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How to calculate annually compounded interest?


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I am having some troubles understanding this topic of interest rates.



For example, if i invest 1 dollar at a continuous compounding rate of 11% , then my end of year value is equal to $e^{0.11}=1.116$ dollars. From here it says that investing at 11% a year continuously compounded is the same as investing 11.6 a year annually compounded.



Now where is this 11.6 coming from ? Is it coming from the 1.(116) dollars value? So i just take the decimal 0.116 and transform it into a percentage?



Another question I have regards this problem:



Suppose the annually compounded rate is 18.5%. The present value of a $100$ perpetuity, with each cash flow received at the end of the year, is $100/.185 =$540.54.$ If the cash flow is received continuously, we must divide $100 by 17%, because 17% continuously compounded is equivalent to 18.5% annually compounded (with the explanation that $e^{0.17}=1.185).$



What is the relationship between the annually compounded rate and the continuously compounded rate ? How do I use one to calculate the other ? I am very confused.










share|cite|improve this question











$endgroup$

















    0












    $begingroup$


    I am having some troubles understanding this topic of interest rates.



    For example, if i invest 1 dollar at a continuous compounding rate of 11% , then my end of year value is equal to $e^{0.11}=1.116$ dollars. From here it says that investing at 11% a year continuously compounded is the same as investing 11.6 a year annually compounded.



    Now where is this 11.6 coming from ? Is it coming from the 1.(116) dollars value? So i just take the decimal 0.116 and transform it into a percentage?



    Another question I have regards this problem:



    Suppose the annually compounded rate is 18.5%. The present value of a $100$ perpetuity, with each cash flow received at the end of the year, is $100/.185 =$540.54.$ If the cash flow is received continuously, we must divide $100 by 17%, because 17% continuously compounded is equivalent to 18.5% annually compounded (with the explanation that $e^{0.17}=1.185).$



    What is the relationship between the annually compounded rate and the continuously compounded rate ? How do I use one to calculate the other ? I am very confused.










    share|cite|improve this question











    $endgroup$















      0












      0








      0





      $begingroup$


      I am having some troubles understanding this topic of interest rates.



      For example, if i invest 1 dollar at a continuous compounding rate of 11% , then my end of year value is equal to $e^{0.11}=1.116$ dollars. From here it says that investing at 11% a year continuously compounded is the same as investing 11.6 a year annually compounded.



      Now where is this 11.6 coming from ? Is it coming from the 1.(116) dollars value? So i just take the decimal 0.116 and transform it into a percentage?



      Another question I have regards this problem:



      Suppose the annually compounded rate is 18.5%. The present value of a $100$ perpetuity, with each cash flow received at the end of the year, is $100/.185 =$540.54.$ If the cash flow is received continuously, we must divide $100 by 17%, because 17% continuously compounded is equivalent to 18.5% annually compounded (with the explanation that $e^{0.17}=1.185).$



      What is the relationship between the annually compounded rate and the continuously compounded rate ? How do I use one to calculate the other ? I am very confused.










      share|cite|improve this question











      $endgroup$




      I am having some troubles understanding this topic of interest rates.



      For example, if i invest 1 dollar at a continuous compounding rate of 11% , then my end of year value is equal to $e^{0.11}=1.116$ dollars. From here it says that investing at 11% a year continuously compounded is the same as investing 11.6 a year annually compounded.



      Now where is this 11.6 coming from ? Is it coming from the 1.(116) dollars value? So i just take the decimal 0.116 and transform it into a percentage?



      Another question I have regards this problem:



      Suppose the annually compounded rate is 18.5%. The present value of a $100$ perpetuity, with each cash flow received at the end of the year, is $100/.185 =$540.54.$ If the cash flow is received continuously, we must divide $100 by 17%, because 17% continuously compounded is equivalent to 18.5% annually compounded (with the explanation that $e^{0.17}=1.185).$



      What is the relationship between the annually compounded rate and the continuously compounded rate ? How do I use one to calculate the other ? I am very confused.







      logarithms exponential-function






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      edited Mar 15 at 17:46









      saulspatz

      17.1k31435




      17.1k31435










      asked Mar 15 at 17:42









      BM97BM97

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      778






















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          $begingroup$

          $11%$ per year, compounded continuously is (approximately) equivalent to $11.6%$ per year, compounded annually. If $i$ is the annual interest rate, the equivalent continuous rate is $ln(1+i)$. The reason is simply that $$e^{ln(1+i)}=1+i,$$
          so that if you invest a dollar at a continuous rate of $ln(1+i),$ at the end of a year, you have exactly what you would have had you invested the dollar at a rate of $i,$ compounded annually.



          Of course, if you know the continuous rate $delta$ and you want the equivalent annual rate $i,$ it's just $$i=e^delta-1$$






          share|cite|improve this answer









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            $begingroup$

            $11%$ per year, compounded continuously is (approximately) equivalent to $11.6%$ per year, compounded annually. If $i$ is the annual interest rate, the equivalent continuous rate is $ln(1+i)$. The reason is simply that $$e^{ln(1+i)}=1+i,$$
            so that if you invest a dollar at a continuous rate of $ln(1+i),$ at the end of a year, you have exactly what you would have had you invested the dollar at a rate of $i,$ compounded annually.



            Of course, if you know the continuous rate $delta$ and you want the equivalent annual rate $i,$ it's just $$i=e^delta-1$$






            share|cite|improve this answer









            $endgroup$


















              0












              $begingroup$

              $11%$ per year, compounded continuously is (approximately) equivalent to $11.6%$ per year, compounded annually. If $i$ is the annual interest rate, the equivalent continuous rate is $ln(1+i)$. The reason is simply that $$e^{ln(1+i)}=1+i,$$
              so that if you invest a dollar at a continuous rate of $ln(1+i),$ at the end of a year, you have exactly what you would have had you invested the dollar at a rate of $i,$ compounded annually.



              Of course, if you know the continuous rate $delta$ and you want the equivalent annual rate $i,$ it's just $$i=e^delta-1$$






              share|cite|improve this answer









              $endgroup$
















                0












                0








                0





                $begingroup$

                $11%$ per year, compounded continuously is (approximately) equivalent to $11.6%$ per year, compounded annually. If $i$ is the annual interest rate, the equivalent continuous rate is $ln(1+i)$. The reason is simply that $$e^{ln(1+i)}=1+i,$$
                so that if you invest a dollar at a continuous rate of $ln(1+i),$ at the end of a year, you have exactly what you would have had you invested the dollar at a rate of $i,$ compounded annually.



                Of course, if you know the continuous rate $delta$ and you want the equivalent annual rate $i,$ it's just $$i=e^delta-1$$






                share|cite|improve this answer









                $endgroup$



                $11%$ per year, compounded continuously is (approximately) equivalent to $11.6%$ per year, compounded annually. If $i$ is the annual interest rate, the equivalent continuous rate is $ln(1+i)$. The reason is simply that $$e^{ln(1+i)}=1+i,$$
                so that if you invest a dollar at a continuous rate of $ln(1+i),$ at the end of a year, you have exactly what you would have had you invested the dollar at a rate of $i,$ compounded annually.



                Of course, if you know the continuous rate $delta$ and you want the equivalent annual rate $i,$ it's just $$i=e^delta-1$$







                share|cite|improve this answer












                share|cite|improve this answer



                share|cite|improve this answer










                answered Mar 15 at 17:58









                saulspatzsaulspatz

                17.1k31435




                17.1k31435






























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