mhurhangee/patent-ind-claim-en huggingface dataset:
A light emitting device (A, C, D, E, F), comprising: a laser light source that emits laser light ; a housing that includes a bottom wall and a side wall , the bottom wall of the housing being made of a reflecting member that reflects the laser light ; and a first wavelength converter provided on the side wall , the first wavelength converter containing a first phosphor, wherein the bottom wall of the housing is irradiated with the laser light emitted from the laser light source , the first phosphor is excited by diffused light of the laser light diffused by the bottom wall , and the laser light enters an internal space of the housing through an aperture of the housing , characterised in that output light obtained by additively mixing the laser light and an optical component emitted from the first phosphor is emitted through the aperture of the housing . a laser light source that emits laser light ; a housing that includes a bottom wall and a side wall , the bottom wall of the housing being made of a reflecting member that reflects the laser light ; and a first wavelength converter provided on the side wall , the first wavelength converter containing a first phosphor, wherein the bottom wall of the housing is irradiated with the laser light emitted from the laser light source , the first phosphor is excited by diffused light of the laser light diffused by the bottom wall , and the laser light enters an internal space of the housing through an aperture of the housing , characterised in that output light obtained by additively mixing the laser light and an optical component emitted from the first phosphor is emitted through the aperture of the housing .
Method for quantitatively determining bacteria in a sample, the method comprising the steps of: (a) incubating the sample to be examined together with a labelling reagent which is capable of binding to the bacteria to be determined, wherein the labelling reagent is a labelled bacteriophage, preferably a fluorescence-labelled, luminescence-labelled or Raman-labelled bacteriophage, and the labelling reagent is used in an excess with respect to the bacteria to be detected, (b) removing labelling reagent which has not bound to the bacteria from the bacteria through a membrane which is impermeable to the bacteria to be determined and permeable to the labelling reagent, wherein the bacteria to be determined are collected on the membrane, (c) determining the labelling reagent which has bound to the collected bacteria, preferably by fluorescence measurement, luminescence measurement and/or Raman measurement, and (d) quantitatively evaluating the measurement signal from step (c). (a) incubating the sample to be examined together with a labelling reagent which is capable of binding to the bacteria to be determined, wherein the labelling reagent is a labelled bacteriophage, preferably a fluorescence-labelled, luminescence-labelled or Raman-labelled bacteriophage, and the labelling reagent is used in an excess with respect to the bacteria to be detected, (b) removing labelling reagent which has not bound to the bacteria from the bacteria through a membrane which is impermeable to the bacteria to be determined and permeable to the labelling reagent, wherein the bacteria to be determined are collected on the membrane, (c) determining the labelling reagent which has bound to the collected bacteria, preferably by fluorescence measurement, luminescence measurement and/or Raman measurement, and (d) quantitatively evaluating the measurement signal from step (c).
An air-conditioning apparatus which is a ceiling embedded type indoor unit installed on a ceiling of a room , the room being provided with a reflector , the air-conditioning apparatus comprising: - a humidity sensor configured to measure humidity in the room ; - a casing ; - a heat exchanger ; and - a fan , wherein the reflector is a part of the floor surface or the wall of the room or a metal plate, a resin plate, or a wooden plate, installed on the floor surface or the wall surface of the room , the humidity sensor is arranged on the bottom surface of the casing between a suction port and an air outlet of the air-conditioning apparatus, and the humidity sensor comprises: - a sound wave element configured to transmit a sound wave and receive the sound wave reflected by the reflector; - a reception circuit configured to obtain an arrival time (t) of the reflected wave received by the sound wave element ; - a humidity analysis circuit configured to calculate humidity by using the arrival time (t), a distance (D) from the sound wave element to the reflector, and a temperature (T) of a space from the sound wave element to the reflector; and - an information input unit configured to input the distance (D) and the temperature (T). - a humidity sensor configured to measure humidity in the room ; - a casing ; - a heat exchanger ; and - a fan , wherein the reflector is a part of the floor surface or the wall of the room or a metal plate, a resin plate, or a wooden plate, installed on the floor surface or the wall surface of the room , the humidity sensor is arranged on the bottom surface of the casing between a suction port and an air outlet of the air-conditioning apparatus, and the humidity sensor comprises: - a sound wave element configured to transmit a sound wave and receive the sound wave reflected by the reflector; - a reception circuit configured to obtain an arrival time (t) of the reflected wave received by the sound wave element ; - a humidity analysis circuit configured to calculate humidity by using the arrival time (t), a distance (D) from the sound wave element to the reflector, and a temperature (T) of a space from the sound wave element to the reflector; and - an information input unit configured to input the distance (D) and the temperature (T). - a sound wave element configured to transmit a sound wave and receive the sound wave reflected by the reflector; - a reception circuit configured to obtain an arrival time (t) of the reflected wave received by the sound wave element ; - a humidity analysis circuit configured to calculate humidity by using the arrival time (t), a distance (D) from the sound wave element to the reflector, and a temperature (T) of a space from the sound wave element to the reflector; and - an information input unit configured to input the distance (D) and the temperature (T).
