100 Years of Quanta Complex-Dynamical Origin of Planck's Constant and Causally Complete Ext
复旦大学生物医学研究院科学家首次发现人体生理状态下存在大量非细胞核蛋白的乙酰化修饰
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饰特性与各种疾病 的关 系 , 指导相关药物 的有效开发 。
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癫痫是一种较常见的神 经疾病 , 发病 者 占人 口的 I %左 右, 通常认为癫痫 由神经 细胞异 常兴奋 所致 , 具体病 因 尚 但 未完全清楚 , 也未有根本 的治疗方法 。 日美科 学家的研究结 果有望为癫痫 的治疗研 究打开新 的思 路。该项 研究 的相关 论文发表于美 国《 国家科学院学报》 网络版 上。
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群落内物种多样性发生与维持的一个假说
生物多样性 1997,5(3):161~167CHIN ESE BIODIV ERSIT Y群落内物种多样性发生与维持的一个假说3张大勇 姜新华(兰州大学生物系干旱农业生态国家重点实验室, 兰州 730000)摘 要 本文根据作者对竞争排除法则的研究而提出了一个新的群落多样性假说。
按照作者的观点,占用相同生态位的物种可以稳定共存;这样,群落内物种多样性将受到4个基本因子所控制。
它们分别是:(Ⅰ)生态位的数量;(Ⅱ)区域物种库的大小;(Ⅲ)物种迁入速率,以及(Ⅳ)物种灭绝速率。
该假说强调区域生物地理过程与局域生态过程共同决定了群落内种多样性的大小及分布模式。
关键词 局域物种多样性,物种分化,区域物种库,生态位,竞争排除法则A hypothesis for the origin and maintenance of within2community species diversity/Zhang Dayong,JiangXinhu a//CHINESE BIODIVERSIT Y.—1997,5(3):161~167This paper formulates a novel hypothesis of community diversity on the basis of rejecting the competitive exclu2 sion principle.Since we accept the view that many species could occupy the same niche,local s pecies diversity is considered to be controlled by four fundamental factors,which are,res pectively,(Ⅰ)the number of niches in the community,(Ⅱ)the size of regional species2pool,(Ⅲ)species immigration rate,and(Ⅳ)species extinc2 tion rate.The hypothesis suggests that both regional biogeographic processes and local ecological processes will play an important role in determining the magnitude and pattern of community diversity.K ey w ords local species diversity,speciation,regional species2pool,niche,competitive exclusion principle Author’s address Department of Biology&State K ey Laboratory of Arid Agroecology,Lanzhou Univer2sity,Lanzhou 7300001 引言由于环境污染和生境破坏等人类活动的影响,大规模物种灭绝已成为当今社会所密切关注的一个焦点。
《2024年无穷维Hamilton算子的拟谱》范文
《无穷维Hamilton算子的拟谱》篇一一、引言在数学物理领域,无穷维Hamilton算子是一个重要的研究对象。
它涉及到量子力学、统计力学、场论等多个领域,是描述物理系统动态行为的关键工具。
近年来,随着科学技术的飞速发展,对无穷维Hamilton算子的研究也日益深入。
本文旨在探讨无穷维Hamilton算子的拟谱问题,分析其研究现状及未来发展方向。
二、无穷维Hamilton算子的基本概念无穷维Hamilton算子是一种描述物理系统动态行为的数学工具,其基本思想是将系统的能量函数(即Hamilton函数)与时间演化算子相结合,从而得到系统的动态演化规律。
在无穷维空间中,Hamilton算子具有丰富的谱结构和动力学性质,对于理解物理系统的行为具有重要意义。
三、无穷维Hamilton算子的拟谱研究拟谱是研究Hamilton算子谱结构的一种重要方法。
通过拟谱方法,可以了解Hamilton算子的本征值、本征函数以及谱的分布情况,从而揭示系统的动态行为和稳定性。
目前,对于无穷维Hamilton算子的拟谱研究已经取得了一定的成果。
首先,针对不同类型的无穷维Hamilton系统,研究者们提出了各种拟谱方法。
例如,对于具有周期性边界条件的系统,可以采用Floquet理论;对于具有混沌特性的系统,可以利用Lyapunov指数等方法进行分析。
这些方法的应用使得我们能够更深入地了解无穷维Hamilton算子的谱结构。
其次,在拟谱研究过程中,还涉及到了许多数学技巧和工具。
例如,利用函数分析、微分方程、线性代数等数学知识,可以更好地描述和解决无穷维Hamilton算子的谱问题。
此外,计算机技术的发展也为拟谱研究提供了强大的支持,使得我们可以进行更加精确和高效的数值计算。
四、无穷维Hamilton算子拟谱的研究现状目前,无穷维Hamilton算子的拟谱研究已经取得了重要的进展。
研究者们针对不同类型的系统和问题,提出了各种拟谱方法和技巧。
访李政道博士粤教版高三上册语文教案
访李政道博士粤教版高三上册语文教案访李政道博士粤教版高三上册语文教案李博士的谈话,使人们认识到作为科学家应具有的素质和能力,并解答了存在于大多数中国人心中的普遍的几个疑问,使人们对于科学、科学家有了更深层次的认识和理解。
以下是整理的访李政道博士粤教版高三上册语文教案,欢迎大家借鉴与参考!《访李政道博士》教案教学目标:1.了解人物访谈的特点及技巧;理解文中词语的含义。
2.把握全文信息,准确理解访谈核心;研究重点语句,理解访谈内容。
教学重点、难点:研究重点词句,理解访谈内容;把握课文特点,了解访谈技巧。
教具:多媒体。
一、导入李政道(Tsung-Dao Lee)美国物理学家。
1926年11月25日生于中国上海市,原籍江苏苏州。
1944-1946年先后就读于浙江大学、西南联合大学。
1946年入美国芝加哥大学物理系研究院学习,1950年6月获哲学博士学位。
1953-1960年历任美国哥伦比亚大学助理教授、副教授、教授,1960-1963年任普林斯顿高等研究院教授,1964年至今任哥伦比亚大学费米物理教,1984年至今任哥伦比亚大学“大学教授”。
李政道教授曾获:诺贝尔物理学奖(1957)、爱因斯坦科学奖(1957)、法国国立学院布德埃奖章(1969, 1977)、伽利略· 伽利莱奖章(1979)、意大利共和国最高骑士勋章(1986)、埃. 马诺瑞那爱瑞奇科学和平奖(1994) 等。
他是美国艺术和科学院院士(1959)、美国国家科学院院士(1964)、意大利林琴科学院院士(1986)和台湾“中央研”院士(1957)。
李政道教授关于弱相互作用中宇称不守恒定律以及其一些对称性不恒的发现,是极为重要的划时代贡献,为此,李政道教授和杨振宁教授共获1957年诺贝尔物理学奖。
他自幼酷爱读书,整天手不释卷,连上卫生间都带着书看,有时手纸没带,书却从未忘带。
抗战争时期,他辗转到大西南求学,一路上把衣服丢得精光,但书却一本未丢,反而一次比一次多。
滞库片烟长期存放过程中主要化学成分的变化
湖南农业大学学报(自然科学版)2023,49(4):395–399.DOI:10.13331/ki.jhau.2023.04.003Journal of Hunan Agricultural University(Natural Sciences)引用格式:马一琼,李悦,崔廷,白银帅,刘向真,赵森森,牛洋洋,刘超,贾国涛,程良琨.滞库片烟长期存放过程中主要化学成分的变化[J].湖南农业大学学报(自然科学版),2023,49(4):395–399.MA Y Q,LI Y,CUI T,BAI Y S,LIU X Z,ZHAO S S,NIU Y Y,LIU C,JIA G T,CHENG L K.Research on the change of main chemical components in aged flue-cured tobacco lamina during long-termstorage[J].Journal of Hunan Agricultural University(Natural Sciences),2023,49(4):395–399.投稿网址:滞库片烟长期存放过程中主要化学成分的变化马一琼,李悦,崔廷,白银帅,刘向真,赵森森,牛洋洋,刘超,贾国涛,程良琨* (河南中烟工业有限责任公司,河南郑州 450016)摘要:以已醇化3年的福建南平C3F、云南曲靖C3F、贵州黔西南C3F和C4F片烟为材料,连续5年取样,测定片烟在滞库期间常规化学成分(总植物碱、总糖、还原糖、总氮),高级脂肪酸(亚油酸、油酸、亚麻酸、十六酸、十八酸)和多酚化合物(绿原酸、隐绿原酸、莨菪亭、芸香苷)含量,并分析其变化。
结果表明:片烟的总糖、还原糖、亚麻酸、绿原酸、隐绿原酸和芸香苷含量随着滞库时间的延长呈现逐渐降低的趋势;主成分分析表明,片烟的主成分综合得分在滞库期间逐年下降,且在滞库2~3年后片烟会出现明显的品质下降;比较黔西南C3F和C4F片烟,C3F片烟在滞库4年后的综合得分开始低于滞库前的C4F片烟综合得分,说明滞库时间过长会使得片烟发生品质降级现象;比较南平、曲靖、黔西南的C3F片烟,曲靖片烟较耐贮藏,南平片烟不耐贮藏。
《2024年无穷维Hamilton算子的谱与特征函数系的完备性》范文
《无穷维Hamilton算子的谱与特征函数系的完备性》篇一一、引言在数学物理和量子力学中,Hamilton算子扮演着至关重要的角色。
对于无穷维Hamilton算子的研究,一直是物理学和数学领域的热点问题。
本文主要探讨无穷维Hamilton算子的谱的性质及其特征函数系的完备性。
通过对这一问题的研究,我们可以更好地理解量子力学中的物理现象,并进一步拓展其应用领域。
二、无穷维Hamilton算子的谱无穷维Hamilton算子的谱是一个复杂的数学结构,它涉及到无穷多个本征值和本征函数。
这些本征值和本征函数构成了Hamilton算子的谱空间,它们在量子力学中具有重要的物理意义。
首先,我们需要定义无穷维Hamilton算子的谱。
在数学上,我们可以通过求解Hamilton算子的本征值问题来得到其谱。
本征值问题是指寻找使得Hamilton算子作用在一个函数上后,该函数与一个常数(即本征值)的乘积仍然满足Hamilton算子的作用。
这些本征值和对应的本征函数构成了Hamilton算子的谱。
对于无穷维Hamilton算子,其谱具有一些特殊的性质。
例如,它的本征值可以是连续的或者是离散的。
当本征值是连续的时候,其对应的本征函数构成了一个完备的函数系。
这种完备性意味着任何可以被观测的物理量都可以用这些本征函数来近似表示。
三、特征函数系的完备性特征函数系的完备性是无穷维Hamilton算子研究中的重要问题。
一个完备的特征函数系意味着我们可以使用这些函数来描述系统的所有可能状态。
在量子力学中,这相当于说我们可以使用这些函数来描述系统的所有可观测量。
为了证明特征函数系的完备性,我们需要利用一些数学工具,如线性代数和泛函分析。
首先,我们需要证明特征函数系是线性无关的,即任何一个非零的线性组合都不可能为零。
然后,我们需要证明任何可以被观测的物理量都可以用这些特征函数来近似表示。
这通常需要利用一些高级的数学技巧,如Stone-von Neumann定理等。
诺贝尔化学奖抗衰老成分
诺贝尔化学奖抗衰老成分第一篇:诺贝尔化学奖抗衰老成分随着人类寿命的延长和科技的进步,对抗衰老的研究逐渐成为一项重要的领域。
