computational con-tents to a thermodynamics class not only increases students’ understanding of the class materials,but also increases their confidence of doing computational simulations overall.In the Department of Materials Science and Engineering at the University of Illinois at Urbana-Champaign, our faculty team has developed a program to integrate computational modules intoexisting core classes of the undergraduate curriculum. With such a scheme, we provide computa-tional training without adding additional classes to the curriculum.[4, 5] In this paper, we reportrecent progress of this program, we analyze feedback obtained from the students, and we discussthe impact of the program on senior-level elective classes that focus entirely on
one ofthe most diverse in our state. Over 70% of the engineering students who enrolled in engineeringmechanics for fall quarter 2012 spoke more than one language fluently. Many from this groupare immigrants and first generation college students. As a collective group, they have had verylittle exposure to mechanical systems. This limited exposure allows for conceptual gaps in theirunderstanding of mechanical systems. To address these conceptual gaps, we implement twoInteractive Engagement strategies. These strategies “promote conceptual understanding throughinteractive engagement of students in heads-on (always) and hands-on (usually) activities whichyield immediate feedback through discussion.” 1 The positive impact of student engagement
DevelopmentIntroductionAlbert Einstein once said, “intellectual growth should commence at birth and cease only atdeath.” 1 To develop students who can achieve lifelong learning is a goal of higher education.2Because lifelong learning is vital to an engineer's career, the accreditation board for engineeringand technology (ABET) included lifelong learning as one of its student outcomes. ABET statesthat by graduation students should have "a recognition of the need for, and an ability to engage inlife-long learning."3At The Ohio State University’s Engineering Education Innovation Center (EEIC), students areoffered a wide range of engineering courses through the first-year engineering program and asenior-year multidisciplinary capstone program. A requirement for all first
customerscare for their pets. The store sells pet food, leashes, cages, and habitats for dogs, cats, fish, birds,hamsters, and guinea pigs. The customers like the hamster habitat cages that are currentlyoffered, but they have been asking for a way to expand the habitat cages so their hamsters canhave more room to run and explore. The pet store owner elicits students’ help by asking them toshare their ideas on how to expand the hamster habitat. Throughout this curriculum, students engage in the engineering design process, as theyask their client questions, help their client define the problem, and identify the criteria of theproblem to be solved. The unit has been developed purposefully to promote computational thinking, science
groups in STEM fields, particularly engineering,presents persistent challenges in education and the workforce. HMG students often face uniquebarriers that hinder their learning experience, such as unwelcoming classroom environments,limited mentorship opportunities, and a lack of belonging and community. These disparitiescontribute to lower retention rates and confidence levels compared to NHMG students.This study evaluates the impact of our junior-level clinical immersion course on HMG andNHMG students. Surveys were conducted pre- and post-course to gather students' perspectives,focusing on skill development, self-efficacy, and perspectives on healthcare disparities.Quantitative results indicated significant gains in confidence and skill
, or inclusion. In addition to the above standardized content provided in all three courses, students in theundergraduate and graduate courses during the 2021-2022 academic year met immediatelyfollowing the submission of their first assignment to discuss the course content together in smallgroups. These small group discussions were led by trained undergraduate facilitators though theWorld in Conversation program at PSU. This small-group discussion was omitted from the fall2022 undergraduate class to determine whether this time and resource intensive element had ameaningful impact on student outcomes. Successful student engagement with the content of our educational modules was assessed bygrading the completeness of the three assignments
UG Linear Algebra CourseTo facilitate the Big Data infusion and active learning in the linear algebra course, we employeda two-part module. The first part focused on theoretical and conceptual ideas behind the methodsunder discussion and the second part had hands-on experimentation using real-world data. Thestudents are advised to use both R and Python general-purpose programming languages tocomplete their projects. The students can also use MATLAB programming to perform theirproject as well as MS Excel.The initial set of topics in which we integrated big data analysis methods were chosen using twocriteria: suitability of material for pedagogical integration of big data methods and impact on allcomputing and Mathematics majors. Instructors
