mhurhangee/patent-ind-claim-en huggingface dataset:
A monolithic separation membrane structure comprising: a substrate composed of a porous material and including a plurality of through holes (TH), a first support layer composed of a porous ceramic material, formed on an inner surface of the plurality of through holes (TH) and having a tubular configuration, and a separation membrane arranged on an inner side of the first support layer , wherein the thickness of the first support layer in a radial direction is 100 micrometers to 300 micrometers, the first support layer includes an aggregate material having alumina as a main component, an inorganic binder having titania as a main component, and a sintering additive having silica or magnesia as a main component, titania particles in the inorganic binder form a binding neck that covers at least a portion of alumina particles in the aggregate material, a titania concentration in the first support layer is at least 5 wt% to no more than 40 wt%, the silica component or magnesia component is present in an interface of the titania particles and alumina particles or between the titania particles, a silica concentration in the first support layer is at least 0.1 wt% to no more than 6 wt% when the first support layer includes the silica component, and a magnesia concentration in the first support layer is at least 0.1 wt% to no more than 5 wt% when the first support layer includes the magnesia component. a substrate composed of a porous material and including a plurality of through holes (TH), a first support layer composed of a porous ceramic material, formed on an inner surface of the plurality of through holes (TH) and having a tubular configuration, and a separation membrane arranged on an inner side of the first support layer , wherein the thickness of the first support layer in a radial direction is 100 micrometers to 300 micrometers, the first support layer includes an aggregate material having alumina as a main component, an inorganic binder having titania as a main component, and a sintering additive having silica or magnesia as a main component, titania particles in the inorganic binder form a binding neck that covers at least a portion of alumina particles in the aggregate material, a titania concentration in the first support layer is at least 5 wt% to no more than 40 wt%, the silica component or magnesia component is present in an interface of the titania particles and alumina particles or between the titania particles, a silica concentration in the first support layer is at least 0.1 wt% to no more than 6 wt% when the first support layer includes the silica component, and a magnesia concentration in the first support layer is at least 0.1 wt% to no more than 5 wt% when the first support layer includes the magnesia component.
A chassis collision structure of a new energy vehicle, wherein the chassis collision structure of a new energy vehicle comprises a front lower collision beam assembly , a front sub-frame assembly , a front battery pack bottom protective plate , a rear battery pack bottom protective plate , and a rear sub-frame assembly which are arranged sequentially along a direction from a head to a tail of the vehicle, wherein the front lower collision beam assembly is connected to a front end of the front sub-frame assembly ; the front battery pack bottom protective plate is connected to a bottom of the front sub-frame assembly ; the rear battery pack bottom protective plate is connected to a bottom of the rear sub-frame assembly ; and connecting parts which are connected with a battery pack are arranged at one end of the front battery pack bottom protective plate and one end of the rear battery pack bottom protective plate , which are close to each other, respectively, characterized in that the rear battery pack bottom protective plate comprises a bottom protective plate body which consists of a top protective plate and a bottom protective plate which are buckled fixedly from top to bottom; a plurality of rear battery pack connecting parts are arranged on one side of the bottom protective plate body, and a plurality of rear sub-frame connecting parts which are connected with the rear sub-frame assembly are constructed on the other side of the bottom protective plate body with respect to the rear battery pack connecting parts ; and the rear battery pack connecting parts and the rear sub-frame connecting parts are connecting holes which are formed in the bottom protective plate body.
Method for determining the direction of travel of a vehicle by means of a system for determining the direction of travel of a vehicle, wherein the vehicle is movably arranged on a concrete floor, wherein the concrete floor comprises at least one reinforcing bar , wherein the vehicle comprises at least one first sensor (2.1) and a second sensor (2.2) of a first sensor group, which are arranged along a first reference line at a distance a 1 from each other, characterised in that the direction of travel is deemed parallel to the reinforcing bar , or assigned to a different predetermined initial direction-angle value, until such a point as the vehicle travels at a velocity v over the reinforcing bar , wherein the first sensor (2.1) detects the reinforcing bar at a first instant t 1 , wherein the second sensor (2.2) detects the reinforcing bar at a second instant t 2 , in particular temporally after the first instant t 1 , wherein the time difference t α1 between the first instant t 1 and the second instant t 2 is determined, wherein an angle α 1 is determined from the time difference t α1 , the velocity v and the distance a 1 , said angle indicating the angle between the direction of travel of the vehicle and the extent direction of the reinforcing bar at the first and/or second instant, or the direction of travel is determined as being parallel to the reinforcing bar .
