programs. American educational research journal, 50(4), 683-713.[4] Anderson-Rowland, M. R., et.al., (2012). Leveraging S-STEM scholarship programs. In 119th ASEE Annual Conference and Exposition. American Society for Engineering Education.[5] Kalevitch, M., Maurer, C., Badger, P., Holdan, G., Iannelli, J., Sirinterlikci, A., & Bernauer, J. (2012). Building a community of scholars: one University's story of students engaged in learning science, mathematics, and engineering through a NSF S-STEM grant. Journal of STEM Education: Innovations and Research, 13(4), 34.[6] Bruning, M. J., Rover, D. T., & Williams, A. M. (2011, October). Work in progress— Developing engineers for 2020—An innovative curricular
offering resources and organizingengagement events for female STEM students and faculty. Initially, OWISE efforts wereprimarily focused on faculty support, but over time the office has grown to incorporatecommunity-building activities and essential resources for both graduate and undergraduatefemale students in the College of Engineering and Science [14].Project MotivationBeginning in 2019, OWISE committed to hosting monthly student engagement events. Theseevents range from bringing in guest speakers from industry to providing community-buildingactivities. During a share session event in the spring of 2022, both students and female facultymembers engaged in an open dialogue sharing their experiences of attending classes that werepredominantly
growththroughout the semester by also incorporating the LASSI output into a number of courseassignments and activities. This paper expounds on our use of the LASSI and presents ananalysis of the course’s effectiveness improving student learning capacity and study strategy useas a result of engaging with the LASSI.The Learning and Study Strategies Inventory (LASSI)The LASSI is an 80-item Likert-type assessment developed in the late 1980s to gaugeundergraduate students’ skills related to learning and studying [3]. The LASSI includes tendistinct subscales, or dimensions: anxiety, attitude, concentration, information processing,motivation, selecting main ideas, self-testing, test strategies, time management, and usingacademic resources [3], [4] (Table 1
program wasnot a course and was coordinated by the program director and first author on the study. Studentsdid not receive credit or grades; however, they did receive meaningful feedback on their workfrom the program director throughout the program. The SciComm program was developed for STEM PhD students with oral communicationskill development and career exploration in mind, though its impacts appear to be broader-reaching than these two goals. Our study also shows the impact of program participation include:self-confidence, belief in the importance of scientific communication, self-awareness of the needfor continual improvement of communication skills, and the inter-related improvement of otherskills such as research and teaching with
simultaneously. This method has been used across the college since 2006,resulting in a dedicated community of 40+ engineering faculty using direct assessment toevaluate the efficacy of their own programs, and to plan and implement improvement at bothcourse and program levels. The Engineering Professional Skills Assessment (EPSA) is the onlydirect method for teaching and measuring these skills simultaneously in the literature; thetechnical paper describing Year 1 implementation of the method won the 2008 ASEE BestOverall Conference Paper Award5 . Table 1.ABET Criterion 3 Professional Skills Student Learning Outcomes 3d Ability to Function on Multidisciplinary Teams 3f Understanding of Professional and Ethical Responsibility 3g Ability to Communicate
an attempt to create a higher-impact instructionsession for transfer students. In total, twenty-four sections have received library instruction withthe new Nearpod lesson format. We feel it has been a successful endeavor, with active learningand an interactive instruction platform helping with engagement in the one-shot classroom.As mentioned, moving forward, we aim to assess library impact more concretely, using ourlearning management system to distribute pre- and post-test surveys to students to gain a fullerawareness of the effect that our library session has on these students. We aim to assess the keytakeaways from the lesson, such as using the Everything Search, getting citations from itemrecords, and the resources and services
machine he had repaired was used onseveral surgeries. The service-learning platform has been a great avenue to fill the gap for thecurrent shortage. Through volunteering, students are empowered to apply their academiceducation and use their resources among communities where there is a shortage of skills andmanpower. By volunteering their time, skills and services these students become valuableteachers among communities who welcome their knowledge. Often students continue to give oftheir time even after they arrive back in their academic institutions, often via electroniccommunications such as email, Skype or Facebook.The impact that these communities of scarce resources have had on the students who volunteernot only leaves students with a
