Cite

Fig. 1.

Laboratory gamma radiation source (a) and industrial installation with a 10 MeV, 10 kW electron accelerator (b).
Laboratory gamma radiation source (a) and industrial installation with a 10 MeV, 10 kW electron accelerator (b).

Fig. 2.

Radiolytic hydrogen evolution yields after EB and gamma radiation (γ) irradiation.
Radiolytic hydrogen evolution yields after EB and gamma radiation (γ) irradiation.

Fig. 3.

Radiolytic oxygen-uptake efficiencies during irradiation and in postirradiation phenomena after 24 h. EB, 30 kGy.
Radiolytic oxygen-uptake efficiencies during irradiation and in postirradiation phenomena after 24 h. EB, 30 kGy.

Fig. 4.

Radiolytic oxygen-uptake capacities during irradiation and in postradiation aging phenomena.
Radiolytic oxygen-uptake capacities during irradiation and in postradiation aging phenomena.

Fig. 5.

Oxygen-uptake efficiencies determined 1 h after EB and gamma irradiation. Dose of 28 kG.
Oxygen-uptake efficiencies determined 1 h after EB and gamma irradiation. Dose of 28 kG.

Fig. 6.

The melt flow rate of the studied polypropylene and its composites.
The melt flow rate of the studied polypropylene and its composites.

Fig. 7.

Elongation at break (εB) of the studied PP and its composites.
Elongation at break (εB) of the studied PP and its composites.

Fig. 8.

Tensile strength (σM) of the studied samples before and after radiation treatment.
Tensile strength (σM) of the studied samples before and after radiation treatment.

Fig. 9.

Variations in the longitudinal modulus of elasticity (Et) in the studied samples upon radiation treatment.
Variations in the longitudinal modulus of elasticity (Et) in the studied samples upon radiation treatment.

Fig. 10.

Impact strength (acN) of the studied PP and its composites.
Impact strength (acN) of the studied PP and its composites.
eISSN:
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Temas de la revista:
Chemistry, Nuclear Chemistry, Physics, Astronomy and Astrophysics, other