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|atomic radius=[[1 E-10 m|197]] |atomic radius calculated=

...}}. This is a result of the increase in chain interactions such as Van der Waals attractions and entanglements that come with increased chain length{{Citati ...e of solution spanned by the polymer chain and scales with the cube of the radius of gyration.<ref>Rubinstein, p. 13</ref>

...olecules (metal-ligand complexes in this case) are thought to be [[van der Waals force]]s, [[pi-pi interaction]]s, [[hydrogen bonding]], and stabilization o ...this case, the dimensionality of the of these structures increases as the radius of the metal increases down the group (from [[calcium]] to [[strontium]] to

|atomic radius=126 |atomic radius calculated=

|atomic radius=[[1 E-10 m|127]] |atomic radius calculated=

|atomic radius=[[1 E-10 m|119]] |covalent radius=[[1 E-10 m|119±4]]

|atomic radius=[[1 E-10 m|128]] |atomic radius calculated=

|atomic radius= 151 |covalent radius= 144±9

|atomic radius=[[1 E-10 m|105]]<ref>{{cite web|url=http://en.wikipedia.org/wiki/Atomic_rad |atomic radius calculated=[[1 E-10 m|112]] <ref>{{cite web|url=http://en.wikipedia.org/wik

|atomic radius=151 |atomic radius calculated=

|atomic radius= |atomic radius calculated=

|atomic radius= 175 |covalent radius= 146±5

...ard enthalpy change can be determined by [[calorimetry]] or by using the [[van 't Hoff equation]], though the calorimetric method is preferable. When both All equilibrium constants vary with [[temperature]] according to the [[van 't Hoff equation]]<ref>

* [[Bohr magneton]], [[Bohr model|model]], [[Bohr radius|radius]] — [[Niels Bohr]] * [[de Haas-Van Alphen effect]] — [[Wander Johannes de Haas]] and [[P. M. van Alphen]]

|covalent radius=[[1 E-10 m|140±9]] |Van der Waals radius=[[1 E-10 m|216]]