-teaching in the STEMmethods courses in teacher education.IntroductionThis full paper on computer supported pedagogy serves as a medium of exchange for innovativeapplications of educational technologies in education. We report the findings of evidence-basedresearch [1] to inform curricular and pedagogical initiatives for students and teachers’development particularly in the context of the post-secondary Initial Teacher Education (ITE)programs in STEM (science, technology, engineering, and mathematics) education.The paper describes what we have learned from using these innovative technologies in methodscourses with preservice STEM teachers in Canada during the COVID-19 pandemic. Ouroverarching research focus revolves around the question: What did
ethics by using a blended style of independent tasks and a peer-learning activity. Specifically, this paper investigates three main questions: 1. Does microlearning increase student engagement? 2. Does increased engagement result in higher performance on ethics assessments? 3. Is a blended approach of independent microlearning and an in-class team case study effective in bridging the lower order of memorizing ethical terms to applying ethical principles to a dilemma?The question on engagement was evaluated through an end of semester Likert style survey, andthe impact of the learning approach was assessed by comparing student participation in themicrolearning modules to performance in an end of semester ethics quiz. The Likert
since 2004, where he also served as the Dean of the College of Electrical Engineering and Computer Science from 2007 to 2009. Currently, he is the president of Tainan National University of the Arts. He has published more than 270 articles related to parallel computer systems, interconnection networks, path planning, electronic design automation, and VLSI systems design in journals, conference proceedings, and books. ©American Society for Engineering Education, 2024 Enhancing Student Learning in Robot Path Planning Optimization through Graph-based Method Timothy Sellers1 , Tingjun Lei1 , Chaomin Luo1 , Zhuming Bi2 , and Gene Eu Jan3 1
Research Grants 24K06133 and the Shibaura Institute of Technology Grants for Educational Reform and Research Activity in the AY2024. Her current main research interests are: 1) how including humanities courses in an engineering education curriculum can help students to gain flexibility, and an appreciation of equity, and a greater richness of ideas; and 2) systematic issues impacting the effectiveness of engineering education, specifically in the context of project-based learnings for the engineering education. Below are her recent presentations at international conferences: ASEE 2023, WERA 2023, 2022, 2019, APAIE 2023, 2022, IIAI DSIR 2021, 2020. She obtained the Multidisciplinary Engineering Division’s Best Diversity
– Senior Capstone Design Project, Engineering (E), Engineering Technology (ET),MouseHead - A Hands-Free Computer Controller.I. Introduction There is a growing importance of computers within the modern age. With more “work fromhome” opportunities being created, societies’ reliance on computer interaction continues toadvance. While this is not a problem in itself, there is an alienated sector of society that is unableto take advantage of these opportunities. A significant portion of the population struggles withimpairments [1, 2]. With technology being such a driving force in society, more opportunities arecreated for those who are constrained and unable to leave home as easily. As opportunities grow,those with impairments, like amputees
Developing KSAs in Engineering Capstone Students (WIP) This work-in-progress research analyzes undergraduate outcomes after participation in anengineering design capstone course. In this context, knowledge, skills, and abilities (KSAs) areintegrated within a competency-based educational (CBE) [1] model with an emphasis onformative assessment and feedback throughout the semester. Mirroring work in industry, thecourse also incorporates elements of new-product design (e.g., pre-work, definition, iterations)[2]. The course provides authentic learning through community and industry partnerships forteams of mixed-major engineering students (e.g., electrical, mechanical), exemplifying integratedlearning experiences [3] in pursuit of real-world
use pre-programmed coding blocks to build things from their imagination.Researchers and educators have considered it potentially transformative for fostering learningand cognitive skills [6]. Since an early version of Minecraft in 2009, millions of childrenworldwide have spent hundreds of thousands of cumulative years playing the game [9].Minecraft Education [8] is a learning platform based on Minecraft, where players can learncomputer programming and create their own Minecraft games, called "worlds," throughprogramming. We chose to use Minecraft Education as the platform for our socio-cultural gameand programming environment because: 1) Minecraft is one of the most popular game platforms for children aged 6-14 [6]. This age range
