understanding of the presentation content to the students. 5. ConclusionAs a first-time offering this course at UHCL, AM lab played an important role in studentengagement for a hands-on-based curriculum. One of the major focuses of this course design wasto integrate the design and manufacturing of parts for 3D printing applications. Throughout thesemester, students had the opportunity to learn the full spectrum of the typical material extrusionAM process by learning design in Fusion 360 software, relevant 3D printing slicing software,and manufacturing using desktop scale 3D printers that are available at AM lab. A summativeapproach was employed to measure the learning outcomes. At the end of the semester, themeasurement results
startedlooking into the feasibility of making the graduate engineering program more accessible. Thiswould not only allow us to meet the growing demand for engineers in West Michigan, but itwould be well aligned with our program’s student-centric focus. To prepare the students for thegraduate-level engineering work, an exhaustive list of prerequisite undergraduate classes thatstudents must take has been approved. While each applicant’s curriculum is tailored, GVSU’sSchool of Engineering developed a general plan to onboard students from a variety of non-engineering undergraduate backgrounds. Applicants are granted conditional admission to thegraduate program predicated on completing the prerequisite classes with a B or better grade.These plans allow the
summer and freshman fall/spring/summer semesters)curriculum-based STEM-enrichment program called USTEM. USTEM implements high-impactand proven STEM-enrichment activities, practices, and strategies that have been published in theliterature. The research component studies how an original set of creative video projects (CVPs)influences students’ psychosocial, scholastic, and persistence outcomes. This study entailsrandomizing half of each cohort to participate in USTEM without CVPs (USTEM1) and the otherhalf to participate in USTEM with CVPs (USTEM2). USTEM2 participants produce four CVPs:1) a biography of a STEM scientist, 2) a position statement on a STEM controversy, 3) a tutorialon a STEM topic, and 4) a critique of a STEM peer-reviewed
Paper ID #41209High School Computing Education: The Landscape of Equity-Enabling Research(Fundamental)Dr. Julie M. Smith, CSEdResearch.org Dr. Julie M. Smith is a senior education researcher at CSEdResearch.org. She holds degrees in Curriculum & Instruction and Software Development. She also completed a doctoral program in Learning Technologies at the University of North Texas. Her research focus is computer science education, particularly the intersection of learning analytics, learning theory, and equity and excellence. She was a research assistant at MIT’s Teaching Systems Lab, working on a program aimed at
that facilitate the integration andalignment of the “3P” components toward achieving an adaptable, industry-relevantengineering curriculum. Enablers help overcome obstacles during curriculum development andpromote effective communication and collaboration responsive to industry needs and policychanges. For example, in the dynamic interplay between Policy and Pedagogy, “Policy-informed curriculum design” emerges as one of the crucial enablers. This concept refers to thedeliberate shaping of the curriculum to incorporate competencies, skills, and knowledge areasemphasized within the latest energy policies. If national energy policies increasingly prioritizethe role of energy storage in renewable energy integration, a policy-informed curriculum
conducting a formal needs assessment 2. Developing an institute-style professional development program 3. Meeting immediate or short-term teacher needs via: a. Supplying Arduino activities b. Developing an engineering discipline exploration opportunity for studentsThe following sections describe each current focus area, ending with future directions of thisCAREER project. Understanding Teacher NeedsThis research area specifically focuses on identifying the needs of teachers in rural SouthwestVirginia related to integrating engineering in their classrooms. The goals of this research area aretwofold: 1) to meet immediate needs by providing easily-implementable engineering activitiesand resources
contributes heavily to the inconsistent application of engineering at the K-12levels[3], [4]. A sampling of some options proposed by a researcher [5]are sequenced, parallel,partial, enhanced, and total approaches for STEM Integration that have demonstrated someeffects on science learning[6]. In all of these models, what has been accepted is the importanceof the design process in providing students with a meaningful context for identifying multiplesolutions to be applied to problems.[7], [8], [9], [10].Although there has not been an agreed way to do integrated engineering and science, there is,however, an accepted tool for measuring the effectiveness of integrated curriculums (STEM-Integration Curriculum Assessment)[1], based upon a STEM Integration
