Rhythmic Learning: How Brain-Inspired Oscillations Unlock AI Planning
![Memory capacity benchmarks reveal that the Memory-Hierarchical Network (MHN) maintains perfect recall up to a pattern density of [latex]P=N[/latex], significantly exceeding the performance of the Phasor-graph memory-which falls below 95% recall near the classical Hopfield bound of [latex]0.138N[/latex]-and demonstrating a substantial advantage over the Echo State Network, which rapidly degrades in associative recall performance due to its architectural limitations.](https://arxiv.org/html/2601.04362v1/x8.png)
A new approach to reinforcement learning uses the principles of brain rhythms and sleep-like stages to enable agents to learn complex tasks and improve generalization.
![Memory capacity benchmarks reveal that the Memory-Hierarchical Network (MHN) maintains perfect recall up to a pattern density of [latex]P=N[/latex], significantly exceeding the performance of the Phasor-graph memory-which falls below 95% recall near the classical Hopfield bound of [latex]0.138N[/latex]-and demonstrating a substantial advantage over the Echo State Network, which rapidly degrades in associative recall performance due to its architectural limitations.](https://arxiv.org/html/2601.04362v1/x8.png)
A new approach to reinforcement learning uses the principles of brain rhythms and sleep-like stages to enable agents to learn complex tasks and improve generalization.

New research details a powerful defense against prompt injection attacks, leveraging synthetic data and enhanced reasoning capabilities to protect large language models.
New research explores a powerful mathematical technique for calculating knot invariants and gaining insights into their asymptotic behavior.
Researchers have developed a new computational suite to model the complex interiors and dynamics of rapidly rotating neutron stars with unprecedented accuracy.
![The research demonstrates a performance trade-off, assessed via an R-D curve on the Bicycle scene from the MipNeRF360 dataset, wherein varying [latex]\lambda_{ssim}[/latex] values-ranging from 0.1 to 0.4-influences the method’s results when benchmarked against PCGS and GoDE.](https://arxiv.org/html/2601.04348v1/images/R-D_Curve.png)
Researchers have developed a progressive codec that leverages spatial context and residual quantization to enable efficient streaming of high-quality 3D Gaussian Splatting scenes.

New research demonstrates how to subtly dismantle techniques used to identify the origins of large language model outputs, potentially undermining intellectual property protections.

A new approach to defending large language models from adversarial attacks prioritizes efficiency and reliability for real-world deployment.
![The study demonstrates that gravitational wave spectra from metastable cosmic string networks-shaped by parameters including [latex]\kappa = 485[/latex], [latex]G_N\mu = 10^{-7}[/latex], and [latex]\Gamma_g = 50[/latex]-exhibit distinct characteristics dependent on network formation and early-time breaking mechanisms, with finite-temperature restoration and inflationary scenarios yielding spectra that either enhance decay due to thermal effects or require significantly larger κ values-approximately 2000-to align with observed pulsar timing array signals, as indicated by the location of [latex]f_{\rm low}[/latex] defined in Eq. (48).](https://arxiv.org/html/2601.04320v1/x11.png)
New research reveals how metastable cosmic strings-topological defects formed in the early universe-fracture due to finite temperature effects and quantum fluctuations.
A new framework stabilizes inference in complex graphical models by leveraging concepts from descent theory and holonomy to address inconsistencies arising from cycles.
Researchers have confirmed a key hypothesis concerning the non-negativity of certain polynomial coefficients, resolving a problem that has challenged mathematicians for years.