Single-Binary Operation
A Remzar node is designed to combine wallet generation, encrypted key storage, database setup, P2P networking, validator registration, transfers, chain inspection, diagnostics, and audit exports into one guided node workflow.
Remzar is an energy-efficient, post-quantum-oriented Layer-1 blockchain designed for single-binary operation, bounded validation, deterministic Proof of Registry consensus, transparent issuance, and local auditability.
Remzar is designed around a practical principle: public blockchain infrastructure should be understandable, locally operable, and directly verifiable without depending on hidden services or energy-race mining.
A Remzar node is designed to combine wallet generation, encrypted key storage, database setup, P2P networking, validator registration, transfers, chain inspection, diagnostics, and audit exports into one guided node workflow.
Proof of Registry selects eligible validators from an explicit registry using deterministic slot timing, leader selection, heartbeat renewal, lease expiry, quarantine, and failover rules.
Blocks, transactions, rewards, logs, Merkle roots, validator data, and cryptographic fingerprints can be inspected and exported through built-in audit tooling.
Remzar avoids open-ended mining competition and keeps core protocol behavior visible through explicit constants. Block size, transaction counts, validator timing, reward issuance, storage boundaries, and validation rules are designed to remain predictable and inspectable.
The result is a chain architecture focused on direct operation: one program, one chain, bounded rules, deterministic participation, post-quantum-oriented cryptography, and repeatable auditability.
Remzar keeps the base protocol focused: register, participate, verify, and audit through deterministic rules and bounded local state.
The node workflow is designed to initialize local storage, create or load wallets, connect to peers, inspect the chain, and manage local operator tasks from one executable.
Validators participate through an explicit registry. Eligibility is controlled through deterministic timing, warmup, quarantine, renewal, lease expiry, and peer-liveness rules.
Blocks are committed through Merkle roots and attested at the block level. Operators can inspect chain data and export structured audit artifacts without relying entirely on third-party explorers.
Remzar commits transaction batches through Merkle roots and signs the block-level commitment once with ML-DSA-65. This keeps post-quantum signature verification bounded at the block level instead of requiring a post-quantum signature verification for every transaction in a block.
The protocol uses post-quantum-oriented block attestation so validators can authenticate block-batch commitments under a modern cryptographic design.
Transactions are hashed into transaction IDs, committed into a Merkle root, and validated against bounded block and transaction limits.
Wallet storage is designed around local ownership, passphrase hardening, authenticated encryption, and careful handling of sensitive key material.
Remzar’s current monetary design has no protocol-level founder mint, treasury mint, development reserve, staking bucket, or gaming allocation. Supply enters circulation through validator block rewards until the 200 million ZAR maximum supply is reached.
The reward ladder steps down through fixed 500,000-block eras and then stabilizes at 1 ZAR per block until the maximum supply is exhausted.
Remzar is built as a sovereign base layer for verified data, local ownership, auditable settlement, and protocol-level transparency.
Hash files or data objects, anchor records, and produce receipts that can later prove existence within a committed chain context.
Export chain ranges, logs, transaction summaries, rewards, validator identifiers, and cryptographic fingerprints for direct review.
Remzar’s roadmap keeps the base layer conservative while allowing optional mini-chains, sidechains, and future anchored verification tools to develop around it.
Remzar’s goal is not to claim unlimited scalability or completed decentralization. Its goal is to preserve a disciplined base layer: bounded validation, deterministic consensus, transparent issuance, local auditability, and a clear path for continued hardening.
Explore the full protocol design, including node operation, Proof of Registry consensus, cryptographic stack, block model, storage layout, economics, benchmarks, security boundaries, and roadmap.