plan of action to address areas that the WES would like todevelop further; and (d) four group workshop sessions which focussed on personal and career-related issues, namely, True Colours, a Team-building exercise, Assertiveness and ConflictManagement, and Portfolio Development 13. External training providers presented workshops onthe choices that women face in their work and personal lives and on how to dress and behaveprofessionally in the workplace 6.The principle was accepted that social support affects course achievement, as proposed by Marraand Brogue 9. Therefore, in an effort to provide social support and create an identity for womenengineering students, the engineering school secured its own WELA homeroom. In addition, inan effort to
. The supporting web site for theproject is currently under development, is concept mapped based, built upon studentinput/assessments, and targeted to address known conceptual difficulties in MSE. Theconcept map base for the project is reported in this paper. The paper concludes with adescription of the remaining objectives for the iCollaborate project for the next academicyear and further dissemination plans. At the conclusion of the project, all materials willbe placed on the NSF sponsored National Science Digital Library (NSDL).The National Science Foundation is supporting the project (NSF CCLI/TUES #0941012).IntroductionThe iCollaborate Materials MSE project is a comprehensive research program that has anoverarching goal of improving
-profit colleges may be left out of emerging highreputation online course networks. However, the continued growth ofconventional online programs can benefit the credit ratings of brand-name andniche institutions, especially if the well-reputed institutions band together aroundonline offerings to reduce operating costs (Martin, 2012). On the other hand, ifthe reputable institutions rush too carelessly into MOOCs, they could end upreducing their educational stronghold by diluting their brand. Thus, it is importantfor universities to plan carefully their long-term goals in entering the the MOOCmovement, and control the quality of the courses being posted (Lewin, 2012b).This paper is organized as follows: Section 2 reviews and compares the
information about the process of research. Many of the ideasand plans in place or in progress at the nation’s research institutions are based on ideas laid out inthe Boyer Commission report [6] that highlights an integrated education through undergraduateresearch opportunities.Many of the larger public research schools struggle with low retention rates in STEM. Forinstance, at Washington State University freshman to senior retention in engineering is 48%. Asnoted in the literature [7], many STEM fields use undergraduate research as a capstoneexperience, held until the end of the curriculum as a culminating experience. However, it has Page
team) Oral Proposal/Conceptual Design Review, distribute requested hardware for payloads Solder one Verhage BalloonSat EAsy flight computer and 3-sensor weather station7 Watch move “BLAST” then write an essay on science/engineering, work with peer editor Construction of payload shell – integrate camera, HOBO, flight computer, heater, etc. Program HOBO and flight computer, test camera, conduct “Day in the Life” testing in lab Intersperse building with mini-lectures on Spacecraft Systems and Systems Engineering Submit “Rev. A” of Team Project Doc. – includes Design, Predicted Budgets, Test Plan Structural/strength testing (drop test, yank test) and thermal testing (cold soak) of payload Oral
pressure on the instructor. No longer can theinstructor come to class with a clear, well-defined script for the day’s lecture. Instead, theinstructor finds himself metaphorically “negotiating a swiftly flowing river” in class.15 Thisrequires agile teaching and the flexibility to deal with the unexpected, which is perhaps outsidesome instructors’ comfort zones, particularly for novices or those not confident of the subjectmatter.3 Additionally, it encourages the instructor to give thought beforehand to possible studentmisconceptions and alternative routes for constructing correct understandings, so that on-the-flyadjustments may be more effective. Also, the insights gained by the formative assessment canbe useful for planning subsequent class
application of the collaborative inquiry process was in alignment with the liberatorypedagogy of the Highlander Research and Education Center (the popular education centerfounded by Horton) detailed in their “Methodologies en Color” brochure [22]: “Start withparticipant experiences, look for patterns between those experiences that can highlight sharedstruggle, add new information/theory, practice skills, strategize and plan, take action to changethe world, reflect, and return to the beginning of the spiral!” [p. 1].To help facilitate this process, we borrowed from the “Deepen” experience utilized in theRemaking Education event hosted by Olin College of Engineering and Emerson College whichSarah had attended in Boston in 2018 [45]. We shared stories
