Abstract: The present disclosure relates to systems and methods for automatically converting one or more emails to one or more chat conversations and for automatically converting a chat conversation to an email thread.

Abstract: The present disclosure relates to systems and methods for automatically converting one or more emails to one or more chat conversations and for automatically converting a chat conversation to an email thread.

Abstract: The present disclosure relates to systems and methods for automatically converting one or more emails to one or more chat conversations and for automatically converting a chat conversation to an email thread.

Abstract: Systems and methods for routing an incoming service request to one of a plurality of pod units are described. A communication system can be provided that includes a plurality of pods each having a first pod serving a first subset of user accounts associated with a hosted PBX system. The first pod can include a first pod unit in a first data center and a second pod unit in a second data center. A global user directory (GUD) can be used to store a plurality of user keys that are mapped to the plurality of pods. A router can be provided to identify a user key from an incoming service request, query the GUD to identify the first pod as being associated with the user key, and route the incoming service request to one of the first and second pod units.

Abstract: Methods and systems for instant activation of virtual PBX services on a mobile device are disclosed. In one aspect, a user request for activating virtual PBX services is received on a mobile device. An available primary identification number for the virtual PBX services is retrieved from a telecommunication service provider (TSP). A user interface is presented on the mobile device including a first interface portion presenting the available primary identification number and a second interface portion configured to receive a user identifier. Upon receiving the user input specifying the user identifier and while the user interface is still presented on the mobile device, a user instruction for activating the virtual PBX services is received. Upon receiving the user instruction, the user identifier is sent to the TSP. Then, a confirmation is received from the TSP.

Abstract: A mobile device can be assigned to an extension configured as a Queue Agent (“QA”) in a call-queuing enabled virtual private branch exchange (vPBX). This and other mobile or fixed devices can be interconnected to form a virtual call center. Each extension can be assigned various rules, which specify how the incoming calls are answered at the extension and how calls in the call queue are selected for answering by the QA. As part of the rules, the vPBX system forwards calls from a call queue to the QA based on QA's availability status. If a location-aware mobile device is associated with the QA, the vPBX system can determine the QA's availability status based on a geographic location of the mobile device. A most geographically proximate agent can be selected for answering the call.

Abstract: Systems, methods and computer program products for facilitating the provisioning of a single and multi-line virtual private branch exchange (PBX) including automated call distribution via a mobile device are described. In some implementations, the provisioning of the single and multi-line virtual PBX can be achieved using one or more unique provisioning interfaces. The unique provisioning interfaces can enable the setup and configuration of a virtual PBX service account instantaneously from any geographical location at any time. Changes made to the virtual PBX service account can be immediately reflected back (e.g., in real-time) to the system providing the core operating environment.

Abstract: A second communication mode can be enabled for a source device and a destination device. Each device can be a mobile device having a first communication mode and a default number for the first communication mode. The default numbers for the source device and the destination device can be stored. A call request can be received from the source device operating in the second communication mode. The call request can be directed to the default number of the destination device. The destination device can be determined as a client based on the default number of the destination device. A communication session can be established between the source device and the destination device over a network upon determining the destination device is an active client.

Abstract: Systems, methods and computer program products for utilizing location information in a virtual private branch exchange (vPBX) system are described. In some implementations, the vPBX system can use the location information to determine an availability status of a user of a mobile device (e.g., out of the office, in the office, at home, busy, and the like). The vPBX system can obtain the geographic coordinates of the mobile device and correlate these coordinates with known coordinates for locations associated with the user (e.g., the user's office, home, or other predefined locations). An inference of the user's availability can then be determined based on the correlation (e.g., whether the user is currently out of the user's office, at the user's home, or at another location). The user's availability can be made available to other users associated with the vPBX system, and can be used for call management (e.g., routing).

Abstract: A mobile device can be assigned to an extension configured as a Queue Agent (“QA”) in a call-queuing enabled virtual private branch exchange (vPBX). This and other mobile or fixed devices can be interconnected to form a virtual call center. Each extension can be assigned various rules, which specify how the incoming calls are answered at the extension and how calls in the call queue are selected for answering by the QA. As part of the rules, the vPBX system forwards calls from a call queue to the QA based on QA's availability status. If a location-aware mobile device is associated with the QA, the vPBX system can determine the QA's availability status based on a geographic location of the mobile device. A most geographically proximate agent can be selected for answering the call.

Abstract: Systems, methods and computer program products for enabling integration between various internet- or non-internet based communication services (e.g., as provided by different communications platforms and service providers) using a universal platform are described. In some implementations, a service manager is provided that can integrate call management capabilities with multiple communications platforms using the universal platform to enable seamless communication between the various platforms. For example, interactions between individual users on one or more platforms can be tracked in a single conversation history as a threaded interface. The universal platform can integrate with various platforms and third party protocols and services to provide call features that include, for example, call forwarding, call handling, multiple greeting prompts, call screening rules, ring-out rules, international calling, caller ID rules, after hours, and announcement prompts.

