interested facultymembers wanted to learn making techniques and makerspace equipment to facilitate their classes(and for personal curiosity). The first semester (Fall 2017) involved faculty attending three half-day workshops to learn maker tools and instructional strategies to support the integration ofmaking and design. Workshops were held in two makerspace areas, 1) Bobcat Made - theuniversity makerspace and 2) The Make Lab, low-tech mobile makerspace in the College ofEducation. Upon attending the workshops, faculty were asked to develop a lesson plan thatintegrated making and design into one of their courses for the following spring. Facultyparticipated in online forum discussions and received mentoring from program staff throughoutthis process
an Assistant Professor in Diagnostic Radiology at UT MD Anderson Cancer Center, where she conducted research on nonviral gene therapy systems. At Rice University she has developed and taught courses in The Department of Bioengineering includ- ing Numerical Methods, Pharmaceutical Engineering, Systems Physiology, Biomaterials and Advances in BioNanotechnology. c American Society for Engineering Education, 2019Water Sustainability: Science & Engineering Activities for the High School Classroom (Resource Exchange)The goal of this resource exchange is to disseminate over 27 lesson plans, research posters, and educational videos created by K-12teachers conducting summer internships in the field of
studies and demonstrate real-time critical thinking and problem-solving skills during a mock Senate Ethics Hearing. Students also choose technical areas toresearch, and work in groups to develop research proposals, patent applications, and businessplans. As a result, students learn to apply ethical perspectives and consider the full implicationsof unethical practices, develop valuable professional competencies, communicate with a diverseset of stakeholders and audiences, and identify a technical area of interest and work as a group tocreate and present a technology development proposal and business plan that meets a communityneed.The assignments and projects in the PFE course series directly address ABET Outcomes 4 and 5.The professional
developmentof professional skills required for working in industry. Finally, the emphasis of user-centereddesign, the user experience and emphasis on implementing a user-interface first before the back-end programming was found to be important to the success of a mobile project. Based on thisbackground, the mobile projects in our Capstone courses focused on using a team-basedapproach in doing the projects, interacting as closely as possible with the client, using the Agileproject methodology where applicable, and focusing on the user experience and user-interfacemore heavily in the design of the apps.Description of ProjectsProject 1: Sales and Operation Planning Dashboard AppDescription: The goal of this project was to create a mobile app that
students’ethical leadership, i.e. the ability to demonstrate, model, and promote ethical behaviors in theorganization one leads. This paper proposes an ethical leadership development module that isembedded in a civil engineering graduate seminar course.Section one of this paper reviews two bodies of literature: ethical leadership (EL) and leadershipdevelopment in engineering (LDE). Our module design is guided by a theoretical model thatbridges these two bodies of literature. Section two presents the ethical leadership module in threeinterrelated aspects. First, we report the formulation of learning objectives based on literature onEL, LDE, as well as graduate engineering students’ educational and professional needs. Second,we discuss plans for directly
often unable to connect the use of technology to a learning experience [6], therefore,instructors must be willing and able to make those connections for them. Construction facultymust seek ways to actively engage Generation Z students [7] in ways that these tech-savvystudents prefer to learn. Unfortunately, construction academics continue to struggle to define aclear path regarding how technology can be used in the classroom [4] which could be a detrimentto the learning experience [8]. Moreover, the utilization of technology in a constructionmanagement classroom can be cumbersome if there is not a well-thought-out plan to do so, andthe instructor is not aware of the impacts (good or bad) of introducing new technology.The incorporation of one
in the lecture portion of their courses. As the threeuniversities are CSUs, our class sizes typically range from 25 to 75. Physics I flipped thelaboratory portion of the course. The instructor developed pre-lab example problems and labpresentations which the students did before the lab. When the students went to their lab sections,they participated in workshop-type activities where they solved problems, performed labactivities and participated in discussion sessions. The individual lesson plans are available on theproject website at http://www.sjsu.edu/firstintheworld/.Faculty Survey on Active LearningDespite increasing research on active learning, the teacher-centered lecture model still persistsin STEM fields [8]. Although the number of
