mhurhangee/patent-ind-claim-en huggingface dataset:
A control assembly for controlling a tubular handling apparatus , comprising: a housing including a recessed portion configured to receive at least a portion of a hand; a handle rigidly connected to the housing ; and a toggle lever configured to control the tubular handling apparatus ; wherein the handle and the toggle lever are positioned such that the same hand can grasp the handle and operate the toggle lever . a housing including a recessed portion configured to receive at least a portion of a hand; a handle rigidly connected to the housing ; and a toggle lever configured to control the tubular handling apparatus ; wherein the handle and the toggle lever are positioned such that the same hand can grasp the handle and operate the toggle lever .
A transmitter for generating a wireless power to be transmitted to a receiver , the transmitter comprising: a power conversion part comprising a full bridge inverter; and a control part for controlling the power conversion part using pulse width modulation (PWM) control signals, characterized in that the control part is configured to determine a duty ratio of the PWM control signal by a duty ratio in which the maximum harmonic distortion of an output signal of the power conversion part has a minimum value, wherein the maximum harmonic distortion is defined as a ratio of an RMS of a maximum magnitude harmonic component contrasted with an RMS of a fundamental wave. a power conversion part comprising a full bridge inverter; and a control part for controlling the power conversion part using pulse width modulation (PWM) control signals, characterized in that the control part is configured to determine a duty ratio of the PWM control signal by a duty ratio in which the maximum harmonic distortion of an output signal of the power conversion part has a minimum value, wherein the maximum harmonic distortion is defined as a ratio of an RMS of a maximum magnitude harmonic component contrasted with an RMS of a fundamental wave.
A binary process for manufacturing dipped latex product, the said process comprising the steps of : preparing a first latex mixture Formulation A comprising latex, one or more accelerators, and one or more surfactants without any curing agents; preparing a second latex mixture Formulation B comprising latex, one or more curing agents, and one or more surfactants without any accelerators; dipping one or more formers into the Formulation A and B separately in order to form a plurality of coatings/layers of the Formulation A and B; and curing the plurality of coatings/layers on the formers to form the dipped latex products. preparing a first latex mixture Formulation A comprising latex, one or more accelerators, and one or more surfactants without any curing agents; preparing a second latex mixture Formulation B comprising latex, one or more curing agents, and one or more surfactants without any accelerators; dipping one or more formers into the Formulation A and B separately in order to form a plurality of coatings/layers of the Formulation A and B; and curing the plurality of coatings/layers on the formers to form the dipped latex products.
A method for manufacturing a copper alloy, the method comprising the steps of: (a) weighing a copper powder and one of a Cu-Zr master alloy and a ZrH 2 powder such that an alloy composition of Cu-xZr, where x is the atomic% of Zr, and 0.5 ≤ x ≤ 8.6 is satisfied, is obtained and pulverizing and mixing the copper powder and the one of the Cu-Zr master alloy and the ZrH 2 powder in an inert atmosphere until an average particle diameter D50 falls within the range of from 1 μm to 500 μm to thereby obtain a powder mixture; and (b) subjecting the powder mixture to spark plasma sintering by holding the powder mixture at a prescribed temperature lower than eutectic temperature while the powder mixture is pressurized at a pressure within a prescribed range. (a) weighing a copper powder and one of a Cu-Zr master alloy and a ZrH 2 powder such that an alloy composition of Cu-xZr, where x is the atomic% of Zr, and 0.5 ≤ x ≤ 8.6 is satisfied, is obtained and pulverizing and mixing the copper powder and the one of the Cu-Zr master alloy and the ZrH 2 powder in an inert atmosphere until an average particle diameter D50 falls within the range of from 1 μm to 500 μm to thereby obtain a powder mixture; and (b) subjecting the powder mixture to spark plasma sintering by holding the powder mixture at a prescribed temperature lower than eutectic temperature while the powder mixture is pressurized at a pressure within a prescribed range.
