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1 e original bond lengths and angles and omega dihedrals).
2  transannular C-C bond and an increased flap dihedral.
3 ilament long axis, giving the whole filament dihedral 32-point group symmetry.
4  (PTP) moieties to twist (anthracene subunit dihedral, 69 degrees); the interlocked, helical, homochi
5 on similar to that of B-form DNA, with small dihedral adjustments due to the larger circumference of
6                                        DIAL (dihedral alignment) is a web server that provides public
7 er adopt an unusual structure in which their dihedrals alternate between left- and right-handed Ramac
8 ng an alignment that accounts for (i) pseudo-dihedral and/or dihedral angle similarity, (ii) nucleoti
9                      Instead, at low forces, dihedrals and angles, as the softer degrees of freedom a
10 eometry by determining bond lengths, angles, dihedrals and rotamers.
11  transition rates by changing the entropy of dihedrals and/or the enthalpy of contacts.
12  of tilt, increased rotation about the O2-C2 dihedral, and a greater sampling of non-TG exocyclic con
13 ibutions of rigid-body (Cartesian), backbone dihedral, and contact motions to transition-state (TS) p
14  Si-C bonds due to twisting of the C-Si-Si-C dihedral angle (163.6 degrees ).
15 along the coordinate of the central ethylene dihedral angle (theta) from the cis Franck-Condon region
16 he Haasnoot-Altona equation to calculate the dihedral angle (varphi) between the respective vicinal p
17 n at one end and a hexagon at the other, the dihedral angle about the edge increases, producing a dih
18 nformational reorganization of the distorted dihedral angle and distance between amide units at chemi
19 required to accurately evaluate the glycosyl dihedral angle and the anomeric ratio.
20 troscopy NMR studies suggest that the biaryl dihedral angle and the electronic nature of ortho-substi
21 he correlation (P < 0.001) between the dione dihedral angle and the preferential inhibition of either
22 g dynamics, water permeability (p(f)), and a dihedral angle are defined as functional order parameter
23              The reverse system has a larger dihedral angle as well as a modified spatial relationshi
24 ations can arise either because of incorrect dihedral angle assignments or secondary structural prope
25 ransition state also suggests that a minimum dihedral angle between C-H bonds and Pd-OAc bonds is cru
26                                By fixing the dihedral angle between different sets of vicinal protons
27 ndence of the charge-transfer rates upon the dihedral angle between donor and acceptor stilbenes.
28                                          The dihedral angle between the beta-H and nitroxyl O bonds i
29                  Because this depends on the dihedral angle between the lone pair and the C-H, a furt
30 d dissolved PCB was assumed to depend on the dihedral angle between the phenyl rings.
31   These structural studies indicate that the dihedral angle between the two planes formed by the two
32 he distance between the chromophores and the dihedral angle between their transition dipoles [Deltaep
33  the unusual match between residue-level PP2 dihedral angle bias in the unfolded state and PP2 helica
34                                              Dihedral angle changes suggested by molecular dynamics s
35 n energies identify a region for C4-C5-C6-N2 dihedral angle changes where deshielding of C4 is correl
36          The distributions of the side-chain dihedral angle chi(1) of Val and Thr in proteins of know
37 itative understanding of why some side-chain dihedral angle combinations are highly populated and oth
38 cids in peptides and proteins adopt specific dihedral angle combinations; however, we still do not ha
39  (13)C chemical shift variations in terms of dihedral angle conformation changes.
40  distal end chain order with primarily trans dihedral angle conformations.
41  distal end chain order with primarily trans dihedral angle conformations; the extension of these ord
42 ogen bonding, residual dipolar coupling, and dihedral angle constraints were used to calculate a set
43                      Using both distance and dihedral angle constraints, the structure of microcrysta
44 eine disulfides has significant distance and dihedral angle constraints.
45 5, in addition to changes of the C4-C5-C6-N2 dihedral angle could be consistent with visible absorpti
46 ficant out-of-plane twist of the H-C14-C15-H dihedral angle could be observed.
47 ometric constraint-exclusion of head-to-tail dihedral angle discrepancies (DADs)-explains this limite
48 posed that fullerene cages with head-to-tail dihedral angle discrepancies do not self-assemble.
49  angle about the edge increases, producing a dihedral angle discrepancy (DAD) vector.
