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  • 👋 Hi, I’m zhuoran zheng.
  • 👀 I’m interested in UHD image enhancement (including image dehazing, image deblurring, image fusion, underwater image enhancement, etc.).
  • 🌱 I’m currently learning label distribution learning.

Zhuoran Zheng's Projects

awesome-diffusion-models icon awesome-diffusion-models

A collection of resources and papers on Diffusion Models and Score-based Models, a darkhorse in the field of Generative Models

cyclegan icon cyclegan

The tessellation effect is solved with the help of bilinear upsampling.

deblur icon deblur

UHD Image Deblurring via Multi-scale Cubic-Mixer

einops icon einops

Deep learning operations reinvented (for pytorch, tensorflow, jax and others)

evison icon evison

We provide an easy way for visualizing

fdv-net icon fdv-net

FD-Vision Mamba for Endoscopic Exposure Correction

hrgnet icon hrgnet

Our new work in low -light (HRGNet)

infinitransformer icon infinitransformer

Unofficial PyTorch/🤗Transformers(+Gemma) implementation of Leave No Context Behind: Efficient Infinite Context Transformers with Infini-attention

ld2net icon ld2net

we propose a lightweight dual-domain network (LD2Net) for restoring UDC images.

low-light-image-enhancement icon low-light-image-enhancement

Low-light image enhancement is a classical computer vision problem aiming to recover normal-exposure images from low-light images. However, convolutional neural networks commonly used in this field are good at sampling low-frequency local structural features in the spatial domain, which leads to unclear texture details of the reconstructed images. To alleviate this problem, we propose a novel module using the Fourier coefficients, which can recover high-quality texture details under the constraint of semantics in the frequency phase and supplement the spatial domain. In addition, we design a simple and efficient module for the image spatial domain using dilated convolutions with different receptive fields to alleviate the loss of detail caused by frequent downsampling. We integrate the above parts into an end-to-end dual branch network and design a novel loss committee and an adaptive fusion module to guide the network to flexibly combine spatial and frequency domain features to generate more pleasing visual effects. Finally, we evaluate the proposed network on public benchmarks. Extensive experimental results show that our method outperforms many existing state-of-the-art ones, showing outstanding performance and potential.

nas-dehaze icon nas-dehaze

A Simple Case of Image Dehazing with the Help of NAS.

pytorch-videodataset icon pytorch-videodataset

Tools for loading video dataset and transforms on video in pytorch. You can directly load video files without preprocessing.

sam-super-resolution icon sam-super-resolution

We use SAM to segment the required targets and then run super-resolution or deblurring.

uavformer icon uavformer

Image Restoration via UAVFormer for Under-Display Camera of UAV

uhd-low-light-image-enhancement icon uhd-low-light-image-enhancement

Convolutional neural networks (CNNs) have achieved unparalleled success in the single Low-light Image Enhancement (LIE) task. Existing CNN-based LIE models over-focus on pixel-level reconstruction effects, hence ignoring the theoretical guidance for sustainable optimization, which hinders their application to Ultra-High Definition (UHD) images. To address the above problems, we propose a new interpretable network, which capable of performing LIE on UHD images in real time on a single GPU. The proposed network consists of two CNNs: the first part is to use the first-order unfolding Taylor’s formula to build an interpretable network, and combine two UNets in the form of first-order Taylor’s polynomials. Then we use this constructed network to extract the feature maps of the low-resolution input image, and finally process the feature maps to form a multi-dimensional tensor termed a bilateral grid that acts on the original image to yield an enhanced result. The second part is the image enhancement using the bilateral grid. In addition, we propose a polynomial channel enhancement method to enhance UHD images. Experimental results show that the proposed method significantly outperforms state-of-the-art methods for UHD LIE on a single GPU with 24G RAM (100 fps).

uhd-multi-exposure-image-fusion-algorithm icon uhd-multi-exposure-image-fusion-algorithm

Ultra HD resolution multi-exposure image fusion algorithm, which employs an implicit function to generate a 3D LUT grid of arbitrary resolution to obtain a clear ultra HD image.

uhd-super-resolution icon uhd-super-resolution

We create a dataset and a customized algorithm to run image super-resolution at 4K resolution in real time

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