Session 3213 Mid-semester feedback enhances student learning Ranil Wickramasinghe, William M. Timpson Colorado State UniversityAbstractSoliciting mid-semester student feedback encourages a more responsible attitude by thestudents as they reflect upon the course. Making use of a third party facilitator to obtain thisfeedback results in constructive suggestions by the students. Implementation of some of thesesuggestions, will often result in an improved learning environment. A junior-level fluidmechanics course was modified over a two-year period. These modifications together
“Feeling” Active Experimentation Reflective Observation “Doing” “Watching” Convergers Assimilators Abstract Conceptualization “Thinking” Page 4.520.3 Figure 1: Kolb Learning Styles (Kolb 1976)More recently, Felder and Silverman developed another learning styles assessment tool, namedthe Index of Learning Styles (ILS). In contrast to Kolb’s LSI which was
successful in theclassroom?”. Unfortunately, “success” is (at least initially) hardly ever defined as obtaining theprescribed end-of-course objectives. Rather, the focus is on what the instructor must do (beenthusiastic, knowledgeable, interactive) to ensure that the students succeed. Clearly, suchefforts are helpful and should be encouraged. Page 4.276.3However, do such efforts ensure that the desired outcomes will be reached, or can we do more toprovide a greater opportunity for success? The proposed model provides each instructor with anopportunity to reflect (along with his/her peers) on this very question. The model itself does notprovide
contrasting but complementaryattributes. Lecture, representing the classic classroom type of activity, generates thelighting knowledge background necessary for interacting with design exercises. Lecturesinvolve a narrative mode of delivery and employ examinations as one measure of studentattainment. Design synthesis, representing a typical laboratory type of activity, developsthe skills and abilities for producing lighting design solutions. Synthesis exhibitsprescriptive and creative modes of work and expresses its outcome in such means asdrawings and reports. Case studies emphasize analyzing and researching building lightingsystems, both in the field and in the laboratory environment. Case studies exhibitexploratory, reflective modes of work and
coding scheme adapted from a related study by Song, Guoand Thuente [1], focusing on density, organization, and content of the study sheet. The codingcriteria are explained below and summarized in Table 1.Density: • A study sheet is considered dense when both sides of the paper are covered, leaving minimal vacant space. This indicates the volume of information on the paper and the effort invested in crafting the sheet. • Very dense sheets may suggest inadequate preparation for the exam, potentially reflecting a last-minute effort to compile material for use during the test. Dense sheets may not necessarily indicate a strong understanding of the course concepts. • Very sparse sheets may suggest a lack of time
reflected on why understanding redlining andother social justice issues are important to their future careers as civil engineers. This paper describeswhat was done in both classes and reflections from both students and instructors.IntroductionService-learning and community-based learning are proven pedagogical approaches used across multipledisciplines and educational levels to bridge teaching and community engagement (Billig, 2000; Kuh,2008). Over the course of decades, research demonstrates the benefits of service-learning (SL) to studentlearning (Warren, 2012), satisfaction (Drinkard & Tontodonato, 2019), engagement, and retention(Bringle, Hatcher & Muthiah, 2010). This paper describes how information on redlining wasincorporated into a
engineering education, CBE provides a transition from universityto industry. Many parallels exist between CBE and industry practices, in particular thosesurrounding design-based concepts. In industry, new-product development (NPD) requiresattention to detail at the individual project, business, and systems level to create a successfulproduct launch [2], whereas university engineering design courses tend to focus on the individualproject level. Cooper’s [2] NPD success drivers often reflect the type of skills that are a focus inCBE. For individual new-product projects, overlapping concepts include voice-of-the-customer,pre-work, definition, and iterations. Building in the voice-of-the-customer may involve marketresearch for businesses, whereas
construct definitions that reflect more than just our own perspectives on makerspaces. Thepurpose of these definitions is to guide the creation of survey items and interpret the results ofthese items as they coalesce into factors.The second phase of our project, Item Generation and Judging, is focused on writing andrevising survey items with different sources of feedback. First, taking the construct definitionsgenerated in the previous phase, we will create a set of survey items associated with each of theconstructs we wish to measure. Second, we will ask experts in makerspaces and experts ininstrument development to review our preliminary items in terms of their alignment with theconstructs and their writing. With the expert feedback in hand, we