strategies and toolsthey had engaged to listen to, communicate with, and address students’ challenges during theCOVID-19 global crisis. Faculty acknowledged each other’s’ expertise and reached out forsupport. For example, in a faculty meeting in late March, they sought the expertise of thoseamong them who had taught online classes before (including an instructor outside engineeringwho had been helping them with improving writing instruction) as well as a faculty member whohad previously recorded classes for the benefit of absent students. During this meeting, thedepartment ensured that all faculty had a chance to speak and say what was going on in theircourses and what questions they had or supports they needed.Faculty also sought each other’s
Societyfor Engineering Education, 2016).Aiming to capitalize on the benefits that makerspaces bring to formal education institutions, theUniversity of Ottawa opened its own on-campus makerspace in September 2014. The universityintended to create a space that fosters innovation, promote multidisciplinary projects, provideaccess to prototyping facilities, encourage and facilitate students’ entrepreneurship, and providea space for students to realize their designs and acquire and practice new skills, and knowledge.The makerspace adopted a business model that granted free access to all students on campus, anddedicated Sundays to community engagement. Through exposure to the makerspace and otherdesign spaces, students can collaborate with like-minded
objectives are designed to provide soft-ware engineering students with the skills required to provide quality applicationsin multi-disciplinary, embedded product environments. While theoretical materialis presented in a lecture format, practical experience is provided to teams of stu-dents through a set of lab based projects implemented on a variety of embeddedplatforms and micro-controller architectures. This paper focuses on the challengesfaced developing and supporting a set of educational projects that engage and main-tain students’ interest yet are cost effective, flexible and representative of practicalcommercial products.IntroductionThe Computer Science Department at CSU Northridge identified a subject arealacking sufficient attention in our
addressing questions with impact much broaderthan the scale of the single building and with significance beyond the single client.”11Research in the area of technical education for architecture students bolsters morequalitative and anecdotal evidence that there are pedagogical advantages inherent indesign build and community Engaged design projects for real projects. Althougharchitecture students do take technical courses there is good evidence to suggest thatstudents do not absorb this knowledge (or indeed many other types of knowledge) whenit presented in lecture format without a design context. John Folan, professor at CarnegieMellon asserts that “[d]elivered outside the context of a design scenario, already abstract concepts of
jobs, farming, etc.) and thereby movefrom a state of “belonging uncertainty” in engineering to belonging with certainty. Thepaper will outline key interrelated activities that support our goal. First, facultydevelopment workshops create faculty as meaningful mentors through pedagogicalpractices that better engage LIFG students. Second, non-traditional mentoring of LIFGstudents focuses on opportunities for them to develop social and cultural capital throughauthentic engineering experiences that are seen as meaningful and impactful to theirlives. This occurs in Engineering Club projects, engineering design class (IDEA) andIDEA Lab, and in research experiences at Colorado School of Mines. Through theactivities above, the paper will show the
class or physics class. While all of the students participated inthe InSPIRESS project not all of them were planning to pursue a STEM career in college if theyplanned to attend college at all.Implementation: The researchers in this study collected multiple measures and utilized a quasi-experimental design to assess the impact of the project’s authentic learning activities on thestudents’ attitudes, motivation and self-efficacy toward engineering.At the beginning of the school year, the students were provided with consent forms explainingthe research study. After receipt of the signed consent forms, the Pre-surveys were administeredby the researchers to students who, along with their parents, agreed to participate in the project.The rest of the
Using Student Posters to Investigate the Impact of Inquiry-Based STEM Learning on Rural K-12 Students Alexander Aronov1, Daniel Knight1, Angela Bielefeldt2, Joseph Polman3, and Fabiola Palomar1 1Department of Mechanical Engineering, University of Colorado Boulder2Department of Civil, Environmental, Architectural Engineering, University of Colorado Boulder 3School of Education, University of Colorado BoulderAbstractThis study examines student posters produced as part of the Colorado SCience and ENgineeringInquiry Collaborative (SCENIC) program, which engages rural K-12 students in inquiry-basedSTEM projects. SCENIC leverages low-cost, portable sensor pods that enable students
andimportance of milestones in the Ph.D. program, it is imperative that engineering programs keeppreparation for milestones in mind when thinking about students’ transition into the program. The NSF-funded Dissertation Institute (DI) is one of few nationally-scaled examples inthe engineering community that is focused on graduate student success on a milestone (i.e. thedissertation proposal) (Hasbún et al., 2016; Miller et al., 2020). It is a one-week writingworkshop that gives Ph.D. students a secure place to support one another among like-mindedpeers while they modify their task assumptions about the dissertation and develop good habitsthat might lead to degree completion. Although this is an excellent resource for Ph.D. students at later
