Answer:
B = 8.0487mT
Explanation:
To solve the exercise it is necessary to take into account the considerations of the Magnetic Force described by Faraday,
The magnetic force is given by the formula
Where,
B = Magnetic Field
I = Current
L = Length
Angle between the magnetic field and the velocity, for this case are perpendicular, then is 90 degrees
According to our data we have that
I = 16.4A
F = 0.132N/m
As we know our equation must be modificated to Force per length unit, that is
Replacing the values we have that
Solving for B,
Answer:
-total mass
-location of the axis of rotation
Explanation:
The moment of inertia () is a measure of the rotational inertia (resistance to the change of state of motion) of a body.
This amount depends on the mass distribution of the body and the chosen axis, which is why it must be specified with respect to an axis of rotation.
For example, for the known case of a point mass, its moment of inertia is given by:
Where is the mass and is the distance to the axis of rotation.
Therefore, the moment of inertia of an object depends on its total mass and location of the axis of rotation.
For any circuit element, the power is equal to the voltage difference across the element multiplied by the current. By Ohm's Law, V = IR, and so there are additional forms of the electric power formula for resistors. Power is measured in units of Watts (W), where a Watt is equal to a Joule per second (1 W = 1 J/s).
Answer:
radiated heat from the Sun being absorbed by the ground