ETD 545 Industry Informed Curriculum Development in Engineering Technology: Solar PV Planning and Installation Mohsen Azizi New Jersey Institute of TechnologyIntroductionThe power generation industry has been gradually switching from traditional fossil generators torenewable energy systems (RESs), which are more efficient and environmentally friendly, in thepast two decades. This trend has given rise to the job market demand for a new generation ofengineers and technicians from science, technology, engineering, and mathematics (STEM)fields, who are
ETD 335 Vertical Integration of Experiential Learning in Construction Curriculum with Industry Collaboration Afshin Zahraee, Cheng Zhang, David Pratt, Chandramouli V. Chandramouli Purdue University NorthwestAbstractThis paper proposes to vertically integrate experiential learning components in courses at variouslevels in the Construction Engineering and Management Technology (CEMT) program at PurdueUniversity Northwest (PNW). Specifically, this project focuses on engaging industryprofessionals to incorporate newly developed
of methods, both traditional and non-traditional, to present ethicsconcepts and meet different student learning needs. Application of some of these methods havebeen incorporated in my senior engineering economics curriculum and others introduced in ageneral freshman foundation course.Traditional MethodsDefinitions and Student Codes of Responsibilities and EthicsSome of the more traditional methods used in my freshman course are assessing studentunderstanding of the definitions of ethical issues, and having students analyze students’ codes ofresponsibilities, and conduct at our university[2]. Our university posts these codes on the homewebsite. Students are given assignments to define academic dishonesty and list four examples. A
ETD 415 Modifying Engineering Technology Curriculum to Adapt to the Demands of Industry 4.0 Gary Mullett Springfield Technical Community CollegeAbstractThe world is poised to undergo a rapid transition to the next generation of the industrialrevolution, commonly known as Industry 4.0 or the Industrial Internet of Things (IIoT). Thereare several developing technology drivers of this ongoing industrial progression that areinterrelated and will require a rethinking of how we educate the technologists of the future. Theuse of new smart and
integration mightapply. Proceedings of the 2023 Conference for Industry and Education Collaboration Copyright ©2023, American Society for Engineering Education ETD 365References[1] G. Lyman, J. Wilcox and R. Sanford, "Robotics Retrofit: Renovating Outdated Robotics Platforms to Meet Current Curriculum Requirements Driven by Industry Demand," in ASEE PEER, New Orleans, LA, 2019.[2] “Mindstorms EV3: Steam for high school,” LEGO® Education. [Online]. Available: https://education.lego.com/en-us/products/lego-mindstorms-education-ev3-core-set/5003400#lego- mindstorms-education-ev3. [Accessed: 30-Sep-2022].[3
the solution, thus promoting computational thinking as a process applied in real-world applications. Many studies report on the measurable advantages that a computing environment such as the MathWorks MATLAB/Simulink provide in engineering [12].Therefore, the approach taken to organize this new course comprised the following four steps: Step 1. Reveal how science and engineering problems from various fields exhibit overlapping and often equal mathematics challenges and that complex problems can be decomposed into more basic problems (computational thinking). Step 2. Present the science or engineering problem solution that can be decomposed to a common mathematics formulation, for example, a set of
performance and student learningoutcomes of first-time African American students in engineering technology (ET); to increase the number ofAfrican American females entering ET; create a VAR learning lab to enhance the introductory ET curriculum;and to increase dual enrolled students in ET programs at Augusta Technical College. The dual enrolled studentgoal is 30 by year five of the grant. The VARiETy initiative received multi-year discretionary funding underthe Department of Education’s Predominately Black Institution (PBI) Formula grant program. The grantfunding supports renovation, equipment and supplies, personnel, outreach and other activities within the scopeof the goals and objectives.Table 1. Metric to improve educational outcomes for African
ETD 335Developing an Advanced Manufacturing Course for Mechanical Engineering and Mechanical Engineering Technology B.S. Programs Mauricio Torres and Ying Shang Indiana Institute of TechnologyAbstractThis paper discusses the development of a contemporary advanced manufacturing course to beoffered into the B.S. in Mechanical Engineering (BSME) and the B.S. in MechanicalEngineering Technology (BSMET) programs to meet the needs of Northeast Indiana industry.Details will be provided on the curriculum design, indicating how this new course will providestudents with basic understanding
electronic-based motor drive allows us to achievethis goal under various sailing conditions.Fundamentals to Comprehensive Curriculum DevelopmentTraditional electrical engineering technology (EET) or electrical and computer engineeringtechnology (ECET) programs add two to four courses to provide the skill needed for e-mobilityand renewable energy areas [4]. If the focus is e-mobility, a course in power electronics, electricdrives, and electric powertrain would be ideal. If three courses are not possible, a beginner’scourse in power electronics and a comprehensive electric powertrain course would be sufficient.If renewable energy is an option in the program, an electrical power system course and arenewable energy integration course would suffice. In
