mhurhangee/ep-ind-claims huggingface dataset:
An absorbent article selected from a sanitary napkin, an incontinence pad and a pantyliner, having a body-facing surface and a garment-facing surface, said absorbent article comprising: a topsheet layer; a backsheet layer; one or more intermediate layers enclosed between said topsheet and said backsheet; a fastening adhesive applied on said backsheet garment facing surface; and a liquid fragrance or odor control composition applied on or within a layer between the topsheet layer and the backsheet layer, wherein said fragrance or odor control composition comprises from 5 to 50%wt of one or more esters selected from: menthyl acetate, menthyl lactate, menthyl propionate, menthyl butyrate, cis-3-hexenyl acetate, methyl-dihydrojasmonate, methyl jasmonate, hexyl iso-butyrate, linalyl acetate, benzyl acetate, phenyl ethyl acetate; and less than 5%wt of other esters not included in the list above, wherein said fastening adhesive and said liquid fragrance or odor control composition are applied in patterns which do not overlap for more than 3% of the total surface of the backsheet when the absorbent article is in a flattened configuration and said patterns are seen along a direction perpendicular to said body facing and garment facing surfaces of the article. a topsheet layer; a backsheet layer; one or more intermediate layers enclosed between said topsheet and said backsheet; a fastening adhesive applied on said backsheet garment facing surface; and a liquid fragrance or odor control composition applied on or within a layer between the topsheet layer and the backsheet layer, wherein said fragrance or odor control composition comprises from 5 to 50%wt of one or more esters selected from: menthyl acetate, menthyl lactate, menthyl propionate, menthyl butyrate, cis-3-hexenyl acetate, methyl-dihydrojasmonate, methyl jasmonate, hexyl iso-butyrate, linalyl acetate, benzyl acetate, phenyl ethyl acetate; and less than 5%wt of other esters not included in the list above,
A method by a terminal, the method comprising: receiving, from a base station, radio resource control, RRC, connection reconfiguration information for configuring a secondary cell, SCell, wherein the RRC connection reconfiguration information includes an identifier of a timing advance group, TAG, to which the SCell belongs if the SCell does not belong to a primary TAG, PTAG, to which the PCell belongs and the RRC connection reconfiguration information does not include an identifier of a TAG for the SCell if the SCell belongs to the PTAG; receiving, from the base station, a medium access control, MAC, control element, CE, for activating the SCell; monitoring a physical downlink control channel, PDCCH, for the SCell based on the received MAC CE; receiving, from the base station, a PDCCH order for initiating a random access procedure on the SCell based on the monitoring; performing the random access procedure on the SCell based on the PDCCH order; and receiving, from the base station, timing advance command, TAC, for the SCell based on the random access procedure. receiving, from a base station, radio resource control, RRC, connection reconfiguration information for configuring a secondary cell, SCell, wherein the RRC connection reconfiguration information includes an identifier of a timing advance group, TAG, to which the SCell belongs if the SCell does not belong to a primary TAG, PTAG, to which the PCell belongs and the RRC connection reconfiguration information does not include an identifier of a TAG for the SCell if the SCell belongs to the PTAG; receiving, from the base station, a medium access control, MAC, control element, CE, for activating the SCell; monitoring a physical downlink control channel, PDCCH, for the SCell based on the received MAC CE; receiving, from the base station, a PDCCH order for initiating a random access procedure on the SCell based on the monitoring; performing the random access procedure on the SCell based on the PDCCH order; and receiving, from the base station, timing advance command, TAC, for the SCell based on the random access procedure.
A short focus type projection display device comprising an optical system configured to project an image having a center portion and an outer portion outside the center portion; and circuitry (200, 50) configured to control the movement of a first lens of the optical system to adjust the focusing associated with the outer portion of the projected image, wherein the circuitry is configured to control the movement of a second lens of the optical system to adjust the focusing associated with the center portion of the projected image, and wherein the circuitry is configured to control the movement of the first lens to perform the adjustment of the focusing associated with the outer portion of the projected image independent of performance of the adjustment of the focusing associated with the center portion of the projected image. an optical system configured to project an image having a center portion and an outer portion outside the center portion; and circuitry (200, 50) configured to control the movement of a first lens of the optical system to adjust the focusing associated with the outer portion of the projected image, wherein the circuitry is configured to control the movement of a second lens of the optical system to adjust the focusing associated with the center portion of the projected image, and wherein the circuitry is configured to control the movement of the first lens to perform the adjustment of the focusing associated with the outer portion of the projected image independent of performance of the adjustment of the focusing associated with the center portion of the projected image.
