The force is up the slope and parralel to it, the load is essentially raised vertically.
It reduces the force needed to move the load up. Just think of it, it takes less force to push a cart with 100 kg of bricks on a slope or is it easier to lift it up directly to a height of 10m?
vertical lift versus slope the work done is the same (force * distance), but with a say 30 degree slope you need only half the force but need to travel twice as far to raise the load the same height vertically
No, Power factor may not have a magnitude greater than 1. It represents the proportion of power used by the load as compare to the total power delivered to the load. If the load is able to store power, then some of the power delivered to the load will be stored and then returned back to the electricity supply (50 times a second, depending on your grid frequency).
Hooke's Law tells use that a spring will deform linearly as y = m x + b were y is the length of the spring under loading m is the spring constant (slope of a line) b is the initial length of the spring first find the slope m: m = (y₂ - y₁) / (x₂ - x₁) m = (40 - 30) / (50 - 25) = 10 / 25 = 2/5 now use the point slope for the line equation and work to the slope intercept form y - y₁ = m(x - x₁) y - 30 = 2/5 (x - 25) y - 30 = 2/5x-10 y = 2/5x + 20 the spring is initially 20 cm long. ~I got this from another internet source, so i have no idea if this is right. but I'm pretty sure it is
The slope of the load vs displacement graph represents the stiffness of the material being tested. A steeper slope indicates a higher stiffness and vice versa. This relationship helps determine the material's resistance to deformation when subjected to a load.
The slope of the graph represents the shear force at a particular point on a beam. As the load position changes along the beam, the magnitude of the shear force and therefore the slope of the graph varies accordingly. The slope will be steeper where the shear force is greater, such as under concentrated loads or at support points.
Humans find it easier to push a load down a slope than upwards because the force of gravity assists in moving the load downwards. This reduces the amount of effort required compared to pushing the load uphill where gravity acts against the motion.
The formula for extension (lengthening) of a material under tensile stress is given by: Extension = Original Length x Strain = Original Length x (Final Length - Original Length) / Original Length. It represents the change in length of a material when subjected to a stretching force.
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.
It depends on the total load of the transistor as to what the shape of the slope is for the DC load line. A transistor gains voltage as base current is allowed to flow.
A load locka slope
A load locka slope
A load locka slope
A load locka slope
A load locka slope
A load locka slope