A vehicle engine which is capable to perform a compression self-ignition operation comprising an intake and exhaust device, an intake system being disposed on a vehicle-front side of the engine and an exhaust system being disposed on a vehicle-rear side of the engine when the engine is mounted on a vehicle, the device comprising an intake manifold which is mounted on an intake side of the engine and is integrated with a water cooling inter cooler, a supercharger driven by a force other than an exhaust gas which is disposed on the vehicle-front side of the engine , upstream side of the intake manifold and above the intake manifold on an intake passage, wherein an exhaust purification device disposed on an exhaust passage is disposed adjacent to an outer surface of the engine . an intake manifold which is mounted on an intake side of the engine and is integrated with a water cooling inter cooler, a supercharger driven by a force other than an exhaust gas which is disposed on the vehicle-front side of the engine , upstream side of the intake manifold and above the intake manifold on an intake passage, wherein an exhaust purification device disposed on an exhaust passage is disposed adjacent to an outer surface of the engine .
A respiratory device comprising a blower having an inlet and an outlet , a patient interface , a valve coupled to the blower and operable to control a pressure applied to the patient interface , a sensor to sense at least one of pressure and flow applied to the patient interface , and control circuitry coupled to the blower , the valve , and the sensor , characterized in that the control circuitry is configured to operate the blower and the valve to apply a first threshold pressure to the patient interface for a first preset amount of time in response to an inspiratory trigger being sensed by the sensor , wherein the control circuitry is configured to operate the blower and the valve to apply a second threshold pressure to the patient interface during a rest phase that occurs after the first preset amount of time, wherein the control circuitry is configured to operate to ignore one or more inspiratory triggers that are sensed by the sensor and that occur during the rest phase. a blower having an inlet and an outlet , a patient interface , a valve coupled to the blower and operable to control a pressure applied to the patient interface , a sensor to sense at least one of pressure and flow applied to the patient interface , and control circuitry coupled to the blower , the valve , and the sensor , characterized in that the control circuitry is configured to operate the blower and the valve to apply a first threshold pressure to the patient interface for a first preset amount of time in response to an inspiratory trigger being sensed by the sensor , wherein the control circuitry is configured to operate the blower and the valve to apply a second threshold pressure to the patient interface during a rest phase that occurs after the first preset amount of time, wherein the control circuitry is configured to operate to ignore one or more inspiratory triggers that are sensed by the sensor and that occur during the rest phase.
A pharmaceutical product that is a combination drug or a kit formulation for co-administration comprising a combination of A) and B): A) a xanthine oxidase/xanthine dehydrogenase inhibitor selected from topiroxostat and febuxostat, or a pharmaceutically acceptable salt thereof; and B) inosine or a pharmaceutically acceptable salt thereof. A) a xanthine oxidase/xanthine dehydrogenase inhibitor selected from topiroxostat and febuxostat, or a pharmaceutically acceptable salt thereof; and B) inosine or a pharmaceutically acceptable salt thereof.
A computer-implemented method comprising: receiving, at a processor, time of flight depth camera amplitude and phase measurements depicting surfaces in a scene; computing an index of a look up table from the measurements; using the index to read a corrected depth value from the look up table , the corrected value being a depth of a surface from the camera having been calculated by taking into account at least three possible light ray paths between the camera and a surface in the scene; the corrected value having been calculated by searching for values of a backscattering vector, wherein the backscattering vector values comprise weights indicating how much contribution is made to the amplitude and phase values observed at a pixel from light associated with a plurality of different distance bins, and the distance bins comprise a distance range from the time of flight camera divided into intervals. receiving, at a processor, time of flight depth camera amplitude and phase measurements depicting surfaces in a scene; computing an index of a look up table from the measurements; using the index to read a corrected depth value from the look up table , the corrected value being a depth of a surface from the camera having been calculated by taking into account at least three possible light ray paths between the camera and a surface in the scene; the corrected value having been calculated by searching for values of a backscattering vector, wherein the backscattering vector values comprise weights indicating how much contribution is made to the amplitude and phase values observed at a pixel from light associated with a plurality of different distance bins, and the distance bins comprise a distance range from the time of flight camera divided into intervals.
