, Participation. Professional Learning1. IntroductionThis research paper provides findings from implementing the Professional Development or PDmodel of the NSF-awarded project “Let’s Talk Code”. The goal of these PD workshops was toincrease teacher’s confidence and capability in integrating culturally relevant computing andcoding experiences within their curriculum and instruction. Here, we set our focus on the impactof the PD. Through the PD, teachers were engaged in computing and coding professionaldevelopment via Code.org. The teachers were then asked to apply what they learned aboutcoding by developing and implementing culturally relevant computing and coding experiencesfor their students. Here, we share early findings from three of the teacher
ABET document “Criteria for Accrediting EngineeringPrograms.” [8] The document details the necessary criteria that ABET utilizes to assessinstitutions for accreditation purposes, and it is organized under eight individual criteria. Whileall of the criteria are relevant to the development of the organization and practices of an ABETaccredited engineering program, several of the ABET criteria particularly impact the content andorganization of the curriculum for undergraduate engineering programs, including Criterion 3,Student Outcomes, and Criterion 5, Curriculum.The current set of Student Outcomes went into effect in the 2019-2020 academic year, and theycontinue to utilize the concepts of change within the profession and outcome-based
Paper ID #42581A Collaborative Effort to Convert MATLAB-based Curriculum to Python inUndergraduate Biomedical Engineering EducationDr. Elizabeth Kathleen Bucholz, Duke University Dr. Bucholz is an Associate Professor of the Practice for the Department of Biomedical Engineering at Duke University and serves as the Director of Undergraduate Studies for the Department of Biomedical Engineering in the Pratt School of EngDavid Ward, Duke University ©American Society for Engineering Education, 2024Title: Bridging the Gap: A Collaborative Effort to Convert MATLAB-based Curriculum to Pythonin Undergraduate
andComputer Engineering (94), Engineering Technology (82), First-Year Programs (75),Manufacturing (67), Mechanical Engineering (46), and Pre-College Engineering Education (38).Within the papers published through Mechanical Engineering, authors highlight the advantagesof the low-cost microcontrollers in integrating their use early on and throughout the four-yearundergraduate curriculum (examples: [2-7]).It should be noted that much of the literature reviewed refers to controllers/microcontrollers astools or components in relation to other efforts (i.e. implementation of lab projects, capstoneprojects, etc). Few focus explicitly on the selection process or the training for students oneffective selection given rapidly changing and available options. The
concepts fromthe course are directly tied to engineering applications, even at a basic level in freshmen and sophomorelevel courses [4], [5], [8]. At the University of Nebraska- Lincoln (UNL), the implementation of a new“design spine” curriculum embeds Python programming in the second semester sophomore class titledCIVE 202: Civil Engineering Analysis II. The design spine was created to integrate students into major-specific courses every semester within a four-year program, encourage relationship building amongststudents and to teach industry-level skills identified by the department’s advisory board and futureemployers that are becoming critical for young engineers entering the workforce. CIVE 202 wasstructured as an open-sourced coding class
bioethanol intheir bioreactor for educational purposes (i.e. conducting life cycle analysis utilizing this process). A carbonfootprint study was undertaken to enable a data-driven laboratory experiment design to reduce carbonfootprint by selecting an efficient feedstock for the fermentation process. In the undergraduate laboratory curriculum, refined sugar is the most common feedstock used inbioethanol production. In this study, the student team also investigated another alternative feedstock of cornsyrup based on the bioethanol conversion/yield4,5. Studies have shown that the amount of CO2 generatedfrom the chemical processes is directly proportional to the conversion rate 3. Since corn syrup contains morecomplex sugar, the lag phase is
. Monika Herrmann, University of Wisconsin, Stout About the Author Monika Herrmann is an assistant professor in the Engineering and Technology department at the University of Wisconsin Stout. She holds professional licenses in Architecture and Interior Architecture in Germany and the USA and is practicinDr. Ahmet Turkmen, Ahmet Turkmen, PhD is an Associate Professor in the Engineering and Technology Department at the University of Wisconsin-Stout. Dr. Turkmenˆa C™s fields of expertise include medical instrumentation, processing of physiological signals, and modeling of physi ©American Society for Engineering Education, 2024 Integrating Artificial Intelligence into Electrical Engineering
