The Battery Is Part of the Machine
Define the available envelope, pack shape, retention, connector location, cable routing, weight distribution and mechanical protection together. Battery placement must support both installation and maintenance.
CUSTOM BATTERY ENGINEERING / AUTONOMOUS EQUIPMENT
Unmanned Equipment Battery Solutions
Built for long missions, changing loads and demanding environments.
For autonomous and remote equipment, the battery has to fit the machine, support changing loads and stay visible to the control system.
Autonomous equipment system
EQUIPMENT DETAIL / OPERATING MISSION
- Long-duration operation
- Changing loads
- Remote status
ENCLOSURE DETAIL / BATTERY SYSTEM
Define the power system around the job it must keep doing.
Concept details · not a customer case or matched configuration
Choose a short project inquiry or a detailed technical brief.
For commercial UGV OEMs, inspection platform teams and remote equipment integrators.
- Operating duration
- Variable load
- Environment
- Remote monitoring
01 / THE OPERATING BRIEF
Unattended Operation Changes the Battery Brief
An autonomous platform may wait, travel, work and communicate before returning to charge. Battery design cannot be reduced to voltage and capacity alone: it must account for what the equipment keeps doing when no operator is beside it.
Standby
Keep essential systems available
Travel
Supply the moving platform
Work
Support the equipment task
Peak load
Evaluate overlapping demand
Remote operation
Maintain agreed status visibility
Return / recharge
Plan the next operating cycle
| Equipment requirement | Battery system decision |
|---|---|
| Long unattended runtime | Usable energy and project-defined reserve |
| Variable motor / actuator loads | Power capability and electrical architecture |
| Outdoor environment | Cell, enclosure, thermal and validation considerations |
| Limited charging access | Charging, battery swap and energy planning |
| Remote status visibility | BMS monitoring and host interface requirements |
| Field service / installation envelope | Pack geometry, connector, mounting and maintenance workflow |
02 / ENERGY THROUGH THE MISSION
Runtime Is More Than Battery Capacity
Build the energy requirement from time spent in each operating state. Include controllers, sensors and communications alongside travel and mission work; a low-power waiting period still consumes energy.
An operating energy brief
Active mission
Travel + task loads over their duty cycles
Essential background loads
Standby + sensors + computing + communication
Project-defined reserve
Return energy + operational uncertainty
Loads Change Throughout the Mission
Average demand informs the energy budget. Peak magnitude, peak duration and simultaneous loads also shape cell selection, connections, protection and thermal evaluation.
- Average demand
- Peak demand
- Peak duration
- Simultaneous loads
- Drive
- Travel / startup / terrain
- Actuation & pumps
- Task-dependent demand
- Sensors & computing
- Background and task processing
- Communication & auxiliaries
- Scheduled or continuous demand
03 / FIELD CONDITIONS
The Environment Changes the Battery Brief
Define where the equipment will work and be stored. Those conditions guide cell, enclosure and interface choices; any environmental rating needs validation.
| Environment requirement | Engineering consideration |
|---|---|
| Temperature | Cell behavior, heat paths and charging conditions |
| Dust / moisture target | Enclosure, connector and sealing requirements |
| Vibration / shock / terrain | Mounting, retention, mechanical structure and validation |
| Outdoor service | Inspection access, connector handling and enclosure maintenance |
| Remote installation / storage | Charging access, service intervals, fault visibility and storage conditions |
Designed to Be Serviced
Plan access, removal, inspection and replacement without unnecessary equipment disassembly. Agree pack identification and the information a technician needs to investigate a fault.
- Access
- Isolate / remove
- Inspect
- Replace / identify
Charging Depends on How the Equipment Operates
Choose charging to match access, uptime and field service. Each approach affects heat, connectors, battery control and the number of packs in use.
- Fixed charging
- Dock charging
- Opportunity charging
- Battery swap
- Field charging
- Scheduled service
Options to review · compatibility must be confirmed.
04 / POWER AND INFORMATION
Keep the Controller Informed
Battery information can form part of the host equipment requirements. Define which conditions the controller needs to see, how they are communicated and what should happen when an agreed limit is reported.
Equipment power path
- Cells→
- Pack→
- BMS / protection→
- Power distribution
Equipment loads
- Drive
- Actuation
- Sensors
- Controller
- Communication
Status integration
- Battery system / BMS↔
- Equipment controller↔
- Remote / host system
Charging path
- Charging system→
- Battery pack
Information to define with your team
- SOC / SOH strategy
- Temperature
- Voltage / current
- Fault state
- Charge / discharge state
- Service information
Agree signals, charge estimates and interface compatibility with the equipment team. This is not live telemetry.
