Skip to content
aiqbench takeMachine Learning

aiqbench analysis

This paper advances the theoretical foundations of neural network architectures by introducing a rational generalization that replaces standard matrix operations with Möbius layers to evaluate elementary functions. By classifying variants of the EML operator and proposing specific activation functions, it offers a novel approach to symbolic regression within deep learning frameworks. This research represents a significant step in Machine Learning theory, specifically exploring the intersection of symbolic computation and neural network design.
Source coveringarXiv
What this isA model's reading of the article and related coverage, written for aiqbench. Not the publisher's words.

Diversity of EML-type operators

arXiv2 min read

arXiv:2609.11210v1 Announce Type: cross Abstract: The discovery of the EML operator, sufficient to evaluate the standard explicit purely transcendental elementary functions, has led to considerable interest and discussion across multiple scientific disciplines. However, most authors have focused on the binary EML itself, while numerous similar variants with slightly different properties are now known. This article attempts to close this gap by enumerating and classifying them. We also take this opportunity to clarify common misconceptions related to the EML operator. The principal goal, symbolic regression within an architecture as close as possible to proven neural networks which combine matrix multiplication with a single univariate non-linear activation function, remains beyond reach. Instead, we propose a M\"obius layer, with rational functions replacing matrix operations, and showcase the recently discovered activation function eml(x,1/x), which allows exp(x) and ln(x) to be recovered separately, and hence all elementary functions to be evaluated within a rational generalization of the neural network.

Abstract:The discovery of the EML operator, sufficient to evaluate the standard explicit purely transcendental elementary functions, has led to considerable interest and discussion across multiple scientific disciplines. However, most authors have focused on the binary EML itself, while numerous similar variants with slightly different properties are now known. This article attempts to close this gap by enumerating and classifying them. We also take this opportunity to clarify common misconceptions related to the EML operator. The principal goal, symbolic regression within an architecture as close as possible to proven neural networks which combine matrix multiplication with a single univariate non-linear activation function, remains beyond reach. Instead, we propose a Möbius layer, with rational functions replacing matrix operations, and showcase the recently discovered activation function eml(x,1/x), which allows exp(x) and ln(x) to be recovered separately, and hence all elementary functions to be evaluated within a rational generalization of the neural network.

25 pages, 2 figures, see also the TNG Big Techday conference recording at this https URL. Wolfram Mathematica implementation of a Goldstern-type single operator in the Appendix. Follow-up to arXiv:2603.21852

Symbolic Computation (cs.SC); Machine Learning (cs.LG); Logic (math.LO)

I.2.6; F.4.1; G.1.2

arXiv:2609.11210 [cs.SC]

(or arXiv:2609.11210v1 [cs.SC] for this version)

https://doi.org/10.48550/arXiv.2609.11210 arXiv-issued DOI via DataCite (pending registration)

Full text under the publisher's open licence · 205 words

Related coverage