mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic control unit (ECU) assembly structure of a brake system, comprising: a housing having spaces separated by a partition; a first control unit and a second control unit which are independently disposed in the spaces separated by the partition; a first microcontroller unit (MCU) and a second MCU respectively positioned in the first control unit and the second control unit; a motor controlled by the first MCU or the second MCU to generate a driving force in a hydraulic piston; and a motor position sensor (MPS) configured to detect a rotational position of the motor, wherein the second control unit constitutes redundancy of the first control unit to perform the same function. a housing having spaces separated by a partition; a first control unit and a second control unit which are independently disposed in the spaces separated by the partition; a first microcontroller unit (MCU) and a second MCU respectively positioned in the first control unit and the second control unit; a motor controlled by the first MCU or the second MCU to generate a driving force in a hydraulic piston; and a motor position sensor (MPS) configured to detect a rotational position of the motor, wherein the second control unit constitutes redundancy of the first control unit to perform the same function.
A compound of general formula (I) wherein: M is NR 2 ; X is CO; a is 1 or 0; R 1 is H; (CH 2 ) o -E, wherein o is an integer of from 1 to 10 and E is COOH; or (CH 2 -CH 2 -O) m -CH 3 or (CH 2 -CH 2 -O) m -H, wherein m is an integer of from 1 to 500; or wherein p is an integer of from 0 to 7 and q is an integer of from 1 to 500; R 2 is H; or a is 1 and M is NR 2 , R 1 and R 2 form together a bridging -CH 2 CH(G)CH 2 - group, with G = (CH 2 ) o -E, wherein o is an integer of from 0 to 10 and E is: COOH, OH or NH 2 ; or (CH 2 -CH 2 -O) m -CH 3 , wherein m is an integer of from 1 to 500; or a bridging -CH 2 CH 2 -, -CH 2 CH 2 CH 2 - or -CH 2 -CHOH-CH 2 - group; and Q 1 and Q 2 are independently selected from and except the compound 4,4-ureylene-di-(2,2,6,6-tetramethylpiperidinyloxyl M is NR 2 ; X is CO; a is 1 or 0; R 1 is H; (CH 2 ) o -E, wherein o is an integer of from 1 to 10 and E is COOH; or (CH 2 -CH 2 -O) m -CH 3 or (CH 2 -CH 2 -O) m -H, wherein m is an integer of from 1 to 500; or wherein p is an integer of from 0 to 7 and q is an integer of from 1 to 500; R 2 is H; a is 1 and M is NR 2 , R 1 and R 2 form together a bridging -CH 2 CH(G)CH 2 - group, with G = (CH 2 ) o -E, wherein o is an integer of from 0 to 10 and E is: COOH, OH or NH 2 ; or (CH 2 -CH 2 -O) m -CH 3 , wherein m is an integer of from 1 to 500; or a bridging -CH 2 CH 2 -, -CH 2 CH 2 CH 2 - or -CH 2 -CHOH-CH 2 - group; and Q 1 and Q 2 are independently selected from and except the compound 4,4-ureylene-di-(2,2,6,6-tetramethylpiperidinyloxyl
An electrolytic gas generator for electrolyzing a reactant to generate at least a first gas, the electrolytic gas generator comprising: a polymer electrolyte membrane , the polymer electrolyte membrane having opposing first and second faces; a first electrode , the first electrode being electrically coupled to the first face of the polymer electrolyte membrane ; a second electrode , the second electrode being electrically coupled to the second face of the polymer electrolyte membrane ; a first current collector , the first current collector being electrically-conductive; a second current collector , the second current collector being electrically-conductive and being electrically coupled to the second electrode ; and a power source , the power source being electrically coupled to the first current collector and to the second current collector ; characterized in that the first current collector is reversibly deformable between a first state in which the first current collector is electrically coupled to the first electrode and a second state in which the first current collector is at least partially electrically disconnected from the first electrode , whereby, when the first current collector is in the first state and the reactant is supplied to the electrolytic gas generator , a first gas is generated at the interface of the first electrode and the polymer electrolyte membrane . a polymer electrolyte membrane , the polymer electrolyte membrane having opposing first and second faces; a first electrode , the first electrode being electrically coupled to the first face of the polymer electrolyte membrane ; a second electrode , the second electrode being electrically coupled to the second face of the polymer electrolyte membrane ; a first current collector , the first current collector being electrically-conductive; a second current collector , the second current collector being electrically-conductive and being electrically coupled to the second electrode ; and a power source , the power source being electrically coupled to the first current collector and to the second current collector ; characterized in that the first current collector is reversibly deformable between a first state in which the first current collector is electrically coupled to the first electrode and a second state in which the first current collector is at least partially electrically disconnected from the first electrode , whereby, when the first current collector is in the first state and the reactant is supplied to the electrolytic gas generator , a first gas is generated at the interface of the first electrode and the polymer electrolyte membrane .
