for her efforts in encouraging students to develop an entrepreneurial mindset. Amy has contributed to the development of a new hands-on multidisciplinary introduction to engineering course and a unique introduction to engineering MOOC. She is interested in curricular and co-curricular experiences that broaden students’ perspectives and enhance student learning, and values students’ use of Digital Portfolios to reflect on and showcase their accomplishments. Amy earned her Master’s degree in Biomedical Engineering from Arizona State University (ASU), and is currently pursuing her PhD in Engineering Education Systems and Design.Ms. Jill L. Roter, Arizona State University Jill Roter is a senior instructional design
extensive experience training MI and isa member of the MI Network of Trainers, an international collective of MI trainers which promotesbest practice in MI training and practice. Due to the challenges in getting 17 people from sixdifferent departments or service units in one place, the course was run as two weekly 1-hoursessions for a total 15 sessions. This allowed the participants who had little to no counsellingbackground to gain confidence and skills. They were able to practice reflective listening and MIskills between sessions and share experiences with the group. This also built a learning community,which will be important for debriefing after difficult conversations. As one participant said, “Theway the course was delivered in small doses
-Atlantic section as well as ASME and IEEE. American c Society for Engineering Education, 2021Virtual Service-Learning Tutoring Experience for EngineeringUndergraduatesAbstractIn the fall semester 2020 a service-learning option was provided to students enrolled in aprobability and statistics class that is required of all engineering majors. The instructor hadpreviously participated in service-learning seminars for faculty at the university who wereinterested in using that pedagogy in their classes. This paper reviews the seminar program, thebackground of the community partner, the nature of the service-learning experience and thequalitative reflections of the students who
methods for determining surface roughness have also beendeveloped. All of these methods operate under the principle that a reflection of a surface carriesinformation about that surface1. An example is shown in the figure. Figure 1 Reflected laserThere are many variations of using light to perform non-contact surface roughness measurement.One apparatus capable of accomplishing this has been developed by the EngineeringApplications Center at the University of Hartford. This design uses a solid state red laser toprovide a monochromatic collimated light source which is aimed perpendicularly to the surfacein question. The backscatter or diffuse reflection2 from the surface is reflected coaxially backtowards the
public profile [19]; therefore, engineering and non-engineering students working on surveying problems would be able to learn about this major andincrease the awareness of surveying among engineering and non-engineering students.The paper has the main objective to discuss the concept of integrating Math and Statisticscourses with Surveying Engineering, and to outline the main steps of the implementation plan.We discuss our developed a framework for classroom implementation that is characterized bythe acronym DSR, which stands for Discuss, Solve, and Reflect. The paper also providesnumerical examples of surveying related RL problems relevant for different Math and Statisticscourses.Future Implementation PlanAs educators we see those students
Technology). This literacy variable is concerned with learners’ awareness of various available technologies that could be used to improve their work as well as their social life and self-improvement. It also reflects the willingness to explore and adopt technology. Mature students become aware of state-of-the-art technologies relevant to their professional domain and personal needs. They are also receptive to change in their existing ways of doing things as well as to the adoption and adaptation of new technologies for better work performance. • Literacy 2: Operational Skills. This literacy variable reflects the understanding of learners about the purposes and functionality of various technologies, the
comparative energy and pollution outputs associated with landfilling or waste-to-energy incineration of the non-recycled wastes. 7 Reflective Students discuss what they learned from the guest speakers and their Essay current impressions of EVEN, including if they plan to stay in the major and what topics they are particularly interested in.In assignments 1, 5, and 7 students typically indicate which sub-discipline area(s) of EVENinterest them. This evolves over the course of the semester, including students who indicate inassignment 7 that they don’t intend to major in EVEN. Assignments 2, 3, and 6 allowed thestudents to experience how energy
University. In addition to technical research interest in applied surface chemistry, her engineering education research interests include the learning of engineering modeling, the impact of reflective practice in learning engineering, authentic assessment methods, and "girl-friendly" education.Vincent Pizziconi, Arizona State University Vincent Pizziconi is an Associate Professor in the Bioengineering Department at ASU. His teaching responsibilities are in the areas of introductory engineering, engineering design and biomaterials. His research interests are in innovative education in engineering and on the development of molecular, cellular and tissue strategies to develop bioresponsive and
