- #1
PhiowPhi
- 203
- 8
From this diagram:
If a conductor of length(##L##) is moving with a velocity(##v##) inside constant magnetic field(##B##), there is an induced EMF as indicated at the top of copper slab, and connected to a load and current will flow.
I've been curious with the way the wires are connected to the conductor, what if the bottom wire has been changed from it's position to this:
In the calculations for ##\epsilon##, would I just focus on the length ##L_2## or ##L##?
My initial analysis,is the induced EMF on the conductor regardless of where the connection of the circuit wire is remains unchanged, while as the current... I'm not sure it's the same. What has changed?
If a conductor of length(##L##) is moving with a velocity(##v##) inside constant magnetic field(##B##), there is an induced EMF as indicated at the top of copper slab, and connected to a load and current will flow.
I've been curious with the way the wires are connected to the conductor, what if the bottom wire has been changed from it's position to this:
In the calculations for ##\epsilon##, would I just focus on the length ##L_2## or ##L##?
My initial analysis,is the induced EMF on the conductor regardless of where the connection of the circuit wire is remains unchanged, while as the current... I'm not sure it's the same. What has changed?