Microcontact printing (μCP) techniques are powerful tools to print molecules on reactive surfaces in a covalent or non-covalent manner to produce well-defined patterns, in shape and spot morphology, of bioactive molecules such as carbohydrates, peptides and proteins. These printed biofunctional surfaces have nowadays found increased use in a range of bioanalytical and biomedical applications, for example, in the investigation of eukaryotic cell and bacteria behavior on solid supports. This review focuses on advances in techniques of μCP over the past three years and some recent appealing applications of the printed arrays are illustrate
Arrays of peptides and proteins play an important role in various areas of biomedical and biotechnol...
ABSTRACT Microarrays with biomolecules (e.g., DNA and proteins), cells, and tissues immobilized on s...
[[abstract]]Microarrays simultaneously screen tens to thousands of biosamples to observe biochemical...
Microcontact printing (μCP) techniques are powerful tools to print molecules on reactive surfaces in...
Soft lithography offers great potential for the fabrication of 2D and 3D patterned structures using ...
Soft lithography offers great potential for the fabrication of 2D and 3D patterned structures using ...
We describe a straightforward approach to the covalent immobilization of cytophilic proteins by micr...
We describe a straightforward approach to the covalent immobilization of cytophilic proteins by micr...
We describe a straightforward approach to the covalent immobilization of cytophilic proteins by micr...
We describe a straightforward approach to the covalent immobilization of cytophilic proteins by micr...
We describe a straightforward approach to the covalent immobilization of cytophilic proteins by micr...
Microcontact printing (µCP) offers a simple and low-cost surface patterning methodology with high ve...
Microcontact printing (µCP) offers a simple and low-cost surface patterning methodology with high ve...
Surface properties are largely responsible for the biological performance of biomedical devices, sug...
Arrays of peptides and proteins play an important role in various areas of biomedical and biotechnol...
Arrays of peptides and proteins play an important role in various areas of biomedical and biotechnol...
ABSTRACT Microarrays with biomolecules (e.g., DNA and proteins), cells, and tissues immobilized on s...
[[abstract]]Microarrays simultaneously screen tens to thousands of biosamples to observe biochemical...
Microcontact printing (μCP) techniques are powerful tools to print molecules on reactive surfaces in...
Soft lithography offers great potential for the fabrication of 2D and 3D patterned structures using ...
Soft lithography offers great potential for the fabrication of 2D and 3D patterned structures using ...
We describe a straightforward approach to the covalent immobilization of cytophilic proteins by micr...
We describe a straightforward approach to the covalent immobilization of cytophilic proteins by micr...
We describe a straightforward approach to the covalent immobilization of cytophilic proteins by micr...
We describe a straightforward approach to the covalent immobilization of cytophilic proteins by micr...
We describe a straightforward approach to the covalent immobilization of cytophilic proteins by micr...
Microcontact printing (µCP) offers a simple and low-cost surface patterning methodology with high ve...
Microcontact printing (µCP) offers a simple and low-cost surface patterning methodology with high ve...
Surface properties are largely responsible for the biological performance of biomedical devices, sug...
Arrays of peptides and proteins play an important role in various areas of biomedical and biotechnol...
Arrays of peptides and proteins play an important role in various areas of biomedical and biotechnol...
ABSTRACT Microarrays with biomolecules (e.g., DNA and proteins), cells, and tissues immobilized on s...
[[abstract]]Microarrays simultaneously screen tens to thousands of biosamples to observe biochemical...