mhurhangee/ep-ind-claims huggingface dataset:
An aerosol treatment system comprising: a patient interface to cover a patient's mouth and nose, an aerosol delivery apparatus (4, 6), a high flow treatment system (200 - 205) linked with the patient interface, a controller, a heater and a humidifier, separately or combined, to provide a heated humidified air/O2 mixture delivered to the patient interface, and sensors for detecting patient breathing, wherein the controller is configured to control delivery of aerosol to provide breath-synchronised aerosol delivery, characterized in that the system comprises: a valve arranged to split delivery flow into an aerosol branch with a nebulizer and a parallel bypass branch, and the branches merge into a common tube which leads to the patient interface. a patient interface to cover a patient's mouth and nose, an aerosol delivery apparatus (4, 6), a high flow treatment system (200 - 205) linked with the patient interface, a controller, a heater and a humidifier, separately or combined, to provide a heated humidified air/O2 mixture delivered to the patient interface, and sensors for detecting patient breathing, wherein the controller is configured to control delivery of aerosol to provide breath-synchronised aerosol delivery, characterized in that the system comprises: a valve arranged to split delivery flow into an aerosol branch with a nebulizer and a parallel bypass branch, and the branches merge into a common tube which leads to the patient interface.
A method for impedance compensation of an I/O, input/output, interface (112, 122, 212, 230, 640), comprising: detecting, via logic on a dynamic random access memory, DRAM, device (120, 220), a change in a performance condition of the DRAM device (120, 220) affecting I/O impedance for the DRAM device(120, 220); triggering a compensation flag signal from the DRAM device (120, 220) to an associated memory controller (110, 210) in response to detecting the change; and receiving at the DRAM device (120, 220) from the memory controller (110, 210), in response to the compensation flag signal, an impedance compensation signal generated by the memory controller, triggering a change in I/O impedance compensation in the DRAM device; characterized in that the triggering the compensation flag signal and the receiving the impedance compensation signal in response to the compensation flag signal are performed at least partially in place of a regular schedule of impedance compensation signals to be generated by the memory controller. detecting, via logic on a dynamic random access memory, DRAM, device (120, 220), a change in a performance condition of the DRAM device (120, 220) affecting I/O impedance for the DRAM device(120, 220); triggering a compensation flag signal from the DRAM device (120, 220) to an associated memory controller (110, 210) in response to detecting the change; and receiving at the DRAM device (120, 220) from the memory controller (110, 210), in response to the compensation flag signal, an impedance compensation signal generated by the memory controller, triggering a change in I/O impedance compensation in the DRAM device; characterized in that the triggering the compensation flag signal and the receiving the impedance compensation signal in response to the compensation flag signal are performed at least partially in place of a regular schedule of impedance compensation signals to be generated by the memory controller.
A method of manufacturing an exhaust-gas catalyst carrier which comprises a composite of θ-alumina and a zirconia-titania solid solution, wherein the molar ratio of zirconia to (zirconia + titania) in the zirconia-titania solid solution is within a range of 75% to 90%, the method characterized by comprising: preparing an aqueous solution of an aluminum salt, a zirconium salt, and a titanium salt, wherein a molar ratio of zirconia to (zirconia + titania) is between 75% and 90%; generating a precipitate from the aqueous solution by adjusting a pH of the aqueous solution to obtain a precipitate; aging the precipitate at a temperature equal to or below 200 °C; and calcinating the precipitate at a temperature equal to or above 900 °C and below 1200°C for a period of 1 to 10 hours. preparing an aqueous solution of an aluminum salt, a zirconium salt, and a titanium salt, wherein a molar ratio of zirconia to (zirconia + titania) is between 75% and 90%; generating a precipitate from the aqueous solution by adjusting a pH of the aqueous solution to obtain a precipitate; aging the precipitate at a temperature equal to or below 200 °C; and calcinating the precipitate at a temperature equal to or above 900 °C and below 1200°C for a period of 1 to 10 hours.
Method of dynamic allocation of shared resources in a communication network, consisting in defining, in a time-frequency plan, a superframe of a given duration ΔT and a given spectral width Δf, consisting of at least one frame (T1, T2, T3), defining a regular time-frequency grid, of which one square, referred to as a time-frequency unit, constitutes the smallest time and frequency interval allocatable to a user of said network within said frame, said method consisting in reserving, on each carrier frequency of a frame (T1, T2, T3), at least one block (B1, B2) of a number K, greater than or equal to 1, of time-frequency units which can be dynamically allocated to a user for communication or for synchronization, the choice of the number of time-frequency units to be allocated to an user being made according to the number of users connected to the communication network.
