mhurhangee/patent-ind-claim-en huggingface dataset:
A crimping tool comprising: a stationary jaw ; a movable jaw adjacent the stationary jaw , the movable jaw being movable from an open position to a closed position ; a linkage operably coupled to the movable jaw on one end, the linkage rotatable about an axle; a first input member operably coupled to the linkage to rotate the linkage about the axle, the first input member rotating about a first axis ; and a second input member operably coupled to the linkage to rotate the linkage about the axle, the second input member rotating about a second axis , the second axis being substantially perpendicular to the first axis ; characterized in that the first and second input members are configured to accept a hand tool. a stationary jaw ; a movable jaw adjacent the stationary jaw , the movable jaw being movable from an open position to a closed position ; a linkage operably coupled to the movable jaw on one end, the linkage rotatable about an axle; a first input member operably coupled to the linkage to rotate the linkage about the axle, the first input member rotating about a first axis ; and a second input member operably coupled to the linkage to rotate the linkage about the axle, the second input member rotating about a second axis , the second axis being substantially perpendicular to the first axis ; characterized in that the first and second input members are configured to accept a hand tool.
A deposition method, comprising: providing a channel for a substrate through a deposition apparatus, feeding precursor vapor into the channel; depositing material from the precursor vapor onto the substrate on its way through the deposition apparatus beneath a shader by exposing the substrate to the precursor vapor and to alternating photon exposure and shade periods within the channel, the shader having photon permeable areas and photon impermeable areas shading the substrate surface beneath the shader so that the photon permeable areas provide the photon exposure periods for areas of the substrate beneath the photon permeable areas and that the photon impermeable areas provide the photon shade periods for areas of the substrate beneath the photon impermeable areas, wherein a first precursor species reacts with reactive sites on the area of shade of the substrate surface on the shade period and, on the following photon exposure period, a second precursor species reacts with chemisorbed first precursor species. providing a channel for a substrate through a deposition apparatus, feeding precursor vapor into the channel; depositing material from the precursor vapor onto the substrate on its way through the deposition apparatus beneath a shader by exposing the substrate to the precursor vapor and to alternating photon exposure and shade periods within the channel, the shader having photon permeable areas and photon impermeable areas shading the substrate surface beneath the shader so that the photon permeable areas provide the photon exposure periods for areas of the substrate beneath the photon permeable areas and that the photon impermeable areas provide the photon shade periods for areas of the substrate beneath the photon impermeable areas, wherein a first precursor species reacts with reactive sites on the area of shade of the substrate surface on the shade period and, on the following photon exposure period, a second precursor species reacts with chemisorbed first precursor species.
A meltable smokeless tobacco composition configured for insertion into the mouth of a user and capable of liquefying in the mouth, the tobacco composition comprising a tobacco extract and at least about 30 dry weight percent of a lipid having a melting point of about 29°C to about 49°C.
A package for sheet products, comprising: a covering which defines an internal space of the package , the internal space being configured to hold the sheet products within the internal space, wherein: the covering defines a releasable tab ; the releasable tab is configured to be only partially releasable from the covering so as to open a dispensing aperture in the covering , the dispensing aperture configured to allow dispensing of the sheet products from the package ; and the releasable tab , once released, is configured such that a first, fixed portion of the releasable tab remains fixed to the covering ; characterised in that the releasable tab , once released, is configured such that a second, releasable portion of the releasable tab is attachable to a portion of the covering such that the releasable tab forms a handle (H) between the first, fixed portion and the second, releasable portion for carrying the package , and the second, releasable portion of the releasable tab comprises a first attachment component , wherein the portion of the covering comprises a second attachment component , and wherein the first attachment component and the second attachment component are configured to attach to each other such that the releasable tab forms the handle (H) for carrying the package . the covering defines a releasable tab ; the releasable tab is configured to be only partially releasable from the covering so as to open a dispensing aperture in the covering , the dispensing aperture configured to allow dispensing of the sheet products from the package ; and the releasable tab , once released, is configured such that a first, fixed portion of the releasable tab remains fixed to the covering ; characterised in that the releasable tab , once released, is configured such that a second, releasable portion of the releasable tab is attachable to a portion of the covering such that the releasable tab forms a handle (H) between the first, fixed portion and the second, releasable portion for carrying the package , and the second, releasable portion of the releasable tab comprises a first attachment component , wherein the portion of the covering comprises a second attachment component , and wherein the first attachment component and the second attachment component are configured to attach to each other such that the releasable tab forms the handle (H) for carrying the package .
