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Linan Z.

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Research Phase

RNN Training
Visualization

Exploring the temporal dynamics of recurrent neural networks through high-fidelity visual mapping of stochastic job arrival sequences.

512

Hidden Units

ADAM

Optimizer

+14.2%

Accuracy Delta

INPUT LSTM OUTPUT 0.9982
01. OBJECTIVE

Quantifying the internal state transitions of LSTM cells.

The primary aim of this research is to decode how Recurrent Neural Networks interpret and predict high-frequency job arrival patterns in distributed computing clusters. By visualizing the "hidden" decision layers, we expose the mathematical elegance of temporal dependencies.

Unlike static models, our visualization framework captures the moment of convergence — the exact epoch where the loss function minimizes and the network identifies the underlying rhythmic signature of incoming data streams.

02. ARCHITECTURE

LSTM Long Short-Term Memory

01

Forget Gate

Removes irrelevant historical information from the cell state to prioritize recent arrival surges.

02

Input Gate

Updates the cell state with new job arrival features, such as priority level and node requirement.

03

Output Gate

Filters the internal state to provide the final arrival probability distribution.

hub

Hidden Size

512

equalizer

Accuracy Delta

+14.2%

Learning Rate

0.0001

Current Loss

0.0241

LSTM TOPOLOGY V1.0
03. TRAINING VISUALIZATION

Live Training Topography

Real-time state mapping of 512 Hidden Units across training epochs.

Live
NODE_LATENCY: 0.04ms

Input Layer

Hidden Cells

P

Output Layer

Learning Rate

0.0001

Epochs

150 / 500

Current Loss

0.0241

Optimizer

ADAM