mhurhangee/patent-ind-claim-en huggingface dataset:
Method for adapting the concentration of a sample gas in a gas mixture to be analysed by a gas chromatograph assembly , the gas chromatograph assembly comprising a sample gas inlet for introducing a sample gas to be analysed, a secondary gas inlet , and a gas conducting loop that comprises a gas chromatograph sensor , a gas chromatograph column , and a gas chromatograph bypass parallel to the column , whereby the method comprises the steps of a) introducing an amount of sample gas through the sample gas inlet , b) introducing an amount of secondary gas through the secondary gas inlet , c) mixing the sample gas and the secondary gas to a gas mixture and conducting the gas mixture via the gas chromatograph bypass , d) circulating the gas mixture in the e- gas conducting loop comprising the gas chromatograph bypass and the gas chromatograph sensor , e) repeating steps b), c) and d) without step a) to gradually reduce the concentration of sample gas within the gas mixture until the concentration of sample gas within the gas mixture reaches a desired predetermined level, f) analysing the gas mixture thus obtained by means of gas chromatography employing the gas chromatograph column and the gas chromatograph sensor . a sample gas inlet for introducing a sample gas to be analysed, a secondary gas inlet , and a gas conducting loop that comprises a gas chromatograph sensor , a gas chromatograph column , and a gas chromatograph bypass parallel to the column , whereby the method comprises the steps of a) introducing an amount of sample gas through the sample gas inlet , b) introducing an amount of secondary gas through the secondary gas inlet , c) mixing the sample gas and the secondary gas to a gas mixture and conducting the gas mixture via the gas chromatograph bypass , d) circulating the gas mixture in the e- gas conducting loop comprising the gas chromatograph bypass and the gas chromatograph sensor , e) repeating steps b), c) and d) without step a) to gradually reduce the concentration of sample gas within the gas mixture until the concentration of sample gas within the gas mixture reaches a desired predetermined level, f) analysing the gas mixture thus obtained by means of gas chromatography employing the gas chromatograph column and the gas chromatograph sensor . a) introducing an amount of sample gas through the sample gas inlet , b) introducing an amount of secondary gas through the secondary gas inlet , c) mixing the sample gas and the secondary gas to a gas mixture and conducting the gas mixture via the gas chromatograph bypass , d) circulating the gas mixture in the e- gas conducting loop comprising the gas chromatograph bypass and the gas chromatograph sensor , e) repeating steps b), c) and d) without step a) to gradually reduce the concentration of sample gas within the gas mixture until the concentration of sample gas within the gas mixture reaches a desired predetermined level, f) analysing the gas mixture thus obtained by means of gas chromatography employing the gas chromatograph column and the gas chromatograph sensor .
Self lock mechanism for rotating actuators, allowing rotation from one side while denying rotation from the other side, the mechanism comprising one or more sets of rollers and arranged between a housing and a valve connection part with a shape which will press one of the rollers in each set against the housing wall, locking the self lock mechanism if a torque is applied from the valve side and that a motor connection part is configured so that it will press the rollers out of locking position and release the locking before the motor connection part makes contact with the valve connection part and start transferring torque, characterized in that a spring is arranged between each of the roller in a pair, the spring has stiffness and a length so as to provide a force which is sufficient for keeping the rollers in position but not sufficient to cause considerable friction between rollers and housing , and thereby allow a motor to rotate the gear trough the self lock mechanism with relatively small torque and power losses in the self lock mechanism .
A method for labelling objects in a large data-volume processing environment according to a labelling policy described in a Security Policy Information File , said labelling policy defining a plurality of attributes attributable to objects and rules for associating these attributes, at least some of the attributes being of the classification type, each classification type attribute defining a value determining a hierarchical level of this attribute with respect to the other classification type attributes; the method comprising the following steps: - creating in said processing environment a marker for each attribute of said SPIF file ; - creating in said processing environment a user group for each attribute of said SPIF file ; - determining for each tag corresponding to a classification type attribute an access rule comprising an access authorisation for each group of users corresponding to a classification type attribute of hierarchical level higher than or equal to the hierarchical level of the classification type attribute corresponding to this tag; - association with each object in said processing environment of at least one marker. - creating in said processing environment a marker for each attribute of said SPIF file ; - creating in said processing environment a user group for each attribute of said SPIF file ; - determining for each tag corresponding to a classification type attribute an access rule comprising an access authorisation for each group of users corresponding to a classification type attribute of hierarchical level higher than or equal to the hierarchical level of the classification type attribute corresponding to this tag; - association with each object in said processing environment of at least one marker.
