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The drift velocity of electrons in a conductor is typically on the order of 10^-4 m/s. If drift velocity is dependent upon electric field how can we calculate the value as 10 to the power minus 4 m per second what is the value of electric field taken for that?
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The drift velocity of electrons in a conductor is typically on the ord...
The Drift Velocity of Electrons in a Conductor


The drift velocity of electrons in a conductor refers to the average velocity at which electrons move in response to an electric field. It is typically on the order of 10^-4 m/s. The value of the drift velocity can be calculated based on the electric field applied to the conductor.


Electric Field and Drift Velocity


The drift velocity of electrons in a conductor is directly proportional to the electric field applied to the conductor. This relationship is described by the equation:


v_d = μE


Where:


  • v_d is the drift velocity of electrons

  • μ is the electron mobility, which is a constant for a given material

  • E is the electric field



The electron mobility represents how easily electrons can move through a material in response to an electric field. It depends on various factors such as the material's conductivity and temperature.


Calculating the Electric Field


To calculate the value of the electric field required to achieve a drift velocity of 10^-4 m/s, we need to know the electron mobility of the conductor. The electron mobility is typically provided as a constant value for a specific material.


Once we have the electron mobility, we can rearrange the equation to solve for the electric field:


E = v_d / μ


Substituting the given drift velocity of 10^-4 m/s and the electron mobility value, we can calculate the electric field required.


Conclusion


The value of the electric field required to achieve a drift velocity of 10^-4 m/s depends on the electron mobility of the conductor. By using the equation v_d = μE and rearranging it to solve for E, we can calculate the electric field. The drift velocity of electrons in a conductor is directly proportional to the electric field, and the relationship is governed by the electron mobility of the material.


Note: The actual value of the electric field required will vary depending on the specific material and conditions, but the given value of 10^-4 m/s provides a general order of magnitude for the drift velocity of electrons in a conductor.
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The drift velocity of electrons in a conductor is typically on the order of 10^-4 m/s. If drift velocity is dependent upon electric field how can we calculate the value as 10 to the power minus 4 m per second what is the value of electric field taken for that?
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