mhurhangee/patent-ind-claim-en huggingface dataset:
A reaction system, comprising: a gas-liquid bubbling bed reactor (I), comprising a liquid distributor, a gas distributor located below the liquid distributor, a catalyst bed layer and a catalyst support plate, and an optional interception screen, a circulating pump (II), which is located between the discharge outlet and the feed inlet of the reactor (I), a mixer (III), which is located between the circulating pump (II) and the feed inlet of the reactor (I), and is provided with a reactant inlet, a dissolver (IV), which is located between the mixer (III) and the feed inlet of the reactor (I), and is provided with a reaction gas inlet, wherein the top of the reactor (I) is provided with a gas outlet, the reactor (I) is provided with a feed inlet connected to the liquid distributor, a gas inlet connected to the gas distributor, the bottom is provided with a discharge outlet, preferably the catalyst bed is loaded with a heterogeneous catalyst, and the circulating pump (II), the mixer (III), and the dissolver (IV) are successively connected by pipelines. a gas-liquid bubbling bed reactor (I), comprising a liquid distributor, a gas distributor located below the liquid distributor, a catalyst bed layer and a catalyst support plate, and an optional interception screen, a liquid distributor, a gas distributor located below the liquid distributor, a catalyst bed layer and a catalyst support plate, and an optional interception screen, a circulating pump (II), which is located between the discharge outlet and the feed inlet of the reactor (I), a mixer (III), which is located between the circulating pump (II) and the feed inlet of the reactor (I), and is provided with a reactant inlet, a dissolver (IV), which is located between the mixer (III) and the feed inlet of the reactor (I), and is provided with a reaction gas inlet, wherein the top of the reactor (I) is provided with a gas outlet, the reactor (I) is provided with a feed inlet connected to the liquid distributor, a gas inlet connected to the gas distributor, the bottom is provided with a discharge outlet, preferably the catalyst bed is loaded with a heterogeneous catalyst, and the circulating pump (II), the mixer (III), and the dissolver (IV) are successively connected by pipelines. the top of the reactor (I) is provided with a gas outlet, the reactor (I) is provided with a feed inlet connected to the liquid distributor, a gas inlet connected to the gas distributor, the bottom is provided with a discharge outlet, preferably the catalyst bed is loaded with a heterogeneous catalyst, and the circulating pump (II), the mixer (III), and the dissolver (IV) are successively connected by pipelines.
A method of controlling a robot assembly comprising at least one robot (R), the method comprising the steps of: setting up at least one general fault model, which is embodied as a general fault routine for a group of different treatment processes with predetermined malfunctions of a robot-guided tool, wherein the treatment processes of the group differ as regards the type and / or function of robot-guided treatment tools (S1); configuring the fault routine for at least one particular one of the malfunctions (S2); and transferring the configured fault routine to a control device of the robot assembly, wherein the general fault routine comprises a configuration option of a maximum number of repetitions (REP) and / or of a correction time for rectifying a fault and a link between a failure of a rectification (FAIL) and a follow-on model, and a configuration option depends on a malfunction, wherein it is not possible to select specific follow-on models for specific malfunctions which are specified by the user in the course of the configuration of the fault routine. setting up at least one general fault model, which is embodied as a general fault routine for a group of different treatment processes with predetermined malfunctions of a robot-guided tool, wherein the treatment processes of the group differ as regards the type and / or function of robot-guided treatment tools (S1); configuring the fault routine for at least one particular one of the malfunctions (S2); and transferring the configured fault routine to a control device of the robot assembly, wherein the general fault routine comprises a configuration option of a maximum number of repetitions (REP) and / or of a correction time for rectifying a fault and a link between a failure of a rectification (FAIL) and a follow-on model, and a configuration option depends on a malfunction, wherein it is not possible to select specific follow-on models for specific malfunctions which are specified by the user in the course of the configuration of the fault routine.
