process of registered, attended and enrolled.The percentages are based of the total n recorded for each separate part of the event process: registered, attended and enrolled. 8Impact Data for 2019:The impact data expressed here is a broken down by the Race and/or Ethnicity of the student participants.The graph on the left shows number of students The graph on the right shows percentage of students 9Notable Data points when comparing 2018 vs. 20191. In the Participation Numbers – Increase in URM enrollment numbers by 92. In the Participation Percentages: 1. Increase in
students, and integrates many sources of information to provide a seamlessinstructional environment. The practices and mindset associated with quality teaching mirrorpractices of entrepreneurship and the entrepreneurial mindset.The EMIT Academy uses the metaphor of teaching as entrepreneurship to frame a facultydevelopment program for engineering faculty. The EMIT Academy was modeled on the NationalScience Foundation (NSF) funded Innovation Corps (iCorps) experience [1]. In iCorps, facultywork through a curriculum to help bring technology concepts to market. In the EMIT Academy,faculty applied similar entrepreneurial principles and processes as iCorps to teaching innovationand evaluation. During the Academy, faculty do critical reflection
remote learning.1. IntroductionThe COVID-19 pandemic resulted in educational institutions across the world pivoting quicklyto online learning. Initially, teachers had to adapt to emergency remote teaching and wereoverwhelmed with the additional work required to develop their remote classes [1]. One surveyconducted to evaluate the successes and challenges teachers faced as they moved to virtualinstruction in spring 2020 showed that although teachers transitioned immediately to virtualinstruction, they were not properly trained or given enough time to effectively redesign theirpedagogy. Teachers were inundated with information and resources to help with virtualinstruction and overwhelmed by how quickly they had to transition [2]. Some courses
). American c Society for Engineering Education, 2021 Workshop Result: Teaching Science Diplomacy to Environmental Engineering Researchers Daniel B. Oerther Missouri University of Science and Technology, 1401 North Pine Street, Rolla, MO 65409AbstractA preconference workshop on the subject of science diplomacy was attended by 25participants of the 2017 biennial conference of the Association of EnvironmentalEngineering and Science Professors. The three-fold purpose of the 2017 workshop,included: 1) explaining the value of science diplomacy; 2) demonstrating aspects ofscience diplomacy; and 3) encouraging further
misconceptionswhich can be useful in evaluating instruction. Researchers involved in science education haveused pre- and post- assessments to measure student learning and validate the need for curriculumrevision [1]. Engineering Graphics has been identified as a field in which the use of a CI couldexpose common misconceptions associated with graphic representation, as well as identify thefundamental concepts that contribute to the generation of those graphics. With varying curriculaacross institutions it can be expected that the implementation of engineering graphics will differ.The development of a standardized instrument to assess the understanding of concepts related toengineering graphics could be beneficial in streamlining or standardizing instruction
University/Industry PartnershipsSupported by NSFBarry W. JohnsonActing Assistant DirectorNational Science FoundationDirectorate for EngineeringMarch 7, 2017 NSF Strategic Goals• Strategic Goal 1: Transform the frontiers of science and engineering.• Strategic Goal 2: Stimulate innovation and address societal needs through research and education.• Strategic Goal 3: Excel as a federal science agency. 2 Mission and Vision Division of Industrial Innovation and Partnerships (IIP)• Mission: IIP will enhance our nation’s economic competiveness by catalyzing the transformation of discovery into societal benefits through stimulating partnerships and
University-Corporate Relations:Best Practices PRESENTED BY KAREN BENDER, ASEE ERC CONFERENCE MARCH 8, 2017Approach to University/IndustryPartnerships Which do you choose?NACRO: NETWORK of AcademicCorporate Relations Officers • Founded in 2007 • Now over 500 U.S. members, plus Canada, Mexico, Chile, Australia, UAE, etc. • Resources include white papers, such as best practices and metricsOverview of discussion (1) Building partnerships (2) Navigating
Ph.D. Degrees Formed in 2012Growing Faculty Team, Research Enterprise Since the college’s formation: • 64 Faculty of which 53 are Tenure-Track • 33% Growth in Tenure Track Faculty • 1 PCASE Awardee • 6 CAREER Awardees • 3X Growth in Awards • 2.5X expenditure growth • 66% Federal • 22% Industry Improved Quality of Life through Sustainable System
