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MAJOR ACHIEVEMENTS OF THE INSTITUTE OF MATHEMATICS
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《Bulletin of the Chinese Academy of Sciences》 1996年第2期123-126,共4页
The Institute of Mathematics of the CAS is one of the major research center in mathematics in China.It has a high-level scientific team with rich human resources for scientific research.At present,it has over 80 resea... The Institute of Mathematics of the CAS is one of the major research center in mathematics in China.It has a high-level scientific team with rich human resources for scientific research.At present,it has over 80 researchers including 45 full professors,29 doctoral advisors and four CAS Members. Over the past ten years,the institute had made great contributions to the development of the mathematical cause in China.Many prizes have been awarded to re- 展开更多
关键词 CAS MAJOR ACHIEVEMENTS OF THE institute OF mathematics
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中国概率统计学会(CSPS)和Institute of Mathematical Statistics(IMS)2005年举办CSPS/IMS联合会议征文通知
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《应用概率统计》 CSCD 北大核心 2004年第3期333-333,共1页
经CSPS与IMS商定将于2005年在北京联合召开概率统计学术会议.该会议由中国概率统计学会和IMS联合主办,中国现场研究会、中国统计学会和中国统计教育学会协办.现已决定于2005年7月9日-12日(8日报到)在北京大学英杰交流中心举行这次“CSPS... 经CSPS与IMS商定将于2005年在北京联合召开概率统计学术会议.该会议由中国概率统计学会和IMS联合主办,中国现场研究会、中国统计学会和中国统计教育学会协办.现已决定于2005年7月9日-12日(8日报到)在北京大学英杰交流中心举行这次“CSPS/IMS 2005联合会议”.有关会议事宜如下: 1.投稿论文须是2005年7月底以前没有发表的. 展开更多
关键词 概率统计学 会议 CSPS/IMS CSPS institute of Mathematical Statistics
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Superrelativity
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作者 Peter Donald Rodgers 《Open Journal of Fluid Dynamics》 2016年第2期130-143,共14页
Did any physics experts expect SUPERRELATIVITY paper, a physics revolution producing the EINSTEIN-RODGERS RELATIVITY EQUATION, producing the HAWKING-RODGERS BLACK HOLE RADIUS, and producing the STEFAN-BOLTZMANN-SCHWAR... Did any physics experts expect SUPERRELATIVITY paper, a physics revolution producing the EINSTEIN-RODGERS RELATIVITY EQUATION, producing the HAWKING-RODGERS BLACK HOLE RADIUS, and producing the STEFAN-BOLTZMANN-SCHWARZSCHILD-HAWKING-RODGERS BLACK HOLE RADIATION POWER LAW, as the author gave a solution to The Clay Mathematics Institute’s very difficult problem about the Navier-Stokes Equations? The Clay Mathematics Institute in May 2000 offered that great $million prize to the first person providing a solution for a specific statement of the problem: “Prove or give a counter-example of the following statement: In three space dimensions and time, given an initial velocity field, there exists a vector velocity and a scalar pressure field, which are both smooth and globally defined, that solve the Navier-Stokes Equations.” Did I, the creator of this paper, expect SUPERRELATIVITY to become a sophisticated conversion of my unified field theory ideas and mathematics into a precious fluid dynamics paper to help mathematicians, engineers and astro-physicists? [1]. Yes, but I did not expect such superb equations that can be used in medicine or in outer space! In this paper, complicated equations for multi-massed systems become simpler equations for fluid dynamic systems. That simplicity is what is great about the Navier-Stokes Equations. Can I delve deeply into adding novel formulae into the famous Schwarzschild’s equation? Surprisingly, yes I do! Questioning the concept of reversibility of events with time, I suggest possible 3-dimensional and 4-dimensional co-ordinate systems that seem better than what Albert Einstein used, and I suggest possible modifications to Maxwell’s Equations. In SUPERRELATIVITY, I propose that an error exists in Albert Einstein’s Special Relativity equations, and that error is significant because it leads to turbulence in the universe’s fluids including those in our human bodies. Further, in SUPERRELATIVITY, after I create Schwarzschild-based equations that enable easy derivation of the Navier-Stokes Equations, I suddenly create very interesting exponential energy equations that simplify physics equations, give a mathematical reason for turbulence in fluids, give a mathematical reason for irreversibility of events with time, and enable easy derivation of the Navier-Stokes Equations. Importantly, my new exponential Navier-Stokes Equations are actually wave equations as should be used in Fluid Dynamics. Thrilled by my success, I challenge famous equations by Albert Einstein and Stephen Hawking [2] [3]. 展开更多
关键词 Superrelativity RELATIVITY Navier-Stokes Equation PHYSICS Albert Einstein Stephen Hawking Black Hole Clay mathematics institute
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MAXIMUM PRINCIPLES FOR GENERALIZED SOLUTIONS OF QUASI-LINEAR ELLIPTIC EQUATIONS 被引量:1
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作者 王向东 徐小增 梁廷 《Applied Mathematics and Mechanics(English Edition)》 SCIE EI 2003年第4期458-467,共10页
Under the assumption that the growth order of the free term to satisfy the natural growth condition with respect to gradient of the generalized solutions, the maximum principle is proved for the bounded generalized so... Under the assumption that the growth order of the free term to satisfy the natural growth condition with respect to gradient of the generalized solutions, the maximum principle is proved for the bounded generalized solution of quasi_linear elliptic equations. 展开更多
关键词 quasi_linear elliptic equation generalized solution maximum principleFORM INVARIANCE AND NOETHER SYMMETRICAL CONSERVED QUANTITY OF RELATIVISTIC BIRKHOFFIAN SYSTEMS$$$$ LUO Shao_kai 1 2 3 (1.institute of Mathematical Mechanics and Mathema
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Strong Consistency of the Spline-Estimation of Probabilities Density in Uniform Metric
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作者 Mukhammadjon S. Muminov Khaliq S. Soatov 《Open Journal of Statistics》 2016年第2期373-379,共7页
In the present paper as estimation of an unknown probability density of the spline-estimation is constructed, necessity and sufficiency conditions of strong consistency of the spline-estimation are given.
关键词 Strong Consistency Spline-Estimation Probability Density in Uniform Metric Uniform Metric Soatov Muminov Tashkent University institute of mathematics
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