These forces compress a spring that is calibrated to show your weight, the support force and your weight have the magnitude.
gravitational force is the attraction between two mass's so if you have amass of 75kg that will be the force of the attraction between you and the earth
The support force of your scale is the same as your weight, but in an upward direction. If that were not so, the scale would be deformed (dented in) under your weight.
The support force of your scale is the same as your weight, but in an upward direction. If that were not so, the scale would be deformed (dented in) under your weight.
They are equal.
The buoyant force on any object in water is equal to the weight of the displaced water, regardless of how much of the object is submerged.
The magnitude of both forces is the same.
weight It measures the magnitude of the gravitational force that attracts you toward the center of the Earth. It's not necessary to measure the magnitude of the force that attracts the Earth toward the center of you. Not only don't you care about that one, but we know that it's exactly the same as the first one.
The support force of your scale is the same as your weight, but in an upward direction. If that were not so, the scale would be deformed (dented in) under your weight.
The support force of your scale is the same as your weight, but in an upward direction. If that were not so, the scale would be deformed (dented in) under your weight.
They are equal.
They are equal.
both forces are the same.
weight is a measure of the force between two masses, bathroom scales are a good example, multiply your mass in kg * 9.81 = force in newtons, if you are in freefall you are weightless
The buoyant force on any object in water is equal to the weight of the displaced water, regardless of how much of the object is submerged.
You could put the mass on a bathroom scale, weigh it, and then divide its weight by the acceleration of gravity.
The magnitude of both forces is the same.
densityIt registers the force it must exert to support you (this is equal to your scientific weight), then divides by the acceleration due to gravity (around 9.8 m/s2). Weight is equal to mass * acceleration due to gravity. Therefore, the number it shows is actually your mass. In common language, however, when people refer to their "weight," they are actually talking about their mass
weight It measures the magnitude of the gravitational force that attracts you toward the center of the Earth. It's not necessary to measure the magnitude of the force that attracts the Earth toward the center of you. Not only don't you care about that one, but we know that it's exactly the same as the first one.
yes