Natural Hazards Engineering Research Infrastructure (NHERI) NHERI provides a network of shared, state-of-the-art research facilities and tools at universities around the country to help us better understand and resist the impacts of wind, water and earthquake hazards.Natural Hazards Engineering Research Infrastructure (NHERI) NHERI 7 facilities, 1 Rapid response, 1 coordinating center, 1 computational modelingdue Unvieristy NSF NHERI Wall of Wind Experimental Facility To enable frontier research and education to impart resiliency and sustainability to new and
“The nation is our laboratory,NHERI@UTexas have mobile shakers, will travel” Large-Scale Mobile Shakers for Natural Hazards Field Studies to Develop Resilient and Sustainable Infrastructure University of Texas at Austin 1 “The nation is our laboratory,NHERI@UTexas have mobile shakers, will travel” Combined Active-Source and Ambient-Wavefield SurfaceWave Testing for Deep (> 1Km) VS Profiling in Christchurch, NZ 2
2017 Engineering Deans Institute Coral Gables, FL, 2017 April 5Prof. James Ricles, Director/PI Prof. Richard Sause, co-PI 1 Lehigh NHERI• Housed in Advanced Technology for Large Structural Systems (ATLSS)• Network for Earthquake Engineering Simulation (NEES) Site (2004-2014)• Unique facility that enables transformative research for natural hazard loss reduction and development of a resilient community Portfolio of equipment, instrumentation, infrastructure, testbeds, and experimental simulation control protocols for structural testing Large-scale, multi-directional
classroom setting.Introduction The effectiveness of using simulation-based learning strategy for procedural knowledgeor skills has been reported by many researchers [1]–[3]. Such an approach can “replace andamplify real experiences” through proper guidance to “evoke or replicate substantial aspects ofthe real world” [4]. Simulated environments that can provide the high fidelity immersiveexperience, such as CAVE [5]–[7] or other forms of visualization representation can help thelearners create the necessary cognitive connection [3], [10] between the physical world and thecomputer-generated instance. With the technological advancement in visual computing, simulation-based learningthrough technology such as virtual reality (VR) that
frequency bands (MF, LF and VLF) 1 where wavepropagation is mostly the result of diffraction around the earth’s surface and/or the surface wavebeing guided by a conductive earth in the same way of what would occur on a transmission line.This is referred to as ground wave or is sometimes called the “Norton surface wave.” [1,2] and isillustrated in Figure 1. Because of the earth’s limited conductivity, it takes a relatively large amountof power to overcome ground losses (in addition to spherical dispersion losses) and these groundlosses increase as the frequency is increased. Hence, this is why practical ground wavecommunication is limited to the MF and below bands (i.e. below 3 MHz). Another means of radiopropagation is tropospheric bending where
materials including High-PerformanceConcrete1 and Fiber-Reinforced Concrete.2The material is embedded with an inexpensive capacitance sensor and interrogated by broadbandTime-Domain-Reflectometry (TDR), providing a molecular rotation spectrum of water over anextremely wide frequency range (10 kHz - 8GHz.)Three separate states of water participating in the hydration reaction are identified, including afree-water rotational state, a bound-water rotational state, and an ion-hopping state. The threestates have been fit to appropriate models as a function of cure time, while a variation in cementchemistry revealed the nature of the processes involved.The results are: 1) a free-water relaxation which monitors the disappearance of water intohydration and
investment costs andgreen values for each technology option, and there is a hierarchy to the innovation optionsavailable for each turn. The students work within their team and budget (and within ten rounds ofthe game) to try to create the most profitable and green supply chain. Students compete withother supply chain teams. Successful game strategy requires both cooperation and competitionfor players to succeed.1. BackgroundThis work is based upon development of a board game, entitled Shortfall (previously reported[1-3]), which simulates a simplified supply chain for automobile production. The goal andchallenge of playing Shortfall is to learn to maximize profit while minimizing environmentalimpact. The auto industry manufacturing supply chain
” and “Six Sigma” technical articles published in the Societyof Manufacturing Engineering Technical Articles section, Six Sigma was primarily identified asa quality program with a focus on reducing process variation and Lean as a program focused oneliminating waste and improving flow using problem solving and statistical tools.1 Many of thearticles simply focused on the Lean and Six Sigma tool kits.In a recent article, the author advocated an integrated approach to process improvement usinglean manufacturing and Six Sigma principles.2 Another article which focused on Lean, arguedthat “successful execution of the corporate strategy is the ultimate goal not merely becomingLean” and offered Profit Mapping as a methodology for tying Lean to the
