mhurhangee/patent-ind-claim-en huggingface dataset:
A vertical absorption column for the absorption of nitrogen oxides from a process gas comprising said nitrogen oxides into water for the production of an aqueous nitric acid solution, comprising - a liquid distributor comprising a feed box having a serrated weir for distribution of a liquid through upward-pointing serrations of the serrated weir into perforated trays of the liquid distributor and located directly above a structured packing; - a structured packing; - a plate packing comprising a plurality of horizontal plates, provided with cooling means; - an inlet for the addition of oxygen to the lower part of the vertical absorption column; - an inlet for the process gas comprising nitrogen oxides from an ammonia oxidation process at the lower part of the vertical absorption column; - an inlet for an aqueous solution at the upper part of the vertical absorption column; - at least one nitric acid outlet at the bottom of the vertical absorption column; and - an outlet for tail gas comprising nitrogen oxides at the top of the vertical absorption column. - a liquid distributor comprising a feed box having a serrated weir for distribution of a liquid through upward-pointing serrations of the serrated weir into perforated trays of the liquid distributor and located directly above a structured packing; - a structured packing; - a plate packing comprising a plurality of horizontal plates, provided with cooling means; - an inlet for the addition of oxygen to the lower part of the vertical absorption column; - an inlet for the process gas comprising nitrogen oxides from an ammonia oxidation process at the lower part of the vertical absorption column; - an inlet for an aqueous solution at the upper part of the vertical absorption column; - at least one nitric acid outlet at the bottom of the vertical absorption column; and - an outlet for tail gas comprising nitrogen oxides at the top of the vertical absorption column.
A method for preparing a solid amine gas adsorption material, comprising steps of: 1) adding organic amine to a silicate solution, slowly introducing acidic gas to the solution while stirring, until the pH value of the solution becomes 9-11, so as to obtain a SiO 2 sol or gel; 2) filtering off the SiO 2 sol or gel precipitate from the above solution, aging, drying and dehydrating, to obtain a solid amine gas adsorption material; wherein said acidic gas is selected from one or more of a group consisting of carbon oxides, sulphur oxides, nitrogen oxides and sulphur hydrides; wherein the flow rate of said acidic gas is 5 to 15 I/min. 1) adding organic amine to a silicate solution, slowly introducing acidic gas to the solution while stirring, until the pH value of the solution becomes 9-11, so as to obtain a SiO 2 sol or gel; 2) filtering off the SiO 2 sol or gel precipitate from the above solution, aging, drying and dehydrating, to obtain a solid amine gas adsorption material;
Palmitoylethanolamide for use in the prevention of colorectal carcinoma, adenomatous polyps and/or pre-neoplastic ACF (Aberrant Crypts Foci) lesions, wherein said palmitoylethanolamide is acting on both the activation and proliferation phase and wherein palmitoylethanolamide is contained in a pharmaceutical or veterinary formulation or it is contained in dietary compositions, food supplements, or foods for special medical purposes (FSMPs), and is formulated in dosage forms for oral administration.
A method of controlling a brushless direct current BLDC motor, the method comprising: comparing a constant current (I qse ) of a three-phase-to-two-phase converter of an output port of a BLDC motor to a reference current (I std ) of a present air flow mode; characterised in that as a result of the comparison, applying speed command (ω ∗ m ) to a rotational speed control unit ; and controlling, by the rotational speed control unit , a speed of the BLDC motor according to the applied speed commands (ω ∗ m ), wherein as the result of the comparison, applying an increase speed command (ω ∗ m ) to a rotational speed control unit when the constant current (I qse ) is lower than the reference current (I std ), applying a decrease speed command (ω ∗ m ) to the rotational speed control unit when the constant current (I qse ) is higher than the reference current (I std ), and maintaining and applying the same speed command (ω ∗ m ) to the rotational speed control unit when the constant current (I qse ) is the same as the reference current (I std ). comparing a constant current (I qse ) of a three-phase-to-two-phase converter of an output port of a BLDC motor to a reference current (I std ) of a present air flow mode; characterised in that as a result of the comparison, applying speed command (ω ∗ m ) to a rotational speed control unit ; and controlling, by the rotational speed control unit , a speed of the BLDC motor according to the applied speed commands (ω ∗ m ), wherein as the result of the comparison, applying an increase speed command (ω ∗ m ) to a rotational speed control unit when the constant current (I qse ) is lower than the reference current (I std ), applying a decrease speed command (ω ∗ m ) to the rotational speed control unit when the constant current (I qse ) is higher than the reference current (I std ), and maintaining and applying the same speed command (ω ∗ m ) to the rotational speed control unit when the constant current (I qse ) is the same as the reference current (I std ).
