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*14.7 (Math: The Complex class) A complex number has the form a + bi, where a and b are real numbers and i is part of the complex number, respectively. You can perform addition, subtraction, multiplication, and division for complex numbers using the following formulas: e numbers a and b are known as the real part and imaginary a +bi - (c + di) - (a - c) + (b- d)i (a + bi) * (c di) (ac - bd) (be + ad)i (a +bi)/ (c + di) (acbd(d)+ (be - ad)i (c2 +d2) You can also obtain the absolute value for a complex number using the following formula (A complex number can be interpreted as a point on a plane by identifying the (a, b) values as the coordinates of the point. The absolute value of the complex number corresponds to the distance of the point to the origin, as shown in Figure 14.4D.) Figure 14.4 y axis 2 +3i xaxis 3-2i A complex number can be interpreted as a point in a plane *14.7 (Math: The Complex class) A complex number has the form a + bi, where a and b are real numbers and i is part of the complex number, respectively. You can perform addition, subtraction, multiplication, and division for complex numbers using the following formulas: e numbers a and b are known as the real part and imaginary a +bi - (c + di) - (a - c) + (b- d)i (a + bi) * (c di) (ac - bd) (be + ad)i (a +bi)/ (c + di) (acbd(d)+ (be - ad)i (c2 +d2) You can also obtain the absolute value for a complex number using the following formula (A complex number can be interpreted as a point on a plane by identifying the (a, b) values as the coordinates of the point. The absolute value of the complex number corresponds to the distance of the point to the origin, as shown in Figure 14.4D.) Figure 14.4 y axis 2 +3i xaxis 3-2i A complex number can be interpreted as a point in a plane