diversity and Inclusion at Rochester Institute of Technology. c American Society for Engineering Education, 2018 Work in Progress: Designing an Introduction to Biomedical Engineering course around a design challengeIntroductionFirst-Year science and engineering courses which have been modified to incorporate engaginghands-on, team-based projects have witnessed increased retention rates, greater knowledge gains,improved student satisfaction, and increased student enthusiasm over traditional
Mines, graduating in 1981. She worked as a Project Engineer for Exxon Co., USA at their Benicia, California refinery until 1983 when she returned to Mines as an Instructor in the Division of Engineering. While at Mines, Candy has served on the McBride Honors Tutorial Committee and is a member of the Affiliated Faculty of the Center for Engineering Education on campus. She currently serves on the Colorado School of Mines Alumni Association Board of Directors as a Denver Metro Director. Candy is currently serving as the Faculty Advisor of the Society of Women Engineers (SWE) and the American Society of Civil Engineers (ASCE) student organizations. ASCE at Mines is an
. Page 13.931.1© American Society for Engineering Education, 2008 New York Nano-Bio-Molecular Information Technology (NYNBIT) IncubatorAbstractThis paper presents the outcome of an effort made by a consortium of six universities inthe State of New York to develop a Center for Advanced Technology (CAT) in theemerging field of Nano Bio-Molecular Information Technology. The effort consists ofactivities such as organization of the NYNBIT incubator, collaborative research projects,development of courses, an educational program for high schools, and commercial start-up programs.IntroductionSix New York Universities met in the Fall of 2004 at a workshop held at the SUNYInstitute of Technology (SUNYIT), Utica, NY, and explored
Session 2525 Concurrent Engineering : A New Way to Introduce the Engineering Profession to High School Students Denis Proulx University of Sherbrooke AbstractSEEHIGHS program was developed to introduce high school students to the engineering profession. Initiatedin 1993 by two engineering students from the University of Sherbrooke (Quebec), the program’s mainactivity is a design project applying the principles of concurrent engineering. The program targets third yearhigh
fimdamentals of a 16-bit microprocessor. In the lab for; the second course, each student designs and implements a complete 8086-based microcomputer board. Once~ this prototype board is implemented, the student can use it for various microprocessor-based applications. ~A microprocessor development system designed to provide up-to-date development tools for the lab is also described. This development system is implemented as a network consisting of six stations, each equipped with a PC, an emulator, a logic analyzer and an EPROM programmer.!I INTRODUCTION For many microprocessor courses, laboratory projects are often limited to assembly language programming. A main reason is that software
the NSF publication, Undergraduate Education (NSF 94-160), “The objective of theILI (Instrumentation and Laboratory Improvement) Program is to support the development of experimentsand laboratory curricula which improve the science, mathematics, engineering, and technology education ofundergraduate students, both science majors and non-science majors, including pre-service teachers.” The program consists of two options:1. The Leadership in Laboratory Development option (ILI-LLD), which provides funds for resources, including time, technical support, and travel, in support of projects that have the promise of being national models for laboratory instruction. Proposals submitted under this program must address a major challenge
the NSF publication, Undergraduate Education (NSF 94-160), “The objective of theILI (Instrumentation and Laboratory Improvement) Program is to support the development of experimentsand laboratory curricula which improve the science, mathematics, engineering, and technology education ofundergraduate students, both science majors and non-science majors, including pre-service teachers.” The program consists of two options:1. The Leadership in Laboratory Development option (ILI-LLD), which provides funds for resources, including time, technical support, and travel, in support of projects that have the promise of being national models for laboratory instruction. Proposals submitted under this program must address a major challenge
twoofferings of the course, feedback from the students, and lessons learned by the instructors.Development of the CourseFor several years one of the authors has taught a traditional thermal design course which focuseson conventional energy sources and systems (ME 416 Computer Assisted Design of ThermalSystems). It is a design intensive course that significantly utilizes projects to facilitate thestudents’ learning. It has become a very successful course with one of the largest enrollments foran elective course in the mechanical engineering program. The authors decided to use thislearning model for a new course in alternative energy systems with an emphasis on design.A new course with a design emphasis was welcome, as the mechanical engineering
