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:<math>\daleth (a, r) = a \sum_{n=0}^{\infty} r^{n} = \frac{at}{t-s} \iff |r| < 1 \and r = \frac{s}{t}</math>
 
:<math>\daleth (a, r) = a \sum_{n=0}^{\infty} r^{n} = \frac{at}{t-s} \iff |r| < 1 \and r = \frac{s}{t}</math>
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Here, ''a'' is the first term of the series, and ''r'' is the fraction that is exponentially multiplied to each term.
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:<math>a \sum_{n=0}^{\infty} r^{n} = a + ar + ar^{2} + ar^{3} + ...</math>
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Here are a few examples of the daleth function in action.
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:<math>\daleth (1, \frac{1}{2}) = \sum_{n=0}^{\infty} (\frac{1}{2})^{n} = \frac{1 * 2}{2 - 1} = \frac{2}{1} = 2</math>
   
 
The daleth hypothesis, proposed the same day, suggests that every rational number can be computed with the daleth function, although this hasn't been proven yet.
 
The daleth hypothesis, proposed the same day, suggests that every rational number can be computed with the daleth function, although this hasn't been proven yet.

Revision as of 22:56, 27 September 2018

The daleth function, as described by Gilbert Martinez on 27 Sep 2018, allows one to compute the sum of any geometric series.

Here, a is the first term of the series, and r is the fraction that is exponentially multiplied to each term.

Here are a few examples of the daleth function in action.

The daleth hypothesis, proposed the same day, suggests that every rational number can be computed with the daleth function, although this hasn't been proven yet.