A guard rail system for installation at a lateral or median side of a road , said guard rail system comprises a series of supporting posts , that are preferably vertically oriented, at least one noise absorbing panel that is mounted to said supporting posts , and a series of longitudinal guard rails mounted on the side of the guard rail system facing the road, said noise absorbing panel comprising a noise absorbing material and an energy absorbing material provided with openings, characterised in that the energy absorbing material is a stretch-metal netting encasing said noise absorbing material .
A dental prosthesis formed of a composition comprising a polymeric material, the prosthesis comprising one or more locating formations adapted to receive a dental implant fixture or dental abutment, the or each locating formation comprising a recess comprising a first recess portion formed in the polymeric material of the prosthesis , and a second recess portion provided in a sleeve located in the prosthesis, characterised in that the recess has an inverted frustum-shape.
An intraocular lens (IOL) configured for placement in or adjacent to a lens capsule, the IOL having an optical axis (CA) extending in an anterior-posterior direction, an equator (E) in a plane substantially perpendicular to the optical axis (CA), an accommodated state, a dis-accommodated state, and states therebetween, the IOL comprising: a shape-changing optic comprising: an elastic anterior face located anterior to the equator (E), having an anterior surface , a posterior surface , and a periphery ; a posterior face located posterior to the equator (E), having an anterior surface , a posterior surface , and a periphery ; an elastic side wall extending across the equator (E) and extending from the anterior face to the posterior face ; a chamber located between the anterior face and the posterior face and containing a material, wherein the anterior face is firmer or less pliable than the material; and at least one haptic having a medial portion, a lateral portion, and a peripheral portion, the medial portion being molded to the periphery of the anterior face , and the peripheral portion having a posterior face and an anterior face, wherein the anterior face comprises ridges configured to engage an inner surface of the lens capsule. an elastic anterior face located anterior to the equator (E), having an anterior surface , a posterior surface , and a periphery ; a posterior face located posterior to the equator (E), having an anterior surface , a posterior surface , and a periphery ; an elastic side wall extending across the equator (E) and extending from the anterior face to the posterior face ; a chamber located between the anterior face and the posterior face and containing a material, wherein the anterior face is firmer or less pliable than the material; and at least one haptic having a medial portion, a lateral portion, and a peripheral portion, the medial portion being molded to the periphery of the anterior face , and the peripheral portion having a posterior face and an anterior face, wherein the anterior face comprises ridges configured to engage an inner surface of the lens capsule.
Method for producing a hot strip of a bainitic multi-phase steel having a Zn-Mg-Al coating, comprising the steps of: - melting a steel melt consisting in weight percent of C: 0.04 - 0.11 Si: <= 0.7 Mn: 1.4 - 2.2 Mo: 0.05 - 0.5 Al: 0.015 - 0.1 P: up to 0.02 S: up to 0.01 B: up to 0.006 and at least one element from the group Nb, V, Ti according to the following condition: 0.02 <= Nb + V + Ti <= 0.20 and optionally in total the Ti and Mo content > 0.1 with the remainder being iron including unavoidable melting-induced, steel accompanying elements, - casting the steel melt to form a precursor material, in particular a slab or a block or a thin slab, - hot roiling the precursor material to form a hot strip having an end rolling temper ture in a range of 800 to 950°C, - cooling the hot strip to a reeling temperature of less than 650°C, - reeling the hot strip at a reeling temperature of less than 650°C, - cooling the reeled hot strip to room temperature in stationary air, wherein the microstructure of the reeled hot strip after hot rolling then has a bainite content of greater than 50%, - heating the hot strip to a temperature of greater than 650°C and less than Ac3, in particular less than Ac1 + 50°C, - cooling the hot strip to zinc bath temperature, - hot-dip coating the heated hot strip in a zinc alloy melt bath containing in weight percent Al: 1.3 - 1.7 Mg: 1.0 - 1.2 with the remainder being zinc and unavoidable impurities. - melting a steel melt