64 results about "Bridge pattern" patented technology

A display device includes first, second, and third insulating layers sequentially disposed on a substrate, a scan line disposed on the first insulating layer, an auxiliary power source line disposed on the second insulating layer, a data line disposed on the third insulating layer, a power source line disposed on the third insulating layer, a pixel circuit unit that includes transistors connected to the scan line, the data line, and the power source line, a bridge pattern disposed on the third insulating layer, and a light emitting diode connected to the pixel circuit unit through the bridge pattern, wherein the bridge pattern and the auxiliary power source line overlap each other to form an additional capacitor with the third insulating layer interposed therebetween.

A DC-DC converter includes an insulating substrate with an inductor provided on the top surface thereof, a switching control IC provided therein, and a ground electrode pattern provided on the bottom surface thereof. The ground electrode pattern includes a first pattern and a second pattern separated from each other and a bridge pattern that connects the first and second patterns to each other. A capacitor and the switching control IC is connected to each of the first and second patterns. The bridge pattern faces the inductor and has a smaller width than that of the first and second patterns.

A touch screen panel includes a transparent substrate. A plurality of first and second sensing cells are formed so as to be connected along first and second directions, respectively. The second sensing cells are disposed between the first sensing cells. A plurality of first and second connection patterns connect the first and second sensing cells to one another along the first and second directions, respectively. A first insulating layer is interposed between the first second connection patterns. In the touch screen panel, each of the first connection patterns includes a main bridge pattern separately patterned in a different layer from the first sensing cells connected by the main bridge pattern to connect adjacent first sensing cells to other along the first direction, and one or more sub-bridge patterns which branch from the main bridge pattern, and which have both ends connected to the main bridge pattern so as to form a detour path.

Wireless sensor platforms (10), when deployed, can ascertain whether they can meaningfully participate in communications with more than one cluster (22, 23) of such devices. When true, such multi-cluster platforms can serve as bridge nodes to facilitate the passing of data collected from one cluster to or through another cluster. In a preferred embodiment, the platforms serving as bridge modes (24 and 25) utilize a communication schedule that imposes no greater work load than the load the platform would otherwise have served as an ordinary node, and preferably the workload is considerably reduced. This aids in ensuring that the portable power reserves of the bridge nodes will support bridge operations for at least as long as the clusters are otherwise functioning.

The invention provides a virtual machine on-line transfer method across virtualization data centers. The method includes that step 1, a plurality of virtualization data centers are deployed on a wide area network (WAN), and each virtual machine mirror file is divided into a template and user private data files, step 2, the virtualization data centers are connected through a virtual private network (VPN) of a two-tier bridge pattern, step 3, dirty blocks written into a disk every time are monitored in a virtual machine input / output (I / O) drive course on a source node, a transfer thread is created for the drive course, and the transfer thread pre-transfers the user private data files and transfers monitoring records of the dirty blocks, step 4, a transfer course of a virtual machine on the source node controls the pre-transfer and the transfer of the monitoring record, and step 5, the execution sequence of a destination node recovery course of the virtual machine is changed, a recovery thread is created for the recovery course, and the recovery thread receives information about the pre-transfer and the transfer of the monitoring records and writes the information into a storage node. The virtual machine on-line transfer method across the virtualization data centers can achieve dynamic mapping of virtual machines and resources among the plurality of virtualization data centers.

The invention relates to a flexible display panel. The flexible display panel is provided with a plurality of pixel island regions and a flexible region, wherein the plurality of pixel island regionsare separated, the flexible region is arranged between adjacent pixel island regions, the flexible display panel also comprises a negative electrode, the negative electrode comprises island patterns and a plurality of bridging patterns, the island patterns are formed at the corresponding pixel island regions, the plurality of bridging patterns are connected with adjacent island patterns. In the flexible display panel, a negative electrode film layer is arranged to the plurality of island patterns and the plurality of bridging patterns, the plurality of bridging patterns are connected with adjacent island patterns, so that the island patterns can form moving modules when a screen is stretched or bent, the negative electrode film layer is prevented from being broken or damaged, and the stress and the malleability of the negative electrode film layer are further improved. A display device is also provided.

A system and method for generating an information technology solution. A system for generating a runtime model is provided, comprising: a system for selecting a business pattern; a system for providing a management integration table, wherein the management integration table includes a plurality of cells, each representing at least one management application pattern; and a system for generating a runtime model from the selected business pattern and management integration table, wherein the generating system supplements the business pattern with additive patterns, bridge patterns, and management application patterns in order to generate the runtime model.

A display device includes: a circuit part including at least one first region and at least one second region disposed adjacent to the first region, wherein the second region includes first pixel circuits arranged adjacent to the first region and second pixel circuits spaced apart from the first region; a display element part disposed on the circuit part, wherein a first display elements are connected to the first pixel circuits and overlap with the first region, and a second display elements are connected to the second pixel circuits; and bridge patterns electrically connecting the first and second pixel circuits and the first and second display elements, wherein the length of bridge patterns connecting the first pixel circuits and the first display elements is different from that of bridge patterns connecting the second pixel circuits and the second display elements.

