; Development and co-lead of UVA’s Resilient Urban Water Systems Working Group. He is the Director for Diversity and Inclusion in ESE.Prof. Andres Clarens, University of Virginia I am a Professor of Environmental Engineering at the University of Virginia and Associate Director of the University’s Environmental Resilience Institute. Our group studies decarbonization of infrastructure systems. At large scales, our work explores the life cycle environmental impacts of the manufacturing, transportation, and energy sectors through projects in next-generation bioenergy, subsurface energy stor- age, and negative emissions technologies. At the molecular scale, we study the chemistry of CO2 in high pressure environments to support
and Development: Single Institution) and Track 3 (Design and Development: Multi- Institutional Consortia) projects seek to leverage S-STEM funds with institutional efforts and infrastructure to increase and understand recruitment, retention, student success, transfer, if appropriate, academic/career pathways, and degree attainment in STEM, with emphasis on low- income academically talented students with demonstrated financial need.”Given that our SETS project was funded based on previous solicitation, with up to 15% of projectresources allocated for administrative tasks of distributing, managing, and reporting scholarship, wewill share our experience in the paper focusing on what we did to build the capacity within ourprograms and
, interaction and participation, mentor’s inspiration,and hindrances. Another framework to determine how the students grasp the knowledge with theexisting learning method is further developed from Wagnild and Young’s resilience frameworkin 1993, which consists of emotional regulation, impulse control, optimism, the ability to analyzethe causes of problems experienced accurately, empathy, self-efficacy, and the ability to interpretand obtain positive aspects after problems [8].The most recent framework that seems to cover internal and external factors from the learningmethod, specifically from e-learning implementation and delivery, is called the TIPECframework, consisting of Technology, Individual, Pedagogy, and Enabling Conditions [9]. Thisframework
introductory information on the A) Resilience and Sustainability of Engineering for Sustainable ENVISION sustainability rating Civil Infrastructure: Toward a Development: Guiding system for infrastructure [24], pages Unified Approach, pages 1-8 [48]. Principles [49]. And 11-19. [Select if you are familiar with the Listen to ASEE community Listen to ASEE community panelist general idea of sustainability] panelist Chief Albert P. Naquin Chief Albert P. Naquin from Isle de OR from Isle de Jean Charles, Jean Charles, minutes 6:29-7:29, B) Chapter 1 and 3 of Engineering minutes 6:29-7:29, 24:30- 24
applicable to a wide variety of research thrusts, from physical-social infrastructure resilience to STEM education. ©American Society for Engineering Education, 2023 2023 ASEE Southeastern Section Conference Is playing games all you need? A survey of student experiences with virtual learning environments in undergraduate courses. J.D. O’Brian, III, Sara C. Vick, Nazanin Tajik Mississippi State University, Department of Industrial and Systems EngineeringAbstractEngineering students are intended to catalyze what is known as theoretical science into practicalcontributions. Typically, this skill is learned through a group project
, underpin the need for increasing workforcedevelopment initiatives founded in cybersecurity principles. The workforce shortage is across allcybersecurity domains, yet our adversaries are always advancing, always probing forvulnerabilities in corporate enterprise systems, critical infrastructure systems, and vital nationalsecurity systems. The cyber game is unfair, the defenders have to do everything right everydayand hackers only have to get lucky once.To combat this persistent threat, which is a 24/7 operation, we need all hands on deck. We mustwork to ensure our graduates comprehend cybersecurity; we need people with differentperspectives, approaches, ways of thinking, and methods to solve the cyber challenges we arefacing and will face. We
“micro grids” of energy, water, and economic infrastructure and offer excellent opportunities to engage in the deployment of sustainable and resilient technologies; Unique setting for sustainable technology deployment: The warm temperatures and coastal wind/solar availability of Roatán, coupled with high energy costs, offers a perfect setting for the proposed technologies. The local community is politically stable, English speaking, close in proximity to the US, and economically and socially diverse – factors which enable rich and fulfilling contributions by student teams; Enhances and strengthens multiple existing and diverse activities: Introduces a global engineering component into existing courses
