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Computer Science, Machine Learning

Efficient DPM Sampling for Guaranteed Synthesis Performance

Efficient DPM Sampling for Guaranteed Synthesis Performance

In the field of machine learning, particularly in generative adversarial networks (GANs), there is a growing interest in developing new techniques to improve their performance. One such approach is regularization, which helps to stabilize the training process and enhance the quality of generated samples. In this article, we propose a novel regularization strategy called SMaRt, designed specifically for GAN training.

SMaRt: A Regularization Strategy

SMaRt is based on the idea of adding a small perturbation to the input noise of the generator network during training. This perturbation helps to expand the space of possible samples and encourages the generator to produce more diverse outputs. By doing so, SMaRt can improve the quality of generated samples while maintaining a high training speed.
The core idea of SMaRt is to introduce a small amount of noise into the input of the generator network at each time step. This noise is carefully calibrated based on the current state of the discriminator and the generator, so that it does not interfere with the training process but rather helps to improve it. By adding this noise, SMaRt can encourage the generator to explore new regions of the output space, leading to more diverse and high-quality samples.

Empirical Results

We evaluated the effectiveness of SMaRt through extensive experiments on several benchmark datasets. Our results show that SMaRt can significantly improve the quality of generated samples while maintaining a competitive training speed. In particular, we found that SMaRt can achieve state-of-the-art performance in terms of both visual quality and diversity of generated samples.

Conclusion

In conclusion, SMaRt is a simple yet effective regularization strategy for GAN training. By adding a small perturbation to the input noise of the generator network, SMaRt can improve the quality of generated samples while maintaining a high training speed. Our experimental results demonstrate the superiority of SMaRt over existing regularization techniques in terms of both visual quality and diversity. As such, we believe that SMaRt has great potential for applications in various fields of machine learning.