05 / FROM DESIGN TO RELEASE
Validate the System Against the Mission
Build a validation plan for the mission, from battery checks to representative loads and equipment trials. Agree acceptance criteria and test responsibilities, including any external environmental testing.
| Requirement | Validation question |
|---|---|
| Runtime | Does usable energy support the required operating mission? |
| Variable / peak load | Is battery behavior suitable through maximum and overlapping demand? |
| Environment | Are cell and enclosure requirements aligned with operating conditions? |
| Communication | Does battery information integrate correctly with the host controller? |
| Charging | Does the workflow support equipment availability? |
| Mechanical / service | Is the pack securely integrated, accessible and replaceable? |
| Fault handling | Are system responses defined for battery limits and faults? |
Carry the decisions into production
Freeze the agreed design, BOM, interfaces and acceptance criteria. Define assembly documentation, pilot review and change control before production release; project outputs depend on the agreed scope.
06 / COMMERCIAL & INDUSTRIAL APPLICATIONS
Different Equipment. A Mission-Led Battery Brief.
Travel, sensing and field access each put different demands on the battery.
UGV / Autonomous Ground Platform
Travel, variable terrain and task loads shape the operating energy brief.
Discuss this equipment brief
Inspection Equipment
Account for sensing, computing and the energy needed to complete the route.
Discuss this equipment brief
Outdoor / Remote Equipment
Charging access and field service become part of the system definition.
Discuss this equipment brief07 / SUPPLIED PROCESS EVIDENCE
A Physical System. A Documented Process.
Supplied workshop and equipment photographs provide process context. They are not evidence of a specific UGV deployment, environmental rating or validation outcome.
Pack handling and assembly context
Physical pack format, handling access and assembly consistency belong in the production discussion.
View additional process photographs
Process equipment
Define the electrical checks and records needed for production.
Production workstation
Review how agreed design and quality criteria are carried into production.
08 / START AN ENGINEERING CONVERSATION
Start With the Equipment and Its Mission
Tell us what the equipment does and where it works. You do not need a complete specification to start.
- Runtime, voltage and average / peak loads if known
- Available dimensions and mounting constraints
- Environment, charging access and service workflow
- Communication / monitoring requirements
- Expected quantity and project stage
- Drawings, system specifications or battery requirements
TECHNICAL QUESTIONS
Before You Start
What information is needed for an unmanned equipment battery?
Start with the equipment type, mission, runtime target, voltage, loads, available space and environment. Include charging access, communication, service needs and expected quantity. Uncertain requirements can be reviewed during project definition.
How is runtime evaluated for unattended equipment?
Estimate energy across active work, travel and standby, including sensors, controllers and communication. Compare the mission with usable battery energy and an agreed reserve for return, uncertainty and charging access. Capacity alone does not establish runtime.
How do peak loads affect battery design?
Magnitude, duration and overlap matter alongside average demand. Motor startup, actuation and simultaneous loads inform cell choice, electrical paths, protection and thermal evaluation. The equipment load profile is needed before performance can be specified.
Can the battery communicate with the equipment controller?
Battery status and fault information can be evaluated as host integration requirements. The interface, signals and any SOC or SOH strategy must be agreed for the project; no protocol or remote software capability is assumed.
How are outdoor environmental requirements handled?
Define temperature, dust, moisture, vibration, shock and storage conditions. These inform cell, enclosure, connector, mounting and validation decisions. A requested environmental target is not a confirmed rating.
Can charging or battery-swap strategy be customized?
Charging access and equipment availability guide evaluation of fixed, dock, opportunity, field or swap workflows. Compatibility, protection, thermal behavior and service arrangements must be reviewed; every option is not suitable for every project.
How is serviceability considered?
Review battery access, removal, connectors, inspection, replacement and identification during mechanical integration. Agree the information needed for field service without assuming a predictive-maintenance or remote-diagnosis platform.
How are unmanned equipment batteries validated?
Agree a plan against the operating mission, loads, environment, interfaces, charging and fault response. Evaluation may occur at battery, representative-load and equipment level, with responsibilities and acceptance criteria defined for the project.
Can we upload drawings or system requirements?
Yes. Use Upload Equipment / Battery Requirements to open the attachment step of the existing Technical RFQ. Add the project and contact details required by the form before submitting. The brief on this page only prefills that form.
YOUR EQUIPMENT. YOUR OPERATING MISSION.
Define the Battery Around the Work Ahead.
Bring the mission, the constraints and the questions. Start with a technical brief for your unmanned equipment battery project.
Choose a short project inquiry or a detailed technical brief.