Abstract: An apparatus and a method for collecting and aggregating events to extract information, and a computer-readable recording medium are provided. In an example embodiment, the method for processing pieces of event information in a collection server, includes: checking whether pieces of target event information have been obtained from a message queue in which the pieces of event information have been stored while being sorted; when the pieces of target event information are checked to be obtained, converting at least some of the obtained pieces of target event information so as to correspond to a schema of a first database and recording the converted pieces of target event information in the first database; and generating a notification indicating that the pieces of target event information are obtained.

Abstract: Embodiments herein disclose a pose detection device for a movable body and a location-based supplemental service providing system. The pose detection device includes a first polarization unit and a second polarization unit positioned to have transmission axis difference values different from each other, wherein the first polarization unit and the second polarization unit receiving light emitted from a polarized light source located beyond and apart from the first polarization unit and the second polarization unit. Further, the pose detection device includes a first illuminometer measures positioned below the first polarization unit and a second illuminometer positioned below the second polarization unit.

Abstract: Provided are a system and method of recognizing an indoor location of a moving object. A recognition device includes an illumination unit including a plurality of illumination modules respectively having different predetermined light receiving characteristics, each of the illumination modules receiving polarized light emitted from at least one lighting device according to one of the predetermined light receiving characteristics and measuring an illumination value; and an analysis unit configured to calculate a light source polarization axis angle of the at least one lighting device using a predetermined linear polarization rule and the illumination value measured by each illumination module, the at least one lighting device emitting light received by the illumination unit.

Abstract: Provided are a system and method of recognizing an indoor location of a moving object. A recognition device includes an illumination unit including a plurality of illumination modules respectively having different predetermined light receiving characteristics, each of the illumination modules receiving polarized light emitted from at least one lighting device according to one of the predetermined light receiving characteristics and measuring an illumination value; and an analysis unit configured to calculate a light source polarization axis angle of the at least one lighting device using a predetermined linear polarization rule and the illumination value measured by each illumination module, the at least one lighting device emitting light received by the illumination unit.

Abstract: Accordingly the embodiment herein provides a device for recognizing a 3D posture and a location of a movable body. The device includes: a plurality of polarization modules individually attached to a plurality of surfaces of a 3D figure; a plurality of illumination modules individually corresponding to the polarization modules and generating and outputting illumination value information in which polarized light emitted from a polarization light source penetrates the corresponding polarization module to be received; and an interpretation unit generating posture information and location information of the movable body by using the illumination value information received from the illumination modules corresponding to the polarization modules attached to at least three considered target surfaces.

Abstract: Accordingly the embodiment herein provides a device for recognizing a 3D posture and a location of a movable body. The device includes: a plurality of polarization modules individually attached to a plurality of surfaces of a 3D figure; a plurality of illumination modules individually corresponding to the polarization modules and generating and outputting illumination value information in which polarized light emitted from a polarization light source penetrates the corresponding polarization module to be received; and an interpretation unit generating posture information and location information of the movable body by using the illumination value information received from the illumination modules corresponding to the polarization modules attached to at least three considered target surfaces.

Abstract: Embodiments herein disclose a pose detection device for a movable body and a location-based supplemental service providing system. The pose detection device includes a first polarization unit and a second polarization unit positioned to have transmission axis difference values different from each other, wherein the first polarization unit and the second polarization unit receiving light emitted from a polarized light source located beyond and apart from the first polarization unit and the second polarization unit. Further, the pose detection device includes a first illuminometer measures positioned below the first polarization unit and a second illuminometer positioned below the second polarization unit.

Abstract: A device for manufacturing a display device includes a deposition source; a deposition thickness calculator for calculating a deposition thickness of a deposition material deposited on a substrate; and a controller for controlling a power of a heater which heats the deposition source by comparing the deposition thickness calculated with a reference thickness. The controller controls the power of the heater either at least one time for each substrate on which the thin film is to be deposited or at regular intervals while the deposition material is deposited. Influence of measurement noise that is included in a quartz crystal sensor for measuring a deposition speed may be minimized, and distribution of deposition thickness of an organic light emitting material may be reduced, thereby increasing the yield of the deposition process and producing quality display devices.

Abstract: A sputtering method includes receiving etch time information for a first substrate detected in a dry etching process, calculating a deposition time for a second substrate from the etch time information for the first substrate, and executing sputtering for the second substrate based the calculated deposition time. The thickness of the thin film deposited on the substrate in the sputter device may be uniformly maintained by using etch end point information detected in an end point detection (EPD) device. A sputtering system comprises a sputter device for executing a sputtering process for depositing a thin film on a substrate by a sputtering method, an EPD device for generating EPD information including etch time information for the substrate for a calculation of a deposition time during which the thin film is deposited, and a controller for calculating a deposition time by using the EPD information, and for controlling the sputter device based on the calculated deposition time.

Abstract: A critical dimension controlling method in a semiconductor production process includes determining whether a model is to undergo a discontinuous production process when a run is inserted in a semiconductor manufacturing line, applying an offset for said model or a common offset for a model group including said model according to the determination, executing a production process in dependence upon a process variation along with the offset for the model or the common offset for the model group, and measuring an actual critical dimension in the production process. The offset for the model is calculated based on a previously measured actual critical dimension, and the calculated offset for the model is applied to the calculation of the common offset for the model group.

