从集势的连续性问题到乔治·康托猜想

zhu rongrong
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摘要

1878年,康托尔提出了他著名的猜想。康托尔著名的猜想是自然数集的势与实数集的势之间是否存在连续性。1900年,希尔伯特在巴黎举行的国际数学家大会上提出了23个著名数学问题中的第一个问题。目的研究自然数集与实数集之间集势的连续性,为人类基因组中男性基因片段的研究提供数学支持。方法利用集的无限划分和微分增量均衡理论对势进行扩展。存在一个对称关系,即无限分割的最小元素为2。当集合a一一对应于集合B的一个子集,但不能使a一一对应于B时,则称a的势小于B的势。如果a是a的势,B是B的势,则a < B。我们用~•0表示自然数集的势,用~•1表示实数集的势。目前尚不知道是否存在一个集合X, X的势满足~•0 < X < ~•1。结果自然数集和实数集的集合势不存在连续性问题,可以形成4个混合势。它属于超有限理论范畴。结论证明了康托尔猜想的自然数集和实数集的势。也就是说,X满足~ 0 < X < ~ 1的势不存在。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
From the Continuity Problem of Set Potential to Georg Cantor Conjecture
Background in 1878, Cantor puted forward his famous conjecture. Cantor's famous conjecture is whether there is continuity between the potential of the set of natural numbers and the potential of the set of real numbers. In 1900, Hilbert puted forward the first question of 23 famous mathematical problems at the International Congress of mathematicians in Paris. Purpose To study the continuity of set potential between the natural number set and the real number set, so as to provide mathematical support for the study of male gene fragment in human genome. Method The potential is extended by infinite division of sets and differential incremental equilibrium theory. There is a symmetry relation that the smallest element of infinite partition is 2. When a set A corresponds to a subset of a set B one by one, but it can't make A correspond to B one by one, the potential of A is said to be smaller than that of B. If a is the potential of A, and b is the potential of B, then a < b. We use ∼•0 to express the potential of natural number set and ∼•1 to express the potential of real number set. At present, it is not known whether there is a set X, the potential of X satisfies ∼•0 < x < ∼•1. Results There is no continuity problem in the set potential of the natural number set and the real number set, and four mixed potentials can be formed. It belongs to the category of super finite theory. Conclusion Cantor's conjecture is proved that potential of the natural number set and the real number set. That is, the potential of X satisfies ∼ 0 < x < ∼ 1 does not exist.
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