Thermally conductive and dimensionally stable liquid crystalline polymer composition
A technology of liquid crystal polymers and thermally conductive polymers, applied in liquid crystal materials, heat exchange materials, cooling/ventilation/heating transformation, etc., can solve problems such as poor mechanical properties and inability to apply optical pickup bases
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Embodiment 1-4 and comparative example C-1-C-6
[0072] The compositions listed in Table 1 were prepared and tested according to the methods disclosed above. Examples 1-4 show a combination of properties including good tensile strength, N-Charpy impact, thermal conductivity and isotropic dimensional stability. Comparative Examples C-1-C-6 exhibit at least one aspect of undesirable performance when compared to the Examples.
[0073] Comparative Example C-1 containing talc with an average particle size of 5 μm (less than the 10 μm-100 μm disclosed herein) exhibited significantly lower tensile strength and N-Charpy impact strength than Example 2.
[0074] Comparative Example C-2 containing glass flakes instead of talc A showed significantly lower thermal conductivity (3.7 W / m K) compared to Example 2 (5.0 W / m K); and Comparative Example C- 2 exhibited a lower tensile strength (67 MPa) than Example 2 (78 MPa).
[0075] Comparative Example C-3, in the absence of Talc A, exhibited a TD-MD value of 12 compared to Example 2 which ...
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