Compute RTO Generation Serving RTO Load Sample Clauses

Compute RTO Generation Serving RTO Load. Using the real-time generation output in MWs, compute the Generation serving RTO Load. Sum the output of RTO generation within each load zone: , for each RTO load zone Where: zone = the relevant RTO load zone; unit = the relevant generator; RTO_Genzone = the sum of the RTO’s generation in a zone; and Genunit,zone = the real-time output of the unit in a given zone. Next, reduce the RTO generation located within a load zone by the scheduled line real-time export transaction schedules that source from that particular load zone: Where: zone = the relevant RTO load zone; scheduled_line = each of the Transmission Facilities identified in Table 1 above; RTO_Reduced_Genzone = the sum of the RTO’s generation in a zone reduced by the sum of export schedules over scheduled lines from the zone; RTO_Genzone = the sum of the RTO’s generation in a zone; and Export_Schedulesscheduled_line,zone = export schedules from a zone over a scheduled line. The real-time export schedules over scheduled lines will only reduce the generation in the source zones identified in Table 1 above. The resulting generator output based on this reduction is defined below.
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Compute RTO Generation Serving RTO Load. Using the real-time generation output in MWs, compute the Generation serving RTO Load. Sum the output of RTO generation within each load zone: _ = ∑ =1 ,, for each RTO load zone Where: zone = the relevant RTO load zone; unit = the relevant generator; RTO_Genzone = the sum of the RTO’s generation in a zone; and Genunit,zone = the real-time output of the unit in a given zone. Next, reduce the RTO generation located within a load zone by the scheduled line real-time export transaction schedules that source from that particular load zone: __ = _ − ∑ _ℎℎ_, Where: zone = the relevant RTO load zone; scheduled_line = each of the Transmission Facilities identified in Table 1 above; RTO_Reduced_Genzone = the sum of the RTO’s generation in a zone reduced by the sum of export schedules over scheduled lines from the zone; RTO_Genzone = the sum of the RTO’s generation in a zone; and Export_Schedulesscheduled_line,zone = export schedules from a zone over a scheduled line. The real-time export schedules over scheduled lines will only reduce the generation in the source zones identified in Table 1 above. The resulting generator output based on this reduction is defined below. Where: = , (__) _ unit = the relevant generator; zone = the relevant RTO load zone; Genunit,zone = the real-time output of the unit in a given zone; Reduced Genunit = each unit’s real-time output after reducing the RTO_Net_Gen by the real-time export schedules over scheduled lines; RTO_Reduced_Genzone = the sum of the RTO’s generation in a zone reduced by the sum of export schedules over scheduled lines from the zone; and RTO_Genzone = the sum of the RTO’s generation in a zone. Once export schedules over scheduled lines are accounted for, it is then appropriate to reduce the net RTO generation by the remaining real-time export schedules at the proxies identified in Table 2 above. Where: __ = ∑ __ =1 zone = the relevant RTO load zone; RTO_Net_Gen = the sum of the RTO’s generation reduced by the sum of export schedules over all scheduled lines; and RTO_Reduced_Genzone = the sum of the RTO’s generation in a zone reduced by the sum of export schedules over scheduled lines from the zone. __ = __ − ∑ _ℎ =1 Where: proxy = representation of defined sets of Transmission Facilities that (i) interconnect neighboring Balancing Authorities,
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Compute RTO Generation Serving RTO Load. Using the real-time generation output in MWs, compute the Generation serving RTO Load. Sum the output of RTO generation within each load zone: =1 _ = ∑ , , for each RTO load zone Where: zone = the relevant RTO load zone; unit = the relevant generator; RTO_Genzone = the sum of the RTO’s generation in a zone; and Genunit,zone = the real-time output of the unit in a given zone. Next, reduce the RTO generation located within a load zone by the scheduled line real-time export transaction schedules that source from that particular load zone: Where: __ = _ − ∑ _ℎℎ_, ℎ_=1 zone = the relevant RTO load zone; scheduled_line = each of the Transmission Facilities identified in Table 1 above; RTO_Reduced_Genzone = the sum of the RTO’s generation in a zone reduced by the sum of export schedules over scheduled lines from the zone; RTO_Genzone = the sum of the RTO’s generation in a zone; and Export_Schedulesscheduled_line,zone = export schedules from a zone over a scheduled line. The real-time export schedules over scheduled lines will only reduce the generation in the source zones identified in Table 1 above. The resulting generator output based on this reduction is defined below. Where: = ,
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Compute RTO Generation Serving RTO Load. Using the real-time generation output in MWs, compute the Generation serving RTO Load. Sum the output of RTO generation within each load zone: 𝑅𝑇𝑂_𝐺𝑒𝑛𝑧𝑜𝑛𝑒 𝑎𝑙𝑙 = ∑ 𝑢𝑛𝑖𝑡=1 𝐺𝑒𝑛𝑢𝑛𝑖𝑡,𝑧𝑜𝑛𝑒, for each RTO load zone Where: zone = the relevant RTO load zone; unit = the relevant generator; RTO_Genzone = the sum of the RTO’s generation in a zone; and Genunit,zone = the real-time output of the unit in a given zone. Next, reduce the RTO generation located within a load zone by the scheduled line real-time export transaction schedules that source from that particular load zone: 𝑎𝑙𝑙 𝑅𝑇𝑂_𝑅𝑒𝑑𝑢𝑐𝑒𝑑_𝐺𝑒𝑛𝑧𝑜𝑛𝑒 = 𝑅𝑇𝑂_𝐺𝑒𝑛𝑧𝑜𝑛𝑒 − � 𝐸𝑥𝑝𝑜𝑟𝑡_𝑆𝑐ℎ𝑒𝑑𝑢𝑙𝑒𝑠𝑠𝑐ℎ𝑒𝑑𝑢𝑙𝑒𝑑_𝑙𝑖𝑛𝑒,𝑧𝑜𝑛𝑒 𝑠𝑐ℎ𝑒𝑑𝑢𝑙𝑒𝑑_𝑙𝑖𝑛𝑒=1
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Compute RTO Generation Serving RTO Load. Using the real-time generation output in MWs, compute the Generation serving RTO Load. Sum the output of RTO generation within each load zone:
Sample 1

