Status: Deployed

Project: Synapse-X

Exploration of non-linear memory retention in transformer models. We addressed the "Catastrophic Forgetting" paradox in continuous learning streams.

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1.0 Abstract

Standard LLMs require full retraining to assimilate new knowledge clusters. Synapse-X introduces a "bi-cameral" architecture where a short-term volatility layer interacts with a long-term frozen core, mimicking the hippocampus-cortex relationship in mammals.

2.0 Methodology

We implemented a dynamic weight-decay algorithm (DWD) that identifies "redundant neurons" during sleep cycles (low traffic periods). These neurons are then repurposed for new data tokens without overwriting critical path logic.

def synapse_prune(weights, threshold=0.04): for w in weights: if w.activation_history < threshold: w.reset() # Soft reset w.plasticity = 1.0 # High learning rate return optimize_network()

3.0 Results

Retention Rate 99.8%
GPU Load Reduction -42%
Training Time 0.4s / epoch
Status: Theoretical

Quantum Data States

A framework for instantaneous data transmission between local AI nodes using simulated quantum entanglement (SQE) protocols.

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1.0 Abstract

Traditional RF communication in drone swarms suffers from latency and jamming vulnerability. This paper proposes "Virtual Entanglement," where two AI agents share a pre-seeded pseudo-random number generator (CSPRNG) synchronized to atomic clocks, allowing them to predict each other's moves without active transmission.

2.0 The "Ghost" Protocol

By pre-calculating decision trees for 10^6 scenarios, Agent A knows exactly what Agent B will do in response to Stimulus X, removing the need for handshake packets. This creates a "silent hive mind."

3.0 Equation 4.1 (State Coherence)

$$ \Psi(t) = \alpha|0\rangle + \beta|1\rangle \cdot e^{-iHt/\hbar} $$

Note: While true quantum states collapse, our digital approximation maintains coherence for 45 minutes before drift requires re-sync.

4.0 Field Tests

Packet Loss 0.00%
Radio Silence True
Swarm Size 500 Units
Status: Beta

Neuromorphic Vision

Moving beyond frames: Event-based vision sensors that track changes in pixel intensity rather than capturing static images.

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1.0 Abstract

Current Computer Vision (CV) is wasteful. Processing a static background at 60fps burns energy. Our Neuromorphic sensors only fire data when a pixel *changes*. If nothing moves, zero data is processed.

2.0 Application: High Speed Ballistics

In testing, the system tracked a projectile moving at Mach 2 with a temporal resolution of 1 microsecond. Standard cameras would require 50,000 FPS to capture similar fidelity.

>> EVENT_STREAM DETECTED [TS: 1044ms] x:244 y:102 p:+1 (Spike) [TS: 1045ms] x:245 y:102 p:+1 (Spike) [TS: 1045ms] x:246 y:103 p:+1 (Spike) >> TRAJECTORY CALCULATED >> INTERCEPT VECTOR: [34, 99, 12]

3.0 Energy Consumption

Standard Cam 4.5 Watts
NTN Neuro-Cam 0.02 Watts
Efficiency Gain 225x

Algorithmic Benchmarks

Comparative analysis of our proprietary "Ghost-Protocol" vs standard RSA encryption cracking attempts by AI agents.

Algorithm Key Size Brute Force Time (Est) NTN Vulnerability
RSA-Standard 2048-bit 300 Trillion Years 0.00%
ECDSA 256-bit 1.5 Billion Years 0.00%
NTN Ghost-V2 Dynamic Undefined Negative