engineeringcourses if the proposal is funded. Infrastructure topics have grown in prominence in engineeringprograms as evidenced by an NSF to Clemson University for the establishment of a master ofscience program in Sustainable and Resilient Infrastructure (8) and the Sustainable and ResilientInfrastructures Program launched in 2012 at Illinois University (9). If asked over dinner or at the water cooler, a civil engineer is very likely to say,“Civilengineers have been building infrastructure for 2,000 years.” Even though this is true, the use,understanding, and interest in all things infrastructure has grown in the mind of the public in thepast ten years to the point that is a common element of public and private discourse. Academic,professional, and
specializing in Transportation Engineering and the associate director of the Utah Transportation Center. He received his Ph.D. from University of Massachusetts at Amherst in 2007. Prior to that, he received his master of sci- ence degree in Civil Engineering (Transportation) in 2003 and a bachelor of science in Civil Engineering in 2001 from Virginia Tech. His research interests include vehicle electrification and automation, alterna- tive fuels for transportation, sustainable and resilient transportation infrastructures, and traffic operations.Dr. Michael Kyte, University of Idaho, Moscow Dr. Michael Kyte is a professor of Civil Engineering at the University of Idaho, and teaches courses in transportation engineering. His
the use of the lessons in the elementary classrooms during the fall semester, arepresented. Page 23.1123.2IntroductionProficiency in STEM education has been identified by the federal government and federally-commissioned committees as essential to US competitiveness in the global marketplace1. Inaddition, having a scientifically literate workforce of engineers and technicians is imperative toensure that infrastructural resources are effective and resilient enough to face dynamic andchallenging environmental and economic forces. Few examples better represent this loomingissue than our country’s aging urban water infrastructure. Outdated
environ- mental performance and the development of wisdom in the workplace.Dr. Donald Plumlee, Boise State UniversityDr. Linda HuglinAmy Chegash, Boise State University Page 23.1166.1 c American Society for Engineering Education, 2013 The Arrows in Our Backs: Lessons Learned Trying to Change the Engineering Curriculum Engineering Education Research to Practice (E2R2P): NSF Grant 1037808This material is based upon work supported by the National Science Foundation under Innovationsin Engineering Education, Curriculum, and Infrastructure (IEECI
address the protection of energy infrastructure” [2] The purpose of the New Jersey EnergyAssurance Plan (NJEAP) being developed by our student project team was “to facilitate the rapidresponse and resolution of energy emergencies, to strengthen the resiliency of critical energyinfrastructures, and to improve the efficiency of New Jersey energy usage. The means by whichthe students would accomplish this was through working on paid internships funded by the grantand the novel engineering clinic of Rowan University’s College of Engineering brieflyhighlighted in the following section.The Engineering Clinic at Rowan University The Rowan University undergraduate engineering program offers an inter-disciplinaryclinic program which runs
Transportation South Jordan City, Utahone of the roundabouts in South Jordan, Utah.Analyze building inventory data for Utah county to upgrade Infrastructure Resilience Geotechnicalthe FEMA and State Hazus earthquake model. Department, URS Corporation, UtahProvide the design of the relocation of a steel-framed structure Riverton City Structuralcurrently located in Riverton City, Utah department of engineering, UtahDesign a plan
states12. succeed in science tasks, courses, or activities”11.From the literature selected, seven key practices were identified as having impact on womenstudent’s interest and retention in STEM fields. They are unified by several characteristics: easeof implementation (notably, none of the suggested practices require new infrastructure or staff),novelty, and potential to not just retain more scientists and engineers, but to create betterscientists and engineers. In addition, each practice can be applied to improve a single course ormore broadly implemented over several courses to further the benefits. Also, while the focus ofthese practices is on high school education, the contexts of middle school, high school
will reduce the consumption of fossil resources for energygeneration and transportation for the reduction carbon emission and air pollutants. They can beused to enhance the reliability, resiliency, efficiency and finally security of microgrids. In thecustomer’s side, resources for energy generations can cut the peak loads of customers andconsequently the costs of electricity. This will be improved when the renewable energy sourcesare used along with energy storage systems. It can be mentioned that in the area of integration ofrenewable energy sources into interconnected power systems, energy storage systems areimportant enabling factor. This is due to uncertainty of solar and wind energy resources. Thestored energy is used when it is needed
ventures.The Cyber Science curriculum at NOMMA is led by Dr. Charles Gardner, who develops the“hard science” and programming portions, and Mr. Anthony Taffaro, who is responsible for theliberal arts and general computer science components. At NOMMA, Cyber Science is a coursethat is offered over a two year period – Cyber Science I and Cyber Science II. Cyber Science I Page 23.967.4focuses on an introduction to electricity and circuitry; flow charting; basic programming; Boe-Bot® building; programming and testing; general computer science such as networking,passwords, and data security and infrastructure; and liberal arts. Cyber Science II consists
startups related to information technology, cybersecurityinfrastructure, energy and green technologies (including remote monitoring of power and watermanagement systems as well as drinking water); infrastructure resiliency, and innovations in Page 23.543.6health care and bioengineering. Moreover, given its access to a network of Fortune 500companies, Venture Capital, and Angel Investors, the ETIC will provide access to capital forsmall, medium-sized, and ethnically diverse enterprises.4. Environmentally-Sustainable Development. The Energy and Green Technologies Lab, inparticular, will enable partnerships leading to investments that promote job
.201. Make solar energy economical 2. Provide energy from fusion 3. Develop carbon sequestration methods 4. Manage the nitrogen cycle 5. Provide access to clean water 6. Restore and improve urban infrastructure 7. Advance health informatics 8. Engineer better medicines 9. Reverse-engineer the brain 10. Prevent nuclear terror 11. Secure cyberspace 12. Enhance virtual reality 13. Advance personalized learning 14. Engineer the tools of scientific discoveryAdditional challenges are emerging from new modes of communications and interconnectedness,knowledge production and ever changing technology landscape and information. Engineeringstudents in Pakistan could be introduced to these challenges so they understand the broaderpicture and could use
had award winningteams across multiple categories of teamwork, research, robotic performance, and design. Of theparticipating teams from CCSD, one team of all girls advanced to the international competition.In the spring, Innovation Club students create robots to solve Grand Challenges to “Restore and Page 23.641.3Improve Urban Infrastructure” and “Explore Alternative Energy”. During summer camp,Beyond Blackboards Page 3 of 25students design and build an underwater robot to solve a relevant problem of their choice, suchas searching for debris after natural disasters, or cleaning oceans after an oil spill. Throughoutthe year, undergraduate