斐波那契数列和数学与音乐中的黄金比例

Nicole E Vassilev
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引用次数: 0

摘要

斐波那契数列的确切起源是未知的。然而,人们普遍认为,意大利数学家比萨的列奥纳多首先使用了这个方法来解决兔子的繁殖问题。它已经发展成为一个复杂的系统,已经被使用和教授了许多世纪。无论我们是否意识到这一点,斐波那契数和相关的思想几乎可以在我们生活的方方面面找到。斐波那契数列由一组以0和1开头的数字组成,其中每个数字是该数列中前两个数字的和。例如,0、1、1、2、3、5是斐波那契数列中的第一个数字,因为0 + 1 =1、1 + 1 =2、1 + 2 =3和2 + 3 =5。此模式适用于斐波那契数列中的任何数字。两个相邻的斐波那契数之比总是非常接近1.618,即“黄金比例”。1.618也被称为“phi”,源于希腊字母中第21个字母。我的研究将着眼于斐波那契数列和黄金比例在音乐中的具体应用。在基础层面上,斐波那契数列可以在一个尺度内观察到。音阶中的第5个音符是最重要的,它恰好是一个八度的第8个音符,它由13个音符组成。8除以13,四舍五入的结果是0.615,这个数字与黄金比例几乎相同。需要注意的是,5、8和13都是斐波那契数列中的数字。除了这个基础水平,斐波那契数列和黄金比例在大型音乐作品的创作中发挥着更广泛的作用,例如匈牙利作曲家b2013.2013.0的一首作品的第一乐章。他的作品《弦乐、打击乐器和塞莱斯塔音乐》分为两部分。第一部分有55个小节,第二部分有34个小节。当这些数字除以,你得到1.6176,四舍五入,是1.618(黄金比例)。斐波那契数列也出现在节奏中,例如b.c. Manjunath的复杂Konnakol节奏,它使用斐波那契数列的前八个数字作为基础。我的研究将探讨斐波那契数列和黄金比例在音乐结构中的出现,以便更清楚地展示音乐和数学之间的相似之处。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Fibonacci Sequence and The Golden Ratio in Math and Music
The exact origin of the Fibonacci sequence is unknown. However, it is widely recognized to have first been used by Leonardo of Pisa, an Italian mathematician, to solve a breeding issue with rabbits. It has since evolved into a complex system that has been used and taught for many centuries. Whether we realize it or not, Fibonacci numbers and related ideas can be found in almost everything in our lives. A Fibonacci sequence consists of a list of numbers beginning with 0 and 1, in which each number is the sum of the two previous numbers in the sequence. For example, 0, 1, 1, 2, 3, 5 are the first numbers in the Fibonacci sequence, because 0 + 1 =1, 1 + 1 =2, 1 + 2 =3, and 2 + 3 =5. This pattern applies to any number in a Fibonacci sequence. The ratio of two fibonacci numbers that are one next to each other will always be extremely close to 1.618, the “golden ratio.” 1.618 is also known as ”phi” which originates from the 21st letter in the Greek alphabet ɸ. My research will look into the application of the Fibonacci sequence and the golden ratio in music specifically. On a foundational level, the Fibonacci sequence can be observed within a scale. The 5th note in a scale is the most important, and it happens to be the 8th note in an octave, which consists of 13 notes. Upon the division of 8 by 13, the rounded result is 0.615, a number practically identical to the golden ratio. It’s important to note that 5, 8, and 13 are all also numbers in the Fibonacci sequence. Beyond this foundational level, the Fibonacci sequence and golden ratio play a more widespread role in the composition of large musical works, such as in the first movement of a piece by Hungarian composer Béla Bartók. His piece, Music For Strings, Percussions and Celesta, is divided into two parts. Part one has 55 measures, and part two has 34 measures. When those numbers are divided, you get 1.6176, which when rounded, is 1.618 (the golden ratio). The Fibonacci sequence also makes appearances in rhythm, such as in the complex Konnakol rhythm by B.C Manjunath, which uses the first eight numbers of the Fibonacci sequence as its basis. My research will explore these occurrences of the Fibonacci sequence and the golden ratio in musical construction in order to more clearly demonstrate the parallels between music and math.
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