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TRANSCRIPT
Electronic Supplementary Information
to
How do hydrophobic nucleobases differ from natural DNA
nucleobases? Comparison of structural features and duplex
properties from QM calculations and MD simulations
Indu Negi,a Preetleen Kathuria,a Purshotam Sharma*a and Stacey D.
Wetmore*b
aComputational Biochemistry Laboratory, Department of Chemistry and
Centre for Advanced Studies in Chemistry, Panjab University, Chandigarh,
160014, India.
bDepartment of Chemistry and Biochemistry, University of Lethbridge,
Lethbridge, Alberta, T1K 3M4, Canada.
*Email: [email protected], [email protected]
Table of Contents
Details of MD simulations…….………………………………..….…......S3-S5
Figure S1: Relative energy as a function of rotation about the glycosidic bond for the natural DNA nucleosides.…………………….…………...…..S6
Figure S2: Structures of syn and anti minima for rotation about the
glycosidic bond in natural nucleosides, obtained from glycosidic torsional
profiles…………………………………………………………………….……S7
Figure S3: Optimized geometries of the hydrophobic base pairs……....S8
Figure S4: Orientation and magnitude of the dipole moments in the hydrophobic and natural nucleobases……………………………………...S9
Figures S5–S8: Relative stacking interaction energies between natural and hydrophobic bases as a function of the angle of rotation.……...………………………………………………………….S10–S13
Figure S9: Frequency of the glycosidic dihedral angle in nucleosides within
the hydrophobic and T:A control base pairs in DNA duplexes…………...S14
Figure S10: Backbone rmsd for DNA oligonucleotides containing a
hydrophobic or T:A control base pair…………………….…….………….S15
Figure S11: The oligonucleotide sequence used to simulate DNA
containing a hydrophobic or T:A control base pair. ………………...…...S16
Electronic Supplementary Material (ESI) for Physical Chemistry Chemical Physics.This journal is © the Owner Societies 2017
[S2]
Tables S1–S4: Stacking energies as a function of α for stacked
natural:hydrophobic base dimers..………...………..……………….S17–S20
Table S5: Stacking energies as a function of α for stacked natural:natural base dimers..…….…………..…………………………..........................…S21
Table S6: Average base pseudostep parameters, minor groove dimensions DNA bend and base pair width for oligonucleotide containing a hydrophobic or T:A control base pair………………………………………...……………S22
Table S7: Hydrogen-bonding occupancies for the base pairs flanking the
hydrophobic or T:A control pair………………………………….…………S23
Table S8: Average interaction energies and standard deviation for the
hydrophobic or T:A control base pairs in DNA duplexes ..……………...S24
Tables S9–S26: Cartesian coordinates of the anti and syn structures of the hydrophobic and natural bases………………………………...…….S25–S42
Tables S27–S46: Cartesian coordinates of stacked base pairs…S42–S62
Tables S47–S51: Cartesian coordinates of mol2 files for the hydrophobic
bases…………………………………………………………………...S63–S70
[S3]
Details of MD simulations: MD simulations were carried out on a
complementary 11-mer DNA oligonucleotide (5-TCACAXTTCCA-3, 5-
AGTGTYAAGGT-3), where each hydrophobic base pair (5SICS:FEMO,
5SICS:MMO2, 5SICS:NaM and TPT3:NaM) was placed reiteratively at the
X:Y position. Since our quantum mechanical calculations suggest that all
hydrophobic bases prefer an anti orientation about the glycosidic bond,
initial structures for MD simulations were built with the hydrophobic bases
in the anti orientation. Simulations were started with planar mutual
orientations of the opposing hydrophobic bases, which is in synchrony with
a previous MD study that showed the 5SICS:NaM pair adopts a planar
geometry in DNA.1 Partial charges for each modified base were calculated
based on the B3LYP/6-31+G(d,p) optimized geometry using the RESP ESP
charge Derive (RED) server.2 The Antechamber program of AmberTools3
was used to assign AMBER atom types.4 The ff14SB force field,5 which
uses ff99bsc06 parameters for DNA, was used for all simulations, and was
supplemented with additional force field parameters from the General
AMBER Force Field (GAFF)7 as required. Sodium counterions used for
DNA charge neutralization were assigned the Joung and Cheatham force
field parameters.8
Initial DNA structures were prepared using the make-na server
(structure.usc.edu/make-na), which automatically builds nucleic acid
helices for a given sequence using the nucleic acid builder (NAB) script.9
The particle mesh Ewald method was used to approximate the Coulombic
interactions, with a 10 Å cutoff to approximate the nonbonded interactions.
The periodic boundary condition was implemented, bonds involving
hydrogen atoms were constrained using the SHAKE algorithm, and a 2 fs
time step was used throughout the simulation. Energy minimization was
first performed with the DNA held fixed using a force constant of 500 kcal
mol−1 Å−2, during 500 steps of steepest descent and 500 subsequent steps
of conjugate gradient minimization. In the second minimization step, the
entire box containing the DNA, ions and water was energy minimized using
1000 steps of steepest descent and 1500 steps of conjugate gradient
minimization. The system was then heated to 300 K using the Langevin
[S4]
temperature equilibration scheme, with the DNA restrained via a 10 kcal
mol−1 Å−2 force constant, and a 20 ps MD simulation was then performed at
constant volume. This was followed by a 100 ns unrestrained MD simulation
on each system.
The stability of the simulations was analysed using the root-mean-
square deviation (rmsd) with respect to the initial production simulation
frame (Figure S10). Representative structures were obtained by clustering
each MD simulation with respect to the atoms forming the dihedral angles
of the hydrophobic or control base pair (i.e., the 6th and 17th bases; Figure
S11), using the K-means clustering algorithm of ptraj.10 To compare the
modified DNA structural features, the base step parameters at the
modification site were calculated using a pseudostep consisting of the base
pairs 5 and 3 with respect to the hydrophobic base pair. The use of
pseudostep parameters rather than the traditional step parameters defined
for adjacent base pairs in natural DNA11 is justified since no protocol is
currently available in the literature to calculate parameters of DNA steps
involving hydrophobic bases. van der Waals stacking interaction energies
between the hydrophobic and flanking base pairs were calculated using the
“lie” command of cpptraj, whereas the percentage occupancies of
hydrogen-bonding interactions within base pairs were calculated using the
‘hbond’ command of cpptraj. The extent of DNA bending was analysed by
measuring the angle between the center of mass within three blocks of the
DNA, with the central block comprised of the hydrophobic base pair and the
corresponding flanking 5 and 3 base pairs, and the other two blocks
consisting of the three base pairs neighbouring each side of the central
block.
References 1. S. Jahiruddin and A. Datta, J. Phys. Chem. B, 2015, 119, 5839-5845. 2. F. Y. Dupradeau, A. Pigache, T. Zaffran, C. Savineau, R. Lelong, N. Grivel, D. Lelong, W. Rosanski and P. Cieplak, Phys. Chem. Chem. Phys., 2010, 12, 7821-7839. 3. J. Wang, W. Wang, P. A. Kollman and D. A. Case, J. Mol. Graph. Model., 2006, 25, 247-260. 4. W. D.Cornell, P. Cieplak, C. I. Bayly, I. R. Gould, K. M. Merz, D. M. Ferguson, D. C. Spellmeyer, T. Fox, J. W. Caldwell and P. A. Kollman, J. Am. Chem. Soc., 1995, 117, 5179-5197.
[S5]
5. J. A. Maier, C. Martinez, K. Kasavajhala, L. Wickstrom, K. E. Hauser and C. Simmerling, J. Chem. Theory Comput., 2015, 11, 3696-3713. 6. A. Pérez, I. Marchán, D. Svozil, J. Sponer, T. E. Cheatham III, C. A. Laughton and M. Orozco, Biophys. J., 2007, 92, 3817-3829. 7. J. Wang, R. M. Wolf, J. W. Caldwell, P. A. Kollman and D. A. Case, J. Comput. Chem., 2004, 25, 1157-1174. 8. I. S. Joung and T. E. Cheatham III, J. Phys. Chem. B, 2008, 112, 9020-9041. 9. N. B. Leontis and J. SantaLucia, Molecular Modeling of Nucleic Acids; American Chemical Society, 1998. 10. J. Shao, S. W. Tanner, N. Thompson and T. E. Cheatham III, J. Chem. Theory Comput., 2007, 3, 2312-2334. 11. P. Kathuria, P. Sharma and S. D. Wetmore, Nucleic Acids Res., 2015, 43, 7388-7397.
[S6]
Figure S1. B3LYP-D3/6-31+G(d,p) relative energy (kJ mol–1) as a function of rotation
about the glycosidic bond (, deg) for the natural DNA nucleosides. The glycosidic
dihedral angle is shown for the general representation of the nucleoside dX (X =
Adenine, Thymine, Cytosine and Guanine).
[S7]
Figure S2. B3LYP-D3/6-31+G(d,p) optimized structures of the syn and anti minima
for rotation about the glycosidic bond in the natural nucleosides. B3LYP-D3/6-
311+G(2df,p) relative anti/syn energy difference (kJ mol–1) is provided in parentheses.
The -dihedral angle ((C4C5O5H)) is constrained in all structures to prevent
interactions between the nucleobase and the 5–OH group that are non-native to DNA.
The dihedral angle that determines the orientation of the base with respect to sugar
is indicated in blue in the syn conformations.
[S9]
Figure S4: Orientation of the B3LYP-D3/6-31+G(d,p) dipole moments in the
hydrophobic (top) and natural (bottom) nucleobases, with the magnitude provided in
parentheses.
[S10]
Figure S5. Relative stacking interaction energies (kJ mol–1) between adenine and a
hydrophobic base plotted as a function of the angle of rotation (α, deg).
[S11]
Figure S6. Relative stacking interaction energies (kJ mol–1) between cytosine and a
hydrophobic base plotted as a function of the angle of rotation (α, deg).
[S12]
Figure S7. Relative stacking interaction energies (kJ mol–1) between guanine and a
hydrophobic base plotted as a function of the angle of rotation (α, deg).
[S13]
Figure S8. Relative stacking interaction energies (kJ mol–1) between thymine and a
hydrophobic base plotted as a function of the angle of rotation (α, deg).
[S14]
Figure S9. Frequency (% occupancy) of the glycosidic dihedral angle (deg) in
nucleosides within the hydrophobic and T:A control pairs obtained from MD
simulations on DNA duplexes.
[S15]
Figure S10. Backbone rmsd for DNA oligonucleotides (5-TCACAXTTCCA-3, 5-
AGTGTYAAGGT-3) containing a hydrophobic or T:A control base pair where black
represents 5SICS:FEMO, red 5SICS:MMO2, blue 5SICS:NaM, orange NaM:TPT3
and green T:A.
.
[S16]
Figure S11. Oligonucleotide sequence used to simulate DNA containing a
hydrophobic or T:A control base pair. The position of the hydrophobic or T:A base pair
is highlighted in red.
[S17]
Table S1. B3LYP-D3/6-311+G(2df,p) stacking energies (kJ mol) as a function of α
(deg) for stacked dimers between A and a hydrophobic base.
α FEMO AMMO2 A–NaM A–5SICS A–TPT3
0 –20.2 –20.2 –20.7 –37.9 –33.7
30 –26.2 –19.5 –22.9 –32.3 –27.7
60 –26.0 –21.1 –20.9 –23.7 –16.3
90 –24.1 –23.8 –10.5 –19.9 –17.8
120 –20.1 –27.0 –11.6 –21.8 –14.6
150 –19.7 –28.2 –17.6 –22.5 –17.0
180 –26.4 –22.5 –21.3 –21.7 –18.0
210 –27.2 –18.9 –24.4 –19.7 –16.1
240 –28.5 –19.7 –24.6 –24.9 –21.9
270 –29.1 –24.5 –21.1 –25.5 –22.5
300 –26.7 –24.4 –10.8 –18.2 –14.5
330 –30.1 –25.2 –16.9 –31.1 –26.7
[S18]
Table S2. B3LYP-D3/6-311+G(2df,p) stacking energies (kJ mol) as a function of α
(deg) for stacked dimers between C and a hydrophobic base.
α C–FEMO
C–MMO2 C–NaM C–5SICS C–TPT3
0 –23.4 –9.4 –24.8 –38.6 –38.7
30 –31.2 –7.6 –30.2 –36.8 –36.9
60 –22.2 –15.7 –25.9 –35.1 –32.6
90 –13.7 –18.8 –21.9 –39.3 –36.9
120 –9.5 –20.1 –22.5 –36.0 –28.9
150 –10.2 –19.9 –20.8 –27.4 –22.3
180 –14.0 –17.7 –19.4 –20.9 –14.5
210 –18.6 –18.0 –23.9 –16.5 –8.9
240 –24.1 –20.0 –27.1 –14.0 –9.4
270 –25.7 –22.9 –24.7 –8.6 –7.4
300 –23.8 –25.8 –22.0 –19.9 –22.3
330 –24.5 –23.2 –23.8 –40.3 –41.9
[S19]
Table S3. B3LYP-D3/6-311+G(2df,p) stacking energies (kJ mol) as a function of α
(deg) for stacked dimers between G and a hydrophobic base.