integrates multiple elements and services to foster a learning environment thatmotivates scholarship students to persist in their engineering studies; and 3) Foster an inclusivelearning environment by engaging all engineering students in diversity, equity, and inclusionexperiences and nurturing an equity mindset in student leaders through participation in trainingprograms.To accomplish these goals, we identified 10 low-income, academically talented students toreceive scholarships. We also identified 80 additional engineering students who wished toparticipate in the Engineering Living/Learning Community (ELC). The scholarship students andother interested students were placed in the ELC starting in Fall 2023, where they areexperiencing first year
comprehensive view of how these courses integrate sustainable design,systems thinking, and creativity to meet the objectives of senior design capstone project courses.The detailed curriculum and activities outlined for both courses underscore a pedagogicalapproach that prepares students for the multifaceted challenges they will face in their capstoneprojects. Here’s an integration of the revised information with the objectives of senior designcapstone project courses:Objective Alignment with Senior Design sequence1. Identify the Sources of an Engineering or Technical Problem • MET 300: Through system mapping and identification of potential problems, students learn to pinpoint problem sources, a skill critical for capstone projects. • MET
across the country on developing meaningful, standard-based STEM experiences for their students. Mia currently serves as the Director of Professional Development at WPI’s STEM Education Center and as PI of an IES funded grant, Seeds of STEM. In these roles she oversees the development and facilitation of STEM themed professional development programs for PreK-12 teachers and administrators and the development and testing of STEM curriculum for preschool classrooms. Dr. Dubosarsky has an undergraduate degree in Biology from Israel’s Institute of Technology and a Doctorate in Curriculum & Instruction (science education) from the University of Minnesota.Shakhnoza Kayumova, University of Massachusetts DartmouthDr
standards in real-world contexts. Moreover, the study proposes an expansion ofthis approach to civil engineering and cybersecurity-related programs, emphasizing the broaderimplications for workforce preparedness and infrastructure resilience. By highlighting theimportance of standards education and offering a replicable model for curricular integration, thisstudy contributes to advancing standards literacy initiatives within higher education and drawsattention to their role in shaping the future engineering workforce.IntroductionStandards form the foundation of many technologies and processes used in daily life. They helpmanage safety, security, and risk across countless industries and activities [1]. In simple terms,they are documents that
1 Equal ContributionAbstract As the engineering community grapples with integrating sustainability into its curricula,assessing how sustainability concepts are infused across various engineering disciplines remainschallenging. The senior design capstone project is pivotal in assessing students’ understanding ofengineering subjects. Thus, it acts as an effective measure of their awareness and proficiency insustainability. This study assesses the integration of sustainability in senior design capstoneprojects across six engineering programs, namely, Chemical and Paper Engineering, Civil andConstruction Engineering, Electrical and Computer Engineering, Engineering DesignManufacturing and
communication. He also had additional responsibilities as a lab manager controlling all measurements for Intel 22nm FinFet technology development. He joined Cooper Union as Assistant Professor at 2020 Fall, and teaches Microelectronics/VLSI related courses. His current research interests are in the area of RF IC design for wireless applications. ©American Society for Engineering Education, 2024 Developing Microelectronics and VLSI field Education for the potential workforceAbstract Rapid evolution of semiconductor technology has resulted in an unprecedented reliance onmicroelectronics and Very Large Scale Integration (“VLSI”) systems across various industries.As technology of
Paper ID #44540Empowering Youth to Create a Healthier Future Through STEM EducationAbout Antimicrobial ResistanceHector Palala, University of Nebraska, Lincoln H´ector de Jes´us Palala Mart´ınez is a doctoral student in Curriculum Studies and new technologies in the Department of Teaching, Learning and Teacher Education at the University of Nebraska-Lincoln. H´ector teaches courses related to the integration of technology for future high school teachers as well as bilingual education and in all his classes he promotes justice, dignity and human rights. Previously, he was a professor of education at the Universidad de
Paper ID #43486Impact of Engineering Course Participation on Students’ Attitudinal Factors:A Replication Study (Evaluation)Dr. Meltem Alemdar, Georgia Institute of Technology Dr. Meltem Alemdar is a Associate Director and Principal Research Scientist at Georgia Institute of Technology’s Center for Education Integrating Science, Mathematics, and Computing (CEISMC), Dr. Alemdar made significant contributions to the fields of STEM education. Her research focuses on improving K-12 STEM education through research on curriculum development, teacher professional development, and student learning in integrated STEM environments