A method of forming a building panel, wherein the method comprises: • heating a substrate to a temperature above 80°C, wherein the substrate is a dense and non-porous substrate, the substrate being a thermoplastic foil; • printing a digital image with a print head by applying drops of a water-based ink on the heated substrate , wherein the water-based ink comprises a colourant comprising an aqueous pigment dispersion, a binder comprising an acrylic resin dispersion, preferably a thermally crosslinkable acrylate copolymer dispersion, and a viscosity increasing substance comprising glycol or glycerine; • applying a transparent wear resistant layer on the digital image; and • connecting the substrate to a core with heat and pressure, thereby forming a building panel, wherein the substrate , prior to printing, is connected to the core . • heating a substrate to a temperature above 80°C, wherein the substrate is a dense and non-porous substrate, the substrate being a thermoplastic foil; • printing a digital image with a print head by applying drops of a water-based ink on the heated substrate , wherein the water-based ink comprises a colourant comprising an aqueous pigment dispersion, a binder comprising an acrylic resin dispersion, preferably a thermally crosslinkable acrylate copolymer dispersion, and a viscosity increasing substance comprising glycol or glycerine; • applying a transparent wear resistant layer on the digital image; and • connecting the substrate to a core with heat and pressure, thereby forming a building panel,
A gas turbine engine , comprising: a core engine ; a nacelle surrounding at least a portion of the core engine; a bypass duct defined by and between the nacelle and the core engine and defining a fore-to-aft airflow conduit ; an outer door movable between a stowed position and a deployed position, where the outer door extends outwards from the nacelle; a blocker door movable between a stowed position and a deployed position, where the blocker door extends into the airflow conduit to deflect airflow outwards; and a rotary actuator assembly operably coupled to the outer door and the blocker door and rotatable about a circumferential axis with respect to the core engine at a hinge point, operably coupled to the outer door and transferring a torque to the outer door to rotate the outer door about the hinge point between the stowed and deployed positions and operably coupled to the blocker door and transferring a torque to the blocker door to rotate the blocker door about the hinge point between the stowed and deployed positions; wherein the rotary actuator assembly comprises multiple rotary actuators that are powered with a single motor. a core engine ; a nacelle surrounding at least a portion of the core engine; a bypass duct defined by and between the nacelle and the core engine and defining a fore-to-aft airflow conduit ; an outer door movable between a stowed position and a deployed position, where the outer door extends outwards from the nacelle; a blocker door movable between a stowed position and a deployed position, where the blocker door extends into the airflow conduit to deflect airflow outwards; and a rotary actuator assembly operably coupled to the outer door and the blocker door and rotatable about a circumferential axis with respect to the core engine at a hinge point, operably coupled to the outer door and transferring a torque to the outer door to rotate the outer door about the hinge point between the stowed and deployed positions and operably coupled to the blocker door and transferring a torque to the blocker door to rotate the blocker door about the hinge point between the stowed and deployed positions; wherein the rotary actuator assembly comprises multiple rotary actuators that are powered with a single motor.
Tool basic module, in particular for independent use, with a drive unit , with a transmission unit for adjusting a rotational speed of the drive unit , with a main output (14a; 14b) and with a coupling device which has a mechanical interface (16a; 16b; 16c; 16d; 16e; 16f; 16g; 16h) for a mechanical drive connection of at least one attachment device (18a, 20a, 22a; 18e; 18f; 18g; 18h) to the main output (14a; 14b), characterized in that the coupling device has an electrical interface (90a; 90b; 90c; 90d; 90e; 90f; 90g; 90h) for transmitting a high power and/or a high current, and which is provided for an electrical connection, coupled to the mechanical connection, of the at least one attachment device (18a, 20a, 22a; 18e; 18f; 18g; 18h) to the main output (14a; 14b).
