mhurhangee/patent-ind-claim-en huggingface dataset:
Equipment for a surgical procedure on the hand of a patient, comprising a bracket comprising a pole , a foot of the pole which is parallel to and offset with respect to the axis of the pole and connected thereto via a crank arm , a means for attaching said pole foot to a fixed support for a member of a patient on whom surgery is to be carried out, in which means the pole can take at least two positions which are symmetrical with respect to the axis of the foot of the bracket, and an upper cross member contained in the plane defined by the pole and the foot and comprising at least a portion which overhangs the crank arm , the equipment being characterized in that it comprises a hoop and in that the portion of the cross member of the bracket which overhangs the crank arm carries an attachment means which attaches the hoop , said hoop extending from said cross member to bear on the support in a manner such that its projection over the support is substantially in the axis of the member, said hoop constituting an adjustable means for anchoring a device for placing the member of the patient in traction.
A fluid monitoring system for collecting data associated with a fluid operation performed on a machine , the system comprising: a control module ; a fluid component ; a battery, wherein the battery is connectable to the control module via a first electrical circuit path, and wherein the battery is also connectable to the control module via a second electrical circuit path; and an electrical circuit configured to: electrically couple the battery to the control module via the second electrical circuit path, wherein the second electrical circuit path comprises the fluid component; and transmit power from the battery via the second electrical control path to activate the control module when the machine is powered down and the control module is unable to receive power from the battery via the first electrical circuit path, wherein the machine comprises at least one of the following: an aircraft; a construction equipment; an electric power generation equipment; a marine equipment; a mining equipment and a rotating equipment. a control module ; a fluid component ; a battery, wherein the battery is connectable to the control module via a first electrical circuit path, and wherein the battery is also connectable to the control module via a second electrical circuit path; and an electrical circuit configured to: electrically couple the battery to the control module via the second electrical circuit path, wherein the second electrical circuit path comprises the fluid component; and transmit power from the battery via the second electrical control path to activate the control module when the machine is powered down and the control module is unable to receive power from the battery via the first electrical circuit path, wherein the machine comprises at least one of the following: an aircraft; a construction equipment; an electric power generation equipment; a marine equipment; a mining equipment and a rotating equipment. electrically couple the battery to the control module via the second electrical circuit path, wherein the second electrical circuit path comprises the fluid component; and transmit power from the battery via the second electrical control path to activate the control module when the machine is powered down and the control module is unable to receive power from the battery via the first electrical circuit path, wherein the machine comprises at least one of the following: an aircraft; a construction equipment; an electric power generation equipment; a marine equipment; a mining equipment and a rotating equipment.
A catalytic site-introduced functional separator for a lithium-sulfur battery comprising a base separator; and a catalytic site-containing coating layer located on the surface of the base separator; wherein the catalytic site contains a continuous bond of transition metal-nitrogen-carbon; wherein the content of the catalytic site-containing coating layer is 1 to 200 μ g/cm 2 relative to the surface area of the base separator.
An apparatus for controlling the state of preservation of foodstuffs, comprising a central data processing unit which collects, stores and displays information generated by a plurality of peripheral boards and transmitted to said central unit via field bus ; said peripheral boards being arranged in a controlled-atmosphere environment which contains foodstuffs; each peripheral board comprising a sensor array and performing continuous measurements of various parameters that are characteristic of said foodstuffs; said apparatus being characterized in that each said peripheral board comprises a series of sensors comprising: a sensor adapted to measure the current value of the photosynthetic activity and capacity of a foodstuff; a sensor adapted to measure the current color of said foodstuff; a sensor adapted to measure the consistency and water quantity of said foodstuff; a sensor adapted to measure the temperature of said foodstuff and of said peripheral board ; and a sensor adapted to measure the absolute and relative humidity of said peripheral board .
