DocumentCode :
2057805
Title :
Progress in smart grid deployments global examples & lessons learned
Author :
Wojszczyk, B.
Author_Institution :
GE Energy, USA
fYear :
2012
fDate :
22-26 July 2012
Firstpage :
1
Lastpage :
1
Abstract :
Summary form only given. Effective deployment of Smart Grid technologies requires well-defined and quantified benefits (full-value definition). Depending on the region, country or specific stakeholder, these benefits can be quantified in the areas of technical and business performance, environmental goals, security of electricity supply, and macro-economic growth and business sustainability development. One of the key components to effectively enable full-value realization is technology - the wide range of technical functionalities and capabilities deployed and integrated as one cohesive end-to-end solution supported by a scalability, interoperability and adaptability approach. Many smart grid projects deploy a wide range of smart grid technologies. These technologies can be broadly captured in the following areas: · Low Carbon: e.g. large-scale renewable generation, distributed energy resources (DER), electric vehicles (EV), carbon capture and sequestration (CCS). · Grid Performance: e.g. advanced distribution and substation automation (self-healing); wide-area adaptive protection schemes (special protection schemes); wide-area monitoring and control systems (PMU-based situational awareness); asset performance optimization and conditioning (CBM); dynamic rating; advanced power electronics (e.g. FACTS, intelligent inverters, etc.) and many others. · Grid Enhanced Applications: e.g. distribution management systems (DMS); energy management systems (EMS); outage management systems (OMS); demand response (DR); advanced applications to enable active voltage and reactive power management (IVVC, CVVC); advanced analytics to support operational, non-operational and BI decision making; distributed energy resource management; microgrid and Virtual Power Plant (VPP); work force management; geospatial asset management (GIS); KPI dashboards and advanced visualization; and many others. · Customer: e.g. Advanced Metering Infrastructure (AMI); home/- uilding automation (HAN); energy management systems and display portals; EV charging stations; smart appliances and many others. · Cyber Security and Data Privacy · Communication and Integration Infrastructure The objective of this paper is to present progress in deployment of wide-range of advanced technologies and solutions across many smart grid projects globally. In addition, practical lessons-learned from the deployment and operations will be presented.
Keywords :
customer services; data privacy; environmental factors; macroeconomics; power system economics; power system security; smart power grids; sustainable development; Cyber security; adaptability approach; business performance; business sustainability development; communication infrastructure; customer services; data privacy; electricity supply security; environmental goals; full-value realization; grid enhanced applications; grid performance; integration infrastructure; interoperability approach; low carbon technology; macroeconomic growth; scalability approach; smart grid deployment; smart grid projects; smart grid technologies; technical capabilities; technical functionalities; technical performance; Abstracts; Business; Carbon; Energy management; Energy resources; Security; Smart grids; Advanced Grid Solutions and Technologies; Deployment & Lessons Learned; Smart Grid;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Power and Energy Society General Meeting, 2012 IEEE
Conference_Location :
San Diego, CA
ISSN :
1944-9925
Print_ISBN :
978-1-4673-2727-5
Electronic_ISBN :
1944-9925
Type :
conf
DOI :
10.1109/PESGM.2012.6345268
Filename :
6345268
Link To Document :
بازگشت