(VVF). Victims of VVF are often social outcasts because of the resultingurinary incontinence and associated infections. The goal of the project was to design a culturallyappropriate, cost-effective hospital complex (including the hospital, patient hostels, and staffhousing) capable of serving the needs of 1,000 to 1,200 women suffering from VVF per year.The hospital was designed to have a communal setting that would be open and inviting to thewomen coming for surgery.A Nigerian hospital team of five students, all from the civil engineering concentration, wasformed and had selected a project before the course officially began. Because they wanted tocomplete a mission-related design project, one of the team members contacted EMI three
project are to: 1) Provide an innovative network of support and communications among University-based outreach project directors and educational evaluation experts, creating a learning community to promote sharing of best practices and innovation that will deepen the impact of NCSU’s pre-college STEM programs on students’ future academic and career choices. 2) Develop and demonstrate a system of data-driven planning and analysis guided by best practices to facilitate longitudinal assessment of participant outcomes through development of a common STEM Outreach Evaluation Protocol as well as a database integrating records of NCSU K-12 outreach participants with NC Department of Public Instruction
-school time science and math clubs in elementary and middle schools not onlybenefit the children, teachers, undergraduate and graduate Fellows but they also benefitthe elementary school, the universities and the communities they support. We will showthe impact on 3-8 students and teachers through observation and surveys. We will alsosurvey the undergraduate Fellows and teachers working with the clubs. Page 13.1235.2IntroductionOut-of-school (OST) programs conclusively create greater engagement in learning andhigher academic performance.5 Moreover, students participating in “good afterschoolprograms develop interests and skills that stay with them
out to and work with others? What might be thedifficulties, struggles, or even frustrations along the way? What constitutes the moments ofglory and/or offers real rewards to them? Do disciplinary boundaries play a role in theprocess of student cooperation? If yes, how? These issues need to be further understood inorder to expand the impacts of multidisciplinary education.This study presents the 3-year experience of a multidisciplinary teaching team workingtogether to co-teach Capstone courses aimed to enhance students’ capacity for solvingmultidisciplinary problems by providing real-world issues and conditions as well asmultidisciplinary team experiences. Students from four departments—civil engineering,building and urban planning, mechanical
collegestudents, female professors, and female professionals (invited as guest speakers). They also metMs. Carolyn Long (President of WVU Tech), Ms. Robin Anglin-Sizemore (Science Coordinatorof Office of Secondary Learning, West Virginia Department of Education), and Ms. MillieMarshall (President of Toyota Motor Manufacturing West Virginia Inc., primary sponsor of thecamp), who shared their personal stories about how females excel in STEM fields with theparticipants. The participating female high school students stayed on university campus duringthe Summer STEM Camp. Figure 1: Participants of the Summer STEM Camp held in June 2015.Relevant work U.S. Census Bureau’s 2011 American Community Survey1 indicates that females aresignificantly
engineering learners; and teaching engineering. c American Society for Engineering Education, 2016 Measuring Changes in Self-awareness and Social-awareness of Engineering Students’ Engaging in Human-Centered DesignAbstractIn this paper we present preliminary research from a small part of a larger cross-disciplinaryproject between the Engineering Education and Mechanical Engineering departments at a largemid-west university to explore how transformative approaches to teaching user-centered designinfluences the professional formation of engineering undergraduates. The larger research projectis guided by the following three research questions intended to inform the broader community,providing evidence
foundationdisciplines of mathematics and physics into practical engineering applications using Problem-Based Learning in order to increase student engagement [7-11].Two learning communities were initiated linking the course of Fundamentals of Engineering,ENGR 1201, with two freshman mathematics courses, Pre-calculus, MATH 2412, and CalculusI, MATH 2413. Student eligibility for each learning community was based on their ACT/SATbased mathematics placement. A student enrolling in either learning community was required todual enroll in the linked section of the mathematics and engineering courses so that the learningcommunity cohort of students would attend their mathematics and engineering courses with thesame group of students. Based on the success of the
