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73.6V 40Ah LFP battery for logistics robot

73.6V 40Ah LFP Battery for Logistics Robot delivers 2.94kWh energy, 240A peak discharge, ≥2500 system cycles, IP54 protection, and CAN/UART/485 communication. Ideal for AGV material handling, warehouse sorting robots, and indoor logistics transport robots.

  • Cell Certification: UN38.3
  • Nominal Capacity: 40Ah
  • Nominal Voltage: 73.6V
  • Total Energy: 2.94kWh
  • Weight: ≈29.5kg
  • Normal Charging Current: ≤120A
  • Peak Charging Current: ≤150A
  • Continuous Discharge Current: ≤180A
  • Peak Discharge Current: ≤240A
  • Communication: CAN/UART/485
  • Protection Grade: IP54
  • Dimensions L×W×H: 520mm×340mm×168mm

73.6V 40Ah LFP battery for logistics robot

 

Product Introduction

Engineered exclusively as a 73.6V 40Ah LFP Battery for Logistics Robot, this lithium iron phosphate (LFP) power pack is optimized for the dynamic demands of automated logistics robots—from AGV material transporters to high-speed sorting robots. With a 73.6V nominal voltage, 40Ah high-density capacity, and a rugged SPCC enclosure, this 73.6V 40Ah LFP Battery for Logistics Robot stands out with 2.94kWh total energy and 240A peak discharge: it enables logistics robots to handle 500+ kg payloads and operate continuously for 12+ hours per charge. Unlike generic robot batteries, its 23S cell configuration and IP54 protection are tailored to indoor warehouse dust, frequent vibration, and occasional liquid splashes—making it the reliable core for high-frequency logistics workflows.

Technical Specifications

Table: 73.6V 40Ah LFP Battery for Logistics Robot Core Parameters
Parameter Details (Tailored for Logistics Robots)
Cell Type LFP 40Ah
Cell Cycle Life ≥3000 cycles (100% DOD) – reduces logistics robot battery replacement frequency
System Cycle Life ≥2500+ cycles (100% DOD)
Cell Certification UN38.3
Nominal Capacity 40AH (1P) – supports 12+ hours of logistics robot continuous operation
Nominal Voltage 73.6V (23S)
Working Voltage Range 57.5V-89.95V
Total Energy 2.94kWh – powers 12+ hours of AGV material handling tasks
Weight ≈29.5kg
Normal Charging Current ≤120A – fast recharge between logistics shifts
Peak Charging Current ≤150A
Continuous Discharge Current ≤180A – sustains stable performance for sorting logistics robots
Peak Discharge Current ≤240A – handles 500+ kg payloads for warehouse logistics robots
Operating Temperature Charge: 0℃-45℃; Discharge: -15℃-60℃ – adapts to temperature-variable logistics warehouses
Communication CAN/UART/485 – integrates with logistics robot fleet management systems
Casing Material SPCC – resists impacts from cargo in logistics transport
Protection Grade IP54 – dust/water-resistant for indoor logistics environments
Plug Type FSP202008CC-M8BY – secure connection for high-power logistics robots
Dimensions (L×W×H) 520mm×340mm×168mm – fits standard AGV logistics robot chassis
Application AGV Material Handling Robots, Warehouse Sorting Logistics Robots, Indoor Logistics Transport Robots

Core Advantages of 73.6V 40Ah LFP Battery for Logistics Robot

1. 12+ Hour Runtime for Uninterrupted Logistics Workflows
The 73.6V 40Ah LFP Battery for Logistics Robot delivers 2.94kWh total energy:It powers warehouse sorting logistics robots through 12+ hours of continuous parcel sorting (4000+ units per shift) without mid-task recharging.For AGV material handling robots, this capacity supports 8+ hours of cross-warehouse cargo transfers (300+ pallet moves).

2. 240A Peak Discharge for Medium-Heavy Logistics Loads
Tailored for logistics robot payload needs:240A peak discharge enables indoor logistics transport robots to lift 500+ kg bulk cargo—critical for manufacturing warehouse material flows.180A continuous discharge sustains stable speed during frequent start/stop cycles (common in sorting logistics yards).

3. IP54 Protection for Indoor Logistics Environments
Built for warehouse logistics scenarios:IP54 dust/water-resistant rating shields the battery from warehouse dust accumulation and occasional liquid spills (e.g., cleaning solutions)—no performance loss in typical indoor logistics workspaces.

