mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging sensor comprising: first to eight transfer transistors (TR12-1, ..., TR12-8); a first on-chip lens disposed corresponding to the first transfer transistor (TR12-1); and the second transfer transistor (TR12-2); a second on-chip lens disposed corresponding to the third transfer transistor (TR12-3) and the fourth transfer transistor (TR12-4); a third on-chip lens disposed corresponding to the fifth transfer transistor (TR12-5) and the sixth transfer transistor (TR12-6); a fourth on-chip lens disposed corresponding to the seventh transfer transistor (TR12-7) and the eighth transfer transistor (TR12-8); a first well contact (C1) and a second well contact (C2) disposed along a horizontal direction in a plan view; and a reset transistor (Tr11), an amplification transistor (Tr13), and a selection transistor (Tr14) disposed along the horizontal direction in the plan view, wherein the eight transfer transistors (TR12-1, ..., TR12-8) are coupled to the amplification transistor (Tr13), and characterised in that the first well contact (C1), the reset transistor (Tr11), the amplification transistor (Tr13), the selection transistor (Tr14), and the second well contact (C2) are disposed in this order along the horizontal direction in the plan view. first to eight transfer transistors (TR12-1, ..., TR12-8); a first on-chip lens disposed corresponding to the first transfer transistor (TR12-1); and the second transfer transistor (TR12-2); a second on-chip lens disposed corresponding to the third transfer transistor (TR12-3) and the fourth transfer transistor (TR12-4); a third on-chip lens disposed corresponding to the fifth transfer transistor (TR12-5) and the sixth transfer transistor (TR12-6); a fourth on-chip lens disposed corresponding to the seventh transfer transistor (TR12-7) and the eighth transfer transistor (TR12-8); a first well contact (C1) and a second well contact (C2) disposed along a horizontal direction in a plan view; and a reset transistor (Tr11), an amplification transistor (Tr13), and a selection transistor (Tr14) disposed along the horizontal direction in the plan view, wherein the eight transfer transistors (TR12-1, ..., TR12-8) are coupled to the amplification transistor (Tr13), and characterised in that the first well contact (C1), the reset transistor (Tr11), the amplification transistor (Tr13), the selection transistor (Tr14), and the second well contact (C2) are disposed in this order along the horizontal direction in the plan view.
A cylinder liner made of a cast iron consisting of, based on the total weight of the cast iron: 3.2 wt. % to 3.8 wt. % carbon, 2.2 wt. % to 3.2 wt. % silicon, 0.01 wt. % to 0.5 wt. % manganese, up to 0.3 wt. % phosphorous, up to 0.05 wt. % sulfur, 0.01 wt. % to 0.2 wt. % chromium, 0.5 wt. % to 1.3 wt. % copper, up to 0.2 wt. % tin, not greater than 0.01 wt. % molybdenum, not greater than 0.01 wt. % nickel, and not greater than 0.01 wt. % vanadium, the balance being iron and unavoidable impurities, the cast iron including graphite, wherein at least a portion of the graphite is spheroidal graphite. 3.2 wt. % to 3.8 wt. % carbon, 2.2 wt. % to 3.2 wt. % silicon, 0.01 wt. % to 0.5 wt. % manganese, up to 0.3 wt. % phosphorous, up to 0.05 wt. % sulfur, 0.01 wt. % to 0.2 wt. % chromium, 0.5 wt. % to 1.3 wt. % copper, up to 0.2 wt. % tin, not greater than 0.01 wt. % molybdenum, not greater than 0.01 wt. % nickel, and not greater than 0.01 wt. % vanadium, the balance being iron and unavoidable impurities,
An A 3 adenosine receptor (A 3 AR) agonist for use in reducing lipid accumulation in a liver tissue of a subject having non-alcoholic fatty liver disease (NAFLD), wherein said A 3 AR agonist is selected from the group consisting of N 6 -2-(4-aminophenyl)ethyl adenosine (APNEA), N 6 -(4-amino-3-iodobenzyl)adenosine-5'-(N-methyluronamide) (AB-MECA), N 6 -(3-iodobenzyl)-adenosine-5'-N-methyluronamide (IB-MECA) and 2-chloro-N 6 -(3-iodobenzyl)-adenosine-5'-N-methyluronamide (CI-IB-MECA).
