mhurhangee/patent-ind-claim-en huggingface dataset:
A detection device comprising: n number of sensors (30 to 39) arrayed in a direction, in which n is an integer of 3 or more and from which n-1 pairs of adjacent sensors are formed; and a processor which determines one specified position in the direction based on output values of the n number of sensors (30 to 39), wherein the processor calculates n-1 sets of difference values each of which is a difference between two output values corresponding to each of the n-1 pairs of sensors, and determines the one specified position based on the n-1 sets of difference values and correlation positions corresponding to the n-1 sets of difference values and indicating positions correlated with array positions of each pair of sensors (30 to 39) characterized by a mouthpiece to be held in mouth of an instrument player, wherein a plurality of sensors (20, 30 to 40) are arrayed from one end side toward an other end side of a reed section of the mouthpiece and each detect a contact status of a lip, and wherein the processor calculates the n-1 sets of difference values with the n number of sensors (30 to 39) selected from the plurality of sensors (20, 30 to 40) as targets. n number of sensors (30 to 39) arrayed in a direction, in which n is an integer of 3 or more and from which n-1 pairs of adjacent sensors are formed; and a processor which determines one specified position in the direction based on output values of the n number of sensors (30 to 39), wherein the processor calculates n-1 sets of difference values each of which is a difference between two output values corresponding to each of the n-1 pairs of sensors, and determines the one specified position based on the n-1 sets of difference values and correlation positions corresponding to the n-1 sets of difference values and indicating positions correlated with array positions of each pair of sensors (30 to 39) characterized by a mouthpiece to be held in mouth of an instrument player, wherein a plurality of sensors (20, 30 to 40) are arrayed from one end side toward an other end side of a reed section of the mouthpiece and each detect a contact status of a lip, and wherein the processor calculates the n-1 sets of difference values with the n number of sensors (30 to 39) selected from the plurality of sensors (20, 30 to 40) as targets.
An aerosol provision system comprising: a liquid storage area comprising a liquid formulation; an aerosol generating area; a membrane disposed between the liquid storage area and the aerosol generating area, said membrane fluidly communicating the liquid storage area with the aerosol generating area; wherein the liquid formulation has a water content of at least 18% w/w; and wherein the aerosol generating area comprises an aerosol generating component. a liquid storage area comprising a liquid formulation; an aerosol generating area; a membrane disposed between the liquid storage area and the aerosol generating area, said membrane fluidly communicating the liquid storage area with the aerosol generating area; wherein the liquid formulation has a water content of at least 18% w/w; and wherein the aerosol generating area comprises an aerosol generating component.
An elastic wiring comprising: an elastic tube ; a conductor wire arranged within the tube; and fixing portions, each including a caulking member , that fix the conductor wire and the tube at both ends of the tube in the lengthwise direction, wherein the length of the conductor wire between the fixing portions when the tube is in an unextended state is longer than the length of the tube between the fixing portions, characterized in that : each of the caulking members comprises a male member and a female member ; the male member comprises a first flat plate portion and a fitting convex portion that is provided on the first flat plate portion ; the female member comprises a second flat plate portion and a fitting concave portion that is provided on the second flat plate portion ; and the conductor wire and the tube are caulked by the first flat plate portion and the second flat plate portion in a state of the fitting convex portion and the fitting concave portion being fitted together. an elastic tube ; a conductor wire arranged within the tube; and fixing portions, each including a caulking member , that fix the conductor wire and the tube at both ends of the tube in the lengthwise direction, wherein the length of the conductor wire between the fixing portions when the tube is in an unextended state is longer than the length of the tube between the fixing portions, characterized in that : each of the caulking members comprises a male member and a female member ; the male member comprises a first flat plate portion and a fitting convex portion that is provided on the first flat plate portion ; the female member comprises a second flat plate portion and a fitting concave portion that is provided on the second flat plate portion ; and the conductor wire and the tube are caulked by the first flat plate portion and the second flat plate portion in a state of the fitting convex portion and the fitting concave portion being fitted together. each of the caulking members comprises a male member and a female member ; the male member comprises a first flat plate portion and a fitting convex portion that is provided on the first flat plate portion ; the female member comprises a second flat plate portion and a fitting concave portion that is provided on the second flat plate portion ; and the conductor wire and the tube are caulked by the first flat plate portion and the second flat plate portion in a state of the fitting convex portion and the fitting concave portion being fitted together.