How does what you learned in this course compare to what you’ve learned in courses with a traditional format (i.e., lectures and exams)? o What challenges did you face during the course? How did you overcome those challenges? • Have you been able to apply what you learned to your research? If so, how? If not, can you foresee applications in the future? • Did the course impact your perspective about how engineering graduate courses should be taught? If so, how? If not, why not? • Has this course impacted your future career plans and/or your preparation for your future career plans? If so, how?Across the reflection questions, students reflected on the role of themselves, their peers, and theirinstructor in the learning process
Technology) from Moi University in Eldoret, Kenya. I am extremely passionate about teaching and public information dissemination. Creating a safe, friendly and productive environment for my target audience to learn is my top priority. With a strong background in electrical engineering, I am a meticulous python programming-based data analyst with vast experience working with a variety of synthetic aperture radar datasets, arising from my two years postgraduate research studies as a Master of Engineering student. A Critical thinker continuously looking at ways of improving teacher-student engagement processes, I am adept in organizing work flow, creating lesson plans, presenting ideas in a compelling way, interacting with
, leadership plan tasks, and meet objectives 6. an ability to develop and conduct appropriate creativity, attention to detail, experimentation, analyze and interpret data, and use data modeling engineering judgment to draw conclusions 7. an ability to acquire and apply new knowledge as educational commitment needed, using appropriate learning strategies.The comparison of the list of valuable engineering skills to the student outcomes in Table 1 showsa clear overlap indicating that the identified engineering skills are required for achievement of theABET student
sources [11]. These goals werereached by creating plans and developing route maps available to the public. Scotland nowincludes electricity as one of their major exports [11]. These efforts have created jobs as the useof onshore wind, hydro, solar, offshore wind, and biomass have become the leading sources ofrenewable energy [11]. In a focus group, Scottish residents shared their views on carbon captureand its potential drawbacks [11]. The majority viewed carbon capture as a "very good idea," butmany expressed a preference for increased use of renewables. Scotland's example illustrates thatcitizens who benefit from reduced carbon emissions are likely to support further decarbonizationefforts. Americans remain sharply divided on the extent
elaborated an individualized mentoring plan (IMP) and had lab-based research in amulticultural group of undergraduate and graduate students. The results we present are two-fold.First, we present the experimental research that students conducted on the use of rural wasteplastics (i.e., GBWP) in asphalt mixtures and the technical outcomes of that research. Second,we present a reflection from the undergraduate student in this experimental research, includingher main motivations to engage in research extracurricular activity, her learning outcomes, andthe impact of this experience in her career trajectories.Accordingly, two major goals (Research and Education) and deliverables are included in thispaper: • Research Goal: User-Inspired Research
feedback and firsthand observation to ensure that the final design is working as planned and meeting all project requirements.We will now share an in-depth breakdown for the reader on how we used the 6-step processnoted above to go from our problem description to a system-level final design.1. Understanding the problem: The problem solving process began with understanding the core problem and its importance.Without an understanding of the problem, it is impossible to start formulating solutions andwithout a clear understanding of its importance, the motivation behind finding a solution canbecome unclear. Given the open-ended problem of using the visual looming algorithm to keep awheeled robot a given distance away from an object, the
experience of reporting to leaders and other team members. What strategies do you use to show respect to others on your team? Strategic Planning Discuss how you label tasks and deadlines. How would you describe your organization process? How could your organization process be improved? Ensuring Fair Work Discuss your teammates’ strengths, positions, and workload. Distribution How was work divided amongst the team? Do you think that the workload was fair? Why or why not? Closing Prompt Please upload any applicable files from your “Level 1
and PhD in STEM Education from the University of Texas at Austin.Dr. David B. Knight, Virginia Polytechnic Institute and State University David Knight is a Professor in the Department of Engineering Education at Virginia Tech and also serves as Special Assistant to the Dean for Strategic Plan Implementation in the College of Engineering. His research tends to be at the macro-scale, focused on a systems-level perspective of how engineering education can become more effective, efficient, and inclusive, and considers the intersection between policy and organizational contexts. Knight currently serves as the co-Editor-in-Chief of the Journal of Engineering Education.Dr. Maura Borrego, University of Texas at Austin