在这个领域中,诺贝尔化学奖抗衰老成分所涉及的科学家们作出了杰出的贡献。
本文将介绍一些获得诺贝尔化学奖的抗衰老成分及其作用。
第一位获得诺贝尔化学奖的抗衰老成分研究者是伊莉莎白·布莱克本。
她在1985年发现了一种叫做端粒酶的酶,该酶能够延长端粒的长度,从而延缓细胞的衰老。
细胞的端粒是细胞染色体末端的一段DNA 序列,它们在细胞分裂时会逐渐缩短,当端粒缩短到一定长度时,细胞便停止分裂并进入衰老状态。
布莱克本的发现为抗衰老研究提供了新的方向,这项成果也使得她获得了2009年的诺贝尔化学奖。
另一位获得诺贝尔化学奖的抗衰老成分研究者是托玛斯·瑞德谢克。
他在1980年代末到1990年代初的研究中发现了细胞内一种叫做TOR(mTOR)的调控蛋白,该蛋白在细胞代谢和生长中起重要作用。
瑞德谢克的研究表明,通过抑制TOR蛋白的活性,可以延缓细胞的衰老进程,并增加生物体的寿命。
他在2009年与伊莉莎白·布莱克本共同分享了诺贝尔化学奖。
此外,还有一项与抗衰老相关的研究获得了诺贝尔化学奖。
戴维·辛格和新看得见树(它是日本东京工业大学的一个创业)合作,发现了一种叫做NAD+的物质在细胞内具有重要的抗衰老作用。
NAD+是一种细胞内常见的辅酶,参与多种生物化学反应,并与细胞能量代谢密切相关。
辛格和新看得见树的研究发现,通过提高细胞内NAD+水平,可以增强细胞的反应能力和生存能力,从而延缓衰老过程。
他们因此获得了2018年的诺贝尔化学奖。
总结起来,获得诺贝尔化学奖的抗衰老成分研究者,通过对细胞内关键分子和酶的发现和研究,揭示了抗衰老机制的一些重要细节。
这些成果为抗衰老研究的深入发展提供了基础,也为延长人类寿命带来了新的希望。
第二篇:诺贝尔化学奖抗衰老成分随着人类寿命的延长和科技的发展,对抗衰老的研究逐渐受到关注。
用于疾病和病症分析的无细胞DNA甲基化模式[发明专利]
专利名称:用于疾病和病症分析的无细胞DNA甲基化模式专利类型:发明专利
发明人:向红·婕思敏·周,康舒里,李文渊,史蒂文·杜比尼特,李青娇
申请号:CN201780047763.3
申请日:20170607
公开号:CN110168099A
公开日:
20190823
专利内容由知识产权出版社提供
摘要:本文公开了利用测序读取来检测并定量由血液样品制备的无细胞DNA中组织类型或癌症类型的存在的方法和系统。
申请人:加利福尼亚大学董事会,南加利福尼亚大学
地址:美国加利福尼亚州
国籍:US
代理机构:北京柏杉松知识产权代理事务所(普通合伙)
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常用量子化学词汇
Average,期望值,ab initio, 从头计算approximate,近似accurate, 精确atomiticity, 粒子性active, 活性的adiabatic, 绝热的,非常缓慢的anti-symmetry principle 反对称原理Basis,基组bra, 左矢,左矢空间,右矢空间的对偶空间boundary,边界条件Born-Oppenheimer 波恩奥本海默近似,绝热近似退耦后的进一步近似Configuration, 组态,电子排布correlation, 电子的相关作用commutation, 对易子coordinate, 坐标conjugate, 共轭core, 原子实convergence, 收敛,级数或积分收敛coupling, 耦合Coulomb’s Law, 库仑定律,麦克斯韦场方程的点电荷近似correspondence principle, 对应原理complete, 完备的complete active space (CAS), 完备的活性空间closed-shell, 闭壳层closed system, 封闭体系configuration state function (CSF)组态波函数Diagonalization,对角化Diagonal, 对角阵,对角元DFT, 密度泛函理论density,电子密度D-CI, double CIdynamical, 动力学的deterministic, 行列式的diabatic 未对角化的,非自身表象的,透热的Effective Hamiltonian, 有效哈密顿electron, 电子eigenvalue, 本征值eigenvector, 本征矢,无限维Hilbert空间中的态矢量external, 外加的energy, 能量excitation, 激发态excited, 被激发的exclusion principle不相容原理Functional, 泛函数function, 函数Fock space, Fock空间force, 力.,field场Gradient,梯度Gaussian, 高斯程序,高斯函数generic, 普适的Gauge 规范Hamiltonian, 哈密顿,Hessian, 二阶导数Hermitian, 厄米的Hartree 原子能量单位Integral, 积分internal, 内部的(内部自由度的)interaction, 相互作用independent, 不独立的invariant, 不变的iteration, 叠代interpretation, (几率)诠释interpolation,inactive不活动的J-integral, j积分jj-coupling jj耦合K-integral, k积分ket,右矢,右矢空间Linear algebra, 线性代数,linear combination of atomic orbitals (LCAO),原子轨函线性组合(法)local, 定域的locality, 定域物理量linear scaling, 线性标度low order,低对称性,有序度较低的情形Matrix, 矩阵,metric,矩阵的momentum, momenta,动量many-body theory,多体理论mechanics,力学,机理,机制multiconfiguration self-consistent field (MCSCF),多组态自洽场multireference (MR),多参考态方法minimization,最小化Normalization,归一化normal order, 正常序norm,已归一化的(波函数),N-electron, N电子体系nondynamic,非动力学的nonadiabtaic 非绝热的,有交换作用的,非渐变的Orbit,轨道orbital,轨道波函数,轨函observable, 可观测的(物理量)operator, 算符optimization, 优化one-electron,单电子,orthogonal, 正交的orthonormal, 正交归一的,open-shell,开壳层open system,开放体系,order-N第N阶(近似,导数)Principle,原理,原则property,性质particle, 粒子probability, 几率probabilistic, 几率性的potential,势PES, 势能面pseudo-, 赝的,pseudo vector赝矢量,pseudopotential,赝势perturbation theory,微扰理论Quantum, quanta, 量子quantized, 使量子化quantization,量子化的过程quotient,商quantity,数量,物理量Relativity,相对论,relativistic, 相对论性的representation,表示,表象Reference,参考系,参考态Spin, 自旋S-matrix, s矩阵,线性变换矩阵,散射矩阵symmetry, 对称性SCF, 自洽场stability,稳定性state,态scale,标度,测量shell,电子壳层spin-orbit coupling,自旋轨道耦合static,静态的space,空间,坐标空间的,banach/Hilbert Space,巴拉赫,希尔伯特空间spatial,空间的similarity transformation, 相似变换self-consistent field (SCF), 自洽场secondary ,二阶的,二级的,second quantization,二次量子化Transition state,过渡态time-dependent,含时的,对时间依赖的trace,矩阵的迹.Transformation,变换Universal,统一的,全同的。
本科翻译
由e→p作用极化偏移量确定G Ep/G Mp比值质子弹性电磁形状因子的比值(G Ep /G Mp),可以由对P t和P l(横向和纵向反冲质子极化量)的分别测定而得到。
在弹性碰撞e→p G Ep / G Mp正比于P t / P l。
使用偏振计对P t和P l同时进行测量使得系统误差得到了有效的控制。
实验结果表明随着Q2从0.5到3.5GeV2范围内增大G Ep / G Mp比值呈现出总体下降趋势,这标志着质子内部电磁流空间分布首次出现明确的分歧。
了解核子结构在核物理和粒子物理中十分重要;基本上此种了解对于描述强相互作用力是必要的。
显然,任何以QCD为基础的理论,对介子和核子的形状因子准确预测的能力都是对其有效性最严格的检验手段之一,因此要求精确的数据。
电磁相互作用为研究核子结构提供了独特的方法。
核子的弹性电磁形状因子描绘了其内部结构;而这种结构又是与其空间电荷和电流分布相关联的。
由Chambers和Hofstadter所作的对质子形状因子最早的研究[1]建立了弹性ep作用中单光子交换过程的“优势”。
该研究表明形状因子(Dirac F1p和Pauli F2p)仅取决于类空区域中弹性散射的四动量平方转移量。
F1p和F2p与≈0.5GeV2的Q2近似关联,其中Q2=4E e E’e sin2(θe/2),E’2和θe分别是散射电子的能量和散射角,而E e则是入射能量。
数据与偶极子形状相吻合,G D=(1+Q2/0.71)-2,描述了径向指数分布的特性。
Ep弹性散射横截面可以由Sachs形状因子(电场G Ep(Q2),磁场G Mp(Q2))。
其定义为:式中τ= Q2/4M2,κp是反常核子磁动量,M是质子质量。
在极限Q2→0时,G Ep=1且G Mp=μp (质子磁动量)。
非极化ep横截面为/式中ε虚光子纵向极化量,。
在Rosenbluth方法中,G2Ep和G2Mp的分离由测定一定范围内的ε值所给定的Q2下的横截面完成,而ε取值变化又是由改变束能量和电子散射角实现的。
普林斯顿 结构生物 类脑计算 经费
《普林斯顿:结构生物与类脑计算的探索与发展》一、引言在当今科技飞速发展的时代,结构生物学和类脑计算作为两大前沿交叉学科,对人类社会和科学技术发展产生了深远的影响。
作为这一领域的先锋,普林斯顿大学一直致力于对结构生物与类脑计算进行探索与发展。
本文将从普林斯顿大学的视角出发,全面评估和解析普林斯顿在这一领域的最新研究成果,并共享对结构生物与类脑计算的个人理解和观点。
二、普林斯顿:结构生物的前沿研究1. 普林斯顿在结构生物领域的权威地位作为一所拥有丰富研究资源和顶尖科研团队的顶尖大学,普林斯顿在结构生物领域拥有显著的研究优势。
在高分辨率结构生物学、蛋白质折叠与组装、大分子相互作用等方面,普林斯顿都有着卓越的研究成果和学术地位。
2. 普林斯顿的结构生物研究成果通过对普林斯顿在结构生物学领域的研究成果进行深入探讨,我们可以发现,普林斯顿在解析高分辨率蛋白质结构、研究生命大分子的结构与功能、探索生命活动的分子机制等方面取得了突破性进展。
这些成果不仅为生命科学领域的发展提供了重要的理论和实践支持,同时也为人类社会的生物医药、食品安全等方面带来了巨大的影响和推动力。
三、普林斯顿:类脑计算的前沿研究1. 普林斯顿在类脑计算领域的研究方向作为类脑计算领域的佼佼者,普林斯顿在神经科学、人工智能、认知科学等领域的研究成果备受关注。
通过对普林斯顿在类脑计算领域的研究方向进行全面评估,我们可以发现,普林斯顿在神经元信号传导模型、神经网络结构与功能的模拟、认知计算理论等方面取得了令人瞩目的成就。
2. 普林斯顿的类脑计算研究成果普林斯顿在类脑计算领域的研究成果不仅涉及基础理论研究,还包括脑-机器接口技术、人工智能系统的优化与应用、大规模脑网络行为建模等领域。
这些成果为人工智能、神经科学、认知计算等领域的交叉研究提供了重要的理论和技术支持,推动了类脑计算技术的迅速发展和应用。
四、结构生物与类脑计算的交叉研究1. 普林斯顿在结构生物与类脑计算交叉研究的探索普林斯顿在结构生物与类脑计算交叉研究的探索成果丰硕,涉及蛋白质与神经元的相互作用、大脑认知功能的生物结构基础、类脑计算技术在生物医学领域的应用等诸多领域。
Tim Hunt 简介
蒂姆•亨特(Dr. Tim Hunt)
蒂姆·亨特是从英国癌症研究中心荣誉退休的
“首席科学家”。
他生于1943年,在牛津长大,
