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705results about How to "Large scale" patented technology

Network Architecture

A system and method for self-organizing, reliable, multiple path data flow transmission of messages data on a network uses queues to transmit messages between end-user modules (EUMs) on nodes on the network. The EUMs include the end user applications with which queues are associated. A network communications manager (NCM) resident on every node manages all transmission of messages between nodes. The NCM on a given node only has knowledge of nodes that are neighbor nodes to that given node, but has knowledge of all queues associated with all EUMs. Messages are divided into EUM messages, which are placed in queues by the NCM on each node, and system messages, which are not placed in queues but are used by the NCM to determine when and where, i.e. to which neighbor node, messages may be sent. The NCM on each node chooses a neighbor node as a target node for sending EUM messages for each queue, based on the best node latency and at capacity status of each neighbor node. These target nodes are used to provide potential routes to queues and multiple path data flow for queues that carry EUM data messages for user applications. These target nodes are constantly updated to provide the best paths on an adaptive basis and to ensure that all paths are valid, improving network reliability. When choosing when to send data to a target node, each node uses tokens for flow control to ensure that target nodes do not become overloaded. The node also compares node latencies for multiple target nodes to ensure that the lowest node latency target node is chosen. By using neighbor nodes as target nodes, node latency, and at capacity information for determining when and where to send data, there is no need to maintain any global knowledge of all paths in the network. Further, the constant updating of target nodes ensures that the network maintains optimal and valid paths for messages, thus ensuring efficiency and reliability. Finally, the constant updating of target nodes ensures that reliability and efficiency are provided on an adaptive, self-organizing basis.
Owner:DAVIES CHRISTOPHER MICHAEL

Method and apparatus for information exchange over a web based environment

With the ever increasing size and the explorative growth of digital document and content, the traditional electronic information exchanging tool such as email and instant message, web-meeting etc. can not fully satisfy massive user's needs. With the development of central controlled distributed scalable virtual machine (CCDSVM) and the web-based computer user working (operating) environment (WCUWE), the problems mentioned above can be easily solved by introduce a common “dynamic work space” technology of this invention within frame work of CCDSVM and WCUWE. With “dynamic work space” technology, user can use conventional browser to instantly post or un-post messages, digital documents or contents or said resources without install specialized software, without size limitation, with security, and further to obtain capability of anywhere and anytime peer-to-peer exchanging information within organized user-group or in one-to-one fashion. In addition, WCUWE of CCDSVM provides each user a private work space and each group a common work space under the dynamic work space umbrella, therefore, WCUWE provide users of CCDSVM a safe secure infrastructure hierarchy for users or group of users to efficiently manage, sharing, and access the right information in time anywhere on the network.
Owner:STT WEBOS

Nanostructured transparent conducting electrode

Transparent conducting electrodes, methods for manufacturing such conducting electrodes, optoelectronic devices incorporating such transparent electrodes and methods for making such optoelectronic devices and solar power generation systems incorporating such electrodes are disclosed. Nanostructured transparent conducting electrodes may include a nano-architected porous film having a network of ordered interconnected pores and an electrically conductive material that substantially fills the pores. The nano-architected porous film may be disposed on a layer of transparent conducting material. The electrode may include a substrate (e.g., glass or polymer) and the layer of transparent conducting material may be disposed between the substrate and the nano-architected porous film. Nanostructured transparent conducting electrodes may be fabricated by forming a nano-architected porous film, e.g., by surfactant temptation, on a layer of transparent conducting material and substantially filling the pores in the nano-architected porous film with an electrically conductive material, e.g., by electrodeposition. Optoelectronic devices may incorporate one or more nanostructured transparent conducting electrodes in electrical contact with an active layer. Such devices may be made by fabricating a first electrode and disposing an active layer between the first electrode and a second electrode, one of which is a nanostructured transparent conducting electrode.
Owner:AERIS CAPITAL SUSTAINABLE IP
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