Increasing the potential difference across a conductor results in a higher electric field, which exerts a stronger force on the charge carriers (electrons). This causes the electrons to accelerate at a faster rate, increasing their average drift velocity through the conductor.
The momentum of a body can be increased by either increasing its mass or its velocity. Increasing the mass of the body will increase its momentum, while increasing the velocity of the body will also increase its momentum as momentum is calculated as mass times velocity.
If your acceleration is increasing then by default your velocity has to increase. Acceleration = velocity/time so if acceleration is increasing the velocity is also increasing... And just for fun, just as the change in distance is velocity, and change in velocity is acceleration with respect to time, the change in acceleration with respect to Time is called a jerk
You can increase the momentum of an object by either increasing its mass or its velocity. By increasing the mass of the object, the momentum will increase proportionally. Alternatively, increasing the velocity of the object will also increase its momentum.
Increasing the magnitude of velocity or changing the direction of velocity towards the movement direction of the object can increase speed.
Increasing the temperature excites more charge carriers in a conductor, causing them to move faster. This results in an increased drift velocity as the charged particles collide more frequently with lattice ions in the conductor, leading to a higher average velocity in a given direction.
Drift velocity increases.
The momentum of a body can be increased by either increasing its mass or its velocity. Increasing the mass of the body will increase its momentum, while increasing the velocity of the body will also increase its momentum as momentum is calculated as mass times velocity.
If your acceleration is increasing then by default your velocity has to increase. Acceleration = velocity/time so if acceleration is increasing the velocity is also increasing... And just for fun, just as the change in distance is velocity, and change in velocity is acceleration with respect to time, the change in acceleration with respect to Time is called a jerk
yes
You can increase the momentum of an object by either increasing its mass or its velocity. By increasing the mass of the object, the momentum will increase proportionally. Alternatively, increasing the velocity of the object will also increase its momentum.
No. Acceleration IS a change of velocity - any change. When velocity increases, there IS acceleration. The acceleration itself may be increasing, decreasing, or remain constant.
Increasing the magnitude of velocity or changing the direction of velocity towards the movement direction of the object can increase speed.
momentum of a body can be increased either by increasing velocity or by mass.since momentum = mass * velocity.
Depends on what is between the potential difference (ie, the voltage). If it's an evaculated tube, and the electrons are travelling between the anode and the cathode without much interference, then then a higher voltage will mean that the electrons arrive with more kinetic energy -- ie, increased velocity. However, if there's a wire between the two voltages, then the drift velocity of the electrons (which is pretty slow to begin with) does not increase, but only the number of electrons that are drifting.
if velocity increases, so does momentum. and vice versa momentum = mass x velocity increasing mass or velocity or both will increase momentum
Increasing the temperature excites more charge carriers in a conductor, causing them to move faster. This results in an increased drift velocity as the charged particles collide more frequently with lattice ions in the conductor, leading to a higher average velocity in a given direction.
mass or its velocity. Increasing the mass will increase momentum since momentum is directly proportional to mass, while increasing the velocity will also increase momentum since momentum is directly proportional to velocity.