The invention provides an electrode structure and a manufacturing method thereof, including a base material, an electrode bridge structure, a dielectric layer and a conductive pattern. The dielectric layer is formed on the electrode bridge structure and the substrate and has a plurality of insulating block patterns, each of the insulating block patterns covers a part of the electrode bridge structure to form a plurality of exposed bridge patterns, each of which The insulating block patterns and each of the bridge patterns are alternately arranged in sequence along a predetermined direction. The conductive pattern has a first electrode, a second electrode, a third electrode and a fourth electrode, the first electrode is electrically connected to the second electrode, the third electrode and the fourth electrode cover the electrode bridge structure Some bridging patterns are used to reduce the contact resistance value of the electrode bridging structure with respect to the third electrode and the fourth electrode.

A touch screen panel includes a transparent substrate. A plurality of first and second sensing cells are formed so as to be connected along first and second directions, respectively. The second sensing cells are disposed between the first sensing cells. A plurality of first and second connection patterns connect the first and second sensing cells to one another along the first and second directions, respectively. A first insulating layer is interposed between the first second connection patterns. In the touch screen panel, each of the first connection patterns includes a main bridge pattern separately patterned in a different layer from the first sensing cells connected by the main bridge pattern to connect adjacent first sensing cells to other along the first direction, and one or more sub-bridge patterns which branch from the main bridge pattern, and which have both ends connected to the main bridge pattern so as to form a detour path.

The invention discloses a solar interconnected power generation energy output maximum circuit structure in the electric system technology, which comprises the following parts: solar battery group, basic inversed unit, flexible connector and controller to form multi-level concatenation inversion topological structure, wherein the solar battery group is composed of individual solar battery board to form combination board block of 48V nominal voltage output through cascading or paralleling pattern; the basic inversion unit is composed of electric electronic switch element to form bridge-patterned circuit; the solar battery voltage is controlled by passing or breaking time of four switch elements, which makes basic inversing unit output positive, zero, negative three-conditioned step voltage within time; the flexible connector is composed of electric electronic switch, which solves cascading or paralleling relationship of inversed unit mutually through PWM strategy. The invention realizes the output of step differentiated sine AC power of system topological structure, which maximizes energy output.

Implementations include actions of initiating a procedure on an application that interacts with a database system having a start schema, through which a first version of the application interacts with tables, providing a bridge schema including table views to each table of the start schema, switching a first version of the application to interact through the bridge schema, creating a shadow field in a table, the shadow field corresponding to a field of the table that is to undergo a change during an upgrade from the first version to a second version, providing a trigger in the start schema, the trigger executing a transformation between the field and the shadow field during the upgrade, modifying the table in the start schema to a target structure to change a parameter of the shadow field or the field of the table, and switching the second version to interact through the start schema.

A touchscreen panel includes first and second electrode lines that cross each other with one of the first and second electrode lines being separated from the intersection of the first and second electrode lines, and the separated electrode line being connected to a bridge pattern via lower contact holes penetrating a first insulating film. The touchscreen panel includes a second insulating film covering the first insulating film; and a conductor rod pattern that is electrically connected to the separated electrode line via an upper contact hole penetrating the second insulating film and that overlaps the bridge pattern.

Disclosed is a method of making a crack structure on a substrate, the crack structure being usable as a tunneling junction structure in a nanogap device, including the controlled fracture or release of a patterned layer under built-in stress, thereby forming elements separated by nanogaps or crack-junctions. The width of the crack-defined nanogap is controlled by locally release-etching the film at a notched bridge patterned in the film. The built-in stress contributes to forming the crack and defining of the width of the crack-defined nanogap. Further, by design of the length of the bridge in a range between sub-μπι to >25μαι, the separation between the elements, defined by the width of the crack-defined nanogaps, can be controlled for each individual crack structure from <2 nm to >100 nm. The nanogaps can be used for tunneling devices in combination with nanopores for DNA, RNA or peptides sequencing.

An array substrate according to an embodiment includes a gate line and a data line in a display region and crossing each other to define a pixel region; first and second auxiliary patterns in a non-display region; a gate insulating layer between the gate and data lines and the first and second auxiliary patterns; a passivation layer on the data line and the second auxiliary pattern and including first and second contact holes respectively exposing the first and second auxiliary patterns; a planarization layer on the passivation layer and including first and second pack holes, which respectively correspond to the first and second contact holes; a bridge pattern between the first and second pack holes and overlapping the second auxiliary pattern; a pixel electrode on the planarization layer and in the pixel region; and a connection pattern on the bridge pattern and contacting the first and second auxiliary patterns.