unaware of the discipline of engineering education.As an effort to raise more awareness on the impact of engineering education research andpractice, the authors’ positionality stemmed from their reflections of their entry points into thefield of engineering education. This introspection prompted the authors to explore and share asmuch information about the discipline as was available at the time of this work.Research Approach & DesignThis exploratory study thoroughly investigated the current state of engineering education as adiscipline in the U.S. via an online content analysis of institutional or departmental websites tofind information about the faculty members working in the respective institutions. The sectionsand pages of ‘Faculty
students they serve; They developleadership skills, learn about counseling and educational theories, and reflect on their valuableexperiences [3], [7].Learning objectives for the course include: • Articulate different definitions and related sub-themes that could comprise peer advising, peer mentoring, interpersonal communication, and leadership soft skills. • Evaluate the current level of development in soft skills and develop a plan for future reflection, evaluation, and adjustment to said skills. • Demonstrate effectiveness in your role and build confidence in providing advising assistance. • Demonstrate familiarity with resources and opportunities in the College of Engineering and the greater campus and
casestudies are taught as situative learning experiences, and consider professional practice throughanalysis of an engineering standard/regulation. During a situative learning experience, learningoccurs through a collaborative activity, with knowledge presented within an authentic context [2,3]. Second, Keenan’s Model of Conscience Formation provides students with a framework forevaluating inequities in each case study. Finally, the social justice case studies facilitate criticalconsciousness regarding engineering practices. This provides students an opportunity to reflect onthe inequity perpetuated through engineering irresponsibility and take critical action to identifyunethical practices and articulate a socially responsible engineering approach
soft skillsnecessary to tackle real-world challenges, thereby playing a crucial role in societal innovationand technological advancement. Central to this educational journey is the capstone designproject, an essential component of the final year curriculum that not only serves as a significantmilestone for aspiring engineers but also acts as a vital bridge between academic learning andpractical application.Capstone projects challenge students to synthesize and apply their comprehensive knowledgethrough hands-on projects within a team-based environment, mirroring professional engineeringpractices. These projects are intended to prepare students for the complexities of real-worldengineering tasks and reflect the dynamics of professional practice
scientific phenomena [28-29]. The effectiveness of writing-based interventions to learn domain specific content hasbeen documented across scientific fields including, but not limited to: biology, chemistry,ecology, and physics [29-37]. These and other studies have shown that writing-based STEMinterventions can improve students’ reasoning and conceptual understanding [33, 38-41] and thatwriting becomes even more effective when it includes formative feedback and reflection (p. 84,[42]). For example, a meta-analysis by Bangert-Drowns et al. [43] across 47 studies consideredthe effects of writing-to-learn with feedback compared to writing with no feedback. Feedbackwas more effective than no feedback for academic achievement, with an effect size
into STEMfields through the cultivation of their mentor support networks. Rising Scholars students wereprovided with a scholarship and had a defined path of activities in college designed to enhancetheir professional mentoring network. They were prearranged to participate in a pre-freshmanacademic bootcamp, an on-going faculty-directed research project, a self-directed researchproject, and an internship. Students attended seminars and produced written reflections of theirvarious individual experiences on the path to a professional career. Three cadres of 21 studentstotal, who had expressed a previous interest in engineering, were admitted to a general studiesprogram and provided intensive guidance and an active social group. The Rising
Paper ID #42944Unmasking Cognitive Engagement: A Systematized Literature Review of theRelationships Between Students’ Facial Expressions and Learning OutcomesMr. Talha Naqash, Utah State University, Logan Mr.Talha Naqash is currently pursuing his doctoral studies in Engineering Education at Utah State University. With a profound educational background spanning multiple disciplines, he holds an MS in Telecommunication and networking. His extensive research contributions are reflected in numerous publications and presentations at prestigious IEEE; ASEE conferences, Wiley’s & Springer Journals. His research primarily
