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- | CURENT stands for Center for Ultra-Wide-Area Resilient Electric Energy Transmission Networks. It is a National Science Foundation Engineering Research Center that is jointly supported by NSF (National Science Foundation) and the DoE (Department of Energy). A collaboration between academia, industry, and national laboratories, | + | CURENT stands for **Center for Ultra-Wide-Area Resilient Electric Energy Transmission Networks**. It is a **National Science Foundation Engineering Research Center** that is jointly supported by NSF (National Science Foundation) and the DoE (Department of Energy). A collaboration between academia, industry, and national laboratories, |
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+ | INSERT TIMELINE GRAPHIC HERE | ||
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+ | INSERT Pre-College, | ||
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+ | - Adaptive control for intemittent wind energy and STATCOM\\ | ||
+ | - Ocean thermal energy conversion dynamic study (OTEC, Lockheed Martin)\\ | ||
+ | - Power electronics control with high penetration of renewables in the utility grid\\ | ||
+ | - Converter control for wind turbines\\ | ||
+ | - Multilevel converters interface with solar panels and grid\\ | ||
+ | - Integration of energy storage with wind generation for improved dynamics (Sandia National Lab) | ||
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+ | - Voltage control using multiple distributed energy resouces (DOE/ | ||
+ | - Frequency and voltage control for microgrid (DOE/ | ||
+ | - Decentralized control of DE for voltage regulation in distribution systems\\ | ||
+ | - Microgrids and DC distribution\\ | ||
+ | - Impedance-based modeling and control of power electronics for grid integration of renewable energy (GE GRC)\\ | ||
+ | - DC micro grid for the integration of renewable energy and energy storage technologies (NYSERDA, Ultralife)\\ | ||
+ | - Smart grid voltage stability and control (NSF)\\ | ||
+ | - Offshore wind farm system architecture and control; small-signal stability of offshore wind with HVDC transmission (GCEP/ | ||
+ | - Stability and power quality of distribution network with deep penetration of renewable energy and distributed generation (NYSTAR)\\ | ||
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+ | - FNET - Frequency Monitoring Network (NSF, EPRI, DOE, ABB, TVA, FNET Industry Consortium)\\ | ||
+ | - NERC Frequency response initiative (ORNL/ | ||
+ | - Magnetic field and electric field based non-contact PMUs (EPRI)\\ | ||
+ | - Oscillation and islanding detection (MISO)\\ | ||
+ | - Wide-Area measurement applications (ISO-NE, First Energy, PJM, AEP, NYISO)\\ | ||
+ | - Authentication of digital evidence using power system frequency measurements (NIJ)\\ | ||
+ | - Advanced reactive power dispatch of multiple FACTS controllers to enhance the voltage stability of a large metropolitan load area (EPRI, KEPRI)\\ | ||
+ | - Control of power grid with large penetration of renewable energy (GCEP/ | ||
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+ | - Ensuring security and reducing price volatility with high penetration controllable loads and renewable energy (NSF)\\ | ||
+ | - Modeling of long-term transmission expansion and investment\\ | ||
+ | - Network-based simulation of the effects of power-sector environmental policies, including Regional Greenhouse Gas Initiative\\ | ||
+ | - Econometric estimation of air pollution transfer coefficients for Canada and econometric test for carbon dioxide emissions leakage resulting from Regional Greenhouse Gas Initiative\\ | ||
+ | - Experimental testing of automatic wholesale electricity price mitigation and of market designs for reactive power and reliability\\ | ||
+ | - Design of restructured electricity markets in Arizona, Pennsylvania, | ||
+ | - Design of State of Maryland renewable energy portfolio standard, rules for environmental labeling of electricity, | ||
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+ | - Data driven dynamic modeling of Eastern Interconnection Power Grid (EPRI)\\ | ||
+ | - Modeling of induction motor loads and prevention of stalling using distributed energy resources (DERs)\\ | ||
+ | - Power transformer modeling, diagnosis, and monitoring (multiple sponsors: NSF, EPRI)\\ | ||
+ | - Phasor measurement unit (PMU) measurements: | ||
+ | - Modeling of external systems using sparsely distributed PMU measurements\\ | ||
+ | - Multi-area very large scale state estimation\\ | ||
+ | - Robustness in state estimation\\ | ||
+ | - Computational issues in very large scale network analysis\\ | ||
+ | - Development of a non-iterative state estimator, an integrated phasor data concentrator, | ||
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+ | - Responsive load demonstration for smart grid application (EPRI)\\ | ||
+ | - Optimal power system restoration\\ | ||
+ | - An electric grid situational awareness toolkit\\ | ||
+ | - Congestion prediction in power system operation and planning\\ | ||
+ | - Self-healing power grid realization based on PSS/E 30 cascading failure simulation and analysis\\ | ||
+ | - Multiple FACTS device coordination and control (NSF)\\ | ||
+ | - Analysis of societal events' | ||
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+ | - Vehicle to Grid (V2G) reactive power compensation from plug in hybrid electric vehicles\\ | ||
+ | - Power quality – active filtering, STATCOMs\\ | ||
+ | - High efficiency converters for data centers\\ | ||
+ | - Modeling and application of SiC and GaN power electronics\\ | ||
+ | - High-density converters for vehicle and aerospace applications\\ | ||
+ | - High-temperature, | ||
+ | - Ultra-reliable deepwater electrical power distribution system and power components\\ | ||
+ | - Fault tolerant electromechanical energy converters for naval applications\\ | ||
+ | - Integrated design methodologies for high performance electric drives\\ | ||
+ | - Vibration-based energy harvesting systems\\ | ||
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