| Line 1: |
Line 1: |
| − | <div style="font-size:30px">'''IMEXP(z)'''</div><br/> | + | <div style="font-size:30px">'''IMEXP(ComplexNumber)'''</div><br/> |
| − | *where <math>z</math> is the complex number. | + | *<math>ComplexNumber</math> is of the form a+bi. |
| | + | |
| | ==Description== | | ==Description== |
| | + | |
| | *This function gives the exponential of a complex number. | | *This function gives the exponential of a complex number. |
| − | *In <math>IMEXP(z)</math>, <math>z</math> is the complex number of the form <math>z=x+iy</math>, <math>x</math>&<math>y</math> are real numbers & <math>i</math> is the imaginary unit. <math>i=\sqrt{-1}</math>. | + | *In <math>IMEXP(ComplexNumber)</math>, <math>ComplexNumber</math> is of the form <math>x+iy</math>, <math>x</math>&<math>y</math> are real numbers & <math>i</math> is the imaginary unit. <math>i=\sqrt{-1}</math>. |
| | *Euler's formula states that <math>e^{ix}= cosx+isinx</math>, for any real number <math>x</math> and <math>e</math> is the base of the natural logarithm. | | *Euler's formula states that <math>e^{ix}= cosx+isinx</math>, for any real number <math>x</math> and <math>e</math> is the base of the natural logarithm. |
| − | *The approximate value of the constant e=2.718281828459045 and it is equal to <math>e^1</math>. So the exponential of a complex number is : <math>IMEXP(z) = e^z = e^{x+iy} = e^{x}.e^{iy} = e^{x}.(cosy+isiny)=e^x.cosy+ie^x.siny</math>. | + | *The approximate value of the constant e=2.718281828459045 and it is equal to <math>e^1</math>. |
| | + | *Let z be the Complex Number.Then the exponential of a complex number is : <math>IMEXP(z) = e^z = e^{x+iy} = e^{x}.e^{iy} = e^{x}.(cosy+isiny)=e^x.cosy+ie^x.siny</math>. |
| | + | *Here Sin and Cos are trignometric functions. y is angle value in radians. |
| | *When imaginary part is '0', it will give the exponent value of the real number. i.e <math>IMEXP(z) = EXP(z)</math> when imaginary number <math>iy</math> is '0'. | | *When imaginary part is '0', it will give the exponent value of the real number. i.e <math>IMEXP(z) = EXP(z)</math> when imaginary number <math>iy</math> is '0'. |
| − | *We can use COMPLEX function to convert the real and imaginary coefficients to a complex number. | + | *The Complex exponential function is denoted by "'''cis(x)'''"(Cosine plus iSine) |
| | + | *We can use [[Manuals/calci/COMPLEX | COMPLEX ]] function to convert the real and imaginary coefficients to a complex number. |
| | | | |
| | ==Examples== | | ==Examples== |
| | + | |
| | #=IMEXP("2+3i") = -7.315110094901102+1.0427436562359i | | #=IMEXP("2+3i") = -7.315110094901102+1.0427436562359i |
| | #=IMEXP("4-5i") = 15.4874305606508+52.355491418482i | | #=IMEXP("4-5i") = 15.4874305606508+52.355491418482i |
| Line 15: |
Line 21: |
| | #=IMEXP("2i") = -0.416146836547142+0.909297426825682i | | #=IMEXP("2i") = -0.416146836547142+0.909297426825682i |
| | #=IMEXP("0") = 1 and IMEXP("0i") = 1 | | #=IMEXP("0") = 1 and IMEXP("0i") = 1 |
| | + | |
| | + | ==ZOS Section== |
| | + | *The syntax is to calculate IMEXP in ZOS is <math>IMEXP(ComplexNumber)</math>. |
| | + | **<math>ComplexNumber</math> is of the form a+bi. |
| | + | *For e.g., |
| | | | |
| | ==See Also== | | ==See Also== |