An apparatus for controlling a variable frequency ratio-metric pulse width clock signal, comprising: a subtractor having sign output used to generate a count enable signal , wherein the count enable signal is asserted when a first value at a first input is equal to or greater than a second value at a second input of the subtractor ; an accumulator having a clock input coupled to a clock signal comprising a plurality of clock pulses at a certain frequency; an adder having an output coupled to an input of the accumulator ; a multiplexer having an output coupled to a second input of the adder ; a first input coupled to an output of the accumulator , a second input coupled to a difference output of the subtractor , and a control input coupled to the sign output of the subtractor ; a numerator register having an output coupled to a first input of the adder , wherein the numerator register stores a numerator value; and a denominator register having an output coupled to the second input of the subtractor , wherein the denominator register stores a denominator value; wherein the numerator value is added to a value in the accumulator at each clock pulse until the subtractor determines that the value in the accumulator is equal to or greater than the denominator value in the denominator register then a resultant difference from the output of the subtractor is subtracted from the value in the accumulator , whereby the value in the accumulator remains between zero and the value in the denominator register . a subtractor having sign output used to generate a count enable signal , wherein the count enable signal is asserted when a first value at a first input is equal to or greater than a second value at a second input of the subtractor ; an accumulator having a clock input coupled to a clock signal comprising a plurality of clock pulses at a certain frequency; an adder having an output coupled to an input of the accumulator ; a multiplexer having an output coupled to a second input of the adder ; a first input coupled to an output of the accumulator , a second input coupled to a difference output of the subtractor , and a control input coupled to the sign output of the subtractor ; an output coupled to a second input of the adder ; a first input coupled to an output of the accumulator , a second input coupled to a difference output of the subtractor , and a control input coupled to the sign output of the subtractor ; a numerator register having an output coupled to a first input of the adder , wherein the numerator register stores a numerator value; and a denominator register having an output coupled to the second input of the subtractor , wherein the denominator register stores a denominator value; wherein the numerator value is added to a value in the accumulator at each clock pulse until the subtractor determines that the value in the accumulator is equal to or greater than the denominator value in the denominator register then a resultant difference from the output of the subtractor is subtracted from the value in the accumulator , whereby the value in the accumulator remains between zero and the value in the denominator register .
A method for transmitting a signal to a user equipment by a base station, using beamforming based on a massive antenna array in a wireless communication system, the method comprising: receiving information about an effective antenna array from the user equipment; transmitting a pilot signal corresponding to the information about the effective antenna array to the user equipment; receiving channel state information based on the pilot signal from the user equipment; and transmitting a user equipment-specifically beamformed signal through the effective antenna array corresponding to the information about the effective antenna array to the user equipment, wherein the information about the effective antenna array includes an index of a reference antenna port, which is a reference for defining a size of the effective antenna array, a number of antenna ports positioned horizontally from the reference antenna port and a number of antenna ports positioned vertically from the reference antenna port. receiving information about an effective antenna array from the user equipment; transmitting a pilot signal corresponding to the information about the effective antenna array to the user equipment; receiving channel state information based on the pilot signal from the user equipment; and transmitting a user equipment-specifically beamformed signal through the effective antenna array corresponding to the information about the effective antenna array to the user equipment, wherein the information about the effective antenna array includes an index of a reference antenna port, which is a reference for defining a size of the effective antenna array, a number of antenna ports positioned horizontally from the reference antenna port and a number of antenna ports positioned vertically from the reference antenna port.
Use of a powderous catalytic system comprising a metal alloy carrier comprising (i) 45 wt-% - 75 wt-%, based on the total weight of the metal alloy, of Fe, and (ii) 15 wt-% - 30 wt-%, based on the total weight of the metal alloy, of Ni, and (iii) 5 wt-% - 20 wt-%, based on the total weight of the metal alloy, of Co, and (iv) 3 wt-% - 8 wt-%, based on the total weight of the metal alloy, of Mo, and wherein the said metal alloy is coated by a metal oxide layer and impregnated with Pd, in selective catalytic hydrogenation of a compound of formulae and (i) 45 wt-% - 75 wt-%, based on the total weight of the metal alloy, of Fe, and (ii) 15 wt-% - 30 wt-%, based on the total weight of the metal alloy, of Ni, and (iii) 5 wt-% - 20 wt-%, based on the total weight of the metal alloy, of Co, and (iv) 3 wt-% - 8 wt-%, based on the total weight of the metal alloy, of Mo, and wherein the said metal alloy
A multilayered article comprising a layer containing a polyester resin as a main component and a layer containing a polyamide resin as a main component, wherein the polyamide resin included in the layer containing the polyamide resin as a main component includes from 90 to 60 parts by mass of a polyamide resin (B) per 10 to 40 parts by mass of a polyamide resin (A); the polyamide resin (A) is an aliphatic polyamide resin; and the polyamide resin (B) includes a structural unit derived from a diamine and a structural unit derived from a dicarboxylic acid, 70 mol% or more of the structural unit derived from a diamine being derived from xylylenediamine, and of the structural unit derived from a dicarboxylic acid, from 40 to 60 mol% being derived from an α,ω-linear aliphatic dicarboxylic acid having from 4 to 20 carbons, and from 60 to 40 mol% being derived from isophthalic acid, a total of which does not exceed 100 mol%, wherein the α,ω-linear aliphatic dicarboxylic acid having from 4 to 20 carbons is adipic acid, wherein the polyamide resin (A) is selected from the group consisting of polyamide 6, polyamide 66, and polyamide 666. the polyamide resin included in the layer containing the polyamide resin as a main component includes from 90 to 60 parts by mass of a polyamide resin (B) per 10 to 40 parts by mass of a polyamide resin (A); the polyamide resin (A) is an aliphatic polyamide resin; and the polyamide resin (B) includes a structural unit derived from a diamine and a structural unit derived from a dicarboxylic acid, 70 mol% or more of the structural unit derived from a diamine being derived from xylylenediamine, and of the structural unit derived from a dicarboxylic acid, from 40 to 60 mol% being derived from an α,ω-linear aliphatic dicarboxylic acid having from 4 to 20 carbons, and from 60 to 40 mol% being derived from isophthalic acid, a total of which does not exceed 100 mol%, wherein the α,ω-linear aliphatic dicarboxylic acid having from 4 to 20 carbons is adipic acid, wherein the polyamide resin (A) is selected from the group consisting of polyamide 6, polyamide 66, and polyamide 666.
