AbstractSince its invention in the mid 1980s atomic force microscopy has revolutionised the way in which surfaces can be imaged. Close to atomic resolution has been achieved for some materials and numerous images of molecules on surfaces have been recorded. Atomic force microscopy has also been of benefit to biology where protein molecules on surfaces have been studied and even whole cells have been investigated. Here we report a study of red blood cells which have been imaged in a physiological medium. At high resolution, the underlying cytoskeleton of the blood cell has been resolved and flaws in the cytoskeleton structure may be observed. Comparison of the normal ‘doughnut’ shaped cells with swollen cells has been undertaken. Differences...
Red blood cells feature remarkable mechanical properties while navigating through microcirculation v...
Objective: To study the morphological forms of erythrocytes, their pathomorphological changes in dis...
The structure of human fibroblasts have been characterised in vitro by atomic force microscopy (AFM)...
AbstractSince its invention in the mid 1980s atomic force microscopy has revolutionised the way in w...
AbstractThe structure of the membrane skeleton on the cytoplasmic surface of the erythrocyte plasma ...
The surface topography of red blood cells (RBCs) was investigated under nearphysiological conditions...
Glutaraldehyde-fixed red blood cells were imaged by tapping mode atomic force microscopy (TMAFM) in ...
ABSTRACT The structure of the membrane skeleton on the cytoplasmic surface of the erythrocyte plasma...
Statement of Purpose, Innovation or Hypothesis: Imaging living or fixed cells in their natural envir...
The nanomechanical characteristics of the membrane cytoskeleton of human erythrocytes were studied u...
Currently, much research is devoted to the study of biological objects using atomic force microscopy...
A novel approach to the study of RBCs based on the collection of three-dimensional high-resolution A...
AbstractA novel approach to the study of RBCs based on the collection of three-dimensional high-reso...
Replication of biological cells for the purpose of imaging and analysis under electron and scanning...
recently developed an atomic force microscopy-based protocol to use the roughness of the plasma memb...
Red blood cells feature remarkable mechanical properties while navigating through microcirculation v...
Objective: To study the morphological forms of erythrocytes, their pathomorphological changes in dis...
The structure of human fibroblasts have been characterised in vitro by atomic force microscopy (AFM)...
AbstractSince its invention in the mid 1980s atomic force microscopy has revolutionised the way in w...
AbstractThe structure of the membrane skeleton on the cytoplasmic surface of the erythrocyte plasma ...
The surface topography of red blood cells (RBCs) was investigated under nearphysiological conditions...
Glutaraldehyde-fixed red blood cells were imaged by tapping mode atomic force microscopy (TMAFM) in ...
ABSTRACT The structure of the membrane skeleton on the cytoplasmic surface of the erythrocyte plasma...
Statement of Purpose, Innovation or Hypothesis: Imaging living or fixed cells in their natural envir...
The nanomechanical characteristics of the membrane cytoskeleton of human erythrocytes were studied u...
Currently, much research is devoted to the study of biological objects using atomic force microscopy...
A novel approach to the study of RBCs based on the collection of three-dimensional high-resolution A...
AbstractA novel approach to the study of RBCs based on the collection of three-dimensional high-reso...
Replication of biological cells for the purpose of imaging and analysis under electron and scanning...
recently developed an atomic force microscopy-based protocol to use the roughness of the plasma memb...
Red blood cells feature remarkable mechanical properties while navigating through microcirculation v...
Objective: To study the morphological forms of erythrocytes, their pathomorphological changes in dis...
The structure of human fibroblasts have been characterised in vitro by atomic force microscopy (AFM)...