mhurhangee/ep-ind-claims huggingface dataset:
An automatic photographing method comprising: using two photographing modules (311, 312) to acquire images of a to-be-photographed object at a first moment and a second moment after a preset time interval, and determining a distance (L') of the to-be-photographed object according to image points (K', K") formed by a point of the to-be-photographed object on photosensitive devices (B1, B2) of the two photographing modules (311, 312) and parameters of the two photographing modules (311, 312); calculating a variation between the distance of the to-be-photographed object at the first moment and the distance of the to-be-photographed object at the second moment; determining whether the variation is less than or equal to a preset value; and triggering, at the second moment, an automatic photographic function to photograph the to-be-photographed object upon determining that the variation is less than or equal to the preset value. using two photographing modules (311, 312) to acquire images of a to-be-photographed object at a first moment and a second moment after a preset time interval, and determining a distance (L') of the to-be-photographed object according to image points (K', K") formed by a point of the to-be-photographed object on photosensitive devices (B1, B2) of the two photographing modules (311, 312) and parameters of the two photographing modules (311, 312); calculating a variation between the distance of the to-be-photographed object at the first moment and the distance of the to-be-photographed object at the second moment; determining whether the variation is less than or equal to a preset value; and triggering, at the second moment, an automatic photographic function to photograph the to-be-photographed object upon determining that the variation is less than or equal to the preset value.
Modified polyisocyanates obtainable by reacting at least one polyisocyanate A) based on 1,5-diisocyanatopentane with at least one silane compound B) reactive towards isocyanate groups, where the polyisocyanate A) is an oligomeric polyisocyanate consisting of at least two 1,5-diisocyanatopentane molecules and having uretdione, isocyanurate, allophanate, biuret, iminooxadiazinedione and/or oxadiazinetrione structure or any desired mixtures of such polyisocyanates.
A spunbonded nonwoven fabric comprising thermoplastic fibers, wherein the thermoplastic fiber is a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer, the spunbonded nonwoven fabric has a non-pressure bonding portion such that fibers on at least one surface are not thermally fused, the non-pressure bonding portion having an apparent density of 0.20 to 0.60 g/cm 3, wherein the apparent density of the non-pressure bonding portion is calculated from the following equation: Apparent density (g/cm 3) of non-pressure bonding portion = [basis weight of the nonwoven fabric (g/m 2)]/[thickness of the nonwoven fabric (mm)] × 10 -3 wherein the basis weight and thickness of the nonwoven fabric are measured as described in the specification; and wherein when a long axis length of a fiber cross section of the non-pressure bonding portion is a and a short axis length thereof is b, a fiber flatness a/b is 1.5 to 5, and an air permeability satisfies [formula 1]: [air permeability (cc/cm 2 ●sec)] ≤ 520 × exp(-0.0236 × [basis weight (g/m 2)] - 2.85 × [apparent density (g/cm 3)]) and wherein the air permeability is measured as described in the specification; and wherein the spunbonded nonwoven fabric is produced by a production method comprising the following steps (a) to (c) sequentially in this order: (a) spinning, from a spinneret having a rectangular discharge orifice having an aspect ratio (long side length/short side length) of 1.6 to 8, a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer; (b) stretching the spun conjugate fibers by suction flow using a high-speed suction gas and collecting the fibers on a moving net conveyor to form the collected fibers into a nonwoven web; and (c) partially thermally bonding the obtained nonwoven web at a temperature lower by 5 to 80°C than the melting point of the low-melting polymer. (a) spinning, from a spinneret having a rectangular discharge orifice having an aspect ratio (long side length/short side length) of 1.6 to 8, a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer; (b) stretching the spun conjugate fibers by suction flow using a high-speed suction gas and collecting the fibers on a moving net conveyor to form the collected fibers into a nonwoven web; and (c) partially thermally bonding the obtained nonwoven web at a temperature lower by 5 to 80°C than the melting point of the low-melting polymer.
