previously. His research interests include Mixed-signal/RF circuit design and testing, measurement automation, environmental & biomedical data measurement, and educational robotics development.Simon CastroOctavio CarrilloRene VillegasChristoph Ruepprich, Texas A&M UniversityProf. Kevin MylesZach Adelman ©American Society for Engineering Education, 2022 1 Session XXXX Capstone project progress on the floating buoy IoT device development for mosquito research 1 Byul Hur, 1Simon Castro
checklist is utilized to construct astoryboard template that can be used to formulate video design in both formal and informallearning settings.1. IntroductionVideos are shown to serve as a valuable supplement for traditional in-classroom instruction [1].Well-designed instructional videos provide students with the necessary tools to succeed,especially at their own pace. One of the benefits of instructional videos is that it allows forlearner control. Students can pause, play, and interact with a timeline. Other interactions includehotspots that allows users to accentuate specific content and quizzes to create more in-depthlearning and retention. While research has found that student perceptions of instructor-generatedvideos were generally positive
students (See Figure 1). Analyses of our program successes underscore theimportance of social capital, community, and a sense of belonging as successful recruitment andretention strategies.2 Recruitment PathwaysPATHS successful recruitment efforts can be attributed to making the application processstreamlined with the general admission process and K-14 outreach that PATHS scholars conductas CS@Mines ambassadors. Forty percent of PATHS scholars participated in K-12 outreach fouror more times over the academic year as opposed to just 8% of the Computing ResearchAssociation’s (CRA) Center for Evaluating the Research Pipeline (CERP) national comparisongroup 6 .The flexible CS degree program, now with seven tracks (General, Data Science, Business
the creation and maintenance of a program supporting transfer URM students into engineering. This effort has considerable implications for the STEM professions, such as engineering, where racial/ethnic minorities, first-generation, women and the socio-economically disadvantaged constitute a disproportionately low percentage of the workforce. As noted in the ASEE yearly report, only 11.4% of bachelor’s degrees in engineering were earned by Hispanic students and only 4.2% were earned by Black/African American students in the 2018 academic year. [1] As a result of this talent development challenge, colleges and universities around the country are placing a growing emphasis on programs that allow students to gain work and research experience and
significantly increases the potential for success.Purpose The overall purpose of this RAPID project was to investigate and capture the experiencesof ECE partner faculty and their students during the COVID-19 pandemic [1]. In addition, theprimary emphasis of this specific investigation was to examine the changes occurring inengineering education during the spring of 2020, through Summer 2020 into Fall 2020, as coursesmoved and were adapted to being taught virtually. Spring 2020 data was used to document howfaculty responded immediately to the crisis, whereas spring 2021 data is being used to verify theprevious information and to validate themes and perspectives focused on identifying barriers,opportunities, sources of information, and
absolute number of URM women pursuingenvironmental engineering degrees is small. Graduates enter the workforce against the backdropof environmental attitudes, actions, and career pathways that are neither gender nor race neutral.The severity of environmental decline intersects with gender and race, in addition to geographicregion, socioeconomic resources, and other markers of social location. In light of these factors,we consider how diverse groups of women majoring in environmental engineering are positionedfor leadership in the field.Our research questions are: What are environmental engineering students’ graduate school andjob intentions during college? What are their graduate school and job destinations 1-3 yearspost-graduation? How do
% of healthcare equipmentin low-resource countries is donated or funded through international organizations and foreigngovernments, but only 10-30% of that equipment is able to be used — and most of that 10-30%is restricted to those who can pay and are located within large cities [1]. This is due to the simplefact that while most of the world's healthcare is consumed in low-resource settings, medicaltechnology is still designed primarily for high-resource settings. These designs assume a level ofinfrastructure that is not a reality in many places and follow expensive, complicated designcriteria that only exacerbate the problem. Most donated medical equipment lacks the ability to berepaired due to inaccessible spare parts, unreadable or missing
researchers seek to understand whether and to what extent thedevelopment of engineering “habits of mind and action” in middle school STEM (science,technology, engineering, and math) courses leads to improvements in problem solving abilities,integration of STEM content, and increased interest in engineering. The Next Generation ScienceStandards (NGSS; NGSS Lead States, 2013) call for “raising engineering design to the samelevel as scientific inquiry in science classroom instruction at all levels” (p. 1). Reflecting thisemphasis on engineering as a core idea, recent reforms include proficiency in engineering designas a key component of college and career readiness (Auyang, 2004; Carr, Bennett, & Strobel,2012; Duderstadt, 2008; Kelly, 2014