consisting in weight percent of C: 0.04 - 0.11 Si: <= 0.7 Mn: 1.4 - 2.2 Mo: 0.05 - 0.5 Al: 0.015 - 0.1 P: up to 0.02 S: up to 0.01 B: up to 0.006 and at least one element from the group Nb, V, Ti according to the following condition: 0.02 <= Nb + V + Ti <= 0.20 and optionally in total the Ti and Mo content > 0.1 with the remainder being iron including unavoidable melting-induced, steel accompanying elements, C: 0.04 - 0.11 Si: <= 0.7 Mn: 1.4 - 2.2 Mo: 0.05 - 0.5 Al: 0.015 - 0.1 P: up to 0.02 S: up to 0.01 B: up to 0.006 - casting the steel melt to form a precursor material, in particular a slab or a block or a thin slab, - hot roiling the precursor material to form a hot strip having an end rolling temper ture in a range of 800 to 950°C, - cooling the hot strip to a reeling temperature of less than 650°C, - reeling the hot strip at a reeling temperature of less than 650°C, - cooling the reeled hot strip to room temperature in stationary air, wherein the microstructure of the reeled hot strip after hot rolling then has a bainite content of greater than 50%, - heating the hot strip to a temperature of greater than 650°C and less than Ac3, in particular less than Ac1 + 50°C, - cooling the hot strip to zinc bath temperature, - hot-dip coating the heated hot strip in a zinc alloy melt bath containing in weight percent Al: 1.3 - 1.7 Mg: 1.0 - 1.2 with the remainder being zinc and unavoidable impurities. Al: 1.3 - 1.7 Mg: 1.0 - 1.2
Cooling unit comprising at least one plate and at least one distributing element , each of the distributing elements being arranged perpendicular to the at least one plate , especially for liquid cooling of power semiconductors, which unit in use cools component (s) arranged on the upper side of said at least one plate , the bottom side of said at least one plate being cooled by a liquid, which is guided along said plate by means of said at least one distributing element , characterised in that each of said at least one distributing element is divided into cells and having at least two cells for each plate , each cell having a liquid inlet and a liquid outlet being arranged perpendicular to said plate, the liquid flowing through the at least two cells connected in parallel, wherein in each of the cells the liquid is directed along a bottom side of said at least one plate by guiding walls so that the liquid flow in the cell arrangement follows passages, which cause a change of direction of the liquid, and wherein the side of the at least one distributing element facing away from said plate is provided with separating walls creating a first chamber , which connects all liquid inlets with each other, and a second chamber , which connects all liquid outlets with each other, when said distributing element is mounted on a bottom plate .
A guiding device for assembling towers and/or foundations for wind turbines, intended to enable and/or facilitate relative movement between a mobile element and a support element , at least one of said elements being a section and/or part of the shaft of a wind turbine tower or foundation , wherein the guiding device comprises: - sliding means that can be brought in contact with the mobile element and allow a substantially vertical relative movement thereof with respect to the guiding device ; - securing means that may connect the guiding device to the support element ; - means for geometric adaptation disposed between the sliding means and the securing means , which allow load transmission between the sliding means and the securing means while at the same time also allowing relative movement between the two; and characterised in that the guiding device is anchored to a substantially horizontal surface of a top portion or a substantially horizontal surface of a bottom portion of the support element . - sliding means that can be brought in contact with the mobile element and allow a substantially vertical relative movement thereof with respect to the guiding device ; - securing means that may connect the guiding device to the support element ; - means for geometric adaptation disposed between the sliding means and the securing means , which allow load transmission between the sliding means and the securing means while at the same time also allowing relative movement between the two;
Method for determining a set of corrections (Corr.) to be made to a multichannel sound signal, characterized by determining said set of corrections from information representative of a spatial image of an original multichannel signal (Inf. B ) and from information representative of a spatial image of the original coded and then decoded multichannel signal (Inf. B̂ ).
