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Methods/Cycle Consistency Loss

Cycle Consistency Loss

GeneralIntroduced 2000448 papers
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Description

Cycle Consistency Loss is a type of loss used for generative adversarial networks that performs unpaired image-to-image translation. It was introduced with the CycleGAN architecture. For two domains XXX and YYY, we want to learn a mapping G:X→YG : X \rightarrow YG:X→Y and F:Y→XF: Y \rightarrow XF:Y→X. We want to enforce the intuition that these mappings should be reverses of each other and that both mappings should be bijections. Cycle Consistency Loss encourages F(G(x))≈xF\left(G\left(x\right)\right) \approx xF(G(x))≈x and G(F(y))≈yG\left(F\left(y\right)\right) \approx yG(F(y))≈y. It reduces the space of possible mapping functions by enforcing forward and backwards consistency:

L_cyc(G,F)=E_x∼p_data(x)[∣∣F(G(x))−x∣∣_1]+E_y∼p_data(y)[∣∣G(F(y))−y∣∣_1]\mathcal{L}\_{cyc}\left(G, F\right) = \mathbb{E}\_{x \sim p\_{data}\left(x\right)}\left[||F\left(G\left(x\right)\right) - x||\_{1}\right] + \mathbb{E}\_{y \sim p\_{data}\left(y\right)}\left[||G\left(F\left(y\right)\right) - y||\_{1}\right]L_cyc(G,F)=E_x∼p_data(x)[∣∣F(G(x))−x∣∣_1]+E_y∼p_data(y)[∣∣G(F(y))−y∣∣_1]

Papers Using This Method

Multipath cycleGAN for harmonization of paired and unpaired low-dose lung computed tomography reconstruction kernels2025-05-28Unpaired Image-to-Image Translation for Segmentation and Signal Unmixing2025-05-27Towards Generating Realistic Underwater Images2025-05-203D Reconstruction from Sketches2025-05-20A Deep Learning-Driven Inhalation Injury Grading Assistant Using Bronchoscopy Images2025-05-13Revolutionizing Brain Tumor Imaging: Generating Synthetic 3D FA Maps from T1-Weighted MRI using CycleGAN Models2025-05-06MRI motion correction via efficient residual-guided denoising diffusion probabilistic models2025-05-06Lesion-Aware Generative Artificial Intelligence for Virtual Contrast-Enhanced Mammography in Breast Cancer2025-05-05ClearVision: Leveraging CycleGAN and SigLIP-2 for Robust All-Weather Classification in Traffic Camera Imagery2025-04-28Test-Time Visual In-Context Tuning2025-03-27Tune It Up: Music Genre Transfer and Prediction2025-03-27Exploiting Diffusion Prior for Real-World Image Dehazing with Unpaired Training2025-03-19Whole-Body Image-to-Image Translation for a Virtual Scanner in a Healthcare Digital Twin2025-03-18CyclePose -- Leveraging Cycle-Consistency for Annotation-Free Nuclei Segmentation in Fluorescence Microscopy2025-03-14Feature Fusion Attention Network with CycleGAN for Image Dehazing, De-Snowing and De-Raining2025-03-08Generalizable Image Repair for Robust Visual Autonomous Racing2025-03-07MRI super-resolution reconstruction using efficient diffusion probabilistic model with residual shifting2025-03-03Cross Modality Medical Image Synthesis for Improving Liver Segmentation2025-03-02Development of an Unpaired Deep Neural Network for Synthesizing X-ray Fluoroscopic Images from Digitally Reconstructed Tomography in Image Guided Radiotherapy2025-03-01Single-image Reflectance and Transmittance Estimation from Any Flatbed Scanner2025-02-20