Abstract:
The present invention relates to methods and compositions for diagnosing SIRS, sepsis, severe sepsis, septic shock, or MODS in a subject, or assigning a prognostic risk for one or more clinical outcomes for a subject suffering from SIRS, sepsis, severe sepsis, septic shock, or MODS, the method comprising performing an immunoassay for CCL23 splice variant.
Abstract:
An apparatus and a method for etching insulating film prevents generation of spots by spraying etchant on a lower surface of the substrate as well as the upper surface.
Abstract:
An image sensor package assembling method includes providing a substrate on which a plurality of image sensors are mounted; providing a housing strip having a plurality of housings arranged corresponding to an arrangement of the image sensors on the substrate, each of the housings having an aperture corresponding to an active surface of the corresponding image sensor and a cavity enclosing an edge of the corresponding image sensor; attaching a transparent cover plate sealing the apertures of the housings on the housing strip after attaching the housing strip on the substrate; and separating image sensor packages from each other by successively cutting the transparent cover, the housing strip and the substrate. Increased yield and production efficiency can be realized.
Abstract:
Disclosed is a light source device capable of minimizing leakage of power supplied to a lamp of a liquid crystal display device. A plurality of power supply lines is extended between the lamp for generating light and an inverting board for receiving the power source from the outside to supply power to the lamp. The plurality of the power supply lines is coated with a shrinkable tube to be spaced apart from one another. Accordingly, the leakage of the power source that is generated from the first, second, third and fourth power supply lines due to a coupling phenomenon thereof is minimized.
Abstract:
An improved panel positioning device which can be easily and accurately regulated by linearly regulating a heightwise displacement of the panel. A panel is mounted to an upper portion of a holder, and the holder is pivotally mounted to a holder support plate, a first regulating plate provided with first and second side plates on both sides is located below the holder support plate. First through fifth regulating knobs regulates a pivot angle, a lengthwise position, a widthwise position, a pivot angle about a lengthwise axis, and a heightwise position of the holder respectively. A third regulating plate for regulating the heightwise position of the holder is mounted to a side frame so as to be lengthwisely moved and is engaged with the fifth regulating knob at one side thereof. A first pin is fixed to the second regulating plate, and a linear inclined slit which extends from an upper portion of one lengthwise side thereof to a lower end of the other lengthwise side thereof and into which the first pin is inserted and penetrated is formed at one width side thereof. When the fifth regulating knob is rotated, the first pin of the second regulating plate is guided by the inclined slit. The second regulating plate is heightwisely moved with respect to the side frame and linearly proportional to the rotational displacement of the fifth regulating knob, and thus regulating the heightwise displacement of the panel easily and accurately.
Abstract:
There is provided an array of M.times.N thin film actuated mirrors for use in an optical projection system comprising an active matrix, an array of M.times.N thin film actuating structures, each of the thin film actuating structures including at least a thin film layer of a motion-inducing material, a pair of electrodes, each of the electrodes being provided on top and bottom of the thin film motion-inducing layer, an array of M.times.N supporting members, each of the supporting members being used for holding each of the actuating structures in place by cantilevering each of the actuating structures and also for electrically connecting each of the actuating structures and the active matrix, and an array of M.times.N mirrors for reflecting light beams, each of the mirrors being placed on top of each of the actuating structures. An electrical signal is applied across the thin film layer of the motion-inducing material located between the pair of electrodes in each of the actuating structures, causing a deformation thereof, which will in turn deform the mirror placed on top thereof.
Abstract:
There is provided an array of M.times.N thin film actuated mirrors for use in an optical projection system comprising an active matrix, an array of M.times.N thin film actuating structures, each of the thin film actuating structures including at least a thin film layer of a motion-inducing material, a pair of electrodes, each of the electrodes being provided on top and bottom of the thin film motion-inducing layer, an array of M.times.N supporting members, each of the supporting members being used for holding each of the actuating structures in place by cantilevering each of the actuating structures and also for electrically connecting each of the actuating structures and the active matrix, and an array of M.times.N mirrors for reflecting light beams, each of the mirrors being placed on top of each of the actuating structures. An electrical signal is applied across the thin film layer of the motion-inducing material located between the pair of electrodes in each of the actuating structures, causing a deformation thereof, which will in turn deform the mirror placed on top thereof.
Abstract:
An array of M .times.N electrostrictive actuated mirrors for use in an optical projection system manufactured using the inventive method, comprising: an active matrix including a substrate and an array of M.times.N connecting terminals thereon; an array of M.times.N electrostrictive actuators, wherein each of the actuators includes an electrostrictive member having a top and a bottom surfaces, the top surface being separated by a trench thereby creating first top surface and a second top surface, a first electrode located on the bottom surface, a pair of second electrodes, each of the of second electrodes placed on the first and second top surfaces, respectively, and a pair of insulating layers, each covering the first and second top surface, respectively, including the second electrode placed thereon; an array of M.times.N hinges, wherein each of the M.times.N hinges is provided with a flat top surface and a bottom surface having a protrusion mounted on the top of each actuators; an array of M.times.N connecting terminals, wherein each of the connecting terminals is used for electrically connecting each of the first electrodes with the active matrix; and an array of M.times.N mirrors, wherein each of the M.times.N mirrors is mounted on the top surface of each of the M.times.N hinges.
Abstract:
A semiconductor device includes a substrate including a cell region and a connection region. A stack is disposed on the substrate. A vertical channel structure penetrates the stack in the cell region. The stack includes electrode patterns and insulating patterns which are alternatingly and repeatedly stacked on the substrate. Each of the electrode patterns may extend in a first direction and include a pad portion. The pad portion is positioned in the connection region. The pad portion includes a first sidewall and a second sidewall that extend in the first direction on opposite sides of the pad portion. The first sidewall has a recessed portion that is recessed in a second direction crossing the first direction toward the second sidewall.
Abstract:
A main hub, a sub hub, and a sensor node communicating in a wireless body area network (WBAN) including at least one sub hub, and a communication method thereof, are provided. A communication method of the main hub, includes assigning a beacon slot to the sub hub. The method further includes receiving, from the sub hub, a beacon signal based on the beacon slot. The method further includes verifying whether the sub hub includes data to be transmitted to the main hub based on the beacon signal. The method further includes receiving, from the sub hub, the data based on a result of the verification.