Experience(REEFE) during my graduate educational journey on “who I am” and “who I want to be” as anaspiring faculty member in the engineering education community. The autoethnographic studyincludes analysis of interviews conducted at the beginning, middle, and end of the professionaldevelopment experience and weekly reflective journals to identify significant interactions thatinfluenced my construction, negotiation, or rejection of professional identities. In addition, thepaper discusses how my identity development through this experience has informed mydissertation direction for degree completion. This study intends to highlight the benefits ofprofessional development opportunities through avenues beyond coursework and researchprojects to encourage
students (Edstrom et al., 2007; Prince & Felder,2006). The goal is for students to apply, integrate, and/or synthesize their knowledge, includingknowledge from previous coursework, in completing the project, which reflects the complexityencountered in an engineering environment (Sheppard et al., 2009; Prince & Felder, 2006;Edstrom et al., 2007). An inductive approach tends to drive or motivate the need for the contentor theory, which may be difficult or otherwise seem of minimal use until students beginstruggling with a real challenge (Prince & Felder, 2007). Project based learning (PBL) is a keypedagogical model that can address and improve transfer of knowledge from one context toanother, retention of information, and student
design courses and are evaluated as graduate attributeoutcomes integral to the Canadian Engineering Accreditation Board (CEAB) evaluationprocesses. Continual course improvement processes require reflection on the success oflearning activities, the tools used for teaching, and alignment of learning outcomes,activities, and assessment. Peer evaluation and feedback tools can encourage studentlearning and leadership development. The method of data collection, the type of feedbackand the contextual validity of the feedback may impact students’ development of useful teambehaviours and personal strategies for working in team environments. Mixed methodsuccessive case study analysis provides insights enabling targeted improvements to learningactivities
Paper ID #25365includes serving as a high school engineering/technology teacher and a teaching assistant professor withinthe College of Engineering & Mineral Resources at West Virginia University. c American Society for Engineering Education, 2019 Examining Beginning Designers’ Design Self-Regulation Through LinkographyAbstractDesign process representations often attempt to show the iterative pattern of design through acircular or spiral representation. Expert designers iterate, constantly refining their understandingof both the design problem and solution. In other words, a designer’s ability to manage thedesign process—plan, reflect, and incorporate new insights—may be
Hotel. In both cases, the modelsare loaded to failure and the total weight added before failure is compared. After a shortdiscussion, a video of the Hyatt Regency Hotel tragedy is shown. The in-class assignment isfollowed up with a reflection paper assignment. In a survey administered to students in thecourse during fall 2017, 89 percent of student respondents (n = 48) indicated the activity addedto their understanding of the topic and indicated in descriptive questions that the activity washelpful and increased their interest in engineering.IntroductionDue to the nature of civil and mechanical engineering projects, it is vital for practitioners touphold ethical standards during the engineering design process. As educators, we have
such as student reflections and other worksheets are collected forevaluative purposes. Newly in year two of the program, reflections have been transitioned from apaper activity to a whole class discussion facilitated by the classroom adults to mitigate some ofthe writing communication challenges discovered in the first year [23].Current statusEngagement with teachers and youth. Data collection for year one of the project has come to anend, and data collection in year two is currently underway. Considering student and teacheroutcomes to address research questions 1-3, analysis of the year one data has begun. Forteachers, findings suggest improvement around teacher confidence in teaching engineering aswell as challenges that still remain
technical skills.Although these are necessary for career success and productive work, students must also developcapacities for authentic engineering practices within authentic engineering communities.Specifically, they must develop practices for engaging ill-structured, ambiguous problems, andnavigating complexity and uncertainty through careful, creative application of deep knowledgethat characterize engineering design1. And they must do so in collaboration with others,communicating successfully with diverse stakeholders in formal and informal settings2. Finally,they must cultivate the ability to reflect on the quality of their innovation and communicationefforts3.The NSF and other sponsors fund research experiences for undergraduates (REU
integrating mechanical, chemical and quantum devices into circuits and communication links. c American Society for Engineering Education, 2019Relating Level of Inquiry in Laboratory Instructions to Student Learning OutcomesAbstract -- This research paper will describe the results of an experiment in which the level ofinquiry in a laboratory manual is varied from guided inquiry to open inquiry by reducing thespecificity of the instructions in the lab manual. The hypothesis is that less specific instructionswill cause students to reflect on their actions in lab and, as a result, circle further around Kolb’sexperiential learning cycle during each step of the lab. This should result in improved recall andbetter
