mhurhangee/patent-ind-claim-en huggingface dataset:
A topical pharmaceutical or cosmetic cleanser composition comprising a) benzoyl peroxide present in an amount from about 2.0% to about 20% w/w; b) water, c) at least one anionic surfactant which is a alkyl glucoside (AG) derivative surfactant selected from an alkylglycoside sulfonate, an alkylpolyglycoside sulfonate, or an alkylpolyglycoside phosphate; d) at least one humectant, e) a thickening agent, and f) optionally at least one dermatologically acceptable excipient. a) benzoyl peroxide present in an amount from about 2.0% to about 20% w/w; b) water, c) at least one anionic surfactant which is a alkyl glucoside (AG) derivative surfactant selected from an alkylglycoside sulfonate, an alkylpolyglycoside sulfonate, or an alkylpolyglycoside phosphate; d) at least one humectant, e) a thickening agent, and f) optionally at least one dermatologically acceptable excipient.
An electronic stylus comprising: an elongated body ; a rechargeable battery supported by the elongated body ; a retention mechanism for securing the electronic stylus to a computing device , the retention mechanism extending from the elongated body and including an electrically conductive contact , the electrically conductive contact being electrically coupled to the rechargeable battery , characterized by a release mechanism for releasing the electronic stylus from the computing device , the release mechanism being configured to cause the electrically conductive contact to retract within the retention mechanism to release the electronic stylus from the computing device. an elongated body ; a rechargeable battery supported by the elongated body ; a retention mechanism for securing the electronic stylus to a computing device , the retention mechanism extending from the elongated body and including an electrically conductive contact , the electrically conductive contact being electrically coupled to the rechargeable battery , characterized by a release mechanism for releasing the electronic stylus from the computing device , the release mechanism being configured to cause the electrically conductive contact to retract within the retention mechanism to release the electronic stylus from the computing device.
A therapeutically effective amount of tropoelastin for use in a method of inducing formation of bone in an individual requiring bone formation, wherein the individual has a bone defect in which bone formation is required and wherein tropoelastin induces bone formation.
A resistance bridge , comprising: a current source ; a first internal resistor coupled in series to a second internal resistor , the first and second 106) internal resistors coupled to the current source; a measurement circuit coupled to the first internal resistor at a first node and a second node and coupled to the second internal resistor at the second node and a third node, the measurement circuit being operable to measure a first electrical parameter of the first resistor via the first and second nodes, measure a second electrical parameter of the second resistor via the second and third nodes, and measure a third electrical parameter of a combination of the first and second 106) resistors via the first and third nodes, wherein the measurement circuit is a voltage measurement circuit and the first electrical parameter is a first voltage across the first internal resistor , the second electrical parameter is a second voltage across the second internal resistor , the third electrical parameter is a third voltage across a combination of the first and second internal resistors; and a microprocessor coupled to the measurement circuit , the microprocessor being operable to determine whether the resistance bridge has linearity using the first, second, and third measured electrical parameters, wherein the microprocessor is configured to determine linearity by converting the first and third electrical parameters to a first ratio and converting the second and third electrical parameters to a second ratio, summing the first and second ratios, and comparing the summed ratios to a value of one. a current source ; a first internal resistor coupled in series to a second internal resistor , the first and second 106) internal resistors coupled to the current source; a measurement circuit coupled to the first internal resistor at a first node and a second node and coupled to the second internal resistor at the second node and a third node, the measurement circuit being operable to measure a first electrical parameter of the first resistor via the first and second nodes, measure a second electrical parameter of the second resistor via the second and third nodes, and measure a third electrical parameter of a combination of the first and second 106) resistors via the first and third nodes, wherein the measurement circuit is a voltage measurement circuit and the first electrical parameter is a first voltage across the first internal resistor , the second electrical parameter is a second voltage across the second internal resistor , the third electrical parameter is a third voltage across a combination of the first and second internal resistors; and a microprocessor coupled to the measurement circuit , the microprocessor being operable to determine whether the resistance bridge has linearity using the first, second, and third measured electrical parameters, wherein the microprocessor is configured to determine linearity by converting the first and third electrical parameters to a first ratio and converting the second and third electrical parameters to a second ratio, summing the first and second ratios, and comparing the summed ratios to a value of one.