A computer-implemented method for assigning sequencing data representative of a sequence of interest to a sample, comprising: providing sequencing data representative of a sequence of interest and providing sequencing data representative of a 5' index sequence and a 3' index sequence, wherein said sequencing data are obtained from sequencing a plurality of dual-indexed nucleic acid fragments generated from a sample, wherein each individual nucleic acid fragment of the dual-indexed nucleic acid fragments comprises a sequence of interest derived from the sample, a 5' adapter sequence, a 5' index sequence, a 3' adapter sequence, and a 3' index sequence to generate dual-indexed nucleic acid fragments, wherein a plurality of different 5' index sequences selected from a first set of 5' index sequences associated with the sample and a plurality of different 3' index sequences selected from a second set of 3' index sequences associated with the sample are represented in the dual-indexed nucleic acid fragments and wherein the plurality of different 5' index sequences and the plurality of different 3' index sequences are distinguishable from one another, and processing said sequencing data to assign an individual sequence of interest to the sample only when the individual sequence of interest is associated with both the 5' index sequence selected from the first set and the 3' index sequence selected from the second set. providing sequencing data representative of a sequence of interest and providing sequencing data representative of a 5' index sequence and a 3' index sequence, wherein said sequencing data are obtained from sequencing a plurality of dual-indexed nucleic acid fragments generated from a sample, wherein each individual nucleic acid fragment of the dual-indexed nucleic acid fragments comprises a sequence of interest derived from the sample, a 5' adapter sequence, a 5' index sequence, a 3' adapter sequence, and a 3' index sequence to generate dual-indexed nucleic acid fragments, wherein a plurality of different 5' index sequences selected from a first set of 5' index sequences associated with the sample and a plurality of different 3' index sequences selected from a second set of 3' index sequences associated with the sample are represented in the dual-indexed nucleic acid fragments and wherein the plurality of different 5' index sequences and the plurality of different 3' index sequences are distinguishable from one another, and processing said sequencing data to assign an individual sequence of interest to the sample only when the individual sequence of interest is associated with both the 5' index sequence selected from the first set and the 3' index sequence selected from the second set.
Tank system, comprising a cryogenic vessel for receiving a two-phase mixture of cryogenic gas and cryogenic liquid , a feed line for feeding a consumer (M) from at least one extraction line outgoing from the cryogenic vessel , a heating element through which the feed line passes, an electronically controllable valve circuit for controlled turning on and off the feeding of the consumer (M), an electronic control controlling the valve circuit , a first extraction line outgoing from a top region of the vessel for cryogenic gas and leading into said feed line, and a second extraction line outgoing from a bottom region of the vessel for cryogenic liquid and leading into said feed line, wherein the valve circuit is located between the cryogenic vessel and the heating element , characterised in that the valve circuit has a check valve for the first extraction line , which check valve leaves the first extraction line open in the direction of the vessel when closing in the direction of the consumer (M), and/or in that the valve circuit has a check valve for the second extraction line , which check valve leaves the second extraction line open in the direction of the vessel when closing in the direction of the consumer (M).
Household dishwasher having a dishwasher cavity , a sump which is arranged at a bottom of the dishwasher cavity , a filter system which is provided at the sump , a spray arm for applying washing liquor and/or fresh water (F) to a dishwasher load that is held in the dishwasher cavity , wherein the spray arm comprises an extension piece which is actively driven and which is mounted on the sump and can rotate about a first axis of rotation , and a spray arm satellite which is mounted on the extension piece and can rotate about a second axis of rotation , and wherein the extension piece has a filter cleaning nozzle for cleaning the filter system with the aid of the washing liquor and/or fresh water (F), and a drive facility for actively driving the extension piece , characterised in that the drive facility is configured to perform a filter cleaning program with the aid of the filter cleaning nozzle , during which the extension piece remains in a predefined angular position for the purpose of cleaning the filter system and/or during which the extension piece moves back and forth between two different predefined angular positions.
