mhurhangee/patent-ind-claim-en huggingface dataset:
A subassembly comprising: a container including a container wall with an interior surface , wherein the container wall defines a bore ; a seal assembly including a flexible seal assembly wall with an interior surface , the interior surfaces of the container wall and the seal assembly defining a closed sterile reservoir filled with medical fluid or drug product, and a barrier disposed exterior of the flexible seal assembly wall to define an enclosed space between the flexible seal assembly wall and the barrier a fluid delivery system comprising a container needle having a point disposed only through the barrier in a storage state such that the container needle is not in fluid communication with the reservoir , and disposed through the flexible seal assembly wall into the reservoir in a delivery state such that the container needle is in fluid communication with the reservoir ; the container needle attached to a first connector of a pair of connectors , a second connector mechanically coupled to the container , and the first and second of the pair of connectors mechanically coupled to secure the container needle to the container with the container needle in the storage state, characterized in that the barrier and the flexible seal assembly wall define the enclosed space in both the storage state and the delivery state, and the subassembly further comprises an actuator adapted to move the container needle from the storage state to the delivery state. a container including a container wall with an interior surface , wherein the container wall defines a bore ; a seal assembly including a flexible seal assembly wall with an interior surface , the interior surfaces of the container wall and the seal assembly defining a closed sterile reservoir filled with medical fluid or drug product, and a barrier disposed exterior of the flexible seal assembly wall to define an enclosed space between the flexible seal assembly wall and the barrier a fluid delivery system comprising a container needle having a point disposed only through the barrier in a storage state such that the container needle is not in fluid communication with the reservoir , and disposed through the flexible seal assembly wall into the reservoir in a delivery state such that the container needle is in fluid communication with the reservoir ; the container needle attached to a first connector of a pair of connectors , a second connector mechanically coupled to the container , and the first and second of the pair of connectors mechanically coupled to secure the container needle to the container with the container needle in the storage state, characterized in that the barrier and the flexible seal assembly wall define the enclosed space in both the storage state and the delivery state, and the subassembly further comprises an actuator adapted to move the container needle from the storage state to the delivery state.
A ferrous metal based pipeline suitable to be buried containing a composite anti-corrosion coating, characterized in that the anti-corrosion coating is a zinc-aluminium-rare earth alloy comprising the following components in percentage by weight: 4.7-60% of Al, 0.02-5% of RE and the balance of Zn and a hole-sealing finishing layer coated on the surface of the zinc-aluminum-rare earth alloy layer.
A cylinder for opposed-piston engines, comprising: a liner with a bore and longitudinally displaced intake and exhaust ports near respective ends of the liner; the liner including an intermediate portion between the exhaust and intake ports where a combustion chamber is formed when the end surfaces (35e and 36e) of a pair of pistons (35 and 36) disposed in opposition in the bore are in close mutual proximity; a compression sleeve encircling and reinforcing the intermediate portion of the liner; characterized in that the cylinder further comprises: an annular grid of pegs extending between the intermediate portion and the compression sleeve to support the liner against the compression sleeve and define an annular turbulent liquid flow path extending across the intermediate portion in a single longitudinal direction of the liner, from the intake port to the exhaust port. a liner with a bore and longitudinally displaced intake and exhaust ports near respective ends of the liner; the liner including an intermediate portion between the exhaust and intake ports where a combustion chamber is formed when the end surfaces (35e and 36e) of a pair of pistons (35 and 36) disposed in opposition in the bore are in close mutual proximity; a compression sleeve encircling and reinforcing the intermediate portion of the liner; characterized in that the cylinder further comprises: an annular grid of pegs extending between the intermediate portion and the compression sleeve to support the liner against the compression sleeve and define an annular turbulent liquid flow path extending across the intermediate portion in a single longitudinal direction of the liner, from the intake port to the exhaust port.
