© 2017 Author(s). Identifying different phases of VO2 during the metal−insulator phase transition is critical for device application due to the difference of electrical, mechanical and magnetic properties of phases. However, most studies so far were carried out using microprobe analyses, which lack the spatial resolution needed to identify nanoscale phases and changes. Taking advantage of in situ low temperature aberration-corrected scanning transmission electron microscopy, we observed the existence of M2 phase alongside M1 and R phase in the W-doped nanowires close to transition temperature. The localized stress caused by adding W in the structure results in the stabilization of nanosize grains of M2 phase in structure along with M1 and R...
The simultaneous metal-insulator and structural phase transitions of vanadium dioxide (VO2) makes th...
We demonstrate that surface stresses in epitaxially grown VO₂ nanowires (NWs) have a strong effect o...
The metal to insulator transition (MIT) of strongly correlated materials is subject to strong lattic...
© 2015 American Chemical Society. There has been long-standing interest in tuning the metal-insulato...
There has been long-standing interest in tuning the metal–insulator phase transition in vanadium dio...
We demonstrate that the Mott metal-insulator transition (MIT) In single crystalline VO2 nanowires is...
Vanadium dioxide (VO2) material, known for changing physical properties due to metal-insulator trans...
ABSTRACT: The abrupt first-order metal−insulator phase transition in single-crystal vanadium dioxide...
We demonstrate that the Mott metal-Insulator transition (MIT) In single crystalline VO2 nanowires Is...
The abrupt first-order metal-insulator phase transition in single-crystal vanadium dioxide nanowires...
We demonstrate that the Mott metal-insulator transition (MIT) in single crystalline VO(2) nanowires ...
bS Supporting Information As a strongly correlated electron material, vanadium dioxide(VO2) has been...
We have grown epitaxially orientation-controlled monoclinic VO2 nanowires without employing catalyst...
ABSTRACT: The metal to insulator transition (MIT) of strongly correlated materials is subject to str...
The abrupt first-order metal–insulator phase transition in single-crystal vanadium dioxide nanowires...
The simultaneous metal-insulator and structural phase transitions of vanadium dioxide (VO2) makes th...
We demonstrate that surface stresses in epitaxially grown VO₂ nanowires (NWs) have a strong effect o...
The metal to insulator transition (MIT) of strongly correlated materials is subject to strong lattic...
© 2015 American Chemical Society. There has been long-standing interest in tuning the metal-insulato...
There has been long-standing interest in tuning the metal–insulator phase transition in vanadium dio...
We demonstrate that the Mott metal-insulator transition (MIT) In single crystalline VO2 nanowires is...
Vanadium dioxide (VO2) material, known for changing physical properties due to metal-insulator trans...
ABSTRACT: The abrupt first-order metal−insulator phase transition in single-crystal vanadium dioxide...
We demonstrate that the Mott metal-Insulator transition (MIT) In single crystalline VO2 nanowires Is...
The abrupt first-order metal-insulator phase transition in single-crystal vanadium dioxide nanowires...
We demonstrate that the Mott metal-insulator transition (MIT) in single crystalline VO(2) nanowires ...
bS Supporting Information As a strongly correlated electron material, vanadium dioxide(VO2) has been...
We have grown epitaxially orientation-controlled monoclinic VO2 nanowires without employing catalyst...
ABSTRACT: The metal to insulator transition (MIT) of strongly correlated materials is subject to str...
The abrupt first-order metal–insulator phase transition in single-crystal vanadium dioxide nanowires...
The simultaneous metal-insulator and structural phase transitions of vanadium dioxide (VO2) makes th...
We demonstrate that surface stresses in epitaxially grown VO₂ nanowires (NWs) have a strong effect o...
The metal to insulator transition (MIT) of strongly correlated materials is subject to strong lattic...