For"bottom-up" proteomic analysis, protein digestion prior to MS analysisi is indispensable. However, traditional in-solution digestion often suffers from time-consuming, sample loss and contamination.For"bottom-up" proteomic analysis, protein digestion prior to MS analysisi is indispensable. However, traditional in-solution digestion often suffers from time-consuming, sample loss and contamination
In an age of whole-genome analysis, the mass spectrometry-based bottom-up strategy is now considered...
Proteomic analysis requires the combination of an extensive suite of technologies including protein ...
In bottom-up proteomics, rapid and efficient protein digestion is crucial for data reliability. Howe...
The ability to rapidly and efficiently digest and identify an unknown protein is of great utility f...
Tryptic digestion followed by identification using mass spectrometry is an important step in many pr...
Despite the developments for faster liquid chromatographic and mass spectral detection techniques, t...
Reducing experimental variability, limiting contamination and increasing automation are essential go...
In this work, a novel kind of N-vinyl-2-pyrrolidinone (NVP) modified poly acrylic ester microspheres...
Polyacrylamide gel electrophoresis (PAGE) is a powerful protein separation technology. Combined with...
Pre-fractionation by gel electrophoresis is often combined with liquid chromatography-mass spectrome...
Trypsin digestion is a major component of preparing proteins for peptide based identification and qu...
Standard trypsin digestion protocol of proteins followed by MALDI-MS analysis has been realized as a...
Tryptic digestion before identification and quantification by mass spectrometry is an indispensable ...
A variety of immobilization enzyme reactors (IMERs) have been developed for proteomics research, whi...
Trypsin is the most used proteolytic enzyme for protein digestion and Peptide Mass Fingerprinting (P...
In an age of whole-genome analysis, the mass spectrometry-based bottom-up strategy is now considered...
Proteomic analysis requires the combination of an extensive suite of technologies including protein ...
In bottom-up proteomics, rapid and efficient protein digestion is crucial for data reliability. Howe...
The ability to rapidly and efficiently digest and identify an unknown protein is of great utility f...
Tryptic digestion followed by identification using mass spectrometry is an important step in many pr...
Despite the developments for faster liquid chromatographic and mass spectral detection techniques, t...
Reducing experimental variability, limiting contamination and increasing automation are essential go...
In this work, a novel kind of N-vinyl-2-pyrrolidinone (NVP) modified poly acrylic ester microspheres...
Polyacrylamide gel electrophoresis (PAGE) is a powerful protein separation technology. Combined with...
Pre-fractionation by gel electrophoresis is often combined with liquid chromatography-mass spectrome...
Trypsin digestion is a major component of preparing proteins for peptide based identification and qu...
Standard trypsin digestion protocol of proteins followed by MALDI-MS analysis has been realized as a...
Tryptic digestion before identification and quantification by mass spectrometry is an indispensable ...
A variety of immobilization enzyme reactors (IMERs) have been developed for proteomics research, whi...
Trypsin is the most used proteolytic enzyme for protein digestion and Peptide Mass Fingerprinting (P...
In an age of whole-genome analysis, the mass spectrometry-based bottom-up strategy is now considered...
Proteomic analysis requires the combination of an extensive suite of technologies including protein ...
In bottom-up proteomics, rapid and efficient protein digestion is crucial for data reliability. Howe...