[2602.21720] Evaluating the relationship between regularity and learnability in recursive numeral systems using Reinforcement Learning

[2602.21720] Evaluating the relationship between regularity and learnability in recursive numeral systems using Reinforcement Learning

arXiv - AI 3 min read Article

Summary

This article explores the relationship between regularity and learnability in recursive numeral systems using Reinforcement Learning, demonstrating that regular systems are easier to learn than irregular ones.

Why It Matters

Understanding the connection between regularity and learnability in numeral systems can inform linguistic theory and AI development, particularly in natural language processing and machine learning applications. This research contributes to the broader discourse on how human language systems evolve and are learned.

Key Takeaways

  • Regular numeral systems facilitate easier learning compared to irregular systems.
  • The study utilizes Reinforcement Learning methods to analyze learnability.
  • Different pressures influence learnability across various numeral system types.
  • Findings support the link between linguistic regularity and cross-linguistic prevalence.
  • Implications extend to AI and natural language processing applications.

Computer Science > Computation and Language arXiv:2602.21720 (cs) [Submitted on 25 Feb 2026] Title:Evaluating the relationship between regularity and learnability in recursive numeral systems using Reinforcement Learning Authors:Andrea Silvi, Ponrawee Prasertsom, Jennifer Culbertson, Devdatt Dubhashi, Moa Johansson, Kenny Smith View a PDF of the paper titled Evaluating the relationship between regularity and learnability in recursive numeral systems using Reinforcement Learning, by Andrea Silvi and 4 other authors View PDF HTML (experimental) Abstract:Human recursive numeral systems (i.e., counting systems such as English base-10 numerals), like many other grammatical systems, are highly regular. Following prior work that relates cross-linguistic tendencies to biases in learning, we ask whether regular systems are common because regularity facilitates learning. Adopting methods from the Reinforcement Learning literature, we confirm that highly regular human(-like) systems are easier to learn than unattested but possible irregular systems. This asymmetry emerges under the natural assumption that recursive numeral systems are designed for generalisation from limited data to represent all integers exactly. We also find that the influence of regularity on learnability is absent for unnatural, highly irregular systems, whose learnability is influenced instead by signal length, suggesting that different pressures may influence learnability differently in different parts of the s...

Related Articles

Machine Learning

[D] I had an idea, would love your thoughts

What happens that while training an AI during pre training we make it such that if makes "misaligned behaviour" then we just reduce like ...

Reddit - Machine Learning · 1 min ·
Machine Learning

I had an idea, would love your thoughts

What happens that while training an AI during pre training we make it such that if makes "misaligned behaviour" then we just reduce like ...

Reddit - Artificial Intelligence · 1 min ·
Ai Safety

Newsom signs executive order requiring AI companies to have safety, privacy guardrails

submitted by /u/Fcking_Chuck [link] [comments]

Reddit - Artificial Intelligence · 1 min ·
[2511.16417] Pharos-ESG: A Framework for Multimodal Parsing, Contextual Narration, and Hierarchical Labeling of ESG Report
Ai Safety

[2511.16417] Pharos-ESG: A Framework for Multimodal Parsing, Contextual Narration, and Hierarchical Labeling of ESG Report

Abstract page for arXiv paper 2511.16417: Pharos-ESG: A Framework for Multimodal Parsing, Contextual Narration, and Hierarchical Labeling...

arXiv - AI · 4 min ·
More in Ai Safety: This Week Guide Trending

No comments

No comments yet. Be the first to comment!

Stay updated with AI News

Get the latest news, tools, and insights delivered to your inbox.

Daily or weekly digest • Unsubscribe anytime