technical presentations. The educational activities and technical presentation weredeveloped to cover several topics such as financial literacy, standardized testing, resume writing,and time management. Pre-college students also participated in individual mentoring sessions toallow for a one-on-one learning environment. Online surveys were formulated and distributed tothe participants at different stages of the STEM Education Workshop during the summer of 2020.The information collected was preliminarily analyzed to generate conclusions about the STEMEducation Workshop and draw recommendations to improve the material content, presentationmethods and communication technology for use in upcoming STEM Education Workshops.IntroductionSchools and
SummariesModule 1 - research web jigsawBy the end of module 1, students should be able to examine and qualify facets of the designproblem through independent and collaborative research as well as explore and discussdissenting views.TeamingMaximum 25 students in the classTeams are formed in the beginning of class, through Purdue’s CATME tool4 to 5 students in the team, stays in the same team the whole semesterDeliverables and student assessmentTeams will write a Problem Definition Statement together, assessed through the class’ peerfeedback (formative)Final problem definitions will later have a summative grade in a deliverable separate to thesemodules, but related to the course, i.e. instructor check-inDeployment/resourcesJigsaw: students will be divided
participants. Results indicate that many strategies exist and “goodness” ofstudy guides does not necessarily map onto successful exam performance. Also, students mayneed detailed training on how to develop a useful study guide. Finally, we have found that theremay be a benefit to peer-sharing of study guides.IntroductionCourse examinations are ubiquitous throughout highereducation, regardless of the subject area.When an instructor announces an exam, one question is sure to follow: “Can we use our bookand/or notes on the exam?” [That this is asked, and not some default assumed, speaks to thevarious answers that students often receive to the question above.—this sentence is awkward]One approach used across fields is to disallow students access to their
satisfying the department that oversees the course. This type of nontraditionalgraduate education has the potential to strongly improve graduate student communication andleadership skills while teaching important educational development tactics and can contribute inthe decision to pursue an academic career. Implementing a Ph.D. student teaching program is animprovement to the traditional doctoral curriculum and will strongly enhance studentcommunication and mentoring skills.Past approaches to educating graduate students in undergraduate engineering curriculum designand instruction have been offered in the form of classes focusing on this topic1. Anotherapproach uses teaching assistant peer mentors for helping in the growth and development of the
sustainable systems with over 60 peer-reviewed publications. Dr. Landis is dedicated to sustainability engineering education and outreach; she works with local high schools, after school pro- grams, local nonprofit organizations, and museums to integrate sustainability and engineering into K-12 and undergraduate curricula. Page 26.915.1 c American Society for Engineering Education, 2015 Improving engineering student persistence and diversity through conative understandingAbstractEngineering teaching strategies that engage students are desperately needed to recruit
. Finally C is introduced to complement the basic programming skills developed with Python andMATLAB. C offers insights into more advanced computer science concepts such as explicit data typing,pointers and memory allocation. Further, it provides more control of hardware like obtaining data fromsensors and regulating motors connected to embedded control systems. Teams also use RobotC withMindstorm mechatronic systems during their second semester term projects. Introducing first year engineering students to multiple programming languages may seemdaunting. To meet this challenge the instructional model for this course leveraged the benefits ofproblem based learning, peer instruction and studio learning to provide students with an effective
askedto reflect about what they know. Then, the students are asked to explain how they could use theidea to explain something of their interest or apply the knowledge to a specific task. When thestudents write and attempt to connect their knowledge/learning to their own interests, their storiesand experiences had far greater value than the instructor’s initial intent. Finally, with the studentsat the center and possessing an awareness of the differences in an instructor’s instruction andstudent’s retention, classes can be designed to make learning an enjoyable experience for bothstudents and instructors.IntroductionIn the present-day classrooms, students have access to multiple sources of information such as webcontent, videos, instructional