, and personal responsibilities [2].Association of American Colleges and Universities (AAC&U) believe that the degree isimportant because it helps students acquire a fuller understanding of cultures, and strengthen thefoundation for informed citizenship, participation in community life, and public leadership [3].Academic libraries can further this mission by strategically and thoughtfully imparting theimportance of diversity, equity, and inclusion in their discourse with students. The question ishow would librarians uphold this mission of higher education, particularly in a one-shotinformation literacy session. In this article, I discuss methods of implementing critical inclusive assessmentframework, in order to create an inclusive
professional development. Based on informal feedback from students'journal reflections and my own observations of students writing and classroom talk, students feelmore engaged with and invested in the Technical Writing course because they clearly see theconnection to requirements and expectations for student writing and communication in upper-level engineering courses. They also enjoy the classroom presentations and workshops in the TWcourse provided by our engineering faculty collaborators. For example, the presentation by bothfaculty on "Identifying Engineering Problems" helps students see the Problem Statement teamproject through an engineering "lens," which, in turn, makes the assignment more relevant tothem. I'm eager to explore the impact of
profession” [6]. It is critical that we understand how all students, and 3especially those from underrepresented groups, come to negotiate the cultural norms within thesemaker communities [7] and the impact that it has on their identity development as engineers.IdentityIdentity is a process of understanding one’s self within the larger sociocultural context [8-9].According to Erikson, identity helps individuals make sense of and find their place in the world.In the 1980’s, McAdams extended Erikson’s work on identity, arguing that as an individual tellsand retells their story and how they fit into the world, they are developing their identity. In
long been included in capstone curricula. In a review of literature on earlyengineering capstone programs, “Needs Analysis” and “Requirements Definition” are includedin a list of typical lecture topics [41], [42]. Elena et al. investigated the impact of a 50-minutelecture on the requirement statements generated by Mechanical engineering students in acapstone design course, finding that such an intervention can have positive impact on the noveltyand variety of requirements generated [43]. Requirements are also included in sample capstonedeliverables as “Functional Specification” [44] and “System Specs” [42]. However, limitedexposure to this process in the senior year may not be sufficient. Joshi et al. reviewed 10 designtextbooks commonly used
engineer needs to be a responsible member of society. In order to do that, they need tounderstand societal needs and problems, consider the ethical implications of their work and make suretheir solution have a meaningful impact. In order to connect with non-scientists, we have begun creatinga Living Machines online identity through a dedicated logo, website, social media outlets (includingTwitter, Facebook and YouTube) and by making sure that our students communicate what they areworking on to the non-scientists including a set of 2-min videos that they created to describe their threadprojects. Additionally, we worked with MIT ethics instructors to create a 2-hour module on ethics inengineering and with the Library to create a 2-hour module on
fields [4].To explore these issues, this study investigates the impact of contextualized algebra modules onstudent performance, engagement, and attitudes toward STEM in a community college setting.Specifically, we ask: How does a contextualized algebra curriculum influence studentperformance, engagement, and attitudes toward STEM, particularly for women and students withvarying levels of prior academic achievement?MethodsSix algebra modules were developed to incorporate real-world applications from fields such asphysics, engineering, environmental science, and healthcare. These modules were designed toenhance the relevance of algebra by embedding altruistic and practical STEM contexts,particularly to engage women and underrepresented students in
statements. This highlights the potential of integrative first-year coursesto foster design problem framing through connections to students' local knowledge andexperiences.MotivationStudies of first-year experiences provide guidance on how such courses support students’ senseof belonging, self-efficacy, and understanding of the work engineers do [1, 2]. The variability inapproaches has provided insight into these effects. For instance, first-year design experiencesappear to have long-lasting impacts, as students who have such experiences are more effectiveteam members in their senior capstone course [3]. Integrative and sociotechnical designexperiences can provide an engaging introduction to engineering and computer science degrees[4]. An
incoming first-year students into the Pennsylvania State University community.Along with acclimating students to their chosen engineering or science-based discipline, theprogram includes structured social and cultural events that encourage students to buildrelationships with one another and relate in-class activities to out-of-class experiences. Aprimary goal of the program is to guide participants toward academic success, providing themwith a head start in the challenging yet rewarding fields of engineering. Participants, traditionallyunderrepresented students in engineering, are engaged in math preparation, metacognitive skilldevelopment, group study sessions, near-peer mentorship, professional development workshops,and community building
