. Awareness of thesocial and historical context of science and society motivates internal change as well as anexternal commitment to social justice. There are multiple ways to facilitate emerging engineersto thinking about diversity, categories, social science, and social justice. We chose to do so withrace because of the overwhelming evidence that race is socially constructed9, 10, 11, yet thecontinued belief by many in popular culture and some scientific disciplines that it is largelybiological.GAMES Lesson Plans: An Integration of ScienceIn this paper, we present two examples of social and engineering education integration atGAMES. These examples were carried out in the 2013 (n=29) and 2014 (n=32) offerings of thesummer campThe social context and
withweekly progress were used to document the tasks performed by the students, and also providedformative feedback to the course. For example, remarks such as “we haven’t done this in class”or “needed a lot of revision” helped the instructor to adjust the pace of lecture instruction.3.3 Weekly ScheduleThe following rubric was provided to students to plan and schedule their work:Week 1: Design area selectionList and describe the method that is being used to select a topic and why. Present a shortdescription of how you came to the decision, which could be a literature search, personalcommunication, or other method. Page 26.1309.6Week 2: Identification
reflection pieces that we received, most students (14/16) mentioned that Page 26.1318.8they wished they had more time to complete further designs, which is a sign the their high level of engagement with the project. Moreover, roughly half (7/16) of the reflections described incremental improvement to their original design concept, which is an important part of engineering optimization. Most student reflections mentioned that they should have spent more time on an initial plan, developed their idea more fully before
members starting a chain of catalyticpositive changes in sanitation and hygiene.” This care statement aligns with her research onsustainable and equitable funding schemes for sanitation campaigns. But rather than developingengineering solutions or economic models, her focus is now on how to measure the impact ofsanitation interventions―an endeavor that could inform funding plans akin to social impactbonds.While in India, Sarah focused on sanitation and hygiene metrics specifically for the collaboratorsat ESI. She hopes to continue working with Dr. Hariharan to research metrics for socialimpact―unencumbered by any sense of obligation to build anything.Case study of Student B:When Devika arrived at the KGC, she had taken the course two years prior
the camp and personnelinvolved, and future plans based on evaluations from the current year. In summary, outcomeshave been achieved, and the majority of students felt their experiences were particularlyrewarding. The intent is for this review to provide guidance and inspiration to other aerospaceengineering programs seeking to engage high school students into their program of study.Camp Selection and StructureThe aerospace engineering (AE) camp, Camp SOAR (Summer Opportunities in AerospaceResearch), provided an opportunity for students entering their junior and senior year of highschool to explore the major and learn more about AE at Texas A&M University (TAMU). From
technology project had a high impact in the areas oftime management, engineering career awareness and planning, research methods and techniques,critical thinking concepts, and unit systems and conversions. From previous research we haveconfirmed the fact that engineering students with the demographics of The University of Texas atEl Paso prefer a class that uses technology.Finally, from the attitudinal survey, as a whole, the majority of the students were actively engagedin the different activities required to do the 3D technology project. Comments like the followingwere written on the open-ended questions of the survey: • Question 48. What new technical and engineering concepts did you learn from this project? o “I learned how to use
pricing, traffic simulation, and engineering education.Dr. William J. Davis P.E., The Citadel William J. Davis is a professor in Civil & Environmental Engineering at The Citadel in Charleston, SC. He received his Ph.D. in civil engineering from Georgia Tech and is a registered professional engineer. His research interests focus on transportation infrastructure planning and design, highway safety, and active living by design. He teaches courses in engineering management, transportation engineering, geographic information systems, and land surveying. Page 26.219.1 c American
many of the other non-traditional activities, two exchange trips are made with teammembers traveling to their opposite foreign location. Ideally the first trip occurs near the initiation of theproject for planning, organizing and conceptualization. This early face to face meeting has been found tofacilitate the formation of personal relationships that endure during the project execution and enhanceboth the outcome of the project and the cultural experience. To further enhance the experience, duringeach visit, the visiting students are lodged with the host students for a total emersion into the culture ofthe country. The framework of this international capstone project addresses key variables identified asnecessary for maximum impact: customers