students in reflecting on experience, how to help engineering educators make effective teach-ing decisions, and the application of ideas from complexity science to the challenges of engineeringeducation. c American Society for Engineering Education, 2019 Engineering with Engineers: Revolutionizing a Mechanical Engineering Department through Industry Immersion and a Focus on IdentityAbstractThe Mechanical Engineering Department at Seattle University was awarded a grant by theNational Science Foundation (NSF) Revolutionizing Engineering and Computer ScienceDepartments (RED) program in July 2017. This award supports the development of a mechanicalengineering program where
" but provides little emphasis on "thinking." Assuch, little is known about how to incorporate competency-based education into traditionaland professional bachelor degree programs such as engineering, which requires a greaterfocus on knowledge and skill integration. The purpose of this paper is to highlight a newapproach to learning that goes beyond the proverbial "checking boxes" to provide anapproach for demonstrating the integration of abilities and reflection. This innovative andexperimental approach offers three unique attributes. First, it is competency-based in thatstudents are required to demonstrate mastery of meeting core innovative competenciesthrough submission of an artifact (“transdisciplinary-doing”) and reflection
quality. Although qualitativeresearchers often conduct phenomenography collaboratively, most often a single individual leadsthe data collection and analysis; others primarily serve as critical reviewers. However, qualitymay be enhanced by involving collaborators as data analysts in “sustained cycles of scrutiny, de-bate and testing against the data” [1, p. 88], thus interweaving unique perspectives and insightsthroughout the analysis process. Nonetheless, collaborating in this intensive data analysis processalso presents unique challenges. In this paper, we (1) describe the processes we are applying inan integrated team-based phenomenographic study, (2) identify how the team approach affectsresearch quality, and (3) reflect on the challenges
Michigan. His undergraduate degree is in Agricultural Engineering Technology from Michigan State University. c American Society for Engineering Education, 2019 Measuring the Impact of Experiential LearningAbstractThis is a research paper submitted to the Educational Research and Methods Division.Numerous institutions are focusing on expanding experiential learning opportunities (e.g. client-based projects, international service trips, team competitions, etc.) for engineering students. Kolb[1] defines experiential learning as an iterative process involving conceptualization, activeexperimentation, concrete experience, and reflective observation. Experiential learning has alsobeen identified as an
call this use of SET into question. In particular, evidence hasshown that SET do not reflect the effectiveness of instruction or learning [1], [2]. Therefore,changes to teaching practices in response to student feedback through SET may not improveteaching or learning effectiveness. Moreover, SET data are biased. Multiple studies have shownthat SET results are biased with respect to gender [3], to sexual orientation and gender identity[4], and to race [5]. Even purportedly objective metrics, such as how quickly homework aregraded and returned, are affected by student understanding of gender [3]. For all of these reasons,SET are problematic when used in merit, tenure and promotion decisions.Appropriate Use of SETSET are unlikely to be eliminated
emphasis. Students arerequired to (i) engage in 16 hours of community-based learning experiences and (ii) performcritical reflection and evaluation of their experiences. A primary goal of the ELSJ requirement isto foster a disciplined sensibility toward power and privilege, an understanding of the causes ofhuman suffering, and a sense of personal and civic responsibility for cultural change.The specific learning objectives of an ELSJ class are as follows:ELSJ LO1. Recognize the benefits of life-long responsible citizenship and civic engagement inpersonal and professional activities (Civic Life);ELSJ LO2. Interact appropriately, sensitively and self-critically with people in the communities inwhich they work and appreciate the formal and informal
much detail as they were able.Reflection Entries: Reflective entries were intended to complement the field notedocumentation by prompting students to reflect on their experiences creating more synthesis andmore personal accounts. Students were given structured prompts to guide their reflections.Throughout the quarter, these prompts became more open ended, based on group discussions.Prompts related to A) student experiences B) resources C) design and fabrication, D) topics fromthe previous meeting, E) project choice, and F) different modes of learning. In this analysis wedraw from reflection entries where students speak about design or instruction sets and tutorials.In six of the ten weeks, prompts explicitly related to design were posed. These
