mhurhangee/patent-ind-claim-en huggingface dataset:
A tubeless tire having a reinforced bead portion having a carcass turned up around a bead core , a bead filler filled in a space above the bead core surrounded by the carcass , the bead filler including an upper bead filler located at a relatively high position in the radial direction and a lower bead filler located at a relatively low position with regard to the upper bead filler in the radial direction, and a steel chafer disposed to contact an outer surface of the carcass , and the tubeless tire further comprises: a first reinforcing rubber layer provided between the bead core and a turnup portion of the carcass in order to prevent the turnup portion of the carcass from being pulled downwards, the first reinforcing rubber layer being located around a portion of the bead core that is provided between a rim flange (F) and the axially outer side of the bead core and also being located under and in contact with the lower bead filler of the bead filler , characterized in a nylon chafer disposed to contact an outer surface of the steel chafer ; and a second reinforcing rubber layer provided between the steel chafer and the nylon chafer in order to reduce interfacial stress, an upper end of the second reinforcing rubber layer and an upper end of the steel chafer disposed at the same height in the tire radial direction. a first reinforcing rubber layer provided between the bead core and a turnup portion of the carcass in order to prevent the turnup portion of the carcass from being pulled downwards, the first reinforcing rubber layer being located around a portion of the bead core that is provided between a rim flange (F) and the axially outer side of the bead core and also being located under and in contact with the lower bead filler of the bead filler , characterized in a nylon chafer disposed to contact an outer surface of the steel chafer ; and a second reinforcing rubber layer provided between the steel chafer and the nylon chafer in order to reduce interfacial stress, an upper end of the second reinforcing rubber layer and an upper end of the steel chafer disposed at the same height in the tire radial direction.
A printed electronic device comprising at least one electrically insulating dielectric layer comprising a cured energy curable ink or coating composition comprising a) at least one multifunctional hybrid monomer having a polymerizable (meth)acrylate group and a polymerizable vinyl ether group; b) between 0.1 to 15.0% by weight of photo initiator wherein at least 50% by weight of the photoinitatior is a low migration photoinitiator; wherein the ink or coating composition comprises less than 30% by weight of a mono functional monomer and less than 10% by weight of solvent; and wherein the low migration photoinitiator is a polymeric photoinitiator and/or a multifunctional photoinitiator, or a polymerizable photoinitiator. a) at least one multifunctional hybrid monomer having a polymerizable (meth)acrylate group and a polymerizable vinyl ether group; b) between 0.1 to 15.0% by weight of photo initiator wherein at least 50% by weight of the photoinitatior is a low migration photoinitiator; wherein the ink or coating composition comprises less than 30% by weight of a mono functional monomer and less than 10% by weight of solvent; and wherein the low migration photoinitiator is a polymeric photoinitiator and/or a multifunctional photoinitiator, or a polymerizable photoinitiator.