Building closure element , designed as a roof window, comprising a blind frame and a sash frame supporting glazing of the roof window, and having a first fluid opening and a second fluid opening , which are fluidically connected to one another at least intermittently via a flow path , wherein the blind frame and/or the sash frame are overlapped on an outer side of the roof surface window at least in regions by a cover plate and the flow path is bounded at least in regions by the cover plate , and wherein a ventilation duct is formed in one of the frames and extends through a wall of the frame to form the first fluid opening , the second fluid opening is bounded by the cover plate and the ventilation duct is fluidically connected to the second fluid opening via an air space bounded by the cover plate , characterised in that an ion wind generator is arranged in the flow path for generating an air flow along the flow path .
A child seat configured to be disposed on a support base , the child seat comprising: a seat shell positionable on the support base and having a front end , a seat portion and two sidewalls , the front end having an opening , the two sidewalls respectively protruding at a left and a right side of the seat portion , an interior space for receiving a child being defined at least partially between the two sidewalls ; a retractable front end part , having a transversal portion and two side portions connected with the transversal portion , the transversal portion extending along a width direction of the seat shell , and the two side portions being respectively connected pivotally with the two sidewalls of the seat shell via two pivot shafts spaced apart from each other along the width direction, whereby the front end part is rotatable relative to the seat shell between a retracted position and a deployed position, the transversal portion of the front end part being stowed and received at least partially inside the opening of the seat shell in the retracted position, and the transversal portion of the front end part extending outside the opening of the seat shell in the deployed position; and a latching mechanism for locking the front end part in the deployed position. a seat shell positionable on the support base and having a front end , a seat portion and two sidewalls , the front end having an opening , the two sidewalls respectively protruding at a left and a right side of the seat portion , an interior space for receiving a child being defined at least partially between the two sidewalls ; a retractable front end part , having a transversal portion and two side portions connected with the transversal portion , the transversal portion extending along a width direction of the seat shell , and the two side portions being respectively connected pivotally with the two sidewalls of the seat shell via two pivot shafts spaced apart from each other along the width direction, whereby the front end part is rotatable relative to the seat shell between a retracted position and a deployed position, the transversal portion of the front end part being stowed and received at least partially inside the opening of the seat shell in the retracted position, and the transversal portion of the front end part extending outside the opening of the seat shell in the deployed position; and a latching mechanism for locking the front end part in the deployed position.
A terminal device, comprising: a receiving module , configured to receive a terminal capability query message from a base station; a processing module , configured to obtain device to device, D2D, capability information of the terminal device after the receiving module received the query message from the base station, wherein the D2D capability information of the terminal device comprises at least one piece of information about a radio frequency band over which the terminal device supports D2D communication, information about a radio frequency band over which the terminal device supports both D2D communication and cellular communication, and capability information that the terminal device supports both D2D communication and carrier aggregation; and a sending module , configured to send the D2D capability information of the terminal device to the base station. a receiving module , configured to receive a terminal capability query message from a base station; a processing module , configured to obtain device to device, D2D, capability information of the terminal device after the receiving module received the query message from the base station, wherein the D2D capability information of the terminal device comprises at least one piece of information about a radio frequency band over which the terminal device supports D2D communication, information about a radio frequency band over which the terminal device supports both D2D communication and cellular communication, and capability information that the terminal device supports both D2D communication and carrier aggregation; and a sending module , configured to send the D2D capability information of the terminal device to the base station.
A network topology discovery method, wherein the method is characterized by : receiving (S102), by a second network device, a first link layer discovery protocol, LLDP, packet sent by a first network device, wherein the first LLDP packet comprises first slice information, and the first slice information is used to indicate a network slice to which a first port of the first network device belongs; and sending (S103), by the second network device, the first slice information and second slice information to a management device, wherein the second slice information is used to indicate a network slice to which a second port of the second network device belongs. receiving (S102), by a second network device, a first link layer discovery protocol, LLDP, packet sent by a first network device, wherein the first LLDP packet comprises first slice information, and the first slice information is used to indicate a network slice to which a first port of the first network device belongs; and sending (S103), by the second network device, the first slice information and second slice information to a management device, wherein the second slice information is used to indicate a network slice to which a second port of the second network device belongs.
