BMIC is the most advanced quantum-secure blockchain wallet and ecosystem. It uses post-quantum cryptography (PQC) algorithms including CRYSTALS-Kyber and AES-256-PQC to protect digital assets against current and future quantum computing threats.

What is the BMIC token price?

The BMIC token is currently available in the presale at $0.049999 USD. The price increases progressively through each presale phase.

What is post-quantum cryptography (PQC)?

Post-quantum cryptography (PQC) refers to cryptographic algorithms designed to be secure against attacks from quantum computers. BMIC uses CRYSTALS-Kyber — a NIST-standardized PQC algorithm — and AES-256-PQC to future-proof digital asset security.

How does BMIC protect against quantum attacks?

BMIC implements CRYSTALS-Kyber lattice-based cryptography and AES-256-PQC encryption at every layer of the protocol, making it mathematically resistant to both classical and quantum computing attacks including Shor's algorithm.

What blockchain does BMIC run on?

BMIC is built on the Ethereum network, utilizing ERC-4337 smart account abstraction, with quantum-resistant cryptographic layers applied on top to provide next-generation security.

How can I buy BMIC tokens?

You can buy BMIC tokens directly on bmic.ai using ETH, USDT, USDC, or a credit/debit card. Connect your wallet, enter the amount, and click 'Proceed to Pay' to participate in the presale.

Whitepaper

BMIC technical specification

BMIC is a post-quantum cryptocurrency built on NIST-ratified standards (FIPS 203 / 204 / 205), running on Ethereum with ERC-4337 smart account architecture, and integrated with two enterprise quantum-compute platforms (IBM Quantum and Origin Quantum). This page summarises the technical specification.

1. Threat model

Classical cryptocurrencies use elliptic-curve digital signatures (ECDSA) and elliptic-curve Diffie-Hellman (ECDH) for transaction authorisation and key exchange. Both are mathematically broken by Shor's algorithm executed on a sufficiently large quantum computer. The expected timeline for "Q-Day" — the moment a cryptographically-relevant quantum computer becomes available — has compressed sharply: IBM's 1,121-qubit Condor processor (2023), continuing scaling roadmaps at IBM, Google, and Origin Quantum, and DARPA-style "harvest-now-decrypt-later" (HNDL) attack patterns make the threat operationally relevant today, not in 2050.

BMIC is built for the post-Q-Day cryptocurrency landscape. Every cryptographic primitive used in BMIC is selected from the NIST Post-Quantum Cryptography programme's ratified standards.

2. Cryptographic primitives

CRYSTALS-Kyber (ML-KEM, FIPS 203) — module-lattice-based key encapsulation. Used for ephemeral key exchange and HNDL-resistant data transport.
CRYSTALS-Dilithium (ML-DSA, FIPS 204) — module-lattice-based digital signature scheme. Used for transaction signing, replacing ECDSA.
SPHINCS+ (SLH-DSA, FIPS 205) — stateless hash-based signature scheme. Used as a conservative-security signature option for high-value or long-lived signing operations.
AES-256 (PQC-hardened) — symmetric encryption with key sizes resistant to Grover's algorithm (128-bit effective security against quantum attack).
SHA-3 / SHAKE — hash functions used in commitment schemes and Merkle trees, selected for post-quantum security margins.

Implementation traces directly to the NIST published standards. See the NIST PQC project page for primary sources.

3. Account architecture (ERC-4337)

BMIC wallets are not externally-owned accounts (EOAs). They are smart contract accounts under ERC-4337 account abstraction. This delivers three properties critical to a post-quantum cryptocurrency:

Signature-scheme agility — the account can verify multiple signature schemes (Dilithium, SPHINCS+, even classical ECDSA for backwards compatibility), and the verification logic can be upgraded.
Migration path — a wallet that started with classical signatures can be upgraded to PQC without a manual seed-phrase migration. The account abstraction layer handles signer rotation atomically.
Programmable security policies — multi-sig, social recovery, spending limits, session keys — all expressible in the account contract without a bespoke wallet.

4. Quantum-compute integration

BMIC's roadmap includes a decentralized quantum-compute network. The current implementation provides direct, free access for token holders to two enterprise quantum-compute platforms:

IBM Quantum — Qiskit-based. Token holders can submit quantum circuits to IBM's enterprise quantum processors via the BMIC platform integration. Used today by research teams developing quantum algorithms and validating quantum-resistance research.
Origin Quantum — PyQPanda-based. Origin Quantum operates one of the largest quantum-compute platforms outside the US, serving Asian research institutions.

See /quantum-access/ for the full quantum-compute access programme.

5. Wallet vulnerability checker

BMIC ships a public tool — free for everyone, with extended history for holders — that scans an Ethereum-format public address and returns a quantum-risk grade based on the wallet's signature exposure history. The check considers:

Whether the wallet has ever signed a transaction (revealing the public key, which under HNDL becomes vulnerable post-Q-Day)
Public-key reuse across multiple transactions (compounds exposure)
Balance-at-risk if a quantum computer were available today against the historical signatures
Migration path recommendations

Run the wallet checker →

6. Audit & verification

The BMIC token and presale contracts have been independently audited. Full audit report (PDF) covers attack-surface analysis, access-control review, reentrancy, integer-overflow, signature replay, ownership, and pause/upgrade authority.

Download smart contract audit (PDF) →