mhurhangee/patent-ind-claim-en huggingface dataset:
A chemiluminescence immune analytical method, comprising the following steps of: mixing a sample to be detected suspected of containing a target molecule to be detected with a reagent required for a chemiluminescence immune reaction to react so as to form a mixture to be detected; initiating the mixture to be detected for t times successively to generate chemiluminescence, and recording a signal value of the chemiluminescence for n times, wherein a signal value of the chemiluminescence recorded at the n th time is marked as RLUn; selecting any two signal values from n-time recorded signal values of the chemiluminescence, marking the two signal values respectively as RLUm and RLUk, and marking a growth rate from RLUm to RLUk as A; plotting a standard curve based on a growth rate A' from RLUm' to RLUk' in any two reactions at step and step with respect to a series of standard substances with known concentrations containing the target molecule to be detected; and comparing the growth rate A obtained at step with the standard curve obtained at step to determine a concentration of the target molecule to be detected, wherein t, n, m, and k are all natural numbers larger than 0, and k<m≤n≤t, n≥2. mixing a sample to be detected suspected of containing a target molecule to be detected with a reagent required for a chemiluminescence immune reaction to react so as to form a mixture to be detected; initiating the mixture to be detected for t times successively to generate chemiluminescence, and recording a signal value of the chemiluminescence for n times, wherein a signal value of the chemiluminescence recorded at the n th time is marked as RLUn; selecting any two signal values from n-time recorded signal values of the chemiluminescence, marking the two signal values respectively as RLUm and RLUk, and marking a growth rate from RLUm to RLUk as A; plotting a standard curve based on a growth rate A' from RLUm' to RLUk' in any two reactions at step and step with respect to a series of standard substances with known concentrations containing the target molecule to be detected; and comparing the growth rate A obtained at step with the standard curve obtained at step to determine a concentration of the target molecule to be detected,
A sensor for measuring a property, the sensor comprising: a radiation source operable to produce a radiation beam; a detector provided with a detecting surface for receiving radiation and outputting a signal in dependence on the received radiation, and a sensing element operable to receive radiation and to reflect at least a portion of the radiation so as to form a reflected radiation beam, one or more properties of the reflected radiation beam being dependent on one or more properties to be measured; characterized by an aperture extending through the detector from the detecting surface to an opposed surface; and wherein the radiation source and the sensing element are disposed on opposite sides of the detector such that the radiation source is arranged to direct the radiation beam through the aperture to the sensing element and the sensing element is arranged to direct the reflected radiation beam to the detecting surface of the detector . a radiation source operable to produce a radiation beam; a detector provided with a detecting surface for receiving radiation and outputting a signal in dependence on the received radiation, and a sensing element operable to receive radiation and to reflect at least a portion of the radiation so as to form a reflected radiation beam, one or more properties of the reflected radiation beam being dependent on one or more properties to be measured; characterized by an aperture extending through the detector from the detecting surface to an opposed surface; and wherein the radiation source and the sensing element are disposed on opposite sides of the detector such that the radiation source is arranged to direct the radiation beam through the aperture to the sensing element and the sensing element is arranged to direct the reflected radiation beam to the detecting surface of the detector .
A rotor for an electric motor configured by combining an annular magnet section molded of thermoplastic resin containing ferrite and a rotating shaft penetrating through the annular magnet section in an axial direction of the annular magnet section , the rotor comprising a magnetic section for position detection formed of a resin magnet injected to an axial direction end face of the annular magnet section via a runner and integrally formed of the resin magnet on the axial direction end face , characterised in that after removal of part of the runner removal marks of the runner exist in an inner circumferential portion of the annular resin magnet section , said removal marks being suitable to be used as a rotation stopper when the magnet section is molded integrally with the rotation shaft .
