Crowdfunding Launch: May 2026

Asynchronous computing for systems that must endure.

Volatco is a Forth-native, massively parallel platform designed for real-time control, robotics, edge AI, and long-lived autonomous systems.

  • 144 independent F18A cores
  • Up to 96B ops/s
  • ~13 uW idle to ~972 mW peak (~650 mW typical upper draw)
  • One-gate start/stop latency (~100 ps)
  • ~7 pJ per instruction
  • Event-driven compute - power used only when necessary

Why Volatco

Volatco avoids opaque cloud lock-in and fragile abstraction layers. It keeps computation close to hardware and close to human reasoning.

Massive parallelism

144 autonomous cores execute concurrent workloads without a central clock bottleneck.

Ultra-low energy profile

Built for always-on systems, resilient edge devices, and power-constrained deployments.

100-year ethic

Repairable, teachable, and understandable computing designed against planned obsolescence.

Technical Snapshot

  • Architecture: ISLP GA144-based
  • Cores: 144 x 18-bit F18A processing nodes
  • Peak compute: Up to 96 billion ops/s
  • Energy is used only when necessary
  • Power per F18A: 90 nW idle leakage to 6.8 mW active
  • Power range per chip: 13 uW to 972 mW
  • Start and stop: One-gate delay (100 ps)
  • Per-instruction energy: ~7 pJ
  • No OS to waste available time with unnecessary housekeeping
  • Say goodbye to garbage collection!

Built for control and adaptation

Volatco is intended for machine-intelligent cybernetic systems where deterministic behavior, low latency, and graceful degradation are more valuable than cloud-scale dependency, adding innumerable points of failure.

Each F18A core can move between active and inactive states in a single gate delay, so systems can allocate compute only when needed instead of burning power continuously. That makes the platform a practical fit for long-running autonomous controllers, distributed sensing nodes, and embodied AI experiments that must remain responsive under tight energy limits.

Research Spotlight

Agentic AI: Embodied Learning Model

The ideal research path frames agency through embodied interaction, not passive observation. In this view, an agent does not treat inputs as direct world representation; it runs experiments, receives results, and updates behavior from those interactions. This is the essence of a truly self-tuning controller, not algorithmic.

The foundational module describes a cycle of anticipation, result comparison, and intrinsic states such as frustrated, self-satisfied, and bored, which drives experiment-switching and developmental learning over time.

See the source pathway and branches: github.com/cartheur/ideal.

Where It Fits

Robotics

Low-latency multi-sensor coordination and closed-loop control for embodied systems.

Drones

Fast distributed control loops for navigation, sensing, and mission autonomy at the edge.

Energy monitoring

Adaptive monitoring for microgrids, remote sites, and safety-critical power systems.

Edge AI

Parallel, local inference pipelines without forced cloud round-trips.

Off-grid and survival use

Can run in field setups powered only by a small solar panel and compact battery.

Autonomous research systems

Supports long-running experimental platforms that must keep operating without cloud dependency.

Pre-Launch FAQ

Can I buy right now?

Not yet. Purchases will open through the crowdfunding campaign in May 2026.

Is this a finished webshop?

No. This site currently focuses on education and campaign conversion before full ecommerce rollout.

Where can I ask technical questions?

Join the community on Discord: Volatco.