Can AI Spot Deepfakes? FactGuard’s New Approach to Video Truth

A new agentic framework uses artificial intelligence to actively investigate and verify the authenticity of video content, moving beyond passive detection.

A new agentic framework uses artificial intelligence to actively investigate and verify the authenticity of video content, moving beyond passive detection.

A new framework leverages the power of generative models and adaptive control to dynamically allocate advertising budgets for maximum return.
![Across a series of continual learning tasks [latex] (0-9) [/latex], standard sequential learning (SB) and naive sequential calibration (SC) exhibited catastrophic forgetting, while continual learning methods demonstrated consistently improved performance, suggesting robust parameter estimation-as evidenced by reduced mean bias compared to estimates derived from Stan-is critical for retaining previously acquired knowledge.](https://arxiv.org/html/2602.22884v1/2602.22884v1/x6.png)
This research tackles the challenge of catastrophic forgetting in Bayesian neural networks by combining continual learning techniques to enable robust performance on evolving data streams.

Researchers have developed an AI framework capable of learning optimal Formula 1 race strategies through self-play and real-time adaptation.

Dominant tech companies are poised to control not just AI models, but the crucial process of inference, creating a new bottleneck for competition.
A new benchmark challenge reveals the critical importance of understanding user behavior and temporal dynamics in forecasting success within decentralized finance.

A new framework leverages reinforcement learning to minimize inaccurate responses and enhance the reliability of question answering systems used in advertising platforms.

A new training method incentivizes language model agents to self-report harmful actions, dramatically increasing the detection of covert attacks and bolstering overall safety.

Researchers are leveraging adversarial self-play to automatically generate challenging training data, significantly improving the robustness of multimodal AI systems against perceptual vulnerabilities.
![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.