It gets bigger lol
mmm
When a coil spring is compressed the spring compression tends to vary inversely with the length of the spring to the point where the spring cannot be compressed further without damage. In tension, the spring tension varies directly with the length but only so long as the elastic modulus is not reached. At that length, the spring becomes permanently deformed or "sprung". Depending on the representation of the drawing, the vector of the spring in compression will be opposite that of the same spring in tension. That is to say, if you push the spring to the left the force will be negative while a pull to the right will be positive so the spring in compression will push right (positive) and the spring in tension will pull left (negative).
The larger the force pulling on a spring, the greater the length in the spring and the more energy that is stored in that spring. When looking at a spring there is a gradient that determines how much force much be used to sqeeze or stretch a spring a given amount. When a spring is stretched, the greater the force that is applied, the greater the change in length of the spring and the greater the amount of energy that is stored in the spring. A link is supplied to the Wikipedia article on the spring (device).
Usually it gets bigger, if you wanted to do an experement, you would- Measure the spring, put it in water, take it out then measure it again and it would be bigger!
2
mmm
Nothing; it remains the same as before.
When a coil spring is compressed the spring compression tends to vary inversely with the length of the spring to the point where the spring cannot be compressed further without damage. In tension, the spring tension varies directly with the length but only so long as the elastic modulus is not reached. At that length, the spring becomes permanently deformed or "sprung". Depending on the representation of the drawing, the vector of the spring in compression will be opposite that of the same spring in tension. That is to say, if you push the spring to the left the force will be negative while a pull to the right will be positive so the spring in compression will push right (positive) and the spring in tension will pull left (negative).
When gravitation pull is at its strongest, we have spring tides. The spring tide reaches far up the beach at high tide, and also goes far down the beach at low tide.
When gravitation pull is at its strongest, we have spring tides. The spring tide reaches far up the beach at high tide, and also goes far down the beach at low tide.
The larger the force pulling on a spring, the greater the length in the spring and the more energy that is stored in that spring. When looking at a spring there is a gradient that determines how much force much be used to sqeeze or stretch a spring a given amount. When a spring is stretched, the greater the force that is applied, the greater the change in length of the spring and the greater the amount of energy that is stored in the spring. A link is supplied to the Wikipedia article on the spring (device).
multiply the force with length.
Usually it gets bigger, if you wanted to do an experement, you would- Measure the spring, put it in water, take it out then measure it again and it would be bigger!
When you pull on the scale you stretch the spring the pointer on the scales moves as you pull to measure the force you are using you have to be able to lift or pull on the spring scale
depends on the initial length of the spring, and how much force is required to stretch the spring
spring happens when the earth's axis tilts slant-wise between the sun and well nothing, which make spring happens.
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