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Stacked Denoising Tensor Auto-Encoder for Action Recognition With Spatiotemporal Corruptions
Summary
This study introduces a coupled stacked denoising tensor auto-encoder (CSDTAE) model to effectively recognize action videos with spatial and temporal corruptions. The CSDTAE model addresses video data loss for improved recognition accuracy.
Area of Science:
- Computer Vision
- Machine Learning
- Artificial Intelligence
Background:
- Action video recognition is hindered by spatial and temporal data corruption from sources like moving cameras.
- Simultaneously addressing both spatial and temporal corruptions in videos is a significant challenge.
- Existing models struggle to effectively handle arbitrary information loss in spatiotemporal data.
Purpose of the Study:
- To propose a novel model, the coupled stacked denoising tensor auto-encoder (CSDTAE), for robust action video recognition.
- To develop a unified approach that tackles both spatial and temporal corruptions concurrently.
- To enhance the performance of video recognition models in the presence of significant data loss.
Main Methods:
- The CSDTAE model utilizes a divide-and-conquer strategy, integrating spatial and temporal processing schemes.
- Each scheme employs a stacked denoising tensor auto-encoder (SDTAE), built upon denoising tensor auto-encoder (DTAE) blocks.
- Tensor unfolding and canonical correlation analysis are used to preserve spatiotemporal structure and couple corruption schemes.
Main Results:
- The CSDTAE model demonstrates significant effectiveness in recognizing action videos with substantial spatial and temporal corruptions.
- Experiments on three action datasets confirm the model's superior performance compared to existing methods.
- The approach successfully handles data corruption by treating it as noise in spatial or temporal directions.
Conclusions:
- The proposed CSDTAE model offers an effective solution for action video recognition under challenging spatiotemporal corruption conditions.
- This research advances the field by providing a unified framework for handling complex video data degradation.
- The findings highlight the potential of tensor-based methods for robust video analysis.
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