Amazon Technologies, Inc.

Snap Inc.

Samuel John Young

Benjamin Ralph Hollis

Bradley Baron

Peter F Hill

Brett Richard Taylor

Ameet Nirmal Vaswani

David Andrew Killian

Ivan King Yu Sham

John Krzemien

Matthew Lloyd Trahan

Andrew Hayden

Ranganath Atreya

Rohit Krishna Kumar

James Christopher Sorenson

Calvin Yue-Ren Kuo

Peter Sven Vosshall

Marco Argenti

Shyam Krishnamoorthy

Saral Jain

Jonathan I Turow

Alan Conrad Rawcliffe

Jason Varbedian

Steven Michael Reddie

David Craig Yanacek

Matthew James Wren

Leon Robert Warman

Aakarsh Nair

Eric D Crahen

Dhruva Lakshmana Rao Batni

Kurt Kufeld

Patrick Joseph Armstrong

Nikhil Dinkar Joshi

James Alan Umstot

Ian William Stewart

Krishnan Narayanan

Scott Zachary Bressler

Peter Frank Hill

Aaron Brown

Aleksandr Zhang

Wade Spires

Kyle Comer

Ivan King Sham

Metthew Lloyd Trahan

Systems and methods are provided for sending a combined read and reaction message. The systems and methods perform operations comprising: accessing, by a messaging application, a conversation session comprising a plurality of messages exchanged between a plurality of client devices, the messaging application being associated with a first client device of the plurality of client devices; generating, by the messaging application, metadata associated with one or more of the plurality of messages; encrypting, by the messaging application, the metadata in accordance with an end-to-end encryption process to enable a second client device of the plurality of client devices to read the metadata and prevent the second client device from modifying the metadata; and transmitting, to a server, a packet comprising an encrypted message slot and a first metadata slot, the first metadata slot comprising the encrypted metadata.

Per participant end-to-end encrypted metadata

Method of dynamically assigning storage locations starts with the processor receiving a signal from a first client device associated with a first user. Processor stores a current location of the first client device in a historical database and determines whether a home location data associated with the first user matches the current location. In response to determining that the home location data associated with the first user does not match the current location, processor determines whether the first user has been associated with the current location at a greater frequency than the home location data based on the historical database. In response to determining that the first user has been associated with the current location at a greater frequency, processor updates the home location data associated with the first user to the current location. Other embodiments are described.

Dynamically assigning storage locations for messaging system data

Method of dynamically assigning storage locations starts with the processor updating first user's home location data. Processor selects communication session between first user and second user and determines second user's home location data. Processor determines a session location data that indicates current storage location that stores data of communication session received from first and second client devices. Processor identifies available data storage locations based on first user and second user's home location data and determines whether to update the session location data based on an average of a distance over network fiber using the first user and second user's home locations, current storage location, and available storage locations. In response to determining to update the session location data, processor updates session location data to indicate one of the available storage locations, and causes transfer of data of communication session to one of the available storage locations. Other embodiments are described.

Systems and methods are provided for deleting messages. The systems and methods include operations for: establishing, by a computing device, a communication session between a plurality of users, the communication session being associated with a first feature of a plurality of features of a messaging application; automatically deleting a first set of messages exchanged in the communication session based on a default deletion policy of the first feature; changing the default deletion policy of the first feature to a second deletion policy; and automatically deleting a second set of messages exchanged in the communication session based on the second deletion policy instead of the default deletion policy.

Message deletion policy selection

Systems and methods are provided for displaying messages. The systems and methods include operations for: receiving, by a client device, a plurality of events from a plurality of channels; receiving, by the client device from a server, a configuration file comprising one or more rules for processing the sets of events from the plurality of channels; determining that a first event of the plurality of events is associated with a first event type and that a second event of the plurality of events is associated with a second event type; assigning, based on the configuration file, a first priority to the first event based on the first event type and a second priority to the second event based on the second event type; and displaying, by the client device, the first event and the second event according to the first priority and the second priority.

Displaying items based on a configuration file

The load level on a server system is regulated by determining time-to-live (TTL) values to provide to requesting devices that request a content resource from the server system, thereby affecting the frequency of subsequent requests. This dynamic determination of TTL values may provide resilience to system load, for example by using longer TTL values when the system is under greater load to reduce the rate at which subsequent requests are received. A dynamic TTL service may calculate a TTL value based on one or more factors, such as overall system load, resource load, hardware load, and/or software load.

Load regulation using dynamically determined time to live values

A computing environment is disclosed that receives from devices requests directed toward services accessible in the environment, and that forwards communications from services in the environment to devices registered with the environment. During a registration process at the environment, devices are assigned a device identifier that is used to identify and authenticate each particular device and requests communicated from and to the device via the environment. The computing environment maintains state information for each device that has been registered with the system. As the device interacts with the system, the state information is updated to reflect the changes in the device. When requests to perform functions are received from devices, the computing environment determines for the particular device and the particular function requested what processing needs to be performed by the environment in response to the request.

Device communication environment

Techniques and solutions for measuring web page value are described. For example, web page content information for a web page can be obtained. The web page can be decomposed into web page content components based on the web page content information. Content types can be determined for the web page content components. The web page content components can be weighted based on the content types and/or based on other criteria. Web page resources can be obtained in advance for web pages and/or content components based on the weights.

Measuring page value

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Seattle, WA, United States of America

Samuel John Young