. ©American Society for Engineering Education, 2024WIP: Using ePortfolios to Enable Life Project MentoringAmong First-Year Engineering StudentsConstanza Miranda 1,2, Mareham Yacoub 1, Rachel McClam 21 Johns Hopkins University, Whiting School of Engineering.2 Johns Hopkins University, Biomedical Engineering Department.2 Johns Hopkins University, School of Education.AbstractThis is a work in progress. ePortfolios are portfolios in electronic form. These are known topromote folio thinking, a reflective technique that allows students to describe their learningexperiences through a purposeful gathering of objects. This systematic gathering of proof oflearning and professional development could also empower students as they build a digitalpresence
processing between meetings, (2) group discussion and processing of ourexperiences at our bi-weekly meetings, and (3) at the conclusion of the term, an iterative processof individual and collaborative review of our reflections and notes to identify and thematicallyorganize key observations and results.Our Stories (In Brief)Each of us came to Purdue University in the Fall of 2023 from private, teaching-intensiveinstitutions with enrollments between 2,500 and 3,500 students. We differed in our depth ofteaching and industry experience, which is summarized in Table 1.Table 1. Prior Teaching and Industry Experience of the Authors Author Teaching Experience Industry Experience Steve Assistant Professor (NTT
results in written and oral reports.The satellite communications project provides excellent applications of important concepts ofsignals: time shift, amplitude scaling, delay, echoes, and fading. We introduced students to asatellite communication system where a signal is transmitted from a ground transmitter, receivedby the satellite after some delay, and reflected back to the ground receiver. Students analyzed thesignal received by the ground station as the sum of the signal sent from the station and the signalreflected back from the satellite. This interesting project helped students to review sinusoidalsignals, phasors, power, and to understand the effect of delays, echoes and fading. In addition,the students simulated the system using
development of a program related task and guide students to higher levels of learning onBlooms Taxonomy through the development of student created learning aids.One specific need was reflected in the disparate skills of our majority component of ‘transfer’students in our programs. Through informal observations the authors realized students simplydid not have familiarity with the equipment at our facility (as opposed to their previousexperiences elsewhere). In this study, the authors target one simple skill relevant to resistancewelding that could be used as an introduction to metallurgy concepts (welding band saw blades).This student project was used not only to provide students with a practical skill for theirapplications toolbox but additionally as
wouldn’t be GHWHUPLQH DQ DSSUR[LPDWH ORFDWLRQ" precise enough for a determination. But there was a way to answer the challenge: send a pulse of current down the cable, and measure the time required to see the “reflection” of the pulse come back to the source after it encountered the broken end of the cable. The concept is called Time- 3147 48(67,216 7UDQVPLVVLRQ/LQH 6XSSRVH WKH YHORFLW\ IDFWRU RI WKH
eye ailments, checking blood pressure and heart rythyms, administring first aid, and offering medical advice. 2,3The teams of students visiting since 2008 have noted the hospitality of the Ghanaian people andtheir willingness to accept them into their homes and villages. Many students reflected on themutual respect that they shared with those they encountered; as the 2014 team described theirexperience, they said “we also owe a lot of our success and happiness to our new friends we metalong the way in Ghana… [They] helped transform Ghana [for us] from a place to do someprojects into a second home.” 4 This team undoubtedly experienced the importance ofinterpersonal relationships and their strength in accomplishing the teams
. Integrated class experience refers to an at-home effort that includes activities that range from education in the language, customs, history, and government of the country in question. (Downey et al.2)This paper describes the evolution of an international collaboration between the University ofCalgary (UCalgary) in Alberta, Canada and Shantou University (STU) in Guangdong Province,China. The collaboration is best described as a hybrid between International enrolment,International project, and International field trip. The paper begins with a history of theprogram. Next is a description of how Transformative Reflection was used to help the programevolve. This section is followed by how the program and workspaces have evolved from year