A method for controlling at least one valve (11; 11'; 11"; 11′′′) provided to a tube (3a-c) in a bioprocess flow system , said method comprising the steps of: - controlling (S1) the at least one valve to be in a first state, which is an open state when a flow through the tube should be allowed; - controlling (S3) the at least one valve to be in a second state during some parts of a process run in the system, said second state is a closed state were a first closing force is provided; and - controlling (S5) the at least one valve to be in a third state during some parts of a process run in the system, said third state is a closed state were a second closing force is provided which is a higher force than the first closing force; - wherein the step of controlling (S3) the at least one valve (11; 11') to be in a second state comprises pinching the tube with the first closing force, which first closing force is adapted to stop the flow in the tube at a first fluid pressure in the tube; and wherein the step of controlling (S5) the at least one valve (11; 11') to be in a third state comprises pinching the tube with the second closing force, which second closing force is adapted to stop the flow in the tube at a second fluid pressure in the tube which is higher than the first fluid pressure in the tube. - controlling (S1) the at least one valve to be in a first state, which is an open state when a flow through the tube should be allowed; - controlling (S3) the at least one valve to be in a second state during some parts of a process run in the system, said second state is a closed state were a first closing force is provided; and - controlling (S5) the at least one valve to be in a third state during some parts of a process run in the system, said third state is a closed state were a second closing force is provided which is a higher force than the first closing force; - wherein the step of controlling (S3) the at least one valve (11; 11') to be in a second state comprises pinching the tube with the first closing force, which first closing force is adapted to stop the flow in the tube at a first fluid pressure in the tube; and wherein the step of controlling (S5) the at least one valve (11; 11') to be in a third state comprises pinching the tube with the second closing force, which second closing force is adapted to stop the flow in the tube at a second fluid pressure in the tube which is higher than the first fluid pressure in the tube.
A system configured for obtaining electricity in an offshore wind turbine farm and including a first arrangement that comprises: a gearbox configured to mechanically convert a variable first rotational speed of a wind turbine into a higher variable second rotational speed; a generator having a rated electrical frequency for full-power output in a range from about 50 Hz to about 150 Hz, and configured to be driven at the variable second rotational speed by an output of the gearbox and to thereby generate electricity at a correspondingly variable first frequency; characterized in that it further comprises an AC-to-AC converter configured to convert the electricity from the generator into electricity output from the AC-to-AC converter at a fixed low frequency for off-shore collection at the fixed low frequency, wherein the fixed low frequency is lower than a utility grid frequency, and a step-up transformer having a rated electrical frequency corresponding to the rated electrical frequency of the generator , wherein the step-up transformer is connected between the generator and the AC-to-AC converter , wherein the step-up transformer is configured to step up a voltage of the electricity output from the generator , and thereby output electricity at a stepped-up voltage, and wherein the AC-to-AC converter is configured to convert the electricity output at the stepped-up voltage from the step-up transformer . a gearbox configured to mechanically convert a variable first rotational speed of a wind turbine into a higher variable second rotational speed; a generator having a rated electrical frequency for full-power output in a range from about 50 Hz to about 150 Hz, and configured to be driven at the variable second rotational speed by an output of the gearbox and to thereby generate electricity at a correspondingly variable first frequency; characterized in that it further comprises an AC-to-AC converter configured to convert the electricity from the generator into electricity output from the AC-to-AC converter at a fixed low frequency for off-shore collection at the fixed low frequency, wherein the fixed low frequency is lower than a utility grid frequency, and a step-up transformer having a rated electrical frequency corresponding to the rated electrical frequency of the generator , wherein the step-up transformer is connected between the generator and the AC-to-AC converter , wherein the step-up transformer is configured to step up a voltage of the electricity output from the generator , and thereby output electricity at a stepped-up voltage, and wherein the AC-to-AC converter is configured to convert the electricity output at the stepped-up voltage from the step-up transformer .
