Continuous entropy and signal-drift scoring validated under live multi-node execution, enabling machine liveness detection, replay resistance, and hardware fingerprinting.
What Is AIONET?
AIONET is a next-generation blockchain built on Proof of Memory (PoM) — a living consensus model that uses real-time performance of high-speed HBM-DRAM memory as its trust anchor. Instead of burning energy through mining or locking capital in staking, AIONET leverages AI-driven validation and memory-based operations to ensure fairness, speed, and security across the network.
This breakthrough design delivers sub-second finality, resistance to spoofing, and scalability that evolves with semiconductor innovation — making AIONET a sustainable path forward for blockchain.
✨ What’s New in V1.3
AI fuses PoM throughput with PoD stability into a single adaptive trust score driving finality decisions under wide-bit hashing conditions.
Memory-bound execution path proven beyond traditional hash limits, supporting DDR-class systems today and architected for HBM3e and beyond without increased CPU stress.
Clear separation between raw execution data, summarized metrics, and investor-ready views — enabling independent inspection beyond surface-level claims.
🚀 AIONET Testnet — Live Observation
We recorded a live, continuous testnet run to demonstrate stability, continuity, and honest execution of wide memory-bound hashing in real time.
- Live Observation: Multi-node execution · wide-bit hashing (8192-bit) · sustained run · low CPU utilization
- BEMBH-8192: 8192-bit Memory-Bound Hash used as batch commitment
- Key claim: wide-hash output has meaning only with deterministic construction + execution context
- Note: the published clip may be time-compressed (constant fast-forward) to condense viewing
Coming next: a “Raw In → Transcribed Out” UI where hash-anchored records deterministically map to readable outputs.
Video size Hi-RES ~650 MB. Playback may take a few seconds to buffer. The clip is time-compressed at a constant rate for review.
BEMBH-8192 is not proposed as a replacement for SHA/AES, but as a memory-bound batch commitment and execution fingerprint used alongside standard cryptographic primitives.
🔍 AIONET Testnet — Live Observation (SHA-256)
Raw, unedited recording of the AIONET testnet operating in real time under a standard SHA-256 hashing configuration.
- Execution: 10-node testnet (real-time)
- Node composition: 8 honest validators · 2 adversarial (spoofing) nodes
- Hashing: SHA-256 (reference configuration)
- Transaction interval: 200 ms
- Editing: none (no fast-forward, no cuts)
Observed finality reflects security scoring, adversarial handling, and transaction cadence overhead — not theoretical minimum latency.
Living Consensus, In Motion
This front-end sketch simulates how AIONET tracks Memory Entropy, Validator Trust, and Finality Speed over time. Tap a control to see how PoM, PoD, and AI audit loops react like a living system.
This is a visual demo only — no wallets, keys, or live traffic yet. Later, the same UI can bind directly to real testnet metrics.
Pulse
🧠 Core Protocol Concepts
Proof of Memory (PoM)
AIONET’s core consensus. Rather than mining or staking, PoM uses high-speed HBM-DRAM and AI to verify node behavior in real time. If memory responds within expected bounds, transactions finalize — as fast as the hardware allows.
Proof of Drift (PoD)
PoD monitors how signals drift over time — entropy, decay, and variation — turning hardware behavior into a continuous liveness fingerprint that’s hard to spoof or replay.
AI Guardian Layer
An AI agent scores PoM + PoD metrics into a composite trust score, down-weighting noisy nodes and prioritizing stable, honest memory.
How the Stack Layers In
- Layer 1: AI + memory checks for honesty
- Layer 2: Cross-chain tollway for coin swaps
- Layer 3: Hardware-anchored identity & login
- Layer 4: Drift & anomaly detection (PoD)
- Layer 8: Agentic automation & self-tuning
(Full model has deeper layers reserved for high-trust partners.)
Choose Your View
⏱️ Finality: AIONET vs Bitcoin & Ethereum
AIONET’s Proof of Memory (PoM) targets finality in 1–2 seconds, by riding memory bandwidth and AI scoring — not hashpower or capital locks.
| Network | Consensus | Block Time | Typical Finality | Limitation |
|---|---|---|---|---|
| Bitcoin | Proof of Work | ~10 min | ~60 min | High energy spend |
| Ethereum | Proof of Stake | ~12 sec | ~1–15 min | Complex validator incentives |
| AIONET | Proof of Memory | <1 sec (target) | ~1–2 sec (target) | Scales with HBM-DRAM + AI |
🔬 Science & Research
AIONET borrows heavily from real HBM-DRAM and memory-centric computing research, including published roadmaps from KAIST and other labs.
🚀 AIONET Testnet
Below is a snapshot of our early explorer. Data shown is sample testnet data — validation in progress.
Roadmap Status
Foundation & Living Consensus Validation
- PoM + PoD execution scaffolding (live)
- Internal multi-node testnet deployed & sustained runs recorded
- AI-scored trust model integrated into validation loop (internal)
- AIONETscan explorer preview (structured TX + trust + entropy view)
- Wide memory-bound hashing validation (BEMBH-8192 context)
Open Testnet & Builder Access
- External builder onboarding (first cohort via waitlist)
- Validator participation framework + reputation propagation
- Explorer read/write endpoints + SDK/API docs
- Deterministic replay tooling + audit-ready logs
Security Hardening & Adversarial Testing
- Attack simulations (spoofing, replay, double-spend pressure tests)
- AI oracle hardening + anomaly thresholds
- Rate limits, supply controls, and economic abuse modeling
- Formal verification targets (select consensus-critical components)
👥 AIONET Core Contributors
AIONET Architect
Consensus Design
Systems Engineer
Hardware Integration
Protocol Engineer
Blockchain Core
Research Scientist
Entropy Models
Strategist
Ecosystem Growth
Be Early To Living Consensus
Builders, validators, semiconductor partners, and researchers are welcome. If you work on HBM, DDR, AI infra, or security — we’d love to talk.
Join the Waitlist