DRAFT PROPOSAL FOR STORAGE CONNECTION REQUIREMENTS
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1 DRAFT PROPOSAL FOR STORAGE CONNECTION REQUIREMENTS December 2017
2 Contents 1 Background and reading instructions Definitions and applicability SPM categories types SPM Type A Frequency stability & active power management Frequency withstand capability [Art (a)] Rate Of Change Of Frequency (ROCOF) withstand capability [Art 13.1(b)] Limited Frequency Sensitive Mode (LFSM-O and LFSM-U) [Art (a) and Art. 15-2] Admissible maximum power reduction with falling frequency [Art. 13-4] Logical interface to cease active power injection [Art 13-6] Automatic connection [Art 13-7] Rates of change of active power output [Art 15-6(e)] Information exchange SPM Type B Frequency stability and active power management Remote control reduction of active power [Art 14-2] Automatic reconnection [Art 14-4] Fault-ride through for symmetrical and asymmetrical faults [Art 14-3] Error! Bookmark not defined. 5.3 Information exchange [Art 14-5 (d)] Structural data Scheduled data Real-time measurements Data to be received: Fault-ride through for symmetrical and asymmetrical faults - [Art 20-3] Reactive capabilities - [Art 20-2(a)] Fault Current & dynamic voltage support [Art 20-2 (b)] (optional) Post-fault active power recovery [Art 20-3] (optional) SPM Type C Frequency stability& Active Power management Active Power Controllability and Control Range [Art (a)] Limited frequency sensitive mode under frequency (LFSM-U) [Art (c)] Frequency Sensitive Mode [Art d] Frequency restoration control [Art 15-2.e] Real-time monitoring of FSM [Art 15-2.g] Automatic disconnection for voltage outside ranges [Art 15-3] System restoration [Art 15-5] Information exchange Reactive capabilities - [Art 21-3(a-c)] Voltage control - [Art 21-3 (d) and (e)] SPM Type D Fault-ride through for symmetrical and asymmetrical faults [Art 22] References Draft proposal for storage connection requirements December 2017 Page 1 of 11
3 1 Background and reading instructions Storage devices except for pump-storage Power Generating Modules (PGM) are out of the scope of connections requirement Network Codes as referred in the Art 3-2 (d) in the RfG NC [1] and the Art 3-2 (b) in the DCC NC [2]. The present document proposes specific minimum technical requirement for Storage Park Modules (SPM) as per the terminologies and definitions used in the section 2. The current requirements cover in general SPM connected to transmission network as well as SPM connected to DSO or CDSO for technical requirements that are subject to definition by the relevant TSO (Elia) in alignment with ENTSO-e guidance document for National Implementation of connection Network Codes [3]. The technical requirements are defined based on categories reflecting the significance and the expected capabilities of the storage system. The proposed requirements take into consideration the technical capabilities which are aligned with the Power Park Modules (PPM) exhaustive and non-exhaustive requirements as Significant Grid Users connected through power electronics. This document have a main focus on the minimal technical requirements specifically applicable to storage systems, meaning that when no specific distinct provisions are required for SPM the exhaustive and non-exhaustive requirements for PPM are of application unless otherwise specified. 2 Definitions and applicability Public Transmission network POCC Central Control Gen = ~ = ~ SPM Figure 1 Example of Storage Park Module grid connection Figure 1 illustrates possible grid connection of a SPM and the point of common coupling, which could include within the same facility other power generation modules or demand units as auxiliary supply. Below is a set of applicable definitions covering intrinsic capabilities of SPM or relevant operational modes addressed within the current technical connection requirements: a. Storage Park Module (SPM): An electric system composed of a single or multiple electrical storage units capable of storing, delivering electrical energy into a single electrical point of connection. b. Prated: Is the maximum active power which the SPM is technically designed to deliver or absorb at the point of common coupling as per the type approval. c. State Of Charge (SOC): Is the measure of the amount of remaining capacity expressed in percentage points (0% = empty; 100% = full). Draft proposal for storage connection requirements December 2017 Page 2 of 11
