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  2. Compound interest - Wikipedia

    en.wikipedia.org/wiki/Compound_interest

    As the number of compounding periods tends to infinity in continuous compounding, the continuous compound interest rate is referred to as the force of interest . For any continuously differentiable accumulation function a(t), the force of interest, or more generally the logarithmic or continuously compounded return , is a function of time as ...

  3. Continuously compounded nominal and real returns - Wikipedia

    en.wikipedia.org/wiki/Continuously_compounded...

    If this instantaneous return is received continuously for one period, then the initial value P t-1 will grow to = during that period. See also continuous compounding . Since this analysis did not adjust for the effects of inflation on the purchasing power of P t , RS and RC are referred to as nominal rates of return .

  4. Rule of 72 - Wikipedia

    en.wikipedia.org/wiki/Rule_of_72

    For continuous compounding, 69 gives accurate results for any rate, since ln(2) is about 69.3%; see derivation below. Since daily compounding is close enough to continuous compounding, for most purposes 69, 69.3 or 70 are better than 72 for daily compounding. For lower annual rates than those above, 69.3 would also be more accurate than 72. [3]

  5. What is compound interest? How compounding works to ... - AOL

    www.aol.com/finance/what-is-compound-interest...

    Since this example has monthly compounding, the number of compounding periods would be 12. And the time to calculate the amount for one year is 1. A 🟰 $10,000(1 0.05/12)^12 ️1

  6. Accumulation function - Wikipedia

    en.wikipedia.org/wiki/Accumulation_function

    The logarithmic or continuously compounded return, sometimes called force of interest, is a function of time defined as follows: = ′ () which is the rate of change with time of the natural logarithm of the accumulation function. Conversely:

  7. Exponential growth - Wikipedia

    en.wikipedia.org/wiki/Exponential_growth

    The growth constant k is the frequency (number of times per unit time) of growing by a factor e; in finance it is also called the logarithmic return, continuously compounded return, or force of interest. The e-folding time τ is the time it takes to grow by a factor e. The doubling time T is the time it takes to double.

  8. Rate of return - Wikipedia

    en.wikipedia.org/wiki/Rate_of_return

    The return in Japanese yen is the result of compounding the 2% US dollar return on the cash deposit with the 10% return on US dollars against Japanese yen: 1.02 x 1.1 − 1 = 12.2%. In more general terms, the return in a second currency is the result of compounding together the two returns: (+) (+) where

  9. Forward rate - Wikipedia

    en.wikipedia.org/wiki/Forward_rate

    , depends on the rate calculation mode (simple, yearly compounded or continuously compounded), which yields three different results. Mathematically it reads as ...