of AI.IntroductionCommunity colleges play a crucial role in advancing STEM (Science, Technology, Engineering,and Mathematics) education by providing accessible pathways for students from diversebackgrounds to enter and excel in these fields [1]. These institutions offer affordable tuition,flexible scheduling, and a supportive learning environment, making STEM education moreattainable for many individuals who may not have access to traditional four-year universities.Additionally, community colleges often collaborate with local industries to develop specializedprograms tailored to the needs of the regional workforce, ensuring that students graduate withrelevant skills and knowledge. By offering foundational STEM courses, associate degrees
speculative fiction, and experimenting in the kitchen. ©American Society for Engineering Education, 2024 [ Engagement in Practice] eople-first engineering: building community engagement into a P first-year design-build-test course ngineers design technologies for people and communities, but the history of communityEengagement in the design process is limited. Reasons for this lack of engagement are many, ranging from logistical challenges (how do we gather feedback and from whom?) to cultural assumptions about knowledge and expertise [1]. Digital communication has eased the former, but we have yet to make significant progress on the
"Desirable Characteristics of DataRepositories for Federally Funded Research" [1], outlining a set of recommended features andqualities that are considered desirable for data repositories handling research data resulting fromfederally funded research. The document establishes a set of standards and guidelines to ensurethat data resulting from federally funded projects is preserved in repositories that effectivelymanage and disseminate it.On August 25, 2022, Dr. Alondra Nelson, then Acting Director of OSTP, issued a Memorandum[2] recommending that all federal agencies formulate new plans or update existing ones,outlining their approach to ensuring public access to peer-reviewed publications and the researchdata associated with federally funded
significantpotential for developing, testing, applying theoretical and conceptual frameworks in the realm ofgame-based learning in engineering education, and sample demographics.Keywords: engineering design process; first-year engineering; game-based learning; game-basedlearning in engineeringIntroductionBefore the introduction of computers or even early digital games seen in arcades, games were anessential part of society to evade boredom and interact with others as people whether it be physicalor mental games. Games not only provide a fun and interactive way of stimulating the mind butalso encourage players to make decisions and prioritize their goals to solve difficulties [1]. Playersare forced to figure out solutions by using real-world knowledge
Engineering Change: Systems Thinking as an Engineering Leadership SkillIntroductionAs engineering leadership educators, we must constantly ask ourselves what skills, attitudes andperspectives students need to gain from our programs. If leadership is “a process whereby anindividual influences a group of individuals to achieve a common goal” [1], we have aresponsibility to equip students with the skills not only to influence others, but also to identifythe goal; in engineering terms, to define the problem to be solved by understanding context,scoping the problem effectively, and consulting with stakeholders.The problems that we face as a society are becoming more open, complex, dynamic, andnetworked: they cannot be solved by individual people in siloed
51 percent of students from Westlake High School, located in a more affluent area, endedup attending a major university in Texas, where those not included either did not opt into collegereporting, went out of state, or chose not to attend. In contrast, 24 percent of students fromEastside High School, a designated Title I school in the same region, fit into this metric [1]. Ingeneral, most Title I schools have a significantly lower proportion of students who pursue highereducation for various reasons, including insufficient resources, socioeconomic factors, and a lackof exposure to the college process. Reflecting this, a Post-Secondary Executive Summarypublished by Austin Independent School District found that students who submit at least
be most useful.Background According to the American Society of Quality, problem solving is the process of defining,determining the cause, creating or identifying a variety of solutions, and then selecting andimplementing one of the solutions to a problem [1]. The ability to problem-solve is consistentlyone of the most sought-after competencies that a prospective employee can have [2].Additionally, the ability to problem-solve impacts critical thinking, teamwork, and leadershipskills, all of which are also considered important competencies needed for career readiness.However, despite their importance, many employers note a proficiency gap in several of thesecompetencies in recent graduates [2]. One of the most important parts
, which isequivalent to a course in the US context.Engineering Identity DevelopmentEngineering identity development has been a growing area of research over the past fewdecades through both empirical work and systematic reviews. Part of the interest in identitydevelopment stems from its interconnection with pervasive challenges in engineering, such asmotivation [1], recruitment and retention [2], and gendered and racialized marginalization[3]. This rise in qualitative and quantitative work exploring identity indicates the many waysin which it is defined. Although identity has been understood as “who are you?” [4], it is acomplex and multi-faceted construct that is defined in the context of engineering as seeingoneself as an engineer [2]. This
