mhurhangee/patent-ind-claim-en huggingface dataset:
A gas routing module for insertion within a respiratory treatment apparatus, the gas routing module adapted to couple within a gas ports interface of a discrete compartment of a chassis of a respiratory treatment apparatus, the gas routing module comprising: a plurality of gas routing channels adapted for gas communication with expired airflow; and a gas ports interface, the gas ports interface including a plurality of gas ports in gas communication with the plurality of gas routing channels, wherein the gas ports interface of the gas routing module comprises two or more of (a) a port for expiratory pressure sensing , (b) a port for a PEEP air supply , and (c) a set of ports for expiratory flow sensing through one or more of the plurality of gas routing channels of the module, characterised in that the gas routing module has a first side including an expired gas inlet port adapted to be connected to a conduit of a patient circuit, and a gas outlet or control port , and the gas routing module is configured such that, in use, the expired gas inlet port receives, at the first side, the expired airflow from the conduit of the patient circuit, and the gas outlet or control port routes, at the first side, from the respiratory treatment apparatus, one of (a) expired airflow from the conduit of the patient circuit, and (b) a PEEP pressure from a PEEP blower. a plurality of gas routing channels adapted for gas communication with expired airflow; and a gas ports interface, the gas ports interface including a plurality of gas ports in gas communication with the plurality of gas routing channels, wherein the gas ports interface of the gas routing module comprises two or more of (a) a port for expiratory pressure sensing , (b) a port for a PEEP air supply , and (c) a set of ports for expiratory flow sensing through one or more of the plurality of gas routing channels of the module, characterised in that the gas routing module has a first side including an expired gas inlet port adapted to be connected to a conduit of a patient circuit, and a gas outlet or control port , and the gas routing module is configured such that, in use, the expired gas inlet port receives, at the first side, the expired airflow from the conduit of the patient circuit, and the gas outlet or control port routes, at the first side, from the respiratory treatment apparatus, one of (a) expired airflow from the conduit of the patient circuit, and (b) a PEEP pressure from a PEEP blower.
A method, in a transmitting device having a plurality of transmitter antennas, for selecting antenna beam-forming precoding vectors for transmissions, the method comprising: transmitting to a receiving device at a first time, using a first beam-forming precoding vector that maps symbols to be transmitted to the plurality of transmitter antennas; monitoring a rotation of the transmitting device; calculating a first threshold based on said monitoring; determining , prior to transmitting to the receiving device at a second time, whether an elapsed time since the first time exceeds the first threshold; selecting one of at least two beam-forming precoding vectors for use in transmitting to the receiving device at the second time, based on said determining; and transmitting to the receiving device at the second time, using the selected one of the at least two beam-forming precoding vectors. transmitting to a receiving device at a first time, using a first beam-forming precoding vector that maps symbols to be transmitted to the plurality of transmitter antennas; monitoring a rotation of the transmitting device; calculating a first threshold based on said monitoring; determining , prior to transmitting to the receiving device at a second time, whether an elapsed time since the first time exceeds the first threshold; selecting one of at least two beam-forming precoding vectors for use in transmitting to the receiving device at the second time, based on said determining; and transmitting to the receiving device at the second time, using the selected one of the at least two beam-forming precoding vectors.
Road signs transportation unit, comprising a rack and road signs with wheels , the rack designed as a frame comprises vertical posts and external crossbars that are disposed at various heights between mutually opposite pairs of the vertical posts , and pairs of shaped sections are fixed between corresponding external crossbars mounted at the same height and defining horizontal levels, whereas stopping members are provided at one side of the rack to prevent displacement of the road signs, whilst a locking mechanism is mounted at the opposite side of the rack for engagement with a pole of the road sign board , characterized in that the stopping members are provided on each horizontal level, and the engagement between the locking mechanism and the pole of the road sign board takes place via a socket attached to the pole , and an axis with wheels is mounted to the upper end of the pole of the road sign board , where the distance between wheels matches the span between the shaped sections .
