Energy and reserve
Calculate usable energy from the route, payload, auxiliary loads, shift target and required operating reserve.
AMR BATTERY SYSTEMS
Stellova develops autonomous mobile robot battery systems and each custom AMR battery pack around route duty cycle, payload, peak traction demand, fleet availability and charging windows. An opportunity charging battery strategy is coordinated with the robot, charger and operating schedule.
AMR APPLICATION CHALLENGES
An AMR battery must support the full operating pattern: travel distance, payload, acceleration, turning, lifting or conveyor loads, idle consumption, shift length and charging opportunities. Average power alone can understate motor and actuator peaks, while an oversized pack can create unnecessary weight and integration constraints.
RECOMMENDED BATTERY DEFINITION
The recommended architecture is established from measured or documented equipment inputs. The items below are design decisions, not a universal AMR specification.
Calculate usable energy from the route, payload, auxiliary loads, shift target and required operating reserve.
Capture acceleration, grade, lifting and other transient loads, including pulse duration and repetition.
Match plug-in, docking or opportunity charging to fleet availability, charger limits and acceptable downtime.
Define protection, SOC/SOH reporting and RS485, RS232 or CAN integration where required by the AMR controller.
AMR-SPECIFIC ENGINEERING
AMR battery design is an equipment-integration task. Route variability, payload changes, repeated motor peaks, docking frequency and installation constraints must be reviewed together.
Use representative routes and payloads rather than a single best-case runtime estimate.
Verify peak current, duration and recovery for acceleration, turning, lifting and attached automation.
Coordinate charge contacts, alignment tolerance, wake-up logic and communication with the docking system.
Specify the required temperature range, sealing target and service conditions; IP65/IP67 and -20°C to 60°C can be evaluated when the project requires them.
ACTUAL BATTERY CASE
This is an actual AMR battery configuration previously supplied for a specific project. It is shown as engineering evidence, not as a universal stock product. Only existing, confirmed parameters are displayed.
AMR BATTERY FAQ
The final answer depends on the actual AMR load profile and integration requirements; these points define what must be verified.
Use route data, payload, auxiliary loads, idle demand, shift target and reserve—not runtime alone.
RS485, RS232 or CAN can be evaluated; message definitions, update rate and fault behavior must be agreed with the host controller.
Yes, when charger voltage, current, contacts, alignment, wake-up logic and thermal limits are defined together.
No. It is a project reference configuration; the production specification is customized and approved for the target AMR.
CUSTOMIZATION & RFQ
Share the nominal voltage, representative route and payload, shift target, continuous and peak loads with duration, charging method, controller interface, installation space, environment, compliance needs and forecast volume. Stellova will convert these inputs into a reviewable battery definition and prototype scope.
Review the Engineering Process ↗DISCUSS YOUR AMR PROJECT
Send the equipment data available today—even if some values are preliminary. We will identify the missing inputs that materially affect battery sizing, BMS integration and prototype risk.
Discuss Your AMR Battery Project ↗