an introductory course in engineering fundamentals atthe J. B. Speed School of Engineering (SSoE) at the University of Louisville (UofL). The course,titled Engineering Methods, Tools, and Practice II (ENGR 111), is the second component of atwo-course sequence and is primarily focused on application and integration of fundamentalengineering skills introduced and practiced in the first component of the sequence (ENGR 110).Fundamental skills integrated within ENGR 111 include 3D printing, basic research fundamentals,circuitry, communication, critical thinking, design, engineering ethics, hand tool usage, problemsolving, programming, project management, teamwork, and technical writing. The course isrequired for all first-year SSoE students (no
classroom. • Strongly agree • Agree • Neutral • Disagree • Strongly disagree 2. I make effective use of my peers by regularly engaging in group study and collaborative learning. 3. I schedule my time, utilizing time and priority management principles. 4. I would give myself an A+ on the amount of time and energy I devote to my studies. 5. I prepare for each lecture by reviewing my notes, reading ahead in the text, attempting some problems, and writing down questions. 6. I keep up in my classes by mastering the material presented in the last class meeting before the next class meeting. 7. I am aware of the importance of being immersed in the academic environment of the
interaction per scenario. 5 more minutes to gather your final thoughts and write them down.Submission: Submit electronically a written report. Your responses should include: (a) A summary that indicates that you have captured the spirit of classroom, peer- group discussions. (b) Your own point of view as to how you would handle the Ethics Scenario presented.Requirements: Approximately 100 words per scenario. 4 scenarios, 400 words total.Commentary: Reflect on this classroom exercise and comment on the way it was organized and conducted. (No lectures, but peer-group discussions.) Indicate the importance of Ethics in Engineering Profession. What are your
Project #1, Turn in the lab notebook and work on14 10/10 and peer evaluation the final report of project #1 Turn in career topics, final report, and15 10/15 Presentation of Project #1 an electronic copy of the presentation16 10/17 Assign and discuss Project #2 Form teams and read Chapter 4 Mid-semester recess17 10/24 Introduction to Arduino Read about Arduino Turn in writing assignment and read18 10/29 Arduino programming Chapter 5
• What kept you in engineering? What makes it possible for you to stay? Page 8.1040.3 • What difficulties have you or your peers encountered? Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Education Session 1430 • How would you describe you faculty/student interactions? • What would you tell a freshman? • What would you say has been a positive experience in the College? • What might/could have made your
also to retain women andgirls in these disciplines. Young women entering colleges and universities in the areas ofscience, engineering, and technology are disadvantaged by their lack of computer experienceand, we hypothesize, other technology experience as well.4 They appear to have career goals thatare not as well defined as those of their male counterparts, and often lack confidence in theirabilities.5,6 They may also encounter college and university classes that are unfriendly to them,impeding their learning. The absence of women faculty and mentors both within the classroomand outside of it, few women peers in their classes, and the lack of supportive networks cancreate a “chilly climate” for women in non-traditional fields. It is during
depending on the level of discussion between the questions and during the final analysis.The discussion starts with preparation questions including the following fundamental definitions: 1. Define ethics. 2. Define applied ethics. 3. What is the difference between legality and ethics? 4. Can you think of an example that is legal but unethical? 5. Can you think of an example that is illegal but ethical?The preparation questions serve as a warm-up discussion for the students with their peers and theinstructor. The impact of the questions increases when the students are asked to write theiranswers before the discussion and reflect on their responses afterwards. The list of questions andexamples can be expanded to
agencies Promote interdisciplinary, collaborative work Align their programs to be more relevant to societyIndustry-to-Academia ResponsesAligned with the key points presented in the above-mentioned three groups, the participants inthis group also highlighted the importance of developing industrial experiences among students, Page 25.1101.6students writing peer-reviewed high quality publications, the establishment of a workingrelationship between mentors and students, and encourage students to work with each other.Besides these major points, the participants in this group also brought in additional insights fromworking in both industrial