rig. Recent changes to the course emphasize improving technicalcommunication skills: Partnership with graduate students in Library Science to assist with literature searching. Using outlines to prepare logical narratives in technical communications. Advanced improvement of writing mechanics. Presentation skills, with workshop led by graduate students in Communication. Production of marketing videos, with instruction from a professor in the College of Media.ResultsLongitudinal data gathered in ME 470 indicates that the integrated hands-on design curriculumhas made a positive impact on the ability of the students to produce a design solution withinsponsors’ design constraints. Graduate teaching assistants (TAs) evaluated past ME 470
potential to benefit local and national societal concerns of minoritypopulation engagement, enrollment, and retention in STEM fields while addressing the uniquepublic health challenges confronting Hispanic community members. The present project cancontribute to significantly improving outcomes by adding to the body of knowledge on howspecific STEM interventions impact outcomes for Hispanic students and families, and impactminority education as well as public health. The project will also assess the educational approachfor scalability so that the impacts can be broadly disseminated to wider audiences on both local,regional, and national scales. The project team hypothesizes that the integration of family-relevant data collection activities and
Engineering, to develop the mindset of Engineering for One Planet (EOP)in students. In this project, lectures were given to students on the nine core values of EOP,including Systems Thinking, Environmental Literacy, Social Responsibility, ResponsibleBusiness and Economy, Environmental Impact Measurement, Materials Choice, Design Mindsets,Critical Thinking, and Communication and Teamwork. After students were given the trainingmaterials on EOP Framework after the midterm, including handouts, videos and one lecture on thecore concepts of EOP, three students formed a team to provide a two-page proposal on the scopeof the project and the alignment of the proposed project with the nine core values of EOP. On thebasis of the instructor’s feedback, each team
testing (two weeks conducting sieve analysis, specific gravity, and bulk density). • Asphalt mix design (two weeks conducting the Marshall test and asphalt cement penetration). Page 22.1241.3 • Concrete mix design and testing (six weeks to develop a mix design, prepare the mix, and conduct testing on fresh and hardened concrete). Note: One of the goals of the concrete laboratory component is to prepare students to pursue the American Concrete Institute (ACI) laboratory technician certification with some additional practice and studies. • Metals testing (one week conducting tensile and impact
. in Electrical and Computer Engineering from UNC Charlotte.Dr. Annie Hui, zyBooks, A Wiley Brand Annie Hui is a zyBooks assessment specialist. She has 15 years of experience teaching computer science, information technology, and data science courses, in both in-person and online modes. She has taught in Northern Virginia Community College and George Mason University. She specializes on course design to maximize student engagement and success.Nicole Kehaulani Collins, zyBooks, A Wiley Brand Nicole Collins is an Author Trainer and former Assessment Specialist at zyBooks, a Wiley Brand. She earned her B.S. in Computer Science and her M.Ed. in Learning, Design & Technology from UNC Charlotte. Her professional
engagement and retention. In addition, positivefeedback has been obtained from the student survey data on those courses. This study alsoconfirmed the existing engagement challenges among the undergraduate students in variousSTEM majors. Future study will be focused on implementing the evidence-based pedagogiesPBL and ProjBL in more STEM gateway courses and continuously verify their effectiveness onengaging students and developing the critical skills for success. The broader impact of this studyis twofold. First, data generated through assessment and evaluation will support the theoreticalrationale that systematic change in STEM education must include the student-centeredpedagogies that motivate the students to be active learners. Secondly
1998 by Walvoord and Anderson. Lage, Platt, and Treglia proposed a similar approach called theinverted classroom and applied it to an introductory economics course in 2000 [1]. Despite the growingpopularity of the flipped classroom model in higher education, this model has received less attention inengineering [2]. The need for engineering graduates to be able to solve real-world problems and work in teamssuggests the merit in flipping engineering courses. However, currently limited research exists on the impact ofthe flipped classroom model in engineering education [3].Recognized advantages of a flipped classroom include positive gains in problem-solving skills, conceptualunderstanding, student retention, and student satisfaction [4
acclimation into the transfer community throughthe Bell Experience, the focus on advising, and associate degree completion through backtransfer, all high-impact practices that strengthen the transfer process but are not usually includedin transfer partnerships. Iron Range Engineering-Bell has created something unique to enhanceengineering degree completion.”ConclusionThe transfer process can be much less challenging for community college faculty and staff whofeel supported in their roles by people from the university level [7]. Two-year colleges play alarge role in the transfer process, and more broadly in providing access to, and a viable pathwayfor, a diverse group of students towards earning STEM degrees [15]–[17]. Oftentimes, facultyand staff at
