mhurhangee/patent-ind-claim-en huggingface dataset:
A cyclone module for a vacuum cleaner comprising: a module housing defining a longitudinal axis (X) of the module; a primary separator comprising a cyclone chamber ; a bulk collection chamber having a bottom end defining a first debris outlet; at least one secondary separator fluidly downstream from the primary separator; a fines collection chamber having a bottom end defining a second debris outlet; and a first door coupled with the module housing and closing the first debris outlet; characterized by : a second door having a lower surface positioned above the first door along the longitudinal axis (X) to define a space, which is a portion of the bulk collection chamber, the second door closing the second debris outlet; wherein the bottom end of the fines collection chamber is above the bottom end of the bulk collection chamber , with the second debris outlet spaced above the first door along the longitudinal axis of the module. a second door having a lower surface positioned above the first door along the longitudinal axis (X) to define a space, which is a portion of the bulk collection chamber, the second door closing the second debris outlet; wherein the bottom end of the fines collection chamber is above the bottom end of the bulk collection chamber , with the second debris outlet spaced above the first door along the longitudinal axis of the module.
Thermally conductive polymer (TCP) resin composition (i) or (ii) comprising components (I) and (II): (i) 40 to 72% by volume of at least one matrix polymer (I) as component (I); 28 to 60% by volume of a thermally conductive filler material (II) as component (II) having a weight median particle diameter (D 50 ) of from 0.1 to 200 μm, which consists of at least one aluminosilicate as component (II-1) in combination with at least one further component (II-2) selected from the group consisting of: multi wall carbon nanotubes, graphite and boron nitride, wherein the volume ratio between components (II-1) and (II-2) is from 30:1 to 0.1:1; or (ii) 40 to 65% by volume of at least one matrix polymer (I) as component (I); 35 to 60% by volume of a thermally conductive filler material (II) as component (II) having a weight median particle diameter (D 50 ) of from 0.1 to 200 μm which consists of at least one aluminosilicate; wherein the matrix polymer (I) comprises styrenic polymers (I') selected from the group consisting of: ABS (acrylonitrile-butadiene-styrene) resins, ASA (acrylonitrile-styrene-acrylate) resins, and elastomeric block copolymers of the structure S − B / S n − S , where S is a vinylaromatic block forming a hard phase, (B/S) is a random copolymer block of vinylaromatic monomer and of a conjugated diene forming a soft phase, and n are natural numbers from 1 to 10, wherein the elastomeric block copolymer has a monomer composition comprising 25 to 60% by weight (based on the elastomeric block copolymer) of diene and 75 to 40% by weight (based on the elastomeric block copolymer) of vinylaromatic compound, the glass transition temperature Tg of block S is above 25°C and that of block (B/S) is below 25°C, and the proportion of the hard phase in the elastomeric block copolymer is from 5 to 40% by weight and the relative amount of 1,2 linkages of the polydiene, based on the sum of 1,2- and 1,4-cis/trans-linkages, is less than 15%; and wherein the sum of components (I) and (II) totals 100% by volume, and wherein the surface of the aluminosilicate is treated with a coupling agent. (i) 40 to 72% by volume of at least one matrix polymer (I) as component (I); 28 to 60% by volume of a thermally conductive filler material (II) as component (II) having a weight median particle diameter (D 50 ) of from 0.1 to 200 μm, which consists of at least one aluminosilicate as component (II-1) in combination with at least one further component (II-2) selected from the group consisting of: multi wall carbon nanotubes, graphite and boron nitride, wherein the volume ratio between components (II-1) and (II-2) is from 30:1 to 0.1:1; or (ii) 40 to 65% by volume of at least one matrix polymer (I) as component (I); 35 to 60% by volume of a thermally conductive filler material (II) as component (II) having a weight median particle diameter (D 50 ) of from 0.1 to 200 μm which consists of at least one aluminosilicate;
A cleaning device , in particular a floor-cleaning device, comprising a cleaning roller that can be rotated around a rotational axis (x) for processing a surface to be cleaned, wherein the cleaning roller is designed at least partly as a hollow body having an internal liquid space , wherein the hollow body has at least one hollow body opening for liquid to exit the liquid space , characterized in that the hollow body opening has allocated to it a force-actuated automatic valve element which, depending on the amount of centrifugal force made to act on the valve element by a rotation of the cleaning roller , can be moved into a closing position that closes the hollow body opening and/or into an open position that exposes the hollow body opening , wherein the valve element is designed to allow liquid to exit the liquid space at a first speed (n 1 ) of the cleaning roller , and to block liquid from exiting as the rotational speed increases once a second speed (n 2 ) higher than the first speed (n 1 ) has been reached.