A transmitting station , comprising: an encoder unit to encode a transmitting signal; a modulator unit to modulate the transmitting signal; an amplifier unit to amplify the transmitting signal; a transmitting antenna to wirelessly transmit the transmitting signal that has been amplified; and a controller unit to regulate a frequency of the transmitting signal, an input power to the amplifier unit , and at least one of the number of multiple values for modulation of a modulation method to be specified to the modulator unit and a code rate to be specified to the encoder unit on the basis of an estimation value of reception quality that is a signal quality when the transmitting signal is received by a receiving station , wherein: the controller unit regulates the input power on the basis of the estimation value of the reception quality to regulate the amplifier unit to have a linear or non-linear amplifying characteristic; and the controller unit increases one of the number of multiple values for modulation and the code rate when regulating the input power to a value that brings about the linear amplifying characteristic. an encoder unit to encode a transmitting signal; a modulator unit to modulate the transmitting signal; an amplifier unit to amplify the transmitting signal; a transmitting antenna to wirelessly transmit the transmitting signal that has been amplified; and a controller unit to regulate a frequency of the transmitting signal, an input power to the amplifier unit , and at least one of the number of multiple values for modulation of a modulation method to be specified to the modulator unit and a code rate to be specified to the encoder unit on the basis of an estimation value of reception quality that is a signal quality when the transmitting signal is received by a receiving station , wherein: the controller unit regulates the input power on the basis of the estimation value of the reception quality to regulate the amplifier unit to have a linear or non-linear amplifying characteristic; and the controller unit increases one of the number of multiple values for modulation and the code rate when regulating the input power to a value that brings about the linear amplifying characteristic.
A computer-implemented method of determining a pose of a camera , the method comprising: analyzing changes in an image detected by the camera using a plurality of sensors of the camera , the plurality of sensors comprising a first camera arranged to detect color data, an inertial measurement unit, IMU, and a depth camera; determining if a pose of the camera is incorrect and, if the pose of the camera is determined to be incorrect, determining which sensors of the plurality of sensors are providing reliable image data ; and analyzing image data from the sensors providing reliable image data and correcting a pose of the camera by re-localization based on the analyzed image data from the sensors determined to be providing reliable image data , wherein re-localization comprises using color data to localize a pose of the camera to a nearest key frame , and using depth data to perform finer adjustments of the pose to achieve precise re-localization . analyzing changes in an image detected by the camera using a plurality of sensors of the camera , the plurality of sensors comprising a first camera arranged to detect color data, an inertial measurement unit, IMU, and a depth camera; determining if a pose of the camera is incorrect and, if the pose of the camera is determined to be incorrect, determining which sensors of the plurality of sensors are providing reliable image data ; and analyzing image data from the sensors providing reliable image data and correcting a pose of the camera by re-localization based on the analyzed image data from the sensors determined to be providing reliable image data , wherein re-localization comprises using color data to localize a pose of the camera to a nearest key frame , and using depth data to perform finer adjustments of the pose to achieve precise re-localization .
A stretched porous polytetrafluoroethylene membrane wherein the membrane is a single-layer membrane and that satisfies the following relational expressions to : 1.0 ≤ F ≤ 4.0 0.2 ≤ R < 0.9 and R ≥ − 0.1 F + 0.5 when air permeability in terms of Frazier number is denoted by F [cm 3 /sec/cm 2 ] and water entry pressure is denoted by R [MPa], the Frazier number being a value measured using a Frazier type tester specified in JIS L 1096, and the water entry pressure being a value measured using a water resistance tester (high pressure method) specified in JIS L 1092.
A blower , comprising: an impeller housing ; an impeller rotatably secured to said impeller housing ; and an electric motor having a motor housing with a central portion and a radially extending portion extending from said central portion , a venturi chamber adjacent said motor housing and said impeller housing , said venturi chamber in direct fluid communication with said impeller housing , a stator secured to said central portion of said motor housing , a rotor rotatably secured to said central portion of said motor housing , and at least one heat generating electrical component secured to said radially extending portion of said motor housing , said electric motor configured to rotate said impeller generating a first air pressure within said impeller housing , said motor housing having a second air pressure therein less than the first air pressure, said venturi chamber and said motor housing defining a passageway therebetween, said passageway configured to channel an air flow from said impeller housing to said at least one heat generating electrical component within said motor housing , said passageway including a regulator for regulating a flow of air from said impeller housing toward said motor housing , whereby a difference in air pressure between the first air pressure and the second air pressure generates an air flow within said impeller housing , said venturi chamber , said passageway , and said motor housing to cool said at least one heat generating electrical component . an impeller housing ; an impeller rotatably secured to said impeller housing ; and an electric motor having a motor housing with a central portion and a radially extending portion extending from said central portion , a venturi chamber adjacent said motor housing and said impeller housing , said venturi chamber in direct fluid communication with said impeller housing , a stator secured to said central portion of said motor housing , a rotor rotatably secured to said central portion of said motor housing , and at least one heat generating electrical component secured to said radially extending portion of said motor housing , said electric motor configured to rotate said impeller generating a first air pressure within said impeller housing , said motor housing having a second air pressure therein less than the first air pressure, said venturi chamber and said motor housing defining a passageway therebetween, said passageway configured to channel an air flow from said impeller housing to said at least one heat generating electrical component within said motor housing , said passageway including a regulator for regulating a flow of air from said impeller housing toward said motor housing , whereby a difference in air pressure between the first air pressure and the second air pressure generates an air flow within said impeller housing , said venturi chamber , said passageway , and said motor housing to cool said at least one heat generating electrical component .