permanentlysupport research and innovation processes. One of the proposed spaces is Thematic Cafes (CafésTemáticos), which is a methodology for knowledge management through knowledgedissemination, collaborative work and socialization experiences. In this way, both spaces notonly enabled permanent collaborative work, but also promoted constant reflection, update andmonitoring of the different educational research, and management of permanent renewal of thecurriculum.Our proposal was also coupled with curricular, educational, methodological and assessmentstrategies, allowing not only to transform classroom practices and academic programs, but alsothe processes of curriculum management, teaching, research and management of an institution.These strategies
--learning by attempting to solve anopen-ended realistic problem--is effective. So one joint objective of each team was to find a goodchallenge problem.“…students have a difficult time understanding all the different parameters and boundaryconditions that go with each of these models [of light propagation]. So what we had was alearning problem. Students have a hard time learning which models to use and understandingeach of the models and we needed a different approach to teaching this and learning it. So whatdid we do? Well, we gave the students a design problem actually. We asked them to come upwith a method of measuring the oxygen content inside somebody’s head.” [quote from faculty 1]The LS helped by posing reflective questions such as ‘what do
my Interest Did this program affect your interest in engineering in any 71% 5% 18% way? Definitely Sort of Not Sure No Did this program make you feel more confident about 48% 24% 28% 0% your ability to learn math and science? In addition, students were asked two open ended questions about what they likedmost and least about the lesson and its related activities. Their comments reflected thatthey enjoyed the hands-on activities such as using the shake table and building their ownstructures. Students described the
doing a good job of teaching, andmay unnecessarily drop the course or drop out of school. While the instructor may be partly at Page 10.1482.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering Educationfault, the student’s performance can usually be improved through better preparation andimproved metacognitive knowledge monitoring.Metacognitive knowledge monitoring is the skill of reflecting on one’s learning to judge yourlevel of mastery. Research on metacognitive knowledge monitoring has demonstrated
providing peer-mentoring for untenured women faculty members, an Outward Bound-based Leadership Skillsand Community-Building Workshop was held in August 2001. Participants included 14untenured women faculty in engineering (including two of the organizers/authors), apsychologist (the third organizer/author), and one invited senior woman faculty member inengineering. Based on post-workshop participant reflections, significant positive impact onparticipants’ informational, psychosocial and instrumental well-being was achieved. Allattendees noted that the inclusion of a senior woman engineering faculty member greatlyenhanced the value of the workshop. The peer-mentoring network that resulted from theLeadership Skills and Community-Building Workshop is
the likelihood that learning objectives aremet. Toward that end, applicable classroom approaches and course characteristics wereidentified. (The authors currently use some of the following approaches and characteristics):§ Problem based learning: the classroom process that uses “real world” problems to motivate students to identify and apply concepts, principles and information 4,6§ Experiential learning: learners act and think, not just think, to integrate concrete experience, reflection, generalization (abstract conceptualizations), and experimentations 7.§ Cooperative team-based learning activities with team and individual deliverables 4,8§ Self-directed constructive learning with peer teaching and faculty coaching in the delivery of
conceptualizing, applying, analyzing, synthesizing, and/or evaluating information gatheredfrom, or generated by, observation, experience, reflection, reasoning, or communication, as a guideto belief and action.8 Questions relating to engineering’s impact on social, political, cultural, andeconomic systems are not often addressed in standard engineering curricula. This paperdemonstrates how various pedagogies in the liberal arts like the “global thinking” routinesdeveloped by Boix Mansilla could be adapted for engineering and science education and couldaddress these deficiencies.7 Liberal Arts are Needed in STEMThere are numerous articles in the popular and academic press that highlight Big Tech’s desire toemploy individuals
science calculations and design considerations. We hypothesize that theprocess of reflection and iteration inherent to hackathon competitions will strengthen theparticipant groups’ perceived EJ skills. Finally, engineering leadership (EL) skills relate to theleadership style(s) used by individuals to lead groups of engineers to achieve a common goal. Aneffective leader exercises influence at interpersonal, team, and organizational levels, whilesimultaneously building strong relationships. We hypothesize that in the absence of a well-structured project, the need to delegate tasks among team members and develop solutionsquickly will increase the perceived EL abilities of participant groups.To frame this study, we will use the Buck Institute of