Method for determining a position of a divergent radiation source, comprising: Irradiating a pixel detector with a predetermined intensity distribution of incident radiation with wavelength λ originated from the divergent radiation source, wherein the incident radiation is electron, neutron, or X-ray radiation, and wherein the pixel detector comprises a plurality of pixels with pixel coordinates (x i, y i, z i), each pixel having an internal periodic structure, which is spatially repeating with a repeat unit in the order of the wavelength λ; Detecting a detector channeling pattern, DCP, comprising for each of the plurality of pixels, a detected intensity of the incident radiation; Determining, for each of the plurality of pixels, an incidence direction of the incident radiation using information on an orientation of the internal periodic structure within the pixel, on the predetermined intensity distribution, on the wavelength λ and on the detected intensity of the incident radiation; and Determining the position (x p, y p, z p) of the divergent radiation source using the pixel coordinates (x i, y i, z i) and the incidence direction for each of the plurality of pixels. Irradiating a pixel detector with a predetermined intensity distribution of incident radiation with wavelength λ originated from the divergent radiation source, wherein the incident radiation is electron, neutron, or X-ray radiation, and wherein the pixel detector comprises a plurality of pixels with pixel coordinates (x i, y i, z i), each pixel having an internal periodic structure, which is spatially repeating with a repeat unit in the order of the wavelength λ; Detecting a detector channeling pattern, DCP, comprising for each of the plurality of pixels, a detected intensity of the incident radiation; Determining, for each of the plurality of pixels, an incidence direction of the incident radiation using information on an orientation of the internal periodic structure within the pixel, on the predetermined intensity distribution, on the wavelength λ and on the detected intensity of the incident radiation; and Determining the position (x p, y p, z p) of the divergent radiation source using the pixel coordinates (x i, y i, z i) and the incidence direction for each of the plurality of pixels.
A method for producing composite strips or composite sheets consisting of at least a first cover layer of metal, a second cover layer of metal and at least one core layer of plastic, which is arranged between the cover layers (1, 2) and integrally connected thereto, wherein a first metal strip for the first cover layer, a second metal strip for the second cover layer and a plastic web for the core layer are continuously merged and continuously connected to one another in an integral manner by applying pressure and/or heat, characterized in that the metal strips (4, 5) initially are locally connected to one another without an interposed plastic web by means of a strip connecting device during the start-up of the continuous process.
Method for determining the slewing of a railway rail in absolute field values, said rail being: - comparable to a curve sampled at consecutive check points, of which the alignment versine have been obtained by means of a number N of transfer functions which are distinct from one another, N being greater than or equal to 1, and where each alignment versine is associated with only one of said transfer functions so as to form N sets of alignment versine, the method comprising a modelling step of the rail by a signal referred to as the absolute profile estimated by means of said obtained alignment versine, characterised in that it includes the following successive steps: - a decomposition step of the estimated absolute profile into a sum of a first subsidiary signal known as the target path of the rail and representing a trajectory of the rail such that it satisfies the improved rail operating conditions and a second subsidiary signal referred to as the rail levelling and representing the deformations that said target path of the rail has been subject to over time, - a determination step at said slewing check points such that at each check point, the sum of said slewing and said levelling of the rail is zero. - comparable to a curve sampled at consecutive check points, of which the alignment versine have been obtained by means of a number N of transfer functions which are distinct from one another, N being greater than or equal to 1, and where each alignment versine is associated with only one of said transfer functions so as to form N sets of alignment versine, - a decomposition step of the estimated absolute profile into a sum of a first subsidiary signal known as the target path of the rail and representing a trajectory of the rail such that it satisfies the improved rail operating conditions and a second subsidiary signal referred to as the rail levelling and representing the deformations that said target path of the rail has been subject to over time, - a determination step at said slewing check points such that at each check point, the sum of said slewing and said levelling of the rail is zero.
Clamping device for clamping a fixing block on a tubular article, wherein the clamping device comprises a clamping arc with a variable radius of curvature against a pretension and at opposite longitudinal ends respectively one tool holder for a clamping tool, so that by clamping/tensioning the clamping arc over its opposite longitudinal ends the radius of curvature of the clamping arc can be adapted to a radius of curvature of a tubular object on which the fixing block is to be clamped, characterized in that a receptacle for a fixing block is formed in longitudinal direction between the tool holders at a side of the clamping arc facing a fixing block in operating position of the clamping device.
Method for producing a piston having at least one cooling channel for an internal combustion engine, which piston is produced from at least an upper part and a lower part, wherein the cooling channel of the piston is formed with the aid of the upper part and the lower part, and the upper part and the lower part of the piston are each produced with the aid of a forging process, characterized in that at least one rib-like element, in particular at least one rib, is additionally forged at the same time during the forging of the upper part in a region of the cooling channel of the upper part which is to be forged and/or at least one rib-like element, in particular at least one rib, is additionally forged at the same time during the forging of the lower part in a region of the cooling channel of the lower part which is to be forged.
An aperture array element adapted for use in a charged particle lithography system for generating a plurality of beamlets for transferring a pattern onto the surface of a target, the aperture array element comprising a plurality of apertures arranged in a plurality of groups, the apertures for letting the beamlets pass through the aperture array element; wherein the groups of apertures form beam areas distinct and separate from a plurality of non-beam areas formed between the beam areas and containing no apertures for passage of the beamlets; and wherein the aperture array element is provided with cooling channels adapted for transmission of a cooling medium for cooling the aperture array element, the cooling channels being provided in the non-beam areas of the aperture array element.