, such as understanding college impacts on student transition intocollege (Terenzini & Reason, 2005), the class environment affecting student learning andmotivation (Abadi et al., 2017; Lawanto & Febrian, 2018; Lord et al., 2012; M. Te Wang &Eccles, 2013), students choosing their postsecondary pathways (X. Wang, 2013), and graduatestudent teaching performance (Reeves et al., 2018). Similarly, studies are also abundant inunderstanding the faculty or instructors’ perspectives in terms of contexts. Lattuca and Stark(2009) created a theory that encapsulates how one can shape a college curriculum. The theoryencompasses a wide range of contexts that influence the shaping, such as external influences ofmarket forces, government, and
evaluation: Course learning outcomes achievementThe course evaluation also asked students to respond with levels of agreement to specific courseoutcomes. Importantly, 96.7% of the students surveyed agreed or strongly agreed that the coursewas inclusive, supportive, and conducive to learning. Community and Engineering efficacy werealso highly regarded in this course. This demonstrates the positive impacts this type of pedagogyhas on inclusive practice and student outcomes.Table 5: Final course evaluation: Course outcomesConclusionFrom the quantitative and qualitative data collected, the labture approach has been shown toimprove student performance outcomes as well as contribute to an inclusive classroomenvironment. The PSS-style approach to lab
on issues related to resiliency andsustainability, and the development of a database of case studies available for research, teachingand modeling. RISE-UP aims to serve participating students by focusing on both academic andnon-academic indicators of servingness. Fig. 1: RISE-UP curricular sequence.According to the National Science Foundation, “NSF projects, in the aggregate, shouldcontribute more broadly to achieving societal goals. These broader impacts may beaccomplished through the research itself, through activities that are directly related to specificresearch projects, or through activities that are supported by, but are complementary to, theproject.” [3]. The HSI program at NSF aims to broaden
knowledge, develop skills, clarify values, and develop people's capacity to contribute totheir communities” [13]. This method is about the students learning through direct experiences.An objective was to ensure students’ experience on how the VS can be affected by a disease suchas Meniere’s disease. In the guide by the Center of Innovative Teaching and Learning at NorthernIllinois University, the experiential learning process is discussed and outlined [14]. Students willgo through the process of experiencing, reflecting, analyzing, generalizing, and applying. Facultywill play a part in facilitating the module but will not have a significant role in the students’learning.This co-creation process gained much of its inspiration from the students
the movement of students from one co-curricular activity to another using nodes (filled-in circles that encapsulate the co-curricular type)and edges (arrows that connect nodes and can signify the chronology of participation). Eachstudent has a directed graph which may vary in the number of nodes and edges. This exploratorywork considers visual analysis and shares the navigation profiles of a small student sample,rather than making inferences for demographic populations. We evaluate the co-curricularparticipation profiles through visual means surrounding three groups of students engaging invarious co-curricular activities: 1. Nontechnical (e.g., retail store clerk), 2. Service (e.g.,community volunteer), 3. Student Clubs (e.g., Society of
contextawareness is consistent across literature [9]. The lack of contextual understanding and technicaldeterminism has a tremendous impact on incorporation of societal context because it preventsengineering students from recognizing that they make many decisions during design and thosedecisions are strongly influenced by their own identity, experience, and position in their homesociety.In community designs, the call to consider societal background and impact is even moreprominent, highlighting how contextual factors affect the efficiency, justice balance, andadoption of any design [10, 11]. Addressing the societal context is important in any design, butespecially in designs implemented in communities or to populations outside of the engineers’own
(NYCCT),these challenges will be discussed. First, we will review Electromechanical courses primarily equip students withthe correlation between students’ reading proficiency technical knowledge and skills in lecture and lab settings. Inand their performance in the course by analyzing the addition to these traditional teaching and learning settings,results of reading assessments administered in three we perceive a need to enhance students’ disciplinary literacysections (N=66) of EMT1255 from Fall 2015 to Fall 2016. by engaging them in the reading-to-learn process. To do so,This will allow us to identify the impact of students’ we implemented READ (Reading Effectively Across thereading skills on their