is currently an Associate Professor in the Mechanical Engineering Department at the Milwaukee School of Engineering (MSOE). He completed his doctoral training at the University of California-Irvine where he was a National Science Foundation Bridge to the Doctorate Fellow. He completed his master’s degree at the University of Wisconsin-Madison where he was a GEM fellow and Graduate Engineering Research Scholar. He also holds a bachelor’s degree from University of California San Diego. His interests include robot control, design of mechatronics systems, pneumatic actuation, motion planning and optimal control. ©American Society for Engineering Education, 2024 Simulation and Control of
strengths may helpmitigate the sense of isolation that some CSt report.Adopt Supportive Policies and Programs Time constraints, one of the main challenges of CSt, canbe eased by a variety of policies. For example, providing CSt with priority course registration,[21] an option sometimes offered to student athletes, would likely make it easier for CSt to plan acourse schedule that meshes well with their childcare arrangements. Policies that allow CSt aleave of absence could be helpful.[43] Support for CSt is often ad hoc,[24] although formalpolicies (e.g., for lactation time and space) may benefit students. [44]Other resources for CSt might include a parent resource center, playgroups, and clothingexchanges. [9] A CSt support network, which CSt
Percentage To get advice in career planning 15.5% To polish up my résumé 12.3% How to network with professionals from industry 11.5% To gain knowledge of opportunities related to my career interest 10.7% To know more about the profession related to my major 10.4% To improve my interviewing skills 10.4% To learn about work expectations in industry 10.1% To get general guidance and tips
academic programs and courses that align with the goals and priorities of your multidisciplinary initiative? 9. What challenges do you anticipate facing in the coming years, and how do you plan to address these challenges to ensure the continued success of your institute?Interview Question 3 asks about key factors for success and adds a temporal element to thediscussion. During the interview participants were shown the mind-map illustrated in Figure 2and asked to indicate which factors were most important during different stages of the life spanof an interdisciplinary initiative. Based on the researcher’s experience developing andparticipating in interdisciplinary initiatives, the illustration shown in Figure 2 was created as
ever but on the other not having a long-term plan for the implemented systems can lead to non-functional systems and take on a more traditional service-learning approach. Also, having students work on projects for only 1 semester during the year is not ideal. At OSU an attempt is currently being made to involve capstone students who are part of the global capstone program who have more time to start working on these projects in the previous semester and thus offering some continuity.g. A never-ending course for the faculty - While community-based learning courses are typically only offered for a semester, effectively maintaining the relationship and the projects is a yearlong commitment. The off-semester work is often not
aid resources [3]. Community college students are also more likely to work full timewhile attending school. Nearly half the population of working students pursues a communitycollege degree [4]. Many students feel pressure to amend their academic plans to their workschedules, making it difficult to maintain regular academic progress [4], [5], [6].Financial barriers pose a significant challenge for community college students aspiring to pursueSTEM four-year university degrees. Students who work outside the university often face a dualcommitment that splits their focus, energy, and time between education and employment,impacting their ability to concentrate on academics [7], [8]. Due to the difficulties that balancingan outside job can present
computational thinking, relying on visual aids to develop a set of classification rules for images. This approach illustrated the transformative power of computers, i.e. if 6 participants developed 10 effective classification rules in one hour, a computer could develop a million in a minute. The purpose of this exercise was to encourage the use of the “right tool for the job.” ● Large team exerciseThe large team exercise combined all the red, and all blue teams into two different groups, to applytheir combined, “same side”, innovation and technology knowledge to imagine plausible next stepsfor their integrated circuit manufacturing company. At the end of the activity learners were askedto present their plans and compete for a
