CNO - SUN2000-215KTL-H0 IEC TS 62910 Test Report Rel BV en 20201015 de 2024

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH.

TEST REPORT Central Electricity Authority (Technical Standards for Connectivity to the Grid) Regulations, 2007 including Central Electricity Authority (Technical Standards for Connectivity to the Grid) Amendment Regulations, 2013 including Annecure-I: Clarification w.r.t. PART IV of CEA Regulations. Applicability from 2015-09-04 including Central Electricity Authority Notification from 2019-02-06

Report reference number ................. : 20TH0456_CEA_2019_0 Date of issue ............................. ……...: 2020-10-15 Total number of pages .............. ……...: 238

Testing laboratory name .................. : Bureau Veritas Consumer Products Services Germany GmbH Address ............................................... : Businesspark A96, 86842 Türkheim, Germany Accreditation ....................................... :

Applicant's name .............................. : Huawei Technologies Co., Ltd. Address ............................................... : Administration Building, Headquarters of Huawei Technologies Co., Ltd., Bantian, Longgang District, Shenzhen, 518129 P.R. China

Test specification Standard ............................................. : Requirements: Central Electricity Authority (Technical Standards for Connectivity to the Grid) Regulations, 2007: GAZETTE OF INDIA: EXTRAORDINRY [Part III – Sec. 4]: MINISTRY OF POWER (Central Electricity Authority) NOTIFICATION from 2007-02-21, No. 12/X/STD(CONN)/GM/CEA. • including Central Electricity Authority (Technical Standards for Connectivity to the Grid) Amendment Regulations, 2013 • including Annecure-I: Clarification w.r.t. PART IV of CEA Regulations. Applicability from 2015-09-04 Central Electricity Authority Notification from 2019-02-06: Central Electricity Authority (Technical Standards for Connectivity to the Grid ) (Amendment )

• including Annecure-I: Clarification w.r.t. PART IV of CEA Regulations.

Applicability from 2015-09-04 Central Electricity Authority Notification from 2019-02-06: Central Electricity Authority (Technical Standards for Connectivity to the Grid ) (Amendment ) Regulations, 2019

Testing:

IEC/TS 62910:2015

Test report form number. .................... : CEA Master TRF ......................................... : Bureau Veritas Consumer Products Services Germany GmbHPage 2 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH.

Test item description........................ : Grid connected photovoltaic inverter Trademark .......................................... :

Unit / Type ........................................ : SUN2000-215KTL-H0 MPP DC voltage range [V] ................ : 930 - 1300 Input DC voltage range [V] ................ : 500 - 1500 Input DC current [A] ........................... : max. 9x 30 Nominal output AC voltage [V] .......... : 800Vac 3~ + PE, 50Hz Output AC current [A] ........................ : max. 155,2 Nominal active output power [kW] ..... : 200 Max. apparent / active output power [kVA / kW] .......................................... : 215

Testing Location ............................... : Huawei Technologies Co., Ltd. Address ............................................... : No.901, Tanglu Road, Pudong, Shanghai, 201206, P.R.China Dates of testing ................................... : 2020-08-25 - 2020-09-29

Tested by (name and signature).......................... :

Weizhao Zheng

Approved by (name and signature).......................... :

Georg LoritzPage 3 of 238 Report No.: 20TH0456_CEA_2019_0

Tested by (name and signature).......................... :

Weizhao Zheng

Approved by (name and signature).......................... :

Georg LoritzPage 3 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. Contents No. Contents Page

1. Document History 4

2. Copy of marking plate 5

3. General remarks 6

4. General remarks for testing 7

5. General product information 9

6. Notes on calculations 12

7. Evaluation of test results 13

8. Annex 1 – Test Results 19

8.1. B1 Requirements with respect to Harmonics, Direct Current (DC) Injection and Flicker 20 8.1.1. B1 (1) Harmonics 20 8.1.2. B1 (2) Direct Current (DC) Injection 20 8.1.3. B1 (3) Flicker 20 8.2. B2 For generating station getting connected on or after completion of 6 months from date of publication of these Regulations in the Official Gazette. 20 8.2.1. B2 (1) Reactive power support 20 8.2.2. B2 (2) Operation range of frequency 20 8.2.3. B2 (3) Stability during grid voltage dips (LVRT) 21 8.2.4. B2 (4) Active power control 229 8.2.5. B2 (7) Operating at overvoltage condition 229

9. Annex 2 – Pictures of the unit 230

10. Annex 3 – Measurement uncertainty 234

11. Annex 4 – Test equipment list 236Page 4 of 238 Report No.: 20TH0456_CEA_2019_0

9. Annex 2 – Pictures of the unit 230

10. Annex 3 – Measurement uncertainty 234

11. Annex 4 – Test equipment list 236Page 4 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. Document History Date Internal reference Modification / Change / Status Revision 2020-10-15 Weizhao Zheng Initial report was written 0

Supplementary information: The Central Electricity Authority (Technical Standards for Connectivity to the Grid) Regulations does not in every case specify the respective test procedure to the defined requirements. Thus testing was performed according to established test guidelines as documented in detail on pages 13 to 18.