An electronic device comprising: wireless communications circuitry ; and an antenna assembly coupled to said wireless communications circuitry and comprising a substrate , an electrically conductive layer defining a ground plane carried by said substrate, an electrically conductive patch antenna element carried by said substrate and spaced from the ground plane, said electrically conductive patch antenna element having a symmetric axis dividing said electrically conductive patch antenna element into first and second symmetric areas , said electrically conductive patch antenna element having first and second feed openings in the first and second symmetric areas, respectively, first and second feed pads in the first and second feed openings, respectively, defining first and second capacitive feed points , first and second feed lines extending through said substrate and respectively coupling said first and second feed pads to said wireless communications circuitry, characterised in that the electronic device further comprises a plurality of spaced apart conductive shielding vias coupled to said ground plane and extending through said substrate surrounding said electrically conductive patch antenna element, and a phase delay circuitry carried by said substrate and coupled to said first and second feed lines , wherein the phase delay circuitry is configured to provide non-quadrature phasing between said first and second feed lines . wireless communications circuitry ; and an antenna assembly coupled to said wireless communications circuitry and comprising a substrate , an electrically conductive layer defining a ground plane carried by said substrate, an electrically conductive patch antenna element carried by said substrate and spaced from the ground plane, said electrically conductive patch antenna element having a symmetric axis dividing said electrically conductive patch antenna element into first and second symmetric areas , said electrically conductive patch antenna element having first and second feed openings in the first and second symmetric areas, respectively, first and second feed pads in the first and second feed openings, respectively, defining first and second capacitive feed points , first and second feed lines extending through said substrate and respectively coupling said first and second feed pads to said wireless communications circuitry, characterised in that the electronic device further comprises a plurality of spaced apart conductive shielding vias coupled to said ground plane and extending through said substrate surrounding said electrically conductive patch antenna element, and a phase delay circuitry carried by said substrate and coupled to said first and second feed lines , wherein the phase delay circuitry is configured to provide non-quadrature phasing between said first and second feed lines .
A lighting assembly comprising: an AC-DC module configured to: convert an AC power signal (P AC ) to a DC power signal (P DC ); receive a DC module feedback signal (FDC); change one or more characteristics of the DC power signal based on the DC module feedback signal; and generate an output dimming signal (SD) based on a characteristic of the AC power signal and the DC module feedback signal; a lighting module comprising: an LED module comprising a plurality of LEDs; and a DC-DC module configured to: receive the DC power signal (P DC ) from the AC-DC module; receive the output dimming signal from the AC-DC module; provide at least one drive signal (I N ) based on the output dimming signal to drive the plurality of LEDs of the LED module, wherein the LED module is configured to provide an LED feedback signal (F LED ) including information about the operation of the LED module to the DC-DC module, which is further configured to control the at least one drive signal based at least in part on the LED feedback signal; and provide the DC module feedback signal including information about the operation of the DC-DC module to the AC-DC module. convert an AC power signal (P AC ) to a DC power signal (P DC ); receive a DC module feedback signal (FDC); change one or more characteristics of the DC power signal based on the DC module feedback signal; and generate an output dimming signal (SD) based on a characteristic of the AC power signal and the DC module feedback signal; an LED module comprising a plurality of LEDs; and a DC-DC module configured to: receive the DC power signal (P DC ) from the AC-DC module; receive the output dimming signal from the AC-DC module; provide at least one drive signal (I N ) based on the output dimming signal to drive the plurality of LEDs of the LED module, wherein the LED module is configured to provide an LED feedback signal (F LED ) including information about the operation of the LED module to the DC-DC module, which is further configured to control the at least one drive signal based at least in part on the LED feedback signal; and provide the DC module feedback signal including information about the operation of the DC-DC module to the AC-DC module. receive the DC power signal (P DC ) from the AC-DC module; receive the output dimming signal from the AC-DC module; provide at least one drive signal (I N ) based on the output dimming signal to drive the plurality of LEDs of the LED module, wherein the LED module is configured to provide an LED feedback signal (F LED ) including information about the operation of the LED module to the DC-DC module, which is further configured to control the at least one drive signal based at least in part on the LED feedback signal; and provide the DC module feedback signal including information about the operation of the DC-DC module to the AC-DC module.