1961年前往剑桥学习自然科学。
1968年,他凭
借《血红蛋白的合成》一文获得生物化学博士
学位。
亨特博士在剑桥度过了近30年时间,他最初致
力于蛋白质合成的控制,期间数次前往美国开
展研究。
1968年至1970年间,亨特博士担任爱因斯坦医学院博士后研究员;1977年至1985年间每个夏天,他都在位于伍兹霍尔的海洋生物实验室开展研究。
1982年,亨特博士发现了细胞周期蛋白,并藉此与利兰·哈特韦尔以及保罗·纳斯共同荣获2001年诺贝尔生理学或医学奖,“表彰他们发现细胞周期的关键调节因子”。
亨特博士撰写了两本书,包括与慕安得烈合著的《细胞周期简介》以及与约翰·威尔逊合著的《细胞的分子生物学习题集》。
亨特博士是多个科学咨询委员会成员,同时也是世界各地实验室的咨询委员会成员。
他曾
担任生命科学小组主席,负责评选欧洲地区杰出的青年研究人员。
此外,他还曾担任欧洲
分子生物学组织委员会主席,目前,他是欧洲科学研究委员会成员。
亨特博士是英国皇家学会会员,英国医学科学院成员,美国国家科学院外籍院士,欧洲分子生物学组织成员,美国艺术与科学学院外籍成员以及欧洲科学院成员。
他于2006年6月被授予爵士称号,妻子玛丽·柯林斯是伦敦大学学院生命科学学院院长,他们育有两个孩子。
纪念图灵百年诞辰(刘瑞挺)
创新思维卓越贡献特立独行传奇人生纪念艾伦·图灵百年诞辰刘瑞挺/文艾伦·麦席森·图灵(Alan Mathison Turing)1912年6月23日生于英国伦敦梅达维洛(Maida Vale, London),今年正好是他100周年诞辰。
这位英国皇家学会会员、数学家、逻辑学家,被国际公认为计算机科学与人工智能之父。
正当他具有奔流不息的思维源泉和将其付诸实践的巨大热情时,1954年6月7日图灵在英国柴郡的韦姆斯洛(Wilmslow, Cheshire)住所不幸意外辞世,差半个月才满42岁,一代科学巨星陨落。
长期以来,人们把图灵看得很神秘、很古怪、很遥远,令人敬畏而难以理解。
褒者认为他是奇才,贬者认为他是畸才。
事实上,他的确是涉猎广泛的科学天才,不仅对数学及计算科学,而且对物理学(量子力学与相对论)、化学(类似炼金术士般着迷)、生物学(生物形态及数学生物学)都有浓厚的兴趣与创新。
他看似对人漫不经心,但极其友善诚恳。
他是世界级的马拉松运动员,却陷于同性恋的惩罚与折磨。
真是人无完人、金无足赤,我们知道达·芬奇也是同性恋者,艾萨克·牛顿曾是隐秘而执著的炼金术士。
伟大的科学家并不是神,我们应该把图灵还原成真实的人。
家族溯源(1316-)图灵的父系家族来自法国诺曼底,家谱可追溯至1316年。
14世纪初该家族来到苏格兰的阿伯丁郡(Aberdeenshire)。
家族的格言是:“幸运帮助有胆量的人”(拉丁文Fortuna audentes juvat)。
这个姓氏有几个拼法:Turyn、Turine、Turin、Turing,其中Turin是法国姓氏。
17世纪初,当时威廉·图灵(Sir William Turyn)从英王詹姆斯一世(1566-1625,其间1567-1625为苏格兰国王,1603年起为英格兰国王)接受了骑士爵位后,才在词尾加了“g”,成为后来的英国姓氏Turing。
《2024年无穷维Hamilton算子的拟谱》范文
《无穷维Hamilton算子的拟谱》篇一摘要:本文旨在探讨无穷维Hamilton算子的拟谱问题。
首先,我们将介绍Hamilton算子的基本概念及其在物理和数学领域的重要性。
随后,我们将阐述拟谱方法的基本原理和在处理无穷维系统中的优势。
最后,我们将详细描述我们的研究方法和结果,以及这些结果对无穷维系统理论和相关领域研究的潜在贡献。
一、引言Hamilton算子是一种广泛应用于量子力学、光学、电磁学等领域的数学工具。
在处理具有无穷维度的系统时,Hamilton算子的谱问题变得尤为重要。
然而,由于无穷维系统的复杂性,直接求解其谱往往面临巨大挑战。
因此,寻求有效的拟谱方法成为研究的关键。
二、Hamilton算子的基本概念Hamilton算子是一种描述系统动力学的算子,具有特定的形式和性质。
在量子力学中,它描述了粒子的能量和动量关系。
在光学和电磁学中,它用于描述光场或电磁场的演化。
由于系统的复杂性,Hamilton算子往往具有无穷维度,使得其谱的求解变得困难。
三、拟谱方法的基本原理及优势拟谱方法是一种用于处理无穷维系统的数学方法。
它通过将系统在一定的近似空间中进行展开,将原本复杂的无穷维问题转化为有限维问题进行处理。
这种方法在处理具有复杂相互作用的系统时具有显著优势,能够有效地降低问题的复杂度。
四、无穷维Hamilton算子的拟谱研究针对无穷维Hamilton算子的拟谱问题,我们采用了一种基于拟谱方法的解决方案。
首先,我们选择了一个合适的近似空间,将Hamilton算子在这个空间中进行展开。
然后,我们利用数值方法求解展开后的有限维问题,得到Hamilton算子的近似谱。
最后,我们通过分析近似谱的性质,了解原系统的动力学特性。
五、研究方法与结果我们采用了一种基于多项式展开的拟谱方法。
首先,我们选择了一组合适的多项式基函数作为近似空间的基底。
然后,我们将Hamilton算子在这组基底上进行展开,得到一个有限维的矩阵表示。
《自然》杂志回顾百年抗衰老研究,提出了7种“延长寿命”手段
衰老研究的众多发现与健康衰老的治疗学《自然》杂志创刊于1869年,是世界上最权威的科学杂志之一。
古代几位皇帝的对“长生不老”的失败尝试,使得民间对抗衰老多有“异端邪说”的看法,然而科学界似乎已建立了严密的抗衰老研究体系。
为庆祝创刊150周年,《自然》杂志推出了一系列综述文章,本文回顾了抗衰老研究的百年历史,提出了7条相对“靠谱”的靠衰老策略。
几十年来,生物学家一直面临着如何理解衰老和寿命限制的挑战。
三十年前,通过鉴定延长多细胞模型生物寿命的基因变异,衰老生物学获得了前所未有的科学可信度。
在此,我们总结了标志着这一科学胜利的里程碑,探讨不同的衰老机制和过程,并指出老龄化研究正在进入一个具有独特医学特征、商业和社会影响的新时代。
我们认为,这个时代标志着一个拐点,不仅在老龄化研究中,而且对所有影响人类健康的生物研究中也是如此。
老龄化研究的关键的一步是1939年观察到限制小鼠和大鼠的热量摄入可延长寿命(图1)。
随后,在多种物种中也证实了这一发现,最近,在灵长类动物中,首次证实衰老过程的可塑性,过程可塑性的首次证明,也是遗传研究的先兆,这也是50年后遗传学研究的先兆。
显然,饮食限制不仅仅增加最大寿命,而且可以抑制与衰老引起的疾病的发展。
这些发现证实了一个概念:寿命的延长与延缓衰老,延长健康寿命有关,这意味着健康寿命的长度和没有疾病的总寿命的比例。
在20世纪中叶,这一领域开始辩论一个观点:衰老是与年龄相关的慢性病的病因。
而“病因”这一用词仍有争议,因为尽管衰老是年龄相关性疾病最重要的风险因素,但其因果关系仍不能证实。
一些明显的正常的衰老现象,以一种复杂的方式相互作用,导致疾病,这支持这一观点。
人们意识到,在实验室中,许多决定衰老速度的分子和生化机制正在研究,这些实验室只关注慢性疾病。
有趣的是,研究寿命遗传学和疾病模型的研究人员越来越多地与缺乏老龄研究专门知识的科学家合作。
为了将这一新领域与老年学(gerontology)区分开来,老年学被定义为老年和老年人的综合多学科研究,这门介于正常老龄化和慢性病之间的跨学科科学被称为“老年科学”(geroscience)。
海马氨基酸参与调控运动性疲劳大鼠学习记忆能力及海马ca1、ca3区c-fos的表达
海马氨基酸参与调控运动性疲劳大鼠学习记忆能力及海马ca1、ca3区c-fos的表达摘要: 本研究旨在探索海马氨基酸参与调控运动性疲劳大鼠学习记忆能力的机制以及海马CA1、CA3区C-Fos的表达情况。
通过T-maze试验,结果显示,与正常对照组相比,疲劳大鼠学习记忆能力显著下降,而在运动疲劳大鼠组,三个氨基酸分别为多巴胺,GABA和谷氨酸各自的表达量也显著降低。
此外,我们还发现,在海马CA1、CA3区,当使用不同剂量GABA和多巴胺作为药物时,会影响疲劳大鼠C-Fos的表达,即在CA1区,GABA可促进C-Fos的表达,而在CA3区,多巴胺可以促进C-Fos的表达。
本研究的结果提示,海马氨基酸可以调控运动性疲劳大鼠学习记忆能力,其中包括GABA和多巴胺,以及它们在海马CA1、CA3区C-Fos的影响。
关键词:氨基酸,运动性疲劳,学习记忆能力,多巴胺,GABA,海马,C-Fos正文:1 引言运动性疲劳是大部分人会面临的问题之一, 对其影响的探索一直是研究者们所关注的焦点。
运动性疲劳影响大脑的各个结构和功能,如神经信号传导、学习记忆能力和生物定位的影响,其中,海马是主要参与学习记忆的大脑结构。
目前的研究表明,在Aβ损伤,抑郁和NGF缺乏等大脑疾病中,GABA和多巴胺参与了神经信号传导和记忆学习的调控,但关于GABA和多巴胺在运动性疲劳大脑中的作用机制仍比较生疏。
2 材料和方法(1)实验动物及组织处理以大鼠为实验动物,分别以45天龄雄性SD大鼠(25-30g)为实验对象,随机分为正常对照组和疲劳组,每组8只,每天12点进行实验,一共三只。
处理药物前,测定大鼠的体温,用机械步态计训练,并且每天使用动物显微镜观察大鼠的体型,确定大鼠的健康情况。
(2)记忆轨道学习测试采用T Maze实验準备法,将学习时间从第一天开始,在10天内依次增加,实验分为正常对照组和疲劳组,将实验动物分别在T Maze实验室中进行实验,并采用摄像头记录大鼠的实验过程,以保证实验的公正性。
黑果枸杞花色苷的提取、纯化及降解动力学研究
连敏,高艺玮,年新,等. 黑果枸杞花色苷的提取、纯化及降解动力学研究[J]. 食品工业科技,2024,45(6):24−31. doi:10.13386/j.issn1002-0306.2023080105LIAN Min, GAO Yiwei, NIAN Xin, et al. Study on Extraction, Purification and Degradation Kinetics of Anthocyanins from Lycium ruthenicum [J]. Science and Technology of Food Industry, 2024, 45(6): 24−31. (in Chinese with English abstract). doi:10.13386/j.issn1002-0306.2023080105· 特邀主编专栏—枸杞、红枣、沙棘等食药同源健康食品研究与开发(客座主编:方海田、田金虎、龚桂萍) ·黑果枸杞花色苷的提取、纯化及降解动力学研究连 敏,高艺玮,年 新,王梦泽*(宁夏大学食品科学与工程学院,宁夏银川 750021)摘 要:以花色苷提取量为主要考察指标,通过单因素和正交试验优化冻干黑果枸杞花色苷提取工艺,并在此条件下研究花色苷纯化工艺及其降解动力学,探讨不同温度、pH 下花色苷提取量的变化。
结果表明,提取最佳工艺条件为:料液比1:25(g :mL )、乙醇浓度60%、pH4、提取时间2 h ,此条件下花色苷提取量达36.507±0.325 mg/g 。
研究显示AB-8大孔树脂纯化黑果枸杞花色苷效果最好,对花色苷吸附量和解吸量的影响效果最佳,其最佳条件为:上样液浓度200 mg/100 g ,解吸乙醇浓度80%,上样流速2 mL/min ,洗脱流速2 mL/min ,上样体积为5 BV ,纯化率为90.02%。
安捷伦科技公司授予脂质组学专家Jules Griffin博士“思想领袖奖”
安捷伦科技公司授予脂质组学专家Jules Griffin博士“思想
领袖奖”
张卫
【期刊名称】《中国食品》
【年(卷),期】2015(000)011
【总页数】1页(P141-141)
【作者】张卫
【作者单位】
【正文语种】中文
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物理化学一百年
物理化学一百年
威尔.,EB;吴颖
【期刊名称】《科学史译丛》
【年(卷),期】1989(000)003
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【作者】威尔.,EB;吴颖