A cycloidal transmission for a drive, comprising: - a housing with a first bearing , a second bearing and a rolling ring , - a drive shaft rotatable mounted about its longitudinal axis in the first bearing, - an eccentric fixedly connected to the drive shaft , - a cam plate driven by the eccentric and having a plurality of holes, wherein the cam plate is configured to roll in the rolling ring , - a pin plate having a plurality of pins , wherein the pins are configured to engage the holes of the cam plate , so that the pin plate is driven by the cam plate , - an output shaft fixedly connected to the pin plate , the output shaft being mounted in the second bearing so as to be rotatable mounted about its longitudinal axis, and - a torque detection means , characterized in that the torque detection means is disposed axially between the first bearing and the second bearing and is configured to detect the torque of the output shaft , wherein the torque detection means is located between the pin plate and the second bearing , or wherein the torque detection means is integrated into the pin plate . - a housing with a first bearing , a second bearing and a rolling ring , - a drive shaft rotatable mounted about its longitudinal axis in the first bearing, - an eccentric fixedly connected to the drive shaft , - a cam plate driven by the eccentric and having a plurality of holes, wherein the cam plate is configured to roll in the rolling ring , - a pin plate having a plurality of pins , wherein the pins are configured to engage the holes of the cam plate , so that the pin plate is driven by the cam plate , - an output shaft fixedly connected to the pin plate , the output shaft being mounted in the second bearing so as to be rotatable mounted about its longitudinal axis, and - a torque detection means , characterized in that the torque detection means is disposed axially between the first bearing and the second bearing and is configured to detect the torque of the output shaft , wherein the torque detection means is located between the pin plate and the second bearing , or wherein the torque detection means is integrated into the pin plate .
A method of designing an implant for repairing a joint of a patient, comprising: obtaining, in a computer system, two-dimensional or three-dimensional representation of the joint of the patient using electronic image data of the joint of the patient and optionally one or more joints associated with the joint of the patient; obtaining a patient-specific biomotion model using the two-dimensional or three-dimensional representation; designing an implant having a shape based on the two-dimensional or three-dimensional representation; optimizing the shape using the patient-specific biomotion model; and designing an optimized implant having the optimized shape wherein the shape includes at least one of a bone-facing or a joint-facing surface of the implant. obtaining, in a computer system, two-dimensional or three-dimensional representation of the joint of the patient using electronic image data of the joint of the patient and optionally one or more joints associated with the joint of the patient; obtaining a patient-specific biomotion model using the two-dimensional or three-dimensional representation; designing an implant having a shape based on the two-dimensional or three-dimensional representation; optimizing the shape using the patient-specific biomotion model; and designing an optimized implant having the optimized shape wherein the shape includes at least one of a bone-facing or a joint-facing surface of the implant.
A cell processing system comprising: a processor connectable to a source container filled with a biological fluid, the processor including a separator configured to separate the biological fluid from the source container into at least two streams according to a process including at least one process parameter; and a controller coupled to the processor and an input , the controller configured: to receive the at least one process parameter via the input ; to calculate at least one output of the process, the at least one output comprising a time to complete the process, a volume of wash media consumed, a volume of waste fluid generated, and a volume of a residual remaining in a product, based on the at least one process parameter and each step of the process, the process comprising a plurality of steps with each following step depending on each preceding step; to provide the at least one calculated output of the process to an operator prior to causing the processor to operate according to the process. a processor connectable to a source container filled with a biological fluid, the processor including a separator configured to separate the biological fluid from the source container into at least two streams according to a process including at least one process parameter; and a controller coupled to the processor and an input , the controller configured: to receive the at least one process parameter via the input ; to calculate at least one output of the process, the at least one output comprising a time to complete the process, a volume of wash media consumed, a volume of waste fluid generated, and a volume of a residual remaining in a product, based on the at least one process parameter and each step of the process, the process comprising a plurality of steps with each following step depending on each preceding step; to provide the at least one calculated output of the process to an operator prior to causing the processor to operate according to the process. to receive the at least one process parameter via the input ; to calculate at least one output of the process, the at least one output comprising a time to complete the process, a volume of wash media consumed, a volume of waste fluid generated, and a volume of a residual remaining in a product, based on the at least one process parameter and each step of the process, the process comprising a plurality of steps with each following step depending on each preceding step; to provide the at least one calculated output of the process to an operator prior to causing the processor to operate according to the process.
