AbstractIt is hypothesised that the characteristic twin domain structure of serine proteases permits important allosteric responses in the molecule when peptide and protein substrates bind. Such movement would be ideal for stressing the scissile bond in the substrate, thereby making the task of hydrolysis substantially easier. The control of the domain movement can be closely associated with substrate binding, via the N- and C-terminal regions of the enzyme. The hypothesis also suggests that certain inhibitory peptides exert their effect by binding without inducing the domain movement
AbstractTrypsin and chymotrypsin are both serine proteases with high sequence and structural similar...
The efficiency of canonical serine protease inhibitors is conventionally attributed to the rigidity ...
Serine proteases are classical objects for studies of catalytic and inhibitory mechanisms as well as...
AbstractIt is hypothesised that the characteristic twin domain structure of serine proteases permits...
Trypsin and chymotrypsin are both serine proteases with high sequence and structural similarities, b...
Protein inhibitors of proteases are an important tool of nature to regulate and control proteolysis ...
Trypsin and chymotrypsin are both serine proteases with high sequence and structural similarities, b...
AbstractProteinase inhibition by serpins requires a 70 Å translocation of the proteinase, circumvent...
A peptide segment that binds the active site of a serine protease in a substrate-like manner may beh...
The serine proteases of the trypsin-like (S1) family play critical roles in many key biological proc...
Proteases have a variety of strategies for selecting substrates in order to prevent uncontrolled pro...
Serine proteases are involved in many fundamental physiological processes, and control of their acti...
Serpins inhibit serine proteases by mechanically disrupting the protease active site. The protease f...
AbstractThe inhibition of enzymes employing a nucleophilic serine residue by natural products has be...
The inhibition of enzymes employing a nucleophilic serine residue by natural products has been studi...
AbstractTrypsin and chymotrypsin are both serine proteases with high sequence and structural similar...
The efficiency of canonical serine protease inhibitors is conventionally attributed to the rigidity ...
Serine proteases are classical objects for studies of catalytic and inhibitory mechanisms as well as...
AbstractIt is hypothesised that the characteristic twin domain structure of serine proteases permits...
Trypsin and chymotrypsin are both serine proteases with high sequence and structural similarities, b...
Protein inhibitors of proteases are an important tool of nature to regulate and control proteolysis ...
Trypsin and chymotrypsin are both serine proteases with high sequence and structural similarities, b...
AbstractProteinase inhibition by serpins requires a 70 Å translocation of the proteinase, circumvent...
A peptide segment that binds the active site of a serine protease in a substrate-like manner may beh...
The serine proteases of the trypsin-like (S1) family play critical roles in many key biological proc...
Proteases have a variety of strategies for selecting substrates in order to prevent uncontrolled pro...
Serine proteases are involved in many fundamental physiological processes, and control of their acti...
Serpins inhibit serine proteases by mechanically disrupting the protease active site. The protease f...
AbstractThe inhibition of enzymes employing a nucleophilic serine residue by natural products has be...
The inhibition of enzymes employing a nucleophilic serine residue by natural products has been studi...
AbstractTrypsin and chymotrypsin are both serine proteases with high sequence and structural similar...
The efficiency of canonical serine protease inhibitors is conventionally attributed to the rigidity ...
Serine proteases are classical objects for studies of catalytic and inhibitory mechanisms as well as...