Laboratory Automation System · Products

Robot Scientist System

X-Imaging’s Robot Scientist system (智道者) represents the company’s vision of autonomous laboratory operation, integrating robotic manipulation, AI decision-making, and multi-instrument coordination to conduct scientific experiments with minimal human intervention. The system embodies the concept of a “robot scientist” that can execute complex experimental workflows autonomously.

Product Overview

The Robot Scientist system addresses a fundamental challenge in modern research: the gap between the rapid advancement of analytical instruments and the human bandwidth limitations in operating them. While individual laboratory devices have become increasingly sophisticated, the manual processes connecting them remain a bottleneck for throughput and reproducibility.

X-Imaging has developed the Robot Scientist as an integrated platform that orchestrates multiple laboratory instruments through intelligent robotic coordination. Rather than automating single tasks, the system manages entire experimental workflows from sample preparation through data collection, enabling sustained operation without direct human supervision.

The platform combines X-Imaging’s iMagicOS intelligent operating system with robotic manipulation capabilities, creating a closed-loop system where AI can plan experiments, execute operations, collect data, and adapt subsequent steps based on results.

Key Features

Intelligent Instrument Integration: The Robot Scientist can rapidly interface with diverse laboratory equipment, handling instrument loading, sample presentation, and result retrieval automatically. The system supports integration with X-Imaging’s library of over 100 mainstream device interfaces.

AI Visual Recognition: For applications involving microbial work, the system employs computer vision to identify colony morphologies and positions for organisms such as streptomyces and E. coli. This enables automated colony picking, spreading, and transfer operations that traditionally require skilled technician observation.

High-Throughput Processing: Combined with modular plate storage systems, the Robot Scientist can maintain continuous operation over extended periods. This proves particularly valuable for screening campaigns and repetitive testing protocols where consistent execution matters.

Workflow Flexibility: The platform’s modular architecture allows configuration for diverse applications including NGS library preparation, cell line screening, microbiological analysis, and chemical synthesis support.

Technical Architecture

The Robot Scientist system comprises three integrated layers:

Physical Layer: Robotic manipulators (typically Helen X series robots), instrument arrays, consumable storage, and sample management hardware configured for specific applications.

Control Layer: The iMagicOS platform handles real-time coordination of all physical components, managing scheduling, error recovery, and data flow between instruments.

Intelligence Layer: AI capabilities for visual analysis, experimental planning, and adaptive decision-making. The system can adjust protocols based on intermediate results rather than following rigid predetermined sequences.

Application Scenarios

Microbiology Automation: Full workflow automation for microbial colony processing including petri dish handling, lid removal, colony identification, picking, inoculation, spreading, and liquid handling. The AI visual system can differentiate colony types and select appropriate targets.

Cell Line Development: Automated cell culture workflows for hybridoma screening and stable cell line generation. The system handles 96/24/6-well plate operations, media changes, imaging integration (Cell Metric, Fortebio), and positive clone selection with subsequent expansion cultures.

Pharmaceutical Screening: High-throughput compound screening support including automated liquid handling, incubation management, and analytical instrument loading for drug discovery applications.

Quality Control Testing: Standardized testing protocols for food safety, environmental monitoring, and consumer product quality assurance where consistent execution across large sample volumes is critical.

Deployment Examples

X-Imaging has deployed Robot Scientist systems across multiple customer sites, with the most prominent being the collaboration with Insilico Medicine to establish one of the world’s largest precision drug discovery laboratories. This implementation demonstrates the system’s capability to operate at scale in demanding pharmaceutical research environments.

The company has also implemented automated workflows for government agencies including the Shanghai Songjiang District CDC, where the technology supported high-throughput nucleic acid testing during pandemic response efforts.

Regulatory Status

As an integrated laboratory automation platform rather than a medical device, the Robot Scientist system is not subject to NMPA, CE Mark, or FDA medical device regulations. The system is intended for research, development, and testing applications rather than clinical diagnostic use.

Frequently Asked Questions

How does the Robot Scientist differ from traditional laboratory automation?

Traditional laboratory automation typically addresses individual tasks or instrument loading. The Robot Scientist provides integrated workflow management across multiple instruments with AI-driven coordination, enabling autonomous operation of complete experimental sequences rather than isolated steps.

Can the Robot Scientist be customized for specific research needs?

Yes, X-Imaging designs Robot Scientist implementations around specific customer workflows. The modular platform architecture and extensive device interface library allow configuration for diverse applications from microbiology to chemistry to cell biology.

What level of expertise is needed to operate the system?

While initial system configuration requires collaboration with X-Imaging’s application scientists, day-to-day operation is managed through the iMagicOS interface. The platform’s pre-built module library enables laboratory staff to design and execute workflows without programming expertise.

Last modified: January 16, 2026

Sources

Publicly available references used for the data on this page. See data methodology for verification standards.