α G–FEMO G–MMO2 G–NaM G–5SICS G–TPT3
0 –28.2 –25.6 –30.6 –34.1 –27.7
30 –21.9 –30.9 –26.4 –34.1 –30.1
60 –15.1 –31.8 –21.9 –35.4 –31.0
90 –23.8 –24.6 –23.2 –30.9 –24.1
120 –30.3 –22.0 –20.3 –5.8 –1.7
150 –32.6 –23.9 –28.4 –8.3 –4.6
180 –34.0 –29.7 –29.7 –18.6 –17.0
210 –29.4 –35.8 –25.1 –25.4 –24.4
240 –27.2 –31.8 –24.6 –34.0 –33.4
270 –29.4 –21.7 –25.9 –42.4 –43.7
300 –35.1 –24.0 –21.8 –42.6 –40.9
330 –33.5 –21.4 –25.4 –34.5 –29.3
[S20]
Table S4. B3LYP-D3/6-311+G(2df,p) stacking energies (kJ mol) as a function of α
(deg) for stacked dimers between T and a hydrophobic base.
α T–FEMO T–MMO2 T–NaM T–5SICS T–TPT3
0 –21.0 –25.4 –32.1 –26.7 –18.0
30 –19.6 –26.0 –27.5 –21.8 –17.3
60 –14.8 –24.3 –19.1 –22.5 –22.8
90 –21.8 –29.4 –29.1 –30.4 –26.9
120 –31.8 –20.2 –37.0 –20.9 –15.5
150 –38.4 –20.8 –36.0 –26.6 –27.8
180 –33.2 –26.2 –33.3 –31.6 –32.6
210 –24.3 –29.7 –31.2 –31.1 –34.2
240 –18.7 –25.7 –29.5 –40.1 –41.9
270 –26.4 –8.7 –32.0 –42.6 –41.3
300 –20.2 –22.8 –33.4 –43.7 –39.7
330 –14.4 –25.0 –32.4 –36.6 –29.2
[S21]
Table S5. B3LYP-D3/6-311+G(2df,p) stacking energies (kJ mol–1) as a function of α
(deg) for stacked dimers of natural bases.
Angles A–A A–C A–G A–T C–C C–G C–T G–G G–T T–T
0 2.4 –9.8 –23.1 –37.5 19.4 –28.9 –34.9 14.2 –18.4 22.9
30 –16.7 –17.0 –19.3 –23.3 2.3 –14.7 –31.7 –13.7 –18.3 –14.6
60 –24.0 –24.0 –13.3 –15.5 –15.8 –5.6 –24.5 –29.1 –23.6 –31.6
90 –25.2 –32.8 –16.6 –26.0 –28.1 –7.6 –13.8 –38.4 –22.2 –24.4
120 –21.6 –33.2 –24.0 –25.5 –32.4 –16.5 –7.5 –39.9 –22.6 –24.3
150 –20.7 –27.7 –24.9 –22.8 –37.0 –27.8 –15.9 –29.9 –28.0 –33.9
180 –22.0 –26.3 –32.9 –25.7 –38.7 –34.9 –19.1 –28.5 –30.5 –36.8
210 –20.3 –23.2 –33.5 –29.2 –36.9 –32.6 –16.2 –30.0 –25.5 –24.6
240 –22.1 –20.9 –30.4 –31.9 –32.4 –29.6 –14.6 –39.9 –36.6 –24.5
270 –25.2 –21.1 –26.0 –29.3 –28.0 –31.1 –21.2 –38.3 –39.8 –24.7
300 –23.6 –15.2 –20.6 –25.0 –15.8 –35.1 –29.5 –28.4 –39.7 –31.7
330 –16.7 –18.1 –24.5 –36.4 2.3 –40.3 –35.7 –13.0 –31.7 –14.5
[S22]
Table S6. Average base pseudostep parameters, minor groove dimensions, DNA bend and base pair width for oligonucleotides
containing a hydrophobic or T:A control base pair.a
Base pair Shift (Å)
Slide (Å)
Rise (Å)
Tilt (deg)
Roll (deg)
Twist (deg)
Minor groove
(Å)
Bend (deg)
C1'–C1' distance
(Å)
T:A –0.110 (0.717)
–1.415 (0.825)
6.702 (0.360)
0.6 (4.6)
1.7 (6.6)
66.9 (5.3)
8.768 (1.646)
150.4 (7.4)
10.639 (0.245)
SICS:FEMO –0.044 (0.805)
–1.011 (0.870)
11.306 (0.565)
1.1 (4.8)
–13.9 (8.5)
68.8 (5.0)
11.301 (1.520)
171.0 (4.8)
8.812 (0.517)
SICS:MMO2 0.030
(0.720) –2.823 (0.895)
7.4 (0.617)
–0.3 (4.8)
8.5 (6.8)
58.5 (4.7)
10.754 (1.315)
152.2 (7.4)
10.551 (0.429)
SICS:NAM 0.150
(0.869) –2.807 (1.220)
9.140 (1.613)
0.2 (5.8)
6.5 (11.1)
59.4 (8.0)
11.806 (1.335)
163.0 (9.0)
10.034 (0.807)
TPT3:NAM 0.019
(0.680) –2.693 (0.829)
7.332 (0.578)
–0.8 (4.6)
6.0 (6.6)
59.3 (4.5)
10.388 (1.366)
153.0 (7.9)
10.693 (0.382)
aBase step parameters at the modification site were calculated using a pseudostep consisting of the base pairs 5 and 3 with respect to
the hydrophobic base pair.
[S23]
Table S7. Hydrogen-bonding occupancies (%) for the 5– and 3–base pairs flanking the
hydrophobic or control pair.a
Base pair Flanking base pairs Hydrogen bond Occupancy
T:A
5–A:T N1···H3–N3 O4···H6–N6
99.69 94.71
3–T:A O4···H6–N6 N1···H3–N3
96.66 99.76
5SICS:FEMO
5–A:T N1···H3–N3 O4···H6–N6
99.14 91.48
3–T:A O4···H6–N6 N1···H3–N3
98.49 99.37
5SICS:MMO2
5–A:T N1···H3–N3 O4···H6–N6
99.31 95.91
3–T:A O4···H6–N6 N1···H3–N3
95.71 99.56
5SICS:NaM
5–A:T N1···H3–N3 O4···H6–N6
92.18 98.11
3–T:A O4···H6–N6 N1···H3–N3
99.52 95.46
TPT3:NaM
5–A:T N1···H3–N3 O4···H6–N6
99.07 97.40
3–T:A O4···H6–N6 N1···H3–N3
95.62 99.61
aHydrogen-bonding interactions were determined using a cut-off of 3.4 Å for the donor–acceptor distance and 120o for the donor–hydrogen–acceptor angle.
[S24]
Table S8. Average interaction energies and standard deviation (in parentheses, kJ
mol–1) for the hydrophobic or T:A control base pairs in DNA duplexes.
Base pair Intrabase pair Flanking base pair
T:A –42.84 (5.0) –84.4 (8.8)
5SICS:FEMO –33.2 (3.4) –65.5 (7.6)
5SICS:MMO2 –10.5 (3.4) –90.7 (9.7)
5SICS:NaM –18.5 (5.9) –32.3 (13.9)
TPT3:NaM –14.7 (3.4) –126 (11.3)
[S25]
TABLE S9. Cartesian coordinates of anti 5SICS ( = 210.5o)
Energy (in hartrees) = -1260.79578
ATOM X Y Z
C -0.73063400 1.04208600 -0.10837300 C -2.08550400 0.48842500 -0.05851900 C -2.30033400 -0.91677500 -0.02123400 C -1.16148009 -1.78394900 -0.04128000 C 0.08114800 -1.25551000 -0.14975700 H -3.05765700 2.40796700 -0.05917200 C -3.21707500 1.33628600 -0.03369100 C -3.61899100 -1.42316700 0.04428000 H -1.28552800 -2.85936000 0.02062200 H 0.98196100 -1.85211100 -0.17764300 C -4.72034900 -0.58183900 0.06566000 C -4.49534700 0.81559200 0.02129800 H -3.75897800 -2.50127900 0.07563600 H -5.34737100 1.49070500 0.03324000 N 0.28852900 0.10848800 -0.23022600 S -0.39798300 2.69640000 0.00795200 C -6.12870700 -1.11859600 0.13547100 H -6.63896800 -0.76034200 1.03735800 H -6.71923400 -0.78076800 -0.72419400 H -6.14485900 -2.21197800 0.14901200 O 3.15924300 -2.36001000 0.80144200 C 4.00158400 -1.98300100 -0.29361000 H 3.77995900 -2.58734200 -1.18366100 H 5.06354700 -2.10862500 -0.03569200 C 3.75148800 -0.52099800 -0.62697800 H 4.46113900 -0.21681000 -1.40554100 O 2.41689600 -0.36460000 -1.14350100 C 1.68709100 0.57580800 -0.36499700 H 1.64110100 1.53851500 -0.87541800 C 3.87813700 0.44608800 0.56656900 H 4.47616200 0.01024300 1.37680400 C 2.42294400 0.67096800 0.97499100 H 2.09723100 -0.14296900 1.62885400 H 2.24237400 1.62824100 1.46927100 O 4.50236200 1.63092200 0.06135400 H 3.31214100 -3.28736100 1.01928400 H 4.43316800 2.33246000 0.72225000
[S26]
Table S10. Cartesian coordinates of syn 5SICS structure ( = 60.8o)
Energy (in hartrees) = -1260.77837
ATOM X Y Z
C -0.49139800 0.32084300 -0.09413000 C -1.96388900 0.26461700 -0.06104600 C -2.66064800 -0.96377300 0.08781300 C -1.89551200 -2.16669100 0.21243900 C -0.54599500 -2.09795200 0.18655800 H -2.21169000 2.38796300 -0.29349900 C -2.73318800 1.44539000 -0.17743200 C -4.07312800 -0.97977200 0.11902600 H -2.38412700 -3.12604700 0.33994100 H 0.06721100 -2.98309800 0.29391300 C -4.81461700 0.18629300 0.00686200 C -4.11431000 1.40648600 -0.14387300 H -4.57838700 -1.93560900 0.23719400 H -4.67604300 2.33291200 -0.23436500 N 0.15670000 -0.91148400 0.02734900 S 0.34299900 1.76810000 -0.26879400 C -6.32276900 0.17593200 0.04226500 H -6.69856200 0.79850200 0.86265000 H -6.73877900 0.58210400 -0.88724500 H -6.71732700 -0.83514900 0.17632500 O 3.71973200 2.14338700 -0.31796600 C 3.73448100 1.51778500 0.96765500 H 2.91951100 1.89016600 1.60018400 H 4.69668900 1.71177300 1.46489100 C 3.55290300 -0.00055200 0.82676700 H 4.19989400 -0.50755500 1.55038000 O 2.19352200 -0.38369700 1.14050200 C 1.62972500 -1.07749900 0.04638400 H 1.77834400 -2.15182700 0.19983200 C 3.83915700 -0.56374300 -0.57900300 H 4.50264500 0.08943600 -1.15063400 C 2.43535600 -0.66019000 -1.18908600 H 2.11930900 0.31731700 -1.55265000 H 2.37472800 -1.40351700 -1.98958300 O 4.43339600 -1.86065100 -0.39177200 H 3.83498200 3.09442800 -0.20697900 H 4.69649500 -2.20636900 -1.25439300
[S27]
Table S11. Cartesian coordinates of anti FEMO structure ( = 196.4o)
Energy (in hartrees) = -943.50876
ATOM X Y Z
O 2.71325400 -2.20011800 1.13802200 C 3.47600700 -1.99818800 -0.05459400 H 3.19432700 -2.72267900 -0.83086000 H 4.55410800 -2.09561100 0.14598000 C 3.20495000 -0.59747800 -0.58221100 H 3.90414400 -0.39295300 -1.40348700 O 1.86105700 -0.53340700 -1.08300200 C 1.15678600 0.56185700 -0.48539800 H 1.25512700 1.44892100 -1.12493500 C 3.34250400 0.51459400 0.47596400 H 3.93428600 0.18012800 1.33666600 C 1.88742100 0.80633200 0.84761300 H 1.55010500 0.07726100 1.58980500 H 1.73063300 1.81848200 1.22995900 O 3.98132200 1.62423800 -0.17122800 H 2.88033400 -3.08696200 1.47839300 H 4.00967800 2.36860900 0.44398400 C -2.59334500 0.95198800 0.07643600 C -1.24249900 1.24836000 -0.09298100 C -0.74896200 -1.09910400 -0.37138900 C -2.09611300 -1.38349100 -0.19666300 C -3.04834600 -0.38492200 0.02743000 H -3.32438300 1.73007200 0.25229700 H -0.04174000 -1.89988600 -0.54761000 F -2.49759300 -2.67907100 -0.24808700 C -4.42901800 -0.69534000 0.20090000 C -5.60529800 -0.94490900 0.35102300 H -6.63784000 -1.17638500 0.48111100 O -0.72321900 2.51737300 -0.03937700 C -1.61687100 3.61270600 0.12169800 H -2.14677400 3.55906500 1.08160700 H -0.99536800 4.50895600 0.10088300 H -2.34684400 3.65601400 -0.69683500 C -0.30401100 0.21991500 -0.32774600
[S28]
Table S12. Cartesian coordinates of syn FEMO structure ( = 58.7o)
Energy (in hartrees) = -943.50295
ATOM X Y Z
O 3.28157700 1.90258400 -0.00341200 C 3.65326500 1.00974800 1.05263400 H 3.27328700 1.36549400 2.01990600 H 4.74876900 0.92025500 1.11248700 C 3.07921500 -0.37596100 0.79690600 H 3.59640800 -1.08369300 1.45994500 O 1.67723400 -0.38907500 1.10150000 C 0.96839600 -1.06547700 0.05178700 H 0.99124100 -2.14797600 0.24904400 C 3.23385800 -0.87624200 -0.65666500 H 3.93999500 -0.25782500 -1.22174700 C 1.80673400 -0.77925600 -1.20553000 H 1.61733500 0.23592000 -1.55823800 H 1.61660500 -1.49421200 -2.01219500 O 3.70461800 -2.23141000 -0.58015300 H 3.70883500 2.75368900 0.14955100 H 3.81098600 -2.57389400 -1.47717400 C -2.20808000 1.08244200 -0.15823700 C -0.85927300 0.72522000 -0.15108700 C -1.48093900 -1.58149300 0.18904800 C -2.82034100 -1.21611500 0.16998400 C -3.22078800 0.11118000 0.00226200 H -2.51183100 2.11242200 -0.29163300 H -1.22917100 -2.62591100 0.34199000 F -3.76018700 -2.18176700 0.33016400 C -4.59853400 0.47821600 -0.00729900 C -5.76611200 0.80171400 -0.01780000 H -6.79634500 1.07627700 -0.02424200 O 0.15604900 1.61354000 -0.31939800 C -0.13266000 2.99902700 -0.42115500 H -0.65400500 3.36503200 0.47312800 H 0.83879300 3.48742700 -0.50359200 H -0.73473900 3.22312400 -1.31214900 C -0.47645900 -0.62722300 0.02767800
