mhurhangee/patent-ind-claim-en huggingface dataset:
An optical particle sensor, comprising at least: - a cylindrical channel intended to receive a fluid comprising at least one particle and to receive at least one incident light ray (i); - a detection system comprising a plurality of photodetectors , each photodetector being able to receive light rays originating from the channel and diffused (ii) by the at least one particle , the sensor further comprising an angular filtering system comprising a plurality of angular filtering devices each associated with a photodetector , each angular filtering device being configured to angularly filter the light rays (ii, iii, iv) originating from the channel before reception thereof by the photodetector with which it is associated, each angular filtering device comprising an optical input having a numerical aperture smaller than a numerical aperture of the photodetector with which the angular filtering device is associated, the sensor being characterised in that the optical inputs are distributed in part at least around the channel , over at least one portion of at least one circle, the photodetectors being arranged along at least two concentric circles with different radii, in a staggered manner. - a cylindrical channel intended to receive a fluid comprising at least one particle and to receive at least one incident light ray (i); - a detection system comprising a plurality of photodetectors , each photodetector being able to receive light rays originating from the channel and diffused (ii) by the at least one particle , the sensor further comprising an angular filtering system comprising a plurality of angular filtering devices each associated with a photodetector , each angular filtering device being configured to angularly filter the light rays (ii, iii, iv) originating from the channel before reception thereof by the photodetector with which it is associated, each angular filtering device comprising an optical input having a numerical aperture smaller than a numerical aperture of the photodetector with which the angular filtering device is associated, the sensor being characterised in that the optical inputs are distributed in part at least around the channel , over at least one portion of at least one circle, the photodetectors being arranged along at least two concentric circles with different radii, in a staggered manner. the sensor further comprising an angular filtering system comprising a plurality of angular filtering devices each associated with a photodetector , each angular filtering device being configured to angularly filter the light rays (ii, iii, iv) originating from the channel before reception thereof by the photodetector with which it is associated, each angular filtering device comprising an optical input having a numerical aperture smaller than a numerical aperture of the photodetector with which the angular filtering device is associated, the sensor being characterised in that the optical inputs are distributed in part at least around the channel , over at least one portion of at least one circle, the photodetectors being arranged along at least two concentric circles with different radii, in a staggered manner.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, system information including a power associated with a random access preamble; transmitting, to the base station, the random access preamble based on a first transmission power identified based on at least one of the power associated with the random access preamble, a power ramping value, and a number of times the random access preamble is transmitted; in case that the terminal receives a random access response message including a transmit power control, TPC, command, identifying whether beam switching occurs between a beam that transmitted the random access preamble and a beam for transmitting a request message for an radio resource control, RRC, connection; identifying a second transmission power for transmitting the request message based on the TPC command, the power ramping value, and the number of times the random access preamble is transmitted in case that the beam switching does not occur; identifying the second transmission power based on the TPC command in case that the beam switching occurs; and transmitting, to the base station, the request message through a physical uplink shared channel, PUSCH, based on the second transmission power. receiving, from a base station, system information including a power associated with a random access preamble; transmitting, to the base station, the random access preamble based on a first transmission power identified based on at least one of the power associated with the random access preamble, a power ramping value, and a number of times the random access preamble is transmitted; in case that the terminal receives a random access response message including a transmit power control, TPC, command, identifying whether beam switching occurs between a beam that transmitted the random access preamble and a beam for transmitting a request message for an radio resource control, RRC, connection; identifying a second transmission power for transmitting the request message based on the TPC command, the power ramping value, and the number of times the random access preamble is transmitted in case that the beam switching does not occur; identifying the second transmission power based on the TPC command in case that the beam switching occurs; and transmitting, to the base station, the request message through a physical uplink shared channel, PUSCH, based on the second transmission power.
