Abstract: Techniques are provided for assigning extension numbers to Internet Protocol (IP) telephony devices. The techniques include receiving a message from the IP telephony device requesting that an extension be assigned. A port identifier of a port in which the IP telephony device is coupled is determined. Extension numbers are fixed for specific ports. Thus, an extension number for the port identifier of the port is determined. The extension number is then assigned to the IP telephony device. For example, a MAC address for the IP phone is assigned to the extension number.

Abstract: Methods and devices are provided for identifying end devices and automatically configuring associated network settings. Preferred implementations of the invention do not require users to manually identify connection types (e.g., RFID, IPphone, manufacturing device, etc.) or to manually configure the network device. Accordingly, such implementations allow automatic switch configuration, even for devices that use inconsistent protocols and/or protocols that are not well known. Some methods of the invention employ DHCP options combined with traffic snooping to identify devices and automatically apply appropriate switch port configuration.

Abstract: Methods and devices are provided for identifying end devices and automatically configuring associated network settings. Preferred implementations of the invention do not require users to manually identify connection types (e.g., RFID, IPphone, manufacturing device, etc.) or to manually configure the network device. Accordingly, such implementations allow automatic switch configuration, even for devices that use inconsistent protocols and/or protocols that are not well known. Some methods of the invention employ DHCP options combined with traffic snooping to identify devices and automatically apply appropriate switch port configuration.

Abstract: Methods and devices are provided for identifying end devices and automatically configuring associated network settings. Preferred implementations of the invention do not require users to manually identify connection types (e.g., RFID, IPphone, manufacturing device, etc.) or to manually configure the network device. Accordingly, such implementations allow automatic switch configuration, even for devices that use inconsistent protocols and/or protocols that are not well known. Some methods of the invention employ DHCP options combined with traffic snooping to identify devices and automatically apply appropriate switch port configuration.

Abstract: A method and system for transferring audio content to a telephone-switching system is provided. The telephone-switching system receives the audio content from a source. Thereafter, the telephone-switching system authenticates the source. The telephone-switching system also authenticates the audio content. Thereafter, the telephone-switching system stores the audio content in a file directory of the telephone-switching system.

Abstract: Methods and devices are provided for locating, identifying and provisioning devices in a network. According to some implementations of the invention, a combination of EPC code information and existing networking standards form the basis of identifying and provisioning methods. For example, location information included in a DHCPDISCOVER request can be used to determine appropriate configurations for networked devices. In some such implementations, the location information is read from an RFID tag near the networked device and is inserted in the DHCPDISCOVER request. The location information may include any type of absolute or relative coordinate, positioning, cartographic or similar information and/or information from which such information may be derived.

Abstract: Methods and devices are provided for locating, identifying and provisioning devices in a network. According to some implementations of the invention, a combination of EPC code information and existing networking standards form the basis of identifying and provisioning methods. For example, first location information included in a DHCPDISCOVER request can be used to determine appropriate configurations for networked devices. In some such implementations, the first location information is read from an RFID tag near the networked device and is inserted in the DHCPDISCOVER request. The first location information may include any type of absolute or relative coordinate, positioning, cartographic or similar information and/or information from which such information may be derived. Second location information, which may be a logical name, is provided to the device. If the device is an RFID reader, the second location information may be included with reads from RFID tags that are transmitted from the RFID reader.