programs, curriculum and workforce initiatives, including the National Association of Manufacturers Ed- ucators’Council. She is a Fellow of the American Society of Engineering Education, a member of Tau Beta Pi and Epsilon Pi Tau honor societies. She is a charter member of both the National Academy and the University of South Florida’s Academy of Inventors. Dr. Barger holds a licensed patent and is a licensed Professional Engineer in Florida.Dr. Richard Gilbert, University of South FloridaMr. Michael C. Ennis, Harris Corporation Michael Ennis is a Manufacturing Engineer for Harris Government Communications Division and an Adjunct Professor at Brevard Community College in Palm Bay, Florida. Harris is an international com
Institute for MetalworkingStandards (NIMS) certified. The PMT has four full time faculty, an extensive machine tool laboratorywhich includes all traditional and CNC machining equipment, and CNC wire and plunger EDMequipment. Restructured entire machine tool curriculum to better align with the VIP model.Keene State College Partner Sustainable Product Design Polycom linkKeene, & Innovation (SPDI) Curriculum developmentNew Hampshire Modeling & Industrial and integration of Design curriculum into Rapid Prototyping
concepts in existing coursework will serve as a pilot to teachSPD without increasing the number of credit hours for the program. Learning outcomeassessment of this pilot effort should guide the next phase of integrating SPD in engineeringtechnology curricula.ConclusionsSustainable product development is a necessity for companies wishing to compete in the moderneconomy. While product development processes with a sustainable focus are being implementedin industry, little effort has been devoted to developing a generalized theory of SPD suitable forintegration within educational curriculum. The generalized SPD proposed herein consists ofboth an engineering process and leadership framework, which is well suited for demonstrating tostudents the broad
already and some best practices are in place; some are offering a minor inleadership development. Others have developed an Office of Leadership Programs to coordinatewith all academic programs to offer comprehensive leadership curriculum for all undergraduatestudents. One school is working with Student Affairs and other programs to offer co-curricularleadership opportunities, developing leadership skills with an emphasis on character, integrityand professionalism. A number of schools are developing institutes for engineering leadershipthat take a variety of forms. Some use student clubs and extra-curricular projects as methods ofdeveloping leadership skills.Many are seeking ways to foster opportunities to learn leadership integrated within
program outcomes. Most manufacturing programs welcome the external review tovalidate their efforts.The Four Pillars of Manufacturing Engineering (Four Pillars) model was developed in 20114. Itprovides a clear graphical outline of the core content of manufacturing programs. The four pillarsmodel has been adopted by the accreditation groups in ABET and ATMAE, through the SME.The four pillars model groups specific knowledge and skills into topic- and process-basedcategories. The content of the Four Pillars model has been related to industry practices includinga recent study by Nutter5. Therefore, an assessment plan that maps an academic curriculum to thefour pillars can directly establish an industry relevance.This paper outlines a process for
enroll in the ET degree program with 15 credit hours under their belt. Finally,various Workforce Florida programs provide CPT skill set training opportunities tounemployed workers. Although their primary objective is to make a person work readyand immediately employable, a trainee who achieves the CPT credential also acquires apathway to an A.S. Degree which, in itself, provides a pathway to a better lifestyle.The implementation of the CPT pathway for unemployed and incumbent workers wasstraight forward. Workforce Florida recognizes the merit of the CPT and provides fundsto support specific CPT certification training. The development of the CPT pathway wasa more involved process. Curriculum frameworks for a new program of study had to bewritten
gene delivery to targeted tumors. This NIH-supported research has resulted in many publications and patents as well is the first FDA approved drug delivery clinical trail in the United States and the first FDA approved gene delivery trial in the world. Gilbert’s education efforts include the co-creation of the Florida Advanced Technological Education Center (FLATE) and a Co-PI of the NSF-ATE grant designating FLATE as a NSF Regional Center of Excellence. Gilbert together with Dr. Marilyn Barger, an ASEE Fellow, are co-creators of an entire K-5 engineering for elementary education curriculum that has been presented at the ASEE conference, adopted by D.J. Jamerson Elementary School in St. Petersburg, Fla., and
AC 2010-2343: MARRYING MANUFACTURING PROGRAMS WITHBIOLOGICAL AND BIOMEDICAL ENGINEERING FIELDSArif Sirinterlikci, Robert Morris UniversityJohn Mativo, The University of Georgia Page 15.854.1© American Society for Engineering Education, 2010 Marrying Manufacturing Programs with Bioengineering and Biomedical Engineering Fields and MoreIntroductionThis paper focuses on program and curriculum development in order to sustain and enhancemanufacturing engineering programs. The idea of emphasizing product design and developmentor integration of micro- or nano-manufacturing into manufacturing curriculum is attractive andimportant for the survival of the discipline. On
