well I would say using newtonian mechanics he would weight as F=M x g, 75x9.7 which equals 727.5 newtons.
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 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.
When the elevator stops moving, the reading on the scale will briefly increase before returning to the original reading. This is due to the inertia acting on the person's body and affecting the scale reading as the elevator decelerates.
The acceleration of the elevator can be calculated by dividing the reading on the scale (836 N) by the student's mass to get the acceleration due to the elevator's motion. Additionally, the acceleration due to gravity should also be taken into account, as it will affect the weight measured by the scale.
The two forces that compress a spring inside a weighing scale are the force of gravity acting on the person standing on the scale and the reaction force exerted by the spring in the scale to counteract the force of gravity. This compression of the spring is used to measure the weight of the person.
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 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.
When the elevator stops moving, the reading on the scale will briefly increase before returning to the original reading. This is due to the inertia acting on the person's body and affecting the scale reading as the elevator decelerates.
Yo momma so fat when she stands on the weighing scale you can see your phone number.
The acceleration of the elevator can be calculated by dividing the reading on the scale (836 N) by the student's mass to get the acceleration due to the elevator's motion. Additionally, the acceleration due to gravity should also be taken into account, as it will affect the weight measured by the scale.
The two forces that compress a spring inside a weighing scale are the force of gravity acting on the person standing on the scale and the reaction force exerted by the spring in the scale to counteract the force of gravity. This compression of the spring is used to measure the weight of the person.
Philipp von Jolly invented the modern weighing scale in 1874.
Weighing scale is called "秤" (chéng) in Chinese.
No, the scale will not have the same reading when you ascend and descend in the elevator. As the elevator ascends, the scale will show a higher weight due to the additional force from the acceleration of the elevator. Conversely, when the elevator descends, the scale will show a lower weight because of the deceleration. Thus, the readings will differ depending on the direction and acceleration of the elevator.
The name of the creator of the first weighing scale is lost in antiquity. The most ancient relics of a weighing scale date back to around 2,000 B.C.
A weighing scale would not be able to measure in feet and inches.A weighing scale would not be able to measure in feet and inches.A weighing scale would not be able to measure in feet and inches.A weighing scale would not be able to measure in feet and inches.
Balance Scale