Inverter with quick connect cooling coupling for an electric mobile application
An integrated inverter assembly including a main cover and an opposing back cover, a coolant channel, wherein power electronics of the inverter assembly are thermally coupled to the coolant channel, and wherein at least one of a coolant inlet or a coolant outlet of the coolant channel comprises a quick connector without a locking element.
1. An integrated inverter assembly, comprising:
a main cover and an opposing back cover;
a coolant channel, wherein power electronics of the inverter assembly are thermally coupled to the coolant channel; and
wherein at least one of a coolant inlet or a coolant outlet of the coolant channel comprises a quick connector without a locking element.
2. The integrated inverter assembly of claim 1 , wherein the power electronics comprise at least one gate driver.
3. The integrated inverter assembly of claim 2 , wherein the at least one gate driver is configured to provide at least one phase of AC power to a motor.
4. The integrated inverter assembly of claim 2 , further comprising, a potted DC link capacitor operationally disposed between the at least one gate driver and a DC power source, and wherein the potted DC link capacitor includes a bus bar, a common-mode choke, and a capacitor disposed in a housing of the potted DC link capacitor.
5. The integrated inverter assembly of claim 2 , wherein the at least one gate driver and at least one current sensor corresponding to each phase of the at least one gate driver are mounted on a printed circuit board (PCB).
6. The integrated inverter assembly of claim 1 , wherein the power electronics have a high heat transfer capacity to coolant to support high power density installations.
7. The integrated inverter assembly of claim 1 , wherein the main cover is cast.
8. The integrated inverter assembly of claim 1 , wherein the main cover defines a plurality of coupling threaded bores, and wherein the opposing back cover defines a corresponding plurality of coupling threaded bores.
9. The integrated inverter assembly of claim 8 , wherein the corresponding plurality of coupling threaded bores further each comprise an unthreaded pilot portion of bores, and wherein the unthreaded pilot portion of bores comprises a first height, wherein a plurality of coupling screws each comprise a threaded portion having a second height, and wherein the first height is greater than the second height.
10. The integrated inverter assembly of claim 1 , further comprising, a cure-in-place-gasket positioned between the main cover and the opposing back cover.
11. The integrated inverter assembly of claim 10 , wherein at least one of the main cover and the opposing back cover comprises a ledge having a selected height such that the cure-in-place-gasket has a selected compression when the main cover is coupled to the opposing back cover.
12. An inverter power electronics, comprising:
a coolant channel disposed between a coolant channel cover and a coolant channel separating body, wherein an inverter power electronics component is thermally coupled to the coolant channel;
a coolant inlet and a coolant outlet of the coolant channel; and
a quick connector without a locking element coupled to the at least one of the coolant inlet or the coolant outlet.
13. The inverter power electronics of claim 12 , wherein the integrated power electronics component comprises at least one gate driver.
14. The inverter power electronics of claim 13 , wherein the at least one gate driver is configured to provide at least one phase of AC power to a motor.
15. The inverter power electronics of claim 13 , further comprising, a potted DC link capacitor operationally disposed between the at least one gate driver and a DC power source, and wherein the potted DC link capacitor includes a bus bar, a common-mode choke, and a capacitor disposed in a housing of the potted DC link capacitor.
16. The inverter power electronics of claim 13 , wherein the at least one gate driver and at least one current sensor corresponding to each phase of the at least one gate driver are mounted on a printed circuit board (PCB).
17. A method, comprising:
connecting a quick connector without a locking element to at least one of a coolant inlet or a coolant outlet coupled to a coolant channel;
passing coolant through the quick connector to the coolant channel to cool an inverter power electronics component; and
exchanging heat between the coolant channel and the inverter power electronics component.
18. The method of claim 17 wherein the inverter power electronics component comprises at least one gate driver.
19. The method of claim 18 , further comprising, configuring the at least one gate driver to provide at least one phase of AC power to a motor.
20. The method of claim 18 , further comprising, mounting the at least one gate driver and at least one current sensor corresponding to each phase of the at least one gate driver on a printed circuit board (PCB).