conflict while avoiding falling into an echo chamber.4.0 Course Alumni InsightsAlumni of the course were invited to contribute to this paper as co-authors to share their insightson the class and how it fit into the traditional engineering curriculum. Their perspectives areincluded in the subsections that follow.4.1 Kevin KuckMy name is Kevin Kuck (pronounced 'cook'). At the time of writing this, I am a 5th-year senior atGeorge Mason University pursuing an undergraduate degree in mechanical engineering. Before Iexplain this class's profound impact on me, I need to provide context as to why. Until Spring 2022,I had no real intention or desire to be more involved at Mason. I knew very few people within thedepartment and even fewer people in my
experience and belongingness8 16C o N E C D 2 0 2 4Here is how we got here…• An overview of significant event at the University-level • 2016 – Tigers ADVANCE grant activities begin supporting women in STEM • 2016 – Clemson achieves R1 status • 2016 – Clemson hires first Chief Diversity Officer (CDO) and special assistant to the president for inclusive excellence • 2018 – University implements Grad 360 curriculum • 2023 – New VP Diversity and Inclusive Excellence (Dr. Felicia Benton-Johnson)• An overview of significant events within CECAS that directly
interested in leveraging integrated curriculum development in K-12 settings to positively impact underserved populations in the field of engineering. She utilizes past experiences in STEM program evaluation, education policy, and chemical engineering research.Ms. Azizi Penn, Purdue Engineering Education Azizi Penn is a professional software engineer, a California State University, Sacramento adjunct professor, and an engineering education Ph.D. student at Purdue University. ©American Society for Engineering Education, 2024 Paper ID #43246Ms. Breejha Sene Quezada, Purdue Engineering EducationDeana Lucas, Purdue
of RHIT's sustainability education. Such an evaluation willshed light on the institution's progress, strengths, and areas for improvement in meeting itsoverarching mission and vision with respect to sustainability education.This report aims to comprehensively explore RHIT's sustainability education, examining itsinitiatives, curriculum, and integration of sustainability principles across various disciplines. Bydelving into the sustainable practices and educational approaches employed by the institute, wecan better understand how RHIT is cultivating a generation of engineers and scientists whopossess the knowledge and skills needed to define and solve the multifaceted problems of ourcomplex global society.Following the assessment of the
, Vanderbilt University At Vanderbilt University I help graduate and undergraduate students learn how to do research and succeed academically by introducing them to a range of tools, developing new tools, creating educational programs, and advocating for the use of library serviProf. Amanda R. Lowery, Vanderbilt UniversitySheldon Salo, Vanderbilt University Library ©American Society for Engineering Education, 2024Title: Work in Progress: Integrating Information and Data Literacy Skills into BiomedicalEngineering Laboratory CoursesBackground: Undergraduate engineering programs train students to develop, conduct, andinterpret experiments, as well as foster an ability to acquire and apply new knowledge as needed[1
deeper understanding of mechanical concepts and theoriesbut also for fostering active learning. While the traditional use of commercial bridge modelingkits, like the Pasco Bridge set ME-6991, has been standard, this approach often falls short ineffectively engaging students in learning the principles of static equilibrium and truss analysis.This paper introduces an innovative design project that enhances the conventional bridgeexperiment. It involves students optimizing and 3D printing truss member dimensions, replacingthem in the model, and evaluating performance. This hands-on approach in design andmanufacturing significantly enriches the learning experience in truss analysis. Additionally, thepaper discusses the integration of this project
blendof curriculum modification, textbook selection, grading policy refinement, an interactiveimplementation structure, and a meticulously crafted week-by-week schedule. Thiscomprehensive approach ensures alignment with the overarching goal of equipping students witha complete understanding of automotive engineering principles, encompassing both traditionaland emerging technologies.The first step in reshaping the Automotive Engineering course involves a modification of thecourse description to reflect the expanded scope and objectives of the revamped curriculum. Thismodification is guided by the recognition that the automotive industry is undergoing a profoundtransformation with the emergence of EVs and AI integration into vehicle systems. As
completely different. She accepted a job teaching chemistry and physics at Bayonne High School. Since then she was able to write curriculum for a science research program and an engineering program. Now she teaches mostly pre-college engineering. She also brought in many new programs to her school including FIRST Tech Challenge, Lemelson InvenTeam, Technology Students Association, and Society for Science with a local science fair and ISEF.Kathryn Hoppe ©American Society for Engineering Education, 2024Empowering the Future: Integrating Invention and Intellectual Property Education in P-12 Engineering to Foster Innovation (RE, Diversity, Curriculum)AbstractOver the years, the U.S