practical experiments will play a crucial role in students’ understanding of theories theylearned through books and lectures, spark interests in and lead to their continuance in VLSIfields after graduation.Sophomore – Microelectronics IMicroelectronics I Microelectronics I course includes fundamentals to start understanding recent CMOStechnology for chip design. The course focus on studying theories of how CMOS devices workand how to utilize such in designing a system within a chip [1][2][3]. Previously, these weretaught through textbook or materials only. This leads to build a bridge between what studentslearn in school and the actual design skills used in practice in recent technology developments. The new curriculum collaborates with
college studentsdescribe experiencing moderate to high stress levels [1], [2]. As students are busy and feelingoverwhelmed, they have limited structured opportunities for reflecting on and developing theirpurpose and professional identities. In STEM environments, students may find that they do notfit into a predominant narrative of just “being good at math” and thus lack an adequatejustification for entering an engineering field. Similarly, they may find that they areunderrepresented demographically, underresourced compared to some peers, or unsure how theybelong in general, even if they are interested in their field of study. These students may find itdifficult to feel comfortable taking advantage of opportunities available to them on campus
her Graduate Certification in Women’s Studies from Duke University. She is co-author, with Susan Averett, of ”Disparate Measures: The Intersectional Economics of STEM Work” (MIT Press 2024). ©American Society for Engineering Education, 2024 Developing Engineers’ Critical Consciousness through Gender and Ethnic Studies: Reframing STEM IdentityAbstractBrazilian educator Paolo Friere’s influential notion of “critical consciousness” [1] requires thatsubjects become aware of the complex systems of power and oppression in which they areenmeshed and develop a sense of social justice that leads them to take liberatory action. Weinvestigate the question of whether coursework in women’s
Bi2 , and Gene Eu Jan3 1 Department of Electrical and Computer Engineering, Mississippi State University 2 Department of Civil and Mechanical Engineering, Purdue University Fort Wayne 3 National Taipei University, and Tainan National University of the ArtsAbstractThe integration of nature-inspired intelligence in computational intelligence curricula,particularly for robot path planning optimization, represents a significant advancement in bothresearch and education realms. This study introduces a unique pedagogical approach thatcombines sparrow-dissection and scaffolding with flipped learning (SDS-FL) and ongoingproject-based methods. This approach is implemented in a
. To date, the gap betweenthe need for a qualified advanced manufacturing (AM) workforce and the current workforcedevelopment pipeline has been unfilled [1]. The National Strategic Plan on AdvancedManufacturing by the National Science and Technology Council in 2018 noted that by 2025, themanufacturing sector would create over 3.5 million new job opportunities, but 2 million of themwill be unfilled. Preparing the next generation of AM workforce requires a commitment toeducating younger generation [2]. Deloitte and The Manufacturing Institute’s study [3] suggestsAmerican public opinions believe that formal and informal education programs on AM can helprecruit and prepare the next generation of workforce to undertake a career in future
developing the next generation ofmechanical and manufacturing engineers. 1. IntroductionAdditive Manufacturing (AM), commonly known as 3D printing, is a process of fabricating athree-dimensional object in a layer-by-layer fashion using computer-aided design parts asopposed to the subtractive manufacturing process such as milling operation [1]. Thedevelopment, preparation, and processing of the files are completely done digitally. For instance,the three-dimensional modeling using computer-aided design (CAD) software, slicing the object,generating the tool path, and processing parameter selections, are all performed digitally. Thedigital processing of AM reduces many processing chains thus, yielding faster adoption in manyengineering and educational
promote the following competences in students: • Develop mathematical models that represent physical phenomena using statistical, computational, and simulation tools, among others. • Verify and validate models using appropriate techniques. • Predict the results of systems through models.Based on previous academic experiences [1-6], as well as the active learning approach [7-12],and assessment methods related to competency-based assessment [13-22], the aim is todevelop physics modeling competence and soft skills among second-year students inEngineering courses. We propose that students undertake experimental projects that align withthe main course syllabus, specifically focusing on Oscillations
students can take the exam at their best time andlengthier exams may be given for the courses requiring it.IntroductionStarting from early 2000s, the introduction of online courses and the availability of onlineresources even for those students taking in-person classes has met with new challenges toimplement in the course material including exams. These challenges have been addressed byseveral authors with different approaches and success. One of the key points is to understand thatthe students entering college campuses in this age have access to information in many forms thatmay blur the line between honest and dishonest behavior [1]. This may be simply due to the factthat students consider it cheating when someone looks at their neighboring
