The depth of section is major axis of that section. Prependicular to that depth is minor axis of that section.
I think it helps you to understand.
Regards,
Vinay
In a beam or length of material, we generally consider the longitudinal axis as the major axis for bending. But torsion will bend the material from the vertical, will twist it around that longitudinal axis. And lateral forces will bend the material across it axis of latitude.
To calculate the width of an oval (ellipse), you need to measure its major and minor axes. The major axis is the longest diameter, while the minor axis is the shortest. The width of the oval can be represented by the length of the minor axis, which indicates its width at the widest point perpendicular to the major axis. If you have the semi-minor axis (half of the minor axis), the width can be expressed as 2 times the semi-minor axis length.
The area of an ellipse with a major axis 20 m and a minor axis 10 m is: 157.1 m2
The perimeter ( P ) of an ellipse can be approximated using the formula ( P \approx \pi \left( 3(a + b) - \sqrt{(3a + b)(a + 3b)} \right) ), where ( a ) is the semi-major axis and ( b ) is the semi-minor axis. With a major axis of 15, the semi-major axis ( a ) is 7.5, and with a minor axis of 7.5, the semi-minor axis ( b ) is 3.75. Plugging in these values gives an approximate perimeter of about 34.68.
horizontal = x axis vertical = y axis 3d axis = z axis in an elipses, there is also a major and minor axis and finally, 3 Axis Powers: Germany, Japan, and Italy
The minor axis of a rectangular column or beam is the line that goes through the center. The minor axis will be shorter than the major axis.
basically,when you have bending suppose you take beam(I-section) and an axis along the beam now, 1.curl you fingers in the direction of bending 2.point the thumb perpendicular to your fingers 3.thumb would give you the flexural axis(bending axis)
In a beam or length of material, we generally consider the longitudinal axis as the major axis for bending. But torsion will bend the material from the vertical, will twist it around that longitudinal axis. And lateral forces will bend the material across it axis of latitude.
It is the conjugate axis or the minor axis.
Symmetrical bending occurs when a beam is loaded uniformly along its length, resulting in bending stresses that are equal on both sides of the beam's neutral axis. Unsymmetrical bending occurs when a beam is loaded unevenly, causing different magnitudes of bending stress on opposite sides of the beam's neutral axis.
The area of an ellipse with a major axis 20 m and a minor axis 10 m is: 157.1 m2
The major axis and the minor axis.
The major axis is the axis that cuts, or goes between the two vertices of the hyperbola. The minor axis is perpendicular to the major axis and is an axis of symmetry. If the hyperbola is defined by: x^2/a^2 - y^2/b^2=1 where x^2 is x squared. Then the major axis is 2a units long, and the minor axis is 2b units long.
The internal bending moment formula used to calculate bending stress in a beam is M I / c, where M is the bending moment, is the bending stress, I is the moment of inertia, and c is the distance from the neutral axis to the outermost fiber of the beam.
horizontal = x axis vertical = y axis 3d axis = z axis in an elipses, there is also a major and minor axis and finally, 3 Axis Powers: Germany, Japan, and Italy
The equation to find the semi-minor axis of elliptical orbit is b=a*sqrt(1 - e^2), where b is the semi-minor axis, a is the semi-major axis, and e is the eccentricity. Therefore, using 17.8AU as the semi-major axis and 0.967 as the eccentricity, the semi-minor axis is calculated to be 4.53AU or 6.62*10^11 m.
(Major Axis powers) Germany. Japan. Italy. (minor axis powers) Hungary. Romania. Bulgaria. Yugoslavia.