% Quizzes/Attendance: 15%Homework: 20% Homework: 30%Research Proposal: 50% (comprised of): Research Proposal: 25% (comprised of): Outline 10% Outline 5% st st 1 Draft 10% 1 Draft 5% Final Draft 10% Final Draft 5% Presentation 10% Presentation 5% Peer Review 10% Peer Review 5%ExamsThere will be two exams, mid-term and final. Exams will occur in
“fresh start” when they begin theircapstone project.At the end of the AGV project we ask the students to reflect on their experience both on thetechnical and interpersonal dimensions. On the technical dimension, the project report requiresthe students to explain how they tested the subsystems, how they performed integration testing,and to evaluate how their prototype met (or failed to meet) specifications. The AGV reportevaluation rubric is shown in Appendix A. Regarding the human dimension, each student isrequired to submit a peer-assessment and self-evaluation in which they write at least one bulletedstatement on each team member’s strengths and areas needing improvement, as shown inAppendix B. All aspects of the project should be considered
, professional society, and annual conference activities. As a result of her efforts, in five years DOE CSGF doubled the number and overall quality of applicants, including a doubling and in some cases quadrupling the number of underrepresented minority applications. Under her directorship, the National Science Foundation STEM Talent Expansion Program at Miami Dade College witnessed development and implementation of novel programming for cross-engagement of women and under-represented minorities in STEM. She initiated a rapid start, and then engaged and retained students through online and learning communities, specialized courses, virtual and traditional seminars, peer and faculty mentoring, field trips, and other
provides a means of directing students to appropriate-level coursesand special programs and establishes realistic goals to be achieved in order for the studentto succeed in the program.Other important retention-related student needs include providing students with a realisticvision of the engineering profession, a sense of belonging to the program, imparting self-management skills for academic success, providing opportunity for peer interaction, andproviding a framework for the processing of the transition experience from high school tocollege.A student success (retention) program has been recently instituted by the School ofEngineering and Applied Sciences at the University at Buffalo. Components of theprogram include a new model for admission
Engineering & Design department at WWU has spent considerableeffort focused on supporting students with the goal of improving student sense of belonging andcreating inclusive and equitable learning environments. Efforts have included updating the firstyear curriculum to incorporate social justice [6], starting a peer mentor program focused onstudent engagement and belonging [7] [8] [9], integrating inclusive practices into thedepartmental makerspace [10] [11], creating a summer bridge program for engineering students[12], hosting events designed to increase belonging and engagement [8] [13], conductingresearch on impacts of curricular and co-curricular changes on belonging and identity [14] [15][16], and offering undergraduate research
required to develop conceptual and technical design reviews. Weekly activities include discussion posts on technical and communication topics related to the design project. Peer evaluations are conducted via Purdue’s CATME Peer-Evaluation tool three times during a semester and serve as a measure of teamwork. Technical writing is considered a critical piece of project documentation. Project deliverables such as oral presentations, design reviews, peer evaluations, and prototype testing are used to assess student learning objectives.III. Challenges in Teaching and Learning at the regional campusHigher Education institutions especially land grant institutions have relied upon the traditionalstudent population admitted to the central campus. With the
quizzes. Activereadings serve as pre-work, as mentioned in section 3, to prepare students for completing in-classactivities by enhancing their foundational knowledge, especially the remembering andunderstanding levels of Bloom’s Taxonomy (BT) [34, 35] for relevant concepts. Next, we have arange of in-class activities where students follow guided instructions and discuss with peers intheir small groups. During each of these in-class activities, students perform at least one of thefollowing tasks: code completion, code snippet debugging, answering multiple-choice questions,writing pseudocode, and drawing flowcharts. Each of these tasks falls under different BT’scategories, demands the use of different skills, and requires students to pay attention
lecture time can be repurposed for a moreblended learning experience in future offerings thus creating weekly modules. The weekly laboratory period focuses on directly training the students in technical skills,such as those listed above that were previously offered on an ad hoc basis, in order train studentsto solve a multidisciplinary guided design project using these skills in teams. The laboratorieswere designed and are taught in conjunction with BME faculty instructors by undergraduateBME student assistants (SAs), allowing them to gain valuable teaching experience while givingour sophomore students an opportunity to learn from and interact with their peers. The guideddesign project requires the student teams to incorporate the knowledge
