mhurhangee/patent-ind-claim-en huggingface dataset:
A chemical, biological, radiological, nuclear and high-yield explosives, CBRNE, system , comprising: a computing device ; a base station node communicatively coupled with the computing device ; a sensor node communicatively coupled with the base station node via a wireless network; and a CBRNE sensor configured to detect chemical, biological, radiological and/or explosive substances, wherein the CBRNE sensor is communicatively coupled with the sensor node , wherein the computing device is configured to transmit a sensor driver to the base station node and the base station node is configured to transmit the sensor driver to the sensor node via the wireless network, the sensor node being configured to dynamically load the sensor driver, the sensor node being configured to execute the sensor driver to establish communication between the computing device and the CBRNE sensor , wherein the sensor driver is configured for operating, querying and/or controlling the CBRNE sensor ; wherein the CBRNE sensor is configured to collect and transmit CBRNE sensor data to the computing device ; and wherein the computing device is configured to record, interpret and display the CBRNE sensor data. a computing device ; a base station node communicatively coupled with the computing device ; a sensor node communicatively coupled with the base station node via a wireless network; and a CBRNE sensor configured to detect chemical, biological, radiological and/or explosive substances, wherein the CBRNE sensor is communicatively coupled with the sensor node , wherein the computing device is configured to transmit a sensor driver to the base station node and the base station node is configured to transmit the sensor driver to the sensor node via the wireless network, the sensor node being configured to dynamically load the sensor driver, the sensor node being configured to execute the sensor driver to establish communication between the computing device and the CBRNE sensor , wherein the sensor driver is configured for operating, querying and/or controlling the CBRNE sensor ; wherein the CBRNE sensor is configured to collect and transmit CBRNE sensor data to the computing device ; and wherein the computing device is configured to record, interpret and display the CBRNE sensor data.
Active adaptive offset compensation circuit configured to compensate an offset voltage of a magnetoresistive sensor , the circuit comprising an amplifier circuit and the magnetoresistive sensor , the amplifier circuit comprising: a first input terminal and a second input terminal for inputting a differential input signal from the magnetoresistive sensor to be amplified; an output terminal for outputting an amplified output signal; an amplifier having a first amplifier input connected to the first input terminal and a second amplifier input connected to the second input terminal , the amplifier being operable to output an amplified signal at an amplifier output , wherein the amplifier output is connected to the output terminal ; a ramp signal generator for generating a voltage ramp at a ramp signal output , wherein the ramp signal output is connected to the second amplifier input ; a comparator which is connected to the amplifier output and is operable to compare the amplifier output signal to a constant reference voltage (Vref); a reset unit connected to a comparator output , the reset unit being operable, in response to the amplifier output signal being equal to or smaller than the reference voltage (Vref), to stop the ramping operation of the ramp signal generator , so that the ramp signal generator is operable to hold its ramp signal output at a constant value, causing a stable operating point of the amplifier and a compensation of the offset voltage of said magnetoresistive sensor . a first input terminal and a second input terminal for inputting a differential input signal from the magnetoresistive sensor to be amplified; an output terminal for outputting an amplified output signal; an amplifier having a first amplifier input connected to the first input terminal and a second amplifier input connected to the second input terminal , the amplifier being operable to output an amplified signal at an amplifier output , wherein the amplifier output is connected to the output terminal ; a ramp signal generator for generating a voltage ramp at a ramp signal output , wherein the ramp signal output is connected to the second amplifier input ; a comparator which is connected to the amplifier output and is operable to compare the amplifier output signal to a constant reference voltage (Vref); a reset unit connected to a comparator output , the reset unit being operable, in response to the amplifier output signal being equal to or smaller than the reference voltage (Vref), to stop the ramping operation of the ramp signal generator , so that the ramp signal generator is operable to hold its ramp signal output at a constant value, causing a stable operating point of the amplifier and a compensation of the offset voltage of said magnetoresistive sensor .
Prevotella copri for use in a method for minimizing the likelihood of development of allergy in offspring of a female individual; wherein the Prevotella copri is for administration to the female individual.
