Fine Tuning and Efficient Quantization for Optimization of Diffusion Models
Abstract
Diffusion models have emerged as a critical component in the domain of deep generative models for image synthesis. However, the substantial computational demands of their practical deployment limit the viability of developing next-generation machine learning algorithms. This paper presents an optimization strategy that includes quantization, fine-tuning, and inference techniques to improve the effectiveness of diffusion models. It also discusses identifying and reducing particular training bottlenecks. By means of thorough testing and assessment, the suggested enhancements are methodically compared with baseline models. While preserving similar image quality, the optimization methods show improved computational efficiency. This advancement makes it easier to create diffusion models that are more precise and scalable, enabling wider uses in computer vision and related domains.
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