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Model:
AISIR-0018

Compact Mobile Robot Chassis for High-Precision Indoor Development

The an 80 kg mobile robot chassis designed is for indoor delivery, inspection, and application-specific robot development. Its compact 704 × 470 × 397 mm body, single-line LiDAR SLAM navigation with a specified accuracy of ±3 cm, 16–20-hour runtime, remote navigation deployment, and open SDK provide a practical mobile platform for secondary development. We support chassis selection, upper-module compatibility evaluation, interface coordination, and deployment planning based on the requirements of each project.

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What Is a Mobile Robot Chassis?

A mobile robot chassis is the foundational hardware platform for an autonomous mobile robot. It includes the drive system, navigation sensors, battery and power management, safety components, and a software interface (SDK/API) that developers use to build application-specific robot functionality on top.

Think of it as the “vehicle” half of a complete robot. The chassis handles movement, positioning, obstacle avoidance, and power. You add the “brain”—your application software, upper-mount devices, and task logic—through the open SDK.

A mobile robot chassis is different from a traditional AGV. An AGV follows fixed paths (magnetic strips, QR codes, or physical tracks). A chassis with SLAM navigation maps its environment dynamically and plans routes autonomously—no floor markers, no tracks, no fixed-path limitations.

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Why Choose Our Mobile Robot Chassis Solutions

When you source a robot chassis, you are not just buying hardware. You are investing in a development platform that determines your project timeline, integration complexity, and long-term maintainability.Here is what we provide beyond the chassis itself:

01
Requirements analysis and platform selection

We help you evaluate whether the mobile robot chassis fits your payload, accuracy, navigation, and environmental requirements before you commit.

02
Upper-module compatibility evaluation

 We help you assess whether your delivery cabinets, sensors, controllers, and other upper-mount devices are compatible with the chassis platform.

03
Interface and integration coordination 

We coordinate the connection between chassis motion, SDK API, and your application software to support integration planning.

04
Deployment planning and technical support 

 We provide guidance for environment mapping, remote deployment setup, and charging station placement, along with SDK documentation access and engineering consultation throughout your development cycle.

You focus on building your application. We help you source, validate, integrate, and deploy the mobile platform that supports it.

Core Advantages

Open SDK, supporting secondary development

Al intelligent algorithms + core hardware, with a wide range of applications

Autonomous obstacle avoidance

Automatically avoid obstacles and operate stably

Automatic return charging

Automatic recharge without manual intervention

Remote navigation deployment

Remotely build maps across regions and time and space

lithium iron phosphate battery

50AH/1930WH

Plan the optimal route independently

Indoor autonomous navigation with a navigation accuracy of 3CM

Super large carrying capacity

8OKG super strong load-bearing capacity,meeting various load requirements

Super-large laser mapping

It can meet a variety of complexapplication scenarios

Typical Applications

Indoor Material Delivery
Warehouse and Logistics
Inspection and Monitoring
Research and Education

FAQS

Q: What navigation method does the chassis use? 

The mobile robot chassis uses single-line LiDAR with SLAM algorithm for autonomous indoor navigation. Navigation accuracy is specified at ±3 cm. No floor markers, QR codes, or physical tracks are required for deployment.

Q: Does the chassis support automatic charging? 

Yes. The mobile robot chassis supports both auto-return charging and direct charging. The chassis autonomously returns to the charging station when battery is low. Charging time specifications should be confirmed based on your charging configuration.

Q: What is the runtime on a single charge?

The chassis operates for 16–20 hours per charge, depending on load and operational conditions.

Q: What is the battery cycle life? 

The LiFePO4 battery is specified with a cycle life of 3000+ charges. Actual cycle life depends on operating conditions, discharge depth, and charging practices.

Q: Can the chassis dimensions be customized? 

The standard dimensions are 704 × 470 × 397 mm. For custom size requirements, contact us to discuss feasibility and project specifics.

Q: Can the payload capacity be customized? 

The standard maximum payload is 80 kg. For applications requiring different load capacities, contact us to discuss available options.

Q: Can a robotic arm be mounted on the chassis? 

The 80 kg payload capacity allows evaluation of upper-mount integration with small manipulators and robotic arms. Robotic arm integration requires a separate engineering assessment covering center of gravity, mounting interface, dynamic stability, and safety. Please contact us to discuss your specific manipulator model and mounting requirements.

Q: What is remote navigation deployment? 

The mobile robot chassis supports remote navigation deployment through a cloud service platform. This enables cross-region map building and navigation configuration without requiring an engineer physically present at each deployment site. Specific cloud platform capabilities should be confirmed based on the selected configuration.

Q: What communication interfaces are available? 

The chassis supports Wi-Fi 2.4G / 5G for wireless communication. Additional interfaces depend on the selected configuration and should be confirmed for your system architecture.

Q: Does the SDK support ROS or specific programming languages? 

The chassis is supplied with an open SDK and API interface for secondary development. Supported operating systems, programming languages, communication protocols, available API functions, and ROS/ROS2 compatibility should be confirmed against the selected SDK package before project approval.

Q: What is the lead time and warranty? 

Lead time is 35 days. The warranty period is 12 months. MOQ is 1 unit. Ordering parameters are subject to order quantity and configuration.

Request a Quote or Technical Evaluation

Tell us what you need the robot to do. Even if some technical details are not yet confirmed, our team can help evaluate suitable options.

  • Application: Briefly describe the task, workflow, or problem you want the robot to handle.
  • Key requirements: Share any known payload, reach, capacity, runtime, accuracy, speed, or other performance needs.
  • Site & integration: Tell us about the operating environment, layout, existing equipment, or software interfaces if relevant.
  • Quantity & timeline: Let us know the expected quantity, destination country, and target delivery or deployment time.