The formula for force, for something deceleration.

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The formula for force acting on an object is F=MA, where M is mass and A is acceleration. Deceleration is defined as acceleration in the opposite direction of the initial trajectory and can be quantified as a decrease in acceleration over time. When mass remains constant and acceleration decreases, the force exerted changes at any moment. For an object moving at a constant velocity, the net force acting on it is zero, indicating no acceleration. Understanding these principles is essential for analyzing motion and forces in physics.
biggdogg33
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i'm curious, if there are one or not.
 
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If you mean the formula for force acting on an object, it is F=MA, m being mass, and a being acceleration. And for the matter of deceleration, it is simply acceleration in the opposite direction of initial trajectory. Deceleration can be measured by the (length/time^2) decrease in the acceleration. With a constant mass, and a decreasing acceleration, the force is going to be different at any given moment.
 
genome66 said:
If you mean the formula for force acting on an object, it is F=MA, m being mass, and a being acceleration. And for the matter of deceleration, it is simply acceleration in the opposite direction of initial trajectory. Deceleration can be measured by the (length/time^2) decrease in the acceleration. With a constant mass, and a decreasing acceleration, the force is going to be different at any given moment.

what the formula for something moving constant?
 
If the object has no acceleration, then the net force acting upon the object should be zero. If there is a specific situation you are talking about, I could probably figure it out, if not, then I guess that's it.
 
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