Abstract: A mobile device can be assigned to an extension configured as a Queue Agent (“QA”) in a call-queuing enabled virtual private branch exchange (vPBX). This and other mobile or fixed devices can be interconnected to form a virtual call center. Each extension can be assigned various rules, which specify how the incoming calls are answered at the extension and how calls in the call queue are selected for answering by the QA. As part of the rules, the vPBX system forwards calls from a call queue to the QA based on QA's availability status. If a location-aware mobile device is associated with the QA, the vPBX system can determine the QA's availability status based on a geographic location of the mobile device. A most geographically proximate agent can be selected for answering the call.

Abstract: Methods and systems for instant activation of virtual PBX services on a mobile device are disclosed. In one aspect, a user request for activating virtual PBX services is received on a mobile device. An available primary identification number for the virtual PBX services is retrieved from a telecommunication service provider (TSP). A user interface is presented on the mobile device including a first interface portion presenting the available primary identification number and a second interface portion configured to receive a user identifier. Upon receiving the user input specifying the user identifier and while the user interface is still presented on the mobile device, a user instruction for activating the virtual PBX services is received. Upon receiving the user instruction, the user identifier is sent to the TSP. Then, a confirmation is received from the TSP.

Abstract: Methods and systems for instant activation of virtual PBX services on a mobile device are disclosed. In one aspect, a user request for activating virtual PBX services is received on a mobile device. An available primary identification number for the virtual PBX services is retrieved from a telecommunication service provider (TSP). A user interface is presented on the mobile device including a first interface portion presenting the available primary identification number and a second interface portion configured to receive a user identifier. Upon receiving the user input specifying the user identifier and while the user interface is still presented on the mobile device, a user instruction for activating the virtual PBX services is received. Upon receiving the user instruction, the user identifier is sent to the TSP. Then, a confirmation is received from the TSP.

Abstract: Systems, methods and computer program products for enabling integration between various internet- or non-internet based communication services (e.g., as provided by different communications platforms and service providers) using a universal platform are described. In some implementations, a service manager is provided that can integrate call management capabilities with multiple communications platforms using the universal platform to enable seamless communication between the various platforms. For example, interactions between individual users on one or more platforms can be tracked in a single conversation history as a threaded interface. The universal platform can integrate with various platforms and third party protocols and services to provide call features that include, for example, call forwarding, call handling, multiple greeting prompts, call screening rules, ring-out rules, international calling, caller ID rules, after hours, and announcement prompts.

Abstract: Systems, methods and computer program products for enabling integration between various internet- or non-internet based communication services (e.g., as provided by different communications platforms and service providers) using a universal platform are described. In some implementations, a service manager is provided that can integrate call management capabilities with multiple communications platforms using the universal platform to enable seamless communication between the various platforms. For example, interactions between individual users on one or more platforms can be tracked in a single conversation history as a threaded interface. The universal platform can integrate with various platforms and third party protocols and services to provide call features that include, for example, call forwarding, call handling, multiple greeting prompts, call screening rules, ring-out rules, international calling, caller ID rules, after hours, and announcement prompts.

Abstract: Systems, methods and computer program products for utilizing location information in a virtual private branch exchange (vPBX) system are described. In some implementations, the vPBX system can use the location information to determine an availability status of a user of a mobile device (e.g., out of the office, in the office, at home, busy, and the like). The vPBX system can obtain the geographic coordinates of the mobile device and correlate these coordinates with known coordinates for locations associated with the user (e.g., the user's office, home, or other predefined locations). An inference of the user's availability can then be determined based on the correlation (e.g., whether the user is currently out of the user's office, at the user's home, or at another location). The user's availability can be made available to other users associated with the vPBX system, and can be used for call management (e.g., routing).

Abstract: A mobile device can be assigned to an extension configured as a Queue Agent (“QA”) in a call-queuing enabled virtual private branch exchange (vPBX). This and other mobile or fixed devices can be interconnected to form a virtual call center. Each extension can be assigned various rules, which specify how the incoming calls are answered at the extension and how calls in the call queue are selected for answering by the QA. As part of the rules, the vPBX system forwards calls from a call queue to the QA based on QA's availability status. If a location-aware mobile device is associated with the QA, the vPBX system can determine the QA's availability status based on a geographic location of the mobile device. A most geographically proximate agent can be selected for answering the call.

Abstract: A vPBX server manages calls in a bridged line appearance (BLA) group. A BLA group can include extensions for location-aware mobile devices. The vPBX server contains location based forwarding rules that can be applied together with BLA redirection rules in managing incoming calls. A single extension can appear as a user interface element (e.g., an icon or button) on multiple mobile devices. Using the user interface element, a primary user can view a secondary user's status, including the secondary user's location information. The vPBX server allows the primary user to redirect the incoming calls to devices in accordance with the forwarding rules and the redirection rules.

Abstract: Systems, methods and computer program products for utilizing location information in a virtual private branch exchange (vPBX) system are described. In some implementations, the vPBX system can use the location information to determine an availability status of a user of a mobile device (e.g., out of the office, in the office, at home, busy, and the like). The vPBX system can obtain the geographic coordinates of the mobile device and correlate these coordinates with known coordinates for locations associated with the user (e.g., the user's office, home, or other predefined locations). An inference of the user's availability can then be determined based on the correlation (e.g., whether the user is currently out of the user's office, at the user's home, or at another location). The user's availability can be made available to other users associated with the vPBX system, and can be used for call management (e.g., routing).