A Quality of Service, QoS, control method, applied to a first terminal device, the first terminal device accessing a core network of the first terminal device through relay User Equipment, UE, and a first designated network element, the first terminal device being in communication connection with the relay UE through a first interface, wherein the QoS control method comprises: receiving (S101), by the first terminal device, first information, determining (S102), by the first terminal device, traffic filtering information and QoS parameter information according to received first information; and sending (S103), by the first terminal device, the traffic filtering information and the QoS parameter information to the relay UE, characterized in that , determining, by the first terminal device, the traffic filtering information according to the received first information comprises: determining, by the first terminal device, that the traffic filtering information comprises a Security Parameter Index, SPI, and a Differentiated Services Code Point, DSCP. receiving (S101), by the first terminal device, first information, determining (S102), by the first terminal device, traffic filtering information and QoS parameter information according to received first information; and sending (S103), by the first terminal device, the traffic filtering information and the QoS parameter information to the relay UE, characterized in that , determining, by the first terminal device, the traffic filtering information according to the received first information comprises: determining, by the first terminal device, that the traffic filtering information comprises a Security Parameter Index, SPI, and a Differentiated Services Code Point, DSCP.
Adaptive lighting luminous module for automotive vehicle, including a field-correcting optical element configured to be arranged crosswise to light rays emitted by a plurality of light sources, the optical element comprising an entrance face through which light rays enter and an exit face through which these light rays exit, at least one segment of the entrance face being covered with an antireflection coating (AR1) that is able to decrease the reflection of some of the light rays by this entrance face : said luminous module further including : - primary light sources that are configured to emit light rays from a common emission plane (P) that is orthogonal to the optical axis of the luminous module; - a primary optical element that includes a front segment forming a lens (L1) and a back segment that includes a plurality of light guides , each light guide including an entrance face through which light rays emitted by a primary light source enter and an exit face through which these light rays exit in the direction of the front segment forming said lens (L1); and - a projecting optic that is able to project an image of the exit faces in order to form an overall adaptive light beam, the field-correcting optical element being arranged on the optical axis of the luminous module between the primary optical element and the projecting optic , the entrance face , which is at least partially covered with an antireflection coating (AR1), being turned towards the primary optical element . said luminous module further including : - primary light sources that are configured to emit light rays from a common emission plane (P) that is orthogonal to the optical axis of the luminous module; - a primary optical element that includes a front segment forming a lens (L1) and a back segment that includes a plurality of light guides , each light guide including an entrance face through which light rays emitted by a primary light source enter and an exit face through which these light rays exit in the direction of the front segment forming said lens (L1); and - a projecting optic that is able to project an image of the exit faces in order to - primary light sources that are configured to emit light rays from a common emission plane (P) that is orthogonal to the optical axis of the luminous module; - a primary optical element that includes a front segment forming a lens (L1) and a back segment that includes a plurality of light guides , each light guide including an entrance face through which light rays emitted by a primary light source enter and an exit face through which these light rays exit in the direction of the front segment forming said lens (L1); and - a projecting optic that is able to project an image of the exit faces in order to form an overall adaptive light beam,
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving (S1110), from a base station, first system information, SI, which is broadcasted periodically, the first SI including first information indicating whether second SI other than the first SI is being broadcasted or not, second information on a physical random access channel, PRACH, preamble, and third information on a PRACH resource, wherein the PRACH preamble and the PRACH resource are for requesting the second SI; transmitting (S1120), to the base station, the PRACH preamble on the PRACH resource to request the second SI, based on the first information indicating that the second SI is not being broadcasted; and receiving (S1130), from the base station, the requested second SI. receiving (S1110), from a base station, first system information, SI, which is broadcasted periodically, the first SI including first information indicating whether second SI other than the first SI is being broadcasted or not, second information on a physical random access channel, PRACH, preamble, and third information on a PRACH resource, wherein the PRACH preamble and the PRACH resource are for requesting the second SI; transmitting (S1120), to the base station, the PRACH preamble on the PRACH resource to request the second SI, based on the first information indicating that the second SI is not being broadcasted; and receiving (S1130), from the base station, the requested second SI.
A holster for a handgun assembly , the holster including: a holster body having a chamber for receiving the handgun assembly ; and a tensioner mounted on the holster body in a position to be engaged by the handgun assembly in the chamber , the tensioner being operable to apply a resilient biasing force to the handgun assembly in the chamber ; the tensioner including a tensioner body that is engaged and deformed by the handgun assembly , and a spring for resisting and controlling deformation of the tensioner body . a holster body having a chamber for receiving the handgun assembly ; and a tensioner mounted on the holster body in a position to be engaged by the handgun assembly in the chamber , the tensioner being operable to apply a resilient biasing force to the handgun assembly in the chamber ; the tensioner including a tensioner body that is engaged and deformed by the handgun assembly , and a spring for resisting and controlling deformation of the tensioner body .
