Description
Embodied Robot Dedicated Solid-State Battery (48V 20Ah Hot-Swappable Power Module) | ATOMFAIR
Product Overview
Specifically engineered for high-performance Embodied Robots and AI research platforms, this system utilizes cutting-edge Solid-State Soft-Pack (Pouch) Cell technology. The module is designed to eliminate operational downtime by supporting intelligent dual-pack switching and a quick-release hot-swappable interface. This allows for seamless battery exchanges without system reboots, injecting stable, safe, and long-lasting core power into next-generation intelligent robotics. For bulk inquiries or official volume quotations, please contact us via email at inquiry@atomfair.com.
Technical Specifications
| Parameter | Detailed Specifications (48V20Ah Version) |
|---|---|
| Cell Type / Configuration | Solid-State Pouch Cell / 13S1P |
| Typical Energy (Wh) | 962 Wh |
| Continuous Charging Current | 0.5C |
| Peak Discharge Current | 3.0C |
| Dimensions (L*W*H mm) | 120 * 165 * 200 mm |
| Communication Method | Bluetooth, RS485, CAN |
| Operating Temperature | Charge: 0~45°C | Discharge: -20~45°C |
| IP Rating / Cycle Life | IPX7 / 2500 @ 70% |
Core Features & Advantages
Uninterrupted Mission Runtime
Native support for hot-swappable interfaces and dual-battery balancing allows for continuous robot operation without power-down during battery swaps.
Solid-State Safety Standard
Utilizes advanced solid-state soft-pack technology for superior thermal stability and higher energy density compared to traditional Li-ion formats.
Smart Research Connectivity
Triple-protocol communication (CAN/RS485/BT) provides high-fidelity access to SOC/SOH data, ideal for precise algorithmic robot control.
Application Scope
- Humanoid & Quadruped Robotics
- Hospitality & Service Robots
- Embodied AI Research Platforms
- Indoor/Outdoor Autonomous Delivery
Accessories & Customization
Hot-Swap Kits: Custom quick-release mechanical docks available for standardized robot chassis integration.
BMS Protocol SDK: Official API documentation for ROS2 and specialized robotics control systems for real-time power analytics.
Bespoke Solutions: Custom voltage (24V-72V) and capacity configurations are available for laboratory prototypes.
This solid-state battery module requires strict adherence to electrical and thermal safety limits to prevent thermal runaway and ensure longevity. Storage must be in a dry, ambient environment with the battery at a moderate state of charge to mitigate degradation and hazards.
- Charging Current Limit: Do not exceed the specified continuous charging current of 0.5C to avoid internal damage or overheating.
- Operating Temperature Range: Operate the battery only within the charge (0–45°C) and discharge (–20–45°C) temperature ranges to maintain performance and safety.
- Environmental Exposure: The IPX7 rating permits temporary immersion in water up to 1 meter for 30 minutes, but the module should be dried immediately after any liquid exposure.
- Short-Circuit Prevention: Ensure the hot-swappable interface contacts are aligned and free of debris before insertion to prevent arcing or short circuits.
- Battery Management System Integrity: Use only the dedicated charger and approved communication protocol (CAN or RS485) to maintain accurate state-of-charge monitoring and cell balancing.
This procedure describes the safe installation, charging, and hot-swapping of the solid-state battery module for uninterrupted robot operation. Follow each step sequentially to prevent electrical hazards and maintain system power integrity.
Required Equipment: Approved 48V Charger with CAN/RS485 Interface, Insulated Gloves, Lint-Free Cloth for Contact Cleaning
- Inspect Module
Inspect the battery module for any signs of physical damage, swelling, or leakage before handling or installation. - Install Module
Align the battery module with the robot's power bay and insert it firmly until the latch engages, ensuring a secure connection. - Verify Connection
Verify the battery status indicator shows a steady green LED or confirm module recognition through the robot's interface. - Connect Charger
Connect the approved charger to the battery's charging port, ensuring correct polarity and a firm electrical connection. - Monitor Charging
Monitor the battery temperature during charging and immediately stop the process if the temperature exceeds 45°C. - Disconnect Charger
Disconnect the charger after charging is complete, then reinstall the module into the robot if not already in place. - Execute Hot-Swap
Release the latch on the depleted module, slide it out, and immediately insert a charged module to maintain uninterrupted power.
What is the peak discharge current of the ATOMFAIR 48V 20Ah solid-state battery and how does it affect robot performance under high-torque loads?
The battery supports a peak discharge current of 3.0C, enabling sustained high-power delivery for demanding robotic maneuvers such as rapid acceleration or heavy lifting. This specification ensures that embodied robots can maintain mission-critical torque without voltage sag, as the solid-state pouch cell configuration provides superior thermal stability compared to conventional Li-ion formats.
Can the ATOMFAIR solid-state battery be integrated with existing ROS2-based robotic control systems for real-time power monitoring?
Yes, the battery supports triple-protocol communication via CAN, RS485, and Bluetooth, and a BMS Protocol SDK with official API documentation for ROS2 is available. This allows researchers to access high-fidelity SOC and SOH data for precise algorithmic control, making it directly compatible with advanced AI research platforms.
What are the charging temperature constraints and IPX7 rating implications for outdoor deployment of this solid-state battery?
The battery must be charged within 0–45°C and can discharge from -20–45°C, limiting rapid recharging in sub-zero outdoor conditions. The IPX7 rating ensures protection against temporary water immersion, making it suitable for wet environments like outdoor delivery or maritime robotics, but charging should only occur in dry, temperature-controlled settings.
This 48V 20Ah solid-state battery module leverages solid-state pouch cells and a hot-swappable design to deliver 962 Wh with IPX7 protection, ideal for embodied robotics; however, the 0.5C continuous charging rate and narrow charging temperature window (0–45°C) impose operational constraints that must be accounted for in deployment planning.
Positive
- Solid-state safety and energy density: Advanced solid-state soft-pack technology provides superior thermal stability and higher energy density compared to conventional Li-ion formats, reducing thermal runaway risk and enabling compact integration in robotic platforms.
- Hot-swappable mission continuity: Native dual-pack switching and quick-release interface allow battery exchange without system reboot, maintaining uninterrupted operation for critical robotics and AI research tasks.
Trade-offs
- Restricted charging temperature range: Charge operation is limited to 0–45°C, preventing recharging in sub-freezing environments; this may require pre-conditioning or heated storage for cold-climate robotics deployments.
- Single parallel string configuration: The 13S1P cell arrangement provides no cell-level redundancy; a single cell failure results in complete pack failure, which is a reliability consideration for mission-critical applications.
Every advanced material, component, equipment, and instrument in our catalog is backed by rigorous testing. We maintain strict internal quality management frameworks and align with CE conformity metrics to deliver transparent, reproducible performance data via our public open-science repository.
To request raw batch performance data, submit formal vendor registration paperwork, or execute a fast-turnaround R&D manufacturing loop, contact us at inquiry@atomfair.com.
Item is dispatched under the Atomfair Shipping & Delivery Framework (Free worldwide shipping on orders over $59 USD). Return is governed by the Atomfair Return & Refund Policy (7-day technical return window).