process, and the inherent value derived from the study’s outcomes. Themes thatemerged and were defined from discussion exercises with participants are the following: ’lost andfound,’ signifying moments of uncertainty and discovery; ’lack of community,’ highlightingfeelings of isolation; ’not surface level,’ underscoring the depth and complexity of the issuesdiscussed; and ’community,’ reflecting participants’ desire for, or efforts toward, building a senseof belonging within the research program. These themes serve as integral components of ourinvestigation into the impact of photovoice on understanding the perspectives of underrepresentedgroups in computing.Keywords: Photovoice, computer science, underrepresentation, student perception1
thesystem are represented as dotted lines because this kind of work requires researchers tobridge domains. Identifying these concepts (the top of the pyramid) will inform Page 22.1038.13curriculum development.The bottom of the pyramid describes learning strategies and kinds of thinking necessary,e.g. computational thinking and the ability to handle complex systems. The bottom partof the pyramid may inform pedagogical approaches.Implications of the use of PCK as a theoretical framework to conduct research inengineering education relate to a) the need for better integration between content andpedagogy that is informed by and reflects what practitioners do, b
capacitance of a liquid column whose height changes with tilt. The inclinometer’selectronic equilibration and response is quite sluggish. These inclinometers are designed forapplications where either the angle is static or angle changes due to vibrations need to beminimized by damping. In Figure 7, the horizontal error bars for inclinometer data reflect this0.15° uncertainty whereas the troptometer data error bars reflect the least count of 0.1°. We arehoping to replace each inclinometer by an iPod Touch to remedy the issue of sluggish response,and our initial results appear promising.Conclusions1. Students encounter three difficulties in using the existing troptometer: (i) keeping it aligned while mounting it on a specimen, (ii) reading its
dilemmas and uncertainties in engineering. The method is Page 22.1436.2modeled on validated instruments designed for other contexts and on major theories in moraldevelopment. The second instrument is a team ethical-climate measure we adapted from onevalidated in business contexts. This measure asks students to self-report their perceptions of theethical behavior of their teammates. The third instrument is a taxonomy of ethicalcomprehension that can be used as a rubric for assessing ethical reflection essays. Our goal forthe first two measures is to demonstrate both reliability and validity by utilizing acceptedpsychometric strategies. Our goal
1 This material is based upon work supported by the National Science Foundation under Grant No. 0426421. Any Page 22.1508.3opinions, findings, and conclusions or recommendations expressed in this material are those of the author(s) and donot necessarily reflect the views of the National Science Foundation. The focus of secondary level engineering education, however, has largely been onprocess. The Standards for Technological Literacy (STL),9 for example, include design-orientedstandards that
largely unavailable,especially for PBL projects specific to undergraduate engineering.One reason for the unavailability of tools used for classifying PBL projects is the lack ofprogram and course assessment studies for those implementing PBL. PBL-driven assessmentshould (1) be based in a practice context, (2) reflect the students’ development from novice to anexpert practitioner, and (3) engage in self-assessment and reflection6. Assessment at the programand course level provides opportunities for engineering educators to assess the types of PBLprojects they are using. These assessment processes identify how well learning outcomes arebeing obtained by the students. By applying assessment methods to PBL projects andunderstanding how learning
architectural and physical gapsin SoC design. There is a strong consensus from industry and academic institutions on theimportance and urgency of reflecting the impact of the SoC paradigm shift in engineeringeducation, as traditional programs, especially at the undergraduate level, have not keptpace with this evolution. This paper presents progress using SoC as a theme to achieve aseamless transition from a two-year community college (Camden County College) to thejunior level of a four-year Electrical and Computer Engineering (ECE) program at RowanUniversity. The crux of achieving this seamless transition lies in reconfiguring anddeveloping new courses at Camden County College that not only introduce key conceptstaught in the first two years at Rowan
, American Society for Engineering Educationapproach is to develop in students a critical thinking. For that, we regard as essential to usemeans to make relational reasoning putting together several ideas seeking for finding out themutual influences.The STS approach is relatively recent in Brazil. In spite of the emphasis given to Mathematics,Physics, and Technical knowledge, during several years, engineering curriculum in Brazil hastried to include subjects such as Biology, History, Law Studies, Economy, among others, toprovide a more encompassing view for students. Nevertheless, there was not an effective concernto connect/integrate the subjects and to make critical reflections. So, the students did notunderstand the reason of such subjects in the