A method of forming a laminated metallic structure , the method comprising: (block 1010) providing a first preformed-metallic sheet having a three-dimensional shape of a first graduated three-dimensional size ; (block 1012) providing a second preformed-metallic sheet having the three-dimensional shape of a second graduated three-dimensional size ; (block 1014) nesting the second preformed-metallic sheet in the first preformed-metallic sheet; and (block 1016) bonding the first preformed-metallic sheet and the second preformed-metallic sheet together, to form the laminated metallic structure as a three-dimensional body having a near net three-dimensional shape , wherein "graduated" refers to items being characterized by or arranged in degrees, successively, as according to size. (block 1010) providing a first preformed-metallic sheet having a three-dimensional shape of a first graduated three-dimensional size ; (block 1012) providing a second preformed-metallic sheet having the three-dimensional shape of a second graduated three-dimensional size ; (block 1014) nesting the second preformed-metallic sheet in the first preformed-metallic sheet; and (block 1016) bonding the first preformed-metallic sheet and the second preformed-metallic sheet together, to form the laminated metallic structure as a three-dimensional body having a near net three-dimensional shape , wherein "graduated" refers to items being characterized by or arranged in degrees, successively, as according to size.
A laser sustained plasma lamp , comprising: a mechanically sealed pressurized chamber assembly configured to contain an ionizable material, the chamber assembly comprising and bounded by: a chamber tube comprising an ingress end and an egress end; an ingress sapphire window disposed at the chamber tube ingress end; a first metal seal ring configured to seal against the chamber tube ingress end and the ingress sapphire window; an egress sapphire window disposed at the chamber tube egress end; and a second metal seal ring configured to seal against the chamber tube egress end and the egress sapphire window; and a mechanical clamping structure external to the chamber assembly configured to clamp across at least a portion of the ingress sapphire window and the egress sapphire window, wherein the ingress sapphire window and the egress sapphire window are not connected to the chamber tube via welding and/or brazing. a mechanically sealed pressurized chamber assembly configured to contain an ionizable material, the chamber assembly comprising and bounded by: a chamber tube comprising an ingress end and an egress end; an ingress sapphire window disposed at the chamber tube ingress end; a first metal seal ring configured to seal against the chamber tube ingress end and the ingress sapphire window; an egress sapphire window disposed at the chamber tube egress end; and a second metal seal ring configured to seal against the chamber tube egress end and the egress sapphire window; and a chamber tube comprising an ingress end and an egress end; an ingress sapphire window disposed at the chamber tube ingress end; a first metal seal ring configured to seal against the chamber tube ingress end and the ingress sapphire window; an egress sapphire window disposed at the chamber tube egress end; and a second metal seal ring configured to seal against the chamber tube egress end and the egress sapphire window; and a mechanical clamping structure external to the chamber assembly configured to clamp across at least a portion of the ingress sapphire window and the egress sapphire window, wherein the ingress sapphire window and the egress sapphire window are not connected to the chamber tube via welding and/or brazing.
The method of emulsions separation, which includes filtering the emulsion through a granulated bed layer and regeneration of the bed, characterized in that, at least, part of the surface of the bed granules is made nonwettable for the dispersed phase due to its covering with a dispersion medium; the bed is impregnated with the dispersion medium prior to filtering; and regeneration of the bed is carried out by backwashing, wherein open-porous granules impregnated with a dispersion medium are used as the bed granules, open pores of which possess a capillary effect in relation to the dispersion medium.
A method for large-scale production of a therapeutic composition enriched for full-length mRNA molecules encoding a peptide or polypeptide of interest for use in the delivery to or treatment of a subject comprising (i) synthesizing in vitro mRNA using an SP6 RNA polymerase, and (ii) tailing the synthesized mRNA, wherein the therapeutic composition includes less than 20% of abortive transcripts, and wherein at least 100 mg of mRNA is synthesized in a single batch.
