12V 100Ah Group 31 LiFePO4 Battery for Trolling Motors
$169.00
Integrated high-voltage LiFePO4 battery energy storage system designed for commercial and industrial applications. Available energy capacities from 128kWh to 209kWh provide flexible solutions for peak shaving, solar self-consumption, backup power, load shifting and microgrid applications.
| 80kVA Rated Output | 128–209kWh Battery Energy | 128kW Max. PV Input | IP55 Outdoor Protection |
The 80kVA high-voltage commercial and industrial battery energy storage system combines LiFePO4 battery storage, power conversion, battery management, thermal management, protection and energy control within an integrated C&I energy storage platform.
Six battery configurations from 128kWh to 209kWh allow EPC contractors, system integrators and commercial energy users to select the appropriate energy capacity according to site load, PV generation, backup duration, electricity tariff and operating strategy.
| ✓ 80kVA C&I Platform Three-phase energy storage architecture designed for commercial and industrial power applications. | ✓ 128–209kWh Capacity Six battery capacity configurations for different project load and backup requirements. | ✓ High-Voltage LiFePO4 Lithium iron phosphate battery architecture with integrated battery management and system protection. |
| ✓ 128kW PV Input Supports high-capacity solar integration for commercial solar-plus-storage applications. | ✓ 6 MPPT Channels Flexible PV design with a reference MPPT voltage range of 150–850Vdc. | ✓ IP55 Outdoor Cabinet Floor-mounted enclosure for commercial and industrial outdoor energy storage projects. |
| Configuration | 128kWh | 144kWh | 160kWh | 176kWh | 192kWh | 209kWh |
|---|---|---|---|---|---|---|
| Rated Output | 80kVA | 80kVA | 80kVA | 80kVA | 80kVA | 80kVA |
| Battery Chemistry | LiFePO4 | |||||
| Rated Output Power | 80kVA |
| Available Battery Energy | 128 / 144 / 160 / 176 / 192 / 209kWh |
| Battery Chemistry | LiFePO4 |
| Maximum PV Input Power | 128kW |
| Number of MPPT | 6 |
| MPPT Voltage Range | 150–850Vdc |
| Maximum Efficiency | 98.7% |
| Euro Efficiency | 98.1% |
| Off-Grid Peak Power | 1.5 × Rated Power for 10 Seconds |
| Protection Rating | IP55 |
| Installation | Floor Mounted |
| Cabinet Dimensions | 1400 × 1100 × 2150mm |
| Parallel Expansion | Up to 10 Inverter Sets |
| Reference Cycle Life | ≥10,000 Cycles at 25±2°C, 0.5C Charge / 0.5C Discharge, 70% EOL |
* Technical parameters are based on the reference configuration. Final specifications depend on the selected system configuration and project requirements.
The integrated system architecture combines the main battery energy storage and power-control components required for commercial and industrial applications.
| Hybrid Inverter | LiFePO4 Battery Modules | Multi-Level BMS | Microgrid Controller |
| HVAC System | Fire Suppression | Islanding Protection | Outdoor Enclosure |
The system supports commercial solar-plus-storage applications with up to 128kW maximum PV input, six MPPT channels and a reference MPPT operating range of 150–850Vdc.
Excess photovoltaic energy can be stored in the battery system and used later when solar generation decreases, electricity prices increase or backup power is required.
The 80kVA high-voltage C&I BESS can support peak shaving, load shifting, solar self-consumption, backup power, microgrid operation and time-of-use optimization according to the site energy strategy.
| Peak Shaving Discharge stored energy during high-demand periods to reduce facility peak demand. | Load Shifting Move electricity consumption between different tariff periods according to energy cost and operational requirements. | Solar Self-Consumption Store surplus PV generation and use the energy when solar production is insufficient. |
| Backup Power Provide stored energy for selected commercial or industrial loads during grid interruptions. | Microgrid Coordinate PV generation, battery storage, utility supply and facility loads within a microgrid system. | Time-of-Use Optimization Charge during lower-cost periods and discharge when electricity tariffs are higher. |
| Factories | Commercial Buildings | Warehouses | Industrial Facilities |
| Farms | Solar Projects | Microgrids | Backup Power |
The 80kVA platform offers multiple battery capacity configurations from 128kWh to 209kWh for different energy requirements.
