mhurhangee/patent-ind-claim-en huggingface dataset:
An audio processing device comprising: a position information correction unit configured to calculate corrected position information indicating a position of a sound source relative to a listening position at which sound from the sound source is heard in a virtual sound field, the calculation being based on position information indicating the position of the sound source relative to a predetermined standard listening position, and listening position information indicating the listening position; a generation unit configured to generate a plurality of reproduction signals on M channels, M being 2 or more, reproducing sound from the sound source to be heard at the listening position, based on a waveform signal of the sound source and the corrected position information; and characterised by a correction unit configured to perform frequency characteristic correction on the waveform signal depending on a distance from the sound source to the listening position, such that if the distance exceeds a distance from the sound source to the predetermined standard listening position, frequency components of the waveform signal are attenuated, and if the distance does not exceed the distance from the sound source to the predetermined standard listening position, the frequency components of the waveform signal are not attenuated. a position information correction unit configured to calculate corrected position information indicating a position of a sound source relative to a listening position at which sound from the sound source is heard in a virtual sound field, the calculation being based on position information indicating the position of the sound source relative to a predetermined standard listening position, and listening position information indicating the listening position; a generation unit configured to generate a plurality of reproduction signals on M channels, M being 2 or more, reproducing sound from the sound source to be heard at the listening position, based on a waveform signal of the sound source and the corrected position information; and characterised by a correction unit configured to perform frequency characteristic correction on the waveform signal depending on a distance from the sound source to the listening position, such that if the distance exceeds a distance from the sound source to the predetermined standard listening position, frequency components of the waveform signal are attenuated, and if the distance does not exceed the distance from the sound source to the predetermined standard listening position, the frequency components of the waveform signal are not attenuated.
Method for detecting a volatile analyte for categorization and separation of cork stoppers according to the concentration of the said analyte, characterized in that said method comprises at least one cycle in which: a) the cork stoppers are separately or jointly taken to an incubation chamber wherein an incubation period begins, and which remains closed during the incubation period by means of a selector valve which will be opened to remove the gas sample for analysis; b) air or nitrogen is injected into the incubation chamber , dragging the gas enriched with the cork volatile compounds and leading it to the concentration system which contains a trap , the latter being at a temperature equal to or lower than room temperature, and concentrating the volatile compounds for analysis by adsorption or affinity; c) the trap is heated to a temperature within the range of 80°C to 300°C for a period of time of 10 to 60 seconds, for desorption of the volatile compounds; d) the volatile compounds are led by the dragging gas to a detection system by means of a heated tube; e) the detection system registers a signal related to the presence of the analyte, said signal being used for : the purposes of classifying the cork stopper or groups of cork stoppers; f) software receives the signal and compares it with an established minimum limit, making a decision of approval or rejection of said cork stopper or groups of cork stoppers. a) the cork stoppers are separately or jointly taken to an incubation chamber wherein an incubation period begins, and which remains closed during the incubation period by means of a selector valve which will be opened to remove the gas sample for analysis; b) air or nitrogen is injected into the incubation chamber , dragging the gas enriched with the cork volatile compounds and leading it to the concentration system which contains a trap , the latter being at a temperature equal to or lower than room temperature, and concentrating the volatile compounds for analysis by adsorption or affinity; c) the trap is heated to a temperature within the range of 80°C to 300°C for a period of time of 10 to 60 seconds, for desorption of the volatile compounds; d) the volatile compounds are led by the dragging gas to a detection system by means of a heated tube; e) the detection system registers a signal related to the presence of the analyte, said signal being used for : the purposes of classifying the cork stopper or groups of cork stoppers; f) software receives the signal and compares it with an established minimum limit, making a decision of approval or rejection of said cork stopper or groups of cork stoppers.