This test report only covers the FRT testing B2 (3).Page 5 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. Copy of marking platePage 6 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH.

General remarks Preface: The test results presented in this report relate only to the object(s) tested.

This report must not be reproduced in part or in full without the written approval of the issuing testing laboratory. "(see Annex #)" refers to additional information appended to the report. "(see appended table)" refers to a table appended to the report. Throughout this report a comma ‘,’ is used as decimal separator and a period ‘.’ as thousands separator. The following suffixes/indices are used for variables in tables and figures: • “_+” for positive, “_-” for negative, “_0” for zero sequence system values • “_RMS” for the RMS values

The following suffixes/indices are used for variables in tables and figures: • “_+” for positive, “_-” for negative, “_0” for zero sequence system values • “_RMS” for the RMS values • “_Lx” for index of phase X Acronyms: PGU .......................................................................... : power generating unit PGS .......................................................................... : power generating system PCC .......................................................................... : point of common coupling (grid connection point) Test case verdicts Test case does not apply to the test object ............. : N/A Test item does meet the requirement ...................... : P(ass) Test item does not meet the requirement ................ : F(ail) Description of the vector system to depict test results: The regarded system of the voltage and current vectors is the load reference system (Figure 1): • If the inverter feeds to the grid the active power is measured with positive sign. • If the inverter injects reactive power / current with leading power factor the reactive power / current is marked “leading” (under-excited) or has a negative sign. • If the inverter injects capacitive reactive power / current with lagging power factor the reactive power / current is marked “lagging” (over-excited) or has a positive sign.

Figure 1 – Generator reference arrow systemPage 7 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. General remarks for testing

Test setup: The PGU is connected on the DC-side to a PV-simulator and on the AC-side to an AC-grid simulator.The AC-grid simulator is operated with nominal conditions of voltage of 800 V (phase-to-phase) and 50 Hz unless stated otherwise by the applied test requirement.

The setup is shown in Figure 2. The specific test and measurement devices are stated in Annex 4.

Note:

simulator is operated with nominal conditions of voltage of 800 V (phase-to-phase) and 50 Hz unless stated otherwise by the applied test requirement. The setup is shown in Figure 2. The specific test and measurement devices are stated in Annex 4.

Note: Depending on AC connection terminals provided by the inverter type and the earthing system selected, the neutral conductor of the AC source was not connected for the testing.

Figure 2 – Test setup scheme Measurement method: The requirements, as stated by the applicable standard, for the power quality of the connected grid used for the measurements are fulfilled. A number of measurements is conducted as stated by the applicable standard’s test procedure. The sample rates and aliasing filters are chosen as required by the applicable standard and according to generally recognised knowledge. The results are calculated and averaged as stated by the applicable standard. The measurement uncertainty can be found in Annex 4. Primary power sources (DC): Primary power is provided by a PV simulator. Available power is modified by adapting the short circuit current (Isc) value. Following example shows a PV-curve (Isc = 212,1 A, Uoc = 1382,8 V) simulated according to EN50530.

Figure 3 – DC characteristics for testing Low impedance programmable AC Source Line impedance stabilisation network (XG, RG) PGU PV simulator

PC DC+ DCL1 L2 L3 Oscilloscope + Data acquisition recorder

Page 8 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. General remarks for testing

Reference values: SUN2000-215KTL-H0 (800 V) Rated active power, Pn [kW] 200

This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. General remarks for testing

Reference values: SUN2000-215KTL-H0 (800 V) Rated active power, Pn [kW] 200

Max. apparent power, Sma [kVA] 215 Rated voltage (phase-to-phase), Un [V] 800 Rated current, In [A] 144,4 Max. current  Imax [A] 155,2

Description of test object(s): The tests were performed on EUTs SUN2000-215KTL-H0 (800 V)

Hardware version: The product was tested on following HW revisions:

V300R001 Software (FW) version: The product was tested on: FW: V300R001Page 9 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. General product information

General product information: The photovoltaic converter converts DC voltage, generated by photovoltaic modules, into AC voltage.