archived so faculty can watch them at their convenience. One such project we have Page 25.1139.3found useful is the Maricopa Advanced Technology Education Center5, run by the MaricopaCommunity Colleges in Arizona. A clearinghouse for many of the on-site and online events ishosted online by the South Carolina Advanced Technological Education Center of Excellence, atTeachingTechnicians.org6. This site is worth checking on a regular basis to keep abreast of newNSF funded opportunities.Another benefit of joining listservs such as the ETD listserv, in addition to interacting with peers,is to get ideas for your own projects. After responding to a survey
students reported somewhat stronger pre-college academic credentials than didthe ECSEL-course students. Compared to their ECSEL-peers, non-ECSEL students reportedhigher SAT scores (by 30 and 35 points on the verbal and math portions of the SATs,respectively) and high school grade-point averages. Each of these differences werestatistically significant. No statistically significant differences were identified, however,between the two groups with respect to current engineering GPA or overall GPA.Course CharacteristicsStudents were asked to indicate how often they (or the instructor) engaged in each of 24instruction-related activities. The scale ranged from 1 to 4, where 1 = “never,” 2 =“occasionally,” 3 = “often,” and 4 = “very often/almost always
their company’s proposed focus. Students not attending theconference collected information from library, vendor, and internet sources. Each studentwas responsible for topics relevant to their role in the company as defined by thechemical engineering courses in which they were enrolled. Upon their return, the teamsprepared reports summarizing their proposal and findings. The graded reports counted ashomework assignments in each participating course, and the team report writing time wascredited to all students to make up for one of the class periods missed during theconference.Assessment data collected to date indicates students developed a familiarity withemerging areas in chemical engineering (biotechnology and nanotechnology) wellbeyond what
improves important skills such as analyzing and solving open -ended, real-world problems; finding, evaluating, and using appropriate learning resources;working cooperatively in teams; and communicating effectively, verbally and in writing. Ourstudy, like many other studies, also indicates that there was no gain in students’ performance onstandard tests and exams, and more research is needed. However, it is important to note thatstudents’ performance on the standard tests and exams did not decline either. Based on theabove results, we are planning to increase the number of PBL exercises in the measurementscourse with the support from the NSF and industry.IntroductionThe Boyer Commission’s report from the Carnegie Foundation, “Reinventing
engineers to thrive in an ever-evolvingprofessional landscape.Case Study:Rubrics are informative grid-type scoring guides that articulate and evaluate assignmentexpectations by setting assessment standards [17]. This tool informs students of the criteria thatthe reviewer is looking for in academic writing and data presentation, saving students. Rubricshelp break down the expectations into categories measured by the reviewer. It has been coinedthat rubrics make a grader's job easier by sifting through the categories and evaluating how wellstudents fulfilled each part of the rubric.The senior design capstone in Electrical and Computer Engineering at The Ohio State Universityspans two semesters, exposing students to industry and community-sponsored
OptimizationThe concern over quality of education is a logical one for MOOCs. Areas such as the loss ofgroup work, in class discussions, individual student tailoring based on student ability, studentlearning through instructor feedback, and motivation are all areas that MOOC courses will needto heavily focus on. Some MOOCs have begun to address some of these concerns by integratingself generating study groups to take advantage of the cooperative learning philosophy11 that hasbeen steadily growing as a teaching method at all grade levels. Utilizing the cooperative learningapproach fits well with the MOOCs as it allows the teacher to reduce their role as lecturer andassessor of materials, pushing more of the learning to the student and peer to peer
channel was used? How were problems solved? were part ofdon’t share is their metric for success. Higher education their assessment when writing down the notes.defines success through mastering theories and passing exams.Industry values technical and practical knowledge, the ability The results of this case study offer insights for universities looking to implement interdisciplinary initiatives, fosteringto adapt and solve problems. This disparity in measuring collaboration and better preparing graduates for cross-success makes it harder to prepare graduates for
courses to that which is tangibleand relatable through the iterative practices that they go through in trying to design a solution toa problem under the anticipatory guidance of professors with their peers.14 They also receivefirst-hand team experiences in this process and begin to understand the value of multipleperspectives in solving engineering problems. They can connect their future work to the businessworld as well. It keeps them motivated during the early period of their undergraduate programsbecause they see immediate relevance to that which they are working on. Adding a makerspacecomponent to this process further reinforces the “hand-on” nature of engineering problemsolving and iterative design processes.15,16Impacts of human centered
