6. If (a+ib=frac{(x+i)^2}{2x^2+1}), prove that (a^2+b^2=frac{(x^2+1)^2}{(2x^2+1)^2}). Complex Numbers and Quadratic Equations Miscellaneous Exercise Previous Next Class 11 Complex
Category: Complex Numbers and Quadratic Equations
If (z_1=2-i, z_2=1+i), find (|\frac{z_1+z_2+1}{z_1-z_2+1}|).
5. If (z_1=2-i, z_2=1+i), find (|frac{z_1+z_2+1}{z_1-z_2+1}|). Complex Numbers and Quadratic Equations Miscellaneous Exercise Previous Next Class 11 Complex
If (x-iy=\sqrt{\frac{a-ib}{c-id}}), prove that ((x^2+y^2)^2=\frac{a^2+b^2}{c^2+d^2}).
4. If (x-iy=sqrt{frac{a-ib}{c-id}}), prove that ((x^2+y^2)^2=frac{a^2+b^2}{c^2+d^2}). Complex Numbers and Quadratic Equations Miscellaneous Exercise Previous Next Class 11 Complex
Reduce ((\frac{1}{1-4i}-\frac{2}{1+i})(\frac{3-4i}{5+i})) to the standard form.
3. Reduce ((frac{1}{1-4i}-frac{2}{1+i})(frac{3-4i}{5+i})) to the standard form. Complex Numbers and Quadratic Equations Miscellaneous Exercise Previous Next Class 11
For any two complex numbers (z_1) and (z_2), prove that (Re(z_1 z_2)=Re(z_1)Re (z_2))(-Im(z_1)Im(z_2)).
2. For any two complex numbers (z_1) and (z_2), prove that (Re(z_1 z_2)=Re(z_1)Re (z_2))(-Im(z_1)Im(z_2)). Complex Numbers and Quadratic Equations
Evalaute: ([i^{18}+(\frac{1}{i})^{25}]^3).
1. Evalaute: ([i^{18}+(frac{1}{i})^{25}]^3). Complex Numbers and Quadratic Equations Miscellaneous Exercise Previous Next Class 11 Complex Numbers and Quadratic
Express the following expression in the form of a+ib: (\frac{(3+i\sqrt5)(3-i\sqrt5)}{(\sqrt3+i\sqrt2)-(\sqrt3-i\sqrt2)}).
14. Express the following expression in the form of a + ib: (frac{(3+isqrt5)(3-isqrt5)}{(sqrt3+isqrt2)-(sqrt3-isqrt2)}). Complex Numbers and Quadratic Equations
Find the multiplicative inverse of -i.
Find the multiplicative inverse of each of the complex numbers given in the Exercises 11 to 13. 13.
Find the multiplicative inverse of root{5}+3i.
Find the multiplicative inverse of each of the complex numbers given in the Exercises 11 to 13. 12.
Find the multiplicative inverse of 4-3i.
Find the multiplicative inverse of each of the complex numbers given in the Exercises 11 to 13. 11.