interviews, ability and confidencein introducing these topics within traditional coursework is lacking. Firstly, faculty areoften unfamiliar with basic sustainability concepts (e.g. it’s not just about globalwarming) and information (e.g. the UN SDGs, the IPCC). Secondly, faculty have notonly not been trained in these topics, but also have not been trained in teaching themeffectively, and they do not generally have the time required to learn that independently.Thirdly, it is not usually obvious how these topics can be sensibly integrated into variouscourses without appearing to be extraneous add-ons. Thus, faculty training and supportare important components of curriculum transformation activities.There have been “train the trainer” efforts
gain a better understanding of their desired career/work exploration by employing these Lean tools to evaluate processes and responsibilities integral to those roles in a virtual setting. Imagine a virtual reality nursing station, for example. Learners can actively observe and assess how they might use the Lean methodology to increase safety, efficiency, teamwork and encourage employee empowerment to provide an overall improved experience for the nurses, staff, and patients, as well. Educators For educators, the Lean curriculum offers a straightforward concept that demands minimal computation, much to the delight of some learners. The modules come equipped with project- based and problem-based activities, which align with the learning outcomes
intermediate algebra or precalculus math level. Thelearning community, titled “Engineering in Context” spans two academic quarters and includessix different courses which integrate place-based learning. The curriculum includes a new two-quarter precalculus for engineering sequence, contextualized English composition, and PacificNorthwest history. Specific sections of these four courses along with our existing first-yearengineering sequence (ENGR 101: Introduction to Engineering and ENGR 151: IntroductoryDesign and Computing) create the two-quarter learning community. Introductory engineeringcontent includes an orientation to the engineering profession, academic skill development,introductory physics, problem-solving, computer programming, and team
interface through molecular dynamics.Naser Haghbin, Fairfield University Dr. Naser Haghbin is an Assistant Professor and Director of the Innovation Annex at Fairfield Univer- sity’s School of Engineering and Computing. With a distinguished career in Mechanical Engineering, he focuses on advancing industrial automation, robotics, and smart manufacturing. Driven by an inter- disciplinary approach, he seamlessly integrates traditional and advanced manufacturing processes with CNC machining, contributing significantly to academia and industry. Moreover, he excels in operating two fully automated robotic paint shops, showcasing his expertise in manufacturing processes, practical automation, and robotics in large-scale
also included sensors, actuators, resistors, LEDs, a breadboard, andjumper wires to connect components together [2]. Once supply chain issues were resolved amore elaborate IoT learning toolkit was developed based on an IoT learning platform, theKeysight U3810A [7]. This learning platform includes an integrated basic processor board, theBeagleBone Green, along with a variety of sensors and components mounted onto a larger circuitboard. The U3810A IoT learning platform is pictured in Figure 1. In addition to the U3810Aand its integrated basic processor board, the advanced learning toolkit includes jumper wires tomake connections among its components. A breadboard is also included to enable students toincorporate additional sensors, actuators
in higher-leveluniversity courses. Figure 1 contains a comparison of an old curriculum part (left) with a same-level new curriculum part (right) taken straight from the assignment, respectively. The old part isa junction box with instructor added annotations meant to clear up confusion with the provided,hard-to-see dimensions. Even with the annotations, students were unable match the mass orvolume provided in the answer key, which graders use to judge accuracy. The updated curriculumpart, a converging diverging nozzle, solves these problems by providing visible dimensions,allowing matchable mass and volume values, and incorporating aerospace concepts. Additionally,faculty A included a lecture on the CATIA certification and its
Paper ID #43735Can Hands-on Statics Improve Student Learning?Prof. Eric Davishahl, Whatcom Community College Eric Davishahl serves as professor and engineering program coordinator at Whatcom Community College in northwest Washington state. His current project involves developing and piloting an integrated multidisciplinary learning community for first-year engineering. More general teaching and research interests include designing, implementing and assessing activities for first-year engineering, engineering mechanics, and scientific computing. Eric has been an active member of ASEE since 2001. He was the recipient of the
, the PtD idea has gradually gained acceptance in the U.S. [3]. However,the traditional curriculum offered by civil engineering programs in the United States does notintegrate PtD concepts [4]. It has been suggested that the engineering community will notincorporate PtD into the curriculum until the accrediting body, ABET, includes it in either aGeneral Criteria or the Program Critera. The majority of civil engineering programs in theUnited States are accredited by ABET. Recently, ASCE’s Civil Engineering Program CriteriaTask Committee (CEPCTC) added a requirement for the curriculum to include an explanationof safety, effective for the 2024-2025 accreditation cycle. Specifically, CEPCTC suggests ninelecture topics that can be used to comply
