Greater influence on movement: Mass OR Gradient?

AI Thread Summary
The discussion centers on the influence of slope gradient versus object mass on the rate of movement down a slope. It highlights that acceleration is determined by net force divided by mass, suggesting that at a 90-degree slope, all objects fall at the same rate regardless of mass. The conversation also questions how net force is calculated and its significance in this context. The specific example of a 3-gram glass marble is mentioned, prompting further inquiry into the general principles governing movement. Ultimately, the focus remains on understanding whether mass or slope gradient has a greater impact on movement dynamics.
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1. Which, if any, has the greater influence on rate of movement down a slope with a constant distance of 80cm: the gradient of the slope or the mass of the object moving down the slope?

2. acceleration = net force / mass

3. If the slope is 90 degrees, the rate of movement of falling objects with different masses would be the same because the acceleration of an object is inversely proportional to its mass.

Am I on the right track here? Any assistance will be appreciated. Thanks in advance
 
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01010011 said:
1. Which, if any, has the greater influence on rate of movement down a slope with a constant distance of 80cm: the gradient of the slope or the mass of the object moving down the slope?

2. acceleration = net force / mass

and how big is that net force?
 
willem2 said:
and how big is that net force?

Thanks for your reply willem2. The object moving down the slope (a small glass marble) weighs 3 grammes. This is all the info I have, hope this answers your question.
 
I was wondering generally speaking, what would have a greater influence on movement of a object, its mass or the slope?
 
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