Feature Attention Module with Residual Gate

GENERALArchitectureadvanced
Feature Attention Module with Residual Gate — GENERAL architecture diagram

About This Architecture

Feature Attention Module with Residual Gate combines dual-branch attention and feature enhancement to selectively amplify important input features. The Importance Branch generates attention scores via MLP and Softmax, while the Enhancement Branch produces refined features through learned transformations, with both streams merged via element-wise multiplication. A Sigmoid Gate controls the residual connection, enabling the network to learn when to apply attention-gated features or bypass them entirely. This architecture solves the problem of adaptive feature recalibration while maintaining gradient flow through residual connections. Fork this diagram on Diagrams.so to customize layer dimensions, activation functions, or integrate it into your transformer or CNN backbone.

People also ask

How does a Feature Attention Module with Residual Gate work in neural networks?

This architecture uses two parallel branches: an Importance Branch that generates attention scores via MLP and Softmax, and an Enhancement Branch that refines features through learned transformations. The attention scores and enhanced features are multiplied element-wise, passed through a Sigmoid Gate, and added back to the original input via a residual connection, enabling the network to adaptive

attention mechanismresidual connectionsneural architecturedeep learningfeature enhancementMLP
Domain:
Ml Pipeline
Audience:
Deep learning engineers and ML researchers implementing attention mechanisms in neural networks

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About This Architecture

Feature Attention Module with Residual Gate combines dual-branch attention and feature enhancement to selectively amplify important input features. The Importance Branch generates attention scores via MLP and Softmax, while the Enhancement Branch produces refined features through learned transformations, with both streams merged via element-wise multiplication. A Sigmoid Gate controls the residual connection, enabling the network to learn when to apply attention-gated features or bypass them entirely. This architecture solves the problem of adaptive feature recalibration while maintaining gradient flow through residual connections. Fork this diagram on Diagrams.so to customize layer dimensions, activation functions, or integrate it into your transformer or CNN backbone.

People also ask

How does a Feature Attention Module with Residual Gate work in neural networks?

This architecture uses two parallel branches: an Importance Branch that generates attention scores via MLP and Softmax, and an Enhancement Branch that refines features through learned transformations. The attention scores and enhanced features are multiplied element-wise, passed through a Sigmoid Gate, and added back to the original input via a residual connection, enabling the network to adaptive

Feature Attention Module with Residual Gate

Autoadvancedattention mechanismresidual connectionsneural architecturedeep learningfeature enhancementMLP
Domain: Ml PipelineAudience: Deep learning engineers and ML researchers implementing attention mechanisms in neural networks
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Created by

April 15, 2026

Updated

April 16, 2026 at 7:40 PM

Type

architecture

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