[S29]
Table S13. Cartesian coordinates of anti MMO2 structure ( = 196o)
Energy (in hartrees) = -807.39515
ATOM X Y Z
O 2.85666000 -1.97941800 1.11510600 C 3.50153300 -1.63722600 -0.11496600 H 3.32489000 -2.40555500 -0.88017100 H 4.58721300 -1.52398800 0.02946400 C 2.93932000 -0.31746000 -0.62046700 H 3.55705000 0.02199000 -1.46303800 O 1.59306200 -0.51925200 -1.07100000 C 0.72186500 0.45660000 -0.47952500 H 0.67995100 1.34181900 -1.12857600 C 2.89772400 0.79950200 0.44246800 H 3.55636100 0.57412500 1.28994600 C 1.42119100 0.82797000 0.83949900 H 1.23026000 0.05068100 1.58517800 H 1.09419800 1.79620200 1.22857700 O 3.32016900 2.00761300 -0.20901100 H 3.21089500 -2.81606400 1.43857800 H 3.20688300 2.74515800 0.40459900 C -2.21469100 -1.98480000 -0.18833800 C -0.92034100 -1.47905600 -0.36112200 C -0.66623200 -0.11112100 -0.31328500 C -1.74981700 0.75884500 -0.07315600 C -3.04315300 0.25988000 0.09591600 C -3.28900500 -1.12306500 0.03883100 H -2.38341400 -3.05726400 -0.23563900 H -0.08608000 -2.14674700 -0.54442100 H -3.87470200 0.93238500 0.27615700 C -4.69670200 -1.64232700 0.22339200 H -5.09896700 -1.36086900 1.20404400 H -5.37417900 -1.23205300 -0.53511800 H -4.73204900 -2.73298900 0.14802200 O -1.42963700 2.09410100 -0.01353700 C -2.47389300 3.04007200 0.17053600 H -1.99426200 4.02012800 0.15697900 H -3.21247500 2.98537000 -0.63982900 H -2.98040000 2.89643800 1.13408000
[S30]
Table S14. Cartesian coordinates of syn MMO2 structure ( = 60o)
Energy (in hartrees) = -807.39071
ATOM X Y Z
O -2.72544600 2.00446700 0.03362800 C -3.17474400 1.15162900 -1.02520000 H -2.78776800 1.49207300 -1.99519600 H -4.27496400 1.13735300 -1.06630400 C -2.68844700 -0.27140600 -0.79393700 H -3.26132600 -0.93572400 -1.45699200 O -1.29626100 -0.36780800 -1.11640300 C -0.61953800 -1.11780200 -0.09080300 H -0.73063100 -2.19080500 -0.31020500 C -2.85853300 -0.77855800 0.65633300 H -3.50916700 -0.11764100 1.23989300 C -1.42040600 -0.79637000 1.18219500 H -1.15209500 0.19517400 1.55018300 H -1.27067900 -1.53808500 1.97341100 O -3.43294500 -2.09396100 0.57075000 H -3.04533800 2.89854900 -0.13488600 H -3.53564000 -2.44404200 1.46521900 C 3.16463500 -1.57256000 -0.29676100 C 1.78528300 -1.81213100 -0.30080700 C 0.85469900 -0.79756500 -0.08258100 C 1.35079200 0.50952100 0.14005800 C 2.72698000 0.75600700 0.13658500 C 3.64881700 -0.28198900 -0.08071400 H 3.85688700 -2.39144100 -0.47111200 H 1.42103200 -2.81981300 -0.48550100 H 3.10174500 1.75952400 0.30632800 C 5.12978900 0.01947100 -0.08589300 H 5.39221700 0.69465300 -0.90934200 H 5.43882000 0.50833500 0.84548800 H 5.72257400 -0.89266800 -0.19949500 O 0.41329000 1.47247900 0.35849800 C 0.81414800 2.82332800 0.51161900 H -0.11245400 3.38657500 0.62998100 H 1.44426200 2.96243600 1.40081400 H 1.35257400 3.18468600 -0.37463900
[S31]
Table S15. Cartesian coordinates of anti NaM structure ( = 194.5o)
Energy (in hartrees) = -921.75795
ATOM X Y Z
O 2.65030200 -2.42461300 1.17574800 C 3.38277200 -2.33414800 -0.04932100 H 2.98586600 -3.03212100 -0.79923500 H 4.44866700 -2.55723000 0.11283800 C 3.26157700 -0.92026600 -0.59676200 H 3.95853500 -0.81367600 -1.43884700 O 1.92163100 -0.70679300 -1.06235700 C 1.38651900 0.49825900 -0.49797300 H 1.61147300 1.33998500 -1.16670300 C 3.56133400 0.18472800 0.43622600 H 4.11790700 -0.20764600 1.29588200 C 2.16347300 0.67311900 0.81889700 H 1.74389100 0.00983600 1.58084600 H 2.14752400 1.70442200 1.18127100 O 4.33227300 1.18788700 -0.24221000 H 2.72452500 -3.31994500 1.52646500 H 4.45764100 1.93757300 0.35409900 C -4.95106300 -1.07994600 0.19923600 C -4.32128700 0.14728400 0.24865000 C -2.91651700 0.25275000 0.06156100 C -2.16222900 -0.93857600 -0.18121300 C -2.83855600 -2.18644900 -0.22753700 C -4.20407000 -2.25974800 -0.04119000 H -2.82073900 2.39806000 0.29557100 H -6.02582200 -1.14412100 0.34406000 H -4.89661900 1.05146500 0.43256200 C -2.23837100 1.50321500 0.10917200 C -0.75613000 -0.83170100 -0.36889900 H -2.25876800 -3.08705500 -0.41353700 H -4.71000700 -3.22007900 -0.07893600 C -0.87224400 1.56367300 -0.07508600 H -0.17046800 -1.72481100 -0.55818100 O -0.13422200 2.71860600 -0.03438700 C -0.81419300 3.95247500 0.15811000 H -1.32368400 3.98017800 1.13010700 H -0.04457200 4.72521600 0.12908700 H -1.54439100 4.13369900 -0.64108800 C -0.10782300 0.37959000 -0.32397100
[S32]
Table S16. Cartesian coordinates of syn dNaM structure ( = 59.2o) Energy (in hartrees) = –921.75311
ATOM X Y Z
O 3.72231100 1.65745700 0.06022800 C 3.97502800 0.70925600 1.10315900 H 3.61715100 1.08489000 2.07125900 H 5.05342900 0.50091800 1.17884100 C 3.25701400 -0.59964900 0.80927600 H 3.68772500 -1.37407200 1.46001700 O 1.85977100 -0.46608300 1.09978200 C 1.09379000 -1.05088200 0.03308100 H 1.00754900 -2.13329100 0.21330900 C 3.37562900 -1.08213400 -0.65413000 H 4.14541000 -0.52553900 -1.19998500 C 1.97067100 -0.83348100 -1.21172900 H 1.88804900 0.19979900 -1.55262800 H 1.71725600 -1.51511000 -2.02979500 O 3.71102100 -2.47902900 -0.60396400 H 4.18729000 2.47601400 0.26993900 H 3.79232200 -2.81002300 -1.50786400 C -5.35558000 0.15801100 0.06164900 C -4.29328400 1.02877900 -0.07419700 C -2.95439400 0.55254700 -0.05144000 C -2.72769200 -0.84954400 0.11512700 C -3.83953500 -1.72096600 0.25458200 C -5.12948300 -1.23079500 0.22811700 H -2.02342100 2.48208500 -0.31614600 H -6.37321400 0.53780900 0.04234600 H -4.47028000 2.09404000 -0.20050500 C -1.83699400 1.42183900 -0.18945800 C -1.38441900 -1.31620100 0.14378200 H -3.65781100 -2.78523500 0.38326800 H -5.97321700 -1.90604700 0.33539100 C -0.54702100 0.92778300 -0.16665200 H -1.21030900 -2.38022100 0.28805900 O 0.56770600 1.69262200 -0.30738800 C 0.43868100 3.10014300 -0.41953900 H -0.05677200 3.52642700 0.46281700 H 1.45969600 3.47769500 -0.48536600 H -0.11942800 3.38401400 -1.32218800 C -0.30206200 -0.47702200 0.00503300
[S33]
Table S17. Cartesian coordinates of anti dTPT3 structure ( = 209.6o)
Energy (in hartrees) = –1542.23267
ATOM X Y Z
O 3.07066400 -2.14014900 0.82884300 C 3.88457200 -1.68144200 -0.25617800 H 3.75106500 -2.31759200 -1.14165700 H 4.94897100 -1.68007500 0.02149000 C 3.47392400 -0.26210500 -0.61351900 H 4.15345400 0.10988400 -1.38933400 O 2.13625000 -0.26458300 -1.14700500 C 1.29155700 0.58525400 -0.38454800 H 1.12496300 1.52759600 -0.90876700 C 3.47529700 0.72960700 0.56581500 H 4.10965200 0.37582400 1.38832600 C 1.99937400 0.79207200 0.95852700 H 1.76302000 -0.03956800 1.62829900 H 1.70457100 1.73240400 1.43007000 O 3.96582800 1.97015400 0.04833500 H 3.32488400 -3.04110900 1.06228100 H 3.81444300 2.66824600 0.69912500 C -2.47899300 -1.35259100 -0.00611900 C -2.38916400 0.04692800 -0.03417400 C -1.16023100 0.77131600 -0.12197600 C -0.09433800 -1.42634300 -0.18125400 C -1.27198500 -2.10323300 -0.06564200 C -3.83377000 -1.80677300 0.09561200 C -4.71940900 -0.76666900 0.14366700 H 0.86728300 -1.91724300 -0.22970900 H -1.27288600 -3.18593700 -0.02224500 H -4.12095400 -2.85152000 0.12923400 H -5.79776600 -0.83100600 0.21588000 S -3.95951900 0.79852700 0.07691700 S -1.07395600 2.45949000 -0.05235800 N -0.03972000 -0.05109900 -0.24551300
[S34]
Table S18. Cartesian coordinates of syn dTPT3 structure ( = 61.1o)
Energy (in hartrees) = –1542.21619
ATOM X Y Z
O -3.28577600 -2.16014600 -0.31901000 C -3.30544900 -1.53225100 0.96533700 H -2.46896000 -1.87359300 1.58696900 H -4.25324900 -1.75860300 1.47615300 C -3.17885800 -0.00847500 0.81597600 H -3.85043700 0.48184800 1.52817900 O -1.83579700 0.42524000 1.14243500 C -1.28167700 1.12417800 0.04788800 H -1.45727400 2.19684500 0.18557100 C -3.46453800 0.53449000 -0.59743600 H -4.10330800 -0.14112400 -1.17081200 C -2.05621400 0.66259000 -1.19054400 H -1.70502000 -0.31306100 -1.52806600 H -2.00495600 1.39066400 -2.00537600 O -4.09378300 1.81713300 -0.42896300 H -3.36614900 -3.11439000 -0.20474700 H -4.36449700 2.14407000 -1.29651700 C 2.99243600 1.07012500 0.11223100 C 2.28513000 -0.12969400 -0.03054500 C 0.85497000 -0.24542600 -0.06845400 C 0.88258000 2.17922100 0.20486000 C 2.23918300 2.27098400 0.23567200 C 4.41033900 0.87374800 0.11604500 C 4.74040300 -0.44592200 -0.02182300 H 0.25778300 3.05660800 0.30905200 H 2.71510400 3.23594300 0.36310600 H 5.13310200 1.67536900 0.21703100 H 5.73653800 -0.86933800 -0.05026100 S 3.35931800 -1.49751600 -0.16034400 S 0.10230000 -1.74025700 -0.24086400 N 0.19406400 0.98770200 0.04544600
[S35]
Table S19. Cartesian coordinates of anti Adenine structure ( = 235.8o)
Energy (in hartrees) = –888.65348
ATOM X Y Z
