Cisco Technology, Inc.

Citrix Systems, Inc.

Sun Microsystems, Inc.

Juniper Networks, Inc.

B-mogen Biotechnologies, Inc.

Other

Hewlett-packard Company

Massachusetts Institute of Technology

Neomagic Corporation

Therics, Inc.

Rd Systems

Hewlett-packard Development Company, L.p.

Oracle America, Inc.

Nektar Therapeutics

Sandeep Kumar

Beau R Webber

Branden Moriarity

David Largaespada

Neil Otto

Leah Hogdal

Glenn Carter Scott

Amit Narayan Gupta

Germano Caronni

Christoph L Schuba

Tom R Markson

Tefcros Anthias

Vinod Dashora

Alan Hersh Karp

Rajiv Gupta

Jaedeok Yoo

Ricky Keangpo Ho

Terry Noel Treder

Donald C Monkhouse

Arindam Banerji

Yi Jin

Chia-Chiang Chao

Ernest Mak

Karempudi V Ramarao

Sunil Potti

Gunes Aybay

Umesh Krishnaswamy

Rajagopalan Sivaramakrishnan

Saravanakumar Rajendran

Bharani Chadalavada

Subramanian Srinivasan

Venkatesh Krishnan

Yafan An

Yuquan Jiang

Raj Tuplur

Christopher Wiborg

Shine-Chu Wang

Stephen Cho

Rakesh Dubey

Sai K Pothana

Subramanian N Iyer

Syed Zaidi

Guillermo Rozas

Raghunath Balakrishna

Stelios Tzannis

Bing Yang

Kollivakkam Raghavan

Alex Yiu-Man Chan

Marc S Gordon

Charles William Rowe

Alexandre Bronstein

Rajesh Raman

Tefcros Anthias, Jr

Alex Yin-Man Chan

Michael Weikert

Razaq Sarwar

Nancy Dasovich

Negar Sadrzadeh

Christopher R Wiborg

This disclosure provides various TcBuster transposases and transposons, systems, and methods of use.

Enhanced hAT family transposon-mediated gene transfer and associated compositions, systems, and methods

Methods, systems, computer-readable media, and apparatuses may provide virtualization of device management services (e.g., device drivers) dedicated managing a particular device and designed under for or under the assumption the particular device and the device management service will be utilized in a single session/user environment, so that virtual instances of the device management services may be used in a multi-session environment. Further, a redirection and/or virtualization layer may be created for each session in the multi-session environment to perform global database redirection, object name translation, and file system translation to ensure session boundaries are maintained and global/shared resources are not inappropriately altered by a session. As an example, the redirection/virtualization layer may redirect communications associated with a session and for a global resource to access a virtual instance of the resource specific to the session.

Virtualizing device management services on a multi-session platform

Enhanced hAT family transposon-mediated gene transfer and associated compositions, systems and methods

A computing device may include at least one processor configured to obtain a display frame, determine at least one modified region of the display frame, determine at least one application having an application window corresponding to the at least one modified region of the display frame, and determine a difference between the application window and the at least one modified region to define a difference region. The processor may be further configured to identify a content type of the difference region of the display frame from among a plurality of different content types, select a given encoding type for at least a portion of the display frame based on the identified content type of the difference region, and encode the at least one portion of the display frame using the given encoding type.

Detecting content types and window regions in composited desktop frame buffer

A first computing device for interacting with an input device across a network includes a processor to run an executable capable of accepting device data, provide a data buffer queue size to a second computing device coupled to the network, and request the device data from the second computing device. The amount of data requested is less than or equal to the data buffer queue size. The device data is received from the second computing device to be provided to the executable.

Input devices in high latency networks

Systems and methods for determining encodings for a display frame are provided. The methods include obtaining a display frame, determining regions of the display frame that have been modified, determining applications having application windows corresponding to the modified regions of the display frame, identifying the content types of contents of the modified regions based on the applications, and determining encodings for portions of the display frame based on the content types. The methods can further include using the z-order of applications to determine application windows corresponding to the modified regions.

Detecting content types and window regions in composited display frames

A first computing device is provided for interacting with an input device across a network The computing device includes processors configured to run an executable, acquire device information, determine network latency, determine a data buffer queue size, provide the data buffer queue size to a second computing device, request device data from the second computing device, acquire data from the second computing device, and provide that data to the executable. A second computing device is included for providing sending device data across a network. The computing device includes processors configured to acquire polling information from an input device, provide that information to a first computing device, acquire a data buffer queue size from the second computing device, create a data buffer queue, read data from the input device, store the data, acquire requests for data from the first computing device, and provide stored data to the first computing device.

Growing community of inventors

Cupertino, CA, United States of America

Sandeep Kumar