A multimodal imaging system comprising: a light source , an image sensor comprising a plurality of pixels , and an optical filter comprising a first filter element and a second filter element , wherein the first filter element and second filter element are arranged as an array parallel to the image sensor , each filter element of the optical filter is configured for transmission of light to a subset of the plurality of pixels , and each pixel of the subset receives light via a single filter element, and wherein the light source emits partially coherent polarised light , the first filter element is configured for transmission of a first light spectrum which comprises polarised light emitted by the light source , the second filter element is configured for transmission of a second light spectrum, and the image sensor is configured to simultaneously capture light impinging on it after passing through the optical filter , characterized in that the first filter element is configured to attenuate the intensity of the first light spectrum such that the energy flux of light impinging on the image sensor for the first light spectrum and the second light spectrum can be equalized. a light source , an image sensor comprising a plurality of pixels , and an optical filter comprising a first filter element and a second filter element , wherein the first filter element and second filter element are arranged as an array parallel to the image sensor , each filter element of the optical filter is configured for transmission of light to a subset of the plurality of pixels , and each pixel of the subset receives light via a single filter element, the light source emits partially coherent polarised light , the first filter element is configured for transmission of a first light spectrum which comprises polarised light emitted by the light source , the second filter element is configured for transmission of a second light spectrum, and the image sensor is configured to simultaneously capture light impinging on it after passing through the optical filter ,
An ophthalmic lens comprising: an apex area having distance vision correcting power and a power distribution creating a blurred region outside of the apex area so as to cause an induced aperture; a base curve between 7.9 mm and 8.5 mm, preferably between 8.1 mm and 8.3 mm; and a lens diameter between 14.0 and 14.5 mm, wherein a thickness profile having a center thickness of 100-120 microns, and a peripheral thickness of 220-310 microns at a chord diameter of 12.30 mm, and the power distribution includes an aperture inducing power rise (a) between +2.00 to +2.75 diopters and the lens is made of polymacon, or (b) +2.375 to +3.125 and the lens is made of etafilcon, or (c) +2.00 to +3.25 diopters and the lens is made of silicon hydrogel, wherein the aperture inducing power rise is a front surface tangential power rise as determined at the 1.5 mm radius away from a center of the apex area. an apex area having distance vision correcting power and a power distribution creating a blurred region outside of the apex area so as to cause an induced aperture; a base curve between 7.9 mm and 8.5 mm, preferably between 8.1 mm and 8.3 mm; and a lens diameter between 14.0 and 14.5 mm, wherein a thickness profile having a center thickness of 100-120 microns, and a peripheral thickness of 220-310 microns at a chord diameter of 12.30 mm, and the power distribution includes an aperture inducing power rise (a) between +2.00 to +2.75 diopters and the lens is made of polymacon, or (b) +2.375 to +3.125 and the lens is made of etafilcon, or (c) +2.00 to +3.25 diopters and the lens is made of silicon hydrogel, wherein the aperture inducing power rise is a front surface tangential power rise as determined at the 1.5 mm radius away from a center of the apex area.