A method performed at a wireless device, WD, the WD in wireless communication with a network node of a wireless communications network, the WD configured to communicate across at least a first carrier and a second carrier, the method comprising: monitoring a downlink control channel on the first carrier and a downlink control channel on the second carrier; the method characterised in further comprising: receiving (1110; 1506) a second command from the network node to stop monitoring a downlink control channel on the first carrier or the second carrier; and based on receiving the second command from the network node, ceasing (1112; 1508) to monitor the downlink control channel on the first carrier or the downlink control channel on the second carrier. monitoring a downlink control channel on the first carrier and a downlink control channel on the second carrier; the method characterised in further comprising: receiving (1110; 1506) a second command from the network node to stop monitoring a downlink control channel on the first carrier or the second carrier; and based on receiving the second command from the network node, ceasing (1112; 1508) to monitor the downlink control channel on the first carrier or the downlink control channel on the second carrier. receiving (1110; 1506) a second command from the network node to stop monitoring a downlink control channel on the first carrier or the second carrier; and based on receiving the second command from the network node, ceasing (1112; 1508) to monitor the downlink control channel on the first carrier or the downlink control channel on the second carrier.
A liquefier for use in an extrusion-based additive manufacturing system , the liquefier describing a passageway (P) having an inlet portion with a substantially circular cross-section for receipt of a filament of material and an outlet downstream of the inlet portion, wherein the passageway transitions from the inlet portion to a non-circular portion downstream of the inlet portion and the non-circular portion or a segment thereof splays or flares toward a substantially circular portion at or toward the outlet, the non-circular portion having a non-circular cross-section.
A Stirling engine comprising: - a crank case with a crank shaft arranged therein, - a displacer cylinder with a reciprocatingly arranged displacer piston therein, said displacer piston being connected to said crank shaft via a connecting rod extending through a first end of said displacer cylinder , and wherein the displacer cylinder defines a hot chamber and a cool chamber separated by the displacer piston , - a working cylinder defining a working cylinder chamber with a reciprocatingly arranged working piston therein, said working piston being connected to said crank shaft via a connecting rod extending through a first end of the working cylinder , - a heater device , arranged at a second end of said displacer cylinder opposite to said first end and configured to heat a working gas which is present in the hot chamber of the displacer cylinder and in fluid communication with the working cylinder chamber through a working gas channel which comprises - a first heat exchanger extending from a head of the displacer cylinder into the heater device , - a second heat exchanger formed by a regenerator arranged outside the heater device , and - a third heat exchanger formed by a cooler arranged between the regenerator and the working cylinder chamber , said Stirling engine being characterised in that , at any point along the working gas channel, as seen cross wise to an assumed working gas flow direction through the working gas channel, the cross section area of the working gas channel defined by the first, second and third heat exchangers is within the range of the medium cross section area of the working gas channel +/- 10%. - a crank case with a crank shaft arranged therein, - a displacer cylinder with a reciprocatingly arranged displacer piston therein, said displacer piston being connected to said crank shaft via a connecting rod extending through a first end of said displacer cylinder , and wherein the displacer cylinder defines a hot chamber and a cool chamber separated by the displacer piston , - a working cylinder defining a working cylinder chamber with a reciprocatingly arranged working piston therein, said working piston being connected to said crank shaft via a connecting rod extending through a first end of the working cylinder , - a heater device , arranged at a second end of said displacer cylinder opposite to said first end and configured to heat a working gas which is present in the hot chamber of the displacer cylinder and in fluid communication with the working cylinder chamber through a working gas channel which comprises - a first heat exchanger extending from a head of the displacer cylinder into the heater device , - a second heat exchanger formed by a regenerator arranged outside the heater device , and - a third heat exchanger formed by a cooler arranged between the regenerator and the working cylinder chamber ,
A tamping unit having tamping levers which, at a lower end , are connected to tamping tines and are movable towards one another in pairs about a pivot axis in a squeezing motion , wherein said tamping levers are connected at an upper end to a hydraulic squeezing drive designed for carrying out the squeezing motion and a vibration superimposed thereon, characterized in that a first pressure chamber for producing the squeezing motion, a second pressure chamber for producing an opening motion directed opposite to the squeezing motion, and a third pressure chamber for producing vibrations are arranged in a hydraulic cylinder - having a squeezing piston with a piston rod - of the squeezing drive .
