Semantic segmentation is a crucial aspect of computer vision that involves identifying and labeling objects within an image. In recent years, various models have been proposed to tackle this task, but most of them suffer from limitations such as poor performance in real-world scenarios or lack of adaptability to different domains. To address these issues, our article introduces a novel approach that integrates attention mechanisms into semantic segmentation models.
Attention mechanisms are inspired by the way humans perceive visual information, where we focus on specific regions while ignoring irrelevant details. By incorporating these mechanisms into segmentation models, they can better replicate human visual perception and improve overall performance. Our model combines top-down attention, which enhances resolution and refines segmentation, with bottom-up feature design, which expands representational capacity. This balanced combination of attention mechanisms and feature engineering enables our approach to generalize well across diverse datasets and imaging modalities.
To train and evaluate our models effectively, we employ optimization, regularization, loss functions, and evaluation metrics commonly used in the field. We use Categorical Cross-Entropy Loss during training to enable optimized multi-class pixel classification, which minimizes the error between predicted class probabilities and ground-truth labels.
In summary, our article proposes a novel approach to semantic segmentation that leverages attention mechanisms for improved performance in real-world scenarios. By combining top-down attention with bottom-up feature design, we develop a flexible architecture capable of handling challenges posed by imbalanced data across multiple classes. Our comprehensive training and evaluation framework ensures rigorous assessment of our models to inform future development and application best practices.
Computer Science, Computer Vision and Pattern Recognition