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quant-ph/0012069100 Years of Quanta:Complex-Dynamical Origin of Planck's Constantand Causally Complete Extension of Quantum MechanicsA.P. K IRILYUK*Solid State Theory Department, Institute of Metal Physics36 Vernadsky Avenue, 03142 Kiev-142, UkraineABSTRACT. On 14 December 1900 Max Planck first formulated the idea of intrinsic discreteness of energy of solid-body oscillators and expressed the discrete energy portions, or quanta, as the product of frequency of emitted or absorbed radiation and a new universal constant now known as Planck's constant. Despite the following spectacular progress of thus initiated “quantum mechanics” (and “new physics” in general), the physical origin of both energy discreteness and universality of Planck's constant, determining quantization of very diverse object behaviour, remain mysterious, as well as other “peculiar” properties of quantum dynamics. In this paper we review the recently proposed, causally complete extension of quantum mechanics consistently explaining all its “mysteries”, including action and energy quantization, by the irreducibly complex, “dynamically multivalued” behaviour of the underlying simple, physically real system of two interacting protofields (quant-ph/9902015, quant-ph/9902016). We emphasize the truly fundamental and realistic character of the theory containing no imposed “postulates”, “principles”, or inserted “entities” except one, unavoidable (and mild) assumption about the qualitative, physical nature of the protofields. All the observed entities and their properties, starting from physically real space, time, and elementary particle structure, are consistently derived, in exact correspondence with their emergence in real, irreducibly complex system dynamics (physics/9806002). The latter provides also natural (dynamic) unification of the causally extended versions of quantum mechanics, relativity, and field theory, including unification and causal understanding of particle interaction forces. Intrinsic realism and completeness of the obtained world picture are in agreement with the “absolute reality” quest of Max Planck and actually confirm his famous doubts about the conventional, abstract and formally postulated scheme of quantum mechanics (cf. quant-ph/9911107, quant-ph/0101129). We outline various applications of the obtained results providing many independent confirmations of the theory and successful solutions to numerous fundamental and practical problems dangerously stagnating within the canonical, dynamically single-valued approach that continues to dominate in science because of purely subjective influences emphasised in the “scientific revolution” description by Thomas Kuhn.*Address for correspondence: A.P. Kirilyuk, Post Box 115, 01030 Kiev-30, Ukraine. E-mail: kiril@metfiz.freenet.kiev.ua.100 Years of QuantaCONTENTSPage 1. Introduction: Max Planck's absolute reality and the new physics . . . . . . . . 32.Unreduced interaction complexity as the causally complete solutionof quantum mysteries. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .2.1. Universal dynamic complexity and its relation to quantum behaviour. . . . . . . . .2.2. Dynamic quantization and elementary field-particle emergence. . . . . . . . . . . . .2.3. Classical behaviour emergence and causally extended relativity. . . . . . . . . . . . . 5 5 7 163. Theory confirmation by experiment and particular problem solution. . . . . 184. Conclusion: The absolute reality returns. . . . . . . . . . . . . . . . . . . . . . . . . . 29References. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 31A.P. Kirilyuk1. Introduction: Max Planck's absolute reality and the new physics One hundred years have passed now since the conventional “birth” of quantum mechanics on the 14th December of 1900 when Max Planck, the 42-year-old professor of the University of Berlin, presented a report at a meeting of German Physical Society where he specified the idea of fundamental discreteness of energy emitted and absorbed, in the form of electromagnetic waves, by any individual microscopic oscillator, or “resonator”, within a “black body”, which is an isolated system of solid body and its radiation maintained at certain temperature by the stationary (equilibrium) energy exchange between the body's oscillators and radiation [1]. This first explicit, well specified appearance of natural discreteness (or quantization) of energy did not create any remarkable resonance in the scientific community at that time and actually was a “frustrating” assumption of Max Planck difficult for him (see e. g. [2-4]), since he was “forced” to make it as the only possible “physical” explanation for the formula for energy spectrum of the black body radiation that was more formally obtained (partially “guessed”) by him shortly before that [5] by comparison of thermodynamical analysis results with both Wien's law (derived in 1886) and experimentally observed deviations from it at lower frequencies (that agree with the Rayleigh-Jeans law independently derived by W. Rayleigh in the same year 1900). The first cry of the whole “new physics” [6,7] was thus hardly heard by the scientific community, even though its further growth within the first three decades of the 20th century, including the correlated “explosive” emergence of quantum mechanics, special and general relativity, field theory, and cosmology, remains one of the most intensive and spectacular knowledge revolutions.However, the accomplishments of a hundred years of science development separating us from Planck's “undesired” child should not be exaggerated either, and further evolution of energy quanta hypothesis provides itself the best example of the intrinsic weakness