We report a novel experimental approach to derive quantitative concentration map of light elements in whole cells by combining two complementary nano-probe methods: X-ray fluorescence microscopy (XRFM) and atomic force microscopy (AFM). The concentration is derived by normalizing point-by-point the elemental (here Mg) spatial distribution obtained by XRFM, by the thickness measured using AFM. The considerable difference between the elemental distribution and the concentration maps indicates that this procedure is essential to obtain reliable information on the role and function of elements in whole cells. (C) 2011 Elsevier B.V. All rights reserved
The quantification of elemental concentration in cells is usually performed by analytical assays on ...
The quantification of elemental concentration in cells is usually performed by analytical assays on ...
We present here a correlative X-ray microscopy approach for quantitative single cell imaging of mola...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We present an innovative approach to couple elemental and morphological information from individual ...
We present an innovative approach to couple elemental and morphological information from individual ...
We present an innovative approach to couple elemental and morphological information from individual ...
We present in this paper a novel methodology that combines scanning x-ray fluorescencee microscopy a...
The quantification of elemental concentration in cells is usually performed by analytical assays on ...
The quantification of elemental concentration in cells is usually performed by analytical assays on ...
The quantification of elemental concentration in cells is usually performed by analytical assays on ...
The quantification of elemental concentration in cells is usually performed by analytical assays on ...
We present here a correlative X-ray microscopy approach for quantitative single cell imaging of mola...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We report a novel experimental approach to derive quantitative concentration map of light elements i...
We present an innovative approach to couple elemental and morphological information from individual ...
We present an innovative approach to couple elemental and morphological information from individual ...
We present an innovative approach to couple elemental and morphological information from individual ...
We present in this paper a novel methodology that combines scanning x-ray fluorescencee microscopy a...
The quantification of elemental concentration in cells is usually performed by analytical assays on ...
The quantification of elemental concentration in cells is usually performed by analytical assays on ...
The quantification of elemental concentration in cells is usually performed by analytical assays on ...
The quantification of elemental concentration in cells is usually performed by analytical assays on ...
We present here a correlative X-ray microscopy approach for quantitative single cell imaging of mola...