activities in freshman engineering design course. Pre-activity surveys and post-activity reflection instruments are currently being developed and willbe presented for the assessment of students’ appreciation for diversity, improved intrinsicmotivation and quality of performance.KeywordsDiverse Teams, Engineering Design, Culture-inspired design activities, intrinsic motivationFreshman students’ well-beingThe first year of college constitutes a time of substantial transition for incoming students. As aresult, a great deal of attention has been paid to improving college students' first-yearexperience(Bowman 2010). Research on the well-being of diverse college students has focusedlargely on adjustment processes that are specific to the college
formulated with several objectives: • Encourage students to reflect on thermodynamic concepts and link them to more concrete applications. • Enable students to communicate thermodynamic concepts using media or methods they felt comfortable with. • Connect more directly with students in a large lecture environment. • Foster a collaborative learning environment in the classrooms as students engaged with other student projects.The specific project described was also intended to address needed pedagogical elements in theclass. Felder et al. has identified several types of learning styles including visual, verbal, sensing,intuitive, global, sequential, and more.10 Felder recommends that engineering instructors focus noton specific
areas and organized to provide students with understanding andexperience applying engineering leadership principles, practices, and tools in a multiculturalcontext. Students are required to complete seven credit hours of core courses and nine credithours consisting of one experiential course and other elective courses of their choosing (SeeAppendix A).Core classes (Student Leadership Development, Planning for Leadership Development,Portfolio: Experiential Engineering Leadership and Reflection on Engineering Leadership)within the minor will be offered in-house and allow students to work closely with faculty andstaff, in the College of Engineering, in the development of engineering leadership portfolios(discussed in details below) and reflections
researcher-practitioner divide is essential to progress. Page 23.1367.22 Approach2.1 Overall Study DesignOur overall study design was a multiple methods approach consisting of (1) a mostly closed-ended survey of thermodynamics instructors at ABET-accredited engineering programs in theUS; (2) open-ended surveys/reflections of practitioner collaborator-consultants, recruited fromamong survey participants to implement engineering education innovations in theirthermodynamics courses; (3) open-ended surveys/reflections of student participants in courseswhere engineering education innovations were implemented; and (4) qualitative analysis ofstudent work in
Engineering Education at Purdue University. He keeps a balanced life connecting with nature, staying mentally, physically, spiritually, and socially active, constantly learning and reflecting, and challenging himself to improve. He is interested in learning/teaching collectively, engineering philosophy, and social and environmental justice. His purpose is to help people freely and fully develop in a sustainable world.Mr. Leonardo Pollettini Marcos, Purdue University Leonardo Pollettini Marcos is a 3rd-year PhD student at Purdue University’s engineering education program. He completed a bachelor’s and a master’s degree in Materials Engineering at the Federal University of S˜ao Carlos, Brazil. His research interests are in
Experiential Learning (EL) components in coursesat the freshman, sophomore, junior and senior levels (vertical integration). The design of theseEL components will be based on revised Kolb’s theory of EL, which include contextually richconcrete experience, critical reflective observation, contextually specific abstractconceptualization, and pragmatic active experimentation. The vertical integration of ELcomponents can supplement classroom learning with real-world problem solving, whoseoutcomes include professional communication, teamwork, self-guided learning, observation, andreflection.The PIs will develop and implement EL components in six unique courses at the CEMTprogram, including five regular lecture-based courses and one existing EL course
manufacturing, visits to local companies usingsemiconductors in their production lines, tours of local higher education fabrication andexperimental lab facilities, and designing and prototyping various microelectronic systems. Theprogram and participant experience were evaluated based on understanding students’ change intheir sense of belonging and self-efficacy, career aspiration, and knowledge and skills associatedwith the semiconductor ecosystem. Data collection involved pre-post survey results, students’daily evaluations of the program activities and reflections, and focus group responses.The analysis, employing inductive coding of responses and related pairs analysis on pre- andpost-survey sections, revealed positive outcomes. These findings