50 and n variables, where the equations set the dihedral angle discrepancy about different types of edge
51 ose of this study was to analyze and compare dihedral angle distribution functions of the side chains
52                             To calculate the dihedral angle distribution functions, the configuration
53      The 2D spectra are well simulated using dihedral angle distributions around the average values (
54 ntrast, we show that the observed side-chain dihedral angle distributions for both Val and Thr can be
55 odel predictions and the observed side-chain dihedral angle distributions for Leu and Ile.
56 observe striking differences in the backbone dihedral angle distributions for the protein unfolded un
57 ates how the force dependence of the protein dihedral angle distributions give rise to the worm-like
58 l transmission in peptides and proteins from dihedral angle dynamics observed in extended molecular d
59         We systematically investigate small (dihedral angle flips in a protein), large (nucleosome ta
60 proteins arising due to intrinsic varphi-psi dihedral angle fluctuations dictate the course of protei
61                                          The dihedral angle for the Pd(diphosphine)(2) complexes vari
62                         A profound change in dihedral angle from trans-planar((OCCF)) to cis-planar((
63  UVRR nuW3 mode with the tryptophan chi(2,1) dihedral angle has been extended to a full, 360 degrees
64  energy profile generated by varying the psi dihedral angle in Ace-Pro-NMe indicates that the conform
65 sed conformational energy of the C4-C5-C6-N2 dihedral angle in the intact protein in the Pr state.
66 ith suitable bridge lengths, a change in the dihedral angle induced a switch of the binaphthyl units
67                                 The Os-C-C-H dihedral angle is 106.7(2) degrees , indicating that the
68                                    The RNCNR dihedral angle is approximately 0 degrees for even-numbe
69  known structures indicate that the U-O(2)-U dihedral angle is inherently bent.
70 membered lactone the smallest Pd/endo-beta-H dihedral angle is observed for a conformer with a compar
71 yramidal coordination, where the Cl-Si-Si-Cl dihedral angle is twisted by 43.3 degrees (calcd 45.9 de
72 he side chains undergo larger changes in the dihedral angle most distant from the backbone.
73  rapid algorithm using only single (phi,psi) dihedral angle moves also generates tertiary structures
74 -ribosyl ring pucker and the O5'-C5'-C4'-O4' dihedral angle near 60 degrees .
75 e rotation around the F-C-S horizontal lineO dihedral angle of (fluoromethyl)methyl sulfoxide was eva
76 onformation for ribose and a H1'-C1'-C2'-H2' dihedral angle of 53 degrees at the transition state.
77 rbenium-ion corresponding to H1'-C1'-C2'-H2' dihedral angle of 70 degrees.
78 , BIT-(NHexyl)2 is a twisted molecule with a dihedral angle of 78 degrees between the charged planes.
79  texturally equilibrated pore network with a dihedral angle of approximately 85 degrees .
80                                            A dihedral angle of around +40 degrees is the best represe
81                                 The U-O(2)-U dihedral angle of the peroxo bridge is tuned by the size
82 he atomic position data as a function of the dihedral angle of the rotator.
83  angle theta (Y = O, N, C) and lone pair-PYC dihedral angle omega shows similar theta,omega surfaces
84         Without exception, all of the mobile dihedral angle pairs in ubiquitin with sizable dynamics
85  This conclusion arises from considering the dihedral angle patterns within hexamers belonging to nat
86 articles interact via harmonic potential and dihedral angle potential and are subject to a constant a
87                     Two-dimensional distance-dihedral angle probability distributions in a third phar
88  whose value signals the extent to which the dihedral angle propensities differ from typical structur
89  of predicted and observed [/psi] main chain dihedral angle propensities.
90 of predicted and observed phi/psi main chain dihedral angle propensities.
91 occurs mainly through tilting of the Si-O-Si dihedral angle rather than shortening of the Si-O bond,
92 ank shows that sterically hindered ranges of dihedral angle reduce the possible chi(2,1) to one or tw
93 r modeling based on NMR-derived distance and dihedral angle restraints and molecular dynamics calcula
94 mics calculations restrained by distance and dihedral angle restraints obtained from NMR spectroscopy
95 collagen model peptides provide distance and dihedral angle restraints that allow determination of mo
96 d in combination with (1)H-(1)H distance and dihedral angle restraints to determine the protein backb
97 tions restrained by NMR-derived distance and dihedral angle restraints.
98  for the extraction of a set of distance and dihedral angle restraints.