research university in the American Southwest. Students worked in pairs onhomework assignments to support peer learning. We replaced one question from each of the sixhomework assignments with design challenge deliverables. Students worked in subteams on oneof the three algal production phases (i.e., growth, harvest, extraction). They also developedindividual accountability through jigsaw sessions in which they explained their subteam’s workto students from other production phases. They built whole-class consensus through “parley”sessions that involved decision matrices.We describe the design challenge and our study, in which we investigated how a designchallenge threaded through a sophomore course might provide students with a picture ofauthentic
dialogues. However, instructor facilitation may result in an instructor-centered discussion whichlimit students’ participation and voice [18], and student-facilitated discussions provide analternative approach. Peer facilitation can foster a sense of student ownership and help studentsfeel more at ease in expressing their opinions [19], and allow practical hands-on experience ofbeing a discussion facilitator [18]. Compared to instructor-facilitated discussions, research onstudent-facilitated discussions is still limited focusing more on the student facilitation techniques[11], [20]. This study aims to explore how overall design and management of student-facilitateddiscussions influence peer interaction and critical thinking in engineering
STEM fields. (3) (6)These programs are often characterized by the rigorous on campus academic training to preparematriculating students for freshman courses and social activities to help familiarize students with“college-life.” Reports on current summer bridge programs suggest that students who participatein such programs are more apt to successfully complete their first and second year of theiracademic careers when compared to their peers who did not participate in such programs. (4) (6)The National Science Foundation (NSF) funded Louis Stokes Alliances for MinorityParticipation (LSAMP) Program provides support for a number of universities as they implementprograms to increase the number of URM students successfully completing STEM
credibility and support, as evidenced bythe fact that it is fully institutionalized within the College of Engineering. The latter isparticularly important as 2001-02 was the last year of NSF SUCCEED funding.MAPS offers peer mentoring, Supplemental Instruction (SI) for gateway courses, tutoring, studygroups, skill development workshops, professional development activities, and a technical andprofessional development resource library. MAPS is also intricately integrated with academicadvising, the freshman engineering curriculum, and the junior/senior professional developmentcourses. Continuous improvement is driven by assessment results including, but not limited to,demographics, academic performance, percent of students earning a D or an F or
institutes was based on educational research that has documented key featuresof professional development and careful evaluation of prior professional development activitiesin the region. The optimal partnership was defined as one where teachers partner with workingscientists, mathematicians, and engineers who have sophisticated equipment in laboratory workspace, computing facilities and other resources of higher education. During the past two years,approximately 250 individuals attended 22 institutes; some of the teachers attended multipleofferings. The efficacy and impact of these institutes has been assessed through pre- and postcontent knowledge or capability tests, evaluation forms, and peer-review of lessons developed asan outcome of the
offering.Specifically how the course was intentionally developed to include practical applications ofindustry-standard writing and to center student learning with regular feedback and practice. Next,we break down the core concepts for autonomous vehicle engineering across engineering andcomputer science disciplines. We address the issue of prerequisites and how the class conceptswere ultimately organized and how existing university research and computer labs were utilized.Lastly, we also discuss group dynamics and techniques for ensuring course project teams havediverse majors. Our results section is primarily composed of survey results from our third courseoffering. We show the evolution of skills from the mechanical engineering students and thecomputer
first workshop by Lindsay Marshall was focused onhelping PhD students overcome barriers to writing their dissertation, which is a source of anxietyfor PhD students and was a topic requested by members of the program. Students learned aboutmethods to organize their writing and overcome writing blocks. Resources for PhD graduatestudents to support their thesis writing were also shared with the group. The second workshopwas on time management for the busy student offered by the UIC Wellness Center. Finally, therewas a seminar on leadership by Dr. Jarrad Hampton-Marcell on science and being competitive inSTEM. We had a seminar on how to prepare for the postdoctoral search and maximizing theexperience as part of supporting their professional