A method of measuring a concentration of a gaseous substance in an environment using a gas sensor comprising a luminescent compound having a luminescence lifetime that is quenched by the gaseous substance and a temperature sensor configured to measure a temperature of the luminescent compound, the method comprising: measuring a value of the luminescence lifetime of the luminescent compound while the gas sensor is exposed to the environment ; and deriving a concentration of the gaseous substance from the measured luminescence lifetime taking account of the temperature of the luminescent compound measured by the temperature sensor , the derivation using a model of the relationship between the luminescence lifetime and the concentration of the gaseous substance that is in accordance with a Stern-Volmer equation and that is modified by a calibration factor representing a proportion of the luminescent compound not being exposed to the gaseous substance, the Stern-Volmer equation including either a Stern-Volmer constant that is linearly dependent on temperature, or a value of the luminescence lifetime in the absence of quenching by the gaseous substance that is linearly dependent on temperature, or both. measuring a value of the luminescence lifetime of the luminescent compound while the gas sensor is exposed to the environment ; and deriving a concentration of the gaseous substance from the measured luminescence lifetime taking account of the temperature of the luminescent compound measured by the temperature sensor , the derivation using a model of the relationship between the luminescence lifetime and the concentration of the gaseous substance that is in accordance with a Stern-Volmer equation and that is modified by a calibration factor representing a proportion of the luminescent compound not being exposed to the gaseous substance, the Stern-Volmer equation including either a Stern-Volmer constant that is linearly dependent on temperature, or a value of the luminescence lifetime in the absence of quenching by the gaseous substance that is linearly dependent on temperature, or both.
Arrangement comprising an inductive component and a busbar , wherein the busbar is led through the inductive component , wherein the busbar has two opposite longitudinal sides and two opposite face sides , wherein the longitudinal sides extend in a height direction and the face sides extend in a width direction , wherein the width direction runs perpendicular to the height direction , wherein the extent of the longitudinal sides is greater than the extent of the face sides , wherein the inductive component has two air gaps which are arranged on the opposite longitudinal sides of the busbar , wherein the air gaps are at a distance (d) from one another in the height direction , wherein the inductive component comprises a first core and a second core , wherein each core has a first limb and a second limb , wherein the first limb has a different length than the second limb , in which the air gaps are located between the cores , in which a first air gap of the mentioned air gaps is arranged between the first limb of the first core and the second limb of the second core , and a second air gap of the mentioned air gaps is arranged between the second limb of the first core and the first limb of the second core . wherein the busbar is led through the inductive component , wherein the busbar has two opposite longitudinal sides and two opposite face sides , wherein the longitudinal sides extend in a height direction and the face sides extend in a width direction , wherein the width direction runs perpendicular to the height direction , wherein the extent of the longitudinal sides is greater than the extent of the face sides , wherein the inductive component has two air gaps which are arranged on the opposite longitudinal sides of the busbar , wherein the air gaps are at a distance (d) from one another in the height direction , wherein the inductive component comprises a first core and a second core , wherein each core has a first limb and a second limb , wherein the first limb has a different length than the second limb , in which the air gaps are located between the cores , in which a first air gap of the mentioned air gaps is arranged between the first limb of the first core and the second limb of the second core , and a second air gap of the mentioned air gaps is arranged between the second limb of the first core and the first limb of the second core .
Torque limiter for use in motor vehicles which includes two covers which are connected to one another , an interspace formed between the covers , at least one friction plate within the aforementioned interspace , a drive plate which is in contact with the aforementioned friction plate , and a load element which, by pre-tensioning, applies a force to the friction plate , the torque limiter including an adjustment mechanism to adjust the force applied upon the aforementioned friction plates by varying the pre-tensioning of the load element , wherein the torque limiter includes an intermediary plate positioned within the aforementioned interspace , at least one of the aforementioned cover and the intermediary plate comprising at least one adjustment element, characterized in that the torque limit adjustment is provided by rotating the intermediary plate.