of purely abstract, mechanistic way of the “new” science development imposed by certain its later, somewhat too “prodigious” promoters, often against the desire of original founders of new ideas, including Max Planck, who considered that any true scientific progress can only increase realism and consistency (or causal completeness) of knowledge [2,6,8]. Indeed, the basic assumption about the intrinsic discreteness of radiating oscillator (and any microscopic system) dynamics that gave rise to major doubts of its creator by contradiction to the “default” continuity of the “classical” world picture remains, within the conventional science, as poorly justified and “odd” today as it was at the moment of emergence one hundred years ago. The detailed scheme of quantum mechanics elaborated later only postulates , in various ways, but without any causal explanation, its key, properly “new” assertions, including the quantized character of observed quantities, which is universally determined by the fundamental action unit, Planck's constant h , introduced, together with its empirically specified value, in the original Planck communication [1]. The basic idea of microscopic oscillator energy discreteness is accompanied in [1] by the equally revolutionary assumption that each of the quantized portions of energy, ε, of emitted and absorbed electromagnetic radiation is proportional to its frequency, ν, with the constant h being the universal coefficient that relates the two quantities, h εν=. Both this relation and the ensuing idea of photon as the physically specified quantum of electromagnetic radiation remain causally unexplained and even more contradictory than other “quantum mysteries” concerning massive particle behaviour. In this sense, it is difficult not to acknowledge today that Max Planck was a “reluctant revolutionary” [4] for the right reason, and the modern huge amplification of debates about the basis of the “new physics” and increasingly interested reconsideration of the century-old “puzzles”, in direct connection to practical science problems [9-17], only confirm the major incompleteness of canonical science conventions that had provoked serious, and fully justified, Planck's doubts from the very beginning of their apparently “successful” establishment.Discreteness of mechanical action, always changing by portions of 276.626210erg s h −=×⋅, for the whole variety of elementary particles, compound (including macroscopic) quantum systems, and their properties (as diverse as nuclear, atomic and condensed matter phenomena, or else spin-related properties), is the central point of multiple manifestations of quantum-mechanical discreteness of any100 Years of Quantaobservable quantities, like energy and momentum, and therefore should also be directly related to the discrete structure of elementary material “bricks” of the world (elementary particle spectrum) and their intrinsic properties (such as rest mass, electric charge, and spin). This latter involvement of Planck's constant is specified, to a certain degree, within the idea of so-called “Planckian units” (of length, time, and mass-energy) playing a major role in particle physics constructions and first proposed, without any coincidence, by the same, “reluctant” (but honest and therefore true) revolutionary [18]. Neither the fundamental action discreteness, nor its astonishing universality, nor other related aspects of “quantum strangeness” (like “nonlocality”, “duality”, probabilistic “unpredictability”, measurement “uncertainty”, etc.) have ever been causally, physically explained by the conventional science, including its latest versions of the “theory of everything”, despite innumerable pseudo-philosophical speculations and purely abstract, always formally imposed constructions, postulates and “principles”. That major ambiguity in the very basis of conventional science world picture does not want to silently disappear behind visible successes of empirical applications of the postulated mathematical description, as many active proponents of the canonical quantum mystification seemed to hope (cf. “Copenhagen” and other “interpretations” in the scholar quantum mechanics), but on the contrary increasingly re-emerges today, around the next century border, as it can easily be seen from the current growing flux of works desperately tackling the same, “irresolvable” problems and the more and more evident impasse of the fundamental physics [19,20]. The resulting difficulties inevitably “propagate” to higher levels of the scholar picture of de facto unified real world, since even apart from the direct relation between neighbouring levels of world dynamics, the major deficiency of the most fundamental, quantum level certainly means that the whole conventional science misses “something essential” in its approach, which is simply more directly and “exactly” visible at the most elementary levels of dynamics.Commemorating the 100th anniversary of quanta, and thus of the whole “new” physics, it is important to emphasize, rather than to hide, those problems in its modern state, as well as the fact that its pioneer, Max Planck, together with other true founders, Louis de Broglie [21] and Erwin Schrödinger [22], was strictly opposed to any anti-realistic, formal postulation of purely abstract “principles”, or “laws of nature” and dangerous concessions to mysticism and inconsistent abstractions, which unfortunately dominated during the whole 20th century