Method for producing a ribbed pipe, in which a pipe base body is ribbed on its outside, in particular helically, with a first strip, for which the first strip is fixed on the pipe base body using a first laser beam, characterised in that the pipe base body is ribbed on the outside, in particular simultaneously, with a second strip, for which the second strip is fixed on the pipe base body using a second laser beam, in particular in parallel to the first strip.
An image processing system, comprising: an input port configured to receive at least two projection images including at least one mask image and at least one contrast image of at least part of a specimen with an object therein, the mask image and the contrast image acquired at different acquisition times and each representing a region of interest, ROI, at different contrasts; a landmark identifier configured to identify at least one landmark of said object in the contrast image and in the at least one mask image; a motion estimator configured to estimate a motion of the object as the motion of the identified at least one landmark across the at least one contrast image and the at least one mask image, wherein said motion of the object relates to a motion of the ROI; a motion compensator configured to register the at least one mask image with the at least one contrast image based only on the estimated landmark motion; a subtractor (DIFF) configured to subtract the at least one registered mask image from the at least one contrast image to obtain a difference image of the ROI; and an output port configured to output the difference image. an input port configured to receive at least two projection images including at least one mask image and at least one contrast image of at least part of a specimen with an object therein, the mask image and the contrast image acquired at different acquisition times and each representing a region of interest, ROI, at different contrasts; a landmark identifier configured to identify at least one landmark of said object in the contrast image and in the at least one mask image; a motion estimator configured to estimate a motion of the object as the motion of the identified at least one landmark across the at least one contrast image and the at least one mask image, wherein said motion of the object relates to a motion of the ROI; a motion compensator configured to register the at least one mask image with the at least one contrast image based only on the estimated landmark motion; a subtractor (DIFF) configured to subtract the at least one registered mask image from the at least one contrast image to obtain a difference image of the ROI; and an output port configured to output the difference image.
A brake system for a mine vehicle comprising: several spring applied hydraulically released brake assemblies, wherein the brake assemblies comprise springs for applying the brakes and hydraulically operable release actuators for releasing the brakes; a hydraulic main brake circuit connected to a first pressure source and to the release actuators and comprising at least one brake controller comprising a first control position to pressurize the release actuators for releasing the brakes, and a second control position to depressurize the release actuators for applying the brakes; and a hydraulic release circuit comprising at least one second pressure source for pressurizing the release actuators, and thereby activating the release circuit, independently relative to the main brake circuit; characterized in that the brake system further comprises at least one override device, which is selectively operable for depressurizing the release circuit for applying the brakes, whereby the brakes are operable by means of the override device despite the activation of the release circuit. several spring applied hydraulically released brake assemblies, wherein the brake assemblies comprise springs for applying the brakes and hydraulically operable release actuators for releasing the brakes; a hydraulic main brake circuit connected to a first pressure source and to the release actuators and comprising at least one brake controller comprising a first control position to pressurize the release actuators for releasing the brakes, and a second control position to depressurize the release actuators for applying the brakes; and a hydraulic release circuit comprising at least one second pressure source for pressurizing the release actuators, and thereby activating the release circuit, independently relative to the main brake circuit; characterized in that the brake system further comprises at least one override device, which is selectively operable for depressurizing the release circuit for applying the brakes, whereby the brakes are operable by means of the override device despite the activation of the release circuit.
A silicone pressure-sensitive adhesive composition characterized by comprising an azeotropic solvent composed of an aromatic solvent, and an aliphatic alcohol with at least three carbon atoms or an aliphatic ester, said composition comprising: a diorganopolysiloxane having at least two alkenyl groups with 2 to 12 carbon atoms in a molecule, in an amount of 30 to 95 parts by mass; an organopolysiloxane composed of a R 1 3 SiO 1/2 unit and SiO 4/2 unit, wherein R 1 s independently represent monovalent hydrocarbon groups with 1 to 12 carbon atoms, and having a molar ratio (R 1 3 SiO 1/2 unit) / (SiO 4/2 unit) of 0.6 to 1.7, in an amount of 5 to 70 parts by mass, wherein the total amount of components and is 100 parts by mass; an organohydrogenpolysiloxane having at least two silicon-bonded hydrogen atoms in a molecule, in such an amount that a molar ratio of the silicon-bonded hydrogen atoms in component per the alkenyl groups in components and becomes 0.1 to 20; a hydrosilylation catalyst for the addition reaction of the alkenyl groups with the silicon-bonded hydrogen atoms, in an amount to enhance a hydrosilylation of the composition; and the azeotropic solvent in a sufficient amount to apply the composition to a substrate. a diorganopolysiloxane having at least two alkenyl groups with 2 to 12 carbon atoms in a molecule, in an amount of 30 to 95 parts by mass; an organopolysiloxane composed of a R 1 3 SiO 1/2 unit and SiO 4/2 unit, wherein R 1 s independently represent monovalent hydrocarbon groups with 1 to 12 carbon atoms, and having a molar ratio (R 1 3 SiO 1/2 unit) / (SiO 4/2 unit) of 0.6 to 1.7, in an amount of 5 to 70 parts by mass, wherein the total amount of components and is 100 parts by mass; an organohydrogenpolysiloxane having at least two silicon-bonded hydrogen atoms in a molecule, in such an amount that a molar ratio of the silicon-bonded hydrogen atoms in component per the alkenyl groups in components and becomes 0.1 to 20; a hydrosilylation catalyst for the addition reaction of the alkenyl groups with the silicon-bonded hydrogen atoms, in an amount to enhance a hydrosilylation of the composition; and the azeotropic solvent in a sufficient amount to apply the composition to a substrate.
