mhurhangee/patent-ind-claim-en huggingface dataset:
A product comprising a recombinant human follicle stimulating hormone (FSH) for use in the treatment of infertility in a patient having serum AMH level of < 15 pmol/L, wherein the product is to be administered at a dose of, or equivalent to, 11-13 μg recombinant human FSH per day, wherein the product further comprises hCG.
Motor comprising: - an outer part comprising a range of magnetic field sources and having a central recess, said magnetic field sources of the outer part comprising a range of electromagnets and a range of permanent magnets , - an inner part (18-181) comprising at least one magnetic dipole and arranged in said central recess of the outer part , in other words an inner rotor and an outer stator, or an inner stator and an outer rotor, or an outer rotor that rotates in the counterclockwise direction and an inner rotor that rotates in the clockwise direction, said outer part and said inner part (18-181) being configured such that it is possible to have a relative rotational movement between them, - a range of transient magnetic rotors positioned in said central recess of the outer part , between said inner part (18-181) and said outer part , each of said transient magnetic rotors comprising at least one magnetic dipole, said transient magnetic rotors being in contact with the outer part and the inner part , - said motor being configured such that a magnetic destabilization force can be exerted on each of the transient magnetic rotors making it possible to induce a relative movement between each of said transient magnetic rotors and said outer part . - an outer part comprising a range of magnetic field sources and having a central recess, said magnetic field sources of the outer part comprising a range of electromagnets and a range of permanent magnets , - an inner part (18-181) comprising at least one magnetic dipole and arranged in said central recess of the outer part , in other words an inner rotor and an outer stator, or an inner stator and an outer rotor, or an outer rotor that rotates in the counterclockwise direction and an inner rotor that rotates in the clockwise direction, said outer part and said inner part (18-181) being configured such that it is possible to have a relative rotational movement between them, - a range of transient magnetic rotors positioned in said central recess of the outer part , between said inner part (18-181) and said outer part , each of said transient magnetic rotors comprising at least one magnetic dipole, said transient magnetic rotors being in contact with the outer part and the inner part , - said motor being configured such that a magnetic destabilization force can be exerted on each of the transient magnetic rotors making it possible to induce a relative movement between each of said transient magnetic rotors and said outer part .
A composite film comprising: (a) an acrylonitrile styrene acrylate (ASA) copolymer layer; (b) a metal layer having a thickness of 0.1-10 μm; (c) optionally a coloured layer; and (d) a transparent polymer layer characterized in that it is a UV-protective, scratch resistant, glossy, chemically inert and/or weatherproof layer and has a thickness of 0.1-100 μm, wherein layer (b) is located between layers (a) and (d) and optionally layer (c) is located between layers (b) and (d). (a) an acrylonitrile styrene acrylate (ASA) copolymer layer; (b) a metal layer having a thickness of 0.1-10 μm; (c) optionally a coloured layer; and (d) a transparent polymer layer characterized in that it is a UV-protective, scratch resistant, glossy, chemically inert and/or weatherproof layer and has a thickness of 0.1-100 μm,
Method of handling laboratory sample containers , the method comprising the steps of: a) moving a laboratory sample container to a target position (TP), wherein the target position (TP) is a position at which the laboratory sample container is inserted into a corresponding orifice of a laboratory sample container rack , provided that the laboratory sample container rack is placed at an intended position, wherein the laboratory sample container is prevented from moving horizontally more than a predetermined horizontal distance (Δxy) if inserted into the corresponding orifice of the laboratory sample container rack , characterized by the steps: b) applying a force (Fxy) in an horizontal direction (xy) to the laboratory sample container , c) determining if the laboratory sample container moves in the horizontal direction (xy) more than the predetermined horizontal distance (Δxy), and d) performing an error procedure if it is determined that the laboratory sample container moves in the horizontal direction (xy) more than the predetermined horizontal distance (Δxy). a) moving a laboratory sample container to a target position (TP), wherein the target position (TP) is a position at which the laboratory sample container is inserted into a corresponding orifice of a laboratory sample container rack , provided that the laboratory sample container rack is placed at an intended position, wherein the laboratory sample container is prevented from moving horizontally more than a predetermined horizontal distance (Δxy) if inserted into the corresponding orifice of the laboratory sample container rack , b) applying a force (Fxy) in an horizontal direction (xy) to the laboratory sample container , c) determining if the laboratory sample container moves in the horizontal direction (xy) more than the predetermined horizontal distance (Δxy), and d) performing an error procedure if it is determined that the laboratory sample container moves in the horizontal direction (xy) more than the predetermined horizontal distance (Δxy).
