Efficient digestion with minimal missed cleavages and high sequence coverage resulting in efficient peptide mapping and confident protein characterization.
Applications
Explore how our solutions are used across a range of applications. From sample preparation to advanced analysis, you can find insights into how they support different workflows and help address common challenges.
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Improved digestion efficiency at challenging K–P sites compared to TrypsINATOR alone, resulting in more complete digestion with fewer missed cleavages.
Robust digestion performance with limited autoproteolysis, enabling cleaner LC–MS data and more confident peptide identification.
Highly specific lysine and arginine digestion with more unique peptides and fewer missed cleavages for confident protein identification in complex proteomics workflows.
Simple and rapid workflow for native antigen release from Fc-affinity captured antibody complexes for downstream characterization and validation.
Single-resin affinity platform capturing all Immunoglobulin isotypes from serum, enabling high-resolution proteomic analysis of Ig and non-Ig fractions.
Broad immunoglobulin capture across multiple isotypes using Fab-targeted binding for simplified, immuno-profiling workflows.
Native antigen release from antibody-antigen complexes, enabling downstream functional, structural, and biological characterization of otherwise hidden targets.
Efficient IgG cleavage with a low immunogenicity risk enzyme, supporting clearance of neutralizing antibodies to improve gene therapy administration.
Inhibition by synthetic RNase inhibitor (SEQURNA) matches or surpasses recombinant inhibitors in Smart‑seq2 and Smart-seq3 library preparation, including RNase‑rich tissues.
Synthetic RNase inhibition maintains Smart‑seq2 cDNA yield and quality comparable to protein-based RRIs while decreasing primer‑dimer formation.
Simplified charge variant analysis by removing sialic acid-driven heterogeneity to reveal underlying protein profile.
