Sigma Designs, Inc.

Other

Peter Shorty

Niels Thybo Johansen

Jacob Midtgaard

Tommas Jess Christensen

Johann Sigfredsson

Jorgen Franck

In embodiments of the present invention improved capabilities are described for associating a first node in a mesh network with an electrical device, wherein the electrical device comprises a home control device, enabling the mesh network to perform channel adjustment, transmitting data through the mesh network between the first node and a second node in the mesh network, wherein the transmission utilizes channel adjustment; and performing an action based at least in part on the transmitted data.

Home electrical device control within a wireless mesh network

In embodiments of the present invention improved capabilities are described for operating a node in a wireless mesh network to scan each one of a plurality of channels received at a processing node in a wireless mesh network in a predetermined order for a predetermined duration to detect a preamble; detect the preamble on one of the plurality of channels; remain on a current one of the plurality of channels to receive a message after the predetermined duration when the preamble includes a predetermined series of symbols; and resume scanning each one of the plurality of channels after the message is received.

Dynamically enabling a channel for message reception in a mesh network

In embodiments of the present invention improved capabilities are described for configuring a constant powered mesh network node to control a configuration of an intermittently powered mesh network node, where the intermittently powered mesh network node may include a repeater node that periodically powers down for a time period to conserve energy. The embodiments include transmitting a message beam to the repeater node, where a duration of the message beam length may exceed the time period that the repeater node is powered down, and where the message beam may contain a preamble with data that may indicate that the repeater node is to remain powered up in order to receive a message, and may cause the intermittently powered mesh network node to request configuration information relating to a network topology from the constant powered mesh network node when the intermittently powered mesh network node powers up.

Using battery-powered nodes in a mesh network

In embodiments of the present invention improved capabilities are described for using a node in a mesh network to perceive a plurality of channels within a mesh network; selecting a first channel from the plurality of channels within the mesh network with the node; remaining on the first channel with the node for a predefined duration; remaining on the first channel beyond the predefined duration in order to receive a message if a signal is detected during the predefine duration; and selecting a second channel with the node once the predefined duration has elapsed without the signal detected.

Dynamically enabling a secondary channel in a mesh network

In embodiments of the present invention improved capabilities are described for associating a first node in a mesh network with a communication type; activating the first node at a predefined interval to detect the presence of a message of the communication type in a transmission from a second node in the mesh network; continuing to activate the first node at the predefined interval if the transmission from the second node does not conform to the associated communication type of the first node; activating the first node beyond the predefined interval if the associated communication type is detected in the transmission from the second node; and receiving a message at the first node from the second node following detection of the associated communication type.

In embodiments of the present invention improved capabilities are described for sending a single cast frame from a first node to a second node in a mesh network; sending the single cast frame from the second node to a third node in a mesh network; using the first node to detect the single cast frame sent from the second node to the third node; and interpreting this detection within the first node as an acknowledgement of success in sending the single cast frame from the first node to the second node. An additional method described herein may send a second single cast from the second node to a third node in a mesh network, interpret detection of the second single class frame within the first node as an acknowledgement of success in sending the first single cast frame from the first node to the second node.

Silent acknowledgement of routing in a mesh network

In embodiments of the present invention improved capabilities are described for using a primary controller in a mesh network to instruct a static update controller to enable node information server functionality to form a static update controller information server. Capabilities are described for using the static update controller information server to enable other controllers in the mesh network to command other nodes in the mesh network on behalf of the static update controller information server, to distribute an installation process to a plurality of controllers in a mesh network, and the like. The present invention further describes improved capabilities for associating a static update controller with an inclusion controller within a mesh network, associating the inclusion controller with a node slave within the mesh network, transmitting a first data between the static update controller and the inclusion controller, wherein the first data relates at least in part to the node slave, and transmitting a second data between the inclusion controller and the node slave, wherein the second data relates at least in part to the first data transmitted.

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Frederiksberg C, Denmark

Peter Shorty