Vane for a turbine engine stator, comprising: - a body in the form of an aerodynamic profile formed by a shell produced from a composite material formed by a three-dimensional textile of reinforcement fibres consolidated by a hardened resin, the shell forming a pressure surface of the vane and a suction surface of the vane connected to each other while forming, on one side, a leading edge of the vane, and on the opposite side a trailing edge of the vane, and - a core comprising a core body in the form of an aerodynamic profile surrounded by the shell , characterised in that the core is produced from a non-porous plastics material, and the core body delimits at least one closed cavity (68; 68A-68D) of the core . - a body in the form of an aerodynamic profile formed by a shell produced from a composite material formed by a three-dimensional textile of reinforcement fibres consolidated by a hardened resin, the shell forming a pressure surface of the vane and a suction surface of the vane connected to each other while forming, on one side, a leading edge of the vane, and on the opposite side a trailing edge of the vane, and - a core comprising a core body in the form of an aerodynamic profile surrounded by the shell ,
A beverage comprising at least one sweetener and at least one dihydrochalcone, wherein the dihydrochalcone is selected from hesperetin dihydrochalcone and hesperetin dihydrochalcone-4'-β-D-glucoside, and wherein the sweetener comprises Rebaudioside M in a sweetening amount or at least one of siamenoside I and the 1,6-α isomer of siamenoside I in a sweetening amount.
Pressure compensation device for compensating an internal pressure in a housing of an electrochemical device, comprising at least one gas-permeable membrane for gas exchange between an interior of the housing and surroundings of the electrochemical device, wherein the pressure compensation device comprises a valve body which can be transferred from a home position resting on a valve seat into a use position remote from the valve seat , wherein the valve body comprises a valve surface to which the internal pressure is applied, characterized in that the valve body comprises a gas throughflow opening that is sealed by the gas-permeable membrane and in that the valve surface is formed by a surface of the gas-permeable membrane at least in part, and in that , when the valve body is in the home position, gas is guided along a gas-exchange path , wherein a gas exchange takes place through the gas-permeable membrane , and in that , when the valve body is in the use position, gas is guided along a flow path which differs from the gas exchange path and which extends around the valve body and the gas-permeable membrane .
Gas cooking appliance with a gas device and a gas pipe that are connected to one another by means of a connecting arrangement of the gas pipe of the gas appliance to a gas connection of the gas device of the gas cooking appliance, the connecting arrangement of the gas cooking appliance comprising a connecting device to connect the gas pipe to the gas connection , wherein the gas connection has an opening with an opening inner surface having a diameter bigger than a diameter of a pipe outer surface of the gas pipe , which define an opening tubular space between them, the connecting device has an insertion part inserted in the mounting axial direction of the gas pipe into the opening tubular space with a meshing section fixed at least axially to the opening inner surface and a gripping section in contact with the pipe outer surface of the gas pipe , wherein the connecting arrangement also comprises a sealing device mounted in the opening tubular space between the pipe outer surface and the opening inner surface , characterized in that the sealing device is made in one piece with the connecting device .
A composite negative electrode material, wherein the composite negative electrode material comprises a carbon core and a carbon coating layer, wherein the carbon coating layer is a carbon layer that coats a surface of the carbon core, and the carbon core comprises a first doping element, characterized in that the first doping element is at least one of element B, or Cl, wherein the carbon coating layer comprises a second doping element and the second doping element is at least two of elements N, P, B, S, O, F, Cl, and H, and the first doping element and the second doping element may be the same or not.
Load-force-independent triggering device for a load exerting force thereon, which is held in a CLOSED position of the triggering device and is released in an OPEN position of the triggering device , having a housing and a release lever , which is connected to a release pawl via a steering lever , wherein the release lever is rotatably mounted on a first housing axis , the release pawl is rotatably mounted on a second housing axis and the steering lever is rotatably mounted on a first steering lever axis on the release lever and on a second steering lever axis on the release pawl , as well as having a spring device , acting at least on the release lever , and a locking device by means of which the triggering device is fixed in the CLOSED position, characterized in that the steering lever is angular and abuts a first contact surface in the housing in the CLOSED position of the triggering device and abuts a second contact surface in the housing in the OPEN position of the triggering device , wherein the two steering lever axes are positioned on the first contact surface of the steering lever directly in front of a self-maintaining dead-centre position relative to the first housing axis and on the second contact surface of the steering lever outside of the dead-centre position , and in that the spring device is designed as a tension spring , which is arranged between the release lever and the release pawl and in the CLOSED position of the triggering device exerts a force on the release lever in the direction of the OPEN position of the triggering device .
