Multi-layer electronic device

1. A multi-layer capacitor comprising:

a ceramic layer having first and second longitudinal edges that are aligned with a lateral direction, the ceramic layer having first and second lateral edges that are aligned with a longitudinal direction;

a first electrode layer disposed vertically over the ceramic layer, wherein the first electrode layer comprises a first electrode, and wherein the first electrode comprises a first tab portion extending to the first lateral edge of the ceramic layer, a second tab portion extending to the second lateral edge of the ceramic layer, and a third tab portion extending to the second lateral edge of the ceramic layer, the first electrode further defining a first cut-out region that is elongated in the longitudinal direction such that the first cut-out region extends parallel with the first lateral edge of the ceramic layer in the longitudinal direction, the first cut-out region being contained within a perimeter of the first electrode such that the first cut-out region is not open to any edge of the first electrode; and

a second electrode layer disposed vertically beneath the ceramic layer, wherein the second electrode layer comprises a second electrode comprising a second tab portion extending to the first lateral edge of the ceramic layer.

2. The multi-layer capacitor of claim 1 , wherein the first tab portion of the first electrode layer and the second tab portion of the second electrode layer are disposed symmetrically about a longitudinal centerline that extends in the lateral direction.

3. The multi-layer capacitor of claim 1 , wherein the first tab portion of the first electrode layer and the second tab portion of the second electrode layer are disposed symmetrically about a lateral centerline that extends in the longitudinal direction.

4. The multi-layer capacitor of claim 1 , wherein the second electrode comprises a fourth tab portion extending to the second lateral edge of the ceramic layer.

5. The multi-layer capacitor of claim 4 , wherein the first tab portion of the first electrode is offset from the second tab portion of the second electrode in the longitudinal direction so that a first gap region is formed within which the first tab portion of the first electrode does not overlap the second tab portion of the second electrode, and further wherein the first cut-out region at least partially overlaps the second cut-out region, and wherein the third tab portion of the first electrode is offset from the fourth tab portion of the second electrode in the longitudinal direction so that a second gap region is formed within which the third tab portion of the first electrode does not overlap the fourth tab portion of the second electrode.

6. The multi-layer capacitor of claim 5 , wherein the first gap region and the second gap region are disposed symmetrically about a longitudinal centerline that extends in the lateral direction and/or a lateral centerline that extends in the longitudinal direction.

7. The multi-layer capacitor of claim 1 , wherein the second electrode defines a first cut-out region and a second cut-out region, and wherein the first cut-out region of the second electrode and the second cut-out region of the second electrode are disposed symmetrically about a longitudinal centerline that extends in the lateral direction.

8. The multi-layer capacitor of claim 1 , wherein the second electrode defines a first cut-out region and a second cut-out region, and wherein the first cut-out region of the second electrode and the second cut-out region of the second electrode are disposed symmetrically about a lateral centerline that extends in the longitudinal direction.

9. The multi-layer capacitor of claim 1 , wherein the ceramic layer contains a dielectric material.

10. The multi-layer capacitor of claim 1 , further comprising a first external contact in electrical connection with the first electrode and a second external contact in electrical connection with the second electrode.

11. The multi-layer capacitor of claim 10 , wherein the first external contact is present on a top surface and optionally one or more opposing edges of the multi-layer capacitor, and further wherein the second external contact is present on a bottom surface and optionally one or more opposing edges of the multi-layer capacitor.

12. The multi-layer capacitor of claim 10 , wherein the first external contact is present only on a top surface of the multi-layer capacitor and the second external contact is present only on a bottom surface of the multi-layer capacitor.

13. The multi-layer capacitor of claim 12 , further comprising a masking material that covers portions of the first electrode layer and the second electrode layer that are exposed on edges of the multi-layer capacitor.

14. The multi-layer capacitor of claim 1 , wherein the multi-layer capacitor contains a plurality of alternatively ceramic layers, first electrode layers, and second electrode layers.

15. A multi-layer capacitor comprising:

a ceramic layer having first and second longitudinal edges that are aligned with a lateral direction, the ceramic layer having first and second lateral edges that are aligned with a longitudinal direction;

a first electrode layer disposed vertically over the ceramic layer, wherein the first electrode layer comprises a first electrode comprising a first tab portion extending to the first lateral edge of the ceramic layer, the first electrode further defining a first cut-out region that is elongated in the longitudinal direction such that the first cut-out region extends parallel with the first lateral edge of the ceramic layer in the longitudinal direction, the first cut-out region being contained within a perimeter of the first electrode such that the first cut-out region is not open to any edge of the first electrode; and

a second electrode layer disposed vertically beneath the ceramic layer, wherein the second electrode layer comprises a second electrode comprising a second tab portion extending to the first lateral edge of the ceramic layer, and wherein the first tab portion and the second tab portion are disposed symmetrically about a lateral centerline that extends in the longitudinal direction.

16. The multi-layer capacitor of claim 15 , wherein the first tab portion of the first electrode is offset from the second tab portion of the second electrode in the longitudinal direction so that a first gap region is formed within which the first tab portion of the first electrode does not overlap the second tab portion of the second electrode, and further wherein the first cut-out region at least partially overlaps the second cut-out region.

17. The multi-layer capacitor of claim 16 , wherein the first electrode comprises a third tab portion, and wherein the second electrode comprises a fourth tab portion that is offset from the third tab portion of the first electrode in the longitudinal direction so that a second gap region is formed within which the third tab portion of the first electrode does not overlap the fourth tab portion of the second electrode, and wherein the first gap region and the second gap region is disposed symmetrically about a longitudinal centerline that extends in the lateral direction and/or a lateral centerline that extends in the longitudinal direction.

18. The multi-layer capacitor of claim 15 , wherein the second electrode defines a first cut-out region and a second cut-out region, and wherein the first cut-out region of the second electrode and the second cut-out region of the second electrode are disposed symmetrically about a longitudinal centerline that extends in the lateral direction.

19. The multi-layer capacitor of claim 15 , wherein the second electrode defines a first cut-out region and a second cut-out region, and wherein the first cut-out region of the second electrode and the second cut-out region of the second electrode are disposed symmetrically about a lateral centerline that extends in the longitudinal direction.

20. The multi-layer capacitor of claim 15 , wherein the first tab portion of the first electrode layer and the second tab portion of the second electrode layer are disposed symmetrically about a longitudinal centerline that extends in the lateral direction.