Abstract:
An aspect of the present disclosure enables an access point (AP) to conveniently provision multiple wireless devices. In an embodiment, the AP may normally operate in a secure mode to disregard non-secure provisioning requests from wireless devices. However, upon receipt of a request to accept provisioning requests from multiple wireless devices, the AP permits multiple wireless devices to be provisioned via the AP, in response to corresponding provisioning requests received from the respective wireless devices. The request to accept may be generated upon pressing of a push button provided on the AP, which may be referred to as a group provisioning button since multiple wireless devices are provisioned in response to pressing of that button.
Abstract:
A WiFi-enabled embedded device boots as a first access point. The WiFi-enabled embedded device communicates with a first wireless station to receive configuration parameters while continuing to operate as an access point. The WiFi-enabled embedded device then applies the configuration parameters internally to cause the WiFi-enabled embedded device to operate as a second wireless station. In an embodiment, the first wireless station discovers a configuration service advertized by the WiFi-enabled embedded device using mDN/DNS-SD, and automatically provides the configuration parameters to the WiFi-enabled embedded device. Convenient provisioning of the WiFi-enabled embedded device is thus made possible.
Abstract:
An access point communicates with a wireless station based on a point-to-point channel, to determine time instances of future communication to be received from the wireless station. In intervals between such future communications, the access point powers down at least some portions of a circuit contained within the access point for at least a partial duration between such future communications. In an embodiment, the powered-down portions include the receiver portions of the access point. The access point may be battery-powered, and the powering-down of the receiver portions enables reduction of power consumption in the access point.
Abstract:
A wireless station (A) is operated in a power-save mode, in which the station is alternately in power-ON and power-OFF states to reduce power consumption. Wireless station (A) computes at least some future time instances at which another wireless station (B) is expected to start transmitting control messages. Wireless station (A) is ensured to be in the power-ON state in corresponding time intervals encompassing durations of at least some of such future transmissions of control messages by wireless station (B), and is thereby enabled to receive the control messages. In an embodiment, the control messages correspond to group key message updates in which values of a decryption key are transmitted, wireless station (A) being a wireless client, wireless station (B) being an access point, with wireless stations (A) and (B) operating in a wireless network consistent with IEEE 802.11 specifications, and communication between wireless stations (A) and (B) being encrypted.
Abstract:
An edge router receives datagrams to be forwarded an SVC. If the SVC is not already set up, the edge router buffers the datagrams until the SVC set up is complete. The buffered datagrams are forwarded once the SVC set up is complete. According to another aspect of the present invention, different buffering requirements are supported for different user applications. A policy table may be configured by a service provider specifying the requirements associated with potentially each flow (e.g., combination of source/destination IP addresses, source/destination port number), and the datagram on each flow may be buffered accordingly.
Abstract:
Management method and system of low power consuming devices are disclosed. In one embodiment, a method includes monitoring a heartbeat signal of a device communicated through a network, and communicating with the device upon processing the heartbeat signal of the device. In another embodiment, a system includes one or more devices to individually generate a heartbeat signal and a control point to communicate with each of the devices based on the heartbeat signal processed through the control point.
Abstract:
Setting up a group of virtual circuits using a single set up message request. In an embodiment, fewer than all of the virtual circuits in the group are immediately provisioned, and the remaining virtual circuits are placed in an inactive status by appropriate configuration of all the devices in the path of the group of virtual circuits. Each of the inactive virtual circuits can be activated (complete provisioning) as and when required. The bandwidth overhead on the networks is reduced as fewer signaling messages would be used in provisioning several virtual circuits. The parsing overhead is reduced on the devices processing the signaling messages as a result.
Abstract:
Data related to multiple point-to-point sessions is transmitted on a single virtual circuit of a ATM based network. In an embodiment implemented in accordance with ATM Adaptation Layer 2 (AAL2), the data related to each session is transported on a channel of the AAL2 virtual circuit. As the intermediate devices in the virtual circuit path merely need to maintain tables for one virtual circuit, the overhead on the devices may be minimized. By assigning data of a session to a channel provided by an adaptation layer, addition fields or higher level protocols may not be needed to transport the data related to the sessions.