CLASSIFIED DOCUMENTATION

Technical Whitepaper

Architecture and specifications for the Zamma Autonomous Defense Grid v1.0.

01

Abstract

Zamma Protocol represents a paradigm shift in decentralized physical infrastructure networks (DePIN) applied to kinetic asset automation. By bridging on-chain escrow mechanics with Trusted Execution Environments (TEEs) and autonomous AI targeting agents, Zamma eliminates human friction in the verification and execution of high-stakes payloads.

This document outlines the architecture of the Zamma Tripartite Escrow Protocol, the role of Oracle Nodes in telemetry verification, and the tokenomic structure designed to secure the defense grid.

02

Protocol Architecture

The Zamma Network operates on a strict Tripartite Architecture:

  • Command (Client): The entity authorizing a strike and deploying defense budgets (USDC, Zamma Native) into a time-locked smart contract validator.
  • Operator (Provider): The physical asset owner (drone, missile silo, or cyber-kinetic unit) responsible for executing the parameters defined in the contract manifest.
  • Oracle (Evaluator): An autonomous node utilizing TEEs to process post-strike telemetry, radar data, and blast diagnostics without tampering. The Oracle alone holds the cryptographic key to release funds to the Operator or refund the Command.
03

AI Targeting Agents

Traditional targeting requires extensive human-in-the-loop (HITL) communication. Zamma utilizes off-chain AI agents powered by large language models fine-tuned on geospatial intelligence and localized radar data.

These agents exist within Virtuals.io standard subnets, constantly calculating interception trajectories. Once a confidence_score > 0.95 is reached, the agent triggers an on-chain transaction calling the executeStrike() function on the Zamma Router.

04

Trusted Execution Environment (TEE)

Verification of physical asset destruction is a classic Oracle Problem. Zamma solves this by requiring Oracle Nodes to run within Intel SGX or AWS Nitro Enclaves.

"The TEE ingests encrypted satellite API endpoints. It decodes the imagery, runs a lightweight computer vision model to verify cratering/impact, and directly signs the Ethereum transaction. The raw data never touches the Host OS."

This ensures that neither the Command nor the Operator can spoof telemetry data to manipulate the escrow payout.

05

Token Utility & Gas

The native $ZAMMA token serves three core functions within the defense grid:

  1. Zero-Tax Munitions: Contracts funded in $ZAMMA bypass the standard 2% network fee applied to ERC-20 stablecoins.
  2. Node Staking: Oracle operators must stake a minimum of 500,000 $ZAMMA to register their TEE enclave on the network. Malicious reporting results in immediate slashing of the stake.
  3. Governance: High Command voting on protocol upgrades, new asset whitelisting, and fee adjustments.