Attachment B to Primary Frequency Response Reference Document Sustained Primary Frequency Response Methodology for BAL-001-TRE-1

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Attachment B to Primary Frequency Response Reference Document Sustained Primary Frequency Response Methodology for BAL-001-TRE-1 R10. Sustained Primary Frequency Response Measurement Page 1

Primary Frequency Response Measurement and Rolling Average Calculation Sustained Response Read Deadband, Droop, HSL, PA Capacity, Frequency and Resource MW Calculate Ramp Magnitude Calculate Expected Primary Frequency Response Calculate Actual Primary Frequency Response Calculate P.U. Primary Frequency Response Calculate P.U. Primary Frequency Response Rolling Average Is Rolling Avg 0.75 Fail R10 Pass R10 R10. Sustained Primary Frequency Response Measurement Page 2

Pre/Post-Perturbation Average MW and Average Frequency Calculations Read Actual MW & Frequency Calculate Pre-Perturbation average for MW and Frequency Calculate Post-Perturbation MW and Frequency at T(+46) R10. Sustained Primary Frequency Response Measurement Page 3

Ramp Magnitude Calculation Sustained Ramp Magnitude Sustained = ( MW T-4 MW T-60 )*0.821 (MW T-4 MW T-60 ) represents the MW ramp of the generator resource/generator facility for a full minute prior to the event. The factor 0.821 adjusts this full minute ramp to represent the ramp the generator would have changed the system had it been allowed to continue on its ramp to T+46 unencumbered. Actual Sustained Primary Frequency Response (ASPFRadj) For low frequency events: ASPFR ADJ = Maximum (MW T+46 : MW T+60 ) Ramp Magnitude Sustained For high frequency events: ASPFR ADJ = Minimum (MW T+46 : MW T+60 ) Ramp Magnitude Sustained R10. Sustained Primary Frequency Response Measurement Page 4

Expected Sustained Primary Frequency Response Calculation Use the droop and deadband as required by R6. For Combined Cycle Facility evaluation as a single resource (includes MW production of the steam turbine generator), the EPFR will use 5.78% droop in all calculations. *HZ Pre-perturbation = t( 2) t( 16) Hz ) # of Scans Read Deadband, Droop, HSL, PA Capacity and HZ Pre-perturbation * R10. Sustained Primary Frequency Response Measurement Page 5

*HZ Post-perturbation = HZ(T+46) Read Deadband, Droop, HSL, PA Capacity and HZ post-perturbation * ESPFR ideal = ESPFR post perturbation ESPFR pre perturbation R10. Sustained Primary Frequency Response Measurement Page 6

Adjustment for Steam Turbine MW Post-perturbation = Maximum (MW T+46 : MW T+60 ) for low frequency events. MW Post-perturbation = Minimum (MW T+46 : MW T+60 ) for high frequency events. Read K(Limiting Factor), Throttle Pressure curve breakpoints, HSL, MW pre-perturbation and MW post-perturbation % Steam Flow = MW post perturbation (HSL PA Capacity) Throttle Pressure = Interpolation of Pressure curve at MW pre-perturbation ESPFR Final = (ESPFR Ideal + MW Adj) x Throttle Pressure Rated Throttle Pressure R10. Sustained Primary Frequency Response Measurement Page 7

Adjustment for Combustion Turbine and Combined Cycle Facilities Read HSL, PA Capacity, HZ Post-Perturbation * 0.00276 is MW/0.1 Hz change per MW of Capacity and represents the MW change in generator output due to the change in mass flow through the combustion turbine due to the speed change of the turbine during the postperturbation measurement period. (This factor is based on empirical data from a major 2003 event as measured on multiple combustion turbines in ERCOT.) Adjustment for Other Units Read Limiting Factor *HZ Actual = HZ(T+46) This adjustment Factor X will be developed to properly model the delivery of PFR due to known and approved technical limitations of the resource. X may be adjusted by the BA and may be variable across the operating range of a resource. P.U. Sustained Primary Frequency Response Calculation *HZ Actual = HZ(T+46) R10. Sustained Primary Frequency Response Measurement Page 8

Evaluation** If Unit has Headroom* If (ESPFR Final Headroom) If P.U. SPFR > 2.0 P.U. SPFR = 2.0 If If < 0.75 If > 1.0 R10. Sustained Primary Frequency Response Measurement Page 9

* Check for adequate up headroom, low frequency events. Headroom must be greater than either 5MW or 2% of (HSL less PA Capacity), whichever is larger. If a unit does not have adequate up headroom, the unit is considered operating at full capacity and will not be evaluated for low frequency events. Check for adequate down headroom, high frequency events. Headroom must be greater than either 5MW or 2% of (HSL less PA Capacity), whichever is larger. If a unit does not have adequate down headroom, the unit is considered operating at low capacity and will not be evaluated for high frequency events. For low frequency events: Headroom = HSL PA Capacity - MW T-2 For high frequency events: Headroom = MW T-2 LSL ** further evaluation is required for Sustained Primary Frequency Response. This event will not be included in the Rolling Average calculation of either Initial or Sustained Primary Frequency Response. T = Time in Seconds R10. Sustained Primary Frequency Response Measurement Page 10