A method comprising receiving information about a multimedia content to be delivered to at least one passenger in a vehicle; receiving information about a route of the at least one passenger; locating a first and a second wireless link along the route and a first and a second storage device in functional connection with a corresponding wireless link, wherein the first and the second wireless links have different ranges and are operated according to wireless access technology defined in IEEE standard 802.11ad; determining a duration of playback of the multimedia content; splitting the multimedia content into a first and a second piece of data based at least partly on a predefined stopping schedule of the vehicle comprising at least one data storage within range of the first and the second wireless link; distributing the first and the second piece of data to the first and the second storage device, respectively; delivering , in response to the vehicle stopping within range of the first wireless link, the first piece of data to the at least one data storage in the vehicle for further delivery to the at least one passenger; and delivering , in response to the vehicle stopping within range of the second wireless link, the second piece of data to the at least one data storage in the vehicle for further delivery to the at least one passenger.
A method performed by a wireless device for receiving positioning system information from a radio network node , wherein the wireless device and the radio network node operate in a wireless communications network , wherein the method comprises: - receiving , from the radio network node , positioning system information broadcast scheduling information, pSI, comprising information about positioning System Information Blocks, pSIBs, that are comprised in a System Information, SI, message; - receiving , from the RNN , an indication that a pSIB is segmented into pSIB segments; - determining based on the indication and on the pSI whether or not the pSIB segments are scheduled via contiguous scheduling; - when the pSIB segments are determined to be scheduled via contiguous scheduling, monitoring scheduled resources and retrieving the contiguously scheduled pSIB segments; and - decoding position system information of the retrieved pSIB segments. - receiving , from the radio network node , positioning system information broadcast scheduling information, pSI, comprising information about positioning System Information Blocks, pSIBs, that are comprised in a System Information, SI, message; - receiving , from the RNN , an indication that a pSIB is segmented into pSIB segments; - determining based on the indication and on the pSI whether or not the pSIB segments are scheduled via contiguous scheduling; - when the pSIB segments are determined to be scheduled via contiguous scheduling, monitoring scheduled resources and retrieving the contiguously scheduled pSIB segments; and - decoding position system information of the retrieved pSIB segments.
A kneading machine, comprising: - a first kneading tool and a second kneading tool , which turn about respective axes of rotation (I1, 12); and - a system for driving said kneading tools (I1, I2) configured to drive said first and second tools according to a given phase difference for execution of a kneading action; said machine being characterized in that it comprises: - a first driving unit prearranged for driving said first tool ; - a second driving unit prearranged for driving said second tool ; - a first sensor for detecting a datum indicating the angular position or the velocity of rotation of said first tool ; - a second sensor for detecting a datum indicating the angular position or the velocity of rotation of said second tool ; and - a control unit configured to control said first and second driving units on the basis of the signals coming from said first and second sensors so as to operate said first and second tools according to a reference phase difference (θ R ), wherein said control unit is configured to receive a signal indicating a reference phase difference and to control said first and second motors on the basis of said signal, characterized in that said machine comprises a sensor designed to detect a parameter indicating the kneading action exerted by said first and second tools , and wherein said control unit is configured to modify the velocity of rotation of said first tool and/or said second tool as a function of a signal coming from said sensor so as to pass from a first reference phase difference to a second reference phase difference. - a first kneading tool and a second kneading tool , which turn about respective axes of rotation (I1, 12); and - a system for driving said kneading tools (I1, I2) configured to drive said first and second tools according to a given phase difference for execution of a kneading action; - a first driving unit prearranged for driving said first tool ; - a second driving unit prearranged for driving said second tool ; - a first sensor for detecting a datum indicating the angular position or the velocity of rotation of said first tool ; - a second sensor for detecting a datum indicating the angular position or the velocity of rotation of said second tool ; and - a control unit configured to control said first and second driving units on the basis of the signals coming from said first and second sensors so as to operate said first and second tools according to a reference phase difference (θ R ), wherein said control unit is configured to receive a signal indicating a reference phase difference and to control said first and second motors on the basis of said signal, characterized in that said machine comprises a sensor designed to detect a parameter indicating the kneading action exerted by said first and second tools , and wherein said control unit is configured to modify the velocity of rotation of said first tool and/or said second tool as a function of a signal coming from said sensor so as to pass from a first reference phase difference to a second reference phase difference.
