-COVID). A rubric was created, adapting existing rubrics anddefinitions reported by Gin et al. [6] and Stanny et al. [7]. Syllabus elements (i.e., grading policy,general absence policy, general makeup work policy, office hours, instructor contactinformation, important course dates, instructor encourages student contact, general campusresources, grading rubrics, emergency planning, and mental health resources, Table 1) wereevaluated using direct coding [8]. The presence or absence of each syllabus element wasrecorded for all syllabi (i.e., pre-COVID and post-COVID). In addition, the presence ofsubstantial changes between the early and late syllabi were recorded. The syllabi were codedindependently using two coders, and discrepancies were resolved
their research, educational goals, and career. 4. Explore–through outside stakeholders and their own community–how their research discoveries and knowledge might be implemented for societal impact. 5. Gather examples of citizen science and its impact. 6. Create a plan to make their educational and career objectives be more use-inspired and impactful. 7. Explain the pathways to impact within their own field of study and research area and how their discoveries could lead to societal impact. 8. Manage psychological barriers and conceptual misunderstandings about innovation that prevent individuals from seeing themselves as inventors, innovators, and entrepreneurs.Class sessions were 50-minutes in length and met
consider marginalized communities and underrepresented groupsin the resilient infrastructure development processes associated with hazard risks. Enhancedequality has the potential to boost community adaptability and lessen the unequal allocation oflosses and damages resulting from extreme events.The concept of resilience has gained significant attention focusing on effectively managingdisruptions, challenges, and shocks within systems, particularly in disaster risk management [4].It involves the ability to plan for, absorb, recover from, and adapt to adverse events [5].However, communities of color and other marginalized and socially vulnerable groups frequentlylack the resources and expertise necessary to participate in risk mitigation, planning
individuals, whowere either organizers or participants, augmented with end-of-program feedback, we provide a rich description ofthe program's planning, activities, and impact. Specifically, our study draws from engineering education research,bridging the gap between research and practice to answer three research questions related to the program: (1) Howdid the program design enable a more effective understanding of interdisciplinary problem-sets? (2) How didparticipants experience the interdisciplinary work of the program? (3) Did the program affect participants' impact oninterdisciplinary problem-sets after the program? Our findings highlight the benefits of interdisciplinary, holistic,and hands-on approaches to AI education and provide insights for
City of Omaha proposed a $2. 5-million north-south expressway through the oldest parts of Omaha,including all North Omaha (Fletcher, 2020). Proposed as an economic development project, the NorthFreeway was intended to speed cattle to the Omaha Stockyard. Targeting the Near North Sideneighborhood, the new freeway was planned to cut through historic black and poor neighborhoods.Construction was nearly completed by 1963. In 1977 the City of Omaha announced plans to extend thehighway and as late as 1981 an additional 57 housing units were demolished to make way for anextension to the highway. In total, more than 2,000 homes, churches, businesses, and other buildingswere demolished over 34 years of construction.As a final course activity to prepare
university’s collection ofHispanic-related rare books, including recorded oral histories and literary Chicano collections,numerous dissertations and theses, and related multimedia including audio, photos, and videos. Our anticipated timeline for this project is -- Month 1: Initial team meeting. Initiate recurringmeetings to align with course learning objectives from selected instructors. Deliver projectdevelopment plan detailing major activities and milestones, semi-annual status updates, andregular review by Library personnel. Months 2-9: Begin developing web module and landing pageemploying Application Programming Interface (API) to access Library of Congress resources.Months 3-9: Engage students, instructors, and other LOC awardees in live and
strategies. Effectively conduct career conversations (making small Career conversation outreach debrief talk, active listening, asking smart questions, expressing Storyboard Career Conversation plan gratitude, etc…) Elevator pitch Develop a professional brand, including an effective Building a LinkedIn profile LinkedIn profile. Email signature Utilize newfound relationships to access Final reflection jobs/internships/research positions, internal advocates and referrals.We performed a qualitative analysis of the final reflections from both courses to identify wordsused when students described how they felt about reaching
