Rapid Manufacturing.Dr. Bonita Barger, Tennessee Technological University Currently, Dr. Barger is a Professor Emeritus of Management at Tennessee Technological University. She has diverse domestic and international operations experience in both for-profit and non-profit organiza- tions. Demonstrated ability to conceptualize and implement effective strategic human resource manage- ment plans that further broaden corporate objectives. Strong personal initiative, effective leadership skills, ability to influence others, proven collaborative style, and adaptability to various situations. Her research interests include creating global leaders and developing organizational talent. c American
Paper ID #16892Piloting Accessible Engineering Education OnlineRachel LeBlanc, WPI Rachel LeBlanc is the Executive Director of Corporate and Professional Education at Worcester Polytech- nic Institute. She manages the portfolio of non-traditional academic programs for the University including online programs, corporate education, and professional education. Rachel has over ten years of experi- ence working with faculty and industry experts to create education solutions to meet business needs. She manages a variety of functional areas including business development, marketing, product development, and operations
AC 2012-4995: RESEARCH AND LEADERSHIP EXPERIENCES FOR UN-DERGRADUATES (RLEU) IN OPTIMIZATION WITH ENGINEERINGAPPLICATIONSDr. Jose F. Espiritu, University of Texas, El Paso Jose F. Espiritu is an Assistant Professor in the Department of Industrial, Manufacturing and Systems En- gineering at the University of Texas, El Paso. He is interested in interdisciplinary research that focuses in the understanding of the energy and sustainability challenges and alternative energy issues through inno- vative solutions for consumers and industry. His research work has been published in several recognized journals such as Electric Power Systems Research, the Engineering Economist, and the Journal of Risk and Reliability
, and industry leaders.As it continues in its second decade of service, the NCME is reaching out as a leader in facingthe variety of challenges facing engineering technology educators. The NCME’s success in thepast has depended on its collaborations with organizations and individuals, and thesecollaborations have become more important as the center’s scope and mission are expanded. Asan active national advocate for STEM education, and with the efforts of all its partners, theNCME’s goal is to address not only current issues, but also to be proactive in meeting the needsof engineering technology educators and students throughout the US. Page
Engineer in Florida.Dr. Richard Gilbert, University of South FloridaJames Janisse, Fox Valley Technical College Page 26.167.1 c American Society for Engineering Education, 2015 The Emerging Technology and Technician WorkshopIntroduction In January 2014, the Digital Fab Lab Learning Community (DFLC) and the Florida AdvancedTechnological Education Center of Excellence (FLATE) designed and developed a 3 dayworkshop “The Emerging Technologies and Technicians” (ETT) Workshop. St. PetersburgCollege (SPC) in their Collaborative Center for Emerging Technologies, or CCET, hosted theworkshop
Session #2249 Business and Education Cooperation through Classroom Projects Troy Harding, Les Kinsler, Pedro Leite, and Thomas Mertz Engineering Technology Department Computer Systems Technology Kansas State University – SalinaAbstractThis paper describes the incorporation of projects supplied by localbusinesses/industries into computer software courses in an attempt to provide studentswith an opportunity to develop collaborative problem solving skills, teamwork,professional responsibility, and most importantly an exposure to design
, simulating the transition ofthe product to an improved version or phasing out of the existing product.In order to accomplish these objectives, students will be introduced to EDS, Inc PLM softwarecomponents – Unigraphics® and Teamcenter®. Unigraphics® provides an integrated andcomprehensive family of total product engineering solutions that enable the user to digitally createand capture 3D product definitions. The version of Unigraphics® that will be used is particularlyrelevant to electronics and consumer products. It is currently used by many of the world's leadingmanufacturers to perform conceptual, industrial and detailed mechanical design along withengineering simulation and digital manufacturing. Teamcenter® is a software bundle that
students in their futurecareers.Another problem along the same line is that the students are not always cognizant of the Page 3.189.1continuity between classes. More often than not, students accept taking a course as an end initself, and once a course is completed, everything learned can be laid aside and hopefully neverused again if possible.Solutions/MethodologySome technical educational programs are trying to address these problems in terms of capstoneor senior design courses which entail students working on industry-scale problems assisted bycollaborative teaching, coaching and advising by faculty. As ideal as this approach may seem
