mhurhangee/patent-ind-claim-en huggingface dataset:
A block copolymer comprising: at least one monoalkenyl arene monomer polymer block (A) and copolymer block (B) containing myrcene, said copolymer block B further comprising: a) at least one conjugated diene monomer having a lower molecular weight than myrcene, or b) at least one monoalkenyl arene monomer, or c) a mixture of (a) and (b), wherein the copolymer block B has a vinyl content from 5 to 80 mol.%, wherein the at least one block (A) has a molecular weight of from 3 kg/mol to 60 kg/mol, the at least one copolymer block (B) has a molecular weight of from 10 kg/mol to 500 kg/mol; and wherein the myrcene content of the B block is from 25 to 85 mol.%. a) at least one conjugated diene monomer having a lower molecular weight than myrcene, or b) at least one monoalkenyl arene monomer, or c) a mixture of (a) and (b),
Refrigeration appliance, in particular household refrigeration appliance, having a carcass , a thermally insulated inner container , which is arranged in the carcass and forms a storage compartment for refrigerated goods, and at least one door leaf , which is hinged on the carcass such that it can be pivoted about a vertical axis (A) and is mounted by means of a self-closing hinge arrangement for the opening and closing of the storage compartment , wherein the self-closing hinge arrangement is embodied to generate a torque (D), which pivots the door leaf into a closed position, from a radial force (P2, P3) which results from a weight force (P1) of the door leaf and acts on the hinge arrangement in relation to the vertical axis (A), characterised in that the door leaf with the self-closing hinge arrangement is rigidly fixed in terms of its height in such a way that the door leaf does not carry out any movement in the direction of the longitudinal extension of the vertical axis (A) during the pivoting.
Use of a dilatant, entrapped by and in intimate admixture with a polymeric material to form a composite material, for protection from damage by impact, wherein the composite material comprises: i) a first polymer-based elastic material and ii) a second polymer-based material, different from i), which exhibits dilatancy in the absence of i); wherein ii) is entrapped in a sold matrix of i), the composite material being unfoamed; and further wherein the first material i) and second material ii) are in intimate admixture.
A fluid injector for injecting fluid, the fluid injector comprising: - a housing which extends along an axis L; - a valve needle which is axially moveable with respect to the housing ; - an actuator which comprises a pole piece and an armature , wherein the armature is axially moveable with respect to the housing , and wherein the armature is mechanically coupled with the valve needle to displace the valve needle axially when the armature moves towards the pole piece ; the fluid injector is characterised in that it further comprises: - a bistable spring element which comprises a first end which is seated against the armature and a second end which is seated against the housing , wherein the bistable spring element has a first stable state , a second stable state and an unstable equilibrium state , wherein the armature is displaceable in a reciprocating fashion between a first position in which the bistable spring element is in the first stable state and a second position in which the bistable spring element is in the second stable state via the unstable equilibrium state of the bistable spring element , wherein the bistable spring element biases the armature in direction away from the pole piece when the bistable spring element is between the first stable state and the unstable equilibrium state , and wherein the bistable spring element biases the armature towards the pole piece when the bistable spring element is between the unstable equilibrium state and the second stable state . - a housing which extends along an axis L; - a valve needle which is axially moveable with respect to the housing ; - an actuator which comprises a pole piece and an armature , wherein the armature is axially moveable with respect to the housing , and wherein the armature is mechanically coupled with the valve needle to displace the valve needle axially when the armature moves towards the pole piece ; the fluid injector is characterised in that it further comprises: - a bistable spring element which comprises a first end which is seated against the armature and a second end which is seated against the housing , wherein the bistable spring element has a first stable state , a second stable state and an unstable equilibrium state ,
A memory cell comprising a phase-change material comprising, on a via of connection to a transistor , an element for heating the phase-change material characterized by , between the via and the heating element , several first layers made of a material which is electrically insulating or which has an electric resistivity greater than 2.5·10 -5 Ω.m, and second electrically conductive layers interposed between the first layers, the interfaces between the first layers and the second layers forming thermal barriers, the first layers being sufficiently thin to be able to be crossed by an electric current due to a tunnel-type effect.
