G. H. Riding

发表

Improved method for the synthesis of poly(organophosphazenes) and hindered cyclophosphazenes

H. Allcock, P. E. Austin, G. H. Riding, 1983 .

Protonation of μ-alkyne-dimolybdenum complexes: X-ray structure of [Mo2{OC(O)CF3}(CO)4(μ-CHCH2)(η-C5H5)2]

M. J. Winter, S. Knox, G. Taylor, 1980 .

The organometallic chemistry of phosphazenes

H. Allcock, G. H. Riding, J. L. Desorcie, 1987 .

Synthesis of strained ferrocenylorganocyclophosphazenes: x-ray crystal structures of N3P3(OCH2CF3)4(.eta.-C5H4)2Fe, N3P3(OPh)4(.eta.-C5H4)2Fe, and N3P3Ph2(OCH2CF3)2(.eta.-C5H4)2Fe

J. Dodge, H. Allcock, I. Manners, 1991 .

Role of ring strain and steric hindrance in a new method for the synthesis of macrocyclic and high-polymeric phosphazenes

J. Dodge, H. Allcock, I. Manners, 1989 .

Electronic properties and redox conduction of ferrocene-substituted high polymeric phosphazenes

A. Ewing, H. Allcock, R. Saraceno, 1988 .

Electronic properties of phosphazene substituents on ferrocene

A. Ewing, H. Allcock, R. Saraceno, 1988 .

Polymerization of new metallocenylphosphazenes

H. Allcock, G. H. Riding, K. Lavin, 1987 .

Synthesis and structure of transition-metal-bound phosphazenes derived from phosphazene anions

H. Allcock, R. Whittle, Michael N. Mang, 1986 .

A bis(benzene)chromium-bridged cyclophosphazene: x-ray structure analysis of N3P3F4(.eta.-C6H5)2Cr

H. Allcock, M. Parvez, G. H. Riding, 1986 .

A bis-transannular metallocenyl cyclophosphazene. X-Ray crystal structure of N4P4F4[(η-C5H4)2Ru]2

H. Allcock, M. Parvez, G. H. Riding, 1986 .

Metallocenylphosphazene ring systems and high polymers. Reactions of ferrocenyl- and ruthenocenylphosphazenes with lithiometallocenes and the x-ray structures of N3P3F4(.eta.-C5H4)2Fe, [N3P3F3{(.eta.-C5H4)2Fe}{(.eta.-C5H4)Fe(.eta.-C5H5)}], 1,5-N4P4F6(.eta.-C5H4)2Fe, and 1,5,3,7-N4P4F4[(.eta.-C5H4)2R

H. Allcock, M. Parvez, R. Whittle, 1986 .

Ring-opening polymerization of metallocene cyclophosphazene derivatives

H. Allcock, G. H. Riding, K. Lavin, 1985 .

Chromium, molybdenum, and tungsten chlorophosphazenes: molecular structures of N3P3Cl5[Cr(CO)3(.eta.-C5H5)] and N3P3Cl4(C5H5)[Mo(CO)3(.eta.-C5H5)]

H. Allcock, R. Whittle, G. H. Riding, 1984 .

Synthesis and structure of metallocene cyclophosphazene derivatives

H. Allcock, R. Whittle, G. H. Riding, 1984 .

A di-metal sandwich complex: X-ray crystal structure of [Mo2(CO)4(µ-η3,η3′-C8H8)2[

S. Knox, G. H. Riding, F. Kennedy, 1980 .

Synthesis and Structure of Transition-Metal-Bound Phosphazenes Derived from Phosphazene Anions.

H. Allcock, R. Whittle, Michael N. Mang, 1987 .

Role of Ring Strain and Steric Hindrance in a New Method for the Synthesis of Macrocyclic and High Polymeric Phosphazenes.

J. Dodge, H. Allcock, I. Manners, 1989 .

A Bis(benzene)chromium-Bridged Cyclophosphazene: X-Ray Structure Analysis of N3P3F4(η-C6H5)2Cr.

H. Allcock, M. Parvez, G. H. Riding, 1987 .

Electronic Properties of Phosphazene Substituents on Ferrocene.

A. Ewing, H. Allcock, R. Saraceno, 1988 .

Strain-Induced Ring-Opening Polymerization of Ferrocenylorganocyclotriphosphazenes: A New Synthetic Route to Poly(organophosphazenes)

J. Dodge, H. Allcock, I. Manners, 1991 .

Hydrophilic polyphosphazenes as hydrogels: radiation cross-linking and hydrogel characteristics of poly[bis(methoxyethoxyethoxy)phosphazene].

H. Allcock, S. Kwon, R. Fitzpatrick, 1988, Biomaterials.

REACTION OF MONO‐ AND DILITHIOFERROCENE WITH OCTACHLOROCYCLOTETRAPHOSPHAZENE. THE CRYSTAL AND MOLECULAR STRUCTURES OF N4P4CL6((N‐C5H4)FE(η‐C5H5))2 AND N3P3CL4((N‐C5H4)FE(η‐C5H5))N4P4CL7

H. Allcock, R. Whittle, G. H. Riding, 1984 .

Synthesis and structure of small-molecule cyclic phosphazenes bearing ortho-substituted aryloxy and phenoxy substituents

H. Allcock, M. Parvez, K. Visscher, 1992 .

Influence of different organic side groups on the thermal behavior of polyphosphazenes: random chain cleavage, depolymerization, and pyrolytic cross-linking

H. Allcock, I. Manners, G. H. Riding, 1990 .