A manufacturing method for an acidic gas separation membrane sheet including a first porous layer, a hydrophilic resin composition layer, and a second porous layer in this order, the method comprising: a step of preparing a hydrophilic resin composition liquid for forming the hydrophilic resin composition layer; a step of removing bubbles contained in the hydrophilic resin composition liquid; a step of applying the hydrophilic resin composition liquid onto the first porous layer and forming an applied layer on the first porous layer; and a step of laminating the second porous layer on the applied layer and forming a laminated body, wherein the hydrophilic resin composition liquid contains a hydrophilic resin and a medium, the step of removing bubbles includes: a step of applying a shear to the hydrophilic resin composition liquid; and a step of leaving the hydrophilic resin composition liquid, wherein the step of applying the shear to the hydrophilic resin composition liquid includes a step of filtering the hydrophilic resin composition liquid, and wherein the step of leaving the hydrophilic resin composition liquid is performed under at least one of a reduced pressure atmosphere and a heated atmosphere, wherein a pressure under the reduced pressure atmosphere is greater than or equal to 1.01 times of the vapor pressure of the medium, and a temperature of the heated atmosphere is higher than or equal to 25 °C and is lower than 90 °C. a step of preparing a hydrophilic resin composition liquid for forming the hydrophilic resin composition layer; a step of removing bubbles contained in the hydrophilic resin composition liquid; a step of applying the hydrophilic resin composition liquid onto the first porous layer and forming an applied layer on the first porous layer; and a step of laminating the second porous layer on the applied layer and forming a laminated body, wherein the hydrophilic resin composition liquid contains a hydrophilic resin and a medium, the step of removing bubbles includes: a step of applying a shear to the hydrophilic resin composition liquid; and a step of leaving the hydrophilic resin composition liquid, wherein a step of applying a shear to the hydrophilic resin composition liquid; and a step of leaving the hydrophilic resin composition liquid, wherein the step of applying the shear to the hydrophilic resin composition liquid includes a step of filtering the hydrophilic resin composition liquid, and wherein the step of leaving the hydrophilic resin composition liquid is performed under at least one of a reduced pressure atmosphere and a heated atmosphere, wherein a pressure under the reduced pressure atmosphere is greater than or equal to 1.01 times of the vapor pressure of the medium, and a temperature of the heated atmosphere is higher than or equal to 25 °C and is lower than 90 °C.
A tractor comprising an operation unit in which a loader manipulation part and a hydraulic manipulation part are arranged near a driver seat disposed at the rear of a steering wheel (H), the loader manipulation part and the hydraulic manipulation part being arranged within a semi-arc range over which a right arm of a driver turns about his/her right elbow which rests on a right arm rest of the driver seat , characterized in that the loader manipulation part has a grasp portion with an engine boosting switch , a valve manipulation switch and a mode switch , wherein; the engine boosting switch causes an engine boost control in which an engine rotation frequency of an engine (E) is raised while a speed change ratio of a hydraulic stepless transmission is lowered, to keep the vehicle speed constant, the valve manipulation switch causes a hydraulic pressure cylinder provided in a work equipment to extend or retract; and the mode switch causes switching the maximum rotation speed of the engine and the maximum vehicle speed which are preliminarily set for each of a plurality of modes.
A turbine impeller, comprising: a hub portion coupled to an end of a rotational shaft; a plurality of main blades disposed at intervals on a peripheral surface of the hub portion; and a short blade disposed between two adjacent main blades among the plurality of main blades, wherein an inter-blade flow channel is formed between the two adjacent main blades so that a fluid flows through the inter-blade flow channel from an outer side toward an inner side of the turbine impeller in a radial direction, wherein a hub-side end of a leading edge of the short blade is disposed on an inner side, in the radial direction, of a hub-side end of a leading edge of the main blade, in a meridional plane, and characterised in that , in the meridional plane, a hub-side end of a trailing edge of the short blade is positioned on a same position, in an axial direction, as a hub-side end of a trailing edge of the main blade. a hub portion coupled to an end of a rotational shaft; a plurality of main blades disposed at intervals on a peripheral surface of the hub portion; and a short blade disposed between two adjacent main blades among the plurality of main blades, wherein an inter-blade flow channel is formed between the two adjacent main blades so that a fluid flows through the inter-blade flow channel from an outer side toward an inner side of the turbine impeller in a radial direction, wherein a hub-side end of a leading edge of the short blade is disposed on an inner side, in the radial direction, of a hub-side end of a leading edge of the main blade, in a meridional plane, and characterised in that , in the meridional plane, a hub-side end of a trailing edge of the short blade is positioned on a same position, in an axial direction, as a hub-side end of a trailing edge of the main blade.
An unmanned aerial vehicle, comprising: a package carrier including a plurality of vertical members , the plurality of vertical members being changeable in relative positions in a horizontal direction and surrounding a package in the horizontal direction to prevent falling of the package ; a plurality of rotary wings which are changeable in relative positions in the horizontal direction; an actuator configured to change the relative positions of the plurality of vertical members and the relative positions of the plurality of rotary wings ; and a plurality of arms moveable by the actuator , wherein the package carrier is changed in shape in the horizontal direction in accordance with the relative positions of the plurality of vertical members , wherein the change in the relative positions of the plurality of rotary wings is in conjunction with the shape of the package carrier , wherein each of the plurality of vertical members is held by a corresponding one of the plurality of arms , and wherein each of the plurality of rotary wings is held by a corresponding one of the plurality of arms . a package carrier including a plurality of vertical members , the plurality of vertical members being changeable in relative positions in a horizontal direction and surrounding a package in the horizontal direction to prevent falling of the package ; a plurality of rotary wings which are changeable in relative positions in the horizontal direction; an actuator configured to change the relative positions of the plurality of vertical members and the relative positions of the plurality of rotary wings ; and a plurality of arms moveable by the actuator , wherein the package carrier is changed in shape in the horizontal direction in accordance with the relative positions of the plurality of vertical members , wherein the change in the relative positions of the plurality of rotary wings is in conjunction with the shape of the package carrier , wherein each of the plurality of vertical members is held by a corresponding one of the plurality of arms , and wherein each of the plurality of rotary wings is held by a corresponding one of the plurality of arms .
