Abstract:
An electrical device has a substrate including a transmissive low reflectivity layer; a first conductor on the substrate; an active material on the first conductor; and a second conductor on the active material. The transmissive low reflectivity layer may be moisture penetrating. The substrate may be flexible or rigid.
Abstract:
An electronic device includes a substrate including a pixel driving circuit, a first conductive member, and a second conductive member. The first and second conductive members are spaced apart, the first conductive member is connected to the pixel driving circuit, and the second conductive member can be part of a power transmission line. The electronic device also includes an electronic component that includes a first electrode that contacts the first conductive member, a second electrode that is connected to but does not contact the second conductive member, and an organic layer lying between the first and second electrodes. The electronic device also includes a third conductive member that is connected to the second electrode and the second conductive member, and contacts the second conductive member. In one embodiment, a process for forming the electronic device uses the second electrode as a hardmask when removing portions of the first organic layer.
Abstract:
A TFT includes a substrate and a first semiconductor layer overlying the substrate. A portion of the first semiconductor layer is a channel region of the TFT. The TFT also includes spaced-apart first and second source/drain structures overlying the first semiconductor layer. From a plan view of the TFT, the channel region lies between the first source/drain structure and the second source/drain structure. The TFT further includes a gate dielectric layer overlying the channel region and the first and second source/drain structures, and a gate electrode overlying the first gate dielectric layer. A process for forming the TFT includes forming first and second metal-containing structures over first and second semiconductor layers. The process also includes removing the portion of the second semiconductor layer lying between the first and second source/drain structures. A gate dielectric layer and a gate electrode are formed within the spaced-apart first and second source/drain structures.
Abstract:
A ductwork assembly can be used with an electronic device wherein the electronic device includes a fan and the ductwork assembly is configured to receive a heat transfer fluid from the fan. A disperser lies within the ductwork assembly and is attached thereto in order to affect at least a portion of a flow of the heat transfer fluid. The duckwork assembly may also include a first channel and the first channel is characterized by a first average fluid veloicty that is a hightest average fluid velocity of all channels within the ductwork assembly. The ductwork assembly may include a second channel that is characterized by a second average fluid veloicty that is a lowest average fluid velocity of all channels within the ductwork assembly. The second averaged fluid velocity may be no less than 90% of the first averaged fluid velocity.
Abstract:
In one embodiment, a circuit for driving an electronic component includes a first conduction path and a second conduction path connected in parallel. Each of the first and second conduction paths includes a field-effect transistor. The first field-effect transistor lies along the first conduction path, and the second field-effect transistor lies along the second conduction path. The circuit can be used in an electronic device that includes a radiation-emitting electronic component or a radiation-responsive electronic component. During a first time period, current flows through the first conduction path and the first electronic component while a second conduction path of a driving unit is off. During a second time period, current flows through the second conduction path and the first electronic component while the first conduction path of the driving unit is off.
Abstract:
The present invention is generally directed to semiconducting compositions containing a guest material and a light emitting organic host material. These compositions are useful for color tuning and improving efficiency in an electroluminescent device. It further relates to a process for preparing the compositions and the layers and devices that are made with the compositions.
Abstract:
An organic electronic device includes electronic components within an array. In one embodiment, the organic electronic device includes a substrate and a first conductive member overlying the substrate and lying at least partly within the array. The first conductive member is at least part of a first power transmission line. The organic electronic device further includes a second conductive member overlying the substrate and lying at least partly within the array. The second conductive member is at least part of a first electrode and is electrically connected to the first conductive member. In another embodiment, an organic active layer has at least a portion lying between the first and second conductive members. In yet another embodiment, a process for using an organic electronic device including an array of radiation-emitting components allows radiation to be emitted from the array at an intensity of at least 1100 cd/m2.
Abstract:
The present invention relates generally to fabricating two-terminal electric microswitches comprising thin semiconductor films and using these microswitches to construct column-row (x-y) addressable microswitch matrices. These microswitches are two terminal devices through which electric current and electric potential (or their derivatives or integrals) can be switched on and off by the magnitude or the polarity of the external bias. The microswitches are made from semiconducting thin films in a electrode/semiconductor/electrode, thin film configuration. Column-row addressable electric microswitch matrices can be made in large areas, with high pixel density. Such matrices can be integrated with a sensor layer with electronic properties which vary in response to external physical conditions (such as photon radiation, temperature, pressure, magnetic field and so on), thereby forming a variety of detector matrices.
Abstract:
An automated real time crew optimization engine for repairing crew problems including open flights, open pairings, and broken crews in airline operations, which generates multiple solutions in conformance with solution constraints by preprocessing the crew problems to generate potential solutions, and optimizing the potential solutions to provide optimized solutions. The preprocessing includes the use of self-connection methods, skipping-leg methods, and an extend-out-broken crew method. Potential solutions are generated by swap methods including a one-way swap method, a two-way swap method, and a three-way swap method. A depth-search-first algorithm and a shortest path algorithm are applied to the potential solutions to find optimal solutions.
Abstract:
A recombinant plasmid and an RNA sequence expressed by said plasmid are described. The RNA sequence hybridize specifically with human c-fes mRNA.