Expression cassette comprising in 5' to 3' direction, a promoter, an untranslated region being or comprising an enhancer, a target gene, the untranslated region adjacent to the target gene, wherein the enhancer consists of: a) SEQ ID NO. 20, or any sequence according to b) the last 18 nucleotides of SEQ ID NO. 46, or c) a sequence according to b) with 1 additional base inserted therein. a) SEQ ID NO. 20, or any sequence according to b) the last 18 nucleotides of SEQ ID NO. 46, or c) a sequence according to b) with 1 additional base inserted therein.
A medical system comprising: an insertion device including an insertion device handle having a proximal portion and a distal portion and a delivery shaft extending from the distal portion; a medical device including a spool and a medical device handle radially interior to the spool with a central opening , wherein the spool and the medical device handle are rotatably movable to one another and form a channel; and an adaptor coupleable to a portion of the insertion device handle, wherein the adaptor includes a post element to be received within the central opening of the medical device handle , wherein the post element extends away from the insertion device when the adaptor is coupled to the insertion device , and wherein the adaptor is configured to rotatably lock the medical device handle when the medical device is coupled to the insertion device via the adaptor . an insertion device including an insertion device handle having a proximal portion and a distal portion and a delivery shaft extending from the distal portion; a medical device including a spool and a medical device handle radially interior to the spool with a central opening , wherein the spool and the medical device handle are rotatably movable to one another and form a channel; and an adaptor coupleable to a portion of the insertion device handle, wherein the adaptor includes a post element to be received within the central opening of the medical device handle , wherein the post element extends away from the insertion device when the adaptor is coupled to the insertion device , and wherein the adaptor is configured to rotatably lock the medical device handle when the medical device is coupled to the insertion device via the adaptor .
A wireless power transfer apparatus for performing communication with a wireless power reception apparatus, the transfer apparatus comprising: a housing having one surface with a plurality of openings ; a coil part disposed within the housing and configured to transmit a wireless power signal to the wireless power reception apparatus; a plurality of temperature sensors disposed within the housing to overlap the opening , and configured to measure temperature of an object through the opening ; and a power transmission control unit configured to control the coil part based on the temperature measured by the temperature sensor ; wherein the plurality of temperature sensors is disposed within the housing overlapping the openings , respectively, wherein the coil part comprises a plurality of coils, and wherein the power transmission control unit is configured to select at least one of the plurality of coils based on temperatures measured by the plurality of temperature sensors , and control the selected coil; and wherein the temperature sensor is a contactless type thermometer using infrared rays. a housing having one surface with a plurality of openings ; a coil part disposed within the housing and configured to transmit a wireless power signal to the wireless power reception apparatus; a plurality of temperature sensors disposed within the housing to overlap the opening , and configured to measure temperature of an object through the opening ; and a power transmission control unit configured to control the coil part based on the temperature measured by the temperature sensor ; wherein the plurality of temperature sensors is disposed within the housing overlapping the openings , respectively, wherein the coil part comprises a plurality of coils, and wherein the power transmission control unit is configured to select at least one of the plurality of coils based on temperatures measured by the plurality of temperature sensors , and control the selected coil; and wherein the temperature sensor is a contactless type thermometer using infrared rays.
