引用本文:
【打印本页】   【下载PDF全文】   查看/发表评论  【EndNote】   【RefMan】   【BibTex】
←前一篇|后一篇→ 过刊浏览    高级检索
本文已被:浏览 166次   下载 431 本文二维码信息
码上扫一扫!
脑科学与建筑城市领域交叉研究进展
王辉1, 刘奕江2, 关翔宇2
1.(通讯作者):清华大学建筑学院,教授,博士生导师,wh-sa@mail.tsinghua.edu.cn;2.清华大学建筑学院,本科生
摘要:
人对空间的认知与大脑有着密 不可分的联系,脑科学与建筑学科交叉 研究发现既能丰富空间脑认知基础研究, 同时也能贡献于建筑学科理论以及脑机 交互设计方法创新探索。通过梳理近年 来脑科学与建筑学科交叉研究相关文献, 可以发现研究主要包括空间认知的脑机 制解析、空间认知的脑健康影响与情感 分析以及脑机交互与设计等方面。研究 者从不同空间尺度类型出发,对空间认 知脑基础机制以及情绪健康影响展开探 索;研究者还探索了脑机交互与设计技 术方法,尝试通过大脑神经信号来开展 空间设计交互。这些交叉研究可以建构 从基础到应用、“学理—需求—技术”相 结合的路径,同时开辟了一个全新研究 领域,即关于“空间—脑—机”系统研 究的空间脑科学研究领域。
关键词:  人对空间的认知与大脑有着密 不可分的联系,脑科学与建筑学科交叉 研究发现既能丰富空间脑认知基础研究, 同时也能贡献于建筑学科理论以及脑机 交互设计方法创新探索。通过梳理近年 来脑科学与建筑学科交叉研究相关文献, 可以发现研究主要包括空间认知的脑机 制解析、空间认知的脑健康影响与情感 分析以及脑机交互与设计等方面。研究 者从不同空间尺度类型出发,对空间认 知脑基础机制以及情绪健康影响展开探 索  研究者还探索了脑机交互与设计技 术方法,尝试通过大脑神经信号来开展 空间设计交互。这些交叉研究可以建构 从基础到应用、“学理—需求—技术”相 结合的路径,同时开辟了一个全新研究 领域,即关于“空间—脑—机”系统研 究的空间脑科学研究领域。
DOI:10.13791/j.cnki.hsfwest.20241030003
分类号:
基金项目:国家自然科学基金面上项目(52378022)
Research progress in the intersection of brain science, architecture, and cities
WANG Hui,LIU Yijiang,GUAN Xiangyu
Abstract:
Human cognition of space is inextricably linked to the workings of the brain, yet how the human brain operates remains shrouded in numerous mysteries. Related brain science research constitutes a cutting-edge scientific question demanding urgent exploration. Concurrently, with the gradual proliferation of artificial intelligence and generative design applications, interdisciplinary research integrating brain science and architecture can both enrich fundamental studies on spatial brain cognition and contribute to architectural theory and the innovative exploration of brain-computer interaction design methods. Through a review and analysis of recent literature in related fields, this article identifies that primary research directions include parsing the brain mechanisms of spatial cognition, analyzing the impact of spatial cognition on brain health and emotions, and brain-computer interaction in design. Regarding the analysis of brain mechanisms for spatial cognition, some researchers in recent years have begun by parsing the fundamental brain mechanisms underlying spatial cognition – that is, how space influences and affects brain functional activity. The spatial elements involved range from more abstract basic spatial property elements to specific building types and even larger-scale urban open spaces. Some studies have utilized small-scale spatial constructs to assess the brain’s cognitive state concerning spatial elements, involving aspects like spatial perception and orientation in the brain. The relevant conclusions provide support for understanding the basic principles of human spatial cognition. Other scholars have approached from the perspective of architectural spatial scenes, investigating the impact of elements such as interior spaces and landmark buildings on brain activity. Unlike small and medium-scale spatial cognition research, urban spatial cognition studies focus more on large-scale spatial cognitive mechanisms, including wayfinding, path memory, and scene recognition.The aforementioned research has explored human brain activity responses in space through observational means like electroencephalography(EEG), enabling a deep analysis of the classic problem concerning the relationship between space and human cognition, which traditional architecture has long focused on. The spatial objects studied also encompass a variety of types, from abstract micro-spaces to buildings and further to urban open spaces. These studies have established a relatively mature research paradigm for architectural issues at both the object and methodological levels. By employing new technological means such as EEG monitoring, they have developed a set of methods for extracting and quantifying user perceptions and evaluations within space, providing technical and methodological support for analyzing related fundamental mechanisms. Building upon the analysis of brain mechanisms for spatial cognition, some research has further focused on the issue of how the spatial environment influences human emotions. In fields such as environmental psychology and healthy cities, the mechanisms linking space, behavior, and emotion have consistently garnered attention. Particularly, emotions and mental states induced by the environment, along with their corresponding impacts on physical and mental health, are current hot topics. Inspired by brain science theories and methods, some researchers have begun to examine the relationship between emotional health and brain activity mechanisms in environments, illustrating the impact of space on human cognitive health and emotions across multiple scales and types. This includes abilities like spatial orientation, navigation, and motor coordination within space, which subsequently affect psychological emotions and even social interactions. In recent years, some scholars have also explored brain-computer interaction and design technology methods. These studies involve interacting withcomputers and other devices through brain neural signals to explore theories and technical methods for spatial design or intervention. The integration of braincomputer intelligence and interactive design is a highly interdisciplinary field. Related research proposes a novel interdisciplinary approach. It can further explore practical applications supporting design interaction, achieving more direct human-computer design interaction or spatial use interaction, thereby enhancing the user experience in spatial design or use. These interdisciplinary studies can offer us insights. The path they embody – from basic to applied research, from internal mechanisms to health effects, and further to brain-computer interaction – is particularly worthy of our contemplation. The intrinsic thread of brain science crossover research is the integration of the trinity of “theoretical principles – demands – technology”. That is, it closely focuses on the core disciplinary issue of spatial brain cognition to analyze fundamental mechanisms. Based on this, it centers on demands such as human health and emotion, spatial quality improvement, and design participation/interaction, and combines cutting-edge technologies to explore methods and applications. This “theoretical principles-demands-technology” trinity also, to some extent, addresses the issue of scientization in architecture. It means both conducting frontier exploration through full interdisciplinary integration based on technological development, while simultaneously digging deep into theoretical depth, combining the two to interpret the intrinsic value and innovative potential of the architectural discipline.Furthermore, the main content of these crossover studies opens up a new field of research for us, namely the field of spatial brain science research concerning the “space – brain – machine” system. Inspired by advances in disciplines like brain science, it can take spatial brain science as a theme, actively exploring design theories and method systems influenced by fields like brain cognition and brain-computer interaction.
Key words:  brain science  spatial cognition  brain computer interaction  architecture and urban design  design methods