Description
Technical specifications
| Manufacturer | Ginlong Energy Storage /SolisStorage |
|---|---|
| Family | EverCore |
| Variant | 261 kWh |
| Device type | Battery storage system with inverter |
| Nominal energy | 261.248 kWh |
| Cell chemistry | LiFePO4 /LFP |
| Cells | EVE MB31 |
| Nominal cell voltage | 3.2 V |
| Cell capacity | 314 Ah |
| Battery pack count | 13 |
| Pack model | PACK-1P20S-314-01 |
| Pack configuration | 1P20S |
| Pack energy per manual | 20.10 kWh |
| Pack voltage | 64 V |
| Pack voltage range | 58–72 V |
| Pack weight | 138 kg |
| Pack dimensions W ×H ×D | 435 ×230 ×904 mm |
| Battery configuration | 1P260S |
| Total cell count | 260 |
| Nominal DC voltage | 832 V |
| Operating DC voltage | 754–936 V |
| Rated DC current | 157 A |
| Cycle rate | 0.5 P |
| Maximum battery charge power | 125 kW |
| Maximum battery discharge power | 125 kW |
| Actual power calculation | Voltage ×current, BMS, SOC, temperature and connected inverter |
| Usable energy | According to SOC settings, reserve and operating losses |
| Battery management | BMU /BCU /EMU |
| Cell balancing | Passive |
| Communication protocols | CAN /RS485 /TCP/IP |
| Battery-inverter communication | CAN /BMS1 |
| Cabinet controller | EMU |
| Power distribution | PDU |
| Cabinet cooling | Industrial air conditioning |
| Thermal modes | Cooling, heating, dehumidification and air circulation |
| Air-conditioner cooling capacity | 5 kW |
| Air-conditioner heating capacity | 3 kW |
| Refrigerant | R134a |
| Pack cooling | Air cooling |
| Auxiliary AC supply | 220 V AC |
| Auxiliary supply rating | ~4 kW |
| Charging ambient temperature | 0…+55 °C |
| Discharging ambient temperature | −25…+55 °C |
| Cabinet storage temperature per manual | −20…+45 °C |
| Operating humidity | ≤95 % non-condensing |
| Cabinet ingress protection | IP55 |
| Quoted anti-corrosion configuration | C4H+C5 /C5 |
| Family noise at rated operation | 75 dB(A) @1 m |
| Cabinet dimensions W ×H ×D | 1400 ×2230 ×1600 mm |
| Reference battery-cabinet weight | 2900 kg |
| Siting | Fixed outdoor location according to site design |
| Foundation | Level non-combustible foundation sized for the actual system |
| Handling | Professional lifting or forklift equipment |
| Protection sensing | Temperature and smoke |
| Pack protection | Aerosol system |
| Pressure relief | Pressure-relief valve |
| Indication | Audible and visual |
| Fire-water connection | DN65 |
| Fire-linkage output | XT3:1 /XT3:2 |
| Safety equipment configuration | Aerosol, temperature and smoke detection, pressure valve, visual and audible indication |
| Cell cycle test | 8000; 25±2 °C; 0.5 P; SOH70 % |
| Cycle-value applicability | Cell-manufacturer data under test conditions |
| Estimated delivery | 2–3 days, seller operating estimate |
| Installation arrangement | Engineered connection by qualified personnel |
| Inverter pairing | S6-EH3P125K10-NV-YD-H included in system |
| Grid charging | Through the supplied hybrid inverter according to settings and design |
| PV connection | To MPPTs of the matching hybrid inverter |
| Battery-bank setting | 1 |
| DC port connection | Two inverter ports to one bank according to EverCore diagram |
| Battery model in app | SolisStorage |
| DC expansion | Additional matching cabinets through busbars according to design |
| Linked-cabinet control | EMU CAN /Cat6a STP /T568B |
| Controller network | WAN1 /Ethernet /TCP/IP |
| Cabinet-count configuration | According to actually connected cabinets |
