Integration. Paper presented at the National Association of Industrial Technology (NAIT). 3. Lin, Johnathon, 2006. MastercamX Mill and Solids. Ann Arbor, MI: Scholar International Publishing Corp. 4. Walker, John, 1998. Machining Fundamentals. Tinley park, IL: Goodheart-Willcox Publishing Company.FARZIN HEIDARIDr. Heidari currently serves as an Associate Professor of Industrial Technology at Texas A&M University—Kingsville. Dr. Heidari has twenty years of teaching experience in CAD/CAM courses. He has numerouspublications related to this topic. He is currently serving as the Graduate Coordinator for the Industrial ManagementProgram. Proceedings of the 2009 ASEE Gulf-Southwest Annual Conference
SeedGrant Program; the Research, Scholarly & Creative Activities Program awarded by the Cal Polydivision of Research, Economic Development & Graduate Education; the Cal Poly BEACoNResearch Mentoring Program; and the Cal Poly Office of Student Research. References[1] D. Riley, “Rigor/Us: Building Boundaries and Disciplining Diversity with Standards of Merit,” Engineering Studies, vol. 9, pp. 249-265, Dec 2017.[2] M. Camacho and S. Lord, The Borderlands of Education: Latinas in Engineering. Plymouth, United Kingdom: Lexington Books, 2013.[3] M. Ong, “Body projects of young women of color in physics: Intersections of gender, race, and science,” Social Problems, vol. 52, no. 4
industry continues to view an increasingly larger portion of the science andengineering labor pool more like a commodity then a profession. Consequently, less developedcountries with lower wage rates and an abundance of young, intellectual capital are competingfor work that until recently was performed by higher paid U.S. engineers, many of whom werethen in short supply. This has created a new dilemma for engineering educators: How to bestensure that our graduates will continue to bring value to a marketplace in which their salarydemands are three to six times greater than their international competitors? [2] (See the twoarticles by McGraw in Prism for additional discussion of these issues [3, 4].Oberst and Jones have put the question succinctly
interdisciplinaryfoundation, as well as be ready to scale the course up to the entire School of Engineering, weopted to codesign the course with faculty from all six departments, and coteach the course withinstructors from three departments, as well as an instructor from our Engineering StudentSuccess Center. Because we piloted the course using an existing mechanism—a first yearexperience section—the course was necessarily small, capped at 20 students.Project 1: Water ResiliencyIn our first design project, we focused on the general topic of “Water Resiliency” whileemphasizing the scarcity of water in NM and the increasing threat of climate change on our landsand our people. We provided a few examples of water related concerns such as emergingcontaminants like PFAS
engineering content in K-12 education through professional development activities, and• Serve as a national model for other undergraduate institutions in integrating engineering content in K-12 education.This is the first university initiative to integrate engineering content in the middle schoolcurriculum and train teachers regarding engineering concepts as well as the identification ofstudents with potential to become engineers. The ECT program is being funded by a generous Page 12.620.2grant from the Martinson Foundation.Rowan’s Engineering Clinic ProgramThe ECT program activities reflect our Engineering Clinic activities that are offered
. Cem Karacal and Hasan Sevim Southern Illinois University Edwardsville, School of Engineering, Edwardsville, IL 62026AbstractThis paper summarizes the experiences in designing, developing, and implementing a dual-diplomapartnership between a university in the USA and a university in Turkey. The development of theprogram of study that would meet the graduation requirements of both institutions was a challengeas most international institutions do not have as strong general education component as U.S.institutions do. The organizational and academic calendar differences of both institutions and theremedies developed to overcome these differences are presented in the paper. The hard and softvariables that have influenced student academic
EnvironmentalProtection Agency (EPA) has also funded the development of instructional models and suggestedstrategies to implement them in university classrooms [17]. However, barriers such as facultyconcerns about adding material to already full courses, lack of confidence in teachingsustainability, and reliance on stand-alone courses to address these topics prevent or slowchanges in integration throughout the curriculum [18].To meet the growing demand for sustainability education among chemical engineeringundergraduates, the Ralph E. Martin Department of Chemical Engineering at the University ofArkansas has taken significant steps to incorporate sustainability into its curriculum. Since 2022,the department has introduced two upper-level/graduate elective
Paper ID #35756Integrating Usability into the Agile Software Development Life CycleUsing User Experience PracticesMs. Tori Nichole Gardner, Department of Engineering at St. Mary’s University Miss Gardner currently attends St. Mary’s University in pursuit of her MS in software engineering. She graduated with her BS in software engineering in May of 2021 from the same university. Her research interests include human-computer interaction, user experience, and user interface design as well as acces- sibility.Dr. Ozgur Aktunc, St. Mary’s University Dr. Ozgur Aktunc is a Professor of Software Engineering and Graduate Program