A damping assembly comprising: a connecting rod for connection to a moving part to be damped; a damper comprising a sleeve, a piston having a piston head slidable within the sleeve and respective end caps limiting the extent of movement of the piston head within the sleeve; and a mechanical fuse coupling the connecting rod to the piston, the mechanical fuse configured such that when a force between the connecting rod and damper reaches a threshold value, the connecting rod becomes uncoupled from the piston; characterised by further comprising at least two biasing members, a respective biasing members being mounted to the respective end faces (35a, 35b) of the piston head and/or to the respective end caps such that it forces the piston head away from the respective end cap when adjacent thereto and biases the piston towards a central position such that the connecting rod may be re-coupled to the piston. a connecting rod for connection to a moving part to be damped; a damper comprising a sleeve, a piston having a piston head slidable within the sleeve and respective end caps limiting the extent of movement of the piston head within the sleeve; and a mechanical fuse coupling the connecting rod to the piston, the mechanical fuse configured such that when a force between the connecting rod and damper reaches a threshold value, the connecting rod becomes uncoupled from the piston; characterised by further comprising at least two biasing members, a respective biasing members being mounted to the respective end faces (35a, 35b) of the piston head and/or to the respective end caps such that it forces the piston head away from the respective end cap when adjacent thereto and biases the piston towards a central position such that the connecting rod may be re-coupled to the piston.
Device for perforating a label strip, in the form of a folded film tube, with two opposing draw rollers,, with which the label strip can be conveyed in the transport direction T, with a cutting roller, on the circumferential surface of which a plurality of perforating knives spaced apart in the circumferential direction are arranged, and with a counter-cutting roller located opposite the cutting roller, wherein the label strip can be perforated between the cutting roller and the counter-cutting roller, characterized in that the counter-cutting roller has a surface which serves as a counter-cutting edge for the perforating knives over its entire circumference, and that the cutting roller and the counter-cutting roller have different drives such that the counter-cutting roller can run at a constant speed. with a cutting roller, on the circumferential surface of which a plurality of perforating knives spaced apart in the circumferential direction are arranged, and with a counter-cutting roller located opposite the cutting roller, wherein the label strip can be perforated between the cutting roller and the counter-cutting roller, characterized in that the counter-cutting roller has a surface which serves as a counter-cutting edge for the perforating knives over its entire circumference, and that the cutting roller and the counter-cutting roller have different drives such that the counter-cutting roller can run at a constant speed.
Method for operating a circuit breaker, the circuit breaker comprising an operating lever, a latching mechanism and an electrical contact system with a movable contact and a fixed contact, wherein the operating lever is movable into an ON-position and an OFF-position, wherein further the operating lever is mechanically connected via the latching mechanism to the electrical contact system such that when the operating lever is in its OFF-position the contacts (31, 32) of the electrical contact system are opened and that when the operating lever is in its ON-position the contacts (31, 32) of the electrical contact system are closed, wherein the latching mechanism comprises an upper toggle lever being mechanically connected to the operating lever at a toggle lever shaft, a tension lever being mechanically connected to the operating lever at a tension bolt, and at least one spring element holding the operating lever in its OFF-position after a movement of the operating lever into its OFF-position, wherein the operating lever is pivot-mounted in the circuit breaker at a handle join, comprising the following steps: a) moving the operating lever in its OFF-position, and b) preparing a subsequent activation of the latching mechanism during movement of the operating lever in its OFF-position by resetting the latching mechanism, wherein, at the toggle lever shaft and the tension bolt, forces are exerted onto the operating lever by the upper toggle lever and the tension lever respectively such that the resulting torque drives the operating lever into its OFF-position. a) moving the operating lever in its OFF-position, and b) preparing a subsequent activation of the latching mechanism during movement of the operating lever in its OFF-position by resetting the latching mechanism, wherein, at the toggle lever shaft and the tension bolt, forces are exerted onto the operating lever by the upper toggle lever and the tension lever respectively such that the resulting torque drives the operating lever into its OFF-position.