| Monitoring | SolisCloud and local EMU |
| Commissioning | Installer role, verification of wiring, grid, BMS and SOC |
| Inverter — Rated AC output | 125000 W |
| Inverter — Grid connection | 3/N/PE; 220/380 V; 230/400 V |
| Inverter — Grid frequency | 50 /60 Hz |
| Inverter — Power factor | >0.99; 0.8 leading /lagging |
| Inverter — THDi | <3 % |
| Inverter — Keys | ESC /UP /DOWN /ENTER |
| Inverter — Status LEDs | POWER /OPERATION /ALARM |
| Inverter — App roles | Installer /Owner |
| Inverter — Operating modes | Self Use /Selling First /Off Grid /Peak Shaving |
| Inverter — Grid charging | Allow Grid Charging |
| Inverter — Time scheduling | 6 charging and 6 discharging windows |
| Inverter — Default maximum charge | 100 % SOC |
| Inverter — SOC setting order | Force Charge <Over-discharge <Recovery |
| Inverter — Smart port — function selection | Genset input /AC coupled /Smart load output |
| Inverter — PV conductors | 4–6 mm²; recommended 4 mm² |
| Inverter — PV stripping | 7 ±0.5 mm |
| Inverter — Ingress protection | IP66 |
| Inverter — Operating temperature | −25…+60 °C |
| Inverter — Operating humidity | 0–100 % RH |
| Inverter — Bluetooth | BDR /EDR /BLE; 2.402–2.480 GHz; 8 dBm |
| Inverter — App sections | Home /Info /Alarm /Settings |
| Inverter — Operating information | PV /Battery /Grid /Load /Inverter; SOC /SOH; energy history and generator yield |
| Inverter — Diagnostics | Current and historical alarms |
| Inverter — Initial settings | Time, CT/meter, grid code, operating mode and battery banks |
| Inverter — Over-discharge SOC | 5–40 %; default 20 % |
| Inverter — Force-charge SOC | From 4% to selected over-discharge SOC |
| Inverter — Discharge recovery | 1–20 percentage points above over-discharge SOC |
| Inverter — Generator — start /stop SOC | 1–95 % /35–100 % |
|---|---|
| Inverter — AC coupling — start /stop SOC | 1–95 % /35–100 % |
| Inverter — Maximum AC apparent output | 125000 VA |
| Inverter — Rated backup output | 125000 W |
| Inverter — Backup peak 10 seconds | 175.0 kVA /10 s |
| Inverter — Backup peak 200 ms | 200.0 kVA /200 ms |
| Inverter — Single-unit transfer | <10 ms |
| Inverter — Parallel transfer up to 6 units | <20 ms |
| Inverter — Maximum power per phase | 41.66 kW |
| Inverter — Phase imbalance | 100 % |
| Inverter — THDv linear load | <3 % |
| Inverter — MPPT count | 10 |
| Inverter — String count | 20 |
| Inverter — Strings per MPPT | 2 |
| Inverter — Input current per MPPT | 42 A |
| Inverter — Current per string | 21 A |
| Inverter — Short-circuit current per MPPT | 60 A |
| Inverter — Recommended PV array rating | 250 kWp |
| Inverter — Maximum usable PV power | 250 kW |
| Inverter — Maximum DC voltage | 1000 V |
| Inverter — Rated DC voltage | 600 V |
| Inverter — Start-up voltage | 180 V |
| Inverter — MPPT range | 150–950 V |
| Inverter — DC switches | 2; PV1–PV10 and PV11–PV20 |
| Inverter — Battery type | Compatible HV Li-ion system with BMS |
| Inverter — Battery voltage | 300–950 V |
| Inverter — Battery ports /BMS count | 2 /2 |
| Inverter — Maximum battery current per port | 100 A |
| Inverter — Combined battery current | Up to 200 A according to wiring and BMS |
| Inverter — Battery communication | CAN |
| Inverter — BMS CAN RJ45 | 4 CAN-H /5 CAN-L |
| Inverter — One battery — one port | BAT1 +BMS1 |
| Inverter — One battery — two ports | BAT1 +BAT2, BMS1 according to diagram |
| Inverter — Two independent batteries | Each with its own BAT and BMS port |
