You could use a micrometer to measure its diameter. Preferably measure at several locations and use the average.
Then cross-sectional area = (1/4)*pi*d2
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Here is a cheaper alternative:
A=V/L
where,
A= the cross-sectional area of the wire
V= the volume of the wire, measured using water displacement.
L= the length of the wire, measured using a ruler
also if the wire gauge is known simply use the following formula to obtain diameter:
D=.005*92^((36-gauge#)/39)
As far as young's modulus calculation goes, here is the general procedure:
Catalog the force applied to both ends of the wire with time. use a strain gauge to measure the axial strain with time. calculate the engineering stress using S=F/A.
plot the stress verses axial strain and then isolate the elastic portion of the plot. This is the portion of the plot where the slope is constant. The slope can be taken as Young's Modulus.
Simply work out the area of a section of cable.........
Perimeter of the base of the ruler multiplied by its height
If the wire has a circular cross-section - the usual case - use the formula for the circle: pi x radius squared.
Oh, dude, calculating the cross-sectional area of a cube is like a walk in the park. You just take the length of one side of the cube and square it. So if the side of the cube is 4 units long, the cross-sectional area would be 16 square units. Easy peasy, right?
Measure the diameter = d cm. Then radius = d/2 cm and cross sectional area = pi*r2 cm2.Measure the diameter = d cm. Then radius = d/2 cm and cross sectional area = pi*r2 cm2.Measure the diameter = d cm. Then radius = d/2 cm and cross sectional area = pi*r2 cm2.Measure the diameter = d cm. Then radius = d/2 cm and cross sectional area = pi*r2 cm2.
One inaccuracy can be that the wire or material that you are using to find Young's Modulus has some impurities and there may be a slight variation in the cross sectional area so a shorter piece of that material should be used.
To calculate the cross sectional area of a rectangular tube, multiply the widths of two adjacent sides of the tube.
To calculate the cross-sectional area of a shape, you need to determine the shape of the cross-section first (e.g., square, circle, triangle). Then, use the appropriate formula for that shape. For example, the formula for the cross-sectional area of a square is side length squared, for a circle it is pi times the radius squared, and for a triangle it is base times height divided by 2. Finally, plug in the given dimensions into the formula to calculate the cross-sectional area.
reduction ratio= initial cross sectional area/final cross sectional area
Oh, dude, calculating the cross-sectional area of a cube is like a walk in the park. You just take the length of one side of the cube and square it. So if the side of the cube is 4 units long, the cross-sectional area would be 16 square units. Easy peasy, right?
Simply work out the area of a section of cable.........
Volume = Cross sectional Area x Height.
Perimeter of the base of the ruler multiplied by its height
measure the channel height and then width and multiply them together
Young's modulus is determined experimentally by applying tensile strain (pulling on the ends) to a number of samples of the material under investigation and plotting the strain versus the elongation and taking the slope of the central part of the plot.
You don't. You can calculate iits radius and cross-sectional area but its diameter has insufficient information to calculate its length
Yes, bending stress is directly proportional to the section modulus. A larger section modulus indicates that the cross-sectional shape of the member is better at resisting bending, leading to lower bending stress. Conversely, a smaller section modulus results in higher bending stress for the same applied bending moment.