DESCRIPTION OF MAJOR COMPONENTS. A. Small Generating Facility
(1) Description of Small Generating Facility. [insert]
(2) The Small Generating Facility shall receive: ___ Network Resource Interconnection Service for the NR Capability at a level not to exceed [insert gross and net at or above 50 degrees F] MW for Summer, and [insert gross and net at or above 0 degrees F] MW for Winter. ___ Capacity Network Resource Interconnection Service for: (a)(i) the NR Capability at a level not to exceed [insert gross and net at or above 50 degrees F] MW for Summer and [insert gross and net at or above 0 degrees F] MW for Winter; and (ii) the CNR Capability at [insert net] MW for Summer and [insert net] MW for Winter, which shall not exceed [insert the maximum net MW electrical output of the Generating Facility at an ambient temperature at or above 90 degrees F for summer and at or above 20 degrees F for winter].
(3) Detailed Description of Small Generating Facility and Generator Step-Up Transformer, if applicable: Number of Generators Manufacturer Model Designation of Generator(s) Excitation System Manufacturer Excitation System Model Voltage Regulator Manufacturer Voltage Regulator Model Greatest Unit Gross and Net MW Output at Ambient Temperature at or above 90 Degrees F Greatest Unit Gross and Net MW Output at Ambient Temperature at or above 50 Degrees F Greatest Unit Gross and Net MW Output at Ambient Temperature at or above 20 Degrees F Greatest Unit Gross and Net MW Output at Ambient Temperature at or above zero Degrees F Station Service Load For Each Unit Overexcited Reactive Power at Rated MVA and Rated Power Factor Underexcited Reactive Power at Rated MVA and Rated Power Factor Generator MVA rating Generator AC Resistance Subtransient Reactance (saturated) Subtransient Reactance (unsaturated) Transient Reactance (saturated) Negative sequence reactance Number of units Self Cooled Rating Maximum Rating Winding Connection (LV/LV/HV) Fixed Taps Z1 primary to secondary at self cooled rating Z1 primary to tertiary at self cooled rating Z1 secondary to tertiary at self cooled rating Positive Sequence X/R ratio primary to secondary Z0 primary to secondary at self cooled rating Z0 primary to tertiary at self cooled rating Z0 secondary to tertiary at self cooled rating Zero Sequence X/R ratio primary to tertiary
B. Interconnection Facilities [insert]
C. Metering Equipment [insert]
D. Other Components [insert]
DESCRIPTION OF MAJOR COMPONENTS. A. Small Generating Facility
(1) Description of Small Generating Facility. [insert]
(2) The Small Generating Facility shall receive:
DESCRIPTION OF MAJOR COMPONENTS. A. Small Generating Facility
(1) Description of Small Generating Facility. Interconnection Customer shall install a battery energy storage Small Generating Facility rated at 16.7 XX Xxxxx and 16.2 MW Net for Summer and Winter, with all studies performed at or below these outputs. The Small Generating Facility is comprised of eight bi-directional inverter-based generating units rated at 2.39 MVA each, and will be located in Yarmouth, Maine, on the same property as Units 1, 2 and 3 comprising the existing fossil generating facility also owned by Interconnection Customer (the “Xxxxx Station”) and the existing fossil generating facility known as Xxxxxxx X. Xxxxx No. 4 owned by Interconnection Customer’s affiliate, FPL Energy Xxxxx XX LLC (the “Xxxxx XX Station”). The Xxxxx Station and the Xxxxx XX Station are referred to in this Agreement as the “Fossil Stations”). Although the Small Generating Facility governed in this Agreement is located on the same property in Yarmouth, Maine as the Fossil Stations (as shown in the one-line diagram in Attachment 3 to this Agreement), the Small Generating Facility is separate from and does not include the Fossil Stations.
(2) The Small Generating Facility shall receive: Network Resource Interconnection Service for the NR Capability at a level not to exceed 16.7 XX xxxxx and 16.2 MW net for Summer and for Winter.
DESCRIPTION OF MAJOR COMPONENTS. A. Small Generating Facility
(1) Description of Small Generating Facility. The Small Generating Facility is located at 000 Xxxxxxxxxx Xxxxx in Bristol, Connecticut. It began commercial operation in 1988 and consists of two municipal waste combustor ("MWCs") units, each having a design capacity of approximately 358 tons per day of municipal solid waste (“ MSW”), assuming a higher heating value of 4,500 Btu per pound. Heat is recovered from the combustion process in the form of steam. The steam turns a turbine generator to produce electricity. The short-term waste processing capacity of the Small Generating Facility (4-hour block average) is based on 110 percent of the steam production rate during the most recent air emissions test. Throughput for the facility is limited to 261,340 tons in any 12 consecutive month period (MSW minus non-processable or recovered materials). The facility consists of two (2) 358 TPD Municipal Waste Combustors (one each: Xxxxx Xxxxxx Systems, Xxxxxx Reverse Acting Xxxxxx Grate, Waterwall Furnace, Water-tube Boiler System with Natural Gas- Fired Auxiliary Burner System). The air pollution control system consists of spray dryer absorbers which use a lime slurry reagent for the control of acid gases; baghouses for the control of particulate matter and metals; Selective Non-catalytic Reduction systems (SNCR) for the control of NOx and carbon injection systems for the control of mercury. Flyash from the pollution control systems, superheaters and economizers is conditioned with Dolomitic lime, combined with quenched bottom ash and conveyed to a grizzly scalper for removal of large ferrous materials. The ash is then conveyed to the ash handling building where it passes under a rotating drum magnet for removal of additional ferrous materials and then passes along an ECS non-ferrous system separator for non-ferrous metal recovery. Ash, ferrous and non-ferrous materials are separately conveyed to individual storage piles for removal. There is one General Electric turbine generator with a nameplate capacity of 16.3 MW, which is capable of receiving 152,500 lb of 850 psig steam @ 825oF. Power is generated at 13.8 kV and delivered to Connecticut Light and Power’s Forestville Substation.
