Generative Adversarial Networks (GANs) are well-known tools for data generation and semi-supervised classification. GANs, with less labeled data, outperform Deep Neural Networks (DNNs) and Convolutional Neural Networks (CNNs) in classification across various tasks, this shows promise for developing GANs capable of trespassing into the domain of semi-supervised regression. However, developing GANs for regression introduce two major challenges: (1) inherent instability in the GAN formulation and (2) performing regression and achieving stability simultaneously. This paper introduces techniques that show improvement in the GANs' regression capability through mean absolute error (MAE) and mean squared error (MSE). We bake a differentiable fuzzy logic system at multiple locations in a GAN because fuzzy logic systems have demonstrated high efficacy in classification and regression settings. The fuzzy logic takes the output of either or both the generator and the discriminator to either or both predict the output, $y$, and evaluate the generator's performance. We outline the results of applying the fuzzy logic system to CGAN and summarize each approach's efficacy. This paper shows that adding a fuzzy logic layer can enhance GAN's ability to perform regression; the most desirable injection location is problem-specific, and we show this through experiments over various datasets. Besides, we demonstrate empirically that the fuzzy-infused GAN is competitive with DNNs.
翻译:生成 Adversarial 网络( GANs) 是数据生成和半监督分类的著名工具。 GANs, 使用标签较少的数据, 超越深神经网络(DNNs) 和进化神经网络(CNNs), 跨越各种任务分类, 这显示了开发能够侵入半监督回归域域的GANs 的前景。 然而, 开发 GANs 进行回归带来了两大挑战:(1) GAN 配制中固有的不稳定性, (2) 同时进行回归和稳定。 本文介绍了一些技术, 显示GANs的回归能力通过绝对错误(MAE) 和平均平方差(MSE) 得到改进。 我们在一个 GAN 多个地点烤了一个不同的模糊逻辑系统, 因为模糊逻辑系统在分类和回归环境下显示出高度的功效。 模糊逻辑将发电机和制导师的输出或两者的输出, 或者两者都预测输出值, $y$, 并评估发电机的性能。 我们用模糊逻辑系统应用GAN 最模糊的逻辑系统, 展示了CGAN 的逻辑级的精确度, 展示了每个层次分析方法显示我们如何展示了GAN 。