A system comprising: a base that can be thermally coupled to a heat load , the base defining a top side and a bottom side, wherein the bottom side defines a mounting surface that can be physically coupled to the heat load; a support that is pivotally coupled by a pivot couple to the top side of the base; at least a first anchor and a second anchor , wherein: the first anchor has a first end (208-B) and a second end (208-A), wherein the first end connects to a first anchor point (210-A), and the second end is coupled to a first load surface (212-A) of the support by a first spring (206-A); the second anchor has a first end (208-B) and a second end (208-A), wherein the first end connects to a second anchor point (210-B), and the second end is coupled to a second load surface (212-B) of the support by a second spring (206-B); and the first load surface and the second load surface are symmetrically disposed on opposite sides of the pivot couple; wherein the pivot couple is centrally located relative to the mounting surface of the base so that a force imparted by spring loads of the first and second springs is normally transferred to the mounting surface for even distribution over the mounting surface. a base that can be thermally coupled to a heat load , the base defining a top side and a bottom side, wherein the bottom side defines a mounting surface that can be physically coupled to the heat load; a support that is pivotally coupled by a pivot couple to the top side of the base; at least a first anchor and a second anchor , wherein: the first anchor has a first end (208-B) and a second end (208-A), wherein the first end connects to a first anchor point (210-A), and the second end is coupled to a first load surface (212-A) of the support by a first spring (206-A); the second anchor has a first end (208-B) and a second end (208-A), wherein the first end connects to a second anchor point (210-B), and the second end is coupled to a second load surface (212-B) of the support by a second spring (206-B); and the first load surface and the second load surface are symmetrically disposed on opposite sides of the pivot couple; the first anchor has a first end (208-B) and a second end (208-A), wherein the first end connects to a first anchor point (210-A), and the second end is coupled to a first load surface (212-A) of the support by a first spring (206-A); the second anchor has a first end (208-B) and a second end (208-A), wherein the first end connects to a second anchor point (210-B), and the second end is coupled to a second load surface (212-B) of the support by a second spring (206-B); and the first load surface and the second load surface are symmetrically disposed on opposite sides of the pivot couple; wherein the pivot couple is centrally located relative to the mounting surface of the base so that a force imparted by spring loads of the first and second springs is normally transferred to the mounting surface for even distribution over the mounting surface.
A protective multi-layered material against arc flash, comprising a fabric layer of para-aramid fibres (A), surmounted by a fabric layer of flame-retardant fibres (B), and a layer of silicone rubber (C2) comprising micro-powder of iron (III) oxide, said multi-layered material being characterised in that : - it further comprises a further layer of silicone rubber (C1), intermediate between said two layers of fibrous fabrics, and comprising glass hollow microspheres with diameter size lower than 150 μm and micro-powder of iron (III) oxide with particles having average diameter size lower than 5 μm incorporated in said further layer of silicone rubber (C1); - it has a thickness lower than 1 mm; and - it has a protection value against arc flash ATPV (Arc Thermal Performance Value), determined according to Live working - Protective Clothing Against the Thermal Hazard of an Electric Arc in IEC 61482-1-1:2009, higher than 45 cal/cm 2 . - it further comprises a further layer of silicone rubber (C1), intermediate between said two layers of fibrous fabrics, and comprising glass hollow microspheres with diameter size lower than 150 μm and micro-powder of iron (III) oxide with particles having average diameter size lower than 5 μm incorporated in said further layer of silicone rubber (C1); - it has a thickness lower than 1 mm; and - it has a protection value against arc flash ATPV (Arc Thermal Performance Value), determined according to Live working - Protective Clothing Against the Thermal Hazard of an Electric Arc in IEC 61482-1-1:2009, higher than 45 cal/cm 2 .
A pulse generator, comprising: electrode nodes , wherein each of the electrode nodes is configured to be coupled to one of a plurality of electrodes in contact with a patient's tissue: stimulation circuity configured to store first data defining a first pulse shape and second data defining a second pulse shape, and for configuring a pulse train comprising one or more first pulses followed by one or more second pulses, wherein the first and second data are formatted to include compliance voltage monitoring data, wherein the compliance voltage monitoring data is configured to be set or not set with an instruction, wherein the instruction is configured to instruct the taking of at least one measurement used to determine whether to adjust the compliance voltage; and digital-to-analog converter, DAC, circuitry configured to form the pulse train at selected ones of the electrode nodes, wherein the DAC circuity is powered by the compliance voltage. electrode nodes , wherein each of the electrode nodes is configured to be coupled to one of a plurality of electrodes in contact with a patient's tissue: stimulation circuity configured to store first data defining a first pulse shape and second data defining a second pulse shape, and for configuring a pulse train comprising one or more first pulses followed by one or more second pulses, wherein the first and second data are formatted to include compliance voltage monitoring data, wherein the compliance voltage monitoring data is configured to be set or not set with an instruction, wherein the instruction is configured to instruct the taking of at least one measurement used to determine whether to adjust the compliance voltage; and digital-to-analog converter, DAC, circuitry configured to form the pulse train at selected ones of the electrode nodes, wherein the DAC circuity is powered by the compliance voltage.
