mhurhangee/patent-ind-claim-en huggingface dataset:
A user terminal comprising: a transmission section configured to perform transmission in a first cell group, CG, and a second CG; and a control section configured to, when the transmission section reports user terminal capability information indicating that the user terminal is capable of sharing transmission power dynamically and when transmission in the first CG overlaps in time with transmission in the second CG, scale transmission power of the second CG so that total transmission power of the transmission in the first CG and the transmission in the second CG does not exceed maximum allowable power, wherein when the transmission section does not report the user terminal capability information, allocate power semi-statically per CG and the control section is further configured not to perform the transmission in the second CG at a timing when the transmission in the second CG overlaps in time with the transmission in the first CG. a transmission section configured to perform transmission in a first cell group, CG, and a second CG; and a control section configured to, when the transmission section reports user terminal capability information indicating that the user terminal is capable of sharing transmission power dynamically and when transmission in the first CG overlaps in time with transmission in the second CG, scale transmission power of the second CG so that total transmission power of the transmission in the first CG and the transmission in the second CG does not exceed maximum allowable power, wherein when the transmission section does not report the user terminal capability information, allocate power semi-statically per CG and the control section is further configured not to perform the transmission in the second CG at a timing when the transmission in the second CG overlaps in time with the transmission in the first CG.
A gas sensor comprising a chamber , able to receive the gas , the sensor also comprising: ▪ a light source , able to emit a light wave that propagates through the chamber in an emission cone (Ω1); ▪ a measurement photodetector and a reference photodetector , each being able to detect a light wave emitted by the light source and having passed through the chamber; the sensor being such that the chamber lies between two transverse walls , which are placed facing each other, the transverse walls being connected to each other by a peripheral wall that extends, between the transverse walls, about a longitudinal axis (Z), the peripheral wall comprising: ▪ a first reflective segment , able to receive a first portion of the emission cone (Ω1) in order to reflect it toward the measurement photodetector , thus forming a cone (Ω2) called the measurement cone, which converges toward the measurement photodetector, the first reflective segment following, in a transverse plane (XY), perpendicular to the longitudinal axis (Z), a first ellipse, the apex (S1) of the emission cone (Ω1) being placed at a first focus of the first ellipse; ▪ a second reflective segment , able to receive a second portion of the emission cone (Ω1) in order to reflect it toward the reference photodetector , thus forming a cone (Ω3) called the reference cone, which converges toward the reference photodetector; the chamber comprising at least one aperture , produced in one of said transverse walls , and intended for the admission or evacuation of the gas , the aperture being produced, in the transverse wall, outside a projection, along the longitudinal axis (Z), and onto said transverse wall, of the emission cone (Ω1) and of the measurement cone (Ω2). ▪ a light source , able to emit a light wave that propagates through the chamber in an emission cone (Ω1); ▪ a measurement photodetector and a reference photodetector , each being able to detect a light wave emitted by the light source and having passed through the chamber; ▪ a first reflective segment , able to receive a first portion of the emission cone (Ω1) in order to reflect it toward the measurement photodetector , thus forming a cone (Ω2) called the measurement cone, which converges toward the measurement photodetector, the first reflective segment following, in a transverse plane (XY), perpendicular to the longitudinal axis (Z), a first ellipse, the apex (S1) of the emission cone (Ω1) being placed at a first focus of the first ellipse; ▪ a second reflective segment , able to receive a second portion of the emission cone (Ω1) in order to reflect it toward the reference photodetector , thus forming a cone (Ω3) called the reference cone, which converges toward the reference photodetector;
