. In 2001 he began a second career as anengineering instructor at Green River Community College and Tacoma Community College. He is an activeparticipant in developing and testing curriculum and assessment tools in engineering design.ERIC DAVISHAHLEric Davishahl is an Instructor of Engineering at Everett Community College. In less than two years after he becamea faculty member in 2001, he received the "You Made a Difference Award" for completely modernizing theengineering curriculum, involving the college in synergistic partnerships and "making his classes challenging, yetfun!" His students have successfully competed in a human powered paper vehicle contest.DENNY DAVIS Denny Davis is professor of Bioengineering at Washington State University
Over the course of his career, Tesla's strength was to identify a grand idea and todevelop a system around it. The difficulty with this approach was that it meant that Teslaexpected businessmen and consumers to adjust to his systems--based on an ideal--ratherthan Tesla adjusting his systems to the needs and wishes of society. In the case of hispolyphase versus split-phase motors, it meant that Tesla thought that society ought toadopt his beautiful polyphase system even if it meant replacing the existing two-wire,single-phase systems with the more expensive four-wire networks needed for polyphase.Practical considerations and cost meant little to Tesla in comparison to an ideal principle. The morale to the story of Tesla's split-phase
theirstudies. It is supposed to give students the chance to “put it all together”, to make applicable useof conceptual information. A successful Capstone project should help students develop theresources they will need to make the transition from college to career. Students are required todesign, build, troubleshoot and finally present their project in a professional manner. The most Page 10.155.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering Educationnotable significance of this project should be to give the
that should be amalgamated and utilized in a coursedevoted to the ethics of industrial technology. These are outlined in Table 2 below. As this tabledelineates, the authors recommend essentially seven major focus areas for this type of course. Thecourse should begin with an introduction to ethics, where the student is introduced to this area ofstudy and why it will be essential for their professional careers. Second, the student should beexposed to the foundations of ethical theory, including a brief history of ethical thought, the majortheories that are used, and tools for solving problems with moral dilemmas. Third, the studentshould understand that industrial technology and design are really applications of formalexperimentation, and thus
helps to confirm technology as a catalyst for change inour society. The majority of careers in the United States are threaded with technology. The lackof technical and visual literacy in the workforce is a prevailing problem in the United States,especially since many jobs require this knowledge.The economic health of the United States is dependent on workers who are competent intechnology. Graphic communications is ranked among the largest industries in the United States.The $5.8 billion graphic design industry alone has more than 16,000 businesses and spends morethan $400 million each year on capital goods.1Informed decision-making in a democratic society is dependent on managers who aretechnologically literate and who can communicate using
StatesMilitary Academy’s primary mission is “to educate, train, and inspire the Corps of Cadets so thateach graduate is a commissioned leader of character committed to the values of Duty, Honor,Country; professional growth throughout a career as an officer in the United States Army; and alifetime of selfless service to the Nation.” In support of this mission, the overarching goal of the Page 9.871.1academic program is “to enable its graduates to anticipate and to respond effectively to the Proceedings of the 2004 American Society for Engineering Education Annual Conference and Exposition Copyright 2004, American Society for Engineering
students, and that is indeed the case. It is noteworthy that Joe Ware is a 1937graduate of the VPI Mechanical Engineering Department, having been a member of the firstclass to receive degrees in “Aeronautical Engineering.” He subsequently spent his career as aFlight Test Engineer at the Lockheed “Skunk Works,” working on every major project, includingthe F-104 Starfighter, U-2, and SR-71 Blackbird. Arthur Klages, a 1942 Industrial Engineeringgraduate who was the founder of the Burlington Handbag Company and the inventor of anumber of mechanical devices used in the garment industry, also made a significant gift ofmachine shop equipment, including a lathe, mill, drill press, and bins full of bits and tooling.All shop spaces were designed under the