introductory biology course into an active learningexperience that resonates with a wide range of undergraduate students. Backward course designled to an innovative curriculum that (1) is based on biology’s big ideas, (2) has measurablelearning outcomes, and (3) encourages development of higher order thinking skills. Our studioclassroom design maximizes interactions; cantilevered workstations distributed throughout theroom encourage student-instructor and student-student interactions. Group discussions occur atwhiteboards as students solve problems, create concept maps, plan experiments and interpretexperimental data. Workstation computers and dual monitors support whole-class instruction aswell as student-led group explorations. The classroom design
our datawas identified after data collection was complete. However, consistent with the ways research isoften reported in engineering education research, we describe the Adaptable Learning Model upfront to help the reader understand the lens through which the data was selected for analysis andthen analyzed. We describe in detail two study sessions for one study group where loomingdeadlines directly impacted the SRL approaches students used.Framework Boekaerts1 Adaptable Learning Process (shown in Figure 1) is one of several models ofSRL. Boekaerts’ model differs from others in that it combines elements from motivation andcognition and emphasizes how self and situational appraisals play a critical role in how learnerschoose their course
specialization; and, at the same time,learn new approaches to teaching and learning.Traditionally, engineering research and teaching have been approached in verydifferent ways. To prepare for research we undergo years of rigorous training, both inscientific knowledge and in methods of gaining new knowledge throughexperimentation, analysis, and modeling. To prepare for teaching, most of us acquirethe same knowledge, except for a stint as teaching assistants; we receive almost notraining in how to impart it to students. Fortunately, there is now a well developedscience of human learning that has been very explicit in the ways in which studentsshould learn, and how teachers should teach (1, 2). Further, they address differentlearning styles (3, 4), focus
. When students come to class, they perform weekly labassignments. Because labs require students to collaborate in teams, the College of Engineeringidentified several challenges for delivering the course fully online in the future3. The paper willsummarize the results of the flipped classroom and its implementation using Google Docs andinteractive video for EE110.Grading results and course surveys were used to assess and improve the effectiveness of theflipped classroom over several course offerings. Various technologies include: (1) using worddocument with links to YouTube videos followed by with quiz questions in the first offering; (2)adding Google Docs (or Google Forms) with embedded YouTube Videos and quizzes in the nextclass session; and
country by 2015”. This need will have a strongeffect in high need school districts and thus the President’s Educate to Innovate campaign (2010)calls for an increase in “STEM literacy so that all students can learn deeply and think critically inscience, math, engineering, and technology.”STEM is primary driver of the future economy and hence the increasing number of jobs at alllevels require knowledge of STEM [1]. Research shows that insufficient training, time, andincentives are among the most commonly cited barriers for faculty effectiveness [2]. Manyfaculty have indicated that in terms of training they feel not well equipped and prepared to meetthe challenges that comes along in teaching STEM. Furthermore, research also suggest that theteachers
and develop a project with real-world engineeringapplication. These projects were presented on the final day of the SEE program, and facultyevaluated the student performances according to specific learning outcomes. A rubric survey wasalso distributed to students in order to assess the program’s effectiveness. The implementationand assessment process of Vaughn’s SEE program based on both faculty and students’ surveyresults will be discussed in the ASEE Annual Conference.Keywords: Freshmen Students, MATLAB, C++, Robotics, Workshops.1. Introduction Many students today enter college lacking the foundation and preparation for academic leveleducation. This lack of college level preparation can have an adverse effect upon studentunderstanding and
used in conjunction with other unmanned vehicles such asunmanned ground vehicles (UGVs)1 and unmanned underwater vehicles (UUVs). The UAVindustry is the fastest growing sector of the aerospace industries and the use of UAVs has beengrowing significantly for civilian applications.2Also, because of their cheaper costs, UASs can also be used as the entry point for manyadvanced concepts in aerospace and other engineering disciplines. For example, UASs can beused for testing many advanced control concepts such as neural network based adaptivecontrollers.3Many universities and R&D organizations have been conducting research on UASs in manyareas ranging from dynamics and control, obstacle and collision avoidance, multi-vehiclecoordination, and
