Pandit Vijay Raghav Rao (born 3 November 1925) is an Indian flutist. He was born in Madras (now Chennai), India. He currently resides in Springfield, VA, USA;
Resumes
Staff Software Engineer - Portal Accounts Receivable And Vr
Facebook Nov 2018 - Dec 2018
Staff Software Engineer - Blockchain Product
Facebook Nov 2018 - Dec 2018
Staff Software Engineer - Portal Accounts Receivable and Vr
Facebook Jul 2017 - Nov 2018
Senior Android Engineer - Building 8
Navdy Jun 2015 - Jul 2017
Senior Android Software Engineer
Parsable Jun 2014 - Jun 2015
Principal Android Engineer
Education:
Rohailkhand University 1993 - 1997
Bachelors, Computer Science, Engineering, Computer Science and Engineering
Pg Center, Kolar
Rohailkhand University, India
Bachelors, Computer Science, Engineering, Computer Science and Engineering
Skills:
Java Android Software Design Distributed Systems Web Services Agile Methodologies C# Embedded Systems C C++ Enterprise Software Web Applications Operating Systems Device Drivers Linux Tcp/Ip Xml Rest Embedded Software Multithreading Windows Ce Vxworks Hp Ux Corba Snmp .Net Compact Framework Network Security Centos Windows Mobile Tcp/Udp Rapid Prototyping Protocol Development Windows Server Solaris Embedded Linux Agile Win32 Posix Http Rtsp Jms Activemq Android Ndk Wearables Soap
Certifications:
Dat203.2X: Principles of Machine Learning Cs198.1X: Bitcoin and Cryptocurrencies
Raghav Rao - Sunnyvale CA, US Marc Nijdam - Mountain View CA, US Ravikumar Pisupati - San Jose CA, US
Assignee:
Hewlett-Packard Development Company, L.P. - Houston TX
International Classification:
G06F 15/16
US Classification:
709220, 709221, 709222
Abstract:
Various systems and methods are provided for maintaining an embedded network server. In one embodiment, one method includes the steps of providing a dynamic service loader in the embedded network server, receiving a service request to install a dynamic service in the embedded network server, and installing the dynamic service in the embedded network server with the dynamic service loader. The dynamic service may be installed in the embedded network server dynamically, thereby allowing other aspects of the embedded network server to operate without disruption.
Deferred Memory Allocation For Application Threads
Various systems and methods are provided that facilitate deferred memory allocation. In one method, an attempt to allocate an amount of memory for an application thread is made. If the attempt was unsuccessful and if the application thread is designated for deferred memory allocation, then the application thread is stored in a holding queue. Once the application thread is stored in the holding queue, periodic attempts are made to reallocate the amount of memory for the application thread.
Miscellaneous Coating, Battery, And Clock Features For Artificial Reality Applications
- Menlo Park CA, US Raghav Rao - Fremont CA, US Alex Ockfen - Bothell WA, US Rajesh Prasannavenkatesan - Menlo Park CA, US David Brokenshire - Maidenhead, GB Eric Mun Khai Leong - Kirkland WA, US Jacklyn Ann Holmes Herbst - Bellevue WA, US Matthew Aaron - San Francisco CA, US Jason Michael Battle - Bothell WA, US Dong Rim Lee - San Jose CA, US Arman Boromand - Issaquah WA, US
Some embodiments relate to a method for performing a battery power-based control of an in-call experience based on shared battery power information. Some embodiments relate to a coating of a headset that has a first emissivity over an ultraviolet band and a near-infrared band, a second emissivity over a visible band, and a third emissivity over a mid-to-far infrared band. Some embodiments relate to an aggregate coating of a headset. A thin films is applied to a surface of the headset, and a paint coating is applied to a surface of the thin film to form the aggregate coating. Some embodiments relate to a method for a high-definition multimedia interface derived network timing for distributed audio-video synchronization. Some embodiments relate to a battery containment structure with a metal chassis having surfaces coated with electrical insulators configured to receive a battery, and a lid coupled to the metal chassis.
Systems And Methods For Digital Workflow And Communication
- San Francisco CA, US Raghav Rao - Fremont CA, US Wajahat Ali Siddiqui - San Francisco CA, US Zachary Harrison Fogg - Beltsville MD, US Devansh Gupta - San Francisco CA, US Ryan Alexander Junee - San Francisco CA, US Vighnesh Ajay Rege - San Mateo CA, US
International Classification:
G06Q 10/06 H04L 29/08 G06F 3/0481 G06F 17/22
Abstract:
Systems and methods for authoring and performing procedural workflows, and engaging in multimedia communication, remote assistance, training, data entry, inventory management, authentication, and secure networking using a hands-free or substantially hands-free wearable digital device are described. In one implementation, a user logs into a secure network using existing credentials, and a Quick Response Code is generated to temporarily authorize the user's wearable device within the secure network. In another implementation, information is encrypted and transferred between a computing device and a remote system, and the computing device is verified as being connected to a particular network and located within a particular geofence. In a further implementation, an interface for authoring a procedural workflow includes defining workflow steps based on selected primitives, and displaying rendered previews of the workflow as it would appear on different user devices.
Systems And Methods For Digital Workflow And Communication
- San Francisco CA, US Raghav Rao - Fremont CA, US Ryan Alexander Junee - San Francisco CA, US
International Classification:
H04L 29/06
Abstract:
Systems and methods for authoring and performing procedural workflows, and engaging in multimedia communication, remote assistance, training, data entry, inventory management, authentication, and secure networking using a hands-free or substantially hands-free wearable digital device are described. In one implementation, a user logs into a secure network using existing credentials, and a Quick Response Code is generated to temporarily authorize the user's wearable device within the secure network. In another implementation, information is encrypted and transferred between a computing device and a remote system, and the computing device is verified as being connected to a particular network and located within a particular geofence. In a further implementation, an interface for authoring a procedural workflow includes defining workflow steps based on selected primitives, and displaying rendered previews of the workflow as it would appear on different user devices.