InquiryMotivation and GoalsThis capacity-building project, which is supported by the Institutional and CommunityTransformation track of the NSF Improving Undergraduate Education in STEM (IUSE ICT)program, is designed to build capacity for future efforts to support STEM faculty in collaborativeinquiry processes to explore questions on student learning and success and to inform changes toimprove individual classes, student pathways, and curricula. Recognizing that providing facultyaccess to data is not sufficient to effect change, this project aims to cultivate faculty interest andmotivation in using evidence-based instructional strategies by including faculty as co-designersin the development of data analytics tools, engaging them in inquiry and developing
collaboration were identified. Over ten different areas forevaluation and other projects were identified before shifting the conversation to prioritizing certainareas for immediate evaluation versus future evaluation projects. Ultimately, the team decided toexplore five specific projects, three of which pertained to the external evaluation. These aredescribed below:Project 1: Evaluation of the unexpected impacts of The Center. The purpose of this project was 1to understand how The Center impacted the university in unexpected ways, outside of teaching-related outcomes. This question was being explored as The Center employees recognize that theyare often asked to participate in events, committees, and
summer of 2021, eight middle school and high school teachers from two local public-schooldistricts spent six weeks engaged with research activities on biologically-inspired computingsystems. They worked on discovery-based research projects and obtained transdisciplinaryresearch experience on biologically-inspired computing systems spanning application (cancerdetection), algorithm (Spiking Neural Networks), architecture and circuit (synaptic memorydesign), and device (memristor). The USA faculty mentors, curriculum development specialistfrom school districts, Instructional Coach from Science/Mathematics faculty at USA coachedparticipants as they designed standards-compliant curriculum modules and conductedprofessional development activities. The
and high school students with racially minoritized backgrounds, theCatalyzing Inclusive STEM Experiences All Year Round (CISTEME365) initiative aimsto better understand practices that increase students' motivation and capacities in pursuitof careers in STEM fields. Overall, the project aims to develop transformative paradigmsfor advancing interests, self-efficacy, abilities, and pathways in STEM with a set of threeinterconnected strategies. • School-based teams of classroom teachers and academic advisors participate in year-round professional learning experiences focused on diversity, equity, and inclusion in STEM, as well as a project-based electrical engineering curriculum. • Participating schools receive resources and
Session 004 Integrated Circuits Design Course to Satisfy ABET Design Requirements in Electrical Engineering E. H. Shaban Electrical Engineering Department Southern University Baton Rouge, LA 70813 AbstractAccreditation Board for Engineering and Technology (ABET) requires that electricalengineering graduates must be able to solve open ended theoretical problems and providepractical design engineering solutions for projects utilizing the knowledge they gainedfrom the
Education where she has also served in key leadership positions. Dr. Matusovich is recognized for her research and leadership related to graduate student mentoring and faculty development. She won the Hokie Supervisor Spotlight Award in 2014, received the College of Engineering Graduate Student Mentor Award in 2018, and was inducted into the Virginia Tech Academy of Faculty Leadership in 2020. Dr. Matusovich has been a PI/Co-PI on 19 funded research projects including the NSF CAREER Award, with her share of funding being nearly $3 million. She has co-authored 2 book chapters, 34 journal publications, and more than 80 conference papers. She is recognized for her research and teaching, including Dean’s Awards for
participating classes. The secondyear added the option of co-facilitating a project between the two classes. All teaching,assignments, and projects were completed through virtual platforms. Several travel opportunitieshave been provided for student and faculty participants. These have either been through theattendance of international technology bootcamps that were organized by the French Embassy, apartner IUT, or through a travel program organized by the IEI. Travel includes experiences thatprovide an overview of French engineering and technology education, industry, history, andculture. Study-travel opportunities and hosting faculty colleagues and leaders from partnercampuses also supply key motivators for funders, students, and faculty. It should be
article are twofold: (1) to present the maincharacteristics of a novel, project-based, technical elective course on Introduction to T-LiDAR forstudents in the Civil Engineering (CE), Construction Engineering (ConE) and ConstructionManagement (CM) programs at Georgia Southern University, and (2) to assess students’acquisition of knowledge through the adopted hands-on approach. This work describes details ofthe developed course to expose students to the fundamentals of T-LiDAR and engage them inspecialized activities involving this modern technique to successfully complete 3D point-cloudmodels of real, service-learning projects. These projects benefit the community and could assistuniversities in attaining or maintaining their Carnegie Community
