.11. Ridge, D., et al. Beowulf: Harnessing the power of parallelism in a pile-of-pcs. 1997.12. Vacek, G., D. Mullally, and K. Christensen, Trends in High-Performance Computing Requirements for Computer-Aided Drug Design. Current Computer-Aided Drug Design, 2008. 4(1): p. 2-12.13. Hacker, T.J., et al., Developing a Curriculum for High Performance Computing and Cyberinfrastructure Education., in Proceedings of the American Society for Engineering Education Conference for Industry and Education Collaboration. 2008: New Orleans, LA.14. Patterson, D., G. Gibson, and R. Katz. A case for redundant arrays of inexpensive disks (RAID). 1988: ACM New York, NY, USA.15. Gray, J. and P. Shenoy. Rules of thumb in data
Paper ID #46382Experiences of Self-Evaluation for Capstone Engineering Students ProfessionalDevelopmentProf. Emily Houston Monroe, Dartmouth College Emily Monroe, PE is a lecturer at the Thayer School of Engineering at Dartmouth College. She serves as the director of the Cook Engineering Design Center at Dartmouth, which connects industry, government and nonprofit sponsors with Dartmouth Engineering students to collaborate on engineering design projects. Prior to joining Dartmouth, Emily was the lead engineer at Shark Tank-funded baby diaper startup Kudos, and she previously held roles in manufacturing and product
addressingair quality is to develop effective strategies for reducing emissions from various sources, includingtransportation, industry, and energy production. This requires the development of newtechnologies, such as electric vehicles, clean energy sources, and efficient industrial processes, aswell as the implementation of policies and regulations to encourage the adoption of thesetechnologies.Interdisciplinary collaboration: The complex issues involved in improving air quality requireinterdisciplinary collaboration between engineers, scientists, policy makers, and communities.Engineers must work closely with other professionals to understand the social, economic, andenvironmental factors that influence air quality and to develop integrated solutions
engineering technology and engineering students.• The creation of a web-based conferencing system to network the five campuses and industry partners in order to enhance the learning process and facilitate collaborative learning.• The closure of the competency gaps identified by regional employers in new hires including technical and professional skills in manufacturing.• The creation of 20 learning modules in five areas of study - Engineering Materials, Manufacturing Processes, Quality and Metrology, Computer Applications in Manufacturing, and Programmable Logic Controllers with projects from industry partners.• The implementation of materials common to both two- and four-year institutions.• The creation of a flexible, user
., mechanical engineering [3] andcomputer science [4]). Both advantages (e.g., increased efficiency, knowledge sharing, etc.) anddisadvantages (e.g., extra coordination efforts, lack of trust, etc.) of the globally distributedteams have been widely discussed by many previous studies [5-6].One of the many goals of engineering education is to create a learning environment in whichstudents can obtain some “real world” experience which make them more prepared for theengineering practice in industry. Therefore, it is important to provide engineering students withsome virtual collaboration experience being situated in the globally distributed teams. Strictlyspeaking, geographically distributed team is not entirely foreign to the engineering classes. Withthe
academic and professional futures.3. Course Design and ObjectivesThis course is a small component of a Title V project, the City Tech STEM SuccessCollaborative, funded by the US Department of Education, aimed at enhancing retention,graduation rates, and workforce readiness among Hispanic and low-income students interested inSTEM fields. The project emphasizes the early academic support and integration of academicresources to foster career awareness, engagement, multidisciplinary collaboration, hands-onproblem-solving, and alignment with current industry practices. This initiative aims to streamlinethe educational journey, minimizing time to degree completion and reducing the accrual of non-contributory credits.Course objectivesThe 'Exploring
Paper ID #47199Promoting STEM through summer research experiences for K-12 teachers ina group settingDr. Hua Li, Texas A&M University - Kingsville Dr. Hua Li, a Professor in Mechanical and Industrial Engineering at Texas A&M University-Kingsville, is interested in AI, sustainable manufacturing, renewable energy, sustainability assessment, and engineering education. Dr. Li has served as P.I. and Co-P.I. in various projects funded by different federal agencies.Prof. Kai Jin, Texas A&M University - Kingsville Dr. Kai Jin is a Professor of Industrial Engineering and Co-PI of the MERIT project. Her research interests
