AMR / AGV
Long shifts, fleet charging, host communication and production consistency.
Prepare this robot brief — AMR / AGVAPPLICATION ENGINEERING / ROBOTICS
Robotics Battery Solutions
Built around the way your robot works.
THE BATTERY, IN CONTEXTPower, fit and interfaces begin with the robot.
A robot’s working cycle shapes its battery. We bring runtime, peak loads, charging and controller interfaces into one custom system.
Choose a short project inquiry or a detailed technical brief.
From the first mission profile to robot integration and production planning.
- Runtime
- Peak power
- Charging
- Communication
01 / START WITH THE MISSION
A power system in motion.
A robot accelerates, lifts, pauses, senses and returns to charge. Its working cycle—not a capacity label—defines the battery brief.
| Robot requirement | Battery system decision |
|---|---|
| Long operating shift | Match usable energy and charging windows to the working shift. |
| High motor peaks | Review cells, parallel architecture, conductors and protection against the load profile. |
| Limited chassis space | Balance cell format, enclosure, weight and the installation envelope. |
| Frequent charging | Balance charge acceptance, heat, connector wear and cycle targets. |
| Host controller integration | Define BMS data, communication behavior and fault handling. |
| Demanding environment | Agree temperature, dust, moisture, vibration and validation requirements. |
02 / ENERGY + POWER
Runtime starts with the operating profile.
Start with the power and time needed for each task. Review usable energy, charging windows, temperature, and space or weight constraints before choosing a capacity target.
- StartMotor demand
- DriveTravel + payload
- WorkTask energy
- IdleControls + sensors
- Peak loadCombined actuators
- ChargeAvailable window
Energy across the mission
Average load and time shape the energy budget. Account for idle periods, auxiliaries, reserve strategy and the energy available under the agreed operating conditions.
Power at the demanding moment
Startup, acceleration, lifting, inclines and simultaneous actuators can change the peak demand. Review its magnitude, duration and repetition—not just the average load.
LOAD PROFILE → PACK DESIGN REVIEW
- Cell selection
- Parallel architecture
- Current paths
- Protection
- Connector
- Thermal approach
03 / BMS + COMMUNICATION
The battery must speak the robot’s language.
Agree what the controller needs to know, when it needs to know it, and how the robot should respond when a limit or fault is reported.
- Robot controllerStatus, limits & commands
- BMSSensing & protection control
- Battery system
- SOC / SOH
- State-of-charge and state-of-health estimates; definition, accuracy and update needs.
- Voltage / current / temperature
- Monitoring signals and operating limits relevant to the controller.
- Fault / power state
- Fault response, charge/discharge permission and recovery behavior.
Define the interface, then the implementation.
Include the required interface in your brief, whether CAN, RS485, SMBus or another protocol. Compatibility, message definitions and firmware scope need confirmation.
04 / FIT + OPERATION
Designed to fit the robot.
The pack is part of the robot’s mechanical architecture. Define its location alongside the chassis, service access and connections.
- 01Robot chassis
- 02Battery location
- 03Pack envelope
- Envelope & balance
- Shape, available space, weight and center of gravity.
- Mounting & connection
- Mounting points, connector position, cable routing and vibration exposure.
- Service & heat
- Removal access, enclosure design and the thermal path.
Define the operating boundary.
Define temperature, dust, moisture, vibration and connector exposure for the robot’s workplace. Agree the targets and validation plan before assigning any environmental rating.
Charging is part of the workflow.
Choose a charging approach that fits the duty cycle. The options below need review against cell limits, available downtime and the robot’s workflow.
| Strategy to evaluate | What the design must resolve |
|---|---|
| Standard charging | Available downtime, charger compatibility and charge limits. |
| Fast charging | Cell suitability, available power, heat and lifetime trade-offs. |
| Opportunity charging | Short charge windows, mission scheduling and state-of-charge strategy. |
| Dock charging | Alignment, contacts, communication and charge permission. |
| Battery swap | Safe disconnection, handling, retention and connector durability. |
05 / SYSTEM INTEGRATION
One battery. Part of a larger system.
Connect the power path, controller information and charging interface into one system design.
POWER PATH
- Cells
- Modules / pack
- Electrical protection
- Power output
- Robot drive / loads
MONITORING + CONTROL
- Battery sensing
- BMS
- Robot controller
The BMS monitors the pack and coordinates protection; it exchanges agreed data with the robot controller.
CHARGING INTERFACE
- Charging system
- Agreed charge connection
- Battery pack
Protection is a system requirement.
Review cell limits, electrical and BMS protection, mechanical protection, heat and charging behavior as one design. Define responses and verification criteria without assuming risk can be eliminated.