| Inverter — Bank settings | Count 1–2, model, connection method, current and SOC |
| Inverter — Battery operating point 300 V | 90 A /27 kW |
| Inverter — Battery operating point 400 V | 100 A /40 kW |
| Inverter — Battery operating point 500 V | 100 A /50 kW |
| Inverter — Battery operating point 600 V | 100 A /60 kW |
| Inverter — Family battery-port limit | 65 kW |
| Inverter — Determining actual battery power | U×I, BMS, port and specific model limits |
| Inverter — Rated AC current at 380/400 V | 189.9 /180.4 A |
| Inverter — Maximum grid input current | 250 A |
| Inverter — Grid voltage range | 304–460 V |
| Inverter — Generator — maximum input power | 125 kW |
| Inverter — Generator — current at 380/400 V | 189.9 /180.4 A |
| Inverter — Maximum efficiency | 97.5 % |
| Inverter — European efficiency | 97.2 % |
| Inverter — PV →battery efficiency | 98.2 % |
| Inverter — AC →battery efficiency | 97.0 % |
| Inverter — Battery →AC efficiency | 97.0 % |
| Inverter — Self-consumption | <45 W |
| Inverter — User interface | 7.0″ LCD /Bluetooth /SolisCloud |
| Inverter — Battery reserve | Batt saving; default SOC 80% |
| Inverter — Demand control | Grid Peak Shaving according to mode, SOC and system capability |
| Inverter — Parallel-system export calibration | 0.5% total capacity according to manual |
| Inverter — Standard meter | Eastron SDM630MCT V2 |
| Inverter — Standard CTs | 3 ×Acrel AKH-0.66-K-80×40-600A; 600 A /5 A |
| Inverter — CT ratio | 120 |
| Inverter — CT cable | 5 m /0.8 mm² |
| Inverter — CT orientation | P1 towards inverter, P2 towards grid |
| Inverter — CT terminals L1 | 1 black (+), 2 purple (−) |
| Inverter — CT terminals L2 | 3 orange (+), 4 blue (−) |
| Inverter — CT terminals L3 | 5 yellow (+), 6 green (−) |
| Inverter — METER terminals | 21 A /22 B |
| Inverter — RS485 for Solis PV inverter | 19 A /20 B |
| Inverter — EMS protocol /RJ45 | Modbus RTU; 5 A /4 B |
| Inverter — ETH interface | TCP/IP; 1 TX+ /2 TX− /3 RX+ /6 RX− |
| Inverter — Communication glands | COM1/COM2: 7 holes, 6 mm |
| Inverter — GEN DO1 | 11/12; generator start at Grid or Smart |
| Inverter — GEN DO2 | 13/14; generator start at Smart |
| Inverter — GEN DI1 | 5/6; ATS voltage-free contact |
| Inverter — GEN DI2 | 7/8; external 5/12 VDC status signal |
| Inverter — RSD /EPO | External shutdown through designated terminals according to diagram |
| Inverter — AC C | External AC-coupled-source relay control |
| Inverter — SG-DO | Heat-pump interface |
| Inverter — AC coupling — three-phase PV at Smart | PV inverter rated output up to hybrid rating |
| Inverter — Dual AC-coupling metering | Meter 001 grid, 002 PV source |
| Inverter — Parallel unit count | Up to 6 basic layout; 7–10 with external STS according to project |
| Inverter — Parallel models | Matching model and current ARM/DSP firmware |
| Inverter — Parallel communication | P-A /P-B; shielded CAT5 |
| Inverter — Total parallel connection length | <60 m |
| Inverter — System addresses | Primary 1; Secondary 2, 3… |
| Inverter — DIP termination | Endpoint units ON, intermediate OFF |
| Inverter — Parallel-system batteries | Assigned to individual inverters with separate battery settings |
| Inverter — AC length difference above 2 units | ≤10 % |
| Inverter — Altitude | 3000 m |
| Inverter — Cooling | Intelligent redundant fan cooling |
| Inverter — Typical noise | <70 dB(A) |
| Inverter — Surge protection | DC Type II /AC Type II |