systems. The results suggestthat alternative tools for idea generation may serve to focus attention on different qualities ofdesign, and that multiple tools may be important for design in engineering education.IntroductionEngineering design has been described as a problem-solving process that “searches through ahypothetical space of many possible ideas.”[1, 2] A design process can be viewed as having a front-end and a back-end, where the front-end design is a “fuzzy” process full of ambiguity[3] thatinvolves a series of divergent and convergent thinking episodes in order to come to a conceptualdesign[4]. The front-end phase includes defining problems, conducting research and designethnography, identifying design requirements, idea generation, and
Education, 2017 Supporting Veteran Students Along Engineering Pathways: Faculty, Student, and Researcher PerspectivesAbstract Student veterans, with their highly technical military training, may help remedy national levelgaps in qualified science, technology, engineering, and mathematics (STEM) workers. Recentmilitary education benefits and military end strength reductions have the potential to bolster thenation’s engineering technician, engineering technologist, and engineer (ETETE) workforce. Recentwork by the National Science Foundation indicates that supporting veteran students towards ETETEcareers involves three key tasks for educators: 1) building early awareness of ETETE pathways; 2)ensuring
An Investigation of Supportive Mentoring PracticesAbstractA recent study shows that 30% of undergraduate students are successful in completing degrees in STEMfields, of those only 29% are from historically underrepresented groups.1 During the past decade, thenumber of undergraduate students pursuing degrees in STEM fields from underrepresented groups hasincreased only by 3%.2 In order to address the significant need for the completion of degrees in STEMfields by underrepresented groups, efforts to develop effective mentoring practices have beenundertaken. Mentoring has proven to be an effective mechanism for ensuring student success in STEMfields. Select mentoring programs for women, minorities, and underrepresented groups have
UHD’s Garden Club. The as built-system is shown in Figure 1. A computerbased control system monitors soil water availability and turns on/off water valves as the plantneeds dictate using water potential thresholds. The energy required to power the computersystem and sprinkler valves is generated using a combination of solar and wind power.LabVIEW5 is used for data acquisition and control. In order to increase the usability of thegarden and enhance it aesthetically during night time hours, lights were installed along itsperimeter. The lights are powered via a battery bank that is constantly recharged with renewableenergy by photovoltaic cells in conjunction with a wind turbine. The battery also supplies therequired power to operate the control
, while others realized poor outcomes in terms of implementation and completeness oftheir solutions. Students were surveyed at the end of the first term of the sequence (Capstone 1) todetermine what they were most proud of, what was surprising about Capstone, and they were also askedother questions designed to explore their attitudes and approaches toward the course and its content.Textual content analysis was used to determine major themes and reveal patterns that correlated with finalproject outcomes in Capstone 2. There was no statistical difference between prototype/success scores forteams who changed topics or launched later and those who did not at the = .05 level. However, someclear differentiators did emerge. Teams whose topics changed
their undergraduate programs and educateinclusive communities of engineering and computer science students prepared to solve 21st-century challenges.”The idea for RED emerged from a high-level review of Engineering Education investments at theNSF. Informed by both internal program evaluations of current and prior programs and externalassessments in the engineering education literature [1, 2], the review revealed that while therehad been significant progress made in diffusing engineering education innovations in first-yearengineering and in capstone design, change had been much slower in the middle years of thecurriculum. In particular, while certain workplace-relevant engineering skills such ascommunication, teamwork, design, ethics, and socio
which participantswere prompted to brainstorm protective and risk factors for: 1) non-American Indian STEMteachers’ relatability to their American Indian students; 2) American Indian student persistencein school; and 3) retention of non-American Indian STEM educators in Nation schools. Oncedata were transcribed and reviewed, several patterns of insights emerged across prompts.Common protective factors for all three prompts emphasized the need for non-American IndianSTEM teachers to: 1) gain the trust of students; 2) build relationships with students’ families, 3)learn about and participate in the local culture and language; and 4) engage with communitymembers to build rapport. Identified risk factors across prompts included: 1) student absences
