interactive web basedlectures. The course was first organized in the Fall 2013 as a series of lectures in resilientcontrols, without a central application theme. The course was refined for Fall 2014 to includeinstitutions outside of Idaho and incorporate a focus on the application of electric power micro-grids. Resilient control systems architecture, as shown in , offers additional perspective on topicsof a subset of interdisciplinary topics that impact real world critical infrastructure. The courseaddressed how systems fail due to threats from cyber security, human error and complexinterdependencies, and how the application of resilient control system technologies addressesthese challenges. The broad range of topics in resilient control systems
Paper ID #15948Multidisciplinary Game-based Approach for Generating Student Enthusi-asm for Addressing Critical Infrastructure ChallengesMr. Timothy R McJunkin, Idaho National Laboratory Timothy R. McJunkin is a Senior Research Engineer at Idaho National Laboratory in the Energy and Environment Science and Technology Division, since 1999. He has also served as an adjunct instructor at Idaho State University, teaching control systems and resilient controls systems. Prior to joining INL, he was a design engineer at Compaq Computer Corporation in Houston Texas. Mr. McJunkin is the principal architect of the Grid Game
. Army Sustainment Command, FEMA, and various private sector companies. David’s passion for his profession is demonstrated by his personal commitment to a number of humanitarian projects, including: Serving as a vice co-chair for The Infrastructure Security Partnership to implement strategies that help economically challenged build resilience. Volunteering as the Project Manager as part of the Haiti Relief effort for the Episcopal Diocese of Upper South Carolina (EDUSC). Mentoring Clemson Engineers for Developing Countries students who are assisting the economically challenged people of Haiti. Under his guidance, this team received awards in 2014 from the Institute of International Education and in 2010 from the
analysis of buildings, power plant components, and geotechnical engineering. Her research interests include uncertainty and risk quantification for design, structural mechanics, optimization, resilience, performance of soil, and systems design. She is member of ASCE, ASEE, ASME, and ASTM.Mr. Samuel Alan Fong, Mercer University Mr. Samuel Fong is an undergraduate engineering student at Mercer University. He is a member of the Tau Beta Pi honor society. He earned a diploma in secondary education with an emphasis on mathematics from Pensacola Christian College. He previously coached baseball and taught mathematics at a high school level. American c Society
) continuedavailability of critical resources, (2) readiness maintained in the face of climate change, (3) wasteand pollution minimized, and (4) management and practices built on sustainability andcommunity [14]”. The course is designed to develop baseline competencies in students thatprepare them to address these four primary objectives.All graduates of the USAFA will commission into the US Air Force and serve a minimum offive years. In this position graduates fundamentally are decision makers. Regardless of major,they will be prioritizing, executing and advocating for a variety of projects. Their ability tounderstand the long term implications of sustainable and resilient infrastructure is critical tomaintaining national defense. Additionally, many graduates
of 2020” 6:• strong analytical skills (science, mathematics, discovery and design),• practical ingenuity, creativity,• communication, business and management,• leadership, high ethical standards, professionalism,• dynamism, agility, resilience, flexibility,• lifelong learners.Engineers Australia lists its required graduate attributes as follows 7 – the emphasis is ours: a) ability to apply knowledge of basic science and engineering fundamentals; b) ability to communicate effectively, not only with engineers but also with the community at large; c) in-depth technical competence in at least one engineering discipline; d) ability to undertake problem identification, formulation and solution
-use customer, integrated with the latest advances in digitalcommunications and information technology for enhanced grid operations, customer services,and environmental benefits 1.” The objective of smart grid is to make the future grid intelligent,efficient, accommodating, motivating, quality-based, resilient, responsive, and green. The scopeof the smart grid is quite broad and covers the delivery infrastructure, the end-use systems andrelated distributed energy resources, management of the generation and delivery infrastructure atvarious levels of control centers, information networks, and the financial and regulatoryenvironment.From the perspective of fundamental technologies, the DOE classified the key technologies thatenable the smart
; Architecture students docontribute with their knowledge on public space design, urban zoning, land use, urbanmobility and landscape. Guest professors contributed with advice to a better development ofthe projects and also participated in their evaluation process. As part of the project, thestudents created posters that were shown at an on-campus exhibition. Table 2: Conceptual, procedural and attitudinal contents for cross-cutting risk management issues from the various disciplines’ perspectives Cross-cutting Architecture and Environment and Civil Engineering issue Urban Planning Shanty TownsIdentification of Urban growth, Resilience, Magnitude, returnrisks and their
current work and future interests lie at the intersection of chemical and microbial stressors where under- standing trade-offs, benefits and risks deviate from existing risk paradigms and require new data, tools and frameworks. Her future research goals include applications of risk-based decision making to water infrastructure management, and emerging hazards such as antibiotic resistance. She is managing editor and a developer of the QMRAwiki, an interactive, online tool for the QMRA community. Dr. Mitchell has also been involved in developing and teaching training workshops in QMRA for several years. She was recently awarded a nearly $1M grant from the National Institutes of Health to develop a new course, models and
Dr. Elise Barrella is an Assistant Professor of Engineering at James Madison University, who focuses teaching, scholarship, service, and student mentoring on transportation systems, sustainability, and engi- neering design. Dr. Barrella completed her Ph.D. in Civil Engineering at Georgia Tech where she con- ducted research in transportation and sustainability as part of the Infrastructure Research Group (IRG). Dr. Barrella has investigated best practices in engineering education since 2003 (at Bucknell University) and began collaborating on sustainable engineering design research while at Georgia Tech. She is currently engaged in course development and instruction for the junior design sequence (ENGR 331 and 332) and
progress at the end of the semesterpresentation of the project.The design constraints for the Stevens project included: a low environmental footprint;minimized reliance on supplied fossil fuel and water as this of critical significance to militaryoperations; and a focus on integrated alternative energy sources in an associated micro-grid.Based on stakeholder input the project design is directed at a 100-person camp that can berapidly delivered and assembled in a remote location for a 6-12 month deployment for a combatoutpost (COP), and also applicable to disaster relief missions which the military is often calledupon to support. Four primary areas of focus are critical to the project: shelter, energy, water andwaste. Adaptability and resilience
. Original contributions for this study lie in having an open-ended design projectwhere multi-disciplinary teams within AE are expected to develop project specific goals; select propertechnologies, processes and infrastructures to support achieving these goals; then performing parametricand integrative design evolutions through cyclic iterations that focus on the goals and not specificdisciplines. This paper describes trends and successes we have observed throughout our 9 years ofoffering this team based approach. Specifically how technology and collaborative processes wereapproached by the students, students’ results on the topic, industry practitioner engagement strategies, andbest practices for future implementation of similar offerings by other
Universities (HBCUs), a Hispanic-ServingInstitution (HSI), and two international universities1. Theses sixteen profiles illustrateadaptability of the VIP model across different academic settings.IntroductionWhile ABET Engineering Criteria 3-g calls for, “an ability to function on multidisciplinaryteams [1],” rich multidisciplinary experiences have yet to become the norm. A multidisciplinarydivision has been featured at ASEE Annual Conferences since 2006 [2]. The primary focus overthe last three years has been on specific projects, individual courses, and capstone design courses[2], but no specific model has proven compelling and/or resilient enough for wide-spreadadoption. If institutions of higher education are to offer rich multidisciplinary