The Edge of Chaos: Neural Networks Find Stability in Heavy Tails
![The system’s stability, characterized by the curvature of the Lyapunov potential [latex]1-\mathcal{L}\_{\<i>}[/latex] against the stationary population rate [latex]m\_{\</i>}\[/latex], demonstrates a robust stable regime across a range of activities, though nearing criticality ([latex]m\_{\<i>}\to 0[/latex]) induces a diminished curvature, while an observed “divisive brake” - manifested as inverse scaling of closed-loop susceptibility [latex]d\sigma\_{\</i>}/dh[/latex] with activity - suggests automatic gain control, all supported by analysis using biphasic kernels [latex]G(t)=h\_{\tau\_{1}}(t)-bh\_{\tau\_{2}}(t)[/latex] where [latex]h\_{\tau}(t)=\tau^{-1}e^{-t/\tau}\Theta(t)[/latex].](https://arxiv.org/html/2603.18478v1/sand.png)
New research reveals that neural networks with specific connection patterns naturally self-regulate, offering a more robust and controllable alternative to traditional designs.
![The system’s stability, characterized by the curvature of the Lyapunov potential [latex]1-\mathcal{L}\_{\<i>}[/latex] against the stationary population rate [latex]m\_{\</i>}\[/latex], demonstrates a robust stable regime across a range of activities, though nearing criticality ([latex]m\_{\<i>}\to 0[/latex]) induces a diminished curvature, while an observed “divisive brake” - manifested as inverse scaling of closed-loop susceptibility [latex]d\sigma\_{\</i>}/dh[/latex] with activity - suggests automatic gain control, all supported by analysis using biphasic kernels [latex]G(t)=h\_{\tau\_{1}}(t)-bh\_{\tau\_{2}}(t)[/latex] where [latex]h\_{\tau}(t)=\tau^{-1}e^{-t/\tau}\Theta(t)[/latex].](https://arxiv.org/html/2603.18478v1/sand.png)
New research reveals that neural networks with specific connection patterns naturally self-regulate, offering a more robust and controllable alternative to traditional designs.

A novel simulation-based inference method enhances the accuracy and reliability of earthquake source analysis, even with incomplete knowledge of Earth’s internal structure.
![The system addresses dense crowd management through dynamic clustering, initiating with a nested agglomerative approach and continuously evaluating cluster stability via Local Outlier Factor [latex]LOF[/latex] to identify and reassign outliers, while centroid trajectories are calculated based on membership deviation-a process that recursively refines clustering as unassigned members accumulate, ensuring adaptability in crowded environments.](https://arxiv.org/html/2603.18166v1/ICPR_2026_LaTeX_Templates/proposed_method.png)
A new approach to pedestrian trajectory prediction leverages dynamic clustering to improve accuracy and efficiency in crowded environments.

New research tackles the challenge of reliable failure detection in robotic systems powered by vision and language, focusing on pinpointing uncertainty at critical moments.

A new framework allows independent large language models to collaborate on inference tasks while preserving the privacy of their underlying data and weights.

Researchers have developed a novel method for disentangling complex time series data, leading to improved forecasting accuracy and interpretability.

A new approach to software security focuses on tracing dependencies beyond readily available package metadata to identify risks lurking in native libraries.
New research reveals how analyzing a speaker’s facial expressions, voice, and language can accurately predict audience engagement and perceived vocal attractiveness in video learning materials.
Aggressively reducing the size of neural networks can maintain performance, but new research reveals a surprising cost: a drastic loss of interpretability.
![A machine learning model estimates galaxy shapes, but its raw output requires calibration; this is achieved by analytically computing the shear response of a smoothed image and contrasting it with the model’s gradient-yielding a calibration matrix [latex]R\_{ij}=\partial e\_{i}/\partial\gamma\_{j}[/latex]-allowing for linear correction of the estimator and subsequent evaluation of residual biases quantified as multiplicative ([latex]m[/latex]) and additive ([latex]c[/latex]) parameters.](https://arxiv.org/html/2603.19046v1/x1.png)
Researchers have developed a novel machine learning framework that dramatically improves the accuracy and reliability of measuring the distortion of light caused by gravity, opening new avenues for cosmological studies.