within the constructionism approach that underlies thepedagogical philosophy of this study. The project to develop the CooL:SLiCE cyberlearningplatform and planned evaluations within this cyber environment are next discussed.CooL:SLiCE Cyberlearning Environment The CooL:SLiCE project supports sustainable engineering education by leveragingcyber-technology’s role in learning environmentally responsible lifecycle engineering. A multi-institutional team of researchers from Wayne State, Penn State, and Oregon State universities arecollaboratively developing the innovative distributed cyberlearning platform to facilitate students’consideration of the range of human controlled and initiated impacts products have on the naturalenvironment. The
, three assessment tools were developed.1. CRP Proposal. The student teams propose their product in the form of a short memo report describing their product selection, parameter selection and the initial design of experiments (testing methodology). The proposal provides an opportunity for instructor feedback on the team-specific project plan. Often resubmissions are requested for clarity or alternative experimental plan. The instructor must approve the proposal before purchases can be made.2. Project Workspace. The students maintained a PBWorks.com12 workspace to document their progress, tabulate raw data, and manage their team efforts. PBWorks.com is web-based management tool designed as wiki-styled pages for collaborative projects
introduce studentsto the design process with a goal-based design project2. This course was also used to enable thestudent to learn and practice team skills. The final project involved the creation of a LEGO® robotto satisfy a Product Design Specification (PDS). The solution to the design project was presentedduring an end of quarter competition. Some of the course objectives were improving creativity,preparing team documents such as agendas, minutes, memos, making team decisions, organizingand managing a project, preparing a professional development plan, demonstrating ethicalbehavior, and presenting technical oral and written work. The authors found that the overallresponse by the students was positive and that they perceived some value in
ideas can help advance curriculum design.Future ResearchFuture research will necessarily need to establish validity and inter-rater reliability of this scoringrubric. Having begun to explore inter-rater reliability, we plan to create a scoring guide to insureobjectivity of rubric scorers. This guide will present examples of children’s illustrations and arationale for thinking about continuum score assignment. Our exploration with mDAET codingprocedures thus far suggests such a guide will help to maintain inter-rate reliability (i.e. helpcoders refrain from interpreting or assuming children’s meaning).Other potential research initiatives might analyze a collection of children’s naïve conceptions ofthe work of an engineer and organize these child
generation IP protocol. Wemeasure IPv6 adoption through eight adoption metrics gleaned from eleven datasets. Datacollection covers a two year period from January 2014 through December 2015.In addition, we address the implications of the sudden uptick in IPv6 adoption, as it continues ona path of accelerated expansion. The long awaited transition from IPv4 to IPv6 has implicationsfor all organizations who will soon be making the change; many of which may not be preparedfor how to systematically approach such an undertaking. Factors such as project planning, IPv6saturation, infrastructure assessment, policy redesign, and network continuity are discussed askey areas that will need to be addressed as organizations begin to adopt IPv6.Key words: IPv6
to answer 0.4% Missing Data 18.1% Total (n=1070) 100.0%The project's institutional sampling plan sought to gather information from a disproportionatelyhigh percentage of Hispanic engineering students and alumni relative to the nationalrepresentation. As shown in Table 2, data collection did meet this objective, as one-third of allrespondents who answered this question identified as Hispanic/Latino (note: this percentagejumps to 41% when missing data were removed). The 18.2% who did not answer this questionwill be filled in following the institutional data merge. Therefore, the data set
integrates requiredcourses with career planning and support, followed by a paid internship with a partner company,completed by final reflection and placement. The net cash outlay for a participant is $4,400 withthe opportunity to earn the equivalent or more during the paid internship. We have developedtwo tracks for the program, one in Innovation and one in Technology. Each track shares severalfoundational courses and has been designed to meet the diverse needs and prior skills of ourtarget population.Courses/core curriculumManufacturing certificate programs are offered at MassBay Community College and are part ofthe engineering department offerings. The college is an open access institution and thecertificate programs do not have prerequisite