Paper ID #18355Technological and Engineering Literacy Classes from different perspectives:A pilot studyDr. Mani Mina, Iowa State University Mani Mina is with the department of Industrial Design and Electrical and Computer Engineering at Iowa State University. He has been working on better understanding of students’ learning and aspects of tech- nological and engineering philosophy and literacy. In particular how such literacy and competency are reflected in curricular and student activities. His interests also include Design and Engineering, the human side of engineering, new ways of teaching engineering in particular
anengineering degree and write a reflective comprehensive report at the end of the course.Previously published results reported a positive impact on first-year engineering studentretention and performance after the first year of implementation of the DYP program. The resultsof the four-year longitudinal study confirm an increase in overall GPA and persistence for thefirst-year, but more remarkably it shows that the DYP program has a long term sustainable effecton student success. Results show statistically significant differences in GPA and persistence ratesbetween the DYP cohort and control cohort for all years. The DYP cohort showed higher overallGPAs: +0.53 year one, +0.33 year two, +0.31 year three and +0.26 year four (p<0.001, exceptfor year
the presented activities was performed byasking students: Please write something you learned after visiting each of the projects in today’sfield trip. Students were given a reflection worksheet at the first activity they attended and wereinstructed to respond to the same prompt after completing each activity. Student open-endedresponses were analyzed using a thematic data analysis approach [12-13].Content InterestStudent interest toward the outreach event activities was gathered by asking students to respondto a single question on a poster board: Did you learning something interesting from this activity?A poster board was mounted on the wall adjacent to each activity (Figure 1). The poster boardsincluded three response options selected by
often team-based and develops based on peer, colleague, and client feedback.attempted to address in this study. This is a validation study of an open-ended questionnaire, theViews about the Nature of Engineering Knowledge (VNOEK) Questionnaire, which was Elements of this framework reflect other NOE descriptions in the literature [9] [14] and it is alsodesigned to gather K-16 teachers’ views about the NOEK. The questionnaire was created as part supportive of those other articulations. However, it is not identical, and we needed an instrumentof
forentrepreneurship and innovation. Although studies have analyzed how students perceive this typeof training, few of them have unveiled its influence on behaviors and career goals. The formativeuse of the assessment instruments employed is limited, so more efforts are needed to evaluateentrepreneurial training towards its continuous improvement. This article proposes a methodologyto involve students in curriculum evaluation so they become partners in curriculum delivery andteaching practices. To explore its benefits, we applied it on a Major focused on engineering design,entrepreneurship and innovation. During classroom sessions of three Major courses, a form wasused to generate individual reflections and collective discussions about course methods
Feedback provided to learners (dialog, email, etc.) o Recommendations accepted/rejected o Instructor’s observations Simulation Output: o Last phase/cycle completed o Results of schedule, cost, range and quality o Final status charts o Final score Self-Reflection: o Reflection feedback provided to the learner o Learner’s reflection inputALATs provide the capability to visualize the experience performance data, userrecommendations, and user actions. Figure 2 shows a screenshot of the Learning Analysis Tool.For example, instructor could use this tool to visualize the weight recommendation for APSdepartment by a specific student, and analyze the actions made before each
potentiallymake improvements in curriculum based on these findings. Therefore, this paper takes theFirst-year Engineering Honors Program at the Ohio State University in the United States andthe Engineering Experimental Class at Beihang University in China as their case studies ofinternational comparison of the entire first two years’ curriculum. As an intermediary ofteaching activities and the basic guarantee of achieving educational goals, course is ablueprint and plan for cultivating what types of people. This paper takes courses as theresearch object, compares the whole course setting, and studies the syllabi of basic coursesand teaching methods reflected in the syllabi. Methodologies including text analysis,frequency analysis, comparative research
