mhurhangee/patent-ind-claim-en huggingface dataset:
Sampling device comprising: - a sampling capacitor (C ech ) having a first terminal forming a first input of the sampling device designed to receive a signal to be sampled, and a second terminal, - an amplifier having a first input terminal connected to the second terminal of the sampling capacitor (C ech ) so as to sample the voltage at the terminals of the sampling capacitor (C ech ) with respect to a reference, and a second input terminal connected to a source of reference voltage (V ref ), - a current source supplying the amplifier , the current source being configured to: o deliver a reduced current (i rep ) and supply the amplifier in a first operating condition during a first period or not supply the amplifier during the first period, o deliver a rated current (i nom ) and supply the amplifier in a second operating condition during a second period subsequent to the first period, the value of the reduced current (i rep ) being lower than the value of the rated current (i nom ) and possibly even zero, sampling device characterised in that , during the first period, a switch short-circuits the first input terminal with the second input terminal of the amplifier and the source of reference voltage (V ref ) applies a current charging the second terminal of the sampling capacitor (C ech ) and in that , during the second period, the switch is in blocking state. - a sampling capacitor (C ech ) having a first terminal forming a first input of the sampling device designed to receive a signal to be sampled, and a second terminal, - an amplifier having a first input terminal connected to the second terminal of the sampling capacitor (C ech ) so as to sample the voltage at the terminals of the sampling capacitor (C ech ) with respect to a reference, and a second input terminal connected to a source of reference voltage (V ref ), - a current source supplying the amplifier , the current source being configured to: o deliver a reduced current (i rep ) and supply the amplifier in a first operating condition during a first period or not supply the amplifier during the first period, o deliver a rated current (i nom ) and supply the amplifier in a second operating condition during a second period subsequent to the first period, the value of the reduced current (i rep ) being lower than the value of the rated current (i nom ) and possibly even zero, o deliver a reduced current (i rep ) and supply the amplifier in a first operating condition during a first period or not supply the amplifier during the first period, o deliver a rated current (i nom ) and supply the amplifier in a second operating condition during a second period subsequent to the first period, the value of the reduced current (i rep ) being lower than the value of the rated current (i nom ) and possibly even zero,
A quantum device including at least: - several spin qubits each comprising at least one quantum dot ; - several electrometers each electrostatically coupled to a potential well of the quantum dot of one of the spin qubits; - circuits for applying at least one AC excitation signal to at least one input electrode of each of the electrometers , configured such that a value of at least one parameter from the frequency, phase and maximum amplitude of each of the excitation signals is different from that of the other excitation signals; - a transimpedance amplifier comprising an input electrically coupled to output electrodes , distinct from the input electrodes , of at least two of the electrometers to which output signals are to be delivered; - a demultiplexing circuit including an input electrically coupled to an output of the transimpedance amplifier , and configured to demultiplex the output signals to be delivered by the electrometers . - several spin qubits each comprising at least one quantum dot ; - several electrometers each electrostatically coupled to a potential well of the quantum dot of one of the spin qubits; - circuits for applying at least one AC excitation signal to at least one input electrode of each of the electrometers , configured such that a value of at least one parameter from the frequency, phase and maximum amplitude of each of the excitation signals is different from that of the other excitation signals; - a transimpedance amplifier comprising an input electrically coupled to output electrodes , distinct from the input electrodes , of at least two of the electrometers to which output signals are to be delivered; - a demultiplexing circuit including an input electrically coupled to an output of the transimpedance amplifier , and configured to demultiplex the output signals to be delivered by the electrometers .
A knot pusher configured to push various types of knots including sliding knots and overhand knots formed from a suture, two limbs of the suture extending from the knots, the knot pusher comprising: a distal head defining top and bottom walls terminating in a distal knot pushing surface ; the distal head comprising side grooves defined between said top and bottom walls , said side grooves extending proximally from said knot pushing surface along said distal head , each operable to receive one of the two limbs of suture during advancement of said distal head to aid in pushing said overhand knot; and a top wall suture receiving element associated with said top wall for receiving one of the two limbs of the suture during advancement of said distal head to facilitate advancement of said sliding knot, the top wall suture receiving element comprises an intermediate groove formed within said top wall between said side grooves , said intermediate groove extending proximally from said knot pushing surface longitudinally along the full length of said distal head ; and a handle coupled to said distal head for advancing said distal head to push each of said knots, said handle being coupled to said distal head via an elongated shaft . a distal head defining top and bottom walls terminating in a distal knot pushing surface ; the distal head comprising side grooves defined between said top and bottom walls , said side grooves extending proximally from said knot pushing surface along said distal head , each operable to receive one of the two limbs of suture during advancement of said distal head to aid in pushing said overhand knot; and a top wall suture receiving element associated with said top wall for receiving one of the two limbs of the suture during advancement of said distal head to facilitate advancement of said sliding knot, the top wall suture receiving element comprises an intermediate groove formed within said top wall between said side grooves , said intermediate groove extending proximally from said knot pushing surface longitudinally along the full length of said distal head ; and a handle coupled to said distal head for advancing said distal head to push each of said knots, said handle being coupled to said distal head via an elongated shaft .
