Ling Fu

activity

20152021

most citedMultiple Charge Density Wave States at the Surface of TbTe

_{3}

19 citations · 38 across the 4 of their papers we have counts for

collaborators

4 papers

cond-mat.str-el2021★ 6 cited

Lattice-Driven Chiral Charge Density Wave State in 1T-TaS $_{2}$

Manoj Singh, Boning Yu, James Huber +5

We use scanning tunneling microscopy to study the domain structure of the nearly-commensurate charge density wave (NC-CDW) state of 1T-TaS $_{2}$ . In our sub-angstrom characterization…

cond-mat.mtrl-sci2016★ 19 cited

Multiple Charge Density Wave States at the Surface of TbTe $_{3}$

Ling Fu, Aaron M. Kraft, Bishnu Sharma +4

We studied TbTe $_{3}$ using scanning tunneling microscopy (STM) in the temperature range of 298 - 355 K. As seen in previous STM measurements on RTe $_{3}$ compounds, our measuremen…

cond-mat.supr-con2016★ 13 cited

Suppression of Superfluid Density and the Pseudogap State in the Cuprates by Impurities

Unurbat Erdenemunkh, Brian Koopman, Ling Fu +5

We use scanning tunneling microscopy (STM) to study magnetic Fe impurities intentionally doped into the high-temperature superconductor Bi $_{2}$ Sr $_{2}$ Ca $_{2}$ CuO $_{8 + δ}$ . Our spe…

cond-mat.mtrl-sci2015

Origin of a Superlattice Observed in Li $_{0.9}$ Mo $_{6}$ O $_{17}$ by Scanning Tunneling Microscopy

Ling Fu, Aaron M. Kraft, Martha Greenblatt +1

We use scanning tunneling microscopy to study the lithium purple bronze (Li $_{0.9}$ Mo $_{6}$ O $_{17}$ ) at room temperature. Our measurements allow us to identify the single-crystal c…

Lattice-Driven Chiral Charge Density Wave State in 1T-TaS2​

Multiple Charge Density Wave States at the Surface of TbTe3​

Suppression of Superfluid Density and the Pseudogap State in the Cuprates by Impurities

Origin of a Superlattice Observed in Li0.9​Mo6​O17​ by Scanning Tunneling Microscopy

Lattice-Driven Chiral Charge Density Wave State in 1T-TaS $_{2}$

Multiple Charge Density Wave States at the Surface of TbTe $_{3}$

Origin of a Superlattice Observed in Li $_{0.9}$ Mo $_{6}$ O $_{17}$ by Scanning Tunneling Microscopy