A Plasma Model of brain Dynamics
スポンサーリンク
概要
- 論文の詳細を見る
A plasma model of the brain is proposed to explain the long range correlations observed in the nervous system of the living brain and to understand such mental functions of the brain as the remembering (as well as forgetting) and the recalling of information received from the external world. In this model a waking but inattentive state of the brain is represented by a single-humped distribution function for the nerve cell activity (measured by the firing rate of bioelectrical impulses), and an attentive excited state brought about by an external stimulation by a distribution function with a small second hump on the tail. The quasi-linear approximation to the Liouville equation for the activity distribution function in the "neural phase space" predicts the flattening of the small hump and the formation of a plateau persisting for indefinitely long time, which is interpreted as the memory process of the brain. The model is compared with the model of Ricciardi and Umezawa, in which the stable memory of the brain is related to the Bose condensation into the ground state of the qnantum many-body system of Goldstone particles which are associated with the spontaneous breakdown of various symmetries in the brain.
- 理論物理学刊行会の論文
- 1972-10-25
著者
関連論文
- A Role of the Uncertainty Principle in General Relativity and the Limiting Size of Collapsing Fermion Spheres
- Evolutionary Regeneration Model of Thought Process
- Joining of Two Semiclosed Worlds and a Cosmological Model of Matter-Antimatter Asymmetry
- Role of Massless Vector Currents in the Joining of Matter-Antimatter Worlds and the Removal of Pinch-Off Singularity
- A Remark on the Norm of the Unstable State : A Role of Adjoint Wave Functions in Non-Self-Adjoint Quantum Systems
- A Plasma Model of brain Dynamics
- Cosmological Role of Weak Currents and a Quasar Model
- The Role of the Fluctuating Velocity Distribution in the Relaxation of Charged Particles in a Disturbed Plasma
- On the Effect of the Roughness of Wall Surfaces on the Critical Velocity of a Superfluid