Sung H Lee

7239443, Jul 3, 2007

Jun 30, 2006

11/479340

Daniel A. Tichenor - Castro Valley CA, US
Glenn D. Kubiak - Livermore CA, US
Sung Hun Lee - Sunnyvale CA, US

EUV LLC - Santa Clara CA

F21V 9/04
F21V 9/06
G02B 5/08
G02B 5/20

359359, 359900

Employing collector optics that has a sacrificial reflective surface can significantly prolong the useful life of the collector optics and the overall performance of the condenser in which the collector optics are incorporated. The collector optics is normally subject to erosion by debris from laser plasma source of radiation. The presence of an upper sacrificial reflective surface over the underlying reflective surface effectively increases the life of the optics while relaxing the constraints on the radiation source. Spatial and temporally varying reflectivity that results from the use of the sacrificial reflective surface can be accommodated by proper condenser design.

7715150, May 11, 2010

Jul 6, 2006

11/482640

Brian D. Strom - Cupertino CA, US
Na Young Kim - San Jose CA, US
Sung Chang Lee - San Jose CA, US
Vinod Sharma - Los Gatos CA, US
Joseph Chang - San Jose CA, US

Samsung Electronics Co., Ltd. - Suwon, Kyungki-Do

G11B 21/24
G11B 21/02
G11B 21/16

360294, 3602441, 360 75

The head gimbal assembly includes a slider and a micro-actuator assembly sharing power for the micro-actuator assembly to aid in positioning the slider and for an amplifier included in the slider to generate an amplified read signal when the slider read accesses data on a rotating disk surface included in a hard disk drive. The slider includes a read-write head providing a read differential signal pair to an amplifier to generate an amplified read signal reported when read accessing a rotating disk surface near the slider, which includes a read head employing a spin valve or employing a tunneling valve. Hard disk drive including a head stack assembly, which includes at least one of the head gimbal assemblies. Manufacturing the head gimbal assembly, the head stack assembly, and the hard disk drive, as well as these items as products of the invention's manufacturing processes.

20080165447, Jul 10, 2008

Jan 5, 2007

11/650229

Sung Chang Lee - San Jose CA, US
Brian D. Strom - Cupertino CA, US

Samsung Electronics Co., Ltd. - Suwon City

G11B 33/14

360 9702

A disk drive that regenerates a desiccant within the drive. The drive includes a housing that encloses a head and a disk. A first desiccant is located adjacent to a hole of the housing. A second desiccant is coupled to the first desiccant. The second desiccant is also coupled to a source of heat. Heat is transferred through the second desiccant to the first desiccant. The heat evaporates fluid within the first desiccant. The evaporated fluid flows into and through the second desiccant. The evaporation of fluid regenerates the first desiccant so that is can continuously absorb humidity within the drive.

20120034659, Feb 9, 2012

Aug 5, 2011

13/204561

Martien H. Bergsma - Zoetermeer, NL
Gopal K. Chotani - Cupertino CA, US
William A. Cuevas - San Francisco CA, US
Gang Duan - Shanghai, CN
Sung Ho Lee - North Liberty IA, US
Ying Qian - Wuxi Jiangsu, CN
Vivek Sharma - North Liberty IA, US
Jayarama K. Shetty - Pleasanton CA, US
Bruce A. Strohm - Beloit WI, US
Paula Johanna Maria Teunissen - Saratoga CA, US
Hongxian Xu - Wuxi City, CN

Danisco US Inc. - Palo Alto CA

C12P 19/20
C12P 7/04
C12P 7/16
C12P 7/56
C12P 7/46
C12P 7/18
C12P 13/04
C12P 7/14
C12P 13/14

435 96, 435162, 435157, 435160, 435110, 435145, 435158, 435106, 435139

Embodiments of the present disclosure relate to a process for producing downstream products, such as fermentable sugars and end products, from a starch substrate by saccharification and/or fermentation. The saccharification is effectively catalyzed by a glucoamylase at a pH in the range of 5.0 to 8.0. At a pH of 6.0 or above, the glucoamylase possesses at least 50% activity relative to its maximum activity. The saccharification and fermentation may be performed as a simultaneous saccharification and fermentation (SSF) process.

20120045812, Feb 23, 2012

Aug 5, 2011

13/204612

Martien H. Bergsma - Zoetermeer, NL
Anthony R. Calabria - San Mateo CA, US
Gopal K. Chotani - Cupertino CA, US
William A. Cuevas - San Francisco CA, US
Gang Duan - Shanghai, CN
Sung H. Lee - North Liberty IA, US
Ying Qian - Wuxi Jiangsu, CN
Vivek Sharma - North Liberty IA, US
Jayarama K. Shetty - Pleasanton CA, US
Bruce A. Strohm - Beloit WI, US
Paula Johanna Maria Teunissen - Voorschoten, NL
Hongxian Xu - Wuxi City, CN

Danisco US Inc. - Palo Alto CA

C12P 5/02
C12M 1/00

435167, 4352891

Embodiments of the present disclosure relate to a process for producing isoprene from a starch substrate by saccharification and/or fermentation. The saccharification is effectively catalyzed by a glucoamylase at a pH in the range of 5.0 to 8.0. At a pH of 6.0 or above, the glucoamylase possesses at least 50% activity relative to its maximum activity. The saccharification and fermentation may be performed as a simultaneous saccharification and fermentation (SSF) process.

20120047550, Feb 23, 2012

Aug 20, 2010

12/860247

Sung Lee - Palo Alto CA, US
Alvaro A. Cardenas - Sunnyvale CA, US
Ryusuke Masuoka - San Jose CA, US

Fujitsu Limited - Nakahara-Ku

G06F 21/00

726 1, 726 22

A networked device performs integrity authentication by determining, using a processor, a measured integrity value of the device. The measured integrity value is compared by the processor to an embedded integrity value of the device. Application of a policy to the device is facilitated by the processor based on the comparison.

20120047557, Feb 23, 2012

Nov 16, 2010

12/947662

Sung Lee - Palo Alto CA, US
Alvaro A. Cardenas - Sunnyvale CA, US
Ryusuke Masuoka - San Jose CA, US

G06F 7/04

726 2

Device integrity authentication is performed by receiving, at a second device, a measured integrity value from a first device. The measured integrity value of the first device is compared at the second device to an embedded integrity value associated with the second device. A level of trust for the first device is determined by the second device based on the comparison. Application of a policy to the first device is facilitated by the second device based on the comparison.

20120047578, Feb 23, 2012

Nov 16, 2010

12/947687

Sung Lee - Palo Alto CA, US
Alvaro A. Cardenas - Sunnyvale CA, US
Ryusuke Masuoka - San Jose CA, US

G06F 21/00

726 22

Device integrity authentication is performed by receiving, at a second device, data from a first device. A determination is made at the second device as to whether at least a portion of the data is associated with a protected datatype. A measured integrity value of the first device is determined in response to the portion of the data being associated with the protected datatype. The measured integrity value of the first device is compared to an embedded integrity value associated with the second device. Application of at least one of a plurality of policies associated with processing the data is facilitated at the second device based on the comparison and the protected datatype.