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1 ive P1 site forms a hydrogen bond and not an ionic bond.
2 iodine ions via the formation of strong Cd-I ionic bonds.
3 s different than covalent/polar-covalent and ionic bonds.
4 otential, and abilities to form covalent and ionic bonds.
5 n the Cu(100) surface to form Na-carboxylate ionic bonds.
6 e distinction of CSBs vis-a-vis covalent and ionic bonds.
7  clusters that are stabilized by hydrogen or ionic bonds.
8 than GA-CLEA owing to the presence of weaker ionic bonds.
9 terials but 1 angstrom more than covalent or ionic bonds.
10 ostatic interactions, involving hydrogen and ionic bonding.
11 s, which passivate defects due to the strong ionic bonding.
12               Favorable alignment and strong ionic bonding across the interface of partially fracture
13 onate through a hydrogen bond rather than an ionic bond and that this interaction is much less import
14 howed that this interaction relies mostly on ionic bonds and does not involve the two C-terminal cyst
15         We suggest that the extensive set of ionic bonds and H-bonds between PsaC and the PsaA/PsaB h
16        Comparable strength of intermolecular ionic bonds and intramolecular covalent bonds has been a
17 rms of sigma- and pi-donor covalent bonding, ionic bonding, and solvent effects.
18 ving local loss of hydrophobic interactions, ionic bonds, and helical structure, leads to Urc inactiv
19 to decrease in net charge, loss of potential ionic bonds, and interference with H bonds.
20 o bonds with significant covalent character, ionic bonds are of limited use for the spatial structuri
21  systems forming dative-covalent rather than ionic bonds, as exemplified here by NH(3) and CO, mu(S)
22 consistent with the disruption of a critical ionic bond at the active site.
23               The formation of a carboxylate ionic bond at the interface is characterized both with A
24  formation of hydrogen bonds and carboxylate ionic bonds at the interface are observed.
25 tive humidity), an increase in the amount of ionic bonds at the interface is observed.
26                                           An ionic bond between Lys-313 and Glu-309 appears to stabil
27 ant of h beta 2m was engineered to create an ionic bond between the heavy chain and beta 2m.
28 of a single critical interaction, the buried ionic bond between the phosphate of the pTyr and Arg bet
29 ative cell walls was dominated by the strong ionic bonding between the surface amine groups of CDs an
30                     We also predict that the ionic bonding cannot be sustained under extreme compress
31                                   Currently, ionic bonding dominates the battery chemistry.
32                           Restoration of the ionic bond, E/K, eliminates most of these problems.
33 er of charged amino acids with potential for ionic bond formation between oppositely charged partners
34  an increased wet adhesion through increased ionic bond formation.
35                        In the absence of the ionic bond forming contacts R52(C) or R65(C), a markedly
36 tion of oxygen vacancies weaken the covalent/ionic bonds, giving rise to the unexpected plasticity.
37 e, nanosized (346-nm) complexes with GFX via ionic bond, hydrogen bond, and hydrophobic interactions.
38 ace chemistries-including hydrophobic bonds, ionic bonds, hydrogen bonds, self-assembled monolayers,
39  VHS domains suggests that this intrapeptide ionic bond in solution may reduce the change in binding
40 A167R double mutant, which re-establishes an ionic bond in the opposite orientation, reverses this po
41                                              Ionic bonding in supramolecular surface networks is a pr
42  is the local electric field that breaks the ionic bonds in mixed-halide nanocrystals, which could be
43 GF) spreading and attachment, as affected by ionic bonding interactions, may facilitate cell orientat
44 h as NaCl are non-polar due to directionless ionic bonding interactions.
45 sical linkage theory indicates that a single ionic bond is prominent.
46                                   The formed ionic bond is stable up to 5 Torr water vapour pressure
47                            Formation of this ionic bond is the basis of zymogen activation for the ch
48 anic salts(3-5), in which the intermolecular ionic bonding is less directional.
49                                 Their strong ionic bonding nature results in highly dynamic crystal l
50 nvolve the design of crystal structures with ionic bonding networks and low cohesive energies.
51 bundance of C=O in the CDs, the formation of ionic-bond networks around the CDs, and the spatial conf
52 ral rigidity to the tissue through extensive ionic-bonding networks; this matrix is highly permselect
53              This work demonstrates that the ionic bond of Sm(II) with cyclononatetraenyl (eta(9)-C(9
54                             Such directional ionic bonds offer an alternative to hydrogen bonds and o
55 llular structures are shaped by hydrogen and ionic bonds, plus van der Waals and hydrophobic forces.
56                                 Covalent and ionic bonds represent two fundamental forms of bonding b
57 alyse RG-II dimerization via co-ordinate and ionic bonding respectively (possible and impossible, res
58        We conclude that the variation of the ionic bonding strength of Ag toward different reactants
59 n 2-4 A of the arginine, forming a favorable ionic bond that is largely unaltered upon activation.
60 ibe a predictable directional orientation of ionic bonds that contain concave nonpolar shields around
61 tates is difficult because they tend to form ionic bonds that limit magnetic exchange coupling.
62 tural and dynamic roles; in particular, four ionic bonds that open in a sequential, zipper-like fashi
63 caine analogs has been assumed to provide an ionic bond to the aspartic acid residue on the dopamine
64 trong guest-host interaction beyond the pure ionic bonding, where a large extent of covalency may exi
65 ough an additional lysine-phosphate backbone ionic bond which makes a significant contribution to the
66 g due to their inherently strong covalent or ionic bonding, which usually leads to material crazing a
67 thetic sequence by replacing an interhelical ionic bond with a covalent bond.
68  (D53) conserved in both beta 2ms to form an ionic bond with arginine residues at positions 35 and 48
69 e that the guanido group of Arg-120 forms an ionic bond with the carboxylate group of arachidonate an
70 s significant covalent Ir-B bonding and weak ionic bonding with charge transfer from B(3) to Ir, and
71 abilize H1 in PrP(C) yet form intermolecular ionic bonds with adjacent PrP molecules during conversio
72 th activation, the Asp3.49(138)-Arg3.50(139) ionic bond would break, and the unrestrained Arg would b
73 salts form anisotropic polar structures with ionic bonding, yet covalent-like directionality, akin to