The crystal structure of the nanocrystalline phase of Pigment Yellow 213 (P.Y. 213) was solved by a combination of single-crystal electron diffraction and X-ray powder diffraction, despite the poor crystallinity of the material. The molecules form an efficient dense packing, which explains the observed insolubility and weather fastness of the pigment. The pair-distribution function (PDF) of the phase is consistent with the determined crystal structure. The Β phase of P.Y. 213 shows even lower crystal quality, so extracting any structural information directly from the diffraction data is not possible. PDF analysis indicates the Β phase to have a columnar structure with a similar local structure as the phase and a domain size in column direct...
With only a 2.6 Å resolution laboratory powder diffraction pattern of the θ phase of Pigment Yellow ...
The nanocrystalline $\alpha^{II}$-phase of the industrially produced organic pigment quinacridone wa...
The nanocrystalline $\alpha^{II}$-phase of the industrially produced organic pigment quinacridone wa...
The crystal structure of the nanocrystalline phase of Pigment Yellow 213 (P.Y. 213) was solved by a ...
The crystal structure of the nanocrystalline phase of Pigment Yellow 213 (P.Y. 213) was solved by a ...
The crystal structure of the nanocrystalline phase of Pigment Yellow 213 (P.Y. 213) was solved by a ...
The crystal structure of the nanocrystalline phase of Pigment Yellow 213 (P.Y. 213) was solved by a ...
The crystal structure of the nanocrystalline alpha phase of Pigment Yellow 213 (P.Y. 213) was solved...
The crystal structure of the nanocrystalline alpha phase of Pigment Yellow 213 (P.Y. 213) was solved...
The single-crystal X-ray diffraction pattern from the β-phase of the industrially important Pigment ...
With only a 2.6 A ̊ resolution laboratory powder diffraction pattern of the phase of Pigment Yellow...
The application of electron diffraction to crystallographically characterize all kinds of materials ...
The application of electron diffraction to crystallographically characterize all kinds of materials ...
The application of electron diffraction to crystallographically characterize all kinds of materials ...
The application of electron diffraction to crystallographically characterize all kinds of materials ...
With only a 2.6 Å resolution laboratory powder diffraction pattern of the θ phase of Pigment Yellow ...
The nanocrystalline $\alpha^{II}$-phase of the industrially produced organic pigment quinacridone wa...
The nanocrystalline $\alpha^{II}$-phase of the industrially produced organic pigment quinacridone wa...
The crystal structure of the nanocrystalline phase of Pigment Yellow 213 (P.Y. 213) was solved by a ...
The crystal structure of the nanocrystalline phase of Pigment Yellow 213 (P.Y. 213) was solved by a ...
The crystal structure of the nanocrystalline phase of Pigment Yellow 213 (P.Y. 213) was solved by a ...
The crystal structure of the nanocrystalline phase of Pigment Yellow 213 (P.Y. 213) was solved by a ...
The crystal structure of the nanocrystalline alpha phase of Pigment Yellow 213 (P.Y. 213) was solved...
The crystal structure of the nanocrystalline alpha phase of Pigment Yellow 213 (P.Y. 213) was solved...
The single-crystal X-ray diffraction pattern from the β-phase of the industrially important Pigment ...
With only a 2.6 A ̊ resolution laboratory powder diffraction pattern of the phase of Pigment Yellow...
The application of electron diffraction to crystallographically characterize all kinds of materials ...
The application of electron diffraction to crystallographically characterize all kinds of materials ...
The application of electron diffraction to crystallographically characterize all kinds of materials ...
The application of electron diffraction to crystallographically characterize all kinds of materials ...
With only a 2.6 Å resolution laboratory powder diffraction pattern of the θ phase of Pigment Yellow ...
The nanocrystalline $\alpha^{II}$-phase of the industrially produced organic pigment quinacridone wa...
The nanocrystalline $\alpha^{II}$-phase of the industrially produced organic pigment quinacridone wa...