efforts weremainly directed to the development of novel curriculum materials for an associate degreeprogram in manufacturing engineering technology. Later efforts led to the implementation of apopular clearinghouse for high-quality educational materials called METEC – Manufacturingand Engineering Technologies Education Clearinghouse [www.METEConline.org]. METECserves as the primary education clearinghouse for the SME Manufacturing Education &Research Community and the ASEE Manufacturing Division. An important Internet-based initiative, called careerME.org, is directed to young peopleto enhance the awareness of the manufacturing engineering field and other STEM-related careerpaths. With partial funding by the SME Education Foundation
simulation modelsof actual manufacturing operations. Each student team prepares PowerPoint materials which arepresented to representatives of the company. Recent projects included work with majorautomotive original equipment manufacturers (OEMs) and suppliers, along with a major defenseindustry company. This paper and presentation includes examples of simulations and the resultsof the students’ analysis of the operations.The simulation applications used in these industrial projects include robotic workcell processing,ergonomics analysis, and discrete event materials/process flow studies. This curriculum has alsoprovided an opportunity for integration of several technologies and manufacturing managementaspects into application-based environments
expose more students to the makerspace and to leverage making in helping studentslearn engineering concepts while applying them in projects. Both women and men had a near equaltendency to request a more integrated curriculum that includes utilizing the makerspace intoassignments, as a direct function of these students valuing making as an integral part ofengineering. For example, Waldo, a white man, discussed his idea to better integrate making intothe curriculum. We do have students coming in from a handful of classes that want to use the printers for their projects, but it's not as integrated into the curriculum as I think it should be. That's something we're definitely working on. Talking to professors saying, ‘Hey
design andmanufacturing” [11]. However authors are concerned for not including sustainablemanufacturing in to engineering technology curriculum. The successful integration ofsustainability into engineering technology requires that students achieve an understanding ofhow various courses relate to one another. The general course flow for the Manufacturing Page 25.776.5Engineering Technology program at Metropolitan State College of Denver Tech is shown inFigure 3, and it is believed that MSCD curriculum is fairly representative of most other curricula.The total semester credit hours required for graduation in the school of technology are128
school webpage administrator, TIVA Board Member, e2it3 Presi- dent, robotics/engineering club head sponsor, Gay Straight Alliance sponsor and SkillsUSA Texas District 7 Director. Currently working on an Ed.D. in Curriculum and Instruction at Texas A&M University in the Department of Teaching, Learning and Culture in College Station, TX. Plans are to pursue furthering a career in education at the district or university level as well as increasing experience in public and motivational speaking.Dr. Sheng-Jen ”Tony” Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is a Professor in the Dwight Look College of Engineering at Texas A&M University. He holds a joint appointment with the Department of
intriguing was the fact that even students that were awarded competitive academic scholarships (top grades and very high SAT scores) left their respective engineering programs after their first year, expressing anxiety with core engineering course (calculus) affecting their ability to maintain their required GPA and thus result in loss of their scholarship [4]. Consequently, there is a need to develop a first-year engineering curriculum that takes into consideration the diverse academic, social, cultural, and economic backgrounds of an incoming class of students. Although academically well prepared, today’s student lack the discipline to be individually responsible for the largely self-directed study required in college [5
in providing professional development that includes strategies for the engagement and persistence of under represented populations in STEM disciplines. She has received awards from several organizations including the American Association for University Women (AAUW) for her work in addressing the need to increase females in engineering and technology fields as well as for her work in educating students with the skills required for the 21st century workforce.Wesley Francillon, Dr. Wesley Francillon, is an engineer with a Ph.D. in material science from the State University of New York at Stony Brook. He is the Engineering and Technology Curriculum Specialist for the Connecti- cut Community-Technical Colleges’ College
