Ceramic flame-retardant material applied to electric insulation molding compound
A ceramic flame retardant and molding compound technology, applied in the field of flame retardant materials, can solve the problems of short circuit, wire and cable breakdown, loss of protection, etc., and achieve the effect of smooth communication
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Embodiment 1
[0017] 100 parts of novolac epoxy vinyl resin with a solid content of 60-65%; 1.2 parts of tert-butyl peroxybenzoate; 0.04 parts of tert-butyl phthalenol; 0.008 parts of p-benzoquinone; 50 parts of aluminum oxide; Chemical powder (mixture), 200 parts; 8 parts of flame retardant masterbatch; 5.2 parts of zinc stearate; 10 parts of non-alkali glass fiber with a length of 6 mm; 15 parts of non-alkali glass fiber with a length of 12 mm.
[0018] Example 1 normal After 4 hours at 350°C Bending strength Mpa 84 112 Flexural modulus 12630 19060 Barcol hardness 62 95
Embodiment 2
[0020] 100 parts of benzene-type unsaturated polyester resin with a resin solid content of 60-65%; 4 parts of tert-butyl peroxybenzoate; 0.05 parts of tert-butyl catechol; 0.006 parts of p-benzoquinone; 0.5 parts of aluminum oxide; Ceramic powder (mixture) 15 parts; flame retardant masterbatch 5 parts; zinc stearate 2.4 parts; alkali-free glass fiber 200 parts.
[0021] Example 2 normal After 4 hours at 350°C Bending strength Mpa 120 115 Flexural modulus 10630 16430 Barcol hardness 55 75
Embodiment 3
[0023] 47.4 parts of bisphenol A epoxy resin; 32.6 parts of phenolic resin; 0.9 parts of tetrahydrophthalic anhydride; 0.5 parts of aluminum oxide; 250 parts of ceramic powder (mixture); 200 parts of alkali glass fiber.
[0024] Example 3 normal After 4 hours at 350°C Bending strength Mpa 154 145 Flexural modulus 14700 18580 Barcol hardness 70 90
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