Beyond Algorithms: Building Self-Managing Investment Portfolios
A new agentic architecture is emerging that moves beyond traditional algorithmic investing, offering a pathway to fully autonomous portfolio management.
A new agentic architecture is emerging that moves beyond traditional algorithmic investing, offering a pathway to fully autonomous portfolio management.

A new approach leverages large language models and real-time news analysis to forecast disruptions and improve supply chain resilience.
![The SIGN framework demonstrates successful equation discovery across diverse networked dynamical systems - including Kuramoto phase-oscillator networks, susceptible-infected-susceptible (SIS) epidemic models, Michaelis-Menten regulatory networks, FitzHugh-Nagumo neuron models, and Hindmarsh-Rose neuron models - consistently inferring coefficient values with low error rates across varying network sizes and topologies, from synthetic scale-free networks ([latex]10^3[/latex] and [latex]10^5[/latex] nodes) to large empirical datasets like GitHub, Catster, and a human brain network.](https://arxiv.org/html/2604.00599v1/x2.png)
Researchers have developed a novel framework that combines the power of data and physics-based modeling to forecast the long-term evolution of massive, interconnected systems.
![The study dissects the confidence scaling of large language models-specifically GPT-5, DeepSeek-V3.2-Exp, and Mistral-Medium-2508-across three distinct tasks, revealing disparities in their ability to align reported confidence levels with task accuracy, as evidenced by metrics like [latex]d'\relax[/latex] and [latex]\text{Mrati}\relax[/latex], and further refined by the exclusion of outlier data points-approximately 0.1% for Mistral-Medium-2508 in task B-to ensure a robust assessment of confidence calibration across a trial count of [latex]2 \times \Gamma_{3}0^{\relax}[/latex] for task A and [latex]\Gamma_{3}0^{\relax}[/latex] for tasks B and C.](https://arxiv.org/html/2603.29693v1/x1.png)
New research explores whether large language models possess the capacity for metacognition – the ability to assess their own confidence and uncertainty.

As increasingly complex AI systems begin to collaborate, unforeseen and potentially harmful behaviors can arise from the interactions of individually rational agents.

A new study reveals improved methods for predicting abrupt changes in dynamic systems subjected to slow, repeating forces.
A growing body of research demonstrates that topological methods offer a powerful new lens for understanding organization and change in complex systems, moving beyond traditional approaches.

A new approach combines the power of deep learning with interpretable statistics to better predict mortgage defaults and understand the factors driving credit risk.

Artificial intelligence is transforming network defense, but its performance isn’t guaranteed in the face of evolving threats and real-world data challenges.
A new framework quantifies plasticity by linking network structure to dynamical regimes, offering a measurable way to understand a system’s responsiveness to change.