Kenneth C Hanson

7598381, Oct 6, 2009

Sep 11, 2006

11/518311

Mark E. Thompson - Anaheim CA, US
Carsten Borek - Pasadena CA, US
Kenneth Hanson - Los Angeles CA, US
Peter Djurovich - Long Beach CA, US
Yiru Sun - Princeton NJ, US
Stephen Forrest - Ann Arbor MI, US
Arnold Tamayo - Glendale CA, US

The Trustees of Princeton University - Princeton NJ
The University of Southern California - Los Angeles CA
The Regents of the University of Michigan - Ann Arbor MI

C07F 15/00
H05B 33/14

546 2, 428690, 428917, 546 10, 548101

Certain iridium compounds which may comprise an iridium(III)-ligand complex having the general formula: (C^N)—Ir—(N^N). (C^N) and (N^N) may each represent a ligand coordinated to an iridium atom. The iridium compounds may have a primary phosphorescent photoluminescence peak wavelength in the near-infrared (IR) range. Also, organic devices that use certain iridium compounds. The organic device may comprise an organic layer and the organic layer may comprise any of the iridium compounds disclosed herein. Also, organic devices that use certain metalloporphyrin compounds. The metalloporphyrin compounds may comprise a core porphyrin structure with four pyrrole rings. The metalloporphyrin compounds may have a primary phosphorescent photoluminescence peak wavelength in the near-IR range.

7989090, Aug 2, 2011

Aug 25, 2009

12/546829

Mark E. Thompson - Anaheim CA, US
Carsten Borek - Pasadena CA, US
Kenneth Hanson - Los Angeles CA, US
Peter Djurovich - Long Beach CA, US
Yiru Sun - Princeton NJ, US
Stephen Forrest - Ann Arbor MI, US
Arnold Tamayo - Glendale CA, US

The Trustees of Princeton University - Princeton NJ
The University of Southern California - Los Angeles CA
The Regents of the University of Michigan - Ann Arbor MI

H05B 33/14
H05B 33/00

428690, 313504

Certain iridium compounds which may comprise an iridium(III)-ligand complex having the general formula: (C^N)—Ir—(N^N). (C^N) and (N^N) may each represent a ligand coordinated to an iridium atom. The iridium compounds may have a primary phosphorescent photoluminescence peak wavelength in the near-infrared (IR) range. Also, organic devices that use certain iridium compounds. The organic device may comprise an organic layer and the organic layer may comprise any of the iridium compounds disclosed herein. Also, organic devices that use certain metalloporphyrin compounds. The metalloporphyrin compounds may comprise a core porphyrin structure with four pyrrole rings. The metalloporphyrin compounds may have a primary phosphorescent photoluminescence peak wavelength in the near-IR range.

20090243468, Oct 1, 2009

Mar 31, 2008

12/059949

Mark E. Thompson - Anaheim CA, US
Kenneth Hanson - Los Angeles CA, US
Peter Djurovich - Long Beach CA, US
Laurent Griffe - Los Angeles CA, US

H01J 1/63
C07F 5/00
C07F 17/02

313504, 534 15, 544225, 546 10, 548402, 548108

Materials comprising emissive arylimino-isoindoline complexes comprising 1,3-bis(2-pyridylimino)isoindoline (BPI) transition metal and lanthanide complexes as described. Organic light emitting devices comprising these complexes are also described.

20120001155, Jan 5, 2012

Jan 6, 2011

12/985439

Mark E. Thompson - Anaheim CA, US
Viacheslav Diev - Los Angeles CA, US
Kenneth Hanson - Carrboro NC, US
Stephen R. Forrest - Ann Arbor MI, US

THE REGENTS OF THE UNIVERSITY OF MICHIGAN - Ann Arbor MI
THE UNIVERSITY OF SOUTHERN CALIFORNIA - Los Angeles CA

H01L 51/46
H01L 51/48
C07D 487/22

257 40, 540145, 438 82, 257E51026, 257E51041

A compound that can be used as a donor material in organic photovoltaic devices comprising a non-activated porphyrin fused with one or more non-activated polycyclic aromatic rings or one or more non-activated, heterocyclic rings can be obtained by a thermal fusion process. By heating the reaction mixture of non-activated porphyrins with non-activated polycyclic aromatic rings or heterocyclic rings to a fusion temperature and holding for a predetermined time, fusion of one or more polycyclic rings or heterocyclic rings to the non-activated porphyrin core in meso,β fashion is achieved, resulting in hybrid structures containing a distorted porphyrin ring with annulated aromatic rings. The porphyrin core can be olygoporphyrins.

20120153266, Jun 21, 2012

Dec 12, 2011

13/316901

Mark E. THOMPSON - Anaheim CA, US
Kenneth HANSON - Los Angeles CA, US
Peter DJUROVICH - Long Beach CA, US

H01L 51/54
C07D 401/14
C07F 15/00
C07F 1/00
C07F 5/00
C07F 7/00
C07F 9/00
C07F 11/00
C07F 13/00
C07D 209/40
C07F 3/00

257 40, 548483, 546256, 546140, 548402, 546 12, 534 15, 257E51026

The present invention provides a new class of excited state intramolecular charge transfer (ESIPT) dye compounds based on mono or dihydroxy substituted 1,3-bisiminoisoindole motif and metal complexes containing such compounds as ligands. The present invention also provides OLEDs containing the compound and/or metal complex as the emissive material.

20150318479, Nov 5, 2015

Apr 28, 2015

14/698040

- Ann Arbor MI, US
- Los Angeles CA, US
Mark E. Thompson - Anaheim Hills CA, US
Viacheslav Diev - Los Angeles CA, US
Kenneth Hanson - Carrboro NC, US

H01L 51/00
H01L 51/42
C07F 7/22
C07F 3/06
C07F 7/24

Porphyrin compounds are provided. The compounds may further comprise a fused polycyclic aromatic hydrocarbon or a fused heterocyclic aromatic. Fused polycyclic aromatic hydrocarbon s and fused heterocyclic aromatics may extend and broaden absorption, and modify the solubility, crystallinity, and film-forming properties of the porphyrin compounds. Additionally, devices comprising porphyrin compounds are also provided. The porphyrin compounds may be used in a donor/acceptor configuration with compounds, such as C.

20150318494, Nov 5, 2015

Jul 13, 2015

14/797646

- Los Angeles CA, US
Kenneth Hanson - Los Angeles CA, US
Peter Djurovich - Long Beach CA, US

H01L 51/00
C07D 401/14
C09K 11/06
C07D 209/44

The present invention provides a new class of excited state intramolecular charge transfer (ESIPT) dye compounds based on mono or dihydroxy substituted 1,3-bisiminoisoindole motif and metal complexes containing such compounds as ligands. The present invention also provides OLEDs containing the compound and/or metal complex as the emissive material.