| Inverter — Battery conductors | Cu 25–35 mm²; max.35 mm² |
| Inverter — Battery terminals | M6; 4.5–5.0 Nm |
| Inverter — Backup conductors /terminals | Cu 70 mm²; max.95 mm²; M8; 10–12 Nm |
| Inverter — Smart conductors /terminals | Cu 70 mm²; max.120 mm²; M12; 20–30 Nm |
| Inverter — Grid conductors /terminals | Cu 95 mm²; max.150 mm²; M12; 20–30 Nm |
| Inverter — PE conductors /terminals | Cu 50–70 mm²; M10; 10–12 Nm |
| Inverter — Battery /AC stripping | OT crimp-area length +2–3 mm |
| Inverter — Reference Grid protection | ≥315 A /≥400 VAC according to design |
| Inverter — Reference Backup /Smart protection | >225 A /≥400 VAC according to design |
| Inverter — Maximum Backup AC passthrough | 189.9 /180.4 A |
| Inverter — 125 kW model combined battery power example | 130 kW; 2 ×65 kW |
| System dimensions W ×H ×D | 1850 ×2230 ×1600 mm |
| Power and energy pairing | 125 kW /261.248 kWh |
Energy for business operations
EverCore 261 offers 261.248 kWh in LFP battery modules for commercial PV, peak-demand management and scheduled use of stored electricity. This system combines the outdoor battery cabinet with the Solis S6-EH3P125K10-NV-YD-H hybrid inverter rated at 125 kW.
What the offer includes
The 261 kWh variant contains 13 battery packs with 261.248 kWh total nominal energy, battery management, EMU, PDU and an air-conditioning system. This offer also includes the specific S6-EH3P125K10-NV-YD-H inverter. Cabinet and inverter form a system for professional interconnection at the prepared site.
Capacity and power serve different purposes
The 261.248 kWh capacity describes stored energy. Power determines which appliances and processes can operate simultaneously. The manual specifies up to 125 kW charging and discharging for the battery section; actual AC delivery also depends on the connected inverter, current voltage, BMS limits, SOC and temperature. An initial runtime estimate uses average demand in kW multiplied by operating hours, with allowance for losses and the desired backup reserve.
Modular LFP architecture
EVE MB31 cells combine 314 Ah capacity with LiFePO4 chemistry. The 13-pack assembly has 832 V nominal voltage and a 754–936 V operating range. Each pack monitors its cells and communicates with higher-level management. The 8000-cycle figure refers to cell testing at 25±2°C, 0.5 P and an end SOH of 70%, providing a technology comparison under the same test conditions.
Climate control for the battery
Industrial air conditioning provides cooling, heating, dehumidification and air circulation. The exact air-conditioner table specifies 5 kW cooling and 3 kW heating. The manual distinguishes charging ambient temperature of 0 to +55°C and discharging ambient temperature of −25 to +55°C. Thermal management and BMS coordinate conditions inside the system. The auxiliary supply rating is a connection-design figure; actual air-conditioner consumption varies with thermal load and operating mode.
PV, grid and backup
Paired with the matching S6-EH3P125K10-NV-YD-H hybrid inverter, the cabinet supports direct PV charging through MPPTs, configured grid charging and supply to designated backup circuits. Self-use, selling-first and off-grid modes are selected according to site design. PV serves loads first; scheduling, SOC reserve and peak management align storage with business operation. Each proposed system is assessed for simultaneous demand, starting loads, phase distribution and required backup duration.