A coil component including: a core member including: first and second shafts being arranged in parallel; and first and second opposed members , the first opposed member spanning between one end of the first and second shafts , the second opposed member spanning between the other ends of the first and second shafts ; a case supporting the core member, the case being made of an insulating material, the case comprising: a housing member accommodating the core member; and first and second outer walls opposing each other, the core member being disposed between the first and second outer walls ; a coil wound around the first and second shafts ; and first and second metal terminals being electrically connected to the coil , the first and second metal terminals being provided at the first and second outer walls , respectively, wherein the first and second opposed members are opposed to each other and sandwich the first and second shafts therebetween; characterized in that , each of the first and second terminals comprises: an insertion part that is inserted into and fixed to every one of the first and second outer walls ; a coil end holding part that conductively holds an end of the coil ; and a terminal part that is disposed on a bottom surface of every one of the first and second outer walls . a core member including: first and second shafts being arranged in parallel; and first and second opposed members , the first opposed member spanning between one end of the first and second shafts , the second opposed member spanning between the other ends of the first and second shafts ; first and second shafts being arranged in parallel; and first and second opposed members , the first opposed member spanning between one end of the first and second shafts , the second opposed member spanning between the other ends of the first and second shafts ; a case supporting the core member, the case being made of an insulating material, the case comprising: a housing member accommodating the core member; and first and second outer walls opposing each other, the core member being disposed between the first and second outer walls ; a housing member accommodating the core member; and first and second outer walls opposing each other, the core member being disposed between the first and second outer walls ; a coil wound around the first and second shafts ; and first and second metal terminals being electrically connected to the coil , the first and second metal terminals being provided at the first and second outer walls , respectively, wherein the first and second opposed members are opposed to each other and sandwich the first and second shafts therebetween; characterized in that , each of the first and second terminals comprises: an insertion part that is inserted into and fixed to every one of the first and second outer walls ; a coil end holding part that conductively holds an end of the coil ; and a terminal part that is disposed on a bottom surface of every one of the first and second outer walls .
Process for producing a glass fibre-reinforced thermoplastic polymer composition, comprising the subsequent steps of unwinding from a package of at least one continuous glass multifilament strand and applying a sheath of thermoplastic polymer around said multifilament strand to form a sheathed continuous multifilament strand, wherein: - at least two continuous glass multifilament strands together are provided within said sheath of thermoplastic polymer, wherein said at least two continuous glass multifilament strands are provided together within the same sheath of thermoplastic polymer and in close contact with each other, - the thermoplastic polymer of the sheath is polypropylene, - said sheath surrounds said at least two continuous glass multifilament strands, - the amount of glass in the composition is from 35 to 75 wt.% on the basis of the total weight of the composition, wherein an impregnating agent is applied to said at least two continuous glass multifilament strands together before the application of said sheath of thermoplastic polymer around said multifilament strands. - at least two continuous glass multifilament strands together are provided within said sheath of thermoplastic polymer, wherein said at least two continuous glass multifilament strands are provided together within the same sheath of thermoplastic polymer and in close contact with each other, - the thermoplastic polymer of the sheath is polypropylene, - said sheath surrounds said at least two continuous glass multifilament strands, - the amount of glass in the composition is from 35 to 75 wt.% on the basis of the total weight of the composition, wherein an impregnating agent is applied to said at least two continuous glass multifilament strands together before the application of said sheath of thermoplastic polymer around said multifilament strands.
Exhaust gas treatment system for an internal combustion engine with an exhaust gas system , comprising a three-way catalytic converter close to the engine and a particle filter or four-way catalytic converter arranged downstream of the three-way catalytic converter that is close to the engine, characterized in that an electrically heatable, three-way catalytic converter is arranged downstream of the three-way catalytic converter and upstream of the particle filter or of the four-way catalytic converter , wherein, downstream of the three-way catalytic converter that is close to the engine and upstream of the electrically heatable, three-way catalytic converter , an introduction point is formed for introducing secondary air into an exhaust gas channel of the exhaust gas system , wherein a hydrogen catalytic converter is arranged downstream of the introduction point and upstream of the electrically heatable, three-way catalytic converter .
A locking bar for arrangement in a loading space of a vehicle, which locking bar is provided for positive integration into two holding elements arranged opposite one another at a vehicle side, with at least two tube sections which are arranged telescopically in the longitudinal direction of the locking bar , with connection elements which are arranged at the ends of the locking bar and formed in each case to be received in a holding element , and with at least one spring element , wherein two bar parts are arranged to be rotatable to one another about their longitudinal axis over an angle, characterized in that the spring element is formed and arranged in such a manner that it can generate a torsional force acting between the bar parts .
