and intensive summer bridgeprogram. The purpose of STEP is to provide incoming College of Engineering (CoE) students(1) an opportunity to become familiar with the university community prior to the start of theiracademic career, (2) academic enrichment in subjects known to be historically difficult for first-year students at the particular university, and (3) opportunities for personal and professionaldevelopment. STEP participants take courses in chemistry (lecture + lab), calculus, andengineering fundamentals.STEP 2016 consisted of 63 incoming first-year students accepted to the CoE. Although notexplicitly advertised, some participants had not been accepted into the CoE and had anopportunity to be admitted though their performance in STEP
through design courses—to solve problems and execute thosesolutions. But designing for disability benefits from a broader perspective: “A richer balancebetween problem solving and more playful exploration could open up valuable new directions”(pg. xv)1. This paper describes the design of an interdisciplinary course to be taught beginning inMarch 2017, Introduction to Disability Studies, that integrates Liberal Arts and STEMperspectives with the goal of creating precisely the balance that Pullin describes.In the sections that follow, we first describe the design of the course, focusing on the humanitiesperspectives and assignments that inform the theoretical disability studies framework. Thissection also addresses our approaches to breaking down
greater than what is currently required by accreditingbodies and addressed in most engineering curriculum.IntroductionAcademic programs for students seeking careers in fields with strong discipline-basedknowledge requirements traditionally focus heavily on technical expertise. “Engineers have beenvalued for their technical expertise for centuries. This expertise has often distinguishedengineers' role as civil servants who design and create goods, infrastructure, and processes forthe needs of humanity” [1]. But employers are making a new set of demands on the workers theyhire; they are seeking competency in both technical and professional skills. The need for technical employees to possess professional skills has been discussed overthe
experience of teaching it for the first time during the 2017-2018 academic year, and plans for the future.IntroductionIn 1997, ABET rolled out the Engineering Criteria 2000 (EC2000), which introduced for the firsttime an understanding of social context as a requirement for engineering education. This is anacknowledgement that engineering practice does not occur in a vacuum, but must be responsiveto the various economic, political, and cultural forces around it. In the years since EC2000,many engineering programs have struggled to meet this criteria in a meaningful way [1]. Thereasons are primarily two-fold. First, the addition of so-called “soft skills” into the curriculum inno way reduces the amount of technical content that is also necessary to
. c American Society for Engineering Education, 2018 Refining Concept Maps as a Method to Assess Learning Outcomes among Engineering Students1.0 Introduction Concept mapping activities have been used extensively in over 500 educational researchprojects with the goal of developing curricula, assessment, and testing knowledge acquisition [1].This suite of methods, many shared among ASEE members, are proven to perform in a variety ofsettings and learning communities. Concept maps (CMs) are most often used to link courselearning goals to individual student’s knowledge integration of course material, especially wherethere are defined concepts and linkages between concepts that should be replicable by
an unquestioned assumption that certain ways of knowing -- explicitly dominantepistemologies that involve specific mathematical procedures and scientific processes -- arerace-, gender-, and culture-free. In reality, education inherently prioritizes and privileges certainbodies of knowledge while marginalizing and excluding others. Within engineering, colonial,White, heterosexual, and male knowledge has historically been privileged over other ways ofknowing. Little recognition appears to exist that the ethnocentricity and masculinity of theengineering curricula affects problem definition and accepted methods of problem solving,teaching, and assessment [1]. This dominant approach undervalues and ignores the livedrealities, perspectives, and
PhD in Civil Engineering from Clemson University in South Carolina, and her BS in Engineering from Harvey Mudd College.Dr. Odesma Onika Dalrymple, University of San Diego Dr. Odesma Dalrymple is an Assistant Professor in the Shiley Marcos School of Engineering at University of San Diego. She conducts research on tools and techniques that can be readily applied in real engineer- ing learning environments to improve student learning and teaching. In this respect her two prominent research contributions are with: 1) artefact-inspired discovery–based pedagogy, i.e., learning activities where students’ exploration of STEM knowledge is self-directed and motivated by interactions or manip- ulations of artefacts; and 2
that gradesmust represent something meaningful to students if grades are to be satisfying extrinsicmotivators. We conclude by providing practical ideas for educators that are suggested by ourdata.IntroductionAn engineer’s professional duties typically demand a substantial amount of technical writing [1],[2], and writing plays a role in hire, promotion, and long-term success [3]–[5]. In both industryand academia, writing provides an engineer access to his or her discourse community [6].While employers, educators, and ABET agree that today’s engineer needs to write well, oftenundergraduate students don’t seem to be on the same page. Engineering students are reported tobe resistant to writing and technical communication education, demotivated by
study of teaching and learning as socially,culturally, and historically situated phenomena (Penuel & O’Connor, 2010). We focus inparticular on implications of a curricular innovation directed towards an institution’s goal tobroaden engineering participation and promote success for all students, regardless of incomingmathematics preparation levels, within a selective undergraduate engineering program.The Wright State Model is a semester-long math course that teaches fundamental concepts ofCalculus 1, 2, and 3, and Differential Equations in an engineering context through hands-onlaboratory experiences and application-rich problems. The WSM is designed to disrupt thetraditional rigid sequencing of undergraduate engineering curricula by de