Conference & Exposition Copyright © 2005, American Society for Engineering EducationAlong with a classroom session in Laser/Fiber Optics, an electronics technology showcase, and apanel discussion about personal and career development information, students participate in ahands-on interactive classroom session in engineering design. The engineering design session isfacilitated by Dr. Andrew Vavreck, Associate Professor of Engineering, and Rebecca Strzelec,Assistant Professor of Visual Arts (authors of this paper). The goal of this particular session is togive the students an opportunity to explore the design process and see an interdisciplinaryapplication of industry standard three dimensional modeling and rapid prototyping
tedium ofpresenting numerous mechanical elements and their behaviors without providing students acontext in which they deepen their understandings, we have rewritten the course objectives asfollows: • To demonstrate improved mechanical intuition, • To effectively work in teams and apply interpersonal skills in an engineering context, • To practice selecting and/or designing components, • To better communicate mechanical concepts, and • To describe how engineers design to avoid failure.These outcomes were developed to better address the abilities of the current students and tobetter prepare them for senior year design activities and the current variety of careers inmechanical engineering. In order to meet these goals
Engineering Education Annual Conference and Exposition Copyright © 2005, American Society for Engineering Education”or above 8/10. The results indicate that these qualities are quite foreign to the students. Morework needs to be done to introduce the students to these aspects earlier in their student career. Special Qualities Required in Industry % Scoring ≥8/10 Leadership Skills 88% Conflict Resolution 80% Ability to act as a change agent 57% Out-of-the-box thinking / Innovation 80
. Prior to his academic career, he was a MechanicalEngineer at the telecommunications firm, Amtech Systems; he also served as an engineering officer in the U.S. AirForce. His interests include design, advanced manufacturing, renewable energy and engineering education.JERRY HATFIELD is an Associate Professor of Electrical Engineering at Northern Arizona University. He is a graduateof the University of California (BSEE) and of the University of Southern California (MBA) and is a registeredprofessional engineer. His areas of interest include freshman programs, multi-disciplinary design, computer aidedinstruction and testing, computer aided instrumentation systems, and analog and digital circuit design
vertically-integrated; each is a mix of freshman, sophomores, juniors and seniors.To manage the large number of projects and teams that extend across semesters, the EPICSprogram has developed a design and documentation process to guide students through theirdesigns and to insure that both the community partner’s needs are being address and thetransition between semesters is managed. This paper will highlight this design anddocumentation process and present lessons learned and future challenges using this model fordesign education.Introduction The importance of significant design experiences to prepare undergraduate engineering studentsfor engineering careers has been well-documented 1, 2. These experiences typically emphasizethe application of the
make this charge. “[W]henthe contractors told the White House about the problem, they were threatened, warned not todiscuss it,” she wrote in a declaration. “They were told the documents were classified” [1, 2,15].At the Congressional hearings, employees told of being summoned to a meeting in June 1998after Salim reported the problem to her boss [3]. Salim and four other Northrop Grummancontractors were called into the office of Laura Crabtree, who was a branch chief for computersupport in the White House, and a career civil servant [7]. Mark Lindsay, counsel for the WhiteHouse Office of Administration, was present by speakerphone. Three of those employees,Robert Haas, Betty Lambuth, and Sandra Golas, testified that Lindsay told them to fix
Conference & Exposition Copyright Ó 2002, American Society for Engineering Education Session 2238teach them. Therefore we have designed our curriculum to provide many and varied speakingopportunities for students. These start in the freshman year and continuing through the senioryear.Mechanical Engineering students make a number of formal and informal oral presentationsduring their career at Union College. By design, these presentations tend to be short and focusedin the freshman year and they become more open ended and of longer duration by the senioryear. A number of oral presentations are required as part of a course
Ó 2002, American Society for Engineering Educationdesigned to address a set of engineering competencies as indicated in the course objectives aswell as the overall curriculum objectives which reflect a set of competencies that the graduatingengineers are expected to acquire for a successful entry into their professional careers. Thesecompetencies are achieved through hands-on collaborative project work.The project was related to the design and analysis of a tower crane used for lifting constructionmaterial into tall buildings (Figure 1). In the first part of the project, the students were guidedthrough a set of sample design calculations on an existing design. In the second part, they wereasked to develop their own design as an improvement
