Thermal nanoparticles encapsulation for heat transfer
Systems and methods described herein can provide a thermal interface for an electronic device including: obtaining an enclosure and a circuit within the enclosure, wherein the circuit is disposed within the enclosure such that there is space between the circuit and an internal surface of the enclosure; and positioning a thermally conductive material in the space between the circuit and an internal surface of the enclosure such that the thermally conductive material is in physical contact with an outer surface of the circuit and the internal surface of the enclosure to provide heat transfer from the circuit to the enclosure.
1. An electronic device, comprising:
an enclosure;
a circuit within the enclosure, the circuit disposed within the enclosure such that there is space between the circuit and an internal surface of the enclosure; and
a thermally conductive material disposed in the space between the circuit and an internal surface of the enclosure, and in physical contact with an outer surface of the circuit and the internal surface of the enclosure to provide heat transfer from the circuit to the enclosure, wherein the thermally conductive material comprises a three-dimensional form-in-place thermal encapsulation material and a plurality of thermal nanoparticles packed to fill the space between the circuit and the enclosure to yield a density for increased thermal conductivity and further wherein the plurality of nanoparticles are further packed facilitated by a vacuum pump and a vibrational plate and the plurality of nanoparticles are sealed within the enclosure.
2. The electronic device of claim 1 , wherein the thermal nanoparticles comprise hexagonal boron nitride.
3. The electronic device of claim 2 , further comprising a sealant to seal the thermal nanoparticles within a chassis.
4. The electronic device of claim 3 , wherein the sealant comprises an epoxy that comprises boron nitride.
5. The electronic device of claim 1 , wherein the thermal nanoparticles are aligned using a magnetic field to orient the thermal nanoparticles in a determined orientation.
6. The electronic device of claim 1 , wherein the 3D form-in-place thermal encapsulated material has a bonding strength and provides formed-in-place molding.
7. The electronic device of claim 1 , wherein the thermally conductive material comprises a material with a thermal conductivity of greater than 10 W/m-K.
8. The electronic device of claim 1 , wherein the thermally conductive material comprises a material with a thermal conductivity of greater than 15 W/m-K.
9. The electronic device of claim 1 , wherein the plurality of thermal nanoparticles are packed facilitated by a vacuum pump and a vibrational plate to yield a greater density for increased thermal conductivity.
10. A method for providing a thermal interface for an electronic device comprising:
obtaining an enclosure and a circuit within the enclosure, wherein the circuit is disposed within the enclosure such that there is space between the circuit and an internal surface of the enclosure;
positioning a thermally conductive material in the space between the circuit and an internal surface of the enclosure such that the thermally conductive material is in physical contact with an outer surface of the circuit and the internal surface of the enclosure to provide heat transfer from the circuit to the enclosure, wherein the thermally conductive material comprises a wherein the thermally conductive material comprises a three-dimensional form-in-place thermal encapsulation material and a plurality of thermal nanoparticles and positioning comprises packing the thermal nanoparticles to fill the space between the circuit and the enclosure to yield a density for increased thermal conductivity and further wherein packing the plurality of nanoparticles is facilitated by a vacuum pump and a vibrational plate; and
sealing the plurality of nanoparticles within the enclosure.
11. The method of claim 10 , wherein the plurality of thermal nanoparticles comprises a plurality of magnetically alignable thermal nanoparticles, with the method further comprising:
depositing the magnetically alignable thermal nanoparticles into the space;
using a vacuum pump to provide negative pressure within the space to draw the thermal nanoparticles into the space; and
applying a magnetic field to the thermal nanoparticles in the space during the depositing operation to align the thermal nanoparticles to a desired orientation.
12. The method of claim 11 , wherein the vacuum pump comprises a nanoparticle filter to prevent the vacuum pump from removing some or all of the nanoparticles from the interior of the enclosure.
13. The method of claim 10 , wherein the thermal nanoparticles comprise hexagonal boron nitride.
14. The method of claim 10 , wherein sealing the plurality of nanoparticles within the enclosure further comprises applying a sealant to seal the thermally conductive material within a chassis.
15. The method of claim 14 , wherein the sealant comprises an epoxy that comprises boron nitride.
16. The method of claim 10 , wherein the three-dimensional form-in-place thermal encapsulation material has a bonding strength and provides formed-in-place molding.