99  particular, a more acute O(oxo)-Mo-S(Cys)-C dihedral angle results in increased cysteine thiolate S
100 ns indicate that intrachain interactions and dihedral angle rotation correlate with the presence of i
101 recaptured to a large measure using backbone dihedral angle sampling that includes nearest neighbor e
102 that accounts for (i) pseudo-dihedral and/or dihedral angle similarity, (ii) nucleotide sequence simi
103      Configurational entropies determined in dihedral angle space for each amino acid type are accura
104 ackbone torsional mobility in the varphi-psi dihedral angle space, we used a model intrinsically diso
105 oupling constants both as a function of PYCH dihedral angle theta (Y = O, N, C) and lone pair-PYC dih
106 is sequentially added to tune the inter-ring dihedral angle theta between the bipyridine and the aryl
107  bulk significantly increases the inter-ring dihedral angle theta, is attributed to the effects of li
108 en and the unpaired electron at C2 shows the dihedral angle to be 6 degrees, unlike the value of 77 d
109 ng the U-O(peroxo) bonds causes the U-O(2)-U dihedral angle to be bent, and it is this inherent bendi
110 f XAO, where, for each residue, the backbone dihedral angle varphi was constrained by using the repor
111 delocalization to hopping occurs at a unique dihedral angle where the electronic coupling (Hab ) is o
112 ed twisting of the Cbeta-Calpha-Calpha-Cbeta dihedral angle within the morpholine moieties.
113  cis-chelating phosphine ligands (41 degrees dihedral angle) via a restricted alkyne-terminal startin
114 correlates (3)J(PH) with phosphorus-hydrogen dihedral angle, a recently reported glycine-derived 1,3,
115 22 A based on 51 NOE, 6 hydrogen bond, 6 phi dihedral angle, and 3 disulfide bond constraints.
116 lide at the G7C8.C18G17 base pair step, G6G7 dihedral angle, and overall bend angle.
117 ation enhancement (PRE) distance restraints, dihedral angle, small-angle X-ray scattering, residual d
118 s follow a squared cosine trend with varying dihedral angle.
119  stereochemistry, and flexibility in the psi dihedral angle.
120 al cation followed by a decrease in the flap dihedral angle.
121 ith a single repetitive (+)-gauche interunit dihedral angle.
122 ations of the pKa as a function of the C6-C7 dihedral angle.
123 vealed no preferred C-X...C horizontal lineO dihedral angle.
124 in contains three bonds, two angles, and one dihedral angle; effective harmonic bonds are used to des
125                               The side-chain dihedral-angle accuracy of the program is comparable to
126 proximately 70% of both the distance and the dihedral-angle constraints, and possesses the characteri
127 lems within the molecules as well as updated dihedral-angle diagnostics, and it can calculate and dis
128  (MC) motions [represented by coarse-grained dihedral angles (CGDAs) gamma(n) based on four successiv
129                     The analyses yielded the dihedral angles (phi(12), psi(12)) = (-70 degrees, 155 d
130         Further analysis of the Ramachandran dihedral angles (phi, psi) reveals that the residues ado
131 ve amino acids with more than two side-chain dihedral angles (R, K, E, Q, and M).
132 n folding using the distribution of backbone dihedral angles (varphi,psi) obtained from an experiment
133 ransition states correspond to flattening of dihedral angles about specific imine bonds.
134 a pentagon to a hexagon has a DAD, since the dihedral angles about the edge broaden from its pentagon
135 ng for control of the omega, varphi, and psi dihedral angles adopted by the systems.
136 ameter metric based on the comparison of the dihedral angles along all edges of the coordination poly
137 In the simulations, the sampling of all five dihedral angles along the linker was enhanced, so that b
138 lues of the probabilities of the most likely dihedral angles along the sequence.
139                                          The dihedral angles alpha = angle(C1-C2-C3-N4) and beta = an
140 eta but also coupled changes in the backbone dihedral angles alpha and gamma.
141 diyne-bridged oligomers, where the preferred dihedral angles amount to roughly 30 degrees and 0 degre
142 ents, including 41 restraints on 19 backbone dihedral angles and 35 (13)C-(15)N distances between 3 a
143  these two regions allows for variability in dihedral angles and concomitant differences in chain con
144 ar the target base in position to rotate the dihedral angles and flip the base out of the DNA duplex.
145 ly rich with information about both backbone dihedral angles and hydrogen bonding.