06 / PROTOTYPE → ROBOT → PRODUCTION
Validate the battery in the robot’s world.
Bench evaluation is a checkpoint. Representative loads and robot integration help verify the behavior that matters in operation. Test scope, facilities and responsibilities are agreed for each project.
- 01Requirements
- 02Architecture
- 03Prototype
- 04Robot integration
- 05Validation
- 06Iteration
A reviewed design, ready for production planning.
Resolve prototype findings before design freeze. Agree the BOM, interface definitions, work instructions, quality criteria and pilot review. Control later changes to support repeatable builds.
Explore engineering validation and production release| Requirement | Validation question |
|---|---|
| Runtime | Does usable energy meet the agreed mission duration and reserve strategy? |
| Peak load | Does the pack respond to the operating load profile, including repeated peaks? |
| Charging | Does charging fit the intended workflow and agreed operating limits? |
| Communication | Does BMS data integrate correctly with the robot controller? |
| Thermal | Are temperatures and thermal behavior acceptable under representative conditions? |
| Mechanical fit / connector | Are mounting, access, cable routing and connections suitable for operation? |
| Fault handling | Do the battery and robot respond and recover as defined? |
| Application operation | Does the integrated system behave as intended across the duty cycle? |
07 / ROBOTICS APPLICATIONS
Different robots. Different battery briefs.
Inspection robots
Compact fit, field charging, environmental exposure and mission runtime.
Prepare this robot brief — Inspection robots
Delivery & service robots
Weight, frequent charging, compact packaging and straightforward maintenance.
Prepare this robot brief — Delivery & service robotsApplication concepts · not customer cases.
08 / REAL PROCESS PHOTOGRAPHY
Ground the project in real engineering evidence.
These supplied photographs show battery assemblies, production activity and equipment. They provide process context, not proof of a robotics deployment or a test result.
Battery assemblies
Pack construction and handling provide a starting point for discussing integration with your robot.
Production activity
Equipment context
A robotics validation report or customer case will be shown only after source and publication approval.
Standard pack or custom system? Start with the fit.
Standard battery
A standard battery may be appropriate when its defined dimensions, electrical architecture and interfaces satisfy the complete robot brief.
Custom robotics system
Consider a custom system when the robot needs a different fit, load response, charging approach or interface.
Custom is not automatically the better choice. Review suitability, development scope, cost and supply considerations first.
09 / YOUR ROBOTICS PROJECT
What does your robot need to do?
Start with what you know about the robot and its working cycle. You can review the details in the Technical RFQ.
Add dimensions, weight, peak load if known, expected quantity and any drawings. Leave uncertain details for discussion.
Before the engineering conversation.
What information is needed to develop a robot battery?
Share the robot type, duty cycle, voltage, runtime target, peak load if known, available space, weight target, charging workflow, communication and environment. Add expected quantity and drawings where available. Mark unknowns for discussion.
How do you size a robot battery for runtime?
Start with the power and duration of each operating state, including idle loads and charging opportunities. Review usable energy, reserve strategy, temperature and size or weight constraints. Capacity is selected against that brief and then validated under representative operation.
How do peak motor loads affect battery design?
Startup, acceleration, lifting and concurrent actuators may create peaks. Their magnitude, duration and repetition influence cell selection, pack architecture, conductors, protection, connectors and thermal evaluation.
Can battery dimensions be customized?
Pack geometry, mounting and connector position can be evaluated against the robot envelope. Feasibility depends on the electrical requirements, cell options, clearances, cooling and service access. A concept drawing is not an approved production design.
Can the battery communicate with the robot controller?
Communication requirements are defined during scoping. Specify the required signals, protocol, message map, timing and fault behavior. CAN, RS485, SMBus or another interface requires project-specific confirmation; support is not assumed.
Can charging strategy be customized?
Standard, fast, opportunity, dock charging and battery swap can be evaluated as operating strategies. Suitability depends on cells, charger compatibility, thermal conditions, connections, cycle requirements and the robot workflow.
How are robotics batteries validated?
Agree questions for runtime, peak load, charging, BMS data, thermal behavior, mechanical fit, connectors and fault handling. Use a prototype with representative loads or the robot system. Facilities, responsibilities, standards and acceptance criteria are agreed for the project.
Can we upload robot drawings or battery specifications?
Yes. Continue to the Technical RFQ and its file step to add a permitted attachment. The form shows the current file type and size limits. Uploading requirements does not establish feasibility or approve a specification.
FROM ROBOT REQUIREMENTS TO A BATTERY BRIEF
Let’s evaluate your robotics battery project.
Bring the mission, the constraints and the questions. Define the battery system around the robot.
Choose a short project inquiry or a detailed technical brief.