, students’ certainty in their choice of major significantlyincreased from the beginning to the end of the semester. Based on the survey results, a modulewas added to the course to familiarize students further with job opportunities associated withvarious engineering/computer science majors. This work provides context for recruiting studentsinto engineering and computer science majors and for integrating information on careeropportunities into first-year courses.IntroductionThe major students select before or during the first year of their studies at the university impactsthem significantly for the rest of their careers [1], [2]. These impacts include job satisfaction,socioeconomic status, and career success. Therefore, investigating the factors
sources, our participant pool was made up of current tenure-track engineering facultyand graduate students from our institution. As we also wanted to better understand the impact ofthe suspension of our Elsevier contract, which came into effect on January 1, 2023, we onlyincluded graduate students and faculty who had been at our institution for at least a term beforethe suspension began.We began our study in mid-October 2023. An email distribution list of faculty and graduatestudents across the six disciplinary schools within our College of Engineering was compiled.Faculty and graduate student names were randomized, and participants were contacted by emailon a rolling basis until we reached saturation in the number of participant observations
reflection, integratedinto classroom presentations. These aspects of student progress and improvement are assessedagainst traditional design curricula using the Innovator Mindset® Assessment. The focus of thispaper will be the analysis of four innovation habits (for graduate and undergraduate students) toanalyze the impact of this designed course in fostering and amplifying personal innovativeness.1.0. Introduction University students play a crucial role in shaping future innovations within organizationalsettings, as they are poised to become the workforce of the future. Organizations require a workforcecapable of adeptly managing unforeseen and unfamiliar challenges to respond to the currentlandscape where technology is growing in complexity [1
authors hope that by sharing this work/life story, more considerationsare made to acknowledge the multiple hats and caretaking roles of faculty parents working underthe expectations and rigor of academic universities and institutions of higher education.Introduction Motherhood in academia has in the literature and over the decades pointed to the multipleobstacles that women face in their professional paths e.g., [1-7]. Its impact has become evenmore pronounced since the COVID-19 pandemic [8-12]. The normative regimes of academiaand their metrics of performance push individuals to be their most productive at the cost of highlevels of anxiety, stress, and exhaustion [13]. The gendered nature of academia [14] also createssystems that
within the Electrical and Computer Engineering curriculum.Many ECE students sense a knowledge gap or an overwhelming feeling of inability whendealing with mathematics or certain rigorous topics. Electromagnetics is one of the courses thatpresent these challenges [1], [2]. This paper introduces newer approaches, demonstrating howembedded hands-on experiences provide visualization and enhance the students’ learning process.First, authors from two different institutions identified gaps in curriculum continuity, specificallyconsidering the electromagnetic course. The authors then conducted a survey that includedquestions about students' 1) prerequisite courses and readiness, 2) confidence levels beforestarting the course, and 3) connections between
exist inproductive harmony, permitting the fulfillment of the social, economic, and other requirements ofpresent and future generations”[1].Construction is characterized by its fragmented, unique, and complex nature, often grappling withpersistent challenges such as significant time overruns (affecting 70% of projects), average costoverruns of 14% of the contract cost, and the generation of approximately 10% of material cost inwaste. Additionally, it stands as one of the major contributors to environmental pollution.Conventional practices in construction processes and management have proven inadequate inaddressing unprecedented challenges, particularly concerning carbon emissions. These challengesunderscore the imperative for industry
chemical kinetics as an example shown in Table 1. While the LHETM model can be adaptedto traditional lecture-based formats, its strength lies in its ability to weave together active learningand inductive teaching, thereby promoting students’ cognitive and metacognitive abilities. Themodel follows a structured sequence starting with L (Law), followed by H (Hypothesis), E(Experiment), and T (Theory), integrating M (Mathematics) at any stage where appropriate.Depending on the specific focus or requirements of a topic, instructors have the flexibility to adjustthe order of these elements to best suit the educational objectives.Table 1. Guideline of using LHETM model in teaching chemical kinetics. Way of instruction