O -2.90109800 2.09593800 0.39453500 C -3.56255400 1.45236500 -0.70210600 H -3.28667600 1.92339800 -1.65449800 H -4.65501200 1.50258300 -0.58174500 C -3.14315600 -0.01003300 -0.75161700 H -3.75129200 -0.51811500 -1.50946500 O -1.76323300 -0.10930100 -1.13789500 C -0.98184000 -0.71333800 -0.10715300 H -0.70384000 -1.73159700 -0.39475500 C -3.27787400 -0.75989000 0.58608600 H -4.01499800 -0.28203800 1.24328300 C -1.85992500 -0.68625100 1.15408200 H -1.72591200 0.26289800 1.67842300 H -1.62493300 -1.50794700 1.83634700 O -3.67641300 -2.09694700 0.26626000 H -3.16638700 3.02305000 0.42668100 H -3.70011700 -2.62292500 1.07641600 C 1.53885700 -0.49474900 -0.06174800 C 0.40649400 1.38739700 0.21017100 C 2.38600800 0.60937800 0.08889000 H -0.46530600 2.02239100 0.28637700 C 3.76867000 0.34065200 0.03792000 C 3.24504900 -1.88948500 -0.27743200 H 3.62986100 -2.89486500 -0.42761400 N 0.26105000 0.02179100 0.02564900 N 1.66007100 1.77841000 0.25432600 N 1.91292800 -1.76901300 -0.24169100 N 4.17697100 -0.92830100 -0.15192900 N 4.70221000 1.31464400 0.19454900 H 5.66748700 1.08657700 0.01324700 H 4.41209700 2.28008600 0.19521100
[S36]
Table S20. Cartesian coordinates of syn Adenine structure (=82.4o)
Energy (in hartrees) = –888.64878
ATOM X Y Z
O -2.24998800 2.25869000 -0.58649500 C -3.03085200 1.37559700 -1.38821000 H -2.65152300 1.32623800 -2.41801400 H -4.08549800 1.69236200 -1.41445700 C -2.96679100 -0.01918600 -0.78588200 H -3.73586400 -0.64385000 -1.25736800 O -1.67320300 -0.59755400 -1.04926600 C -1.11494700 -1.09097900 0.16858800 H -1.40205600 -2.14343700 0.29924000 C -3.16147500 -0.05860700 0.74525900 H -3.63482300 0.85754400 1.11409800 C -1.73151800 -0.22092700 1.26458900 H -1.22940100 0.74761800 1.28811500 H -1.68463300 -0.68987000 2.25172900 O -3.98301500 -1.20255500 1.02672000 H -2.28128100 3.14841500 -0.95693400 H -4.13347100 -1.25076200 1.97984900 C 1.23830800 -0.04570200 0.26439200 C 1.06448100 -2.12819700 -0.45964300 C 2.46983700 -0.57187900 -0.14548400 H 0.57960100 -3.05912200 -0.72335600 C 3.58854600 0.27926300 -0.03326000 C 2.17126800 1.89367400 0.80887000 H 2.08188700 2.90564400 1.19570100 N 0.32915500 -1.07835600 0.06933000 N 2.34204000 -1.87543700 -0.59608600 N 1.03912400 1.18521100 0.75817800 N 3.41187300 1.52387100 0.44533700 N 4.83796700 -0.12473100 -0.37572100 H 5.58062700 0.55684500 -0.38515600 H 4.96382500 -1.00852800 -0.84369500
[S37]
Table S21. Cartesian coordinates of anti Cytosine structure (=216.7o)
Energy (in hartrees) = –816.24839
ATOM X Y Z
O -2.00926200 2.20525700 0.74941700 C -2.86157500 1.82754100 -0.33890300 H -2.62903700 2.41457700 -1.23762100 H -3.91996900 1.97924700 -0.08059300 C -2.64055900 0.35588300 -0.65267200 H -3.35264100 0.05808000 -1.43177200 O -1.30729000 0.16580300 -1.15572500 C -0.58922800 -0.76369800 -0.34718100 H -0.53630800 -1.73818500 -0.83467200 C -2.79745600 -0.59239400 0.55242800 H -3.40104900 -0.13674500 1.34769400 C -1.35064100 -0.83024500 0.98266900 H -1.02459000 -0.01174100 1.63066000 H -1.19380100 -1.78208300 1.49646500 O -3.43135000 -1.77551800 0.05510800 H -2.14560900 3.13851500 0.95262000 H -3.40626200 -2.45928300 0.73741700 C 2.35756100 1.46025500 0.04425800 C 1.07355600 1.02817600 -0.09936900 C 1.82249500 -1.29158800 -0.07820800 C 3.37431900 0.44766700 0.05998600 H 0.21781700 1.69226100 -0.13465100 O 1.49340400 -2.47436700 -0.04049900 N 3.11363900 -0.84583800 -0.00464200 N 0.79550200 -0.29742500 -0.20884500 H 2.58778200 2.51469600 0.13279600 N 4.68586800 0.81005400 0.17741600 H 5.37461500 0.08160700 0.05627500 H 4.96913900 1.76253700 0.01342100
[S38]
Table S22. Cartesian coordinates of syn Cytosine structure (=72.0o)
Energy (in hartrees) = –816.23776
ATOM X Y Z
O 2.62686600 2.11568900 -0.09534000 C 2.95770600 1.35291800 1.06063700 H 2.44626300 1.73204700 1.95586500 H 4.04464400 1.36586900 1.24182700 C 2.53066900 -0.09319900 0.84589400 H 3.06774100 -0.73000700 1.55985100 O 1.11582700 -0.23134300 1.09156500 C 0.50728900 -0.88441700 -0.01632700 H 0.53647000 -1.97145300 0.14430400 C 2.77906700 -0.62270600 -0.58224900 H 3.51763000 -0.01461600 -1.11370100 C 1.38881100 -0.53850100 -1.21918200 H 1.18969100 0.48224200 -1.54330100 H 1.25915100 -1.24030500 -2.04884800 O 3.24103500 -1.97839700 -0.44700600 H 2.89357700 3.03345800 0.03112200 H 3.42564300 -2.32976300 -1.32774200 C -3.13034700 -1.20242700 0.51487300 C -1.79734100 -1.45262500 0.43512400 C -1.37409600 0.77784500 -0.45278000 C -3.55757000 0.09258000 0.06367100 H -1.37263600 -2.39672700 0.76023300 O -0.56636800 1.61177600 -0.82992700 N -2.72520700 1.00864300 -0.38683800 N -0.91306000 -0.53959700 -0.06026400 H -3.81939600 -1.94545300 0.89634300 N -4.88600500 0.40291900 0.06911100 H -5.54579700 -0.16686200 0.57319700 H -5.13707800 1.35921300 -0.13552600
[S39]
Table S23. Cartesian coordinates of anti Guanine structure ( = 239.6o) Energy (in hartrees) = –963.91993
ATOM X Y Z
O 3.38455600 -1.93252100 0.21821100 C 3.90519800 -1.14124600 -0.85653100 H 3.63884600 -1.57708400 -1.82811200 H 5.00059700 -1.06334100 -0.78759100 C 3.31104900 0.25847000 -0.78083600 H 3.82406700 0.89200700 -1.51406500 O 1.91544800 0.21731900 -1.11825200 C 1.10641700 0.63307900 -0.01814000 H 0.69559700 1.62754300 -0.21451200 C 3.40461400 0.91701800 0.60737600 H 4.22086400 0.48894100 1.20187200 C 2.03052400 0.62286300 1.21031300 H 2.03545300 -0.37022300 1.66503600 H 1.72480500 1.35778500 1.96021900 O 3.62009300 2.31529900 0.38370600 H 3.75961900 -2.82032900 0.17253800 H 3.64685700 2.77059600 1.23541300 C -1.35724900 0.08059100 0.01749000 C 0.00685600 -1.64487000 0.23470800 C -2.05827300 -1.12160000 0.13353200 H 0.95259500 -2.16543000 0.28505000 C -3.49508900 -1.09235800 0.08707600 C -3.15610700 1.37949900 -0.17339000 N -0.02871500 -0.26174800 0.09370900 N -1.18554500 -2.18595100 0.26401600 N -1.84606800 1.34243700 -0.11595800 N -3.94822300 0.26332100 -0.08026500 O -4.32318200 -1.98891700 0.15638400 H -4.95233600 0.34072300 -0.19316200 N -3.79369900 2.58261300 -0.38783500 H -4.71161100 2.71249900 0.01431000 H -3.18256100 3.38349500 -0.30264800
[S40]
Table S24. Cartesian coordinates of syn Guanine structure ( = 74.2o)
Energy (in hartrees) = –963.91493
ATOM X Y Z
O -2.33770800 2.25975200 -0.66671000 C -3.12729500 1.33439100 -1.41719800 H -2.76067300 1.24345000 -2.44844100 H -4.18120300 1.65173100 -1.44202200 C -3.06036400 -0.03559900 -0.76320900 H -3.85262300 -0.66390800 -1.19090300 O -1.78384800 -0.64075600 -1.03954800 C -1.26620900 -1.19985300 0.16695200 H -1.65100100 -2.22080400 0.29681300 C -3.22429800 -0.02233000 0.77493300 H -3.61866300 0.93611700 1.12854600 C -1.80019300 -0.28391000 1.27061800 H -1.22908600 0.64574100 1.27579000 H -1.76981000 -0.74978400 2.25973300 O -4.12503100 -1.09150400 1.10115500 H -2.38601900 3.12564100 -1.08863800 H -4.26857400 -1.09898600 2.05656000 C 1.15160000 -0.35975100 0.11994500 C 0.82536800 -2.50731200 -0.27591300 C 2.34428700 -1.02703100 -0.16898000 H 0.27246800 -3.42886400 -0.40095600 C 3.57864500 -0.28615000 -0.16858200 C 2.09058200 1.64316000 0.40205100 N 0.16928800 -1.32775000 0.06246900 N 2.11686100 -2.36805100 -0.41135800 N 0.97414500 0.95760800 0.40093200 N 3.31914800 1.09228400 0.13893400 O 4.72915400 -0.64398200 -0.37378800 H 4.15878800 1.65523000 0.21158700 N 2.06010100 2.98167700 0.73347700 H 2.75235500 3.58770800 0.31506100 H 1.12396400 3.36459500 0.74311100
[S41]
Table S25. Cartesian coordinates of anti Thymine structure ( = 229.4o)
Energy (in hartrees) = –875.47646
ATOM X Y Z
O -1.95459900 2.32005800 0.41824400 C -2.79183600 1.86980200 -0.65524800 H -2.44257400 2.26999700 -1.61602100 H -3.83350800 2.18407500 -0.49522200 C -2.74380200 0.35093900 -0.71820900 H -3.47815500 0.01130200 -1.45830900 O -1.43765600 -0.07448100 -1.14144200 C -0.84534700 -0.93608400 -0.17032200 H -0.91326500 -1.97665900 -0.49034000 C -3.02538500 -0.35527200 0.62317700 H -3.57595800 0.29597100 1.31305400 C -1.62042500 -0.68429300 1.13038800 H -1.20864900 0.18404800 1.65155200 H -1.59377800 -1.54931600 1.79873600 O -3.78865000 -1.52493500 0.31278100 H -1.98214400 3.28356900 0.46181000 H -3.92622600 -2.03883000 1.11941600 C 2.28278700 1.08147900 0.10799200 C 0.98653800 0.69608000 0.04210400 C 1.50059000 -1.67118200 -0.15725700 C 3.31733100 0.05103700 0.03343900 H 0.16871600 1.40763500 0.07472400 O 1.18557300 -2.85141000 -0.24730200 N 2.81988300 -1.25580100 -0.09946300 N 0.58281500 -0.62364700 -0.08843100 H 3.50862700 -1.99800300 -0.14635700 C 2.71916900 2.51182300 0.24515200 H 3.31805500 2.65037500 1.15169200 H 3.35473000 2.80599700 -0.59692800 H 1.85670900 3.18316000 0.28661000 O 4.52668400 0.25037200 0.07941100
[S42]
Table S26. Cartesian coordinates of syn Thymine structure ( = 75.5o)
Energy (in hartrees) = –875.46667
ATOM X Y Z
O 3.04392300 1.94202200 0.40459100 C 3.28073400 0.92953000 1.37838300 H 2.79988000 1.17003000 2.33642000 H 4.35993700 0.79044500 1.55017100 C 2.70885900 -0.38539400 0.87189200 H 3.10951700 -1.20451400 1.48202300 O 1.27206300 -0.37389500 1.00316300 C 0.68885300 -0.76764000 -0.23516000 H 0.60288400 -1.86182000 -0.26532300 C 3.00914400 -0.67832100 -0.61485000 H 3.84437200 -0.07370200 -0.98262000 C 1.68864400 -0.32252700 -1.30502100 H 1.62777000 0.75393700 -1.45501600 H 1.55002000 -0.85000000 -2.25340700 O 3.31693400 -2.07895300 -0.70479800 H 3.40205000 2.78232000 0.71350600 H 3.55398600 -2.28748500 -1.61784600 C -2.99195900 -0.82601200 0.26727900 C -1.68694300 -1.15059500 0.12663200 C -0.98169600 1.07235100 -0.53437700 C -3.38989600 0.55168400 -0.01646500 H -1.33731500 -2.15534100 0.33802900 O -0.16148300 1.91768500 -0.85192100 N -2.32897600 1.38003200 -0.40548800 N -0.68738000 -0.27793300 -0.29115500 H -2.56038100 2.34874100 -0.59470500 C -4.05232000 -1.79490700 0.70458700 H -4.54431700 -1.44215500 1.61709100 H -4.83354300 -1.88399700 -0.05776700 H -3.63042900 -2.78613200 0.89359400 O -4.53024700 0.99513700 0.06333400
[S43]
Table S27. Cartesian coordinates of stacking interactions.