An artificial vision system comprising: a camera , an image processor for analysing a video signal from the camera to generate a data pattern, a light source for emitting light according to the generated data pattern, and a visual prosthesis , wherein the visual prosthesis comprises an integrated circuit comprising a plurality of pixels, an array of electrodes connected to the pixels and configured to excite neurons in a retina, one or more PV cells , and a photodetector for receiving the light emitted by the light source , wherein the integrated circuit is configured to process signals form the photodetector to selectively activate the pixels. a camera , an image processor for analysing a video signal from the camera to generate a data pattern, a light source for emitting light according to the generated data pattern, and a visual prosthesis , wherein the visual prosthesis comprises an integrated circuit comprising a plurality of pixels, an array of electrodes connected to the pixels and configured to excite neurons in a retina, one or more PV cells , and a photodetector for receiving the light emitted by the light source , wherein the integrated circuit is configured to process signals form the photodetector to selectively activate the pixels.
A room air purifier , comprising a housing in which an ozone generator is arranged along a longitudinal axis of the housing or axially parallel thereto, wherein the ozone generator , viewed radially, is surrounded by an air guiding component at a predetermined distance within a predetermined angular range, wherein at least the side of the air guiding component facing the ozone generator is designed to be reflective for the radiation emitted by the ozone generator , wherein, viewed axially, an air circulation unit is arranged at one end of the housing, which is suitable to cause a laminar flow from the axially opposite end of the housing, which has an air inlet opening , through the housing towards the air circulation unit , wherein after the air circulation unit , viewed axially in the direction of flow, an air outlet opening is provided via which ozone-enriched air passing therethrough and sucked into the interior of the device is ejected, characterized in that the air outlet opening is designed in such a manner that the ozone-enriched air is ejected into the room in a uniformly concentrated manner within an angular range between 0 and 90° relative to the longitudinal axis, wherein the housing is of cylindrical design and the air outlet opening is implemented in that the end face of the housing to which end face the air outlet opening is assigned, has a smaller diameter than the housing and, viewed axially, is arranged displaced outwards by a predetermined dimension.
A method , performed at an electronic device , for determining a geofence parameter of a geofence area related to a point of interest, POI, the method comprising: obtaining (S302) a location of the POI; obtaining (S304) first POI data based on the location of the POI, wherein the first POI data comprises a geometric feature of the POI comprising a shape of the POI; determining (S306), based on the location of the POI, one or more entities in proximity of the POI; obtaining (S308) second POI data related to at least one of the one or more entities; generating (S310) a set of enclosing features related to the POI based on the second POI data; wherein generating (S310) the set of enclosing features comprises applying (S310A) a processing scheme to the second POI data and determining (S310B) whether the second POI data satisfies a criterion; and determining (S312) a geofence parameter based on the first POI data and the set of enclosing features. obtaining (S302) a location of the POI; obtaining (S304) first POI data based on the location of the POI, wherein the first POI data comprises a geometric feature of the POI comprising a shape of the POI; determining (S306), based on the location of the POI, one or more entities in proximity of the POI; obtaining (S308) second POI data related to at least one of the one or more entities; generating (S310) a set of enclosing features related to the POI based on the second POI data; wherein generating (S310) the set of enclosing features comprises applying (S310A) a processing scheme to the second POI data and determining (S310B) whether the second POI data satisfies a criterion; and determining (S312) a geofence parameter based on the first POI data and the set of enclosing features.
An apparatus for analyzing sample comprising: a platform having a disk shape to move a sample by centrifugal force, the platform comprising: a plurality of chambers and a plurality of channels connecting the chambers; a sample inlet hole formed in the platform to inject the sample into the platform ; an opening formed in an outer surface of the platform and a receiving space isolated from the chambers and channels defined in the platform , characterised in that the opening is configured to introduce a residual of the sample, present on the outer surface of the platform around the sample inlet hole , into the receiving space ; and a barrier around a portion of the opening to prevent the residual sample from moving past the opening in a radial outward direction of the platform . a plurality of chambers and a plurality of channels connecting the chambers; a sample inlet hole formed in the platform to inject the sample into the platform ; an opening formed in an outer surface of the platform and a receiving space isolated from the chambers and channels defined in the platform , characterised in that the opening is configured to introduce a residual of the sample, present on the outer surface of the platform around the sample inlet hole , into the receiving space ; and a barrier around a portion of the opening to prevent the residual sample from moving past the opening in a radial outward direction of the platform .