The units newtons per meter refer to the quantity known as a spring constant, which represents the stiffness of a spring. It describes how much force is needed to stretch or compress the spring by a certain distance.
A spring scale measures weight. It is dependent on the gravity, and so one's weight in space, or on the moon would be different based on the spring scale. A balance measures mass, and since the standards in a balance are the same no matter what the gravity is, then the mass remains constant. However, for all practical purposes, the gravity on earth is constant so the weight and mass of the objects would be the same.
One Newton is equivalent to the amount of force required to accelerate a one kilogram mass by one meter per second squared.
To determine the mass of ice, you would need to weigh it using a balance. The mass of the ice would be the same as the weight you measure if you are using a balance on Earth, as the gravitational force remains constant.
Each of those quantities has a different SI unit. They are: Force. . . . . . . . . Newton Height (length) . Meter Work. . . . . . . . . Joule Mass. . . . . . . . . Kilogram Energy . . . . . . . Joule (same as work)
SPRING BALANCEA spring balance apparatus is simply a spring fixed at one end with a hook to attach an object at the other. It works by Hooke's Law, which states that the force needed to extend a spring is proportional to the distance that spring is extended from its rest position. Therefore the scale markings on the spring balance are equally spaced.Spring balance can be used in physics and education as basic accelerometers, but its main uses are industrial, especially related to weighing heavy loads such as trucks, storage silos, and material carried on a conveyor belt. Spring balance are used when the accuracy afforded by other types of scales can be sacrificed for simplicity, cheapness, and robustness. A spring balance measures the weight of an object by opposing the force of gravity with the force of an extended spring. Spring balances measure weights in Gram as well as NewtonThe first spring balance in Britain was made around 1770 by Richard Salter of Bilston, near West Bromwich.[1] He and his nephews John & George founded the firm of George Salter & Co., still notable makers of scales and balances, who in 1838 patented the spring balance. They also applied the same spring balance principle to steam locomotive safety valves, replacing the earlier deadweight valves.[1]
A body will weigh the same in air and in a vacuum when weighed with a spring balance, as the measurement is based on the gravitational force acting on the body. The absence of air in a vacuum does not affect the weight of the body being measured.
The elastic spring stretches more when subjected to the same force.
The spring constant for a Victor mousetrap is approximately 1.8 N/m. This means that it takes about 1.8 Newtons of force to compress the spring in the mousetrap by 1 meter.
The units newtons per meter refer to the quantity known as a spring constant, which represents the stiffness of a spring. It describes how much force is needed to stretch or compress the spring by a certain distance.
Because mass is conserved, which means it stays the same wherever the object goes. The weight is the force that the Earth attracts the object with, which changes when the object goes away from the Earth. Mass is measured by a balance, a pair of scales, where one mass is compared with another. Weight is measured by a spring balance, where the force of attraction by the Earth is measured by how much it extends a spring.
It doesn't, mass stays the same unless acted in by an outside force, balance isn't an outside force
it will not be balance
A spring scale measures weight. It is dependent on the gravity, and so one's weight in space, or on the moon would be different based on the spring scale. A balance measures mass, and since the standards in a balance are the same no matter what the gravity is, then the mass remains constant. However, for all practical purposes, the gravity on earth is constant so the weight and mass of the objects would be the same.
The extension of a spring is directly proportional to the force applied to it according to Hooke's Law. This means that as you increase the force applied to a spring, the extension of the spring will increase by the same proportion. This relationship holds true as long as the spring remains within its elastic limit.
Yes, the spring force will be different when the spring is compressed compared to when it is stretched. When a spring is compressed, it exerts a force in the opposite direction to the compression force, while when it is stretched, it exerts a force in the same direction as the stretching force.
It takes a larger force to compress or pull a spring the same distance as a spring with a smaller spring constant. This is shown in Hooke's law. x=F/k k---is the spring constant F---is the force applied to the spring x is the distance the spring has been compressed