’ interest while promoting learning. Finally,very limited preliminary qualitative assessment of the videos will be shared.MotivationWhen teaching college-aged students, it has become increasingly apparent the students havedeveloped a reliance on their cell phones. In fact, dating back to 2014, it was stated that “increasingreliance on cell-phones among young adults and college students may signal the evolution of cell-phone use from a habit to an addiction” [1]. Whether it is texting each other, checking on socialprofiles, or just playing games, the majority of students observed in the author’s classes activelyuse a cell phone during class, often placing it on the desk. Sometimes it is functional- i.e. thestudent uses the cell phone as a calculator
. In Section 5, we providebrief descriptions of the concepts behind four (4) newly created and tested WPA3 lab exercises.Finally, Section 6 engages in a discussion, encompassing our students’ observations, and sugges-tions for qualitative assessment of the lab instructions, the concepts they are based on, along withour conclusions and potential future steps.2 Our ProjectIn this section, we outline the project’s opportunity, goal, objectives, and the proposed solution.The overarching objective of this endeavor is to seamlessly integrate WPA3’s wireless personaland enterprise security mode, as defined by [1], into our existing Information Technology (IT)undergraduate curriculum. Specifically tailored for juniors and seniors majoring in IT, the
courses that continue to be taught in a lecture-based environment. UndergraduateDynamics is one of the standard engineering courses for many engineering majors where thecontent is well established and has not changed in decades; however, the implementation ofdifferent teaching styles has had an impact on the way the material is presented and covered in theclass. Through discussion amongst three instructors at different universities with different teachingstyles they discovered notable differences in how each instructor writes, solves, and evaluates theircourse problems in undergraduate Dynamics. The three teaching styles include (1) a flipped,recitation-based classroom that uses a mastery-based derivation approach to solving problems, (2)a
andexplores the subjective perspectives and experiences about programming. In the context of athird-year quality control course with a computing lab component involving both mechanical andindustrial engineering students, we aim to answer the following research questions: (1) How dodifferences in the programs’ curricula impact students’ attitudes and self-efficacy towardprogramming? (2) How do the computing lab activities affect the students’ attitudes and self-efficacy toward programming? Three surveys are distributed across the semester, collectingstudents’ programming backgrounds, perceived interests, usefulness, and self-efficacy, alongwith their engagement with lab activities. Initial findings indicate that industrial engineeringstudents have
hardware-description language (HDL) indigital-logic1 courses has increased significantly. Augmenting a digital-logic course with anHDL has had positive results as well as presented challenges. The strengths and drawbacks ofusing discrete TTL devices as opposed to FPGAs in an introductory digital-design course havebeen discussed in the ECE-teaching literature. For example, according to Nickels [1], manyinstitutions have incorporated—and in some cases, fully replaced labs using discrete TTL DIPparts with—programmable devices. In comparing TTL and FPGA design implementations interms of wiring, debugging, and pedagogy, Nickels concludes that in an introductory lab, seriouspedagogical drawbacks in using programmable devices may impede their
Paper ID #41457Digital Innovation to Remotely Guide the Development of Global CompetenciesAbroadDr. Patrick Joseph Tunno, Penn State University Dr. Patrick Tunno is the inaugural Director of Penn State’s Center for Global Engineering Engagement and an Associate Teaching Professor. He has overseen and continues to lead the development and expansion of diverse international initiatives. Under his leadership, the college has established an award-winning Global Engineering Fellows Program, launched Penn State’s first 3+1+1 program for international students to pursue a one-year master’s degree, and initiated new
geometric shapes,multi-material, and multi-functional parts can be additively manufactured in a single operationwhich is a significant advantage over conventional manufacturing processes. Over the past twodecades, the intensive research carried out on AM technologies has yielded tremendous progressin the development and commercialization of new and innovative AM processes, such as FusedDeposition Modeling (FDM), selective laser sintering, and other rapid prototyping methods, aswell as numerous practical applications in aerospace, automotive, biomedical, civil, energy andother industries [1]. Many manufacturing industries have realized the benefits of AM technologyand started utilizing it as an integral part of their processes [2]–[4]. Some
