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Remote representations can reflect learned associations and support learning. Neurons in medial entorhinal cortex (MEC) represent the animal\u2019s current location during movement, but little is known about MEC representations during immobility. We recorded hundreds of neurons simultaneously in MEC and CA1 as mice learned to associate pairs of rewarded locations. During immobility, the MEC neural population frequently represented positions far from the animal\u2019s location (\u2018nonlocal coding\u2019). Cells with spatial firing fields at remote locations drove nonlocal coding, even as cells representing the current position remained active. While MEC nonlocal coding has been reported during sharp-wave ripples in CA1, we observed nonlocal coding more often outside of ripples and saw less CA1\u2013MEC coordination during nonlocal coding. Further, nonlocal coding preferentially represented remote task-relevant locations at appropriate times. 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