While the beta-VAE family is aiming to find disentangled representations and acquire human-interpretable generative factors, like what an ICA (from the linear domain) does, we propose Full Encoder, a novel unified autoencoder framework as a correspondence to PCA in the non-linear domain. The idea is to train an autoencoder with one latent variable first, then involve more latent variables progressively to refine the reconstruction results. The Full Encoder is also a latent variable predictive model that the latent variables acquired are stable and robust, as they always learn the same representation regardless of the network initial states. Full Encoder can be used to determine the degrees of freedom in a simple non-linear system and can be useful for data compression or anomaly detection. Full Encoder can also be combined with the beta-VAE framework to sort out the importance of the generative factors, providing more insights for non-linear system analysis. These qualities will make FE useful for analyzing real-life industrial non-linear systems. To validate, we created a toy dataset with a custom-made non-linear system to test it and compare its properties to those of VAE and beta-VAE's.
翻译:虽然乙型VAE家族的目标是找到分解的表象,并获得人类解释的基因化因素,例如ICA(线性域)所做的那样,我们提议使用全读码器(Full Encoder),这是一个在非线性域内与五氯苯甲醚的通信,这是一个全新的统一自动编码框架。这个想法是先训练一个潜伏变量的自动编码器,然后涉及更多的潜伏变量,以完善重建结果。完整的编码器也是一个潜在的可变预测模型,即获得的潜伏变量是稳定和稳健的,因为无论网络初始状态如何,它们总是学会相同的表态。在简单的非线性系统中,完全的编码器可以用来确定自由度,并且可用于数据压缩或异常检测。完整的编码器也可以与乙型VAE框架结合起来,以理算出基因化因素的重要性,为非线性系统分析非线性工业系统提供更多的洞察力。为了验证,我们用定制的非线性电子数据集,用非线性系统来测试VA-E。