coursework offered out of thedepartment begins in the spring of the first-year with a required introductory course, with eachsubsequent semester having one to three required chemical engineering courses. The coursesconsidered in this paper are three required courses: an introduction to chemical engineering inthe first year, a chemical engineering statistics course in the second year, and a fluid mechanicscourse in the third year. One faculty member was consistently instructor of record for each ofthese courses, though sometimes the course was co-taught with either another faculty member oran advanced graduate student completing a teaching fellowship [1]. Courses in Spring 2021 wereoffered entirely online and synchronously, while all other courses
situations and make informed judgments, which must consider the impact ofengineering solutions in global, economic, environmental, and societal contexts" [1]. Separatefrom ABET accreditation requirements, we wish our graduates to make informed choices duringtheir professional activities, especially if they work in an environment in which they are asked bya direct supervisor to falsify data. Ideally, this ethics training is conducted within engineeringcourses.At Loyola University Chicago (LUC), four social justice case study projects are embedded in thecurriculum. In this study, we hypothesize that the U.S. Senate Hearing social justice case studiesare effective in teaching engineering professional responsibility for several reasons. First, the
instituted a recitation program, and it included optionalweekly recitation sessions dedicated to statics. Although students were encouraged to attend,attendance remained very low both semesters.The second year went much better. Instead of PowerPoint presentations, class time was spentwriting notes and working problems on the white board, often with some form of a visual aid orprop. The 6+1 test structure was retained but retakes were offered for each of the 6, 10% tests,resulting in an overall increase in final grade [1]. Instead of pencil and paper homework,homework was completed online using Pearson Mastering. The recitation sessions becamemandatory and the peer teachers for statics were directed to help students work homeworkproblems in Pearson
performance between genders juxtaposedto the retention rates in chemical engineering (Burkholder 2023). Previous work has shown thatcis-gender men report higher scores on engineering identity and belonging compared to womenand non-binary students and that positive peer relations contribute to the strength of engineeringidentity with women expressing lower levels of those relations (Davis et al. 2023). Additionalresearch has found that sense of belonging will be a greater predictor than GPA for engineeringidentity (Zabriskie, Henderson, and Stewart 2018).We specifically hypothesized that: 1. There will be a significant difference between men and women for all five instruments with women showing lower engineering identity, belonging and views on
task. Nevertheless, tasks demanding greatercognitive effort, attention, or those involving dual tasks or higher cognitive skills, are typicallyconsidered complex. Lee Taylor [12], in a comprehensive review paper, presented a table (Table-1) categorizing tasks into simple and complex based on earlier studies up until the publication year- 2016. Table 1. Categorization of simple and complex cognitive tasks [12] Simple cognitive tasks Complex cognitive tasks Mental transformation Arithmetic efficiency Monitoring Attention Memory recall Complex motor coordination Numerical vigilance
engineering system. This is equivalent to 4 years of bachelor’s and 2.5 years ofmaster’s studies in the Chinese higher education system. During the undergraduate(preparatory) stage, students pursue courses in basic sciences and humanities, with intensivetraining in mathematics and physics, reflecting a typical feature of French engineeringeducation (Lemaître, 2017). In the master's (engineering) stage, students engage in generaland interdisciplinary engineering studies and specialize in an area of study in which they willcomplete a master's thesis.Figure 1. SFEP curriculum structureThe WIL program at SFEP includes three internships designed to develop professionalcompetences in a progressive manner. These include a one-month ‘observation internship
onboarding of clients to the DoD Cyber Crime Center’s Vulnerability DisclosureProgram. The program is gaining a lot of attention and momentum through its successes(publications, past performances, media mentions, and fundings), and has a lot of potential toscale and receive additional funding for all projects – BPI and CySec. Page 1 of 6IntroductionIn a traditional education environment, students typically receive instruction and knowledgethrough lectures, in-class assignments, class projects, homework assignments, case studies, andstudy guides – or some combination of these. Experiential Learning (EXL) programs are used togo beyond these and get students outside-the-classroom training and experience so that
group with (n = 7) faculty members from around the UnitedStates. We applied social cognitive career theory as we explored: 1) learning experiences thateducators may incorporate into courses; and 2) actions perceived as necessary for institutions toenhance students’ technical interview performance and career attainment. We employed thematicanalysis to assess their responses and suggestions on ways forward. Within courses, three themesemerged, as educators described opportunities for “fostering professional skills” (e.g.,communication and teamwork) and “fostering technical skills” (e.g., use of tools, programmingproblem decomposition, and testing). They also spoke about job preparation, including utilizingrole play in the context of mock