requirements, were formulated. Competitions were planned atthe end of each quarter with the goals of having the shortest time for the quadcopter to traversethrough a set course in the Fall quarter and the shortest time for delivering two objects based oncolor and distance recognition in the Winter quarter. We are in the process of developingadditional discipline focused projects to be implemented during the second quarter due tosuggestions from faculty to diversify projects to be more major specific.Course ImplementationSince the course was not required, first-year students were informed and recruited throughpresentations during summer orientations and were enrolled on a self-selecting basis. Studentenrollment increased dramatically since the initial
). In spring 2016, the first cohortcontinued research projects and finalized summer clinical immersion plans while the secondcohort entered laboratories, began research projects, and planned summer experiences.EvaluationTo assess and continuously improve the CSP, the CSP development team works closely with anon-campus engineering education focused group, the Academy for Excellence in EngineeringEducation (AE3). The CSP received start-up funding through UIUC’s College of Engineering’sStrategic Instructional Innovations Program (SIIP) which requires a mid-year and end-of-yearreview by an AE3 panel. As part of the funding, the CSP is assigned a delegate from AE3 who istasked with attending CSP development team meetings and serving as an
an NSF research project.Nicholas Kumia Senior in the Undergraduate Mechatronics Engineering Program at Vaughn College He graduated high school at the age of 16 and has completed the 4-year Mechatronics Program in 3-years. Recently, He co-founded the UAV (Unmanned Aerial Vehicles) Club at Vaughn College and has been working as Lead Programmer. He plans to pursue a master’s degree in Computer Science to supplement this expertise in Mechatronics Engineering.Mr. Jonathan R. Zubarriain, Vaughn College of Aeronautics and Technology Jonathan Zubarriain is a senior in the Mechatronics Engineering program at Vaughn College of Aeronau- tics and Technology. He is co-founder of the Vaughn College UAV Club and has held the
University of Glasgow (UoG) and the University of Electronic Science and Technology ofChina are partners in a joint educational programme (JEP) in Electronic and ElectricalEngineering (EEE). The Glasgow College, UESTC in which the JEP in EEE is housed is now in itsthird year of operation. The JEP in EEE has an enrolment of 600 students in the first threeyears of the four year undergraduate programme with a planned enrolment of 960 studentsin steady-state. As part of its mission, the Glasgow College, UESTC has organized severalsummer overseas immersion programmes (OIP) to enable all students in the programme tohave an international experience prior to graduation. One of the OIP is a trip to the UnitedKingdom and Ireland. The students spend a long
for academic success.1. IntroductionWith the increasing demand for a skilled and technically savvy workforce in the United States,addressing retention problems in the first two years of college is a promising and cost-effectivestrategy to address this need. A recent Committee on STEM Education National Science andTechnology Council report Federal Science, Technology, Engineering, And Mathematics(STEM) Education 5-Year Strategic Plan indicates that the United States needs make STEMeducation a priority. To achieve that goal, the Department of Education has committed $4.3billion to encourage states to develop “comprehensive strategies to improve achievement andprovide rigorous curricula in STEM subjects; partner with local STEM institutions
Immersion TripsOur International Programs Office offers various study abroad opportunities, including a 10-daycultural immersion trip offered during the summer between the junior and senior year. Eventhough these trips are short in duration, they offer a high-impact, motivational event in thestudent’s educational experience. We identified students that would be on the same seniorcapstone project teams and planned a cultural immersion trip that would be technically related totheir UAS capstone project. This had three benefits: (1) developing cultural awareness; (2)learning technical information which would aid in their UAS capstone project; and (3) a team-building experience for the capstone team. We tried two different formats for the trips. The
2Technical Elective 2Technical Elective 2Total MXET Core Courses 48Total MXET Focus Area (See Table 7 and 8) 29Total Required Courses 127Emphasis Areas Two different focus areas are presented as viable examples of the breadth of the MXETprogram in supporting multidisciplinary undergraduate experiential learning opportunities. Thefirst focus area planned for implementation will be mechatronics. Based on industry support andstudent interest, once the mechatronics focus area is stood up and operational, the entrepreneurialnew product development focus area will be created. Other focus areas which would
case, allstudents take the discipline-relevant core courses in support of the project they are working on.The students interact as a cohort from start to finish - from general education and math tograduation. However, such an idealized plan is difficult to implement in the face of alreadyestablished pedagogy. Electrical Mechanical Engineering VIP Engineering Senior Design Senior Design Senior VIP Team Member Junior Project Technical Elective Sophomore Project
