I'm poking around Faraday's law regarding induction and I'm trying to solidify my understanding. In my figure below the light blue shaded area is a region of uniform magnetic field directed into the screen (signified by the one red X). If this magnetic field is increasing in magnitude at a constant rate, $dB/dt$, then it will induce an electric field that drives a current flowing counter clockwise around the purple conductor loop (nature reacts to change).
This results in an emf being produced around the loop as per the equation, $$\oint \vec E \cdot \vec ds = - \frac{d\phi_B }{dt}$$ And since, $$\phi_B = BA$$ the flux linking the purple ring depends on the area inside the ring. So, here is my question, what if I have a "hole" in the middle of the ring within which is no $B$ field (white area in figure below)? All other things equal, will this configuration induce the same $E$ field and resulting current $i$ as the above case?
I know that the total magnetic flux linking the coil is smaller now ($BA$), but i think the rate-of-change of that flux linkage is the same as the first scenario...making me think the coil will not know the difference and the emf and induced current $i$, will be same as first case.