Cerebrum technology gives autonomous machines deterministic reasoning: the same approved knowledge and the same inputs always lead to the same decision, and every decision can be explained and replayed.
Shared foundation · Controller-specific adapters · Independent deployments
Illustrative adapter targets; integration validated per controller and deployment.
How it works
The engine, function by function
Choose a function, or click its part of the brain. A short explanation comes first; the details follow below.
Governed Knowledge: What the engine knows decides how it can act
Perception: Observations with stated confidence
World view and spatial intelligence: An operational understanding of the world
Memory and learning: Memory gives every decision context
Reasoning and decisions: The same knowledge and the same inputs give the same decision
Coordination and execution: Independent platforms, one shared mission
Ownship: the self-aware platform: Knowing its own capabilities and limits
Governed Knowledge: in more detail
Neural perception turns sensor data into observations with stated confidence. A deterministic symbolic core reasons over them with Governed Knowledge: domain ontologies, policies and operational experience that experts have approved. Policies are part of that knowledge, so they shape every decision from the inside.
Domain ontologies
The vocabulary of the operating world: which things exist, what properties they have and how they relate. In the recording: surfaces, the drone’s pose and five maneuvers.
Policies
Rules about what may be done, written in the same language as the rest of the knowledge. In the recording: keep 0.95 m beyond a surface’s radius and uncertainty, and never treat unseen space as free. A path that breaks a policy is not chosen, because the reasoning itself excludes it.
Experience
Models calibrated from earlier runs: command delay, response lag and how fast the uncertainty of an unseen surface grows.
Versions
Experts review and approve a version before it is used. Each decision records the version it used, so it can be replayed exactly. Live observations update memory, not the approved knowledge.
Perception: in more detail
Perception supplies observations; the deterministic core reasons over them. Observations are always read within the sensors’ coverage and limits, and uncertainty stays visible instead of being guessed away.
In the recording, a drone in a flight simulation watches the scene ahead. A neuron model that responds to approaching surfaces shows where something is growing in the image, sector by sector.
World view and spatial intelligence: in more detail
Spatial intelligence works on that picture: locations, relationships, visibility and physical constraints, and possible future states within a defined time horizon.
Digital twin
The commissioned reference model of the operating environment: its spaces, objects, infrastructure and relationships. It gives observations a known structure and location.
In the recording, surfaces seen by one camera are placed on a top view from parallax, and candidate paths are checked against them.
Memory and learning: in more detail
Short-term memory
Recent observations, active objectives, current plans and immediate context. It updates as new evidence arrives.
Long-term memory
Governed Knowledge, models of the platform and its world, and relevant history.
Fast and slow thinking
Fast thinking recognizes familiar situations and applies established procedures. Slow thinking examines alternatives, projects consequences and plans. Both draw on the same memory.
Learning is deterministic and governed: induction proposes rules from examples, abduction proposes explanations and knowledge repairs, and experts review each proposal. Only an approved, signed version becomes part of Governed Knowledge.
Reasoning and decisions: in more detail
01 Snapshot
Bind observations, objectives and relevant memory into one time-bounded picture.
02 Spatial intelligence
Locations, relationships, visibility and physical constraints.
03 Prediction
Possible future states within supported models and a defined horizon.
04 Candidate actions
Only actions that the platform’s capabilities and the policies in Governed Knowledge allow are derived.
05 Evaluation
Candidates are compared against objectives, predicted consequences and operating constraints.
06 Action
The selected action is issued with its explanation and decision record. Feedback informs the next cycle.
Policies are not a checkpoint after the decision. Where a policy requires a person to confirm a class of actions, the engine asks for that confirmation as part of the same reasoning. The engine never holds the controls: the platform’s own controllers and safety systems execute the decided intent, and every cycle can be replayed bit for bit.
Coordination and execution: in more detail
Shared mission
Each platform connects its observations to a shared understanding of the mission and its priorities.
Complementary roles
Work is divided by capability, position, resources and limits, weighed against completion time and energy use.
Coordinated execution
Routes, timing and dependencies are coordinated; progress and changes are shared so the team can redistribute work.
Execution stays with each platform’s own systems: flight stabilization and control are left to the aircraft. In the recording, a fast visual reflex turns the approach signal into a turn and a brake, and the simulated drone passes beside a building.
Ownship: the self-aware platform: in more detail
State
What is true right now, as one time-bounded picture.
Rules
What is permitted, required or forbidden, read from the policies in Governed Knowledge.
Capabilities
What the platform can physically do, bounded by its kinematics and limits.
Objectives
What the operation is trying to achieve and how competing aims are prioritized.
A precise meaning of cognition
Perception.Memory.Reasoning.Action.
Here, robotic cognition describes these observable functions and the models that connect them. Operational self-awareness means representing the robot’s own capabilities, resources and limits.
A decision, explained
Why did the drone do that?
Choose a step to watch it.
Bring accountable reasoning to your autonomous system.
Tell us about the machine, environment and operating constraints you need to support. We will explore how a commissioned knowledge stack, authority model and validation boundary could fit your existing sensing, control and execution systems.