Abstract: A first message resilience client device receives from a second message resilience client device a message and a request to deliver the message to a client/server-based server application executed by a server device on behalf of a remote client/server-based client application executed by the second message resilience client device that originated the message. A determination is made as to whether a connection to the server device that executes the client/server-based server application is currently possible using at least one available connection. In response to determining that the connection to the server device that executes the client/server-based server application is not currently possible, the message is stored locally for one of later delivery to the client/server-based server application and propagation of the message to another message resilience client device on behalf of the remote client/server-based client application.

Abstract: A conversation analytics system including multiple microphones that each respectively capture at least a part of a single real world natural language conversation. The natural language data (for example, audio of natural language, or audio of natural language converted to text) from each of the multiple microphones is combined into a single combined piece of natural language data (for example, a combined audio file, or a combined piece of text). This combined piece of natural language data is subject to: (i) machine logic based natural language understanding; and/or (ii) community conversation analysis. The multiple microphones may be respectively built into mobile devices which are always on and which are generally always carried by the device owners on their respective persons.

Abstract: A physical network address of one of a set of wireless customer-premise monitoring devices is translated to a shared logical device physical network address in response to receipt from an application server of a first data packet addressed to the physical network address. The shared logical device physical network address forms a logical device group and physically addresses each of the set of wireless customer-premise monitoring devices over a single wireless communication channel. The physical network address of the one of the set of wireless customer-premise monitoring devices is embedded within the first data packet addressed to the shared logical device physical network address. The first data packet is sent to the shared logical device physical network address.

Abstract: A physical network address of one of a set of wireless customer-premise monitoring devices is translated to a shared logical device physical network address in response to receipt of a data packet addressed to the physical network address. The shared logical device physical network address forms a logical device group and physically addresses each of the set of wireless customer-premise monitoring devices over a single communication channel of a wireless cellular network. The wireless customer-premise monitoring devices are configured with each of a shared-identity subscriber identity module (SIM) that uses the shared logical device physical network address and an individual-identity SIM that uses the physical network address. The physical network address of the one of the set of wireless customer-premise monitoring devices is embedded within the data packet addressed to the shared logical device physical network address. The data packet is sent to the shared logical device physical network address.

Abstract: A physical network address of one of a set of wireless customer-premise monitoring devices is translated to a shared logical device physical network address in response to receipt from an application server of a first data packet addressed to the physical network address. The shared logical device physical network address forms a logical device group and physically addresses each of the set of wireless customer-premise monitoring devices over a single wireless communication channel. The physical network address of the one of the set of wireless customer-premise monitoring devices is embedded within the first data packet addressed to the shared logical device physical network address. The first data packet is sent to the shared logical device physical network address.

Abstract: In an approach for monitoring media consumption, a processor receives data from a media collection device, wherein the data comprises at least information generated by at least one media broadcasting device of one or more media broadcasts. A processor compares the data to previously stored signatures, wherein the previously stored signatures are each associated with a respective media broadcast. A processor identifies the one or more media broadcasts using the data and the previously stored signatures. A processor compiles the identified one or more media broadcasts with a set of previously stored media broadcasts associated with the media collection device.

Abstract: A first message resilience client device receives from a second message resilience client device a message and a request to deliver the message to a client/server-based server application executed by a server device on behalf of a remote client/server-based client application executed by the second message resilience client device that originated the message. A determination is made as to whether a connection to the server device that executes the client/server-based server application is currently possible using at least one available connection. In response to determining that the connection to the server device that executes the client/server-based server application is not currently possible, the message is stored locally for one of later delivery to the client/server-based server application and propagation of the message to another message resilience client device on behalf of the remote client/server-based client application.

Abstract: A method and system of authenticating communications sessions between two or more parties over one or more simultaneous communications channels using one or more communicating devices is provided including having a first party create a first set of signatures, wherein the first set of signatures includes a signature for each communications channel, communicating with at a second party over at least one communications channel, whereby the second party authenticates the first party's signature associated with the at least one communications channel and accepts communication with the first party.

Abstract: A method and system of authenticating communications sessions between two or more parties over one or more simultaneous communications channels using one or more communicating devices is provided including having a first party create a first set of signatures, wherein the first set of signatures includes a signature for each communications channel, communicating with at a second party over at least one communications channel, whereby the second party authenticates the first party's signature associated with the at least one communications channel and accepts communication with the first party.

Abstract: A physical network address of one of a set of wireless customer-premise monitoring devices is translated to a shared logical device physical network address in response to receipt from an application server of a first data packet addressed to the physical network address. The shared logical device physical network address forms a logical device group and physically addresses each of the set of wireless customer-premise monitoring devices over a single wireless communication channel. The physical network address of the one of the set of wireless customer-premise monitoring devices is embedded within the first data packet addressed to the shared logical device physical network address. The first data packet is sent to the shared logical device physical network address.