Cartesian coordinates of Adenine–FEMO structure (α=0o)
Counterpoise corrected Energy (in hartrees) = –989.83045
ATOM X Y Z
N -0.95941300 -2.55979200 -1.04962100 C -2.18233100 -1.94607500 -1.27860700 H -2.78767400 -2.19544800 -2.14972300 N -2.50504400 -1.06043400 -0.35163500 C -1.43463100 -1.09843800 0.53357400 C -1.15438700 -0.39858800 1.73532800 N -2.01064000 0.52544900 2.24831400 H -1.77060200 1.00083400 3.10796600 H -2.87718000 0.73096300 1.77009900 N 0.00046300 -0.65755800 2.39264700 C 0.83991600 -1.57900800 1.86867100 H 1.75939100 -1.75028100 2.43990700 N 0.70251500 -2.31192800 0.74631400 C -0.45540600 -2.02541300 0.12371000 H -0.51260100 -3.26953300 -1.61868400 C 1.37296900 -0.13096900 -1.97722000 C 2.00865200 0.31523400 -0.79618800 C 1.38701400 1.28018800 0.01399300 C 0.11860000 1.81549700 -0.34317300 C -0.48546900 1.34709400 -1.52786900 C 0.12516800 0.38678800 -2.34114200 H 1.86956100 -0.88243500 -2.59724400 H 1.85313300 1.64342700 0.93055900 H -0.38236800 0.05432400 -3.25072000 F -1.70173900 1.83977300 -1.89941200 O 3.22921900 -0.25501600 -0.52966000 C -0.51198200 2.79652900 0.48157400 C -1.03937700 3.63613400 1.19822800 H -1.50932700 4.37342600 1.82139900 C 3.90690500 0.17136200 0.66034100 H 4.12028600 1.25713500 0.62389300 H 3.30260800 -0.05547500 1.55985700 H 4.84766800 -0.39692700 0.68523200
[S44]
Table S28. Cartesian coordinates of Adenine–MMO2 structure (α=0o)
Counterpoise corrected Energy (in hartrees) = –853.71939
ATOM X Y Z
N 0.71286900 -2.33240300 1.13170500 C 1.74479500 -1.74148300 1.84623500 H 1.99247600 -2.06482500 2.85696400 N 2.35987600 -0.78018700 1.17887600 C 1.69443700 -0.74158800 -0.04035500 C 1.85698200 0.05855200 -1.20048200 N 2.81321800 1.02231600 -1.28377700 H 2.89352800 1.56956700 -2.13034600 H 3.43467300 1.18553500 -0.50341100 N 1.03569300 -0.14239800 -2.25779700 C 0.09091200 -1.10453700 -2.15789400 H -0.54635700 -1.22565300 -3.04123900 N -0.17389100 -1.93073000 -1.12686500 C 0.66223500 -1.69937300 -0.09833500 H 0.10946900 -3.08777700 1.43588300 C -0.14902600 2.10249700 0.51435700 C -1.14589700 1.62766200 -0.34982200 C -2.01037400 0.58228500 0.04447000 C -1.87859300 0.00111400 1.32107500 C -0.87520700 0.48179300 2.18598500 C -0.01796900 1.51794100 1.79585500 H -1.27022700 2.06140000 -1.34740400 H -2.53428300 -0.80789300 1.64924400 H -0.77039000 0.03175100 3.17937700 H 0.75637400 1.87878700 2.48159800 O -2.94543300 0.20676400 -0.89223000 C -3.84300800 -0.85059200 -0.53347100 H -4.44690600 -0.57252800 0.35214100 H -4.49794300 -0.99414100 -1.40523200 H -3.28764900 -1.78439900 -0.31923000 C 0.77623200 3.22419800 0.08699400 H 1.83106000 2.89351500 0.10912300 H 0.54258900 3.56784600 -0.93438100 H 0.68958400 4.08769600 0.77208200
[S45]
Table S29. Cartesian coordinates of Adenine–NaM structure (=0o)
Counterpoise corrected Energy (in hartrees) = –968.08106
ATOM X Y Z
N 0.93605000 -1.00279800 2.39295800 C 2.17843800 -0.38707900 2.34852100 H 2.62538700 0.05309700 3.23955900 N 2.72557300 -0.39895500 1.14507400 C 1.78988300 -1.06074600 0.35936400 C 1.76020000 -1.40610400 -1.01627700 N 2.77971500 -1.09329000 -1.86061400 H 2.71664100 -1.35891500 -2.83430600 H 3.59013700 -0.59962500 -1.51229400 N 0.68461000 -2.06735800 -1.50480500 C -0.31959000 -2.37039600 -0.65154400 H -1.16534600 -2.90546400 -1.09817500 N -0.42332900 -2.10623500 0.66572300 C 0.66323500 -1.44956700 1.11145100 H 0.33634400 -1.11757800 3.20189800 C -2.21716500 0.96563700 1.48707800 C -0.99707300 1.60707500 1.59032500 C -0.13961300 1.75510000 0.45548100 C -0.57754100 1.21674400 -0.81034400 C -1.84200400 0.55650600 -0.89929000 C -2.64677300 0.43385500 0.23073800 H 1.44467000 2.81673300 1.50169700 H -2.87567700 0.85061200 2.35325500 H -0.67191900 2.01291700 2.55459200 C 1.12289100 2.41206700 0.53532100 C 0.27648000 1.36299200 -1.94535900 H -2.15220500 0.15719200 -1.86761400 C 1.50236000 2.00864200 -1.83696400 C 1.93203800 2.53872500 -0.58753200 H -0.05132600 0.95601800 -2.90880500 H 2.14464300 2.11164900 -2.71841500 H 2.90021300 3.04528200 -0.51533200 O -3.87577300 -0.17795200 0.26358100 C -4.36243400 -0.73178600 -0.96578000 H -3.67790000 -1.51726900 -1.34050200 H -5.34372100 -1.16736800 -0.72844600 H -4.47208800 0.05681200 -1.73524500
[S46]
Table S30. Cartesian coordinates of Adenine–5SICS structure (=0o)
Counterpoise corrected Energy (in hartrees) = –1307.13154
ATOM X Y Z
N 1.09641100 -1.89957600 -1.44520400 C 0.47916900 -1.25872400 -2.50959600 H 1.01213900 -1.06239100 -3.43957700 N -0.77757800 -0.92954800 -2.26462000 C -0.99474200 -1.38185500 -0.96882600 C -2.12569000 -1.34402600 -0.11321800 N -3.30414600 -0.78543400 -0.49971900 H -4.08498900 -0.78026900 0.14283000 H -3.39245300 -0.38061000 -1.42174700 N -2.03026900 -1.88006600 1.12628500 C -0.85156000 -2.43120900 1.49396700 H -0.82855900 -2.85039400 2.50630800 N 0.29314700 -2.53533400 0.79073100 C 0.15702000 -1.99184200 -0.43262300 H 2.04813200 -2.24576800 -1.40538100 C 2.28309600 0.75352500 0.22152600 C 0.89944300 1.23983500 0.15997500 C 0.01706200 1.07566900 1.28164200 C 0.50031700 0.42705800 2.47474400 C 1.79198200 -0.01934400 2.51324300 H 1.08029300 2.00282000 -1.85508200 H 3.58017900 -0.19142300 1.47523400 C 0.40405700 1.88078800 -1.00471000 C -1.31615400 1.55655400 1.19239100 H -0.15550800 0.29299800 3.33784000 H 2.23773100 -0.52022000 3.37520300 C -1.79261500 2.18581400 0.04096600 C -0.90751300 2.34122200 -1.06156000 H -1.98003400 1.42557400 2.05458600 H -1.26880000 2.83342200 -1.97147400 N 2.62270400 0.14811000 1.42573300 S 3.45055000 0.86043800 -0.99364100 C -3.21308400 2.69688800 -0.05103300 H -3.22396300 3.78517700 -0.24558400 H -3.74833200 2.21207300 -0.88817600 H -3.77125700 2.50282700 0.87951200
[S47]
Table S31. Cartesian coordinates of Adenine–TPT3 structure (=0o)
Counterpoise corrected Energy (in hartrees) = –1588.56593
ATOM X Y Z
N 0.07053900 -1.58176400 -1.89528900 C -0.04133600 -0.43588700 -2.66927900 H 0.61063500 -0.26389800 -3.52532900 N -0.99246600 0.38400300 -2.25586100 C -1.53378200 -0.26243700 -1.15136400 C -2.58090600 0.07571800 -0.25597500 N -3.28766200 1.23165300 -0.37629800 H -4.02616600 1.43262800 0.28463500 H -3.07195600 1.87993600 -1.12129200 N -2.88703500 -0.77754700 0.74952800 C -2.17449700 -1.92193500 0.85426500 H -2.46293500 -2.57635200 1.68469900 N -1.16344600 -2.36631600 0.08223100 C -0.89053300 -1.49155700 -0.90307200 H 0.72041600 -2.34872000 -2.02430200 C 0.23124100 0.77633800 1.60665900 C 1.18776300 0.77596300 0.56306800 C 2.14074200 -0.27720700 0.34833700 C 1.10099100 -1.34926200 2.32321900 C 0.19584400 -0.33350800 2.51501600 C -0.59150300 1.95251500 1.58281600 C -0.25541100 2.80111900 0.55106600 H 2.67047700 -2.06875100 1.17423900 H 1.15591600 -2.23593000 2.95813400 H -0.52252700 -0.38018400 3.33557300 H -1.39242600 2.15378200 2.29914400 H -0.71585600 3.75974100 0.30235300 N 2.01246900 -1.30191000 1.29138000 S 3.30970200 -0.35653700 -0.86510900 S 1.06754600 2.21102200 -0.43028100
[S48]
Table S32. Cartesian coordinates of Cytosine–FEMO structure (=0o)
Counterpoise corrected Energy (in hartrees) = –917.42757
ATOM X Y Z
N 1.41972700 1.90363900 0.99557500 C 0.16790100 2.23478400 1.41523500 H 0.04844700 2.48123800 2.47418200 C -0.86903200 2.24670200 0.51856100 H -1.88369500 2.50778800 0.82399500 C -0.53545900 1.89477700 -0.84375400 N -1.52837300 1.88922900 -1.78280200 H -1.29354000 1.64265400 -2.73627900 H -2.48164600 2.12376200 -1.54685900 N 0.68725500 1.57011000 -1.25945800 C 1.73586400 1.55521800 -0.36611500 O 2.90093800 1.27240500 -0.63639700 H 2.20184400 1.88836500 1.64208000 C 0.84891700 -1.26868700 1.70569000 C 1.07139400 -1.59875900 0.34937700 C 0.00171200 -1.58342100 -0.56139700 C -1.30912700 -1.23754300 -0.13120000 C -1.49355400 -0.91419600 1.22866700 C -0.43524300 -0.92653500 2.14316500 H 1.69164000 -1.28519000 2.40230900 H 0.14291900 -1.83335900 -1.61348700 H -0.62733800 -0.66821900 3.18807100 F -2.73796900 -0.57805800 1.67423300 O 2.36631900 -1.91944300 0.02328400 C -2.39554200 -1.22252100 -1.05842300 C -3.31579400 -1.21412600 -1.86448700 H -4.12921500 -1.20432600 -2.56523400 C 2.63348500 -2.26048000 -1.34400400 H 2.05163800 -3.15201400 -1.64795200 H 2.38934800 -1.41461100 -2.01531800 H 3.70986200 -2.47938900 -1.38980900
[S49]
Table S33. Cartesian coordinates of Cytosine–MMO2 structure (=0o)
Counterpoise corrected Energy (in hartrees) = –781.31117
ATOM X Y Z
N -0.13128200 -2.00805000 1.05788400 C 0.95751000 -1.53150300 1.72141600 H 0.92770600 -1.56740500 2.81421100 C 2.02267300 -1.03738300 1.01383600 H 2.90974400 -0.64834600 1.51658000 C 1.89663500 -1.06449900 -0.42644300 N 2.92713700 -0.58493300 -1.18525900 H 2.83767500 -0.60446800 -2.19356500 H 3.76723200 -0.21535900 -0.76447400 N 0.83392600 -1.52950000 -1.08040900 C -0.24147300 -2.02810400 -0.37842900 O -1.27058700 -2.48124800 -0.87443100 H -0.93077600 -2.37836400 1.56145400 C 0.71937100 2.02035300 -0.20287900 C -0.38606300 1.53983900 -0.91922200 C -1.51443600 1.01810500 -0.24827600 C -1.54082400 0.97488000 1.15965900 C -0.42743100 1.45899900 1.87512200 C 0.69136700 1.97628600 1.21076600 H -0.39186200 1.56164000 -2.01386800 H -2.40098900 0.57649600 1.70143600 H -0.44514600 1.42666000 2.97010700 H 1.54789700 2.34822800 1.78354300 O -2.53260700 0.57897700 -1.06267900 C -3.69666800 0.04191500 -0.42324500 H -4.17830100 0.80154600 0.22275000 H -4.37780800 -0.24586200 -1.23733800 H -3.43834700 -0.84598700 0.18603400 C 1.92783300 2.57913800 -0.92698900 H 2.83837400 2.00597900 -0.67222500 H 1.79066400 2.54286600 -2.02049700 H 2.11006300 3.62977100 -0.63467900
[S50]
Table S34. Cartesian coordinates of Cytosine–NaM structure (=0o)
Counterpoise corrected Energy (in hartrees) = –895.67845
ATOM X Y Z