A method of processing digital content comprising: scrambling the digital content, the scrambling comprising dividing the digital content into blocks set out in an original arrangement and reordering the blocks from the original arrangement to a scrambled arrangement; compressing the scrambled digital content; and outputting the compressed scrambled digital content with the blocks ordered in the scrambled arrangement; characterised in that : the scrambling further comprises carrying out a different transform manipulation on each of a plurality of the blocks. scrambling the digital content, the scrambling comprising dividing the digital content into blocks set out in an original arrangement and reordering the blocks from the original arrangement to a scrambled arrangement; compressing the scrambled digital content; and outputting the compressed scrambled digital content with the blocks ordered in the scrambled arrangement; characterised in that : the scrambling further comprises carrying out a different transform manipulation on each of a plurality of the blocks.
An air conditioning system for a vehicle for public transport, said air conditioning system comprising a heat exchanger inside which an air conditioning fluid of an air conditioning circuit circulates, configured to exchange heat with the environment, said air conditioning circuit comprising heating means configured to directly heat at least one of the walls of said heat exchanger , said air conditioning system further comprising ventilation means configured to generate an airflow directed towards at least one of the walls of said heat exchanger , and being characterised by , said heating means being separated and spaced apart from said heat exchanger and positioned so as not to interfere with said airflow.
A transmission scheduling method, wherein the method comprises: generating (S1501), by a first access point AP, a scheduling request message, wherein the scheduling request message comprises information about at least one scheduling set and at least one transmission time identifier, the information about the at least one scheduling set is used to indicate the at least one scheduling set, and the scheduling set comprises at least one scheduling set element; and the at least one transmission time identifier is in a one-to-one correspondence with the at least one scheduling set, and the transmission time identifier is used to indicate a transmission time range in which at least one scheduling set element indicated by the scheduling set performs transmission; and sending (S1502), by the first AP, the scheduling request message to at least one second access point AP, so that the at least one second AP determines, based on the scheduling request message, whether to schedule a scheduling set element, served by the at least one second AP, in the at least one scheduling set element in the scheduling set to perform transmission in the transmission time range; characterized in that a type of any one of the at least one scheduling set element comprises a station and a specified direction of the station; wherein a scheduling set subfield corresponding to the scheduling set element comprises identifier information of the station, and an antenna identifier and/or a sector identifier of the station. generating (S1501), by a first access point AP, a scheduling request message, wherein the scheduling request message comprises information about at least one scheduling set and at least one transmission time identifier, the information about the at least one scheduling set is used to indicate the at least one scheduling set, and the scheduling set comprises at least one scheduling set element; and the at least one transmission time identifier is in a one-to-one correspondence with the at least one scheduling set, and the transmission time identifier is used to indicate a transmission time range in which at least one scheduling set element indicated by the scheduling set performs transmission; and sending (S1502), by the first AP, the scheduling request message to at least one second access point AP, so that the at least one second AP determines, based on the scheduling request message, whether to schedule a scheduling set element, served by the at least one second AP, in the at least one scheduling set element in the scheduling set to perform transmission in the transmission time range; characterized in that a type of any one of the at least one scheduling set element comprises a station and a specified direction of the station; wherein a scheduling set subfield corresponding to the scheduling set element comprises identifier information of the station, and an antenna identifier and/or a sector identifier of the station.
