Sitting Man, LLC

Scenera Technologies, LLC

Cypress Lake Software, Inc.

Jenam Tech, LLC

Fotomedia Technologies, LLC

Motion Offense, LLC

Gummarus, LLC

Other

Morris Routing Technologies, LLC

Ipac Acquisition Subsidiary I, LLC

Qurio Holdings, Inc.

Flashpoint Technology, Inc.

Chemtron Research LLC

Kdl Scan Designs LLC

Lg Electronics Inc.

Robert Paul Morris

Eric C Anderson

Hugh Blake Svendsen

Lynn Erich Petersen

Patricia Scardino

Gary Whitson Black

Christopher Michael Amidon

Jeffrey Scott Bardsley

Theodosios Thomas

Stephen G Sullivan

Chris Amidon

John Bernstein

Ryan C Fry

Patricla Scardino

Patty Scardino

Methods, systems, and apparatuses are provided that are configured to: display, at a first node, at least one first interface with a first user interface element and a second user interface element; display, at the first node, at least one second interface; generate a first message; display, at the second node, at least one third interface; generate a second message that does not include a file attachment with the second message; display, at the first node, at least one fourth interface with a reference to at least one file; and allow access, at the first node, to the at least one file.

Methods, systems, and computer program products for processing a data object identification request in a communication

Methods and systems are described for routing based on a path-based protocol address. Data is detected, by a current node in a current location in a network path, in a data unit that is specified according to a network protocol and that includes a first path-based protocol address including a plurality of path segment identifiers that identify respective path segments of a network path for transmitting data from a source node to a destination node. A current-next path segment identifier is detected, based on the current location, that identifies a current-next path segment in the plurality for transmitting the data from the current node to a next node in the network path. A current-next network interface id determined, based on the current-next path segment identifier, that is included in the current-next path segment. The data is sent, via the current-next network interface, to the next node.

Routing methods, systems, and computer program products

Methods and systems are described for associating a name with a network path. In an aspect, a first message is received, from a first node by a second node via a first network path in a network. A first symbolic identifier of the first node is identified, wherein the first network path includes a first hop included in communicatively coupling the first node and the second node. Second path information is identified that identifies a second hop in a second network path included in communicatively coupling the second node and a third node. A second message is sent, identifying the first symbolic identifier and the first hop, to the third node via the second hop to associate the first symbolic identifier with a third network path that includes a node included in at least one of the first hop and the second hop.

Methods, systems, and computer program products for associating a name with a network path

Methods and systems are described for processing a data object identification request in a communication. In an aspect, a first communications agent in a first execution environment receives data object information identifying a data object matching criterion. The first communications agent exchanges a first message with a second communications agent in a second execution environment. The second communications agent detects a data object identification request included in the exchanged first message. In response to detecting the data object identification request, a data object identification response is generated that identifies a data object in a second data store in the second execution environment. The second communications agent exchanges a second message with the first communications agent. The second message includes the data object identification response, wherein the second message does not include the data object.

In one embodiment, an apparatus and method are provided to: receive, by the apparatus from a node, a set up packet during a setup of a connection, the set up packet for use in a protocol that is not transmission control protocol (TCP); identify first metadata in a time period parameter field in the set up packet, for a time period, where, as a result of a detection of the time period, the connection is at least partial deactivated; and determine, based on the first metadata, a timeout attribute associated with the connection.

Methods, systems, and computer program products for sharing information for detecting a time period

In one embodiment, a non-transitory computer-readable media is provided for storing instructions, that when executed by one or more processors of a topology node, cause the topology node to: identify a first sequence of identifiers for data routing in a label switching network from a first node in the label switching network; identify a second sequence of identifiers for data routing in the label switching network from a second node in the label switching network; identify a policy for use in constraining data routing from the first node to a third node; include the first sequence of identifiers and the second sequence of identifiers in a third sequence of identifiers that reflects the policy such that data routing is constrained from the first node to the third node via a plurality of network paths that each include at least one node in the label switching network; and provide path information that identifies the third sequence of identifiers, for constraining data routing, according to the policy, to the third node via the second node.

In various embodiments, an apparatus, a non-transitory computer-readable media, and a method are provided, involving a technique to: receive, from at least one other node in a network, a plurality of segment identifiers, utilizing at least one of a link state protocol, a distance vector protocol, or a path vector protocol, store, in a data structure, the plurality of segment identifiers associated with nodes represented in a topology of at least a portion of a network, select, from the plurality of segment identifiers in the data structure and based on a specified policy, a first sequence of segment identifiers that identify a first sequence of at least one of: one or more nodes, one or more network interfaces, or one or more network regions, at least partially in a first path segment that communicatively couples the transmitting node with a receiving node in the network and that includes at least one particular node which is not predetermined by the first sequence of segment identifiers such that the at least one particular node is determined during routing of data between the transmitting node and the receiving node, identify, based on a segment identifier in a first subsequence, of the first sequence of segment identifiers, that precedes a second subsequence of the first sequence of segment identifiers, a first network interface of the transmitting node in the first path segment, store at least the second subsequence of the first sequence of segment identifiers in a header associated with a first packet, and transmit, via the first network interface, the first packet for delivering the data in a payload of the first packet to the receiving node in the network.

Methods and systems are described for detecting movement of a portable electronic device; receiving video data, for a first object, captured by a video capture device during the movement; and utilizing the video data, presenting a video by a display device of the portable electronic device that is viewable to a user for directing an attention of the user in connection with the first object.

Methods, systems, and computer program products for providing feedback to a user of a portable electronic in motion

In various embodiments, a method and apparatus are configured to receive information associated with a path from a first node to a second node; and generate a set of one or more segment identifiers at least one of which is in an address space having a span in a current region in which the first node resides, and is configured for use in identifying a next region, wherein the set of one or more segment identifiers encodes the path.

A computer-implemented method is provided, comprising causing access to be provided, to a client computer, to code that causes the client computer to operate in accordance with a protocol that is separate from TCP, in order to establish a protocol connection with another server computer, by: receiving a packet, detecting an idle time period parameter field in the packet, identifying metadata in the idle time period parameter field for an idle time period, where, after the idle time period is detected, the second protocol connection is deemed inactive, and creating or modifying, by the client computer and based on the metadata, a timeout attribute associated with the second protocol connection.

Methods, systems, and computer program products for sharing information for detecting an idle TCP connection

Methods and systems are described for enabling an operative coupling to a network. In use, first data is received at a first node in a first network. The first data is forwarded between the first node to a second node in a second network, using a network relay. Additionally it is determined that a specified decoupling condition is met, and subsequent to forwarding the first data and in response to determining that the decoupling condition is met, the second operative coupling is disabled while the first operative coupling remains enabled for receiving second data for forwarding.

Growing community of inventors

Raleigh, NC, United States of America

Robert Paul Morris