. Based on the overall analysis of responses to the surveys, we believe the programwas successful in meeting most of the project objectives outlined for students andteachers. These surveys indicated that the students were developing their problemsolving and cognitive skills, learning programming skills, teamwork skills, and, for themost part, improving their perceptions and attitudes towards careers in science andengineering. However, while we were successful in achieving most of our objectives,problems were encountered that required modifications in our plan of operation. Thelogistics of the implementation had to be modified to fit within the operations of theNewark Public Schools. In the original plan, there was to be a “lecture” by one of
engineering design techniques andproviding them with the necessary foundation for their careers as technicalcommunicators. In order to achieve both of these key goals and to meet university-widegeneral requirements, Sophomore Engineering Clinics are team-taught by faculty fromthe College of Engineering and the College of Communication.Conceptual Underpinning of the StudyConsidering functions of writing beyond reporting is something of a challenge. It isrelatively easy to assess how clearly a piece of writing communicates findings.Discerning other functions is more difficult, and formal definitions and theories o f thosefunctions are few and far between.Invention will refer here to the use of writing to create knowledge. In compositiontheory
Northeastern University, students are given a limited opportunity to gain real worldexperience while still in college through a co-operative education program. The coopexperience reinforces the learning experience and allows the student to focus on non-classroom aspects of a potential permanent career. The cooperative education programalso gives students an opportunity to expand education through an experience in a realcompany. The co-op student is treated like a member of the staff and althoughinvolvement with key company decisions and actions varies by company, the experienceusually includes a healthy mix of tasks. Although this is a valuable learning experience, itlacks depth, is limited in responsibility and generally uses the student in only a
actual problems. The place that thesetwo aspects of the syllabus come together is in the engineering laboratory. It is here that thestudent is presented with a concrete problem to be solved, and they learn to apply the lessons ofthe classroom. The larger goal is to prepare the graduate to enter today’s engineering professionwith not only the proper problem-solving strategies and skills, but also to have gained experiencethat can be directly transferred to the needs of the contemporary career. This means exposure tothe latest technologies and an understanding of their concepts and applications. Perhaps the most significant aspect of engineering practice in the last decades has beenthe impact of computer technology in practically every
theirMechanical Engineering degree with course content in Business may opt to take one ortwo of their five Technical Electives with two business-related courses newly offered bythe College of Engineering. The first of these provides a foundation in financial, human-resources, supply-chain, organizational and innovation aspects of the modern corporationthat are pertinent to the career of a new engineering employee. The second course goesinto more depth on these matters, and also touches on issues pertaining toentrepreneurship and business plans. Developing an understanding of how engineeringactivities fit into the broader social and business context is a complement to thiscurriculum initiative
forconsideration.Ethics and Life-Long LearningEthics is a key component of epistecybernetics and CUES-AM. The idea is to instill inCUES-AM users the need for: (a). professionalism and integrity in ones job responsibilities, (b). life-long learning and knowledge of code of ethics, (c). understanding the ramifications of engineering, scientific and technologicalinnovations on society and the environment, (d). effective communication skills with emphases on report writing,presentations and collaborative team activities, (e). community service and awareness, and (f). developing the ability to handle work and career-related ethical issues.The current plan is to include ethics instruction in CUES-AM workshops, and will
2001: 25 A’s, 1 BSince an objective of the class is to retain students capable of handling the rigors of anengineering curriculum a question on the final exam is: “What engineering career (if any) areyou most interested in and why? If you are not sure, which ones are you vacillating between? Ifyou are not interested in engineering anymore, what do you want to major in, and why?” Theresults were: Fall 2000: 19 retained in engineering, 1 transfer to Business, and 1 undecided. Fall 2001: 23 retained in engineering, 1 transfer to English, and 2 undecided.The College of Engineering is currently developing a database to investigate retention issues.Part of this effort will be to follow up with these Honors freshmen to see how many
