Can AI Really Write Good Code?
A new review of the evidence reveals that the quality of code generated by artificial intelligence is far from guaranteed, and depends heavily on how humans interact with the technology.
A new review of the evidence reveals that the quality of code generated by artificial intelligence is far from guaranteed, and depends heavily on how humans interact with the technology.

Researchers have developed a novel framework that leverages interaction-aware modeling and reinforcement learning to significantly improve the accuracy and reliability of predicting where people will move in complex environments.
![The system translates natural language directives into structured specifications, validates them through a rigorous gatekeeping process-encompassing triad checks and compiler verifications-and subsequently reconstructs data across modalities like CT, MRI, and CASSI with performance-measured at [latex]24.824.8[/latex]dB, [latex]31.731.7[/latex]dB, and [latex]24.324.3[/latex]dB respectively-approaching expert-level quality with a mean ratio of [latex]98.1\pm 4.2[/latex]% and a theorem tightness ratio ranging from [latex]\tau\in[1.8,5.2][/latex] with a median of 2.9.](https://arxiv.org/html/2603.25636v1/x1.png)
A new framework uses natural language to automatically create computational imaging systems, opening doors to customizable and optimized image capture.

A new system combines advanced humanoid robots with real-time perception and reasoning to autonomously monitor and respond to hazards in industrial facilities.

Researchers have developed a framework for identifying causal relationships from complex, interdependent data, paving the way for deeper insights in fields like genomics.

New research demonstrates a coordinated navigation and printing system for mobile additive manufacturing robots, enabling continuous fabrication even over challenging terrain.

A new approach leverages causal inference to pinpoint the key design parameters that truly impact analog circuit behavior.
![The CRAFT framework establishes a collaborative system wherein specialized agents-directors with limited perspectives and a builder-construct a three-dimensional object through iterative instruction and action, leveraging [latex]PLACE[/latex], [latex]REMOVE[/latex], or [latex]CLARIFY[/latex] commands within a dedicated engine, while performance is assessed via large language model evaluations of spatial reasoning, cognitive modeling, and communicative effectiveness.](https://arxiv.org/html/2603.25268v1/x1.png)
New research reveals that even advanced artificial intelligence systems struggle with the nuances of effective communication, hindering their ability to collaborate on complex tasks.

Researchers are increasingly leveraging artificial intelligence to accelerate discovery, but a systematic approach to integrating AI into the research process is often lacking.

A new system dramatically reduces the need for real-world data collection by generating large, realistic datasets for training robots to manipulate deformable objects like cloth and rope.