A headphone comprising a casing , a feedforward active noise cancellation system, a microphone arranged to sense environmental noise, and a speaker system , the speaker system mounted in the casing, the active noise cancellation system comprising an active noise cancellation circuit connected to the microphone and to the speaker system, the active noise cancellation circuit comprising - an analog-to-digital converter (ADC) working at a clock frequency ( fs ) and arranged to convert the sensed environmental noise to a digital environmental noise signal, - a prediction filter working at a multiple N times higher clock frequency ( N × fs ) than the clock frequency ( fs ) of the ADC and configured for predicting a plurality D of inverted digital environmental noise samples and generating a digital inverted environmental noise signal, wherein the prediction filter is configured for running a prediction filter training algorithm on the digital audio noise signal to extract prediction filter coefficients and updating the prediction filter coefficients into the prediction filter; - a digital-to-analog converter (DAC) to convert the digital inverted environmental noise signal to an analog inverted environmental noise signal for cancelling the environmental noise, wherein the predicted plurality ( D ) of inverted digital environmental noise samples has a prediction depth time T PD corresponding to a total latency of the active noise cancellation circuit including the ADC and the DAC. - an analog-to-digital converter (ADC) working at a clock frequency ( fs ) and arranged to convert the sensed environmental noise to a digital environmental noise signal, - a prediction filter working at a multiple N times higher clock frequency ( N × fs ) than the clock frequency ( fs ) of the ADC and configured for predicting a plurality D of inverted digital environmental noise samples and generating a digital inverted environmental noise signal, wherein the prediction filter is configured for running a prediction filter training algorithm on the digital audio noise signal to extract prediction filter coefficients and updating the prediction filter coefficients into the prediction filter; - a digital-to-analog converter (DAC) to convert the digital inverted environmental noise signal to an analog inverted environmental noise signal for cancelling the environmental noise,
A system , comprising: a pre-formed guide having an outer contour that conforms to a receiving portion of a joint , the guide defining an axis that has a known position relative to the joint when the guide is mated to the joint; a first reference device for attachment to a bone of the joint; a second reference device (20 or 72)for coupling at a known alignment relative to the guide; and a control unit in communication with the first reference device and the second reference device, the control unit being configured to determine the position of the axis relative to the first reference device based on data that indicates a position of the second reference device relative to the first reference device when the second reference device is in a known alignment with the guide and the guide is mated to the joint; characterised in that the outer contour of the guide is configured such that, in use, the outer contour of the guide mates with the receiving portion of the joint in a single orientation. a pre-formed guide having an outer contour that conforms to a receiving portion of a joint , the guide defining an axis that has a known position relative to the joint when the guide is mated to the joint; a first reference device for attachment to a bone of the joint; a second reference device (20 or 72)for coupling at a known alignment relative to the guide; and a control unit in communication with the first reference device and the second reference device, the control unit being configured to determine the position of the axis relative to the first reference device based on data that indicates a position of the second reference device relative to the first reference device when the second reference device is in a known alignment with the guide and the guide is mated to the joint; characterised in that the outer contour of the guide is configured such that, in use, the outer contour of the guide mates with the receiving portion of the joint in a single orientation.
Alcoholic extract of Citrus depressa peel, comprising a mixture of hesperidin, nobiletin and isosinensetin.
A neighbor relationship establishment method, wherein the method comprises: sending (S101), by a first network device, a hello packet to a second network device by using a first unidirectional link, wherein the hello packet carries first authentication information used to authenticate the first network device, and the first unidirectional link is a direct link from the first network device to the second network device; receiving (S102), by the first network device, an extended unidirectional link, UDL, link state packet, LSP, packet from the second network device by using a second unidirectional link, wherein the extended UDL LSP packet is used to respond to the hello packet, when authentication is enabled in the second network device, the extended UDL LSP packet carries second authentication information used to authenticate the second network device, and the second unidirectional link is an indirect link from the second network device to the first network device; and authenticating (S103), by the first network device, the extended UDL LSP packet; and establishing, by the first network device, a neighbor relationship with the second network device only when an authentication result is that both the first network device and the second network device enable authentication and the authentication succeeds. sending (S101), by a first network device, a hello packet to a second network device by using a first unidirectional link, wherein the hello packet carries first authentication information used to authenticate the first network device, and the first unidirectional link is a direct link from the first network device to the second network device; receiving (S102), by the first network device, an extended unidirectional link, UDL, link state packet, LSP, packet from the second network device by using a second unidirectional link, wherein the extended UDL LSP packet is used to respond to the hello packet, when authentication is enabled in the second network device, the extended UDL LSP packet carries second authentication information used to authenticate the second network device, and the second unidirectional link is an indirect link from the second network device to the first network device; and authenticating (S103), by the first network device, the extended UDL LSP packet; and establishing, by the first network device, a neighbor relationship with the second network device only when an authentication result is that both the first network device and the second network device enable authentication and the authentication succeeds.