146                Analysis of putative backbone dihedral angles and N- to C-terminal dipeptide distances
147 erize the various properties of the backbone dihedral angles and secondary structural motifs of the g
148                Greater variation in backbone dihedral angles are accessible in peptoids featuring tra
149 nformer families differing in characteristic dihedral angles are identified within a range of 16 kcal
150          Long side chains with three or more dihedral angles are often subject to large conformationa
151      "Twisted" amides containing nonstandard dihedral angles are typically hypersensitive to hydrolys
152 f high-quality correlation plots between the dihedral angles around a residue and those between seque
153 tructure with the same energy, for which the dihedral angles around the flexible ring have opposite s
154 ts deviate significantly from planarity with dihedral angles around the imide group reaching ca. -150
155  unique Archimedean solid with all edges and dihedral angles being equal, the icosidodecahedron, and
156 ations of residue triplets and depend on the dihedral angles between consecutive residues.
157 </=kBT, likely controlled by the movement of dihedral angles between monomer units.
158 oops 3 and 5 have ribbon-like structure with dihedral angles between neighboring rings near zero.
159 to the Pd-aryl bond were correlated with the dihedral angles between Pd and endo-beta-H.
160  of electronic coupling is controlled by the dihedral angles between the terephthalate C6 ring and th
161 drogen atoms on the ring with identical PNCH dihedral angles but measured coupling constants of appro
162                           Examination of the dihedral angles changes upon ligand binding shows that t
163  library, the backbone preferentially adopts dihedral angles consistent with the polyproline II confo
164            (2) To what extent are the native dihedral angles determined by local (dihedral) potential
165  B(I) and B(II) associated with the backbone dihedral angles epsilon and zeta but also coupled change
166 ally stable, and we find good agreement with dihedral angles estimated from solid-state NMR experimen
167 ackbone is highly extended, with phi and psi dihedral angles favoring the beta or P(II) regions.
168 (2,1)) over 360 degrees results in up to six dihedral angles for a given nuW3.
169     This was unexpected because the range of dihedral angles for arginine is limited relative to glyc
170            Consideration of a Newman plot of dihedral angles for proteinaceous tryptophans taken from
171 approach also produces geometric parameters (dihedral angles for the beta-methylene hydrogens) that s
172                   Calculation of psi and phi dihedral angles from the chemical shift assignments indi
173 nds containing biaryl backbones with smaller dihedral angles generate catalysts that react with highe
174               Short residues with one or two dihedral angles had higher correlations and smaller Manh
175 landscape as a function of the corresponding dihedral angles has been determined for each glycosidic
176 tions show that variation of the histidines' dihedral angles in coordinating Cu controls the coupling
177 ith the observed distributions of side-chain dihedral angles in proteins of known structure.
178 onic effects that preorganize the main-chain dihedral angles in the conformation found in the triple
179 olves the trans to gauche transitions of the dihedral angles in the GAAA tetraloop.
180 lymers as a result of covalently constrained dihedral angles in the substituents (not the backbone),
181 st of the C(15) methine bridge about its two dihedral angles is reversed.
182 a Schellman motif to cap an alpha-helix; its dihedral angles lie in the right side of the Ramachandra
183 ment, measured by phi, psi, chi1, and pseudo-dihedral angles more accurately classify kinase crystal
184 milar for both enzymes, with C3'-C4'-C5'-O5' dihedral angles near -170 degrees .
185                             It is shown that dihedral angles near 90 degrees between the porphyrin pl
186 These "ABA" states correspond to consecutive dihedral angles of -55 degrees /+130 degrees /-55 degree
187 e, previous studies have suggested that some dihedral angles of amino acids in specific regions of th
188 rapharmacophore point distances, angles, and dihedral angles of different analogues spread over wide
189 peptide mimetics to enumerate the side-chain dihedral angles of leucine (Leu) and isoleucine (Ile), a
190        For triaspartate and triglutamate the dihedral angles of phi = -70 degrees, psi = 165 degrees
191                                          The dihedral angles of residues 36 and 37 in an Ile31-Ala42
192 lly do not coincide with canonical values of dihedral angles of residues in parallel or antiparallel
193                               (1) How do the dihedral angles of the 20 amino acids depend on the iden
194                     The determination of the dihedral angles of the central amino acid residue was ac
195 erms of: 1), a local correlation between the dihedral angles of the guest amino acid and the proline
196       An adjustment of the phi, psi backbone dihedral angles of the Ile residue in the eighth positio
197 ular complexes from the distributions of the dihedral angles of the macromolecules.