certain activities such as the follow:From “Value Stream Management” (Don Tapping)1The process of Value Stream Mapping can be reduced to 6 general steps: 1. Determine the appropriate process to improve. 2. Create the current state map of the process. 3. Determine the appropriate metric for improvement. 4. Create the future state map of the process. 5. Determine improvement methods to go from the current state to the future state that achieve the correct metric. 6. Initiate the improvements. Step 1: Determine the appropriate process to improve. In any normal manufacturing environment there can exist many individual processes. Many individual products contain multiple processes, of which each process is further
instructors and students view the students’ classroom roles and howrecognizing and synthesizing these roles can eventually lead to a collaborative learningenvironment.Introduction/MotivationEngineering courses are typically structured to be systematic, content-heavy, and based on finedetails and concepts. While such a course structure is thought necessary for most courses, it hasbeen observed that students tend to gravitate towards rote learning and perhaps mostlyremembering just enough to succeed in the exams [1]. There are two ways to counteract thisproblem. The first approach is to reduce the course content and focus on essential and importantconcepts in more detail, with repeated activities around the reduced number of topics [2]. Thesecond
, students can quickly forget them because we usually do not use them daily inour busy life.However, if the professor or instructor adds some comments that for any soil/rock larger than thelength of his or her foot or 12 inches, the soil/rock is defined as boulder, the students will have alonger and maybe even a lifelong memory of boulder size in the USCS soil classification.Next size boundary is 3 inches length, about one of a person’s figure length, also equal to 1 foot(12 inches) divided by number four (#4 sieve). So any rock/soil larger than 3 inches, a finger’slength, but smaller than 12 inches or one foot is considered as cobbles.The number 4 sieve, roughly 5 mm (4.75mm) is approximately the width of a person’s pinkyfinger nail width.So if the
nursing students was created, the Native HealthcareEngineering Internship (NHEI).The NHEI is a pilot program to improve operations in rural healthcare facilities, with a focus onthose serving AI/AN populations. The program funded the summer employment of two AI/ANundergraduate students, one from Nursing and one from Industrial and Management SystemsEngineering, to perform process improvement projects at rural healthcare facilities in Montana.The program sought to achieve several objectives: 1. Provide an opportunity to improve the retention and success of AI/AN students by employing one engineer and one nursing student in mentored research projects serving the AI/AN healthcare system within Montana. 2. Develop new research
so they can fully appreciate their capabilities as well as their limitations. Studentassessment has shown that our approach greatly enhances understanding of helical antennasystems and has caused significant increase in student enthusiasm for selected topics in antennas.Introduction The helical antenna was invented by Dr. John D. Kraus in the 1940s [1]. The uniquedesign has given this type of antenna several advantages over other directional antennas. Theseadvantages include universal polarization, relatively high gain, broad band capability -withrespect to both directionality and SWR- greater immunity to multipath interference, as well ashaving a relatively simple structure and feed system. Helical antennas are widely used in
thatfocused on students’ preferences for Blackboard or Canvas as part of theundergraduate research effort, which resulted in 137 responses. In addition, a usabilitystudy was conducted to gain qualitative usability data. Among other questions, thestudent preference survey asked students to rank the two systems for the followingtasks: 1. Finding course documents 2. Finding grades 3. Having accurate and updated grades 4. Ease of navigation 5. Intuitiveness 6. Communicating with professorsVolunteers were recruited from the 2016 online survey for a usability study. Duringthe study, students performed a set of five tasks in both Blackboard and Canvas. Eachtask was timed and the number of clicks to complete each task was recorded. Thetasks