provideneeded real-time feedback and assistance to maximize student learning. This interactiveclassroom environment is created using wireless Tablet PCs and a software application,NetSupport School. Results from two separate controlled studies of the implementation of thismodel of teaching and learning in sophomore-level Introductory Circuit Analysis course show astatistically significant positive impact on student performance. Additionally, results of studentsurveys show overwhelmingly positive student perception of the effects of this classroomenvironment on their learning experience. These results indicate that the interactive classroomenvironment developed using wireless Tablet PCs has the potential to be a more effectiveteaching pedagogy in
grades1,2,3, improve their analytical and group skills4, increase student-faculty interaction5, and pursue engineering careers3. Currently, there exists no valid and reliablesurvey that comprehensively measures students’ outcomes resulting from participation in out-of-class activities and reasons for and for not participating in out-of-class activities. Existing studies that looked at the influence of out-of-class activities focused on only a few ofthe myriad activities that students had the opportunity to participate in, specifically in some ofthe studies cited in the previous paragraph. For instance, the influence of community and campusinvolvements3 were investigated in one study and the impact of involvement in registered studentorganizations
Does Education Have an Impact on Student Ethical Reasoning? Developing an Assessment of Ethical Reasoning for Engineering and Business Students Chih-Hao Wu Department of Electrical Engineering Kim Troboy, Tracy Cole, Loretta Cochran, David Roach School of Business Arkansas Tech UniversityAbstract This paper outlines the development and assessment of ethical reasoning for Engineeringand Business students at Arkansas Tech University. The main focus of this paper is to investigatethe concept of how to teach ethics and assess in a cross-disciplinary fashion whether students areimproving in how
quality of mathematics and science educationreceived by many black students is still inadequate for them to succeed in science-relateduniversity degrees.After 1994 academic support initiatives mushroomed. In 1996 a national study identified 22science or engineering academic support programs in South Africa, with more in the planningstages1. In many institutions, these programs were relegated to enthusiastic, idealistic, juniorstaff and paid for with donor funding. Many programs used innovative teaching methods andfocused on deep learning. Unfortunately, rarely did they impact on the style of teaching orcurricula of mainstream science-based courses, which tended to be largely “chalk and talk” (or“point and click”, with the advent of Powerpoint
forefront ofdoctoral training and incorporating both personal and group reflection into experientialopportunities. Important elements of this model are the continued learning and mentoringopportunities available to the participants throughout their doctoral program following the initialtraining modules. Based on this model, training begins with facilitated instruction in professionalskills, progresses to less-guided experiential learning, and incorporates faculty-to-student andpeer-to-peer mentoring opportunities. The model infuses doctoral training with experientiallearning and participants are encouraged to make community engagement/impact a compellingcomponent of their dissertation research. In addition, the training model combines challenge
, sketches, and an explanation of its suitability to the desert environment. We evaluated the effectiveness of the curricula developed through the RET programbased on the following research question: Does the use of this challenge-based instructionincrease the motivational impact of teaching units? We developed the hypothesis that studentswould find science and engineering more exciting, interesting, and applicable to their daily livesbecause of their teacher’s participation in the RET program. This would be reflected in higherstudent motivational levels during the instruction of the RET teacher’s research-based module ascompared to a control teacher’s instruction.Student Motivation Survey In order to gauge student motivation, an
of the impact of social media on active learning and engagement. Thesearticles emphasize how the integration of social media into educational contexts not only improvesstudent involvement but also contributes positively to academic performance and promotesstronger interpersonal connections among peers. These studies [9-14], emphasize the role socialmedia platforms play in enhancing educational communication, offering insights into the reasonsbehind positive academic outcomes among university students. The studies suggest a correlationbetween academic success and the strategic, purposeful use of social media for communication ineducational settings. Such usage goes beyond casual or social interactions, tapping into theplatforms' capabilities
include universities in Los Angeles and New York, namely University of Southern California and Cooper Union, as well as the film department at USC (to visually capture the impact of Family Science on families over the fiveyear study). Additionally, the Natural History Museum in Los Angeles (NHM) and the New York Hall of Science (NYSCI) are outofschooltime partners and have been active in developing curriculum and hosting programs at their sites. Communication Training Through BAS, engineering students learn to communicate physics and engineering concepts to the public, and to develop hands on engineering design challenges related to the concepts. The engineering students