N -0.18477700 1.83083300 1.45872000 C -1.42949700 1.38174300 1.77782400 H -1.62987200 1.18385700 2.83473900 C -2.36089700 1.19907100 0.78862100 H -3.36702000 0.84034500 1.01229300 C -1.92907400 1.50901200 -0.55618000 N -2.81449400 1.34633600 -1.58442500 H -2.51094100 1.56368300 -2.52553200 H -3.75565800 1.01707500 -1.42567700 N -0.71283600 1.94854100 -0.87371000 C 0.23013000 2.13530500 0.11310200 O 1.37895000 2.53498300 -0.06269600 H 0.52012600 1.97315300 2.17479500 C 2.01706400 -0.94599900 1.48104200 C 0.74938400 -1.39733100 1.79729100 C -0.23890100 -1.60036300 0.78383600 C 0.11700500 -1.32219100 -0.58724800 C 1.43224300 -0.85615200 -0.89651900 C 2.36503400 -0.67173300 0.12110100 H -1.81141000 -2.27265400 2.12801800 H 2.77561500 -0.78956600 2.25386900 H 0.48709900 -1.60617700 2.84028400 C -1.55282500 -2.06483200 1.08345000 C -0.86769700 -1.52396300 -1.60147200 H 1.67856300 -0.65233600 -1.94108300 C -2.14101600 -1.97787700 -1.27895500 C -2.48961600 -2.25151300 0.07392800 H -0.60257300 -1.31423500 -2.64408200 H -2.88382500 -2.12699200 -2.07021500 H -3.49633800 -2.60873600 0.31492300 O 3.65300700 -0.23004300 -0.05740600 C 4.06282400 0.06235300 -1.39958700 H 3.43737100 0.86578200 -1.83467100 H 5.10822700 0.39508300 -1.32606000 H 3.99476900 -0.84095200 -2.03629400
[S51]
Table S35. Cartesian coordinates of Cytosine–5SICS structure (=0o)
Counterpoise corrected Energy (in hartrees) = –1234.72772
ATOM X Y Z
N -0.97303600 1.96518900 -1.03330700 C -0.28675400 1.28576200 -1.99259600 H -0.86242600 0.91311600 -2.84472000 C 1.06470900 1.09887300 -1.85837800 H 1.64282100 0.55865500 -2.61000900 C 1.66872700 1.65769800 -0.66930200 N 3.01343700 1.50304500 -0.48073800 H 3.43514800 1.89476700 0.35219600 H 3.58867100 1.01092100 -1.14881300 N 1.00205700 2.32307800 0.27201100 C -0.35617600 2.51612200 0.14630900 O -1.07059300 3.11213400 0.94931100 H -1.97362500 2.11516200 -1.11228500 C -2.02096200 -1.07905800 0.01511400 C -0.57453700 -1.29466800 0.14219500 C 0.14067300 -0.79586800 1.28384100 C -0.57363100 -0.07831000 2.30980500 C -1.92054000 0.11273800 2.17382200 H -0.40250700 -2.37535400 -1.72269900 H -3.59042900 -0.22098600 0.98857000 C 0.14726500 -1.99815700 -0.85621600 C 1.53972900 -1.02009800 1.37894500 H -0.04731000 0.30857000 3.18520400 H -2.53684300 0.64392000 2.90221900 C 2.23953700 -1.71386300 0.39014600 C 1.51808100 -2.20178300 -0.73437800 H 2.07457200 -0.63479600 2.25459300 H 2.05529800 -2.74803400 -1.51779400 N -2.58825100 -0.37415600 1.07023000 S -3.01530500 -1.59120800 -1.24979600 C 3.72959900 -1.95105300 0.49429800 H 3.95335200 -3.03375200 0.48793700 H 4.25654200 -1.50556600 -0.36954000 H 4.14259300 -1.51446800 1.41839700
[S52]
Table S36. Cartesian coordinates of Cytosine–TPT3 structure (=0o)
Counterpoise corrected Energy (in hartrees) = –1516.16373
ATOM X Y Z
N -0.76827800 -1.73456700 -1.30950900 C -0.74920700 -0.60284700 -2.06560700 H -0.06581100 -0.58792400 -2.91949500 C -1.56575900 0.44825700 -1.73724500 H -1.57352500 1.36874000 -2.32345900 C -2.40733500 0.26091100 -0.57635100 N -3.24303300 1.27474100 -0.20021500 H -3.83176300 1.14234100 0.61276300 H -3.28445200 2.14419300 -0.71182300 N -2.42984600 -0.84396000 0.16661600 C -1.61307700 -1.90567000 -0.15513500 O -1.55036700 -2.96995400 0.45625800 H -0.17233600 -2.52464800 -1.53430200 C 0.25322200 0.68778800 1.51025600 C 1.13942000 0.71990400 0.40679000 C 2.00800300 -0.36492800 0.04326700 C 1.03009900 -1.53753600 1.99243000 C 0.20531900 -0.49076600 2.32685800 C -0.49302900 1.90753900 1.63747200 C -0.17009000 2.81917900 0.65654500 H 2.47441300 -2.24744000 0.68433900 H 1.06891800 -2.47627000 2.54883600 H -0.46087700 -0.56469900 3.18840800 H -1.23233400 2.09382500 2.42094900 H -0.58363600 3.82045600 0.51780300 N 1.87521500 -1.45632100 0.90757500 S 3.08995500 -0.40935800 -1.25003000 S 1.04757800 2.23815900 -0.45753400
[S53]
Table S37. Cartesian coordinates of Guanine–FEMO structure (=0o)
Counterpoise corrected Energy (in hartrees) = –1065.10024
ATOM X Y Z
N 0.78975500 -2.58921200 0.25494900 C 1.47784100 -2.14113700 1.37887600 H 2.46107300 -2.53249600 1.63770000 N 0.81195600 -1.22541800 2.05392800 C -0.36860400 -1.06030600 1.34517200 C -1.49428900 -0.18680500 1.59069300 O -1.70896400 0.63311100 2.47695500 N -2.48903500 -0.38246900 0.55193600 H -3.28899300 0.24079000 0.63149900 C -2.40766900 -1.25467400 -0.51079500 N -3.45013900 -1.23011000 -1.42216800 H -4.37353400 -1.01243500 -1.06134500 H -3.43336300 -2.00893100 -2.07354100 N -1.37647100 -2.05429300 -0.72289500 C -0.40282900 -1.90227100 0.21721800 H 1.09045100 -3.28352400 -0.41977900 C 1.22245800 -0.03378300 -2.07237600 C 2.07208200 0.29298100 -0.99099100 C 1.67536900 1.26246500 -0.05467800 C 0.42177300 1.92187000 -0.18382900 C -0.39937200 1.57053100 -1.27473900 C -0.01353100 0.60677000 -2.21216700 H 1.54537500 -0.79042100 -2.79276300 H 2.30953300 1.53523400 0.78955900 H -0.68450800 0.36776200 -3.04169900 F -1.60784400 2.18386400 -1.42806200 O 3.26133200 -0.39227500 -0.94500700 C 0.02000700 2.90733000 0.76891300 C -0.31008500 3.74910400 1.59300600 H -0.60761700 4.48921000 2.31169600 C 4.15183100 -0.08928300 0.13775100 H 4.45623500 0.97484500 0.11067900 H 3.67606800 -0.31182700 1.11237100 H 5.02856900 -0.73589900 -0.00998000
[S54]
Table S38. Cartesian coordinates of Guanine–MMO2 structure (=0o)
Counterpoise corrected Energy (in hartrees) = –928.98823
ATOM X Y Z
N -0.66413800 -2.25884200 -0.55249600 C -1.06105300 -1.78195500 -1.79848200 H -1.96137400 -2.15088100 -2.28859500 N -0.24104100 -0.86960100 -2.28100600 C 0.74154800 -0.73695800 -1.31134500 C 1.90646500 0.11839400 -1.26900100 O 2.33637000 0.94652100 -2.06473700 N 2.62525600 -0.11077200 -0.02898400 H 3.43075900 0.49824800 0.09338300 C 2.28250200 -0.99619800 0.96866300 N 3.08102300 -1.00430400 2.10014200 H 4.06663300 -0.79912500 1.97088400 H 2.89940500 -1.79178800 2.71497100 N 1.21839400 -1.77901100 0.91743300 C 0.49619700 -1.59526800 -0.22255500 H -1.12586800 -2.95677900 0.01972100 C -0.26781300 2.21671900 0.09054700 C -1.45116100 1.61970000 -0.36692400 C -2.11981500 0.64657800 0.40866300 C -1.60001500 0.26268000 1.66057100 C -0.41047000 0.86557400 2.11599000 C 0.25285400 1.83020700 1.34778000 H -1.87691200 1.89955100 -1.33603600 H -2.09807900 -0.48698800 2.27867000 H -0.00390700 0.56901200 3.08918400 H 1.17657000 2.28821600 1.71796200 O -3.26921200 0.13680000 -0.14970300 C -3.97929400 -0.85342400 0.60368200 H -4.31230100 -0.44495900 1.57763400 H -4.85177800 -1.12461600 -0.00847800 H -3.34692400 -1.74564700 0.77794400 C 0.44618900 3.26025300 -0.74503300 H 1.47525000 2.93475800 -0.98500600 H -0.08719200 3.44765900 -1.69175000 H 0.52518900 4.21666500 -0.19592700
[S55]
Table S39. Cartesian coordinates of Guanine–NaM structure (=0o)
Counterpoise corrected Energy (in hartrees) = –1043.35157
ATOM X Y Z
N -0.67892600 -2.27642200 0.24492700 C -1.11959400 -2.21933600 -1.07416300 H -2.09441300 -2.60863200 -1.36583400 N -0.24162700 -1.65892600 -1.88209500 C 0.82686900 -1.33062800 -1.06120800 C 2.08313600 -0.68576800 -1.37169400 O 2.53916700 -0.25960800 -2.42726600 N 2.87078200 -0.56037200 -0.15896500 H 3.74923500 -0.06538900 -0.29322500 C 2.51108800 -0.98045900 1.10234600 N 3.39443000 -0.69981900 2.13137300 H 4.38308300 -0.69227600 1.90171800 H 3.17383800 -1.18660300 2.99480300 N 1.36232000 -1.57531000 1.37479900 C 0.57431200 -1.70700100 0.27180100 H -1.16982700 -2.65649200 1.04636700 C -2.10842300 0.41967300 1.90794800 C -0.85350200 0.98485500 2.03628200 C -0.16878900 1.53276000 0.90668600 C -0.81993400 1.48327200 -0.38074700 C -2.11754300 0.89528200 -0.49550800 C -2.74957600 0.37294100 0.63026000 H 1.60971600 2.15279200 1.99483300 H -2.63514400 -0.00043900 2.77004000 H -0.36605100 1.01855200 3.01684300 C 1.12534500 2.12095900 1.01220900 C -0.13873900 2.02957100 -1.51058400 H -2.59048400 0.86917800 -1.47987200 C 1.12289700 2.59685200 -1.37693400 C 1.76299100 2.64447800 -0.10622500 H -0.62874700 1.99451500 -2.49036800 H 1.63065400 3.01118200 -2.25477600 H 2.75721500 3.09417800 -0.01421700 O -3.99130600 -0.21344800 0.63923600 C -4.68594600 -0.29061100 -0.61233100 H -4.10904500 -0.88731100 -1.34521700 H -5.64291600 -0.78518400 -0.39189800 H -4.86640200 0.72127500 -1.02404800
[S56]
Table S40. Cartesian coordinates of Guanine–5SICS structure (=0o)
Counterpoise corrected Energy (in hartrees) = –1382.39688
ATOM X Y Z
N -1.10683500 1.48624600 2.08411200 C -0.37945700 0.85255400 3.08750600 H -0.83399400 0.59433500 4.04333900 N 0.87108900 0.61924700 2.74204800 C 0.97550400 1.12053000 1.45320000 C 2.10176200 1.14756000 0.54696300 O 3.25242200 0.74112400 0.66779700 N 1.70169100 1.77947700 -0.69700000 H 2.43264400 1.78523100 -1.40438100 C 0.45727300 2.28656500 -0.99873400 N 0.27928500 2.78989600 -2.27659300 H 1.08398300 3.22314500 -2.71817000 H -0.58435000 3.31260500 -2.38631800 N -0.56465000 2.26291200 -0.16036600 C -0.24887800 1.66615100 1.02245500 H -2.08055500 1.76739800 2.10791300 C -2.17787700 -0.74495500 -0.70976600 C -0.77196700 -1.16599300 -0.74023300 C -0.17857100 -1.81300400 0.39684100 C -0.97557700 -2.04786700 1.57469700 C -2.28308500 -1.64850900 1.58435800 H -0.42738600 -0.45135000 -2.75166500 H -3.80820900 -0.73987600 0.51053100 C 0.02979400 -0.94419200 -1.88945100 C 1.18391700 -2.20898400 0.33761100 H -0.54222500 -2.53833000 2.44914800 H -2.95594500 -1.78732200 2.43320100 C 1.96321000 -1.98549900 -0.79884000 C 1.36207800 -1.34383600 -1.91688700 H 1.62559800 -2.70174200 1.21132700 H 1.96261000 -1.16237400 -2.81531100 N -2.83351000 -1.02912200 0.48244600 S -3.03324700 0.02376000 -1.94606300 C 3.41405600 -2.40838700 -0.85885300 H 3.57895300 -3.11884100 -1.68976000 H 4.06715200 -1.53562700 -1.04351200 H 3.73171600 -2.88978900 0.08054800
[S57]
Table S41. Cartesian coordinates of Guanine–TPT3 structure (=0o)
Counterpoise corrected Energy (in hartrees) = –1663.83045
ATOM X Y Z