A polymerization method for preparing polymers derived from C 4 to C 7 isoolefin monomers and alkyl-styrene monomers, the method comprising: a) providing feed streams into a reactor, the feed streams comprising the isoolefin, alkyl-styrene monomers wherein the alkyl substitution of the alkyl-styrene is a C 1 to C 7 alkyl, a diluent comprising methyl chloride, and a catalyst system wherein the catalyst system comprises a weak Lewis Acid selected from aluminum bromide, boron trichloride, ethyl aluminum sesquichloride, diethylaluminum chloride, dimethylaluminum chloride, and diisobutylaluminum chloride, or mixtures thereof, and an HCl initiator; and b) allowing the feed streams to contact one another within the reactor so that the monomers form a polymer in a slurry, wherein the amount of polymer in the slurry yields a slurry concentration greater than 22 wt%; wherein the ratio of moles of polymer produced per mole of initiator is not more than 4 moles of polymer per mole of initiator. a) providing feed streams into a reactor, the feed streams comprising the isoolefin, alkyl-styrene monomers wherein the alkyl substitution of the alkyl-styrene is a C 1 to C 7 alkyl, a diluent comprising methyl chloride, and a catalyst system wherein the catalyst system comprises a weak Lewis Acid selected from aluminum bromide, boron trichloride, ethyl aluminum sesquichloride, diethylaluminum chloride, dimethylaluminum chloride, and diisobutylaluminum chloride, or mixtures thereof, and an HCl initiator; and b) allowing the feed streams to contact one another within the reactor so that the monomers form a polymer in a slurry, wherein the amount of polymer in the slurry yields a slurry concentration greater than 22 wt%;
A device for handling selectively a first capsule having a first flange and a second capsule having a second flange having a dimension greater than a dimension of said first flange, such device comprising a first part and a second part that are relatively movable from a transfer position for inserting and/or removing such capsule (2a,2b) to an extraction position for extracting such capsule (2a,2b), wherein said device further comprises separation means for separating such capsule (2a,2b) from at least one of the first and second parts (10,20), such as from a cavity in said at least one of the first and second parts (10,20), when the first and second parts (10,20) are relatively moved from the extraction position to the transfer position, characterized in that the separation means is movable to adapt spatially to either of said first and second flanges (2a',2b'), the separation means having an engaging portion that is movable to a first position for engaging with the first flange and to a second position for engaging with the second flange having a dimension that is greater than a dimension of said first flange, optionally the separation means comprising a separator body which is configured to act against either of said first and second flanges (2a',2b').
Method for monitoring a belt drive with at least one drive pulley (6, 7) driven by a drive motor, a driven pulley (8, 9) and at least one power-transmitting endless drive belt (2, 3) which is in the form of a traction belt and wraps around the drive and driven pulleys circumferentially over a partial circumference in each case, wherein the belt (2, 3) has precisely one first marking (11, 12) and precisely one first sensor element (13, 14) assigned to the belt is provided, wherein the passage of the first marking (11, 12) is detected by the first sensor element (13, 14) during the belt revolution and the first sensor element has electronic devices for outputting a signal S R dependent on the detection of the first marking (11, 12), characterized in that the rotor of the drive motor has precisely one second marking and precisely one second sensor element which is provided with corresponding electronic devices and is assigned to the drive motor is provided, wherein, while the rotor is rotating, the passage of the second marking is detected by the second sensor element and a signal S M dependent on the detection of the second marking is output, in that, furthermore, a computing unit provided with memories and processors for processing the signals S R and S M is provided, wherein a temporal or local correlation of the occurrence of the signals S R and S M is calculated in the computing unit when the drive belt (2, 3) is new and is stored as a reference value, wherein the associated signals S R and S M are then repeatedly determined for further specified belt revolutions or periods of time and their current temporal or local correlation of the occurrence is compared with the reference value, wherein a warning or alarm signal is output by the computing device after a specified tolerance value between the current correlation and the reference value has been exceeded.
