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首页> 外文期刊>Bulgarian Journal of Agricultural Science >Non Equilibrium Thermodynamics for the Interactions of the See Quantum Scalar's System with the Classical Bio Fields in the Cellular Cryobiology and Anhydrobiology
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Non Equilibrium Thermodynamics for the Interactions of the See Quantum Scalar's System with the Classical Bio Fields in the Cellular Cryobiology and Anhydrobiology

机译:See量子标量系统与细胞低温生物学和脱水生物学中经典生物场相互作用的非平衡热力学

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The feature of the contemporary theoretical biological physics in the Cryobiology (the study of the structure of living cells and systems at very low temperatures) and anhydrobiology (the study of the structure of living cells and systems at low watercontents) is in common. 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 of any one concrete quantum field theory by the contemporary state of the interactions of the virtual quantum field with the classical bio fields is open by the consideration of high topographical complementarities by the London-force interactions involved importantly in the highly specific and strong but purelyphysical complexing of 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 et al., 1989,2006; Belaus and Tsvetkov, 1985) is hopped that by the grate form expressed e.g. by the thermodynamically and kinetic jump behaviour of the living cells and systems will be possibly to describe the biological expressions by means of concrete quantum field system too. From a grate interest is the so called problem of the connection between the entropy and the time arrow. With other words the connection between the entropy and the causality according to quantum field theory of the interactions between a quantum field system and external classical bio field modelled by the additional boundary conditions e.g. by the Casimir effect. It is knowing that one of the major causes of damage produced by the several effects at cellular level: (i) low temperature per se, (ii) direct effects of freezing and (iii) indirect effects of freezing and (iv) the biochemical modifications in the structure of the living cells by the lipids, phospholipids, proteins in the cell membrane formed by interacting of the "matter" fields such as a new electron distribution or the protonisation at a given time for the living cells and systems is freezing induced dehydration at very short distance scales, where various properties of the physical vacuum of any one concrete quantum field system, e.g. the systems of see scalars, for which the vacuum state must be conformed by means of the interactions with the classical bio fields or of additional boundary conditions are of crucial importance. At the molecular level (Mitter and Robaschik, 1999) the thermodynamic behaviour is considered by any concrete quantum 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 platesat face an periodic boundary condition. It is considered contributions from the volume L2d between the plates resp. L2(L-d) outside have different temperature (outside T, inside T). For the temperatures T' < T, the external pressure is reduced in comparison with the standard situation (T = T). Therefore it is expected the existence of a certain distance d_0, at which the Casimir attraction is compensated by-the net radiation pressure. That is possibly to investigate this field equilibrium point for this system or for hydro-logical equilibrium of the system membrane-solutions-water and its stability both for an isothermal and an adiabatic treatment of the interior region.
机译:当代理论生物学的特征在低温生物学(对低温下的活细胞和系统的结构的研究)和无水生物学(对低含水量下的活细胞和系统的结构的研究)中是共同的。以上问题的可能性在于,通过虚拟量子场与经典生物相互作用的当代状态,找到与生命和生命系统的存在有关的复杂表象及其在任何一种具体量子场论的数学框架中的位置。伦敦力相互作用对高地形互补性的考虑是开放的领域,相互作用主要涉及酶与底物,抗原与抗体的高特异性和强而纯的物理复合。来自环境冻结的新结果干燥和真空升华(Zwetkow,1985; Tsvetkov等,1989,2006; Belaus和Tsvetkov,1985)希望通过炉排形式表示通过活细胞和系统的热力学和动力学跃迁行为,也将可能借助具体的量子场系统描述生物学表达。出于兴趣,所谓熵和时间箭头之间的联系就是问题。换句话说,根据量子场理论的熵和因果关系之间的联系,量子场系统和外部经典生物场之间的相互作用是由附加的边界条件例如卡西米尔效应。已知由细胞水平上的几种作用引起的损害的主要原因之一:(i)本身的低温,(ii)冷冻的直接作用和(iii)冷冻的间接作用,以及(iv)生化修饰在活细胞的结构中,脂质,磷脂,细胞膜中的蛋白质是由“物质”场相互作用形成的,例如在给定的时间,新的电子分布或给定时间的质子化对于活细胞和系统而言是冷冻诱导的脱水在非常短的距离尺度上,其中任何一个具体的量子场系统的物理真空的各种特性,例如对于可见标量系统,必须通过与经典生物场或其他边界条件的相互作用来使真空状态保持一致,这是至关重要的。在分子水平上(Mitter和Robaschik,1999年),任何具有附加边界的混凝土量子场系统都将热力学行为视为考虑因素,这是通过两个平行且导电良好的方形板之间的卡西米尔效应(边L,距离d,L> d)嵌入一​​个大立方体(L面),其中一个板面对周期边界条件。可以认为是板之间的体积L2d的贡献。外部的L2(L-d)具有不同的温度(外部T,内部T)。对于温度T'

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