mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft jet engine system comprising at least one gas turbine engine , said gas turbine engine having a fan section delivering air into a compressor , the fan section including a rotor and a plurality of fan blades , characterised in that : the engine system further comprises a sensor system in the fan section for sensing information about the operation of the fan blades and providing feedback on the condition of each fan blade to a control , said control being programmed to take in the sensed information and identify a safe operating range for the gas turbine engine based upon damage information developed from the sensed information with regard to each of the blades , wherein one or more sensors sense the arrival time of at least one of a trailing edge (TE) and a leading edge (LE) of each said blade in said fan section to develop the damage information.
A method for operating an access point, the method comprising: receiving , by an access point, uplink data from a first station which is referred to as a traffic indication map, TIM, unneeded station, wherein a TIM unneeded station does not detect and decode a beacon comprising a TIM, and wherein the uplink data serves as an implicit request for downlink data; determining , by the access point, if the downlink data intended for the first station is available at the access point; and transmitting , by the access point, the downlink data intended for the first station to the first station in response to the uplink data; wherein the method further comprises: transmitting a message to the first station indicating the first station to switch to operating in a TIM mode, wherein the station detects and decodes the beacon as well as the TIM. receiving , by an access point, uplink data from a first station which is referred to as a traffic indication map, TIM, unneeded station, wherein a TIM unneeded station does not detect and decode a beacon comprising a TIM, and wherein the uplink data serves as an implicit request for downlink data; determining , by the access point, if the downlink data intended for the first station is available at the access point; and transmitting , by the access point, the downlink data intended for the first station to the first station in response to the uplink data; wherein the method further comprises: transmitting a message to the first station indicating the first station to switch to operating in a TIM mode, wherein the station detects and decodes the beacon as well as the TIM.
A hinge structure comprised in a foldable electronic device including a flexible display comprising: a fixed structure comprising a first guide rail and a second guide rail , the first guide rail and the second guide rail having an arc shape, a center of an arc of the first guide rail being a first axis of rotation parallel to an axial direction, and a center of an arc of the second guide rail being a second axis of rotation parallel to the axial direction; a first rotary structure comprising a first guide portion and a first helical groove , the first guide portion being accommodated in the first guide rail , the first helical groove extending to have a predetermined twist angle with respect to the axial direction, the first rotary structure being configured to rotate about the first axis of rotation; a second rotary structure comprising a second guide portion and a second helical groove , the second guide portion being accommodated in the second guide rail , the second helical groove extending to have a predetermined twist angle with respect to the axial direction, the second rotary structure being configured to rotate about the second axis of rotation; and a sliding structure comprising a first guide protrusion and a second guide protrusion , the first guide protrusion being accommodated in the first helical groove , the second guide protrusion being accommodated in the second helical groove , the sliding structure being configured to slide in the axial direction relative to the fixed structure in response to the first rotary structure and the second rotary structure rotating. a fixed structure comprising a first guide rail and a second guide rail , the first guide rail and the second guide rail having an arc shape, a center of an arc of the first guide rail being a first axis of rotation parallel to an axial direction, and a center of an arc of the second guide rail being a second axis of rotation parallel to the axial direction; a first rotary structure comprising a first guide portion and a first helical groove , the first guide portion being accommodated in the first guide rail , the first helical groove extending to have a predetermined twist angle with respect to the axial direction, the first rotary structure being configured to rotate about the first axis of rotation; a second rotary structure comprising a second guide portion and a second helical groove , the second guide portion being accommodated in the second guide rail , the second helical groove extending to have a predetermined twist angle with respect to the axial direction, the second rotary structure being configured to rotate about the second axis of rotation; and a sliding structure comprising a first guide protrusion and a second guide protrusion , the first guide protrusion being accommodated in the first helical groove , the second guide protrusion being accommodated in the second helical groove , the sliding structure being configured to slide in the axial direction relative to the fixed structure in response to the first rotary structure and the second rotary structure rotating.
An optical sensing apparatus comprising: a substrate formed using a first material; an absorption region formed using a second material different from the first material, the absorption region configured to receive an optical signal and generate photo-carriers in response to receiving the optical signal; an amplification region formed in the substrate configured to collect at least a portion of the photo-carriers from the absorption region and to amplify the portion of the photo-carriers; a buried-dopant region formed in the substrate and separated from the absorption region , wherein the buried-dopant region is configured to collect at least a portion of the amplified portion of the photo-carriers from the amplification region ; and characterised by a buffer layer formed between the buried-dopant region and the absorption region , wherein the buffer layer is intrinsic and has a thickness not less than 150 nm. a substrate formed using a first material; an absorption region formed using a second material different from the first material, the absorption region configured to receive an optical signal and generate photo-carriers in response to receiving the optical signal; an amplification region formed in the substrate configured to collect at least a portion of the photo-carriers from the absorption region and to amplify the portion of the photo-carriers; a buried-dopant region formed in the substrate and separated from the absorption region , wherein the buried-dopant region is configured to collect at least a portion of the amplified portion of the photo-carriers from the amplification region ; and characterised by a buffer layer formed between the buried-dopant region and the absorption region , wherein the buffer layer is intrinsic and has a thickness not less than 150 nm.
