Jun Wang

8586348, Nov 19, 2013

Sep 22, 2011

13/240347

Jun Wang - Pasadena CA, US
James R. Heath - South Pasadena CA, US

California Institute of Technology - Pasadena CA

C12M 1/00
C12M 1/34
C12Q 1/68
G01N 33/53
G01N 33/00
G01N 15/06
G01N 30/96

4352831, 435 61, 435 71, 435 792, 4352872, 422 681, 422 69

Provided herein is a microfluidic device and related method for controlling flow of different fluid components of a fluid. The microfluidic device comprises an input channel, focusing channel and an assaying channel. The microfluidic device is adapted to separate a fluid into at least two fluid components, and is further adapted to detect a target material comprised within one of the fluid components. The method comprises providing a channel, the channel having a dimension which is a function of a dimension of one of the fluid components and deliver the fluid through the channel at a set flow rate.

8618872, Dec 31, 2013

Mar 3, 2006

11/367777

Hongying Sheng - San Jose CA, US
Jun Wang - Cupertino CA, US

Marvell International Ltd. - Hamilton

H03B 1/00
H03K 5/00
H04B 1/10
G06G 7/19

327552, 327335, 327553, 327554, 327557, 327559

A filter network having a variable cut-off frequency can be controlled in a way that allows the cut-off frequency to be changed gradually to avoid undesirable transient effects. An impedance network (such as a resistor network) that provides a plurality of impedance values is provided. Logic, and a corresponding method, are provided to change the impedance value gradually, such as on a step-wise basis, to change the cut-off frequency gradually. The size of the impedance step and the duration of the step can be preprogrammed, and may be different for different types of events that trigger the need for a frequency change. It may also be possible for those preprogrammed values to be initial values only, with the values changing under programmed control during the frequency changing process. Other values, such as the initial and target impedance values that determine the initial and target frequency, also may be programmable.

8642029, Feb 4, 2014

Mar 30, 2009

12/935516

Jun Wang - Sunnyvale CA, US
Yang Liu - Mountain View CA, US
Qiang Xu - Cupertino CA, US

Osel, Inc. - Santa Clara CA

A01N 63/00

424 9345, 4352529

The present invention relates to methods and compositions for Replacement Therapy (LRT). Methods for improved stability and recovery of dried bacterial preparations are also provided.

20060172324, Aug 3, 2006

Dec 8, 2005

11/298152

Jun Wang - Fremont CA, US
Daniel Mirel - Cambridge MA, US
Soren Germer - Maplewood NJ, US
Russell Higuchi - Alameda CA, US

ROCHE MOLECULAR SYSTEMS, INC. - Alameda CA

C12Q 1/68
C12P 19/34

435006000, 435091200

The present invention relates to the identification of a particular nucleotide polymorphism in a nucleic acid sample in a single reaction utilizing oligonucleotide primers with different melting temperature characteristics.

20070208604, Sep 6, 2007

Mar 28, 2002

10/112913

Atul Purohit - Fremont CA, US
Harish Bansal - Fremont CA, US
Jun Wang - Santa Rosa CA, US
Praveen Krishnan - Richmond CA, US
Christopher Nash - Emeryville CA, US

Siebel Systems, Inc. - San Mateo CA

G06F 15/02

705009000

Techniques to schedule activities. In one method, a request to book an appointment for an activity in a particular schedule is initially received. In response, time slots available in the schedule for booking the activity are determined, and a set (all or a subset) of the time slots is provided as possible appointment choices. The time slots in the set are temporarily locked. A next set of time slots or more time slots may be requested (if the time slots provided are not acceptable or desirable), in which case additional time slots may be provided. Thereafter, a selection for one of the time slots is received. In response, the activity is booked in the selected time slot and previously locked time slots are released. The locked time slots may also be released if no selection is received after a particular amount of time.

20100105646, Apr 29, 2010

Jun 11, 2008

12/526604

Roberta Diaz Brinton - Rancho Palos Verdes CA, US
Jun Ming Wang - Los Angeles CA, US

A61K 31/56
A61P 25/00

514182

Neuro-enhancing agents, compositions and methods are disclosed herein. Preferred neuro-enhancing agents of the present invention include progesterone and metabolites of progesterone, such as 3α-hydroxy-5α-pregnan-20-one (THP). These agents yield neuro-enhancing effects on neural cells that include neural progenitor and/or stem cells, whereby the agents stimulate mitosis of neural progenitor cells, stimulate neurite growth and organization, protect against neural loss, or one or more of these neural processes. Thus, the neuro-enhancing agents, compositions and methods disclosed herein are useful to reverse or prevent neurological disease or defects associated with neural loss or degeneration, such as Alzheimer's disease, neurological injuries, including injuries resulting from radiation therapy, and age-related neurological decline, including impairments in memory and learning.

20100204192, Aug 12, 2010

Feb 5, 2010

12/701309

Roberta Diaz Brinton - Rancho Palos Verdes CA, US
Jun Ming Wang - Pearl MS, US

A61K 31/57
A61P 25/28
A61P 25/00
A61P 25/16

514182

Neuro-enhancing agents, compositions and methods are disclosed herein. Preferred neuro-enhancing agents of the present invention include progesterone and metabolites of progesterone, such as 3α-hydroxy-5α-pregnan-20-one (THP). These agents yield neuro-enhancing effects on neural cells that include neural progenitor and/or stem cells, whereby the agents stimulate mitosis of neural progenitor cells, stimulate neurite growth and organization, protect against neural loss, or one or more of these neural processes. Thus, the neuro-enhancing agents, compositions and methods disclosed herein are useful to reverse or prevent neurological disease or defects associated with neural loss or degeneration, such as Alzheimer's disease, neurological injuries, including injuries resulting from radiation therapy, and age-related neurological decline, including impairments in memory and learning.

20110013081, Jan 20, 2011

Sep 16, 2010

12/883974

G. Finn Wredenhagen - Toronto, CA
Gary Cheng - Scarborough, CA
Kevin Ng - Unionville, CA
Neil D. Woodall - Newport Beach CA, US
Yue Ma - Pleasanton CA, US
Guodong Liu - Portland OR, US
Jun Wang - Portland OR, US

PIXELWORKS, INC. - Portland OR

H04N 7/01

348449, 348E07003

A video sequence may include a modality corresponding with an embedded pattern. At least one state machine detects the modality in accordance with difference signals. A signal generator generates the difference signals responsive to decision windows that define regions of interest in the video sequence. The modality may correspond with an embedded film source or other pattern types in the video sequence. Where the state machine detects more than one pattern, a single pattern is selected according to a predetermined priority. The video sequence may contain both static patterns and embedded film source patterns. The state machine discerns the presence of the embedded film source patterns notwithstanding the presence of the static patterns.