Abstract: A composite cathode active material, a method of preparing the composite cathode active material, a cathode including the composite cathode active material, and a lithium battery including the cathode. The composite cathode active material includes a lithium intercalatable material; and a garnet oxide, wherein an amount of the garnet oxide is about 1.9 wt % or less, based on a total weight of the composite cathode active material.

Abstract: A touch sensor laminate includes a polarizing plate having a predetermined stretching direction, and a sensing pattern layer formed on at least one surface of the polarizing plate. The sensing pattern layer includes a first pattern formed along a first direction, a second pattern formed along a second direction, and a bridge electrode electrically connecting isolated unit patterns included in the second pattern. The first pattern includes a plurality of unit patterns, and a connection portion connecting neighboring unit patterns of the plurality of unit patterns, the connection portion having a width smaller than a maximum width of the unit pattern of the first pattern. An angle between the stretching direction of the polarizing plate and a length direction of the connection portion is 60° or less.

Abstract: Methods, systems, and apparatus for applying an imprinting force to an imprint lithography template, including providing, by a controller using a first control loop, a first control signal to a first actuator associated with the first control loop; providing, by the controller using a second control loop, a second control signal to a second actuator associated with the second control loop, wherein the second control loop and the first control loop are different; and applying, to the imprint lithography template, at least one of: a first force by the first actuator in response to the first control signal, and a second force by the second actuator in response to the second control signal.

Abstract: A touch sensor includes a base layer, a plurality of sensing electrodes and a conductive capping pattern covering each of the sensing electrodes. Each of the sensing electrodes includes a first transparent conductive oxide pattern, a metal pattern and a second transparent conductive oxide pattern which are sequentially stacked on the base layer.

Abstract: A digitizer in which a second electrode of the digitizer is formed in a non-patterned portion of a touch sensing electrode of a mutual-capacitive type touch sensor is provided. The digitizer according to the present invention has a high level of pressure sensing, a simplified manufacturing process, and excellent visibility.

Abstract: A digitizer in which a touch sensing electrode of a self-capacitive type touch sensor and a first electrode of the digitizer are formed on the same layer is provided. The digitizer according to the present invention has a high level of pressure sensing and a simplified manufacturing process.

Abstract: A flexible digitizer comprising a flexible substrate and a first and a second electrodes having thicknesses of 2000 ? to 1 ?m is provided. The digitizer according to the present invention has sufficient flex resistance for application to a flexible display device with superior electrical characteristics and visibility.

Abstract: A composite cathode active material, a method of preparing the composite cathode active material, a cathode including the composite cathode active material, and a lithium battery including the cathode. The composite cathode active material includes a lithium intercalatable material; and a garnet oxide, wherein an amount of the garnet oxide is about 1.9 wt % or less, based on a total weight of the composite cathode active material.

Abstract: An electrode connection unit includes an electrode connection unit body and a protective layer which covers at least a portion of an edge portion of the electrode connection unit body to satisfy a specific relation of area. An occurrence of cracks in the edge portions of the electrode connection unit body may be prevented when a bending stress is applied during a manufacturing process or treating a product.

Abstract: A touch sensing electrode structure includes an electrode line and connecting electrodes. The electrode line extends in a first direction as a zigzag line shape, and a plurality of the electrode lines are arranged along a second direction that crosses the first direction. The connecting electrodes extend in the second direction and connect neighboring ones of the electrode lines to form a plurality of concave polygonal patterns.

Abstract: A touch panel includes a display region and conductive pad parts in which a portion thereof is exposed to a display region, wherein the conductive pad parts have a plurality of holes formed in at least a region including the exposed portion thereof. The touch panel is capable of significantly reducing an area of a non-display region, has excellent visibility of an image to be displayed by reducing visibility of a conductive pad part exposed in a display region, and has significantly reduced damage in a manufacturing process by preventing an occurrence or propagation of cracks.