A method of producing a renal cell culture comprising: a recovery step of recovering cultured renal cells; and a freezing step of freezing the renal cells recovered in the recovery step, and a culturing step of thawing frozen-state renal cells, wherein: the renal cells are recovered as an aggregate in the recovery step, and the aggregate is frozen while an aggregated state of the aggregate is maintained in the freezing step, and the renal cells are cultured in a state of being non-adhered onto a culture vessel for 5 days or longer in the culturing step. a recovery step of recovering cultured renal cells; and a freezing step of freezing the renal cells recovered in the recovery step, and a culturing step of thawing frozen-state renal cells, wherein: the renal cells are recovered as an aggregate in the recovery step, and the aggregate is frozen while an aggregated state of the aggregate is maintained in the freezing step, and the renal cells are cultured in a state of being non-adhered onto a culture vessel for 5 days or longer in the culturing step. the renal cells are recovered as an aggregate in the recovery step, and the aggregate is frozen while an aggregated state of the aggregate is maintained in the freezing step, and the renal cells are cultured in a state of being non-adhered onto a culture vessel for 5 days or longer in the culturing step.
Concrete safety barrier for a vehicle restraint system, wherein the concrete safety barrier comprises a deflector profile, in particular a New Jersey profile or a step profile, in order to guide oncoming vehicles in a longitudinal direction of the concrete safety barrier , characterized in that the concrete safety barrier is formed in a first region from fibrous concrete, and in a second region from a non-fibrous concrete, and in that the first region is arranged at least in part in a head region which is arranged on an upper side of the concrete safety barrier facing away from the bearing surface.
Twisting-torque sensor, comprising a first shaft, referred to as the transmission shaft , subjected to the torque to be measured, a second shaft , referred to as the reference shaft, and a device for measuring an angular deformation between the transmission shaft and the reference shaft , said angular deformation representing the torque to be measured, the transmission shaft comprising a bore forming an internal wall and extending from one end of the transmission shaft , referred to as the input of the shaft, to an opposite end, referred to as the output of the shaft, characterised in that the torque sensor comprises: - a temperature-confinement enclosure of the first and second shafts, and - a fluid-circulation circuit, comprising: - a portion constituted by said bore of the transmission shaft , - a fluid injector into the bore at said input of the shaft, and - a temperature sensor, referred to as the main temperature sensor , suitable for measuring the temperature of the fluid in the fluid-circulation circuit, the measured temperature of the fluid being intended for a correction of the torque measurement. - a temperature-confinement enclosure of the first and second shafts, and - a fluid-circulation circuit, comprising: - a portion constituted by said bore of the transmission shaft , - a fluid injector into the bore at said input of the shaft, and - a temperature sensor, referred to as the main temperature sensor , suitable for measuring the temperature of the fluid in the fluid-circulation circuit, the measured temperature of the fluid being intended for a correction of the torque measurement. - a portion constituted by said bore of the transmission shaft , - a fluid injector into the bore at said input of the shaft, and - a temperature sensor, referred to as the main temperature sensor , suitable for measuring the temperature of the fluid in the fluid-circulation circuit, the measured temperature of the fluid being intended for a correction of the torque measurement.
A method for the detection of asbestos in a sample, comprising: (a) contacting a sample with one or more asbestos binding peptides having from 5 to 50 amino acids comprising a motif S/T X S/T, wherein S/T means either serine or threonine amino acid in the sequence and X is an amino acid selected from A, H and R; and (b) detecting the presence of peptides bound to asbestos fibers. (a) contacting a sample with one or more asbestos binding peptides having from 5 to 50 amino acids comprising a motif S/T X S/T, wherein S/T means either serine or threonine amino acid in the sequence and X is an amino acid selected from A, H and R; and (b) detecting the presence of peptides bound to asbestos fibers.
