Quantum‑resistant authentication with unlimited throughput

PQDSM performs zero‑latency authentication with proofs embedded directly in block verification. There is no per‑auth device bottleneck: verification scales with chain capacity and your webhook cluster. No secret leaves silicon.

Unlimited auth capacity Webhook/IPFS proof model Zero latency
Live schematic (placeholder)
24 PetaOPS

FPGA‑GPU hybrid fabric • Deterministic latency • Confidential compute

What is PQDSM?

Post‑Quantum Deterministic Security Module (PQDSM) is a hardware‑native authentication and signing system engineered for quantum resilience. In verifier‑only mode, validation occurs against chain data (e.g., block headers) and immutable pointers in NFT/IPFS, so the device transmits no payloads and auth throughput is not device‑bound.

Why it matters

  • Protects keys and auth flows from future quantum attacks.
  • Zero‑bandwidth authentication: nothing sensitive leaves the silicon.
  • Composable with EVM and non‑EVM chains; exchange‑grade scale.

Where it fits

  • Exchanges, custody, and HSM‑style vaults.
  • Enterprise SSO / workforce auth with crypto‑grade security.
  • IoT/edge devices requiring low‑leakage identity.

Core capabilities

  • Polygon‑coordinate traversal engine @ 500 MHz FPGA
  • Zero‑bandwidth challenge/response
  • Verifier‑only flow (webhook + block/NFT pointers); device emits no payload
  • On‑chain attestations & verifiable logs

Developer experience

  • gRPC/REST local API with WebSocket streams
  • Client SDKs: JS/TS, Python, Go (stubs shown below)
  • Infra as code samples (Terraform, Ansible)

Quick start (TypeScript)

// npm i @pqdsm/sdk
import { PQDSM } from "@pqdsm/sdk";
const p = new PQDSM({ host: "http://localhost:9740" });
const session = await p.begin({ policy: "zero-bandwidth" });
const proof = await p.sign({ subject: "0xWallet", nonce: crypto.randomUUID() });
await p.verifyOnChain({ proof, chainId: 8453 });

High‑level design

Split‑plane design with FPGA control fabric (traversal math, timing vectors) and GPU/CPU auxiliaries for orchestration and analytics. Secrets are computed and consumed within the FPGA plane; host receives only proofs.

Data flow

  1. Client opens session → verifier allocates ephemeral lane.
  2. FPGA runs polygon traversal → emits proof blob (or verifier‑only consumes chain data).
  3. Host validates proof → optional on‑chain verify.

Performance envelope

MetricTarget
Auth latency (p50)~0 (block‑native)
Throughput / deviceEffectively unbounded; bounded by verifier/webhook concurrency and chain finality
Device power< 12 W typical

Practical limit formula

max_auths_per_sec ≈ webhook_workers × verifies_per_sec × replicas
// Example: 32 workers × 200 v/s × 10 replicas ≈ 64,000 auth/s
// Finality of target chain may dominate user‑visible SLA.

Appliance

  • Desk or 6U rack options
  • FPGA primary • GPU assist
  • Dual NIC (1/10/25G), TPM 2.0
  • Secure boot, signed firmware updates

Device SKU guide

SKUUse caseNotes
Edge‑LitePOC, labsUSB‑C powered, fanless
Core‑RackExchange / Custody6U rack, hot‑swap PSU
Max‑ClusterLarge enterpriseHA pair, multi‑tenant

Auth protocol (summary)

Challenge/response with polygon‑coordinate traversals. Secrets live and die on device; only proofs and attestations are exported. Compatible with on‑chain verify functions for settlement workflows.

Example on‑chain verifier (Solidity)

// SPDX-License-Identifier: MIT
pragma solidity ^0.8.24;
interface IPQDSM { function verify(bytes calldata proof, address subject) external view returns (bool); }
contract Verifier {
  IPQDSM public device; constructor(address dev){ device = IPQDSM(dev); }
  function check(bytes calldata proof, address who) external view returns (bool) { return device.verify(proof, who); }
}

Simple pricing

  • Device: from $50,000 est. per unit
  • Support: tiered SLAs for enterprise

Typical pilot

  • 2 devices • 90‑day evaluation
  • SDK integration & solution architect hours
  • Optional on‑prem cluster deployment

Contracts & compliance

  • Standard MSA + DPA (GDPR/CCPA)
  • Security schedule (firmware signing, SBOM, vuln disclosure)
  • Optional BAA for healthcare use

Templates

DocumentDescription
MSAMaster services agreement
DPAData processing addendum
SOC2 mappingControl alignment guide

Security model

  • Secrets never serialized; no host visibility
  • All updates signed; measured boot
  • Tamper detection and fuse‑lock

Testing & assurance

  • Fuzzed host API and parsers
  • Independent pentests (report available under NDA)
  • Red‑team exercises per release train

Frequently asked

Q: Can PQDSM run fully air‑gapped?
A: Yes. Proofs can be exported via unidirectional link or sneaker‑net for offline verification flows.

Q: Which chains are supported?
A: EVM first (Solidity verifiers). Additional chains via adaptor interfaces.

Talk to sales

Email: info@quantumarmorsystems.com

Phone: +1 (203) 921‑6991

https://www.quantumarmorsystems.com

Request a pilot kit or enterprise briefing.

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