2021
DOI: 10.1007/978-3-030-92659-5_44
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Quantifying Point Cloud Realism Through Adversarially Learned Latent Representations

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Cited by 4 publications
(2 citation statements)
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“…In a recent breakthrough, Ding et al (2021Ding et al ( , 2023b introduced the pioneering model for this purpose, termed Continuous Conditional Generative Adversarial Networks (CcGANs), showcasing their superiority over conventional conditional GANs across various regression datasets. CcGANs have a wide spectrum of practical applications, including engineering inverse design (Heyrani Nobari, Chen, and Ahmed 2021; Fang, Shen, and Wang 2023), remote sensing image analysis (Giry-Fouquet et al 2022), model compression (Ding et al 2023a;Shi et al 2023), point cloud generation (Triess et al 2022), carbon sequestration (Stepien et al 2023), datadriven solutions for poroelasticity (Kadeethum et al 2022), etc. However, it's important to note that while CcGANs have shown success in these tasks, challenges remain when dealing with extremely sparse or imbalanced training data, leaving ample room to improve CcGAN models further.…”
Section: Introductionmentioning
confidence: 99%
“…In a recent breakthrough, Ding et al (2021Ding et al ( , 2023b introduced the pioneering model for this purpose, termed Continuous Conditional Generative Adversarial Networks (CcGANs), showcasing their superiority over conventional conditional GANs across various regression datasets. CcGANs have a wide spectrum of practical applications, including engineering inverse design (Heyrani Nobari, Chen, and Ahmed 2021; Fang, Shen, and Wang 2023), remote sensing image analysis (Giry-Fouquet et al 2022), model compression (Ding et al 2023a;Shi et al 2023), point cloud generation (Triess et al 2022), carbon sequestration (Stepien et al 2023), datadriven solutions for poroelasticity (Kadeethum et al 2022), etc. However, it's important to note that while CcGANs have shown success in these tasks, challenges remain when dealing with extremely sparse or imbalanced training data, leaving ample room to improve CcGAN models further.…”
Section: Introductionmentioning
confidence: 99%
“…CcGANs have been extensively applied across various domains requiring precise control over generative modeling of highdimensional data. These applications comprise engineering inverse design [2]- [4], data augmentation for hyperspectral imaging [5], remote sensing image processing [6], model compression [7], controllable point cloud generation [8], carbon sequestration [9], data-driven solutions for poroelasticity [10], and more. However, as reported in [11], the training process of CcGANs remains susceptible to extremely sparse or imbalanced training data due to the unstable adversarial mechanism, resulting in suboptimal outcomes.…”
Section: Introductionmentioning
confidence: 99%