4 d. Maximum Charging Ramping Rate (Rch): Is the maximum ramping that the SPM is capable of achieving during charging expressed in %Pmax/second e. Maximum Discharging Ramping rate (Rdis): Is the maximum ramping that the SPM is capable of achieving during discharging expressed in %Pmax/second The current connection requirements are applicable to both stationary and non-stationary applications - which includes for example Vehicles-to-Grid (V2G) applications - covering new or existing installations to which substantial modifications are made in alignment with the RfG provisions for that matter. The current connection requirements are not applicable to emergency Uninterruptible Power Supply and any specific applications operating in parallel less than five minutes per calendar month while the system is in normal system state in alignment with the RfG NC provisions of the Article 3 (2) [1]. 3 SPM categories types The present technical requirements are defined per each of the following categories taking into consideration the Prated characteristic of the SPM in the point of common coupling: Type A o 0.8kW Prated < 0.25 MW Type B o 0.25 MW Prated < 25MW Type C o 25MW Prated < 75MW Type D o 75MW Prated Draft proposal for storage connection requirements December 2017 Page 3 of 11
5 4 SPM Type A 4.1 Frequency stability & active power management Frequency withstand capability [Art (a)] PGM type A exhaustive and non-exhaustive requirements are of application Rate Of Change Of Frequency (ROCOF) withstand capability [Art 13.1(b)] PGM type A exhaustive and non-exhaustive requirements are of application Limited Frequency Sensitive Mode (LFSM-O and LFSM-U) [Art (a) and Art. 15-2] In the case of SPM both LFSM-O and LFSM-U technical capabilities are required for all SGU types taking into consideration the Art of the Emergency and Restoration Network Code [4]. In the event of large frequency deviations, the SPM must contribute to ensuring frequency stability by automatically increasing or reducing active power injection or absorption at grid frequencies below or above the reference frequencies f1 and f2 in accordance with Figure 2 and the parameters defined in Table 1. In application of the article 15.3(b) of the EU Emergency and Restoration NC, a SPM that cannot achieve a reverse into discharging mode prior to automatic low frequency demand disconnection scheme shall disconnect. This shall not be perused by design, but considered and only enforced in the case that a discharging mode cannot be achieved prior to the frequency threshold of 49 Hz. For justified safety or technical security reasons the owner might agree with the relevant system operator on applicable minimum and/or maximum SOC limits. ΔP Prated 2 s1=1% P (50 f1) = 100% P rated 50 s Frequency [Hz] f1 f Disconection s2=5% allowed -1 P (50 f2) = 100% P rated 50 s2 Figure 2 Limited Frequency Sensitive response capabilities for a SPM Draft proposal for storage connection requirements December 2017 Page 4 of 11
6 Table 1 Limited Frequency Sensitive response parameters for a SPM Parameters f1 f2 s1 s2 Settling time First reaction Default value 49.8 Hz 50.2 Hz 1% Selectable within a range of 0.1 and 12% 5 % Selectable within a range of 0.1 and 12% As fast as possible maximum 15 seconds As fast as possible maximum 2 seconds Admissible maximum power reduction with falling frequency [Art. 13-4] This requirement is not applicable for SPM Logical interface to cease active power injection [Art 13-6] The SPM shall be capable of ceasing power injection or absorption to zero within 5 seconds after instruction is given via the reception of an external signal, remote operation is site specific as defined in the subsection Automatic connection [Art 13-7] Automatic Connection is only allowed for SPM Type A The general condition for connection are defined as following (automatically for Type A) Frequency range between: 49.9 and 50.1 Hz and Voltage range between: 0.9 and 1.1 pu of Nominal voltage and Temporization: 60 seconds Subsequent to the connection the SPM ramping shall be limited to the following (not withstanding LFSM requirement): Ramping for charging mode: 5 % Prated per minute Ramping for discharging mode: 10% Prated per minute Rates of change of active power output [Art 15-6(e)] Notwithstanding emergency operation and frequency control requirements, Elia (or RSO) have the right to specify a maximum ramping limitation for fast charging and discharging rates expressed in percentage point of Prated per second. 4.2 Information exchange There are no requested capabilities to establish real time communication, SPM of type A shall be equipped to receive and comply to an external signal to cease charging or discharging. Signal# Request to Cease Active Power absorption or injection Binary 1: Request Active 0: End of request Draft proposal for storage connection requirements December 2017 Page 5 of 11
