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Anisotropic, spatially textured electronic states often emerge when thesymmetry of the underlying crystalline structure is lowered. However, thepossibility recently has been raised that novel electronic quantum states withreal-space texture could arise in strongly correlated systems even withoutchanging the underlying crystalline structure. Here we report evidence for suchtexture in the superconducting quantum fluid that is induced by pressure in theheavy-fermion compound CeRhIn5. When long-range antiferromagnetic ordercoexists with unconventional superconductivity, there is a significanttemperature difference between resistively- and thermodynamically-determinedtransitions into the superconducting state, but this difference disappears inthe absence of magnetism. Anisotropic transport behaviour near thesuperconducting transition in the coexisting phase signals the emergence oftextured superconducting planes that are nucleated preferentially along the{100} planes and that appear without a change in crystal symmetry. We show thatCeRhIn5 is not unique in exhibiting a difference between resistive and bulksuperconducting transition temperatures, indicating that texturedsuperconductivity may be a general consequence of coexisting orders.

Textured Superconducting State in the Heavy Fermion CeRhIn5