198 p between Raman frequencies and Ramachandran dihedral angles of the polypeptide backbone indicates th
199 for at least 20 residues) among the backbone dihedral angles of the Q residues.
200 ound between the motions of the two backbone dihedral angles of the same residue.
201  used a basis set that includes all internal dihedral angles of the system with the exception of the
202                                          The dihedral angles of the trisialic acid unit directly inte
203                     The determination of the dihedral angles of the two central amino acid residues w
204 e all down (Cgamma-endo), and the varphi/psi dihedral angles of the Xaa 3(S)Hyp residues are also sim
205 l as the rotation of one or a few side-chain dihedral angles or involve concerted motions in larger p
206 alysis yields structural improvements at two dihedral angles over prior NMR predictions with differen
207 al energy surface corresponding to different dihedral angles phi; three yielded energy minima, and tw
208  related to how specific classes of backbone dihedral angles respond to applied force.
209 ecture combined with thermal fluctuations of dihedral angles results in large variations of local ele
210 ses as a function of the varphi,psi-backbone dihedral angles show that the expected value deviates by
211 e most populated conformers exhibit backbone dihedral angles similar to those of a PPII geometry.
212  an account of conformational changes in the dihedral angles space.
213 , no correlations are found between backbone dihedral angles that are separated by more than one tors
214 rare cases, they involve sequentially remote dihedral angles that form sparse clusters, suggesting a
215 eries of biaryl cation radicals with varying dihedral angles that the hole stabilization shows two di
216 aussian bias is applied with driver bond and dihedral angles to optimize the sampling efficiency.
217             Shorter residues with one or two dihedral angles typically undergo local conformational c
218 d DFT calculations of biaryls with different dihedral angles unequivocally support that a crossover f
219 e that are not as a function of the backbone dihedral angles varphi and psi.
220                                          The dihedral angles varthetaa,a (X-C(1)-C(2)-X/H) of the axi
221 ino acid solvent-accessible surface area and dihedral angles were combined with the RA and PLB to obt
222 he conditional activities between side-chain dihedral angles were computed using the output of micros
223  glycines consistently maintain positive phi dihedral angles within a classic type-I beta-turn.
224 t-mean-square fluctuations, and variation in dihedral angles), and variability in designed structures
225        The method includes flexible bond and dihedral angles, and a Gaussian bias is applied with dri
226 eometry that includes control over position, dihedral angles, and cluster chirality.
227 ecay rates of the angle between the dipoles, dihedral angles, and distance autocorrelations obtained
228 a)-C(alpha) virtual bond lengths, angles and dihedral angles, and the X-ray structure is best-fitted
229 rted here as changes in O-atom locations and dihedral angles, become stronger for larger, more substi
230 calized perturbation in hydrogen bonding and dihedral angles, but the hydrophobic residue of a G4G in
231  a knowledge-based potential for a residue's dihedral angles, considering the identity and conformati
232 nstrate that the mean-square displacement of dihedral angles, defined by 4 successive C(alpha) atoms,
233 interactions with the host hardly affect the dihedral angles, validating that the host is an ideal me
234 alization in this core is inhibited by large dihedral angles, which hinders effective pi overlap.
235 iral structures with a broad distribution of dihedral angles, which may be explored as chiral ligands
236 motifs and the long-range correlation of the dihedral angles.
237 h distinct conformations around the CC-SS-CC dihedral angles.
238 hexamer shape, as defined by subunit-subunit dihedral angles.
239 l J(H-H) coupling constants as a function of dihedral angles.
240 accompanied by strong flattening of the ring dihedral angles.
241 selectivity than related ligands with larger dihedral angles.
242 stance restraints, 12 hydrogen bonds, and 44 dihedral angles.
243  , on average, are observed at all remaining dihedral angles.
244 obtained by rigid rotation of all side-chain dihedral angles.
245 conformation, in agreement with the obtained dihedral angles.
246 f the 1.1-A X-ray structure as input for the dihedral angles.
247 ylene rings, as determined by their relative dihedral angles.
248 ite with restricted rotation of the backbone dihedral angles; however, it does not have a well-define
249 ate, as measured by deviations of side-chain dihedral angles; however, often due to multiple atomic c
250 has mostly been on constraining the backbone dihedral angles; however, the correct orientation of the
251 ethods to improve the prediction of torsion (dihedral) angles of proteins.