A women's lingerie, comprising shoulder straps , wings and two symmetrically arranged cups , an upper edge of an individual cup and an upper edge of a respective wing being connected by a respective shoulder strap , a lower edge of the individual cup being provided with darts , a shape of the darts being set corresponding to a pulling force of the respective shoulder strap , the individual cup bulging toward a side away from the body to form a bust accommodation space on a side close to the body, the bust accommodation space having a semi-ellipsoidal lower space and a semi-ellipsoidal upper space, an eccentricity of the lower space being smaller than that of the upper space, a maximum width of the lower space being larger than that of the upper space, a volume of the lower space being greater than that of the upper space characterized in that on the extension line of the shoulder strap , the darts are the largest, and with the extension line of the shoulder strap as a center, the darts gradually decrease towards both sides.
A system for machine-learning enabled micro-assembly control with the aid of a digital computer, comprising: one or more processors implementing one or more machine learning algorithms, the one or more processors configured to: obtain one or more parameters of a system for positioning a micro-object , the system comprising a plurality of electrodes , each of the electrodes are programmable, the electrodes configured to induce a movement of the micro-object when the micro-object is proximate to the electrodes upon a generation of one or more electric potentials by one or more of the electrodes; model capacitance between the micro-object and each of the electrodes using the parameters; estimate a position of the micro-object with a sensor ; receive a further position of the micro-object; define using the capacitance a continuous representation of a dynamic model for movement of the micro-object due to electrode potentials generated by at least some of the electrodes, wherein the dynamic model is subject to constraints expressed as expectations; apply one of the machine learning algorithms to at least a portion of the continuous representation of the dynamic model to perform a stochastic optimization of electrode potentials to be generated by at least some of the electrodes to move the micro-object from the estimated position to the further position, as to maximize a force induced on the micro-object by the at least some electrodes; and use the optimized electrode potentials to actuate at least some of the electrodes to induce the movement of the micro-object from the estimated position to the further position. obtain one or more parameters of a system for positioning a micro-object , the system comprising a plurality of electrodes , each of the electrodes are programmable, the electrodes configured to induce a movement of the micro-object when the micro-object is proximate to the electrodes upon a generation of one or more electric potentials by one or more of the electrodes; model capacitance between the micro-object and each of the electrodes using the parameters; estimate a position of the micro-object with a sensor ; receive a further position of the micro-object; define using the capacitance a continuous representation of a dynamic model for movement of the micro-object due to electrode potentials generated by at least some of the electrodes, wherein the dynamic model is subject to constraints expressed as expectations; apply one of the machine learning algorithms to at least a portion of the continuous representation of the dynamic model to perform a stochastic optimization of electrode potentials to be generated by at least some of the electrodes to move the micro-object from the estimated position to the further position, as to maximize a force induced on the micro-object by the at least some electrodes; and use the optimized electrode potentials to actuate at least some of the electrodes to induce the movement of the micro-object from the estimated position to the further position.
A method for analyzing quantum vulnerability performed by at least one computing device, the method comprising: configuring quantum-vulnerable algorithm detection rule based on a type of encryption algorithm; configuring an analysis level for analyzing a quantum vulnerability of target software, from among a plurality of predefined analysis levels; analyzing the target software based on the configured quantum-vulnerable algorithm detection rule, using an analysis technique corresponding to the configured analysis level; and assessing the quantum vulnerability of the target software based on a result of the analyzing. configuring quantum-vulnerable algorithm detection rule based on a type of encryption algorithm; configuring an analysis level for analyzing a quantum vulnerability of target software, from among a plurality of predefined analysis levels; analyzing the target software based on the configured quantum-vulnerable algorithm detection rule, using an analysis technique corresponding to the configured analysis level; and assessing the quantum vulnerability of the target software based on a result of the analyzing.