A station for recovering, recycling and reloading a fluid coolant of a refrigerating module, said station comprising an inner circuit for circulating said fluid coolant, said inner circuit comprising: - a low pressure inlet to be connected to the low-pressure outlet of said refrigerating module, - a separator capable of separating the fluid coolant and the oil recovered from the refrigerating module through the low-pressure inlet , - a condenser capable of condensing the coolant separated by the separator , - a fluid coolant storage tank , - a weighing cell having the tank mounted thereto and which is capable of weighing said tank , - a high pressure outlet to be connected to the high-pressure inlet of the refrigerating module, - a group of solenoid valves connected to the low-pressure inlet , to the separator , to the condenser , to the tank and to the high-pressure outlet in order to enable operation of the station at least in a recovery mode and a reloading mode, the station being characterised in that the separator and the condenser are mounted to the tank . - a low pressure inlet to be connected to the low-pressure outlet of said refrigerating module, - a separator capable of separating the fluid coolant and the oil recovered from the refrigerating module through the low-pressure inlet , - a condenser capable of condensing the coolant separated by the separator , - a fluid coolant storage tank , - a weighing cell having the tank mounted thereto and which is capable of weighing said tank , - a high pressure outlet to be connected to the high-pressure inlet of the refrigerating module, - a group of solenoid valves connected to the low-pressure inlet , to the separator , to the condenser , to the tank and to the high-pressure outlet in order to enable operation of the station at least in a recovery mode and a reloading mode, the station being characterised in that the separator and the condenser are mounted to the tank .
An overhead cam support system and cylinder head , wherein: the cylinder head includes at least one valve; and the overhead cam support system comprises a carrier housing rotatably supporting at least one camshaft for engaging the at least one valve, wherein the carrier housing includes a lower end mountable on an engine block independently of the cylinder head of the engine so that the carrier housing is supported directly on the engine block and not supported on or by the cylinder head . the cylinder head includes at least one valve; and the overhead cam support system comprises a carrier housing rotatably supporting at least one camshaft for engaging the at least one valve, wherein the carrier housing includes a lower end mountable on an engine block independently of the cylinder head of the engine so that the carrier housing is supported directly on the engine block and not supported on or by the cylinder head .
A nozzle assembly comprising: a) a nozzle housing comprising a nozzle cap , said nozzle cap having a top surface, and a nozzle base , said nozzle housing enclosing a nozzle cavity ; b) an injection stem formed as an integral portion of the nozzle cap and disposed within the nozzle cavity; c) a sample inlet formed in the nozzle cap of the nozzle housing and in fluid communication with the injection stem; d) a straight injection tube having a sample outlet , the injection tube being mounted with the injection stem of the nozzle housing and extending into the nozzle cavity, wherein the injection tube comprises a flow path of less than 50 mm providing fluid communication between the sample inlet of the nozzle housing and the sample outlet of the injection tube, wherein the injection tube is over molded or insert molded with the nozzle cap; e) one or more sheath inlets from the top surface of the nozzle cap in fluid communication with the nozzle cavity; and f) a nozzle exit orifice downstream of the sample outlet. a) a nozzle housing comprising a nozzle cap , said nozzle cap having a top surface, and a nozzle base , said nozzle housing enclosing a nozzle cavity ; b) an injection stem formed as an integral portion of the nozzle cap and disposed within the nozzle cavity; c) a sample inlet formed in the nozzle cap of the nozzle housing and in fluid communication with the injection stem; d) a straight injection tube having a sample outlet , the injection tube being mounted with the injection stem of the nozzle housing and extending into the nozzle cavity, wherein the injection tube comprises a flow path of less than 50 mm providing fluid communication between the sample inlet of the nozzle housing and the sample outlet of the injection tube, wherein the injection tube is over molded or insert molded with the nozzle cap; e) one or more sheath inlets from the top surface of the nozzle cap in fluid communication with the nozzle cavity; and f) a nozzle exit orifice downstream of the sample outlet.