Related to Compute RTO Generation Serving RTO Load

  • Provisioning of High Frequency Spectrum and Splitter Space 3.2.1 BellSouth will provide <<customer_name>> with access to the High Frequency Spectrum as follows:

  • Synchronous Generation The Interconnection Customer shall design its Small Generating Facility to maintain a composite power delivery at continuous rated power output at the Point of Interconnection at a power factor within the range of 0.95 leading to 0.95 lagging, unless the NYISO or the Transmission Owner in whose Transmission District the Small Generating Facility interconnects has established different requirements that apply to all similarly situated generators in the New York Control Area or Transmission District (as applicable) on a comparable basis, in accordance with Good Utility Practice.

  • Non-Synchronous Generation The Interconnection Customer shall design its Small Generating Facility to maintain a composite power delivery at continuous rated power output at the high-side of the generator substation at a power factor within the range of 0.95 leading to 0.95 lagging, unless the NYISO or the Transmission Owner in whose Transmission District the Small Generating Facility interconnects has established a different power factor range that applies to all similarly situated non-synchronous generators in the control area or Transmission District (as applicable) on a comparable basis, in accordance with Good Utility Practice. This power factor range standard shall be dynamic and can be met using, for example, power electronics designed to supply this level of reactive capability (taking into account any limitations due to voltage level, real power output, etc.) or fixed and switched capacitors, or a combination of the two. This requirement shall only apply to newly interconnecting non-synchronous generators that have not yet executed a Facilities Study Agreement as of September 21, 2016.

  • Scope of Interconnection Service 1.3.1 The NYISO will provide Energy Resource Interconnection Service and Capacity Resource Interconnection Service to Interconnection Customer at the Point of Interconnection.

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