An order-picking method , carried out in an order fulfillment facility using a plurality of mobile robotic units operated autonomously or semi-autonomously in the order fulfilment facility used to fulfill orders placed by individuals on-line or from a catalogue or to fulfill orders placed by a retail establishment of full or split cases that are bound for individual stores of a chain of retail establishments, said method comprising: autonomously routing a plurality of mobile robotic units in an order fulfillment facility, wherein said autonomous mobile robotic units include an autonomous vehicle base , wherein said autonomous vehicle base is capable of self-navigation from any starting point in fulfillment facility to any utilization point without special infrastructure and autonomous vehicle base is capable of sensing humans and unanticipated obstructions and modifying its path plan to avoid the human/obstruction without any further intervention; and picking articles to or putting articles from said robotic units in said order fulfillment facility , wherein at least one of said autonomous mobile robotic units includes a robotic arm and including picking articles or putting articles with said robotic arm ; wherein said picking articles or putting articles includes picking articles to or putting articles with said robotic arm from another of said autonomous mobile robotic units , wherein said robotic units are adapted to alter planned path of movement in order to function in the presence of the persons, wherein said robotic units and the persons can function together in said order fulfillment facility, wherein said picking articles to or putting articles from said robotic units includes manually picking product to or putting product from pick stations in said facility. autonomously routing a plurality of mobile robotic units in an order fulfillment facility, wherein said autonomous mobile robotic units include an autonomous vehicle base , wherein said autonomous vehicle base is capable of self-navigation from any starting point in fulfillment facility to any utilization point without special infrastructure and autonomous vehicle base is capable of sensing humans and unanticipated obstructions and modifying its path plan to avoid the human/obstruction without any further intervention; and picking articles to or putting articles from said robotic units in said order fulfillment facility , wherein at least one of said autonomous mobile robotic units includes a robotic arm and including picking articles or putting articles with said robotic arm ; wherein said picking articles or putting articles includes picking articles to or putting articles with said robotic arm from another of said autonomous mobile robotic units , wherein said robotic units are adapted to alter planned path of movement in order to function in the presence of the persons, wherein said robotic units and the persons can function together in said order fulfillment facility, wherein said picking articles to or putting articles from said robotic units includes manually picking product to or putting product from pick stations in said facility.
A dilution apparatus, suitable for use with particles suspended in a fluid, comprising a batch diluter and a continuous diluter ; the batch diluter comprising a vessel (110;410) having at least one inlet, and an outlet having a valve , the at least one inlet being arranged to receive a sample to be diluted and the at least one inlet being arranged to receive diluent so as to mix said sample with said diluent; the continuous diluter comprising a sample input , a diluent input and an output , the diluent input being arranged such that diluent entering the continuous diluter experiences a pressure drop, said pressure drop being sufficient to entrain at least a portion of diluted sample from the batch diluter through the sample input ; characterised in that the outlet of the batch diluter is arranged to be in selective communication with the input of the continuous diluter such that a sample that has been pre-diluted in the batch diluter is arranged to be further diluted in the continuous diluter . the batch diluter comprising a vessel (110;410) having at least one inlet, and an outlet having a valve , the at least one inlet being arranged to receive a sample to be diluted and the at least one inlet being arranged to receive diluent so as to mix said sample with said diluent; the continuous diluter comprising a sample input , a diluent input and an output , the diluent input being arranged such that diluent entering the continuous diluter experiences a pressure drop, said pressure drop being sufficient to entrain at least a portion of diluted sample from the batch diluter through the sample input ; characterised in that the outlet of the batch diluter is arranged to be in selective communication with the input of the continuous diluter such that a sample that has been pre-diluted in the batch diluter is arranged to be further diluted in the continuous diluter .
An antenna array, comprising: first and second radiating elements (A1, A2) responsive to first and second hybrid radio frequency, RF, signals (PSF11*, PSF21*), respectively; and a power divider circuit (PD1) comprising a first cascaded pair of power dividers (C11, C12; WP11, WP12) cross-coupled with a second cascaded pair of power dividers (C21, C22; WP21, WP22), said power divider circuit configured to generate the first and second hybrid RF signals as power-reduced combinations of first and second RF input signals (PSF11, PSF21) received at input terminals thereof; characterized in that the first cascaded pair of power dividers is configured to generate the first hybrid RF signal as a combination of a 70-90 percent energy contribution of the first RF input signal with a 0.26-2.7 percent energy contribution of the second RF input signal; and wherein the second cascaded pair of power dividers is configured to generate the second hybrid RF signal as a 70-90 percent energy contribution of the second RF input signal with a 0.26-2.7 percent energy contribution of the first RF input signal. first and second radiating elements (A1, A2) responsive to first and second hybrid radio frequency, RF, signals (PSF11*, PSF21*), respectively; and a power divider circuit (PD1) comprising a first cascaded pair of power dividers (C11, C12; WP11, WP12) cross-coupled with a second cascaded pair of power dividers (C21, C22; WP21, WP22), said power divider circuit configured to generate the first and second hybrid RF signals as power-reduced combinations of first and second RF input signals (PSF11, PSF21) received at input terminals thereof; the first cascaded pair of power dividers is configured to generate the first hybrid RF signal as a combination of a 70-90 percent energy contribution of the first RF input signal with a 0.26-2.7 percent energy contribution of the second RF input signal; and wherein the second cascaded pair of power dividers is configured to generate the second hybrid RF signal as a 70-90 percent energy contribution of the second RF input signal with a 0.26-2.7 percent energy contribution of the first RF input signal.
