Wind Power Grid Interconnection:

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Wind Power Grid Interconnection: Overview for the Massachusetts Wind Working Group Hull 1: Single OptiSlip on distribution line Renewable Energy Research Sally Wright, Laboratory, PE UMass Amherst Research Fellow, Renewable Energy Research Laboratory, University of Massachusetts

Wind on the Wires - Beyond intermittency Wind: an energy resource Not a capacity resource Addressing Issues: Policymakers, System operators, Regulators, Equipment Mfrs. Want more info? Try http://www.uwig.org/uwigwindintegration052006.pdf or www.nyserda.org/publications/wind_integration_report.pdf

Wind Power Grid Interconnection: Today s focus New, Full-scale wind turbines Not small inverter-based Not net metered Not historical designs In Massachusetts 1-20 MW projects Presumably on distribution lines (possibly transmission) Mostly not on municipal electric lines Hull Wind 2

Rising Penetration of Wind on the Grid Recent US Studies of Operating Impacts New York: 10 % 3.3 GW (nameplate capacity) wind in 33 GW peak load system Minnesota: 15 % Colorado: 10-15 % California: 4 % Recent European Studies: Denmark: 100 % Portugal: 50 % Germany: 45 % Ireland: 45 % Source: www.ieawind.org/annexxxv/task25_publications.html

Higher Penetration New Demands on WTG s Increasing demand to look like a thermal plant Grid Codes / Interconnection Requirements Be visible: SCADA (data & control) to the ISO Keep going: ride through system faults Control Real & Reactive power Parties FERC ISO T&D companies Source: Garrad Hassan FERC = Federal Energy Regulatory Commission. ISO = Independent System Operator. T&D = Transmission & Distribution.

Another Angle on Power: Real vs. Reactive Real Power kw Does work, transfers energy Real Reactive Power kvar No net work. Storage/charging. Capacitive, inductive elements Both must be balanced Generation = Load Apparent Reactive Want more info? Try Wikipedia, Reactive Power

Basic Generator Controls Voltage Sense: Frequency Adjust: Real Power (kw) Reactive Power (kvar) Wind?

AC devices Generate or Consume Real AND Reactive Power Induction Generator PF=0 Q kvar Import Fluorescent light Wind? kw Export S φ kw Import PF=100% P PF=100% Synchronous Generator PF=0 Wind? Power Factor: PF = kw / kva = real / apparent = P/S = cos(φ), kvar = kva sqrt(1- PF 2 ) kvar Export Capacitor

Types of Wind Generators A: Fixed speed Most early designs, robust; consume VAR add capacitors B: Limited variable speed Vestas OptiSlip. Add cap.s C: Partial power electronics DFIG (doubly fed induction generator) E.g. GE 1.5s. Most common outside US D: Full power electronics A, B C, D Cap Generate kvar E.g. Clipper Liberty Source: Wind Power in Power Systems,2005, Editor: Thomas Ackermann

How do Wind Turbine Generators participate in the grid? A: Fixed speed: Poor. Requires a stiff grid B: Optislip: C: DFIG: Improved Better grid code compliance D: Power Electronics Best grid code compliance A, B C, D Cap

Balancing Grid Source: Int l Energy Agency IEA Wind Task 25, Holtinnen. www.ieawind.org/

Wind on the Wires wide range of policy & technical issues Grid stability & reliability Grid Codes Market design / rules and tariffs E.g. valuation of Capacity & Ancillary Services Long-term transmission planning Grid reinforcement needs Cost allocation Forecasting Balancing costs, designing imbalance penalties At what point does storage make sense? HVDC? Etc "The capacity of the European power systems to absorb significant amount of wind power is determined more by economics and regulatory rules than by technical or practical constraints. - Corin Millais, EWEA, 2006

Wind Power Grid Interconnection For More Information Utility Wind Interest Group : http://www.uwig.org Utility Wind Integration State of the Art: www.uwig.org/uwigwindintegration052006.pdf US: Survey of grid impact studies (2003): http://www.nrel.gov/docs/fy03osti/34318.pdf NY study: www.nyserda.org/publications/wind_integration_report.pdf Europe, Large-scale integration: www.ewea.org/integration/ FERC order 661: Standard Interconnection Agreements for Wind Energy and Other Alternative Technologies, http://www.ferc.gov/industries/electric/indus-act/gi/wind.asp Wind on the Wires www.windonthewires.org/ looks at the implications of transmission planning for wind power in the Midwest Renewable Renewable Energy Research Energy Research Laboratory, Laboratory UMass Amherst 413-545-4359 /

Wind Power Grid Interconnection Agenda & Panel Intro to utility wind interconnect & grid impacts Panel: diverse roles in interconnection Fran Cummings, MTC Henri Daher, National Grid, with Edward Kremzier David Forrest, ISO New England Interconnection Process: How to file for interconnection of a utility-scale wind turbine Moderated by George Aronson, CommonWealth Resource Management Corp. These presentations will be posted on the MWWG web page