environmentfor cyber-physical system research. A team currently using the IST extensively for this purpose is theInternational Critical Infrastructure Security Institute (ICISI) headquartered at the CERE.Background Scaled-down thermal-hydraulic test loops are a common method in the nuclear industry forobtaining critical information for the design and operation of new fuel and reactor design types. Whendeveloping a reduced-scale testing facility such as this IST, it is important to choose for whichcharacteristics similitude is desired. Since a full-scale model would be impractical and it is impossible toemulate all of the characteristics of a full-scale model in a scaled facility, it is important to prioritizewhich characteristics of the IST will be
infrastructure and servicesnecessary to easily deploy and manage LoRa enabled sensors.Figure 2, LoRaWAN gateway deployed on the premises of the farm.The gateway was installed on a grain elevator, and it provides coverage up to 5 miles which issufficient for the needs of the solution and the development of other smart agriculture solutions.The gateway is connected via a point-to-point WiFi link to a Starlink router which provides localinternet access. The gateway, the sensors and actuators are managed by the PITON platform.The collected data is stored in an InfluxDB database and the real-time sensor data is visualizedusing a custom-made dashboard on Grafana (Figure 3).Figure 3, Real-time water level data from the irrigation canal.The graph shows the most
sustained, inclusive, and sustainable economic growth, full and productive employment, and decent work for all.9. Industry, Innovation, and Infrastructure: Build resilient infrastructure, promote inclusive and sustainable industrialization, and foster innovation.10. Reduced Inequalities: Reduce income inequality within and among countries.11. Sustainable Cities and Communities: Make cities and human settlements inclusive, safe, resilient, and sustainable.12. Responsible Consumption and Production: Ensure sustainable consumption and production patterns.13. Climate Action: Take urgent action to combat climate change and its impacts.14. Life Below Water: Conserve and sustainably use the oceans, seas, and marine resources for sustainable
Carlton Lynch Applied Engineering Department Wichita State University AbstractBackground: The increase in unmanned aerial systems (UAS) has brought challenges in protectingpersonnel and infrastructure. Current Counter-UAS (C-UAS) solutions employed have a highdevelopmental cost, are destructive, and are prone to collateral damage. Using curiosity from KEENframework and System Engineering framework, this study identifies and implements a feasiblecounter-UAS solution.Purpose: This paper aims to use the Curiosity from KEEN framework to demonstrate how a non-kinetic counter UAS method can reduce UAS threats in an effective manner. Using
Paper ID #49561Evaluating the Impact of a Summer NSF REU Program on UndergraduateStudents’ STEM Career Aspirations and Educational Goals: A Case StudyDr. Sudipta Chowdhury, Marshall University Sudipta Chowdhury is an Assistant Professor at the Department of Mechanical and Industrial Engineering in Marshall University. His area of research includes Critical Infrastructure Resilience, Disaster Restoration Planning, Supply Chain and Logistics, and formal and informal STEM Education. He has published over 20 peer-reviewed journal articles and multiple conference proceedings. He serves as a reviewer of multiple journals such
in creating a working prototype of an invention. By achievingsuccess in creating an invention, participants see the value in pursuing a STEM career and thatthey can be successful as an inventor. Experiencing that success reinforces intrinsic motivation. The main goal of the camp is supported by implementation goals: (1) to expose students tothe invention process through the application of human-centered design to problems in thestudents’ community; (2) to introduce engineering and prototype fabrication skills necessary totransform a design concept to a working prototype; (3) to use the invention experience asinspiration to pursue a STEM career; (4) to give students exposure to being on a college campus;(5) to develop a resilient identity
sup- ply chain management, data analytics, logistics, production planning, lean manufacturing systems, and the intersection between operations management and information and technology. More specifically, his research seeks to innovate and improve operational performance using data analytics and IoT technology at manufacturing and supply chain levels. He is also particularly interested in supply chain resiliency, co- ordination issues, and real-time analytics-based decision making. Prior to his academic career, Dr. Diaz worked for seven years as a process engineer and management consultant in the international consulting arena. American c Society for
