Abstract: Making the best customer-agent matching decision to engage in a communication to resolve a work item is a primary objective of any contact center. In addition to or as an alternative to standard routing decisions, a real-time agent-matching module is selected from a pool of agent-matching modules, each real-time agent-matching module being unique in its ability to match a resource (e.g., agent) to a customer. The real-time agent-matching modules may differ from one another in terms of information gathered and/or utilizing logic unique to that particular agent-matching module. An orchestration layer is provided to select a single agent-matching module or a series or parallel number of agent-matching modules to select a resource and connect to the customer.

Abstract: Embodiments of the disclosure provide a method of operating a contact center. In some embodiments, the method includes receiving a call from a customer communication device, transitioning the call from a voice domain into a digital domain, and enabling the contact center to interact with the customer communication device in at least the digital domain after the call has been transitioned from the voice domain into the digital domain.

Abstract: The technology disclosed herein enables incorporation of feature sets of a unified communications system and a contact center system. In a particular embodiment, a method includes, in a contact center system, in response to an agent logging into the contact center system, establishing a first connection between the contact center system and a unified communications endpoint operated by the agent. The first connection is established using a unified communications system that services the unified communications endpoint. After establishing the first connection, the method includes identifying a call on a second connection between the contact center system and a second endpoint operated by a user. In response to selecting the agent to handle the call, the method includes bridging the first connection and the second connection.

Abstract: The technology disclosed herein enables incorporation of feature sets of a unified communications system and a contact center system. In a particular embodiment, a method includes, in a contact center system, in response to an agent logging into the contact center system, establishing a first connection between the contact center system and a unified communications endpoint operated by the agent. The first connection is established using a unified communications system that services the unified communications endpoint. After establishing the first connection, the method includes identifying a call on a second connection between the contact center system and a second endpoint operated by a user. In response to selecting the agent to handle the call, the method includes bridging the first connection and the second connection.

Abstract: Embodiments of the disclosure provide a method of operating a contact center. In some embodiments, the method includes receiving a call from a customer communication device, transitioning the call from a voice domain into a digital domain, and enabling the contact center to interact with the customer communication device in at least the digital domain after the call has been transitioned from the voice domain into the digital domain.

Abstract: A communication system, method, and components are described. Specifically, a communication system having the ability to carry a transitive context and communicate the transitive context to new participant user agents for continuity through all related call dialogs is disclosed. The transitive context communication is possible through the use of a newly created SIP dialog using a REFER message and/or an INVITE message for all call flows and topology change operations.

Abstract: A communication system, method, and components are described. Specifically, a communication system having the ability to carry a transitive context and communicate the transitive context to new participant user agents for continuity through all related call dialogs is disclosed. The transitive context communication is possible through the use of a newly created SIP dialog using a REFER message and/or an INVITE message for all call flows and topology change operations.

Abstract: A contact originator is given a choice to enqueue the contact in multiple contact queues, to serve multiple needs or interests of the originator. If the contact reaches the head of the queue for the primary need while the contact is being serviced from a queue for a secondary need, the contact either remains at the head of the primary-need queue until the servicing at the secondary-need queue is completed, or a resource of the primary-need queue is conferenced in with the contact and the resource of the secondary-need queue so that the resources can serve both needs simultaneously.

Abstract: A contact originator is given a choice to enqueue the contact in multiple contact queues, to serve multiple needs or interests of the originator. If the contact reaches the head of the queue for the primary need while the contact is being serviced from a queue for a secondary need, the contact either remains at the head of the primary-need queue until the servicing at the secondary-need queue is completed, or a resource of the primary-need queue is conferenced in with the contact and the resource of the secondary-need queue so that the resources can serve both needs simultaneously.

Abstract: In a computer-telephony integrated (CTI) contact center, a CTI adjunct (160) enqueues contacts in contact queues (184) of the CTI adjunct, but also causes contacts that are calls (168) to be enqueued as ACD calls in ACD call queues (120) of an ACD system (101), whereby the ACD system and its management information system (MIS 110) provide ACD features to the calls. Similarly, the CTI adjunct enqueues agents in agent queues (185) of the CTI adjunct, but also causes agents (102-104) that have call-handling skills to log into and to be enqueued as ACD agents in ACD agent queues (130) of the ACD system, whereby the ACD system and its MIS provide ACD features to the agents.

Abstract: In a computer integrated telephony call center where an adjunct host (160) normally controls enqueuing of calls (168) in call queues (120) of an ACD system (101) and corresponding call queues (120′) of the adjunct host and assigning of the enqueued calls to agents, the ACD system assumes (604) control over its call queues upon loss of the control by the adjunct host (e.g., upon failure (600) of the adjunct host). The ACD system flags (602, 606) all calls that are enqueued at the time of loss of the adjunct host control as well as all calls that the ACD subsequently enqueues as being under ACD system control. When the adjunct host regains its control ability, the ACD system stops flagging new calls, call queues of the host processor are cleared (702), and the adjunct host regains control (722) of enqueuing calls in call queues of the ACD and the adjunct host.

Abstract: In a computer-telephony integrated (CTI) contact center, a CTI adjunct (160) enqueues contacts in contact queues (184) of the CTI adjunct, but also causes contacts that are calls (168) to be enqueued as ACD calls in ACD call queues (120) of an ACD system (101), whereby the ACD system and its management information system (MIS 110) provide ACD features to the calls. Similarly, the CTI adjunct enqueues agents in agent queues (185) of the CTI adjunct, but also causes agents (102-104) that have call-handling skills to log into and to be enqueued as ACD agents in ACD agent queues (130) of the ACD system, whereby the ACD system and its MIS provide ACD features to the agents.

Abstract: In a computer integrated telephony call center where an adjunct host (160) normally controls enqueuing of calls (168) in call queues (120) of an ACD system (101) and corresponding call queues (120′) of the adjunct host and assigning of the enqueued calls to agents, the ACD system assumes (604) control over its call queues upon loss of the control by the adjunct host (e.g., upon failure (600) of the adjunct host). The ACD system flags (602, 606) all calls that are enqueued at the time of loss of the adjunct host control as well as all calls that the ACD subsequently enqueues as being under ACD system control. When the adjunct host regains its control ability, the ACD system stops flagging new calls, call queues of the host processor are cleared (702), and the adjunct host regains control (722) of enqueuing calls in call queues of the ACD and the adjunct host.