AbstractTrypsin and chymotrypsin have specificity pockets of essentially the same geometry, yet trypsin is specific for basic while chymotrypsin for bulky hydrophobic residues at the PI site of the substrate. A model by Steitz, Henderson and Blow suggested the presence of a negative charge at site 189 as the major specificity determinant: Asp189 results in tryptic, while the lack of it chymotryptic specificity. However, recent mutagenesis studies have shown that a successful conversion of the specificity of trypsin to that of chymotrypsin requires the substitution of amino acids at sites 138, 172 and at thirteen other positions in two surface loops, that do not directly contact the substrate. For further testing the significance of these si...
The recombinant Kunitz protease inhibitor module (domain C5) of human collagen α3(VI) chain was prev...
In the trypsin superfamily of serine proteases, non-trypsin-like primary specificities have arisen i...
textAltering the substrate specificity of proteases is a powerful process with possible applications...
AbstractTrypsin and chymotrypsin have specificity pockets of essentially the same geometry, yet tryp...
AbstractTrypsin and chymotrypsin are both serine proteases with high sequence and structural similar...
AbstractThe impact of the charge rearrangement on the specificity of trypsin was tested by an invers...
Molecular design of trypsin mutants towards higher substrate specificity for arginine or lysine type...
ABSTRACT: Histidine 57 of the catalytic triad of trypsin was replaced with alanine to determine whet...
AbstractWe examined the influence of Ser/Ala190 in the S1 site on P1 substrate selectivity in severa...
AbstractThe role of the propeptide sequence and a disulfide bridge between sites 1 and 122 in chymot...
AbstractMutant rat trypsin Asp189Ser was prepared and complexed with highly purified human α1-protei...
Trypsin and chymotrypsin are both serine proteases with high sequence and structural similarities, b...
AbstractIn order to modify the catalytic properties of trypsin, lysine-188 (S1) of the substrate bin...
We previously showed (Li, L., and Carter, C. W., Jr. (2013) J. Biol. Chem. 288, 34736–34745) that in...
Trypsin and chymotrypsin are both serine proteases with high sequence and structural similarities, b...
The recombinant Kunitz protease inhibitor module (domain C5) of human collagen α3(VI) chain was prev...
In the trypsin superfamily of serine proteases, non-trypsin-like primary specificities have arisen i...
textAltering the substrate specificity of proteases is a powerful process with possible applications...
AbstractTrypsin and chymotrypsin have specificity pockets of essentially the same geometry, yet tryp...
AbstractTrypsin and chymotrypsin are both serine proteases with high sequence and structural similar...
AbstractThe impact of the charge rearrangement on the specificity of trypsin was tested by an invers...
Molecular design of trypsin mutants towards higher substrate specificity for arginine or lysine type...
ABSTRACT: Histidine 57 of the catalytic triad of trypsin was replaced with alanine to determine whet...
AbstractWe examined the influence of Ser/Ala190 in the S1 site on P1 substrate selectivity in severa...
AbstractThe role of the propeptide sequence and a disulfide bridge between sites 1 and 122 in chymot...
AbstractMutant rat trypsin Asp189Ser was prepared and complexed with highly purified human α1-protei...
Trypsin and chymotrypsin are both serine proteases with high sequence and structural similarities, b...
AbstractIn order to modify the catalytic properties of trypsin, lysine-188 (S1) of the substrate bin...
We previously showed (Li, L., and Carter, C. W., Jr. (2013) J. Biol. Chem. 288, 34736–34745) that in...
Trypsin and chymotrypsin are both serine proteases with high sequence and structural similarities, b...
The recombinant Kunitz protease inhibitor module (domain C5) of human collagen α3(VI) chain was prev...
In the trypsin superfamily of serine proteases, non-trypsin-like primary specificities have arisen i...
textAltering the substrate specificity of proteases is a powerful process with possible applications...