development of the fundamental science due to the well directed efforts of intrinsic adherents of the “mathematical physics” kind of imitation. The underlying difference in “moral principles” around the “acceptable” way of knowledge creation is also well illustrated by the firm logical and spiritual convictions of Max Planck [2,6,8] as compared to “fuzzy” values behind today's “post-modern” speculations of the “ironic science” [20] and shows quite clearly that any road of deviation from the unreduced truth/consistency and realism/causality leads inevitably to severe practical consequences for both science and its technological applications.One cannot (and should not) stop the purely empirical development of technology, but without being seriously supported “from below” by the unreduced, causal understanding of reality, the technically powerful, but actually blind technology will inevitably touch directly the core of the unknown reality, with the real risk of equally deep, “global” kind of catastrophic destruction, and that is exactly the present-day situation in science/technology resulting from the superficial, “easy” attitudes to progress within the elapsing century of decadence. One certainly may be missing complete understanding of new data and should continue to look for it, but one must not replace it by a seemingly useful, “practically sufficient”, but obviously incomplete imitation. That the creator of the hypothesis of quanta totally adhered to such attitude is clearly demonstrated by his “strangely” persistent doubts coming from their unexplained origin and contradiction to classical electrodynamics [2-4], even despite their quite successful appearance in his own work and convincing “experimental confirmation”. The same unreduced causality requirement underlies the related rejection by Max Planck of reality of light quanta (photons) introduced by Albert Einstein in 1905 to account for effects of light interaction with matter in a situation essentially similar to the black-body radiation system, where neither the necessity of the radiation field discreteness, nor its detailed structure and origin were implied by the occurring processes (indeed, the physical nature of photons remains completely mysterious in the scholar scienceA.P. Kirilyukpicture until now).* There are many other manifestations of unreduced realism and consistency in Max Planck's work and the way of doing science he defended, often with a reference to objectively existing, absolute reality independent of researchers and needing their ever growing understanding (see [2,6,8]).2. Unreduced interaction complexity as the causally complete solutionof quantum mysteries2.1. Universal dynamic complexity and its relation to quantum behaviourWhile the deep conflict between the unreduced reality and its abstract modelling in conventional fundamental science continues to grow ever since its explicit emergence in the “new physics” a century ago and now takes the form of a definite impasse of knowledge, or the “end of science” [20], accompanied by the blind technology domination, a qualitatively different, causally complete and well-specified solution to “unsolvable” problems of fundamental physics was recently proposed in the form of the new, reality-based concept of dynamic complexity, or “universal science of complexity” [23], that should be clearly distinguished from various abstract, non-universal and ambiguous imitations of complexity (see e. g. [24]) within the same, conventional science paradigm. The new, unreduced concept of dynamic complexity is based on the phenomenon of dynamic redundance, or multivaluedness, first discovered within theoretical description of a particular physical system of charged particle interacting with crystal and showing chaotic behaviour [25]. The results had much more general meaning and were then extended to progressively wider classes of systems incorporating general quantum chaos [26], quantum measurement and reduction for slightly dissipative quantum systems [27], and arbitrary real system of interacting entities with applications to particular cases from various levels of world dynamics, starting from elementary entities [21-23,28-30]. Universality of the dynamic redundance phenomenon, as well as accompanying dynamic entanglement-disentanglement mechanism of interaction development, the related concept of dynamic complexity and their mathematical description allows for application of the results obtained for quantum chaos and measurement cases to arbitrary system dynamics, which demonstrates the new level of unification within the obtained picture of world dynamics.The analysis performed within the generalised effective (optical) potential method [21,23,25-30] shows that if one avoids its usual reduction to a version of perturbation theory [31,32], actually simplifying the problem down to a trivial one by simultaneously cutting all its essential dynamical links, then the solution can still be obtained, but in the form of many “locally” complete, and therefore mutually incompatible, redundant system configurations, or realisations, instead of only one such realisation in the case of invariable perturbative reduction of the conventional analysis. Since all realisations are equally real and “try to appear” under the influence of the driving system interaction, they should permanently replace each other in a causally unpredictable, dynamically random (probabilistic) sequence, which means also that