%) of these studentsprogressing beyond this level (Calculus II and Differential Equations).In addition to their success in mathematics, 91% of the ILC students completed FreshmenComposition with a grade of A, B, or C, as compared to the departmental average ofapproximately 80% for all Freshmen Composition students.Assessing the Attitudes of the Students Toward the Cluster Intervention ProgramFinal student reflection on clustering was completed by 16 students during the last week of theFall 2003 semester. Students responded to the following seven questions: 1) Describe yourinitial reaction to the cluster? 2) Have your feelings toward the cluster changed? 3) Describe
Hispanic Black 0% Minority Population Bachelor's Degrees Awarded Figure 3. U.S. Minority Population and Bachelor's DegreesEngineering Fields with Respect to Hispanic StudentsDoes engineering reflect percentages in more proportion to the U.S. population? With respect toall U.S. bachelor degrees awarded, approximately 8% are engineering bachelor degrees [2]. Ofthis 8%, minorities constitute 12.5%, which is less than the percentages of minority populationsearning any type of degree. Yet
- synaptic transmission - calcium dynamics in neurons - cellular and molecular basis of plasticity in the nervous system - examples and models of abnormal electrophysiology: epilepsy, de-myelinazation, etc. - extracellular recording and stimulation. We do not require a particular textbook for this course. Instead, we recommend severaltextbooks for additional reading, while detailed handouts are provided in the lectures. Therecommended textbooks include quantitative3,4,6,8,9 , semi-quantitative1, and descriptive5,7 texts,so that students have opportunity to look at the subject from different points of view. The coursematerials and progress of students is reflected in the course webpage. Homeworks are designed to stimulate in
discrimination manifests inuniversities and include the institution’s own data. We highlight adaptations we made specificto our institution in order to encourage other institutions to be responsive to the contexts thatimpact DEIS work on their campuses. For instance, our initial adaptation of the Advocates andAllies program sought to be more inclusive by including LGBTQIA+ and staff on the Advocatesteam and A&A Advisory Board (A3B). Our adaptations have also reflected an ongoingcommitment to present race and ethnicity data in addition to gender data1. Other adaptationswe discuss concern developing the credibility of the team presenting the workshops andincorporating an ongoing Journal Club to discuss the relevant literature.This paper also shares
activities1. IntroductionHigher order skills such as problem solving or critical thinking are key attributes forgraduates of any engineering program, are amongst industries highly desired skills fornew employees and are considered a hallmark of a university education 1-5 . The application of critical thinking helps students solve ill-defined, open-ended,complex problems through the analysis and evaluation of information, evaluatingarguments, and developing conclusions resulting from sound reasoning. These complexproblems are typical of those encountered in professional engineering practice, andrequire the reflective, self-regulatory judgment exemplified by critical thinking. Whilemost programs claim to develop critical thinking in some manner
addition, during intense, annual multi-day retreatsat Cornell University (winter) and Norfolk State University (summer), trainees come together forfurther technical training, professional development, program self-reflection and redesign.Most of the education and training part of the program is delivered in four courses: (1) Technicaland Professional Writing (6 weeks); (2) Training in Independent Research (12 weeks); (3) BestPractices in Teaching and Learning (8 weeks); and (4) Ethics and Intellectual Property (4weeks). The sequence of short, focused modular courses provides a framework conducive to thecycle of (re-)design, enactment, and study of the proposed graduate training activities. It allowsfor students to learn and practice in the same
recognize a need to plan before begin building, others may create and reviseplans as they begin working with building materials. Throughout this process, students mayrealize and test their design ideas, identifying and applying evaluation criteria, often implicitly,to determine the effectiveness, functionality, or viability of their solution. Students’ evaluationsmay include conducting physical tests, collecting and analyzing information from tests or otherforms of feedback (e.g., peer review, class discussions), and using results and feedback to refinetheir designs. In these ways, students’ engineering design decisions are not based on anyprescribed way of engineering, but instead reflect their reasoning, evaluations, and logic inachieving design
opportunity tounderstand how POGIL can be implemented in engineering. In this paper we address thefollowing research questions: 1. Does POGIL lead to increased understanding of materials engineering concepts compared to a lecture class 2. How is POGIL implemented across diverse types of universities?Question 1 is examined through a quantitative component in which POGIL was implementedat four different institutions in the US and gains on the Materials Concept Inventory werecompared to lecture classes. For question 2 a content analysis was conducted on coursematerials used by the instructors and student reflections from the end of the semester.MethodologyPOGIL was used in the undergraduate Introduction to Materials Engineering classes at
