We perform nuclear magnetic resonance (NMR) measurements of the oxygen-17 Knight shifts for Sr$_2$RuO$_4$, while subjected to uniaxial stress applied along [100] direction. The resulting strain is associated with a strong variation of the temperature and magnetic field dependence of the inferred magnetic response. A quasi-particle description based on density-functional theory calculations, supplemented by many-body renormalizations, is found to reproduce our experimental results, and highlights the key role of a van-Hove singularity. The Fermi liquid coherence scale is shown to be tunable by strain, and driven to low values as the associated Lifshitz transition is approached
The largest Fermi surface sheet of the correlated metal Sr2RuO4 can be driven through a Lifshitz tra...
Sr2RuO4 is a leading candidate for chiral p-wave superconductivity. The detailed mechanism of superc...
In-plane uniaxial pressure has been shown to strongly tune the superconducting state of Sr2RuO4 by a...
We perform nuclear magnetic resonance (NMR) measurements of the oxygen-17 Knight shifts for Sr2RuO4,...
International audienceWe perform nuclear magnetic resonance (NMR) measurements of the oxygen-17 Knig...
Uniaxial pressure applied along a Ru-O-Ru bond direction induces an elliptical distortion of the lar...
Uniaxial pressure applied along a Ru-O-Ru bond direction induces an elliptical distortion of the lar...
The effects of uniaxial compressive stress on the normal state O-17 nuclear-magnetic-resonance prope...
The effects of uniaxial compressive stress on the normal state ^{17}O nuclear-magnetic-resonance pro...
The effects of uniaxial compressive stress on the normal state 17O nuclear-magnetic-resonance proper...
At a temperature of roughly 1 K, Sr2RuO4 undergoes a transition from a normal Fermi liquid to a supe...
Pressure represents a clean tuning parameter for traversing the complex phase diagrams of interactin...
Pressure represents a clean tuning parameter for traversing the complex phase diagrams of interactin...
Phases of matter are usually identified through spontaneous symmetry breaking, especially regarding ...
Sr2RuO4 is the cleanest and most well-characterized example of unconventional superconductivity know...
The largest Fermi surface sheet of the correlated metal Sr2RuO4 can be driven through a Lifshitz tra...
Sr2RuO4 is a leading candidate for chiral p-wave superconductivity. The detailed mechanism of superc...
In-plane uniaxial pressure has been shown to strongly tune the superconducting state of Sr2RuO4 by a...
We perform nuclear magnetic resonance (NMR) measurements of the oxygen-17 Knight shifts for Sr2RuO4,...
International audienceWe perform nuclear magnetic resonance (NMR) measurements of the oxygen-17 Knig...
Uniaxial pressure applied along a Ru-O-Ru bond direction induces an elliptical distortion of the lar...
Uniaxial pressure applied along a Ru-O-Ru bond direction induces an elliptical distortion of the lar...
The effects of uniaxial compressive stress on the normal state O-17 nuclear-magnetic-resonance prope...
The effects of uniaxial compressive stress on the normal state ^{17}O nuclear-magnetic-resonance pro...
The effects of uniaxial compressive stress on the normal state 17O nuclear-magnetic-resonance proper...
At a temperature of roughly 1 K, Sr2RuO4 undergoes a transition from a normal Fermi liquid to a supe...
Pressure represents a clean tuning parameter for traversing the complex phase diagrams of interactin...
Pressure represents a clean tuning parameter for traversing the complex phase diagrams of interactin...
Phases of matter are usually identified through spontaneous symmetry breaking, especially regarding ...
Sr2RuO4 is the cleanest and most well-characterized example of unconventional superconductivity know...
The largest Fermi surface sheet of the correlated metal Sr2RuO4 can be driven through a Lifshitz tra...
Sr2RuO4 is a leading candidate for chiral p-wave superconductivity. The detailed mechanism of superc...
In-plane uniaxial pressure has been shown to strongly tune the superconducting state of Sr2RuO4 by a...