There is no equation that describes the motion of a particle. This would in fact be impossible due to the heisenberg uncertainty principle (which states you cannot simultaneously know the position and momentum of a particle to arbitrary precision - exactly what an equation of particle motion would give you). Are you talking about a wavefunction (which gives the PROBABILITY of finding a particle in a certain location)?
The overdamped Langevin equation describes the motion of a particle in a viscous medium when the damping force is much stronger than the random force. This equation is often used in physics to model systems where the particle's motion is slow and smooth. Applications of the overdamped Langevin equation include studying the behavior of colloidal particles in liquids, the dynamics of polymer chains, and the motion of biological molecules in cells.
Kinetic energy per particle is the energy an individual particle possesses due to its motion. It is calculated using the equation KE = 0.5 * m * v^2, where m is the mass of the particle and v is its velocity.
The Smoluchowski equation is important in studying Brownian motion and particle diffusion because it describes how particles move randomly in a fluid. It helps scientists understand how particles spread out and interact with each other, which is crucial in various fields such as chemistry, physics, and biology.
The minimum stream velocity needed to keep a particle in motion can be estimated using the settling velocity equation. For a 10 cm diameter particle, the approximate minimum stream velocity would need to be around 0.03 m/s to keep it in motion. This value may vary depending on factors such as particle density and fluid properties.
When a wave passes through a particle, the particle oscillates around its equilibrium position. If the wave is a simple harmonic wave, the particle will return to its original position after one complete wave cycle since the restoring force is proportional and opposite to the displacement of the particle. Mathematically, this can be shown by analyzing the equation of motion for the particle.
The overdamped Langevin equation describes the motion of a particle in a viscous medium when the damping force is much stronger than the random force. This equation is often used in physics to model systems where the particle's motion is slow and smooth. Applications of the overdamped Langevin equation include studying the behavior of colloidal particles in liquids, the dynamics of polymer chains, and the motion of biological molecules in cells.
Kinetic energy per particle is the energy an individual particle possesses due to its motion. It is calculated using the equation KE = 0.5 * m * v^2, where m is the mass of the particle and v is its velocity.
The Smoluchowski equation is important in studying Brownian motion and particle diffusion because it describes how particles move randomly in a fluid. It helps scientists understand how particles spread out and interact with each other, which is crucial in various fields such as chemistry, physics, and biology.
Brownian motion
The minimum stream velocity needed to keep a particle in motion can be estimated using the settling velocity equation. For a 10 cm diameter particle, the approximate minimum stream velocity would need to be around 0.03 m/s to keep it in motion. This value may vary depending on factors such as particle density and fluid properties.
When a wave passes through a particle, the particle oscillates around its equilibrium position. If the wave is a simple harmonic wave, the particle will return to its original position after one complete wave cycle since the restoring force is proportional and opposite to the displacement of the particle. Mathematically, this can be shown by analyzing the equation of motion for the particle.
Particle motion increases as energy (like heat) is added. The motion slows as energy leaves. Temperature is a measure of this change in particle motion.
The energy possessed by a particle due to its motion is called kinetic energy. It depends on the mass of the particle and its velocity.
Particle motion and thermal heat energy should both be increasing
The lifetime of a particle (τ) is related to its decay constant (λ) through the equation τ = 1/λ. The decay constant is inversely proportional to the half-life of the particle.
The measure of energy of motion of a particle of matter is called kinetic energy. It is calculated using the formula KE = 0.5 * mass * velocity^2, where mass is the mass of the particle and velocity is its speed.
The particle motion in shear waves relative to the energy of the wave is downward.