Method for operating a compressed air system of a vehicle, in particular of a utility vehicle, the compressed air system having at least one compressed air circuit , in particular at least one compressed air brake circuit for braking the vehicle, the compressed air circuit having at least one air accumulator device , in particular at least one air accumulator vessel, for buffer storage of compressed air, a pressure determining device , in particular a pressure sensor, being provided, by means of which the current air pressure in the air accumulator device is determined, a control device being provided, by means of which the air pressure in the air accumulator device is controlled in a manner which is dependent on the determined air pressure, characterized in that , if the determined air pressure undershoots a defined switch-on pressure value (p E1 , p E2 ), the air pressure in the air accumulator device is increased automatically by means of the control device until a defined switch-off pressure value (p A1 , p A2 ) which is configured to be greater than the switch-on pressure value (p E1 , p E2 ), is reached, a loading state determining device being provided, by means of which the current loading state of the vehicle is determined, and in that , in particular in order to decrease the energy consumption of the compressed air system , the switch-on pressure value (p E1 , p E2 ) and/or the switch-off pressure value (p A1 , p A2 ) are/is set and/or adjusted automatically by means of the control device in a manner which is dependent on the determined loading state of the vehicle .
A heat exchanger comprising: a plurality of plate fins which are stacked at intervals and allow a fluid to flow between the plate fins ; and a plurality of heat transfer pipes disposed in the plate fins and in which a medium that exchanges heat with the fluid flows therethrough, wherein each of the plate fins includes a slit structure formed at a portion of the plate fin to form an opening facing a flow direction of the fluid, and a protrusion formed by bending a portion of the plate fin which protrudes in a stack direction of the plate fins and having a slant on an upstream side and a slant on a downstream side in the flow direction of the fluid, and the protrusion has an angle-shaped cross section having a ridge substantially perpendicular to the flow direction of the fluid, the protrusion is disposed on the upstream side of the slit structure in the flow direction of the fluid so that the fluid passed through the protrusion passes the slit structures , characterized in that the slant length on the upstream side of the flow direction of the fluid is smaller that the slant length on the downstream side of the flow direction of the fluid. a plurality of plate fins which are stacked at intervals and allow a fluid to flow between the plate fins ; and a plurality of heat transfer pipes disposed in the plate fins and in which a medium that exchanges heat with the fluid flows therethrough, wherein each of the plate fins includes a slit structure formed at a portion of the plate fin to form an opening facing a flow direction of the fluid, and a protrusion formed by bending a portion of the plate fin which protrudes in a stack direction of the plate fins and having a slant on an upstream side and a slant on a downstream side in the flow direction of the fluid, and a slit structure formed at a portion of the plate fin to form an opening facing a flow direction of the fluid, and a protrusion formed by bending a portion of the plate fin which protrudes in a stack direction of the plate fins and having a slant on an upstream side and a slant on a downstream side in the flow direction of the fluid, and the protrusion has an angle-shaped cross section having a ridge substantially perpendicular to the flow direction of the fluid, the protrusion is disposed on the upstream side of the slit structure in the flow direction of the fluid so that the fluid passed through the protrusion passes the slit structures , characterized in that the slant length on the upstream side of the flow direction of the fluid is smaller that the slant length on the downstream side of the flow direction of the fluid.
A method performed in an electronic device for minimizing downtime in operation of a door system , the method comprising: - obtaining (S0) a maintenance execution information, the maintenance execution information pertaining to information on what service or maintenance that has been carried out on other door systems or the specific door system ; - obtaining (S1) a door system identification information; - obtaining (S2) a status pattern associated with the operation of the door system ; - associating (S3) the obtained status pattern with the door system identification information; - determining (S4) if the obtained status pattern is associated with any of at least one reference status pattern, by comparing the obtained status pattern with the at least one reference status pattern; - associating (S5) the determined reference status pattern with the door system identification information; - generating (S6) a door maintenance information; wherein generating the door maintenance information is based on the door system identification information, and the maintenance execution information. - obtaining (S0) a maintenance execution information, the maintenance execution information pertaining to information on what service or maintenance that has been carried out on other door systems or the specific door system ; - obtaining (S1) a door system identification information; - obtaining (S2) a status pattern associated with the operation of the door system ; - associating (S3) the obtained status pattern with the door system identification information; - determining (S4) if the obtained status pattern is associated with any of at least one reference status pattern, by comparing the obtained status pattern with the at least one reference status pattern; - associating (S5) the determined reference status pattern with the door system identification information; - generating (S6) a door maintenance information;