A method of generation of a target key in a n-dimensional key space, n being an integer greater than or equal to two, each key corresponding to a coordinate in the key space, the target key corresponding to coordinate (x,y,...), the method comprising the steps, at a device, of: - obtaining a starting basic key K MT having coordinates (X,Y,...) composed by n values; - splitting the starting basic key K MT into n key parts, each key part corresponding to one dimension; - for each dimension, applying a one-way function to the key part corresponding to the dimension a number of times, the number of times being equal to the maximum coordinate value for the dimension minus the coordinate of the dimension of the target key, so as to obtain a target basic key part; and - combining the n target basic key parts to obtain a target basic key; - obtaining a starting modification key K' MT; - generating a distance value that expresses, as an integer, the distance in the key space between the starting modification key K' MT and the target key; and - applying a one-way function to the starting modification key K' MT a number of times equal to the distance value so as to obtain a target modification key; the method being characterised in that it further comprises the step of: - XOR-ing the target basic key and the target modification key to obtain the target key; and in that the target basic key and the target modification key are of equal length. - obtaining a starting basic key K MT having coordinates (X,Y,...) composed by n values; - splitting the starting basic key K MT into n key parts, each key part corresponding to one dimension; - for each dimension, applying a one-way function to the key part corresponding to the dimension a number of times, the number of times being equal to the maximum coordinate value for the dimension minus the coordinate of the dimension of the target key, so as to obtain a target basic key part; and - combining the n target basic key parts to obtain a target basic key; - obtaining a starting modification key K' MT; - generating a distance value that expresses, as an integer, the distance in the key space between the starting modification key K' MT and the target key; and - applying a one-way function to the starting modification key K' MT a number of times equal to the distance value so as to obtain a target modification key; - XOR-ing the target basic key and the target modification key to obtain the target key; and
Drive for a darkening device with an adjustable closure element, such as a roller shutter or the like, which is windable onto a winding shaft or the like by means of the drive, wherein a drive motor, a controller assigned to the drive motor, and a displacement-measuring arrangement for determining the position of the closure element are provided, wherein, in the operating mode of the controller, the closure element during normal operation is adjustable by motor between two control-related end positions "opening end position" and "closing end position", wherein, in the installation mode of the controller, the control-related end positions (6, 7) are programmable, in particular automatically, wherein the motorized adjustment of the closure element is delimited mechanically in the opening direction by an opening end stop and optionally in the closing direction by a closing end stop, and wherein detection means are provided for detecting an adjustment of the closure element into the opening end stop and into the optionally present closing end stop, and wherein a motorized adjustment of the closure element into the opening end stop is associated with an at least slight tensioning of the closure element wound onto the winding shaft, characterized in that, in the installation mode of the controller, an automatic programming cycle is provided first of all for the closing end position and then for the opening end position, said programming cycle being triggered or released by detection of an in particular user-guided, motorized adjustment of the closure element into the opening end stop with corresponding tensioning of the closure element, and in that, during the automatic programming cycle, the controller first of all adjusts the closure element by means of the drive in the closing direction until the closing end stop is detected and then in the opening direction until the opening end stop is detected, and determines and stores the end positions (6, 7) in the closing end stop and in the opening end stop on the basis of the measured values of the displacement-measuring arrangement.
A control channel receiving method, comprising: receiving, by a user equipment, a user equipment-specific identity sent by a base station; obtaining, by the user equipment according to a preset protocol, a configuration parameter of a candidate control channel set, wherein the configuration parameter comprises an aggregation level of the candidate control channel set and a sequence number of the first control channel element in a search space corresponding to the aggregation level of the candidate control channel set, and the preset protocol is known to both the base station and the user equipment; determining, by the user equipment for a candidate control channel in the candidate control channel set, an antenna port number according to a function of the aggregation level of the candidate control channel set, the sequence number of the first control channel element of the candidate control channel in the candidate control channel set, and the user equipment-specific identity; and receiving, by the user equipment, by using an antenna port with the determined antenna port number, the candidate control channel or a control channel element thereof from the base station, wherein the candidate control channel is an enhanced physical downlink control channel, E-PDCCH, and the control channel element is an enhanced control channel element, E-CCE. receiving, by a user equipment, a user equipment-specific identity sent by a base station; obtaining, by the user equipment according to a preset protocol, a configuration parameter of a candidate control channel set, wherein the configuration parameter comprises an aggregation level of the candidate control channel set and a sequence number of the first control channel element in a search space corresponding to the aggregation level of the candidate control channel set, and the preset protocol is known to both the base station and the user equipment; determining, by the user equipment for a candidate control channel in the candidate control channel set, an antenna port number according to a function of the aggregation level of the candidate control channel set, the sequence number of the first control channel element of the candidate control channel in the candidate control channel set, and the user equipment-specific identity; and receiving, by the user equipment, by using an antenna port with the determined antenna port number, the candidate control channel or a control channel element thereof from the base station, wherein the candidate control channel is an enhanced physical downlink control channel, E-PDCCH, and the control channel element is an enhanced control channel element, E-CCE.
A compound of formula: wherein W represents Cl, Br, I, OSO 2 R, X represents Cl, Br, I, OSO 2 R, R represents a lower C 1-6 alkyl group, and R 1 represents a H, or lower C 1-6 alkyl group. W represents Cl, Br, I, OSO 2 R, X represents Cl, Br, I, OSO 2 R, R represents a lower C 1-6 alkyl group, and R 1 represents a H, or lower C 1-6 alkyl group.