A surgical tool comprising: a slider disposed movably in a linear direction relative to a main body , the main body including at least a treatment portion configured to perform a medical procedure; converters configured to move for a converted movement amount which is obtained by converting a movement amount of the slider with a specified magnification factor; and wherein each of the converters comprises: conversion wires each having a first end attached to the slider and a second end attached to the main body ; and movable pulleys , wherein the conversion wires are disposed along circumferential surfaces of the movable pulleys , and wherein the converters are disposed on one side and on an opposite side of moving directions of the slider , and transmission wires coupled to the movable pulleys by an element that holds the rotational shaft of the movable pulleys and configured to transmit the converted movement amount to the treatment portion . a slider disposed movably in a linear direction relative to a main body , the main body including at least a treatment portion configured to perform a medical procedure; converters configured to move for a converted movement amount which is obtained by converting a movement amount of the slider with a specified magnification factor; and wherein each of the converters comprises: conversion wires each having a first end attached to the slider and a second end attached to the main body ; and movable pulleys , wherein the conversion wires are disposed along circumferential surfaces of the movable pulleys , and conversion wires each having a first end attached to the slider and a second end attached to the main body ; and movable pulleys , wherein the conversion wires are disposed along circumferential surfaces of the movable pulleys , and wherein the converters are disposed on one side and on an opposite side of moving directions of the slider , and transmission wires coupled to the movable pulleys by an element that holds the rotational shaft of the movable pulleys and configured to transmit the converted movement amount to the treatment portion .
A display device comprising: gate lines (GL) and data lines (DL) crossing each other to define unit pixel regions in a display area ; a pixel electrode (Pix) in each unit pixel region; a data shorting bar (ODS, EDS) in a non-display area in parallel with the gate lines (GL); a gate shorting bar (OGS, EGS) in the non-display area in parallel with the data lines (DL); gate link lines (OGL, EGL) electrically connecting the gate lines (GL) to the gate shorting bar (OGS, EGS); and data link lines (ODL, EDL) electrically connecting the data lines (DL) to the data shorting bar (ODS, EDS); wherein at least one of the gate link lines (OGL, EGL) is partially covered by first shield electrodes, wherein at least one of the data link lines (ODL, EDL) is partially covered by the first shield electrodes, wherein the first shield electrodes include a material that has a higher hardness than that of the others of the gate link lines (OGL, EGL) or the others of the data link lines (ODL, EDL), wherein the first shield electrodes are disposed on a passivation layer(PA) which is configured to cover the data lines, wherein the data lines are disposed on a gate insulation film(GI) which is configured to cover the gate lines. gate lines (GL) and data lines (DL) crossing each other to define unit pixel regions in a display area ; a pixel electrode (Pix) in each unit pixel region; a data shorting bar (ODS, EDS) in a non-display area in parallel with the gate lines (GL); a gate shorting bar (OGS, EGS) in the non-display area in parallel with the data lines (DL); gate link lines (OGL, EGL) electrically connecting the gate lines (GL) to the gate shorting bar (OGS, EGS); and data link lines (ODL, EDL) electrically connecting the data lines (DL) to the data shorting bar (ODS, EDS); wherein at least one of the gate link lines (OGL, EGL) is partially covered by first shield electrodes, wherein at least one of the data link lines (ODL, EDL) is partially covered by the first shield electrodes, wherein the first shield electrodes include a material that has a higher hardness than that of the others of the gate link lines (OGL, EGL) or the others of the data link lines (ODL, EDL), wherein the first shield electrodes are disposed on a passivation layer(PA) which is configured to cover the data lines, wherein the data lines are disposed on a gate insulation film(GI) which is configured to cover the gate lines.