Helicopter light system for arranging on a helicopter , comprising - a rotor blade tip comprising at least one layer material arranged on the rotor blade tip and comprising at least one light emitting section that emits light after absorption of photons, wherein the at least one layer material is arranged on a side of the rotor blade tip of the helicopter facing the helicopter body when installed, embedded in a glass-fiber housing on the rotor blade tip , and - at least one remote light source (71-74) that is configured to be arranged on the helicopter body and to direct light onto the layer material for emitting visible light by the at least one layer material during rotation of the rotor blade of the helicopter. - a rotor blade tip comprising at least one layer material arranged on the rotor blade tip and comprising at least one light emitting section that emits light after absorption of photons, wherein the at least one layer material is arranged on a side of the rotor blade tip of the helicopter facing the helicopter body when installed, embedded in a glass-fiber housing on the rotor blade tip , and - at least one remote light source (71-74) that is configured to be arranged on the helicopter body and to direct light onto the layer material for emitting visible light by the at least one layer material during rotation of the rotor blade of the helicopter.
An integrated circuit comprising: a first network interface processor for communicating with a first network ; a second network interface processor for communicating with a second network , wherein the second network interface processor is a separate processor from the first network interface processor; and a first unidirectional interconnect connecting the first and second network interface processors; wherein the first unidirectional interconnect is configured to allow data transfer from the first network interface processor to the second network interface processor via the first unidirectional interconnect and to prevent data transfer from the second network interface processor to the first network interface processor via the first unidirectional interconnect, wherein the first unidirectional interconnect comprises a first switch configured to disable the first unidirectional interconnect such that no data transfer between the first network interface processor and the second network interface processor via the first unidirectional interconnect is possible when the first switch is open, operation of the first switch being made from a secure area having a root of trust, wherein the first network interface processor is configured to transmit data to the second network interface processor via the first unidirectional interconnect; and the second network interface processor is configured to receive data from the first network interface processor via the first unidirectional interconnect. a first network interface processor for communicating with a first network ; a second network interface processor for communicating with a second network , wherein the second network interface processor is a separate processor from the first network interface processor; and a first unidirectional interconnect connecting the first and second network interface processors; wherein the first unidirectional interconnect is configured to allow data transfer from the first network interface processor to the second network interface processor via the first unidirectional interconnect and to prevent data transfer from the second network interface processor to the first network interface processor via the first unidirectional interconnect, wherein the first unidirectional interconnect comprises a first switch configured to disable the first unidirectional interconnect such that no data transfer between the first network interface processor and the second network interface processor via the first unidirectional interconnect is possible when the first switch is open, operation of the first switch being made from a secure area having a root of trust, wherein the first network interface processor is configured to transmit data to the second network interface processor via the first unidirectional interconnect; and the second network interface processor is configured to receive data from the first network interface processor via the first unidirectional interconnect.
Method for ascertaining at least one individual fluid-dynamic characteristic parameter of a stenosis in a vascular segment of a body vessel having a number of serial stenoses , wherein - from an angiography recording device angiography image data of the vascular segment is received, - geometry data (A, D) of the vascular segment is ascertained by an analysis arrangement on the basis of the angiography image data and combined to form a segment model of the vascular segment , - at least one division point which is located between two of the stenoses respectively, is ascertained by a dividing arrangement in the segment model by means of a predetermined division criterion and the segment model is subdivided into subsegment models respectively at the at least one division point , and - the respective fluid-dynamic characteristic parameter is ascertained by a simulation arrangement for at least one of the subsegment models based on respective geometry data (A, D) of the subsegment model , characterised in that the respective geometry data (A, D) of each remaining subsegment model is ignored when the fluid-dynamic characteristic parameter of the respective subsegment model is ascertained and the influence of the respective other stenosis is instead eliminated by the simulation arrangement for determining the fluid-dynamic characteristic parameter the subsegment model at each division point by interpolation of a heathy vessel path on an inlet surface and an outlet surface of the subsegment model , by the subsegment model being supplemented at each division point by geometry data of a virtual stenosis-free interpolated vessel path . - from an angiography recording device angiography image data of the vascular segment is received, - geometry data (A, D) of the vascular segment is ascertained by an analysis arrangement on the basis of the angiography image data and combined to form a segment model of the vascular segment , - at least one division point which is located between two of the stenoses respectively, is ascertained by a dividing arrangement in the segment model by means of a predetermined division criterion and the segment model is subdivided into subsegment models respectively at the at least one division point , and - the respective fluid-dynamic characteristic parameter is ascertained by a simulation arrangement for at least one of the subsegment models based on respective geometry data (A, D) of the subsegment model ,
A pneumatic tire for use on trucks, the tire having a tread , sidewalls, a carcass a pair of beads, and a belt structure located radially inward of the tread , the belt structure comprising a first working belt and a second working belt , the first working belt being located radially inward of the second working belt , wherein the angle of the first and second working belts range from 10 degrees to 50 degrees from the circumferential direction, wherein a zigzag belt is located radially inward of the first working belt or between the first working belt and the second working belt , wherein a rubber spacer layer is located between the zigzag belt and the carcass of the tire or between the first working belt and the carcass of the tire , and wherein the zigzag belt has an axial width that is less than the axial width of the first and the second working belt .