A wearable electronic device comprising: a housing comprising an opening, an inner surface , and an outer surface ; a cover member positioned over the opening; and characterized in that : the cover member comprises an engagement channel on a surface of the cover member ; and a retention member positioned within the housing and against the inner surface , and comprising an engagement element engaging the engagement channel of the cover member , the retention member being rotatable relative to the cover member and the housing to secure the cover member against the outer surface of the housing . a housing comprising an opening, an inner surface , and an outer surface ; a cover member positioned over the opening; and characterized in that : the cover member comprises an engagement channel on a surface of the cover member ; and a retention member positioned within the housing and against the inner surface , and comprising an engagement element engaging the engagement channel of the cover member , the retention member being rotatable relative to the cover member and the housing to secure the cover member against the outer surface of the housing . the cover member comprises an engagement channel on a surface of the cover member ; and a retention member positioned within the housing and against the inner surface , and comprising an engagement element engaging the engagement channel of the cover member , the retention member being rotatable relative to the cover member and the housing to secure the cover member against the outer surface of the housing .
An excavator comprising: at least one of gyro sensors that detect a slope of an excavator; a swing motor that rotates an upper body relative to a lower body of the excavator; a first pressure sensor that detects an operational hydraulic pressure value applied to the swing motor ; a swing joystick for driving the swing motor ; and a second pressure sensor that detects an operational value inputted to the swing joystick ; characterized in that the excavator further comprises a controller that receives an information detected by the gyro sensor , the first pressure sensor , and the second pressure sensor , and detects the operational hydraulic pressure value of the swing motor by the first pressure sensor when a maximum manipulation is applied to the joystick for more than a minimum measurement time at a swing friction force measurement mode in which the swing friction force of the upper body of the excavator is measured, wherein the minimum measurement time is set to be longer than a time taken for the swing motor to reach a maximum speed when the swing motor swings the upper body of the excavator, for which the upper body of the excavator maintains a posture having the least inertia moment of rotation and the swing joystick is manipulated to the maximum. at least one of gyro sensors that detect a slope of an excavator; a swing motor that rotates an upper body relative to a lower body of the excavator; a first pressure sensor that detects an operational hydraulic pressure value applied to the swing motor ; a swing joystick for driving the swing motor ; and a second pressure sensor that detects an operational value inputted to the swing joystick ; characterized in that the excavator further comprises a controller that receives an information detected by the gyro sensor , the first pressure sensor , and the second pressure sensor , and detects the operational hydraulic pressure value of the swing motor by the first pressure sensor when a maximum manipulation is applied to the joystick for more than a minimum measurement time at a swing friction force measurement mode in which the swing friction force of the upper body of the excavator is measured, wherein the minimum measurement time is set to be longer than a time taken for the swing motor to reach a maximum speed when the swing motor swings the upper body of the excavator, for which the upper body of the excavator maintains a posture having the least inertia moment of rotation and the swing joystick is manipulated to the maximum.
