Power overlay architecture

1. A modular power overlay architecture, comprising:

a first set of power overlay tiles defining a substantially planar arrangement of power switching components arranged on a first substrate and defining a first planar footprint;

a second set of power overlay tiles defining a substantially planar arrangement of power switching components arranged on a second substrate and defining a second planar footprint, the second planar footprint equal to the first planar footprint; and

a substantially planar power overlay assembly base defining an exterior first surface, the exterior first surface defining a set of seats, the set of seats sized to selectively receive a subset of the first set of power overlay tiles, a subset of the second power overlay tiles, or a subset of first and second power overlay tiles, and wherein the subset of the first set of power overlay tiles and the subset of the second set of power overlay tiles are received in a parallel arrangement with the exterior first surface of the substantially planar power overlay assembly base;

wherein the selectively receiving of the subset of power overlay tiles is based on a satisfying a desired power module characteristics and wherein the subset of power overlay tiles are further replaceably interchangeable.

2. The modular power overlay architecture of claim 1 , wherein the power switching components include solid state switching components.

3. The modular power overlay architecture of claim 2 , wherein the solid state switching components are silicon carbide switching components.

4. The modular power overlay architecture of claim 2 , wherein the power switching components further include a set of rectifying components.

5. The modular power overlay architecture of claim 1 wherein each of the first set of power overlay tiles and each of the second set of power overlay tiles includes a first conductive surface of the respective tile electrically connected with the respective power switching components.

6. The modular power overlay architecture of claim 5 wherein the first conductive surface is commonly arranged relative to each of the first and second sets of power overlay tiles.

7. The modular power overlay architecture of claim 5 wherein the first conductive surface defines a source terminal for the respective first and second sets of power overlay tiles.

8. The modular power overlay architecture of claim 5 wherein the respective power switching components of the first and second sets of power overlay tiles are arranged on a second surface of the respective tile, opposite the first conductive surface, and electrically connected with the first conductive surface of the respective tile.

9. The modular power overlay architecture of claim 8 wherein a surface of the power switching component distal from the respective tile defines a drain connection of the power switching component.

10. The modular power overlay architecture of claim 9 , further comprising a second conductive surface overlying and electrically connected with each of the drain connections of the power switching components, defining a power overlay tile drain connection.

11. The modular power overlay architecture of claim 10 wherein the first conductive surface and the second conductive surface are configured to directly connect with the set or subset of first set of power overlay tiles or second set of power overlay tiles by way of non-wire bonded connections.

12. The modular power overlay architecture of claim 11 wherein the first conductive surface and the second conductive surface allow for reduced inductance connections with the set or subset of first set of power overlay tiles or second set of power overlay tiles, compared with wire bond connections.

13. The modular power overlay architecture of claim 1 , wherein the subset of the first set of power overlay tiles and the subset of the second set of power overlay tiles are received in a parallel arrangement with the exterior first surface of the substantially planar power overlay assembly base, whereby the parallel arrangement includes contact between the respective subset of the first set of power overlay tiles and the subset of the second set of power overlay tiles and the exterior first surface.

14. A method of configuring a power overlay architecture, the method comprising:

determining a power overlay architecture demand;

based on the power overlay architecture demand, selecting a set of power overlay tiles from at least two power overlay tile configurations, wherein each of the at least two power overlay tile configurations includes a substantially planar arrangement of power switching components arranged on a substrate and defining a common planar footprint; and

receiving, by a substantially planar power overlay assembly base defining a set of seats arranged at an exterior first surface of the substantially planar power overlay assembly base, the set of seats sized to receive the common planar footprint, the set of power overlay tiles in the set of seats, such that the receiving of the set of power overlay tiles at the seats define a parallel arrangement of the set of power overlay tiles with the exterior first surface, and wherein the receiving of the set of power overlay tiles satisfies the determined power overlay architecture demand.

15. The method of claim 14 wherein each of the set of power overlay tiles includes a first conductive surface of the respective tile electrically connected with the respective power switching components.

16. The method of claim 15 wherein the first conductive surface is commonly arranged relative to each of the set of power overlay tiles.

17. The method of claim 15 wherein the first conductive surface defines a source terminal for the respective first and second sets of power overlay tiles.

18. The method of claim 15 wherein the respective power switching components of the selected set of power overlay tiles are arranged on a second surface of the respective tile, opposite the first conductive surface, and electrically connected with the first conductive surface of the respective tile.

19. The method of claim 18 , further comprising a second conductive surface overlying and electrically connected with a drain connection on each of the power switching components, the drain connection being a surface of the power switching component distal from the respective tile, and wherein the second conductive surface defines a power overlay assembly drain connection.

20. The method of claim 19 wherein the first conductive surface and the second conductive surface allow for reduced inductance connections with the set of selected power overlay tiles, such that each of the set of selected power overlay tiles are within 10% inductance and impedance of each other.