As the elevator begins to move upward, the reading on the scale will increase due to the increase in apparent weight experienced by the person inside the elevator. This increase is a result of the combination of the person's actual weight and the upward acceleration of the elevator.
As the elevator begins to move upward, the reading on the scale will momentarily increase. Conversely, as the elevator starts to move downward, the reading on the scale will momentarily decrease. This change in reading is due to the acceleration experienced by the occupants of the elevator, causing a shift in apparent weight.
As the elevator moves upward, the reading on the scale will temporarily increase. This is because the scale measures the force exerted by the person standing on it, which includes their weight and an additional force due to the upward acceleration of the elevator.
The force of gravity has the greatest magnitude on you as you accelerate upward in an elevator.
Your mass remains the same when the elevator goes down. However, you may feel heavier due to the acceleration experienced as the elevator descends, which creates an upward force against gravity that can make you feel heavier.
It will increase! if the elevator is moving with a constant velocity, then there will be no change in the reading as no acc. will be caused. but if the body moves downwards wit a uniform acc. of say suppose x m/s^2, then the weight if the body will decrease by F=m x a(of the lift) as the two vectors will be in the opp direction, i.e. downwards. the opposite applies when the when the body acc. in an upward direction, the vectors will be in an same direction and it will result in the scale reading turing up more! remmember, a sacle measures the upward force aka reaction force
As the elevator begins to move upward, the reading on the scale will momentarily increase. Conversely, as the elevator starts to move downward, the reading on the scale will momentarily decrease. This change in reading is due to the acceleration experienced by the occupants of the elevator, causing a shift in apparent weight.
As the elevator moves upward, the reading on the scale will temporarily increase. This is because the scale measures the force exerted by the person standing on it, which includes their weight and an additional force due to the upward acceleration of the elevator.
The force of gravity has the greatest magnitude on you as you accelerate upward in an elevator.
I assume you mean, the cables that sustain the elevator break.The coin will maintain its relative movement relative to the elevator. For example, if at the moment the elevator disconnects the coin is moving upward at 1 m/s (with respect to the elevator), it will continue going upward at the same speed (once again, with respect to the elevator), until it hits the ceiling. This is because both the elevator and the coin will accelerate downward at the same rate.
Weight of the elevator = 1000kg x -9.8m/s2 = -9800N Upward force acting on the elevator = 1000kg x 2m/s2 = 2000N Net force = upward force - weight of elevator = 2000N - (-9800N) = 11800N
Your mass remains the same when the elevator goes down. However, you may feel heavier due to the acceleration experienced as the elevator descends, which creates an upward force against gravity that can make you feel heavier.
It will increase! if the elevator is moving with a constant velocity, then there will be no change in the reading as no acc. will be caused. but if the body moves downwards wit a uniform acc. of say suppose x m/s^2, then the weight if the body will decrease by F=m x a(of the lift) as the two vectors will be in the opp direction, i.e. downwards. the opposite applies when the when the body acc. in an upward direction, the vectors will be in an same direction and it will result in the scale reading turing up more! remmember, a sacle measures the upward force aka reaction force
You point your arrow that you use to walk and point it upward
You weigh less only while the elevator's upward speed is decreasing, or downward speed is increasing. In each case, the acceleration of the elevator is in a direction opposite to the acceleration of gravity. The result of that is that the total acceleration acting on you is less than usual, and your weight is less. Note that in a sealed container, such as a space ship or an elevator, there's no way for you to tell the difference between acceleration and a gravitational field.
When the elevator accelerates upward, your body experiences a force in that direction. This force adds to your weight, giving the sensation of feeling heavier. It is similar to the feeling you get when you are in a car that accelerates quickly - you are pushed back into your seat.
As stairs can lead both upward or downward, there is no opposite. An "alternative" to stairs is an elevator.
You would have to aim slightly higher in the elevator to hit the bullseye due to the upward acceleration of the elevator affecting the trajectory of the dart.