engineering course that often acts as a gateway toupper division engineering curriculum. Some students find the course exciting and motivatingwhile others find it overly challenging and discouraging. Grading schemes can play a significantrole in students’ motivation for, and approach to, learning. In this article, we present two differentgrading schemes used in an undergraduate engineering dynamics course at the University ofCalifornia, Irvine, and specifically evaluate the merits of a standards-based, learner-centered,specifications grading scheme for promoting student learning and overall achievement. The firstgrading scheme we present is a traditional points-based scheme that assigns points to students’performance on summative assessments like
understanding of theirsubjects impact their pedagogy [28], [29], [30], [31]. Teacher beliefs are a “messy construct” [32] butare related to teaching and encompass teacher knowledge, practices, and students [33]. Teachers' beliefsare instrumental in shaping teachers as individuals and influence their teaching decisions and application[32], [34], [35]. Teachers’ beliefs and perceptions have a powerful impact on their willingness to adaptnew pedagogies and teaching strategies [36]. As STEM-integrated curricula like BID become an integralpart of K -12 curricula, it is important to examine the impact of BID on teachers’ BID understanding andpedagogy. In Rehmat et al.’s [15] study, teachers’ implementation of the BID curriculum differed dueto teaching and
for Engineering Education, 2024 Empowering Future Construction Professionals by Integrating Artificial Intelligence in Construction Management Education and Fostering Industry CollaborationAbstractsIntegrating Artificial Intelligence (AI) into construction management education is pivotal forequipping aspiring professionals with the necessary tools and competencies to excel in an ever-evolving construction industry. Incorporating AI in construction management educationempowers students to acquire valuable skills and prepares them to address the challenges andopportunities that AI brings to the construction sector. This, in turn, can lead to more streamlinedand sustainable construction practices in the years to
Paper ID #43590Bridging the Gap: Industry Integration in MSE Undergraduate Lab CoursesEnhancing Student LearningDr. Himani Sharma, Georgia Institute of Technology ©American Society for Engineering Education, 2024Bridging the Gap: Industry Integration in MSE Undergraduate Lab Courses Enhancing Student LearningAbstract:In today's educational landscape, preparing students for an ever-evolving and demandingworkforce is of paramount importance. Collaborations between industry and academicinstitutions have consistently demonstrated positive outcomes for all involved parties, includingstudents, instructors, and industry
[7]. The idea of fostering systems thinkingskills in engineering curriculums has been increasing, as these skills are anticipated to facilitateunderstanding of emerging complex systems that often consist of interoperated and multi-perspective subsystems [4, 8]. In [9] the integration of systems thinking components in theexisting educational system is proposed through lectures, labs, case studies, or capstone. In [8]the application of systems thinking is demonstrated across diverse engineering disciplines,including fluid mechanics, heat transfer, and mechanical, electrical, nuclear, and environmentalengineering. The authors advocate integrating these systems thinking skills as an adjunctapproach to gain more insights, as the complexity of
Paper ID #45066Full Paper: Integration of Digital Tools and Technologies in First-Year EngineeringCoursesProf. Kapil Gangwar, Wentworth Institute of Technology Kapil Gangwar is an assistant professor of mechanical engineering at Wentworth Institute of Technology with a background in materials, mechanics and manufacturing. 15th Annual First-Year Engineering Experience Conference (FYEE): Boston, Massachusetts Jul 28 Full Paper: Integration of Digital Tools and Technologies in First-Year Engineering CoursesAbstract:In a 15-week semester at Wentworth Institute of Technology, the utilization of digital
context of utilizing AI tools in education13. In today's classrooms, the ability to use toolslike ChatGPT effectively is not just an added advantage but a necessity. This claim is valid indisciplines such as computer programming14, where a deep understanding of the subject matter goeshand in hand with the practical application of technological tools. Integrating LLMs intoassignments serves a dual purpose: it familiarizes students with cutting-edge technology whilereinforcing the critical learning objectives of the curriculum. This approach fosters resourcefulnessby pushing students to rely on AI-generated solutions and understand the underlying principles thatguide these solutions.Understand Code ThoroughlyIn programming education, the objective
,understanding and use of nuclear data is extremely important. Nuclear data “impacts design,efficiency and operation of advanced reactors and security applications” [4]. Data analytics playsa crucial role in increasing safety, reliability, and economic viability [4][5].However, the current K-12 and higher education curricula are lacking in data analytics especiallyfor nuclear energy and security. Hence, there is an urgent need to explore innovative approachesin order to integrate data analytics skills into pipeline building to strengthen the future workforcein those areas.In this paper, a pilot study that includes the strategies and practice to integrate data analytics intosummer enrichment programs in nuclear energy and security hosted at Alabama A&