(F.RSA) and a Fellow of the Royal Society for Public Health (F.RSPH). c American Society for Engineering Education, 2018 Science, Technology, Engineering, Art, and Math (STEAM) Diplomacy: Preliminary Results from an Initial Pilot CourseAbstractA new course, “Science, Technology, Engineering, Art, and Math (STEAM) Diplomacy,” hasbeen developed at the Missouri University of Science and Technology to introduce engineeringstudents to the field of foreign relations and the tripartite objectives of: 1) science in diplomacy;2) science for diplomacy; and 3) diplomacy for science. The course employs an availablescholarly monograph as a text and integrates materials created by the Center for
Press of America, 2005), Engineering and Sustainable Community Development (Morgan &Claypool, 2010), Engineering Education for Social Justice: Critical Explorations and Opportunities (Springer, 2013), and Engineering Justice: Transforming Engineering Education and Practice (IEEE-Wiley, 2018) c American Society for Engineering Education, 2018Student learning about engineering and corporate social responsibility: Acomparison across engineering and liberal arts coursesAbstractThe growing literature examining engineering students’ attitudes and learning about socialresponsibility focuses on the professional and personal dimensions of engineers’ responsibilities[1]–[4]. Knowledge of how engineering
be well-positioned to notice and potentially disrupt inequitablepatterns of participation within design teams. In this paper, we explore (1) How do LAs notice,diagnose, and consider responding to teamwork troubles within design teams, and (2) Whatideological assumptions plausibly contribute to LAs’ sensemaking around their students’teamwork troubles? To do so, we analyze how the LAs notice and consider responding to issuesof equitable teamwork and participation, as exhibited in three related activities: (i) an in-classroleplay, (ii) observing and diagnosing teamwork troubles (TTs) in the engineering designteams, and (iii) imagining possible instructional responses to those troubles, and students’possible reactions. We articulate three modes
strategically on students’ experiences and knowledge from pastcourses. The goal of this committee is to improve the quality of student learning by consideringnot only course content, but also by considering the quantity and timing of various types of skillbuilding. Technical communication (TC) is one of these common threads. We believe thesequence of instruction related to various forms of technical communication (written, oral, anddrawing skills) should intentionally develop students’ abilities so that by graduation they areprepared for a professional engineering environment.Several research studies have identified the gap between engineering students’ writingexperiences and the expectations of professional writing in the engineering workplace [1], [2
-term study abroad course through Mon- tana State University and an introduction to engineering education course at the Central New Mexico Community College. c American Society for Engineering Education, 2019 Comparative Approaches to Accessibility Education in the United States and RussiaAbstractDifferences in national contexts have led to uneven global development of transportation systemsthat are accessible to people with disabilities. The World Health Organization promotes theworldwide implementation of education and professional training programs to foster a mindsetsupportive of accessibility [1]. The education of future engineers is an essential component inthis
, her research spans education and practice, working on the integration of community research into project based learning. Her work overlaps areas of GIS mapping, global sustainable urbanism, design and creativity.Dr. Andrew N Quicksall c American Society for Engineering Education, 2019 Deep Observation: Geo-Spatial Mapping as a Strategy for Site-Engagement and Problem-DesignAbstractWhile project-based learning powerfully brings students into real world economic andenvironmental contexts, a subject-oriented approach to such work means that they are often ableto remain aloof from real stakeholder engagement and participation, even when working on alocal site [1]. Given
beliefs and practices within the professionalculture of engineering as mechanisms of inequality retrenchment, and the ways those culturalbeliefs manifest within engineering departments. The results also have implications for helpingengineering departments understand and address persistent inequality within their ranks.KeywordsIdeology of depoliticization, culture of engineering, gender inequality, engineering facultyIntroductionWomen are persistently under-represented, marginalized, and devalued within the engineeringprofession and within engineering education [1-3]. These gender inequalities extend from K-12classrooms through the highest ranks of the profession [2-4]. Even among engineers who haveachieved faculty positions, women are often
learning objectives for the course is to teach students to seek out and draw on theperspectives of people who have a stake in the problems they choose to define and address. Inengineering education, stakeholder engagement is part of project-based learning [1]. Whileserious encounters with stakeholders have been a topic of increasing centrality within technicalfields [2] [3] and understood to be core to the training for engineers and applied scientists [4] [5],this work is by no means simple. Further, as these activities require skills students may neithercome to college familiar with nor practice in multiple courses, courses like Design I experiencesignificant pressure to both cover a great deal of ground and do so in ways that are accessible
"thing-inform"?: case studies in seeing engineering meaning differently through the process of technical ASL vocabulary creationAbstract(Note: A signed version of this abstract is available on http://aslcore.org. Although this paper hasbeen written in English, the primary working language of this project is American SignLanguage. The English paper presented here should be treated as an explanation designed for anon-signing audience.)Engineering is a social activity where practitioners constantly use language in order tocommunicate. While not completely deterministic, the nature of the language we use influenceshow we think, communicate, and collaborate [1]. This paper draws from work on the engineeringbranch of