A projection device, comprising an optical engine module and a projection lens , the optical engine module , comprising: a light source unit configured to emit a light beam ; a first diffusion element disposed on a transmission path of the light beam ; a polarizing beam splitting element disposed on the transmission path of the light beam , wherein the first diffusion element is disposed between the polarizing beam splitting element and the light source unit ; a second diffusion element having at least one optical surface (OS1, OS2), wherein the at least one optical surface (OS1, OS2) is configured to reflect and diffuse the light beam , the light beam passes through the second diffusion element to form an illumination beam , and the illumination beam has an optical image matching angle; and a light valve , disposed on the transmission path of the illumination beam , wherein the light valve is configured to convert the illumination beam to an image beam , wherein the projection lens is disposed on a transmission path of the image beam to project the image beam out of the projection device , wherein the projection lens has a pupil (PL), and wherein the optical image matching angle of the illumination beam matches a viewing angle of the pupil (PL). a light source unit configured to emit a light beam ; a first diffusion element disposed on a transmission path of the light beam ; a polarizing beam splitting element disposed on the transmission path of the light beam , wherein the first diffusion element is disposed between the polarizing beam splitting element and the light source unit ; a second diffusion element having at least one optical surface (OS1, OS2), wherein the at least one optical surface (OS1, OS2) is configured to reflect and diffuse the light beam , the light beam passes through the second diffusion element to form an illumination beam , and the illumination beam has an optical image matching angle; and a light valve , disposed on the transmission path of the illumination beam , wherein the light valve is configured to convert the illumination beam to an image beam , wherein the projection lens is disposed on a transmission path of the image beam to project the image beam out of the projection device , wherein the projection lens has a pupil (PL), and wherein the optical image matching angle of the illumination beam matches a viewing angle of the pupil (PL).
A method comprising: identifying a current source block (340, 610-650) from a current source frame from a source video stream ; generating a prediction block for the current source block (340,610-650) using either intra-frame prediction or inter-frame prediction, wherein intra-frame prediction includes generating the prediction block from samples in the current source frame that have been previously encoded and reconstructed and wherein inter-frame prediction includes generating the prediction block from samples in one or more previously constructed reference frames; generating a source transform block by transforming the current source block (340,610-650) into the frequency domain; generating a prediction transform block by transforming the prediction block into the frequency domain; generating, by a processor in response to instructions stored on a non-transitory computer readable medium , a denoised transform block based on the source transform block and the prediction transform block; generating a denoised block by inverse transforming the denoised transform block; generating a residual block based on a difference between the denoised block and the prediction block; generating an encoded block by encoding the residual block; and outputting or storing the encoded block. identifying a current source block (340, 610-650) from a current source frame from a source video stream ; generating a prediction block for the current source block (340,610-650) using either intra-frame prediction or inter-frame prediction, wherein intra-frame prediction includes generating the prediction block from samples in the current source frame that have been previously encoded and reconstructed and wherein inter-frame prediction includes generating the prediction block from samples in one or more previously constructed reference frames; generating a source transform block by transforming the current source block (340,610-650) into the frequency domain; generating a prediction transform block by transforming the prediction block into the frequency domain; generating, by a processor in response to instructions stored on a non-transitory computer readable medium , a denoised transform block based on the source transform block and the prediction transform block; generating a denoised block by inverse transforming the denoised transform block; generating a residual block based on a difference between the denoised block and the prediction block; generating an encoded block by encoding the residual block; and outputting or storing the encoded block.