innovative teaching methods in nurturing the curiosity of chemistryundergraduates, thus advancing scientific knowledge, and fostering innovation in the field.IntroductionIn higher education, creating a productive learning environment for chemistry undergraduatesstill stands as a major challenge [1]. It is impossible to overestimate the value of curiosity andcollaboration in the academic and professional development of students in this field [2], [3]. Thetraditional learning method, which is based mainly on the instructors transferring knowledge tostudents, often falls short of fully engaging students and fostering critical abilities likecollaboration, peer learning, and curiosity [4]. An exciting new area in educational research isthe meeting point
subtleties around recipe optimization, such as combining ingredients that finish cookingaround the same time, only develops with experience and intuition. There are smart thermometers on themarket such as Yummly, Meater, and more but the price of these products ranges from $80-$370. TC++aims to deliver reliable results for a lower price.There are many tools used to measure temperature, one of the tools is the thermocouple. In 1821, ThomasJohann Seebeck was able to use his discovery of the Seebeck effect to create a thermocouple. The Seebeckeffect is the thermoelectric phenomenon where when a junction is heated between two dissimilar materialsit creates a change in the electrical operation of the integrated circuit [1]. A thermocouple uses this
engineering settings.Recent studies in engineering education have consistently identified a gap in studentpreparedness for real-world engineering practices, particularly as they approach the culminationof their education in capstone projects. Paretti et al. [1] articulate this issue as a "context gap"rather than a "competency gap," focusing on the misalignment between academic experiencesand industry expectations. Arsha [2] echoes the sentiment, suggesting that targeted workshopscould mitigate skill gaps, emphasizing the need for industry-academia linkages. Mora's [3]examination of professional socialization within a capstone design lab suggests that fosteringagency among students could be crucial to bridging the theoretical and practical divide
engineeringeducation by exploring the application of VR technology to support educating the nextgeneration of engineers.KeywordsVirtual Reality, Engineering Education, Continuous Improvement, Simulations, ImmersiveLearning, Problem Solving Skills, Critical ThinkingIntroductionContinuous improvement is a cornerstone of engineering practice [1], particularly inmanufacturing, where optimizing processes and enhancing quality are paramount. Continuousimprovement (CI) in engineering is defined as a method of identifying and implementing small,incremental changes in processes over time [2]. The CI methodology is desired withinmanufacturing organizations because it can lead to significant improvements in efficiency,quality, and sustainable cost reduction [3
, Authentic Assessment, and Engineering SimulationsThe transfer of learning focuses on the ability to apply knowledge and skills acquired in onecontext to solve problems in different, often real-world, situations [1], [2]. Facilitating thistransfer is essential for preparing students to effectively enter their workplace [3]. This isespecially relevant in the field of engineering as there may be gaps between academic and on-the-job information. However, discussions on how students carry knowledge, skills, andattitudes (KSA) from one module to another, and the research on the transfer of learningfocused from school and work contexts are largely unexplored [4].Studies have uncovered some key elements on effective transfer of learning. These
heattransfer scenarios, were presented to the students to reinforce 1) heat exchanger control concepts,feedback control schemes, and advanced control schemes concepts in a Process Control courseand 2) heat transfer concepts, processes, and applications after using and answering questionsrelated to a "hands-on" double pipe heat exchanger module in a Heat Transfer Processes course.Subsequently, students were asked to update their original concept map and to adjust their mapsconsidering the three micromoment activities. The digital concept maps were scored using thetraditional scoring approach, and the total score was used to provide a quantitative assessment ofwhether EM-oriented micromoments enhanced students’ EML. A 10 – 20 point difference inconcept
assembly implementation. Gathering quantitative and qualitative feedbackfrom course surveys, our study reaffirms the effectiveness of this pedagogical strategy. Preliminary datasuggest that students not only gain a deeper comprehension of machine architecture but also exhibitimproved readiness for subsequent courses, underscoring the notional machine's role in facilitating asmoother transition between programming paradigms. This abstract encapsulates our ongoing efforts torefine computer science curricula, highlighting the promising impact of RARS in enriching students'educational experiences.1 IntroductionIn computer science and computer engineering curricula, assembly language programming holds asignificant position. Its inclusion not only