can directly impact students’ lives and communities to inform the direction of the unit plan. It is his hope that these and the future curricula he will work on will help to include and empower more diverse students to see themselves in the fields of science and engineering, as well as see themselves as advocates for change and innovation in their communities. Aaron Richardson is a trained horticulturist with fifteen years of experience in the field dating back to his time in the National FFA Youth Organization, and has gone on to acquire Bachelor’s degrees in Horticulture, Ecology & Evolutionary Biology, and Biology Education from the University of Connecticut (UConn). Aaron is currently a Master’s student
formatted as GoogleColaboratory notebooks that are publicly available on GitHub (Python training for instructors;Biology modules; Statistics modules). APEX biology modules include case studies on sickle cellanemia and breast cancer and three shorter data analysis modules. Eighteen APEX statisticsmodules span topics ranging from data and measurement to sampling and hypothesis testing. Aswe refine and expand our materials, we are also assessing the program’s efficacy by surveyingboth instructors and students. The aim of this work-in-progress paper is to conduct a preliminaryexamination of whether and how student perceptions of interdisciplinary computing change as aresult of engaging with APEX biology and statistics modules.MethodsFaculty who planned
understand the value that this training provides the teaching assistants, a survey wasconducted of participants before and after participation in the workshops. The goal of this studyis to inform plans for implementing solutions into training that address deficiencies identifiedthrough the survey and provide a set of inclusion best practices and learning objectives forinclusivity training for undergraduate teaching assistants. In this paper, findings from the thirdyear of piloting our workshops are described. The data shows that all teaching assistants overallfound that the workshop content and activities were relevant to them as peer educators. Severalteaching assistants shared inclusive leadership strategies that they planned to implement in
guest speaker to discuss the current methods andsoftware used to manage stormwater, green infrastructures, and microplastics.Students were then asked to participate in a group exercise with the followingprompts –Stormwater Mitigation Group Exercise Instructions:Pick a topic from the list below and discuss within your group how a GreenInfrastructure based solution would fit into this topic. Upload a summary of yourdiscussion to the appropriate submission portal.List of Topics to be Used for the Group Activity: 1. Safety Analysis of a Stormwater Management Basin 2. Watershed Management Plan 3. Low-Impact Development Design Project 4. Invitation Letter to Stakeholders 5. Task List for a Regional Stormwater Management Planning
ties). Thesecond subsystem is a Costume Shell, which also is made up of a PVC-pipe frame that getscovered with PVC sheeting or cardboard and decorated with paint and other materials to meetthe child’s costume request; e.g., Super Mario Cart, Toy Story 3 Claw Machine, Disney Princess.Tools and materials for planning and fabricating prototype frames and decorating costumes wereavailable for students to use during and after module sessions. Teams were given the Design Brief (see Figure 1) in Week 1, and learned that eachcostume needed at least one electrical and/or mechanical “action component,” which the childhad to be able to manipulate easily and safely. The costume design needed to incorporate safetyfeatures, including alerting passers
, thispaper contributes to the ongoing discourse on the role of AI in education and its impact onfuture learning and assessment models. The findings and discussions presented here mayoffer insights for educators, policymakers, and AI developers.Methodology and findings The Fundamental Competence Exam (FCE) is a prerequisite to obtain a Bachelor ofEngineering degree and its objective is to assess students' fundamental engineeringcompetences. To give the test students need to first pass a list of courses that are part of acommon access plan that all the engineering undergraduate students take in the first two yearsof studies. This is because these courses are then assessed in the FCE. The subjects that FCE aims to assess range from
engineering solutions to enhance the resilience of infrastructure, such as earthquake-resistant building design, flood control, and sustainable urban planning [12]. c. Case Studies: Use real-world disaster events as case studies to illustrate the importance of resilience in disaster management. Analyze how engineering decisions can impact the resilience of a community[12]. d. Interdisciplinary Approach: Encourage collaboration with other disciplines, such as environmental science, sociology, and public policy, to understand the multifaceted nature of resilience[13]. e. Emergency Management and Response: Teach the principles of effective disaster response and management, including incident command
. Elevation view – main trusses Bottom chord Bottom chord c. Plan view – horizontal bottom truss Floor beam W12x30 d. Plan view – floor beams HSS 8x8x3/8 HSS 6x6x1/4 HSS 10x8x3/8 Floor beam W 12X30 HSS 10x8x3/8 HSS 6X6X3/8 e. End cross section