laboratory an efficient working cell bank vial, a set number of shake protocols bioreactor seed flasks, wave bags, and bioreactors of set volumes, • Optimizing a train and growth information about the cells, all while process trying to minimize the seed train duration and • Making decisions plan for the risk of contamination. Module 3: Scale- Given the protocol, column dimensions, and • Optimizing a up and fit to dynamic binding capacity for a lab-scale protein process plant assessment A process, assess fit to plant for a 12,000 L • Making decisions for protein A bioreactor with expected titer and harvest ranges
(Table 3) ABET4 Recognize ethical and professional responsibilities in engineering situations and make informed judgements, which must consider the impact of engineering solutions inSignificant global, economic, environmental, and societal contextsLearning - ABET5 Function effectively on a team whose members togetherProfessional provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives ABET7 Acquire and apply new knowledge as needed, using appropriate learning strategies Table 3. “What” code levelsLevels
situations like the National Oceanic and Atmospheric Administration (NOAA) satellitemishap [36]. Table 2 lists several important modes of communication that engineers employ.Table 2: Modes of communication covered by the lecture. Mode Definition Design Reviews A way for teams to communicate their progress and concerns about a design Contain numerous photographs depicting an artifact to help the audience Inspections visualize an artifact's condition Presentations Verbally and graphically present designs/results to colleagues Public Meetings Communicate what plans or decisions are being made on a project Lab Reports Factual presentations of
curricularofferings from June 2020 to June 2022. They were tasked with changing or creating a minimumof one course and were asked to share teaching resources/tools created and to provide lessonslearned and feedback on the use of the EOP Framework in curricular changes. Grantees werealso offered up to $10,000 in supplemental funds to address challenges and opportunities thatemerged after the first year, which was marked by the COVID-19 pandemic. The project wasguided by an evaluation plan co-created with VentureWell and The Lemelson Foundation, andVentureWell supported peer learning through a Community of Practice.2022 - Scaling for Impact WorkshopIn June 2022, with the support of the National Science Foundation (NSF) and the collaborationof The Lemelson
lectures to the end of identifying andmodeling systems requirements in addition to developing security plans and implementing adatabase.Intercultural Competence InterventionInorder to help students understand the need and importance of intercultural competence, twoportable intercultural modules (PIM) focused on intercultural competencies were integrated intothe course. These PIMs were introduced in the 6th and 10th week of the semester, respectively.Both PIMs required students to view videos and complete activities and readings, followingwhich their knowledge was tested in the form of quizzes and written reflections. The two specificPIMs that were utilized in this course, and they are titled “Productive Conflict” and “TrickyCommunication: Intent
problem contexts that students would encounter in appliedscenarios. However, this idealized practice schedule can be at odds against the demands of thecourse syllabus schedule. The breadth of concepts that a ChE course must cover in its syllabus, especially one thatis part of the core curriculum, limits both the amount of time and instructional strategies thatlesson plans or homework can prescribe to a particular concept[2], [3]. This in turn can detractfrom students’ targeted practice on a particular concept to either not sufficiently demonstrate allcontexts or attempt to do too much at once within problems that can then strain the number ofcognitive tasks students can successfully complete[4]. To bolster concept application
, reproduced from 21 • Independent study: students are encouraged to work outside of the classroom (alone or in groups)In this section, we describe how we have structured the course to leverage these different teachingstyles.3.1 Backwards DesignThe Backwards Design approach to teaching can be described as follows: “learning outcomes areidentified first, the evidence of how achievement of the results will be assessed is determinedsecond and, finally, the learning activities and instruction methods are planned, with the mainpriority being the students’ engagement through active learning” 21 . This can be implemented in aclassroom using the ‘Understanding by Design’ framework 22 . This approach has beensummarized in Figure 1, reproduced
, preparation program, roboticsBackgroundTo foster industrial projects, collaboration among academia, industry partners, and students isessential. However, such collaborations present challenges, including disparate outcomeexpectations, limited support, and a common deficiency in contemporary technicalknowledge and hands-on competency among students. In response to these challenges, theengineering faculty at the University of Hong Kong established the Tam Wing FanInnovation Wing (also known as the HKU Inno Wing) [1]. The aim is to engageundergraduates in interdisciplinary experiential learning and tackle real-life technologicalchallenges. Inno Wing first establishes a mutually beneficial collaboration plan, includingclear objectives and commitments