The role of stannum was investigated in formation and transformation of vanadium-dioxide phase in a deep perspective through characterization methods including Raman spectra, XRD, OM, SEM, UV–vis and electrochemical workstation. The result showed supersaturated stannum atoms could exist in SnxV2-xO5 as amorphous solid solution through non-equilibrium sputtering method, by which the unitary phase Sn-doped VO2 could be obtained under either thermal de-oxidation or thermal de-composition mechanism. Furthermore, cooperating stannum atoms with oxygen vacancies could regulate the formation of vanadium dioxide M1 or M2 phase, in turn engineer the phase transformation (M-R) temperature of VO2
We demonstrate the growth of high quality single phase films of VO2(A, B, and M) on SrTiO3 substrate...
Oxalic acid was chosen as the reductant to prepare superfine VO2 powders from V2O5 under high-purity...
The ESR spectrum of SnO2 containing about 0.5% vanadium observed in K band at liquid‐nitrogen temper...
The role of stannum was investigated in formation and transformation of vanadium-dioxide phase in a ...
The role of stannum was investigated in formation and transformation of vanadium-dioxide phase in a ...
SnO<SUB>2</SUB> and 5 at.% V doped SnO<SUB>2</SUB> samples were prepared by citrate-gel method. From...
SnO2 and 5 at.% V doped SnO2 samples were prepared by citrate-gel method. From Raman study on vanadi...
SnO2 nanomaterial was fabricated using the horizontal vapor phase growth technique without a catalys...
SnO2 nanomaterial was fabricated using the horizontal vapor phase growth technique without a catalys...
SnO2 nanomaterial was fabricated using the horizontal vapor phase growth technique without a catalys...
SnO2 nanomaterial was fabricated using the horizontal vapor phase growth technique without a catalys...
This study details the surface reaction chemistry relevant to the vapor deposition mechanism of SnO2...
A crystalline-to-crystalline phase transformation, including chemical decomposition, has been observ...
A crystalline-to-crystalline phase transformation, including chemical decomposition, has been observ...
AbstractA study was conducted on the transformation of SnO to SnO2 using X-ray diffraction and subje...
We demonstrate the growth of high quality single phase films of VO2(A, B, and M) on SrTiO3 substrate...
Oxalic acid was chosen as the reductant to prepare superfine VO2 powders from V2O5 under high-purity...
The ESR spectrum of SnO2 containing about 0.5% vanadium observed in K band at liquid‐nitrogen temper...
The role of stannum was investigated in formation and transformation of vanadium-dioxide phase in a ...
The role of stannum was investigated in formation and transformation of vanadium-dioxide phase in a ...
SnO<SUB>2</SUB> and 5 at.% V doped SnO<SUB>2</SUB> samples were prepared by citrate-gel method. From...
SnO2 and 5 at.% V doped SnO2 samples were prepared by citrate-gel method. From Raman study on vanadi...
SnO2 nanomaterial was fabricated using the horizontal vapor phase growth technique without a catalys...
SnO2 nanomaterial was fabricated using the horizontal vapor phase growth technique without a catalys...
SnO2 nanomaterial was fabricated using the horizontal vapor phase growth technique without a catalys...
SnO2 nanomaterial was fabricated using the horizontal vapor phase growth technique without a catalys...
This study details the surface reaction chemistry relevant to the vapor deposition mechanism of SnO2...
A crystalline-to-crystalline phase transformation, including chemical decomposition, has been observ...
A crystalline-to-crystalline phase transformation, including chemical decomposition, has been observ...
AbstractA study was conducted on the transformation of SnO to SnO2 using X-ray diffraction and subje...
We demonstrate the growth of high quality single phase films of VO2(A, B, and M) on SrTiO3 substrate...
Oxalic acid was chosen as the reductant to prepare superfine VO2 powders from V2O5 under high-purity...
The ESR spectrum of SnO2 containing about 0.5% vanadium observed in K band at liquid‐nitrogen temper...