Hawrylycz Michael, Anastassiou Costas, Arkhipov Anton, Berg Jim, Buice Michael, Cain Nicholas, Gouwens Nathan W, Gratiy Sergey, Iyer Ramakrishnan, Lee Jung Hoon, Mihalas Stefan, Mitelut Catalin, Olsen Shawn, Reid R Clay, Teeter Corinne, de Vries Saskia, Waters Jack, Zeng Hongkui, Koch Christof
Project MindScope, Allen Institute for Brain Science, Seattle, WA 98103
Project MindScope, Allen Institute for Brain Science, Seattle, WA 98103.
Proc Natl Acad Sci U S A. 2016 Jul 5;113(27):7337-44. doi: 10.1073/pnas.1512901113.
The scientific mission of the Project MindScope is to understand neocortex, the part of the mammalian brain that gives rise to perception, memory, intelligence, and consciousness. We seek to quantitatively evaluate the hypothesis that neocortex is a relatively homogeneous tissue, with smaller functional modules that perform a common computational function replicated across regions. We here focus on the mouse as a mammalian model organism with genetics, physiology, and behavior that can be readily studied and manipulated in the laboratory. We seek to describe the operation of cortical circuitry at the computational level by comprehensively cataloging and characterizing its cellular building blocks along with their dynamics and their cell type-specific connectivities. The project is also building large-scale experimental platforms (i.e., brain observatories) to record the activity of large populations of cortical neurons in behaving mice subject to visual stimuli. A primary goal is to understand the series of operations from visual input in the retina to behavior by observing and modeling the physical transformations of signals in the corticothalamic system. We here focus on the contribution that computer modeling and theory make to this long-term effort.
“思维Scope计划”的科学使命是了解新皮层,即哺乳动物大脑中产生感知、记忆、智力和意识的部分。我们试图定量评估这样一种假设:新皮层是一种相对均质的组织,由较小的功能模块组成,这些模块在不同区域执行共同的计算功能。我们在此将小鼠作为一种哺乳动物模式生物,其遗传学、生理学和行为在实验室中易于研究和操控。我们试图通过全面编目和表征其细胞组成部分以及它们的动态和细胞类型特异性连接,在计算层面描述皮质回路的运作。该项目还在构建大规模实验平台(即脑观测站),以记录接受视觉刺激的行为小鼠中大量皮质神经元的活动。一个主要目标是通过观察和模拟皮质丘脑系统中信号的物理转换,理解从视网膜视觉输入到行为的一系列操作。我们在此关注计算机建模和理论对这项长期工作的贡献。