It would work the same, but measure the same mass as different weights depending on the planet. On the gas giants it would be hard to find a place to set it.
Using the same scale for both planet size and distance from the sun would result in planets being spaced too far apart from each other compared to their actual distances. This would lead to an incorrect representation of the relative distances between planets in our solar system. It is better to use separate scales for size and distance to accurately depict the vastness of space.
Gravity holds almost everything together; the planets, our solar system, essentially everything 'big' in our universe. For Earth, if gravity was suddenly 'switched off', the Earth would expand as everything that was densely held together by gravity suddenly separates. The atmosphere would dissipate, everything would turn into a giant chaotic cloud of matter. On the atomic scale however not much would change. Atoms would still exist, as would molecules and probably some collections of them too. On such a small scale where everything is so close together and mass is so insignificant gravity is not as significant a force as it is in our day to day lives. At this scale we get what are called the 'strong' and 'weak' nuclear forces taking control along with electrostatic forces, holding the atomic nuclei together and keeping electrons orbiting, and other very important things. So if we did not gravity, we would cease to exist. But on the atomic scale not much would change.
The accurate representation of the solar system orbits to scale would show the planets orbiting the sun at varying distances, with the inner planets closer to the sun and the outer planets farther away. The orbits would be elliptical in shape, with each planet following its own path around the sun. The distances between the planets would also be accurately depicted to scale, showing the vastness of space between them.
It is difficult to make an accurately scaled model of the solar system in the classroom because of the vast size differences between the planets and the huge distances between them. Shrinking down these proportions to fit into a classroom setting often results in a model that lacks accurate scale representation. Additionally, the orbits of the planets around the sun are not to scale in terms of distance or speed, further complicating accurate representation.
The forcetat drives all large scale motion (from cars to planets and suns) is GRAVITY, the gravitational force. The reason it is so important on large scale is that, unlike other forces, it is always attractive. Electromagnetism, though stronger than gravity, is sometimes attractve and sometimes replulsive and these tend to cancel each other out.
You would measure weight with a spring scale.
If the fish does not struggle (it would have to be dead not to) and above water, then you can measure a spring scale.
a laboratory balance OR an analytical balance OR a spring scale OR any other kind of scale
what is a spring spring scale.
You would measure weight or force using a spring scale. The scale works by quantifying the amount of force applied to it, which is then translated into a weight measurement in units like pounds or kilograms.
A Tubular Spring scale.
Not really...A spring scale is largely inacurate. For Chemical or Scientific purposes, a spring scale is not the answer.
'There are two types of weighing scales; spring scale and balance scale. The spring scale makes use of spring to detect how much weight is pulled whereas a balance scale utilizes the horizontal bar to compare unknown weight to a standardized weight.' There are no other names for the balance scale, but there are differen't types of scales.
A spring scale is typically used to measure the weight of objects by the extension or compression of a spring under the force of gravity acting on that object. You can use it to measure the weight of things like fruits, vegetables, packages, or other objects that you want to know the weight of.
A spring scale is used to measure force or mass
Weight is measured using a spring scale, which operates on the principle of Hooke's law that the force exerted on the spring is proportional to the displacement of the spring. The spring scale measures weight by the amount of force needed to stretch the spring within the scale.
A spring scale operates by stretching a spring when a force is applied to the hook or hanger attached to it. The amount of stretching corresponds to the magnitude of the force applied, which is then read from a scale marked on the spring. This allows the user to measure the force applied.