An acoustic sensing apparatus for identifying one or more anatomical objects or regions of interest within a chest of a subject, the apparatus for placement in use on the chest of the subject, the apparatus comprising: an arrangement of one or more sound sensors for sensing in use sound signals from the chest of the subject, and a controller for processing sound signals received in use at the arrangement of one or more sound sensors at a plurality of different receiving locations across the chest of the subject, said processing including classifying each of the different receiving locations as either rib-aligned or intercostal space-aligned, based on an intensity of sound signals received at each of the locations, characterised in that the controller is further configured to identify one or more sound intensity hotspots within the signal intensity distribution, the one or more sound intensity hotspots being indicative of the one or more anatomical objects or regions of interest. an arrangement of one or more sound sensors for sensing in use sound signals from the chest of the subject, and a controller for processing sound signals received in use at the arrangement of one or more sound sensors at a plurality of different receiving locations across the chest of the subject, said processing including classifying each of the different receiving locations as either rib-aligned or intercostal space-aligned, based on an intensity of sound signals received at each of the locations, characterised in that the controller is further configured to identify one or more sound intensity hotspots within the signal intensity distribution, the one or more sound intensity hotspots being indicative of the one or more anatomical objects or regions of interest.
A power converting apparatus configured on a multi-layer printed circuit board (PCB), which has a printed copper foil pattern forming an electric line and a plurality of circuit elements are disposed along the printed copper foil pattern, the power converting apparatus comprising: an input unit configured to receive a direct current (DC) voltage from the outside; a plurality of switching circuits connected to the other end of the input unit and converting the DC voltage input to the input unit into multi-phase AC voltages; an output unit connected to the other end of each of the plurality of switching circuits and configured to rectify an AC voltage of each phase converted in each of the plurality of switching circuits to output a single-phase DC voltage; and a single resonant inductor disposed between the switching circuits and the output unit in a plurality of electric lines corresponding to each phase, wherein each electric line is printed in a pattern winding around the resonant inductor core at least one time, wherein each of the plurality of switching circuits and corresponding electric lines are located on a respective separate layer of the multi-layer PCB, wherein the windings on the several layers are printed to overlap each other in a position where the resonant inductor is disposed. an input unit configured to receive a direct current (DC) voltage from the outside; a plurality of switching circuits connected to the other end of the input unit and converting the DC voltage input to the input unit into multi-phase AC voltages; an output unit connected to the other end of each of the plurality of switching circuits and configured to rectify an AC voltage of each phase converted in each of the plurality of switching circuits to output a single-phase DC voltage; and a single resonant inductor disposed between the switching circuits and the output unit in a plurality of electric lines corresponding to each phase, wherein each electric line is printed in a pattern winding around the resonant inductor core at least one time, wherein each of the plurality of switching circuits and corresponding electric lines are located on a respective separate layer of the multi-layer PCB, wherein the windings on the several layers are printed to overlap each other in a position where the resonant inductor is disposed.
