Combined inductor and heat transfer device
An inductor includes a conductor having a first end and a second end, wherein the first end, the second end, or both ends are configured to be mounted on a substrate and configured to receive a heat flow; and one or more magnetic cores surrounding a first portion of the conductor, the first portion of the conductor being intermediate the first end and the second end of the conductor. A second portion of the conductor not surrounded by the one or more magnetic cores is configured to transfer the heat flow from the conductor.
1. An inductor, comprising:
a conductor having a first end and a second end, wherein the first end, the second end, or both ends are configured to be mounted on a substrate and configured to receive a heat flow;
one or more magnetic cores surrounding a length of, forming a closed loop around, and being in continuous contact with a first portion of the conductor, the first portion of the conductor being intermediate the first end and the second end of the conductor;
wherein a second portion of the conductor not surrounded by the one or more magnetic cores is configured to transfer the heat flow from the conductor.
2. The inductor of claim 1 , wherein one or more magnetic cores comprises a recessed portion configured to accommodate the conductor therein, when two or more magnetic cores are coupled together around the conductor.
3. The inductor of claim 2 , wherein the two or more magnetic cores are configured to be coupled around the conductor to form one or more gaps between the magnetic cores.
4. The inductor of claim 1 , further comprising a heat sink disposed on the second portion of the conductor not surrounded by the one or more magnetic cores to transfer the heat flow from the conductor.
5. The inductor of claim 4 , wherein the heat sink comprises a planar base coupled to the second portion of the conductor and at least one fin extending substantially perpendicularly from the planar base.
6. The inductor of claim 4 , further comprising a thermal interface material between the heat sink and the conductor.
7. The inductor of claim 4 , wherein the heat sink is integrated with the second portion of the conductor.
8. The inductor of claim 1 , further comprising a cold plate disposed on the second portion of the conductor not surrounded by the one or more magnetic cores to transfer the heat flow from the conductor.
9. The inductor of claim 8 , wherein the cold plate comprises a container having an inlet and an outlet through which a fluid may flow.
10. The inductor of claim 8 , further comprising a thermal interface material between the cold plate and the conductor.
11. The inductor of claim 8 , wherein the cold plate is integrated with the second portion of the conductor.
12. An inductor, comprising:
a conductive winding, the conductive winding comprising an elongated member having a first end and a second end through which electrical current can flow;
one or more magnetic cores surrounding a length of, forming a closed loop around, and being in continuous contact with a portion of the conductive winding;
wherein a portion of the conductive winding not enclosed by the one or more magnetic cores is configured to conduct heat away from the conductive winding.
13. The inductor of claim 12 , further comprising conductive pads on the first end of the elongated member and the second end of the elongated member, one or both of the conductive pads being configured to receive heat from an electrical component.
14. The inductor of claim 12 , further comprising a heat mitigating element disposed on the portion of the conductive winding not enclosed by the one or more magnetic cores.
15. The inductor of claim 14 , wherein the heat mitigating element is a heat sink.
16. The inductor of claim 14 , wherein the heat mitigating element is a cold plate.
17. The inductor of claim 14 , further comprising a thermal interface material between the heat mitigating element and the conductive winding.
18. A method, comprising:
providing a conductor through a magnetic core, the conductor having a first end and a second end, the first end and the second end configured to be mounted on a substrate, and the magnetic core surrounding a length of, forming a closed loop around, and being in continuous contact with a first portion of the conductor, the first portion of the conductor being intermediate the first end and the second end of the conductor;
conducting current through the conductor with an inductance created by a current loop and the magnetic core;
conducting heat to the conductor; and
transferring the heat away from the conductor.
19. The method of claim 18 , wherein transferring the heat away from the conductor comprises transferring the heat to a heat sink.
20. The method of claim 18 , wherein transferring the heat away from the conductor comprises transferring the heat to a cold plate.