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How VALIS makes robots work together.

VALIS doesn't build models. It organizes knowledge, agents and models — and orchestrates them reliably across real fleets. Here's how it works.

A knowledge graph that decides who does what

At the core is a living graph linking each robot's body schema, its skills, the agents and the models' capabilities. When a task arrives, the graph lights up along the path to the best choice: which robot, which agent, which model.

Pick a task — watch the graph choose.
  • Robots
  • Skills
  • Agents
  • Models

Selected path:Mobile manipulator · Grasp & place · Manipulation · VLA

01PlannerCoordinator·task: deliver crate

Agents that talk, and a network that heals

Agents hold an inner speech: they exchange messages, distribute across robots and coordinate in a decentralized way. If a node fails, the network reconfigures and the work continues. This is the hive-mind — a team of robots acting as one cognitive entity.

Agents negotiate a sub-goal; when a node drops, the mesh reroutes.

VLA+Touch: sight and touch combined for delicate manipulation.

The best model for each task — including touch

Each agent picks the best available model: a VLA for manipulation, a navigation policy to move, another for perception. On contact tasks we integrate VLA+Touch models to modulate force and handle delicate objects.

Plans you can verify, not black boxes

Planning uses an established formalism — PDDL — boosted by LLMs in a neuro-symbolic approach: the LLM proposes, the formalism guarantees. The team has published exactly on this.

Why a formalism matters

Verifiable

Every plan is checked against the domain before it runs — no silent failures, no black box you have to trust.

Composable

Actions are reusable building blocks; a new task recombines skills the robot already has, instead of relearning from scratch.

Recoverable

When the world changes mid-task, the planner re-derives a valid plan rather than guessing — and you can see why.

Natural-language request

Bring the medication to the resident in room 4.

LLM emits symbolic tokens

(holding ?med)
(at-robot room-4)
(reachable resident)

Verified PDDL plan

  1. 01(pick-up medication)
  2. 02(navigate hall → room-4)
  3. 03(hand-over medication resident)
Sim-to-real: from a physically consistent digital twin to the real world.

Proven in simulation, before the real world

Before deployment we train and validate in simulation: with tools like NVIDIA Isaac Sim / Isaac Lab we build a physically consistent digital twin of the scenario. The same simulator becomes a pre-sales 'what-if' tool.

Built on solid ground

On top of ROS

VALIS lives above ROS, the de-facto standard of robotics — not a closed silo.

Hardware & model agnostic

Agnostic to robot vendors and model providers. The right tool wins, never the lock-in.

Safety & security by design

Priorities, safety constraints and explainability are part of the architecture, not an afterthought.

One platform, many worlds.