each of these three areas utilizing the nine principles.Financial support is provided in the form of scholarships. The programming then supportsstudents both academically and develops community through two main components, a first-yearseminar and seminar grouping subsequent years together. The first-year seminar focuses on keyskills related to the transition to college. In subsequent years, the program shifts its focus toapplications, incorporating a community-based learning project and developing skills to findinternships and research opportunities. We initially tried an approach of using as many of theseresearch-backed best practices as possible. This beginning tactic has helped us identify thecomponents that make the largest impact on
our engineering students with an interdisciplinaryexperience, such as by leveraging the talent of students in our world-class Schools of PublicHealth, Business, Medicine and Law. Third, while students are currently trained and encouragedto explore the entrepreneurial aspects and cultural context of their global health tech projects,these aspects often receive less emphasis. The current generation of engineering students areeager to tackle global challenges and positively impact patients’ lives. Therefore, our objectivewas to create a new, experiential course in global health innovation and entrepreneurship wherestudents from various educational levels and schools, specifically the Schools of Engineering(SEAS) and Public Health (PH), will
1 Session 2020 Vertical Column Wind Speed Measurement at PVAMU Michael Brown, *Christopher Medlow, Penrose Cofie, John Attia, Warsame Ali, Shuza Binzaid, Electrical Engineering and *Mechanical Engineering Prairie View A&M University AbstractThis project was designed to report wind data such as speed, frequency, direction, and temperaturefor future plans to install a multitude of wind turbines at Prairie View A&M University
engineering course which allcomputer, mechatronics, and electrical engineering students are required to take. The class isoffered, assessed, then data is collected every semester for electrical and computer engineeringstudents only. Assessing EECE 344 every semester is necessary to be able to capture asatisfactory subset of the low number of computer engineering students in the department. Oneof the main learning objectives in the class is to train students to collaborate, work in teams, andcommunicate effectively using oral and written communication. The course learning outcomesare evaluated using a total of 6 lab assignments and one final project assignment. Most of the labassignments are performed in teams of two (5 out of the 6 assignments), and
2021 ASEE Midwest Section Conference Arduino Controlled Irrigation System Nur-E-Afra Anika, Kabilananthan Asokan ,Bryar Pim Department of Engineering and Technology, Southeast Missouri State UniversityAbstractIn this era of technology, machines are used to make people's lives easier. Using this knowledge,we can improve and design simple methods of keeping people healthy. This project focuses onagriculture. By implementing technology, we can reduce manpower, time and still produce healthyorganic produce. Therefore, an automatic plant irrigation system has to be designed to controldifferent aspects necessary for plant growth. These parameters are
• Acceptance • WaitlistProgrammatic Timeline - Applications• Applications collected concurrently• Grad projects info needed for matching• Online process for both• Secondary info session for undergrads• Might need several rounds of grad mentor recruitmentProgrammatic Timeline - Matching• More of an art• Distribution of majors• Mentors dictate majors• Personality matching• Location (off campus research park)• Returning mentorsProgrammatic Timeline - Waitlist• Auto waitlist• Personnel changes – mentor & UG’s• Internships• Class schedule changes• Other research opportunitiesProgrammatic Timeline - Training• First Meeting Worksheet• Background reading• Mentor training 1st week of semesterProgrammatic
forward, we will refer to the Sidekick basic kit for TILaunchPad™ as The System.Almost one hundred 5th grade science students used the system over the course of this pastacademic year. The goal of using the system was to allow the students to develop the skillsetnecessary to create a series of projects that utilized light emitting diodes (LEDs) and a moisturesensor. These projects fit well within the existing 5th grade science curriculum.Once the students understood how The System functioned, they developed and began testing aseries of systems to measure the moisture content of the air at a number of different locationsaround their school. These systems recorded moisture data for subsequent analysis. This was allfacilitated by using the system to
