Changes

*<math>IMLOG2(Complexnumber)</math>, where Complexnumber is  in the form of <math>z=x+iy</math>. i.e. <math>x</math> & <math>y</math> are the real numbers.

*<math>IMLOG2(Complexnumber)</math>, where Complexnumber is  in the form of <math>z=x+iy</math>. i.e. <math>x</math> & <math>y</math> are the real numbers.

*And <math>I</math> is the imaginary unit .<math>i=\sqrt{-1}</math>.  

*And <math>I</math> is the imaginary unit .<math>i=\sqrt{-1}</math>.  

*Binary logarithm is the inverse function of <math>n ↦ 2n</math>.

*Binary logarithm is the inverse function of the Power of two functions.

*Log base 2 is called Binary logarithm.  

*Log base 2 is called Binary logarithm.  

*To find the Binary logarithm of a complex number we have to calculate from the natural logarithm.

*To find the Binary logarithm of a complex number we have to calculate from the natural logarithm.

*We can use COMPLEX function to convert real and imaginary number in to a complex number.

*We can use COMPLEX function to convert real and imaginary number in to a complex number.

==ZOS Section==

==ZOS==

*The syntax is to calculate Binary logarithm of a complex number is <math>IMLOG2(Complexnumber)</math>.

*The syntax is to calculate Binary logarithm of a complex number is <math>IMLOG2(Complexnumber)</math>.

**<math>Complexnumber</math>  is of the form <math>z=x+iy</math>.

**<math>Complexnumber</math>  is of the form <math>z=x+iy</math>.

*For e.g imlog2("2.1-3.5i")

*For e.g imlog2("2.1-3.5i")

==Examples==

==Examples==

#=IMLOG2("11i") = 3.45943161890355+2.26618007108801i

#=IMLOG2("11i") = 3.45943161890355+2.26618007108801i

#=IMLOG2("0") = NULL

#=IMLOG2("0") = NULL

==See Also==

==See Also==