An electronic device (100, 300, 400, 500, 900, 1000, 1100, 1200, 1300) comprising: a housing constituting an external appearance of the electronic device; a support member (311; 410) including a first bridge; a printed circuit board (340; 520) coupled to one surface of the support member; a first antenna constituting a first part of the housing and connected to the support member through the first bridge; a second antenna constituting a second part of the housing; a cut-off portion separating the first antenna and the second antenna; and characterized by: a first connection member and a second connection member coupled to the first bridge, wherein the first connection member is connected to a ground of the printed circuit board through a first capacitor and is disposed closer to the cut-off portion than the second connection member connected to the ground of the printed circuit board through a second capacitor. a housing constituting an external appearance of the electronic device; a support member (311; 410) including a first bridge; a printed circuit board (340; 520) coupled to one surface of the support member; a first antenna constituting a first part of the housing and connected to the support member through the first bridge; a second antenna constituting a second part of the housing; a cut-off portion separating the first antenna and the second antenna; and characterized by: a first connection member and a second connection member coupled to the first bridge, wherein the first connection member is connected to a ground of the printed circuit board through a first capacitor and is disposed closer to the cut-off portion than the second connection member connected to the ground of the printed circuit board through a second capacitor. a first connection member and a second connection member coupled to the first bridge, wherein the first connection member is connected to a ground of the printed circuit board through a first capacitor and is disposed closer to the cut-off portion than the second connection member connected to the ground of the printed circuit board through a second capacitor.
An absorbent member comprising a unitary wetlaid absorbent fibrous layer comprising cellulose fibers, said absorbent layer having a first surface, a second surface, a length extending in an X-direction, a width extending in a Y-direction, and a Z-direction thickness, wherein the thickness of the absorbent layer can be divided into a range of distances measured through its thickness from 0% at its first surface to 100% of the distance through its thickness at its second surface, and the length and width of the absorbent layer define an area, wherein at least a 7.2 x 7.2 mm square area of the absorbent layer has an average density, and said absorbent member is characterized in that it has a density profile through its thickness comprising: a location having a maximum density, a location having a minimum density, a mean maximum density, and a mean minimum density, wherein the mean maximum density measurement through the thickness of the layer in said area is at least 1.2 times its mean minimum density.
A control system for controlling an internal combustion engine of a hand-held power tool, the hand-held power tool comprising a working tool, and a centrifugal clutch, wherein the internal combustion engine has a clutch-in speed above which the internal combustion engine drives the working tool, wherein the control system comprises a rotation speed sensor, and a speed limitation controller, wherein the speed limitation controller is configured to limit an engine speed at a limitation speed (ωL), which limitation speed (ωL) is below the clutch-in speed (ωC), and wherein the speed limitation controller is active or activated during a starting procedure of the internal combustion engine, characterized in that the control system is configured to deactivate the speed limitation controller upon sensing at least one acceleration, at a speed level above the limitation speed (ωL), wherein the moments of inertia of rotating parts of the internal combustion engine are causing the acceleration above the limitation speed, and sensing at least one deceleration, at a speed level above the limitation speed (ωL).
Method implemented by computer for modelling a three-dimensional object, from two-dimensional images of this object, taken from different angles along at least two directions, the three-dimensional object being a pair of spectacles, characterised in that it includes steps of: - acquiring two-dimensional images of the pair of spectacles, possibly including transparent or reflective parts, - trimming (104, 105) at least one part of the 2D images acquired, in order to calculate a set of 2D silhouettes of the object to be reconstructed, - calculating, based on the 2D silhouettes obtained, a volumetric representation of the object; - converting, by Marching Cubes, the volumetric representation of the object into a 3D surface mesh of the object, - iteratively applying two steps of simplifying and smoothing the 3D surface mesh of the object. - acquiring two-dimensional images of the pair of spectacles, possibly including transparent or reflective parts, - trimming (104, 105) at least one part of the 2D images acquired, in order to calculate a set of 2D silhouettes of the object to be reconstructed, - calculating, based on the 2D silhouettes obtained, a volumetric representation of the object; - converting, by Marching Cubes, the volumetric representation of the object into a 3D surface mesh of the object, - iteratively applying two steps of simplifying and smoothing the 3D surface mesh of the object.