Method for controlling the dynamic behaviour of a motor vehicle, especially by means of the turn angle of the rear steered wheel (α 2 ) for a vehicle comprising at least three steered wheels, wherein - the setting for the rear wheels (α 2 ) is related to the setting for the front wheels (α 1 ) by a regulating parameter (T gs ) which may have different values, - the regulating parameter (T gs ) is determined by a control button actuated by the user and which makes it possible to choose a mode of behaviour of the vehicle from several available modes, - the dampers are variable dampers having laws of damping which differ according to the desired mode of behaviour of the vehicle. - the setting for the rear wheels (α 2 ) is related to the setting for the front wheels (α 1 ) by a regulating parameter (T gs ) which may have different values, - the regulating parameter (T gs ) is determined by a control button actuated by the user and which makes it possible to choose a mode of behaviour of the vehicle from several available modes, - the dampers are variable dampers having laws of damping which differ according to the desired mode of behaviour of the vehicle.
Mobile bedside table, having a chassis and a cuboidal body extending perpendicularly to the chassis in its length, the sides of which delimit at least one storage space , wherein a bedside table , which is pivotable from a vertical into a horizontal position and is held on an upper panel covering the body , is associated with one side, characterized by the following features: a) the body is rectangular in cross-section, having two broad sides and two narrow sides , wherein the bedside table is associated with a first broad side b) a telescopically height-adjustable support is attached to the chassis , which support is oriented vertically thereto c) the body is held on the height-adjustable part of the support d) the chassis protrudes from the first broad side of the body e) the upper panel protrudes with respect to the first broad side and is angular in cross-section in the protruding cantilevered area, wherein this cantilevered area forms an exposed suspension when the bedside table is in the swung-down position, for suspension on the upper-side crossmember on a bed head of a medical or care bed. a) the body is rectangular in cross-section, having two broad sides and two narrow sides , wherein the bedside table is associated with a first broad side b) a telescopically height-adjustable support is attached to the chassis , which support is oriented vertically thereto c) the body is held on the height-adjustable part of the support d) the chassis protrudes from the first broad side of the body e) the upper panel protrudes with respect to the first broad side and is angular in cross-section in the protruding cantilevered area, wherein this cantilevered area forms an exposed suspension when the bedside table is in the swung-down position, for suspension on the upper-side crossmember on a bed head of a medical or care bed.
A light-emitting diode (LED) lamp tube, comprising: a nanotube made of nano-scale material, wherein the nanotube has an elongated shape, and opposite ends of the nanotube are opened; two connecting terminals connected to the opposite ends of the nanotube, respectively; and an LED light bar mounted in the nanotube, the LED light bar being connected to an external power supply via a driving circuit board and the connecting terminals ; wherein light emitted from the LED light bar is emitted directly through the nanotube , and the nanotube is configured to absorb heat generated by the LED light bar and dissipate the heat into air, wherein the nanotube is made of a composition comprising: 70-90 parts by weight of polycarbonate; 20-30 parts by weight of nanowhisker; 9-12 parts by weight of silicone light diffusing agent 5-8 parts by weight of ethylene-ethyl acrylate; and 1-3 parts by weight of stearate. a nanotube made of nano-scale material, wherein the nanotube has an elongated shape, and opposite ends of the nanotube are opened; two connecting terminals connected to the opposite ends of the nanotube, respectively; and an LED light bar mounted in the nanotube, the LED light bar being connected to an external power supply via a driving circuit board and the connecting terminals ; wherein light emitted from the LED light bar is emitted directly through the nanotube , and the nanotube is configured to absorb heat generated by the LED light bar and dissipate the heat into air, wherein the nanotube is made of a composition comprising: 70-90 parts by weight of polycarbonate; 20-30 parts by weight of nanowhisker; 9-12 parts by weight of silicone light diffusing agent 5-8 parts by weight of ethylene-ethyl acrylate; and 1-3 parts by weight of stearate. 70-90 parts by weight of polycarbonate; 20-30 parts by weight of nanowhisker; 9-12 parts by weight of silicone light diffusing agent 5-8 parts by weight of ethylene-ethyl acrylate; and 1-3 parts by weight of stearate.
