mhurhangee/patent-ind-claim-en huggingface dataset:
An ink jet recording method, comprising: forming an ink image by ejecting an ink onto a transfer body with an ink jet head in which a recording element substrate provided with an energy generating element generating energy to be used for ejecting the ink, a pressure chamber including the energy generating element inside, and an ejection orifice ejecting the ink are provided, wherein a circulation pump is disposed on an upstream side of the pressure chamber , and a negative pressure control unit for stabilizing pressure variation is disposed on a downstream side of the pressure chamber to generate an ink flow in the recording element substrate , wherein in the recording element substrate ink supplied from a supply port of the recording element substrate passes through the pressure chamber as the ink flow , and reaches the downstream side of the pressure chamber through a collection port , so that the ink in the pressure chamber is circulated between the pressure chamber and the outside of the pressure chamber ; and transferring the ink image onto a recording medium by bringing the recording medium into contact with the transfer body on which the ink image is formed, wherein a viscosity of the ink is 2 mPa·s or more to 20 mPa·s or less as measured at 25°C. forming an ink image by ejecting an ink onto a transfer body with an ink jet head in which a recording element substrate provided with an energy generating element generating energy to be used for ejecting the ink, a pressure chamber including the energy generating element inside, and an ejection orifice ejecting the ink are provided, wherein a circulation pump is disposed on an upstream side of the pressure chamber , and a negative pressure control unit for stabilizing pressure variation is disposed on a downstream side of the pressure chamber to generate an ink flow in the recording element substrate , wherein in the recording element substrate ink supplied from a supply port of the recording element substrate passes through the pressure chamber as the ink flow , and reaches the downstream side of the pressure chamber through a collection port , so that the ink in the pressure chamber is circulated between the pressure chamber and the outside of the pressure chamber ; and transferring the ink image onto a recording medium by bringing the recording medium into contact with the transfer body on which the ink image is formed, wherein a viscosity of the ink is 2 mPa·s or more to 20 mPa·s or less as measured at 25°C.
A particle removal device for a filling machine configured to form, fill, and seal individual packages , wherein the particle removal device comprises an air supply pipe , characterized by a controller being programmed to control the particle removal device such that a jet of air is directed into a ready-to-fill package passing the particle removal device , wherein the controller is programmed to control activation of the particle removal device based on the motion of ready-to-fill packages passing in indexing pairs the particle removal device, wherein activation of the particle removal device is started when a leading package edge of a ready-to-fill package in an indexing pair is positioned in the same vertical plane as an orifice of the air supply pipe and ended once the second consecutive ready-to fill package of the indexing pair has passed the air supply pipe .
A method of wireless communication at a user equipment, UE, the method comprising: receiving a configuration for a first set of multiple configurable bandwidth sizes for receiving unicast services, wherein the configuration includes a master information block, MIB, that indicates one bandwidth size of the first set of multiple configurable bandwidth sizes for receiving unicast services and that indicates a system information block, SIB; receiving the SIB; determining a multicast broadcast, MB, bandwidth size for receiving an MB service, the MB bandwidth size being different than each bandwidth size in the set of multiple configurable bandwidth sizes for receiving unicast services, wherein determining the MB bandwidth size is further based on one or more information elements in the SIB that indicate the MB bandwidth size as being different than the one bandwidth size, wherein the SIB configures a multicast-broadcast single-frequency network, MBSFN, area, of a number of different MBSFN areas, for the MB service, wherein the number of different MBSFN areas have different bandwidth sizes; and receiving the MB service over an MB bandwidth of the MB bandwidth size. receiving a configuration for a first set of multiple configurable bandwidth sizes for receiving unicast services, wherein the configuration includes a master information block, MIB, that indicates one bandwidth size of the first set of multiple configurable bandwidth sizes for receiving unicast services and that indicates a system information block, SIB; receiving the SIB; determining a multicast broadcast, MB, bandwidth size for receiving an MB service, the MB bandwidth size being different than each bandwidth size in the set of multiple configurable bandwidth sizes for receiving unicast services, wherein determining the MB bandwidth size is further based on one or more information elements in the SIB that indicate the MB bandwidth size as being different than the one bandwidth size, wherein the SIB configures a multicast-broadcast single-frequency network, MBSFN, area, of a number of different MBSFN areas, for the MB service, wherein the number of different MBSFN areas have different bandwidth sizes; and receiving the MB service over an MB bandwidth of the MB bandwidth size.
