Nicholls Victoria I, Krugliak Alexandra, Alsbury-Nealy Benjamin, Gramann Klaus, Clarke Alex
Department of Psychology, University of Cambridge, Cambridge, United Kingdom.
Department of Psychology and Sports Sciences, Goethe University Frankfurt, Frankfurt am Main, Germany.
Imaging Neurosci (Camb). 2025 May 7;3. doi: 10.1162/imag_a_00568.
Objects in expected locations are recognised faster and more accurately than objects in incongruent environments. This congruency effect has a neural component, with increased activity for objects in incongruent environments. Studies have increasingly shown differences between neural processes in realistic environments and tasks, and neural processes in the laboratory. Here, we aimed to push the boundaries of traditional cognitive neuroscience by tracking the congruency effect for objects in real-world environments, outside of the laboratory. We investigated how neural activity is modulated when objects are placed in real environments using augmented reality while recording mobile EEG. Participants approached, viewed, and rated how congruent they found the objects with the environment. We found significant differences in ERPs and higher theta-band power for objects in incongruent contexts than objects in congruent contexts. This demonstrates that real-world contexts impact how objects are processed, and that mobile brain imaging and augmented reality are effective tools to study cognition in the wild.
与处于不一致环境中的物体相比,处于预期位置的物体能被更快、更准确地识别。这种一致性效应具有神经成分,在不一致环境中物体的神经活动会增强。越来越多的研究表明,现实环境和任务中的神经过程与实验室中的神经过程存在差异。在此,我们旨在突破传统认知神经科学的界限,通过追踪实验室之外真实世界环境中物体的一致性效应来实现。我们使用增强现实技术在记录移动脑电图的同时,研究当物体放置在真实环境中时神经活动是如何被调节的。参与者接近、查看并评价他们发现物体与环境的一致程度。我们发现,与处于一致情境中的物体相比,处于不一致情境中的物体在事件相关电位和较高的θ波段功率方面存在显著差异。这表明现实世界情境会影响物体的处理方式,并且移动脑成像和增强现实是研究自然环境中认知的有效工具。