over the next four years. The EnvironmentalAnd Spatial Technology (EAST) Project was selected based upon its cost effectiveness, ease ofduplication, the collaboration of community, industry and educators, efficacy as a programmodel and the potential for institutionalization. The purpose of this paper is to share WIT’sexperiences with this initiative as a possible best practices model for other program developers.Project EASTThe EAST Project originated in Arkansas as a collaboration between industry, school districts,community organizations, and institutions of higher education. EAST leverages its industryconnections to secure donations of technology hardware, software, and technical assistance toprovide schools, mostly in underserved rural
challenged to incorporate activelearning approaches into all efforts. Because of this challenge, the authors are attempting an Proceedings of the 2024 ASEE North Central Section Conference Copyright © 2024, American Society for Engineering Education 1overhaul of their introductory workshop on industrial standards resources and tips for locatingrelevant standards as needed, something all engineering students should master throughout theirundergraduate study. Activities focus on scenarios that students can attempt during the workshopafter a resource and strategy introduction. Although the librarians concerned have
problem solving in multidisciplinary andinterdisciplinary teams. Undergraduate engineering students often are trained in disciplinaryconcepts and techniques of their specializations, but rarely given opportunities to reflect uponhow they work with collaborators. Here, we discuss a course that brings students fromengineering and non-engineering fields together to grapple with a technical and conceptualchallenge: designing and building drones for humanitarian purposes. This paper describes an“Engineering Peace” course and discusses preliminary findings from surveys, focus groups, andobservations regarding the course’s effects on students’ multidisciplinary and interdisciplinaryskills. This material allows us to analyze the emergence of professional
the formation of a global learner mindset.Global Engineering Competency (GEC) has been defined as the attributes uniquely or especiallyrelevant for cross-national/cultural requirements in the engineering practice [5]. The globalnature of the engineering profession, with expected growth in international collaborations acrossthe spectrum of engineering functions, has led to a demand from industry for the development ofGEC as a competency for future generations of engineers [5] - [10]. A number of engineeringprofessional societies including the American Society for Engineering Education (ASEE), theNational Academy of Engineering (NAE) and the National Science Foundation (NSF) also seethe development of GEC as an important part of the formation
next two semesters,the team collaborated, negotiated and designed the CVEEN 3100 Technical Communication forCivil Engineers course as it is currently taught.The course objectives have been narrowed from the original broad goal of improving students’capability to write clearly. The new objectives are familiarizing students with specific industry-standard report and presentation types, increasing their ability to produce professional reports,and increasing their ability to obtain a job after graduation by honing their resume writing andinterviewing skills. Besides these more specific objectives, the course has taken on a role withinthe progressive communication heavy course thread within the four year curriculum, whichmeans that it must build on
accommodate varying learning paces and allow deeper engagement with complex concepts. ● Resource Allocation: Directing institutional resources toward developing accessible learning materials and adaptive technologies that support diverse learning needs. ● Partnership Development: Establishing collaborative relationships with industry partners committed to neurodivergent inclusion, integrating job coaching and mentorship opportunities into program design.Research and Evaluation FrameworkTo ensure continuous program improvement and contribute to the broader field of inclusive AIeducation, we recommend implementing: ● Longitudinal Assessment: Systematic evaluation of program outcomes through extended timeframes
Paper ID #47867BOARD # 173: Teaching elasticity through jigsaw classrooms: Impact onstudents’ experiential learningDavid Olubiyi Obada, Africa Centre of Excellence on New Pedagogies in Engineering Education (ACENPEE),Ahmadu Bello University, Zaria, Nigeria David O. Obada holds a Ph.D. degree in mechanical engineering from the Ahmadu Bello University, Zaria, Nigeria, specializing in production/industrial engineering. His research interests include fracture mechanics, advanced materials, and condensed matter physics. Before joining the Atlantic Technological University, Ireland, David was a research fellow at the University