The units are three-phase.

Equipment mobility ........................... : Permanent connection Operating condition .......................... : Continuous Class of equipment ........................... : Class I Protection against ingress of water .. : IP66 according to EN 60529 Mass of equipment [kg] .................... : 84±1Page 10 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. General product information Description of the power circuit (Figure 4): The input and output are protected by SPDs to Earth. The unit is providing EMI filtering at the PV input and output toward mains. The unit does not provide galvanic separation from input to output (transformerless). The output is

General product information Description of the power circuit (Figure 4): The input and output are protected by SPDs to Earth. The unit is providing EMI filtering at the PV input and output toward mains. The unit does not provide galvanic separation from input to output (transformerless). The output is switched off redundant by the high power switching bridge and a two relays. This assures that the opening of the output circuit can operate in case of one error. The internal control is redundant built. It consists of Microcontroller master ARM (U101) and slave ARM (U100). The master ARM (U101) which can control the relays by switching signals; measures the voltage, frequency, AC current, DC-injection current, insulation resistance and residual current. In addition it tests the array isolation impedance and the RCMU circuit before each start up. The slave ARM (U100) is user for detecting grid voltage, grid frequency and residual current, also can open the relay, and communicate with Main ARM (U101) each other. The unit provides two relays in series on each phase. When single-fault applied to one relay, an error code will appear on display panel, another redundant relay provides basic insulation maintained between the PV array and the mains. All the relays are tested before start up. Both ARM can open the relays.

Figure 4 – Block diagramPage 11 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. General product information Description of the connection to the remote control receiver (Figure 5) (Manufacturer’s data): A generating station can receive the signal from the State Load Dispatch Centre or Regional Load Dispatch Centre for regulation of the active and reactive power output uisng the Smart Logger (data acquisition device). The remote control receiver can be connected to the Smart Logger using dry contact for active / reactive power control, which is connected to the inverters via RS485/MBUS.

Centre for regulation of the active and reactive power output uisng the Smart Logger (data acquisition device). The remote control receiver can be connected to the Smart Logger using dry contact for active / reactive power control, which is connected to the inverters via RS485/MBUS.

Figure 5 – Connection of the remote control receiver in an installationPage 12 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. Notes on calculations General remarks: RMS-Calculations are performed with a moving window, averaging with full sampling rate, losing one full window at the beginning of the time-series, due to the empty filter. The filter is applied twice to all symmetric components with a window length corresponding to one full respectively a half cycle of the measured mean grid frequency. The average grid frequency over the measured interval is calculated from zero-crossings of the sine function. Performed Calculation Used formula Remarks Complex unit vectors for angular transformation 2 3 2 13 2 jea j +−==  2 3 2 13 2 2 jea j −−== − 

• Symmetric component transformation matrix

          = 111 1 1 3 1 2 2 aa aa C         

           == L3 L2 L1 2 2 120 111 1 1 3 1 U U U aa aa UCU

Example of Transformation for vector U, consisting of 3-phase time-series

Powers IUS = ( )IUcos  −= SP

( )IUsin  −= SQ

Phase-angle : Angular difference between current and voltage ( )IU  −=

Currents: Apparent current, active current, reactive current

          = == 0 2 s1 120 I I II ICI

( )s1 IUsb  −−= sinII

( )s1 IUsw  −= cosII

The reactive current has reciprocal sign compared to reactive power. This originates from the calculation of reactive power based on multiplication of the complex voltage with the conjugated complex of the current as opposed to the reactive current being calculated by the projection of the complex current phasor to the imaginary axis. Phase angles for active and reactive decomposition The difference of the angles of the complex first order fourier coefficients based on nominal grid frequency (50 Hz) calculated from single phase voltage and current and also from positive, negative and zero sequence values constitutes the phase angles. - Average active power gradient The positive sequence active power is

The difference of the angles of the complex first order fourier coefficients based on nominal grid frequency (50 Hz) calculated from single phase voltage and current and also from positive, negative and zero sequence values constitutes the phase angles. - Average active power gradient The positive sequence active power is integrated from the fault end at t2 until t2 + 5 s. The gradient is started from t2 at zero output power until Pref is reached at tc. So the area made up by the artificial triangle (part of the gradient) and rectangle (part of constant value Pref from tc through t2 + 5 s) is equal to the integrated measured active power. -Page 13 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. Central Electricity Authority (Technical Standards for Connectivity to the Grid) Regulations GAZETTE OF INDIA: EXTRAORDINRY [Part III – Sec. 4]: MINISTRY OF POWER (Central Electricity Authority) NOTIFICATION from 2007-02-21, No. 12/X/STD(CONN)/GM/CEA. including Central Electricity Authority (Technical Standards for Connectivity to the Grid) Amendment Regulations, 2013