and devise a plan of action. This isusually a lacking starting point without which nothing will change. In the following, twoexamples from two different places in the world show how peace engineering can play apositive role in eliminating the sources of conflict and in implementing a plan to dealwith the root causes that created the conflict in the first place.2.1. The War in SyriaTrying to dissect the raging war in Syria in a few lines of text will be extremely naïve.This war encompasses an enormous entanglement of political, economic, religious,cultural, historical, and societal aspects [7]. In addition, regional and global powers thathave something to gain or lose in this part of the world became deeply involved, whichadded fuel to the
degrees from the University of Washington. He is the author of the text Embedded Microcontrollers, which covers assembly and C programming in small real-time embedded systems, and has been teaching the upper level embedded systems and senior project courses in EE/EET at WWU for 30 years.Dr. Derek M. Yip-Hoi, Western Washington University Dr. Yip-Hoi received his Ph.D. from the Department of Mechanical Engineering at the University of Michigan in 1997. His dissertation research focused on developing Computer-Aided Process Planning methods and software tools to support automation of machining on Mill/Turn machining centers. Follow- ing his Ph.D., he worked for several years with the NSF Engineering Research Center for
out a box, like a rectangle with a laser cutter, and I added this cool design on there as well. Overcome 9% I'm ready for any challenge … I have to keep trying even though if, like sticking say when the computer was shutting down on me, I just didn't give up. point Not give up when I have sticking points, but keep trying. Multi-step 13% My confidence level is pretty high. We've got a project going on, plan actually, we're in the process of just the very basics of creating a vacuform table, so we've started a base. We're attaching the legs very soon… Project 9% I think that's a pretty easy project
has served the USAF as a developmental test engineer responsible for planning and executing complex weapon system test and evaluation. He is a member of IEEE and the Tau Beta Pi honor society. c American Society for Engineering Education, 2019 Tips and Tricks for a More Effective You: Lessons Learned From a USAFA CadetIntroduction: Established as a means of preparing students to serve as officers in the Air Force, theUnited States Air Force Academy (USAFA) focuses on developing well-rounded leaders whoare charged with excelling in a military environment. This objective is achieved by focusingon the idea of a well-rounded person, as cadets are
Communities”. The partnership between the MAGIC team and theGerontology Department was initially brought about through a conference that is sponsored bythe Mid-America Institute on Aging and Wellness. At the beginning, discussions and planningmeetings for the partnership included many different departments and units throughout campus.In particular, several Engineering faculty produced contributions to the overall project. All of thefaculty members contributing to the present article were involved to varying degrees with theinitial discussions planning of the overall collaboration.The Minka house is characterized by a small and efficient floor plan design that is easilyaccessible, to allow for a longer period of independent living by the residents
toweight each criterion based on its importance. Next, students are given a list of materials and their associatedcost. Teams must come up with several different solutions and then evaluate the solutions. After selecting thebest design, the group constructs it. A pegboard base serves as the platform for constructing the thermal panel.Once built, the team tests its performance. Finally, the group optimizes the design and tests it again. Solar Water Heater with Commercial Thermal Panel Pegboard Base for Thermal Panel Construction Unit plan and other solar kit lessons available at
complex contexts. On the other hand, the findings from the deductive analysis revealed some of the (NGSS) and (STL) that align with sustainability components.Keywords: Sustainability education, K-12, Systematized literature review, STEM educationIntroductionReports on the future economic risks, due to climate change, highlighted the importance ofimplementing sustainability approaches into our lifestyles [1]. The Earth Summit by the UnitedNations in Rio de Janeiro resulted in a non-binding action plan, known as Agenda 21. This planacknowledges the urgency of implementing more sustainable approaches to our lifestyles, and thecritical role that education has on preparing students for future challenges [2]. For instance,Agenda 21 proposed the
settingup linkages with industry which often leads to employment opportunities for graduates, co-opactivities, and potential development of collaborative research programs. Unfortunately, adjunctsare marginalized by the academic systems in place today; and their contributions to the academicprocess are undervalued. Next, the paper reports on the success story of an adjunct, a practitionerwith good credentials, who “teamed-up” with a “full-time” faculty, in an attempt to bring thepractice to 4thyear students in a geotechnical/ foundation engineering class. The success achievedin meeting course objectives, was attributed, in large measure, to proper planning andcoordination that preceded course delivery. Plus, the willingness, experience and
