Given,
h = 2.75 m ; D = 4.1 m ;
a)vi = 6 m/s
the time taken will be:
t = sqrt (2h/g) = sqrt (2 x 2.75/9.8) = 0.75 s
D = vi T = 6 x 0.75 = 4.5 m
the horizontal velocity remains same but the vertical velocity at landing is:
vy = sqrt (2 g h) = sqrt (2 x 9.8 x 2.75) = 7.34 m/s
v = sqrt (6^2 + 7.34^2) = 9.48 m/s
Hence, D = 4.5 m ; v = 9.48 m/s
b)let min speed be v,
we have, t = 0.75 s (calculated i (a))
D = v t => v = dx/t = 4.1/0.75 = 5.47 m/s
Hence, v = 5.47 m/s
Doing test review. Checking to see if my answers correct. 10:59 PM otion A mountain climber...
PHY2053 Spring 2019 Studio Tutorial Jan. 24, 2019 A mountain climber comes across a crevasse in the path she is following (the crevasse must be newl). The opposite side of the crevasse is 2.74 meters lower than where she is standing and is separately by a horizontal distance of 4.10 meters. To cross the crevasse, she gets a running start and jumps in the horizontal direction. What is the minimum speed she needs when she jumps to make it safely...
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