A computer implemented method of determining whether a live human face is present, comprising generating a moving stimulus ; predicting, using a model , human face movement in response to said generated stimulus, wherein the model provides a predicted correspondence distance on a screen of a user device between a location of a gaze and a location of the stimulus at a particular time; presenting on the screen the stimulus to a face of a person tracking a movement of the face in response to the stimulus using a camera, wherein tracking a movement of the face comprises determining a location of the gaze on the screen ; and tracking a movement of the location of the gaze; and determining whether a live human face is present by comparing the movement of the face against said predicted correspondence distance. generating a moving stimulus ; predicting, using a model , human face movement in response to said generated stimulus, wherein the model provides a predicted correspondence distance on a screen of a user device between a location of a gaze and a location of the stimulus at a particular time; presenting on the screen the stimulus to a face of a person tracking a movement of the face in response to the stimulus using a camera, wherein tracking a movement of the face comprises determining a location of the gaze on the screen ; and tracking a movement of the location of the gaze; and determining whether a live human face is present by comparing the movement of the face against said predicted correspondence distance.
An RFID transponder web having a longitudinal direction, comprising a support substrate , and a series of the RFID transponders extending in the longitudinal direction and attached to said support substrate such that there is a gap forming a distance (D) between two successive RFID transponders , the RFID transponder web is characterized by further comprising spacers arranged on the support substrate in the gaps between two RFID transponders in such a manner that there is only one spacer between two RFID transponders in the longitudinal direction and the RFID transponders and the spacers are arranged to alternate in the longitudinal direction, a through cut is arranged between the spacer and the next RFID transponder , the through cut allowing the spacer to be bent away from said next RFID transponder . a support substrate , and a series of the RFID transponders extending in the longitudinal direction and attached to said support substrate such that there is a gap forming a distance (D) between two successive RFID transponders , the RFID transponder web is characterized by further comprising spacers arranged on the support substrate in the gaps between two RFID transponders in such a manner that there is only one spacer between two RFID transponders in the longitudinal direction and the RFID transponders and the spacers are arranged to alternate in the longitudinal direction, a through cut is arranged between the spacer and the next RFID transponder , the through cut allowing the spacer to be bent away from said next RFID transponder .
A thermostatic valve comprising an end cover , a valve body , and a valve core located in a valve cavity of the valve body , wherein the thermostatic valve has a first outlet , a second outlet , and a first inlet which is in communication with the valve cavity , the valve body is further provided with a first valve port (B) configured to communicate the valve cavity with the second outlet , and during a movement of the valve core , the valve core is configured to open or close the first valve port (B); wherein a return spring and a memory spring are further provided in the valve cavity , the memory spring is made of a memory alloy; the return spring is configured to provide a return force to allow the valve core to open the first valve port (B); the memory spring has one end in contact with one end of the valve core , and another end in contact with the end cover , and when a temperature rises to a specified value, the memory spring is configured to generate an elastic force to drive the valve core to move against the return force to close the first valve port (B); and the first inlet is provided in a side wall of the valve body , the thermostatic valve being characterized in that it is further provided with a second valve port (A), the second valve port (A) is provided in a side cavity wall of the valve cavity , and when the temperature is less than the specified value, the memory spring is in a compressed and tight state and in correspondence to the position of the second valve port (A), to block the second valve port (A), wherein the second valve port (A) is for communicating the valve cavity with the first outlet . a return spring and a memory spring are further provided in the valve cavity , the memory spring is made of a memory alloy; the return spring is configured to provide a return force to allow the valve core to open the first valve port (B); the memory spring has one end in contact with one end of the valve core , and another end in contact with the end cover , and when a temperature rises to a specified value, the memory spring is configured to generate an elastic force to drive the valve core to move against the return force to close the first valve port (B); and the first inlet is provided in a side wall of the valve body , the thermostatic valve being characterized in that it is further provided with a second valve port (A), the second valve port (A) is provided in a side cavity wall of the valve cavity , and when the temperature is less than the specified value, the memory spring is in a compressed and tight state and in correspondence to the position of the second valve port (A), to block the second valve port (A), wherein the second valve port (A) is for communicating the valve cavity with the first outlet .
A biogas plant for the production of biogas from straw, comprising: a means for the mechanical decomposition of straw comprising a device for mechanically disintegrating of straw by grinding, preferably grinding with a hammer mill, at least one fermenter for the anaerobic bacterial fermentation of the straw that had been disintegrated by grinding according to the wet fermentation method. a means for the mechanical decomposition of straw comprising a device for mechanically disintegrating of straw by grinding, preferably grinding with a hammer mill, at least one fermenter for the anaerobic bacterial fermentation of the straw that had been disintegrated by grinding according to the wet fermentation method.