Apparatus for a communications system of a moving platform comprising a plurality of systems, at least one platform application, and a communications module comprising at least one wireless communications link and configured to effect wireless data communication, wherein said apparatus comprises a communications planning module configured to: - receive data representative of a communications requirement between said platform and a recipient node; - identify a communications link for supporting said communications requirement; the apparatus being characterized in that the communications planning module is further configured to: - determine, using attribute data representative of a position and/or orientation of said platform relative to said recipient node, a distance and direction of said recipient node with respect to said platform; - receive data representative of prevailing emissions control restrictions including an upper emissions limit defining a maximum transmission power permitted to be utilised by an on-board antenna or portion of aperture antenna and an emissions duration value; - determine an optimal transmission power, within said upper emissions limit, of said identified communications link taking into account at least said distance of said recipient node with respect to said platform; and - cause the transmission power of said identified communications link to be set to said optimal transmission power. - receive data representative of a communications requirement between said platform and a recipient node; - identify a communications link for supporting said communications requirement; - determine, using attribute data representative of a position and/or orientation of said platform relative to said recipient node, a distance and direction of said recipient node with respect to said platform; - receive data representative of prevailing emissions control restrictions including an upper emissions limit defining a maximum transmission power permitted to be utilised by an on-board antenna or portion of aperture antenna and an emissions duration value; - determine an optimal transmission power, within said upper emissions limit, of said identified communications link taking into account at least said distance of said recipient node with respect to said platform; and - cause the transmission power of said identified communications link to be set to said optimal transmission power.
A breathing apparatus configured to provide bioelectrically controlled ventilation to a patient by ventilating the patient in a ventilation mode in which patient-triggered breaths are delivered to the patient upon detection of bioelectrical trigger events indicative of spontaneous breathing efforts by the patient, the breathing apparatus comprising a bioelectric sensor arrangement configured to detect a bioelectric signal indicative of the patient's effort to breathe, and a control unit configured to control the ventilation of the patient based on the bioelectric signal detected by the bioelectric sensor arrangement, wherein a bioelectrical trigger event occurs when the bioelectric signal meets a bioelectrical trigger condition, characterised in that the breathing apparatus is configured to monitor a level of ventilation of the patient, and to deliver a non-patient triggered breath to the patient when the level of ventilation falls below a minimum ventilation threshold value, wherein the non-patient triggered breath is independent of the bioelectric signal and is forced onto the patient when the monitored level of ventilation falls below the minimum ventilation threshold value.
An elevator overrun system comprising: a first body arranged to be fixedly mounted to a portion of an elevator system or elevator shaft ; a second body positioned within the first body and moveable from a deployed state to a retracted state relative to the first body ; a lower contact mounted to the first body at a first location; an upper contact mounted to the first body at a second location; characterized in that the elevator overrun system further comprises: a limit switch located at a distal end of the second body , the limit switch configured to interact with a component of the elevator system to prevent movement of an elevator car ; and a second body contact mounted to the second body ; when the second body contact is in contact with the lower contact , the deployed state is indicated, and, when the second body contact is in contact with the upper contact , the retracted state is indicated. a first body arranged to be fixedly mounted to a portion of an elevator system or elevator shaft ; a second body positioned within the first body and moveable from a deployed state to a retracted state relative to the first body ; a lower contact mounted to the first body at a first location; an upper contact mounted to the first body at a second location; characterized in that the elevator overrun system further comprises: a limit switch located at a distal end of the second body , the limit switch configured to interact with a component of the elevator system to prevent movement of an elevator car ; and a second body contact mounted to the second body ; a limit switch located at a distal end of the second body , the limit switch configured to interact with a component of the elevator system to prevent movement of an elevator car ; and a second body contact mounted to the second body ; when the second body contact is in contact with the lower contact , the deployed state is indicated, and, when the second body contact is in contact with the upper contact , the retracted state is indicated.