Method for producing a strip steel knife with a hardened cutting edge , wherein a steel strip which has, proximally, an intermediate stage structure and, on the surface, a decarburisation , and which is substantially rectangular in cross-section, is subjected to a metal-cutting machining to form a longitudinal cutting edge , and subsequently a hardening of the material in the cutting edge region , characterised in that, in a first step, a metal-cutting shaping of the blade bevels (3, 3'; 5, 5') to form a cutting edge takes place on the longitudinal side, whereupon, in a second step, a hardening of the cutting edge region (6; 7) is carried out, which blade bevels subsequently, in a third step for shaping the surface towards the cutting edge , undergoes a metal-cutting machining by fine machining by means of smoothing, after which, in a fourth step, at least one subsequent hardening in the cutting edge region is carried out and an increase in hardness of the material in the distal cutting edge region towards the cutting edge takes place.
A method of evaluating certificates respectively issued by a certificating authority on a device having a processor and communicating with a client set comprising various clients, the method comprising: executing on the processor instructions that cause the device to: receive from the set of clients a set of certificates presented to the clients and issued by a certificating authority ; for respective certificating authorities : for respective certificates of the collected set of certificates issued by the certificating authority, determine a certificate trust level ; and according to the certificate trust levels of the certificates issued by the certificating authority, determine a certificating authority trust level of the certificating authority; and distribute to the clients a certificating authority trust set identifying the certificating authority trust levels of the respective certificating authorities. receive from the set of clients a set of certificates presented to the clients and issued by a certificating authority ; for respective certificating authorities : for respective certificates of the collected set of certificates issued by the certificating authority, determine a certificate trust level ; and according to the certificate trust levels of the certificates issued by the certificating authority, determine a certificating authority trust level of the certificating authority; and for respective certificates of the collected set of certificates issued by the certificating authority, determine a certificate trust level ; and according to the certificate trust levels of the certificates issued by the certificating authority, determine a certificating authority trust level of the certificating authority; and distribute to the clients a certificating authority trust set identifying the certificating authority trust levels of the respective certificating authorities.
A receiver comprising: a first T-coil circuit (102; 302) at an input of the receiver (100; 300-1) and configured to receive an input signal; a termination impedance (106; 306) coupled to the first T-coil circuit (102; 302) and configured to match an impedance of a transmission line coupled to the first T-coil circuit (102; 302); and an amplifier comprising a first input and a second input and configured to amplify a differential signal at the first and second inputs and characterised by a calibration switch coupled to the amplifier and configured to selectively electrically connect or disconnect the first and second inputs of the amplifier ; and a first receive switch configured to selectively electrically connect or disconnect a center node (CN P ) of the first T-coil circuit (102; 302) and the amplifier . a first T-coil circuit (102; 302) at an input of the receiver (100; 300-1) and configured to receive an input signal; a termination impedance (106; 306) coupled to the first T-coil circuit (102; 302) and configured to match an impedance of a transmission line coupled to the first T-coil circuit (102; 302); and an amplifier comprising a first input and a second input and configured to amplify a differential signal at the first and second inputs and characterised by a calibration switch coupled to the amplifier and configured to selectively electrically connect or disconnect the first and second inputs of the amplifier ; and a first receive switch configured to selectively electrically connect or disconnect a center node (CN P ) of the first T-coil circuit (102; 302) and the amplifier .
