n个竞争者到达线上可能状态组合问题的两个假设

IF 4.6 2区 数学 Q1 MATHEMATICS, APPLIED Applied and Computational Mathematics Pub Date : 2021-06-22 DOI:10.11648/j.acm.20211003.11
Nicolae Popoviciu
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引用次数: 0

摘要

在一个非常小的t时间间隔内,几个跑步者可以占据到达线上的同一个位置(假设1)。每个跑步者都有自己的名字和比赛号码(在衬衫上)。跑步者的数量是一个自然数n。对于每个给定的n,假设会产生一个具有许多可能状态的组合问题。所有的符号都是经过选择的,这样就可以很容易地用名字来表示它们的意思。这些状态分为两类:非名义状态和名义状态。这些状态与到达线上的I、II、III等位置有关。需要生成非名义状态的总数(到达线上)和名义状态的总数。为了生成状态,工作使用了一些公式和一些专门的算法。例如,所有非标称状态的构造建议位置I的字符串使用递减字符串。同样的规则对位置II有效,但对子字符串等有效。大量的数值例子说明了状态的生成。一个独立的方法验证状态生成的正确性。为了继续研究组合问题,本文在第5节引入了两个新概念。在最终分类中,定义了标称已知转轮的部分频率和最终频率的概念,并给出了计算公式。第6节构建了最终分类附带的随机变量和到达线上每个位置的概率。每个选手都会得到一个与他最终的分类相关的分数(一些点)。可能赛跑者有兴趣知道占据第一名(位置I)的概率,并估计可能的点数。所有的结果都可以写在一个集中表中(第7节)。第8节包含了几个带有统计计算的数值例子。在工作结束时,我们用假设2代替假设1:每个位置只能有一个跑步者。所有这些概念都有了新的具体形式。数值算例说明了该理论。
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Two Hypothesis on a Combinatorial Problem for Possible States on the Arrival Line for n Competitor Runners
In a very small t-time interval, several runners could occupy the same place on the arrival line (hypothesis 1). Each runner has his own name and a competition number (on the shirt). The number of runners is a natural number n. For each given n, the hypothesis creates a combinatorial problem having a lot of posible states. All notations are choose so that to indicate easily by name their meaning. The states are separated into two classes: non-nominal states and nominal states. The states are related with the place I, II, III etc on arrival line. It is necessary to generate the total number of non-nominal states (on arrival line) and the total number of nominal states. In order to generate the states the work uses some formulas and some specialised algorithms. For example, the consrtuction of all non-nominal states recommends that the string for the position I to use a decreasing string. The same rule is validly for position II, but for sub-strings etc. A lot of numerical examples ilustrate the states generation. An independent method verifies the correctitude of states generation. In order to continue the study of combinatorial problem, the work introduces two new notions in section 5. The notions of partial frequency and final frequency are defined for a nominal known runner in final classification, together with computational formulas. The section 6 constructs the random variables attached to final classification and the probability of each place on arrival line. Each runner receives a score (a number of points) related with his final classification. May be the runner is interested to know the probability to ocuppy the first place (place I) and to estimate the number of possible points. All the results could be written in a centralisation table (section 7). Section 8 contains several numerical examples with statistical computations. At the end of the work we replace hypothesis 1 by hypothesis 2: only one runner could ocuppay each place. All the above notions have a new specific form. The numerical examples ilustrates the theory.
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来源期刊
CiteScore
8.80
自引率
5.00%
发文量
18
审稿时长
6 months
期刊介绍: Applied and Computational Mathematics (ISSN Online: 2328-5613, ISSN Print: 2328-5605) is a prestigious journal that focuses on the field of applied and computational mathematics. It is driven by the computational revolution and places a strong emphasis on innovative applied mathematics with potential for real-world applicability and practicality. The journal caters to a broad audience of applied mathematicians and scientists who are interested in the advancement of mathematical principles and practical aspects of computational mathematics. Researchers from various disciplines can benefit from the diverse range of topics covered in ACM. To ensure the publication of high-quality content, all research articles undergo a rigorous peer review process. This process includes an initial screening by the editors and anonymous evaluation by expert reviewers. This guarantees that only the most valuable and accurate research is published in ACM.
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