A tire, comprising: a toroidal carcass , and a tread reinforcing layer disposed radially outside the carcass in a tread portion , wherein the tread reinforcing layer comprises a reinforcing cord structure in which a rubber-coated cord strip of at least one rubberized reinforcing cord covered with topping rubber is wound, and which comprises a spiral part and a mesh part , the spiral part is formed from the rubber-coated cord strip wound spirally and circumferentially of the tire at least one turn so that the rubber-coated cord strip extends substantially in parallel with the tire circumferential direction, the mesh part comprises a plurality of first inclining segments in which the rubber-coated cord strip is inclined with respect to the tire circumferential direction to one direction, and a plurality of second inclining segments in which the rubber-coated cord strip is inclined with respect to the tire circumferential direction to an opposite direction to the plurality of first inclining segments , wherein side edges of the first inclining segments are arranged so as not to contact with each other, and side edges of the second inclining segments (1-8) are arranged so as not to contact with each other, whereby the first inclining segments intersect the second inclining segments forming spaces , in a crown region of the tread portion centered on the tire equator (C), the spiral part is disposed so as to overlap with the mesh part , characterized in that the spiral part is disposed radially outside of the mesh part . a toroidal carcass , and a tread reinforcing layer disposed radially outside the carcass in a tread portion , wherein the tread reinforcing layer comprises a reinforcing cord structure in which a rubber-coated cord strip of at least one rubberized reinforcing cord covered with topping rubber is wound, and which comprises a spiral part and a mesh part , the spiral part is formed from the rubber-coated cord strip wound spirally and circumferentially of the tire at least one turn so that the rubber-coated cord strip extends substantially in parallel with the tire circumferential direction, the mesh part comprises a plurality of first inclining segments in which the rubber-coated cord strip is inclined with respect to the tire circumferential direction to one direction, and a plurality of second inclining segments in which the rubber-coated cord strip is inclined with respect to the tire circumferential direction to an opposite direction to the plurality of first inclining segments , wherein side edges of the first inclining segments are arranged so as not to contact with each other, and side edges of the second inclining segments (1-8) are arranged so as not to contact with each other, whereby the first inclining segments intersect the second inclining segments forming spaces , in a crown region of the tread portion centered on the tire equator (C), the spiral part is disposed so as to overlap with the mesh part , characterized in that the spiral part is disposed radially outside of the mesh part .
A thermal and electrical power transformer using low-temperature heat sources, characterized in that it represents a heat pump comprising an evaporator , a condenser , a compressor , a turbine with a throttle , a thermal power supply regulator , a controller , and generator/electric motor , the input of which is connected to a source of electrical energy, and the output is connected to a user of electrical energy, the generator/electric motor is connected to a first control channel of said controller, a second control channel of said controller is connected to the thermal energy supply regulator, the input of said regulator is connected to the condenser, and the output is connected to the thermal energy user, wherein the throttle is embodied in the form of a nozzle of the turbine, the shaft of which is connected to the shaft of the compressor, and the shaft of said compressor is connected to the shaft of the generator/electric motor.
A back-illuminated type semiconductor light-detecting element comprising: a silicon substrate comprised of a semiconductor of a first conductivity type, having a first principal surface and a second principal surface opposed to each other, and having a semiconductor region of a second conductivity type formed on the first principal surface side, wherein on the silicon substrate , an accumulation layer of the first conductivity type having a higher impurity concentration than the silicon substrate is formed on the second principal surface side and an irregular asperity is formed in at least a region opposed to the semiconductor region of the second conductivity type in the second principal surface , wherein the region opposed to the semiconductor region of the second conductivity type in the second principal surface of the silicon substrate is optically exposed, and wherein the second principal surface constitutes a light incident surface, light incident from the light incident surface travels in the silicon substrate. a silicon substrate comprised of a semiconductor of a first conductivity type, having a first principal surface and a second principal surface opposed to each other, and having a semiconductor region of a second conductivity type formed on the first principal surface side, wherein on the silicon substrate , an accumulation layer of the first conductivity type having a higher impurity concentration than the silicon substrate is formed on the second principal surface side and an irregular asperity is formed in at least a region opposed to the semiconductor region of the second conductivity type in the second principal surface , wherein the region opposed to the semiconductor region of the second conductivity type in the second principal surface of the silicon substrate is optically exposed, and wherein the second principal surface constitutes a light incident surface, light incident from the light incident surface travels in the silicon substrate.
