P. Kuhns

activity

20092013

most citedAbsence of static orbital current magnetism at the apical oxygen site in HgBa

_{2}

CuO

_{4 + δ}

from NMR

44 citations · 106 across the 8 of their papers we have counts for

collaborators

Showing 2013 · cond-mat.supr-conShow all

3 papers · 2 filters

cond-mat.supr-con2013★ 18 cited

Evidence of unconventional low-frequency dynamics in the normal phase of Ba(Fe1-xRhx)2As2 iron-based supercondutors

L. Bossoni, P. Carretta, W. P. Halperin +4

This work presents 75As NMR spin echo decay rate (1/T2) measurements in Ba(Fe1-xRhx)2As2 superconductors, for 0.041 < x < 0.094. It is shown that 1/T2 increases upon cooling, in th…

cond-mat.supr-con2013★ 10 cited

Microscopic coexistence of a two-component incommensurate spin density wave with superconductivity in underdoped NaFe $_{0.983}$ Co $_{0.017}$ As

Sangwon Oh, A. M. Mounce, Jeongseop A. Lee +6

We have performed $^{75}$ As and $^{23}$ Na nuclear magnetic resonance (NMR) measurements on a single crystal of NaFe $_{0.9835}$ Co $_{0.0165}$ As and found microscopic coexistence of s…

cond-mat.supr-con2013★ 44 cited

Absence of static orbital current magnetism at the apical oxygen site in HgBa $_{2}$ CuO $_{4 + δ}$ from NMR

A. M. Mounce, Sangwon Oh, Jeongseop A. Lee +9

The simple structure of HgBa $_{2}$ CuO $_{4 + δ}$ (Hg1201) is ideal among cuprates for study of the pseudogap phase as a broken symmetry state. We have performed $^{17}$ O nuclear magneti…

Evidence of unconventional low-frequency dynamics in the normal phase of Ba(Fe1-xRhx)2As2 iron-based supercondutors

Microscopic coexistence of a two-component incommensurate spin density wave with superconductivity in underdoped NaFe0.983​Co0.017​As

Absence of static orbital current magnetism at the apical oxygen site in HgBa2​CuO4+δ​ from NMR

Microscopic coexistence of a two-component incommensurate spin density wave with superconductivity in underdoped NaFe $_{0.983}$ Co $_{0.017}$ As

Absence of static orbital current magnetism at the apical oxygen site in HgBa $_{2}$ CuO $_{4 + δ}$ from NMR