A method for operating a base station, BS, in a wireless communication network, the method comprising: defining one or more low duty cycle, LDC, patterns based on plurality of LDC parameters associated with the BS, wherein the plurality of LDC parameters includes an active period, an inactive period and a start frame offset of the BS in the wireless communication network, wherein the BS is at least one of a femtocell base station and a macrocell base station; and sending the one or more LDC patterns notifying start frame offset, available interval, AI, and unavailable interval, UAI, of each of the one or more LDC patterns to a mobile station, MS, using at least one of: broadcast the one or more LDC patterns to one or more MS; unicast the one or more LDC patterns to a MS; and multicast the one or more LDC patterns to a group of MS, wherein the AI is an interval in which its preamble and system information is broadcasted, the UAI is an interval in which nothing is transmitted; and wherein a start frame of the AI is determined based on the start frame offset, the AI, the UAI and information on frequency allocation, FA, where the BS operates. defining one or more low duty cycle, LDC, patterns based on plurality of LDC parameters associated with the BS, wherein the plurality of LDC parameters includes an active period, an inactive period and a start frame offset of the BS in the wireless communication network, wherein the BS is at least one of a femtocell base station and a macrocell base station; and sending the one or more LDC patterns notifying start frame offset, available interval, AI, and unavailable interval, UAI, of each of the one or more LDC patterns to a mobile station, MS, using at least one of: broadcast the one or more LDC patterns to one or more MS; unicast the one or more LDC patterns to a MS; and multicast the one or more LDC patterns to a group of MS, wherein the AI is an interval in which its preamble and system information is broadcasted, the UAI is an interval in which nothing is transmitted; and wherein a start frame of the AI is determined based on the start frame offset, the AI, the UAI and information on frequency allocation, FA, where the BS operates. broadcast the one or more LDC patterns to one or more MS; unicast the one or more LDC patterns to a MS; and multicast the one or more LDC patterns to a group of MS, wherein the AI is an interval in which its preamble and system information is broadcasted, the UAI is an interval in which nothing is transmitted; and wherein a start frame of the AI is determined based on the start frame offset, the AI, the UAI and information on frequency allocation, FA, where the BS operates.
A flow control valve in which a needle-shaped valve element is fitted into a valve hole provided in a partition wall partitioning a flow path at an intermediate portion, and the valve element is configured to move in an axial direction of the valve element to control a flow rate of a fluid passing between an outer side surface of the valve element and an inner side surface of the valve hole , the flow control valve comprising: a tapered inner side surface that is included in the inner side surface of the valve hole ; a tapered outer side surface that is included in the outer side surface of the valve element , faces the tapered inner side surface from inside, and is inclined along the tapered inner side surface ; and abutting portions that are disposed on the larger-diameter side relative to the tapered outer side surface of the valve element and the tapered inner side surface of the valve hole , and abut on each other to bring the flow control valve into a valve closed state, wherein there is a gap between the tapered outer side surface and the tapered inner side surface in the valve closed state, characterised in that the tapered inner side surface facing the tapered outer side surface of the valve element substantially in parallel is provided on the inner side surface of the valve hole . a tapered inner side surface that is included in the inner side surface of the valve hole ; a tapered outer side surface that is included in the outer side surface of the valve element , faces the tapered inner side surface from inside, and is inclined along the tapered inner side surface ; and abutting portions that are disposed on the larger-diameter side relative to the tapered outer side surface of the valve element and the tapered inner side surface of the valve hole , and abut on each other to bring the flow control valve into a valve closed state, wherein there is a gap between the tapered outer side surface and the tapered inner side surface in the valve closed state, characterised in that the tapered inner side surface facing the tapered outer side surface of the valve element substantially in parallel is provided on the inner side surface of the valve hole .
