Abstract: A method of activating and configuring an access point (AP) located at a location of a customer of an entity is disclosed. A first communication from the AP is received by a cloud-based Wi-Fi service manager, wherein the first communication includes a first unique identifier for the AP. A second communication from an administrator of the entity is received by the cloud-based Wi-Fi service manager, wherein the second communication includes a second unique identifier for the AP and an identifier for the customer of the entity. The AP is associated with the customer by the cloud-based Wi-Fi service manager. Configuration information for the customer is retrieved by the cloud-based Wi-Fi service manager. The configuration information is sent to the AP by the cloud-based Wi-Fi service manager, wherein the configuration information is used by the AP for configuration.

Abstract: Computer systems and logic are operable to establish a local network connection to a network device; establish a remote network connection to a network service provider; create and send a message to the network service provider that requests the network service provider to provide configuration data for the network device; receive from the network service provider a network location identifier specifying a location in a network of the configuration data; download the configuration data from the network service provider by accessing the network location identifier; and install the configuration data in the network device. In one embodiment, VoIP trunk information is provisioned to an IP-PBX across a network without manual entry or long time delays.

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 system for negotiating routable Internet Protocol (IP) addresses is provided. The system includes a communication device that is operable to transmit a request for a routable Internet Protocol (IP) address, and a cellular router in communication with the communication device. The routable IP address may be used to provide communication to the communication device. The cellular router is operable to receive the request for the routable IP address and negotiate an IP subnet. The IP subnet includes a plurality of routable IP addresses, which are allocated to the cellular router. The cellular router is operable to provide at least one of the plurality of routable IP addresses to the communication device.

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: Disclosed are apparatus and methods for managing session data in a session border controller (SBC), where the session data is sent from a first node, such as a first phone, to a second node, such as a registrar or second phone. In general, embodiments of the present invention support SBC functionality by managing sessions through the SBC without implementing a terminate and regenerate of the sessions, but rather by intercepting packets destined to the second node and efficiently handling such functionality in the forwarding-path. Also in deployments where the endnodes require NAT (network address translation), mechanisms are provided in the SBC to perform NAT on the addresses embedded in the payload of the session data. In other aspects, mechanisms for keeping the sessions or NAT entries alive are facilitated at the SBC, even when an endnode has a expiration time that differs an expiration time of another device, such as a registar device.

Abstract: Methods and devices are provided for identifying, locating and provisioning individual RFID devices in a network with “personalities” that are appropriate for the roles of the RFID devices. 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, MAC address information and EPC information can be combined to identify a particular device and its location in a network. For implementations using the Dynamic Host Configuration Protocol (“DHCP”), DHCP Options may be used to pass provisioning information. Some implementations employ Domain Name Service (“DNS”) and dynamic DNS (“DDNS”) to allow easy identification of RFID devices.

Abstract: A method and apparatus for assigning an IP address, in a modular network system, to at least one client premise equipment device coupled by a communications link to a router, wherein the last octet of said IP address may be one of at least three different values.

Abstract: Methods and devices are provided for identifying, locating and provisioning individual RFID 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, MAC address information and EPC information can be combined to identify a particular device and its location in a network. For implementations using the Dynamic Host Configuration Protocol (“DHCP”), DHCP Options may be used to pass provisioning information. Some implementations employ Domain Name Service (“DNS”) and dynamic DNS (“DDNS”) to allow easy identification of RFID devices.

Abstract: Methods and devices are provided for identifying, locating and provisioning individual RFID devices in a network with “personalities” that are appropriate for the roles of the RFID devices. 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, MAC address information and EPC information can be combined to identify a particular device and its location in a network. For implementations using the Dynamic Host Configuration Protocol (“DHCP”), DHCP Options may be used to pass provisioning information. Some implementations employ Domain Name Service (“DNS”) and dynamic DNS (“DDNS”) to allow easy identification of RFID devices.

Abstract: Methods and devices are provided for identifying and provisioning individual RFID 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, MAC address information and EPC information can be combined to identify a particular device and its location in a network. For implementations using the Dynamic Host Configuration Protocol (“DHCP”), DHCP Options may be used to pass provisioning information. Some implementations employ Domain Name Service (“DNS”) and dynamic DNS (“DDNS”) to allow easy identification of RFID devices.

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: A network device has a first interface to allow communication with at least one network-capable camera and a second interface to allow communication with a network. A processor allows the device to receive video data from the network-capable camera receive commands for the cameras from the network and communicate them from the network. The network device may also have a video encoder to allow network-incapable cameras to communicate across the network. A method of managing a video surveillance data network receives data from a network-capable camera and registers the camera with a network management device. An identification number for the camera is provided and video data from the camera is transmitted across a network. Requests for communication with the camera are screened to only allow authorized users to access data from the camera.

Abstract: A method and apparatus for assigning an IP address, in a modular network system, to at least one client premise equipment device coupled by a communications link to a router, wherein the last octet of said IP address may be one of at least three different values.

Abstract: A method and apparatus for assigning an IP address, in a modular network system, to at least one client premise equipment device coupled by a communications link to a router, wherein the last octet of said IP address may be one of at least three different values.

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, locating and provisioning individual RFID 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, MAC address information and EPC information can be combined to identify a particular device and its location in a network. For implementations using the Dynamic Host Configuration Protocol (“DHCP”), DHCP Options may be used to pass provisioning information. Some implementations employ Domain Name Service (“DNS”) and dynamic DNS (“DDNS”) to allow easy identification of RFID devices.

Abstract: Methods and devices are provided for identifying, locating and provisioning individual RFID devices in a network with “personalities” that are appropriate for the roles of the RFID devices. 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, MAC address information and EPC information can be combined to identify a particular device and its location in a network. For implementations using the Dynamic Host Configuration Protocol (“DHCP”), DHCP Options may be used to pass provisioning information. Some implementations employ Domain Name Service (“DNS”) and dynamic DNS (“DDNS”) to allow easy identification of RFID devices.