, prototyping, program development, crafting interactive curricula, and bringing ideas to fruition. With over 9 years of experience in Mechanical and Mechatronics Engineering, Anand possesses a solid background in Innovation and Entrepreneurship education, Additive Manufacturing, and Digital Fabrication technologies. He has taught lectures and workshops on advanced subjects to more than 1000 undergraduate engineering students and 150 graduate students, while advising on over 500 student and faculty research projects. His academic credentials include an M.B.A in Organizing Innovation and Product Management from Worcester Polytechnic Institute, M.S. in Mechatronics and Robotics Engineering from New York University and
-5401 Test System Software, Schweitzer Engineering Laboratories.Bibliographical InformationEmilio C. Piesciorovsky has a B.S. and M.S. in Electrical Engineering, and M.S. in International Marketing. Heworked for Pirelli Power Cables and Systems, A.B.B., and S.D.M.O. Industries. He is a current ElectricalEngineering Ph. D student at Kansas State University; ecpie@ksu.edu.Dr. Noel N. Schulz is Associate Dean for Research and Graduate Programs of the Engineering College, Director ofthe Engineering Experimental Station, and Paslay professor of Electrical and Computer Engineering at Kansas StateUniversity; noels@ksu.edu.Proceedings of the 2013 Midwest Section Conference of the American Society for Engineering Education
may be a labor shortage in the near future as these engineersbegin to retire [Wright, 2014]. Retiring systems engineers, specifically, are a major concern in thedefense industry [SERC, 2013; Charette, 2008] as well as at NASA [Bagg et al., 2003]. Oneobvious solution is to train more undergraduates in systems engineering skills. However, there isa pervasive belief that successful systems engineers can only be made through experience [e.g.Armstrong & Wade, 2015; Squires et al., 2011; Davidz et al., 2005]. This belief may partially bedue to the previous generation of systems engineers not receiving much systems engineering-specific training in their university engineering education, as noted by Armstrong & Wade [2015]in their interview
1-2 course related to the course topics slides: i.e. additive manufacturing—updates of printing materials and efficiency Industry 4.0 - Generate new topic Let students choose their interested topic about about the smart manufacturing smart manufacturing and present in class; 5-min length and once per weekLab Design AI application - New Hands-on Casting lab - use the smart foundry to cast a labs adopted the smart student designed part manufacturing equipment Software - Introduce course
©American Society for Engineering Education, 2023 Leveraging Innovation and Optimizing Nurturing in STEM: Investigating role identities of low-income engineering students prior to their first semester of college (NSF S-STEM #2130022)The purpose of the Leveraging Innovation and Optimizing Nurturing in STEM Program (NSF S-STEM #2130022, known locally as LION STEM) is to support the retention and graduation ofhigh-achieving, low-income engineering scholars with demonstrated financial need at Penn StateBerks, a regional campus of The Pennsylvania State University. The LION STEM programbuilds upon the Sustainable Bridges from Campus-to-Campus project (NSF IUSE #1525367)which formed the
the book Lean Enterprise Value, the Shingo Prize-winning ”Guide to Lean Enablers for Managing Engineering Programs”, and numerous other publications. At MIT he has taught courses in research methods and Lean/Six-sigma processes. He has advised dozens of graduate student theses at MIT on a range of topics.Mr. Stephen Townsend, Project Management Institute Stephen Townsend is PMI’s Director for Global Alliances & Networks, which includes responsibility for alliances with third party organizations, PMI’s Registered Education Provider Program and PMI’s Registered Consultant Program. Stephen is also accountable for PMI’s program development activi- ties focused on change management, complexity and implementing
tools used inproduct development. Students complete numerous design and manufacturing activities,complete a comprehensive design and manufacturing project, and prepare various technicalreports. The general topics covered in the course include design for manufacturing (DFM)guidelines, dimensional accuracy, rapid prototyping, NC programing and CNC machiningequipment, design of experiments (DOE), and preparing technical reports. The learningoutcomes that were established for this course include: 1. Designing components based on design for manufacturing (DFM) guidelines. 2. Creating design prototypes using rapid prototyping (RP) and CNC machining. 3. Communicating laboratory experimental findings and relevant design information in
