Abstract: Embodiments of the present invention provide a robust customer service environment employing “Key Performance Indicators” (KPIs), which represent both customer interaction experiences and also the overall efficacy of agent performance on an interaction-by-interaction basis. A KPI can be any metric for measuring a category of information related to a call center interaction, e.g., customer satisfaction or agent ability/performance. Input from customer experiences is catalogued and linked to one or more KPIs. Key performance indicators are associated with a key performance indicator template, which is linked with a project comprising routing rules, triggers, and specific actions that are driven as a result of the key performance indicator template. The project may be a phone/IVR project, Web CallBack project, email project, or a Chat project. Execution of the key performance indicator template triggers pre-, during, and/or post-call, -chat, -CallBack, or -email input from a call center user.

Abstract: The present invention facilitates the creation and implementation of Workflow Templates and also the designation of linkage between these templates and specific projects dealing with different media type handling. Workflow Templates are used to automatically generate user interface views which will be used by agents, knowledge workers, supervisors and customers. Such Workflow Templates provide the means to create, define and store the name and definition of and “trigger points” for each workflow item. The trigger points for when a document is used are also determined when creating the template. Further, in creating a Workflow Templates the administrator can instruct the system to save scripts associated with the template that can be saved as XML, EDI, JSP, CGI, VXML, etc. so as to be able to automatically generate documents or logic flows consistent with the target media type for the anticipated interactions with customers.

Abstract: A software-based distributed architecture allows rapid provisioning and flexible management of fault-tolerant call centers for interaction between companies' agents and outside customers via multi-media messages, using both real time and non-real time messages. The real time messages include web-based chat, forms and applications sharing, PSTN calls, and incoming and outgoing Voice over IP calls. The non-real time messages include web call-back requests, voice messages, fax messages, and email messages. The architecture provides for sharing of non-dedicated resources among multiple companies, mirrored hot backup, dynamic resource provisioning and allocation, dynamic load balancing, and implementation of service controls on individual companies in accordance with subscription service limits.

Abstract: A software-based distributed architecture allows rapid provisioning and flexible management of fault-tolerant call centers for interaction between companies' agents and outside customers via multi-media messages, using both real time and non-real time messages. The real time messages include web-based chat, forms and applications sharing, PSTN calls, and incoming and outgoing Voice over IP calls. The non-real time messages include web call-back requests, voice messages, fax messages, and email messages. The architecture provides for sharing of non-dedicated resources among multiple companies, mirrored hot backup, dynamic resource provisioning and allocation, dynamic load balancing, and implementation of service controls on individual companies in accordance with subscription service limits.

Abstract: A software-based distributed architecture allows rapid provisioning and flexible management of fault-tolerant call centers for interaction between companies' agents and outside customers via multi-media messages, using both real time and non-real time messages. The real time messages include web-based chat, forms and applications sharing, PSTN calls, and incoming and outgoing Voice over IP calls. The non-real time messages include web call-back requests, voice messages, fax messages, and email messages. The architecture provides for sharing of non-dedicated resources among multiple companies, mirrored hot backup, dynamic resource provisioning and allocation, dynamic load balancing, and implementation of service controls on individual companies in accordance with subscription service limits.

Abstract: A network-based call center for managing a company's interactions with its customers uses resources supplied by an application service provider. The call center stores sensitive information on a database within the company's private network, behind a firewall. When a call center resource or another client or server obtains new sensitive information, the resource writes the information to the database and then erases the information. When a resource needs sensitive information stored on the database, the resource requests the information from the database, uses it, and then erases the information. The call center further provides a browser-based tool, running on the Internet, for enabling non-technical personnel of the company to provision a call center from the resources of the application service provider.

Abstract: A multi-media call center provides an interface tool for enabling non-technical personnel of a company running the call center to provision and configure the call center from available resources. The calls received by the call center are identified and their attributes useful in queuing the calls are determined. Based on the attributes, priority ratings are computed for the calls by applying a predetermined function to the attributes, and the calls are queued in accordance with their respective priority ratings. The weights to be given to the various priority attributes and the initial values of the customer-specific priority attributes are set through the interface tool during the provisioning and configuring process. The attributes are linked to the call center's live database, and the values of the customer-specific priority attributes are dynamically updated, so that events relevant to call prioritization that occur after the initial configuration has been completed can affect call queuing.

Abstract: A software-based distributed architecture allows rapid provisioning and flexible management of fault-tolerant call centers for interaction between companies' agents and outside customers via multi-media messages, using both real time and non-real time messages. The real time messages include web-based chat, forms and applications sharing, PSTN calls, and incoming and outgoing Voice over IP calls. The non-real time messages include web call-back requests, voice messages, fax messages, and email messages. The architecture provides for sharing of non-dedicated resources among multiple companies, mirrored hot backup, dynamic resource provisioning and allocation, dynamic load balancing, and implementation of service controls on individual companies in accordance with subscription service limits.

Abstract: A network-based call center for managing a company's interactions with its customers uses resources supplied by an application service provider. The call center stores sensitive information on a database within the company's private network, behind a firewall. When a call center resource or another client or server obtains new sensitive information, the resource writes the information to the database and then erases the information. When a resource needs sensitive information stored on the database, the resource requests the information from the database, uses it, and then erases the information. The call center further provides a browser-based tool, running on the Internet, for enabling non-technical personnel of the company to provision a call center from the resources of the application service provider.

Abstract: A multi-media call center provides an interface tool for enabling non-technical personnel of a company running the call center to provision and configure the call center from available resources. The calls received by the call center are identified and their attributes useful in queuing the calls are determined. Based on the attributes, priority ratings are computed for the calls by applying a predetermined function to the attributes, and the calls are queued in accordance with their respective priority ratings. The weights to be given to the various priority attributes and the initial values of the customer-specific priority attributes are set through the interface tool during the provisioning and configuring process. The attributes are linked to the call center's live database, and the values of the customer-specific priority attributes are dynamically updated, so that events relevant to call prioritization that occur after the initial configuration has been completed can affect call queuing.