A positively-electrified charged niosome, comprising: a niosome which includes as a constituent thereof a lipid containing at least one or a plurality of diacylglycerol PEG adducts chosen from a group which consists of glycerol PEG dioleate-12, glycerol PEG dimyristate-12, glycerol PEG dipalmitate-23, glycerol PEG distearate-12 and glycerol PEG distearate-23, and encapsulates a specified aqueous solution; and a cationic surfactant modifying a surface of the niosome with a positive charge of the hydrophilic part of the cationic surfactant; such that the niosome is charged with a zeta potential within a range of 60mV to 80mV, wherein the cationic surfactant is one or a plurality of cationic surfactants chosen from a group which consists of an aliphatic amine, an aliphatic or aliphatic-amide quaternary ammonium salt,an aliphatic amideamine and an acylamino acid derivative, and the hydrophobic part of the cationic surfactant contains one saturated or unsaturated normal hydrocarbon group having a carbon number of 11 to 21. a niosome which includes as a constituent thereof a lipid containing at least one or a plurality of diacylglycerol PEG adducts chosen from a group which consists of glycerol PEG dioleate-12, glycerol PEG dimyristate-12, glycerol PEG dipalmitate-23, glycerol PEG distearate-12 and glycerol PEG distearate-23, and encapsulates a specified aqueous solution; and a cationic surfactant modifying a surface of the niosome with a positive charge of the hydrophilic part of the cationic surfactant; such that the niosome is charged with a zeta potential within a range of 60mV to 80mV, wherein the cationic surfactant is one or a plurality of cationic surfactants chosen from a group which consists of an aliphatic amine, an aliphatic or aliphatic-amide quaternary ammonium salt,an aliphatic amideamine and an acylamino acid derivative, and the hydrophobic part of the cationic surfactant contains one saturated or unsaturated normal hydrocarbon group having a carbon number of 11 to 21.
Process for producing a viscous epoxy syrup from at least one liquid multifunctional epoxy, comprising the steps of: - adding an initiator selected from the group consisting of electron-poor monoisocyanate - wherein the electron poor monoisocyanate is selected from the group consisting of p-tolyl isocyanate, o-tolyl isocyanate and sulfonyl isocyanates -, photoinitiator and thermal initiator to at least one liquid multifunctional epoxy; - mixing the components; - initiating the polymerization; - polymerizing the multifunctional epoxy such that the viscosity of the resulting epoxy syrup is at least twice as high as the viscosity of the employed epoxy in the unreacted state, wherein the viscosity is measured as reported in the description, by employing the initiator in an amount of not more than 10% by weight when the initiator is selected as an electron-poor monoisocyanate or employing the initiator in an amount of not more than 0.1% by weight when the initiator is selected from the group consisting of photoinitiator and thermal initiator, characterized in that the resulting epoxy syrup comprises high molecular weight uncrosslinked polyepoxies. - adding an initiator selected from the group consisting of electron-poor monoisocyanate - wherein the electron poor monoisocyanate is selected from the group consisting of p-tolyl isocyanate, o-tolyl isocyanate and sulfonyl isocyanates -, photoinitiator and thermal initiator to at least one liquid multifunctional epoxy; - mixing the components; - initiating the polymerization; - polymerizing the multifunctional epoxy such that the viscosity of the resulting epoxy syrup is at least twice as high as the viscosity of the employed epoxy in the unreacted state, wherein the viscosity is measured as reported in the description, by employing the initiator in an amount of not more than 10% by weight when the initiator is selected as an electron-poor monoisocyanate or employing the initiator in an amount of not more than 0.1% by weight when the initiator is selected from the group consisting of photoinitiator and thermal initiator,
A vane structure for a gas turbine engine comprising: an airfoil section which defines an aperture , a first cooling cavity in communication with said aperture and a second cooling cavity in communication with said aperture ; and a baffle movably mounted within said aperture and through an outer vane platform segment , said baffle movable to control a cooling flow between said first cooling cavity and said second cooling cavity , where said baffle terminates in an inner vane platform segment . an airfoil section which defines an aperture , a first cooling cavity in communication with said aperture and a second cooling cavity in communication with said aperture ; and a baffle movably mounted within said aperture and through an outer vane platform segment , said baffle movable to control a cooling flow between said first cooling cavity and said second cooling cavity , where said baffle terminates in an inner vane platform segment .
