Mission profile & energy demand
Define route length, shift duration, payload, idle time, auxiliary loads and the required operating reserve.
CUSTOM BATTERY SYSTEMS FOR ROBOTICS
Robotics & Automation Battery Solutions
Custom battery systems for AMRs, AGVs, inspection, cleaning, service and unmanned equipment—engineered around the real duty cycle, motor loads, charging method, communication interface and operating environment.
APPLICATION-LED ENGINEERING
Start With the Robot Duty Cycle—not a Generic Battery Specification
A useful battery definition starts with how the robot actually works: route and shift length, payload, acceleration and lifting peaks, idle demand, docking frequency, available installation space, temperature, ingress exposure and controller interface. Stellova uses these inputs to define the electrical architecture, BMS functions, charging strategy, mechanical integration and validation scope for the target equipment.
ENGINEERING INPUTS
What Must Be Defined Before a Robot Battery Is Specified
The following inputs materially change battery performance and integration. They should be confirmed before prototype specifications are frozen.
Peak current & transient loads
Capture acceleration, lifting, pumps, actuators and other short-duration loads so the pack and protection limits are not sized from average power alone.
Charging & availability
Match plug-in, docking, opportunity or fast charging to the operating schedule, charger interface and acceptable downtime.
BMS & equipment integration
Define protection thresholds, SOC/SOH reporting, CAN or RS485 communication, connectors, mounting, sealing and thermal requirements with the robot controller and charger.
ROBOTICS APPLICATIONS
Choose the Application Closest to Your Equipment
Battery priorities differ between mobile logistics robots, outdoor inspection platforms, cleaning equipment, service robots and unmanned systems. Use the application pages below to review the relevant operating conditions, engineering priorities and available verified configurations without treating one platform as a universal solution.
24
AMR Battery
Review typical requirements and engineering considerations for this application.
View application ↗25AGV Battery
Review typical requirements and engineering considerations for this application.
View application ↗26Warehouse Robot Battery
Review typical requirements and engineering considerations for this application.
View application ↗27Inspection Robot Battery
Review typical requirements and engineering considerations for this application.
View application ↗28Cleaning Robot Battery
Review typical requirements and engineering considerations for this application.
View application ↗29Service Robot Battery
Review typical requirements and engineering considerations for this application.
View application ↗30Delivery Robot Battery
Review typical requirements and engineering considerations for this application.
View application ↗31Humanoid Robot Battery
Review typical requirements and engineering considerations for this application.
View application ↗199Pool Cleaning Robot Battery
Review typical requirements and engineering considerations for this application.
View application ↗203PV Cleaning Robot Battery
Review typical requirements and engineering considerations for this application.
View application ↗204UAV & Unmanned Systems Battery
Review typical requirements and engineering considerations for this application.
View application ↗SYSTEM ENGINEERING SCOPE
One Battery Architecture Coordinated With the Robot, Charger and Operating Environment
Stellova develops the battery as part of the equipment system. Electrical performance, protection, communication, charging, mechanical packaging and validation are coordinated against the same approved requirement rather than handled as disconnected specifications.
Electrical definition
Establish voltage, usable energy, continuous and peak current, reserve margin and protection limits from the measured or documented load profile.
BMS & communication
Coordinate protection, sensing, SOC/SOH reporting, CAN or RS485 messaging and charger control with the host controller.
Charging & mechanical integration
Define docking or plug-in charging, connectors, mounting, service access, sealing and thermal provisions around the available installation envelope.
Prototype & validation plan
Convert critical requirements into reviewable specifications and verification conditions before production release; final tests are agreed for the actual project rather than claimed generically.
FROM REQUIREMENT TO PROTOTYPE
Define the Inputs That Control Battery Risk Before Sampling
Provide the equipment load profile, operating schedule, charging method, interface requirements, installation constraints and environment. These inputs allow the electrical, BMS and mechanical scope to be reviewed together before a prototype is released.
Review the Engineering Process ↗DISCUSS YOUR ROBOTICS PROJECT
Share the Robot Duty Cycle and Integration Requirements
Send the target voltage and runtime, continuous and peak loads, charging window, communication protocol, available space, environment, compliance needs and forecast volume. Stellova will review the requirement and identify the next technical and commercial step.
Discuss Your Robotics Battery Project ↗