A smelting method of the high-nitrogen and high-chromium plastic mold steel, characterized by comprising the following steps: A. smelting: smelting an IF steel in an electric furnace until the IF steel is completely melted; B. refining: pouring the completely melted molten steel into an LF furnace for slagging and alloying; C. nitriding: blowing nitrogen for nitrogen alloying; and D. tapping: tapping and casting into ingots after nitrogen blowing, wherein the tapping control temperature of the molten steel is 1540 - 1560°C in step D, the high-nitrogen and high-chromium plastic mold steel comprises the following chemical components by mass: 0.25 - 0.35% of C, 0.45 - 0.8% of Si, 0.4 - 0.7% of Mn, 16.5 - 17.5% of Cr, 0.1 - 0.3% of Ni, 0.1 - 0.5% of Mo, 0.06 - 0.10% of N, and the rest of Fe and inevitable impurity elements and the impurity elements comprise Al ≤0.02%, P ≤0.025%, S ≤0.005%, O ≤0.003% and H ≤0.0002%. A. smelting: smelting an IF steel in an electric furnace until the IF steel is completely melted; B. refining: pouring the completely melted molten steel into an LF furnace for slagging and alloying; C. nitriding: blowing nitrogen for nitrogen alloying; and D. tapping: tapping and casting into ingots after nitrogen blowing, wherein the tapping control temperature of the molten steel is 1540 - 1560°C in step D, the high-nitrogen and high-chromium plastic mold steel comprises the following chemical components by mass: 0.25 - 0.35% of C, 0.45 - 0.8% of Si, 0.4 - 0.7% of Mn, 16.5 - 17.5% of Cr, 0.1 - 0.3% of Ni, 0.1 - 0.5% of Mo, 0.06 - 0.10% of N, and the rest of Fe and inevitable impurity elements and the impurity elements comprise Al ≤0.02%, P ≤0.025%, S ≤0.005%, O ≤0.003% and H ≤0.0002%. the tapping control temperature of the molten steel is 1540 - 1560°C in step D, the high-nitrogen and high-chromium plastic mold steel comprises the following chemical components by mass: 0.25 - 0.35% of C, 0.45 - 0.8% of Si, 0.4 - 0.7% of Mn, 16.5 - 17.5% of Cr, 0.1 - 0.3% of Ni, 0.1 - 0.5% of Mo, 0.06 - 0.10% of N, and the rest of Fe and inevitable impurity elements and the impurity elements comprise Al ≤0.02%, P ≤0.025%, S ≤0.005%, O ≤0.003% and H ≤0.0002%.
Supporting device (1, 1', 1") for fastening an isolation to a V-band clamp or to another connection device for pipe ends to be connected, comprising locking elements , wherein through interaction of the locking elements the outer and/or inner circumference of the supporting device (1, 1', 1") is reducible, and comprising a bendable belt section , wherein the belt section can be applied as part of the outer casing or in the form of an outer casing about an isolation , wherein the locking elements are connectable or connected to each other, wherein a first locking element comprises an tensile element or is designed as such and wherein a second locking element comprises a cut-out through which the tensile element can be drawn or pulled in order to reduce the outer and/or inner circumference of the supporting device , characterised in that the tensile element can be wound up or is wound up and during winding up or in the wound-up state is in contact with an abutment and in that the tensile element can be or is wound up in a spiral fashion.