A semiconductor laser , comprising: a substrate ; an active area provided on the substrate, the active area including a quantum well structure ; an emitter area provided on the substrate, the emitter area having a first conduction type; and a collector area provided on the substrate, the collector area having the first conduction type, wherein the quantum well structure causes a radiative transition of carrier of the first conduction type between a higher energy level (E3) to a lower energy level (E2), the higher energy level being lower than or equal to an energy level (E17) of the carriers in the emitter area, the lower energy level being higher than or equal to an energy level (E19) of the carriers in the collector area characterized in that the active area, the emitter area and the collector area are laterally arranged on a top surface of the substrate such that the emitter area and the collector area sandwich the active area therebetween. a substrate ; an active area provided on the substrate, the active area including a quantum well structure ; an emitter area provided on the substrate, the emitter area having a first conduction type; and a collector area provided on the substrate, the collector area having the first conduction type, wherein the quantum well structure causes a radiative transition of carrier of the first conduction type between a higher energy level (E3) to a lower energy level (E2), the higher energy level being lower than or equal to an energy level (E17) of the carriers in the emitter area, the lower energy level being higher than or equal to an energy level (E19) of the carriers in the collector area characterized in that the active area, the emitter area and the collector area are laterally arranged on a top surface of the substrate such that the emitter area and the collector area sandwich the active area therebetween.
A process for producing superabsorbent polymer particles, comprising polymerization of a monomer solution or suspension, comprising a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers, drying the resulting polymer gel, grinding, classifying and surface postcrosslinking the resulting polymer particles, wherein the surface postcrosslinked superabsorbent polymer particles are classified into an undersize, midsize, and oversize fraction, the sieve for separating the undersize fraction and the midsize fraction has a mesh size from 100 to 300 μm, the sieve for separating the oversize fraction and the midsize fraction has a mesh size from 600 to 1,200 μm, the superabsorbent polymer particles of the oversize fraction are deagglomerated using a roll crusher, and the deagglomerated superabsorbent polymer particles are recycled before or into the classification of the surface postcrosslinked superabsorbent polymer particles. a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers,
Application device applicable for positioning an absorptive matrix (AM)-element within a cavity of a human or animal body, the application device comprising: - a storage and release tube having a distal end and a proximal end , the tube is configured to store and release an AM-element ; - the AM-element being stored within an inner space of the tube ; - a release element being slidably supported with respect to the tube along a longitudinal axis (L) of the tube , the release element is configured to release the AM-element from the tube ; - at least one deflection means arranged at the distal end of the tube , the deflection means is capable to bend the AM-element away from the longitudinal axis (L) of the tube when the AM-element is released from the tube , characterized in that the AM-element is not attached to any of the tube , the release element and the deflection means . - a storage and release tube having a distal end and a proximal end , the tube is configured to store and release an AM-element ; - the AM-element being stored within an inner space of the tube ; - a release element being slidably supported with respect to the tube along a longitudinal axis (L) of the tube , the release element is configured to release the AM-element from the tube ; - at least one deflection means arranged at the distal end of the tube , the deflection means is capable to bend the AM-element away from the longitudinal axis (L) of the tube when the AM-element is released from the tube ,
A manufacturing assistance system for an additive manufacturing system , comprising: - a process sensor unit, - an imaging sensor unit, - an error detection unit, and - a control unit , wherein the process sensor unit is arrangeable at the additive manufacturing system and configured to generate process data during manufacturing an object by the additive manufacturing system , wherein the imaging sensor unit is arrangeable at the additive manufacturing system and configured to generate image data of the object during manufacturing, and wherein the error detection unit is arranged inside and/or outside the manufacturing chamber and configured to generate error data based on a human error or interference, during manufacturing the object and send the error data to the control unit , wherein the control unit is configured to collect the process data generated by the process sensor unit, the image data generated by the imaging sensor unit and the error data sent by the error detection unit, and to correlate the process data, the image data, and the error data to determine a current state of the object to verify if the object being manufactured meets predefined requirements or has any failure. - a process sensor unit, - an imaging sensor unit, - an error detection unit, and - a control unit , wherein the process sensor unit is arrangeable at the additive manufacturing system and configured to generate process data during manufacturing an object by the additive manufacturing system , wherein the imaging sensor unit is arrangeable at the additive manufacturing system and configured to generate image data of the object during manufacturing, and wherein the error detection unit is arranged inside and/or outside the manufacturing chamber and configured to generate error data based on a human error or interference, during manufacturing the object and send the error data to the control unit , wherein the control unit is configured to collect the process data generated by the process sensor unit, the image data generated by the imaging sensor unit and the error data sent by the error detection unit, and to correlate the process data, the image data, and the error data to determine a current state of the object to verify if the object being manufactured meets predefined requirements or has any failure.