. [11], much of this research focuseson the array of EL programs that have been developed over the years. These Academic and Co-curricular Programs include those emphasizing collaboration with industry partners, particulardisciplines (e.g., Civil Engineering [30] or Manufacturing [36]), student level (e.g., graduateteaching assistants [33] or general EL development), and program type (e.g., academies,scholarships [32]). While most of the papers describing the programs and their developmentinclude some sort of evaluation to demonstrate efficacy, one cluster of papers specifically speaksto approaches for Evaluation of EL Programs. In contrast, fewer papers have been publishedregarding the Internal Structures, Policies, and Practices of
. Dr. Lawanto has managed several NSF-funded projects with an engineering education focus. He also has extensive experience in working collaboratively with several universities in Asia, the World Bank Institute, and USAID to design and conduct workshops promoting active-learning and life-long learning that is sustainable and scalable. Dr. Lawanto’s research interests include cognition, learning, and instruction, and online learning.Linda Davis Ahlstrom, Utah State University Linda Ahlstrom PhD student currently studying Engineering Education at Utah State University. Interested in the Univerity to Industry interface and the use of AI tools in engineering. MS Electrical Engineering Cal State Long Beach. Worked in
the program. D3EM also collaborates with potentialemployers in industry, national labs, and academia to seek advice in preparing the graduatetrainees for a wide range of career options. The program was funded in 2015 and began in 2016.Since 2016, this two-year training program has trained 44 doctoral students and 3 master’sstudents from materials science & engineering, chemical engineering, mechanical engineering,electrical & computer engineering, industrial and systems engineering, aerospace engineering,chemistry, and physics. Overall, the program aims to equip students with advanced skills in materials discoveryand broaden students’ career paths in several ways. In the first-year training, students weregrounded in their home
ProceedingsElectrical Engineering faculty in Moscow and five in Boise, the virtual department consists of twentytotal faculty, collectively with a broader range of expertise. The virtual department can only succeed if there is excellent and reliable communication betweenthe two sites. Recent advances in modes of communication are the key to this. For example, facultymeetings have been held using a high quality speaker phone. Last year, a digital compressed videosystem was added. Meetings between collaborating researchers, supervision of graduate students, officehours for interactive video classes, and meetings of industry advisory boards are just a few of the host ofopportunities for unity that such communications hardware provide. UI faculty in Boise
involved with her department’s Student Advisory Board and the Idaho Gamma Chapter of Tau Beta Pi Engineering Honor Society. Shelby is also one of the cofounders of the university’s revitalized Baja SAE Team, Bleed Blue Racing.Dr. Krishna Pakala, Boise State University Krishna Pakala, Ph.D, is an Assistant Professor in the Department of Mechanical and Biomedical En- gineering at Boise State University (Boise, Idaho) where he has been since 2012. He is the Faculty in Residence for the Engineering and Innovation Living Learning Community and the Faculty Associate for Accessibility and Universal Design for Learning. He is also the Director for the Industrial Assessment Center at Boise State University. He served as the
theinterdisciplinary service course Introduction to Electrical Engineering for all non-EE majors atMichigan Technological University. The curriculum optimizes the current 3-credit service courseby addressing: (1) the general needs of all majors through in-class lectures and lab experiments,and (2) special needs of all majors by designing a web-based teaching and lab system. In order tospecify the general and special needs of non-EE majors and form an overall curriculum for them,a survey was designed and distributed to universities and industry. Faculty members, studentsand industrial personnel responded to the survey. This work presents an analysis of the surveyand describes a preliminary overall curriculum for this course
Paper ID #44233Mass Timber Structural Engineering Curriculum: Assessment of CurrentTeaching and Resource NeedsCade Person, Michigan State University Cade Person is a third-year undergraduate student at Michigan State University, where he is pursuing a Dual BS/MS degree in Civil and Environmental Engineering, with a specialized focus in energy and sustainability. Cade works as a research assistant in the Department of Civil and Environmental Engineering and is a member of the the Michigan State University Industrial Assessment Center. Cade supports collaboration between the multiple departments and MassTimber@MSU on various
insight and perspective on other disciplinary rolesin the design collaboration. First, an industrial design exercise on sketching wasconducted to introduce an effective means to rapidly convey ideas. “Thumbnailsketching” exercises that gave students 20 seconds to draw a prompt given by theinstructor showed that everyone could draw a sketch that conveyed an idea regardless ofaesthetic talent. After the sketches were complete, groups of students were asked tocluster similar sketches to show that seemingly different sketches shared meaningfulunderlying characteristics. Second, a marketing exercise on designing product boxes11was conducted to help students capture the attention of intended users and convey thevalues of the product. Guided by a