A computer-implemented method of rendering a triangular mesh modeling electrophysiologic values into an image for display, comprising the steps of: generating a 3-dimensional model having a surface comprising a triangular mesh , , wherein the 3-dimensional model is generated from an intracardiac probe receiving electrophysiologic attribute values at known locations in the heart; defining voxels in a volume enclosing the triangular mesh , ; assigning attribute values of the known locations to a portion of the voxels to establish a set of known voxels, wherein the other voxels are referred to as unknown voxels, ; using Laplacian interpolation based on the known voxels, iteratively calculating interpolated attribute values of the unknown voxels, ; and then rendering the voxels as a colored image on a display, or rendering a 3-dimensional image of the voxels. generating a 3-dimensional model having a surface comprising a triangular mesh , , wherein the 3-dimensional model is generated from an intracardiac probe receiving electrophysiologic attribute values at known locations in the heart; defining voxels in a volume enclosing the triangular mesh , ; assigning attribute values of the known locations to a portion of the voxels to establish a set of known voxels, wherein the other voxels are referred to as unknown voxels, ; using Laplacian interpolation based on the known voxels, iteratively calculating interpolated attribute values of the unknown voxels, ; and then rendering the voxels as a colored image on a display, or rendering a 3-dimensional image of the voxels.
A dust removal device that blows air toward a subject (T) and removes dust, the dust removal device comprising: a fan that blows air; a blow-out location changing part that changes a blow-out location of air that is blown by the fan and moves toward the subject (T),wherein the blow-out location changing part is configured to change the blow-out location in accordance with a height of the subject (T) such that the air is blown toward the subject (T) from a neck down characterised in that the blow-out location changing part is configured to blow air toward the subject (T) in a direction from an indoor space (S1) to an outdoor space (S2), and blow-out ports provided such that air is blown in a lateral direction that crosses an entrance direction in which the subject (T) moves from the outdoor space (S2) toward the indoor space (S1), wherein the blow-out port that opens at a near side in the entrance direction is positioned higher than the blow-out port that opens at a far side in the entrance direction. a fan that blows air; a blow-out location changing part that changes a blow-out location of air that is blown by the fan and moves toward the subject (T),wherein the blow-out location changing part is configured to change the blow-out location in accordance with a height of the subject (T) such that the air is blown toward the subject (T) from a neck down characterised in that the blow-out location changing part is configured to blow air toward the subject (T) in a direction from an indoor space (S1) to an outdoor space (S2), and blow-out ports provided such that air is blown in a lateral direction that crosses an entrance direction in which the subject (T) moves from the outdoor space (S2) toward the indoor space (S1), wherein the blow-out port that opens at a near side in the entrance direction is positioned higher than the blow-out port that opens at a far side in the entrance direction.
Biodegradable container or plate material comprising a layer of cellulose-based material provided with a composite surface layer comprising cellulose-based material and a polyester derived from an aliphatic polyalcohol with 2-15 carbon atoms, the aliphatic polyalcohol containing at least 50 mole% of glycerol and an aliphatic polycarboxylic acid with 3 to 15 carbon atoms, wherein the polycarboxylic acid comprises at least 50 wt.% of citric acid, the cellulose-based material containing at least 70 wt.% of cellulose material.
A transparency providing electromagnetic interference shielding comprising: a transparent substrate; and a plurality of electrically conductive lines on the transparent substrate, at least one of the electrically conductive lines intersecting at least one other electrically conductive line, and at least one of the electrically conductive lines having a width of no more than 50 wherein the transparency further comprises a transparent conductive oxide on the substrate. a transparent substrate; and a plurality of electrically conductive lines on the transparent substrate, at least one of the electrically conductive lines intersecting at least one other electrically conductive line, and at least one of the electrically conductive lines having a width of no more than 50 wherein the transparency further comprises a transparent conductive oxide on the substrate.