N 0.66640700 1.84496400 -1.91641900 C 1.32127800 2.76463500 -1.10229800 H 1.19813300 3.83794700 -1.24277000 N 2.07312200 2.18988300 -0.18467600 C 1.90816100 0.83002200 -0.40120500 C 2.47352500 -0.30462200 0.29406300 O 3.23963400 -0.37363200 1.24911400 N 1.98697800 -1.53024000 -0.31252800 H 2.30328900 -2.37279000 0.16157400 C 1.12602100 -1.63277100 -1.38257400 N 0.74187100 -2.90955700 -1.75699800 H 1.42059000 -3.65278100 -1.62587900 H 0.26328700 -2.93934300 -2.65209600 N 0.61951900 -0.58870700 -2.01592400 C 1.03276200 0.59230500 -1.47801600 H 0.03580000 2.03775200 -2.68642700 C -0.69389700 0.86808900 1.65311900 C -1.29252200 -0.17494400 0.90629600 C -2.18143100 0.03931300 -0.20157600 C -1.82870500 2.45000400 0.23966600 C -0.98010600 2.22807300 1.29723800 C 0.14771100 0.36526900 2.70180200 C 0.17317100 -1.01168100 2.73270300 H -3.01068600 1.59447200 -1.23413600 H -2.10943100 3.44575900 -0.10959100 H -0.54356900 3.06732100 1.84189200 H 0.70479800 0.99935900 3.39656500 H 0.72762400 -1.65069400 3.42340500 N -2.38588500 1.39928300 -0.45550500 S -2.93495600 -1.14138200 -1.14145400 S -0.81859400 -1.75233600 1.49605400
[S58]
Table S42. Cartesian coordinates of Thymine–FEMO structure (=0o)
Counterpoise corrected Energy (in hartrees) = –976.65429
ATOM X Y Z
N -0.73374900 -2.41413600 -0.11717500 C 0.03575300 -2.06017700 0.97830400 H 0.91206000 -2.69009700 1.15415900 C -0.27342300 -1.00233500 1.78280300 C 0.54962400 -0.60100100 2.97794500 H 1.41570500 -1.27228900 3.10177700 H 0.90947700 0.43746700 2.86892700 H -0.06313600 -0.62803900 3.89644600 C -1.47424300 -0.21230600 1.46521200 O -1.87431000 0.76418700 2.09794600 N -2.18895900 -0.66182200 0.32403200 H -3.02386200 -0.13450600 0.07978600 C -1.89213600 -1.73660100 -0.51053000 O -2.56248200 -2.06352200 -1.48428000 H -0.47881400 -3.20562100 -0.69625100 C 1.08987700 -0.46461000 -2.05716700 C 1.90077800 -0.13516600 -0.94724200 C 1.56419300 0.95844600 -0.13195700 C 0.41049900 1.74146400 -0.41279300 C -0.37454500 1.38355200 -1.52787500 C -0.04796500 0.29673600 -2.34559000 H 1.36506800 -1.31865300 -2.68215800 H 2.17053600 1.23644200 0.73081000 H -0.68764800 0.05774100 -3.19948800 F -1.48753900 2.11354100 -1.82527700 O 2.99300900 -0.94434800 -0.75163100 C 0.06977200 2.85302300 0.41703100 C -0.20897000 3.80199500 1.13705100 H -0.46090400 4.63662600 1.76372300 C 3.84143800 -0.64295100 0.36483100 H 4.27329800 0.37188200 0.26801800 H 3.28003400 -0.71533700 1.31632800 H 4.64134900 -1.39672800 0.34098300
[S59]
Table S43. Cartesian coordinates of Thymine–MMO2 structure (=0o)
Counterpoise corrected Energy (in hartrees) = –840.54494
ATOM X Y Z
N -0.43648700 -2.14775500 0.35970000 C -0.32730400 -1.33225300 1.47349000 H 0.42034100 -1.64514100 2.20749700 C -1.09512000 -0.21763800 1.64649800 C -0.99198700 0.68190400 2.84942200 H -0.22394300 0.31426200 3.55014100 H -0.73785900 1.71177100 2.54187000 H -1.96226700 0.73936100 3.37392800 C -2.07514600 0.12299700 0.60223000 O -2.83135400 1.09340800 0.62209500 N -2.10444700 -0.77916900 -0.49340400 H -2.77227400 -0.56891000 -1.23136000 C -1.33121000 -1.92061300 -0.69078500 O -1.41503900 -2.65339600 -1.67080100 H 0.14765500 -2.96961500 0.25923700 C 0.21864200 1.90827200 -0.96045100 C 1.14842500 1.59503100 0.04125100 C 1.97760700 0.45662600 -0.06870200 C 1.87795300 -0.38287300 -1.19571500 C 0.94199500 -0.06384300 -2.19975900 C 0.11977200 1.06437900 -2.09146400 H 1.24658600 2.23032300 0.92755000 H 2.50745500 -1.26837400 -1.30402000 H 0.86229100 -0.71487000 -3.07734800 H -0.60216800 1.29675200 -2.88194700 O 2.84721700 0.25838800 0.97879000 C 3.70713300 -0.88523600 0.90795000 H 4.36555400 -0.82980900 0.01928200 H 4.31190900 -0.86064300 1.82618400 H 3.11683100 -1.82134000 0.86828400 C -0.66895500 3.13063600 -0.83816000 H -1.73667700 2.84366100 -0.84891400 H -0.46735300 3.67905700 0.09697700 H -0.50697400 3.82044900 -1.68692600
[S60]
Table S44. Cartesian coordinates of Thymine–NaM structure (=0o)
Counterpoise corrected Energy (in hartrees) = –954.90890
ATOM X Y Z
N -0.40433100 0.97243700 2.02427600 C 0.00698700 1.80150100 0.99424500 H 0.98069900 2.27700900 1.14058300 C -0.74523200 2.01251300 -0.12445000 C -0.31638900 2.90944300 -1.25513600 H 0.66968500 3.35780700 -1.04852700 H -0.26465400 2.34179100 -2.20112200 H -1.05488000 3.71582800 -1.41077900 C -2.04360600 1.32709400 -0.23123500 O -2.82481400 1.42104800 -1.17719000 N -2.36686600 0.50367400 0.87901700 H -3.25872900 0.01658700 0.83310700 C -1.61559500 0.27353800 2.02896300 O -1.96479500 -0.45726500 2.95005700 H 0.17632000 0.83551900 2.84334100 C 2.13216500 -1.34989700 1.20378200 C 0.91356200 -1.98893900 1.07201900 C 0.09130200 -1.78571700 -0.08020000 C 0.56345300 -0.89247400 -1.11127300 C 1.82586100 -0.23994700 -0.95887300 C 2.59575700 -0.46575500 0.17951700 H -1.51684800 -3.10831900 0.54921200 H 2.76379600 -1.50307000 2.08395900 H 0.56230800 -2.66534600 1.85899900 C -1.16889700 -2.43238800 -0.24023400 C -0.25537500 -0.68751700 -2.26301600 H 2.16233300 0.43150200 -1.75213900 C -1.47989100 -1.33210700 -2.39131600 C -1.94335800 -2.21254900 -1.37312500 H 0.09849800 -0.01028600 -3.04879200 H -2.09491900 -1.16292400 -3.28193900 H -2.91007500 -2.71438800 -1.48622000 O 3.81938600 0.10402000 0.43233500 C 4.33906200 1.00089300 -0.55784400 H 3.66112900 1.86483600 -0.69925100 H 5.31008900 1.34179300 -0.17070400 H 4.47655800 0.48030800 -1.52535300
[S61]
Table S45. Cartesian coordinates of Thymine–5SICS structure (=0o)
Counterpoise corrected Energy (in hartrees) = –1293.95081
ATOM X Y Z
N 0.71893300 -2.26418600 -0.33593400 C -0.22283400 -2.36690400 0.67402500 H 0.12731800 -2.85303900 1.58874100 C -1.49686100 -1.89661700 0.54164600 C -2.53534900 -1.99827600 1.62702500 H -2.12266800 -2.49642500 2.52011000 H -2.90022700 -0.99463400 1.90873700 H -3.41369900 -2.56491900 1.27028000 C -1.87532600 -1.25625800 -0.72866200 O -2.98253000 -0.78731400 -0.98968900 N -0.83562800 -1.20477400 -1.69383200 H -1.06797300 -0.76709200 -2.58221800 C 0.46968700 -1.67704700 -1.58043600 O 1.31581500 -1.59412200 -2.46452900 H 1.65780200 -2.62333900 -0.20824700 C 2.25226600 0.68235800 0.35126400 C 0.88837700 1.19516700 0.17344800 C -0.08067000 1.07366000 1.22695000 C 0.29549500 0.44179300 2.46669500 C 1.57032600 -0.02976700 2.61363400 H 1.23964100 1.90979400 -1.83683200 H 3.42853900 -0.26089100 1.72013100 C 0.49777600 1.82025100 -1.03874800 C -1.39227900 1.57941400 1.02551700 H -0.42726100 0.34009300 3.27928000 H 1.93769400 -0.52049200 3.51739100 C -1.76528700 2.19271900 -0.17176600 C -0.79518400 2.30583600 -1.20579900 H -2.12292800 1.48093600 1.83652100 H -1.07487600 2.78512100 -2.15067500 N 2.48533600 0.09682600 1.59013600 S 3.51138400 0.73879500 -0.77232300 C -3.16300000 2.73035700 -0.38327100 H -3.13509800 3.81409800 -0.60022600 H -3.64308600 2.23819600 -1.24908800 H -3.79489200 2.56818700 0.50529000
[S62]
Table S46. Cartesian coordinates of Thymine–TPT3 structure (=0o)
Counterpoise corrected Energy (in hartrees) = –1575.38352
ATOM X Y Z
N -0.47930700 -2.23203200 0.10419000 C -1.48024000 -1.72943100 0.91844800 H -1.51238200 -2.14790500 1.92814400 C -2.36460400 -0.78029800 0.49549700 C -3.45941700 -0.22090500 1.36457900 H -3.43950800 -0.68123400 2.36645600 H -3.35113200 0.87343100 1.46703600 H -4.44761400 -0.39869900 0.90446300 C -2.24139900 -0.27702000 -0.88236700 O -2.96379800 0.57484000 -1.39852500 N -1.18380400 -0.85968900 -1.62880300 H -1.07395000 -0.53083800 -2.58513400 C -0.27051000 -1.82767400 -1.21813400 O 0.62152400 -2.28332300 -1.92601000 H 0.16280800 -2.93718300 0.44656200 C 0.09074300 1.47911500 0.96209100 C 1.12464900 0.96105100 0.14559700 C 2.06572900 -0.03453100 0.57760600 C 0.85119500 0.04026200 2.73395800 C -0.04134100 0.99287900 2.30531500 C -0.69916000 2.46017200 0.27328800 C -0.26413300 2.66466000 -1.01765400 H 2.48688300 -1.13713800 2.24471300 H 0.83560900 -0.39323600 3.73603100 H -0.82179900 1.36057200 2.97407300 H -1.54788900 2.98545900 0.71920500 H -0.68080700 3.35050200 -1.75848300 N 1.84044800 -0.43168200 1.89946700 S 3.32258400 -0.70351300 -0.32682200 S 1.11601300 1.67965400 -1.44943400
[S63]
Table S47. Mol2 file of the FEMO base.
1 O3' 0.0000 0.0000 0.0000 OS 1 LI -0.558500
2 P 5.0720 2.3560 0.4640 P 1 LI 1.220100
3 O1P 6.0930 1.5280 1.1240 O2 1 LI -0.792800
4 O2P 5.3510 3.3990 -0.5330 O2 1 LI -0.792800
5 O5' 3.9690 1.3130 -0.1630 OS 1 LI -0.497900
6 C5' 2.9420 1.8350 -1.0110 CI 1 LI 0.059500
7 H5'1 3.3530 2.1430 -1.9800 H1 1 LI 0.046600
8 H5'2 2.4590 2.7030 -0.5380 H1 1 LI 0.046600
9 C4' 1.8780 0.7780 -1.2580 CT 1 LI 0.196300
10 H4' 0.9930 1.2810 -1.6730 H1 1 LI 0.072400
11 O4' 2.3580 -0.1840 -2.2050 OS 1 LI -0.395200
12 C1' 2.0030 -1.5010 -1.7610 CT 1 LI 0.193900
13 H1' 0.9740 -1.7190 -2.0830 H1 1 LI 0.045000
14 C2' 2.0270 -1.3940 -0.2280 CT 1 LI -0.108100
15 H2'1 3.0570 -1.4210 0.1310 HC 1 LI 0.049300
16 H2'2 1.4450 -2.1820 0.2590 HC 1 LI 0.049300
17 C3' 1.4360 -0.0000 0.0000 CT 1 LI 0.154600
18 H3' 1.8150 0.4660 0.9150 H1 1 LI 0.058500
19 C1 2.9100 -2.5280 -2.3900 CA 1 LI -0.024400
20 C12 4.3140 -2.5150 -2.2130 CA 1 LI 0.120600
21 C10 5.1110 -3.4830 -2.8230 CA 1 LI -0.192100
22 H11 6.1850 -3.4830 -2.6980 HA 1 LI 0.159600
23 C6 4.5410 -4.4990 -3.6200 CA 1 LI 0.001100
24 C4 3.1530 -4.4960 -3.7750 CA 1 LI 0.253700
[S64]
25 F5 2.5660 -5.4540 -4.5360 F 1 LI -0.192300
26 C2 2.3520 -3.5320 -3.1810 CA 1 LI -0.251600
27 H3 1.2810 -3.5640 -3.3490 HA 1 LI 0.186800
28 C7 5.3570 -5.4880 -4.2410 c1 1 LI 0.020300
29 C8 6.0630 -6.3230 -4.7630 c1 1 LI -0.411800
30 H9 6.6740 -7.0620 -5.2280 HA 1 LI 0.308800
31 O13 4.8090 -1.5270 -1.4220 OS 1 LI -0.210100
32 C14 6.2130 -1.4000 -1.2690 CT 1 LI -0.011300
33 H15 6.7040 -1.2400 -2.2370 H1 1 LI 0.065300
34 H16 6.3550 -0.5230 -0.6370 H1 1 LI 0.065300
35 H17 6.6460 -2.2820 -0.7810 H1 1 LI 0.065300
Table S48. Mol2 file of the MMO2 base.