STEM. 2. Identify how cultural concepts of race, gender, sexuality and disability have shaped scientific thought (and vice versa) through history. 3. Critically evaluate literature regarding ethics and diversity in bioengineering. 4. Analyze how engineers handle implicit bias during research and design processes. 5. Propose approaches to promote ethics and diversity in engineering practice.The honors students attended the same class sessions and completed all assignments as their non-honors peers. In addition, the honors students attended a weekly two-hour discussion section andcompleted additional assignments including weekly readings, written reflections, and a finalpaper on a topic of their choice related to the role of
activities: design, build, and test; which employ the following pedagogicaltechniques: inductive, experiential, and reflective learning respectively (Figure 1). Theseactivities each achieve one or more of the learning objectives: The design activity servesLearning Objectives 2 and 4 by splitting students’ time between two sets of design sketching andfeedback sessions. The build activity facilitates Learning Objective 3. The test activity servesLearning Objectives 4 and 5 through its presentation, load testing, and instructor feedbackcomponents. All activities engage Learning Objective 1 because this is a group work project, andrequires efficient teamwork in order to complete in the modest two-day timeframe. [Figure 1] Three
learners to apply new knowledge to ISIEnvision credit ratings, 2. student motivation metrics which are linked to students’ ability toemploy learning strategies and 3. student reflective observation and conceptualization on theirown ability to apply new knowledge. Findings of this study are preliminary and includequalitative measures but point to potential teaching/learning mechanisms which may be furtherexplored in successive studies.IntroductionThe civil engineering profession faces an increasing range of demands including preparingstudents for evolving challenges including design and maintenance of aging infrastructure,development of sustainable infrastructure and resilient design. The shift from an industrializedeconomy to the knowledge economy
knowledgeparticipants (middle school students) brought to a two-week STEM summer enrichmentprogram. The study, which is a small piece of a much larger research endeavor, primarily reliedon data collected from interviews with eight individual pod leaders. The results of this studyindicated that elicitation strategies are sometimes hindered by programmatic features–primarilythe time constraints and subsequent lack of time for reflection–of summer enrichment programs.IntroductionThe renewed focus in STEM education has led to the increased number of summer enrichmentprograms across the United States. These programs and other out of school experiences areintended to increase student awareness about and interest in STEM while bringing more studentsinto STEM fields
ClassroomLiterature reporting the implementation of coaching in engineering classrooms demonstratescurricular designs and learning outcomes with positive student outcomes. Stettina, Zhao, Back,and Katzy [26] implemented coaching practices in short stand-up meetings that focused onasking powerful questions to reflect and assess progress on project deliverables. Using a quasi-experimental approach, the researchers found that adding coaching into small stand-up meetingsprovided for successful information exchange and increased student satisfaction in courselearning. Knight, Poppin, Seat, Parsons, and Klukken [29] looked at the impact on teamorientation and team task performance of senior design course teams with graduate levelcoaches. The teams with graduate
”, through student produced reflections captured inpre-and post-surveys. We hypothesize that this redesign will result not only in increased studentlearning, engagement and long-term retention of flight dynamics concepts, but also introduce thestudents to a “systems type” thinking, as applied to UAS.Introduction Over the last decade there has been a significant shift from the use of fixed wing remotecontrolled aircraft to multirotor platforms, thanks primarily to a coolness factor, relativelyinexpensive imports as well as their flexibility in terms of flying, hover and carrying variousimaging payloads. But, with user sentiment shifting from “Can you build a Quad, Hex or Octo –copter, it is cool”, to “What tasks can your Unmanned Aerial System
first elaborate on the major elements of the liberatory struggle, relationships,understanding, transformation, and solidarity [22]. The first element, relationships, highlightsthe status of the oppressed and oppressor in oppression, “institutionalized dominance of one partof humanity by another” [23, p. 41]. There are oppressors who tend to reproduce the status quo,and there are the oppressed, who are target group in institutionalization of discrimination anddominance. Understanding, is the stage in which the oppressed acknowledge the fact that theyare oppressed and critically seek for the causes. As a result of such critical reflection on the stateof oppression, the oppressed may discover who they really are. However, the oppressed need
engineering. Dr. Walther’s research group, the Collab- orative Lounge for Understanding Society and Technology through Educational Research (CLUSTER), is a dynamic interdisciplinary team that brings together professors, graduate, and undergraduate students from engineering, art, educational psychology, and social work in the context of fundamental educational research. Dr. Walther’s research program spans interpretive research methodologies in engineering edu- cation, the professional formation of engineers, the role of empathy and reflection in engineering learning, and student development in interdisciplinary and interprofessional spaces.Dr. Nicola W. Sochacka, University of Georgia Dr. Nicola Sochacka is the Associate