argumentation in science and engineering and the benefit they play in developing literacy in specific content areas. c American Society for Engineering Education, 2017 Teacher Discourse Moves that Support Dialogic Interactions in Engineering in Linguistically Diverse Classrooms (Fundamental)Researchers and educators have long recognized the role that oral discourse plays in fosteringstudent learning.1, 2 Historically, much of classroom instruction has relied on the Initiate-Respond-Evaluate (I-R-E) pattern of oral discourse.3 In this pattern, the teacher initiatesdiscourse through asking a question, the student responds to the question, and the teacherevaluates the students’ response, giving
. The students commented that thecourse material was easy to understand due to the lab experiments and demonstrations in theclass. Details of topics covered in our course, the circuit simulations done, measurements ofinterference signals under varying conditions, challenges faced and student feedback are alsopresented. 1. IntroductionThe course of Electromagnetic Compatibility (EMC) has been taught for many years at ourUniversity. We improved the course with new topics, simulation and experiments. The industryprojects that we did also helped us in improving course topics. The course outline and outcomeare given in Appendix A. The course required a lot of background related to electromagnetics,communication circuits and systems, measurements
-implementexperiments. A key challenge in developing appropriate experiments is keeping the cost downwhile keeping the students from getting lost in implementation details. Hill designed and 2Figure 1: Picture of the Zumo robot chassis and sonar sensor along with a masking tape stoppinglinepresented a series of such experiments that combined an Arduino micro-controller board withMatlab and used them in a flipped dynamic systems and control course 16 .Pedagogical InnovationsOn some level, this paper serves as a benchmark to see how well PDM students who do not takedynamics understand system dynamics and control compared to ME students who do takedynamics as a prerequisite. Additionally, this paper investigates
have taught earth science, physical science, astronomy, and chemistry. I have been married to Leslie Harris Lamberth of Elizabeth City, NC since August 2014. In the summer of 2014 I was accepted into the Kenan Fellows Program to work with and learn about Dr. Gail Jones and Dr. Jess Jur’s work at the ASSIST (Advanced Self-Powered Systems of Integrated Sensors and Technologies) Center at North Carolina State University as an RET 1 (Research Experience for Teachers.) The ASSIST Center’s goal is to create a wearable, self-powered, multi-modal health moni- toring device. The following year I was brought back as an RET 2 to work with Hannah Elliott, Dr. Elena Veety, and Dr. Jess Jur to design, market, and implement
University of Maryland (UMD)was started in 2009 with the implementation of the new program beginning with the enteringfreshman class in fall 2012. The A. James Clark School of Engineering at UMD now plays asignificant role in GenEd and offers courses in a number of areas in the program, a significantdeparture from the previous general education program that had been in place for more than 25years and where the engineering college had played only a very minor role. When the Universityembarked on a redesign of the GenEd program, Provost Nariman Favardin and Associate Provostand Dean for Undergraduate Studies, Donna Hamilton recognized the need for all students to beexposed to the intellectual synthesis that occurs in applied disciplines [1-3]. As
the master’s degree in Engineering man- agement at UAE university which is the top University in UAE. This study was done in our first workshop in engineering process management.Miss khawla Mousa Alrayssi, UAEU Miss Khawla Alrayssi graduated as a Mechanical Engineer from UAE University in Jun 2010 and started her career in September 2010 at STRATA manufacturing in UAE. After being in the job as manufacturing engineer in aerospace field for 1 year she underwent training in material & process engineering & Non- destruction tests for aircraft parts t in Alenia Aermacchi in Italy for 7 months. On returning she joined the Quality team in STRATA as Non-destructive test engineer and works there for the past 4
Engagement and PersistenceAbstractWe present a work in progress that demonstrates increased engagement and academic persistenceby transfer engineering students when the Lean LaunchPad™ (LLP) [1] methodology is appliedto teach the engineering design process. Transfer students entering engineering programstypically do not receive the same level of attention entering freshman do. New Mexico StateUniversity (NMSU) and Howard University (HU) saw an opportunity to improve academicpersistence, graduation rates, and overall experience by co-developing a program that helpstransfer students be more successful. A collaborative 3-year grant was awarded from theNational Science Foundation’s (NSF) Broadening Participation in Engineering program. Theobjective of
Tecnologico de Monterrey and a doctoral degree in Mathematics Education from Syracuse Univer- sity, NY. Dr. Dominguez is a member of the Researchers’ National System in Mexico (SNI-1) and has been a visiting researcher at Syracuse University, at UT-Austin and at Universidad Andres Bello. She teaches undergraduate courses in Mathematics, graduate courses in Education, and is a thesis advisor on the master and doctoral programs on education at the Tecnologico de Monterrey. Her main research areas are: models and modeling, use of technology to improve learning, gender issues in STEM.Prof. Genaro Zavala, Tecnologico de Monterrey, Monterrey, Mexico, and Universidad Andres Bello, Santiago,Chile Genaro Zavala is Full Professor of