Protection layers and PRO configuration
Equipment combines battery supervision, temperature and smoke sensors, aerosol protection, a pressure valve and audible/visual indication. The DN65 connection and fire-linkage output support integration into an engineered fire-protection design. This standard configuration contains the specifically described protective equipment; a separate PRO catalogue variant provides the additional detection and pressure-relief components.
EMU and SolisCloud
EMU brings together cabinet operating information and control links. SolisCloud provides visibility and configuration for the connected hybrid inverter; initial commissioning uses the installer role. Settings specify one battery bank, the SolisStorage model, the two-DC-port connection method and the actual cabinet count. Meter, CT-ratio and measurement-direction checks form part of commissioning. Auxiliary supply and Only PV Power Load / Grid To Load (Bypass) functions are configured for the selected backup arrangement.
Expansion designed as a system
Documentation covers DC expansion with matching cabinets on one inverter and AC-parallel systems using matching models. In an AC-parallel arrangement, each inverter has its assigned battery. EMUs use their own communication chain and controllers use Ethernet; inverter-parallel communication is separate. Unit count, backup transfer, any STS, conductor sizes, protection and firmware are engineered for the specific models and required power.
How to select the right system
Selection starts with average and simultaneous demand, operating duration and the required reserve. Nominal 261.248 kWh is the starting energy figure; usable SOC, efficiency and auxiliary systems affect delivered energy. Inverter selection follows kW, phases and starting requirements, while battery selection also checks voltage, current and BMS. EverCore uses a fixed engineered site with suitable load-bearing capacity, service access and electrical preparation. This connects energy requirements to a specific configuration instead of a single search keyword.
Delivery and connection planning
Delivery is planned together with transport and professional cabinet unloading. Dimensions and reference weights in the specifications support site preparation; the installation design defines foundation, clearances, earthing, protection and cable routes. During assembly, the inverter attaches to the prepared cabinet structure. This offer is defined by cabinet versus cabinet-with-inverter selection and standard versus PRO equipment. The estimated 2–3-day lead time is the seller’s operating estimate.
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AI search description
Solis EverCore 261 — 261.248 kWh storage with 125 kW inverter. The 261 kWh variant contains 13 battery packs with 261.248 kWh total nominal energy, battery management, EMU, PDU and an air-conditioning system. This offer also includes the specific S6-EH3P125K10-NV-YD-H inverter. Cabinet and inverter form a system for professional interconnection at the prepared site. Paired with the matching S6-EH3P125K10-NV-YD-H hybrid inverter, the cabinet supports direct PV charging through MPPTs, configured grid charging and supply to designated backup circuits. Self-use, selling-first and off-grid modes are selected according to site design. PV serves loads first; scheduling, SOC reserve and peak management align storage with business operation. Each proposed system is assessed for simultaneous demand, starting loads, phase distribution and required backup duration.