A computing system, comprising: a capacitive touch sensor comprising two or more non-crossing conductive lines that form at least a first conductive line pattern at at least a first area of the capacitive touch sensor , wherein the first conductive line pattern comprises a first line sequence of the two or more non-crossing conductive lines relative to a first input direction , a second line sequence of the two or more non-crossing conductive lines relative to a second input direction , and a third line sequence of the two or more non-crossing conductive lines relative to a third input direction ; one or more computer-readable media that store instructions that, when executed by one or more processors, cause the one or more processors to perform operations, the operations comprising: obtaining touch data indicative of a touch input to the capacitive touch sensor , the touch data being based at least in part on a change in capacitance associated with the two or more non-crossing conductive lines ; identifying at least one of the first line sequence , the second line sequence , or the third line sequence based on the touch data; and determining a respective gesture corresponding to at least one of the first line sequence , the second line sequence , or the third line sequence . a capacitive touch sensor comprising two or more non-crossing conductive lines that form at least a first conductive line pattern at at least a first area of the capacitive touch sensor , wherein the first conductive line pattern comprises a first line sequence of the two or more non-crossing conductive lines relative to a first input direction , a second line sequence of the two or more non-crossing conductive lines relative to a second input direction , and a third line sequence of the two or more non-crossing conductive lines relative to a third input direction ; one or more computer-readable media that store instructions that, when executed by one or more processors, cause the one or more processors to perform operations, the operations comprising: obtaining touch data indicative of a touch input to the capacitive touch sensor , the touch data being based at least in part on a change in capacitance associated with the two or more non-crossing conductive lines ; identifying at least one of the first line sequence , the second line sequence , or the third line sequence based on the touch data; and determining a respective gesture corresponding to at least one of the first line sequence , the second line sequence , or the third line sequence . obtaining touch data indicative of a touch input to the capacitive touch sensor , the touch data being based at least in part on a change in capacitance associated with the two or more non-crossing conductive lines ; identifying at least one of the first line sequence , the second line sequence , or the third line sequence based on the touch data; and determining a respective gesture corresponding to at least one of the first line sequence , the second line sequence , or the third line sequence .
A THz laser source comprising: - a first generator suitable for emitting at least one first light emission (i) of frequency w1 = n w a and one second light emission (ii) of frequency w2 = m w a , where n and m are integers higher than or equal to 1 and where w a is a first reference frequency; - a second generator suitable for emitting at least one first light emission (iii) of frequency w 3 = l w b and one second light emission (iv) of frequency w 4 = p w b , wherein l and p are integers higher than or equal to 1 and where w b is a second reference frequency different from the first reference frequency w a ; and - a nonlinear crystal suitable and arranged for forming, from said first light emissions emitted by each of the first and second generators, a THz light emission (v) generated by frequency difference, of frequency equal to w 5 = n w a - l w b and comprised between 0.3 THz and 10 THz; - at least one first frequency-stabilizing module configured to allow the frequency of one of said second emissions emitted by one of the first and second generators to be stabilized on an atomic transition. - a first generator suitable for emitting at least one first light emission (i) of frequency w1 = n w a and one second light emission (ii) of frequency w2 = m w a , where n and m are integers higher than or equal to 1 and where w a is a first reference frequency; - a second generator suitable for emitting at least one first light emission (iii) of frequency w 3 = l w b and one second light emission (iv) of frequency w 4 = p w b , wherein l and p are integers higher than or equal to 1 and where w b is a second reference frequency different from the first reference frequency w a ; and - a nonlinear crystal suitable and arranged for forming, from said first light emissions emitted by each of the first and second generators, a THz light emission (v) generated by frequency difference, of frequency equal to w 5 = n w a - l w b and comprised between 0.3 THz and 10 THz; - at least one first frequency-stabilizing module configured to allow the frequency of one of said second emissions emitted by one of the first and second generators to be stabilized on an atomic transition.
A honey composition comprising: from 85% w/w kanuka honey to 95% w/w kanuka honey; and from 5% w/w glycerine to 15% w/w glycerine. from 85% w/w kanuka honey to 95% w/w kanuka honey; and from 5% w/w glycerine to 15% w/w glycerine.