Cylinder or upright vacuum cleaner with a vacuum cleaner nozzle consisting of a housing which can be pushed over the floor, in which at least one brush roller is arranged and is driven for rotation, which roller removes the fine dirt from the floor and transports same into a dirt collection container supported by a suction air flow from a suction fan, wherein the housing of the vacuum cleaner nozzle has a tub-shaped intermediate container lying in the suction air flow from the suction fan, which container is intended for the temporary interim storage of heavy dirt particles which cannot be entrained in the air, characterized in that the suction blower can be regulated in respect of speed of rotation and/or performance and is designed to perform the following steps: 1.1 in a first step, which corresponds to a normal operation, the suction performance of the suction fan is set so low that the suction pressure in the vacuum cleaner nozzle is just sufficient to convey the heavy dirt particles picked up into an intermediate container and to hold same there and to convey the fine dirt picked up into a downstream collection container, 1.2 in a second step, the fill level of heavy dirt particles collected in the intermediate container is acquired, and 1.3 in a third step, which corresponds to emptying, when the level in the intermediate container exceeds a limit, the suction power of the suction fan is increased in such a manner that it is possible to entrain the heavy dirt particles temporarily stored in the intermediate container in the air and same are conveyed into the downstream collection container. 1.1 in a first step, which corresponds to a normal operation, the suction performance of the suction fan is set so low that the suction pressure in the vacuum cleaner nozzle is just sufficient to convey the heavy dirt particles picked up into an intermediate container and to hold same there and to convey the fine dirt picked up into a downstream collection container, 1.2 in a second step, the fill level of heavy dirt particles collected in the intermediate container is acquired, and 1.3 in a third step, which corresponds to emptying, when the level in the intermediate container exceeds a limit, the suction power of the suction fan is increased in such a manner that it is possible to entrain the heavy dirt particles temporarily stored in the intermediate container in the air and same are conveyed into the downstream collection container.
A power source apparatus comprising: a battery module including a plurality of battery cells ; a blower having a blowing portion arranged on one side of the battery module , the blower being configured to blow air from the blowing portion ; and a chassis having an inner space tightly closed by a plurality of wall surfaces that include a first wall surface and a second wall surface and storing the battery module and the blower in the inner space, the first wall surface being arranged on the other side of the battery module , the other side being opposite to the one side of the battery module , the second wall surface being connected to the first wall surface and extending from the first wall surface toward the blower , characterized in that the power source apparatus further comprises: an air introduction path formed between the first wall surface and the battery module , the air introduction path having an entrance end portion and being configured to introduce the air to the battery module through the entrance end portion ; and a flow path formed between the second wall surface and the battery module , the flow path having an exit end portion and being configured to introduce the air blown from the blower to the air introduction path through the exit end portion , wherein a cross-sectional area of the entrance end portion is larger than a second cross-sectional area of the exit end portion . a battery module including a plurality of battery cells ; a blower having a blowing portion arranged on one side of the battery module , the blower being configured to blow air from the blowing portion ; and a chassis having an inner space tightly closed by a plurality of wall surfaces that include a first wall surface and a second wall surface and storing the battery module and the blower in the inner space, the first wall surface being arranged on the other side of the battery module , the other side being opposite to the one side of the battery module , the second wall surface being connected to the first wall surface and extending from the first wall surface toward the blower , characterized in that the power source apparatus further comprises: the first wall surface being arranged on the other side of the battery module , the other side being opposite to the one side of the battery module , the second wall surface being connected to the first wall surface and extending from the first wall surface toward the blower , characterized in that the power source apparatus further comprises: an air introduction path formed between the first wall surface and the battery module , the air introduction path having an entrance end portion and being configured to introduce the air to the battery module through the entrance end portion ; and a flow path formed between the second wall surface and the battery module , the flow path having an exit end portion and being configured to introduce the air blown from the blower to the air introduction path through the exit end portion , wherein a cross-sectional area of the entrance end portion is larger than a second cross-sectional area of the exit end portion .