Paper ID #13550Multidisciplinary Vertically Integrated Teams Working on Grand ChallengesMs. Magdalini Z Lagoudas, Texas A&M University Magda Lagoudas, Executive Director for Industry and Nonprofit Partnerships, Dwight Look College of Engineering, Texas A&M University. Mrs. Lagoudas holds a BS and MS in Mechanical Engineering. She worked for the State of New York and industry before joining Texas A&M University in 1993. Since then, she developed and taught courses in the Departments of Mechanical Engineering and Engineering Technology. In 2001, she joined the Spacecraft Technology Center as an Assistant
updated student standards, rapidly changing impacts of artificial intelligence (AI), andan increasing number of school systems requiring a CS class for graduation. In order to preparefor these changes – as well as to address the equity issues that have plagued CS since its inception– we engaged in a project designed to reimagine content and pathways for high school CSeducation. As a collaborative project, we hosted multiple events for relevant parties (includingK-12 educators and administrators, higher education faculty, industry professionals, state anddistrict CS supervisors, and CS education researchers). These events were designed tocollaboratively seek input for the creation of a series of reports recommending what a CS coursethat satisfies
242 Transforming Engineering Education through Innovation and Entrepreneurship Program at MUSE R. Radharamanan School of Engineering, Mercer University, Macon, GAAbstractA self-sustaining Center for Innovation and Entrepreneurship (CIE) established at the MercerUniversity School of Engineering (MUSE) serves to promote and enhance cross-disciplinaryeducational programs (teaching, collaboration, and learning) as well as research and scholarlyactivities among Mercer faculty and students on innovation, creativity, and entrepreneurship. TheSchool of Engineering
what we will henceforth refer to as plannedremote teaching in Fall 2020.B. Description of the New Engineering Education Transformation ProgramPresent-day industry requires employees and entrepreneurs with skills that are essential forthriving in the 21st century, such as collaboration, communication, creativity, and learning on one’sown. Many of these essential skills are not acquired during traditional undergraduate engineeringeducation, centered on lecturers and recitations [3], [4]. The need for students to acquire theseskills is also reflected in papers published by the OECD (Organization for Economic Co-Development) [5] and the US NRC (National Research Council) [6]. More particularly inengineering higher education, ABET’s student
graduating, Caleb joined the United States Marine Corps and served as a Reconnaissance Ma- rine at 3rd Reconnaissance Battallion in Okinawa, Japan from 2006 to 2010. Following his enlistment in the Marine Corps, he worked as a weapons and tactics instructor for M¨obius Industries, in Okinawa, teach- ing Marines and sailors prior to unit deployments. Caleb and his family returned to the United States in January of 2015, when he enrolled at The University of Texas at Tyler and declared mechanical engineer- ing as his major. Currently, he works as a tutor in the University tutoring center for Several engineering courses and is also an undergraduate research assistant in the Mechanical Engineering department.Dr. Chung-Hyun Goh
. Steven R Little, University of Pittsburgh Page 24.1384.1 c American Society for Engineering Education, 2014 Work in Progress: A Vision for the First “Product Innovation Sequence” for Chemical EngineersChemical engineers who enter the marketplace today are facing a vastly different reality thanthose who started their careers even five years ago. Keith Watson, (Senior Director, StrategicMarketing, Dow Chemical Company) noted in 2011, “The attributes needed to compete foremployment in the modern chemical industry have changed
for Engineering Education, 2015 Developing Safety Training on Warehouse Worker Hazards for Structural Steel Fabricating and Supply CompaniesThe paper presents the results of a collaborative effort between two US universities, TheAmerican Institute of Steel Construction (AISC) and a steel fabricating corporation to developand implement a bilingual (English and Spanish) safety training program on warehouse workerhazards for structural steel fabricating and supply companies. Structural steel fabricators receivestructural steel material, fabricate structural elements for steel framed buildings and bridges andthen ship fabricated material to projects. Steel service centers purchase material from steel millsand distribute steel to
Kansas. His professional and community activities include: » Association of Politics and the Life Sciences » American Political Science Association » Hospitals for a Healthy Environment » Policy Studies Organization » Rebuilding Together Tulsa, Board of Directors » Step Up Tulsa! » Sustainable Building Industries Council Page 13.1126.1© American Society for Engineering Education, 2008 Sustainability and International StandardsAbstractThis paper describes the need for courses that link standards and sustainability and reviews anOklahoma State University Environmental Science
