Deployment strategy
Polymorphic
substrate
deployment
The Karma Capsule Network is substrate-agnostic by design. Classical silicon, neuromorphic chips, photonic processors, and gate-model quantum nodes each serve a distinct role in the capsule lifecycle — from Primary Capsule formation through to Cosmic layer sovereign verification.
Deployment scales across three hardware tiers — Sandbox, Transient Scale, and Sigma Terminal — each unlocking progressively deeper layers of the KCN architecture and broader capsule capacity.
Global deployment corridors
Substrate matrix
Six substrates — one capsule
Each substrate type maps to a specific KCN layer and capsule role. The polymorphic architecture means a single Karma Capsule can traverse all six substrate types across its lifecycle — from initial formation on classical silicon to sovereign verification on gate-model quantum hardware.
Substrate selection is determined by the capsule's current lifecycle phase and the sovereignty requirements of the asset class being anchored.
6 substrate typesHardware tiers
Three tiers — one sovereign architecture
Each tier unlocks progressively deeper KCN layers. Sandbox runs on classical silicon for development and testing. Transient Scale introduces neuromorphic co-processors and live RL environments. Sigma Terminal reaches the Cosmic layer through photonic and quantum gate-model compute.
Tier I
Sandbox
Classical compute — entry deployment
The Sandbox tier runs KCN on classical silicon — CPU/GPU clusters with standard NVMe storage. Suitable for development, integration testing, and small-scale Karma Loop simulation. No physical Hardened Substrate binding. All capsule states are ephemeral.
Tier II
Transient Scale
Hybrid classical + neuromorphic
Transient Scale introduces neuromorphic co-processors for spike-encoded state routing. The dual-loop RL environment runs live and simulated environments in parallel — the Actor–Critic–Audience triad operates across both. Physical Hardened Substrate binding is available at this tier.
Tier III
Sigma Terminal
Full-stack sovereign compute
Sigma Terminal is the sovereign compute ceiling. Photonic processors handle high-bandwidth tensor routing; gate-model quantum nodes execute Blind Quantum Computing for authority verification without state exposure. The Karma Capsule reaches the Cosmic layer — connected to the Global Digital Twin Ledger.
Sigma Terminal protocol
Blind Quantum
Computing
Universal Blind Quantum Computation (UBQC) is the cryptographic protocol that enables the Sigma Terminal tier to verify sovereign authority claims without ever exposing the underlying asset state to the compute node.
The client prepares an encrypted quantum circuit. The server executes it blindly — it cannot infer what was computed, for whom, or what the result means. Only the client can decrypt the verification outcome. The Karma Capsule's Cosmic layer records the event without recording the content.
This is the technical foundation of KCN's "Outcome-as-a-Substrate" paradigm — the computation produces a sovereign outcome, not a data record.
The client prepares a quantum circuit encoding the computation to be verified. The circuit is encrypted using a one-time pad of random rotation angles — the server receives only the encrypted instruction set, never the plaintext computation.
The encrypted circuit is delegated to the Sigma Terminal quantum node. The node executes the computation on its gate-model quantum hardware without any ability to infer the underlying data or authority claim being verified.
The quantum node performs the computation in superposition. Measurement collapses the state to a classical result — but because the input was encrypted, the node cannot reconstruct what was computed or for whom.
The classical result is returned to the client. The client decrypts using their private rotation key and verifies the authority claim. The Karma Capsule's Cosmic layer records the verification event on the Global Digital Twin Ledger without exposing the underlying asset state.
The verified authority claim is propagated through the KCN's Dynamic Querying Algorithm. The Hardened Substrate molecule receives the confirmation signal — physical asset sovereignty is established without any third party ever seeing the asset's state.
Proceed
From substrate to sovereign outcome
The full KCN architecture specification — including tensor axis definitions, Karma Loop phase tables, and Sigma collapse sequences — is available in the V2.0 spec document.