://crsreports.congress.gov/product/details?prodcode=R45403Tull, D., (2019), ASEE/NSF Small Business Postdoctoral Research Diversity Fellowship Program (SBPRDF), #1552305 - Final Project Report to NSF, 10/2019Ivanitzki, T., Johnson, R., (2022) “Increasing U.S. Competitiveness by Investing in Underrepresented, Entrepreneurial-Minded Postdocs in High-Tech Startups.” Proceedings of the 2022 IAJC International Conference, Orlando, FL, USA. ISBN 978-1-60643-379-9Ivanitzki, T., Johnson, R., (2023), Expand Underrepresented Participation in High-Tech Start-Ups. Proceedings of the 2023 Conference for Industry and Education Collaboration (CIEC), Feb. 2023, ETD505, American Society for Engineering Education, ASEE, p3.Ivanitzki, T., (2023), Increasing
©2024, American Society for Engineering Education ETD 535Although automation can also improve quality, financial costs need to be considered whilekeeping profitability factors in mind [3]. So, why haven’t these invaluable tools been prioritizedfor secondary and post-secondary learners? That is a good question. Lean practices encompasspractical problem-solving, critical thinking, collaboration, personal life efficiency, careerreadiness, sustainability, adaptability, life skills, business concepts, troubleshooting, andinnovation. Not only are these tools useful in industry applications, but these skills are also vitalto prepare students both
safety. By making improvements with all these considerations in mind a more beneficiallearning environment for tech students can be created.To introduce Industry 4.0 technologies to the metal melt/casting line three areas, see Fig. 1, wereidentified to upgrade with sensors that automatically log data during the melting and castingprocess. Proceedings of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education ETD 315 1. Melt temperature measurement with wireless connection 2. Mold temperature measurement with thermocouples and wireless recording 3
ETD 505 Examining the Academic Success and Transition Experiences of Engineering Transfer Students: A Comparative Analysis of ETS- IMPRESS and Traditional Engineering Pathways Sarah (Yin Yin) Tan, Song-Lin Yang, David M. Labyak Michigan Technological UniversityAbstractAcademic and career success hinges on diverse factors including students’ perception of schoolreadiness and expectation. Previous studies have indicated that transfer students transitioningfrom a 2-year college to a 4-year university in engineering programs, specifically thoseparticipating
numberand ethnicities of graduate engineering students [11]. This study sought to better understand thedifferences between returners and direct pathway engineering students. An intriguing theme was Proceedings of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education ETD 535that returner engineering graduate students have skills and habits of mind that they willinglyutilize in graduate work. Instructors can draw on these skills in a more intentional manner toincrease learning for all students.Literature ReviewCommunities of PracticeThe contributions of
exercises and case studies used in that initial year. Then because of theinitial work accomplished during that first year, we were able to approach the course design withmore of an “inverse approach,” or the well-known backward design [5] i.e., instead of designingthe course and seeing what outcomes resulted, we were able to start with the outcomes desiredand design the course to meet them.A real boost came from a well-developed example provided by Dr. Dillon from when she hadtaught engineering ethics at a previous institution and had prepared an innovative class projectwith ABET criterion achievements in mind. We were able to adapt this case study so that asstudents worked through it, they would hopefully experience learning related to all three
the strengths and weaknesses of various team members including theirown, etc. [13 – 15].Communication skills included the ability to engage with different stakeholders (e.g., peers andfaculty), being able to create and present information orally and in writing and being mindful oftheir own verbal and non-verbal cues [16 - 19]. The third group of skills are largely consideredentrepreneurial and includes various skills related to making connections to a variety ofcontextual issues, being engaged in creative thinking, being curious, and striving to add value to Proceedings of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education
activity has been a successful idea.Overall, the students liked the technique and found it beneficial, regardless of whether the studentwas an online student or a face-to-face student. Furthermore, former students have come back totell the faculty that they have used the excel spreadsheet they developed for the project. Havingfaculty colleagues’ workload in mind and for easy implementation in their own courses, links tothe course syllabus, project assignment, and two student final reports were provided. Proceedings of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education
integrating cutting-edge technologies into industrial automation. Inaddition, this project is designed to assist engineering technology students learn the integration ofmechatronic system components, robot programming fundamentals, articulated robotconfigurations and movements, and the evolution of human–robot collaboration in modernindustry.IntroductionThe integration of the electrical activities of the human brain with electromechanical devices todevelop mind-controlled systems has become one of the most cutting-edge research topics in thefields of neuroscience, biomechatronics, human-computer interaction, robotics, and fourthindustrial revolution known as Industry 4.0. This interdisciplinary effort brings together expertsfrom different domains to
Copyright ©2024, American Society for Engineering Education ETD 315With this in mind, we will craft some courses singularly and some grouped to effectively combinemultidisciplinary practices with BIM:Singular Course Design: • Building Sciences-Wood Framed Construction: In this course students will identify and be able to design and detail small structures (under 4000 sq.ft.) with floor plans, wall sections, floor sections, simple roof sections, and a clear understanding of thermal bridging. Drawings from this course will then be passed on the Residential Single-Family Course. These students will also work in parallel with
community college in the state of Massachusetts’ community college system [5].For many decades the college has been successfully completing the technical aspect of ourmission and responding to the changing needs of local industry as it has evolved and morphed Proceedings of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education ETD 455over the years. Over the course of time, there have been dominate industries that have driven ourtechnical education mission. At one time, Digital Equipment Corporation (DEC) washeadquartered in Massachusetts and was the
can benefit fromexperiences that communicate the value of adhering to the guidelines.The purpose of this paper is to describe two activities that have been effective in raising studentappreciation of the importance of adhering to the guidelines for manufacture. These classactivities have also been adapted for use as a recruiting tool. They are effective at engagingstudent interest when used with presentations to prospective students.BackgroundWhile attempting to move a manufacturing engineering technology program to the hyflexdelivery mode, a grant was received to explore the conversion of traditional in-lab experiences toat-home options. The goal was to use inexpensive, readily available parts and materials tosimulate the in-lab experience