Table 2

Properties of the disulfide bonds of the C domain of crossveinless 225 *

ChainCys1 residueCys1 solventCys2 residueCys2 solventCα-Cα, ŧConfiguration
9 (1) 17 31 (4) 6.04 +/−RHSpiral 
 26 (2) 26 60 (8) 4.89 +/−RHHook 
 29 (3) 38 (5) 16 3.98 −RHStaple 
 43 (6) 46 61 (9) 35 5.39 −LHSpiral 
 50 (7) 37 64 (10) 48 6.03 −LHHook 
9 (1) 21 31 (4) 5.96 +/−RHSpiral 
 26 (2) 31 60 (8) 12 5.08 +/−RHHook 
 29 (3) 38 (5) 12 4.04 −RHStaple 
 43 (6) 54 61 (9) 34 5.51 −LHSpiral 
 50 (7) 36 64 (10) 57 6.12 −RHSpiral 
ChainCys1 residueCys1 solventCys2 residueCys2 solventCα-Cα, ŧConfiguration
9 (1) 17 31 (4) 6.04 +/−RHSpiral 
 26 (2) 26 60 (8) 4.89 +/−RHHook 
 29 (3) 38 (5) 16 3.98 −RHStaple 
 43 (6) 46 61 (9) 35 5.39 −LHSpiral 
 50 (7) 37 64 (10) 48 6.03 −LHHook 
9 (1) 21 31 (4) 5.96 +/−RHSpiral 
 26 (2) 31 60 (8) 12 5.08 +/−RHHook 
 29 (3) 38 (5) 12 4.04 −RHStaple 
 43 (6) 54 61 (9) 34 5.51 −LHSpiral 
 50 (7) 36 64 (10) 57 6.12 −RHSpiral 
*

Calculated using the disulfide bond analysis tool.40  The protein crystallized as a dimer and the analysis of both chains (1 and 2) is shown.

The number in the bracket is the order of the cysteine in the primary sequence from 1-10.

Solvent accessibility is the area of the cysteine residue exposed to solvent in approximately Å2.

§

Distance between the α carbon atoms of the 2 cysteine residues.

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