Paper ID #27512Integrating Shelter Design and Disaster Education in Architectural Curricu-lumDr. Sudarshan Krishnan, University of Illinois, Urbana-Champaign Sudarshan Krishnan specializes in the area of lightweight structures. His current research focuses on the structural design and behavior of cable-strut systems and transformable structures. His accompanying interests include the study of elastic and geometric structural stability. He teaches courses on the planning, analysis and design of structural systems. He has also developed a new course on deployable structures and transformable architecture. As an architect
casestudy. The three to four case studies change every year. Students from diverse disciplines, includingengineering, planning, economics, hydrology, biology, architecture, geography, communications, andcomputational hydraulics, interested in flood risk reduction can apply. Those accepted into the Programare placed in interdisciplinary research teams composed of 5-6 students: 1-2 PhD, 2-3 Masters, and 2-3undergraduate students. The teams are guided by project faculty mentors from both U.S. and Dutchpartner institutions. A two-week long research trip to the Netherlands provides transformativeeducation and an authentic learning environment through field trips, meetings with Dutch flood experts,lectures, and participation in design workshops. Students
AP BD+C and a CM-BIM holder.Prof. Silvana Polgar, California State University, FresnoDr. Wei Wu, California State University, Fresno Wei Wu, PhD, LEED AP, GGP, CM-BIM, A.M. ASCE, is an Assistant Professor in the Department of Construction Management in Lyles College of Engineering at California State University, Fresno. He received his Bachelor of Engineering in Built Environment and Equipment Engineering from Hunan Uni- versity in China in 2004, Master of Science in Environmental Change and Management from University of Oxford in the UK in 2005, and Doctor of Philosophy in Design, Construction and Planning from Univer- sity of Florida in 2010. Currently, Dr. Wu teaches courses in Construction Graphics, Design Build
planning to work onmembers [2] so Girl Scouts may be a way to introduce engineering badges will be recruited. Middle school wasmany girls to engineering who may not have been chosen due to the importance of this time for students whootherwise exposed to the engineering field. are planning a STEM career in middle school are more likely Actively supporting identity development to graduate with an engineering or science degree [5]RESEARCH QUESTION
, considering the same cohort of students, how did they perform on the projectthe second time in steel design compared to the first time in reinforced concrete design? Third,the students’ knowledge on basic structural analysis and plan reading was measured at thebeginning and end of each course. What level of knowledge did they have when entering therespective course? Were students’ perceptions of their knowledge gains during the coursessupported by assessed knowledge gains? Student design project grades and pre- and post-surveys were used to answer the researchquestions. Students completing the project for the first time in steel design had slightly highergrades than those completing the project the first time in reinforced concrete design
. Stone has worked extensively in the domain of welding, specifically in the area of weld- ing technology and training. He has a deep appreciation for the importance of the welding field and plan to continue pursuing research projects that benefit the welding community.Devna Fay Popejoy-Sheriff, Iowa State University Devna Popejoy-Sheriff is the Student Success and Services program Coordinator and Co-Chair of the Undergraduate Research Program in the Industrial and Manufacturing Systems Engineering Department at Iowa State University. She earned her M. Ed. in Higher Education from Iowa State University and has worked for the IMSE Department for more than 15 years. She has been recognized with multiple advising and
universityresearch projects in socially impactful Big Data and Data Science. We have examined theperspectives on learning of three key site groups: the computer scientist principal investigator,the secondary STEM teachers participating in the RET, and the graduate research assistants whomentored the teachers in original research projects. Teachers also translated their researchexperience into curriculum incorporating the engineering practice of mathematical andcomputational thinking and described the lessons they learned from the research process throughfocus group interviews, seminar presentations, and lesson plans. Preliminary findings suggesteach of the site groups saw their own work and their role in that work, from a differentperspective. Members of
systems. Brent is currently in the process of completing his junior year of undergraduate study and plans to start his PhD immediately after graduation.Dr. Phil Blake McBride, Eastern Arizona College Dr. Phil McBride received a B.S. from the University of Arizona in 1986, a M.A.T. in 1989 from Northern Arizona University and a Ph.D. in Chemistry from Miami University in 2003. He taught high school in Northern Arizona for 5 years before moving to Eastern Arizona College in 1991 to teach chemistry. He was recognized by the EAC Student Association as the most admired faculty in 1993, received the Alumni Faculty Recognition award in 1996, the distinguished service award in 1997, and in 2008 received the Rocky Mountain