An apparatus comprising: a first image capture sensor comprising a first sensor surface; a second image capture sensor comprising a second sensor surface, the first sensor surface being in a first plane, and the second sensor surface being in a second plane; wherein the first and second planes are one of coplanar and parallel, and wherein the first and second planes are parallel to a longitudinal axis of the apparatus; a prism assembly positioned to receive light, the prism assembly comprising: a distal face through which the received light enters the prism assembly; a beam splitter configured to reflect a first portion of the received light as a reflected portion, and to transmit a second portion of the received light as a transmitted portion; a surface configured to reflect the reflected portion of the received light in a first direction onto the first image capture sensor, wherein the surface is separated from the beam splitter; and a reflective unit positioned to receive the transmitted portion of the received light; characterized in that the reflective unit is positioned to direct the transmitted portion of the received light in a same direction parallel to the first direction to the second image capture sensor . a first image capture sensor comprising a first sensor surface; a second image capture sensor comprising a second sensor surface, the first sensor surface being in a first plane, and the second sensor surface being in a second plane; wherein the first and second planes are one of coplanar and parallel, and wherein the first and second planes are parallel to a longitudinal axis of the apparatus; a prism assembly positioned to receive light, the prism assembly comprising: a distal face through which the received light enters the prism assembly; a beam splitter configured to reflect a first portion of the received light as a reflected portion, and to transmit a second portion of the received light as a transmitted portion; a surface configured to reflect the reflected portion of the received light in a first direction onto the first image capture sensor, wherein the surface is separated from the beam splitter; and a reflective unit positioned to receive the transmitted portion of the received light; characterized in that the reflective unit is positioned to direct the transmitted portion of the received light in a same direction parallel to the first direction to the second image capture sensor . a distal face through which the received light enters the prism assembly; a beam splitter configured to reflect a first portion of the received light as a reflected portion, and to transmit a second portion of the received light as a transmitted portion; a surface configured to reflect the reflected portion of the received light in a first direction onto the first image capture sensor, wherein the surface is separated from the beam splitter; and a reflective unit positioned to receive the transmitted portion of the received light; characterized in that the reflective unit is positioned to direct the transmitted portion of the received light in a same direction parallel to the first direction to the second image capture sensor .
A hybrid permanent anchor, comprising: in order to distribute and reduce a concentrated load in the permanent anchor , a fixed body disposed between a compression part and a tension part and coupling the compression part and the tension part to each other; the tension part or the tension part coupled to a front end of the fixed body ; the compression part coupled to a rear end of the fixed body ; a precast (PC) steel strand coupled to a rear end of the compression part and having a protective pipe thereon; and an anchor head part for fixing the permanent anchor to a structure, wherein the tension part or the tension part is configured to transmit tension to the permanent anchor when tensile stress is generated; the compression part is configured to transmit compressive force to the permanent anchor when compressive stress is generated; and the fixed body has a bolt for coupling to a fastening hole of the tension part at the front end thereof and has a locking portion for coupling a set screw to the compression part at the rear end thereof, characterized in that the compression part and the pipe are coupled to each other by a set screw and a tube protecting the set screw is fitted on an outer surface of the set screw . a fixed body disposed between a compression part and a tension part and coupling the compression part and the tension part to each other; the tension part or the tension part coupled to a front end of the fixed body ; the compression part coupled to a rear end of the fixed body ; a precast (PC) steel strand coupled to a rear end of the compression part and having a protective pipe thereon; and an anchor head part for fixing the permanent anchor to a structure, wherein the tension part or the tension part is configured to transmit tension to the permanent anchor when tensile stress is generated; the compression part is configured to transmit compressive force to the permanent anchor when compressive stress is generated; and the fixed body has a bolt for coupling to a fastening hole of the tension part at the front end thereof and has a locking portion for coupling a set screw to the compression part at the rear end thereof, characterized in that the compression part and the pipe are coupled to each other by a set screw and a tube protecting the set screw is fitted on an outer surface of the set screw .
An image processing apparatus for detecting a striped unevenness that occurs periodically with a period λ in a printed image, the apparatus comprising: a dividing unit (S3, S11, S12) configured to divide first image data generated by reading the printed image into a plurality of sets (1002-1005) of division areas , wherein each division area of a set has a predetermined size and the sets have mutually different origins (O) with respect to an origin of the first image data; an averaging unit (S13) configured to average, for each set of division areas, pixel values in each of the division areas of that set; an addition unit (S15) configured to generate pixel values of second image data by adding, for each of pixel positions in the second image data, values of averaged pixel values obtained by the averaging unit, the values of averaged pixel values of division areas which include a corresponding pixel position (Px) in the first image data being added for the pixel position in the second image data; a setting unit (S11) configured to, with respect to the period λ, set a size S of each of the plurality of division areas in a direction in which the striped unevenness may appear with the period λ, so as to meet S < λ; and a detecting unit (S18) configured to detect the striped unevenness on the basis of the second image data. a dividing unit (S3, S11, S12) configured to divide first image data generated by reading the printed image into a plurality of sets (1002-1005) of division areas , wherein each division area of a set has a predetermined size and the sets have mutually different origins (O) with respect to an origin of the first image data; an averaging unit (S13) configured to average, for each set of division areas, pixel values in each of the division areas of that set; an addition unit (S15) configured to generate pixel values of second image data by adding, for each of pixel positions in the second image data, values of averaged pixel values obtained by the averaging unit, the values of averaged pixel values of division areas which include a corresponding pixel position (Px) in the first image data being added for the pixel position in the second image data; a setting unit (S11) configured to, with respect to the period λ, set a size S of each of the plurality of division areas in a direction in which the striped unevenness may appear with the period λ, so as to meet S < λ; and a detecting unit (S18) configured to detect the striped unevenness on the basis of the second image data.
