Pipeline nuclear radiation shielding bandage
A pipe and bandage technology, applied in the field of nuclear radiation protection, can solve the problems of poor stability, inadaptability to radiation protection of special-shaped components, easy fall-off of lead powder, etc., and achieve the effect of good flexibility and excellent nuclear radiation protection performance
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Embodiment 1
[0024] A lead alloy fiber with a diameter of 0.4mm was selected as the inner core fiber, and 16 lead alloy fibers with a diameter of 150D The carbon fiber is used as the core-spun fiber, and the lead alloy fiber / carbon fiber composite fiber filament with a diameter of 0.5 mm is obtained by automatic core-spun braiding. On an automatic warp and weft or three-dimensional weaving machine, the lead alloy fiber / carbon fiber composite filaments are cross-braided in warp and weft to form a radiation protection inner core layer 1 with a thickness of 1.5mm. A meshed carbon fiber cloth with a thickness of 0.3 mm is put into two layers of thermoplastic polyurethane, and hot-pressed to form a coating layer 2 with a thickness of 0.5 mm. The above-mentioned radiation protection inner core layer 1 with a thickness of 1.5mm is sandwiched between two cladding layers 2 with a thickness of 0.5mm for secondary packaging to make a pipe nuclear radiation shielding bandage with a thickness of 2.5mm....
Embodiment 2
[0026] One lead alloy fiber with a diameter of 0.3 mm and one tantalum alloy fiber with a diameter of 0.1 mm were selected for the inner core fiber; 16 core fibers with a diameter of 150D polyamide fiber, the Automatic corespun braiding A lead alloy fiber / tantalum alloy fiber / polyamide fiber composite fiber filament with a diameter of 0.5 mm was obtained. On an automatic warp and weft or three-dimensional weaving machine, the lead alloy fiber / tantalum alloy fiber / polyamide fiber composite fiber is cross-braided in warp and weft to form a radiation protection inner core layer 1 with a thickness of 1.5 mm. A mesh-shaped nylon cloth with a thickness of 0.3 mm is put into two layers of thermoplastic polyvinyl chloride, and heat-pressed to form a coating layer 2 with a thickness of 0.6 mm. The above-mentioned radiation protection inner core layer 1 with a thickness of 1.5mm is sandwiched between two cladding layers 2 with a thickness of 0.6mm for secondary packaging to make a pip...
Embodiment 3
[0028] One tungsten alloy fiber with a diameter of 0.4mm is selected as the inner core fiber, and 16 tungsten alloy fibers with a diameter of 150D Tungsten alloy fiber / high-density polyethylene fiber composite fiber filament with a diameter of 0.5mm is obtained by automatic core-spun weaving. On an automatic warp and weft or three-dimensional weaving machine, the tungsten alloy fiber / high-density polyethylene fiber composite fiber filaments are cross-braided in warp and weft to form a radiation protection inner core layer 1 with a thickness of 1.5 mm. A mesh carbon fiber cloth with a thickness of 0.3 mm is put into two layers of thermoplastic polyurethane, and hot-pressed to form a coating layer 2 with a thickness of 0.6 mm. A radiation protection inner core layer 1 with a thickness of 1.5mm is sandwiched between two cladding layers 2 with a thickness of 0.6mm for secondary packaging to make a pipe nuclear radiation shielding bandage with a thickness of 2.7mm. The radiation p...
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Abstract
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