Abstract:
A method for conducting encrypted communication in a network and a network having a plurality of nodes organized into a plurality of groups which initiates encrypted communication between a first one of the plurality of nodes of a first one of the plurality of groups and a second one of the plurality of nodes of the first one of the plurality of groups different from the first one of the plurality of groups using a group key and initiates encrypted communication between a third one of the plurality of nodes of the first one of the plurality of groups and a fourth one of the plurality of nodes of a second one of the plurality groups different from the first one of the plurality of groups using a session key.
Abstract:
A method and system for identifying the topology of a network is disclosed. One or more monitoring probes capture data packets from network interfaces. Network elements, such as physical ports, physical links, network nodes, logical links, and SCTP associations, are identified from the captured data packets. A data model is created for storing the network elements, including the physical ports, physical links, network nodes, logical links, and SCTP associations. The data model also stores associations between the network elements. The monitoring probes pass network element data to a monitoring server. A topology agent in each monitoring probe identifies duplicates of previously detected network elements within the probe. A topology agent in the monitoring system server identifies duplicates of previously detected network elements within the monitoring system server.
Abstract:
The invention discloses an organic electroluminescent device includes a substrate. The substrate includes a first control area and a second control area, a polysilicon active layer disposed on the first control area, and a first conductivity type source/drain area disposed in the polysilicon active layer. A first dielectric layer is disposed on the polysilicon active layer serving as a first gate dielectric layer, a first gate and a second gate is disposed on the polysilicon active layer and the second control area, respectively, wherein the first gate and the first conductivity type source/drain area constitute a first conductivity type thin film transistor serving as a switch element. A second dielectric layer disposed on the first gate and the second gate serves as a second gate dielectric layer, a micro-crystal silicon active layer disposed over the second gate.
Abstract:
A system for displaying images is disclosed. The system includes a self-emitting display device including an array substrate having a pixel region. A light-emitting diode is disposed on the array substrate of the pixel region. First and second driving thin film transistors are electrically connected to a light-emitting diode. The first driving thin film transistor includes a first gate and an active layer stacked on the array substrate of the pixel region and the second driving thin film transistor includes the active layer and a second gate thereon. The first gate is coupled to a first voltage and the second gate is coupled to a second voltage different from the first voltage during the same frame.
Abstract:
A system for displaying images. The system comprises a thin film transistor (TFT) device comprising a substrate comprising a driving circuit region and a pixel region. First and second active layers are disposed on the substrate in the driving circuit region and in the pixel region, respectively. The first active layer has a grain size greater than that of the second active layer. Two gate structures are disposed on the first and second active layers, respectively, in which each gate structure comprises a stack of a gate dielectric layer and a gate layer. A reflector is disposed on the substrate under the first active layer and insulated from the first active layer. A method for fabricating a system for displaying images including the TFT device is also disclosed.
Abstract:
Systems for displaying images and fabrication method thereof are provided. A representative system incorporates an active matrix organic electroluminescent device that includes pixel areas, a pair of spaced pixel definition layers surrounding each pixel area, and a reflective layer formed on the surface of the pixel definition layers. Particularly, the pair of spaced pixel definition layers is separated by a trench, and the reflective layer covers the sidewalls and bottom of the trench.
Abstract:
A lawn mower, in particular a reel lawn mower, can include an articulating swing-out arm for supporting a reel assembly. The swing-out arm can include main and secondary members. The main member and the mower can be coupled to a first joint assembly which can define a first axis therethrough and can be operable to provide for rotation of the main member relative to the mower about the first axis. The main and secondary members can be coupled to a second joint assembly which can define a second axis therethrough and can be operable to provide for rotation of the secondary member relative to the main member about the second axis. The secondary member can also be coupled to the reel assembly. The swing-out arm can be operable to locate the reel assembly in a mowing position underneath the mower and a servicing position outside of the mower.
Abstract:
An image display system has a multi-gate thin film transistor (TFT) disposed on a transparent substrate. The multi-gate TFT includes a silicon film layer, a first electrode and a reflecting layer. The silicon film layer is formed on the transparent substrate and has a first crystallization zone and a second crystallization zone, which are not adjacent to each other. A grain size of the first crystallization zone is smaller than a grain size of the second crystallization zone. The first electrode corresponding to the first crystallization zone is disposed on the silicon film layer. The reflecting layer corresponding to the second crystallization zone is disposed on the transparent substrate. The silicon film layer is disposed on the transparent substrate and the reflecting layer.
Abstract:
A router routes packets among a plurality of nodes based on entries in a route table. Entries in a route table enable mask characterize the enablement of the route table entries. The router receives a packet including an indication to modify the route table enable mask from one of the nodes. The router produces an update mask and determines which logical operation to perform on the update mask and the route table enable mask in response to at least one of the received packet, the update mask, and the route table enable mask. The router generates a new route table enable mask by performing the appropriate logical operation on the update mask and the route table enable mask in response to the determination of which logical operation should be performed and the route table enable mask is replaced with the new route table enable mask.
Abstract:
A system for displaying images. The system comprises a thin film transistor (TFT) device comprising a substrate comprising a driving circuit region and a pixel region. First and second active layers are disposed on the substrate in the driving circuit region and in the pixel region, respectively. The first active layer has a grain size greater than that of the second active layer. Two gate structures are disposed on the first and second active layers, respectively, in which each gate structure comprises a stack of a gate dielectric layer and a gate layer. A reflector is disposed on the substrate under the first active layer and insulated from the first active layer. A method for fabricating a system for displaying images including the TFT device is also disclosed.