IP Library Granted Patent US 8,368,120
Granted Patent B2
US 8,368,120 · App. 13/224,881 · Granted Feb 5, 2013

Hybrid semiconductor device having a GaN transistor and a silicon MOSFET

Inventors: Alexander Lidow (Hermosa Beach, CA); Daniel M. Kinzer (El Segundo, CA); Srikant Sridevan (Redondo Beach, CA)
Assignee: International Rectifier Corporation
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Quick Facts
Patent No.
US 8,368,120
App. No.
13/224,881
Granted
Feb 5, 2013
Kind
B2
Abstract

A hybrid device including a silicon based MOSFET operatively connected with a GaN based device.

Claims (23)

1. A hybrid device comprising:

a silicon based power MOSFET in a common die;

a GaN based high electron mobility transistor situated in said common die and forming an operative connection to said silicon power MOSFET, wherein said silicon based power MOSFET and said GaN based high electron mobility transistor are arranged to receive a control signal substantially concurrently so that a common current can pass substantially concurrently through both said silicon based power MOSFET and said GaN based high electron mobility transistor.

2. The hybrid device of claim 1 , wherein said operative connection is between a drain electrode of said silicon based power MOSFET and a source electrode of said GaN based high electron mobility transistor.

3. The hybrid device of claim 1 , wherein said GaN based high electron mobility transistor is operatively connected in a cascode arrangement to said silicon based power MOSFET.

4. The hybrid device of claim 1 , wherein a breakdown voltage of said hybrid device is equal to a sum of a breakdown voltage of said silicon based power MOSFET and a breakdown voltage of said GaN based high electron mobility transistor.

5. The hybrid device of claim 1 , wherein said operative connection is between a drain electrode of said silicon based power MOSFET and a source electrode of said GaN based high electron mobility transistor, and wherein said operative connection does not comprise any other electrical connection.

6. A hybrid device comprising:

a silicon based power MOSFET;

a GaN based high electron mobility transistor not situated in a common die with said silicon based power MOSFET;

said GaN based high electron mobility being co-packaged with said silicon based power MOSFET and forming an operative connection to said silicon power MOSFET, wherein said silicon based power MOSFET and said GaN based high electron mobility transistor are arranged to receive a control signal substantially concurrently so that a common current can pass substantially concurrently through both said silicon based power MOSFET and said GaN based high electron mobility transistor.

7. The hybrid device of claim 6 , wherein said operative connection is between a drain electrode of said silicon based power MOSFET and a source electrode of said GaN based high electron mobility transistor.

8. The hybrid device of claim 6 , wherein said GaN based high electron mobility transistor is operatively connected in a cascode arrangement to said silicon based power MOSFET.

9. The hybrid device of claim 6 , wherein a breakdown voltage of said hybrid device is equal to a sum of a breakdown voltage of said silicon based power MOSFET and a breakdown voltage of said GaN based high electron mobility transistor.

10. The hybrid device of claim 6 , wherein said operative connection is between a drain electrode of said silicon based power MOSFET and a source electrode of said GaN based high electron mobility transistor, and wherein said operative connection does not comprise any other electrical connection.

11. A hybrid device comprising:

a silicon based power MOSFET in a first individual package;

a GaN based high electron mobility transistor in a second individual package;

said GaN based high electron mobility forming an operative connection to said silicon power MOSFET, wherein said silicon based power MOSFET and said GaN based high electron mobility transistor are arranged to receive a control signal substantially concurrently so that a common current can pass substantially concurrently through both said silicon based power MOSFET and said GaN based high electron mobility transistor.

12. The hybrid device of claim 11 , wherein said operative connection is between a drain electrode of said silicon based power MOSFET and a source electrode of said GaN based high electron mobility transistor.

13. The hybrid device of claim 11 , wherein said GaN based high electron mobility transistor is operatively connected in a cascode arrangement to said silicon based power MOSFET.

14. The hybrid device of claim 11 , wherein a breakdown voltage of said hybrid device is equal to a sum of a breakdown voltage of said silicon based power MOSFET and a breakdown voltage of said GaN based high electron mobility transistor.

15. The hybrid device of claim 11 , wherein said operative connection is between a drain electrode of said silicon based power MOSFET and a source electrode of said GaN based high electron mobility transistor, and wherein said operative connection does not comprise any other electrical connection.

Assignments (2)
CHANGE OF NAME Recorded Jul 23, 2018
From: INTERNATIONAL RECTIFIER CORPORATION
To: INFINEON TECHNOLOGIES AMERICAS CORP.
Reel/Frame 046612/0968 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Sep 2, 2011
From: LIDOW, ALEXANDER; KINZER, DANIEL M.; SRIDEVAN, SRIKANT
To: INTERNATIONAL RECTIFIER CORPORATION
Reel/Frame 026852/0370 →
Continuity (2)
Continuation 11372679 · Mar 10, 2006
Related Publication 20120043553A1 · Feb 23, 2012