Abstract: The invention generally provides a sieve valve including: a substrate defining a channel; a flexible membrane adapted and configured for deployment at an intersection with the channel; and one or more protrusions extending into the channel from the substrate or the flexible membrane. The one or more protrusions define a plurality of recesses extending beyond the intersection between the channel and the flexible membrane; A microfluidic circuit including one or more sieve valves. In particular embodiments, the circuit comprises one or more input/output valves. The one or one or more input/output valves can include one or more input valves and one or more output valves. The microfluidic circuit can further include a mixing circuit. At least one of the sieve valves can be positioned between the one or more input/output valves and the mixing circuit. The invention further provides methods of using the device for the analysis of samples comprising cells.

Abstract: The invention generally provides a sieve valve including: a substrate defining a channel; a flexible membrane adapted and configured for deployment at an intersection with the channel; and one or more protrusions extending into the channel from the substrate or the flexible membrane. The one or more protrusions define a plurality of recesses extending beyond the intersection between the channel and the flexible membrane; A microfluidic circuit including one or more sieve valves. In particular embodiments, the circuit comprises one or more input/output valves. The one or one or more input/output valves can include one or more input valves and one or more output valves. The microfluidic circuit can further include a mixing circuit. At least one of the sieve valves can be positioned between the one or more input/output valves and the mixing circuit. The invention further provides methods of using the device for the analysis of samples comprising cells.

Abstract: An organic light emitting display device and a method of repairing the device are discussed. According to an embodiment, the device includes a display panel having pixels, each including an OLED in every pixel area defined as scan and data lines intersect with each other and having a repair structure in at least one of horizontal and vertical directions between adjacent pixels by one or more repair lines; a timing controller configured to generate compensation data when a dark spot is generated in one of the plurality of pixels of the display panel, and adjust a magnitude of image data according to the compensation data; and a data driver configured to adjust a magnitude of a data voltage according to the image data adjusted in magnitude, and output the data voltage adjusted in magnitude to the data lines.

Abstract: Provided are an organic light emitting display (OLED) device and a method of repairing the same. The OLED device includes: a first pixel including: a first thin-film transistor (TFT) including a source electrode, a second TFT, and a third TFT including a top gate electrode, a second pixel including an OLED including a first electrode, a repair line extending over: the first electrode of the OLED of the second pixel, the source electrode of the first TFT of the first pixel, and the top gate electrode of the third TFT of the first pixel, an insulating layer between at least a portion of: the top gate electrode of the third TFT of the first pixel, and the repair line.

Abstract: Provided are an organic light emitting display (OLED) device and a method of manufacturing the same. The OLED device includes: an array substrate, an intermediate layer over the array substrate, an insulating layer over the intermediate layer, and a plurality of driving signal lines over the insulating layer in a non-display area of the array substrate, the plurality of driving signal lines being completely separated from the intermediate layer by the insulating layer, each of the plurality of driving signal lines being configured to supply a driving signal from a driving circuit unit to a respective sub-pixel of a pixel among a plurality of pixels, wherein the intermediate layer under the plurality of driving signal lines is configured to reduce visibility of the driving signal lines such that incident light on the intermediate layer is uniformly reflected or absorbed with the plurality of driving signal lines.

Abstract: A remote device having an electrical appliance control function and an electrical appliance control system are provided. The remote device includes an appliance communication module for communicating with an electrical appliance which is used by a user inside or outside home using power; a network communication module for supporting communication with outside to obtain user set optimal control data which controls the electrical appliance to operate in some other mode than an operation mode basically provided by a manufacturer of the electrical appliance; and a control part for controlling the electrical appliance based on the user set optimal control data. Hence, user's convenience can be promoted by allowing the user to control the electrical appliance on the optimal condition.

Abstract: A display apparatus includes a display module for displaying an image, a variable member for varying a shape of the display module, and a rear cover disposed at a rear surface of the display module and varying with the varying shape of the display module.

Abstract: Various embodiments identify some constraints for multiple mask designs of multi-patterning lithography processes for manufacturing an electronic design and colors multiple routing tracks in a layer of the electronic design with certain colors. These embodiments color fixed object(s) in the design with one or more of these certain colors based on coloring of the multiple routing tracks. Some embodiments further color movable object(s) based on results of coloring the fixed object(s) or coloring routing track(s). Some embodiments route the physical design with coloring of fixed object(s), coloring of movable object(s), or routing connectivity. Multiple-patterning conflicts may be detected based on the coloring of fixed object(s), coloring of movable object(s), or routing connectivity. Some embodiments route with search-and-repair strategy(ies) to improve or resolve conflict(s). Some embodiments color objects upon their creation, and the layout is thus multiple-patterning design rule clean as constructed.

Abstract: A remote device having an electrical appliance control function and an electrical appliance control system are provided. The remote device includes an appliance communication module for communicating with an electrical appliance which is used by a user inside or outside home using power; a network communication module for supporting communication with outside to obtain user set optimal control data which controls the electrical appliance to operate in some other mode than an operation mode basically provided by a manufacturer of the electrical appliance; and a control part for controlling the electrical appliance based on the user set optimal control data. Hence, user's convenience can be promoted by allowing the user to control the electrical appliance on the optimal condition.

Abstract: Techniques are described which decrease DRC (design rule check) marking time, e.g., in a circuit interconnect router, by capitalizing on repetitious relationships between interconnect elements (and/or circuit components) in a circuit design, by recording previously calculated markings and reusing the markings on subsequent marking iterations or processes. Marking information corresponding to each marking point includes indications of what types of interconnect elements or circuit components can be positioned at the marking point location without violating a design rule. With a dynamic caching process, once the marking computations have been completed for an element and the corresponding points in the vicinity, those values are stored in a cache. The next time the router encounters another instance of a known element-to-point relationship, the stored values are reloaded and applied to the current point.

Abstract: Techniques are described which decrease DRC (design rule check) marking time, e.g., in a circuit interconnect router, by capitalizing on repetitious relationships between interconnect elements (and/or circuit components) in a circuit design, by recording previously calculated markings and reusing the markings on subsequent marking iterations or processes. Marking information corresponding to each marking point includes indications of what types of interconnect elements or circuit components can be positioned at the marking point location without violating a design rule. With a dynamic caching process, once the marking computations have been completed for an element and the corresponding points in the vicinity, those values are stored in a cache. The next time the router encounters another instance of a known element-to-point relationship, the stored values are reloaded and applied to the current point.