Abstract: A virtual measuring device and a method for measuring the deposition thickness of amorphous silicon being deposited on a substrate is disclosed, where the method of measuring the deposition thickness of amorphous silicon includes predicting and adapting operations. In the predicting operation, during a process of depositing the amorphous silicon to a substrate, the deposition thickness is predicted by multiplying a predicted deposition speed to a deposition time by using a prediction model expressing a relationship between a deposition speed and a plurality of process factors that are correlated with the deposition speed obtained from the deposition thickness and the deposition time, and the predicted deposition thickness is compared with the measured deposition thickness, so that the relationship between the plurality of process factors and the deposition speed in the prediction model is compensated according to the comparison difference.

Abstract: An evaporator for depositing material on a substrate includes a crucible configured to receive a deposition material, and a plurality of nozzles in fluid communication with the crucible and facing the substrate, the nozzles projecting away from the crucible and being arranged in a first direction along the crucible, at least two of the nozzles being inclined with respect to a normal to the substrate.

Abstract: The disclosed is a density sensing device of a fuel cell system and a fuel cell system having the density sensing device. The density sensing device includes a density sensor that includes a collision sensor and a variable resistor coupled to the collision sensor. The collision sensor is dipped into a fuel solution, and the collisions of molecules of the fuel solution are detected in the collision sensor. The resistance of the variable resistor varies depending on an amount of the collision detected by the collision sensor. The resistance further is converted to a density by the use of a table that includes a relationship between resistance and density. The density sensing device can further include a sensor driver. The sensor driver can be a piezoelectric member that is attached to the collision sensor. The collision sensor vibrates together with the piezoelectric member when a driving signal is applied to the piezoelectric member, which improves the accuracy of the measurement of the density.

Abstract: An air supply system for a fuel cell and a fuel supply system with the same include a housing having an inlet hole and an outlet hole for respectively allowing inward and outward flow of a fluid; an air pump inserted and installed into the housing and having an inlet tube into which the fluid flows and an outlet tube through which the fluid flows out; a filtering portion installed between the inlet hole and the outlet hole within the housing and filtering particulate contaminants and chemical contaminants in the fluid; and a soundproofing member installed between the outlet tube and the outlet hole within the housing.

Abstract: A sputtering method includes receiving etch time information for a first substrate detected in a dry etching process, calculating a deposition time for a second substrate from the etch time information for the first substrate, and executing sputtering for the second substrate based the calculated deposition time. The thickness of the thin film deposited on the substrate in the sputter device may be uniformly maintained by using etch end point information detected in an end point detection (EPD) device. A sputtering system comprises a sputter device for executing a sputtering process for depositing a thin film on a substrate by a sputtering method, an EPD device for generating EPD information including etch time information for the substrate for a calculation of a deposition time during which the thin film is deposited, and a controller for calculating a deposition time by using the EPD information, and for controlling the sputter device based on the calculated deposition time.

Abstract: A liquid tank capable of detecting liquid level when the tank is rotated. The liquid tank includes an airtight vessel to store the liquid; and at least two electrodes installed inside the airtight vessel. The distal ends of the electrodes are positioned at a central volume of the airtight vessel. A fuel cell adopting the liquid tank maintains the liquid level in the tank near 50% of the full level even when the fuel cell is rotated.

Abstract: A critical dimension controlling method in a semiconductor production process includes determining whether a model is to undergo a discontinuous production process when a run is inserted in a semiconductor manufacturing line, applying an offset for said model or a common offset for a model group including said model according to the determination, executing a production process in dependence upon a process variation along with the offset for the model or the common offset for the model group, and measuring an actual critical dimension in the production process. The offset for the model is calculated based on a previously measured actual critical dimension, and the calculated offset for the model is applied to the calculation of the common offset for the model group.

Abstract: A device for manufacturing a display device includes a deposition source; a deposition thickness calculator for calculating a deposition thickness of a deposition material deposited on a substrate; and a controller for controlling a power of a heater which heats the deposition source by comparing the deposition thickness calculated with a reference thickness. The controller controls the power of the heater either at least one time for each substrate on which the thin film is to be deposited or at regular intervals while the deposition material is deposited. Influence of measurement noise that is included in a quartz crystal sensor for measuring a deposition speed may be minimized, and distribution of deposition thickness of an organic light emitting material may be reduced, thereby increasing the yield of the deposition process and producing quality display devices.

Abstract: A fuel tank and a cap device for the fuel tank. The fuel tank is connected to a fuel cell and includes a tank body having a fuel opening and a pin hole for maintaining an inside pressure, a floater positioned on a surface of the fuel stored in the tank body, and an air pipe connected to the pin hole and an upper part of the floater. The cap device includes a cap body having an inside transfer path for connecting an inlet opening for introducing the fuel and an outside transfer pipe, a fixed outer cap including a connector for fixing a discharge opening into which the transfer pipe is inserted, and an elastic opening/closing section in which the cap body is elastically compressible by the connector, and wherein the inside transfer path opens during the compression.

Abstract: A method and an apparatus for controlling the operation of a fuel cell system. The method can include, actively controlling the fuel cell system without a fuel concentration sensor by: measuring an output voltage, an output current, and a temperature of a fuel cell stack; obtaining a first fuel feeding amount corresponding to the measured output values; comparing a reference temperature corresponding to the measured output values with the measured temperature; and obtaining a second fuel feeding amount by compensating the first fuel feeding amount with a value corresponding to difference between the reference temperature and the measured temperature.