A method for enantioselective production of equol from daidzein, comprising the steps: (a) selectively reducing the daidzein, which may have protective groups covalently attached to the hydroxy groups, such that the 4-keto group of the daidzein is converted into a 4-hydroxy group, and the 2,3-double bond of the daidzein is converted to a 2,3-single bond, thereby obtaining a 4-hydroxy intermediate, and (b) reacting the 4-hydroxy intermediate with a chiral reagent, such that a chiral group is covalently attached to the C4-position of the 4-hydroxy intermediate, thereby obtaining a chiral intermediate, and (c) reacting the chiral intermediate with an amine reagent, such that an amine group is covalently attached to the C4-position, whereas the chiral group is removed from the C4-position, thereby obtaining an amine intermediate. (a) selectively reducing the daidzein, which may have protective groups covalently attached to the hydroxy groups, such that the 4-keto group of the daidzein is converted into a 4-hydroxy group, and the 2,3-double bond of the daidzein is converted to a 2,3-single bond, thereby obtaining a 4-hydroxy intermediate, and (b) reacting the 4-hydroxy intermediate with a chiral reagent, such that a chiral group is covalently attached to the C4-position of the 4-hydroxy intermediate, thereby obtaining a chiral intermediate, and (c) reacting the chiral intermediate with an amine reagent, such that an amine group is covalently attached to the C4-position, whereas the chiral group is removed from the C4-position, thereby obtaining an amine intermediate.
A curable resin formulation, this formulation resulting from contacting a composition comprising at least one precursor P of the curable resin, this precursor P comprising at least one epoxide group and, possibly, at least one hydroxyl group, with an initiator R and an accelerator A, characterised in that the initiator R is chosen from the group consisting of a boron trifluoride-amine complex and (4-isopropylphenyl)(4-methylphenyl)iodonium tetrakis(pentafluorophenyl)borate(1-), and in that the accelerator A is an organic peroxide.
Method for sorting objects in which the objects are classified by a method for associating objects with object classes; wherein, in the method for associating objects with object classes, an optical image of an object is captured, an object characteristic describing the object is created from the optical data obtained therefrom and the object characteristic is compared with a number of class characteristics , which are characteristic in each case for one of a number of object classes, and the object is associated with an object class as a function of the comparison result (E), wherein the objects are containers of a number of identical individual goods items packed contiguously in the container and the object classes are container types; and the objects are subsequently sorted to various transport units using the classification (K).
An idle stop control method, comprising: - automatically stopping an engine (ENG) of a vehicle when a permission condition set in advance is satisfied in a state in which a vehicle stop maintaining control is operated to generate a braking force capable of maintaining a stop state of the vehicle even when - from a state in which the vehicle is stopped by a brake pedal operation by a driver - the driver reduces the brake pedal operation; and - notifying the driver of ignition information for indicating that a state of an ignition switch is on when a parking brake is operated while the engine (ENG) is automatically stopped, wherein: - the permission condition includes a condition in which a state of a brake pedal operation by the driver is a first brake pedal operation state set in advance, - an operation condition to operate the vehicle stop maintaining control includes a condition in which a state of a brake pedal operation by the driver is a second brake pedal operation state set in advance, and - an operation amount of a brake pedal operation by the driver included in the first brake pedal operation state is greater than the operation amount included in the second brake pedal operation state. - automatically stopping an engine (ENG) of a vehicle when a permission condition set in advance is satisfied in a state in which a vehicle stop maintaining control is operated to generate a braking force capable of maintaining a stop state of the vehicle even when - from a state in which the vehicle is stopped by a brake pedal operation by a driver - the driver reduces the brake pedal operation; and - notifying the driver of ignition information for indicating that a state of an ignition switch is on when a parking brake is operated while the engine (ENG) is automatically stopped, - the permission condition includes a condition in which a state of a brake pedal operation by the driver is a first brake pedal operation state set in advance, - an operation condition to operate the vehicle stop maintaining control includes a condition in which a state of a brake pedal operation by the driver is a second brake pedal operation state set in advance, and - an operation amount of a brake pedal operation by the driver included in the first brake pedal operation state is greater than the operation amount included in the second brake pedal operation state.
