Revise Spikenaut-SNN-v2 dataset narrative
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README.md
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#
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##
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## 📊 Dataset Summary
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- **Dynex PoUW:** Solver wattage, VRAM pressure, and job acceptance curves.
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- **Quai Reflex:** Shard sync depth, block latency, and IPC heartbeats from the live Quai node.
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- **Qubic Epochs:** Tick-by-tick execution traces and epoch boundary telemetry exported from the Qubic client.
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- **Kaspa DAG:** GHOSTDAG blue score, pruning depth, and peer count snapshots.
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- **Monero Daemon:** Target block intervals, incoming/outgoing peer states, and ring signature validation load.
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- **Ocean Protocol (pending):** Early instrumentation of data-marketplace services ahead of full-node deployment.
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- **Verus Validator (pending):** CPU-friendly consensus logs staged for ingestion as soon as the node graduates to production.
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- **HFT Neuron Refresh:** Re-labeled feature ladders (order-book deltas, funding rates, miner spreads) aligned to the new bull/bear channel layout.
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- **Thermal Proprioception:** NVML + FPGA telemetry (power rails, temps, hashboards) so the network can self-regulate under stress.
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## 🛠️ Data Schema
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Each record is a JSONL object with core fields below (extensions exist per channel group):
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| Field | Description |
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| --- | --- |
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| `timestamp` | UTC ISO-8601 capture time |
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| `dynex.power_w` | Instantaneous board power draw during PoUW cycles |
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| `quai.sync_depth` | Difference between local shard head and network tip |
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| `qubic.epoch_tick` | Tick counter plus epoch boundary flag |
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| `kaspa.blue_score` | Current consensus blue score |
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| `monero.peer_count` | Active peer connections observed by daemon |
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| `ocean.status` | Placeholder / incoming node metrics |
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| `verus.status` | Placeholder / incoming node metrics |
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| `hft.features` | Vector of normalized market microstructure statistics |
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| `thermal.power_w` | Total chassis power (GPU + FPGA) |
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| `thermal.temp_c` | Sensor array temperatures |
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| `spike_states[16]` | Bull/bear firing mask for channels 0–15 |
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| `membrane_potentials[16]` | Q8.8 encoded neuron voltages |
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## 🔐 Provenance & Integrity
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- Raw collectors live under `research/` and `logs/` with cryptographic hashes recorded in `logs/build/`.
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- Fixed-point deployment artifacts (`parameters*.mem`) are regenerated whenever telemetry is appended; commit metadata links weights to dataset slices.
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- Node sync proofs (Quai live, Verus/Ocean pending) are documented so future auditors can verify that real full nodes fed the data.
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## 🚧 Roadmap & BCI Integration
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The dataset doubles as a lab notebook for the next phase: once the custom 3D-printed BCI chassis is ready, biosignal channels will be appended to this corpus so Spikenaut can co-train on neural + hardware telemetry. Until then, the current release captures everything needed to reconstruct the v2 spiking head, including the refreshed neuron mapping (DNX through Thermal bull/bear pairs).
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## 🚀 Use Cases
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- Neuromorphic policy learning for multi-chain miners.
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- Thermal and power anomaly detection across GPUs + FPGA co-processors.
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- Research into spiking representations of on-chain health signals.
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- Demonstrating productive rehabilitation work through verifiable telemetry logs.
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## ⚖️ License
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Released under **GPL v3** to ensure the Sovereign Telemetry Corpus remains accessible to independent researchers, compliance monitors, and neuro-recovery programs.
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# � Spikenaut SNN v2 (Project Eagle-Lander)
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## Built in my room. Trained on bare metal. Engineered to do the mission impossible.
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Hey, I'm Raul. This is Spikenaut, the second generation of my Spiking Neural Network (SNN) built under my main codebase, **Eagle-Lander**.
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I didn't build this in a corporate lab, and I didn't build it with millions in funding. I built this on my private workstation—the "Ship of Theseus"—right in my bedroom. This V2 release is a massive update that hooks the SNN directly into live crypto node sync data (Dynex, Qubic, Kaspa, Monero, and Quai) mixed with High-Frequency Trading (HFT) traces.