Technical State University. Dr. Ofori-Boadu has over twenty years of rele- vant occupational experience in construction technology/management (industry), teaching, research and service. Dr. Ofori-Boadu has served in various capacities on research and service projects, including Principal Investigator for two most recent grants from the Engineering Information Foundation (EIF) and the National Association of Home Builders (NAHB). In 2017, Dr. Ofori-Boadu received both the College of Science and Technology (CoST) Rookie Research Excellence Award and the North Carolina A & T State University (NCAT) Rookie Research Excellence Award. She also received the Teaching Excellence Award for the Department of Built Environment
Paper ID #16714Concept of a Human-Attended Lunar OutpostMr. Thomas W. Arrington, Texas A&M University Thomas Arrington worked as the student Project Manager for the Human Attended Lunar Outpost senior design project for the the Department of Aerospace Engineering at Texas A&M University in College Station. He has interned with Boeing Research and Technology three times, and was an active member of the Texas A&M University Sounding Rocketry Team.Mr. Nicolas Federico Hurst, Texas A&M 2015 Capstone Design Spacecraft Nico Hurst is a student of Texas A&M University. He recently graduated from the Aerospace
start-up venture. He received his BS degree in electrical engineering (1975) from California State University, Sacramento, and his MS (1980) and DE (1983) degrees in industrial engineering from Texas A&M University. His educa- tion and research interests include project management, innovation and entrepreneurship, and embedded product/system development.Dr. Jay R Porter P.E., Texas A&M University Jay R. Porter joined the Department of Engineering Technology and Industrial Distribution at Texas A&M University in 1998 and is currently a Professor in the ESET program and the Associate Department Head for Undergraduate Studies. He received the BS degree in electrical engineering (1987), the MS degree in
Paper ID #30561Incorporating an Entrepreneurial Mindset Competition into a StructuralAnalysis CourseDr. Seyed Mohammad Seyed Ardakani P.E., Ohio Northern University Dr. Ardakani is an Assistant Professor of Civil Engineering at Ohio Northern University. He has previ- ously served as Project Engineer at Englekirk Structural Engineers and Lecturer at South Dakota State University. He obtained his Ph.D. in Civil Engineering from University of Nevada, Reno. His research in- terests include seismic performance and design of reinforced concrete structures, computational modeling of structures, and engineering education
Paper ID #6888Learned Lessons from the First Year Research Experiences for Teachers Pro-gramDr. Tolga Kaya, Central Michigan University Dr. Tolga Kaya currently holds a joint assistant professor position in the School of Engineering and Technology and the Science of Advanced Materials program at Central Michigan University. Prior to joining CMU, Dr. Kaya was a post-doctorate associate at Yale University from 2007 to 2010, a research and teaching assistant at Istanbul Technical University from 1999 to 2007. In 2007, he was a consultant at Brightwell Corp. Dr. Kaya was also a senior VLSI analog design engineer and project
engineering from Auburn University. He has authored several book chapters and articles on follower component of leadership and is active in research on the leadership processes. Page 25.610.1 c American Society for Engineering Education, 2012 Capstone Project Problem StatementsFormulating a project problem statement can be a challenge for the capstone student. A reviewof capstone related literature indicates similar-not identical-approach to design that includevarious concepts of what is a problem statement, their development, evaluation and assessment.The literature focus is
of the course are outlined first to provide acontext within which this project was developed. An outline of the educational approach taken bythe author will follow. Then, a description of the projects and challenges faced by the studentswill be sketched out. A review of the students’ feedback on their experience will be described anddiscussed. Some suggestions on how to improve this experience will be made before concludingthe paper.The Microwave Engineering Technology Course at the University of Massachusetts, LowellThe University of Massachusetts, Lowell, is located in an area where high technology companiesare often competing in securing new graduates. At the same time, a need for continuing educationof their workforce has often brought
, designed simple memory systems, and investigated basic datacommunications. Special care was taken in organizing labs for these hands-onundergraduate and graduate courses. Students were assigned projects of increasingcomplexity from a simple control circuit to “Digital Pet” powered by the Motorolamicroprocessor (a semester project). Successful student teams demonstrated workinghardware models at the end of each semester.IntroductionThis paper describes projects and laboratory assignments for courses in the ElectronicsDivision of the Engineering Technology Department. After completion of the digitallogic introductory course students learned to utilize microcontroller technology through“hands-on” assignments. Class curricula integrated the Motorola