A device to-be-charged , comprising a wireless receiving circuit configured to receive a wireless charging signal to charge a battery ; a charging management circuit configured to perform constant voltage control and/or constant current control on charging of the battery ; a step-down circuit configured to decrease an output voltage of the wireless receiving circuit or an output voltage of the charging management circuit to obtain a decreased voltage, wherein the decreased voltage is used for constant voltage control and/or constant current control by the charging management circuit or for charging of the battery ; and characterized by : a communication control circuit configured to perform wireless communication with a wireless charging apparatus according to the voltage difference between the input voltage of the charging management circuit and the output voltage of the charging management circuit , to instruct the wireless charging apparatus to adjust the wireless charging signal to decrease the voltage difference of the charging management circuit . a wireless receiving circuit configured to receive a wireless charging signal to charge a battery ; a charging management circuit configured to perform constant voltage control and/or constant current control on charging of the battery ; a step-down circuit configured to decrease an output voltage of the wireless receiving circuit or an output voltage of the charging management circuit to obtain a decreased voltage, wherein the decreased voltage is used for constant voltage control and/or constant current control by the charging management circuit or for charging of the battery ; and characterized by : a communication control circuit configured to perform wireless communication with a wireless charging apparatus according to the voltage difference between the input voltage of the charging management circuit and the output voltage of the charging management circuit , to instruct the wireless charging apparatus to adjust the wireless charging signal to decrease the voltage difference of the charging management circuit .
A receive end of a wireless charging system, comprising a receive coil (Cr), a rectifier (H2), and a receive end controller, wherein the receive coil is configured to receive an alternating magnetic field and output an alternating current: the rectifier is configured to rectify the alternating current from the receive coil into a direct current; and the receive end controller is configured to adjust, based on a target impedance sent by a transmit end controller, a reflection impedance reflected from the receive end to the transmit end, so that an inverter of the transmit end implements zero voltage switching; and a bridge arm voltage is a voltage between two bridge arm midpoints of a full bridge rectifier or a voltage between a single bridge arm midpoint of a half bridge rectifier and ground; wherein the rectifier is a full bridge rectifier comprising at least two controllable switching transistors or a half bridge rectifier comprising two controllable switching transistors; the receive end controller is specifically configured to obtain a corresponding target input impedance of the rectifier based on the target impedance; and obtain an equivalent input impedance of the rectifier, compare the corresponding target input impedance of the rectifier with the equivalent input impedance, and adjust a phase difference between an input current and a bridge arm voltage of the rectifier based on a comparison result so that the reflection impedance is consistent with the target impedance. the rectifier is configured to rectify the alternating current from the receive coil into a direct current; and the receive end controller is configured to adjust, based on a target impedance sent by a transmit end controller, a reflection impedance reflected from the receive end to the transmit end, so that an inverter of the transmit end implements zero voltage switching; and a bridge arm voltage is a voltage between two bridge arm midpoints of a full bridge rectifier or a voltage between a single bridge arm midpoint of a half bridge rectifier and ground; wherein the rectifier is a full bridge rectifier comprising at least two controllable switching transistors or a half bridge rectifier comprising two controllable switching transistors; the receive end controller is specifically configured to obtain a corresponding target input impedance of the rectifier based on the target impedance; and obtain an equivalent input impedance of the rectifier, compare the corresponding target input impedance of the rectifier with the equivalent input impedance, and adjust a phase difference between an input current and a bridge arm voltage of the rectifier based on a comparison result so that the reflection impedance is consistent with the target impedance.
Tyre having a radial carcass reinforcement intended to equip vehicles carrying heavy loads and running at sustained speed, comprising a crown reinforcement, itself capped radially with a tread joined to two beads via two sidewalls, said tread comprising at least two radially superposed layers of polymeric compound, a radially outer first layer that comes into contact with the ground and a radially inner second layer, characterized in that the second layer has a composition based on at least a diene elastomer, a reinforcing filler comprising predominantly a filler covered at least partially by silica, an agent for coupling the filler with the elastomer and a crosslinking system, the dispersion of the filler in the elastomeric matrix having a Z value greater than or equal to 70, the Z value being measured according to the method described by S. Otto et al. in Kautschuk Gummi Kunststoffe, 58 Jahrgang, NR 7-8/2005, in agreement with standard ISO 11345.
An additive of Formula II: wherein a, b, c, and d are independently integers from 0-20, wherein at least one of a, b, c, and d is 1 or greater, and wherein R 5 is a C 5 -C 36 branched or unbranched alkane, fluoroalkane, or polyalkylsiloxane.