A data streaming device , comprising: a port to be operatively coupled to a content display device and configured to receive power from the content display device; a first component configured to provide a first functionality to the data streaming device, wherein the first component is configured to consume a first amount of power from the content display device; a second component configured to provide a second functionality to the data streaming device, wherein the second component is configured to consume a second amount of power from the content display device; and a controller operatively coupled to the first component and the second component, wherein the controller is configured to: determine the first amount of power and the second amount of power consumed by the first component and the second component, respectively, based on a boot test using the first component and the second component, store the first amount of power and the second amount of power consumed by the first component and the second component, respectively, in a memory , and determine an amount of power received from the content display device is not sufficient to operate the data streaming device based on the first amount of power and the second amount of power. a port to be operatively coupled to a content display device and configured to receive power from the content display device; a first component configured to provide a first functionality to the data streaming device, wherein the first component is configured to consume a first amount of power from the content display device; a second component configured to provide a second functionality to the data streaming device, wherein the second component is configured to consume a second amount of power from the content display device; and a controller operatively coupled to the first component and the second component, wherein the controller is configured to: determine the first amount of power and the second amount of power consumed by the first component and the second component, respectively, based on a boot test using the first component and the second component, store the first amount of power and the second amount of power consumed by the first component and the second component, respectively, in a memory , and determine an amount of power received from the content display device is not sufficient to operate the data streaming device based on the first amount of power and the second amount of power. determine the first amount of power and the second amount of power consumed by the first component and the second component, respectively, based on a boot test using the first component and the second component, store the first amount of power and the second amount of power consumed by the first component and the second component, respectively, in a memory , and determine an amount of power received from the content display device is not sufficient to operate the data streaming device based on the first amount of power and the second amount of power.
A method of detecting a weft yarn in an air jet loom, the air jet loom comprising an optical type weft yarn detection device that is disposed adjacent to an end of a woven fabric that is opposite to a weft insertion side of the air jet loom from which a weft yarn (Y) is inserted, the optical type weft yarn detection device being configured to detect the inserted weft yarn (Y) and output a detection signal, characterized in that the method includes: setting a first weft yarn detection period (P1) between a point in time (T1) after a start of a weft insertion at which a weft yarn (Y) is inserted and a point in time (T3) before the weft insertion is completed; setting a second weft yarn detection period (P2) within the first weft yarn detection period (P1) so that the second weft yarn detection period (P2) starts after the inserted weft yarn (Y) is held by warp yarns; setting a first threshold (S1, S3) for the detection signal detected during the first weft yarn detection period (P1); setting a second threshold (S2, S4) for the detection signal detected during the second weft yarn detection period (P2); and determining that a turning back of the inserted weft yarn (Y) has occurred when the detection signal detected during the first weft yarn detection period (P1) is equal to or greater than the first threshold (S1, S3) and the detection signal detected during the second weft yarn detection period (P2) is smaller than the second threshold (S2, S4), wherein the inserted weft yarn (Y) once reached the end of the woven fabric but turned back toward the woven fabric . setting a first weft yarn detection period (P1) between a point in time (T1) after a start of a weft insertion at which a weft yarn (Y) is inserted and a point in time (T3) before the weft insertion is completed; setting a second weft yarn detection period (P2) within the first weft yarn detection period (P1) so that the second weft yarn detection period (P2) starts after the inserted weft yarn (Y) is held by warp yarns; setting a first threshold (S1, S3) for the detection signal detected during the first weft yarn detection period (P1); setting a second threshold (S2, S4) for the detection signal detected during the second weft yarn detection period (P2); and determining that a turning back of the inserted weft yarn (Y) has occurred when the detection signal detected during the first weft yarn detection period (P1) is equal to or greater than the first threshold (S1, S3) and the detection signal detected during the second weft yarn detection period (P2) is smaller than the second threshold (S2, S4), wherein the inserted weft yarn (Y) once reached the end of the woven fabric but turned back toward the woven fabric .
A method of purifying a target protein from a source solution, the method comprising: contacting a solid support linked to a ligand with the source solution, wherein the ligand is: wherein n is 0, 1, or 2; m is 1, 2, 3, or 4; X is selected from S, C(O)-NH, NH-C(O), C(O)-NH-CH 2 -C(O)-NH, or SO 2 ; or wherein y is 1, 2, 3, 4, or 5, and wherein, in Formulas I and II, the curving line indicates where the ligand is attached to the solid support, and the amine on the phenyl or benzyl ring is attached at the ortho position, thereby binding the target protein to the ligand; and eluting the target protein, thereby purifying the target protein.
