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GENESIS LAUNCH

2 27 2027

Be there from day one.

Open mining for everyone — February 27, 2027

Countdown to February 27, 2027, 00:00 UTC.

GET LAUNCH UPDATES

Website launch date December 12, 2026.

Imagine helping secure a digital network—and having a chance to earn new coins for doing it. That’s mining. Zeevcoin is built around that open invitation, with quantum-resistant security protecting every transaction. You can be part of Zeevcoin’s story from day one—and help bring it to life.

WHAT IS ZEEVCOIN?

Mine like 2009. Secure like 2030.

Zeevcoin is a payments-oriented Proof-of-Work Layer 1 built around open participation, straightforward protocol rules, and post-quantum transaction signatures from genesis. Coins begin with mining at block one—without a pre-mine, ICO, SAFT, public token sale, or insider genesis allocation.

ConsensusProof of Work

Open mining and independent verification on a UTXO-based Layer 1.

SignaturesFalcon from Genesis

Every base-layer transaction uses post-quantum Falcon signatures from block one.

Block Target20 seconds

A fast target cadence designed for payments while preserving Proof-of-Work settlement.

Block Envelope2 MB / 8 MB

2 MB base size with an 8 MB block-weight envelope.

Throughput Model~62.5 TPS

Theoretical throughput under modeled simple-payment assumptions.

DifficultyZeevShield

Modified LWMA v3 using a 60-block window plus a 6-block burst view.

RelayLZ4 in flight

Header-first propagation with LZ4 compression for efficient block relay.

Base Fee200 Planck / KB

200 Planck per 1,000 serialized bytes, subject to node relay minimums.

Layered block digest

Zeevcoin’s published block-digest design runs BLAKE2b-512 → SHA-3-256 → BLAKE2b-256. The goal is a clear, independently verifiable Proof-of-Work chain rather than dependence on another network.

Wallet protection

ZeevSeed uses Argon2id with ChaCha20-Poly1305 for protected wallet-seed storage. Key derivation uses SHA-3-512 / SHAKE-256.

Fair launch posture

ZEEV is issued through mining under programmatic protocol rules. There is no pre-mine, ICO, SAFT, public token sale, insider genesis allocation, yield program, dividend, or holder distribution.

Genesis

Mainnet genesis is scheduled for February 27, 2027. The countdown above is the public clock toward block one.

The future moves fast.
Security should move faster.

Digital money needs protection built for a changing world. Zeevcoin is designed with quantum-resistant signatures from the very beginning.

WHY IT MATTERS

A new kind of computer.
A different kind of risk.

Quantum computing began in 1998 with a simple two-qubit experiment. By 2026, IBM’s Nighthawk r2 could process more than 100,000 quantum circuits per second—25 times the throughput of its Heron processor.

19982 QUBITSProof of concept
2026100K+Circuits per second
NEXTFAULT-TOLERANTThe threshold that matters

Progress is no longer coming from quantum hardware alone. Better processors, rapidly advancing AI, GPU-accelerated supercomputing, and quantum error correction are converging to help researchers build larger, more reliable systems.

A sufficiently capable quantum computer could turn an exposed public key into a path toward the private key behind it.

That matters directly to cryptocurrency. Many blockchains protect transactions with elliptic-curve digital signatures. Today, deriving a private key from its public key is effectively impossible with conventional computers. Shor’s algorithm could change that equation on a sufficiently large, fault-tolerant quantum computer—potentially allowing an attacker to recover a private key and authorize a transaction that appears legitimate to the network.

PUBLIC KEYPRIVATE KEY

With today’s common systems, the public key should not reveal the secret. A sufficiently powerful quantum computer could change that.

The goal is simple: keep your permission yours.

No public quantum computer can do this today, and there is no confirmed date for that capability. But cryptographic migrations take years. Quantum resistance is not something to begin after the threat arrives.

Computers are changing.

Quantum computers solve some problems in a different way. As they grow more capable, some of today’s digital locks will need replacing.

Permission needs protection.

A digital signature proves that you approved a payment. A powerful enough quantum computer could forge signatures used by many networks today.

Public keys stay public.

Some transactions reveal a public key. If an attacker can later work out its secret key, funds still controlled by that key could be at risk.

Preparation takes time.

Changing a network means updating software, wallets, and the people who use them. Planning early gives everyone more room to get it right.

The path to Falcon
before Genesis

  1. The groundwork2016

    A global search begins.

    NIST starts a public effort to find new ways to protect information against future quantum computers.

    NIST project history
  2. A new direction2022

    Falcon is selected.

    NIST selects Falcon as one of the digital-signature designs to move toward post-quantum standardization.

    NIST selection announcement
  3. From research to standards2024

    The first standards arrive.

    NIST publishes its first three post-quantum standards. Falcon follows a separate standardization path.

    NIST standards announcement
  4. The Zeevcoin approachGENESIS

    Built in from the start.

    Zeevcoin’s design uses Falcon signatures from its first block. Quantum-resistant payment signatures are part of the foundation.

    Zeevcoin protocol overview