7 5 SPM Type B In addition to the specifications for SPM type A, the following is requested. 5.1 Frequency stability and active power management Remote control reduction of active power [Art 14-2] The SPM shall be capable of reducing power injection or absorption to zero within a maximum duration of 1 minute and a precision of 5% after instruction is given via the reception of an external signal. Remote operation is site specific Elia can request remote operation as per the provisions in subsection Automatic reconnection [Art 14-4] For SPM units of Type B, C and D automatic reconnection is prohibited and subject to authorization in their connection contracts. The general condition for reconnection are defined as following: Frequency range between: 49.9 and 50.1 Hz and Voltage range between: 0.9 and 1.1 pu of Nominal voltage and Temporization: 60 seconds A signal allowing the reconnection is foreseen in the sub-section Subsequent to the connection the SPM ramping shall be limited to the following (not withstanding LFSM-U requirement): Ramping for charging mode: 5 % Pmax per minute Ramping for discharging mode: 10% Pmax per minute 5.2 Information exchange [Art 14-5 (d)] Beside what is being requested for PGM in general, the following is requested for SPM Structural data Beside what is being requested for PPM in general, the following is requested for SPM: EG Gross Energy Capacity [MWh] Enet Net Energy Capacity [MWh] Prated Maximum rated active power capacity [MW] SOCmin Minimum State of Charge [%] SOCmax Maximum State of Charge [%] Rch Maximum charging rate [MW/min] Rdis Maximum discharging rate [MW/min] Draft proposal for storage connection requirements December 2017 Page 6 of 11
8 5.2.2 Scheduled data PPM type B exhaustive and non-exhaustive requirements are of application Real-time measurements Beside what is being requested for PPM in general, the following is requested for SPM SOC State of charge [%] Data to be received: Beside what is being requested for PPM in general, the following is requested for SPM Signal# Clearance to reconnect Binary 0: No reconnection 1: Clearance Signal# Request to reduce Active Power absorption or injection Binary 1: Request Active 0: End of request Signal# Active power setpoint expressed in MW Value Charging/discharging 5.3 Fault-ride through for symmetrical and asymmetrical faults - [Art 20-3] PPM type B exhaustive and non-exhaustive requirements are of application. 5.4 Reactive capabilities - [Art 20-2(a)] A type B SPM shall be capable of providing at the POCC the reactive power capabilities determined by the Q-P profile as represented in the Figure 3 for both charging and discharging modes. PD is the maximum active power that can be produced or absorbed in case of the maximum requested reactive power output (hence equal to 0.95*Snom). This figure should be respected for all voltages within a voltage range between 0.95pu and 1.05pu. Note that the available capability of the SPM (which could be wider than the minimum requirement) should be communicated, demonstrated and put at disposal of the relevant system operator. The owner of the SPM is not allowed to refuse the use of the reactive capability without a technical justification. In case the SPM has already the capability of voltage regulation, one should not refuse the relevant system operator to make use of it. In this case, the settings of the controllers should be agreed with the relevant system operator. Draft proposal for storage connection requirements December 2017 Page 7 of 11
