The expression for momentum in cylindrical coordinates is given by the formula:
vecp m vecv m vrho hatrho m vphi hatphi m vz hatz
where ( m ) is the mass of the object, ( vecv ) is the velocity vector, ( vrho ) is the radial component of velocity, ( vphi ) is the azimuthal component of velocity, and ( vz ) is the vertical component of velocity.
The expression for the electric field in cylindrical coordinates is given by E (Er, E, Ez), where Er is the radial component, E is the azimuthal component, and Ez is the vertical component of the electric field.
In cylindrical coordinates, the surface element is represented by the product of the radius and the differential angle, which is denoted as (r , dr , dtheta).
In cylindrical coordinates, the position vector is represented as (r, , z), where r is the distance from the origin, is the angle in the xy-plane, and z is the height along the z-axis.
The formula for calculating the volume of a solid using the area element in cylindrical coordinates is V r dz dr d.
In cylindrical coordinates, vorticity is related to the velocity by the curl of the velocity field. The vorticity vector is the curl of the velocity vector, which represents the local rotation of the fluid at a point in the flow.
The expression for the electric field in cylindrical coordinates is given by E (Er, E, Ez), where Er is the radial component, E is the azimuthal component, and Ez is the vertical component of the electric field.
In cylindrical coordinates, the surface element is represented by the product of the radius and the differential angle, which is denoted as (r , dr , dtheta).
The coordinates for equations dealing with cylindrical and spherical conduction are derived by factoring in the volume of the thickness of the cylindrical control. Coordinates are placed into a Cartesian model containing 3 axis points, x, y, and z.
In cylindrical coordinates, the position vector is represented as (r, , z), where r is the distance from the origin, is the angle in the xy-plane, and z is the height along the z-axis.
The formula for calculating the volume of a solid using the area element in cylindrical coordinates is V r dz dr d.
In cylindrical coordinates, vorticity is related to the velocity by the curl of the velocity field. The vorticity vector is the curl of the velocity vector, which represents the local rotation of the fluid at a point in the flow.
The expression for the (l2) operator in spherical coordinates is ( -hbar2 left( frac1sintheta fracpartialpartialtheta left( sintheta fracpartialpartialtheta right) frac1sin2theta fracpartial2partialphi2 right) ). This operator measures the square of the angular momentum of a particle in a spherically symmetric potential. It quantifies the total angular momentum of the particle and its projection along a specific axis. The eigenvalues of the (l2) operator correspond to the possible values of the total angular momentum quantum number (l), which in turn affects the quantum state of the particle in the potential.
Conservation of linear Momentum is independent of the coordinate system. It does not matter what coordinates are used. In a closed system, i.e. no external forces, momentum is conserved
When some generalized coordinates, say q,do not occur explicitly in the expression of Lagrangian, then those coordinates are called Cyclic coordinate.
Usually, cylindrical coordinates refers to the transformation x = r cos(theta), y = r sin(theta), z = z, although x, y, and z can be permuted. Cylindrical coordinates (r, theta, z) are very useful for describing three-dimensional objects whose cross-sections are easy to express in polar coordinates. Circular cylinders are a good example.
it is easy you can see any textbook........
Angular momentum in polar coordinates is expressed as the product of the moment of inertia and the angular velocity, multiplied by the radial distance from the axis of rotation. This formula helps describe the rotational motion of an object in a two-dimensional plane.