An electrophysiology catheter comprising: an elongated body ; a distal electrode assembly comprising: a proximal stem ; a plurality of at least eight spines , each spine have a first section (SA) with a first preformed curvature (CA) defined by a first radius, a second section (SB) with a second preformed curvature (CB) opposite of the first preformed curvature and defined by a second radius larger than the first radius, the second section being distal of the first section, and a linear section (SC) being distal of the second section; a plurality of nonconductive spine covers ; and a plurality of microelectrodes , at least one microelectrode carried on each spine. an elongated body ; a distal electrode assembly comprising: a proximal stem ; a plurality of at least eight spines , each spine have a first section (SA) with a first preformed curvature (CA) defined by a first radius, a second section (SB) with a second preformed curvature (CB) opposite of the first preformed curvature and defined by a second radius larger than the first radius, the second section being distal of the first section, and a linear section (SC) being distal of the second section; a plurality of nonconductive spine covers ; and a plurality of microelectrodes , at least one microelectrode carried on each spine. a proximal stem ; a plurality of at least eight spines , each spine have a first section (SA) with a first preformed curvature (CA) defined by a first radius, a second section (SB) with a second preformed curvature (CB) opposite of the first preformed curvature and defined by a second radius larger than the first radius, the second section being distal of the first section, and a linear section (SC) being distal of the second section; a plurality of nonconductive spine covers ; and a plurality of microelectrodes , at least one microelectrode carried on each spine.
A compound having the structure 1,4,7,10-tetraazacyclododecano- N , N ', N ", N ʺʺ-tetraacetic acid - hydrazinonicotinamide - Glu-NH-CO-NH-Lys(Nal) (DOTA-HYNIC-iPSMA).
Compound of formula (I) below: and also the addition salts thereof with organic or mineral acids, the tautomers thereof, and the solvates thereof such as hydrates; in which formula (I) ALK represents a linear or branched (C 1 -C 6 )alkyl or (C 2 -C 6 )alkenyl group, preferably (C 1 -C 4 )alkyl such as methyl.
An improved forestry shredder comprising: a main machine body , which delimits a shredding chamber and is provided with two support sides , which laterally delimit the shredding chamber ; and a rotor , which is arranged inside the shredding chamber , is rotatable around a transverse axis (Y1) arranged crosswise to the support sides and is provided with work tools , which are configured to cut plant material during the rotation of the rotor ; the rotor is connected, in the area of two ends of its, to a respective shaft by means of a connection assembly , which comprises first releasable connection means ; each connection assembly comprises a closing flange , which closes the respective end of the rotor and is connected to the respective support side by means of second connection means of the releasable type; each closing flange is provided with a through opening , which houses the respective shaft ; and each connection assembly comprises a bearing or a bushing arranged between the respective shaft and the respective closing flange . a main machine body , which delimits a shredding chamber and is provided with two support sides , which laterally delimit the shredding chamber ; and a rotor , which is arranged inside the shredding chamber , is rotatable around a transverse axis (Y1) arranged crosswise to the support sides and is provided with work tools , which are configured to cut plant material during the rotation of the rotor ; the rotor is connected, in the area of two ends of its, to a respective shaft by means of a connection assembly , which comprises first releasable connection means ; each connection assembly comprises a closing flange , which closes the respective end of the rotor and is connected to the respective support side by means of second connection means of the releasable type; each closing flange is provided with a through opening , which houses the respective shaft ; and each connection assembly comprises a bearing or a bushing arranged between the respective shaft and the respective closing flange .