A scratch test apparatus , the scratch test apparatus comprising: (i) an indentor wherein a tip thereof is configured to engage a sample surface at a contact location; (ii) a drive mechanism configured to cause the indentor to move along the sample surface to form a scratch ; (iii) a surface-referencing device configured to establish the position of the indentor relative to the sample surface , the surface-referencing device including a first member disposed on one side of the indentor , positioned laterally from the indentor , and a second member disposed on the opposite side of the indentor from the first member , to control a position of the indentor in a direction normal to the sample surface at the same time that the scratch is being made, wherein the position of the indentor is controlled by maintaining the elevations of the surface referencing members on either side of the indentor at the same value, to control a slope of a trajectory of the indentor . and to provide a lateral tilt correction of the slope in a direction perpendicular to the trajectory of the indentor ; (iv) a measurement device configured to measure a pile-up height of sample material removed from the scratch , and/or a width of the scratch ; and (v) a support structure configured to support the indentor , the surface-referencing device , and the measurement device . (i) an indentor wherein a tip thereof is configured to engage a sample surface at a contact location; (ii) a drive mechanism configured to cause the indentor to move along the sample surface to form a scratch ; (iii) a surface-referencing device configured to establish the position of the indentor relative to the sample surface , the surface-referencing device including a first member disposed on one side of the indentor , positioned laterally from the indentor , and a second member disposed on the opposite side of the indentor from the first member , to control a position of the indentor in a direction normal to the sample surface at the same time that the scratch is being made, wherein the position of the indentor is controlled by maintaining the elevations of the surface referencing members on either side of the indentor at the same value, to control a slope of a trajectory of the indentor . and to provide a lateral tilt correction of the slope in a direction perpendicular to the trajectory of the indentor ; (iv) a measurement device configured to measure a pile-up height of sample material removed from the scratch , and/or a width of the scratch ; and (v) a support structure configured to support the indentor , the surface-referencing device , and the measurement device .
A nitrogen generation system for an aircraft, comprising: a RAM air circuit ; a motor having a rotor and a stator configured to drive rotor rotation; a compressor fluidly disposed between a cabin of the aircraft and a heat exchanger of the aircraft, the compressor having an inlet defined between the cabin and the compressor and being rotatably coupled to the rotor for forming a pressure depression at the inlet ; and a cooling system comprising a first duct extending from the RAM air circuit to the stator , and a second duct extending from the stator to an aircraft exterior ; characterized in that the cooling system provides a flow of cooling air from the RAM air circuit to the inlet through the first duct and the stator and the aircraft exterior through the second duct such that the cooling air removes heat from the stator ; and further comprises: a third duct extending from the second duct to the inlet ; and a valve arrangement configured to direct the flow of cooling air from the second duct to the third duct . a RAM air circuit ; a motor having a rotor and a stator configured to drive rotor rotation; a compressor fluidly disposed between a cabin of the aircraft and a heat exchanger of the aircraft, the compressor having an inlet defined between the cabin and the compressor and being rotatably coupled to the rotor for forming a pressure depression at the inlet ; and a cooling system comprising a first duct extending from the RAM air circuit to the stator , and a second duct extending from the stator to an aircraft exterior ; characterized in that the cooling system provides a flow of cooling air from the RAM air circuit to the inlet through the first duct and the stator and the aircraft exterior through the second duct such that the cooling air removes heat from the stator ; and further comprises: a third duct extending from the second duct to the inlet ; and a valve arrangement configured to direct the flow of cooling air from the second duct to the third duct . a third duct extending from the second duct to the inlet ; and a valve arrangement configured to direct the flow of cooling air from the second duct to the third duct .
A method of securing an optical fiber within an optical fiber connector having a connector housing with an open front end and a ferrule with an outer surface , an axial bore , and a front-end section , the method comprising: a) positioning a heating sleeve so that the front-end section of the ferrule resides within an interior of the heating sleeve; b) conducting heat from the heating sleeve to the ferrule and to a bonding agent in the axial bore of the ferrule to bring the bonding agent to a securing temperature; c) inserting the optical fiber into the optical fiber connector so that a front-end section of the optical fiber resides within the axial bore of the ferrule, wherein the optical fiber is secured in the axial bore of the ferrule by the bonding agent reaching the securing temperature; and characterized in that the method further comprises: inhibiting the conduction of heat from the heating sleeve to the connector housing by disposing a thermally insulating sleeve between the heating sleeve and the connector housing . a) positioning a heating sleeve so that the front-end section of the ferrule resides within an interior of the heating sleeve; b) conducting heat from the heating sleeve to the ferrule and to a bonding agent in the axial bore of the ferrule to bring the bonding agent to a securing temperature; c) inserting the optical fiber into the optical fiber connector so that a front-end section of the optical fiber resides within the axial bore of the ferrule, wherein the optical fiber is secured in the axial bore of the ferrule by the bonding agent reaching the securing temperature; and
Piece of furniture with a furniture body , with a drawer and with a sensor device , wherein the drawer has a rear wall , a side wall and a front panel , and wherein the drawer is displaceably mounted on the furniture body , wherein the furniture body has wall elements which laterally bound the furniture body , wherein the sensor device comprises an electrode arrangement , and the sensor device comprises a detection unit by means of which a position of a body in the surrounding region of the piece of furniture can be determined by means of a detected change in the electric field , wherein the electrode arrangement is arranged on the furniture body of the piece of furniture in such a way that, by using the electrode arrangement , changes in an electric field in the surrounding region can be detected with or without touching the electrode arrangement or the piece of furniture , wherein the surrounding region is located in front of one of the front end faces of the wall elements of the furniture body , wherein the sensor device is in a plane which is defined by front end faces of the wall elements , characterized in that the sensor device is attached to one of the wall elements of the furniture body , wherein the front panel of the drawer covers end faces of the wall elements with the sensor device arranged thereon, wherein the sensor device is attached to a covered end face of a wall element .
