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Distributed Convolutional Neural Networks for Object Recognition

Liang Sun

TL;DR

A novel loss function for training a distributed convolutional neural network (DisCNN) to recognize only a specific positive class, which has a lightweight architecture because only a few positive-class features need to be extracted.

Abstract

This paper proposes a novel loss function for training a distributed convolutional neural network (DisCNN) to recognize only a specific positive class. By mapping positive samples to a compact set in high-dimensional space and negative samples to Origin, the DisCNN extracts only the features of the positive class. An experiment is given to prove this. Thus, the features of the positive class are disentangled from those of the negative classes. The model has a lightweight architecture because only a few positive-class features need to be extracted. The model demonstrates excellent generalization on the test data and remains effective even for unseen classes. Finally, using DisCNN, object detection of positive samples embedded in a large and complex background is straightforward.

Distributed Convolutional Neural Networks for Object Recognition

TL;DR

A novel loss function for training a distributed convolutional neural network (DisCNN) to recognize only a specific positive class, which has a lightweight architecture because only a few positive-class features need to be extracted.

Abstract

This paper proposes a novel loss function for training a distributed convolutional neural network (DisCNN) to recognize only a specific positive class. By mapping positive samples to a compact set in high-dimensional space and negative samples to Origin, the DisCNN extracts only the features of the positive class. An experiment is given to prove this. Thus, the features of the positive class are disentangled from those of the negative classes. The model has a lightweight architecture because only a few positive-class features need to be extracted. The model demonstrates excellent generalization on the test data and remains effective even for unseen classes. Finally, using DisCNN, object detection of positive samples embedded in a large and complex background is straightforward.
Paper Structure (10 sections, 1 theorem, 2 figures, 5 tables, 1 algorithm)

This paper contains 10 sections, 1 theorem, 2 figures, 5 tables, 1 algorithm.

Key Result

theorem 1

The feature maps produced by the convolutional layers of DisCNN contain only features of the positive class, whereas those of the negative classes are neglected.

Figures (2)

  • Figure 1: Patches and modules
  • Figure 2: Patches sorted by modules

Theorems & Definitions (7)

  • remark 1
  • remark 2
  • remark 3
  • theorem 1
  • remark 4
  • remark 5
  • remark 6