structure. This property distinguishes it from other prior attempts atdeveloping sociotechnical-based assignments in the literature, which have primarily focused on asingle course-context.The process of writing and implementing the assignment followed by the authors’ reflection andanalysis required for this paper elucidated many findings that are relevant to other efforts tointegrate sociotechnical concepts into core engineering science and design courses. Specifically,we identified barriers to sociotechnical integration which include addressing the diverse needsand objectives of our courses, managing different instructor backgrounds and biases, usingappropriate terminology which avoids reinforcing the dualism we are trying to address
summative surveys were distributed with each summative assessment(exams). The formative survey was distributed prior to the summative assessment and thesummative survey was distributed after the summative assessment. See Appendix A for the twosurveys. Questions are included in the figure captions, for convenient reference. Ample time wasgiven to complete the formative survey and the both surveys were generally returned with theexam. Students are informed to answer the formative survey questions reflecting on theformative assignments leading up to a summative assessment. For example, when filling outtheir second formative assessment students are asked to reflect on all homework leading up toExam 2 from the previous exam. Formative scores include the
class activities found in the scholarly literature. Thesepractices were grounded in experiential and cooperative learning such as visits from experts,round-table discussions, reflections, but still included traditional learning activities such asassigned readings and lectures. Outside the classroom, students actively worked with communitypartners to improve thriving in the community.Gratitude - Gratitude consists of feelings of appreciation for someone in response to receivingintentional benefits, especially at some cost to the benefactor [2], [3]. There are both interpersonaland intrapersonal benefits of gratitude. Gratitude is one of the strongest correlates to emotionalwellbeing [4], life satisfaction, optimism, and reduced anxiety [5]. In
recognizing the diversity of personalvalues among peers. Students delve further into ethical decision making in the context of academicintegrity during the first year with reflections on real-life scenarios.During the second year, students discuss the need for a purpose of a common set of ethicalstandards and review the American Society of Civil Engineers’ Code of Ethics when interpretingethical dilemmas. Students were introduced to an ethical decision-making process during fall oftheir junior year. This process is a step-by-step guide that includes reflection throughout theprocess of assessing and making a judgment on an ethical dilemma. During each quarter of juniorand senior year, students were given a real-life ethical dilemma, and they utilized
to provide for rich classroom discussions and allow students to reflect onimportant topics they will likely face in their careers with the advent of new biomedicaltechnologies. Topics such as equal access to healthcare, ethical issues surrounding gene editing,and understanding how a user’s background or culture can affect their healthcare needs/desireswill all be discussed and considered throughout our curriculum directly alongside technicaltopics. This approach will allow us to more specifically address the new ABET outcomes(particularly Outcome 2) that call for more integration between social and technical elements.Our first students will not officially begin the BME track until the fall of 2020, but we arepiloting our biomechanics and
practice and reflection [11].Pilot StudyThe first year of this study we conducted initial interviews with teachers who had previouslyparticipated in a summer camp with primarily Latinx middle school students. The summer campinvolved 3 in-service teachers, 5 graduate students, and 8 undergraduate students working asSTEM summer camp facilitators for 77 middle school students. The pilot study focused on the 3in-service teachers as they navigated working with students in both formal and informal spaces.The goal of the pilot study was to generate some information of in-service teachers’ perceptionsof funds of knowledge and the strategies that teachers used in understanding and elicitingstudents' funds of knowledge. This pilot study served as the
courses. Followingthe first round of exams, students select the course in which they wish to improve theirperformance most significantly and then complete both an exam wrapper survey and learningstrategies survey to evaluate their preparatory behaviors, conceptual understanding, andperformance on the exam. Each student develops an action plan for improvement based on theirresults and begins implementation immediately. Following the second exam, students completean exam wrapper survey followed by a learning journal, in which students evaluate and reflect ontheir adherence to and effectiveness of their action plan and performance on the second exam.We propose that engagement with this exam wrapper activity in the context of the EntangledLearning