Efficient Diffusion
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Efficient Diffusion
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Efficient Diffusion Models Without Attention Apple Machine Learning
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Efficient Diffusion Policies For Offline Reinforcement Learning DeepAI

Efficient Training Of Diffusion Transformers For The Weather Raghul

Efficient Training Of Diffusion Transformers For The Weather Raghul

Efficient Training Of Diffusion Transformers For The Weather Raghul
 have recently gained substantial attention in both industrial and academic fields for their superior visual generation capabilities%2C outperforming traditional diffusion models that use U-Net. However%2Cthe enhanced performance of DiTs also comes with high parameter counts and implementation costs%2C seriously restricting their use on resource-limited devices such as mobile phones. To address these challenges%2C we introduce the Hybrid Floating-point Quantization for DiT(HQ-DiT)%2C an efficient post-training quantization method that utilizes 4-bit floating-point (FP) precision on both weights and activations for DiT inference. Compared to fixed-point quantization (e.g.%2C INT8)%2C FP quantization%2C complemented by our proposed clipping range selection mechanism%2C naturally aligns with the data distribution within DiT%2C resulting in a minimal quantization error. Furthermore%2C HQ-DiT also implements a universal identity mathematical transform to mitigate the serious quantization error caused by the outliers. The experimental results demonstrate that DiT can achieve extremely low-precision quantization (i.e.%2C 4 bits) with negligible impact on performance. Our approach marks the first instance where both weights and activations in DiTs are quantized to just 4 bits%2C with only a 0.12 increase in sFID on ImageNet.)
HQ DiT Efficient Diffusion Transformer With FP4 Hybrid Quantization

HQ DiT Efficient Diffusion Transformer With FP4 Hybrid Quantization

HQ DiT Efficient Diffusion Transformer With FP4 Hybrid Quantization