3/ Machine Learning Engine
The Machine Learning Engine is the core component of Dash AI framework, enabling predictive analytics, anomaly detection, and market forecasting with precision. It integrates a suite of machine learning models, each optimized for specific data types and use cases, ensuring robustness and scalability in the dynamic Sonic ecosystem.
Model Frameworks
Dash multi-model architecture blends the strengths of supervised, unsupervised, and probabilistic learning algorithms:
Recurrent Neural Networks (RNNs):
Designed to capture sequential dependencies in time-series data, RNNs predict token price movements and liquidity trends based on historical patterns.
Formula: ht=σ(W⋅xt+U⋅ht−1+b)h_t = \sigma(W \cdot x_t + U \cdot h_{t-1} + b)ht​=σ(W⋅xt​+U⋅ht−1​+b) Where:
hth_tht​: Hidden state at time ttt.
xtx_txt​: Input vector (e.g., token price or trading volume at time ttt).
W,U,bW, U, bW,U,b: Trainable weights and biases.
Example:
Predicting the next price Pt+1P_{t+1}Pt+1​ given historical prices [P1,P2,...,Pt][P_1, P_2, ..., P_t][P1​,P2​,...,Pt​]: Pt+1=ϕ(ht)P_{t+1} = \phi(h_t)Pt+1​=ϕ(ht​)
Graph Neural Networks (GNNs):
GNNs analyze wallet-to-wallet interactions and liquidity flows, constructing a graph G=(V,E)G = (V, E)G=(V,E), where VVV represents wallets and EEE represents transactions.
Centrality Metrics:
Identifies influential wallets using metrics like PageRank or Betweenness Centrality.
Cnode=∑i∈neighbors1diC_{\text{node}} = \sum_{i \in \text{neighbors}} \frac{1}{d_i}Cnode​=i∈neighbors∑​di​1​
did_idi​: Degree of node iii.
Use Case:
Detecting whales accumulating tokens or coordinated behaviors between wallets.
Bayesian Inference Models:
These models calculate the likelihood of specific market events based on observed data.
Bayes’ Theorem: P(E∣X)=P(X∣E)⋅P(E)P(X)P(E|X) = \frac{P(X|E) \cdot P(E)}{P(X)}P(E∣X)=P(X)P(X∣E)⋅P(E)​ Where:
EEE: Event (e.g., price increase).
XXX: Observed evidence (e.g., increased trading volume).
Training Methodology
Dash ML Engine is trained using a comprehensive methodology to ensure accuracy and adaptability:
Historical Data:
Models are trained on three years of Sonic blockchain logs, encompassing transaction volumes, wallet interactions, and liquidity metrics.
Reinforcement Learning (RL):
RL agents simulate trading strategies to optimize decision-making.
Reward Function:
R(a)=(ΔP−C(a))⋅Volume Impact FactorR(a) = (\Delta P - C(a)) \cdot \text{Volume Impact Factor}R(a)=(ΔP−C(a))⋅Volume Impact Factor
Where:
aaa: Action (e.g., buy, sell).
ΔP\Delta PΔP: Price change.
C(a)C(a)C(a): Transaction cost.
Example:
An agent learns to minimize slippage and maximize profit by dynamically adjusting trade sizes based on liquidity depth.
Real-Time Fine-Tuning:
Models are continuously retrained every 24 hours, leveraging the latest market data to adapt to evolving conditions.
Gradient Descent Update: Wt=Wt−1−η⋅∇L(Wt−1)W_t = W_{t-1} - \eta \cdot \nabla L(W_{t-1})Wt​=Wt−1​−η⋅∇L(Wt−1​) Where:
WtW_tWt​: Model weights at time ttt.
η\etaη: Learning rate.
LLL: Loss function.
Key Metrics
Dash ML Engine achieves best-in-class performance across multiple benchmarks:
Prediction Accuracy:
Short-Term Price Predictions:
Mean Absolute Error (MAEMAEMAE) of <1.5%: MAE=1n∑i=1n∣Pactual,i−Ppredicted,i∣MAE = \frac{1}{n} \sum_{i=1}^n |P_{\text{actual}, i} - P_{\text{predicted}, i}|MAE=n1​i=1∑n​∣Pactual,i​−Ppredicted,i​∣
Anomaly Detection:
GNN-based anomaly detection identifies suspicious wallet behaviors with a True Positive Rate (TPR) of 98%.
Latency:
Predictions are generated within <10ms per token, ensuring real-time usability.
Use Cases
The ML Engine powers several core functionalities of Dash:
Market Forecasting:
Predicts token price trends based on liquidity, trading volume, and historical price movements.
Whale Tracking:
Identifies large wallet accumulations or dumps to alert users of significant market movements.
Fraud Detection:
Flags suspic
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