An exhaust manifold , comprising: a plurality of exhaust intake conduits , each of the plurality of exhaust intake conduits structured to be fluidly coupled to an engine and structured to receive exhaust gas from a corresponding cylinder of the engine ; an exhaust intake manifold fluidly coupled to an exhaust intake conduit outlet of at least one of the plurality of exhaust intake conduits ; wherein each of the plurality of exhaust intake conduits and the exhaust intake manifold define an exhaust intake manifold core volume, and wherein each of the plurality of exhaust intake conduits and the exhaust intake manifold are shaped so as to define the exhaust intake manifold core volume based on at least one of the displacement of the engine , the intended operating power of the engine , and the intended flow rate of the exhaust gas through the exhaust manifold ; characterized by at least one outlet port fluidly coupled to the exhaust intake manifold , the at least one outlet port defining an outlet port flow axis positioned orthogonal to an exhaust intake manifold flow axis of the exhaust intake manifold ; and at least one pull-off conduit fluidly coupled to the exhaust intake manifold , at least a portion of the at least one pull-off conduit defining a pull-off conduit flow axis positioned orthogonal to each of the exhaust intake manifold flow axis and the outlet port flow axis . a plurality of exhaust intake conduits , each of the plurality of exhaust intake conduits structured to be fluidly coupled to an engine and structured to receive exhaust gas from a corresponding cylinder of the engine ; an exhaust intake manifold fluidly coupled to an exhaust intake conduit outlet of at least one of the plurality of exhaust intake conduits ; wherein each of the plurality of exhaust intake conduits and the exhaust intake manifold define an exhaust intake manifold core volume, and wherein each of the plurality of exhaust intake conduits and the exhaust intake manifold are shaped so as to define the exhaust intake manifold core volume based on at least one of the displacement of the engine , the intended operating power of the engine , and the intended flow rate of the exhaust gas through the exhaust manifold ; characterized by at least one outlet port fluidly coupled to the exhaust intake manifold , the at least one outlet port defining an outlet port flow axis positioned orthogonal to an exhaust intake manifold flow axis of the exhaust intake manifold ; and at least one pull-off conduit fluidly coupled to the exhaust intake manifold , at least a portion of the at least one pull-off conduit defining a pull-off conduit flow axis positioned orthogonal to each of the exhaust intake manifold flow axis and the outlet port flow axis .
A leveling apparatus for orienting a test article relative to a load acting along an axial loading axis , comprising: a first member having a concave surface ; a second member having a convex surface configured to engage the concave surface in a manner such that the second member is movable relative to the first member , the test article being coupled to one of the first and second members such that relative movement thereof facilitates general alignment of the test article with the axial loading axis ; and a plurality of positioning devices configured to facilitate adjustment of an orientation of the first member relative to the second member for adjusting the alignment of the test article relative to the axial loading axis , wherein the positioning devices are threadably engaged to the second member , and the positioning devices are configured to engage the first member by placing the tips of the positioning devices into contact with the first member . a first member having a concave surface ; a second member having a convex surface configured to engage the concave surface in a manner such that the second member is movable relative to the first member , the test article being coupled to one of the first and second members such that relative movement thereof facilitates general alignment of the test article with the axial loading axis ; and a plurality of positioning devices configured to facilitate adjustment of an orientation of the first member relative to the second member for adjusting the alignment of the test article relative to the axial loading axis , wherein the positioning devices are threadably engaged to the second member , and the positioning devices are configured to engage the first member by placing the tips of the positioning devices into contact with the first member .
A method of generating DASH quality of experience, QoE, measurement reports, the method comprising, by a middleware unit of a MBMS client device: receiving media data via broadcast or multicast from a server device; generating MBMS reception reports covering the reception of the media data according to received reporting directives; delivering at least part of the media data to a target application of the DASH client device; receiving DASH QoE reports including QoE metrics from the target application; and providing contents of the MBMS reception report and DASH QoE reports to a reception reporting server. receiving media data via broadcast or multicast from a server device; generating MBMS reception reports covering the reception of the media data according to received reporting directives; delivering at least part of the media data to a target application of the DASH client device; receiving DASH QoE reports including QoE metrics from the target application; and providing contents of the MBMS reception report and DASH QoE reports to a reception reporting server.
An air conditioner , comprising: a movement-distance calculation unit to calculate a movement distance of a living body present in an air-conditioning space; an imaging unit to capture a thermal image in the air-conditioning space; a living-body detection unit to detect the living body present in the air-conditioning space on a basis of the thermal image; a temperature-control determination unit to provide an instruction to perform notification processing when an elapsed time when the living body whose temperature is outside a normal range where heat stroke and hypothermia are not likely to be caused and whose movement distance is less than a threshold value is present in the air-conditioning space exceeds a notification time threshold value and to provide an instruction to perform air-conditioning operation when the elapsed time exceeds a control time threshold value that is greater than the notification time threshold value; a notification unit to notify that the living body that is likely to develop heat stroke or hypothermia is present in the air-conditioning space in accordance with the instruction to perform the notification processing; and a drive control unit to perform the air-conditioning operation in accordance with the instruction to perform the air-conditioning operation. a movement-distance calculation unit to calculate a movement distance of a living body present in an air-conditioning space; an imaging unit to capture a thermal image in the air-conditioning space; a living-body detection unit to detect the living body present in the air-conditioning space on a basis of the thermal image; a temperature-control determination unit to provide an instruction to perform notification processing when an elapsed time when the living body whose temperature is outside a normal range where heat stroke and hypothermia are not likely to be caused and whose movement distance is less than a threshold value is present in the air-conditioning space exceeds a notification time threshold value and to provide an instruction to perform air-conditioning operation when the elapsed time exceeds a control time threshold value that is greater than the notification time threshold value; a notification unit to notify that the living body that is likely to develop heat stroke or hypothermia is present in the air-conditioning space in accordance with the instruction to perform the notification processing; and a drive control unit to perform the air-conditioning operation in accordance with the instruction to perform the air-conditioning operation.