A method of conveying image information along a waveguide (12, 82, 144) to an eyebox while preserving a view of the ambient environment through the waveguide (12, 82, 144) from the eyebox comprising the steps of: receiving a plurality of different angle beams through an input aperture (14, 90, 156) of a waveguide (12, 82, 144) for conveying information for forming a virtual image; directing the plurality of different angle beams along the waveguide (12, 82, 144) to a controllable output aperture (16, 72, 84, 188); switching the controllable output aperture (16, 72, 84, 188) between a first state for diffracting the plurality of different angle beams from the waveguide (12, 82, 144) toward the eyebox from which the virtual image can be viewed and a second state for providing a view of the ambient environment from the eyebox through the controllable output aperture (16, 72, 84, 188) and the waveguide (12, 82, 144); wherein the step of switching includes switching a plurality of aperture segments (72a, 72b, 72c) of controllable output aperture (12, 82, 144) between the first and second states in synchronism with the receipt of a succession of the different angle beams for ejecting the different angle beams toward the eyebox from the different aperture segments for overlapping the different angle beams within the eyebox. receiving a plurality of different angle beams through an input aperture (14, 90, 156) of a waveguide (12, 82, 144) for conveying information for forming a virtual image; directing the plurality of different angle beams along the waveguide (12, 82, 144) to a controllable output aperture (16, 72, 84, 188); switching the controllable output aperture (16, 72, 84, 188) between a first state for diffracting the plurality of different angle beams from the waveguide (12, 82, 144) toward the eyebox from which the virtual image can be viewed and a second state for providing a view of the ambient environment from the eyebox through the controllable output aperture (16, 72, 84, 188) and the waveguide (12, 82, 144); wherein the step of switching includes switching a plurality of aperture segments (72a, 72b, 72c) of controllable output aperture (12, 82, 144) between the first and second states in synchronism with the receipt of a succession of the different angle beams for ejecting the different angle beams toward the eyebox from the different aperture segments for overlapping the different angle beams within the eyebox.
A radio-frequency signal receiving unit, particularly for Nuclear Magnetic Resonance imaging machines, comprising: a) a signal receiving coil, whose outputs (101, 201) are connected to a signal amplifier b) the coil being in balanced connection with the signal amplifier, i.e. connected thereto in such a manner that none of its two outputs (101, 201) is permanently connected to the ground; c) passive balancing means, the amplifier being interposed between the coil outputs and the said passive balancing means; d) the signal amplifier comprising at least two active amplifying devices, each associated to an input to which one of the outputs (101, 201) of the coil is connected, e) active amplifying devices having an output connected to a device for recombining useful signals and canceling out undesired signals, that is a device which is able to add signals in phase opposition and to cancel signals in phase from inputs; f) the outputs (101, 201) of the receiving coil are connected to the inputs of the amplifier (2, 3) through balanced means for optimization of the noise figure of the amplifier; characterized in that the device for recombining useful signals and canceling out undesired signals is formed by a transformer having the function of a passive balun. a) a signal receiving coil, whose outputs (101, 201) are connected to a signal amplifier b) the coil being in balanced connection with the signal amplifier, i.e. connected thereto in such a manner that none of its two outputs (101, 201) is permanently connected to the ground; c) passive balancing means, the amplifier being interposed between the coil outputs and the said passive balancing means; d) the signal amplifier comprising at least two active amplifying devices, each associated to an input to which one of the outputs (101, 201) of the coil is connected, e) active amplifying devices having an output connected to a device for recombining useful signals and canceling out undesired signals, that is a device which is able to add signals in phase opposition and to cancel signals in phase from inputs; f) the outputs (101, 201) of the receiving coil are connected to the inputs of the amplifier (2, 3) through balanced means for optimization of the noise figure of the amplifier;
A robot cleaner comprising: a main body configured to form an outer shape; a pair of rotary mop modules configured to be rotatably installed in the main body, move the main body while rotating, and have a mop cloth attached to a rotating plate of a lower portion; a drive motor configured to rotate the pair of rotary mop modules; characterized in that the robot cleaner comprises a a mop detecting unit configured to detect an error state of the mop cloth attached to the rotating plate and output a detection signal; and a controller configured to determine the error state of the mop cloth according to the detection signal from the mop detecting unit, and control driving of the rotary mop module. a main body configured to form an outer shape; a pair of rotary mop modules configured to be rotatably installed in the main body, move the main body while rotating, and have a mop cloth attached to a rotating plate of a lower portion; a drive motor configured to rotate the pair of rotary mop modules; characterized in that the robot cleaner comprises a a mop detecting unit configured to detect an error state of the mop cloth attached to the rotating plate and output a detection signal; and a controller configured to determine the error state of the mop cloth according to the detection signal from the mop detecting unit, and control driving of the rotary mop module.