consultation area which has a stationwith a 42 inch screen, seats five to six people and has a wireless keyboard and mouse, seeFigure 1. The students are encouraged to use their electronic devices to follow along or takenotes.Figure 1: Teams Consultation DeskThe team meeting includes showing the class guide, demonstrating each relevantdatabase/source, and explaining which library services to use for the project. Typically the first20 minutes cover the class guide, Figure 2, project scope, Knovel or Engnetbase, and Compendex. For example, if the topic is lubrication and the team had only narrowed down the topic to any type of synthetic lubricant, then the first step would be for the librarian to ask about which brand or formulation was being considered
mainpremise of the TAP theoretical framework is that the validity of an argument depends on itslogical structure, and the process for constructing these arguments is argumentation23. The TAPmodel is a general model that can be applied to many disciplines, including philosophy, law, andmathematics, among others. Per Toulmin’s definition, a rational argument contains some, thoughnot necessarily all, of six main elements: claim, data, warrant, backing, modal qualifiers, andrebuttals (See Figure 1). More complex arguments will include more elements. For the purposesof this research, we chose to define an instance of EBR using a limited version of Toulmin’s sixelements in order to explore a greater variety of EBR. This simpler version of “instance of EBR
and High School Students in Summer Robotics Program (Fundamental Research)IntroductionRobotics provides an opportunity to engage more students in STEM. Veltman, et al. [1] andChubin, et al. [2] observe that robotics is particularly effective in attracting male student interest.Many current robotics programs are mission-based. That is, students build robots that are strongor fast to carry out a mission in competition with other robots. Several researchers have shownthat female students are often less motivated by competitive, mission based approaches [3-5]. Inour own rural area, females are less likely (1 girl:10 boys) to participate in robotics programs,which mirrors national trends [6]. Female students are more likely to be
underdevelopment (1). The current focus of this development is CAPTIVATE, a serious game to assiststudent veterans in mastering the calculus and physics skills that are necessary prerequisites tothe main engineering curriculum. Building on the development and lessons learned fromMAVEN, a game developed previously to help student veterans master precalculus skills, thedesign and initial implementation for CAPTIVATE involves careful consideration regardinggame and instructional design. Many of the positive aspects from the design of MAVEN havebeen implemented in CAPTIVATE. First, the overall framework developed for MAVEN hasbeen reused. This modular framework involves both a model and process that combine game,instructional, and software design in a way
. She was selected as a National Academy of Education / Spencer Postdoctoral Fellow. Dr. Svihla studies learning in authentic, real world conditions; this includes a two- strand research program focused on (1) authentic assessment, often aided by interactive technology, and (2) design learning, in which she studies engineers designing devices, scientists designing investigations, teachers designing learning experiences and students designing to learn.Jill Marshall, University of Texas, Austin Jill A. Marshall is an associate professor of STEM Education. She studies how people come to understand and engineer the physical world and how teachers can facilitate that process, as well as equity issues in STEM
exposure in STEMactivities through their high school tenure [1-4]. While successful for approximately 7% ofstudents who entered 9th grade in 2001, this system has filtered out 93% of the population,including many students who might have had interest and potential to pursue STEM careers [3].Importantly, this pernicious systemic problem impacts students of color (African American,Hispanic American, American Indian and Alaska Native students) disproportionately. Forexample, in 2010 studentsof color represented 31.3%of the nation’s population[5], but earned 17.8% of theengineering and sciencedegrees [6]. Lookingforward we see that by2020, almost half of thenation’s k-12 schoolpopulation will berepresented by students of Figure 1. In 2001, more
section and which semester they were created in, and then assigned a number from one to41. Using the rubric described above, two researchers first independently evaluated just 4infographics, met to discuss any differences in their application of the rubric, and then negotiated1 This was because one of the assignments from the Fall 2015 sample did not actually include afull readable infographic. We discarded that group’s work from this study. 5to a consensus (e.g. to scores for each category that were no more than 1 point apart).Researchers then evaluated four more infographics, and again negotiated any differences. Againindependently, each researcher then evaluated the remaining 32 infographics. Of