A refrigerator, comprising a main door , wherein an opening is formed on a door body of the main door ; a guide rail is provided at an edge of the opening , and a secondary door is fitted on the guide rail ; and the secondary door is connected with a driving mechanism which is capable of driving the secondary door to slide along the guide rail to enclose or open the opening ; the driving mechanism comprises a motor and a transmission assembly ; an output shaft of the motor is connected to the transmission assembly in a transmission way, and the transmission assembly is connected to the secondary door in a transmission way; and the transmission assembly is capable of transforming a rotary motion of the output shaft of the motor to a linear motion to drive the secondary door to slide along the guide rail , wherein the transmission assembly comprises a guide block which is arranged along a direction in parallel to the guide rail ; characterized in that at both ends of the guide block , a first guide wheel and a second guide wheel are provided, respectively; a driving wheel is sleeved on the output shaft of the motor ; the secondary door comprises a sliding bottom plate which is sleeved on the guide block , and the sliding bottom plate is located between the first guide wheel and second guide wheel and connected with a transmission rope ; the transmission rope comprises a first transmission rope segment and a second transmission rope segment which are located on both sides of the sliding bottom plate , respectively; and the first transmission rope segment is passed over the first guide wheel and wound onto the driving wheel in a first direction, and the second transmission rope segment is passed beneath the second guide wheel and wound onto the driving wheel in a direction opposite to the first direction.
Measuring system for capturing measurement data, in particular for capturing measurement data in a vehicle, comprising a measuring device (1; 1-1 - 1-14), which has: a user interface (6-2, 6-4) formed to provide a user with access to the measuring device (1; 1-1 - 1-4); and a first network interface at least formed to couple the measuring system to a data processing infrastructure ; and a first coupling device formed, when a coupling to the data processing infrastructure is present, to couple the measuring system to the data processing infrastructure as a component thereof and/or to couple the measuring device (1; 1-1 - 1-4) to a further measuring device (1; 1-1 - 1-4) via the first network interface to form a single, coupled measuring device , in such a way that it is not apparent to a user, upon access to the measuring device via the user interface (6-2, 6-4), whether he is accessing a single system or a plurality of coupled electronic systems, characterized in that the measuring device (1; 1-1 - 1-4) is configured to be dynamically connected to or detached from the data processing infrastructure . a user interface (6-2, 6-4) formed to provide a user with access to the measuring device (1; 1-1 - 1-4); and a first network interface at least formed to couple the measuring system to a data processing infrastructure ; and a first coupling device formed, when a coupling to the data processing infrastructure is present, to couple the measuring system to the data processing infrastructure as a component thereof and/or to couple the measuring device (1; 1-1 - 1-4) to a further measuring device (1; 1-1 - 1-4) via the first network interface to form a single, coupled measuring device , in such a way that it is not apparent to a user, upon access to the measuring device via the user interface (6-2, 6-4), whether he is accessing a single system or a plurality of coupled electronic systems,
A piggyBac transposase: (i) comprising a leucine for isoleucine substitution at position 147 of SEQ ID NO:2, a leucine for isoleucine substitution at position 247 of SEQ ID NO:2, and a threonine for serine substitution at position 533 of SEQ ID NO:2; and/or (ii) having the amino acid sequence of SEQ ID NO: 4, SEQ ID NO: 6, SEQ ID NO: 8, SEQ ID NO: 10, SEQ ID NO: 12, SEQ ID NO: 14, or SEQ ID NO: 16. (i) comprising a leucine for isoleucine substitution at position 147 of SEQ ID NO:2, a leucine for isoleucine substitution at position 247 of SEQ ID NO:2, and a threonine for serine substitution at position 533 of SEQ ID NO:2; and/or (ii) having the amino acid sequence of SEQ ID NO: 4, SEQ ID NO: 6, SEQ ID NO: 8, SEQ ID NO: 10, SEQ ID NO: 12, SEQ ID NO: 14, or SEQ ID NO: 16.