reduce stress and anxiety and to provide moral support, WELA members receivedexamination survival packs 6 .In celebration of the successful first year of WELA, an Inspirational Students booklet waspublished featuring the first WELA members. Professional photographs were taken of the Page 23.1180.4WELA members, and each member wrote a self-reflective article on what it meant to be a part ofWELA, and of the engineering world, as well as what they had learnt and gained during theirfirst year as WELA members 6. Special awards were given to acknowledge and celebrateacademic and other achievements of WELA members.2.1.2 WELA Senior programmeThe WELA
are EFFECTs?The Environments for Fostering Effective Critical Thinking, or EFFECTs, are modular inquirybased tools designed to stimulate critical thinking and collaborative teamwork while improvingthe transfer of core knowledge in engineering.1 The pedagogical framework for EFFECTs linkstwo critical elements, active learning and reflective writing, within the context of a realisticengineering design problem. Lipman2 defines critical thinking as “skillful, responsible thinkingthat facilitates good engineering judgment because it relies upon criteria, is self-correcting, andis sensitive to content.” The EFFECT framework is designed on the basis of this definition.EFFECTs begin with a driving question that is embedded in a decision worksheet
Virginia-Minnesota which promotes learning in the context of engineering projects, professionalism and reflection (metacognition). His research in the area of engineering education is focused on project-based learning, design and innovation, professionalism and self-directed learning.Mr. Eric Diep, Minnesota State University, Mankato Page 23.1388.1 c American Society for Engineering Education, 2013 Works in Progress: Developing an Integrated Motion Capture and Video Recording System for Pediatric Biomechanical Studies1. Project OverviewA kinematic understanding of gait has numerous
set ofsix-piece chicken nuggets they can produce within 15-minutes. The points serve as a metric forthe overall productivity of the country and world during the game. The game is played twicewithin a 65-minute class session. The first game does not have any tariffs imposed and thusrepresents a liberalized trade environment. The game is then run a second time under a scenarioin which one country has invaded another country and in response multiple countries haveimposed import tariffs on each other. Students also spend five-minutes reflecting on what theylearned about international trade. While the specific results change each time new student teamsplay the game, the general results that a) there are winners and losers from tariffs and b
projects, reflect on their social identities, and consider the broader societal contexts of their engineering work. The goals of his research are 1) to develop tools and pedagogies that support engineers in achieving the positive societal changes that they envision and 2) to address systems of oppression that exist within and are reproduced by engineering education and work environments. He earned his B.S. in Engineering Sciences from Yale University, with a double major in East Asian Studies, and earned his Ph.D. in Mechanical Engineering from the University of Michigan. He also holds a Graduate Certificate in Chinese and American Studies, jointly awarded by Johns Hopkins University and Nanjing University in China.Prof
proven to nurture learning via practical projects,promoting collaboration, communication, safety consciousness, and critical thinking. Guidelinesof the Accreditation Board for Engineering and Technology (ABET) and the High-QualityProblem-Based Learning Organization (HQPBL), which include, but are not limited to:“Intellectual Challenges and Accomplishments”, “Authenticity”, “Public Product”,“Collaboration”, “Project Management”, and “Reflection” are followed. For this manuscript, ourprimary focus lies on “Authenticity”, which emphasizes the significance of PBL projects thatgenerate tangible benefits for individuals and communities beyond the educational environmentsof classroom and school. Our objective is to fulfill all necessary ABET criteria
reflection on how the coding functions and process students are learning relateto their future careers.Lab time during each project was used to introduce students to the relevant coding functions they neededto complete each project and as work time where groups could meet to work on their projects. In the firsttwo weeks of each project, the instructor provided a template Jupyter Notebook with a similar dataset tothe project and demonstrated how to code specific sequences needed to complete the project for about onehour of the lab. The second hour of lab was reserved as time for students to try to apply the concepts totheir project datasets with their groups and the instructors and teaching assistants were available to debugand answer questions. For