landscape. The German situation is quite different.The same simple search engine test does not retrieve a comparable number of publications.Furthermore, only a few cross references between German scientific articles can be found. 8–10The topic garnered more interest in Germany with the state-wide discussion of cases ofplagiarism connected with the names of Annette Schavan and Karl-Theodor zu Guttenberg. Ms.Schavan is the former German Federal Minister of Education and Science and Mr. zu Guttenbergis the former German Federal Minister of Defense. While completely different in the degree ofcheating and plagiarizing, both cases had the same result. The doctoral degrees of both wererescinded, and both subsequently lost their governmental position (Zu
) at the U.S.Military Academy (USMA) scattered their various directions in pursuit of research activities,service endeavors, and much needed vacation, the Department convened a Strategic PlanningSession shortly after the 2016 graduation. Topics such as an update to the Department’s Missionand Vision, curriculum modifications, and budget constraints were on the agenda during themulti-day, off-site discussions. Unlike many organizations, the collaborative culture withinC&ME meant there was room at the discussion table for all members of the Department acrossall academic levels and support positions. The Department typically tries to conduct suchsessions every three to four years.Among the multiple strategic outcomes generated during this
, she served as a Lecturer in Bioengineering at the University of Pennsylvania and as an Instructor in Biomedical Engineering at Duke University. Dr. Salinas is interested in teaching design thinking strategies across the freshman and senior levels. She is passionate about design for people with disabilities, creating an engaging classroom, using active learning techniques and integrating user-centered design approaches to create a targeted and meaningful experience for her students.Megan Sanders (Senior Assessment Associate) Megan is the Senior Assessment Associate in the Trefny Innovative Instruction Center at Colorado School of Mines. © American Society for Engineering Education, 2022
Laboratory(ORNL) and industrial companies, such as DuPont, 3M/Delta G, B. F. Goodrich, Amercom,Refractory Composites and B. P. Chemicals Ltd. The CFCCs are being recognized as necessaryfor high-temperature structural applications. The pertinent applications include heat exchangers,combustors, hot gas filters and boiler components in power generation systems, and first wallsand high heat flux surfaces in fusion reactors. The technology for fabrication, characterization,modeling, design, and applications of ceramic composites is of crucial importance for improvingU.S. industrial competitiveness in the worldwide market. A three-year project on "Ceramic Matrix Composites - A Combined Research-CurriculumDevelopment (CRCD) Program" has been supported
Foundation'sTransforming Undergraduate Education in STEM program (grant no. 1323259), addresses apersistent problem in engineering education: the discrepancy between the writing skills ofprogram graduates and the demands of writing in the workplace. In the project, new teachingmaterials are based on research about effective writing by civil engineering practitioners. Thematerials are integrated into existing courses and assignments, rather than through majorcurriculum changes, so that new instruction can be implemented more easily and quickly. Thisposter paper provides a brief summary of the project, emphasizing the teaching materials andassessment results from the past three years. More details can be found in several publications[1]-[5].Project Need, Background
educate theirworkforce in a way that is consistent with global expectations for their career field. Just ascertification provides consistency of assessment, academic equivalency offers an endorsementthat a course will cover a standard set of topics. Academic Equivalency is given to a course or setof courses, not to a degree, a university, or a professor.INCOSE’s Certification Program is affected in both positive and negative ways by being asystem of systems (SoS). It benefits from constituent systems that are appropriate for subsets ofstakeholders. Emergent behaviors of the SoS such as training programs and internal corporateactivities offer the benefits of making certification more easily achieved and more valuable [6].Drawbacks of decentralized
, Texas A&M University Dr. Rujun Gao has completed her Ph.D. in Mechanical Engineering at Texas A&M University and holds an M.S. in Mechanical Engineering from Zhejiang University, China. Her research focuses on Generative AI, Natural Language Processing (NLP), Large Language Models (LLMs), LLM Agents, and the development of educational technology products.Dr. Mindy Bergman Dr. Bergman is a Professor in the Department of Psychology and Executive Director of Interdisciplinary Critical Studies at Texas A&M University. She earned her PhD in industrial-organizational psychology at the University of Illinois at Urbana-Champaign.Prof. Arun R Srinivasa, Texas A&M University Dr Arun Srinivasa is the J. N
. These five recommendations seek to increasethe supply of new STEM teachers, improve the skills of current STEM teachers, enlarge the pre-collegiate pipeline, increase postsecondary degree attainment, and enhance support for graduateand early-career research [5].There is general consensus among educators that students interested in a STEM career should getstarted in high school by taking as much math and science as they can. The more math andscience students learn in high school, the easier it is to tackle advanced subjects later. Success inSTEM requires both technical and nontechnical skills and attributes. Curiosity, the ability tothink logically, and creative problem-solving are highly valuable. Due to globalization,communication skills and
