AbstractProtein microarrays are potentially powerful tools in biochemistry and molecular biology. Two types of protein microarrays are defined. One, termed a protein function array, will consist of thousands of native proteins immobilized in a defined pattern. Such arrays can be utilized for massively parallel testing of protein function, hence the name. The other type is termed a protein-detecting array. This will consist of large numbers of arrayed protein-binding agents. These arrays will allow for expression profiling to be done at the protein level. In this article, some of the major technological challenges to the development of protein arrays are discussed, along with potential solutions
Within the last 5 years, protein microarrays have been developed and applied to multiple approaches:...
High-throughput protein arrays allow the miniaturized and parallel analysis of large numbers of diag...
Protein microarrays is a technology with great promise for high-throughput proteomics. Designing hig...
The generation of protein chips requires much more efforts than DNA microchips. While DNA is DNA and...
drug discovery has become very widespread. However, since it is proteins and not genes that are the ...
Technological innovations and novel applications have greatly advanced the field of protein microarr...
Technological innovations and novel applications have greatly advanced the field of protein microarr...
Protein microarrays represent a powerful technology with the potential to serve as tools for the det...
The complexity involving protein array technology reflects in the fact that instrumentation and data...
The complexity involving protein array technology reflects in the fact that instrumentation and data...
High-throughput protein arrays allow the miniaturized and parallel analysis of large numbers of diag...
Fueled by ever-growing genomic information and rapid developments of proteomics–the large scale anal...
The generation of protein chips requires much more efforts than DNA microchips.While DNA is DNA and ...
DNA microarrays have become ubiquitous in genomic research, evident by their widespread use in profi...
Within the last 5 years, protein microarrays have been developed and applied to multiple approaches:...
Within the last 5 years, protein microarrays have been developed and applied to multiple approaches:...
High-throughput protein arrays allow the miniaturized and parallel analysis of large numbers of diag...
Protein microarrays is a technology with great promise for high-throughput proteomics. Designing hig...
The generation of protein chips requires much more efforts than DNA microchips. While DNA is DNA and...
drug discovery has become very widespread. However, since it is proteins and not genes that are the ...
Technological innovations and novel applications have greatly advanced the field of protein microarr...
Technological innovations and novel applications have greatly advanced the field of protein microarr...
Protein microarrays represent a powerful technology with the potential to serve as tools for the det...
The complexity involving protein array technology reflects in the fact that instrumentation and data...
The complexity involving protein array technology reflects in the fact that instrumentation and data...
High-throughput protein arrays allow the miniaturized and parallel analysis of large numbers of diag...
Fueled by ever-growing genomic information and rapid developments of proteomics–the large scale anal...
The generation of protein chips requires much more efforts than DNA microchips.While DNA is DNA and ...
DNA microarrays have become ubiquitous in genomic research, evident by their widespread use in profi...
Within the last 5 years, protein microarrays have been developed and applied to multiple approaches:...
Within the last 5 years, protein microarrays have been developed and applied to multiple approaches:...
High-throughput protein arrays allow the miniaturized and parallel analysis of large numbers of diag...
Protein microarrays is a technology with great promise for high-throughput proteomics. Designing hig...