创建

登录 ReadmeX

或

了解我们如何处理你的信息: 隐私政策

ReadmeX

陪你读懂 AI 动态

今天,想先了解什么?

选一份动态总结,或直接聊聊你的问题。

社区和关注动态总结只属于你自己。

资讯

预注册复现检验“做梦”Hopfield网络

AI 总结

一名Reddit作者报告了对Fachechi、Agliari和Barra“做梦”Hopfield网络实验的预注册复现,使用NumPy实现,包含1,000个神经元及每个条件10个随机种子。报告显示,t=10时经验容量倍数为3.86,区间为3.79至3.93;祖先重叠为0.15的相关模式容量为9.06。该复现增加了匹配的均匀收缩对照,并已提交ReScience C,代码、数据和预注册材料均已公开。

深度见解

新增的均匀收缩对照可直接区分“做梦”机制的作用与普通耦合收缩,公开材料也使研究能在正式评审前接受审查。

I re-implemented the dreaming (Hebbian-unlearning) Hopfield kernel J(t) = J(1+t)(1+tJ)^-1 from Fachechi, Agliari & Barra (Neural Networks 2019) in NumPy, at N = 1 000, 10 seeds per condition, with a pre-registered design frozen by git tags before each run.

Main result: dreaming at t = 10 multiplies empirical capacity by 3.86 [3.79, 3.93]; 9.06 on correlated patterns (ancestor overlap 0.15). I added a matched uniform-shrink control absent from the original paper, which separates "dreaming works" from "shrinking the coupling works". One registered condition (overlap 0.30) is reported as inconclusive because of grid censoring, not hidden.

Submitted to ReScience C (reviewers currently being assigned). Everything is in github.com/hypneum-lab/rescience-nh01 at tag `submission-20261031`, with a Software Heritage snapshot.

Why post here: I'm a one-person lab working evenings. I'd welcome critique of the control design and of the capacity estimator before the formal review lands.

#Hopfield network#NumPy#ReScience C#Hypneum Lab#Neural Networks

原文约 1 分钟读完阅读原文
群聊

还没有评论,来说说你的看法。