a Professor of Chemical and Biomedical Engineering at the University of South Florida’s College of Engineering . Richard is the Co-PI for an NSF grant that supports FLATE, Advanced Techno- logical Education in Florida ,the the NSF Center of Excellence, which was founded through substantial funding from NSF. FLATE, now funded by the NIST MEP program and the Florida Department of Ed- ucation, addresses curriculum, professional development, and outreach issues to support the creation of Florida’s technical workforce. Richard has over 30 years of experience working with the K-14 education community. Other funded efforts include projects for the NIH and the US Department of Education. The latter was for the
manufacturing education and setthe stage to move forward. The following were designed to lead to a final set of conclusions. Inbrief the sessions were; Session 1: Addressing Emerging Technologies in Manufacturing Education - The focus was manufacturing in the 21st century and identifying topics that define the manufacturing curriculum of the 21st century. Panelists explored emerging manufacturing technologies and their integration into manufacturing curricula and other disciplines in engineering and engineering technology education. Page 14.859.3 Session 2: Bridging Research-to- Classroom - Recommend ways in which
belt and place them accurately into a drop-off fixture. In an effort togenerate interest within the robotic program and from local industries, the Department ofEngineering Technology at Drexel University responded to strength its curriculum by adding newinnovative components in its robotics and automation course, such as machine vision. A keycomponent in the robotics and automation course is the hands-on experience where student teamsuse and apply the vision systems hardware and software in an automated work-cell. In addition,the students are taught the principles of vision integration with other control devices, such as robotsand Programmable Logic Controllers (PLCs). The experiment results make the studentsunderstand the vast use of sensor
participants to come up with hundreds of ideas for improvement. Ideas were generatedto address the future of manufacturing education as it relates to: • what new technologies or systems need to be covered in the curriculum, • what changes should be incorporated at both the course and program levels, • how programs should interact with industrial and professional organizations, and • what can be done to improve recruiting of new students into the field.The brainstorming was essentially an open-ended survey that functioned with the advantages of afocus group. The ideas were recorded by the participants and collected from the session. Thispaper discusses the data collection (i.e., brainstorming) method used and then summarizes andcategorizes
-creditAdvanced Technology Manufacturing Academy (ATMA) as our core curriculum for this project.ATMA Robotics and IST Course OverviewIn this course, we applied an innovative Integrated Systems Training (IST) approach whichprovides instruction encompassing the entire integrated system in our curriculum core. Itincluded robotics, electrical and electronic, pneumatic, mechanical, PLC, and control systemsand devices. Students gained an understanding of how these components and subsystems workindependently and also how they interact with the other related sub-systems of an automatedmanufacturing system, including PLCs.In addition to providing this instruction and hands-on learning experience to the ATMA students,a web-accessible automated system was developed
the more established manufacturing industries. Alternative energy and biomedicalmanufacturing were both recognized as very high demand areas. Other areas of recognizedneed were all listed and could be used as a crude ranking of priority nationally, but it does notconsider regional variations. There were a few mismatches between academic and manufacturingpriorities, most notably in automotive and electronics manufacturing. Recommendation: Alternative energy and biomedical manufacturing should be very high priorities. Recommendation: Academics should consider curriculum modifications for automotive and electronics manufacturing.4. Curriculum PrioritiesA complimentary question was asked from an academic perspective
://www.engr.iupui.edu/˜jz29/) c American Society for Engineering Education, 2018 Experimental Design and Measurement of Internal and External Flow Convection Coefficient Using 3D Printed GeometriesAbstract The convection heat transfer is explored for a new academic laboratory experiment to helpaddress the lack of practical experimentation due to the continued integration of technology. Theobjective is to design an experiment to be used in the laboratory that enhances the studentunderstanding of convection process and principles. A cost-effective design is generated with threecore principles: 1) Low Cost, 2) Low Maintenance, and 3) Concept Visualization. This is achievedthrough the following
for certain conditions or cases. In addition, Hsieh has developedan Integrated Virtual Learning System for Programmable Logic Controller (Virtual PLC). Thisweb-based system uses a combination of animations, simulations, intelligent tutoring systemtechnology, and games to teach about programmable logic controllers [3-5]. Both of thesesystems are good examples of how technology can be used to help students learn simple PLCprogramming concepts.However, for learning to write complex programs, there is no good substitute for hands-onexperience programming a real PLC. Therefore educating students with integrated knowledgeabout automated systems is a pressing need. A project-based curriculum seems to help studentsdevelop an integrated knowledge of a