An electric vehicle supply equipment , comprising: a plurality of first power supply modules electrically coupled to each other in series at output, and configured to provide a charging current (Ic) and a charging voltage (Vc) to charge an electric vehicle ; and a control circuit configured to output at least one first voltage control signal (CS V) to control at least one of the first power supply modules to be operated in a constant voltage mode; characterized in that the control circuit is configured to output a first current control signal (CS_I) to control the other one of the first power supply modules to be operated in a constant current mode, wherein the charging current provided by the other one of the first power supply modules operated in the constant current mode is controlled by the first current control signal (CS_I) outputted from the control circuit , and an output voltage of the at least one of the first power supply modules operated in the constant voltage mode is controlled by the at least one first voltage control signal from the control circuit , wherein the first current control signal (CS_I) includes a current command value to identify a target current value to serve as a constant current remained by the other one of the first power supply modules operated in the constant current mode, and the at least one first voltage control signal (CS_V) includes a voltage command value to identify a target voltage value to serve as a constant voltage remained by the at least one of the first power supply modules operated in the constant voltage mode. a plurality of first power supply modules electrically coupled to each other in series at output, and configured to provide a charging current (Ic) and a charging voltage (Vc) to charge an electric vehicle ; and a control circuit configured to output at least one first voltage control signal (CS V) to control at least one of the first power supply modules to be operated in a constant voltage mode; characterized in that the control circuit is configured to output a first current control signal (CS_I) to control the other one of the first power supply modules to be operated in a constant current mode, wherein the charging current provided by the other one of the first power supply modules operated in the constant current mode is controlled by the first current control signal (CS_I) outputted from the control circuit , and an output voltage of the at least one of the first power supply modules operated in the constant voltage mode is controlled by the at least one first voltage control signal from the control circuit , wherein the first current control signal (CS_I) includes a current command value to identify a target current value to serve as a constant current remained by the other one of the first power supply modules operated in the constant current mode, and the at least one first voltage control signal (CS_V) includes a voltage command value to identify a target voltage value to serve as a constant voltage remained by the at least one of the first power supply modules operated in the constant voltage mode.
A cartridge for sensing at least one analyte, said cartridge comprising: a detection channel having a first end and second end; at least one analyte sensor, wherein said analyte sensor comprises at least one sensor electrode and said sensor electrode is within said detection channel between the first end and the second end; a reagent channel , said reagent channel connected to said detection channel between the sensor electrode and the second end; a sample chamber , said sample chamber connected to said detection channel between the sensor electrode and the first end; a first inlet connected to the sample chamber and configured to move a sample from the sample chamber to the detection channel in response to applied pressure; a second inlet connected to the detection channel at the second end; and at least one blister pack for on-board liquid storage, characterized in that said cartridge further comprises a waste compartment connected to said detection channel at the first end, with the second inlet being configured to push at least one of the sample and an assay fluid from the detection channel to the waste compartment in response to applied pressure; and a bubble trap connecting the blister pack to the reagent channel and configured to trap air bubbles from a liquid moving from the blister pack to the reagent channel . a detection channel having a first end and second end; at least one analyte sensor, wherein said analyte sensor comprises at least one sensor electrode and said sensor electrode is within said detection channel between the first end and the second end; a reagent channel , said reagent channel connected to said detection channel between the sensor electrode and the second end; a sample chamber , said sample chamber connected to said detection channel between the sensor electrode and the first end; a first inlet connected to the sample chamber and configured to move a sample from the sample chamber to the detection channel in response to applied pressure; a second inlet connected to the detection channel at the second end; and at least one blister pack for on-board liquid storage, characterized in that said cartridge further comprises a waste compartment connected to said detection channel at the first end, with the second inlet being configured to push at least one of the sample and an assay fluid from the detection channel to the waste compartment in response to applied pressure; and a bubble trap connecting the blister pack to the reagent channel and configured to trap air bubbles from a liquid moving from the blister pack to the reagent channel .