A water-soluble dry powder, comprising: a) a water-soluble vitamin E derivative mixture present in an amount from 0.1% to 20%, or 0.1% to 25%, or 2% to 15%, by weight, of the powder, wherein: the water-soluble vitamin E derivative mixture is a high dimer mixture that comprises at least 13 wt% water-soluble vitamin E derivative dimer and up to 87% water-soluble vitamin E derivative monomer; and the water-soluble vitamin E derivative is a polyalkylene glycol derivative of vitamin E; b) a mixture of sugar fatty acid ester(s) and a binder, wherein: the total amount of sugar fatty acid ester and binder is between 5% and 60%, or 7% and 55% or 10% and 50%, by weight, of the powder; and the mixture of sugar fatty acid ester and binder contains at least 5% sugar fatty acid ester; and c) a non-polar ingredient or mixtures thereof other than the water-soluble vitamin E derivative mixture, present in an amount of from between 5% and 55%, or 10% and 55%, by weight, of the powder. a) a water-soluble vitamin E derivative mixture present in an amount from 0.1% to 20%, or 0.1% to 25%, or 2% to 15%, by weight, of the powder, wherein: the water-soluble vitamin E derivative mixture is a high dimer mixture that comprises at least 13 wt% water-soluble vitamin E derivative dimer and up to 87% water-soluble vitamin E derivative monomer; and the water-soluble vitamin E derivative is a polyalkylene glycol derivative of vitamin E; the water-soluble vitamin E derivative mixture is a high dimer mixture that comprises at least 13 wt% water-soluble vitamin E derivative dimer and up to 87% water-soluble vitamin E derivative monomer; and the water-soluble vitamin E derivative is a polyalkylene glycol derivative of vitamin E; b) a mixture of sugar fatty acid ester(s) and a binder, wherein: the total amount of sugar fatty acid ester and binder is between 5% and 60%, or 7% and 55% or 10% and 50%, by weight, of the powder; and the mixture of sugar fatty acid ester and binder contains at least 5% sugar fatty acid ester; and the total amount of sugar fatty acid ester and binder is between 5% and 60%, or 7% and 55% or 10% and 50%, by weight, of the powder; and the mixture of sugar fatty acid ester and binder contains at least 5% sugar fatty acid ester; and c) a non-polar ingredient or mixtures thereof other than the water-soluble vitamin E derivative mixture, present in an amount of from between 5% and 55%, or 10% and 55%, by weight, of the powder.
A method comprising: sending (2801, 2902, 3402), by a wireless device (406, 2810, 2920, 3410) to an access and mobility management function, AMF, device (2820, 2940) via a base station (400, 2815, 2930, 3420), non-access stratum parameters comprising: a wireless device capability parameter indicating whether the wireless device supports an Ethernet packet data unit, PDU, session type between the wireless device and a core network user plane function, and a PDU session type parameter indicating a type of a requested PDU session; receiving (2803, 2908, 3403), by the wireless device from the base station, a radio resource control, RRC, message indicating addition of a bearer for a PDU session of the Ethernet PDU session type; and sending (2804, 2915, 3404), by the wireless device to the base station via at least one resource block of at least one cell of the base station, transport blocks comprising Ethernet frames of the bearer. sending (2801, 2902, 3402), by a wireless device (406, 2810, 2920, 3410) to an access and mobility management function, AMF, device (2820, 2940) via a base station (400, 2815, 2930, 3420), non-access stratum parameters comprising: a wireless device capability parameter indicating whether the wireless device supports an Ethernet packet data unit, PDU, session type between the wireless device and a core network user plane function, and a PDU session type parameter indicating a type of a requested PDU session; a wireless device capability parameter indicating whether the wireless device supports an Ethernet packet data unit, PDU, session type between the wireless device and a core network user plane function, and a PDU session type parameter indicating a type of a requested PDU session; receiving (2803, 2908, 3403), by the wireless device from the base station, a radio resource control, RRC, message indicating addition of a bearer for a PDU session of the Ethernet PDU session type; and sending (2804, 2915, 3404), by the wireless device to the base station via at least one resource block of at least one cell of the base station, transport blocks comprising Ethernet frames of the bearer.
A method that facilitates responding to overload indicators in a wireless communication environment (200, 300, 400), comprising: receiving an over-the-air overload indicator from a non-serving base station at a user equipment, UE,; adjusting a transmit power spectral density, PSD, of the UE based upon the over-the-air overload indicator received from the non-serving base station; generating a report based upon the over-the-air overload indicator; wherein the report includes power related information concerning the UE; sending the report to a serving base station from the UE; and receiving a power control command from the serving base station at the UE, wherein the power control command is a function of a backhaul overload indicator received by the serving base station from the non-serving base station and the report sent by the UE. receiving an over-the-air overload indicator from a non-serving base station at a user equipment, UE,; adjusting a transmit power spectral density, PSD, of the UE based upon the over-the-air overload indicator received from the non-serving base station; generating a report based upon the over-the-air overload indicator; wherein the report includes power related information concerning the UE; sending the report to a serving base station from the UE; and receiving a power control command from the serving base station at the UE, wherein the power control command is a function of a backhaul overload indicator received by the serving base station from the non-serving base station and the report sent by the UE.