A device comprising: a sensor body defining an air passage and configured to be inserted in a breathing tube, wherein the air passage includes a central portion having a reduced cross-sectional area relative to the ends of the sensor body for connecting to tubing; an upstream tube opening and a downstream tube opening positioned in the central portion of the air passage having a reduced cross-sectional area; and characterised in that , the device comprises an electronic module for producing an output representative of air flow in response to differential pressure between pressure at the upstream tube opening and a downstream tube opening the sensor body , wherein, the electronic module includes a Micro-Electro-Mechanical system "MEMS" differential pressure sensor that comprises a sufficiently small linearity error and hysteresis to not affect the flow rate measurement, and uses an on-board ASIC to collect pressure readings from a MEMS diaphragm, thereby providing a stable temperature compensated reading. a sensor body defining an air passage and configured to be inserted in a breathing tube, wherein the air passage includes a central portion having a reduced cross-sectional area relative to the ends of the sensor body for connecting to tubing; an upstream tube opening and a downstream tube opening positioned in the central portion of the air passage having a reduced cross-sectional area; and characterised in that , the device comprises an electronic module for producing an output representative of air flow in response to differential pressure between pressure at the upstream tube opening and a downstream tube opening the sensor body ,
Press for compacting waste material, in particular preferably urban solids, comprising a compaction tunnel in communication with a hopper through which said waste material to be compacted is received, pressing means configured to translate within a structure of said tunnel , which are configured to compress the waste material against an abutment element and to form a bale , said abutment element preferably placed at a first end of the structure and movable in vertical direction to define an opening through which the pressing means transfer said bale onto receiving means , characterized in that the structure of said tunnel comprises two translation devices arranged below and in proximity to a first end and in proximity to a second end of said structure adapted to translate the structure on a plane parallel to the ground.
Induction heating device (10a-c) having at least one inductively heatable heating element (12a-c), having at least one inductor (28a-c) for heating the heating element (12a-c), having at least one heater muffle , which defines a cooking compartment (16a-c) and having at least one heat exchanger unit (14a-c) embodied in one piece with the heating element (12a-c) in an assembled state, which heat exchanger unit is provided for transmitting heat from the heating element (12a-c) to a heating airflow for heating a cooking compartment (16a-c), characterised by at least one fan wheel (40a-c), which, when observed along its axis of rotation (22a-c), is surrounded at least largely by the heat exchanger unit (14a-c).
A differentiation system for differentiating microscopic particles, the system comprising - an input means for receiving holographic image data of a microscopic particle in suspension, the holographic image data being holographic images acquired from the microscopic particle in suspension, and - a holographic image data processing means, and - a microscopic particle recognition means, - characterized in that the input means is a holographic microscope adapted for capturing depth information during imaging and that the holographic image data are holographic images captured with the holographic microscope wherein the holographic image data comprise depth information, and wherein the holographic microscope is a digital in-line holographic microscope and characterized in that the holographic image data processing means is configured for converting the holographic image data to the frequency domain by performing a Fourier transform of the holographic image data, and that the microscopic particle recognition means is configured for determining characterization features of the holographic image data of the microscopic particle in the frequency domain for characterization of the microscopic particle, the characterization features comprising rotationally invariant features. - an input means for receiving holographic image data of a microscopic particle in suspension, the holographic image data being holographic images acquired from the microscopic particle in suspension, and - a holographic image data processing means, and - a microscopic particle recognition means, - characterized in that the input means is a holographic microscope adapted for capturing depth information during imaging and that the holographic image data are holographic images captured with the holographic microscope wherein the holographic image data comprise depth information, and wherein the holographic microscope is a digital in-line holographic microscope and characterized in that the holographic image data processing means is configured for converting the holographic image data to the frequency domain by performing a Fourier transform of the holographic image data, and that the microscopic particle recognition means is configured for determining characterization features of the holographic image data of the microscopic particle in the frequency domain for characterization of the microscopic particle, the characterization features comprising rotationally invariant features.
An optical wireless communication system comprising a transmitter apparatus that comprises: an illumination light source configured to output visible light for illumination purposes, wherein the illumination light source comprises a dimmable illumination light source and a controller configured to control operation of the illumination light source to produce modulation of the visible light to provide an optical wireless communication signal representing data; a further light source configured to output further light, the further light comprising infrared light or ultraviolet light, wherein the controller is configured to control operation of the further light source to produce modulation of the further light to provide a further optical wireless communication signal representing the same data simultaneously, wherein the visible light and the further light have different wavelength ranges and wherein the controller is further configured to control an intensity of the further light in dependence on an intensity and/or dimming level of the visible light. an illumination light source configured to output visible light for illumination purposes, wherein the illumination light source comprises a dimmable illumination light source and a controller configured to control operation of the illumination light source to produce modulation of the visible light to provide an optical wireless communication signal representing data; a further light source configured to output further light, the further light comprising infrared light or ultraviolet light, wherein the controller is configured to control operation of the further light source to produce modulation of the further light to provide a further optical wireless communication signal representing the same data simultaneously, wherein the visible light and the further light have different wavelength ranges and wherein the controller is further configured to control an intensity of the further light in dependence on an intensity and/or dimming level of the visible light.