A photoactive additive formed from the reaction of: a monohydroxybenzophenone; a dihydroxybenzophenone; a diol chain extender; and a first linker moiety comprising a plurality of functional groups, wherein each functional group reacts with the hydroxyl groups of the monohydroxybenzophenone, the dihydroxybenzophenone and the diol chain extender, wherein the photoactive additive comprises 0.5 mole% to 5.0 mole% endcap groups derived from the monohydroxybenzophenone; and 0.5-5 mol% endcap groups derived from a second end-capping agent a monohydroxybenzophenone; a dihydroxybenzophenone; a diol chain extender; and a first linker moiety comprising a plurality of functional groups, wherein each functional group reacts with the hydroxyl groups of the monohydroxybenzophenone, the dihydroxybenzophenone and the diol chain extender, wherein the photoactive additive comprises 0.5 mole% to 5.0 mole% endcap groups derived from the monohydroxybenzophenone; and 0.5-5 mol% endcap groups derived from a second end-capping agent
A revolving door, comprising • a turnstile with at least two door leaves, wherein the turnstile is rotatable about an axis of rotation, wherein are defined an axial direction along the axis of rotation and, vertically to the axial direction, a radial direction, and • an electric drive, formed as an electronically commutated multi-pole motor with a stator, comprising a laminated stator core and several coils, and a rotor comprising a laminated rotor core and several permanent magnets, • wherein the rotor is disposed coaxially to the axis of rotation, and is connected to the turnstile for direct gearless drive, characterized by a specification coefficient applied for specifying the revolving door, wherein shall apply A/B=E*F/U, with turnstile diameter, rotor diameter, number of coils and number of magnets, wherein • the specification coefficient is at least 3 and preferably at least 4, and • the specification coefficient is at most 13 and preferably at most 11, and wherein • the ratio (F/A) is at least 10 pieces/m, and preferably at least 12 pieces/m, and • wherein the ratio (F/A) is at most 35 pieces/m, and preferably at most 30 pieces/m. • a turnstile with at least two door leaves, wherein the turnstile is rotatable about an axis of rotation, wherein are defined an axial direction along the axis of rotation and, vertically to the axial direction, a radial direction, and • an electric drive, formed as an electronically commutated multi-pole motor with a stator, comprising a laminated stator core and several coils, and a rotor comprising a laminated rotor core and several permanent magnets, • wherein the rotor is disposed coaxially to the axis of rotation, and is connected to the turnstile for direct gearless drive, • the specification coefficient is at least 3 and preferably at least 4, and • the specification coefficient is at most 13 and preferably at most 11, and wherein • the ratio (F/A) is at least 10 pieces/m, and preferably at least 12 pieces/m, and • wherein the ratio (F/A) is at most 35 pieces/m, and preferably at most 30 pieces/m.
A hot-rolling system comprising a hot-rolling line, a near-infrared camera capable of photographing an entire width of a hot-rolled metal strip in the hot-rolling line, characterised by: a storage means that stores a luminance-temperature conversion curve specifying a relationship between the luminance measured with the near-infrared camera and a temperature measured with a spot thermometer with respect to the same portion of the heat source, and a conversion means for converting a luminance of an image of the rolled material photographed with the near-infrared camera arranged on the hot-rolling line into a temperature according to the luminance-temperature conversion curve, wherein the near-infrared camera is arranged at at least one position selected from an entry side of a coiler of the hot-rolling line, a midway point of a run-out table of the hot-rolling line, and a delivery side of a finishing mill of the hot rolling line.