Newton's third law states that all actions provide an equal and opposite reaction. So, in this case, when the bug hits the car withx amount of force, it is hitting the car backward. So this must mean, according to Newton's third law, that the car is hitting the bug with the same (x) amount of force, but pushing the bug forward. Obviously, the bug won't push the car backwards, but since it is an equal reaction, the car won't push the bug away from it.
According to Newton's third law of motion, the force of the bug on the car is equal in magnitude to the force of the car on the bug. This means that the bug exerts the same force on the car as the car exerts on the bug when they collide.
The force of the car on the bug is equal in magnitude but opposite in direction to the force of the bug on the car (Newton's Third Law). This means the bug exerts the same force on the car as the car exerts on the bug.
The mass of the train is significantly larger than the mass of the flying bug. The force exerted by the bug on the train is too small to produce a noticeable effect on the train's motion. Additionally, the train's momentum helps to absorb the impact without significant change in speed or direction.
Centripetal force is provided by weight minus reaction equals centripetal force. It is towards the center of the bowling ball. When the bug is sliding down it will reach a point at which there is no force acting towards the center of the ball and the weight is acting vertically.
Assuming that both the stationary car and the flying bug can be analyzed against the same reference point, the bug has the greater momentum. Momentum is defined as the product of mass and velocity. If the car exhibits no motion, then its momentum is zero. Since the bug is flying, it has nonzero velocity and a nonzero momentum, which is greater than the car's momentum.
According to Newton's third law of motion, the force of the bug on the car is equal in magnitude to the force of the car on the bug. This means that the bug exerts the same force on the car as the car exerts on the bug when they collide.
The same for both.
The force of the car on the bug is equal in magnitude but opposite in direction to the force of the bug on the car (Newton's Third Law). This means the bug exerts the same force on the car as the car exerts on the bug.
the same
When a bug hits a windshield which is larger; the force of the bug hitting the windshield or the force of the windshield hitting the bug? Which is larger; the change in momentum of the bug or the change of momentum of the car? Explain your answers. When a bug hits a windshield which is larger; the force of the bug hitting the windshield or the force of the windshield hitting the bug? Which is larger; the change in momentum of the bug or the change of momentum of the car? Explain your answers.
The change
Yes, it's the best there is against bug types.
Rock, fire, and flying type are strong against the bug type.
Bug-Types are strong against Psychic-Types, Dark-Types, and Grass-Types.
If it stops moving...
Bug-type Pokemon are strong against Grass, Fighting, and Ground-type moves.
Bug type Pokemon are weak against Fire, Fighting, and Flying. Not fighting there not weak against fighting types, there weak against Fire, Flying and Rock.