Abstract: A display panel includes an active area having a pixel area, a wiring area and a transmission area; a transistor layer located on the substrate and including a first display wiring and a second display wiring; a planarization layer located on the transistor layer; a light-emitting device layer located on the planarization layer and including a plurality of light-emitting devices; a first encapsulation layer located on the light-emitting device layer and including a first insulating film; and a touch sensor layer located on the first encapsulation layer and including a third display wiring and a fourth display wiring, wherein the first insulating film does not overlap with the transmission area, wherein the third display wiring is in contact with the first display wiring through a first contact hole, and wherein the fourth display wiring is in contact with the second display wiring through a second contact hole.

Abstract: A display panel includes an active area having a pixel area, a wiring area and a transmission area; a transistor layer located on the substrate and including a first display wiring and a second display wiring; a planarization layer located on the transistor layer; a light-emitting device layer located on the planarization layer and including a plurality of light-emitting devices; a first encapsulation layer located on the light-emitting device layer and including a first insulating film; and a touch sensor layer located on the first encapsulation layer and including a third display wiring and a fourth display wiring, wherein the first insulating film does not overlap with the transmission area, wherein the third display wiring is in contact with the first display wiring through a first contact hole, and wherein the fourth display wiring is in contact with the second display wiring through a second contact hole.

Abstract: Asynchronous file tracking may include a first process that adds files to a cache and that generates different instances of a tracking file to track the files as they are entered into the cache. A second process, executing on the device, asynchronously accesses one or more instances of the tracking file at a different rate than the first process generates the tracking file instances. The second process may update a record of cached files based on a set of entries from each of the different instances of the tracking file accessed by the second process. Each set of entries may identify a different set of files that are cached by the device. The second process may then purge one or more cached files that satisfy eviction criteria while the first process continues to asynchronously add files to the cache and create new instances to track the newly cached files.

Abstract: A liquid crystal display preventing a light leakage is disclosed. The liquid crystal display includes gate lines and data lines disposed to cross over each other, a common line crossing over the data lines and disposed in parallel with the gate lines, a dummy data line crossing over the gate lines and disposed in parallel with the data lines, a dummy pixel electrode disposed in a dummy area formed by an outermost data line of the data lines, the dummy data line and first and second gate lines adjacent to each other among the gate lines; a pixel electrode disposed in a pixel area between first and second data lines adjacent to each other among the data lines and the first and second gate lines; and a common electrode disposed to overlap the pixel electrode and the dummy pixel electrode. The dummy pixel electrode is connected to the common line.

Abstract: A network device receives, from a customer, a customer subscription to a media transformation service; receives, from the customer as a first component of the subscription, data associated with customer media; and receives, from the customer as a second component of the subscription, one or more customer-selected parameters that specify media transformations to be performed upon the customer media. The network device receives, from a client browser, a request for the customer media, and transforms, responsive to receipt of the request from the client browser, the customer media based on the one or more customer-selected parameters to produce a transformed version of the customer media. The network device sends the transformed version of the customer media, via a content delivery network, to the client browser.

Abstract: Asynchronous file tracking may include a first process that adds files to a cache and that generates different instances of a tracking file to track the files as they are entered into the cache. A second process, executing on the device, asynchronously accesses one or more instances of the tracking file at a different rate than the first process generates the tracking file instances. The second process may update a record of cached files based on a set of entries from each of the different instances of the tracking file accessed by the second process. Each set of entries may identify a different set of files that are cached by the device. The second process may then purge one or more cached files that satisfy eviction criteria while the first process continues to asynchronously add files to the cache and create new instances to track the newly cached files.

Abstract: A network device receives, from a customer, a customer subscription to a media transformation service; receives, from the customer as a first component of the subscription, data associated with customer media; and receives, from the customer as a second component of the subscription, one or more customer-selected parameters that specify media transformations to be performed upon the customer media. The network device receives, from a client browser, a request for the customer media, and transforms, responsive to receipt of the request from the client browser, the customer media based on the one or more customer-selected parameters to produce a transformed version of the customer media.

Abstract: A shift register and a display device including the same are provided. The shift register includes a first stage sequentially outputting a gate pulse to first and second gate lines of a pixel array corresponding to a voltage of a first Q node and a second stage sequentially outputting the gate pulse to third and fourth gate lines of the pixel array corresponding to a voltage of a second Q node. The first stage includes a start controller charged with the voltage of the first Q node, a first pull-up transistor increasing a voltage of a first output terminal in response to the voltage of the first Q node and a first gate clock, and a second pull-up transistor increasing a voltage of a second output terminal in response to the voltage of the first Q node and a second gate clock.

Abstract: A network device receives, from a customer, a customer subscription to a media transformation service; receives, from the customer as a first component of the subscription, data associated with customer media; and receives, from the customer as a second component of the subscription, one or more customer-selected parameters that specify media transformations to be performed upon the customer media. The network device receives, from a client browser, a request for the customer media, and transforms, responsive to receipt of the request from the client browser, the customer media based on the one or more customer-selected parameters to produce a transformed version of the customer media. The network device sends the transformed version of the customer media, via a content delivery network, to the client browser.

Abstract: A device can receive streaming content from an origin device. The device can identify a user device to potentially receive the streaming content and an edge device associated with the user device. The device can modify a format of the streaming content based on a format acceptable to the user device. The format of the streaming content can be modified to match the format acceptable to the user device. The device can proactively provide the streaming content to the edge device to cause the edge device to make the streaming content available to be provided for presentation on the user device. The streaming content can be proactively provided to the edge device before the user device requests the streaming content from the edge device.

