How to resolve the algorithm Almkvist-Giullera formula for pi step by step in the Mathematica/Wolfram Language programming language
How to resolve the algorithm Almkvist-Giullera formula for pi step by step in the Mathematica/Wolfram Language programming language
Table of Contents
Problem Statement
The Almkvist-Giullera formula for calculating 1/π2 is based on the Calabi-Yau differential equations of order 4 and 5, which were originally used to describe certain manifolds in string theory.
The formula is:
This formula can be used to calculate the constant π-2, and thus to calculate π. Note that, because the product of all terms but the power of 1000 can be calculated as an integer, the terms in the series can be separated into a large integer term: multiplied by a negative integer power of 10:
Let's start with the solution:
Step by Step solution about How to resolve the algorithm Almkvist-Giullera formula for pi step by step in the Mathematica/Wolfram Language programming language
Purpose:
This Wolfram programming language code calculates a mathematical expression involving factorials and binomial coefficients, computes its sum over a range of values, and then calculates the reciprocal square root of the sum.
Detailed Explanation:
-
Step 1: Define Functions:
numerator[n_]
defines the numerator of a mathematical expression involving factorials and binomial coefficients.denominator[n_]
defines the denominator of the expression.
-
Step 2: Evaluate Numerator:
- The expression
numerator /@ Range[0, 9]
evaluates the numerator for values ofn
from 0 to 9 and stores the results in a list.
- The expression
-
Step 3: Calculate Sum and Compute Value:
- The expression
val = 1/Sqrt[Total[numerator[#]/denominator[#] & /@ Range[0, 100]]];
calculates the sum of the numerator/denominator ratio from 0 to 100 and assigns the square root reciprocal of the sum to the variableval
.
- The expression
-
Step 4: Display the Result:
- The expression
N[val, 70]
displays the numeric approximation ofval
with 70 decimal places.
- The expression
Output:
The code will output a numeric approximation of the value of val
, which is a complex number with both real and imaginary components. The specific value will depend on the accuracy of the calculation and the precision specified in the N
function.
Source code in the wolfram programming language
ClearAll[numerator, denominator]
numerator[n_] := (2^5) ((6 n)!) (532 n^2 + 126 n + 9)/(3 (n!)^6)
denominator[n_] := 10^(6 n + 3)
numerator /@ Range[0, 9]
val = 1/Sqrt[Total[numerator[#]/denominator[#] & /@ Range[0, 100]]];
N[val, 70]
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