Vulcanisation of car tyres
Vulcanisation of car tyres
Vulcanisation of car tyres
Vulcanisation of car tyres
In the case of elastomers, the term ‘vulcanisation’ is used instead of ‘crosslinking’. Radiation vulcanisation of a number of elastomers and elastomer products has found wide industrial application.

The most successful from a practical point of view has been the pre-irradiation of blanks of individual tyre components - treads, carcasses, sidewalls, etc. - before assembly, moulding and forming. - before assembly, moulding and thermovulcanisation.


In the case of elastomers, the term ‘vulcanisation’ is used instead of ‘crosslinking’. Radiation vulcanisation of a number of elastomers and elastomer products has found wide industrial application.

The most successful from a practical point of view has been the pre-irradiation of blanks of individual tyre components - treads, carcasses, sidewalls, etc. - before assembly, moulding and forming. - before assembly, moulding and thermovulcanisation.



In the case of elastomers, the term ‘vulcanisation’ is used instead of ‘crosslinking’. Radiation vulcanisation of a number of elastomers and elastomer products has found wide industrial application.

The most successful from a practical point of view has been the pre-irradiation of blanks of individual tyre components - treads, carcasses, sidewalls, etc. - before assembly, moulding and forming. - before assembly, moulding and thermovulcanisation.



In the case of elastomers, the term ‘vulcanisation’ is used instead of ‘crosslinking’. Radiation vulcanisation of a number of elastomers and elastomer products has found wide industrial application.

The most successful from a practical point of view has been the pre-irradiation of blanks of individual tyre components - treads, carcasses, sidewalls, etc. - before assembly, moulding and forming. - before assembly, moulding and thermovulcanisation.



Electron beam processing of tyre components offers important advantages:
1) Increases the cohesive strength of rubber compounds;
2) Improves tread performance;
3) Reduces the use of expensive rubber compound additives;
4) Allows replacement of some natural rubber with synthetic rubber;
5) Reduces overall tyre manufacturing time by 20%;
6) Reduces scrap and waste in production

Electron beam processing of tyre components offers important advantages:
1) Increases the cohesive strength of rubber compounds;
2) Improves tread performance;
3) Reduces the use of expensive rubber compound additives;
4) Allows replacement of some natural rubber with synthetic rubber;
5) Reduces overall tyre manufacturing time by 20%;
6) Reduces scrap and waste in production

Electron beam processing of tyre components offers important advantages:
1) Increases the cohesive strength of rubber compounds;
2) Improves tread performance;
3) Reduces the use of expensive rubber compound additives;
4) Allows replacement of some natural rubber with synthetic rubber;
5) Reduces overall tyre manufacturing time by 20%;
6) Reduces scrap and waste in production

Electron beam processing of tyre components offers important advantages:
1) Increases the cohesive strength of rubber compounds;
2) Improves tread performance;
3) Reduces the use of expensive rubber compound additives;
4) Allows replacement of some natural rubber with synthetic rubber;
5) Reduces overall tyre manufacturing time by 20%;
6) Reduces scrap and waste in production

Electron accelerators with energies of 0.8 to 1 MeV have been and are used as radiation sources. The doses required for treatment, depending on the type of product, vary from 1 to 200 kGy.

Radiation pretreatment of tyre components is widely used by the world's leading manufacturers.

Electron accelerators with energies of 0.8 to 1 MeV have been and are used as radiation sources. The doses required for treatment, depending on the type of product, vary from 1 to 200 kGy.

Radiation pretreatment of tyre components is widely used by the world's leading manufacturers.

Electron accelerators with energies of 0.8 to 1 MeV have been and are used as radiation sources. The doses required for treatment, depending on the type of product, vary from 1 to 200 kGy.

Radiation pretreatment of tyre components is widely used by the world's leading manufacturers.

Electron accelerators with energies of 0.8 to 1 MeV have been and are used as radiation sources. The doses required for treatment, depending on the type of product, vary from 1 to 200 kGy.

Radiation pretreatment of tyre components is widely used by the world's leading manufacturers.

Capacity of one electron-beam unit (~10 kW) - 1 million tyres/year

Capacity of one electron-beam unit (~10 kW) - 1 million tyres/year

Capacity of one electron-beam unit (~10 kW) -

1 million tyres/year

Capacity of one electron-beam unit (~10 kW) -

1 million tyres/year