implemented, but CodeIT Day still aims to showcase and encourage the introducing,diversifying and retaining of students in STEM fields. In the past, CodeIT Day did not involve anevaluation portion but now that the event is back with hopes to grow, we have implemented datacollection to better evaluate the program. This paper will discuss the 2018 implementation ofCodeIT Day, hosted by students at the University of Florida; some of which were apart of theoriginal cohort who took part in CodeIT Day instances at Clemson University. It will discuss thenew technology utilized, lesson plans, participant recruitment, the workshop structure as well asresults from surveys and participant focus groups. The paper will conclude with lessons learnedfrom the
corresponding activities and materials.The work described in this paper focuses on the structure, implementation, and deployment ofthis faculty development program.Intervention Design and DescriptionsOne of the unique aspects of the Pedagogical Ninjas program is the intensive cycle of researchdesign, activity planning, and data collection that occurred between May and December 2018.This model was influenced by the aforementioned ASEE report which proposes an innovationcycle adapted from Booth, Colomb, and Williams [19] that “outlines a continual flow betweenpractice and research and between research and practice” [18, p. 6]. However, within the ASEEreport, the disconnect between research and practice was made clear: “The clear message is thatall arcs
tostrengthen instructors' skills through intensive and practical exercises in learning-centeredteaching. Mixing opportunities for small and large group interaction, the ISW program engagesparticipants in: ● planning and delivering 10-minute lessons ● developing participatory instructional techniques ● listening actively ● learning and teaching collaboratively ● modelling adult learning principles ● generating effective feedback and discussionThe ISW was first developed in British Columbia, Canada in 1979 as a response to requests forprofessional development programming for instructors of the newly created colleges. The ISWhas since grown and expanded across Canada as well as into the United States and many othercountries
serves as a learning space and as a showcase of best practices related to sustainable design and construction;• Increase their interest and self-efficacy in sustainable design;• Connect concepts related to tiny house design across disciplines;• Compare and contrast interdisciplinary design options and decisions;• Reflect on their learning.Students in six different courses on campus are collaborating to design the tiny house. This pastsummer, students in Architecture I investigated different sites at the Organic Farm and preparedsite plans for 3 different sites. This winter, students in Architecture II and III will work onarchitectural designs and plans using one of the sites proposed by the Architecture I students. Inaddition, students in an
improvestudent motivation to study engineering. ABET accreditation explicitly requires some level ofteamwork through Student Outcomes, in particular criterion 5, “an ability to function effectivelyon a team whose members together provide leadership, create a collaborative and inclusiveenvironment, establish goals, plan tasks, and meet objectives” [page 42, 1]. Clearly, both ABETand engineering faculty expect students to engage in substantive projects that include teamworkand project management.Typically, the senior-level capstone design project is when students engage in more authenticprojects. However, there are engineering programs that have also developed so-calledcornerstone courses at lower divisions (e.g. [2], [3]). Projects may differ in
revisited forspecific course projects in the Civil and Environmental Engineering curriculum. The commoncourse project platform was introduced in the freshman surveying course, where studentscollected geographical data. This project platform was revisited throughout the freshman yearthrough the development of site plans and topographic maps of the project site in graphicalcommunications and geographical information systems courses. This method provides afoundational context for a civil engineering site development that will be used in future coursesfor designing a multi-story building in a structural design course, analyzing soil samples forfoundation design in a soil mechanics course, and developing a stormwater management plan ina water resources
design and implementation ofcollaborative ill-structured tasks using a research-based framework that outlines the necessaryelements of such tasks: an introduction to the problem that provides context, a description of theproblem itself, the specific task(s) students are expected to achieve as a group, supplementarymaterial that provides information useful for solving the task, and scaffolding tools that studentscan use to develop plans, draw diagrams, and generate solutions [6]. This paper presents amethod to evaluate the design of ill-structured tasks in relation to the interaction processes thatstudents used in their groups. The paper showcases the use of our method by evaluating thedesign of one ill-structured task, and provides suggestions