, implementation of Autodesk MoldflowTM as an instructional tool forpromoting a dynamic interactive classroom environment and providing seamless integration ofclassroom activities such as traditional classroom teaching, computer simulation ofmanufacturing process, and actual physical laboratory experience related with the process. In thatregard, Autodesk MoldflowTM is used as one of the tools that would be used for promotingpositive outcomes associated with the student learning. Autodesk MoldflowTM is used formodeling and simulating of the plastic injection molding process. During computer simulationlaboratories, specific examples of Autodesk MoldflowTM is introduced for providing ideas tostudents on how the manufacturing process would be improved by
training and classesin advanced manufacturing areas for faculty from any college or secondary program. Forexample, training on additive manufacturing and rapid prototyping is available at RapidTech, anATE Center in Irvine, CA. The staff at RapidTech is versed in all aspects of additivemanufacturing and in industry trends and provides an annual summer workshop that assistsparticipants with curriculum development as well as purchasing equipment for their respectivelaboratories. The team at RapidTech also provides innovative models for student recruitment,which have been helpful to the manufacturing community.The loss of feeder programs such as technology education at the high school level, as well asrecently proposed reductions in Perkins funding
time. Thecoffeemakers are all different brands and models so that any collaboration between groups is asharing of techniques and general information, not an easy way out of doing the work (cheating).A common difficulty faced by students here is transferring knowledge and skills acquired inother projects and classes to this project, which is in a different subject. Yet the integration ofsubjects is inherent in the complex environments the student intends to work in aftergraduation.20 The ability to understand dynamic complexity is widely regarded as the primaryoutcome of systems thinking.24 The impact of changes in one part of a system on the entiresystem is vitally important to successful operations. As noted earlier, the interaction of
encompassing issues. The first of these great issues is the definition of a body of knowledgefor manufacturing engineering -- and of a curriculum to convey such knowledge toundergraduate students. The second primary challenge was the crafting of an articulateddifferentiation in terms of outcome objectives between and amongst the various educationaldegree levels that contribute to the professional discipline. The third great challenge has beenthe crafting of a strategic framework that enables individual programs to incorporate newly-emerging transformational technologies into a cohesive corpus of manufacturing engineering. These great issues have been accompanied by continual concerns about the identity, healthand vitality of the manufacturing
industry. From a pedagogical perspective,simulation is often viewed as “something to expose a student to”, one of several skills that are tobe acquired in a CNC course. However, with current advances in IT, simulation should also beviewed as an enabler of learning. A properly developed and integrated simulation environment Page 23.1336.3can be used by the instructor to explain programming concepts during lectures and labs, and forassisting with assessment. It can be used by students to help develop and hone their skills whencompleting homework assignments and in preparing for machining labs. A simulationenvironment can provide a level of
sequence.This curriculum has benefited our program in many ways: Incorporation of several industrial technology applications into these classes: 1. 3-D solid modeling and data translation 2. Robotics construction, kinematics, robot programming 3. Ergonomics analysis 4. Assembly sequencing 5. Production layout & material flow optimization 6. Formal multi-media presentations to industrial professionals 7. Creation of personal portfolio and CD General benefits and opportunities for our students and our program: 1. Practical application of an advanced technology 2. Generates student enthusiasm for manufacturing 3. Excellent project coordination tool for concurrent engineering 4. Teamwork activities 5. Project planning 6
and analyzes assessment data.Introduction Importance of mechanical vibrations in the field of engineering is all too well known.Most engineers are fairly knowledgeable about the plenty of disadvantages vibrations pose.However, there are a few merits of mechanical vibrations as well. This is indeed stirring upengineers worldwide to concentrate their efforts to make advantages use of vibrations, whilecurtailing its disadvantages. For example, a vibrating string instrument like a guitar or a sitarcan provide melodious music. Vibration is commonly used when density separation techniquesare employed. Vibrating sieves are widely used in industry. One may prefer to have one’s cellphone in a vibrating mode. Vibration is an integral and