A fusion protein comprising i) a biologically active polypeptide; and ii) a biological half-life extending polypeptide moiety comprising 2-80 units, each unit being independently selected from the group consisting of all amino acid sequences according to SEQ ID NO: 1, which represents a sequence derived from repeating units of the C-terminal domain of human bile-salt stimulated lipase: X1-X2-X3-X4-X5-X6-D-X8-X9-X10-X11 (SEQ ID NO: 1) in which, independently, X1 is P or absent; X2 is V or absent; X3 is P or T; X4 is P or T; X5 is T or V; X6 is D, G or T; X8 is A, Q or S; X9 is E, G or K; X10 is A, E P or T; X11 is A, P or T; wherein the fusion protein as a whole is not bile-salt stimulated lipase; and wherein said biological half-life is biological half-life in serum, plasma or whole blood. i) a biologically active polypeptide; and ii) a biological half-life extending polypeptide moiety comprising 2-80 units, each unit being independently selected from the group consisting of all amino acid sequences according to SEQ ID NO: 1, which represents a sequence derived from repeating units of the C-terminal domain of human bile-salt stimulated lipase: X1-X2-X3-X4-X5-X6-D-X8-X9-X10-X11 (SEQ ID NO: 1) in which, independently, X1 is P or absent; X2 is V or absent; X3 is P or T; X4 is P or T; X5 is T or V; X6 is D, G or T; X8 is A, Q or S; X9 is E, G or K; X10 is A, E P or T; X11 is A, P or T; X1 is P or absent; X2 is V or absent; X3 is P or T; X4 is P or T; X5 is T or V; X6 is D, G or T; X8 is A, Q or S; X9 is E, G or K; X10 is A, E P or T; X11 is A, P or T;
An aircraft lavatory unit comprising a lavatory area and an ascending/descending area which are formed integrally, wherein the unit comprises a staircase on an inclined surface, the staircase connecting to an upper floor or a ceiling space of the aircraft lavatory unit inside the ascending/descending area , wherein a wall surface divides the lavatory area and the ascending/descending area and overhangs the lavatory area towards a ceiling, and wherein a part of the inclined surface has a shape matching the overhanging shape of the wall surface , characterised in that a storage space is provided between a rear side of the inclined surface on which the staircase is provided and the wall surface .
An anti-PD-1 antibody or an antigen-binding fragment thereof comprising a variable heavy chain region consisting of SEQ ID NO: 33 and a variable light chain region consisting of SEQ ID NO: 34.
A system, comprising: two or more sensors (104, 304a-e, 504a-e, 404b-c, 404e, 710, 810, 906, 1102, 1106, 1110, 1114, 1118) each configured to detect the proximity of an object to the sensor (104, 304a-e, 504a-e, 404b-c, 404e, 710, 810, 906, 1102, 1106, 1110, 1114, 1118) within an area of coverage ; a computing module configured to control a sensor module and analyzing the data received from the sensor module ; and a user feedback module for providing information to a user of a mobility device regarding the proximity of the mobility device to an object based on the sensor module data analyzed by the computing module, and characterised by the two or more sensors (104, 304a-e, 504a-e, 404b-c, 404e, 710, 810, 906, 1102, 1106, 1110, 1114, 1118) being comprised by the sensor module , wherein the sensor module retains the two or more sensors such that the face of each of the two or more sensors is at a different angle to the face(s) of the other sensor(s), wherein two sensors of the two or more sensors are each positioned at an inward-facing angle relative to a back plane of the sensor module to provide redundancy in the sensor readings, wherein the two sensors are positioned to each generate an area of coverage, and wherein the computing module is configured to aggregate the sensor readings from a group of the sensors having overlapping areas of coverage collectively defining a detection zone, the computing module configured to aggregate by selecting the reading with the smallest distance. two or more sensors (104, 304a-e, 504a-e, 404b-c, 404e, 710, 810, 906, 1102, 1106, 1110, 1114, 1118) each configured to detect the proximity of an object to the sensor (104, 304a-e, 504a-e, 404b-c, 404e, 710, 810, 906, 1102, 1106, 1110, 1114, 1118) within an area of coverage ; a computing module configured to control a sensor module and analyzing the data received from the sensor module ; and a user feedback module for providing information to a user of a mobility device regarding the proximity of the mobility device to an object based on the sensor module data analyzed by the computing module, and characterised by the two or more sensors (104, 304a-e, 504a-e, 404b-c, 404e, 710, 810, 906, 1102, 1106, 1110, 1114, 1118) being comprised by the sensor module , wherein the sensor module retains the two or more sensors such that the face of each of the two or more sensors is at a different angle to the face(s) of the other sensor(s), wherein two sensors of the two or more sensors are each positioned at an inward-facing angle relative to a back plane of the sensor module to provide redundancy in the sensor readings, wherein the two sensors are positioned to each generate an area of coverage, and wherein the computing module is configured to aggregate the sensor readings from a group of the sensors having overlapping areas of coverage collectively defining a detection zone, the computing module configured to aggregate by selecting the reading with the smallest distance.
Chain link having a first recess and a second recess for accommodating one chain pin in each case, wherein a first stop which is directed axially outwards is provided in the region of the first recess and a second stop which is likewise directed axially outwards but in the opposite direction to the first stop is provided in the region of the second recess in such a manner that during operation traction forces are transmitted via the stops (9 and 10), characterized in that support edges extending obliquely to the longitudinal center line are provided for support on a chain wheel .