An amphipathic cell penetrating peptide of less than approximately 50 amino acid residues comprising at least 6 arginine residues (R), at least 12 alanine residues (A), at least 6 leucine residues (L), at least one cysteine residue (C), and at least two but no greater than three glutamic acids (E) wherein the arginine (R) residues are evenly distributed along the length of the peptide; the ratio of arginine (R) to negatively charged glutamic acid (E) residues is from at least 6:2 to 8:2; and the ratio of hydrophilic amino acid residues to hydrophobic amino acid residues at pH 7 is at least 30:70 to 40:60; and wherein the peptide comprises or consists of one of the following amino acid sequences: WEARLARALARALARHLARALARALRACEA (SEQ ID No. 1); WEARLARALARALARLARALARALRACEA (SEQ ID No. 2); REARLARALARALARLARALARALRACEA (SEQ ID No. 5); or a fragment thereof. the arginine (R) residues are evenly distributed along the length of the peptide; the ratio of arginine (R) to negatively charged glutamic acid (E) residues is from at least 6:2 to 8:2; and the ratio of hydrophilic amino acid residues to hydrophobic amino acid residues at pH 7 is at least 30:70 to 40:60; and wherein the peptide comprises or consists of one of the following amino acid sequences: WEARLARALARALARHLARALARALRACEA (SEQ ID No. 1); WEARLARALARALARLARALARALRACEA (SEQ ID No. 2); REARLARALARALARLARALARALRACEA (SEQ ID No. 5); WEARLARALARALARHLARALARALRACEA (SEQ ID No. 1); WEARLARALARALARLARALARALRACEA (SEQ ID No. 2); REARLARALARALARLARALARALRACEA (SEQ ID No. 5); or a fragment thereof.
Device for generating a very-low-frequency, pulsed magnetic field carried by a very-low-frequency alternating magnetic field, and intended to be applied to a region of the human body, the device comprising: a plurality of pairs of angular magnet sectors (6-1 to 6-4) of opposite polarity, the pairs of angular magnet sectors being centred on one same axis of rotation (X-X), angularly spaced apart from one another, and set in rotation at a predetermined speed about the axis of rotation so as to generate an alternating magnetic field at a predefined frequency; at least one conductive wire coil centred on the axis of rotation of the angular magnet sectors and supplied with a pulsed electric current so as to generate a pulsed magnetic field superimposed over the alternating magnetic field generated by the setting in rotation of the angular magnet sectors, and an electric motor independent of the electric supply to the coil, the angular magnet sectors (6-1 to 6-4) being driven in rotation about the axis of rotation (X-X) by said electric motor. a plurality of pairs of angular magnet sectors (6-1 to 6-4) of opposite polarity, the pairs of angular magnet sectors being centred on one same axis of rotation (X-X), angularly spaced apart from one another, and set in rotation at a predetermined speed about the axis of rotation so as to generate an alternating magnetic field at a predefined frequency; at least one conductive wire coil centred on the axis of rotation of the angular magnet sectors and supplied with a pulsed electric current so as to generate a pulsed magnetic field superimposed over the alternating magnetic field generated by the setting in rotation of the angular magnet sectors, and an electric motor independent of the electric supply to the coil, the angular magnet sectors (6-1 to 6-4) being driven in rotation about the axis of rotation (X-X) by said electric motor.
A parting wall lock for cargo securing, with a telescopic cargo securing beam which is provided at its ends with clamping devices which each have a carrier which is fastened to one end of the cargo securing beam , with a clamping piece which is attached to the carrier so as to be movable to a limited extent by means of a lever mechanism , and with spring means which are effective for generating a clamping force between the carrier and the clamping piece , characterized in that a clamping force indicator is provided on each of the clamping devices , wherein a user can at least recognize by means of the clamping force indicator whether the clamping device applies the required clamping force between the carrier and the clamping piece in the closed position.
An oligomer of formula (I) wherein linker 1 is an alkyl-aryl-alkyl group or (C 2 -C 8 )alkene; p and q are independently an integer from 2 to 6, that is, 2, 3, 4, 5, or 6; linker 2 is m is 0 or 1; A is independently aryl or heteroaryl; B is independently O, N or S; C is independently aryl or heteroaryl; R 1 is a bond or alkyl; R 2 is a bond, alkoxy or amine; R 3 is carbonyl, a bond or alkyl; R 4 is a bond or alkyl; R 5 is alkyl; and X is a halide selected from fluoride, chloride and bromide. wherein linker 1 is an alkyl-aryl-alkyl group or (C 2 -C 8 )alkene; p and q are independently an integer from 2 to 6, that is, 2, 3, 4, 5, or 6; linker 2 is m is 0 or 1; A is independently aryl or heteroaryl; B is independently O, N or S; C is independently aryl or heteroaryl; R 1 is a bond or alkyl; R 2 is a bond, alkoxy or amine; R 3 is carbonyl, a bond or alkyl; R 4 is a bond or alkyl; R 5 is alkyl; and X is a halide selected from fluoride, chloride and bromide.