4. ≥2500 System Cycles for Cost-Efficient Logistics Fleets
Optimized for high-frequency logistics use:≥2500 system cycles mean this 73.6V 40Ah Logistics Robot Battery lasts 1.5x longer than standard alternatives. For a 15-unit AGV logistics fleet, this cuts 3-year battery replacement costs by 60%.

5. Multi-Protocol Communication for Logistics Fleet Coordination
Syncs with logistics operations:CAN/UART/485 communication transmits real-time battery data (SOC, temperature) to logistics robot management platforms. Managers can schedule charging during off-peak hours, minimizing workflow downtime.

Application Scenarios

1. AGV Material Handling Robots
The 73.6V 40Ah LFP Battery for Logistics Robot powers 500+ kg cargo lifts. 240A peak discharge handles bulk material transfers, and IP54 protection resists warehouse debris.

2. Warehouse Sorting Logistics Robots

It suits 12+ hours of non-stop parcel sorting. 2.94kWh energy covers full-shift tasks, and long cycle life reduces maintenance for high-volume e-commerce logistics.

3. Indoor Logistics Transport Robots

It energizes 8+ hours of cross-warehouse cargo delivery. Wide temperature adaptability works in cooled/heated warehouse zones, and compact dimensions fit standard robot chassis.

73.6V 40Ah LFP battery for logistics robot

 

 

FAQ

Q1: What is the difference between AGV, AMR, and RGV, and can they use the same battery type?

A: AGVs typically follow predefined routes, AMRs use onboard sensors and mapping for more flexible navigation, and RGVs operate along fixed rails or guided tracks. All three can use industrial LiFePO4 battery systems when the voltage, capacity, dimensions, discharge current, charging method, and communication requirements match the robot design.

A:Start with the robot’s nominal voltage, required runtime, continuous and peak current, available battery space, and charging schedule. For AGV, AMR, and RGV fleets, buyers should also confirm connector type, BMS communication such as CAN or RS485, operating temperature, and whether the system uses scheduled or opportunity charging.
A: LiFePO4 batteries are well suited to industrial mobile robots because they offer long cycle life, stable power output, strong thermal stability, and low routine maintenance. They are especially practical for warehouses, factories, and logistics operations that require frequent charge-discharge cycles and reliable multi-shift operation.
A: Battery life varies by model and operating conditions rather than following one fixed number for every pack. Depth of discharge, charge and discharge current, temperature, charging strategy, and daily duty cycle all affect service life. Refer to the specifications of the selected model for its rated cycle life, or provide your operating profile for a more accurate evaluation.
A:  Yes, they can be configured for many existing AGV, AMR, and RGV charging systems, but compatibility should be verified before installation. Charging voltage and current, connector or contact design, charge profile, communication protocol, and docking method must match. FEBATT can support battery and charging-interface configuration for automatic or opportunity-charging applications.
A: LiFePO4 AGV batteries require much less routine maintenance than flooded lead-acid batteries because there is no watering or acid maintenance. Regular checks should focus on connectors, cables, mounting points, charging contacts, temperature conditions, and BMS fault records. Following the recommended charging and storage conditions also helps maintain stable long-term performance.
A:  Yes. FEBATT can customize robot battery packs according to voltage, capacity, physical dimensions, enclosure layout, connector type, discharge current, charging requirements, and communication protocols. This is useful for OEM projects, fleet upgrades, and robots with limited installation space or specific electrical interfaces.
A: The intelligent BMS monitors key battery conditions and provides protections such as overcharge, over-discharge, over-current, short-circuit, and temperature protection. Depending on the battery design, communication interfaces such as CAN or RS485 can transmit battery status and fault information to the robot controller or fleet-management system.
A: Temperature can influence usable capacity, charging efficiency, power output, and long-term battery aging. High temperatures can accelerate degradation, while low temperatures can reduce available power and charging performance. The required operating temperature range should therefore be confirmed during battery selection, especially for cold storage, outdoor logistics, or high-temperature industrial environments.
A: Lead time depends on order quantity, battery specifications, customization level, testing requirements, and production schedule. Standard configurations may require less engineering work, while new OEM battery designs need additional time for design confirmation, prototyping, validation, and mass production. Contact FEBATT with your robot specifications and required quantity for an accurate delivery schedule.

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