Trust theMath.
The coordination layer for a world where humans and AI exchange everything — and only mathematics can be trusted.
When a problem requires endless patches, you’re not solving it — you’re building on a pedestal.
L1s couldn’t scale, so we built L2s. L2s couldn’t compose, so we built L3s. Each layer adds trust assumptions, latency, and complexity. We decided to stop patching and rebuild what a blockchain is from first principles. ring0 is a single execution layer where every transaction returns a mathematical proof of ownership — verifiable on any device, irrevocable by any authority. In a world where AI agents exchange information at scale and anyone can publish anything, the question isn’t speed or throughput. It’s: who verifies? We believe the answer is mathematics — not institutions, not committees, not trusted third parties. A layer where humans and AI agents coordinate, inspect, and compose — and the only thing you need to trust is the proof.
Applications
What You Can Build
A general-purpose Layer-1 with real-time proofs, privacy when you need it, and over a million transactions per second.
Decentralized Exchanges
Order books, AMMs, and perpetual futures with instant settlement. Proofs confirm every trade. Optional private order flow eliminates front-running.
Lending & Borrowing
Collateralized lending with protocol-enforced liquidations. Positions can be public or private. Real-time proof of solvency for every pool.
Payments & Streaming
Instant transfers, streaming payments, and micropayments. Native state channels settle at the speed of a signature — no VM overhead.
Gaming & Digital Assets
On-chain game state with provably fair mechanics. NFTs, in-game economies, and player-owned assets with >1M TPS throughput for real-time interaction.
Institutional Finance
Compliant custody with proof of reserves. Real-time attestation for auditors. Programmable settlement for derivatives, structured products, and fund administration.
Identity & Credentials
Prove attributes without revealing underlying data. Age verification, accreditation, KYC status — all verifiable on-chain without exposing personal information.
Architecture
Multi-Core World Computer
ring0 scales like a modern CPU: by adding independent execution environments rather than demanding faster hardware from every participant. Each zone processes transactions in parallel, and the network grows by adding zones — not by pushing hardware requirements higher.
Atomicity Zones
Parallel Execution Environments
Each zone operates independently with its own state, mempool, and block producer. Transactions within a zone finalize in a single slot. Cross-zone messages settle in two. This architecture delivers massive parallelism without the contention overhead of shared-state systems.
Heterogeneous Validation
Anyone Can Verify
Powerful block producers run the heavy computation and generate proofs. Lightweight validators — running on any modern laptop or phone — verify those proofs without re-executing anything. The result: true decentralization at a fraction of the cost. ring0 targets under $1M/year in total validator costs versus Ethereum’s $50M+.
Parallel Atomicity Zones
Single-slot finality intra-zone · Two-slot cross-zone
Algebraic Foundation
The Five Pillars
Five purpose-built subsystems, each replacing a conventional blockchain component with a provably superior alternative.
P1
MLE-DB
State storage reimagined. 2,929× more efficient than hash-tree approaches. Point mutations in 5–7 ns. Lookups under 90 ns. Crash-safe with zero compaction overhead and 1.0× write amplification. The biggest bottleneck in zero-knowledge proving — eliminated.
P2
Jolt Pro GR
A zkVM that proves every transaction is correct in real time. Native 64-bit arithmetic with 5–7× SIMD acceleration. No trusted setup, no ceremony. 127-bit security, fully formally verified. Transparent commitments from block one.
P3
Optimum
RLNC-powered gossip that saturates the network’s full capacity. Any subset of data fragments can reconstruct the original message. Relay nodes forward without decoding. Provably optimal — no gossip protocol can achieve higher throughput.
P4
HSS-CoFHE
Collaborative encryption 3,506× faster than classical FHE. Validators jointly compute over encrypted data — no single party sees the plaintext. Threshold decryption ensures privacy is structural, not optional.
P5
FAFO
Over 1.1M TPS on a single 96-core machine. Automatic conflict detection and parallel scheduling — no developer annotations needed. Zero speculative rollbacks. 91% cost reduction versus sharded execution.
One unified foundation. Five pillars. Every claim formally verified.
Verification Asymmetry
Heterogeneous Architecture
Two classes of participants. Radically different jobs. Maximum decentralization.
Block Producer
Execute + Prove
Few (tens to hundreds)
- Runs transactions and generates mathematical proofs
- GPU-powered for maximum proving throughput
- Updates and maintains the network’s state
- Only a few dozen needed to serve the entire network
Block Validator
Verify Only
Many (potentially millions)
- Verifies proofs on any laptop, phone, or consumer device
- Never re-executes your transactions — only checks the proof
- Votes on block validity through delegated consensus
- Near-zero cost to participate — true decentralization
<$1M/yr
ring0 Validators
>$50M/yr
Ethereum
Benchmarks
By the Numbers
2,929×
More Efficient State
Nearly 3,000 times more efficient state storage than conventional approaches. MLE-DB eliminates the biggest bottleneck in zero-knowledge proving.
3,506×
Faster Privacy
Private transactions at the speed of public ones. HSS-CoFHE makes encryption 3,500 times faster than classical approaches.
>1.1M
Transactions/Second
More throughput than every existing blockchain combined. FAFO parallelizes execution automatically with zero rollbacks.
127-bit
Composed Security
Formally verified across every subsystem. 111 machine-checked proofs, zero unproven assumptions. The most formally verified blockchain ever built.
Live Throughput
Finality Comparison
Security Model
Network Participants
Block Producers
- ✓Run the network’s computation
- ✓Generate mathematical proofs of every transaction
×Forge proofs or censor beyond one epoch
Block Validators
- ✓Verify everything on a regular computer
- ✓Vote on block validity as senators
×See transaction content or re-execute anything
Senators
- ✓Represent token holders in governance
- ✓Finalize blocks with supermajority consensus
×Act without delegated stake from token holders
Flexnodes
- ✓Store cryptographically fragmented data across the network
- ✓Serve t-of-n retrieval requests for data availability
×Reconstruct full data or observe plaintext content
Four distinct roles with strict separation — no single class can compromise privacy, soundness, and liveness simultaneously.
Cryptographic Mechanisms
What Makes ring0 Different
Four innovations that no other blockchain combines.
Research
Read the Full Paper
The complete technical foundation — 13 sections, 111 formal proofs, zero unproven assumptions.
By Rexbit Exchange Research Team
Read the Paper