Architecture for a data transmission between a plurality of electric traction vehicles moving in a transport network and a backbone ethernet network , said transport network comprising a plurality of substations connecting with a low/medium voltage power supply network for said vehicles , characterized in that said power supply network is used for a continuous data transmission according to the BPLC communication mode on said vehicles and said backbone ethernet network by a transmission and decoupling system inserted between said vehicles and substations connecting with said power supply network , said transmission and decoupling system comprising: - an onboard device , adapted to be placed onboard each vehicle ; and - a plurality of grounded devices , each grounded device being adapted to be coupled to at least one of said substations , said onboard device being able to connect to one of said grounded devices when said vehicles transit in correspondence of said grounded device wherein each of said grounded devices comprises at least an adapter , which is directly connected to said ethernet backbone network and is a PLC master device; and said onboard device of each vehicle comprises an adapter being a PLC slave device. - an onboard device , adapted to be placed onboard each vehicle ; and - a plurality of grounded devices , each grounded device being adapted to be coupled to at least one of said substations , said onboard device being able to connect to one of said grounded devices when said vehicles transit in correspondence of said grounded device wherein each of said grounded devices comprises at least an adapter , which is directly connected to said ethernet backbone network and is a PLC master device; and said onboard device of each vehicle comprises an adapter being a PLC slave device.
Fetuin A (AHSG) for use in a method for treating a renal disorder, wherein an amount of Fetuin A effective for treating the renal disorder is administered to a subject in need thereof, wherein the renal disorder is an ischemic renal disorder.
A sensor system for sensing contaminants within a fluid stream, the sensor system comprising: a sensor body ; a light source disposed in the sensor body and configured to direct a light beam outwardly from an outlet of the sensor body; and a light sensor disposed in the sensor body and the sensor body having an inlet disposed opposite the light sensor, the inlet being positioned to receive and direct light towards the light sensor; wherein the sensor system further comprises an arm extending from the sensor body to a distal end of the arm, wherein the arm is insertable into the fluid stream; the light source is configured to direct the light beam outwardly from the outlet of the sensor body towards the distal end of the arm; wherein the sensor system further comprises a beam dump positioned at the distal end of the arm opposite the light source to absorb at least a portion of the light beam directed towards the distal end of the arm, thereby preventing the absorbed portion of the light beam from being reflected back towards the inlet; characterised in that the arm includes a shelf that is disposed intermediate between the sensor body and the distal end of the arm, the shelf being configured to partially restrict a field of intake of light at the inlet. a sensor body ; a light source disposed in the sensor body and configured to direct a light beam outwardly from an outlet of the sensor body; and a light sensor disposed in the sensor body and the sensor body having an inlet disposed opposite the light sensor, the inlet being positioned to receive and direct light towards the light sensor; wherein the sensor system further comprises an arm extending from the sensor body to a distal end of the arm, wherein the arm is insertable into the fluid stream; the light source is configured to direct the light beam outwardly from the outlet of the sensor body towards the distal end of the arm; wherein the sensor system further comprises a beam dump positioned at the distal end of the arm opposite the light source to absorb at least a portion of the light beam directed towards the distal end of the arm, thereby preventing the absorbed portion of the light beam from being reflected back towards the inlet; characterised in that the arm includes a shelf that is disposed intermediate between the sensor body and the distal end of the arm, the shelf being configured to partially restrict a field of intake of light at the inlet.
A decoder apparatus, including a processor, which implements a method for decoding a high dynamic range - HDR - image, the method comprising: receiving base layer data, wherein the base layer data includes a tone-mapped low dynamic range version of the HDR image; receiving an encoder alteration parameter indicative of an alteration of the base layer data after encoding, wherein the encoding alteration parameter is a checksum of the encoded base layer data; receiving residual ratio data in one or more APP11 marker segments of the HDR image, wherein the residual ratio data includes information describing ratios of luminance values of the HDR image and corresponding luminance values of the base layer data; computing a decoder alteration parameter for the base layer data, wherein the decoder alteration parameter is a checksum of the received base layer data; and comparing the encoder alteration parameter to the decoder alteration parameter to determine whether the received base layer data has been altered after encoding. receiving base layer data, wherein the base layer data includes a tone-mapped low dynamic range version of the HDR image; receiving an encoder alteration parameter indicative of an alteration of the base layer data after encoding, wherein the encoding alteration parameter is a checksum of the encoded base layer data; receiving residual ratio data in one or more APP11 marker segments of the HDR image, wherein the residual ratio data includes information describing ratios of luminance values of the HDR image and corresponding luminance values of the base layer data; computing a decoder alteration parameter for the base layer data, wherein the decoder alteration parameter is a checksum of the received base layer data; and comparing the encoder alteration parameter to the decoder alteration parameter to determine whether the received base layer data has been altered after encoding.