A composite carbon material for a non-aqueous secondary battery, the composite carbon material containing at least a bulk mesophase artificial graphite particle (A) and a graphite particle (B) having an aspect ratio of 5 or greater, and being capable of absorbing and releasing lithium ions, wherein a graphite crystal layered structure of the graphite particle (B) is arranged in the same direction as a direction of an outer peripheral surface of the bulk mesophase artificial graphite particle (A) at a part of a surface of the bulk mesophase artificial graphite particle (A), and an average circularity, as defined in the description, of the composite carbon material obtained by a flow-type particle image analyzer is 0.9 or greater.
A production logging tool data processing method that comprises: using a production logging tool to measure one or more characteristics of a formation around a borehole , of fluids within the formation or of fluids within the borehole ; calculating a production data density profile of each of the one or more characteristics; defining a boundary between two reservoir simulation cells based at least in part upon the production data density profile; performing a simulation of a production field including the borehole using said simulation cells; and presenting the simulation results to a user. using a production logging tool to measure one or more characteristics of a formation around a borehole , of fluids within the formation or of fluids within the borehole ; calculating a production data density profile of each of the one or more characteristics; defining a boundary between two reservoir simulation cells based at least in part upon the production data density profile; performing a simulation of a production field including the borehole using said simulation cells; and presenting the simulation results to a user.
Method for the three-dimensional forming of an upper of a footwear, comprising: ▪ preparing a sock comprising thermoplastic yarns; ▪ fitting the sock on a reference form of an upper to be formed; ▪ placing the reference form with the sock in at least one oven ; ▪ heating the sock in the oven up to determining the at least partial fusion of thermoplastic material of the thermo-plastic yarns of said sock ; ▪ cooling the sock up to determining the cross-linking of the thermo-plastic material and the formation of the upper with more rigid portions and less rigid portions; ▪ removing the upper from the reference form ; wherein heating the sock in the oven comprises: circulating a heated fluid in the oven ; wherein the heated fluid comprises: superheated air or superheated steam or a mixture of superheated air and steam or a mixture of superheated air and superheated steam. ▪ preparing a sock comprising thermoplastic yarns; ▪ fitting the sock on a reference form of an upper to be formed; ▪ placing the reference form with the sock in at least one oven ; ▪ heating the sock in the oven up to determining the at least partial fusion of thermoplastic material of the thermo-plastic yarns of said sock ; ▪ cooling the sock up to determining the cross-linking of the thermo-plastic material and the formation of the upper with more rigid portions and less rigid portions; ▪ removing the upper from the reference form ;
A variable inductor direction sensor comprising: a rotatable body comprising a first circumferential tooth array ; and a stationary body comprising a second circumferential tooth array concentric with the first circumferential tooth array; wherein the rotatable body is disposed relative to the stationary body such that one of the first circumferential tooth array and the second circumferential tooth array circumscribes the other of the first circumferential tooth array and the second circumferential tooth array; wherein each of the first circumferential tooth array and the second circumferential tooth array comprises teeth that are asymmetrical about a radial axis along at least a circumferential portion of the at least one of the first circumferential tooth array and the second circumferential tooth array. a rotatable body comprising a first circumferential tooth array ; and a stationary body comprising a second circumferential tooth array concentric with the first circumferential tooth array; wherein the rotatable body is disposed relative to the stationary body such that one of the first circumferential tooth array and the second circumferential tooth array circumscribes the other of the first circumferential tooth array and the second circumferential tooth array;
Method for identifying an acupuncture point and/or a meridian of a subject comprising the following steps: a) detecting electrophysiological data points, detected on the basis of an electrophysiological method recording electrical activity of an organ or tissue, of the subject as a function of electromagnetic frequencies imposed on the subject, b) comparing these electrophysiological data points with a standard value for each of these electrophysiological data points, c) identifying at least one of the frequencies from step a) as a resonance frequency at which the electrophysiological data point deviates from the standard value, d) assigning an acupuncture point and/or a meridian to the resonance frequency, and e) therewith individualizing for said subject a set of at least one acupuncture point and/or meridian, wherein the method is performed with a medical device, preferably a bioresonance device, for identifying an acupuncture point and/or a meridian of a subject comprising the following modules: - a module for recording electrophysiological data points of a subject - a memory module comprising a database of resonance frequencies and of the corresponding acupuncture points, - an electromagnetic frequency generator module; and - at least one electrode used both for recording the electrophysiological data points and for imposing the electromagnetic frequencies on the subject. a) detecting electrophysiological data points, detected on the basis of an electrophysiological method recording electrical activity of an organ or tissue, of the subject as a function of electromagnetic frequencies imposed on the subject, b) comparing these electrophysiological data points with a standard value for each of these electrophysiological data points, c) identifying at least one of the frequencies from step a) as a resonance frequency at which the electrophysiological data point deviates from the standard value, d) assigning an acupuncture point and/or a meridian to the resonance frequency, and e) therewith individualizing for said subject a set of at least one acupuncture point and/or meridian, - a module for recording electrophysiological data points of a subject - a memory module comprising a database of resonance frequencies and of the corresponding acupuncture points, - an electromagnetic frequency generator module; and - at least one electrode used both for recording the electrophysiological data points and for imposing the electromagnetic frequencies on the subject.