of instruments and theories that canassist faculty in interpreting survey results and applying them to their own situation.Effective Teaching and Learning. One of the most essential aspects of effective teaching isunderstanding the beliefs and knowledge that students bring to the classroom [1]. Every studenthas unique experiences, biases, and preconceptions that shape how they learn. By taking the timeto understand these factors, educators can tailor their teaching methods to better align withstudents' existing knowledge and misconceptions, creating a more effective and engaginglearning experience for everyone involved. This requires a deep understanding of each student'sstrengths and weaknesses and the ability to identify and address gaps
movement has led to the creation of makerspaces as environments that allow users toengage in making endeavors. Although making can be defined in a multitude of ways, it isgenerally associated with the act of creating a physical or digital object through the strategic useof available resources within a supportive community [1], [2], [3]. Making has been increasinglyassociated with positive learning outcomes, including the promotion of disciplinary knowledge,attitudes, and professional skills [4], [5]. Because of the positive outcomes and the possibility ofengaging students with the design process, makerspaces have attracted the attention of academicinstitutions, which have started creating such spaces on their campuses to serve engineeringstudents
. In this study, we examine if smallchanges to the CV can “nudge” (Thaler & Sunstein, 2009) participants to weigh DEI more intenure-related evaluations. Specifically, we ask:RQ1: Can certain “nudges” result in strong DEI efforts compensating for slightly below-averageresearch accomplishments?RQ2: Do the race and gender of the candidate influence the effect of any nudges?MethodsTo examine our research questions, we conducted a 4 (CV qualification manipulations: (1)control CV with no DEI information, (2) CV with above-average DEI scattered throughout, (3)CV with above-average DEI concentrated in specific section in the CV, and (4) CV with above-average DEI scattered evaluated with a rubric intervention) x 2 (candidate gender
advance linguistic equity by creating space for more multilingual andmultimodal activities in elementary school classrooms.IntroductionThe number of elementary school students designated as English learners has increased and willcontinue to increase in U.S. schools. In schools emergent bilingual students are often subjectedto low-level content and lower expectations than their monolingual English-speaking peers. Forexample, school leaders may believe that multilingual children need to learn basic Englishlanguage skills first before they can engage in science inquiry and engineering design. Incontrast, other approaches position multilingual and emergent bilingual students in light of theirassets [1]. Our project, thus, views multilingual learners
social mobility.Program SummaryProgram NeedSouth Florida State College (SFSC) is located in a rural geographic region, serving a three-county service district in the center of Florida. The average per-capita income of the tri-countyarea is over 36% below the state average. Only 16% of residents (28% of whom areHispanic/Latino) have bachelor’s degrees or higher [1]. The region ranks as one of the higheststatewide for incidence of teenage pregnancy. These and other social factors combine to producea substantial percentage of non-traditional students seeking higher education, the impact ofwhich is seen disproportionately in the tri-county region’s Hispanic families, who along withlow-income students are experiencing significantly lower educational
Paper ID #42188Board 251: Electricity Access and Sustainable Business Models Educators’WorkshopDr. Pritpal Singh, Villanova University Dr. Pritpal Singh is Professor of Electrical and Computer Engineering at Villanova University. He received a BSc in Physics from the University of Birmingham, UK in 1978, and Masters and Ph.D. degrees in Applied Sciences/Electrical Engineering from the University of Delaware. He joined Villanova University in 1984 and has been faculty member there ever since. He has served as the Chair of the Middle Atlantic Section of ASEE, Zone 1 Chair, and has organized and hosted three regional ASEE
individual ECE experiments with low cost components outside of a formal laboratoryenvironment. Courses could be redesigned to where hands-on experiments are central to an ECEcourse.Utilizing recorded lecture nuggets (e.g. [1]) repurposes class time for in-class discussion as wellas other activities [2]. Flipped classrooms research shows multiple new uses for traditionalclassroom lecture time [3, 4, 5, 6] with some effective uses of these capabilities [6, 7, 8, 9]. Thestudent reactions to flipped classrooms vary, although often the additional quizes and tests leadtowards some student concerns [10, 11, 12]. These openly available video nuggets developed (4-8minutes, developed and recorded by the author, >250 nuggets) [2] that could be used to
Undergraduate Students to Pursue Faculty Positions: Developing Socially Conscious Approaches to PedagogyWomen, First-Generation College Students (FGCS), and students who identify as Black orAfrican American, Hispanic or Latino, and American Indian or Alaskan Native(Underrepresented Minority [URM] students) are all underrepresented in the field ofengineering, across undergraduate, graduate, and professional contexts [1], [2]. For example,though women comprise 50% of the overall population, they received only 24% of engineeringbachelor’s degrees, 29% of master’s degrees, and 25.5% of doctoral degrees conferred in 2021[3]. In addition, despite making up 33.7% of the US population [4], only 16.5% of bachelors’degrees were awarded to URM students