A rocket motor nozzle comprising: a pair of relatively-low-erosion material layers ; and a relatively-high-erosion material layer sandwiched between the relatively-low-erosion material layers; wherein the relatively-high-erosion material layer is made of a relatively-high-erosion material that erodes more quickly when exposed to flow through the nozzle than does a relatively-low-erosion material or materials of the relatively-low-erosion material layers; and wherein the relatively-low-erosion material layers include: an inner relatively-low-erosion material layer that radially inwardly overlaps the relatively-high-erosion material layer; and an outer relatively-low-erosion material layer that radially outwardly overlaps the relatively-high-erosion material layer, characterized in that each of the pair of relatively-low-erosion material layers and the relatively-high erosion material layers include resin-transfer molded materials. a pair of relatively-low-erosion material layers ; and a relatively-high-erosion material layer sandwiched between the relatively-low-erosion material layers; wherein the relatively-high-erosion material layer is made of a relatively-high-erosion material that erodes more quickly when exposed to flow through the nozzle than does a relatively-low-erosion material or materials of the relatively-low-erosion material layers; and wherein the relatively-low-erosion material layers include: an inner relatively-low-erosion material layer that radially inwardly overlaps the relatively-high-erosion material layer; and an outer relatively-low-erosion material layer that radially outwardly overlaps the relatively-high-erosion material layer, characterized in that each of the pair of relatively-low-erosion material layers and the relatively-high erosion material layers include resin-transfer molded materials. an inner relatively-low-erosion material layer that radially inwardly overlaps the relatively-high-erosion material layer; and an outer relatively-low-erosion material layer that radially outwardly overlaps the relatively-high-erosion material layer, characterized in that each of the pair of relatively-low-erosion material layers and the relatively-high erosion material layers include resin-transfer molded materials.
Sliding window or sliding door with a pull-in device comprising: a) a driver which can be moved along a guideway on a housing ; b) a linear damper coupled to the driver and having a damper housing and a piston and a piston rod movable in the damping direction in the damper housing ; c) a protrusion which can be coupled to the driver over a certain range of movement of the driver in order to brake a movement of the driver relative to the housing ; d) wherein the driver has a receptacle into which the protrusion can be inserted, and a run-up slope is formed at least on one side of the driver adjacent to the receptacle , and e) the driver is resiliently mounted in a direction substantially perpendicular to the damping direction, and/or f) the protrusion is resiliently mounted in a direction substantially perpendicular to the damping direction; characterized in that the protrusion can slide along the starting slope on the driver , the driver and/or the protrusion being movable perpendicularly to the damping direction in order to cause the protrusion to engage with the driver after decoupling, and a sliding door is movably held on a window frame and the pull-in device is arranged in a concealed manner between the window frame and one end face of the sliding door , the sliding door comprising a groove on an upper end face which faces the window frame , in which groove a housing of the pull-in device is mounted. a) a driver which can be moved along a guideway on a housing ; b) a linear damper coupled to the driver and having a damper housing and a piston and a piston rod movable in the damping direction in the damper housing ; c) a protrusion which can be coupled to the driver over a certain range of movement of the driver in order to brake a movement of the driver relative to the housing ; d) wherein the driver has a receptacle into which the protrusion can be inserted, and a run-up slope is formed at least on one side of the driver adjacent to the receptacle , and e) the driver is resiliently mounted in a direction substantially perpendicular to the damping direction, and/or f) the protrusion is resiliently mounted in a direction substantially perpendicular to the damping direction;