(Appendix, Table A3). The Case Study Worksheet asked themto complete tasks such as “Define the problem” and “Determine the criteria for a successfulsolution,” and to answer, “What AI was used in this case study?”. The Independent ResearchWorksheet helped the group identify what they needed to learn about the problem in the casestudy and develop a plan for acquiring that knowledge. The students were assessed in thefollowing ways: pre- and post-test on content knowledge, group presentation, case study report,concept map, and teamwork assessment. The group presentation was a way to test theirknowledge without having them use AI to write a paper. The purpose of the case study reportwas to provide the student a way to summarize the process they used to
),that is a comprehensive individualized program designed specifically for engineering studentswith ASD [8]. This pioneering program is a collaborative effort between the Fulton Schools ofEngineering (FSE) and the College of Health Solutions (CHS), aimed at providing tailoredsupport in the form of peer mentoring, social engagement, and career readiness. Whenengineering students enroll in the EASE program and begin their college education at ASU, theyare paired with two peer mentors, one from FSE and one from CHS. The mentors first focus onthe transition to college by helping their mentees find relevant resources. Then, the mentors startprioritizing assignment organization, planning, and other executive functioning skills. Thestudents will have
retreat, in which the faculty wereinvited to use these goals to help brainstorm and formulate a list of potential “aims” to guide thedepartmental change efforts. Following collective brainstorming, we engaged faculty in acascading agreement multi-voting activity to prioritize which aims they felt were most importantto address as a department [5]. Facilitating this collaborative strategic planning techniqueallowed us to ensure that all faculty had a chance to express their opinions in small groupswithout feeling that any one departmental leader was influencing the activity too heavily.After the cascading agreement activity, we were left with a prioritized list of five aims. We thenasked faculty to discuss student outcomes and specific, actionable
Work in Progress: Development of a Medical Devices Course for Sophomore Biomedical Engineering Undergraduate StudentsIntroductionThe biomedical engineering (BME) workforce requires competency in professional and technicalskills. BMEs often use knowledge in design, administration and management, and customerneeds assessment [1]. Typical work activities of a BME include analyzing data or information,organizing and planning work, determining compliance with standards, building teams, anddrafting and specifying technical device parts [1]. The undergraduate BME capstone designcourse is often used as a “catchall” to develop these critical professional skills; however, to buildcompetency, it is recommended that these skills be practiced
Page 22.932.4Technologist. One expert was enlisted via an e-mail request; the other via a long-termresearch collaboration. These experts provided comments and suggestions on reports and alsoserved as external reviewers during project presentations and a follow-on oral examinationportion of the senior capstone project. Expert feedback also provided both encouragement andconfirmation of students‟ efforts during the course of the semester. Faculty reported that thementors and experts complemented the learning and design processes of the student teams.The System Engineering tools improved project outcomes and are planned for future use aspart of the continuous improvement plan.The fourth class was an integrated product development course. The aim
to the class. Page 22.1388.3The REDUCE project is considered a service learning project, the students are expected andencouraged to gain input and feedback on their proposal from contractors, vendors, and materialssuppliers; however, students are not permitted to earn wages for participation on the project. Studentteams are expected to conduct themselves in a professional manner in all aspects of the project.Student teams are expected to plan visits and phone calls with clients in a professional manner that isnot disruptive to the activities of the client. To motivate students to keep on task, the followingmilestones are required for
AC 2011-617: TOMORROW’S UNIVERSITY GRADUATE: CONSTRUC-TION INDUSTRY NEEDS AND CURRICULUM ENHANCEMENTJohn Walewski, Texas A&M University John A. Walewski, Ph.D., is an assistant professor with the Zachry Department of Civil Engineering at Texas A&M University with research interests in sustainable design and construction techniques, risk management and insurance, pre-project planning, and the use of alternative project delivery and procure- ment methods. John is a Board member of the U.S. Green Building Council’s Central Texas-Balcones Chapter. Dr. Walewski obtained a Civil Engineering Ph.D. (Construction Engineering and Project Man- agement focus) at The University of Texas at Austin (UT) in May 2005, and
