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. 2013 Sep 18;5(6):904–916. doi: 10.4161/mabs.26453

Table 3. Glycan contacts for G2F and M3N2 at 300 K.

  Contact     Contact
H-Glycan Position# Chain Residue % Residence in G2F* % Residence in M3N2*   K-Glycan Position# Chain Residue % Residence in G2F* % Residence in M3N2*
NAG-1 264 H Val 100 14   NAG-1 264 K Val 99 96
  265 H Asp 99 100     265 K Asp 99 94
  295 H Asn 100 100     295 K Asn 99 99
FUC-2 296 H Y 44 -   FUC-2 295 K Asn 29 -
  - K NAG-9 93 -     - H MAN-8 77 -
NAG-3 241 H Phe 96 50     - H NAG-9 89 -
  264 H Val 99 63   NAG-3 241 K Phe 99 100
  301 H Arg 99 85     264 K Val 99 65
  - K MAN-8 88 68     301 K Arg 99 92
MAN-4 241 H Phe 94 80     - H MAN-8 99 76
  243 H Phe 99 65   MAN-4 241 K Arg 99 97
  - K MAN-8 39 70     243 K Phe 99 81
MAN-5 - K MAN-8 17 1     - H MAN-8 93 50
NAG-6 243 H Phe 100 -   MAN-5 243 K Phe 99 77
  246 H Lys 97 -   NAG-6 243 K Phe 100 -
  260 H Thr 97 -     246 K Lys 98 -
GAL-7 246 H Lys 98 -     260 K Thr 99 -
  258 H Glu 100 -   GAL-7 246 K Lys 99 -
  260 H Thr 100 -     258 K Glu 100 -
MAN-8 - K FUC-2 77 -     260 K Thr 100 -
  - K NAG-3 99 76   MAN-8 - H NAG-3 88 68
  - K MAN-4 93 50     - H MAN-4 39 70
  - K MAN-8 75 68     - H MAN-5 17 1
NAG-9 - K FUC-2 89 -     - H MAN-8 75 68
GAL-10 - - - - -   NAG-9 - H FUC-2 91 -
              GAL-10 335 K Thr 56 -
*

Residue positions from 1HZH are shown using Kabat numbering. # Percentage of structures in both 300 K simulations which have the contact formed (see Methods for contact definition). Contacts in bold do not exist in the crystal structure for 1HZH as a fully glycosylated G2F (see Fig. 6).