market conditions. The above impliesfor an increase of the role of marketing, accounting of abruptly changing environment of thehigher school, demands of the consumer and the market, and, as a consequence, a quickeradaptation of the management of the higher school with new objectives, science-drivenproducts, technologies and services of specialists. Such a new objective for today is the management and practical implementation ofinnovative projects, which requires new approaches and new specialists. Commercializationof innovative projects becomes the most relevant objective for all members of the process.No positive results can be achieved without a profound analysis of the proposed project andits highly professional operative management
Cost-Sharing Pamela M. Norris Executive Associate Dean for Research Frederick Tracy Morse ProfessorDepartment of Mechanical and Aerospace Engineering University of Virginia Charlottesville, VA 22903 What is cost sharing?• Cost Sharing represents the sponsored project or program costs (direct and indirect) that would normally be borne by the sponsor but instead are covered by the institution or a third party, such as a subcontractor or an unfunded collaborator Mandatory Cost Sharing• Required by the sponsor• Demonstrated in the proposal• Typically is explicitly referenced in an award document• Must be properly documented and tracked for cost accounting and
exploring the approach to enable students with competencies of digital thread and digitaltwin in the courses of MANE 205-Manufacturing Processes I, MANE 201-Sophomore Lab, andMANE 315-Automation at VSU. The current approach includes: 1) lecture and lab project ondigital design and assembly of a product, 2) enable digital thread and digital twin learninglaboratorial environment.3.1 Lecture on Digital Design and Assembly of a ProductAt Virginia State University, MANE 205, which is offered in Fall annually, is the gate way courseto Manufacturing Engineering program. The MANE 205 traditionally focuses on materialproperties and some manufacturing processes such as casting and metal forming. The instructornoticed that the course content has a lot
relevantprofessional design topics [2, 3]. This approach aims to provide educational experiences thatsimulate the real-world industrial design process and encourages creativity, innovation andteamwork among students [4, 5].For over thirty years, our Biomedical Engineering (BME) program has been successfullyteaching design as part of our BME curriculum. Over its lifetime, our design curriculum hasseen several significant revisions to address changing industrial practices and to improve thestudents’ educational experience and learning outcomes. In line with the modern industrialdesign practice, our current curriculum focuses on the systems engineering approach andincludes key phases such as project definition, system-level design, prototype development
application of thetheory learned in multiple lecture-based chemical engineering courses. These labs buildpractical knowledge of equipment and design, encourage good engineering practices such astraceability and reproducibility of data, and help develop skills such as interpersonal andtechnical communication skills.Our senior UO laboratory is comprised of interconnected experiments in a “pilot-plant” scale aswell as interconnected rotational objectives for the experiments. As a result, dissemination ofinformation amongst current project group members, amongst group members of the nextrotation, and amongst lab personnel is extremely important. In previous years, students havebeen asked to use pen-and-paper lab notebooks and/or binders to record their
should be included. n n State funds that are part of the normal operating budget should not be included regardless of purpose. should not be included regardless of purpose. Research Expenditure Guidelines n n For all joint or contracted projects or sub For all joint or contracted projects or sub projects, only the portion of the center research performed by faculty, staff, and students of the affiliated engineering school should be credited to that sch the affiliated engineering school should be credited to that sch ool. n n Expenditures for capital costs of research laboratory building construction should not be included. n n Expenditures for research laboratory renovations should not be
, especially within Community col- leges and four-year institutions, through the college students’ intersections of gender, race, and sexuality.Dr. Sarah Rodriguez, Iowa State University Sarah Rodriguez, PhD, is an assistant professor of Higher Education at Iowa State University. Dr. Ro- driguez’s research addresses issues of equity, access, and retention for Latina/o students in the higher education pipeline, with a focus on the intersections of gender and race/ethnicity for Latinas in STEM. She has experience coordinating large-scale interdisciplinary research projects focused on engineering and other STEM disciplines which have been sponsored by the National Science Foundation (NSF). Dr. Rodriguez has also worked with