A high frequency reaction processing apparatus , comprising: an outer container made of a dielectric material and having an inner cavity capable of being closed by two end faces, a covering portion made of a conductive material and kept at the same potential as ground potential of a high frequency waveguide , at least one high frequency wave coupling portion provided at any position of an outer surface of the covering portion, and at least one inner container made of a dielectric material, provided at a position for receiving a high frequency wave travelling through the high frequency wave coupling portion without touching an inner side face of the outer container and having an inner cavity capable of being closed by two end faces, a lid portion made of conductor kept at the same potential as ground potential of the high frequency waveguide, the lid portion closing the inner cavity of the inner container at an end face of the inner container, wherein the lid portion has a fitting groove for fitting an end part of the inner container , and the apparatus is configured to perform a reaction process by electromagnetic waves guided from the high frequency wave coupling portion in the inner cavity of the inner container , characterised in that the fitting groove has a depth with a length of 1/8 wavelength or more and 1/2 wavelength or less of the guided high frequency wave and accommodates an end part of the inner container without contacting a side surface of the inner container . an outer container made of a dielectric material and having an inner cavity capable of being closed by two end faces, a covering portion made of a conductive material and kept at the same potential as ground potential of a high frequency waveguide , at least one high frequency wave coupling portion provided at any position of an outer surface of the covering portion, and at least one inner container made of a dielectric material, provided at a position for receiving a high frequency wave travelling through the high frequency wave coupling portion without touching an inner side face of the outer container and having an inner cavity capable of being closed by two end faces, a lid portion made of conductor kept at the same potential as ground potential of the high frequency waveguide, the lid portion closing the inner cavity of the inner container at an end face of the inner container, wherein the lid portion has a fitting groove for fitting an end part of the inner container , and the apparatus is configured to perform a reaction process by electromagnetic waves guided from the high frequency wave coupling portion in the inner cavity of the inner container , characterised in that the fitting groove has a depth with a length of 1/8 wavelength or more and 1/2 wavelength or less of the guided high frequency wave and accommodates an end part of the inner container without contacting a side surface of the inner container .
A device for controlling the power of electrical loads connected to an alternating voltage supply network, with - a circuit element in series with the load and having a control input, - an ignition device for driving the circuit element and performing a phase control with an adjustable phase angle, - an adjusting element which is associated with the ignition device and allows the phase angle to be adjusted, characterised by a monitoring device which is assigned to the setting element and the ignition device and is designed to detect the setting position of the setting element and to deactivate the ignition device as a function thereof, wherein the adjustment element is a potentiometer having an output, and the monitoring device is connected to the output of the potentiometer to detect the voltage at the output and hence the adjustment position, and the monitoring device comprises means for comparing the voltage at the output with a voltage reference value. - a circuit element in series with the load and having a control input, - an ignition device for driving the circuit element and performing a phase control with an adjustable phase angle, - an adjusting element which is associated with the ignition device and allows the phase angle to be adjusted,
Piece of furniture , in particular seating furniture, comprising a base part on which a movable furniture part is pivotably mounted via at least one pivot fitting , wherein the at least one pivot fitting is fixed to the base part by means of a first lever and is fixed to the movable furniture part by means of a second lever which is arranged pivotably with respect to the first lever , wherein the second lever is fixed to a molded body which is provided with a plurality of hollow chambers and which forms a core of the movable furniture part and a pocket for accommodating at least part of the second lever is formed in the molded body , characterized in that a slot is formed on the molded body through which the first lever is passed.
Assembly comprising a sensor for measuring a physical quantity relating to the content of a confined environment, and a device for fastening said assembly on a wall of said confined environment, wherein: - the fastening device comprises a thimble fastened on the wall of the confined environment, the thimble comprising a portion penetrating into the confined environment; - the measurement sensor comprises a probe positioned inside the penetrating portion of the thimble , such that the probe is isolated from direct contact with the contents of the confined environment; - the measurement sensor is connected to the thimble by a fastening that can be attached and detached manually; which assembly is characterized in that it comprises a draining means that can drain a fluid present in the thimble. - the fastening device comprises a thimble fastened on the wall of the confined environment, the thimble comprising a portion penetrating into the confined environment; - the measurement sensor comprises a probe positioned inside the penetrating portion of the thimble , such that the probe is isolated from direct contact with the contents of the confined environment; - the measurement sensor is connected to the thimble by a fastening that can be attached and detached manually;
A computer-implemented method for anonymizing data, the method comprising: receiving, by a processing device , raw data from a wellbore operation , wherein the raw data are associated with depths; anonymizing, by the processing device , the raw data to convert the raw data to anonymized data by shuffling the raw data and removing the association with the depths; analyzing, by the processing device , the anonymized data ; and performing an action at the wellbore operation based at least in part on the analysis of the anonymized data . receiving, by a processing device , raw data from a wellbore operation , wherein the raw data are associated with depths; anonymizing, by the processing device , the raw data to convert the raw data to anonymized data by shuffling the raw data and removing the association with the depths; analyzing, by the processing device , the anonymized data ; and performing an action at the wellbore operation based at least in part on the analysis of the anonymized data .