each particular system realisation, representing an arbitrary system state (configuration), is intrinsically, dynamically unstable and will inevitably be changed for another one “chosen” by the system in a causally random fashion. That unceasing change of the whole system configuration determines the causally specified, universal discreteness of arbitrary system dynamics and related irreversible flow of intrinsic time driven by the unreduced interaction process itself. The natural discreteness of system dynamics emerges only together with, and therefore is inseparable from, the inherent dynamic randomness of the sequence of discrete realisation appearance that provides the ultimate, universal, reality-based and purely dynamic source (and the very meaning) of *Knowing the incorruptible honesty of Max Planck's attitude to scientific results, one can be sure that his objection to the photon idea resulted from its obviously weak basis rather than any subjectively driven opposition to novelty. Being opposed to the idea, he accepted the original Einstein's paper for publication as the editor of the journal Annalen der Physik, in sharp contrast to today's self-interested manipulations of the dominating followers of the formal approach in science.100 Years of Quantarandomness in the world (unifying within it “unpredictability”, or “chance”, and “undecidability”). It is not surprising therefore that the universal science of complexity provides also the dynamic definition of probability and the method of its a priori calculation for arbitrary system.The complex-dynamic, intrinsic discreteness, or quantization, is different from any formal, artificially imposed discreteness by its relation to internal continuity of real system dynamics, since while performing its permanent transitions between realisations, the system should pass by a particular, highly irregular “intermediate” state, or “main realisation”, where the interaction components, closely entangled within each realisation, should transiently disentangle to a quasi-free state, in order to be again entangled into the next realisation configuration [21,23,28-30]. Therefore natural quantization of any real interaction process can be described as qualitatively nonuniform, highly uneven and essentially nonlinear, but internally continuous, rather than discontinuously punctuated/broken dynamics, even though both of them are opposed to uniformly continuous, or unitary, dynamics that inevitably results from the dynamically single-valued, effectively one-dimensional analysis of the conventional science.The involved internal structure of any real interaction process in the form of unceasing dynamic entanglement-disentanglement is obtained simply as a result of truly rigorous, unreduced (universally nonperturbative) interaction description, as opposed to huge, qualitative reduction of usual perturbative analysis actually “killing” all but one system realisations and thus also intrinsic complexity of any system dynamics (where complexity itself is universally defined in the unreduced description as any growing function of the total number of observed system realisations, or related rate of their change, equal to zero for the unrealistic limit of only one realisation [21,23,26-30]). Apparent “stability” of external shape/dynamics of certain, “regular” kind of system, as if confirming the validity of conventional, single-valued (perturbative) modelling, is simply due to the fact that those particular systems have closely resembling, densely spaced realisations, so that their internal change can easily remain unnoticed (especially when not particularly sought for), but individually specified, multiple system realisations still always exist and permanently change each other “inside” their observed external envelope. One deals here with the limiting regime of multivalued self-organisation of complex dynamics, whereas the opposite limiting case of uniform (global) chaos, showing itself as visibly “irregular” and “nonlocal” behaviour, corresponds to sufficiently differing, broadly spaced system realisations. It is evident that this latter case of unreduced (multivalued) complex dynamics just corresponds very well to the observed “mysterious” properties of essentially quantum systems, including natural quantization, intrinsically probabilistic character and uncertainty. Note also that any version of the conventional “science of complexity”, including usual “self-organisation”/“synergetics”, “chaos”, “criticality”, “catastrophes”, “multistability”, etc., as well as related simplified, “model” imitations, computer simulations and empirically based speculations do not propose any equivalent of dynamic multivaluedness phenomenon and actually always fall within the same, dynamically single-valued, perturbative description of reality as the standard, “non-complex” science (see [23] for more details).We see that the natural properties of unreduced complex behaviour of a system with interaction, rigorously derived within the unrestricted, reality-based analysis, provide at least qualitatively correct reproduction of “inexplicable” features of quantum behaviour, which should also be compared to the fact that dynamically complex behaviour is probably the unique possibility that has never been tried by usual theory as the origin of such properties, observed for both quantum and complex dynamics, as discreteness, duality (qualitative change of system state), nonlocality and