prepare engineering technology students for theirengineering career [5]. These projects are preferred by engineering technology programs for theirstudents who typically are more exposed to hands-on problems or applied engineering. On suchprojects, students learn to work with stakeholders to scope the project, clarify requirements, anditeratively work through the product realization to execute the project. Reifenberg and Long(2017) explain that industry-sponsored team capstone projects create value for the client and aremore valued by students. However, the broadly-defined nature of most client-based capstoneprojects can also lead to higher frustrations when the stakeholders (faculty members, sponsors,and student teams) are unable to develop and
customization. Today, additive manufacturing stands as a transformative force, revolutionizingtraditional manufacturing methods and shaping the future of production [22, 23].Rationale for Additive Manufacturing in Engineering Education Exposing students to various additive manufacturing processes is crucial for their educationand career readiness. It cultivates a diverse skill set, enabling them to adapt to evolvingtechnologies in fields like engineering and design. Understanding different processes, such asFused Deposition Modeling (FDM), Stereolithography (SLA), and Selective Laser Sintering(SLS), enhances problem-solving abilities and creativity [24, 25]. Exposure to diverse techniquesfosters critical thinking, enabling students to choose the most
implantable devices, lab-on-a-chip, and fouling- resistant water filtration systems. He is also leading a cross-institutional education project at TTU focusing on transformative pedagogical strategies for biomedical innovation to catalyze the interdisciplinary col- laboration between engineering students and medical students. To date, Dr. Tan has published over 50 refereed research papers and 2 book chapters. He has secured over $1.2 million in federal grants including the NSF CAREER Award. He is the faculty advisor of the IISE student chapter at TTU.Mai Dao, Wichita State UniversityAndrew Tapia, University of Kentucky ©American Society for Engineering Education, 2024 2024
, “Prompt Engineering - Complete Guide,” Great Learning Blog: Free Resources what Matters to shape your Career! Accessed: Sep. 04, 2023. [Online]. Available: https://www.mygreatlearning.com/blog/prompt-engineering-complete-guide/[23] OpenAI et al., “GPT-4 Technical Report.” arXiv, Mar. 04, 2024. Accessed: Apr. 05, 2024. [Online]. Available: http://arxiv.org/abs/2303.08774
: Verso, 2020.[27] J. Yang, M. K. Sherard, C. Julien, and M. Borrego, “Resistance and community-building inLGBTQ+ engineering students,” Journal of Women and Minorities in Science and Engineering,vol. 27, no. 4, pp. 1–33, 2021, https://doi.org/10.1615/jwomenminorscieneng.2021035089.[28] E. A. Cech, and W. R. Rothwell, “LGBTQ Inequality in Engineering Education,” Journal ofEngineering Education, vol. 107, no. 4, pp. 583-610, 2018, https://doi.org/10.1002/jee.20239.[29] J. Yoder, and A. Mattheis, “Queer in STEM: workplace experiences reported in a nationalsurvey of LGBTQA individuals in science, technology, engineering, and mathematics careers,”Journal of Homosexuality, vol. 63, no. 1, pp. 1-27, 2016,https://doi.org/10.1080/00918369.2015.1078632.
capabilities, Python, and DALL-E,enhancing its functionality and providing a comprehensive platform for educational assistance.In this study:'Y' (Educational Interests) explored are: - General Education Courses topics - Major-Specific Courses topics - Elective Courses topics - Beyond Curriculum topics (Career Development, Skills Enhancement, etc.)'Y' (Engagement Spectrum) explored are: - Forerunners: Always at the forefront, first to adopt new ideas and technologies. - Steady Engagers: Consistent and reliable in participation, regularly contributing. - Gradual Engagers: Initially less engaged, becoming more involved over time. - Silent Engagers: Quietly engaged, need observation and reflection over vocal participation. - Unsure
industry information, fully aware that these coursesmay not provide them with the comprehensive skills required for a career in emerging fields suchas AV engineering. This situation highlights the necessity for more comprehensive and officiallyrecognized educational programs that can adequately equip students for the challenges of thiscutting-edge industry.Our university’s Instructional Design and Development (IDD) Team has some initial researchthat shows several colleges have started developing and offering specialized courses to meet theincreasing need for multidisciplinary education in AV engineering. Ferris State Universityprovides a Graduate Certificate in Autonomous Vehicles through its College of Business. Thisprogram includes courses such