An epilation device for pinching and pulling out hairs from the skin of a user comprising - an epilation barrel comprising a plurality of clamping elements; - a drive unit for driving the epilation barrel into movement; - a control unit for analyzing a contact pressure between the epilation barrel and the skin of a user and for determining whether the contact pressure is equal to, larger than or smaller than at least one threshold contact pressure, wherein the control unit is adapted to perform a predetermined action when the determined contact pressure is equal to, larger than or smaller than the at least one threshold contact pressure, wherein the control unit is arranged to calculate the contact pressure from a current consumed by the drive unit to drive the epilation barrel , whereby the contact pressure is calculated with respect to a baseline which represents the idle current consumption of the epilation device without skin contact, characterized in that the baseline is adaptive to provide a consistent feedback irrespective of the absolute idle current value that varies during the lifetime of the epilation device. - an epilation barrel comprising a plurality of clamping elements; - a drive unit for driving the epilation barrel into movement; - a control unit for analyzing a contact pressure between the epilation barrel and the skin of a user and for determining whether the contact pressure is equal to, larger than or smaller than at least one threshold contact pressure, wherein the control unit is adapted to perform a predetermined action when the determined contact pressure is equal to, larger than or smaller than the at least one threshold contact pressure, wherein the control unit is arranged to calculate the contact pressure from a current consumed by the drive unit to drive the epilation barrel , whereby the contact pressure is calculated with respect to a baseline which represents the idle current consumption of the epilation device without skin contact, characterized in that the baseline is adaptive to provide a consistent feedback irrespective of the absolute idle current value that varies during the lifetime of the epilation device.
A method for processing a video signal, comprising: (S300) obtaining parallel processing information from the video signal, the parallel processing information including size information about a size of a current parallel processing unit included in a current picture, the current parallel processing unit including one or more current coding units, each current coding unit including one or more current prediction units; determining the size of the current parallel processing unit using the parallel processing information; (S310) obtaining an inter-view motion vector of each current coding unit included in the current parallel processing unit using an inter-view motion vector of a neighboring block of the current coding unit, wherein the neighboring block of the current coding unit is a block adjacent to the current parallel processing unit and thus not included in the current parallel processing unit; and (S320) obtaining motion vectors of the one or more current prediction units in parallel using the inter-view motion vector of the current coding unit, wherein the inter-view motion vector indicates a corresponding block positioned at a different view from the one or more current prediction units and in a picture having a same picture order count as the current picture. (S300) obtaining parallel processing information from the video signal, the parallel processing information including size information about a size of a current parallel processing unit included in a current picture, the current parallel processing unit including one or more current coding units, each current coding unit including one or more current prediction units; determining the size of the current parallel processing unit using the parallel processing information; (S310) obtaining an inter-view motion vector of each current coding unit included in the current parallel processing unit using an inter-view motion vector of a neighboring block of the current coding unit, wherein the neighboring block of the current coding unit is a block adjacent to the current parallel processing unit and thus not included in the current parallel processing unit; and (S320) obtaining motion vectors of the one or more current prediction units in parallel using the inter-view motion vector of the current coding unit, wherein the inter-view motion vector indicates a corresponding block positioned at a different view from the one or more current prediction units and in a picture having a same picture order count as the current picture.
An image forming method comprising: forming an electrostatic latent image on an electrostatic latent image-bearing member; developing the electrostatic latent image to form a toner image; transferring the toner image to a recording medium; and fixing the toner image transferred on the recording medium, wherein the toner image includes an invisible toner image and a color toner image, the invisible toner image is formed with an invisible toner including a binder resin and a near infrared light-absorbing material, the color toner image is formed with a color toner including a binder resin and a colorant, when the invisible toner image is a solid image, 60-degree glossiness of the solid image measured according to the description is 30 or greater, the 60-degree glossiness of the solid image when the invisible toner image is the solid image is higher by 10 or higher than 60-degree glossiness of a solid image when the color toner image is the solid image, and the invisible toner image is formed closer to the recording medium than the color toner image. forming an electrostatic latent image on an electrostatic latent image-bearing member; developing the electrostatic latent image to form a toner image; transferring the toner image to a recording medium; and fixing the toner image transferred on the recording medium, wherein the toner image includes an invisible toner image and a color toner image, the invisible toner image is formed with an invisible toner including a binder resin and a near infrared light-absorbing material, the color toner image is formed with a color toner including a binder resin and a colorant, when the invisible toner image is a solid image, 60-degree glossiness of the solid image measured according to the description is 30 or greater, the 60-degree glossiness of the solid image when the invisible toner image is the solid image is higher by 10 or higher than 60-degree glossiness of a solid image when the color toner image is the solid image, and the invisible toner image is formed closer to the recording medium than the color toner image.
