Scheduler
Priority classes, backpressure and lock-free worker slots. Dispatch by policy, not arrival order.
Agent graphs compile to native artefacts. A trusted core schedules work, enforces capabilities and records every decision. Nothing else sits between the agent and the machine.
The supervisor schedules, checks and appends. That is the whole trusted core. Agent behaviour lives outside it, so the attack surface stays small and the hot path stays predictable.
Typed graphs, tools and state resolved ahead of time.
Every agent-to-tool edge proven. Escalation fails the build.
Scheduler, shared arenas, policy tables and ledger.
The same contract on constrained ARM64 hardware.
seccomp-bpf · Landlock · cgroup v2 enforcement.
The runtime ships as a trusted core plus six complementary engines. They are not libraries to wire together at deploy time; they share one scheduler, one memory model and one ledger.
Priority classes, backpressure and lock-free worker slots. Dispatch by policy, not arrival order.
Per-tool grants with an expiry and a revocation path. No ambient credentials to inherit.
Rules lower to decision tables at build time. Evaluation is a lookup, not a gateway hop.
Working state in shared arenas, epoch checkpoints for replay, parent-child retrieval for context.
One append-only record per dispatch. Export to SIEM, WORM storage or your own evidence store.
Rust on ARM64 for robotics, controllers and field hardware. Same capability model, smaller footprint.
No interpreter between the agent and the machine. Each layer runs in the language that fits its constraints — throughput, footprint, interface velocity or model quality.
Scheduler, shared arenas, policy tables and ledger. Compiled to native x86-64 with no per-step serialization.
The same execution contract on constrained ARM64 hardware. Memory safety without a garbage collector.
Control plane, operator console and SDK surfaces. Typed end to end, kept out of the hot path.
Training, evaluation and data pipelines run offline. Only the compiled agent artefact reaches production.
Compilation is where most of the security model is decided. By the time an agent runs, its capability graph has already been proven.
Agents, tools and state are declared as typed definitions. Graphs resolve at build time; no interpreter is needed in the hot path.
Static analysis proves each agent-to-tool edge. A capability escalation path fails the build before it can reach an environment.
Ahead-of-time instantiation produces one static artefact per target. No VM, no interpreter, no runtime glue.
The same contract on Kubernetes, bare metal and ARM64 edge devices — air-gapped datacenter to constrained hardware.
Every dispatch appends a hash-chained record. Epoch-ordered replay proves the same decisions in the same order.
Each capability is enforced where it acts — at build time, in the kernel, in the scheduler or on the dispatch path.
ReAct, plan-execute, debate, consensus, map-reduce, hierarchies and swarms as compiled types.
Typed messages over shared memory, ~2.5 µs round trip, with no broker in the path.
Skills admitted at call time and capability-checked before they execute.
Per-agent limits and lock-free worker slots, with no global scheduler lock.
CPU, memory and token ceilings per agent, enforced by cgroup v2 and the scheduler.
Admission tightens on queue pressure before latency collapses.
Dispatch by priority class, not by arrival order.
One registry of agents, capabilities and grants that the runtime checks against.
seccomp-bpf syscalls, Landlock paths and cgroup v2 limits per agent.
Policy compiled to decision tables at build time and evaluated in dispatch.
Data-class and egress checks before any tool or model call leaves the agent boundary.
Working state in shared arenas, epoch checkpoints for replay, parent-child retrieval for context.
Hash-chained record per decision, exportable to your SIEM or WORM storage.
The runtime produces the evidence; your DPIA, QMS and conformity assessment consume it. No vendor can certify a deployer's compliance — but the evidence should not be a reconstruction project.
Per-agent purpose and data-scope manifest compiled from the typed definition, with tool-level data classes and retention fields.
Signed build manifest: seccomp-bpf syscall set, Landlock path rules, cgroup v2 ceilings and capability tokens granted per tool.
Hash-chained append-only ledger, one record per dispatch: agent, tool, policy verdict, epoch and timestamp.
Epoch-ordered replay bundle and a re-execution diff proving the same decisions in the same order.
Approval, override and revocation events written to the same ledger, with per-tool grants that expire.
The same engine runs from an air-gapped datacenter to a low-power controller. The deployment model changes; the contract does not.
Offline install, no telemetry and no egress. The runtime, policy and ledger stay inside the perimeter.
Bring the engine into your VPC or private cloud while keeping the control plane and evidence store under your keys.
Rust on ARM64 for robotics and industrial controllers, with the same capability and evidence model.
Bring a real workload, a deployment target and an audit requirement. We will scope the pilot around those, not a generic demo.