- #1

eljose79

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mx´´=e(vxB)+eE...similar to that of gravitation..by considering that

e(vxB)+eE comes from a potential..and the electrons are moving in geodesics?..

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- Thread starter eljose79
- Start date

Physics replied: In summary, the conversation is discussing the possibility of giving a geometrical meaning to the Lorentz equation, similar to that of gravitation, by considering that the electromagnetic field comes from a potential and the electrons are moving in geodesics. However, it is noted that the electron is not always moving on a geodesic in an electromagnetic field, unless there is no force acting on it.

- #1

eljose79

- 1,518

- 1

mx´´=e(vxB)+eE...similar to that of gravitation..by considering that

e(vxB)+eE comes from a potential..and the electrons are moving in geodesics?..

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- #2

pmb

Originally posted by eljose79

mx´´=e(vxB)+eE...similar to that of gravitation..by considering that

e(vxB)+eE comes from a potential..and the electrons are moving in geodesics?..

If the electron is moving in an EM field then it's not moving on a geodesic unless the force on the electron is zero. There are circumstances such that the electron is moving in an EM field and force free but not in general.

Pmb

- #3

Graeme Robinson

- 225

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The Lorentz equation, also known as the Lorentz force law, describes the motion of a charged particle in an electromagnetic field. It states that the acceleration of the particle is equal to the sum of the electric and magnetic forces acting on it. This equation has a clear geometrical interpretation, similar to that of gravitation, when considering the motion of charged particles in an electromagnetic field.

The term e(vxB) represents the magnetic force, which is perpendicular to both the velocity of the particle and the magnetic field. This can be seen as a centripetal force, causing the particle to move in a circular path around the magnetic field lines. This is similar to the gravitational force, which also causes objects to move in a circular path around massive bodies.

The term eE represents the electric force, which is parallel to the electric field. This can be seen as a tangential force, causing the particle to accelerate in the direction of the electric field. This is similar to the gravitational force, which also causes objects to accelerate towards massive bodies.

By considering the electrons as moving in geodesics, we can also draw a parallel to the concept of spacetime curvature in general relativity. Just as massive objects curve the fabric of spacetime, causing objects to move along geodesic paths, charged particles moving in an electromagnetic field also experience a curvature in their trajectory. This curvature can be understood as the result of the combined electric and magnetic forces acting on the particle.

In summary, the Lorentz equation can indeed be given a geometrical interpretation by considering the motion of charged particles in an electromagnetic field. This interpretation is similar to that of gravitation, with the forces acting on the particle being analogous to centripetal and tangential forces, and the trajectory of the particle being affected by the curvature of spacetime.

The Lorentz equation is a mathematical expression that describes how an object's position, velocity, and acceleration change over time when subject to a force. In terms of geometry, it represents the relationship between an object's motion and the curvature of spacetime.

The Lorentz equation is a key component of special relativity, which is a theory that describes how time and space are perceived differently by observers in different frames of reference. The equation takes into account the effects of time dilation and length contraction, which are fundamental principles of special relativity.

The Lorentz equation is closely linked to the theory of electromagnetism, as it describes the motion of charged particles in an electromagnetic field. It is also used in the derivation of Maxwell's equations, which are fundamental laws that govern the behavior of electric and magnetic fields.

Time dilation is a consequence of the Lorentz equation, which predicts that time will appear to run slower for an object in motion compared to a stationary observer. This effect is a result of the relationship between an object's velocity and the curvature of spacetime, as described by the equation.

Yes, the Lorentz equation is a universal equation and can be applied to any type of motion, as long as the motion is subject to a force. It is commonly used in particle physics, astrophysics, and other fields to describe the behavior of objects at high velocities.

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