9 P Required P D S nom -30% P D +33% P D Q - P D Figure 3: Capability curve for SPM type B 5.5 Fault Current & dynamic voltage support [Art 20-2 (b)] (optional) PPM type B exhaustive and non-exhaustive requirements are of application, the requirement is optional for SPM and shall be applicable for both charging and discharging modes. 5.6 Post-fault active power recovery [Art 20-3] (optional) PPM type B exhaustive and non-exhaustive requirements are of application, the requirement is optional for SPM and shall be applicable for both charging and discharging modes. Draft proposal for storage connection requirements December 2017 Page 8 of 11
10 6 SPM Type C In addition to the specifications for SPM type B, the following is requested. 6.1 Frequency stability& Active Power management Active Power Controllability and Control Range [Art (a)] The SPM shall be capable of controlling active power injection or absorption to a requested setpoint within a maximum duration of 1 minute (Ts) and a precision of 5% (Setpoint tolerance) after instruction is given as per the Figure 4. Setpoint tolerance New setpoint (charging or discharging modes) Current injected or absorbed power New setpoint received Ts: Time setpoint to be reached Figure 4 Tolerance and time duration for SPM application of new set point of active power Limited frequency sensitive mode under frequency (LFSM-U) [Art (c)] Already covered in the section Frequency Sensitive Mode [Art d] As per PPM type C exhaustive and non-exhaustive requirements, taking into consideration applicable requirements for units with limited energy reservoirs as defined in the System Operation Guidelines and Elia s General Framework Application Frequency restoration control [Art 15-2.e] As per PPM type C exhaustive and non-exhaustive requirements and Elia s General Framework Application Real-time monitoring of FSM [Art 15-2.g] As per PPM type C exhaustive and non-exhaustive requirements and Elia s General Framework Application. Draft proposal for storage connection requirements December 2017 Page 9 of 11
11 6.1.1 Automatic disconnection for voltage outside ranges [Art 15-3] As per PPM type C exhaustive and non-exhaustive requirements 6.2 System restoration [Art 15-5] As per PPM type C exhaustive and non-exhaustive requirements. 6.3 Information exchange As per PPM type C exhaustive and non-exhaustive requirements. 6.4 Reactive capabilities - [Art 21-3(a-c)] A type C SPM shall be capable to deliver reactive power within the Q-P profile described in Figure 5 at the POCC for both charging and discharging modes. This profile has an obligated span of 0.6p.u. with regards to Q/Pnom, but can move within an area of [-0.3p.u., +0.35p.u.] represented by the outer envelope when accepted by Elia (based on the connection point, size and the characteristic of the SPM) as defined in the Figure 5. Prated 1 pu Outer envelope 0,2 pu -0,3-0,0329 0,0329 0,3 0,35 Q/Pnom 0,2 pu -Prated Figure 5: Reactive power capability for a Type C and D PPM. Draft proposal for storage connection requirements December 2017 Page 10 of 11
12 If voltage control mode, reactive power control mode or power factor control mode are not enabled, the SPM shall maintain by default a 1 power factor unless agreed with Elia, deviation is acceptable within the shaded area (-0,0329~0,0329 Q/Pnom). Note that the available capability of the SPM (which could be wider than the minimum requirement) should be communicated, demonstrated and put at disposal of the relevant system operator. The owner of the PPM is not allowed to refuse the use of the reactive capability without a technical justification. 6.5 Voltage control - [Art 21-3 (d) and (e)] As per PPM type C exhaustive and non-exhaustive requirements 7 SPM Type D 7.1 Fault-ride through for symmetrical and asymmetrical faults [Art 22] As per PPM type D exhaustive and non-exhaustive requirements. 8 References [1] " Network Code Requirements for Generators or NC RfG : Commission Regulation (EU) 2016/631 of 14 April 2016 establishing a network code on requirements for grid connection of generators,," [2] "'Network Code on Demand Connection': Commission Regulation (EU) 2016/1388 of 17 August 2016 establishing a Network Code on Demand Connection". [3] "Parameters of Non-exhaustive requirements: ENTSO-E Guidance document for national implementation for network codes on grid connection". [4] "'Network Code on Electricity Emergency and Restoration ': Commission Regulation (EU) 2017/2196 of 24 November 2017 establishing a network code on electricity emergency and restoration," Draft proposal for storage connection requirements December 2017 Page 11 of 11
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