<p>Amid the heated debate on whether artificial intelligence possesses a human-like capacity for understanding, the compatibility and interaction between human and algorithmic visual attention remain unclear. Here, we address this issue through the lens of spatial and feature-based attention. Using autonomous driving as an epitome of safety-critical domains, we show that human attention in driving tasks can be divided into three phases, each characterized by spatial, feature-based, and mixed visual attention. Comparisons between each phase of human attention and algorithmic attention revealed a complex landscape of human-AI resemblance. For specialized detection and planning algorithms, incorporating semantic-rich, feature-based human attention markedly enhanced performance, suggesting these models lack human-like semantic visual understanding. In contrast, for large-scale Vision-Language Models, the effect was task-dependent, suggesting that while foundation models have bridged the “reasoning gap” through massive pre-training, a “grounding gap” persists in fine-grained visual tasks. Crucially, our findings demonstrate that incorporating human semantic attention offers an effective and economic pathway to compensating for these gaps, enhancing model understanding in safety-critical and grounding-heavy tasks without the need for massive scale.</p>

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Human and algorithmic visual attention in driving tasks

  • Chen Zheng,
  • Pengfei Li,
  • Bu Jin,
  • Shanhe You,
  • Ka I Chan,
  • Ya-Qin Zhang,
  • Guyue Zhou,
  • Jiangtao Gong

摘要

Amid the heated debate on whether artificial intelligence possesses a human-like capacity for understanding, the compatibility and interaction between human and algorithmic visual attention remain unclear. Here, we address this issue through the lens of spatial and feature-based attention. Using autonomous driving as an epitome of safety-critical domains, we show that human attention in driving tasks can be divided into three phases, each characterized by spatial, feature-based, and mixed visual attention. Comparisons between each phase of human attention and algorithmic attention revealed a complex landscape of human-AI resemblance. For specialized detection and planning algorithms, incorporating semantic-rich, feature-based human attention markedly enhanced performance, suggesting these models lack human-like semantic visual understanding. In contrast, for large-scale Vision-Language Models, the effect was task-dependent, suggesting that while foundation models have bridged the “reasoning gap” through massive pre-training, a “grounding gap” persists in fine-grained visual tasks. Crucially, our findings demonstrate that incorporating human semantic attention offers an effective and economic pathway to compensating for these gaps, enhancing model understanding in safety-critical and grounding-heavy tasks without the need for massive scale.