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Omron autonomous mobile robot with roller conveyor and parts bins in a high-bay warehouse.

Autonomous Power Systems

Autonomous & Robotic Systems

Advanced battery system integration and power architecture support for autonomous platforms, robotic systems, unmanned vehicles, and intelligent machines that depend on reliable energy, sensing, controls, and repeatable operational behavior.

Built for uptime, precise controls, mission-aware power delivery, and scalable robotics integration
Our Expertise

Engineer Battery and Control Systems for Autonomous and Robotic Platforms

We help teams develop battery-integrated systems for autonomous and robotic platforms that require reliable energy delivery, stable voltage behavior, controlled thermal performance, and predictable coordination between batteries, motors, controls, sensors, and onboard electronics.

That includes mobile robots, autonomous vehicles, industrial robotic platforms, inspection units, remote systems, support robots, and other intelligent machines where runtime, charging strategy, motion behavior, mission cycles, and system coordination all need to work together. Our approach helps shape solutions that are durable, efficient, and ready for real operational deployment.

Mobile Robotics
Autonomous Vehicles
Industrial Automation

Mission Ready

Support runtime planning, autonomous duty cycles, and repeated operational missions

Controls Integrated

Coordinate battery behavior with sensors, compute loads, motion systems, and automation logic

Charge Aware

Shape battery and charging strategies around uptime, docking behavior, and mission recovery

Scalable Platforms

Useful for robotic fleets, autonomous tools, industrial systems, and unmanned vehicles

Autonomous & Robotics Services

Comprehensive Autonomous System Battery Integration Built for Real Performance and Intelligent Operation

Our approach helps teams connect battery systems, mission demands, charging needs, sensing, controls, and runtime reliability into a more complete solution for autonomous and robotic platforms.

Robotic Platform Integration

Support battery system design for mobile robots, industrial automation platforms, remote equipment, and unmanned systems where compact packaging and dependable runtime matter.

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Power Delivery & Mission Cycle Engineering

Shape battery architecture around movement profiles, compute loads, standby behavior, peak demands, charging windows, and the real operational patterns of autonomous systems.

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Charging & Docking Strategy

Integrate charging behavior, dock interaction, energy recovery expectations, and runtime management so robotic systems remain available for critical tasks.

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Sensing, Controls & Power Coordination

Engineer the relationship between batteries, motor controls, onboard compute, thermal systems, sensors, and control logic so the platform behaves predictably in the field.

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Thermal, Safety & Reliability Design

Coordinate BMS behavior, cooling, protection logic, enclosure needs, and electrical stability so autonomous systems perform safely through repeated duty cycles and varied environments.

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Prototype to Fleet Deployment

Help teams move from concept and prototype integration into pilot robotic fleets, autonomous validation programs, and production-aware deployment with stronger technical readiness.

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Standards Customers Often Prepare For

The programs below are common lithium battery certification and test pathways. Prime Energy can help customers prepare documentation, test readiness, and pack design decisions aligned to these standards. Listing these standards does not mean Prime Energy or every completed battery assembly currently holds these certifications.

  • UL 1973 — For lithium battery packs and systems used in stationary energy storage and motive auxiliary power applications.
  • UL 2580 — For lithium battery packs and modules used in electric vehicle applications.
  • UL 2271 — For lithium batteries used in light electric vehicle applications such as smaller mobility platforms and support vehicles.
  • IEC 62133-2 — For portable sealed secondary lithium cells and batteries used in portable applications.
  • IEC 62619 — For secondary lithium cells and batteries used in industrial applications, including many larger pack and stationary use cases.
  • IECEE CB Scheme — A global certification pathway that helps support international acceptance of test reports and certificates for applicable IEC battery standards.
  • UL 9540 — System-level listing path for complete energy storage systems and equipment, often relevant when a battery pack is part of a larger ESS.
  • UL 9540A — Fire test method commonly used to evaluate thermal runaway fire propagation behavior in battery energy storage systems.
  • UN 38.3 — Transport testing required for shipping lithium cells and batteries; this is a transportation compliance requirement rather than a product safety listing.