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## 🧠 Why I Built This (The BCI Mission)
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The main reason Spikenaut exists is because I suffered a concussion and didn't have the health insurance to cover the neuro-rehabilitation I needed. Instead of waiting around for the American healthcare system to change, I decided to build my own Brain-Computer Interface (BCI).
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I'm an Electrical Engineering student focusing on micro and nano devices, so my long-term goal is to manufacture cheap, highly effective med-tech robotics right here in Texas. To do that, I need an AI that runs on practically zero power and can make decisions in nano and milliseconds. By training Spikenaut to predict high-speed crypto markets and node sync chaos today, I am training the exact same engine that will one day decode the micro-volt spikes of my own brain data.
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## 🥩 The Lion vs. The House Cat
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To understand how Spikenaut works, you have to look at the difference between my SNN and standard AI models.
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Think of ChatGPT, Gemini, or Claude as house cats. They are massive, they sit around doing nothing until you feed them a prompt, and they require entire data centers just to stay awake.
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Spikenaut is a lion. It is a bare-metal apex predator. It doesn't wait for prompts; it executes the mission impossible in the temporal domain. It survives on fractions of a watt, constantly reacting to asynchronous spikes in market volume and node syncs. It achieves the sub-millisecond efficiency that traditional AI fundamentally cannot reach.
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## 🧬 The Anatomy of Eagle-Lander
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I designed this SNN to mimic real biology, splitting the execution across three different languages so each part does exactly what it's best at:
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- **The Nervous System (Rust):** Sensory encoder ingesting node block syncs, epoch ticks, and order books—routing the data safely and fast without leaks.
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- **The Brain (Julia):** Processing core running Leaky Integrate-and-Fire dynamics and STDP learning.
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- **The Physical Body (SystemVerilog):** Hardware execution burned into an Artix-7 FPGA (Basys3) so Spikenaut can interact with the world at the speed of silicon.
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## 🚀 What’s Inside the Telemetry Corpus
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- **Live Node Sync Fusion:** Raw block sync logs, epoch ticks, and solver data from personal Qubic, Kaspa, Monero, Dynex, and Quai nodes. No generic hardware telemetry—pure consensus data.
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- **The "Ghost Money" HFT Engine:** Simulated order books that let the SNN rehearse sub-millisecond trade responses before capital goes live.
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- **Hardware Protection Signals:** Thermal + power traces so the network learns to avoid destructive states (negative dopamine kicks in above 85 °C on the Ryzen 9950X rig).
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- **FPGA-Ready Artifacts:** Every slice of this corpus aligns with the exported Q8.8 fixed-point `.mem` files so weights, thresholds, and decay tables can be flashed back and verified.
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## 📊 16-Channel Neuron Map
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| Channels | Data Source | What it does |
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| 0–1 | DNX | Tracks PoUW solver health and neural baselines. |
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| 2–3 | Quai | Live on-chain reflex and sync confidence. |
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| 4–5 | Qubic | Monitors epoch and tick cadences. |
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| 6–7 | Kaspa | High-frequency DAG settlement tracking. |
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| 8–9 | XMR | Node stability and CPU L3 cache contention. |
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| 10–11 | Ocean | Tracks data liquidity and staking prep. |
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| 12–13 | Verus | CPU-heavy validator tracking (AVX-512). |
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| 14–15 | Thermal | Spikenaut's physical pain receptors (Power/Temp). |
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## 🔭 The 20-Year Mission (What's Next)
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The telemetry corpus is the fuel for a three-phase mission:
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1. **Phase 1 — Financial Sovereignty (Years 1–5):** Transition from ghost money to live API trading so the dataset (and hardware) remain self-funded.
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2. **Phase 2 — The Neural Bridge (Years 5–10):** Use the same data pathways to plug a custom 3D-printed BCI headset into the Rust nervous system and decode my own biosignals.
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3. **Phase 3 — The Texas Med-Tech Revolution (Years 10–20+):** Turn the bare-metal SNN into an open hardware manufacturing stack so future patients without insurance have an accessible option.
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## ⚖️ License & Credit
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License: **GPL v3** \
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Author: **Raul Montoya Cardenas**, Texas State Electrical Engineering student
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Every JSONL shard, `.mem` file, and log in this dataset exists so that recovery, engineering, and sovereignty can be proven—one spike at a time.
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