consider, which was the ArchivalPublication Authors, a National Science Foundation sponsored workshop hosted by theAmerican Association for Engineering Education. 2“The aim of the APA1 is to facilitate growth in manuscript writing skills and anunderstanding of the review process, leading to the development and refinement of newmanuscripts that are intended to be submitted for publication in a peer-reviewed journal.The APA will include instructor-led sessions and panels and interactive breakout sessionswith writing teams and mentors. Specifically, the workshop was designed to:1.Use ASEE journal solicitations to contextualize content;2.Challenge teams to draft
% Lack of infrastructure 15% Concerns about the review process 13% Difficulty finding collaborators 5% Percentage of total responses Other factors 8% Figure 1. Factors preventing MSI faculty securing NSF CISE funding (n=104).When respondents spoke about time issues, their concerns centered around time needed to (a)cover their heavy teaching loads, (b) pursue research funding opportunities, (c) write proposals,and (d) conduct the research. A couple of responses alluded to poor timing of submissiondeadlines. Lack of time due to heavy teaching loads was the most frequently mentioned
, andis working to eliminate barriers to participation, create a space that respects diverse traditions,heritages, and experiences, as well as promote diversity in all staff, volunteers, and audiences (C4DISC,n.d.). How do we increase diversity on editorial boards and pools of peer reviewers for EER journals?Other important considerations include how we refer to gender, disability, race and ethnicity, amongother characteristics, in our publications. The American Psychological Association (APA) has provided anonline guide based on their updated 7th Edition Handbook about bias-free language and urges authors to“to use language that is free of bias and avoid perpetuating prejudicial beliefs or demeaning attitudes intheir writing” (APA, n.d.). But
learning, expressed in the student reflections (LS), can instructors assess from individual assignments? Question 3: Do students whose reflections on doing are assessed to be more insightful focus on different “doings” than their peers? What can we infer by text mining the data about the ways that ‘insightful’ students write their LS? We anticipate certain patterns to emerge, given our intentional effort to tie eachassignment to successive POED over the course of the design process; see Figure 1. We are alsointerested in the degree to which the evolving focus in the course design is reflected in thestudent learning. Based on our prior work, we expect both team formation, concept
toothbrush. Students will beexpected to write a report with detailed description of all steps taken during the development ofthe prosthetic limb.Once we perfect the prosthetic arm, the same process can be applied to development of otherlimbs such as arms or legs. This project will benefit patients with disabilities and improve theirday-to-day lives at a fraction of the cost of current solutions.MotivationThe purpose of this project is to help low-income families’ children who have a disabled handand to expand students’ awareness of societal needs. With this project, students demonstrate thelearning and knowledge gained from the different sources, such as using Arduino board to designa myoelectric prosthetic arm. It is therefore important to show the
traditionalhomework in engineering education occurred [1-4], but the overwhelming majority ofengineering faculty members believe that homework is an indispensable component in thecourses they teach. As an analogy, students majoring in English need to write many essays forpractice, and they cannot master the skill of writing just by learning various writing skills andreading novels. In the same way, engineering students cannot grasp the necessary knowledge andskills without the struggling process in solving homework problems [5].Almost all the publishers of the textbooks provide the solution manuals to the instructors, andunfortunately, these materials are leaked to students through the internet. Some websites eveninvite students to provide quiz and exam
substituted by a professional portfolio including reports and drawings that weresubmitted to the company - 25% of the final grade), final Power Point Presentation (PPT to bemade to the peers from the same section of ENGR 490x - 10% of the final grade), journal andlog (25% of the final grade). Supervisor feedback (35% of the final grade) is critical. Eachstudent is required to have a supervisor, direct or indirect supervisor, who is aware of student’sperformance. Supervisors are determined by the companies at which students are employed. Forthe internal research projects, supervisors are determined by the students as they choose theirproject and the owner of it. The supervisor is approached (most likely through phone contact ande-mail) for both
