Anti-magnetic heat-conducting film and preparation method thereof
A heat-conducting film and heat-conducting layer technology, applied in chemical instruments and methods, coatings, layered products, etc., can solve problems such as poor heat dissipation
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[0043] The present invention also provides a method for preparing a diamagnetic heat-conducting film, comprising the following steps:
[0044] A) one side of the substrate is coated with antistatic glue, and cured to obtain a substrate compounded with an antistatic layer;
[0045] B) attaching a peeling film on the surface of the antistatic layer to form the first peeling layer;
[0046] C) plating a layer of metal on the other side of the substrate to form a metal layer;
[0047] D) Coating heat-conducting glue on the surface of the metal layer, and obtaining a heat-conducting layer after curing, heat-conducting particles are dispersed in the heat-conducting glue, and the heat-conducting particles include alumina particles, aluminum hydroxide particles, boron nitride particles and copper-zinc alloy particles one or more of them;
[0048] E) Attaching a release film on the surface of the heat conduction layer to obtain a diamagnetic heat conduction film.
[0049]The present...
Embodiment 1
[0058] On the 50μm thick PET insulating film, apply a 4μm thick antistatic glue with a micro concave roller, and cure it with a UV lamp to obtain an antistatic layer;
[0059] Take a PET film with a thickness of 50 μm, and apply a layer of 10 μm silica gel on one side with a comma-type spatula. After baking and curing, cover the side with the glue on the surface of the antistatic layer to form a peeling layer;
[0060] Plating a layer of metal copper with a thickness of 500nm on the other side of the PET insulating film by sputtering to form a metal layer;
[0061] Coating a layer of thermally conductive adhesive on the surface of the copper metal layer, baking and curing to form a 10 μm thick thermally conductive layer, and finally covering a layer of 50 μm thick release film to obtain a diamagnetic thermally conductive film.
Embodiment 2
[0063] Apply 5 μm thick antistatic glue on the 50 μm thick PET insulating film with a micro concave roller, and cure it with a UV lamp to obtain an antistatic layer;
[0064] Take a PET film with a thickness of 50 μm, and apply a layer of 10 μm silica gel on one side with a comma-type spatula. After baking and curing, cover the side with the glue on the surface of the antistatic layer to form a peeling layer;
[0065] A layer of 300nm thick metal copper is plated on the other side of the PET insulating film by sputtering to form a metal layer;
[0066] Coating a layer of thermally conductive adhesive on the surface of the copper metal layer, baking and curing to form a 25 μm thick thermally conductive layer, and finally covering a layer of 50 μm thick release film to obtain a diamagnetic thermally conductive film.
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