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. Author manuscript; available in PMC: 2013 Jan 10.
Published in final edited form as: J Chem Theory Comput. 2012 Jan 10;8(1):348–362. doi: 10.1021/ct200723y

Table 8.

Average percent BII as a function of base-step for EcoR1, from experiments and simulations.

Base Step Exper C27 C27_2b Amber bsc0
Ave Diff Ave Diff Ave Diff
C1pG2 46.7 53.2±4.7 6.5 73.9±8.1 27.2 50.1±13.9 3.4
G2pC3 34.3 3.0±1.3 −31.3 20.0±10.6 −14.3 22.0±5.8 −12.3
C3pG4 56.9 14.8±1.8 −42.1 32.8±7.8 −24.2 13.7±5.1 −43.2
G4pA5 35.6 9.6±0.8 −26.0 32.6±6.5 −3.0 46.6±7.1 11.0
A5pA6 21.1 1.8±0.4 −19.3 8.1±1.6 −13.0 8.0±2.1 −13.2
A6pT7 6.6 0.4±0.2 −6.2 1.0±0.3 −5.6 1.7±0.9 −4.9
T7pT8 7.9 0.6±0.2 −7.3 1.6±0.5 −6.3 0.1±0.1 −7.8
T8pC9 22.3 3.6±0.6 −18.7 11.1±1.4 −11.2 1.6±0.3 −20.8
C9pG10 64.8 8.7±0.5 −56.1 34.6±6.1 −30.2 12.8±3.8 −52.0
G10pC11 47.9 4.1±1.6 −43.9 12.7±3.8 −35.2 42.1±11.3 −5.8
C11pG12 65.0 20.2±14.5 −44.8 42.9±5.9 −22.1 1.4±0.5 −63.6
Average Difference
Correlation
−26.3±5.8
0.47
−12.5±5.1
0.69
−19.0±7.2
0.31

Results obtained over 100 ns simulations. Statistical analysis for the individual base steps accounting for the symmetry of the sequence based on 5 20 ns blocks from which the averages and standard deviations were calculated. The errors for the average differences are the standard error over all the base steps. Correlations are between the experimental and average simulation values over the base steps. Experimental data from reference24 at 297.2 K.