Abstract: A shared logical device physical network address is assigned to each of a set of wireless physical devices. The set of wireless physical devices forms a logical device group addressable over a single wireless communication channel using the shared logical device physical network address within a wireless network. In response to receipt of a data packet addressed to a physical network address of one of the set of wireless physical devices from an application server, the physical network address is translated to the shared logical device physical network address with which the wireless physical device is logically grouped. The physical network address of the wireless physical device is embedded within the data packet addressed to the shared logical device physical network address. The data packet is sent to the shared logical device physical network address.

Abstract: A shared logical device physical network address is assigned to each of a set of wireless physical devices. The set of wireless physical devices forms a logical device group addressable over a single wireless communication channel using the shared logical device physical network address within a wireless network. In response to receipt of a data packet addressed to a physical network address of one of the set of wireless physical devices from an application server, the physical network address is translated to the shared logical device physical network address with which the wireless physical device is logically grouped. The physical network address of the wireless physical device is embedded within the data packet addressed to the shared logical device physical network address. The data packet is sent to the shared logical device physical network address.

Abstract: A first message resilience client device receives from a second message resilience client device a message and a request to deliver the message to a client/server-based server application executed by a server device on behalf of a remote client/server-based client application executed by the second message resilience client device that originated the message. A determination is made as to whether a connection to the server device that executes the client/server-based server application is currently possible using at least one available connection. In response to determining that the connection to the server device that executes the client/server-based server application is not currently possible, the message is stored locally for one of later delivery to the client/server-based server application and propagation of the message to another message resilience client device on behalf of the remote client/server-based client application.

Abstract: A first message resilience client device receives from a second message resilience client device a message and a request to deliver the message to a client/server-based server application executed by a server device on behalf of a remote client/server-based client application executed by the second message resilience client device that originated the message. A determination is made as to whether a connection to the server device that executes the client/server-based server application is currently possible using at least one available connection. In response to determining that the connection to the server device that executes the client/server-based server application is not currently possible, the message is stored locally for one of later delivery to the client/server-based server application and propagation of the message to another message resilience client device on behalf of the remote client/server-based client application.

Abstract: Aspects of the present invention provide a solution for controlling electricity to a device. A sensor is associated with a device that is independently coupled to an electricity distribution network. The sensor senses electricity usage for the device. Based on the sensed electricity usage for the device, an electricity usage pattern is identified for the device. This electricity usage pattern is used to identify a classification of the device. Based on this device classification the supply of electricity to the device can be controlled as needed by the provider.

Abstract: A shared logical device physical network address is assigned to each of a set of wireless physical devices. The set of wireless physical devices forms a logical device group addressable over a single wireless communication channel using the shared logical device physical network address within a wireless network. In response to receipt of a data packet addressed to a physical network address of one of the set of wireless physical devices from an application server, the physical network address is translated to the shared logical device physical network address with which the wireless physical device is logically grouped. The physical network address of the wireless physical device is embedded within the data packet addressed to the shared logical device physical network address. The data packet is sent to the shared logical device physical network address.

Abstract: A shared logical device physical network address is assigned to each of a set of wireless physical devices. The set of wireless physical devices forms a logical device group addressable over a single wireless communication channel using the shared logical device physical network address within a wireless network. In response to receipt of a data packet addressed to a physical network address of one of the set of wireless physical devices from an application server, the physical network address is translated to the shared logical device physical network address with which the wireless physical device is logically grouped. The physical network address of the wireless physical device is embedded within the data packet addressed to the shared logical device physical network address. The data packet is sent to the shared logical device physical network address.

Abstract: Aspects of the present invention provide a solution for controlling electricity to a device. A sensor is associated with a device that is independently coupled to an electricity distribution network. The sensor senses electricity usage for the device. Based on the sensed electricity usage for the device, an electricity usage pattern is identified for the device. This electricity usage pattern is used to identify a classification of the device. Based on this device classification the supply of electricity to the device can be controlled as needed by the provider.

Abstract: The present disclosure teaches a solution for a user customizable abstraction layer for tailoring all operating system, application, and web based interfaces. The interface differs from conventional user interfaces by presenting a dynamic interface which can enable user access across all domains and applications with which the user can interact. The interface can be dynamically built as a user interacts with clients (e.g., devices/applications). Clients can utilize common usage patterns, installed application, installed themes, personal information, and the like, to create a highly customized adaptive user designed and modifiable interface.

Abstract: A method and system of authenticating communications sessions between two or more parties over one or more simultaneous communications channels using one or more communicating devices is provided including having a first party create a first set of signatures, wherein the first set of signatures includes a signature for each communications channel, communicating with at a second party over at least one communications channel, whereby the second party authenticates the first party's signature associated with the at least one communications channel and accepts communication with the first party.