If the velocity of a moving particle is reduced to half, the wavelength associated with it will remain the same. The wavelength of a particle is determined by its momentum, not its velocity.
If the velocity and frequency of the wave are both reduced to one half, the wavelength of the wave remains unchanged. The wavelength of a wave is determined by the velocity and frequency, so if both are reduced by the same factor, the wavelength will remain constant.
When analyzing the motion of a particle of reduced mass orbiting in a central force field, factors to consider include the magnitude and direction of the central force, the initial velocity and position of the particle, the shape and size of the orbit, and any external influences affecting the motion. These factors help determine the trajectory and behavior of the particle within the central force field.
the kinetic energy of a particle depends on the movement of each particle;that is the mass of the particle and the velocity of each particle.the particles of each matter or substance has a different heat resistance. when the temperature exceeds the resistance of the particles the movement of the particles would increase drastically.therefore making the velocity more and the mass lesser............. KE=1/2*m*v*v so when the temperature increases the mass is reduced and the velocity increases.
A wave traveling at a constant speed will have its frequency remain the same regardless of the change in wavelength. The wavelength and frequency of a wave are inversely proportional, meaning if the wavelength is reduced by a factor of 3, the frequency would increase by a factor of 3 to maintain a constant speed.
The wavelength of a wave is reduced in shallow water because the wave begins to interact with the sea floor, causing the wave to slow down and compress. This compression shortens the distance between wave crests, resulting in a shorter wavelength in shallow water.
If the velocity and frequency of the wave are both reduced to one half, the wavelength of the wave remains unchanged. The wavelength of a wave is determined by the velocity and frequency, so if both are reduced by the same factor, the wavelength will remain constant.
Virgil A Sandborn has written: 'Particle dynamics associated with the spacelab environment' -- subject(s): Matter, Effect of reduced gravity on
When analyzing the motion of a particle of reduced mass orbiting in a central force field, factors to consider include the magnitude and direction of the central force, the initial velocity and position of the particle, the shape and size of the orbit, and any external influences affecting the motion. These factors help determine the trajectory and behavior of the particle within the central force field.
Originally, CD lasers with a wavelength of 780 nm were used, in the infrared.For DVDs, the wavelength was reduced to 650 nm (red color), and the wavelengthfor Blu-ray Disc was reduced to 405 nm (violet color).
the kinetic energy of a particle depends on the movement of each particle;that is the mass of the particle and the velocity of each particle.the particles of each matter or substance has a different heat resistance. when the temperature exceeds the resistance of the particles the movement of the particles would increase drastically.therefore making the velocity more and the mass lesser............. KE=1/2*m*v*v so when the temperature increases the mass is reduced and the velocity increases.
A wave traveling at a constant speed will have its frequency remain the same regardless of the change in wavelength. The wavelength and frequency of a wave are inversely proportional, meaning if the wavelength is reduced by a factor of 3, the frequency would increase by a factor of 3 to maintain a constant speed.
The wavelength of a wave is reduced in shallow water because the wave begins to interact with the sea floor, causing the wave to slow down and compress. This compression shortens the distance between wave crests, resulting in a shorter wavelength in shallow water.
it doubles
Frequency and wavelength have an inverse ratio relationship. When one doubles, the other is cut in half. When one is multiplied by 10, the other is divided by 10. The exact relationship is: wavelength = wave velocity/frequency.
The assumption of the previous answer is wrong. By passing them through the correct medium, the velocity at which protons travel can be reduced. This follows the theory of relativity, which only sets a maximum value for light speed, not a minimum. The equations: E=hv [E-energy [J] | h-Planck's constant [6.6260755 x 10¯34 Joule second] | v-frequency [Hz, sec-1]] and λν=c [λ-wavelength [m] | ν-frequency [Hz, sec-1] | c-speed of light (photon) [m/s]] still hold true however. You can re-arrange the second equation such that λ=c/v . From this equation you can see that the relationship of wavelength and photon velocity are directly proportional. That is to say as the wavelength increases, so too does it's velocity - so long as the frequency of the sinusoidal wave stays constant.
You can see how the frequency of a wave changes as its wavelength changes by using the formula Velocity= wavelength x frequencyIf for example we are talking about the speed of light (Which does change) and the wavelength is reduced, then the frequency has to increase in order to balance out to the speed of light.Another way to view it is like this:The frequency of a wave changes with the wavelength by what happens to the wavelength. For instance, if the wavelength is doubled, the frequency is halved, and vise versa.
The average velocity over an time interval is the average of the instantaneous velocities for all instants over that period. Conversely, as the time interval is reduced, the average velocity comes closer and closer to the instantaneous velocity.