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DeepSeek new paper: How manifold-constrained hyperconnected architecture addresses the training challenges of deep networks
【ChainWen】DeepSeek's recently published new paper has attracted attention in the tech community. They proposed a new architecture called Manifold-Constrained Hypergraph (mHC), with a core purpose that is quite straightforward—addressing two pain points of existing Hypergraph (HC) techniques: unstable training and limited scalability.
The root of the problem lies in the fact that HC techniques disrupt the properties of identity mappings. DeepSeek's solution is to map the residual connection space of HC onto a specific manifold, thereby restoring the properties of identity mappings. It may sound a bit abstract, but essentially, it involves smarter mathematical mappings to make deep network training more stable and scalable.
The paper also incorporates infrastructure optimization to ensure practical efficiency. Experimental results show significant performance improvements and excellent scalability. This means that when using deeper network structures, the training process becomes more controllable.
DeepSeek believes that mHC is a flexible and practical extension of HC technology. This work not only helps the industry gain a deeper understanding of topological architecture design but also points to a very promising direction for the evolution of large models. This paper was completed through collaboration among Zhendao Jie, Yixuan Wei, Huanqi Cao, and Wenfeng Liang.
In the long term, breakthroughs in such foundational architectures will have a profound impact on the stability and scalability of large models.