A composition comprising a surfactant; an acidifying agent; an amide of formula I: R 1 -CO-NR 2 R 3 (I) wherein R 1 is selected from the group consisting of linear or branched, substituted or unsubstituted C 6 -C 12 hydrocarbyl groups, each of R 2 and R 3 is independently selected from H, OH, a halogen, or C 1 -C 6 linear or branched, substituted or unsubstituted hydrocarbyl groups; and water; wherein said composition has a pH from 1.0 to 6.0 wherein said composition is an antimicrobial composition comprising from 0.01% to 30% of an antimicrobial active, wherein the antimicrobial active is an active oxygen source, wherein the active oxygen source is hydrogen peroxide, and the active oxygen source is present at a level of from 0.05% to 8% by weight of the composition.
A tire reinforcement member comprising: at least one core material cord layer ; and a spiral cord layer having reinforcing cords spirally wound on said core material cord layer , wherein reinforcing cords in said core material cord layer are metal cords having an inclination angle of 40° to 90° with respect to the longitudinal direction of said core material cord layer , and said reinforcing cords in said spiral cord layer are organic fiber cords having a modulus of not less than 19 GPa, wherein the distance (L) between a metal cord at a width direction end of said core material cord layer and a reinforcing cord at a width direction end of said spiral cord layer is 0.2 to 20 times of the diameter of said metal cords of said core material cord layer , and wherein the modulus is a value of the initial tensile modulus measured in accordance with JIS L1013 at a test temperature of 25°C, a rate of 30 cm/min and a chuck distance of 250 mm. at least one core material cord layer ; and a spiral cord layer having reinforcing cords spirally wound on said core material cord layer , wherein reinforcing cords in said core material cord layer are metal cords having an inclination angle of 40° to 90° with respect to the longitudinal direction of said core material cord layer , and said reinforcing cords in said spiral cord layer are organic fiber cords having a modulus of not less than 19 GPa, wherein the distance (L) between a metal cord at a width direction end of said core material cord layer and a reinforcing cord at a width direction end of said spiral cord layer is 0.2 to 20 times of the diameter of said metal cords of said core material cord layer , and wherein the modulus is a value of the initial tensile modulus measured in accordance with JIS L1013 at a test temperature of 25°C, a rate of 30 cm/min and a chuck distance of 250 mm.
A method for transmitting hybrid automatic repeat request-acknowledgement, HARQ-ACK, response information by a user equipment , UE, to a base station, BS, in a third generation partnership project, 3GPP,-based wireless communication system, the method comprising: generating (S3710, S3720), based on downlink assignment index, DAI, information, a single HARQ-ACK response for a plurality of downlink, DL, data signals each corresponding to different DL transmissions from the BS; and transmitting (S3730) the single HARQ-ACK response to the BS, wherein the plurality of DL data signals include one or more code block group, CBG,-based DL data signals and one or more transport block, TB,-based DL data signals, and wherein the single HARQ-ACK response includes first HARQ-ACK information for the one or more CBG-based DL data signals and second HARQ-ACK information for the one or more TB-based DL data signals, characterized in that , the UE obtains a first counter DAI and a first total DAI based on CBG-based scheduling downlink control information, DCI, for the one or more CBG-based DL data signals, and obtains the second counter DAI and the second total DAI based on TB-based scheduling DCI for the one or more TB-based DL data signals, the CBG-based scheduling DCI being different from the TB-based scheduling DCI, and the single HARQ-ACK response is generated (S3710, S3720), based on the first counter DAI, the first total DAI, the second counter DAI, and the second total DAI. generating (S3710, S3720), based on downlink assignment index, DAI, information, a single HARQ-ACK response for a plurality of downlink, DL, data signals each corresponding to different DL transmissions from the BS; and transmitting (S3730) the single HARQ-ACK response to the BS, wherein the plurality of DL data signals include one or more code block group, CBG,-based DL data signals and one or more transport block, TB,-based DL data signals, and wherein the single HARQ-ACK response includes first HARQ-ACK information for the one or more CBG-based DL data signals and second HARQ-ACK information for the one or more TB-based DL data signals, characterized in that , the UE obtains a first counter DAI and a first total DAI based on CBG-based scheduling downlink control information, DCI, for the one or more CBG-based DL data signals, and obtains the second counter DAI and the second total DAI based on TB-based scheduling DCI for the one or more TB-based DL data signals, the CBG-based scheduling DCI being different from the TB-based scheduling DCI, and the single HARQ-ACK response is generated (S3710, S3720), based on the first counter DAI, the first total DAI, the second counter DAI, and the second total DAI.