sustainability [19]and related leadership skills such as communications, critical thinking, and teamwork. The visionof EOP is that sustainability will become a core tenet of the engineering profession. This alignswith the growing demand in the industry for engineers with sustainability skills for post-graduatecareers. Recent studies show that the demand for sustainability skills across fields, includingengineering and sectors, is increasing faster than the supply of professionals equipped with theseskills [21], [22].The Lemelson Foundation and VentureWell catalyzed EOP in collaboration with hundreds ofsustainability advocates across sectors; the EOP initiative envisions a world in which allengineers play a critical role in ensuring that the solutions of
non-MSE engineering students. The project led students to connect the dots between thetextbook chapters, the classroom discussion and the homework assignments. Additionally, theproject provided students with an opportunity to practice their public speaking and presentationskills through the ‘poster session,’ an important aspect of their growth as a STEM engineeringgraduate.In the future, the instructors plan to explore pathways to have the material’s project centeredaround a societal cause (such as a local community-driven social project) or an actual case-studyproblem in collaboration with the local materials and manufacturing industries. The motivationbehind this approach is to give students a project assignment that will help the community
innovation education.Collaboration with IndustryThe INNOV initiative fosters direct engagement between students and industry professionals,integrating real-world applications into the curriculum through project-based learning and fieldexcursions beyond traditional coursework. The innovation courses offer students early exposureto hands-on, interdisciplinary team projects under the guidance of faculty and industry mentors.This early immersion into practical problem-solving with mentorship from both academic andprofessional spheres equips students with invaluable team collaboration and innovation skills.Furthermore, the inclusion of industry mentors from a broad spectrum of STEM and non-STEMfields enriches the program, allowing students to absorb
needs. Different professional advisors are also involved becauseof limitations. Computer Engineering students receive advisement from outside their department.Computer Science and Computer Engineering are separate departments and have differentrequirements. Additionally, Solis oversees student activities, which demands collaboration acrosscampus and with external partners, such as industry mentors and two other collaboratinginstitutions, for joint initiatives. An example of these activities is the yearly Spring Symposium,which entails several months of preparation. This preparation involves coordinating withindustry mentors, coaching scholars for their presentations, and planning the event, includingsecuring rooms, arranging catering, ensuring
with theproblems of the world and beyond [19]. Thus, both students and professionals can harmonizevarious types of knowledge and be able to reach new and different ways of thinking about thesame diatribe [20]. There are five categories in which the benefits and advantages of differentinterdisciplinary and multifaceted studies can be summarized [1]. These are: providingsustainable solutions to crucial problems, improving current research problems from the root,stimulating a specific disciplinary area, facing and challenging modern knowledge andunderstanding the real world, and promoting the development of new methodical approaches[21].For collaboration and interdisciplinary studies, a great barrier that is the need for collaboration ofteachers
an industry work environment, a collaboration approachthrough the lab experiments and activities in a physical usually involves working in a small team with a shared focuslaboratory. Students can interact directly with the laboratory and design objectives. This small team could be a part of aequipment. The equipment on the bench is used by the larger team using a divided and conquer approach. The smallstudents to verify principles and theory covered in a team approach encourages
(mainly in the form of energy consulting). Most stakeholders perceive UPRM as an objective entity that provides advice when requested. In the early 1990's engineering professors began broadening their scope of actions by actively promoting and supporting novel and alternative energy options within professional societies, and among policy makers and government officials (local and state). A salient example was Dr. José Colucci (formerly with UPRM’s Chemical Engineering Department) who championed various energy initiatives in Puerto Rico such as biofuels, the use of fuel cells, multi-sector energy collaborations (university, industry and government) and forums to openly discuss polarizing energy topics such as waste to energy technologies. He was
college and pre-college programs in most academic disciplines in the state. We present the development andimplementation of our activities that are designed to increase the number of underservedminority students interested in STEM programs in nuclear science and technology. The impact ofour activities in addressing challenges and providing skills developed and utilized in theimplementation of Experiment-Centric Pedagogy (ECP) framework has led us to innovative andpractical solutions. Our initial activities include experiential learning and research, usingadvanced nuclear technology, exposure to professionals working in the nuclear energy industry,and provision of skills to K-12 teachers, parents and adult family members to work with andencourage
