≈1s
CPU model fitting
0.83–1.16 seconds per Meta-World task model, fitted from prepared state and action data.

Loading the robot motion study.
≈1s
0.83–1.16 seconds per Meta-World task model, fitted from prepared state and action data.
≈15
18 demonstrations in the recorded Panda experiment, using structured sensor observations.
0
CPU-only model fitting and control computation in the tested experiments.
≈100MB
Peak memory use for robot control and visual processing.
Build and test decision workflows in one environment, then run them on the same engine near your robot. Spend less time reconnecting logic between prototype and deployment.
Reuse learned models and refine behavior with new observations and feedback. Reduce repeated training time and cost when tasks, conditions or operating parameters change.
Bring learning, reasoning, optimization and verification into one licensed runtime. Reduce the separate tools and integrations you maintain in the decision layer.
Examine inputs, state and execution traces to understand how a decision was reached. Repeat runs against fixed inputs and state to investigate unexpected behavior.
Make operating constraints explicit and retain the reasoning behind decisions. Give engineering and compliance teams evidence for safety and regulatory reviews.
A compact CPU-first runtime helps keep memory, compute and energy overhead under control, without requiring a GPU cluster for the decision layer.
Install the Holo Engine MCP and connect it to your AI assistant. Describe the skill you need, and let the assistant guide the training workflow.
Describe the behavior, the goal and the operating constraints.
Builds the training workflow, calls engine tools and checks the results.
Learns task models from demonstrations and sensor data.
Save and reuse learned skills. Refine them as the task changes.
Holo Engine brings together more than 30 functions, from discovering hidden patterns to solving SAT problems. Combine them to extend what your autonomous systems can do.
Recognize the load and contact state from sensor features.
Estimate how the grip responds to the observed load.
Choose a grip setting within the stated force limits.
Add new skills, reuse what’s learned, and adapt to changing tasks—without starting from scratch.

Choose the integration that fits your robot and your existing stack. Pricing is tailored to each project.
Add a verification layer to your existing VLA or neural control stack. Check proposed actions against explicit constraints before execution.
Teach your robot task-specific skills and integrate them into your existing control system.
Bring learning, reasoning, action selection and verification together in one runtime tailored to your robot.
Tell us what your robot needs to do. Let’s discuss a pilot.