Engineering Students and Critical Thinking: A Preliminary AnalysisAbstractIn 2007, the University of Louisville began implementation of their multi-year QualityEnhancement Plan (QEP) Ideas to Action (i2a): Using Critical Thinking to Foster StudentLearning and Community Engagement, whichfocuses on improving the critical thinking skills ofundergraduate students and more effectively preparing them to contribute to society and theworkforce. The Paul-Elder critical thinking framework was selected to serve as the structure fori2a initiatives. In addition to the QEP, the Accreditation Board for Engineering and Technology(ABET) revised the accreditation criteria in 2000 to require program assessment according toeleven outcomes that
. The decisionsupport tools are basically the brain of the system that makes intelligent and sometimes complexdecisions. Some of these tools are: 1) Diagnostic and Outage analysis 2) Switch coordination 3) Repair planning 4) Restoration time 5) Catastrophic analysis 6) Network integration decisions 7) Load analysis 8) Phase analysis 9) Load dispatching 10) Facility management 11) Crew scheduling 12) Network reconfigurationSimulation and ModelingA well defined “modeling paradigm” for electric power management network is an importanttask that must be accomplished initially. A modeling paradigm is the language with which onecan represent the system models. This will allow to express the
individual and group training sessions for theeducators involved in curriculum development and design. Each session included a detaileddescription of the project's curriculum design goals, and involved discussions on factual,conceptual and procedural knowledge, knowledge application, and student reflection. Handoutswere provided on methodology, instrumentation, procedure and assessing learning outcomes.The sessions gave instructors an opportunity to state their questions and concerns, and discusstheir long term curriculum development plans. The goal of the project is to develop students’ higher order thinking skills, problemsolving, technical visualization skills, and decision making skills in the context of a data-richlearning environment
and improvements in the US graduate engineering educationsystem, better student planning, and increased enrollment of quality international graduatestudents. International engineering graduate students and alumni studying at US universitieswere invited to complete an online survey. Results from the survey indicate that perception ofinternational graduate students slightly differ when compared between current students andalumni. Survey findings also shows that US institutions have been making progress by providingenhanced funding, comparable safety/ security, and information to make the students wellprepared for post graduation job.Introduction Providing higher educational degrees is a major industry for several countries includingUSA
Hands-on research component for many participants Stanford Engineering Research Experience for Teachers Interactive Seminars on Professional Practices (SERET) Supporting Transfer to the Classroom Analyzing and Synthesizing Literature Education Transfer Plan with IISME Collaborating Peer coach to support teachers funded by IISME Synthesizing Data and Communicating Results Subject-specific
characteristics, will be presented along with future plans for thedevelopment of flexible structures on plastic substrates.IntroductionThe invention of the transistor and the development of silicon planar technology ushered in anew age of synthetic materials. New materials are produced by a variety of processes including,but not limited to: molecular-beam epitaxy; sputtering (rf, dc and magnetron); chemical,physical and plasma-assisted vapor deposition; laser ablation; vacuum evaporation, hot-wiredecomposition, and many others. The materials are combined into innovative structures toproduce the better, smaller, faster electronic devices that everyone has become accustomed to.From a pedagogical perspective, the deposition equipment is expensive and
of a set of structured activities to help increase education and research inrenewable energy systems.For the education component, a systems approach for curriculum development is used. The newcurriculum on Energy Sustainability provides an overview of the major energy flows and theissues associated with production and end-use. Major current sources of energy include fossilfuel, hydroelectric, nuclear power, and wind energy. In the research component, a Pair-2-learn(PAL) model is used to form teams of undergraduate and graduate students to work in specificresearch projects. In the outreach component, different lesson plans are developed for highschool teachers participating in the UTeach Miners program. The products provided under
. Projects include “largearchitecture/engineering and construction projects that include infrastructure design,environmental planning, facilities management, corridor planning, residential and commercialdevelopment master plans, and natural resource management.”1Colonel Hooper of the United States Army comments on the effect of geospatial technologywithin engineering in the military: “Exploitation of geospatial information is revolutionizingbusiness, science, and government. Aerial and satellite remotely sensed imagery, GlobalPositioning Systems, and computerized Geographic Information Systems (GISs) are increasinglybecoming the driving force for decision making across the local to global continuum. ” 2The growth of the geospatial industry creates a