Abstract: A template for imprint lithography can include a body. The body can include a base surface and a recession extending from the base surface. The recession can have steps and a feature. The steps can include a distal step that is farther from the base surface as compared to any other step, each step having a corresponding height. The feature can include the distal step includes a rounded or tapered sidewall; a surface along a deepest part of the recession is non-planar; or the height corresponding to the distal step is different from an average height corresponding to remaining steps. The template can be used in an imprint lithography apparatus. The template can be used in manufacturing articles when patterning different layers at the same time. The template is well suited for forming 3D memory arrays.

Abstract: Methods, systems, and apparatus for of adjusting a shape of an imprint lithography template, including identifying a shape of an active area positioned on a first side of the template, the active area including patterning features; determining a correspondence between a shape of an adaptive chuck and the shape of the active area positioned on the first side of the template, the adaptive chuck coupled to a second side of the template, the second side opposite the first side of the template; and adjusting, by an actuation system coupled to the adaptive chuck, the shape of the adaptive chuck based on the correspondence to obtain a target shape of the active area positioned on the first side of the template.

Abstract: A template for imprint lithography can include a body. The body can include a base surface and have a recession extending from the base surface lying along a base plane, the recession including a main portion having a tapered sidewall. In a particular embodiment, the recession includes an intermediate portion having an intermediate sidewall. The intermediate sidewall is rounded or at least part of the intermediate sidewall lies at a different angle as compared to an average tapered angle of the main portion. In another aspect, a method of fabricating a semiconductor device can include forming a patterned resist layer having a tapered sidewall over a substrate having device layers; patterning the device layers using the patterned resist layer; and etching portions of at least some of device layers to expose lateral portions of the at least some device layers. The template is well suited for forming 3D memory arrays.

Abstract: A method that can be used in the formation of replica imprint templates. The method can include providing a substrate with a substrate mesa defining an active region having a first area and a template with a template mesa defining a patterning region having a second area, where first area is larger than the second area. The template can then be positioned relative to the substrate such that patterning region of the template mesa overlaps the active region of the substrate mesa. The method can be used in forming a replica template. The formed replica template can be used to form a patterned layer on e.g. a semiconductor wafer in fabricating an electronic device. A system can be configured to carry out the methods.

Abstract: An electrode connection unit is to be electrically connected with electrode terminals. The electrode connection unit includes a metallic core part having a plurality of first holes therein and a conductive nonmetallic coating layer on the metallic core part. An image display device and a touch screen panel include the electrode connection unit.

Abstract: A touch sensor integrated with OLED includes an organic light emitting diode (OLED) device, a touch electrode having a mesh type and a self-capacitance type structure. The touch electrode is attached to a surface of the OLED device and included at least a double-layered structure that includes a metal layer and a metal oxide.

Abstract: Methods, systems, and apparatus for adjusting a relative position of templates including determining a first plurality of position points of a surface of a region adjacent to an active region of a first template, the surface of the adjacent region and a surface of the active region forming a continuous surface of the first template; identifying a plane of the surface of the adjacent region of the first template based on the first plurality of position points; determining a second plurality of position points of a surface of an active region of a second template, the active region of the second template protruding from a surface of the second template; identifying a plane of the surface of the active region of the second template based on the second plurality of position points; and adjusting a relative position of the first template and the second template based on the identified planes.

Abstract: A cathode active material including a lithium nickel composite oxide; and a coating layer including a lithium metal pyrophosphate on the core.

Abstract: Methods, systems, and apparatus for identifying dimensional attributes of a first active area of a template; based at least in part on the dimensional attributes of the first active area, determining a desired magnification correction of a second active area of a substrate; determining an out-of-plane distortion of the template, the substrate, or both; applying a back pressure to the template, the substrate, or both, to compensate for the out-of-plane distortion of the template, the substrate, or both; after compensating for the out-of-plane distortion of the template, the substrate, or both: i) contacting an imprint resist positioned on the substrate with the template such that pattern features in the first active area are filled by the imprint resist, and ii) applying an additional back pressure to the template, the substrate, or both, wherein the additional back pressure is selected such that the second active area exhibits the desired magnification correction.