The force of inertia is the property common to all bodies that remain in their state, either at rest or in motion, unless some external cause is introduced to make them alter this state.
By utilizing principles of projectile motion, it is found that the football clears the crossbar by approximately 10.75 meters.
To determine by how much the ball clears or falls short of clearing the crossbar, we need to use the physics principles of projectile motion. The maximum height 'h' of the football can be given by equation of motion: h = (v²sin²θ) / (2g), where 'v' is the initial velocity, 'g' is the acceleration due to gravity and 'θ' is the angle of projection.
Substituting the given values: h = [(20)²sin²53°] / (2*9.8) ≈ 13.8 m above the ground when it was kicked. However, the football was kicked from ground level, so we need to subtract the height of the crossbar from this value, which is 3.05 m. Thus, the ball clears the crossbar by approximately: 13.8 - 3.05 = 10.75 m.
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B. potential energy.
C. thermal energy.
D. work.
−9.6 × 10−8 N
B.
−6.0 × 10−7 N
C.
4.7 × 10−36 N
D.
2.9 × 10−17 N
Answer:
A:-9.6×10-8 N
Explanation:
is correct answer
Answer: hello options related to your question is missing attached below is the missing part of your question
answer: No charge of the length of the bonds expected because the rod did not touch the charge source ( option A )
Explanation:
When the Charge is first, Furthest away and second and closest to the source charge. The spring like bonds can be said to have No charge of the length of the bonds expected because the rod did not touch the charge source when Furthest away the bond with charge will be less effective
b. The larger one accelerates at 3.33 m/s2, while the smaller one accelerates at 100 m/s2.
c. The larger one accelerates at 100 m/s2, while the smaller one accelerates at 3.33 m/s2.
d. The ...
Answer:
B) The larger one accelerates at 3.33 m/s² while the smaller one accelerates at 100 m/s².
Explanation:
Parameters given:
Mass of larger asteroid = 3000 kg
Mass of smaller asteroid = 100 kg
Force of collision = 10000 N
Since both of them experience the collision force, we can find how that force causes them to accelerate by using the formula of force:
F = m*a
=> a = F/m
For the larger one,
a = 10000/3000 = 3.33 m/s²
For the smaller one,
a = 10000/100 = 100 m/s²