Express each of the complex number given in the Exercises 1 to 10 in the form a + ib.
i9 + i19
i–39
3(7 + i7) + i(7 + i7)
(1-i) – (-1 + i6)
.
(1 – i)4
Find the multiplicative inverse of the complex number (4-3i)
Find the multiplicative inverse of √5 + 3i
Find the multiplicative inverse of –i
Express the following expression in the form of a + ib:
Find the modulus and the arguments of each of the complex numbers in Exercises 1 to 2.
z = –1 – i√ 3
z = – √3 + i
Convert each of the complex numbers given in Exercises 3 to 8 in the polar form:
1 – i
– 1 + i
– 1 – i
– 3
√2 + i
i
Evaluate:
For any two complex numbers z1 and z2, prove that
Re (z1 z2) = Re z1 Re z2 – Imz1 IMz2
Reduce to the standard form.
If prove that
Convert the following in the polar form:
Solve each of the equation in Exercises 6 to 9:
27x2 – 10 x + 1 = 0
21x2 − 28x + 10 = 0
If z1 = 2 – i, z2 = 1 + i, find
Let z1 = 2 – i, z2 = –2 + i. Find:
(i)
(ii)
Find the modulus and argument of the complex number
Find the real numbers x and y if (x – iy) (3 + 5i) is the conjugate of –6 – 24i
Find the modulus of
If (x + iy)3 – u + iv, then show that:
If α and β are different complex numbers with |β| = 1 , then find
Find the number of non-zero integral solutions of the equation |1 – i|x = 2x
If (a + ib) (c + id) (e + if) (g + ih) = A + iB, then show that:
(a2 + b2) (c2 + d2) (e2 + f2) (g2 + h2) = A2 + B2
If , then find the least positive integral value of m.
Solve each of the following equations:
x2 + 3 = 0
2x2 + x + 1 = 0
x2 + 3x + 9 = 0
– x2 + x – 2 = 0
x2 + 3x + 5 = 0
x2 – x + 2 = 0
√2x2 + x + √2 = 0
√3x2 – √2x + 3√3 = 0
x2 + x + 1/√2 = 0
x2 + x/√2 + 1 = 0