A computer implemented method for manufacturing a dental splint , comprising - making at least one image of a patient's teeth and gingiva , - designing a model of the dental splint based on the image of the patient's teeth and gingiva by means of a computer, - defining insertion axes for insertion of interdental brushes within each space between approximal tooth surfaces of the patient's teeth in the model by means of the computer, - defining insertion holes for insertion of interdental brushes along the insertion axes by means of the computer, and - making the dental splint including the defined insertion holes at least partially by means of an additive manufacturing method under control of the computer. - making at least one image of a patient's teeth and gingiva , - designing a model of the dental splint based on the image of the patient's teeth and gingiva by means of a computer, - defining insertion axes for insertion of interdental brushes within each space between approximal tooth surfaces of the patient's teeth in the model by means of the computer, - defining insertion holes for insertion of interdental brushes along the insertion axes by means of the computer, and - making the dental splint including the defined insertion holes at least partially by means of an additive manufacturing method under control of the computer.
A lubricated vacuum pump comprising a stator body having a compartment for housing a rotor positioned eccentrically inside the compartment to define a suction chamber ; the pump has a duct for supplying a gaseous fluid and one or more ducts for discharging a dispersion of a lubricating fluid in the gaseous fluid; a suction valve , positioned along the supply duct is configured for passing from an open position to a closed position and vice versa, adjusting the passage of the gaseous fluid in the suction chamber ; the pump comprises a chamber for containing lubricating liquid , in fluid communication with the one or more discharging ducts , which has a dividing wall which delimits a compartment for containing the lubricating liquid, into which lead the one or more discharging ducts , and a tank for collecting the excess lubricating liquid contained in the containment compartment ; the compartment for containing the lubricating fluid being in fluid communication with the suction chamber by means of the one or more discharging ducts ; at least one discharge valve , configured to pass from an open position to a closed position and vice versa, adjusts the passage of the dispersion of lubricating fluid in the gaseous fluid from a respective discharging duct to the compartment for containing the lubricating fluid; the pump comprises at least one duct for connecting the chamber for containing the lubricating liquid with the suction chamber ; the connecting duct extending at least partly in the dividing wall of the chamber for containing the lubricating liquid and leading inside the suction chamber ; the connecting duct extends at least partly in the dividing wall of the chamber for containing the lubricating fluid and at least partly in the stator body of the pump ; the connecting duct has a respective first opening , in fluid communication with the chamber for containing the lubricating liquid , leading from the dividing wall ; characterised in that the dividing wall has a first and a second side surface , respectively delimiting the containment compartment and the tank for collecting the excess lubricating liquid, and a top surface adjacent to the first and second side surface of the dividing wall ; the first opening of the connecting duct is positioned at the top surface of the dividing wall .
A method for operating a dispenser comprising a dispensing mechanism for dispensing a predetermined quantity of at least one of liquid and sheet material , the method comprising: - retrieving a dispenser status; - storing the dispenser status in a non-volatile memory of the dispenser ; and - operating the dispensing mechanism based on said dispenser status, - wherein the step of operating comprises disabling the dispensing mechanism when the dispenser status is a first status, and - wherein the step of operating comprises enabling the dispensing mechanism when the dispenser status is a second status. - retrieving a dispenser status; - storing the dispenser status in a non-volatile memory of the dispenser ; and - operating the dispensing mechanism based on said dispenser status, - wherein the step of operating comprises disabling the dispensing mechanism when the dispenser status is a first status, and - wherein the step of operating comprises enabling the dispensing mechanism when the dispenser status is a second status.
Antenna measuring chamber for measuring the antenna properties of RF antennas, comprising the following features: - a complete lining having a plurality of absorbers on their inner boundary surfaces, - separate supports for an antenna to be tested and for a transmitting antenna , - a double floor for invisible cable routing for the supply and control lines of the antennas, characterized in that the support for one of the two antennas is designed as a movable carriage which is movable on the lower of the two floors of the double floor and which penetrates the upper floor having the lining located thereon, and in that the carriage has a U-shaped cross section having two side walls which penetrate the lining and a base for receiving an antenna, and in that the RF signal cables for the antenna provided on the carriage are laid inside the side wall of the carriage . - a complete lining having a plurality of absorbers on their inner boundary surfaces, - separate supports for an antenna to be tested and for a transmitting antenna , - a double floor for invisible cable routing for the supply and control lines of the antennas, characterized in that the support for one of the two antennas is designed as a movable carriage which is movable on the lower of the two floors of the double floor and which penetrates the upper floor having the lining located thereon, and in that the carriage has a U-shaped cross section having two side walls which penetrate the lining and a base for receiving an antenna, and in that the RF signal cables for the antenna provided on the carriage are laid inside the side wall of the carriage .