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1 substrate, which in turn changes the lateral intermolecular forces.
2  to advance our understanding of fundamental intermolecular forces.
3 en bonds play an essential role in directing intermolecular forces.
4 , polar, and van der Waals-London dispersion intermolecular forces.
5 ture dominate the pressure dependence of the intermolecular forces.
6 functions requires quantitative knowledge of intermolecular forces.
7 ning the balance of attractive and repulsive intermolecular forces.
8 ple synthetic subunits held together by weak intermolecular forces.
9 trostatic interactions, and other long-range intermolecular forces.
10 rs are preorganized by the cage through weak intermolecular forces.
11 finity of the interaction but to the type of intermolecular forces.
12 ly the activation of resonant electrodynamic intermolecular forces.
13 cally aging condensates with nonconservative intermolecular forces.
14 nsition was achieved by subtly adjusting the intermolecular forces.
15 nitude provide consistent information on the intermolecular forces acting on these properties.
16 , has undergone a dramatic development as an intermolecular force analogous to hydrogen bonding (HB).
17     The assemblies are held together by weak intermolecular forces and are dynamic: they form and dis
18  that result depend on the interplay between intermolecular forces and the interaction between adsorb
19 uding reaction rates, product distributions, intermolecular forces, and cavity-mediated vibrational e
20  Hydrogen bonding plays an essential role on intermolecular forces, and consequently on the thermodyn
21 lth of information concerning the structure, intermolecular forces, and dynamics of ionic liquids.
22 r crystals is defined by a balance of weaker intermolecular forces, and small changes to the molecula
23                                              Intermolecular forces are described in the method using
24                                        Weak, intermolecular forces are difficult to observe in soluti
25                   It is well understood that intermolecular forces are directly linked to physicochem
26 ar complexes that self-assemble through weak intermolecular forces are dynamic species, encapsulating
27 , hydration, and elastic interactions to the intermolecular forces associated with bundling of straig
28 d cross-linking of epoxy resin are driven by intermolecular forces at the inorganic surfaces alone, w
29 es are found to have opposite effects on the intermolecular forces; attractions increase with [NaCl],
30              Here, we report measurements of intermolecular forces between collagen helices in native
31 amental interactions by measuring the acting intermolecular forces between mica and metal surfaces mo
32 urface structure and dynamics as well as the intermolecular forces between peptides, providing a numb
33 charge, solvent declustering, and the strong intermolecular forces between RDX molecules in the solid
34 e, internal dynamics, and origin of the weak intermolecular forces between sevoflurane and a benzene
35     This critical thickness is the result of intermolecular forces between solid and liquid, which co
36                            The nature of the intermolecular forces between water molecules is the sam
37             In the present study, we measure intermolecular forces by following CO motion on a micros
38    However, a number of factors unrelated to intermolecular forces can also impact protein diffusion,
39                                          The intermolecular force components theory was used for the
40 logy, with separate repulsive and attractive intermolecular forces determining the extent of DNA comp
41                                 However, the intermolecular forces driving integrin self-association
42 nder the combined actions of dipole moments, intermolecular forces, entropy, and electrodes.
43 ard a better understanding of the prevailing intermolecular forces for supramolecular interactions.
44 theoretical knowledge of the manner in which intermolecular forces give rise to complex behaviour in
45                  The spatial distribution of intermolecular forces governs macromolecular interaction
46 t-adsorbate interaction is only through weak intermolecular forces) has not been identified experimen
47 e of dipole-dipole long-range electrodynamic intermolecular forces; however, these have never been hi
48 tended for the description of solute-solvent intermolecular forces, i.e., dispersion-induction, elect
49 of noncovalent interactions within effective intermolecular force (IMF) range.
50  a catalytic role for C-H/pi interactions as intermolecular forces important to DNA repair.
51 In addition, the reasons for relatively weak intermolecular forces in perfluoroalkanes compared to al
52                                Designing the intermolecular forces in the way that cholesterol intera
53                       We briefly discuss the intermolecular forces involved in the reversible binding
54                                  Modeling of intermolecular forces is a central theme in the physical
55 timate SOA formation, and parametrization of intermolecular forces is needed for accurate predictions
56  phase, a difficult process hampered by weak intermolecular forces, is achieved through polaritons fo
57 es was achieved in one step, allowing direct intermolecular force measurement of the binding of the t
58 change in order was previously inferred from intermolecular force measurements and is now confirmed b
59                          The significance of intermolecular force measurements for understanding the
60  introduced through an internal imbalance of intermolecular forces or an external flux of energy that
61                    Assembly can be driven by intermolecular forces, or molecule-surface forces, or bo
62 ic domains that can provide control over the intermolecular forces, phase preference, and macroscopic
63 e two sites, rather than the strength of the intermolecular forces, play a prominent role in determin
64 the clusters therefore give insight into the intermolecular forces present in liquid water and ice.
65 exation was found to effectively disrupt the intermolecular forces responsible for the aggregation of
66 fficient physicochemical diversity (e.g., in intermolecular forces, structure, and chemical compositi
67 orms adequately except when strong, specific intermolecular forces such as hydrogen bonding between s
68  adhere upon contact with each other through intermolecular forces such as hydrogen bonds, electrosta
69 tics and drive different in-plane piconewton intermolecular forces, suggesting that the binding of VE
70    Detailed understanding and control of the intermolecular forces that govern molecular assembly are
71  conclusions, and accurately reproducing the intermolecular forces that govern system structure and d
72 f SJW1660 flagellar filaments as well as the intermolecular forces that govern their assembly into de
73 pically governed by a subtle balance of weak intermolecular forces that makes structure prediction ch
74                  Quantum fluctuations create intermolecular forces that pervade macroscopic bodies.
75 y its polarizability, which in turn modifies intermolecular forces that play a crucial role in many p
76 complementary surfaces interact through weak intermolecular forces to form assemblies, and the assemb
77 nd negatively charged amino acids on DNA-DNA intermolecular forces was studied using model peptides c
78 orce spectroscopy to quantify the intra- and intermolecular forces within the marine-gel network.