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juantheron
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Area of Region Bounded by the locus of $z$ which satisfy the equation [tex]\displaystyle \arg \left(\frac{z+5i}{z-5i}\right) = \pm \frac{\pi}{4}[/tex] is
What have you tried?jacks said:Area of Region Bounded by the locus of $z$ which satisfy the equation [tex]\displaystyle \arg \left(\frac{z+5i}{z-5i}\right) = \pm \frac{\pi}{4}[/tex] is
You can take a geometric approach.jacks said:Area of Region Bounded by the locus of $z$ which satisfy the equation [tex]\displaystyle \arg \left(\frac{z+5i}{z-5i}\right) = \pm \frac{\pi}{4}[/tex] is
A locus in the complex plane is a set of points that satisfy a given condition or equation. In other words, it is the path traced by a point as it moves according to a specific rule or constraint.
A locus in the complex plane is typically represented by a graph or diagram, with the x-axis representing the real part and the y-axis representing the imaginary part. The locus itself can be a line, curve, or even a collection of points.
Studying loci in the complex plane is important in many areas of mathematics and science, including geometry, algebra, and physics. It allows us to visualize and understand complex relationships and patterns, and can be applied to solve real-world problems.
Some common examples of loci in the complex plane include circles, ellipses, parabolas, and hyperbolas. These are all represented by equations that involve both real and imaginary numbers, making them more complex than traditional geometric shapes.
Loci in the complex plane are closely related to complex numbers, as they are often represented by equations involving complex numbers. The behavior of a locus can also be described using complex numbers, as they allow us to easily visualize and understand transformations and rotations in the plane.