Air guiding element for a ventilation nozzle in a motor vehicle, comprising a main body which can at least partly encompass the cross-section of the ventilation nozzle and on which air guiding ribs are arranged, and comprising a lighting device , characterized in that the main body and the air guiding ribs are produced in one piece by means of 3D multicomponent printing, the main body having a transparent core , parts of the surface of the main body and of the air guiding ribs being printed onto the core , at least some from a partially transparent material and at least some from a nontransparent material , and the core , seen in cross-section, being formed from two legs converging at an acute angle, between which a cavity is formed, the lighting device coupling light from the side facing away from the acute angle into the legs and/or the cavity .
A heat exchanger for recovering heat contained in a first flowable material, said heat exchanger comprising a first receiving receptacle having a first cavity for receiving said first flowable material, said first cavity being defined by a first wall and a first bottom part , and having a first drain in said bottom part for discharging said first flowable material, and a first means for absorbing heat having a first inlet for receiving a second flowable material to be heated by said first flowable material and a first outlet for discharging said second flowable material heated by said first flowable material, said first means for absorbing heat being arranged to form at least a part of said first bottom part of said first receiving receptacle , wherein said heat exchanger comprises at least one further receiving receptacle positioned in series with said first receiving receptacle and having a second cavity for receiving said first flowable material, said second cavity being defined by a second wall and a second bottom part , and having a second drain in said second bottom part for discharging said first flowable material; and a second means for absorbing heat having a second inlet for receiving a second flowable material to be heated by said first flowable material and a second outlet for discharging said second flowable material heated by said first flowable material, said second means for absorbing heat being arranged to form at least a part of said second bottom part of said further receiving receptacle , said first drain of said first receiving receptacle is in communication with a means for directing said first flowable material onto the second bottom part , wherein said means guide the flowable material onto at least a portion of said second bottom part of said further receiving receptacle in a direction not coinciding with the direct path towards said second drain , said means comprises a conduit having a first end mounted in communication with said first drain on said first bottom part of said first receiving receptacle and a second end extending beyond said first bottom part into said second cavity of said further receiving receptacle , characterised in that said first drain for discharging said first flowable material is positioned substantially in the centre of said bottom part , and is in communication with said means for directing said first flowable material onto the second bottom part , wherein said means is positioned under said first receiving receptacle , and extending at first substantially radially (r) from the centre of said bottom part towards or beyond said second wall of said further receptacle , and, changing thereupon, when being close to said second wall , its direction of extension to a substantially tangential direction (t), such that the flowable material is introduced onto the second bottom part near said second wall with a velocity component in a tangential direction (t).
Method for determining a weight (F a ) of a payload carried by a supporting structure of an agricultural utility vehicle by way of a power lift , wherein the power lift has at least one upper link and at least one lower link , which is fastened in an articulated manner by way of a supporting bearing and can be pivoted by means of a lifting cylinder by way of a lifting arm and a lifting spindle , and wherein the weight (F a ) is determined on the basis of an angle (α) between the upper link and a vehicle horizontal or a holding force (Fo) acting on a connection between the upper link and the payload and effective along the upper link , in each case in conjunction with a tractive force (F U ), measured at the supporting bearing by means of a force measuring pin , and a pressure (F Z ), measured in the lifting cylinder , wherein the tractive force (Fu) and the measured pressure (Fz) are used for calculating the force components (Fum,x and Fum,y).