of California at Berkeley, and a Ph.D. in Environmental Health Sciences at the University of Michigan.Ms. Magdalini Z Lagoudas, Texas A&M University Magda Lagoudas, Executive Director for Industry & Nonprofit Partnerships, has been at Texas A&M University since 1992 and served on several capacities across the College of Engineering, including Di- rector for the Space Engineering Institute and Associate Director for the Space Engineering Research Center. Current responsibilities include pursuing strategic partnerships with industry to provide engineer- ing students with opportunities to collaborate on multidisciplinary teams addressing real world challenges and with industry engagement. College
Conceive – Design – Implement – Operate(CDIO) model, continuous improvement integration, closing the gap between research andpractice in engineering education, industry collaboration, global sourcing, “EngineeringEducation 4.0”, deep vs. broad knowledge in interdisciplinary education, 24-hourentrepreneurship competitions, entrepreneurship training for engineering students, appreciationand understanding of non-disciplinary perspectives, and inventive problem solving.For integrating innovation into “Capstone- or Large Project-only” focused literature [81 – 108],topics and coverage includes: project-based learning comparing team-based vs. individuallyassigned projects; integrating business skills; CDIO; integrating design, manufacturing andbusiness
(KalamazooValley, Riverland, Ivy Tech, and Highland), a wind energy company (EDF Renewable), twoATE Centers (CA2VES & AMTEC), and a university research center (CIVS) are collaboratingon this project. Some team members have worked together on various projects including thedevelopment of a variety of software for wind energy education and technician training. Aleadership team consisting of the PIs and representatives from community colleges, industry, andATE centers is overseeing the development and implementation of the project. Communitycolleges are leading the curriculum and educational module design and implementation for thesimulator. Industry collaborators are advising on the skills needed in industry. CIVS isdeveloping the simulator. Formative
, energy management and alternative energy production.What is PSM?The PSM is an innovative new master’s program designed to prepare students with thescientific training necessary to advance and excel in science, while simultaneouslydeveloping highly valued business skills. Programs are characterized by "science-plus"curricula, combining rigorous graduate study in science or mathematics with skills-basedcoursework in management, policy, or law. PSM programs emphasize the written and verbalcommunication skills, leadership, and team-building required in professional settings. Insteadof a thesis, most PSM degrees require a collaborative research project, as well as an internshipin the industrial sector. PSM graduates are equally as comfortable in the
- ing education and promoting study abroad opportunities. Page 23.826.1 c American Society for Engineering Education, 2013 Introduction to German Engineering - A Transatlantic Experience.AbstractNumerous universities provide semester- or year-long overseas educational experiences forundergraduate students. However, few provide intensive short experiences focused onintroducing engineering students to the differences in process design, industry, and culture. Thispaper presents a unique opportunity for US students to participate in an award
employment, and also the interest in industrial collaboration with localcolleges and universities to establish courses on standardization. This paper presents the results based on industry segments. These include alternativeenergy, automotive, aerospace, computers and electronics, construction, medical, military/government and health/public safety.Standards in practice todayPractitioners of the ‘baby boomer’ generation are generally the standardization experts of today.As that generation begins to retire, there seems to be waning interest among recent engineeringor technology graduates to fill the looming void in standardization expertise. Despite the daily interaction humans have with standardized products or processes, rarelyis the
communications skills, students areintroduced to engineering professionalism through community service as part of theTexas Tech University Service Learning Program. Through this partnership, the Collegeof Engineering and the department of Industrial Engineering have piloted a successfulrigorous course that steeps undergraduate engineering students in the theory and practiceof communication and in service learning.For the past six years, the TTU College of Engineering has been collaborating with Page 9.768.2Lubbock Independent School District to establish a community partnership. In order to Proceedings of the 2004 American Society for Engineering