Projectile Motion The horizontal distance that a projectile will travel in the air (ignoring air resistance) is given by the equation R ( θ ) = v 0 2 sin ( 2 θ ) g where v 0 is the initial velocity of the projectile, θ is the angle of elevation, and g is acceleration due to gravity ( 9.8 meters per second squared). a. If you can throw a baseball with an initial speed of 34.8 meters per second, at what angle of elevation θ should you direct the throw so that the ball travels a distance of 107 meters before striking the ground? b. Determine the maximum distance that you can throw the ball. c. Graph R = R ( θ ) , with v 0 = 34.8 meters per second. d. Verify the results obtained in parts (a) and (b) using a graphing utility.
Projectile Motion The horizontal distance that a projectile will travel in the air (ignoring air resistance) is given by the equation R ( θ ) = v 0 2 sin ( 2 θ ) g where v 0 is the initial velocity of the projectile, θ is the angle of elevation, and g is acceleration due to gravity ( 9.8 meters per second squared). a. If you can throw a baseball with an initial speed of 34.8 meters per second, at what angle of elevation θ should you direct the throw so that the ball travels a distance of 107 meters before striking the ground? b. Determine the maximum distance that you can throw the ball. c. Graph R = R ( θ ) , with v 0 = 34.8 meters per second. d. Verify the results obtained in parts (a) and (b) using a graphing utility.
Projectile Motion The horizontal distance that a projectile will travel in the air (ignoring air resistance) is given by the equation
where
is the initial velocity of the projectile,
is the angle of elevation, and
is acceleration due to gravity (
meters per second squared).
a. If you can throw a baseball with an initial speed of
meters per second, at what angle of elevation
should you direct the throw so that the ball travels a distance of 107 meters before striking the ground?
b. Determine the maximum distance that you can throw the ball.
c. Graph
, with
meters per second.
d. Verify the results obtained in parts (a) and (b) using a graphing utility.
Show that the Laplace equation in Cartesian coordinates:
J²u
J²u
+
= 0
მx2 Jy2
can be reduced to the following form in cylindrical polar coordinates:
湯(
ди
1 8²u
+
Or 7,2 მ)2
= 0.
Find integrating factor
Draw the vertical and horizontal asymptotes. Then plot the intercepts (if any), and plot at least one point on each side of each vertical asymptote.
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