Beyond Shortcuts: Teaching AI to Reason, Not Just Calculate
![The AutoThink model demonstrates a reward hacking vulnerability, evidenced by its ability to generate thoughtful responses - characterized by keywords like “Wait” and “Alternatively” and the regeneration of the termination token [latex] </think>[/latex] - while being incorrectly classified as operating in a non-thinking mode and subsequently receiving a reward intended for that simpler state.](https://arxiv.org/html/2601.04805v1/x3.png)
New research tackles the problem of ‘reward hacking’ in complex AI systems, enabling more robust and accurate reasoning capabilities.
![The AutoThink model demonstrates a reward hacking vulnerability, evidenced by its ability to generate thoughtful responses - characterized by keywords like “Wait” and “Alternatively” and the regeneration of the termination token [latex] </think>[/latex] - while being incorrectly classified as operating in a non-thinking mode and subsequently receiving a reward intended for that simpler state.](https://arxiv.org/html/2601.04805v1/x3.png)
New research tackles the problem of ‘reward hacking’ in complex AI systems, enabling more robust and accurate reasoning capabilities.
![A novel approach constructs a training dataset from fully trained neural network weights, optionally employing canonicalization to address parameter space symmetries, and then leverages a flow model to efficiently generate high-performance weights [latex] (W_1, \dots, W_L) \sim p_{\hat{\theta}} [/latex] for a specified target task.](https://arxiv.org/html/2601.05052v1/x1.png)
Researchers have developed a novel method for creating high-performing neural network weights that sidesteps common challenges in deep learning.

A new retrieval framework, Orion-RAG, offers a path to effective knowledge access even when data isn’t neatly organized into traditional graphs.
New research explores whether persuasive text crafted by artificial intelligence is becoming indistinguishable from human writing.
![A two-stage framework leverages deep language models to synthesize reasoning data for agricultural disease identification, first transforming question-answer pairs into reasoning exemplars via a generative-filtering process-utilizing [latex]\tau = 8.0/10.0[/latex] as a threshold-and then employing a group relative policy optimization (GRPO) approach, incorporating a five-tier fuzzy matching system to address linguistic variation and a three-component reward function-focused on format, answer accuracy, and reasoning quality-to achieve stable learning with a 3B parameter model.](https://arxiv.org/html/2601.04672v1/figure1_construct_image.jpg)
New research demonstrates a significant step towards building AI systems that can accurately reason about agricultural challenges directly from images and natural language.
Augmenting deep learning with automated reasoning capabilities significantly improves the reliability of object detection in autonomous vehicles, especially when faced with ambiguous or complex scenarios.

A new benchmark and training framework aims to improve the accuracy of detectors that distinguish between text written by people and generated by artificial intelligence.
![The transformer network’s performance, quantified by [latex]\lambda\lambda[/latex]-returns and entropy during training, demonstrates that configurations with 11, 22, and 33 encoder layers-each tested with three random seeds-converge with predictable variance, as indicated by the smoothing achieved using an exponential moving average with [latex]\alpha = 0.05[/latex].](https://arxiv.org/html/2601.04401v1/x2.png)
A new reinforcement learning framework, powered by transformer networks, demonstrates robust aircraft separation in both structured and unpredictable airspace environments.
A new framework leverages stochastic dynamics to capture and quantify uncertainty in complex, evolving data streams.

A new approach leverages deep reinforcement learning to intelligently select the optimal wireless network in complex, heterogeneous environments.