students in theresponsible and acceptable use of AI platforms, providing them with opportunities and guidanceto explore and leverage this new technology. The potential of ChatGPT in the classroom has beenanalyzed in various studies [3-5], highlighting its applications as a writing assistant, study tool,and personal tutor [6]. However, there are also concerns that the overreliance on ChatGPT mayadversely affect students' critical thinking and problem-solving skills [7]. As AI becomes moreprevalent in higher education, it is essential for educators, curriculum designers, andpolicymakers to understand the implications of integrating these tools into the educationalcontext.According to research [7], ChatGPT has the ability to respond immediately to
AI into the engineeringmanagement curriculum signifies a fundamental paradigm shift. This integration presentsopportunities for enhancing educational practices and challenges necessitating a thoughtfulapproach to leverage AI's potential responsibly.This integration facilitates enhanced educational practices through AI, that compels a thoughtfulapproach to responsibly leveraging its potential. AI technologies reshape knowledge acquisitionand application, demanding an evaluation of AI-generated content and its implications. As AIbecomes more prevalent in engineering management education, it is crucial to assess how thesetechnological advancements intersect with traditional teaching methods, affecting the delivery andthe substance of
tools like Gen AI may be useful. Recent research investigated the effectiveness of using Gen AIin learning [60], [61], [62]. An extension to the TDCR module is proposed in the following section to provide details on theintegration of a Gen AI tool to assist students with their project work. The goal of the Gen AI tools is toprovide guidance on project planning, task assignment, team dynamics and aid with conflict resolution. Itis important to note that the TDCR module that is described in the previous section is a stand-alonemodule that is effective in achieving its purpose. The Gen AI tool aims to provide additional support toboth the instructor and student as will be discussed in the following section.4. Integrating Gen AI in Curriculum
consider global, cultural, social, environmental, and economicfactors in student outcomes [1], as do licensing agencies such as the National Society ofProfessional Engineers (NSPE) [2] and profession societies such as IEEE [3].Most engineering instructors have been educated with a deep technical focus, and though manysee the value of addressing sociotechnical issues, they have little experience outside ofengineering and feel ill-equipped to integrate these topics in the curriculum. In this project, weaim to make it easier for engineering instructors to include sociotechnical issues in their coursesby developing modules (with detailed teaching guides and instructional resources) for theintroduction to circuits course, each emphasizing a different
Paper ID #43994The integration of sustainability and automation to enhance manufacturingin Industry 4.0Dr. Hossain Ahmed, Austin Peay State University Hossain Ahmed earned an M.S. in mechanical engineering from Lamar University and a Ph.D. in mechanical and energy engineering from the University of North Texas. Dr. Ahmed is an assistant professor in the Department of Engineering Technology at Austin Peay State University, TN. His research interests are computational fluid dynamics (CFD), corrosion, and structural health monitoring (SHM). Dr. Ahmed has authored many journals, conference articles, and book chapters. He also
Paper ID #44342Integrating Engineering Design in Laboratory Sessions for Second-Year MechanicalEngineering StudentsDr. Deeksha Seth, Villanova University Deeksha Seth is an Assistant Professor in the Mechanical Engineering department at Villanova University. Her primary research interests includes integrative and interdisciplinary engineering education.Dr. Robert P. Loweth, Purdue University Robert P. Loweth (he/him) is a Visiting Assistant Professor in the School of Engineering Education at Purdue University. His research explores how engineering students and practitioners engage stakeholders in their engineering
and Ph.D. in Mechanical Engineering from the University of Missouri Rolla. Dr. Ertekin has also been a Certified Manufacturing Engineer (CMfgE), awarded by the Society of Manufacturing Engineers (SME) since 2001, and a Certified Quality Engineer (CQE) awarded by the American Society for Quality (ASQ) since 2004. In addition to positions in the automotive industry, Dr. Ertekin has held faculty positions at Western Kentucky University and Trine University. In 2010, he joined Drexel University’s College of Engineering as an associate clinical professor. He has been instrumental in course development and the assessment and improvement of the Engineering Technology (ET) curriculum, including integrated laboratories