scholar. Thus, ELITE scholars will comprise freshmen, transfer or current K-Statestudents.Specifically, the ELITE program will provide financial assistance to a cluster of 15-25 studentsover a period of four years beginning fall 2007. Budget for the program is estimated at $500,000with $28,000 earmarked for program administration and $32,000 for student support services.Included in the total are initial start-up funds that will be utilized to carry out planning for theELITE project and to put administrative and support structures in place. The S-STEM grantallows a maximum award of $500,000 in total or $125,000 per year for up to four years, with anoptional initial period of up to one year for planning. The maximum scholarship amount is up to
recruiting faculty andstudents, as well as decision support systems. Corporate diversity officers, human resourcespecialists and university relations officers will benefit from information on recruitment,outreach, and trends; foundations, corporations, and associations interested in collaborating onsolutions to the issues associated with the success of women in engineering, as well as directorsof engineering education programs interested in improving programs and performance.Collaborating with WEPAN on this project are a variety of other national organizations,including the Commission on Professionals in Science and Technology, the American Societyfor Engineering Education, and the American Association for the Advancement of Science’sCenter for
AC 2008-1213: ENGINEER YOUR LIFE: TALKING TO HIGH SCHOOL GIRLSABOUT ENGINEERINGThea Sahr, WGBH Educational Foundation Focusing on science and engineering projects such as Design Squad, ZOOM, Building Big, and Pathways to Technology, Ms. Sahr has extensive experience conceptualizing national outreach initiatives and working with project teams to develop multimedia educational materials (e.g., activity guides, curricula for after-school providers, online training resources for professionals, web sites, etc.) Building relationships with national partners representing teachers, museums, engineers, scientists, and after-school providers, has resulted in tens of thousands of children exploring
hours of graduate course work with a GPA ≥ 3.0 may elect to participate in theinternship program. The interns work at industrial sites, either part- or full time. A facultymember serves as the advisor for the student and interfaces with the supervisor of the student atthe firm. The advisor verifies that the assigned project provides the student with meaningfulindustrial experience and also monitors the student’s progress. Participating students register forinternship credit hours and receive a letter grade based on their performance. Participation in theinternship program is optional and the accrued internship course credit hours are not appliedtoward the graduate degree course requirement. That is, they may not be substituted for
AC 2009-884: PARAPROFESSIONALS IN CIVIL ENGINEERINGJon Nelson, American Society of Civil Engineers JON D. NELSON, P.E., M.ASCE is Vice President and Unit Operation Leader for the Central Region of the Civil Infrastructure Group of Tetra Tech Inc. He maintains offices in Tulsa, Oklahoma and Kansas City, Missouri. Mr. Nelson has 34 years of experience mostly associated with water and wastewater projects serving local and state government. He holds a B.S. degree in civil engineering from Kansas State University and a M.S. degree in environmental engineering from Oklahoma State University. He is licensed to practice in four states. Nelson served two six-year terms on the Oklahoma State
constructionconcepts will require a break from the traditional course fragmentation found in university environments.Specifically, a coordinated and cooperative approach to construction education must emerge which combinesthe resources of both technical and management specialists in an innovative education model. This paperintroduces one approach to this educational model currently being implemented in the ConstructionEngineering and Management program at Georgia Tech. In this approach, an integrated curriculum has beendeveloped at the undergraduate and graduate levels that vertically integrates curricular content andhorizontally offers opportunities for interdisciplinary projects and industry interaction. This paper describesthe primary components of this
Session 1532 Hardware Homework using a Student Data Acquisition System Christopher G. Braun Colorado School of MinesOverview A project developed by a student team under close guidance of a faculty memberis underway to build a very affordable yet highly functional data acquisition system. Ourplan is to introduce this system to our students in the Engineering Division's six week longSummer Field Session for students between their Sophomore and Junior year. Eachstudent would buy and build their own data acquisition system. In
any laboratory work at this time. The course is participative in nature. The course content is breed on the industrial experience of theinstructor and the students. It includes basic and practical manufacturing knowledge that the students ofmanufacturing technology should be exposed to in a baccalaureate program. The course also requires eachstudent to write a project report on a relevant topic and present it in the class. This paper describes some of thehighlights of the course and shows the way the course content is presented to the students. Manufacturing Process Planning This section describes briefly the course catalog description, the course objectives, how the course cameinto