Learning High-Quality Initial Noise for Single-View Synthesis with Diffusion Models
Zhihao Zhang, Xuejun Yang, Weihua Liu, Mouquan Shen

TL;DR
This paper introduces a learning framework that transforms random noise into high-quality initial noise for diffusion-based single-view synthesis, improving the quality of generated images.
Contribution
It proposes a novel encoder-decoder network to learn high-quality noise from random noise, enhancing diffusion model performance in single-view synthesis.
Findings
Significant performance improvements on multiple datasets.
Effective integration with existing NVS models like SV3D and MV-Adapter.
High-quality noise generation leads to better image synthesis results.
Abstract
Single-view novel view synthesis (NVS) models based on diffusion models have recently attracted increasing attention, as they can generate a series of novel view images from a single image prompt and camera pose information as conditions. It has been observed that in diffusion models, certain high-quality initial noise patterns lead to better generation results than others. However, there remains a lack of dedicated learning frameworks that enable NVS models to learn such high-quality noise. To obtain high-quality initial noise from random Gaussian noise, we make the following contributions. First, we design a discretized Euler inversion method to inject image semantic information into random noise, thereby constructing paired datasets of random and high-quality noise. Second, we propose a learning framework based on an encoder-decoder network (EDN) that directly transforms random noise…
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Taxonomy
TopicsAdvanced Vision and Imaging · Video Coding and Compression Technologies · Generative Adversarial Networks and Image Synthesis
