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首页> 外文期刊>Bulgarian Journal of Agricultural Science >Boundary conditions on the quantum scalar field system with a fluctuation's impulse operator of the vacuum state in living cells: theoretical field analysis of the concrete quantum field system with an impulse effect in the elementary living cells.
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Boundary conditions on the quantum scalar field system with a fluctuation's impulse operator of the vacuum state in living cells: theoretical field analysis of the concrete quantum field system with an impulse effect in the elementary living cells.

机译:具有活细胞中真空状态的涨落脉冲算子的量子标量场系统的边界条件:在基本活细胞中具有脉冲效应的具体量子场系统的理论场分析。

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摘要

The mathematical description of the world is based on the fine play between the continuity and discrete. The discrete is more remarkable than the continuity things as any one-wave quantum field vacuum state defined on the algebraic entities. They can be singularities, bifurcations and autoremodality of this ground state. The classical field theory is a theory of the continuity also describes the principle of the shot-range interaction in the nature. The twenty century has given the quantum field theory that is the theory of the discrete world of the quantum entities. The global effects from the quantum field theory by the interactions of the elementary particle are the appearances of a vacuums structure of every one-quantum field system, e g. the relativistic quantum field. The question above the possibility to find the complicate appearances connected with the existence of the life and the living systems his place in the mathematical frame by the intersection between the classical and the quantum describing of the world of any one concrete quantum field theory by the contemporary ground state of the theoretical biological and nanophysics problems is open by the consideration of high topographical complementarities by the London- and Casimir forces involved importantly in the highly specific and strong but purely classical physical thermodynamically and quantum physically complexity of elementary living cells by enzymes with substrates, of antigens with antibodies, etc. From the new results by the contributions of the environmental freezing-drying and vacuum sublimation (Zwetkow, 1985; Tsvetkov and Belous 1986, Tsvetkov et al., 1989; Tsvetkov et al., 2004-2011) is hopped that by the great form expressed e.g. by the automodality (scaling) behaviors of the invariant entities by the energy impulse tensor described the elementary living cells and systems will be possibly to describe the biological expressions at the standpoint of the nanophysics by means the behavior of the concrete quantum field system, e.g. sea virtual quantum scalar particles in the physical vacuum with a boundary conditions on every one surface S too. It is possibly that in this processes in the theory will be introduced an elements of the non locality (similar to the Coulomb forces in the Quantum electrodynamics and the Casimir force as global appearances by the interaction of the quantum electromagnetic field with the classical objects e.g. classical boundary conditions or the so called string objects in the Quantum chromo dynamics). On essential result of the perturbation theory in the relativistic quantum fields is the importance of the non-local operator's expansion on the light cone describing by the quantum chromo dynamics (understanding in the sense of quantum electrodynamics) with the concept of the automodality principle by the autoremodality of the vacuum. This can be understood by means the consideration of the micro causality conditions for the invariance entities in the sense of the maximal singularity considered by the S-matrix theory (Bogolubov et al., 1987) in the deep inelastic scattering of the lepton and hadrons without model consideration, e.g. quantum electrodynamics (Bogolubov et al., 1976). At the molecular level (Mitter and Robaschik, 1999) the thermodynamics behavior is considered by quantum electromagnetic field system with additional boundaries as by the Casimir effect between the two parallel, perfectly conducting square plates (side L, distance d, L > d), embedded in a large cube (side L) with one of the plates at face.
机译:对世界的数学描述是基于连续性和离散性之间的良好关系。离散比连续性更显着,因为在代数实体上定义的任何单波量子场真空状态。它们可以是该基态的奇异性,分叉和自重整形。经典场论是一种连续性理论,也描述了自然界中射击场相互作用的原理。二十世纪提出了量子场论,即量子实体离散世界的理论。量子场论通过基本粒子的相互作用产生的整体效应是每个单量子场系统的真空结构的出现。相对论量子场。通过当代人对任何一个具体量子场论世界的古典与量子描述之间的交点,有可能找到与生命和生命系统的存在有关的复杂表象的可能性,这个复杂表象是他在数学框架中的位置通过考虑伦敦和卡西米尔势力的高地形互补性,理论生物学和纳米物理学问题的基础状态是开放的,这主要涉及具有酶的底物对基本活细胞的高度特异性和强而纯净的经典物理热力学和量子物理复杂性根据环境冷冻干燥和真空升华的新结果(Zwetkow,1985; Tsvetkov和Belous 1986,Tsvetkov等,1989; Tsvetkov等,2004-2011)。跳来跳去以一种伟大的形式表达,例如通过能量脉冲张量描述的不变实体的自动模态(缩放)行为,基本活细胞和系统将可能通过具体的量子场系统的行为来描述纳米物理学观点的生物学表达。在每个表面S上都有边界条件的物理真空中的海虚量子标量粒子。有可能在理论的这一过程中,将引入非局部性的元素(类似于量子电动力学中的库仑力和卡西米尔力,这是通过量子电磁场与经典对象(例如经典)的相互作用而整体呈现的。边界条件或量子色动力学中的所谓字符串对象)。相对论量子场中微扰理论的基本结果是,非局部算子在光锥上的扩展的重要性由量子色动力学(从量子电动力学的意义上理解)描述,具有自模态原理。真空的自动重整性。这可以通过在S矩阵理论(Bogolubov等,1987)在轻子和强子的深层非弹性散射中考虑最大奇点的意义上考虑不变性实体的微观因果条件来理解。模型考虑,例如量子电动力学(Bogolubov等,1976)。在分子水平上(Mitter和Robaschik,1999),量子电磁场系统考虑了具有附加边界的热力学行为,这是由两个平行的,完美导电的方形板(边L,距离d,L> d)之间的卡西米尔效应引起的,嵌入大立方体中(L面),其中一块板在正面。

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