A method of transmitting, by a user equipment, UE , hybrid automatic repeat and request-acknowledgment, HARQ-ACK, information in a wireless communication system supporting a coordinated multiple point (CoMP), the method comprising: receiving (S1510) a first physical downlink control channel, PDCCH, based on a first control resource set, CORESET, included in a first CORESET group; receiving (S1510) a second PDCCH based on a second CORESET included in a second CORESET group; receiving (S1520) a first physical downlink shared channel, PDSCH, scheduled by the first PDCCH; receiving (S1520) a second PDSCH scheduled by the second PDCCH; and transmitting (S1530) HARQ-ACK information for first PDSCH and the second PDSCH based on a HARQ-ACK codebook, wherein based on the first CORESET group and the second CORESET group being configured, (i) a first HARQ-ACK codebook including HARQ-ACK information for the first PDSCH and (ii) a second HARQ-ACK codebook including HARQ-ACK information for the second PDSCH are generated separately, and wherein the HARQ-ACK codebook is generated by concatenating the first HARQ-ACK codebook followed by the second HARQ-ACK codebook. receiving (S1510) a first physical downlink control channel, PDCCH, based on a first control resource set, CORESET, included in a first CORESET group; receiving (S1510) a second PDCCH based on a second CORESET included in a second CORESET group; receiving (S1520) a first physical downlink shared channel, PDSCH, scheduled by the first PDCCH; receiving (S1520) a second PDSCH scheduled by the second PDCCH; and transmitting (S1530) HARQ-ACK information for first PDSCH and the second PDSCH based on a HARQ-ACK codebook, wherein based on the first CORESET group and the second CORESET group being configured, (i) a first HARQ-ACK codebook including HARQ-ACK information for the first PDSCH and (ii) a second HARQ-ACK codebook including HARQ-ACK information for the second PDSCH are generated separately, and wherein the HARQ-ACK codebook is generated by concatenating the first HARQ-ACK codebook followed by the second HARQ-ACK codebook.
Legrest for an aircraft passenger seat , wherein the legrest has a device , wherein the device comprises a housing, wherein the housing has a first and a second housing half , wherein the two housing halves are pivotably movably connected to one another, wherein the housing is designed in such a way that a lifejacket for an aircraft passenger can be stowed therein, wherein the device is arranged on a basic structure of the legrest , wherein the first housing half is subjected to a spring force of a spring device of the device with respect to the second housing half , with the result that the first housing half can be moved from an open position relative to the second housing half toward a closed position relative to the second housing half .
A marine propulsion system comprising: a plurality of marine propulsion devices , each of the marine propulsion devices including a propeller shaft , an engine , an electric motor , a power transmission mechanism , an electric circuit and a controller , the power transmission mechanism being configured to transmit mechanical power to the propeller shaft from both the engine and the electric motor , the electric circuit connected to the electric motor , the controller being configured to control the engine , characterized in that in each of the plurality of marine propulsion devices , the controller (6a 6b) is configured to put a limitation on an output of the engine that is in a driving state when the engine in any other of the plurality of marine propulsion devices is not being driven. a plurality of marine propulsion devices , each of the marine propulsion devices including a propeller shaft , an engine , an electric motor , a power transmission mechanism , an electric circuit and a controller , the power transmission mechanism being configured to transmit mechanical power to the propeller shaft from both the engine and the electric motor , the electric circuit connected to the electric motor , the controller being configured to control the engine , characterized in that in each of the plurality of marine propulsion devices , the controller (6a 6b) is configured to put a limitation on an output of the engine that is in a driving state when the engine in any other of the plurality of marine propulsion devices is not being driven.
Quick coupler for coupling a tool provided with an adapter to a working machine , on which the quick coupler can be arranged, having a locking device for producing a mechanical connection between the working machine and the tool , the locking device having at least one locking element on which a spring force acts in the direction of a locking position, and a hydraulic piston that is connected to the locking element and which is displaceably arranged in a cylinder and divides the cylinder interior into an opening chamber and a locking chamber , wherein the opening chamber is connected to a hydraulic valve via a first hydraulic conduit so as to enable hydraulic pressure to be supplied to the opening chamber and thus to the hydraulic piston as required for the hydraulic piston and the locking element connected to the hydraulic piston to be displaced from a locking position to an opening position thereof against the spring force, which locking chamber is connected to a second hydraulic conduit and can be supplied with hydraulic oil as required, characterized in that the first hydraulic conduit and the second hydraulic conduit are short-circuited to each other via a connecting conduit and are connected to a hydraulic valve via a single hydraulic supply conduit , and in that a valve which blocks the return flow from the locking chamber is arranged in the second hydraulic conduit and is actuated by a control conduit connected to the first hydraulic conduit when there is an increase in pressure in the first hydraulic conduit and thus the opening movement.