A method for managing a band width part, BWP, comprising: sending, by a network device, first configuration information to a terminal, wherein the first configuration information comprises uplink BWP configuration information and downlink BWP configuration information, the uplink BWP configuration information comprises a configuration of at least one uplink BWP, and the downlink BWP configuration information comprises a configuration of at least one downlink BWP, wherein the uplink BWP configuration information carries first indication information, and the first indication information is used to indicate a BWP identifier corresponding to an initial active uplink BWP, and the downlink BWP configuration information carries first indication information, and the first indication information is used to indicate a BWP identifier corresponding to an initial active downlink BWP, and the initial active BWP refers to a first-activated BWP; and sending, by the network device, second indication information to the terminal, wherein the second indication information is used to indicate a dormant BWP, and the dormant BWP comprises at least one of a dormant uplink BWP or a dormant downlink BWP. sending, by a network device, first configuration information to a terminal, wherein the first configuration information comprises uplink BWP configuration information and downlink BWP configuration information, the uplink BWP configuration information comprises a configuration of at least one uplink BWP, and the downlink BWP configuration information comprises a configuration of at least one downlink BWP, wherein the uplink BWP configuration information carries first indication information, and the first indication information is used to indicate a BWP identifier corresponding to an initial active uplink BWP, and the downlink BWP configuration information carries first indication information, and the first indication information is used to indicate a BWP identifier corresponding to an initial active downlink BWP, and the initial active BWP refers to a first-activated BWP; and sending, by the network device, second indication information to the terminal, wherein the second indication information is used to indicate a dormant BWP, and the dormant BWP comprises at least one of a dormant uplink BWP or a dormant downlink BWP.
A silicon nitride substrate comprising a silicon nitride sintered body including silicon nitride crystal grains and a grain boundary phase, wherein: a plate thickness of the silicon nitride substrate is 0.4 mm or less, a thermal conductivity of the silicon nitride substrate is 80 W/(m·K) or more, as measured in accordance with JIS-R-1611 , the grain boundary phase mainly includes a sintering aid, and the sintering aid includes a rare-earth compound, characterized in that a percentage of a number of the silicon nitride crystal grains including dislocation defect portions inside the silicon nitride crystal grains among any 50 of the silicon nitride crystal grains having completely visible contours in a 50 μm × 50 μm observation region of any cross section or surface of the silicon nitride sintered body is not less than 0% and not more than 20%, the dislocation defect portions being crystal defects or lattice defects included inside the silicon nitride crystal grains and being determined by observing the dark field and the bright field of a TEM image at a magnification of 10000 times or more, a percentage of a number of the silicon nitride crystal grains having an occupied area ratio of the dislocation defect portion of 5% or less among the number of the silicon nitride crystal grains including the dislocation defect portions is 70% or more, and no aggregate of a component other than silicon, oxygen, and nitrogen is 1 μm 2 or more in the dislocation defect portions . a plate thickness of the silicon nitride substrate is 0.4 mm or less, a thermal conductivity of the silicon nitride substrate is 80 W/(m·K) or more, as measured in accordance with JIS-R-1611 , the grain boundary phase mainly includes a sintering aid, and the sintering aid includes a rare-earth compound, characterized in that a percentage of a number of the silicon nitride crystal grains including dislocation defect portions inside the silicon nitride crystal grains among any 50 of the silicon nitride crystal grains having completely visible contours in a 50 μm × 50 μm observation region of any cross section or surface of the silicon nitride sintered body is not less than 0% and not more than 20%, the dislocation defect portions being crystal defects or lattice defects included inside the silicon nitride crystal grains and being determined by observing the dark field and the bright field of a TEM image at a magnification of 10000 times or more, a percentage of a number of the silicon nitride crystal grains having an occupied area ratio of the dislocation defect portion of 5% or less among the number of the silicon nitride crystal grains including the dislocation defect portions is 70% or more, and no aggregate of a component other than silicon, oxygen, and nitrogen is 1 μm 2 or more in the dislocation defect portions .
System for separating composites of a space launch vehicle comprising non-pyrotechnic separation modules intended to be distributed between the composites to separate and an activation device for activating the separation modules which is capable of causing the simultaneous activation of all the separation modules and which consists in a compressed gas source, the output of which is connected to each separation module , characterised in that each separation module uses the energy of a pressurised fluid to cause the separation of the composites, and in that a hydropneumatic converter is interposed between the activation device and the separation modules and each separation module is connected to the hydropneumatic converter by a hydraulic conduit . and an activation device for activating the separation modules which is capable of causing the simultaneous activation of all the separation modules and which consists in a compressed gas source, the output of which is connected to each separation module , characterised in that each separation module uses the energy of a pressurised fluid to cause the separation of the composites, and in that a hydropneumatic converter is interposed between the activation device and the separation modules and each separation module is connected to the hydropneumatic converter by a hydraulic conduit .
