CNN Architecture - Image Classification

GENERALOthersintermediate
CNN Architecture - Image Classification — GENERAL others diagram

About This Architecture

VGG-style CNN architecture for image classification processes 224×224×3 RGB images through four convolutional blocks with progressively deeper filters (32→64→128→256), each followed by ReLU activation and max pooling for spatial dimension reduction. Feature extraction flows through stacked Conv layers with batch normalization and padding=same, culminating in a flattened 50,176-unit feature map that feeds into two fully connected layers with dropout regularization. The classifier outputs 1000 class predictions via softmax, demonstrating how hierarchical convolution captures low-level edges in early blocks and high-level semantic features in deeper blocks. Fork this diagram on Diagrams.so to customize filter counts, adjust input resolution, or adapt the architecture for your specific dataset and class count. This pattern balances computational efficiency with strong feature learning, making it ideal for transfer learning and fine-tuning on custom image datasets.

People also ask

How does a CNN extract features from images and classify them using convolutional and fully connected layers?

This CNN architecture progressively extracts features through 4 convolutional blocks (Conv1–Conv4) with increasing filter depth (32→256), applying ReLU activation and max pooling to reduce spatial dimensions while preserving semantic information. The flattened feature map (14×14×256 = 50,176 units) feeds into two fully connected layers with dropout for regularization, culminating in a 1000-unit so

CNNdeep learningimage classificationneural networksfeature extractionVGG architecture
Domain:
Ml Pipeline
Audience:
machine learning engineers and deep learning practitioners building image classification models

Generated by Diagrams.so — AI architecture diagram generator with native Draw.io output. Fork this diagram, remix it, or download as .drawio, PNG, or SVG.

Generate your own others diagram →

About This Architecture

VGG-style CNN architecture for image classification processes 224×224×3 RGB images through four convolutional blocks with progressively deeper filters (32→64→128→256), each followed by ReLU activation and max pooling for spatial dimension reduction. Feature extraction flows through stacked Conv layers with batch normalization and padding=same, culminating in a flattened 50,176-unit feature map that feeds into two fully connected layers with dropout regularization. The classifier outputs 1000 class predictions via softmax, demonstrating how hierarchical convolution captures low-level edges in early blocks and high-level semantic features in deeper blocks. Fork this diagram on Diagrams.so to customize filter counts, adjust input resolution, or adapt the architecture for your specific dataset and class count. This pattern balances computational efficiency with strong feature learning, making it ideal for transfer learning and fine-tuning on custom image datasets.

People also ask

How does a CNN extract features from images and classify them using convolutional and fully connected layers?

This CNN architecture progressively extracts features through 4 convolutional blocks (Conv1–Conv4) with increasing filter depth (32→256), applying ReLU activation and max pooling to reduce spatial dimensions while preserving semantic information. The flattened feature map (14×14×256 = 50,176 units) feeds into two fully connected layers with dropout for regularization, culminating in a 1000-unit so

CNN Architecture - Image Classification

AutointermediateCNNdeep learningimage classificationneural networksfeature extractionVGG architecture
Domain: Ml PipelineAudience: machine learning engineers and deep learning practitioners building image classification models
0 views0 favoritesPublic

Created by

March 23, 2026

Updated

April 10, 2026 at 7:14 PM

Type

others

Need a custom architecture diagram?

Describe your architecture in plain English and get a production-ready Draw.io diagram in seconds. Works for AWS, Azure, GCP, Kubernetes, and more.

Generate with AI