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# Fundamental Chart For continuous compounding , the derivation is simpler and yields a more accurate rule:. In wanting to know of any capital, at a given yearly percentage, in how many years it will double adding the interest to the capital, keep as a rule [the number] 72 in mind, which you will always divide by the interest, and what results, in that many years it will be doubled. For periodic compounding, the exact doubling time for an interest rate of r percent per period is. Fundamental Chart A picture's worth a mountain of numbers— and our charts are excellent for isolating and highlighting a security's key leverage points, liberating them from the rows and columns of numbers and ratios in which they are often buried. The E-M rule could thus be written also as. For periodic compounding , future value is given by:. This approximation increases in accuracy as the compounding of interest becomes continuous see derivation below.

Alternatively, the E-M rule is obtained if the second-order Taylor approximation is used directly. For continuous compounding , the derivation is simpler and yields a more accurate rule:. From Wikipedia, the free encyclopedia. Not to be confused with year rule. A Primer , Chelsea Green Publishing , , page 33 box "Hint on reinforcing feedback loops and doubling time". All the Math You'll Ever Need. Mathematics portal Business and economics portal.

Retrieved from " https: Views Read Edit View history. This page was last edited on 26 August , at By using this site, you agree to the Terms of Use and Privacy Policy. Because of the exponential tails of the normal distribution, odds of higher deviations decrease very quickly. From the rules for normally distributed data for a daily event:.

From Wikipedia, the free encyclopedia. Linear and Nonlinear Models: Understanding Statistical Process Control. Czitrom, Veronica; Spagon, Patrick D. Benford Bernoulli beta-binomial binomial categorical hypergeometric Poisson binomial Rademacher soliton discrete uniform Zipf Zipf—Mandelbrot. Cauchy exponential power Fisher's z Gaussian q generalized normal generalized hyperbolic geometric stable Gumbel Holtsmark hyperbolic secant Johnson's S U Landau Laplace asymmetric Laplace logistic noncentral t normal Gaussian normal-inverse Gaussian skew normal slash stable Student's t type-1 Gumbel Tracy—Widom variance-gamma Voigt.

Discrete Ewens multinomial Dirichlet-multinomial negative multinomial Continuous Dirichlet generalized Dirichlet multivariate Laplace multivariate normal multivariate stable multivariate t normal-inverse-gamma normal-gamma Matrix-valued inverse matrix gamma inverse-Wishart matrix normal matrix t matrix gamma normal-inverse-Wishart normal-Wishart Wishart. Degenerate Dirac delta function Singular Cantor.

Circular compound Poisson elliptical exponential natural exponential location—scale maximum entropy mixture Pearson Tweedie wrapped. Retrieved from " https: