The relationship between extension and mass is described by Hooke's Law, which states that the extension of a spring is directly proportional to the force applied to it, as long as the elastic limit of the material is not exceeded. This means that the greater the mass attached to the spring, the more it will stretch. The relationship can be expressed mathematically as F = kx, where F is the force applied, k is the spring constant, and x is the extension of the spring.
In the context of the load-velocity relationship, the relationship between load and velocity is inverse. This means that as the load increases, the velocity at which the load can be moved decreases, and vice versa.
The relationship is Hooke's Law: the extension of a spring is directly proportional to the force applied.
when the extension of the spring increases the weight hung on it also increases
the relationship between them is that the load carries it self and the lever holds its self in place
The Hooke's Law graph shows that the relationship between force and extension in a spring is linear. This means that as the force applied to the spring increases, the extension of the spring also increases proportionally.
the load and fulcrum
When a muscle contracts it causes flexion and when muscles relax they cause extension
Strength of contraction increases as the load increases until the load becomes excessive.
Strength of contraction increases as the load increases until the load becomes excessive.
The load extension graph passes through the origin because at the beginning of the test, there is no load applied, so the extension is zero. This is the starting point on the graph where load and extension are proportional to each other before any deformation occurs.
The relationship between the number of ropes lifting the load and the effort needed to lift the load is inversely proportional. As the number of ropes lifting the load increases, the effort needed to lift the load decreases. This is because the load is distributed among more ropes, reducing the force required from each rope.