A composition, comprising: a material having a formula (Li 1+a (Ni q M r Co 1-q-r )O 2 ) x (Li 1+a (Ni s Mn t Co 1-s-t )O 2 ) 1-x , wherein: M is Mn and/or Al; x is a numerical value inclusively ranging from 0.70 to 0.95; a is a numerical value inclusively ranging from 0.01 to 0.07; q is a numerical value inclusively ranging from 0.80 to 0.96; r is a numerical value inclusively ranging from 0.01 to 0.10; s is a numerical value inclusively ranging from 0.34 to 0.70; t is a numerical value inclusively ranging from 0.20 to 0.40; 1-q-r is greater than 0; and 1-s-t is greater than 0. M is Mn and/or Al; x is a numerical value inclusively ranging from 0.70 to 0.95; a is a numerical value inclusively ranging from 0.01 to 0.07; q is a numerical value inclusively ranging from 0.80 to 0.96; r is a numerical value inclusively ranging from 0.01 to 0.10; s is a numerical value inclusively ranging from 0.34 to 0.70; t is a numerical value inclusively ranging from 0.20 to 0.40; 1-q-r is greater than 0; and 1-s-t is greater than 0.
A flywheel , in particular for a drive train of an internal combustion engine-powered motor vehicle, the flywheel having a first flywheel part , a second flywheel part and an axial spring device active between the first flywheel part and the second flywheel part , wherein the flywheel has a centrifugal pendulum device with a pendulum mass carrier part and at least one pendulum mass arranged on the pendulum mass carrier part such that it can be displaced along a pendulum path under the effect of a centrifugal force, characterised in that the flywheel has a ring gear/transducer ring , wherein the ring gear/transducer ring is arranged on the pendulum mass carrier part .
A machine for machining a workpiece having a first central longitudinal axis , the machine being characterised by comprising: a grinding spindle having a body , a wheel with a tip to which is attached abrasive , and an insulator electrically isolating the wheel from the body , the wheel being operable to remove material from the workpiece , the grinding spindle having a second central longitudinal axis about which the grinding spindle rotates and being disposed with the first and second central longitudinal axes intersecting one another so as to be suitable to create a gap-less, continuous gear tooth on the workpiece ; and an electrochemical grinding, ECG, element electrically connected to the wheel and the workpiece, the ECG element being configured to execute ECG processing on the grinding spindle and the workpiece to soften the workpiece as the gear tooth is being created by the grinding spindle . a grinding spindle having a body , a wheel with a tip to which is attached abrasive , and an insulator electrically isolating the wheel from the body , the wheel being operable to remove material from the workpiece , the grinding spindle having a second central longitudinal axis about which the grinding spindle rotates and being disposed with the first and second central longitudinal axes intersecting one another so as to be suitable to create a gap-less, continuous gear tooth on the workpiece ; and an electrochemical grinding, ECG, element electrically connected to the wheel and the workpiece, the ECG element being configured to execute ECG processing on the grinding spindle and the workpiece to soften the workpiece as the gear tooth is being created by the grinding spindle .
A magnetoresistance element assembly, comprising: a first stack of material layers disposed over a substrate, comprising: first reference layers comprising a first reference magnetic direction; first bias layers comprising a first bias magnetic direction; and first free layers experiencing the first bias magnetic direction, wherein the magnetoresistance element assembly further comprises: a second stack of material layers disposed over the substrate, comprising: second reference layers comprising a second reference magnetic direction; second bias layers comprising a second bias magnetic direction; and second free layers experiencing the second bias magnetic direction, wherein the first and second reference magnetic directions are parallel to each other, characterized in that a relative angle between the first reference magnetic direction and the first bias magnetic direction is between fifty and eighty-five degrees or between ninety-five and one hundred thirty degrees, wherein the second bias direction is parallel to and opposite to the first bias magnetic direction, and wherein the first and second stacks of material layers are disposed one on top of the other. a first stack of material layers disposed over a substrate, comprising: first reference layers comprising a first reference magnetic direction; first bias layers comprising a first bias magnetic direction; and first free layers experiencing the first bias magnetic direction, wherein the magnetoresistance element assembly further comprises: first reference layers comprising a first reference magnetic direction; first bias layers comprising a first bias magnetic direction; and first free layers experiencing the first bias magnetic direction, wherein the magnetoresistance element assembly further comprises: a second stack of material layers disposed over the substrate, comprising: second reference layers comprising a second reference magnetic direction; second bias layers comprising a second bias magnetic direction; and second free layers experiencing the second bias magnetic direction, second reference layers comprising a second reference magnetic direction; second bias layers comprising a second bias magnetic direction; and second free layers experiencing the second bias magnetic direction, wherein the first and second reference magnetic directions are parallel to each other, characterized in that a relative angle between the first reference magnetic direction and the first bias magnetic direction is between fifty and eighty-five degrees or between ninety-five and one hundred thirty degrees, wherein the second bias direction is parallel to and opposite to the first bias magnetic direction, and wherein the first and second stacks of material layers are disposed one on top of the other.