community. She is the editor- in-chief of Journal of Women and Minorities in Science and Engineering, where her vision is to create a culture of constructive peer review in academic publishing. Julie is a former NSF program director for engineering education and frequently works with faculty to help them write proposals and navigate the proposal preparation and grant management processes. She was a 2009 NSF CAREER awardee for her work operationalizing social capital for engineering education. More recently, Julie has encouraged the engineering education research community to embrace methodological activism, a paradigm whereby researchers intentionally choose methods for the political purpose of empowering marginalized
choice of one National Academy of EngineeringGrand Challenge, was burdensome for students to write and for the instructors to grade [2].Overall, instructors and students felt that the course did not provide enough opportunities forapplication, reflection, or meaningful contextualized learning.Motivation for Course RedesignSeveral factors motivated the redesign of the introduction to engineering course. The main onesinclude the following: To address attrition of first year engineering students, the university embarked on an “engineering reimagined” strategy to bolster student success and improve retention. One of this paper’s authors, and an instructor in the course for three years prior to the redesign, noticed early on that it was
and with what levels of effectiveness. For that research, we will seekadditional funding to study how teachers use and apply these materials. References1. S. E. Lopez, W. H. Goodridge, M. Tajvidi, K. H. Becker, Assessing the Need for Professional Development in Engineering Among Ru-ral High School Science Teachers (Fundamental) (2017).2. T. Porter, M. E. West, R. L. Kajfez, K. L. Malone, K. E. Irving, The effect of teacher professional development on implementing engineering in elementary schools. Journal of Pre-College Engineering Education Research (J-PEER) 9, 5 (2019).3. K. Eby, The Essential Guide to Writing S.M.A.R.T. Goals 2019 (2019).4. T. J. Moore, A. W. Glancy, K. M. Tank, J. A
with similarconcerns.Observation of an Excellent TeacherWhile the weekly sessions provide exposure to teaching theory, pedagogy, and research, it isalways beneficial to see good teaching practices implemented in a real classroom. We recruitexcellent teachers to open up their classrooms to the new instructors. Every year, we schedulevisits to about 15 engineering instructors who have been identified as excellent by their studentsand peers. The new faculty sign up, in small groups, to visit these role models. An instructionaldevelopment specialist accompanies them on the visits to help guide the observation and debriefafterward. Every semester, we also reserve time in the weekly seminar to further discuss theexcellent teacher visits and
reduces STEM self-concepts and lowerspersistence for Women, African American, and Hispanic/Latinx students [4], [12 – 16]. Inaddition, Lesbian, Gay, Bisexual, Transgender, Queer, Genderqueer, Asexual, Non-BinaryGender, as well as other traditionally oppressed gender and sexuality minority identities, faceadditional bias and discrimination in engineering spaces with complex intersections of genderand race/ethnicity mistreatment in both undergraduate and graduate education [17], [18].STEM broadly, and engineering specifically, lacks quantitative discrimination and bias measuresthat capture the unique spaces (e.g., labs, classes, offices) and experiences (e.g., research,conferences, advisor, peer relationships) of graduate students. Qualitative
to students and pointed out, “it would have been good to see more interrogating of student ideas and less noting.” Formative assessment also influenced the game’s design because it provides teachers opportunities to metacognitively examine their ideas and goals, helps students reflect on their learning, and develop the agency of other students as instructional actors (e.g., through peer to peer learning) [7][8] . Teachers Students 1. The game sparks conversations that allow for a focused
proposal, while working in a research group with a faculty, and oftengraduate student, mentor; 2) Mentoring, which consists of a multi-tiered approach designed tosupport the students with trained peer mentors often former LEARN® participants assigned toeach student in the program, paired laboratory/faculty mentors, and a LEARN® programcoordinator; and 3) Community Building, which consists of living/learning opportunities, socialprogramming, and other non-research related extracurricular activities. It is hypothesized that theLEARN® program participants will:1. Demonstrate higher fall-to-fall retention, credits earned, GPA, and graduation rates compared to matched intra-institutional comparison groups;2. Demonstrate developmental gains in