ETD 415 Industry 4.0 Technology Skill Expectation Integration into Engineering Technology Technical Workforce Marilyn Barger and Richard Gilbert FloridaMakes and FLATE; University of South FloridaAbstractThere are many approaches to identifying Industry 4.0 Technology driven skills that need to beintegrated into Engineering Technology education. This presentation will review a manufacturerand faculty Caucus method. Once the skill needs are identified there are challenges associatedwith the delivery of appropriate level and intensity of the skill instruction in the
, there is a concerted effort to ensure the student only experiences the same case study(when applicable) only once during their four-year program in the department. This approachensures students experience the full spectrum of formal ethics instruction. This paper reveals thisUniversity’s creative approach teaching ethics, using the aforementioned techniques.IntroductionAt this university, both Electrical (EE) and Computer (COE) engineering programs areaccredited through ABET (the Accreditation Board for Engineering and Technology, Inc). BothEE and COE (Bachelor of Science in Engineering) programs were accredited in 2018, and thenext accreditation review is in 2025-2026 academic year. Once achieved, accreditation is notpermanent—it is renewed
will need to be working on too far in advance. Perhaps the most major challengeis the lack of time for both partners.It is helpful, therefore, to maximize all opportunities to interact with regional and local industry.This paper outlines the numerous types of contact our program has with local industry and howwe have attempted to use every morsel of input we can gain to inform our curriculum. Proceedings of the 2023 Conference for Industry and Education Collaboration Copyright ©2023, American Society for Engineering Education ETD 365Industry Advisory BoardLike most engineering technology programs, we have an advisory
Student LearningOutcomes (SLO). Students learn the basics of ARM Cortex M4F architecture, fundamentalconcepts of Thumb assembly programming, and basics of C programming in an embeddedsystems context, and later address various processor modules and embedded protocols inconjunction with the manufacturer-supplied board/chip support libraries – a typical commercialsoftware development approach in product design. Students can learn: 1. Basics of embedded systems 2. A broader view of an ARM Cortex M4F architecture Proceedings of the 2023 Conference for Industry and Education Collaboration Copyright ©2023, American Society for Engineering Education
awards) and presentations by three awardees of the 2018-22 cycles.Engineering technology educators should benefit by discovering a new outlet for seed moneyand learning about innovative, creative teaching practices and research.IntroductionSince 1980, the Engineering Technology Division has offered its members the possibility ofseed money for projects directly related to the larger engineering technology community.Initially, funding was limited to $100 per project and later increased to $250 [1]. Over theensuing decades, funding has increased dramatically, up to $2,500 per project, with requiredsupplemental institutional or departmental matching funds.The first projects were, of necessity, small in scope and utilitarian in nature, including
development, and we all benefit from morethoughtful engineers. This study focuses on one previous literature by Fiss et al. [1], reportingchallenges critical for ETS-IMPRESS students: having lower ratings in their change-readiness (e.g.,optimism and adventurousness) and approaching a significantly lower rating on their self-efficacy(e.g., feeling of inclusion), compared to other honors students participating in the same HonorsCollege Pathway Program. Based on these findings, we investigated ETS students’ longitudinalresponses in the areas of change-readiness, engineering self-efficacy, and intent to persist usingthree classic, validated surveys (Appendix A). We compared ETS students’ first survey responseswhen they started to participate in HCPP with
from a variety of brainstormed projects after a thorough discussion,elimination, and voting. Teams are formed based on the project, not the other way around ,wherestudents form their own teams. This approach enforces one of the basic rules in professionalpractice, which is working with teams that the students do not choose.Concepts of engineering project management that students learn in their curriculum areincorporated into the senior project course by integrating the time, scope, and cost dimensions ofa project in the process of development.A team usually consists of 2-4 students, with 3-5 projects in each class. Lectures are given on allforms of intellectual property and specifically utility patents. Using this information, apreliminary IP
, thereis a multi-pronged approach linking academic learning to industry expectations in ENGT. First,professional certifications directly from industry firms already occurs. Second, professionalcertifications will be piloted in Spring 2023. Lastly, the LL certificates of completion enablestudents to broaden their knowledge while simultaneously allowing students to build theirpersonal brand by posting certificates on LinkedIn. Proceedings of the 2023 Conference for Industry and Education Collaboration Copyright ©2023, American Society for Engineering Education ETD 365A course on programmable logic controllers allows