TreloarLRG, The Physics of Rubber Elasticity, Oxford University Press, Oxford, UK(2005)
2.
JerramsS & MurphyN (eds), Constitutive Models for Rubber VII, Taylor & Francis Group, London, UK(2012)
3.
DavideSA. FocatisDe, HullD. & Sanchez-ValenciaA: ‘Roles of prestrain and hysteresis on piezoresistance in conductive elastomers for strain sensor applications’, Plast. Rubber Compos, 2012, 41, 301–309.
4.
MaliniKA, MohammedEM, SindhuS, KurianP and AnantharamanMR: ‘Dielectric and mechanical properties of rubber ferrite composites’, Plast. Rubber Compos.</emph>, 2002, 31, 449–457.
JhaV, ThomasAG, BennettM and BusfieldJJC: ‘Reversible electrical behaviour with strain for a carbon black filled rubber’, J. Appl. Polym. Sci., 116, 541–546.
7.
RolandCM, Cm: ‘Vagaries of elastomer service life predictions’, Plast. Rubber Compos., 2009, 38(8), 349–354.
8.
BusfieldJJC, JhaV, LiangH, PapadopoulosIC and ThomasAG: ‘Prediction of fatigue crack growth using finite element analysis techniques applied to three-dimensional elastomeric components’, Plast. Rubber Compos.</emph>, 2005, 34, 349–356.
9.
MirzaS, HansenP and HarrisJ: ‘Modelling and durability assessment for rubber components in rail vehicles’, Plast. Rubber Compos., 2011, 40, 183–191.
10.
AsareS and BusfieldJJC: ‘Rubber fatigue life prediction of bonded rubber components at an elevated temperature’, Plast. Rubber Compos., 2011, 40, 192–198.
JuhreD, IhlemannJ, AlshuthT and KlaukeR: ‘Some remarks on the influence of inelasticity on the fatigue life of filled elastomers’, Plast. Rubber Compos., 2011, 40, 178–182.
13.
MarcoY., Le SauxV., CallochS. & CharrierP.: ‘Contribution of accurate thermal measurements to the characterisation of thermomechanical properties of rubber-like materials’, Plast. Rubber Compos, 2012, 41, 277–284.
14.
HuneauB., BeurrotS., VerronE., RublonP., ThiaudiereD., MocutaC. & ZozulyaA.: ‘In-situ synchrotron X-ray diffraction study of strain-induced crystallization of natural rubber during fatigue tests’, Plast. Rubber Compos, 2012, 41, 290–295.
15.
NiiharaK., KanekoT., SuzukiT., SatoY., NishiokaH., NishikawaY., NishiT. & JinnaiH.: ‘Three-dimensional structure of a nanocomposite material consisting of two kinds of nanofillers and rubbery matrix studied by transmission electron micro tomography’, Macromolecules, 2005, 38, 3048–3050.
16.
TunnicliffeLB, ThomasAG and BusfieldJJC: ‘Silica-Rubber Microstructure Visualised in three-dimensions by Focused Ion Beam Scanning Electron Microscopy’, Journal of Microscopy, 2012, 246, 77–82.
17.
KashaniMR and PadovanJ: ‘Modelling reinforcement of rubber with carbon black filler’, Plast. Rubber Compos., 2007, 36, 47–55.
18.
HanJJ, HeXL, GuoWH and WuCF: ‘Effects of filler-rubber interaction on dynamic mechanical properties and reinforcement of NR vulcanisates’, Plast. Rubber Compos., 2007, 36, 149–154.
19.
MorozovI.A., LaukeB., HeinrichG.: ‘Microstructural analysis of carbon black filled rubber by atomic force microscopy and computer simulation techniques’, Plast. Rubber Compos, 2012, 41, 285–289.
20.
MoldenhauerP, NeppR and KrögerM: ‘Dynamic systems with rubber contacts in technical applications’, Plast. Rubber Compos., 2011, 40, 167–172.
21.
DorschV, BeckerA and VossenL: ‘Enhanced rubber friction model for finite element simulations of rolling tyres’, Plast. Rubber Compos., 2002, 31, 458–464.