students the intricacies of business practices and the help themunderstand the tradeoffs between different organizational goals in Supply Chain Management.In the Integrated Systems Engineering department, the undergraduate students take rigorouscourses in linear and non-linear programming as well as simulation modeling as part of theiroperations research core classes. In their junior year, they take a class where many of thesemethods can be applied called Production Planning and Facility Layout. It is this course that isthe subject of the research described in this paper.Today’s industrial systems engineering students do not just go into the traditional manufacturingsector, but also delve into many diverse fields such as healthcare, the airline
approach is not an attempt to abandon the traditional ControlSystems textbooks. Instead they aim to foster a stronger engagement and interest from studentsbefore facing complicated concepts in control systems. Presenting a less aggressive introduction,rather than going straight to formulas and long enunciates, may make students more comfortablewith Control Systems, promoting more self-motivation that can positively affect students’academic achievements.Results of a questionnaire at Florida Atlantic University have shown that students, who wereexposed to the new way of introducing Control Systems concepts, support a more nontraditionalapproach to teaching. We plan to further assess the educational value of the puzzles as related toControl Systems
-Disciplinary Research where as other partner academics were under pressure to use the Network to generate income and had targets in the areas of Internationalisation, Student Satisfaction and Curriculum Development.As a result of analysing these challenges the following Outcomes have been proposed and arein the process of being implemented to enhance the operation of the UNITWIN: • Development of a ‘New Partners agreement’ for new institutions joining the UNITWIN. This will incorporate a method of recording clear expectations on both sides, reporting methods and timings. • Better planning of subject specific meetings with exact regularity under negotiation. • Development of potential retreats and workshops (some on line
out.IntroductionEngineering freshmen at Grand Valley State University participate in a two courses sequencedesigned to explore the basic skills of electrical, computer, mechanical, and manufacturingengineering. The courses are EGR 106 - Engineering Design I and EGR 107 - EngineeringDesign II. The courses introduce computer aided design (CAD), computer aided manufacturing(CAM), microcontroller programming, and electrical interfacing. The lectures and laboratoriesare interwoven so that students may use the knowledge to design and build robots in the firstcourse, and create more complicated work in the second course. This paper describes the robotproject used in the first course of the sequence, EGR 106.A course plan for one winter 2015 lecture section is provided in
structure: Firstly, class time is insufficientto cover all the material and for the students to complete assignments with the assistance of theinstructor. Secondly, the tutorials are written in a format which may be confusing and difficult tofollow. In addition, these tutorials provide an emphasis on the tools to construct the CAD models,while dismissing the model planning stage, which is critical for an engineering design. Theauthors have attempted to address these drawbacks. Tutorial videos were created to clearly showthe model construction process from start to finish. One instructor taught the course in the usualmanner but made the tutorial videos available to the students. The second instructor converted theclass to a “flipped” or inverted
creation of a wide variety of objects.Learning Environments Department has embarked on a project to incorporate the Maker Campstrategy into a more formal process that includes creating sessions using learning blockswhich utilize a Project Based Learning (PBL) model at their core. This type ofstrategy could support the hands-on components of a Maker Camp combined with theinstructional strategies of Active and Project Based Learning in a simplified planning tool. Thedesign could then become a template moving forward. Our research explores what impact usingsuch a strategy had on our Tech-E Camp hosted at The University of Texas at El Paso –Undergraduate Learning Center as well as the impact of the technology challenges as theypertained to the
Paper ID #16659International vs. Domestic Research Experiences for Undergraduates (REU):A Three-Year Assessment of the Preparation of Students for Global Work-forcesDr. Cheryl Matherly, The University of Tulsa Dr. Cheryl Matherly is Vice Provost for Global Education at The University of Tulsa, where she has responsibility for the strategic leadership of the university’s plan for comprehensive internationalization. Dr. Matherly’ co-directs the NanoJapan program, funded by the National Science Foundation in order to expand international research opportunities for students in STEM fields. She is the recipient of two