Irradiation-resistant cable containing nano material
A technology of radiation-resistant cables and nanomaterials, applied in insulated cables, cables, circuits, etc., can solve the problems of material performance degradation and cracking, and achieve the improvement of thermal insulation performance, corrosion resistance, bonding force, and mechanical properties. Effect
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Examples
Embodiment 1
[0020] A radiation-resistant cable containing nanomaterials, which is prepared by wrapping a copper conductor with an insulating outer layer, and the insulating outer layer is prepared according to the following method:
[0021] Step 1) Weighing the raw materials: take the raw materials according to the weight parts for later use; 1 part of magnesium hydroxide, 1 part of aluminum oxide, 1 part of lithium-based bentonite, 2 parts of attapulgite, 2 parts of light stabilizer, 2 parts of molybdenum disulfide, 3 parts of borax, 5 parts of sodium silicate, 5 parts of nano-silicon carbide, 5 parts of triphenyl phosphate, 6 parts of tri-n-butyl citrate (3-hydroxy-3-carboxyglutaric acid tributyl), polyethylene wax 6 parts, 8 parts of egg shell, 10 parts of brominated polystyrene, 30 parts of chlorinated butyl rubber, 45 parts of EPDM rubber; among them, magnesium hydroxide, aluminum oxide, lithium-based bentonite, molybdenum disulfide and borax The particle size of the nano-silicon car...
Embodiment 2
[0029] A radiation-resistant cable containing nanomaterials, which is prepared by wrapping an aluminum alloy conductor with an insulating outer layer, and the insulating outer layer is prepared according to the following method:
[0030] Step 1) Weighing the raw materials: take the raw materials according to the weight parts for later use; 2 parts of magnesium hydroxide, 2 parts of aluminum oxide, 2 parts of lithium-based bentonite, 3 parts of attapulgite, 3 parts of light stabilizer, 3 parts of molybdenum disulfide, 4 parts of borax, 7 parts of sodium silicate, 7 parts of nano-silicon carbide, 7 parts of triphenyl phosphate, 8 parts of tri-n-butyl citrate (3-hydroxy-3-carboxyglutaric acid tributyl), polyethylene wax 8 parts, 10 parts of egg shell, 12 parts of brominated polystyrene, 40 parts of chlorinated butyl rubber, 55 parts of EPDM rubber; among them, magnesium hydroxide, aluminum oxide, lithium-based bentonite, molybdenum disulfide and borax The particle size is 100 mes...
Embodiment 3
[0038] Performance test of the insulating outer layer of the cable prepared by the process of the present invention:
[0039] 1. Carry out various performance tests for the insulating outer layers of the radiation-resistant cables of Examples 1 and 2 of the present invention, and the specific results are shown in Table 1:
[0040] Table 1
[0041] group Thickness (mm) Volume resistivity×10 -15 (Ω·cm) Oxygen Index(%) Tensile strength (N / mm 2 ) Elongation at break (%) Hardness (A) Example 1 2.0 2.53 34 17.3 377 78 Example 2 2.0 2.57 35 17.6 383 80
[0042] 2. After γ-ray irradiation (radiation dose is 1000kGy), the change of mechanical properties, the results are shown in Table 2:
[0043] Table 2
[0044] group Tensile Strength Retention Rate (%) Elongation retention at break (%) Hardness retention (%) Example 1 96.1 97.4 94.3 Example 2 96.3 97.6 93.9
[0045] Conclusion: The above data show ...
PUM
| Property | Measurement | Unit |
|---|---|---|
| particle size (mesh) | aaaaa | aaaaa |
| particle diameter | aaaaa | aaaaa |
| particle diameter | aaaaa | aaaaa |
Abstract
Description
Claims
Application Information
Login to View More