A heat-resistant semi-conductive thermoplastic resin composition comprising, relative to the total weight of the composition: A) from 15 to 30 wt. % of an aromatic polycarbonate; B) from 40 to 60 wt. % of a polyalkylene terephthalate; C) from 10 to 20 wt. % of conductive carbon black; and D) from 12 to 20 wt. % of a reinforcement material, wherein the weight ratio of the polyalkylene terephthalate to the aromatic polycarbonate is from 1.5:1 to 3.5:1. A) from 15 to 30 wt. % of an aromatic polycarbonate; B) from 40 to 60 wt. % of a polyalkylene terephthalate; C) from 10 to 20 wt. % of conductive carbon black; and D) from 12 to 20 wt. % of a reinforcement material,
Gear wheel, comprising - an insertion part , which comprises an insertion part out diameter (dEa) and a reception segment with a torque transmitting diameter (dD) for forming a connection to an adjacently arranged component , and - a connection part with a gear rim , connected to the insertion part in a form-locking and/or material-locking and/or friction-locking manner - wherein the connection part comprises numerous ribs or the connection part is formed of numerous ribs , - each of the ribs extend along a tangent (T) which adjoins to a tangent circle (CT), - the ribs comprise a rib thickness (RB), and - the tangent circle (CT) comprises a tangent circle diameter (dCT) which is larger than or equal to the torque transmitting diameter (dD) and smaller than or equal to a maximum diameter (dA), characterized in that the maximum diameter (dA) is defined as follows: dA = dEa + 6 RB . - an insertion part , which comprises an insertion part out diameter (dEa) and a reception segment with a torque transmitting diameter (dD) for forming a connection to an adjacently arranged component , and - a connection part with a gear rim , connected to the insertion part in a form-locking and/or material-locking and/or friction-locking manner - wherein the connection part comprises numerous ribs or the connection part is formed of numerous ribs , - each of the ribs extend along a tangent (T) which adjoins to a tangent circle (CT), - the ribs comprise a rib thickness (RB), and - the tangent circle (CT) comprises a tangent circle diameter (dCT) which is larger than or equal to the torque transmitting diameter (dD) and smaller than or equal to a maximum diameter (dA),
A method for inhibiting corrosion on metal surfaces in contact with an aqueous cooling system, the method comprising: providing one or more environmentally benign chelators (EBCs) to the aqueous cooling system, wherein the aqueous cooling system comprises at least one N-heterocycle at a concentration of less than 1.0ppm in the presence of a halogenating or non-halogenating oxidizer and the environmentally benign chelators (EBCs) are added in a concentration greater than the concentration of the at least one N-heterocycle; wherein the metal surfaces are copper or a copper alloy; wherein the environmentally benign chelators (EBCs) comprise mixtures of amino alkylene phosphonic acids and their corresponding hydrolysis products. wherein the metal surfaces are copper or a copper alloy; wherein the environmentally benign chelators (EBCs) comprise mixtures of amino alkylene phosphonic acids and their corresponding hydrolysis products.
A hydraulic system for a vehicle transmission, comprising: a hydraulic circuit arranged for generating a pressure, a hydraulic actuator arranged for engaging a park lock system , wherein the hydraulic actuator is hydraulically connected to the hydraulic circuit for actuation of the hydraulic actuator using the pressure, and characterized by a back-up system configured to keep the pressure above a predetermined pressure threshold for maintaining an actuation of the hydraulic actuator for a predetermined period of time in case of an operational interruption of a transmission control unit of the vehicle. a hydraulic circuit arranged for generating a pressure, a hydraulic actuator arranged for engaging a park lock system , wherein the hydraulic actuator is hydraulically connected to the hydraulic circuit for actuation of the hydraulic actuator using the pressure, and characterized by a back-up system configured to keep the pressure above a predetermined pressure threshold for maintaining an actuation of the hydraulic actuator for a predetermined period of time in case of an operational interruption of a transmission control unit of the vehicle.
A computer-implemented method for determining a heart rate from a heartbeat signal present in a first signal generated by a heartbeat sensor, the method comprising: computing an autocorrelation of data samples of the first signal over a first time period (806-1); computing a first estimate of the heart rate from the autocorrelation; computing a Discrete Fourier Transform (DFT) for data samples of the first signal over a second time period; computing a second estimate of the heart rate from the DFT; and determining the heart rate based on the first estimate and the second estimate. computing an autocorrelation of data samples of the first signal over a first time period (806-1); computing a first estimate of the heart rate from the autocorrelation; computing a Discrete Fourier Transform (DFT) for data samples of the first signal over a second time period; computing a second estimate of the heart rate from the DFT; and determining the heart rate based on the first estimate and the second estimate.