identity and privacy, cloud privacy, wireless information assurance. 2. Cryptography. 3. Systems, networks and sensors security, systems attribution, software security. 4. Attack tolerance, threat attribution. 5. Side channel attacks, backscattering, distributed denial of service (DDOS) attacks. 6. Human-centric security, Security awareness, behavioral aspects. 7. Intel and security analytics in machine learning. 8. Detection and prevention response, surveillance, web tracking. 9. Industrial control systems security, embedded applications, Infrastructure resiliency. 10. Pen testing, BOTNETS, the economics of cybersecurity.The last activity provided by the centers/labs in university services. There is a wide range ofservices
- perience on cloud computing education in the past years, a set of laboratories for Cloud compUTing Education (referred as the CUTE labs) has been developed and evaluated. The CUTE labs cover four major areas: the platform exploration labs, the big data labs, the cloud economics labs, and the security and privacy labs. They are designed to use publicly available free cloud resources and open source software with no spe- cial requirement on computing infrastructures, so that they can be easily adopted and adapted at low cost. Currently, we have developed thirteen labs, among which eleven have been deployed during 2009-2015 and six have been evaluated during 2014-2015. The preliminary results show that these
. 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
change; globalization; resilient infrastructure 5. Explain the key aspects of project management (BOK Outcome 13 4 p. 109) 6. Define & explain leadership, the role of a leader, and leadership principles and attitudes (BOK Outcome 20 4 p. 111) 7. Describe key information related to public policy related to civil engineering; Discuss and explain key concepts and processes involved in public policy (BOK Outcome 17 4 p. 110) 8. Explain key concepts and processes used in business and public administration (BOK Outcome 18 4 p. 110)Goals 2, 3, and 4 all relate to macroethical issues. The in-class sessions devoted to these topicsspanned six weeks in the course (of 15 weeks total). A homework assignment focused on ethicsvia a
Paper ID #18920Validating Content of a Sustainable Design Rubric Using Established Frame-worksCharles Cowan, James Madison UniversityDr. Elise Barrella, James Madison University 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
sustainable and resilient urban water infrastructure systems, including water supply, stormwater management, flood control, and wastewater collection. Dr. Burian currently serves as the Director of the USAID-sponsored U.S.-Pakistan Center for Advanced Studies in Water and an Associate Director of the Global Change and Sustainability Center at the University of Utah. During his career, Dr. Burian has been involved with several engineering education endeavors including serving as the Co-Director of Sustainability Curriculum Development at the University of Utah, an Assistant Mentor and Mentor for the ASCE ExCEEd Teaching Workshop, the Secretary/Treasurer for the ASEE Civil Engineering Division, and a frequent collaborator on
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
Paper ID #34418 Amherst, where she was an NSF Graduate Research Fellow, and an Offshore Wind Energy IGERT Fellow. She earned a MSc in Leadership for Sustainable Development at Queen’s University of Belfast, and two BS degrees in Electrical Engineering and Applied Math at North Carolina A&T State University.Prof. Constantine Samaras, Carnegie Mellon University Constantine (Costa) Samaras is an Associate Professor in the Department of Civil and Environmental Engineering at Carnegie Mellon University. His research spans energy, climate change, automation, and defense analysis. He analyzes how energy technology and infrastructure system designs affect energy use and national security, resilience to climate change
standards of research groups depend also on factors beyond individual training, suchas group culture, communication mechanisms, and mentoring (Meyers, 2004; Anderson, et al.,2007). These factors highlight the importance of strong ethical leadership in research.In addition, the ability to lead with ethics is critical for engineering graduates who pursue careersoutside the academy. This is apparent for civil engineering graduates, who lead the developmentof next-generation sustainable and resilient infrastructure and make critical decisions concerningthe timing and extent of needed repairs to failing infrastructure. The American Society of CivilEngineers (ASCE) Code of Ethics requires that “engineers shall hold paramount the safety,health and welfare