A calcium copper titanate film preparation method, comprising: forming a layered deposition structure on a substrate, wherein the layered deposition structure comprises at least one titanium dioxide layer, at least one copper oxide layer, and at least one calcium oxide or calcium carbonate layer; and subjecting the layered deposition structure to annealing treatment in an oxygen-containing atmosphere to obtain a calcium copper titanate film, wherein an annealing temperature of the annealing treatment ranges between 500°C and 1300°C; wherein the forming the layered deposition structure on the substrate comprises: respectively depositing the titanium dioxide layer, depositing the copper oxide layer, and depositing the calcium oxide or calcium carbonate layer on the substrate in a cyclic deposition manner. forming a layered deposition structure on a substrate, wherein the layered deposition structure comprises at least one titanium dioxide layer, at least one copper oxide layer, and at least one calcium oxide or calcium carbonate layer; and subjecting the layered deposition structure to annealing treatment in an oxygen-containing atmosphere to obtain a calcium copper titanate film, wherein an annealing temperature of the annealing treatment ranges between 500°C and 1300°C; wherein the forming the layered deposition structure on the substrate comprises: respectively depositing the titanium dioxide layer, depositing the copper oxide layer, and depositing the calcium oxide or calcium carbonate layer on the substrate in a cyclic deposition manner.
A method for producing a terminal carboxyl group-containing polyethylene glycol, which comprises the following steps 1 and 2: Step 1: a step of reacting a compound of the following formula , in a solution containing a polyethylene glycol having a hydroxyl group, an inorganic base 0.5 to 4 times the polyethylene glycol in mass, an aprotic solvent and water, mass of the water being 5 to 20 meq with respect to the inorganic base and mass of the water in the solution being 2,000 ppm or less, with the polyethylene glycol to obtain a polyethylene glycol ester: wherein, in the formula , X represents a leaving group, a represents an integer of 4 to 9, and R 1 represents a hydrocarbon group having 1 to 4 carbon atoms; Step 2: a step of hydrolyzing the polyethylene glycol ester to obtain a terminal carboxyl group-containing polyethylene glycol. Step 1: a step of reacting a compound of the following formula , in a solution containing a polyethylene glycol having a hydroxyl group, an inorganic base 0.5 to 4 times the polyethylene glycol in mass, an aprotic solvent and water, mass of the water being 5 to 20 meq with respect to the inorganic base and mass of the water in the solution being 2,000 ppm or less, with the polyethylene glycol to obtain a polyethylene glycol ester: wherein, in the formula , X represents a leaving group, a represents an integer of 4 to 9, and R 1 represents a hydrocarbon group having 1 to 4 carbon atoms; Step 2: a step of hydrolyzing the polyethylene glycol ester to obtain a terminal carboxyl group-containing polyethylene glycol.
A power generation system comprising: a vibration power generator for outputting AC power; a rectifying and smoothing circuit comprising a rectifier circuit for converting the AC power to DC power, and a smoothing circuit for smoothing the DC power; an impedance measurement unit for measuring an impedance of the rectifying and smoothing circuit or of the smoothing circuit; a converter for transforming the smoothed DC power; and a switch that is disposed between the rectifying and smoothing circuit and the converter, and is configured to become an ON state when the measured impedance becomes a reference impedance or higher. a vibration power generator for outputting AC power; a rectifying and smoothing circuit comprising a rectifier circuit for converting the AC power to DC power, and a smoothing circuit for smoothing the DC power; an impedance measurement unit for measuring an impedance of the rectifying and smoothing circuit or of the smoothing circuit; a converter for transforming the smoothed DC power; and a switch that is disposed between the rectifying and smoothing circuit and the converter, and is configured to become an ON state when the measured impedance becomes a reference impedance or higher.