A method of inspecting defects of a shuffled set of playing cards, wherein the shuffled set of playing cards is being preliminary shuffled at random using a random number generator and at least a rank of card each time the card is being set out from a card feeder is detected by a manufacturer, and a shuffled card ID is attached to the shuffled set of playing cards by the manufacturer, the shuffled card ID is being associated with information of the shuffled playing cards; comprising, inspecting cards of the set of shuffled playing cards, wherein, when some defect is found, tracing the manufacturing and distribution history of the defected shuffled set of playing cards by reading the shuffled card ID of the defected shuffled set of playing cards and searching a database on which the shuffled card ID is registered based on the shuffled card ID, wherein inspecting cards comprises: detecting an excess or deficiency in the rank and suit combinations of the set of playing cards.
A heatsink comprising: a heat exchange device having a flat base configured to interface with a heat source; and a plurality of heat exchange elements in a branched configuration having at least three levels of branching, characterized in the branched configuration extending in three dimensions, and having a fractal variation therebetween. a heat exchange device having a flat base configured to interface with a heat source; and a plurality of heat exchange elements in a branched configuration having at least three levels of branching, characterized in the branched configuration extending in three dimensions, and having a fractal variation therebetween.
A method for processing a Quality of Service, QoS, parameter in a handover scenario, comprising: transmitting, by a source base station , a handover request message to a target base station , characterized in that the handover request message comprises a QoS flow-based QoS parameter and a Radio Bearer, RB, -based QoS parameter, or the handover request message comprises the QoS flow-based QoS parameter; the QoS flow-based QoS parameter or the RB-based QoS parameter is configured to be adopted by the target base station to perform admission control ; and the handover request message further comprises: a mapping relationship from QoS flows to RBs generated by the source base station . transmitting, by a source base station , a handover request message to a target base station , characterized in that the handover request message comprises a QoS flow-based QoS parameter and a Radio Bearer, RB, -based QoS parameter, or the handover request message comprises the QoS flow-based QoS parameter; the QoS flow-based QoS parameter or the RB-based QoS parameter is configured to be adopted by the target base station to perform admission control ; and the handover request message further comprises: a mapping relationship from QoS flows to RBs generated by the source base station .
A particle analysis apparatus for performing flow cytometry, comprising: a light irradiation unit that is configured to irradiate particles flowing within a flow path with laser light; a light detection unit that is configured to detect fluorescence or scattered light or both the fluorescence and the scattered light, the fluorescence and the scattered light being emitted from the particles irradiated with the laser light; and a signal processing unit that is configured to process a detection signal of the fluorescence or the scattered light or detection signals of both the fluorescence and the scattered light, the fluorescence and the scattered light being output from the light detection unit, the light irradiation unit including at least a light source that is configured to generate the laser light, and a laser light detector that is configured to detect part of laser light emitted from the light source, wherein the signal processing unit is configured to correct the detection signal of the fluorescence or the scattered light or the detection signals of both the fluorescence and the scattered light, based on a detection result in the laser light detector, the particle analysis apparatus being characterised in that the light irradiation unit includes a light source drive control unit that is configured to adjust output of laser light based on a detection result in the laser light detector, the laser light being output from the light source. a light irradiation unit that is configured to irradiate particles flowing within a flow path with laser light; a light detection unit that is configured to detect fluorescence or scattered light or both the fluorescence and the scattered light, the fluorescence and the scattered light being emitted from the particles irradiated with the laser light; and a signal processing unit that is configured to process a detection signal of the fluorescence or the scattered light or detection signals of both the fluorescence and the scattered light, the fluorescence and the scattered light being output from the light detection unit, the light irradiation unit including at least a light source that is configured to generate the laser light, and a laser light detector that is configured to detect part of laser light emitted from the light source, wherein a light source that is configured to generate the laser light, and a laser light detector that is configured to detect part of laser light emitted from the light source, wherein the signal processing unit is configured to correct the detection signal of the fluorescence or the scattered light or the detection signals of both the fluorescence and the scattered light, based on a detection result in the laser light detector, the particle analysis apparatus being characterised in that the light irradiation unit includes a light source drive control unit that is configured to adjust output of laser light based on a detection result in the laser light detector, the laser light being output from the light source.