An interventional device, comprising: an elongated member having a wall and an interior lumen, the elongated member including a plurality of fenestrations extending through the wall and exposing the lumen, the plurality of fenestrations defining a plurality of axially extending beams and a plurality of circumferentially extending rings, wherein the beams are arranged along a length of the elongated member to form a non-helical and non-linear pattern that includes a distributed pattern, the distributed pattern including a first beam pair of the elongated member defined as being positioned at a zero degree position and wherein successive beam pairs are rotationally offset from the first beam pair to maximize the radial distribution of beam positions without surpassing a rotational offset limit, the rotational offset limit limiting the allowable rotation from one segment to the next. an elongated member having a wall and an interior lumen, the elongated member including a plurality of fenestrations extending through the wall and exposing the lumen, the plurality of fenestrations defining a plurality of axially extending beams and a plurality of circumferentially extending rings, wherein the beams are arranged along a length of the elongated member to form a non-helical and non-linear pattern that includes a distributed pattern, the distributed pattern including a first beam pair of the elongated member defined as being positioned at a zero degree position and wherein successive beam pairs are rotationally offset from the first beam pair to maximize the radial distribution of beam positions without surpassing a rotational offset limit, the rotational offset limit limiting the allowable rotation from one segment to the next.
A method performed in a communication device for handling a resume procedure from a power saving mode of operation to a connected mode of operation, wherein the communication device is configured with multi-radio dual connectivity, MR-DC, with a first cell group and a second cell group in a wireless communication network , characterized by the method comprising initiating a resume procedure when there is an uplink, UL, data, available at the communication device while it is in the power saving mode of operation; setting an UL data indication indicating whether the UL data is available for the first cell group or the second cell group; and transmitting the UL data indication to a network node . initiating a resume procedure when there is an uplink, UL, data, available at the communication device while it is in the power saving mode of operation; setting an UL data indication indicating whether the UL data is available for the first cell group or the second cell group; and transmitting the UL data indication to a network node .
A display device comprising: a substrate comprising a display area (DA) and a peripheral area (PA) outside the display area (DA); the display area comprises a plurality of data lines DL arranged in a plurality of columns; and characterized in that the display device further comprises a first connection line in the display area (DA), the first connection line comprising a first portion extending along a first column of the display area (DA), a third portion extending along a second column of the display area (DA), and a second portion connecting the first portion to the third portion ; and a second connection line in the peripheral area (PA) and connected at one end to the third portion of the first connection line and at the other end to a data line (DL) in a third column of the display area (DA); wherein the first connection line, connected to the data line with the second connection line, is adapted to transmit to the data line a data signal supplied from a pad area (PADA). a substrate comprising a display area (DA) and a peripheral area (PA) outside the display area (DA); the display area comprises a plurality of data lines DL arranged in a plurality of columns; and characterized in that the display device further comprises a first connection line in the display area (DA), the first connection line comprising a first portion extending along a first column of the display area (DA), a third portion extending along a second column of the display area (DA), and a second portion connecting the first portion to the third portion ; and a second connection line in the peripheral area (PA) and connected at one end to the third portion of the first connection line and at the other end to a data line (DL) in a third column of the display area (DA); wherein the first connection line, connected to the data line with the second connection line, is adapted to transmit to the data line a data signal supplied from a pad area (PADA).
A method for thermally hardening a previously formed metallic component which includes a first and a second end and arc areas, in which the material cross section is reduced, by means of conductive heating via electrodes applied to the first and the second end or by means of inductive heating, wherein the component is actively cooled by air or water showers during the heating in the area of the arcs, wherein the cooling starts at an average temperature of between 200°C and 300°C, and the arc areas are cooled to room temperature in a regulated manner, and then the heating is continued without any further cooling.