A method for obtaining purified recombinant Adeno-Associated Virus (rAAV) particles, comprising the steps of: a) performing a depth filtration of a starting material previously obtained from cells producing rAAV particles, said starting material comprising a cell lysate and/or a culture supernatant, whereby a rAAV-containing clarified composition is provided; b) adjusting the pH of the rAAV-containing clarified composition at a basic pH so as to ensure optimal retention of the rAAV particles on the chromatographic support used at step c); c) submitting the rAAV-containing clarified composition of step b) to a first step of anion-exchange chromatography on a chromatographic support, wherein elution is performed by using a linear salt gradient and wherein the rAAV-containing fraction is collected, whereby a first rAAV-enriched composition is provided; d) submitting the first rAAV-enriched composition at least once to a second step of anion-exchange chromatography on a chromatographic support wherein elution is performed by using a linear salt gradient and wherein the rAAV-containing fraction is collected, whereby a second rAAV-enriched composition is provided; e) submitting the second rAAV-enriched composition to a step of tangential flow filtration, whereby purified recombinant Adeno-Associated Virus (rAAV) particles are provided, wherein said method comprises neither an apatite chromatography nor a cation-exchange chromatography step, and wherein said rAAV particles belong to an AAV capsid serotype selected from the group consisting of AAV5, AAV8, AAV9 and AAV2. a) performing a depth filtration of a starting material previously obtained from cells producing rAAV particles, said starting material comprising a cell lysate and/or a culture supernatant, whereby a rAAV-containing clarified composition is provided; b) adjusting the pH of the rAAV-containing clarified composition at a basic pH so as to ensure optimal retention of the rAAV particles on the chromatographic support used at step c); c) submitting the rAAV-containing clarified composition of step b) to a first step of anion-exchange chromatography on a chromatographic support, wherein elution is performed by using a linear salt gradient and wherein the rAAV-containing fraction is collected, whereby a first rAAV-enriched composition is provided; d) submitting the first rAAV-enriched composition at least once to a second step of anion-exchange chromatography on a chromatographic support wherein elution is performed by using a linear salt gradient and wherein the rAAV-containing fraction is collected, whereby a second rAAV-enriched composition is provided; e) submitting the second rAAV-enriched composition to a step of tangential flow filtration, whereby purified recombinant Adeno-Associated Virus (rAAV) particles are provided, wherein said method comprises neither an apatite chromatography nor a cation-exchange chromatography step, and wherein said rAAV particles belong to an AAV capsid serotype selected from the group consisting of AAV5, AAV8, AAV9 and AAV2.
A method implemented by a network node of a cellular communication network, serving a plurality of user devices , comprising: determining a transmission routine for each of a plurality of SCells , using radio channels in an unlicensed spectrum, each transmission routine having an associated transmission period, based on a downlink, DL, buffer status such that if the DL buffer for a mobile device is below a defined threshold, a corresponding SCell transmission period is skipped; time multiplexing transmission from the plurality of SCells to the plurality of user devices by executing the transmission routines during their respective transmission periods, wherein a communication cycle includes a sequence of the transmission routines for the plurality of SCells, the method further comprising executing additional communication cycles based on the downlink buffer status. determining a transmission routine for each of a plurality of SCells , using radio channels in an unlicensed spectrum, each transmission routine having an associated transmission period, based on a downlink, DL, buffer status such that if the DL buffer for a mobile device is below a defined threshold, a corresponding SCell transmission period is skipped; time multiplexing transmission from the plurality of SCells to the plurality of user devices by executing the transmission routines during their respective transmission periods, wherein a communication cycle includes a sequence of the transmission routines for the plurality of SCells, the method further comprising executing additional communication cycles based on the downlink buffer status.
Securing device designed to be mounted on a wall of a suitcase with wheels , comprising a main attachment element capable of being fixed onto an auxiliary attachment element incorporated in another suitcase , and a releasing actuator capable of releasing the main attachment element from the auxiliary attachment element , the securing device comprising a hollow cylinder , means for fixing the hollow cylinder onto a frame of the suitcase , the means for fixing comprising a pivot link element ensuring the mechanical link between a first end of the hollow cylinder and the means for fixing , the main attachment element comprising a protruding cylindrical part secured to the hollow cylinder and extending in a direction at right angles to the axial direction of the hollow cylinder , and a hooking element arranged inside the protruding cylindrical part , the hollow cylinder comprising, at a second end opposite the first end , a device for manually actuating the pivoting of the hollow cylinder .
A latch for a closing lock of a gate , the gate being able to adopt a closed position relative to a barrier frame and to pivot on a first side or on a second side of the barrier frame from the closed position, the latch comprising: - a locking member intended to cooperate with a bolt to retain the gate in the closed position, - an obstacle movable between a first extreme position and a second extreme position, in which positions the obstacle is configured to free access to the locking member from the first or the second side of the barrier frame respectively, characterized in that it comprises at least one guide aperture , defining a path of displacement of the obstacle between the first extreme position and the second extreme position. - a locking member intended to cooperate with a bolt to retain the gate in the closed position, - an obstacle movable between a first extreme position and a second extreme position, in which positions the obstacle is configured to free access to the locking member from the first or the second side of the barrier frame respectively,