A typical dish antenna is built as a surface of revolution obtained by revolving a parabola about an axis of symmetry. One of the main benefits of this design is that the resulting antenna exhibits very high gains in the direction towards which it points, making it well-suited for applications in which a strong directionality is needed-such as TV reception and radar. We can model such a parabolic antenna as the surface of revolution obtained by revolving the function 1/2 ㅠ O / [(1 + KR²) ¹/² − 1] K 퓸 [(1 2π 3K about the y-axis. Here R is the radius of the antenna, and K-the curvature at the tip-controls how flat it is. Compute the surface area of this antenna in terms of the parameters R and K. y = 1 +2RK)¹/² − 1] 2π 3K O 4√2 R³/2 K-1/4 3 [(1 + KR²) ³/2 − 1] [(₁1 (1+2RK)³/2 O 2√2 R¹/2 K-3/4 3 K - 1] _x²³, 0 ≤ x ≤ R
A typical dish antenna is built as a surface of revolution obtained by revolving a parabola about an axis of symmetry. One of the main benefits of this design is that the resulting antenna exhibits very high gains in the direction towards which it points, making it well-suited for applications in which a strong directionality is needed-such as TV reception and radar. We can model such a parabolic antenna as the surface of revolution obtained by revolving the function 1/2 ㅠ O / [(1 + KR²) ¹/² − 1] K 퓸 [(1 2π 3K about the y-axis. Here R is the radius of the antenna, and K-the curvature at the tip-controls how flat it is. Compute the surface area of this antenna in terms of the parameters R and K. y = 1 +2RK)¹/² − 1] 2π 3K O 4√2 R³/2 K-1/4 3 [(1 + KR²) ³/2 − 1] [(₁1 (1+2RK)³/2 O 2√2 R¹/2 K-3/4 3 K - 1] _x²³, 0 ≤ x ≤ R