Taming Turbulence with AI: Discovering Hidden Fluid Dynamics
![Synthetic orbital trajectories, when guided by parameters reflecting periodic symmetry-such as [latex]\mathcal{T}^{s}\mathcal{R}^{a}\mathcal{S}^{m}[/latex] with varying <i>m</i> and <i>a</i>-converge to solutions of the Navier-Stokes equations, demonstrating a pathway to approximate fluid dynamics where dissipation and production rates align between synthetic (black) and converged (coloured) paths, as evidenced by trajectories reaching [latex]T\approx 1.56[/latex] and [latex]T\approx 2.46[/latex].](https://arxiv.org/html/2602.23181v1/2602.23181v1/figures/figposs94.png)
Researchers are harnessing the power of deep learning to uncover previously unknown periodic orbits within turbulent flows, offering new insights into complex fluid behavior.
![Synthetic orbital trajectories, when guided by parameters reflecting periodic symmetry-such as [latex]\mathcal{T}^{s}\mathcal{R}^{a}\mathcal{S}^{m}[/latex] with varying <i>m</i> and <i>a</i>-converge to solutions of the Navier-Stokes equations, demonstrating a pathway to approximate fluid dynamics where dissipation and production rates align between synthetic (black) and converged (coloured) paths, as evidenced by trajectories reaching [latex]T\approx 1.56[/latex] and [latex]T\approx 2.46[/latex].](https://arxiv.org/html/2602.23181v1/2602.23181v1/figures/figposs94.png)
Researchers are harnessing the power of deep learning to uncover previously unknown periodic orbits within turbulent flows, offering new insights into complex fluid behavior.

A new approach effectively isolates key biological variations in high-dimensional datasets by actively suppressing confounding background signals.
![The System for Evolving Goal-Based behaviors (SEGB) operates through a three-stage process-planning a high-fidelity future state prediction [latex]s^{\prime}\_{t+1}[/latex], generating an action [latex]a^{\prime}\_{t}[/latex] conditioned on that prediction, and then refining the decision-making through offline evolution guided by a frozen critic and reference model-with online inference streamlined to the efficient planning and action generation stages.](https://arxiv.org/html/2602.22226v1/2602.22226v1/x1.png)
Researchers have developed a novel framework that leverages diffusion models and reinforcement learning to create more effective and robust automated bidding strategies for online advertising.

New research reveals that Bayesian neural networks exhibit complex feature learning beyond simple Gaussian process behavior, offering a deeper understanding of their predictive power.

Researchers are leveraging the power of deep learning to pinpoint the source and energy of ultra-high-energy cosmic rays detected by ground-based radio antennas.

New research reveals why deep learning often lags behind tree-based methods on structured data, and introduces feature engineering techniques to level the playing field.

Researchers are leveraging the power of reinforcement learning to detect machinery faults by learning what ‘normal’ operation looks like, rather than relying on scarce labeled fault data.

A new study examines how artificial intelligence is being adopted by local journalism organizations and reveals a gap between expectations and practical implementation.

New research explores how carefully crafted instructions can unlock the potential of artificial intelligence to improve financial trading strategies.

Researchers are leveraging neural networks to rediscover and potentially improve upon classic algorithms for multiplying matrices, pushing the boundaries of computational efficiency.