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The polar form of a complex number is another way of representing complex numbers. The polar form is represented with the help of polar coordinates  of real and imaginary numbers in the coordinate system. The abbreviated polar form of a complex number is z = rcis θ, where r = √(x² + y²) and θ = tan⁻¹ (y/x).

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Complex numbers cannot be graphed regularly like other numbers. Instead, for complex numbers, you have to map the real part to the x-axis and the imaginary part to the y-axis. The real part could be any number, like 1, 2, 3, so on. The imaginary part would be a number with a letter attached to it, for example, 1i, 2i, 3i, and so on. A simple formula to follow would be a + bi = (a, b). So for example, 3 -2i would become (3, -2).

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According to Google, The conjugate of the sum of two complex numbers is equal to the sum of the conjugates of the two numbers. Here is the whole problem: The conjugate of the sum of two complex numbers is equal to the sum of the conjugates of the two numbers. Using a+bi and c+di to represent two complex numbers.

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The polar form of a complex number z = x + iy with coordinates (x, y) is given as z = r cosθ + i r sinθ = r (cosθ + i sinθ).

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Complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y-axis.

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The sum and product of two complex square conjugate to the sum of two squares that is a real number.

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z = r cosθ + i r sinθ = r (cosθ + i sinθ)

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map the real part to the x-axis and the imaginary part to the y-axis

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The polar form of a complex number z = x + iy with coordinates (x, y) is given as z = r cosθ + i r sinθ = r (cosθ + i sinθ). The abbreviated polar form of a complex number is z = rcis θ, where r = √(x² + y²) and θ = tan⁻¹ (y/x).

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z = r cosθ + i r sinθ = r (cosθ + i sinθ)

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map the real part to the x-axis and the imaginary part to the y-axis

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the product of complex conjugates isa sum of two squares and is always a real number.

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The polar form of a complex number z = x + iy with coordinates (x, y) is given as z = r cosθ + i r sinθ = r (cosθ + i sinθ).

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z = x+iy

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The polar form of a complex number z = x + iy with coordinates (x, y) is given as z = r cosθ + i r sinθ = r (cosθ + i sinθ).

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map the real part to the x-axis and the imaginary part to the y-axis

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complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y- axis.

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the product of complex conjugates isa sum of two squares and is always a real number.

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The polar form of a complex number z = x + iy with coordinates (x, y) is given as z = r cosθ + i r sinθ = r (cosθ + i sinθ). The abbreviated polar form of a complex number is z = rcis θ, where r = √(x² + y²) and θ = tan⁻¹ (y/x).

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The polar form of a complex number z = x + iy with coordinates (x, y) is given as z = r cosθ + i r sinθ = r (cosθ + i sinθ).

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The polar form of complex number, we use the formula x=rcos0, y=rsin0, and r=/x2+y2 then z=r(cos0+isin0)

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z = rcis θ, where r = √(x² + y²) and θ = tan⁻¹ (y/x).

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The polar form of a complex number z = x + iy with coordinates (x, y) is given as z = r cosθ + i r sinθ = r (cosθ + i sinθ).

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z=x+iy with the coordinates (x, y)

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The polar form of a complex number z = x + iy with coordinates (x, y) is given as z = r cosθ + i r sinθ = r (cosθ + i sinθ).

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e polar form of a complex number z = x + iy with coordinates (x, y)

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The polar form of a complex number z = x + iy with coordinates (x, y) is given as z = r cosθ + i r sinθ = r (cosθ + i sinθ). The abbreviated polar form of a complex number is z = rcis θ, where r = √(x² + y²) and θ = tan⁻¹ (y/x).

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The polar form of a complex number z = x + iy with coordinates (x, y) is given as z = r cosθ + i r sinθ = r (cosθ + i sinθ).

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Complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y-axis. For example, the expression can be represented graphically by the point .

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Complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y-axis.

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Complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y-axis.

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complex number can be represented on the coordinate plane by Mapping the real part to x axis and the imaginary part to the y axis.

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represent a complex number we need to address the two components of the number. We use the complex plane, which is a coordinate system in which the horizontal axis represents the real component and the vertical axis represents the imaginary component.

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Complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y-axis. For example, the expression can be represented graphically by the point .

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Complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y-axis.

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The conjugate of the product of the two complex numbers is equal to the product of the conjugates of the numbers.

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Complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y-axis.

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Complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y-axis.

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Mapping the real part to the x- axis and the imaginary part to the y-axis.

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Complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y-axis.

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map the real part to the x-axis and the imaginary part to the y-axis

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Complex numbers can be represented on the coordinate plane by mapping the real part to the x-axis and the imaginary part to the y-axis.

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The properties of the sum and product of two complex conjugates are a sum of two squares and are always real.another complex number that has the same real part as the original complex number and the imaginary part has the same magnitude but opposite sig

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the sum of a complex number and its conjugate is real

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The product of complex conjugates is a sum of two squares and is always a real number.

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The sum and product of two complex square conjugate to the sum of two squares that is a real number.

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The sum and product of two complex square conjugate to the sum of two squares that is a real number.

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equal to the product of the conjugates of the numbers

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The sum of a complex number and it conjugate is real because complex number are real if only they are conjugate of each other if that make sense.

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A complex conjugate of a complex number is another complex number that has the same real part as the original complex number and the imaginary part has the same magnitude but opposite sig

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The conjugate of the product of the two complex numbers is equal to the product of the conjugates of the numbers.

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The properties of the sum and product of two complex conjugates are a sum of two squares and are always real. Hector B

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It´s a sum of two squares and is always a real number.

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The product of complex conjugates is a sum of two squares and is always a real number.

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The product of complex conjugates is a sum of two squares and is always a real number.

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The product of complex conjugates is a sum of two squares and is always a real number.

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Prove that: (i) the sum of a complex number and its conjugate is real <br> (ii) the product of a complex number and its conjugate is real. The sum and product of two complex numbers are real if and only if they are conjugate of each other This always happens when a complex number is multiplied by its conjugate - a result is a real number. Once again, we have multiplied a complex number by its conjugate and an answer is a real number. This is a very important property that applies to every complex conjugate pair of numbers.