Optical system, wherein the optical system comprises at least one carrier having at least one optical element , a movement bearing element for supporting the carrier during a movement, at least one first bearing element and at least one further bearing element for statically supporting the carrier , wherein the carrier comprises corresponding bearing elements for the static support, wherein the optical system comprises a first and a further end stop element , wherein the carrier is supported movably between the end stop elements , wherein the first end stop element has or forms the first bearing element for the static support and the further end stop element has or forms the further bearing element for the static support, wherein the bearing elements set the stop positions (L1, L2) of the carrier with reproducible accuracy, characterized in that the optical system comprises at least one locking element for looking the carrier in at least one stop position (L1, L2), wherein the locking element is designed for locking a coupling element which is mechanically coupled to the carrier for transmitting a driving force from a drive device.
A composition, comprising: a resin ; a plurality of spherical polymer nanoparticles included in the resin to form a resin mixture ; and the polymer nanoparticles being soluble or semi-soluble in the resin, characterised in that : at least some of the polymer nanoparticles are core-sheath nanoparticles that have a sheath encapsulating a core formed as a non-spherical particle embedded within the sheath; and the sheath is soluble in the resin such that only the non-spherical particle remains after the resin mixture cures, wherein the polymer nanoparticles have a cross-sectional width of 10-200 nanometers, and constitute no less than 5 percent by volume of the resin mixture . a resin ; a plurality of spherical polymer nanoparticles included in the resin to form a resin mixture ; and the polymer nanoparticles being soluble or semi-soluble in the resin, characterised in that : at least some of the polymer nanoparticles are core-sheath nanoparticles that have a sheath encapsulating a core formed as a non-spherical particle embedded within the sheath; and the sheath is soluble in the resin such that only the non-spherical particle remains after the resin mixture cures, wherein the polymer nanoparticles have a cross-sectional width of 10-200 nanometers, and constitute no less than 5 percent by volume of the resin mixture . at least some of the polymer nanoparticles are core-sheath nanoparticles that have a sheath encapsulating a core formed as a non-spherical particle embedded within the sheath; and the sheath is soluble in the resin such that only the non-spherical particle remains after the resin mixture cures, wherein the polymer nanoparticles have a cross-sectional width of 10-200 nanometers, and constitute no less than 5 percent by volume of the resin mixture .
An inhibitor of a BET protein for use in treating a proliferative disease, wherein the inhibitor of a BET protein is administered in combination with a Janus kinase inhibitor, wherein the Janus kinase inhibitor is tofacitinib, baricitinib, CYT387, lestaurtinib, pacritinib, TG101348, or a JAK1 selective inhibitor, and wherein said inhibitor of a BET protein is selected from: 7-(3,5-dimethylisoxazol-4-yl)-4-pyridin-2-yl-4,5-dihydroimidazo[1,5,4-de] benzoxazin-2 -one; -7-(3,5-dimethylisoxazol-4-yl)-4-pyridin-2-y1-4,5-dihydroimidazo[1,5,4- de ] benzoxazin-2 -one; and -2-(4-acetylpiperazin-1-yl)-7-(3,5-dimethylisoxazol-4-yl)-4-pyridin-2-yl-4,5-dihydroimidazo[1,5,4-de] benzoxazine; and pharmaceutically acceptable salts of any of the aforementioned. 7-(3,5-dimethylisoxazol-4-yl)-4-pyridin-2-yl-4,5-dihydroimidazo[1,5,4-de] benzoxazin-2 -one; -7-(3,5-dimethylisoxazol-4-yl)-4-pyridin-2-y1-4,5-dihydroimidazo[1,5,4- de ] benzoxazin-2 -one; and -2-(4-acetylpiperazin-1-yl)-7-(3,5-dimethylisoxazol-4-yl)-4-pyridin-2-yl-4,5-dihydroimidazo[1,5,4-de] benzoxazine; and pharmaceutically acceptable salts of any of the aforementioned.