University. Additionally, he has six years of industrial experience as a Senior Engineer and 17 years of academic experience as a professor, Associate Professor, and Assistant Professor. Foroudastan’s academic experience includes teaching at Tennessee Technological University and Middle Tennessee State University in the areas of civil engineering, me- chanical engineering, and engineering technology. He has actively advised undergraduate and graduate students, alumni, and minority students in academics and career guidance. Foroudastan has also served as Faculty Advisor for SAE, Mechanical Engineering Technology, Pre-engineering, ASME, Experimental Vehicles Program (EVP), and Tau Alpha Pi Honors Society. In addition to
; Exposition Copyright © 2005, American Society for Engineering EducationConclusionsIn documenting our experiences in developing a Master’s Degree program in EngineeringManagement, we provide insight into the process, tasks required, and strategic decisionsmade in designing a program to meet our specific needs and constraints.The first insight is that program development is a collaborative effort. We enlisted theentire engineering faculty and consulted with faculty from business and statistics. Wesought input from stakeholder constituencies including Industrial Advisory Boardmembers and potential students. We sought council from recognized scholars inengineering management. We modified the program based on the guidance and inputfrom
engineering to the biologicalsciences. They must express mathematical and scientific concepts within a socio-economicframework. They must enable mentor relationships between educators and students, whereby thelearning process is a non-linear, joint exploration that includes collaboration with colleagues andwith industry. Few technologies offer a scope of applications as broad as Rapid PrototypingTechnologies (RPT), while being accessible enough for freshman-level students with limitedengineering exposure. Because of this, RPT is an ideal tool for modern engineering education.Rapid Prototyping is an important developing technology that enables the fabrication of customobjects with novel properties directly from computer data. The basic operation of
, systemsare becoming better and the quality is improving.We at the University of South Florida are beginning to use simulcasts of television courses onHTFS low power microwave systems while at the same time delivering the course live on theInternet with worldwide capabilities. This summer of 2001 all FEEDS (Florida EngineeringEducation Delivery System) in the Industrial & Management Systems Engineering Departmentwill be simulcast. Test cases have already been done and they were successful. Satellitedelivery systems are available, however the cost of such delivery is quite high compared to othersystems. If someone wants to pay the cost of satellite use then this system can be used.Florida Engineering Education Delivery System (FEEDS) The
student had an opportunity of working with scientistsin two Universities collaborating on an environmental engineering project. Water pollution has been a growing problem for all nations as a result ofindustrialization. Most of the industrial pollutants are toxic and have been classified as hazardousand carcinogenic. Typical examples generated from dyes used in the textile industry and found inwastewater are phenolic compounds. The development of economically treatment processes toremove these substances has been of research interest worldwide. A physical-chemical methodusing chitosan and a biochemical method using laccase for the potential removal of phenoliccompounds from an aqueous medium was investigated. The dual state behavior of
must return to a previous phase: · defining the problem; · developing concepts or solutions; · evaluating, and choosing among, solutions; and · implementing and communicating the design.2. Accumulating and Articulating Design Knowledge in the Curriculum Design has been strengthened in the engineering curriculum over the last decade. Itsmain functions in the curriculum are the motivation and retention of students in lower divisioncourses, as well as the use of capstone design courses to show students applications ofengineering knowledge and to prepare them for the applied and collaborative workplace mostwill enter on graduation. Pressure from ABET, government agencies, and industry has driventhis renewal of interest in
industryenvironment smoothly. In this course, the students bring together knowledge from previouscourses, supplement it with new learning through self-studies plus applications, and producedesign solutions to industry level problems by observing engineering and regulatory standards.This paper discusses the Capstone Design model used at Southern Arkansas University withreference to its implementation and relevance to the ABET accreditation process, to share ourexperience with the academic community.Key Words: Capstone Design, Senior Design, ABETIntroductionSince the introduction of Capstone Design to engineering programs, the course has evolvedsignificantly to provide a major design experience to engineering undergraduates. TheAccreditation Board for