B. Connectivity Standards applicable to the Wind generating stations and generating stations using invertersThese generating stations shall comply with the following requirements besides the general connectivity conditionsgiven in the said regulations and Part I of the Schedule

Central Electricity Authority Notification from 2019-02-06

B. Connectivity standards applicable to the wind generating stations, generating stations using inverters, windsolar photo voltaic hybrid systems and energy storage systems.

The generating stations shall comply with the following requirements in addition to the general connectivity conditions specified under Part 1: Provided that the energy storage systems shall comply, only with the requirements specified under clause B1 in addition to the general connectivity conditions specified under Part 1.

The generating stations shall comply with the following requirements in addition to the general connectivity conditions specified under Part 1: Provided that the energy storage systems shall comply, only with the requirements specified under clause B1 in addition to the general connectivity conditions specified under Part 1. Clause/§ Requirement Remark Verdict

B1 Requirements with respect to Harmonics, Direct Current (DC) Injection and Flicker B1 (1) Harmonic current injections from a generating station shall not exceed the limits specified in Institute of Electrical and Electronics Engineers (IEEE) Standard 519. Testing not covered in this report. N/A From IEEE Standard 519-2014: Voltage distortion limits depending on voltage level

Current distortion limits depending on short circuit ratio on PCC:

B1 (2) The Generating station shall not inject DC current greater than 0.5 % of the full rated output at the interconnection point. Testing not covered in this report. N/A B1 (3) The generating station shall not introduce flicker beyond the limits specified in IEC 61000. Provided that the standards for flicker will come into effect from 1st April 2014. Testing not covered in this report. N/APage 14 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. Central Electricity Authority (Technical Standards for Connectivity to the Grid) Regulations Clause/§ Requirement Remark Verdict B1 (4) Measurement of harmonic content, DC injection and flicker shall be done at least once in a year in presence of the parties concerned and the indicative date for the same shall be mentioned in the connection agreement; Provided that in addition to annual measurement, if distribution licensee or transmission licensee or the generating company, as the case may be, desires to measure harmonic content or DC-injection or flicker, it

of the parties concerned and the indicative date for the same shall be mentioned in the connection agreement; Provided that in addition to annual measurement, if distribution licensee or transmission licensee or the generating company, as the case may be, desires to measure harmonic content or DC-injection or flicker, it shall inform the other party in writing and the measurement shall be carried out within 5 working days"; Plant level, not relevant for unit testing. N/A

B2 For generating station getting connected on or after completion of 6 months from date of publication of these Regulations in the Official Gazette. B2 (1) The generating station shall be capable of supplying dynamically varying reactive power support so as to maintain power factor within the limits of 0.95 lagging to 0.95 leading. Testing not covered in this report. N/A B2 (2) The generating unit shall be capable of operating in the frequency range 47.5 to 52 Hz and be able to deliver rated output in the frequency range of 49.5 Hz to 50.5 Hz: Provided that in the frequency range below 49.90 Hz and above 50.05 Hz, or, as prescribed by the Central Commission, from time to time, it shall be possible to activate the control system to regulate the output of the generating unit as per frequency response requirement as provided in sub-clause (4): Provided further that the generating unit shall be able to maintain its performance contained in this subclause even with voltage variation of up to + 5% subject to availability of commensurate wind speed in case of wind generating stations and solar insolation in case of solar generating stations. Testing not covered in this report. N/APage 15 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH.

Testing not covered in this report. N/APage 15 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. Central Electricity Authority (Technical Standards for Connectivity to the Grid) Regulations Clause/§ Requirement Remark Verdict B2 (3) The generating station connected to the grid, shall remain connected to the grid when voltage at the interconnection point on any or all phases dips up to the level depicted by the thick lines in the following curve, namely: —

VT : Actual Voltage; Vn: Nominal Voltage—

Provided that during the voltage dip, the supply of reactive power has first priority, while the supply of active power has second priority and the active power preferably be maintained during voltage drops, provided, a reduction in active power within the plant’s design specifications is acceptable and active power be restored to at least 90% of the pre-fault level within 1 sec of restoration of voltage. Full LVRT testing was performed on the SUN2000-215KTL-H0 (800 V) based on IEC 62910, testing for 3-phase, 2-phase and single pahse voltage faults. Tests have been performed on all 3 phase configurations and showed identical behavior. Thus this report only depicts the configuration for asymmetric dips on L2-L3 (for 2-phase voltage faults) or L1 (for single pahse voltage faults).