moreeffectively and efficiently teach concepts, theory and problem solving skills. This pilot study willsupport instructors by providing an insightful understanding of the students’ successes andchallenges when dealing with real-world problems using data analytics.A team of faculty members in computer science, mechanical engineering and constructionmanagement at Alabama A&M University implemented ProjBL instructional practices in threecore courses in STEM curricula by integrating data analytics skills in Fall 2023. This pilot studyhas focused on: (1) designing the three courses in computer science, mechanical engineering andconstruction management by adding data analytics components into team projects; (2)incorporating engagement strategies in
linked to a vertically integrated framework of our curriculum, which combines core engineering concepts andprocess design around biodiesel plants in different courses of our program. Finally, the teams submit a “strategiesreport” (engineering logbook), where all engineering strategies to achieve the process engineering goals aresummarized and discussed. With this revamped version, we expect to guide students to assume responsibility fordesigning sustainable chemical processes while enhancing students’ career readiness.Keywords: Curriculum integration, chemical process design, sustainability.IntroductionThe integration of sustainability-related topics in the chemical engineering curriculum has beenstrategized in different teaching approaches and
, but was not accomplishing some of theessential goals that instructors had for preparing students for the engineering curriculum. In mostsections of the class, a typical class meeting consisted of a lecture in which the instructorintroduced a type of differential equation and showed the students how to identify and solve thattype of differential equation. The students then completed a worksheet that had them repeat theprocess that the professor just demonstrated on one or more examples of that type of differentialequation. In short, students were trained to be good at mimicking a process and identifying whento use that process. Applications were briefly mentioned, but accounted for only a small portionof the class and were not integrated with
broaderunderstanding of the related concepts, and were also instrumental in increasing teachers’understanding [8], [9], [10], [11], [12]. Preparing such interdisciplinary lessons drawing on thedeep historical lineage of integrative scientific pursuit can help broaden and contextualize topicsbetter for the learners, and can offer an engaging learning experience in the classroom.In this context, music integration offers a path for what has been called Thickly AuthenticSTEAM experiences, characterized by having a) personally meaningful learning experiences; b)learning that relates to the world outside of the learning context; c) learning that encouragesthinking within a particular discipline (for example sound production); and d) allowing forassessment that
students' motivation topursue a career in microelectronics differ after this limited curriculum intervention?Literature ReviewThe Role of Interest in Career DevelopmentSocial Cognitive Career Theory (SCCT) [9] is an overarching conceptual framework that guidesall of the decisions of the Scalable Asymmetric Lifecycle Engagement (SCALE) project. SCCTemphasizes the role of relevant interests in career development. Within SCCT's Choice Modeland Interest Model, interest directly links self-efficacy, outcome expectations, and career-relatedchoices [9]. Because of this, many studies seeking to affect student's interest in engineeringcareers focus on increasing student self-efficacy and outcome expectations. In SCCT, interestsdirectly relate to choice
29, 2024.[9] J. D. Ford and L. A. Riley, "Integrating communication and engineering education: A look at curricula, courses, and support systems," Journal of Engineering Education, vol. 92, (4), pp. 325-328, 2003, https://doi.org/10.1002/j.2168-9830.2003.tb00776.x.[10] S. Manuel-Dupont, “Writing-across-the-curriculum in an engineering program” Journal of Engineering Education, vol., no. 85, pp. 35–40. 1996, https://doi.org/10.1002/j.2168- 9830.1996.tb00205.x.[11] P. L. Hirsch, Shwom, B. L., Yarnoff, C., Anderson, J. C., Kelso, D. M., Olson, G. B., & Colgate, J. E. “Engineering design and communication: The case for interdisciplinary collaboration,” International Journal of Engineering Education
during her interview as Founding Chair.Vision for the CurriculumAlthough an internal task force had drafted an engineering curriculum spring 2016 to get the newdepartment approved in the College, the Founding Chair was allowed to start the curriculumdesign process from scratch to ensure ABET compliance and alignment with shared visioning.As a point of reference, Figure 9 shows the originally proposed WFU BS Engineeringcurriculum, which showcases what most would describe as a traditional engineering curricularmodel. Eventually, as will be visible in upcoming sections of this paper, the WFU Engineeringwould reflect a model that is more interdisciplinary, integrated, and holistic. Proposed WFU BS