For larger projects, the reference inverter architecture supports parallel expansion of up to 10 inverter sets, subject to system design, EMS coordination, grid requirements and protection engineering.
| 98.7% Maximum Efficiency | 98.1% Euro Efficiency | 1.5× Peak Power for 10 Seconds |
The high-voltage battery platform uses LiFePO4 chemistry with integrated battery management for cell monitoring, balancing, protection and system-level control.
Commercial and industrial energy storage projects should be configured according to actual site requirements rather than battery capacity alone.
System configuration can be evaluated according to required output power, battery energy, grid voltage, PV capacity, load profile, backup duration, communication requirements, operating strategy and installation environment.
Project support can include battery sizing, inverter matching, BMS communication, EMS integration, PV configuration and overall system architecture evaluation.
Key questions about system sizing, backup time, peak shaving, solar integration, operating modes and project configuration.
Battery capacity should be selected according to the facility load profile, required backup duration, peak-demand reduction target, solar PV generation and daily energy consumption.
This 80kVA platform is available in 128kWh, 144kWh, 160kWh, 176kWh, 192kWh and 209kWh configurations, allowing the battery energy capacity to be matched to different commercial and industrial applications.
Backup time depends on the actual load, usable battery capacity, depth of discharge, inverter efficiency and reserve capacity.
As a basic reference, backup duration can be estimated by dividing usable battery energy by average load power. Final runtime should be calculated using the site's real load profile and operating conditions.
Yes. The battery system can charge during lower-demand or lower-tariff periods and discharge when facility demand increases.
This allows commercial and industrial facilities to use battery storage for peak shaving, load shifting and time-of-use optimization, depending on local electricity tariffs and the site's energy strategy.
Yes. The reference configuration supports up to 128kW maximum PV input, with 6 MPPT channels and a reference MPPT operating range of 150–850Vdc.
The system can store surplus solar generation for later use, improve PV self-consumption and support commercial solar-plus-storage applications.
The system architecture can support grid-connected, backup and microgrid-oriented applications depending on inverter configuration, protection design and control strategy.
For larger commercial and industrial projects, the reference inverter architecture supports parallel expansion of up to 10 inverter sets. Final parallel configuration should be confirmed according to project power, EMS coordination and grid requirements.
For accurate system selection, provide the required system power, battery capacity, grid voltage, PV capacity, peak load, average load, backup duration, installation environment and intended operating mode.
If available, provide the site's electricity bill or interval load data. This helps evaluate a more suitable battery capacity, peak-shaving strategy, inverter configuration and overall C&I energy storage system design.
Send your system power, battery capacity, grid voltage, PV capacity, load profile, backup duration and installation environment to receive a suitable commercial and industrial energy storage configuration.
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Many LiFePO4 batteries can replace compatible lead-acid deep-cycle batteries in RVs, boats, golf carts and industrial equipment. Before installation, confirm the system voltage, battery dimensions, terminal layout, charger profile, maximum load, cable size, fuse rating and operating temperature.
Most LiFePO4 batteries are compatible with standard 12V, 24V, 36V or 48V inverters when the system voltage and power requirements match. Many modern chargers also include a LiFePO4 charging profile. For lead-acid replacement projects, confirm the charger voltage, inverter rating and maximum load before installation. A compatible charger or DC-to-DC charger may be required if the existing charging equipment does not support LiFePO4 batteries.
Yes. OEM and custom battery support can include voltage, capacity, BMS settings, enclosures, terminals, connectors, communication protocols, labels and packaging. Send us the application, electrical requirements, installation dimensions and expected order quantity for review.
MOQ depends on the battery model, specification and customization requirements. Standard models may be available for sample testing, while custom enclosures, private labels and OEM production normally require a confirmed order quantity. Contact us with the model and required quantity for details.
Available certifications and documents depend on the battery model and destination market. Supporting documents may include UN38.3, MSDS, CE, RoHS and product test reports. Confirm the required documents and target market before placing an order.
Lead time depends on the battery model, order quantity, customization and testing requirements. Export shipping options are arranged according to the battery specification, destination and order volume. Send us the required quantity, delivery location and target schedule for a project-specific quotation.