A mobile terminal , comprising: a display screen assembly ; and a middle frame , comprising a frame body and a light transmission part located on top of the frame body, wherein the frame body comprises a bottom frame body and a lining plate arranged opposite to each other, and the light transmission part covers the lining plate , wherein the lining plate comprises a second receiving block , the light transmission part comprises a recess , and the second receiving block protrudes beyond a side of the lining plate facing away from the bottom frame body and is received in the recess . a display screen assembly ; and a middle frame , comprising a frame body and a light transmission part located on top of the frame body, wherein the frame body comprises a bottom frame body and a lining plate arranged opposite to each other, and the light transmission part covers the lining plate , wherein the lining plate comprises a second receiving block , the light transmission part comprises a recess , and the second receiving block protrudes beyond a side of the lining plate facing away from the bottom frame body and is received in the recess .
An electronic cigarette having a power chip, wherein the electronic cigarette comprises a vaporizer and a battery assembly which are connected with each other, wherein the vaporizer comprises a heating element for heating and vaporizing cigarette liquid, the battery assembly comprises a battery and a control circuit board , wherein the control circuit board is arranged with a control circuit, the control circuit comprises a microcontroller , the power chip , a microcontroller power supply unit, and a starting switch, which are respectively electrically connected with the microcontroller , and wherein the power chip is electrically connected with the battery and the heating element, characterised in that the control circuit is further arranged with a reference resistor connected with the heating element, the power chip is electrically connected with the reference resistor, the power chip has automatic closed-loop control for output, and the power chip is configured to perform automatic closed-loop control by determining a resistance value of the heating element and feedback signal for output voltage under a command of the microcontroller, to provide precisely adjustable output voltage to the heating element and enable the heating element to produce constant amount of vapor. the control circuit is further arranged with a reference resistor connected with the heating element, the power chip is electrically connected with the reference resistor, the power chip has automatic closed-loop control for output, and the power chip is configured to perform automatic closed-loop control by determining a resistance value of the heating element and feedback signal for output voltage under a command of the microcontroller, to provide precisely adjustable output voltage to the heating element and enable the heating element to produce constant amount of vapor.
A voiceprint recognition method, comprising: receiving, by a server, first confidence and second confidence from a first electronic device, and receiving third confidence and fourth confidence from a second electronic device, wherein the first confidence is confidence that is determined by the first electronic device and that a voice entered by a user belongs to a first registered user, the second confidence is confidence that is determined by the first electronic device and that the voice entered by the user belongs to a second registered user, the third confidence is confidence that is determined by the second electronic device and that the voice entered by the user belongs to the first registered user, and the fourth confidence is confidence that is determined by the second electronic device and that the voice entered by the user belongs to the second registered user; determining, by the server based on the first confidence and the third confidence, fifth confidence that the user is the first registered user, and determining, based on the second confidence and the fourth confidence, sixth confidence that the user is the second registered user; and if the fifth confidence is greater than the sixth confidence, determining, by the server, that the user is the first registered user, and if the sixth confidence is greater than the fifth confidence, determining, by the server, that the user is the second registered user. receiving, by a server, first confidence and second confidence from a first electronic device, and receiving third confidence and fourth confidence from a second electronic device, wherein the first confidence is confidence that is determined by the first electronic device and that a voice entered by a user belongs to a first registered user, the second confidence is confidence that is determined by the first electronic device and that the voice entered by the user belongs to a second registered user, the third confidence is confidence that is determined by the second electronic device and that the voice entered by the user belongs to the first registered user, and the fourth confidence is confidence that is determined by the second electronic device and that the voice entered by the user belongs to the second registered user; determining, by the server based on the first confidence and the third confidence, fifth confidence that the user is the first registered user, and determining, based on the second confidence and the fourth confidence, sixth confidence that the user is the second registered user; and if the fifth confidence is greater than the sixth confidence, determining, by the server, that the user is the first registered user, and if the sixth confidence is greater than the fifth confidence, determining, by the server, that the user is the second registered user.