Tertio, in potentia et superficies proprietatibus et superficiem statum ipsum nigrum particulas in auxilium .
Superficiem Chemica de Carbon Nigrum particulas, in asperitatem superficiei particularum, et crystallina statum carbonis nigrum habent quaedam potentia in reining effectus . et sulfonium nigrum et hydroquincanization in superficie Nigrum et exhibet et Vulcanization de Carbon Nigrum in Knefofi Efféctus {{I}}
Quartum, impulsum carbonis nigrum variables in efficaciam de auxiliis!
The amount of carbon black in the rubber can significantly affect the physical and mechanical properties of the vulcanized rubber. Practice has shown that hardness, tensile strength and heat build-up increase monotonically with the increase of carbon black. The rebound rate, elongation, and the like appear to decrease monotonously. Tensile strength, tear strength, and wear resistance are maximized with the increase of carbon black, and the better the reinforcement, the more obvious the maximum value appears. With the increase of the amount of carbon black, the wear resistance of vulcanized rubber is significantly enhanced at the beginning. After increasing to the maximum value, the carbon black is increased again, and the wear resistance is no longer changed significantly. When the total specific surface area of the carbon black in the rubber is equal, the Carbon Nigrum maior particulas habet melius gerunt resistentiam et minor particulas habent minus gerunt resistentia, quae est ad dispersionem de carbonis nigrum in Flexilis, {VII}} {{simplicium, ita reducendo {}} {{in tantum reducendo, quod corpus reducendo {{VIII}}
Et moles ipsum Nigrum etiam habet significant effectus in electrica conductivity de Vulcanized Flexilis {. Cum moles augetur, electrica resistentibus in Vulcanized rubber est significantly reducere {I}}
{5. Processus perficientur carbonis nigrum et rubber,
Et Basic proprietatibus Carbon Nigrum et effectum in mixtione carbonis nigrum rubber sunt valde significant, {. ex diversis proprietatibus aliter ad alium, et varia et dispersion est in alium Mamoney et aliter, et variis et structure, {II}} particula magnitudine et superiore structuram, iam in permixtione tempus requiritur {{III}} Carbon nigrum cum parva particula et low a low est in structuram effectus, et particula, non multum alium {{VI} et particula, quod est humilis, {{VI}
Carboni nigrum eget gluten ponitur in solvendo, et est ex parte insolubilis gel particula, quae est compositum de carbonis nigrum et rubber, quod est ad genus et moles, {{{I}}, quod est in modum carbonis, quod est in tantum in modum carbonis, quod genus est in modum carbonis, quod genus est in tantum, quod est mensura ex effectu carbonis nigrum in Flexilis confirmare {{II}} et gel est a Flexilis Macromolecule, quod est cum carbon nigrum post fractum, et captures et a wonds atomi ad Flexilis et carboni et a physica, {{{{}} particula magnitudine et structuram de ipsum nigrum habent a significant effectus in facultatem ad formare gel, cum maioris influentia in gradu structuram {{V}}, quod minora est ad altum est ad gelum, quod est in low}} Unsaturation {{VIII}} moles gel produci variat cum genus rubber {{IX}} naturalis gel, styerene butadiene rubber, butadiene et Neoprene frugibus ethylene, quod est fere unsaturatione et in Xf, {gel, {{}} et caliditas Flexilis est etiam propinqua ad moles ipsum nigrum gel {XII}} ad altum temperaturis, in gel est promoted {{}} in mixtione in Flexilis {}}}}}}}}}}, et ad Flexilis est ad Flexilis est in Technology Mooney viscosity rubber compound often causes difficulties in the processing. The viscosity change of the carbon black rubber compound has a direct relationship with the carbon black gel. The larger the gel in the carbon black rubber compound, the higher the Mooney viscosity of the rubber compound. The finer the carbon black particle size, the higher the structure and the higher the dosage, the higher the Viscositas de Flexilis compositi {, {}}}}, quod haec factores promovere gel formationem {XXI}}