randomness/unpredictability. Universal science of complexity shows [23] that those properties are unified manifestations of complex behaviour inevitably emerging (though with various visible magnitude) in any system of interacting components. Therefore, in order to obtain the well-specified causal extension of the standard, empirically based scheme of quantum mechanics, one needs to specify the particular system that gives rise to observed behaviour of elementary entities (particles, fields) and their structure as such. This requirement reveals the essential difference of the universal science of complexity from any canonical (positivistic, classifying) science version: the truly consistent, realistic understanding of the former implies explicit derivation of all observed entities and properties, in agreement with their emergence inA.P. Kirilyuknatural dynamical processes, instead of formally fixing (postulating) the fact of their existence under the deceitful name of “theory confirmed by experiment”. Every system, phenomenon, or level of reality is obtained from the unreduced interaction process and its development, instead of formal, axiomatic registration of its certain, artificially “chosen” and rigidly fixed results, whereas other ones remain “mysterious” and “inexplicable” (or even “incognizable”, according to the Copenhagen type of “quantum mysteriology”). We call the unreduced description of the unified world complexity at its lowest, microscopic (or “quantum”) levels quantum field mechanics [21-23,28-30].2.2. Dynamic quantization and elementary field-particle emergencesimplest possible system of interacting quantities that can indeed form the physical basis of Thethe observed world is given by two a priori uniform, physically real media, or “protofields”, homogeneously attracted to each other. Indeed, one cannot imagine yet simpler configuration of components that could give any further structure development (we refer to Occam's principle of parsimony), and at the same time we can show, using the unreduced interaction analysis of the universal science of complexity, that this simplest interaction configuration gives already autonomous emergence of elementary particles/fields, their interaction forces and all higher-level objects possessing the totality of experimentally observed properties, including the “essentially quantum” phenomena, now causally explained [21-23,28-30]. Such truly consistent description of the universal science of complexity involves only one “axiomatic” idea about a physical, rather than mathematical, origin that endows one of the interacting protofields with the electromagnetic (e/m) physical nature (because eventually it gives rise to the e/m entities and phenomena), while the second protofield is described as gravitational medium (because it gives rise to the gravitational interaction), in accord with universal and “extended” (like the protofields) occurrence of both e/m and gravitational phenomena. In fact, the actual protofield properties are causally specified later, by comparison of theory predictions with observations.In other words, this “physical” postulate simply specifies the tangible “quality”, or “type”, of our world which is “made of” some light e/m matter coupled to a much more “heavy”/“inert” and “rigid”/“viscous” material of the gravitational “matrix”* (whereas other worlds could be obtained by the same, universal and causally derived, kind of development of their structure from interacting media of different types and numbers). We argue that any truly consistent and realistic world description should be based exclusively on that type of “material” postulate specifying eventually (after full development of the basic component interaction) “what kind of fruit this world is” with respect to other possible “fruits” on the “tree of Creation”, as opposed to artificially imposed, greatly redundant number of abstract “axioms”, “principles” and “fundamental laws of nature” of the conventional science that demonstrate only the fundamental ignorance of reality within that particular form of knowledge having nothing to do with Nature and knowledge about it in general and actually related, as we show within our unreduced, dynamically multivalued description, to evident limitations of its perturbative, dynamically single-valued, and thus effectively one-dimensional projection of dynamically multivalued reality. Extending canonical science up to the full richness of real, multivalued dynamics, we can reconstitute the Max Planck's absolute (= objective, consistently understood) reality starting from its lowest, “quantum” levels, now liberated from conventional inconsistency and related mystification, so decisively rejected by the “reluctant” father of the “new physics”.In particular, the introduced physical foundation of the world, in the form of two protofields, and especially its e/m component, can serve (in their quasi-free state) as the causal version of the classical Newtonian “aether”, the necessary material, tangible basis of the universe, actually unifying it into a holistic, viable entity and so “proudly” rejected as “useless” by the triumphant 20th century positivism of the conventional relativity and other branches of “mathematical” physics. Since any real *This asymmetry between the two protofield properties leads, in particular, to a definite “bias” in the directly perceived world structure, which is “displaced” towards the e/m constituent of the system.。