, being two faculty from the College of Liberal Arts (Interior Design program), onefaculty from the College of Agriculture (Landscape Architecture program), and three from thePurdue Polytechnic Institute (two faculty from Construction Management Technology, and onefrom Mechanical Engineering Technology). The authors´ academic ranks also vary, includingfour assistant professors, one associate professor, and one full professor.The methodology for this study includes collecting individual reflections from the facultyinvolved. Faculty members were provided with twelve guiding questions to help them focus ontheir expectations about this collaborative process and experience during the early planningprocess. All faculty members involved in the DCI
similar summer research programs offered at universitiesaround the country. The framework of the supporting features of Northeastern University’sprogram is what enables participants to succeed in the labs, build self-efficacy in STEM andprepare them for their academic journey into college. The weekly schedule is supported throughmorning homerooms during which a variety of topics and activities are introduced, in addition tolunchtime technical seminars, and field trips to local companies and research facilities. Utilizingformative evaluations, such as weekly reflections to inform program design and implementation,allows staff to make adjustments that might be necessary to ensure a high level of participant andfaculty satisfaction with the program
first course. Results of thisqualitative assessment were analyzed using a rubric developed to measure growth in perceptionsand attitudes. In addition, students wrote reflection papers about practical leadershipexperiences during their industry internships, using the guiding principles and themes of theprogram to illustrate what they learned. Students also synthesized their observations of industryleaders after shadowing each of two C-Level leaders.Early results from assessments conducted after the first year in the program indicate students aredeveloping significant self-awareness, building life-long skills and habits that will serve themwell as they assume greater leadership responsibility. Early results also indicate the necessity ofcreating
how it can be represented in a particularengineering discipline (Stages 1-3). Students then learn technical skills that can be applied to areal-world data derived from that same GC (Stages 4-5). Students end by reflecting on the skillsrequired for their problem solving and the relevance of those skills to other aspects of the GC(Stage 6). More details about each stage are provided in the following sections.Stage 1: Multi-Disciplinary Overview. The course instructor provides an overview of a GCtheme, often incorporating information from outside engineering (e.g., a guest technical expertfrom another field; general-interest or political/economic assignments; an in-class debate). Thisoverview (and the interactions with students) provides the
leading STEMeducation transformation by capitalizing on and challenging organizational norms to facilitateand secure meaningful change.9,10 We intend to foster co-establishment of new routines towardsSTEM education improvement that build on and attend to the social resources within theinstitution11 by uniting those possessing pertinent pedagogical and content knowledge and skillsand those with typical administrative power via a distributed leadership model.12 Our intent is tofoster a continuously growing “choir” that can enact and sustain change through their work atvarious organizational levels and structures via emergent change strategies to create reflective
is a doctoral student at Texas A&M University. Her research interests are in meta- analysis, Bayesian methods, and latent variable modeling.Dr. Debra A. Fowler, Texas A&M University Dr. Debra Fowler serves as the Director of the Center for Teaching Excellence at Texas A&M University. Following 16 years working in industry she completed a Ph.D. is in Interdisciplinary Engineering with a specific focus on engineering education from Texas A&M University. Her research areas of focus are faculty perspectives and growth through curriculum design and redesign, interdisciplinary teaching and learning, reflective eportfolios and professional development of graduate students related to teaching.Dr. Raymundo
activitiesrequire some low-level processing on the part of the student, reflecting tasks such assummarizing information, interpreting graphs, and collecting data. Level 3 tasks generallyrequire students to apply content and skills they have learned to complete activities such asanalyzing data, explaining using course concepts, and revising work. Last, Level 4 tasks such assynthesizing, designing, and reflecting on one’s own learning require the highest level ofcognitive engagement. In addition to these nuances of student activity, the protocol also capturesthe instructor’s stated learning objectives for the class and the observer’s judgment of thealignment between the objectives and the classroom activities.The ELCOT and Existing Observation Protocol
goal of developing“Changemaking Engineers”. This revised canon teaches technical skills within a contextualframework that includes humanitarian, sustainable, and social justice approaches. This requires acurriculum that includes a focus on student teamwork, a greater consideration of social factors,improved communication with diverse constituents, and reflection on ethical consequences ofdecisions and solutions. This broader perspective of engineering practice will produce graduateswho can address a wider range of societal problems bringing new perspectives to traditionalareas. In this paper, we review our recent efforts towards achieving this vision, focusing on thedevelopment of curricular materialsSummary of course materials developed and
