Lamp assembly with thermal transporter

1. A lamp assembly, comprising:

a housing;

a cover attached to the housing defining a volume;

a light source disposed within the volume; and

a thermal transporter in thermal communication with the light source, the thermal transporter defining a proximal end in thermal communication with the light source and a distal end away from the light source;

wherein the thermal transporter comprises a plurality of graphite sheets structured to transfer heat generated by the light source away from the light source;

wherein each graphite sheet of the plurality of graphite sheets comprises a plurality of graphene sheets, and wherein a space exists between each of the plurality of graphene sheets; and

wherein spaces exist between each graphene sheet of the plurality of graphene sheets, and wherein the spaces are smaller between each graphene sheet of the plurality of graphene sheets at the proximal end of the thermal transporter and are relatively larger between each graphene sheet of the plurality of graphene sheets at the distal end of the thermal transporter.

2. The lamp assembly of claim 1 , wherein the plurality of graphite sheets exhibit a relatively high thermal conductivity in a plane substantially parallel with the graphite sheets and a relatively low thermal conductivity in a direction substantially perpendicular with the plane.

3. The lamp assembly of claim 1 , wherein the light source comprises one or more light-emitting diodes.

4. The lamp assembly of claim 3 , wherein the lamp assembly further comprises a circuit board in thermal contact with the thermal transporter, wherein the one or more light-emitting diodes are attached to the circuit board.

5. The lamp assembly of claim 1 , wherein the thermal transporter is further structured to dissipate the transferred heat to a relatively cool portion of the volume.

6. The lamp assembly of claim 5 , wherein the thermal transporter comprises a proximal end in thermal contact with the light source and a distal end extending into the relatively cool portion of the volume.

7. The lamp assembly of claim 1 , wherein the plurality of graphite sheets are graphene layers, substantially parallel to one another and expanded by intercalation and exfoliation.

8. The lamp assembly of claim 1 , configured as an automotive lamp assembly.

9. The lamp assembly of claim 1 , wherein the light source comprises at least one light-emitting diode comprising a die coupled to a slug, wherein the thermal transporter is coupled to or in thermal communication with the slug.

10. The lamp assembly of claim 1 , wherein the thermal transporter comprises a body portion and at least one leg portion, the body portion positioned at a proximal end of the thermal transporter and configured for placement at or near the light source so to be in thermal communication with the light source, and the at least one leg portion extending from the body portion to a distal end of the thermal transporter, the distal end located away from the light source.

11. A lamp assembly of, comprising:

a light source comprising at least one light-emitting diode; and

a thermal transporter in thermal communication with the light source, the thermal transporter having a proximal end at or near the light source and a distal end away from the light source, the thermal transporter comprising a plurality of graphite sheets structured to transfer heat generated by the light source to the distal end of the thermal transporter away from the light source;

wherein each graphite sheet of the plurality of graphite sheets comprises a plurality of graphene sheets, and wherein spaces exist between each of the plurality of graphene sheets; and

wherein the spaces are smaller between each graphene sheet of the plurality of graphene sheets at the proximal end of the thermal transporter and are relatively larger between each graphene sheet of the plurality of graphene sheets at the distal end of the thermal transporter.

12. The lamp assembly of claim 11 , configured to fit within a housing having a lens attached thereto, the housing configured as a lamp housing.

13. The lamp assembly of claim 11 , further comprising intercalation ions positioned in between at least two graphene sheets of the plurality of graphene sheets.

14. The lamp assembly of claim 11 , wherein the thermal transporter comprises a body portion and at least one leg portion, the body portion positioned at a proximal end of the thermal transporter and configured for placement at or near the light source so to be in thermal communication with the light source, and the at least one leg portion extending from the body portion to a distal end of the thermal transporter, the distal end located away from the light source.

15. A method of dissipating heat generated by a light source, the method comprising the step of:

positioning the thermal transporter of the lamp assembly of claim 11 in thermal communication with the light source; and

operating the light source to generate light and the heat.

16. The method of claim 15 , wherein the thermal transporter and the light source are positioned within a lamp assembly comprising a housing and a cover attached thereto.

17. The lamp assembly of claim 11 , wherein the lamp assembly further comprises a circuit board in thermal contact with the thermal transporter, wherein the at least one light-emitting diode is attached to the circuit board.

18. The lamp assembly of claim 11 , wherein the plurality of graphite sheets are graphene layers, substantially parallel to one another and expanded by intercalation and exfoliation.

19. The lamp assembly of claim 11 , configured as an automotive lamp assembly.

20. The lamp assembly of claim 11 , wherein the at least one light-emitting diode comprises a die coupled to a slug, wherein the thermal transporter is coupled to or in thermal communication with the slug.