Abstract: A device can receive streaming content from an origin device. The device can identify a user device to potentially receive the streaming content and an edge device associated with the user device. The device can modify a format of the streaming content based on a format acceptable to the user device. The format of the streaming content can be modified to match the format acceptable to the user device. The device can proactively provide the streaming content to the edge device to cause the edge device to make the streaming content available to be provided for presentation on the user device. The streaming content can be proactively provided to the edge device before the user device requests the streaming content from the edge device.

Abstract: A gate driving circuit and a display device using the same are provided. The gate driving circuit includes a first gate driving circuit configured to sequentially generate first and second output voltages and a second gate driving circuit configured to sequentially generate first and second output voltages. The first gate driving circuit and the second gate driving circuit are asymmetrically connected to gate lines. The first output voltage of the first gate driving circuit is supplied to an nth gate line, and the second output voltage of the second gate driving circuit is supplied to the nth gate line.

Abstract: A liquid crystal display preventing a light leakage is disclosed. The liquid crystal display includes gate lines and data lines disposed to cross over each other, a common line crossing over the data lines and disposed in parallel with the gate lines, a dummy data line crossing over the gate lines and disposed in parallel with the data lines, a dummy pixel electrode disposed in a dummy area formed by an outermost data line of the data lines, the dummy data line, and the gate lines, a pixel electrode disposed in a pixel area between inside data lines of the data lines and the gate lines, and a common electrode disposed to overlap the pixel electrode and the dummy pixel electrode. The dummy pixel electrode is connected to the common line.

Abstract: A thin film transistor substrate including a second electrode connected to a first electrode within a shared contact hole; and a fourth electrode connected to a third electrode within the shared contact hole, wherein the shared contact hole penetrates through a plurality of stacked insulating layers, and wherein an insulating layer below at least one of a connection portion in which the first electrode and the second electrode are connected and a connection portion in which the third electrode and the fourth electrode are connected has an undercut structure within the shared contact hole.

Abstract: Some embodiments provide reconfigurable web application firewall (WAF) functionality across a distributed platform. Specifically, the WAF function at each distributed platform server is customizable on a per customer and per inbound message basis. When a server receives an inbound message, the server identities the content or services of which specific customer are implicated by the inbound message. The server screens the inbound message for attacks using a first set of rules and policies defined as part of a production profile from a WAF instance defined by the specific customer while contemporaneously testing the inbound message against a second set of rules and polices defined as part of an audit profile from the same WAF instance. In this manner, the specific customer tests the audit profile rules and policies while still receiving the protections of the production profile rules and policies.

Abstract: A shift register and a display device including the same are provided. The shift register includes a first stage sequentially outputting a gate pulse to first and second gate lines of a pixel array corresponding to a voltage of a first Q node and a second stage sequentially outputting the gate pulse to third and fourth gate lines of the pixel array corresponding to a voltage of a second Q node. The first stage includes a start controller charged with the voltage of the first Q node, a first pull-up transistor increasing a voltage of a first output terminal in response to the voltage of the first Q node and a first gate clock, and a second pull-up transistor increasing a voltage of a second output terminal in response to the voltage of the first Q node and a second gate clock.

Abstract: A network device receives, from a customer, a customer subscription to a media transformation service; receives, from the customer as a first component of the subscription, data associated with customer media; and receives, from the customer as a second component of the subscription, one or more customer-selected parameters that specify media transformations to be performed upon the customer media. The network device receives, from a client browser, a request for the customer media, and transforms, responsive to receipt of the request from the client browser, the customer media based on the one or more customer-selected parameters to produce a transformed version of the customer media. The network device sends the transformed version of the customer media, via a content delivery network, to the client browser.

Abstract: A thin film transistor substrate including a second electrode connected to a first electrode within a shared contact hole; and a fourth electrode connected to a third electrode within the shared contact hole, wherein the shared contact hole penetrates through a plurality of stacked insulating layers, and wherein an insulating layer below at least one of a connection portion in which the first electrode and the second electrode are connected and a connection portion in which the third electrode and the fourth electrode are connected has an undercut structure within the shared contact hole.

Abstract: A gate driving circuit and a display device using the same are provided. The gate driving circuit includes a first gate driving circuit configured to sequentially generate first and second output voltages and a second gate driving circuit configured to sequentially generate first and second output voltages. The first gate driving circuit and the second gate driving circuit are asymmetrically connected to gate lines. The first output voltage of the first gate driving circuit is supplied to an nth gate line, and the second output voltage of the second gate driving circuit is supplied to the nth gate line.

Abstract: Some embodiments provide reconfigurable web application firewall (WAF) functionality across a distributed platform. Specifically, the WAF function at each distributed platform server is customizable on a per customer and per inbound message basis. When a server receives an inbound message, the server identities the content or services of which specific customer are implicated by the inbound message. The server screens the inbound message for attacks using a first set of rules and policies defined as part of a production profile from a WAF instance defined by the specific customer while contemporaneously testing the inbound message against a second set of rules and polices defined as part of an audit profile from the same WAF instance. In this manner, the specific customer tests the audit profile rules and policies while still receiving the protections of the production profile rules and policies.