RV · Marine · Energy Storage · Industrial Applications

Agricultural Equipment LiFePO4 Battery Project

This agricultural battery project presents a reference 12.8V 100Ah LiFePO4 configuration for poultry-farm automation, control equipment and backup-power applications.

The final battery voltage, capacity, BMS current, enclosure and charging parameters are confirmed against the equipment load, installation space and operating environment before sample production.

12V 100Ah LiFePO4 battery system for automated poultry farm equipment
LiFePO4 battery system for automated poultry-farm feeding and control equipment.

Agricultural Battery Project Requirements

Agricultural equipment may operate for long periods in dusty, humid or temperature-changing environments. The battery, enclosure, charger and connections must be selected for the actual equipment and installation conditions.

The project review covers:

  • Equipment system voltage and required capacity
  • Average operating current and motor startup current
  • Required operating time between charging cycles
  • Battery compartment and mounting dimensions
  • Charger and controller compatibility
  • Power connectors and wiring harness
  • Operating temperature and installation environment
  • Smart BMS protection requirements

Reference 12V 100Ah Battery Specification

The following configuration provides an initial reference for agricultural control equipment, automated feeding systems and backup-power applications. Final values are subject to equipment review, sample approval and testing.

Battery chemistry LiFePO4
Nominal voltage 12.8V
Rated capacity 100Ah
Nominal energy 1280Wh
Reference BMS rating 100A continuous discharge
Reference continuous output Up to 1280W at nominal voltage
Recommended charge current 20A
Recommended charging voltage 14.2V–14.6V
Charge method CC/CV
Terminal options M8 or project-specific terminals
Communication options Bluetooth, CAN or RS485 where required
Enclosure and dimensions Configured to the equipment compartment and environmental requirements

Peak current, enclosure dimensions, protection rating, terminal layout and communication functions must be confirmed before the battery is approved for production.

Estimated Battery Runtime

A 12.8V 100Ah battery stores approximately 1280Wh of nominal energy. The estimates below use 80% of nominal energy to retain a practical reserve.

Average Equipment Load Estimated Runtime Example Application
100W Approximately 10.2 hours Monitoring and control equipment
200W Approximately 5.1 hours Control systems and auxiliary loads
400W Approximately 2.6 hours Intermittent motors and feeding equipment
800W Approximately 1.3 hours Higher-power equipment within the approved BMS limit

Estimated Runtime = Usable Battery Energy ÷ Average Equipment Load

These figures are engineering estimates rather than measured project results. Actual runtime depends on motor duty cycle, startup current, wiring losses, inverter efficiency, temperature, battery condition and the required reserve.

Custom Agricultural Battery Configuration

The final voltage, capacity, discharge current and mechanical layout are configured around the agricultural equipment. Enclosure dimensions, terminal positions, cable outlets and mounting points are confirmed before sample production.

Available project options include:

  • Custom voltage and battery capacity
  • Continuous and peak current configuration
  • Smart BMS protection
  • Custom battery dimensions and enclosure
  • Custom terminals, connectors and wiring harnesses
  • Temperature monitoring and low-temperature protection
  • Bluetooth, CAN or RS485 options where required
  • Custom labels and packaging

Enclosure protection and communication functions depend on the approved battery model and project specification.

Agricultural Equipment Applications

Custom LiFePO4 batteries can be developed for agricultural and automated farming equipment, including:

  • Automated poultry feeding systems
  • Egg-collection and conveyor equipment
  • Farm monitoring and control systems
  • Agricultural utility vehicles
  • Electric sprayers and field equipment
  • Remote farm equipment and backup power
  • Solar-powered agricultural control systems

Battery selection depends on the equipment voltage, motor or controller load, startup current, daily operating time and available charging energy.

Lead-Acid to LiFePO4 Battery Replacement

Lead-acid and LiFePO4 batteries reviewed for agricultural equipment replacement
Battery fitment and electrical compatibility review for lead-acid replacement.

LiFePO4 batteries can replace lead-acid batteries in many agricultural applications, but a successful conversion requires more than matching the system voltage.

The replacement review should include:

  • Original lead-acid battery voltage and capacity
  • Battery dimensions and terminal positions
  • Equipment continuous and startup current
  • Existing charger voltage and charging profile
  • Controller and motor compatibility
  • Cable size, connector type and fuse rating
  • Mounting structure and available space
  • Low-temperature charging conditions

The existing charger can only be retained when its output voltage, current limit and charging profile are suitable for the approved LiFePO4 battery configuration.

Smart BMS and Battery Protection

The Smart BMS is configured according to the battery cells, charging limits, equipment current and operating environment.

Available protection and monitoring functions can include:

  • Overcharge and over-discharge protection
  • Overcurrent and short-circuit protection
  • Battery temperature monitoring
  • Low-temperature charging protection
  • State-of-charge monitoring
  • Bluetooth battery monitoring
  • CAN or RS485 communication

Bluetooth, CAN and RS485 are available options rather than standard features on every battery model. The required protocol and connected equipment must be confirmed before production.

Sample Testing and Quality Control

The sample battery is checked against the approved electrical and mechanical specification before production approval.

Testing can include:

  • Battery capacity testing
  • Charge and discharge performance
  • Smart BMS protection verification
  • Continuous and peak current testing where required
  • Temperature-monitoring checks
  • CAN or RS485 communication testing where required
  • Connector and wiring inspection
  • Enclosure and mounting-point inspection
  • Aging and final quality inspection
Agricultural LiFePO4 battery Smart BMS charge discharge and aging testing
Smart BMS, charge-discharge and aging tests before battery shipment.

OEM Agricultural Battery Manufacturing

With more than 20 years of battery manufacturing experience, we support agricultural equipment manufacturers, automation integrators, battery brands and distributors from specification review and sample development through testing and volume production.

OEM and private-label support includes:

  • Battery specification and configuration review
  • Custom voltage, capacity and discharge current
  • Custom enclosure and mounting design
  • Smart BMS configuration
  • Custom terminals, cables and connectors
  • Communication protocol options
  • Prototype development and sample testing
  • Private labels and packaging
  • Volume production and quality inspection

View OEM & ODM Battery Services →

Agricultural Equipment Battery FAQ

How is an agricultural equipment battery sized?

Battery capacity is based on the system voltage, average and peak current, required operating time, charging availability and installation space.

Can an agricultural lead-acid battery be replaced with LiFePO4?

Yes, in many applications. The charger, controller, current requirements, battery dimensions, terminals, cables and operating temperature must be checked before replacement.

Can the battery enclosure be customized?

Yes. Enclosure dimensions, mounting points, terminal positions, cable outlets and connector layout can be reviewed for qualified OEM projects.

Are CAN and RS485 communication available?

Selected battery systems can support CAN or RS485 communication. The controller model, communication protocol and message requirements must be confirmed before production.

Can the battery be used outdoors?

The enclosure and installation must be selected for the actual environment. Required protection against dust, moisture, temperature and mechanical exposure should be confirmed during project review.

Discuss Your Agricultural Battery Project

Send us the equipment type, required voltage and capacity, continuous and peak current, installation dimensions, charging method, operating environment and estimated order quantity.

Our engineering team will review the requirements and recommend a suitable agricultural LiFePO4 battery configuration.

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