We present optical observations of phase separation in mixed model membranes in the form of giant unilamellar vesicles. These observations are compared to the phase behavior of lipid mixtures, which we determined by X-ray scattering and differential scanning calorimetry or extracted from the existing literature. The domain properties are affected not only by the bulk phase behavior but also by the membrane lamellarity and phase transition pathways. These observations have important implications for how phase behavior determined by bulk methods using dense, multilamellar lipid bilayers are linked to phase separation in giant, unilamellar lipid bilayers as observed by microscopy
AbstractPhase diagrams of 3-component lipid bilayer mixtures containing cholesterol reveal major dif...
In an effort to understand “rafts” in biological membranes, we propose phenomenological models for s...
In multi-component lipid membranes, phase separation can lead to the formation of domains. The morph...
*SUPA, School of Physics, and Collaborative Optical Spectroscopy, Micromanipulation and Imaging Cent...
*SUPA, School of Physics, and Collaborative Optical Spectroscopy, Micromanipulation and Imaging Cent...
We investigate the interplay of domain formation and adhesion in mixed-lipid membranes. Giant unila...
AbstractUnderstanding the phase behavior of biological membranes is helped by the study of more simp...
AbstractWe use fluorescence microscopy to directly observe liquid phases in giant unilamellar vesicl...
Lipid membranes regulate the flow of materials and information between cells and their organelles. F...
ABSTRACT: We report a new type of gel-liquid phase segregation in giant unilamellar vesicles (GUVs) ...
AbstractLiquid domains in model lipid bilayers are frequently studied as models of raft domains in c...
AbstractWe have undertaken a series of experiments to examine the behavior of individual components ...
Understanding the lateral organization of biological membranes plays a key role on the road to fully...
Understanding the lateral organization of biological membranes plays a key role on the road to fully...
This thesis concerns the interplay between the lipid phase behaviour, domain formation and the perme...
AbstractPhase diagrams of 3-component lipid bilayer mixtures containing cholesterol reveal major dif...
In an effort to understand “rafts” in biological membranes, we propose phenomenological models for s...
In multi-component lipid membranes, phase separation can lead to the formation of domains. The morph...
*SUPA, School of Physics, and Collaborative Optical Spectroscopy, Micromanipulation and Imaging Cent...
*SUPA, School of Physics, and Collaborative Optical Spectroscopy, Micromanipulation and Imaging Cent...
We investigate the interplay of domain formation and adhesion in mixed-lipid membranes. Giant unila...
AbstractUnderstanding the phase behavior of biological membranes is helped by the study of more simp...
AbstractWe use fluorescence microscopy to directly observe liquid phases in giant unilamellar vesicl...
Lipid membranes regulate the flow of materials and information between cells and their organelles. F...
ABSTRACT: We report a new type of gel-liquid phase segregation in giant unilamellar vesicles (GUVs) ...
AbstractLiquid domains in model lipid bilayers are frequently studied as models of raft domains in c...
AbstractWe have undertaken a series of experiments to examine the behavior of individual components ...
Understanding the lateral organization of biological membranes plays a key role on the road to fully...
Understanding the lateral organization of biological membranes plays a key role on the road to fully...
This thesis concerns the interplay between the lipid phase behaviour, domain formation and the perme...
AbstractPhase diagrams of 3-component lipid bilayer mixtures containing cholesterol reveal major dif...
In an effort to understand “rafts” in biological membranes, we propose phenomenological models for s...
In multi-component lipid membranes, phase separation can lead to the formation of domains. The morph...