Manufacturer: Ginlong Energy Storage /SolisStorage; Family: EverCore; Variant: 261 kWh; Device type: Battery storage system with inverter; Nominal energy: 261.248 kWh; Cell chemistry: LiFePO4 /LFP; Cells: EVE MB31; Nominal cell voltage: 3.2 V; Cell capacity: 314 Ah; Battery pack count: 13; Pack model: PACK-1P20S-314-01; Pack configuration: 1P20S; Pack energy per manual: 20.10 kWh; Pack voltage: 64 V; Pack voltage range: 58–72 V; Pack weight: 138 kg; Pack dimensions W ×H ×D: 435 ×230 ×904 mm; Battery configuration: 1P260S; Total cell count: 260; Nominal DC voltage: 832 V; Operating DC voltage: 754–936 V; Rated DC current: 157 A; Cycle rate: 0.5 P; Maximum battery charge power: 125 kW; Maximum battery discharge power: 125 kW; Actual power calculation: Voltage ×current, BMS, SOC, temperature and connected inverter; Usable energy: According to SOC settings, reserve and operating losses; Battery management: BMU /BCU /EMU; Cell balancing: Passive; Communication protocols: CAN /RS485 /TCP/IP; Battery-inverter communication: CAN /BMS1; Cabinet controller: EMU; Power distribution: PDU; Cabinet cooling: Industrial air conditioning; Thermal modes: Cooling, heating, dehumidification and air circulation; Air-conditioner cooling capacity: 5 kW; Air-conditioner heating capacity: 3 kW; Refrigerant: R134a; Pack cooling: Air cooling; Auxiliary AC supply: 220 V AC; Auxiliary supply rating: ~4 kW; Charging ambient temperature: 0…+55 °C; Discharging ambient temperature: −25…+55 °C; Cabinet storage temperature per manual: −20…+45 °C; Operating humidity: ≤95 % non-condensing; Cabinet ingress protection: IP55; Quoted anti-corrosion configuration: C4H+C5 /C5; Family noise at rated operation: 75 dB(A) @1 m; Cabinet dimensions W ×H ×D: 1400 ×2230 ×1600 mm; Reference battery-cabinet weight: 2900 kg; Siting: Fixed outdoor location according to site design; Foundation: Level non-combustible foundation sized for the actual system; Handling: Professional lifting or forklift equipment; Protection sensing: Temperature and smoke; Pack protection: Aerosol system; Pressure relief: Pressure-relief valve; Indication: Audible and visual; Fire-water connection: DN65; Fire-linkage output: XT3:1 /XT3:2; Safety equipment configuration: Aerosol, temperature and smoke detection, pressure valve, visual and audible indication; Cell cycle test: 8000; 25±2 °C; 0.5 P; SOH70 %; Cycle-value applicability: Cell-manufacturer data under test conditions; Estimated delivery: 2–3 days, seller operating estimate; Installation arrangement: Engineered connection by qualified personnel; Inverter pairing: S6-EH3P125K10-NV-YD-H included in system.
Grid charging: Through the supplied hybrid inverter according to settings and design; PV connection: To MPPTs of the matching hybrid inverter; Battery-bank setting: 1; DC port connection: Two inverter ports to one bank according to EverCore diagram; Battery model in app: SolisStorage; DC expansion: Additional matching cabinets through busbars according to design; Linked-cabinet control: EMU CAN /Cat6a STP /T568B; Controller network: WAN1 /Ethernet /TCP/IP; Cabinet-count configuration: According to actually connected cabinets; Monitoring: SolisCloud and local EMU; Commissioning: Installer role, verification of wiring, grid, BMS and SOC; Inverter — Rated AC output: 125000 W; Inverter — Grid connection: 3/N/PE; 220/380 V; 230/400 V; Inverter — Grid frequency: 50 /60 Hz; Inverter — Power factor: >0.99; 0.8 leading /lagging; Inverter — THDi: <3 %; Inverter — Keys: ESC /UP /DOWN /ENTER; Inverter — Status LEDs: POWER /OPERATION /ALARM; Inverter — App roles: Installer /Owner; Inverter — Operating modes: Self Use /Selling First /Off Grid /Peak Shaving; Inverter — Grid charging: Allow Grid Charging; Inverter — Time scheduling: 6 charging and 6 discharging windows; Inverter — Default maximum charge: 100 % SOC; Inverter — SOC setting order: Force Charge <Over-discharge <Recovery; Inverter — Smart port — function selection: Genset input /AC coupled /Smart load output; Inverter — PV conductors: 4–6 mm²; recommended 4 mm²; Inverter — PV stripping: 7 ±0.5 mm; Inverter — Ingress protection: IP66; Inverter — Operating temperature: −25…+60 °C; Inverter — Operating humidity: 0–100 % RH; Inverter — Bluetooth: BDR /EDR /BLE; 2.402–2.480 GHz; 8 dBm; Inverter — App sections: Home /Info /Alarm /Settings; Inverter — Operating information: PV /Battery /Grid /Load /Inverter; SOC /SOH; energy history and generator yield; Inverter — Diagnostics: Current and historical alarms; Inverter — Initial settings: Time, CT/meter, grid code, operating mode and battery banks; Inverter — Over-discharge SOC: 5–40 %; default 20 %; Inverter — Force-charge SOC: From 4% to selected over-discharge SOC; Inverter — Discharge recovery: 1–20 percentage points above over-discharge SOC; Inverter — Generator — start /stop SOC: 1–95 % /35–100 %; Inverter — AC coupling — start /stop SOC: 1–95 % /35–100 %; Inverter — Maximum AC apparent output: 125000 VA; Inverter — Rated backup output: 125000 W; Inverter — Backup peak 10 seconds: 175.0 kVA /10 s; Inverter — Backup peak 200 ms: 200.0 kVA /200 ms; Inverter — Single-unit transfer: <10 ms; Inverter — Parallel transfer up to 6 units: <20 ms; Inverter — Maximum power per phase: 41.66 kW; Inverter — Phase imbalance: 100 %; Inverter — THDv linear load: <3 %; Inverter — MPPT count: 10; Inverter — String count: 20; Inverter — Strings per MPPT: 2; Inverter — Input current per MPPT: 42 A; Inverter — Current per string: 21 A; Inverter — Short-circuit current per MPPT: 60 A; Inverter — Recommended PV array rating: 250 kWp; Inverter — Maximum usable PV power: 250 kW; Inverter — Maximum DC voltage: 1000 V; Inverter — Rated DC voltage: 600 V; Inverter — Start-up voltage: 180 V; Inverter — MPPT range: 150–950 V; Inverter — DC switches: 2; PV1–PV10 and PV11–PV20; Inverter — Battery type: Compatible HV Li-ion system with BMS; Inverter — Battery voltage: 300–950 V; Inverter — Battery ports /BMS count: 2 /2; Inverter — Maximum battery current per port: 100 A; Inverter — Combined battery current: Up to 200 A according to wiring and BMS; Inverter — Battery communication: CAN; Inverter — BMS CAN RJ45: 4 CAN-H /5 CAN-L; Inverter — One battery — one port: BAT1 +BMS1; Inverter — One battery — two ports: BAT1 +BAT2, BMS1 according to diagram; Inverter — Two independent batteries: Each with its own BAT and BMS port; Inverter — Bank settings: Count 1–2, model, connection method, current and SOC; Inverter — Battery operating point 300 V: 90 A /27 kW; Inverter — Battery operating point 400 V: 100 A /40 kW; Inverter — Battery operating point 500 V: 100 A /50 kW; Inverter — Battery operating point 600 V: 100 A /60 kW; Inverter — Family battery-port limit: 65 kW; Inverter — Determining actual battery power: U×I, BMS, port and specific model limits; Inverter — Rated AC current at 380/400 V: 189.9 /180.4 A; Inverter — Maximum grid input current: 250 A; Inverter — Grid voltage range: 304–460 V; Inverter — Generator — maximum input power: 125 kW; Inverter — Generator — current at 380/400 V: 189.9 /180.4 A; Inverter — Maximum efficiency: 97.5 %; Inverter — European efficiency: 97.2 %; Inverter — PV →battery efficiency: 98.2 %; Inverter — AC →battery efficiency: 97.0 %; Inverter — Battery →AC efficiency: 97.0 %; Inverter — Self-consumption: <45 W; Inverter — User interface: 7.0″ LCD /Bluetooth /SolisCloud; Inverter — Battery reserve: Batt saving; default SOC 80%; Inverter — Demand control: Grid Peak Shaving according to mode, SOC and system capability; Inverter — Parallel-system export calibration: 0.5% total capacity according to manual; Inverter — Standard meter: Eastron SDM630MCT V2; Inverter — Standard CTs: 3 ×Acrel AKH-0.66-K-80×40-600A; 600 A /5 A; Inverter — CT ratio: 120; Inverter — CT cable: 5 m /0.8 mm²; Inverter — CT orientation: P1 towards inverter, P2 towards grid; Inverter — CT terminals L1: 1 black (+), 2 purple (−); Inverter — CT terminals L2: 3 orange (+), 4 blue (−); Inverter — CT terminals L3: 5 yellow (+), 6 green (−); Inverter — METER terminals: 21 A /22 B; Inverter — RS485 for Solis PV inverter: 19 A /20 B; Inverter — EMS protocol /RJ45: Modbus RTU; 5 A /4 B; Inverter — ETH interface: TCP/IP; 1 TX+ /2 TX− /3 RX+ /6 RX−; Inverter — Communication glands: COM1/COM2: 7 holes, 6 mm; Inverter — GEN DO1: 11/12; generator start at Grid or Smart; Inverter — GEN DO2: 13/14; generator start at Smart; Inverter — GEN DI1: 5/6; ATS voltage-free contact; Inverter — GEN DI2: 7/8; external 5/12 VDC status signal; Inverter — RSD /EPO: External shutdown through designated terminals according to diagram; Inverter — AC C: External AC-coupled-source relay control; Inverter — SG-DO: Heat-pump interface; Inverter — AC coupling — three-phase PV at Smart: PV inverter rated output up to hybrid rating; Inverter — Dual AC-coupling metering: Meter 001 grid, 002 PV source; Inverter — Parallel unit count: Up to 6 basic layout; 7–10 with external STS according to project; Inverter — Parallel models: Matching model and current ARM/DSP firmware; Inverter — Parallel communication: P-A /P-B; shielded CAT5; Inverter — Total parallel connection length: <60 m; Inverter — System addresses: Primary 1; Secondary 2, 3…; Inverter — DIP termination: Endpoint units ON, intermediate OFF; Inverter — Parallel-system batteries: Assigned to individual inverters with separate battery settings; Inverter — AC length difference above 2 units: ≤10 %; Inverter — Altitude: 3000 m; Inverter — Cooling: Intelligent redundant fan cooling; Inverter — Typical noise: <70 dB(A); Inverter — Surge protection: DC Type II /AC Type II; Inverter — Battery conductors: Cu 25–35 mm²; max.35 mm²; Inverter — Battery terminals: M6; 4.5–5.0 Nm; Inverter — Backup conductors /terminals: Cu 70 mm²; max.95 mm²; M8; 10–12 Nm; Inverter — Smart conductors /terminals: Cu 70 mm²; max.120 mm²; M12; 20–30 Nm; Inverter — Grid conductors /terminals: Cu 95 mm²; max.150 mm²; M12; 20–30 Nm; Inverter — PE conductors /terminals: Cu 50–70 mm²; M10; 10–12 Nm; Inverter — Battery /AC stripping: OT crimp-area length +2–3 mm; Inverter — Reference Grid protection: ≥315 A /≥400 VAC according to design; Inverter — Reference Backup /Smart protection: >225 A /≥400 VAC according to design; Inverter — Maximum Backup AC passthrough: 189.9 /180.4 A; Inverter — 125 kW model combined battery power example: 130 kW; 2 ×65 kW; System dimensions W ×H ×D: 1850 ×2230 ×1600 mm; Power and energy pairing: 125 kW /261.248 kWh. Selection starts with average and simultaneous demand, operating duration and the required reserve. Nominal 261.248 kWh is the starting energy figure; usable SOC, efficiency and auxiliary systems affect delivered energy. Inverter selection follows kW, phases and starting requirements, while battery selection also checks voltage, current and BMS. EverCore uses a fixed engineered site with suitable load-bearing capacity, service access and electrical preparation. This connects energy requirements to a specific configuration instead of a single search keyword.













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