. in English from the University of Maryland. c American Society for Engineering Education, 2018 Toward a More Caring Code of Engineering EthicsAbstract: Despite recent scholarly work that emphasizes the importance of the ethic of care inengineering practice, care ethics are not reflected in most engineering codes of ethics. Rather, thecanons of these codes more often reflect traditional “universal” moral principles. Since despitetheir limitations, the codes of ethics are important aspirational and normative value statementsfor the profession—and are frequently used to teach engineering ethics—this paper proposes thatthe codes should include canons that reflect the ethic of care. The paper
in 2003 through the development of an instrument focused on peer and self-assessmentcalled the Comprehensive Assessment of Team Member Effectiveness. The system enhancesteam development by creating accountability and feedback for team members, suggesting thatteam members and instructors have a positive team learning experience.Capstone Courses – Multi Institutional Collaboration. The previous work by the multi-institutional collaboration identifies the current work done in many capstone courses includingthose factors that are measureable1. Those measurable factors3 are included in CATME, thus theauthors have chosen to use note taking 4, filing 5, goal setting6,7, and other reflective open ended Proceedings of the 2018
to identify success at higher cognitive levels. ‚ Improve the quality of course learning objectives to foster higher level cognitive abilities required for success in the engineering profession.Kolb’s Learning Cycle. Kolb11,12 developed a system of selecting classroom activities basedupon his research related to adult learning. As schematically shown in Figure 1, there are four“quadrants” of ways that people learn: concrete experience, reflective observation, abstractconceptualization, and active experimentation. Two of these stages, concrete experience andabstract conceptualization, operate in the realm of knowing (how they perceive) while the othertwo, reflective observation and active experimentation, involve
consciousnessand is derived from two major engineering disciplines; chemical engineering and materialsengineering. It seeks to develop both knowers, who remember information and cansystematically repeat skills, and learners who can create, apply, modify and adapt concepts.The main thrust of this subject is a meta-cognitive one. Meta-cognition is the consciousnessof knowledge about knowledge and is based on the assumption that knowing about knowingaffects learning. In this subject • Students will be encouraged to think critically and monitor their understanding; and • Students will reflect not only on what they know, but on how they know itBecause new knowledge and skills are introduced in this subject, a more traditional pastoral-type educational
following reasons: • Kolb’s LSI was designed specifically to examine adults in learning environments; • Kolb’s LSI results can be used by both individual learners and learners working in groups; • Kolb’s LSI is readily and easily generalized to a wide range of disciplines; • Kolb’s LSI offers benefits for learners, teachers, and researchers interested in breaking; down the barriers that separate many learners from traditional methods of instruction22.As engineering educators and researchers, we share two major goals: (1) to identify the learningstyles and needs of engineering students, and (2) to disseminate this knowledge in a manner thatpromotes curricular modification to reflect these findings. The Kolb LSI, therefore
still fresh in everyone’s minds), the instructors conduct project retrospectives by asking students about aspects of their work or process during the latest project iteration that they would like to sustain (i.e., continue doing well in the future) and aspects that they would like to improve on. Actual artifacts from two of these discussions are shown in Figure 1.Figure 1. Digital ink artifacts from in-class retrospectives that followed the Sustain / Improve technique. The noteswere taken by the instructor, while the students were reflecting aloud. The technology behind creating theseartifacts is a Tablet PC application that integrates ink with slides
strategies for problem solving and revising41. Peer review providesstudent reviewers with frequent opportunities to practice problem-solvingstrategies important for improvement. Peer review activities may provide thereviewer with concrete and solid experiences on how to improve problem solvingby connecting diagnosed problems with solution types42. Participating in reviewencourages student reviewers to reflect upon their own skills while examiningpeer work43-44. Online videos changed the way we create, view and share videoonline today. With smartphones like the iPhone, and phones running on Androidand Windows operating systems, it’s effortless to create and share video using thebasic features the phones offer. Videos can be an effective media to