Note: • The grid fault was simulated at the medium voltage side of the Dy-medium-voltage transformer, the measurement at the low voltage side of the transformer was evaluated. • During a symmetrical grid fault the unit provids reactive current according to Tranmission Code 2007 using a proportional factor (k-factor)

the Dy-medium-voltage transformer, the measurement at the low voltage side of the transformer was evaluated. • During a symmetrical grid fault the unit provids reactive current according to Tranmission Code 2007 using a proportional factor (k-factor) of 2 (ΔIreactive = k·Δu·In), the active current will be limited if needed. In case of asymmetrical faults the control strategy of the acitve and reactive current is the same as in case of symmetrical faults, additionally the reactive current injection is limited to max. 40%In. If the active current / power should be maintained at a certain level during a grid fault, this can be achieved by setting a suitable k-factor (setting range: 0~10) to limit the additional reactive current injection. • The activation threshold of the reactive current injection (grid support) was set to 80%Un as default, paramater is adjustable. • Max. measured settling time of active power after fault clearance (≥ 90% of prefault active power): 1,617 s Note: The tests results show the LVRT capability of the unit, using see also remarkPage 16 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. Central Electricity Authority (Technical Standards for Connectivity to the Grid) Regulations current implementation the requirement of settling time of active power after fault clearance can not be fulfilled. B2 (4) The generating stations with installed capacity of more than 10 MW connected at voltage level of 33 kV and above – (i) shall be equipped with the facility to control active power injection in accordance with a set point,

active power after fault clearance can not be fulfilled. B2 (4) The generating stations with installed capacity of more than 10 MW connected at voltage level of 33 kV and above – (i) shall be equipped with the facility to control active power injection in accordance with a set point, capable of being revised based on directions of the State Load Dispatch Centre or Regional Load Dispatch Centre, as the case may be; (ii) shall have governors or frequency controllers of the units at a droop of 3 to 6% and a dead band not exceeding ±0.03 Hz: Provided that for frequency deviations in excess of 0.3 Hz, the Generating Station shall have the facility to provide an immediate (within 1 second) real power primary frequency response of at least 10% of the maximum Alternating Current active power capacity; (iii) shall have the operating range of the frequency response and regulation system from 10% to 100% of the maximum Alternating Current active power capacity, corresponding to solar insolation or wind speed, as the case may be; (iv) shall be equipped with the facility for controlling the rate of change of power output at a rate not more than ± 10% per minute. Testing not covered in this report. N/A B2 (5) The generating stations of aggregate capacity of 500 MW and above shall have the provision to receive the signal from the State Load Dispatch Centre or Regional Load Dispatch Centre, as the case may be, for varying active and reactive power output. Considered. See Description of the connection to the remote control receiver (page 11)

B2 (5) part of the regulation does not apply for the unit and will be addressed on plant level. N/A B2 (6) The standards in respect of the switchyard associated with the generating stations shall be in accordance with the provisions specified in respect of ‘Sub-stations’ under Part III of these Standards. Considered.

addressed on plant level. N/A B2 (6) The standards in respect of the switchyard associated with the generating stations shall be in accordance with the provisions specified in respect of ‘Sub-stations’ under Part III of these Standards. Considered. B2 (6) part of the regulation does not apply for the unit and will be addressed on plant level. N/A B2 (7) The generating station connected to the grid, shall remain connected to the grid when voltage at the interconnection point, on any or all phases (symmetrical or asymmetrical overvoltage conditions) rises above the specified values given below for specified time —

Testing not covered in this report. N/APage 17 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. Central Electricity Authority (Technical Standards for Connectivity to the Grid) Regulations Clause/§ Requirement Remark Verdict B2 (8) Short Circuit Ratio at the interconnection point where the generating resource is proposed to be connected shall not be less than 5. Considered. B2 (8) part of the regulation does not apply for the unit and will be addressed on plant level. N/APage 18 of 238 Report No.: 20TH0456_CEA_2019_0

Copyright  Bureau Veritas Consumer Products Services Germany GmbH This report must not be reproduced in part or in full without the written approval of BV CPS GmbH. Central Elec