252 wing to have at least 20 degrees of negative dihedral (anhedral), all configurations were quite stabl
253 sed tempering method with a high-temperature dihedral bias, we repeatedly folded four helical protein
254 he carbonyl oxygen (N-C horizontal lineO...X dihedrals ca. 90 degrees ).
255 s the tendency for metabolic enzymes to form dihedral complexes, which we suggest is closely related
256  explanation for why allostery is related to dihedral complexes: it allows for efficient propagation
257 ions support the existence of three distinct dihedral conformations that differ drastically in their
258 ser effect-derived distance constraints, 240 dihedral constraints, 160 hydrogen bond constraints, and
259                    With respect to the local dihedral correlations, we find that these are well descr
260  dynamics calculations restrained by NOE and dihedral data obtained from NMR spectroscopy.
261  under physiological temperatures, the C6-C7 dihedral defining the relative orientation of the beta-i
262                     Using mode-following and dihedral-driving techniques, several potential pathways
263  the first normal mode calculation with full dihedral flexibility of several virus capsids, including
264 ment of the ring structures around the dione dihedral indicated that the ability of the compounds to
265 ransitions that are gated by the microsecond dihedral motions of the side chain of R476 and the therm
266 rthermore, the increased number of concerted dihedral moves at physiological conditions suggest that,
267 magnetic hyperfine tensors suggests that the dihedral O horizontal lineFe-Fe horizontal lineO angle o
268  that 6a assumes an anti conformation with a dihedral O horizontal lineFe-Fe horizontal lineO angle o
269 es subtly alter the distribution of backbone dihedral phi,psi angles, most likely resulting in a shif
270 hich considers the joint distribution of the dihedral/planar angles over different lags using a nonpa
271 ods using bivariate lag-distributions of the dihedral/planar angles.
272                          Minimization of the dihedral potential for 125 test proteins reveals that mo
273           We discuss refinement of headgroup dihedral potential parameters to reproduce ab initio con
274  native dihedral angles determined by local (dihedral) potentials?
275 ction arises from concerted, crankshaft-like dihedral rearrangements.
276 mics simulations constrained by distance and dihedral restraints derived from NMR experiments.
277         The (1)H-(15)N RDCs and supplemental dihedral restraints enable the determination of the stru
278      Structures calculated with only NOE and dihedral restraints exhibit a backbone root-mean-square
279 s utilized in the generation of supplemental dihedral restraints for the helical segments.
280 ation, reproduced the 180 degrees varphi-psi dihedral rotation back to the open loop state.
281  and is seen to occur in two steps, namely a dihedral rotation step followed by a side-group packing
282 ly proportional to the timescale of hindered dihedral rotations within the polypeptide chain, with a
283                                              Dihedral scalar coupling constants for the wild-type IL-
284 hibitors and how computational tools such as dihedral scans and docking were used to support this pro
285 pendence of folding propensities on backbone dihedrals, secondary structure is expected to influence
286 lded chain further revealed that hops in the dihedral space provide the dominant mechanism of interna
287                                  In backbone dihedral space, we find that, as expected, backbone fluc
288 ge conformational exchange in the varphi-psi dihedral space.
289 le intermonomer hydrogen bonding and proline dihedral strain energy than the BPT.
290  force field parameters corresponding to the dihedral terms in the potential energy function were obt
291                         Because of the large dihedral, the reversed amidines should have reduced bind
292 ch model continuous flexibility in sidechain dihedrals, to model continuous, appropriately localized
293 e carbon to amidine carbon but a significant dihedral twist across the tricyclic and amidine-ring jun
294 f these chromophores reveals large ring-ring dihedral twist angles (80-89 degrees) and a highly charg
295 ounds with relatively linear shape and large dihedral twist, however, have been found recently to bin
296 uss how the effects of cross-conjugation and dihedral twists affect the electronic gaps.
297  to adopt low symmetry conformations, due to dihedral twists between neighboring porphyrin units, but
298  energy distribution and the C(alpha) pseudo-dihedral variation provide similar information on these
299 iately localized flexibility in the backbone dihedrals varphi and psi as well.
300                                Four backbone dihedrals were identified as important during the openin
301 and G10 at the P-loop and the N-C(alpha)-C-O dihedral (xi) of G60, we further show that three water m

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