I used F/l = (k.I1.I2)/d
where d = distance between wires
i = current
l = length of interaction (above the solution - i think it was 0.35m?)
using the right hand rule.... the wires carry a circular magnetic field which CANCELS between the wires....due to a decrease in magnetic flux between the wires, they pull in towards each other...
if they were going the same way, the magnetic flux density between the wires is greater and pushes the wires away.
where d = distance between wires
i = current
l = length of interaction (above the solution - i think it was 0.35m?)
using the right hand rule.... the wires carry a circular magnetic field which CANCELS between the wires....due to a decrease in magnetic flux between the wires, they pull in towards each other...
if they were going the same way, the magnetic flux density between the wires is greater and pushes the wires away.