An X-ray generation tube comprising an electron gun (EG), and an anode including a target configured to generate X-rays upon collision with electrons from the electron gun (EG), wherein the electron gun (EG) includes a cathode having an electron emitting portion, an extraction electrode configured to extract the electrons emitted from the electron emitting portion, and a focusing electrode configured to focus the electrons extracted by the extraction electrode , wherein the focusing electrode includes a first portion of a tubular shape having an inside surface (IS1), and a second portion arranged inside a space defined by the inside surface (IS1) of the first portion , the first portion includes a distal end (E2) facing the anode , the second portion includes an opposing surface (UP1) facing the anode , and the second portion includes an electron passage hole configured such that the electrons from the electron emitting portion pass therethrough, and a distance between the distal end (E2) and the anode is shorter than a distance between the opposing surface (UP1) and the anode , and wherein the second portion is arranged inside the space to define, inside the space, at least a first space (SP1) and a second space (SP2), the first space (SP1) at a side of a surface (LW1) of the second portion opposite to the opposing surface (UP1) of the second portion ; the first portion is substantially made of stainless steel; and the second portion is substantially made of one of molybdenum, tungsten, copper, tantalum, niobium, and silicon carbide, characterised in that the second space (SP2) is defined at a side of the opposing surface (UP1). the electron gun (EG) includes a cathode having an electron emitting portion, an extraction electrode configured to extract the electrons emitted from the electron emitting portion, and a focusing electrode configured to focus the electrons extracted by the extraction electrode , wherein the focusing electrode includes a first portion of a tubular shape having an inside surface (IS1), and a second portion arranged inside a space defined by the inside surface (IS1) of the first portion , the first portion includes a distal end (E2) facing the anode , the second portion includes an opposing surface (UP1) facing the anode , and the second portion includes an electron passage hole configured such that the electrons from the electron emitting portion pass therethrough, and a distance between the distal end (E2) and the anode is shorter than a distance between the opposing surface (UP1) and the anode , and wherein the second portion is arranged inside the space to define, inside the space, at least a first space (SP1) and a second space (SP2), the first space (SP1) at a side of a surface (LW1) of the second portion opposite to the opposing surface (UP1) of the second portion ; the first portion is substantially made of stainless steel; and the second portion is substantially made of one of molybdenum, tungsten, copper, tantalum, niobium, and silicon carbide, characterised in that
Supply device for sanitary facilities in vehicles, comprising: - a foundation well extending in the installed state from a top well end disposed above the terrain surface to a bottom well end disposed below the terrain surface , - a freshwater line running in the foundation well and comprising a freshwater connection for a freshwater ground line in the region of the bottom well end, and - a wastewater line, the freshwater connection being provided by means of a valve device disposed at the bottom end of the foundation well and connected to the freshwater ground line by means of a first valve connection, to the freshwater connection by means of a second valve connection, and to a freshwater drain connection by means of a third valve connection, and - connecting the first and second valve connection to each other and blocking the third valve connection in an inflow valve setting, - connecting the second and third valve connection to each other and blocking the first valve connection in a dewatering valve setting; characterized in that the wastewater line comprises a wastewater pipeline extending from the bottom end to a top end and a connection is disposed between the top end and the bottom end, said connection being implemented for receiving an end opening of a wastewater hose connected to the top end of the wastewater pipeline and being connected to the wastewater line by means of a connection shutoff valve for selectively blocking or opening a connection between the connection and the wastewater pipeline . - a foundation well extending in the installed state from a top well end disposed above the terrain surface to a bottom well end disposed below the terrain surface , - a freshwater line running in the foundation well and comprising a freshwater connection for a freshwater ground line in the region of the bottom well end, and - a wastewater line, - connecting the first and second valve connection to each other and blocking the third valve connection in an inflow valve setting, - connecting the second and third valve connection to each other and blocking the first valve connection in a dewatering valve setting;
An apparatus for applying a therapeutic electric field to a target region of a patient, the apparatus comprising: an AC signal generator that generates an electric field having a frequency of between 50 and 500 kHz and a field strength of at least 1 V/cm; and a control signal generator that cyclically changes the direction of the electric field between a first direction for a first period of time (t1) of between 20 and 500 ms and a second direction for a second period of time (t2) of between 20 and 500 ms. an AC signal generator that generates an electric field having a frequency of between 50 and 500 kHz and a field strength of at least 1 V/cm; and a control signal generator that cyclically changes the direction of the electric field between a first direction for a first period of time (t1) of between 20 and 500 ms and a second direction for a second period of time (t2) of between 20 and 500 ms.
A device for forming a microstructured identification structure in a defined surface region in a surface of a component or product, said device comprising: a) a laser device for generating at least one laser beam ; b) a control device for the variable control and setting of the laser beam or beams ; c) hardware and software for generating control commands for the control device from at least pattern data of a certain pattern (M) and coding data for controlling the laser beams to produce a depth coding (K) of multiple different coding depths in the pattern (M), characterized in that a specific coated depth profile is obtained, in that the surface region is decomposed into a plurality of segments in a grid along an x axis and a y axis and a coding depth T is assigned to each segment according to a previously defined coding algorithm, in such a way that a microstructured identification structure can accordingly be formed in the defined surface region , which represents a superposition of the pattern (M) with the coding data. a) a laser device for generating at least one laser beam ; b) a control device for the variable control and setting of the laser beam or beams ; c) hardware and software for generating control commands for the control device from at least pattern data of a certain pattern (M) and coding data for controlling the laser beams to produce a depth coding (K) of multiple different coding depths in the pattern (M), characterized in that a specific coated depth profile is obtained, in that the surface region is decomposed into a plurality of segments in a grid along an x axis and a y axis and a coding depth T is assigned to each segment according to a previously defined coding algorithm, in such a way that a microstructured identification structure can accordingly be formed in the defined surface region , which represents a superposition of the pattern (M) with the coding data.