1 O3' 0.0000 0.0000 0.0000 OS 1 LI -0.560100
2 P 5.4400 1.8540 0.3940 P 1 LI 1.220300
3 O1P 6.3840 0.7870 0.7580 O2 1 LI -0.792700
4 O2P 5.7360 2.9590 -0.5300 O2 1 LI -0.792700
5 O5' 4.0690 1.1040 -0.1090 OS 1 LI -0.500900
6 C 3.0290 1.8970 -0.6850 CI 1 LI 0.070700
7 H32 3.3860 2.4250 -1.5790 H1 1 LI 0.041100
8 H31 2.6580 2.6380 0.0390 H1 1 LI 0.041100
9 C30 1.8780 0.9930 -1.0920 CT 1 LI 0.198900
10 H29 1.0190 1.6240 -1.3560 H1 1 LI 0.070100
11 O28 2.2660 0.2180 -2.2330 OS 1 LI -0.393700
12 C27 1.9680 -1.1680 -2.0140 CT 1 LI 0.143300
13 H26 0.9480 -1.3760 -2.3620 H1 1 LI 0.048900
14 C25 2.0260 -1.3230 -0.4860 CT 1 LI -0.115900
[S65]
15 H24 3.0700 -1.3960 -0.1660 HC 1 LI 0.052100
16 H23 1.4770 -2.1990 -0.1320 HC 1 LI 0.052100
17 C22 1.4350 -0.0000 0.0000 CT 1 LI 0.153600
18 H21 1.8120 0.2900 0.9870 H1 1 LI 0.055800
19 C18 2.9430 -2.0340 -2.7680 CA 1 LI 0.002600
20 C17 4.1540 -1.5420 -3.2460 CA 1 LI -0.165500
21 H16 4.3780 -0.4940 -3.0820 HA 1 LI 0.159300
22 C15 5.0540 -2.3670 -3.9290 CA 1 LI -0.261000
23 H14 5.9900 -1.9560 -4.2960 HA 1 LI 0.162000
24 C13 4.7570 -3.7130 -4.1470 CA 1 LI 0.049000
25 C12 3.5400 -4.2220 -3.6650 CA 1 LI -0.173600
26 H11 3.3060 -5.2670 -3.8290 HA 1 LI 0.122900
27 C10 2.6470 -3.3940 -2.9810 CA 1 LI 0.118500
28 O9 1.4480 -3.8250 -2.4690 OS 1 LI -0.215300
29 C8 1.0640 -5.1730 -2.6900 CT 1 LI -0.015200
30 H7 0.0830 -5.2840 -2.2260 H1 1 LI 0.063400
31 H6 0.9880 -5.3960 -3.7620 H1 1 LI 0.063400
32 H5 1.7700 -5.8710 -2.2230 H1 1 LI 0.063400
33 C4 5.7110 -4.6210 -4.8860 CT 1 LI -0.089500
34 H3 6.0300 -5.4610 -4.2560 HC 1 LI 0.041200
35 H2 5.2440 -5.0460 -5.7820 HC 1 LI 0.041200
36 H1 6.6080 -4.0800 -5.2010 HC 1 LI 0.041200
Table S49. Mol2 file of the NaM base.
1 O3' 0.0000 0.0000 0.0000 OS 1 LI -0.560000
2 P 5.4520 1.8130 0.3990 P 1 LI 1.220300
3 O1P 6.3960 0.7340 0.7280 O2 1 LI -0.792700
[S66]
4 O2P 5.7480 2.9450 -0.4910 O2 1 LI -0.792700
5 O5' 4.0800 1.0800 -0.1240 OS 1 LI -0.501800
6 C 3.0400 1.8910 -0.6740 CI 1 LI 0.071600
7 H35 3.3910 2.4330 -1.5620 H1 1 LI 0.040700
8 H34 2.6830 2.6220 0.0670 H1 1 LI 0.040700
9 C33 1.8770 1.0020 -1.0830 CT 1 LI 0.208300
10 H32 1.0230 1.6440 -1.3340 H1 1 LI 0.067400
11 O31 2.2490 0.2370 -2.2370 OS 1 LI -0.395000
12 C30 1.9610 -1.1500 -2.0250 CT 1 LI 0.142500
13 H29 0.9420 -1.3640 -2.3720 H1 1 LI 0.050900
14 C28 2.0250 -1.3190 -0.4980 CT 1 LI -0.093600
15 H27 3.0700 -1.3910 -0.1830 HC 1 LI 0.046100
16 H26 1.4780 -2.1980 -0.1480 HC 1 LI 0.046100
17 C25 1.4350 -0.0000 0.0000 CT 1 LI 0.151000
18 H24 1.8130 0.2810 0.9890 H1 1 LI 0.054700
19 C21 2.9410 -2.0070 -2.7840 CA 1 LI -0.007900
20 C20 4.1190 -1.5020 -3.2790 CA 1 LI -0.215800
21 H19 4.3300 -0.4490 -3.1350 HA 1 LI 0.161200
22 C18 5.0530 -2.3200 -3.9720 CA 1 LI 0.089700
23 C17 4.7490 -3.7050 -4.1560 CA 1 LI 0.060900
24 C16 5.6810 -4.5230 -4.8490 CA 1 LI -0.191500
25 H15 5.4510 -5.5760 -4.9900 HA 1 LI 0.137700
26 C14 6.8590 -3.9960 -5.3360 CA 1 LI -0.128800
27 H13 7.5610 -4.6350 -5.8640 HA 1 LI 0.137400
28 C12 7.1590 -2.6240 -5.1540 CA 1 LI -0.167800
29 H11 8.0880 -2.2200 -5.5430 HA 1 LI 0.140500
30 C10 6.2710 -1.8070 -4.4860 CA 1 LI -0.172500
[S67]
31 H9 6.4930 -0.7520 -4.3440 HA 1 LI 0.138000
32 C8 3.5280 -4.2200 -3.6410 CA 1 LI -0.246600
33 H7 3.3100 -5.2720 -3.7870 HA 1 LI 0.142700
34 C6 2.6500 -3.3940 -2.9720 CA 1 LI 0.152600
35 O5 1.4580 -3.8050 -2.4360 OS 1 LI -0.213800
36 C4 1.0710 -5.1590 -2.6210 CT 1 LI -0.007400
37 H3 1.7840 -5.8440 -2.1450 H1 1 LI 0.062300
38 H2 0.0950 -5.2590 -2.1450 H1 1 LI 0.062300
39 H1 0.9870 -5.4040 -3.6860 H1 1 LI 0.062300
Table S50. Mol2 file of the 5SICS base.
1 O3' 0.0000 0.0000 0.0000 OS 1 LI -0.552300
2 P 4.4870 1.1190 0.6750 P 1 LI 1.219600
3 O1P 5.4930 1.1430 -0.3960 O2 1 LI -0.793300
4 O2P 3.2270 1.8770 0.6620 O2 1 LI -0.793300
5 O5' 4.1440 -0.4630 0.9490 OS 1 LI -0.489100
6 C 2.7550 4.4930 -0.0580 C 1 LI 0.029000
7 C16 3.8340 5.4770 0.0000 CA 1 LI 0.184000
8 C15 5.0990 5.1430 0.5520 CA 1 LI 0.113400
9 C14 5.2960 3.8200 1.0590 CA 1 LI -0.273400
10 H 6.2580 3.5210 1.4590 HA 1 LI 0.163300
11 C13 4.2680 2.9380 1.0470 CA 1 LI -0.092100
12 H12 4.3430 1.9270 1.4200 H4 1 LI 0.166000
13 N 3.0270 3.2770 0.5460 NC 1 LI 0.075400
14 C1* 1.9700 2.2460 0.5920 CT 1 LI 0.203200
15 H1* 1.0230 2.7840 0.6390 H2 1 LI 0.061600
16 O4* 2.1530 1.4510 1.7550 OS 1 LI -0.395100
[S68]
17 C4* 1.8630 0.0700 1.4760 CT 1 LI 0.150600
18 H4* 1.0190 -0.2400 2.1040 H1 1 LI 0.089800
19 C5* 3.0660 -0.7850 1.8320 CI 1 LI 0.030900
20 H5*1 3.3440 -0.5850 2.8750 H1 1 LI 0.067100
21 H5*2 2.7840 -1.8440 1.7390 H1 1 LI 0.067100
22 C3* 1.4310 0.0000 -0.0000 CT 1 LI 0.164300
23 H3*2 1.8140 -0.9030 -0.4910 H1 1 LI 0.059500
24 C2* 2.0230 1.2770 -0.5910 CT 1 LI -0.033400
25 H2*1 3.0650 1.1010 -0.8730 HC 1 LI 0.028700
26 H2*2 1.4760 1.6620 -1.4540 HC 1 LI 0.028700
27 C11 6.1280 6.1120 0.5790 CA 1 LI -0.289900
28 H10 7.0900 5.8350 1.0020 HA 1 LI 0.168600
29 C9 5.9320 7.3920 0.0840 CA 1 LI 0.098800
30 C8 4.6650 7.7150 -0.4580 CA 1 LI -0.135800
31 H7 4.4940 8.7150 -0.8470 HA 1 LI 0.143500
32 C6 3.6470 6.7840 -0.5040 CA 1 LI -0.238100
33 H5 2.6810 7.0340 -0.9270 HA 1 LI 0.153800
34 C4 7.0290 8.4250 0.1130 CT 1 LI -0.153300
35 H3 7.2780 8.7600 -0.9010 HC 1 LI 0.062300
36 H2 6.7190 9.3110 0.6780 HC 1 LI 0.062300
37 H1 7.9390 8.0310 0.5730 HC 1 LI 0.062300
38 S 1.2800 4.7800 -0.8300 s2 1 LI -0.414700
Table S51. Mol2 file of the TPT3 base.
1 O3' 0.0000 0.0000 0.0000 OS 1 LI -0.553000
2 P 5.4610 1.6570 0.4570 P 1 LI 1.219500
3 O1P 6.4670 0.5850 0.5010 O2 1 LI -0.793300
[S69]
4 O2P 5.6950 3.0090 -0.0710 O2 1 LI -0.793300
5 O5' 4.1460 1.0220 -0.2950 OS 1 LI -0.487300
6 C5* 3.0630 1.8940 -0.6300 CT 1 LI 0.015500
7 H5*1 3.3350 2.5470 -1.4700 H1 1 LI 0.073100
8 H5*2 2.7820 2.5210 0.2280 H1 1 LI 0.073100
9 C4* 1.8610 1.0580 -1.0320 CT 1 LI 0.125300
10 H4* 1.0170 1.7320 -1.2170 H1 1 LI 0.098800
11 O4* 2.1510 0.3490 -2.2510 OS 1 LI -0.395100
12 C1* 1.9810 -1.0480 -2.0720 CT 1 LI 0.258000
13 H1* 1.0420 -1.3820 -2.5140 H2 1 LI 0.036700
14 C2* 2.0240 -1.2900 -0.5610 CT 1 LI -0.031900
15 H2*1 3.0630 -1.3900 -0.2350 HC 1 LI 0.023900
16 H2*2 1.4720 -2.1910 -0.2810 HC 1 LI 0.023900
17 C3* 1.4300 -0.0000 0.0000 CT 1 LI 0.167200
18 H3*2 1.8140 0.2330 1.0000 H1 1 LI 0.064100
19 N 3.0520 -1.7600 -2.8020 NC 1 LI 0.116700
20 C 2.7780 -3.0330 -3.2970 CA 1 LI 0.029700
21 C10 3.8690 -3.6110 -4.0100 CB 1 LI -0.027100
22 C9 5.1240 -3.0030 -4.1620 CB 1 LI 0.366400
23 C8 5.3250 -1.7280 -3.5640 CA 1 LI -0.321300
24 H 6.2780 -1.2150 -3.6240 HA 1 LI 0.185600
25 C7 4.2820 -1.1510 -2.9030 CA 1 LI -0.145000
26 H6 4.3470 -0.1880 -2.4180 H4 1 LI 0.192500
27 C5 6.0290 -3.8170 -4.9190 C* 1 LI -0.443200
28 H4 7.0480 -3.5340 -5.1530 HA 1 LI 0.214500
29 C3 5.4520 -4.9940 -5.3090 CA 1 LI -0.068600
30 H2 5.9090 -5.7830 -5.8910 H4 1 LI 0.211800