. 1https://docs.google.com/document/d/10vKOGUp1mJh1P67nzoVRagbCFvtAE9xImJQLJIb_VIs/edit# 1/244/29/2019 ASEE Paper_2019_Final - Google Docs In this work, we study undergraduate peer educators who are taking a pedagogy seminar concurrently with serving as teaching assistants within an introductory, project-based engineering design course. Our data consist of audio-video records of class discussions and coursework in the pedagogy seminar. Using tools of discourse analysis, we operationalize how we “see” technocracy (and, at times, meritocracy) in peer educators’ talk. We analyze two segments from classroom
country are implementing hands-on activities in the classroom becausethere is evidence that they improve long-term material retention and critical thinking skills[1][2]. A study at Oregon State University found that working in teams gives studentsopportunities to communicate with others, set group expectations, and practice conflict-resolution, all of which are skills that are highly desired in industry [3]. A major goal ofimplementing groupwork into the classroom is to prepare students for teamwork in theengineering workforce, yet students are not learning technical and non-technical skills equally inthese types of classroom settings. Many studies have shown that women frequently take onstereotypically feminine roles, such as being in charge of
communicative needs identified byindustry stakeholders. A natural fit for a technical writing and communication curriculumdesigned for the needs of engineers, the Kolb model of experiential learning features a practicethat is process-based, focused on connecting new and old knowledge, and requires learnerdiscomfort—through iterative testing a learner must be willing to dispense with ideas found to befalse. Knowledge creation occurs through the meaningful interaction of one’s lived experiencewith that of the immediate environment [1].Understood as an active and dynamic approach to problem-solving, experiential practices in theclassroom offer unique student impact opportunities for mid-performing students, while stillretaining value for advanced students
, the Communication Lab’s free online collection of discipline-specific guides to technical and professional communication. She is dedicated to promoting peer-to-peer professional development experiences for scientists and engineers. c American Society for Engineering Education, 2019 Experiments in the Communication Lab: Adaptations of the Comm Lab Model in Three InstitutionsAcross engineering and science disciplines, individual schools and programs are searching forways to better support science and engineering students as writers and communicators [1] [2] [3].Despite rich accounts of these interventions, it is difficult to imagine how to implement them indifferent
sophisticatedknowledge of instrumental methods and scientific principles, but perhaps it still fails to preparestudents for complexities and uncertainties of engineering practice in real contexts (Bucciarelli &Kuhn, 1997). We have found that most graduate engineering curricula continue to focus on 1 of 20technical concerns at the expense of the broader social, human, environmental, and ethicalcontext of engineering (Copeland & Lewis, 2004); however engineers need such meta-disciplinary knowledge to see the legitimacy of contextual problems and to deal with thosecontexts effectively (Christensen & Ernø-Kjølhede, 2006). In an effort to close the gap between engineering education and education
, do research (e.g., [1][2]); however, in many academic research communities,students, not experts, make crucial decisions about methodological designs, techniques, andpractices as part of their everyday laboratory work. How then do students learn the subtle,foundational work of asking research questions, producing and interpreting evidence, anddrawing evidence-based conclusions? How can educators encourage and improve this learning?One valuable way to study students’ everyday decision-making about research is to watch howgraduate and undergraduate students work together to produce and assess evidence inlaboratories, in formal or informal graduate/undergraduate partnerships that we call GradUPs.We draw from the theory of situated learning in
employed by the military ingeneral rather than being “civil” engineers. The first non-military engineering curriculum in auniversity was instituted in France at the École des Ponts et Chaussees as a “civil” engineeringprogram in 1747 [1]. In 1847, the West Point Military Academy became the first systematicengineering school in the U.S. About 50 years after that, Rensselaer Polytechnic Institutefollowed Connecticut College as the first non-military school to implement an engineeringdegree curriculum. The Industrial Revolution maintained the hierarchical structure ofengineering as most engineers worked for the industrial enterprise or the government.The first concept bordering on Peace Engineering is probably that of “appropriate technology”.In his
notnecessarily for academic researchers. Thus, each communication platform offered its own uniqueaffordances and challenges.Data Sources and AnalysisData for this study were collected across the ten weeks of the summer research experienceprogram. The primary data sources were participants’ finished, published public writing projectartifacts, public response to those products, and post-program interviews in which participantswere asked to explain what they saw a the main differences in communicating with engineeringaudiences and the general public, and to identify audience they value more and why. Informalinteractions between Author 1 and participants over Facebook probed for participants’reflections on how successful did they thought their project was
Society in the University of Vir- ginia’s School of Engineering and Applied Science.Prof. Bryn Seabrook, University of Virginia c American Society for Engineering Education, 2019 In Search of Integration: Mapping Conceptual Efforts to Apply STS to Engineering EducationAs David Edge points out in his introduction to the Handbook of Science and Technology Studies[1], the field of Science, Technology, and Society (STS) is a diverse enterprise that developed inresponse to a heterogeneous set of desires ranging from a more rational basis for science policyto the democratization of science and the reform of engineering and science education. In thispaper, we focus on STS as it