
In fields like smart mobility and humanoids, the era of "Physical AI"—systems that act and make decisions autonomously based on sensor data—has begun.
Anticipating the peak of the Physical AI era, we have developed "Autonomous Distributed AI Cells" ahead of the competition.
The "Autonomous Distributed AI Cell" logicizes the very learning process of a newborn child through senses like vision and touch. We have successfully brought this "Child AI" concept to life and integrated it onto a silicon chip.
The "Autonomous Distributed AI Cell" features automatic integration of learnings from other cells, self-correction based on missing or conflicting information, and re-education capabilities for collective learning across multiple cells.
Here lies the Ultimate Physical AI: multiple "Autonomous Distributed AI Cells" learning independently, fostering mutual growth, and autonomously executing coordinated group behaviors.

The "Autonomous Distributed AI Cell" is a world-first technology enabling fully unmanned factory operations and automated facility monitoring/management.
Requiring no individual pre-configuration for sensors or environments upon factory shipment, this composite chip behaves like an artificial neural cell—autonomously sensing its surroundings the moment it is installed and continuously learning various operational elements through active deployment.
Blockchain acts as the synaptic pathways of a neural network, guaranteeing data transmission integrity and enabling distributed processing.
In addition to artificial neural cell capabilities, it is built on highly distinctive, advanced logic that incorporates autonomous audiovisual sensory cells and autonomous nervous system functions akin to the cerebellum.
Equipment installed in a factory autonomously learns local operating conditions and behaviors through visual, tactile, and other sensory inputs, establishing its own "individual identity."
Even among identical machines, slight variations occur—such as subtle discrepancies in motor RPM—so each unit collects operational data to optimize itself for its specific site.
An edge server compares and analyzes data collected from individual units to execute "identity calibration," automatically adjusting voltage and other parameters so all machines deliver uniform output.
By sharing and adjusting (re-educating) the individual variations and experiences of each machine across the entire system, this approach prevents quality inconsistencies and builds a next-generation industrial infrastructure that continues to operate with high precision.
Based on collective action instructions from a master drone (Autonomous Distributed AI Cell [Master]), multiple slave drones (Autonomous Distributed AI Cell [Slave]) execute autonomously controlled flights while coordinating with one another.
Information such as obstacle avoidance and optimal routing learned by a single drone is shared across the entire fleet (collective education) via an edge server.
As the number of operating units increases, it unleashes a powerful collective network effect where the entire drone fleet automatically becomes smarter, enabling multiple AIs to drive mutual growth while executing autonomous group actions.
"Autonomous Distributed AI Cells" can be integrated into predictive maintenance systems for individual production lines or entire factories.
For example, anomaly detection models can be individually optimized based on the unique operational variations of each robotic arm, enabling significantly more accurate failure predictions.
Autonomous Distributed AI Cell incorporates special logic to make it autonomous.
While AI for manufacturing equipment requires identical movements and precision, autonomous humanoids such as collaborative robots demand a wide variety of motions.
It is ideal for integrated control and maintenance that understands the unique characteristics of each unit.
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