Unlocking apparatus for the detection of at least one position of a drive unit in a slide unit or in the region of a slide unit for a vehicle , the unlocking apparatus having at least the following features: - the drive unit which, in a first position , is arranged or can be arranged at least partially in the slide unit of the unlocking apparatus , in order to lock or engage a parking lock of the vehicle , and which, in a second position , is arranged such that it is moved at least partially out of the slide unit , in order to unlock or disengage the parking lock ; - the slide unit which is formed to receive the drive unit at least partially at least in the first position of the drive unit ; and - a sensor device which has at least one drive sensor device which is arranged on the drive unit and/or one slide sensor device which is arranged on the slide unit , the sensor device being configured to detect at least one/the position of the drive unit , which is received in the slide unit or is arranged in the region of the slide unit , characterized in that the drive unit is formed as an eccentric device , the unlocking apparatus is equipped with an actuating device which is configured to move the eccentric device from the first position into the second position in response to an actuation of the actuating device , and a portion of the eccentric device , which portion is received in the slide unit , is formed to carry out a linear movement along an eccentric axle device of the eccentric device which extends perpendicularly with respect to a plane of the portion , in response to the actuation of the actuating device . - the drive unit which, in a first position , is arranged or can be arranged at least partially in the slide unit of the unlocking apparatus , in order to lock or engage a parking lock of the vehicle , and which, in a second position , is arranged such that it is moved at least partially out of the slide unit , in order to unlock or disengage the parking lock ; - the slide unit which is formed to receive the drive unit at least partially at least in the first position of the drive unit ; and - a sensor device which has at least one drive sensor device which is arranged on the drive unit and/or one slide sensor device which is arranged on the slide unit , the sensor device being configured to detect at least one/the position of the drive unit , which is received in the slide unit or is arranged in the region of the slide unit ,
An actuator for a thrust reverser, comprising a ball screw configured to be coupled to the thrust reverser; a ball nut coupled to the ball screw; a gerotor coupled to the ball screw, the gerotor including an inner rotor coupled to the ball screw and an outer rotor, a movement of the inner rotor relative to the outer rotor is configured to rotate the ball screw relative to the ball nut to move the thrust reverser between at least a first position and a second position, and the outer rotor includes a plurality of bores spaced apart about a perimeter of the outer rotor; and a lock system coupled to the outer rotor and movable between an unlocked state and a lock state, the lock system configured to enable the gerotor to rotate the ball screw in the unlocked state and to inhibit a rotation of the ball screw in the lock state, the lock system including a piston coupled to a piston housing and a grippable member coupled to the piston housing, the piston is received in one of the plurality of bores of the outer rotor in the lock state, and the grippable member is configured to move the piston housing relative to the gerotor to move the lock system to the unlocked state. a ball screw configured to be coupled to the thrust reverser; a ball nut coupled to the ball screw; a gerotor coupled to the ball screw, the gerotor including an inner rotor coupled to the ball screw and an outer rotor, a movement of the inner rotor relative to the outer rotor is configured to rotate the ball screw relative to the ball nut to move the thrust reverser between at least a first position and a second position, and the outer rotor includes a plurality of bores spaced apart about a perimeter of the outer rotor; and a lock system coupled to the outer rotor and movable between an unlocked state and a lock state, the lock system configured to enable the gerotor to rotate the ball screw in the unlocked state and to inhibit a rotation of the ball screw in the lock state, the lock system including a piston coupled to a piston housing and a grippable member coupled to the piston housing, the piston is received in one of the plurality of bores of the outer rotor in the lock state, and the grippable member is configured to move the piston housing relative to the gerotor to move the lock system to the unlocked state.
A data processing method comprising: storing, at a first memory location in a memory of a data processing apparatus, a first copy of a set of data ; storing, at a second memory location in the memory , a second copy of the set of data ; comparing the first copy to the second copy so as to identify, within the first copy , a pointer , the pointer being located at a first data element of the first copy , the pointer specifying a second data element of the first copy ; determining an offset for the identified pointer, the offset specifying a number of data elements between the first data element and the second data element; and modifying the first copy such that the pointer within the first copy specifies the second data element using only the first data element and the offset . storing, at a first memory location in a memory of a data processing apparatus, a first copy of a set of data ; storing, at a second memory location in the memory , a second copy of the set of data ; comparing the first copy to the second copy so as to identify, within the first copy , a pointer , the pointer being located at a first data element of the first copy , the pointer specifying a second data element of the first copy ; determining an offset for the identified pointer, the offset specifying a number of data elements between the first data element and the second data element; and modifying the first copy such that the pointer within the first copy specifies the second data element using only the first data element and the offset .
Method for manufacturing concrete mass, the concrete mass being manufactured in a mixer and the torque caused by the mixing of the concrete mass to the mixing elements used for mixing of the concrete mass or the power consumption of the drive motor of the mixer being measured in said method, characterized in, that the torque caused to the mixing elements of the concrete mass or the power consumption of the drive motor is measured at least with two different mixing speeds, and the received measurement results are used to determine the properties of the concrete mass including the slump of the concrete mass, the toughness and /or the air content of the concrete mass.