Community,thinking not only about your own contribution but also how you would like to interact withothers within this Community, including your peers and your instructors.”At the end of that first seminar students were asked to write reflections responding to that initialletter, “Go back and read that letter to yourself and then write a reflection about your experiencethrough the lens of your expectations.[…] Share how this experience has affected the way youlook at yourself, others, your education, your goals, and your success. Is there anything that younow look at or approach differently due to your experience in this course?” In addition, studentswere asked to write a letter to an incoming student about the first seminar experience.At the end
involving large datasets Writing First year • Receive writing feedback from peers and Community consultants • Develop writing skillsParticipants We conducted interviews with participants who were in the 2017 or 2018 cohorts duringsummer 2019, i.e., participants who recently completed two-year D3EM program trainingrequirements. All students in the 2017 and 2018 cohorts were invited to participate in aninterview. Three cohorts of students have completed at least one year in the program. Studentsmay still participate in D3EM activities after the two-year training. All participants werecurrently in their 3rd or 4th year in
mechanics.Student involvement in the design process encourages active learning. The literature suggeststhat an active learning laboratory style is required for students to achieve the highest knowledgelevel of the course material. Upchurch and Thai10 describes a interactive laboratory that allowsall electrical systems students to participate in the exercises. Specifically, on independentcomputers, students can mimic the teacher, work independently, or work with other students.The professor can intervene at anytime. Miller et al.7 presents the results of laboratoryimprovements that include increased emphasis on report writing, peer review, and studentplanning of experiments. Adams et al.2 presents the use of hands on experiments to generatestudent interest
: Page 5.702.4Team #3: The grade for Partner A was 20 points less than the project grade. Partner B gave hispartner an effort grade of 2.5 and 3.5 for himself. His comments were: No help in writing programs. Of the remaining work, it was about 65- 35 split to her benefit. I ended up performing the majority of the work, > 70%, in order to meet the deadline.Partner B also came to the instructor midway through the project and expressed his difficultywith his partner. Once again Partner A did not submit an evaluation form.Team #4: The grade for Partner A was 20 points less than the project grade. Partner B gave hispartner an effort grade of 30% and 70% for himself. His comments were: He made
my academic “pulse” comes simply and solelyfrom a heart of curiosity and desire for knowledge. In terms of identity development, Iexperienced the same curriculum as my peers but may have received them differently due to mydiffering motivations. It is with this background and initial sense of self that I approached the writing of thethree narratives that follow. Within each narrative there is analysis that comes from myimmediate processing of the experience. After each narrative, I provide further analysis whichhelps to connect the narratives and place them in the larger context of personal-professionalidentity alignment. At the end of the paper, I present a final analysis of how my experiencesmight be useful in thinking more broadly
suggest. Immediatelyfollowing the pitch, each student writes a short written reflection about how peer andinstructor feedback may have modified the focus or scope of their project, or helped thestudent identify additional resources.With their final paper topic fully vetted and scoped, each student writes an annotatedbibliography and 6-8 page rough draft, which is peer reviewed in class and commentedon by the instructor. Each student writes a reflection on how they will edit their draft dueto feedback they received in peer review or how they were inspired to do somethingdifferently by reading another student’s draft. The final draft is due at the end of thequarter. See selected topics for final papers in Table IV. Table IV. Select Examples of
] V. Sampson, P. Enderle, J. Grooms and S. Witte, “Writing to Learn by Learning to Write During the School Science Laboratory: Helping Middle and High School Students Develop Argumentative Writing Skills as they Learn Core Ideas,” Science Education, vol. 97, pp. 643-670, Sept., 2013. doi: 10.1002/sce.21069[31] L. Martin, “The Promise of the Maker Movement for Education,” Journal of Pre-College Engineering Education Research (J-PEER), vol. 5, pp. 30-39, Jan.-June, 2015. https://doi.org/10.7771/2157-9288.1099[32] S. Sheppard, K. Macatangay, A. Colby and W. Sullivan, Educating Engineers: Designing for the Future of the Field, Book Highlights. Stanford, C.A.: Carnegie Foundation for the Advancement of Teaching, 2008
13.203.5Figure 4- Airplane System and Its Components – Drawn by a Student 4It may be mentioned that DyKnow allows an instructor to share students’ panels with allstudents. In-class polling was done to seek students’ feedback on how they felt about their workbeing shared with peers in class. Here’re the results: Statement: I like the panels are shared back with the class Strongly agree (20%), Agree (28%), Neither agree nor disagree (23%), Disagree (4%), Strongly disagree (5%), Invalid data (20%) (Sample size: 235)It can be seen that majority of students like seeing other students’ work and are possibly findinglearning from peers to be a positive experience.2.1.2 Other Tablet Applications: Like in fall 2006