A workpiece support assembly comprising: - a pedestal ; - a support tube carried by the pedestal and having a longitudinal axis; - an offset arm carried by the support tube and selectively rotatable about its longitudinal axis, the arm having a rectilinear channel formed therein; and - a fixture element supported above the channel and movable along a line parallel thereto, the fixture element having at least two degrees of rotational freedom. - a pedestal ; - a support tube carried by the pedestal and having a longitudinal axis; - an offset arm carried by the support tube and selectively rotatable about its longitudinal axis, the arm having a rectilinear channel formed therein; and - a fixture element supported above the channel and movable along a line parallel thereto, the fixture element having at least two degrees of rotational freedom.
A gas turbine engine comprising: a fan ; a high pressure turbine configured to rotate with a high pressure compressor as a high pressure spool in a first direction about a central axis (C); a low pressure turbine configured to rotate with a low pressure compressor as a low pressure spool , said high pressure spool operating with gases at a higher pressure than said low pressure spool , and said high pressure spool rotating at a higher speed than said low pressure spool ; a mid-turbine frame for supporting said high pressure turbine , said mid-turbine frame including a first bearing supporting said high pressure turbine , and a strut supporting said first bearing at a location between said high pressure turbine and said low pressure turbine ; and a plurality of vanes associated with a first stage of said low pressure turbine , wherein said plurality of vanes are incorporated into said mid-turbine frame , characterised in that : said low pressure spool is configured to rotate in a second direction about said central axis (C), wherein said first direction is opposite to the second direction; and said fan is connected to the low pressure spool via a speed changing mechanism and said fan rotates in said second direction. a fan ; a high pressure turbine configured to rotate with a high pressure compressor as a high pressure spool in a first direction about a central axis (C); a low pressure turbine configured to rotate with a low pressure compressor as a low pressure spool , said high pressure spool operating with gases at a higher pressure than said low pressure spool , and said high pressure spool rotating at a higher speed than said low pressure spool ; a mid-turbine frame for supporting said high pressure turbine , said mid-turbine frame including a first bearing supporting said high pressure turbine , and a strut supporting said first bearing at a location between said high pressure turbine and said low pressure turbine ; and a plurality of vanes associated with a first stage of said low pressure turbine , wherein said plurality of vanes are incorporated into said mid-turbine frame , characterised in that : said low pressure spool is configured to rotate in a second direction about said central axis (C), wherein said first direction is opposite to the second direction; and said fan is connected to the low pressure spool via a speed changing mechanism and said fan rotates in said second direction. said low pressure spool is configured to rotate in a second direction about said central axis (C), wherein said first direction is opposite to the second direction; and said fan is connected to the low pressure spool via a speed changing mechanism and said fan rotates in said second direction.
Organosilicon compound of formula : wherein each A independently is a straight or branched C 1 -C 8 alkylene group, each B independently is a straight or branched C 1 -C 8 alkylene group and each D independently is a straight or branched C 1 -C 8 alkylene group; each R independently is a hydrolysable halogen atom or alkoxy group and each R' independently is a C 1 -C 4 alkyl group; a is a number of 1 to 2, b is a number of 2 to 3, c is 0 or 1, a+b+c is 4 and m is 1 to 3; but not being the compound of formula in which a is 1, b is 3, c is 0, each A is -C 2 H 4 -, each B is -CH 2 -, D is - (CH 2 ) 3 -, m is 3 and each R is ethoxy. each A independently is a straight or branched C 1 -C 8 alkylene group, each B independently is a straight or branched C 1 -C 8 alkylene group and each D independently is a straight or branched C 1 -C 8 alkylene group; each R independently is a hydrolysable halogen atom or alkoxy group and each R' independently is a C 1 -C 4 alkyl group; a is a number of 1 to 2, b is a number of 2 to 3, c is 0 or 1, a+b+c is 4 and m is 1 to 3; but not being the compound of formula in which a is 1, b is 3, c is 0, each A is -C 2 H 4 -, each B is -CH 2 -, D is - (CH 2 ) 3 -, m is 3 and each R is ethoxy.
Door component with at least one controllable damper device containing a magnetorheological fluid as the working fluid, comprising two connecting units movable relative to one another, one of the two connecting units being provided for connecting with a supporting structure and the other of the two connecting units , with a movable door device in particular of a vehicle , to at least partially control the damping of a movement of the door device between a closed position and an open position , wherein the magnetorheological damper device comprises a piston unit and a cylinder unit surrounding the piston unit , the piston unit subdividing the cylinder volume in two chambers , characterized in that the piston unit is equipped with a first one-way valve , and that the two chambers are interconnected through a feedback channel and a magnetorheological damping valve to form a one-way circuit so that the magnetorheological fluid flows through the piston unit in the same flow direction both when the piston unit retracts and when it extends.