solve real-world problems. This paper provides an overview of an outreachprogram developed at Saint Louis University to serve high school students from the St. Louisregion.Transportation as a Vehicle for Introducing Students to STEMVirtually everyone relies on a mode of transportation during their everyday life to accesshealthcare, commute to work, attend school, or shop. Transportation also plays a significant rolein the economic development of regions and is vital to many economic sectors such asagriculture, manufacturing, and retail. Providing a safe, sustainable, resilient, equitable, reliable,and efficient transportation system requires a broad and diverse set of expertise that includescivil engineering (infrastructure design and
Paper ID #40718Using a Collective Impact Approach to Establish a Center for Equity inEngineering Focused on Graduate Education: Lessons Learned from Phase IDr. Teirra K Holloman, Virginia Tech Department of Engineering Education Teirra Holloman is a postdoctoral associate in Engineering Education at Virginia Tech. Teirra received her Ph.D. in Engineering Education and M.Eng. in Industrial and Systems Engineering from Virginia Tech and her B.S. in Industrial Engineering from Clemson University. Her research interests include organizational resilience; organizational change; diversity, equity, and inclusion issues in
Future Professoriate and from USFQ in Structures for Construction Professionals. MiguelAndres’s research includes Architectural and Civil Engineering Project Management, Sustainable and Resilient Urban Infrastructure, and the development of engineers who not only have strong technical and practical knowledge but the social awareness and agency to address global humanitarian, environmental, and social justice challenges. For him, social justice is a concept that should always be involved in discussions on infrastructure. Related to STEM education, Miguel Andres develops disruptive pedagogies for STEM courses as a tool for innovation, and assessing engineering students’ agency to address climate change. Currently
ASEE and the IEEE.Emery DeWitt, Mentor-Connect/FDTCDr. Liesel Ritchie, Oklahoma State University Dr. Liesel Ritchie is Associate Director of the Center for the Study of Disasters and Extreme Events at Oklahoma State University and an Associate Professor in OSU’s Department of Sociology. During her career, Ritchie has studied a range of disaster events, including the Exxon Valdez and BP Deepwater Horizon oil spills; the Tennessee Valley Authority coal ash release; Hurricane Katrina; and earthquakes in Haiti and New Zealand. Since 2000, her focus has been on the social impacts of disasters and com- munity resilience, with an emphasis on technological hazards and disasters, social capital, and renewable resource
practice of civil engineering). Lectures often talkedabout resilience and the long-term nature of infrastructure, so hopefully students could appreciatetaking a long-term view of environmental, social, and economic elements.First-Year Engineering Projects (FYEP)The learning objectives for all sections of FYEP include open-ended hands-on designexperience, teamwork skills, communication skills, engineering methodology, and engineeringethics. Students learn in a hands-on way valuable engineering skills including communicationskills, how to function in teams, and a variety of computer tools, such as programmingmicrocontrollers, computer-aided design (CAD) and electronics. Students in any engineeringmajor can enroll in the course, with each section
infrastructure, construction education, and workforce development.Dr. Jiannan Cai Dr. Jiannan Cai is an Assistant Professor of the School of Civil & Environmental Engineering, and Construction Management at the University of Texas at San Antonio (UTSA). She teaches Construction Materials and Testing, and Construction Estimating II, both at undergraduate levels. Her research interests are construction automation and robotics, artificial intelligence and its applications in construction, infrastructure, and built environment. ©American Society for Engineering Education, 2025 1
learning, active learning and intensive collaboration with industry. Dr. Bao develops a teaching website: http://baoteachingcet.com/ and opens a YouTube Structural Design Teaching channel to post screencasts to supplement traditional lecture-type classes, and she also created hands-on active learning modules to improve teaching and learning effectiveness. In addition to educa- tion research, Dr. Bao conducts research in the areas of bridge resiliency and sustainability, innovative construction materials and evaluation of aging infrastructure. She has extensive research experience in finite element modeling and lab testing of structures and published more than 25 research papers. She is an active member in ASEE, ASCE and