Railroad, programs were available continuously for seven years. Theseprograms were co-educational one-week programs for middle school students and werepresented on the University of Memphis campus. The middle school age group was specificallytargeted due to the significant amount of research indicating students must be reached in themiddle school years in order for them to become aware of opportunities and shift to appropriate Page 22.745.2course tracks that will prepare them for pursuing engineering majors1,2,3. Each program includedmiddle-school teachers as mentors and classes of approximately 36 students. Topics in theprograms ranged from simple
University’s involvement is with a particular program aimed at engineeringentrepreneurship education. This is one of several thrusts of the foundation, all of which dealwith innovation in some form. The statement of purpose for this program is: “The Foundation created the Kern Entrepreneurship Education Network (KEEN) in 2005 as a collegiate initiative to complement efforts at the K-12 level to increase the quantity and quality of U.S. engineering talent. KEEN’s mission is to graduate engineers equipped with an action-oriented entrepreneurial mindset who will contribute to business success and transform the U.S. workforce. The long-term goal is for these new engineers to catalyze a transformation in the
work, and issues with student retention and success rateshave contributed to higher education questioning whether or not traditional teaching approachesare effective. Could inventive teaching approaches be implemented to help improve studentlearning outcomes and maintain student motivation? Table 1: Dimensions of Learning and Teaching [2] When trying to better align classroom interactions with student needs, the topic oflearning styles is often deliberated. Students learn in a variety of ways and many studentsgravitate to specific learning styles. These learning preferences influence which aspects of thelearning process students will rely on. Most students have specific learning preferences they willseek
, interest and motivation to adapt active learning of the course material. Thisactivity also helps the students realize the subject’s practical advancements as, i) To many short-term goals as performing well in the class and preparing for a culminating experience throughsenior design projects, ii) To the long-term goals as joining industry, higher education and theresearch in many directed areas in guidance, navigation and control. To meet these learningobjectives for the mentioned topics, especially in the field of aerospace engineering, some of theproject problems are specifically considered for designing automatic control for flight systems.The proposed activity, especially to interested students for their culminating research/seniordesign
andcompression, and then advance to analysis and design topics as they are more empiricallypresented in the relevant building codes. The importance of hands-on active learning has longbeen an integral part of education theory. Educational Psychologist Jean Piaget states thatoptimal learning occurs through “active methods” which “require every new truth to berediscovered or at least reconstructed” by the student1. The National Science Foundation2 arguedin 1993 that “Engineering curriculum reform is necessary to meet the objectives of enhancing theacceptability of US industrial products in the international market” and that hands-onexperiences should be an integral part of that reform3. Having students design, fabricate and testreinforced concrete beams
Chapter , “Writing Winning Proposals,” pp. – andChapter , “Long Reports,” pp. – .12 General Information Concerning Patents, p. 12.13 Criteria for Accrediting Engineering Technology Programs, www. abet. Org, 9/13/99. pp. 5–6.14 Criteria, p. 4.15 For example, Proposed Criteria for Accrediting Engineering Technology Programs, July 25, 1999Natalie D. SegalPrior to her appointment as a full-time teacher of technical communications at S. I. Ward College ofTechnology at the University of Hartford, Assistant Professor Natalie Segal taught the subject part-time atWard College for eight years and worked for more than 20 years as a technical writer. She holds herBachelor's Degree in English Education from the University of Connecticut and her
learning this topic?’, during the lectures. The ‘Adopt-a-material’ projecthelped them to connect with the real-life product applications of MSE. Also, students wereexposed to a multitude of real-life product applications through the posters presented by theirpeers. As a result, they gained a broader perspective on the scope of MSE applications in real-world products. Some of the feedback comments included ‘the project at the end of the semestertied lot of the concepts covered throughout the course to a real-world application’.IV. Conclusions and Future OutlookIn summary, the common-sense-driven and effective ‘Adopt-a-material’ project approach hasdemonstrated first order success in generating intrinsic interest and semester-long engagementwith