A method for wireless health monitoring comprising: detecting an ultrasound signal using a wireless ultrasound transducer ; performing a dynamic range compression of the detected ultrasound signal; digitizing the dynamically compressed ultrasound signal to obtain a digitized ultrasound signal; calculating a distance between a mobile transmitter and a receiver based on one or more attributes of a wireless communication channel between the mobile transmitter and the receiver; determining a data compression level out of a plurality of data compression levels for compressing data to be transmitted wirelessly from the mobile transmitter to the receiver, based on the distance between the mobile transmitter and the receiver, wherein the data includes the digitized ultrasound signal; compressing the data to be transmitted based on the determined data compression level; determining , based at least in part on the determined data compression level, a transmission bandwidth; and transmitting the compressed data in a signal from the mobile transmitter to the receiver using the determined transmission bandwidth. detecting an ultrasound signal using a wireless ultrasound transducer ; performing a dynamic range compression of the detected ultrasound signal; digitizing the dynamically compressed ultrasound signal to obtain a digitized ultrasound signal; calculating a distance between a mobile transmitter and a receiver based on one or more attributes of a wireless communication channel between the mobile transmitter and the receiver; determining a data compression level out of a plurality of data compression levels for compressing data to be transmitted wirelessly from the mobile transmitter to the receiver, based on the distance between the mobile transmitter and the receiver, wherein the data includes the digitized ultrasound signal; compressing the data to be transmitted based on the determined data compression level; determining , based at least in part on the determined data compression level, a transmission bandwidth; and transmitting the compressed data in a signal from the mobile transmitter to the receiver using the determined transmission bandwidth.
A method for recognizing an object comprising: selecting from a plurality of image frames captured by a camera, a first image frame in which a line of sight between the camera and the object is not blocked by the hand of a user; selecting from the plurality of image frames a second image frame in which the line of sight between the camera and the object is not blocked by the hand of the user, wherein the selected first image frame and second image frame both include an image of the user interacting with the object; estimating a location of the object in the selected first image frame and the selected second image frame based on a displacement between a wrist and a hip of the user interacting with the object near a fetch time or a release time of the object by the user. selecting from a plurality of image frames captured by a camera, a first image frame in which a line of sight between the camera and the object is not blocked by the hand of a user; selecting from the plurality of image frames a second image frame in which the line of sight between the camera and the object is not blocked by the hand of the user, wherein the selected first image frame and second image frame both include an image of the user interacting with the object; estimating a location of the object in the selected first image frame and the selected second image frame based on a displacement between a wrist and a hip of the user interacting with the object near a fetch time or a release time of the object by the user.
A collagen based polymeric material comprising collagen molecules and/or collagen derived molecules which have been functionalised by the addition of one or more ethylenically unsaturated moieties and which have been cross-linked via said moieties and characterised in that one or more ethylenically unsaturated moiety is 4-vinylbenzyl chloride .
A combination product, comprising a limonoid compound or a pharmaceutically acceptable ester, stereoisomer, or salt thereof, and an α-glucosidase inhibitor, wherein the α-glucosidase inhibitor is selected from the group consisting of acarbose, and the limonoid compound is one ore more selected from the group consisting of limonin, isolimonic acid, limonin glycoside, isolimonic acid glycoside, obacunone, ichangin, ichangensin, ichangin glycoside, nomilin, deacetylnomilin, nomilin acid, deacetylnomilin acid glycoside, nomilin glycoside, deacetylnomilin glycoside, nomilin acid glycoside, isoobacunoic acid, obacunone glycoside, and wherein the α-glucosidase inhibitor is in an amount of 50 mg to 2000 mg, and wherein the limonoid compound is in an amount of 50 mg to 2000 mg.
A smoker for cooking and smoking a food product comprising: a. a food smoking enclosure including: i. an access lid ; ii. at least one grill rack located within the food smoking enclosure for holding the food product to be cooked; and iii. a smoke inlet for introducing smoke and heat into the food smoking enclosure ; b. a stack external to the food smoking enclosure with a top opening and a bottom and including: i. a fire box located near the bottom of the stack and including: (a) a fire grate ; and (b) a fire box outlet that connects to the food smoking enclosure (12, 1 12) above the fire grate ; ii. a fuel hopper positioned above the fire box and connected to the fire box for gravity feeding solid fuel into the fire box ; and c. a fan comprising a fan outlet connected to the fire box below the fire grate for forcing air into the fire box . a. a food smoking enclosure including: i. an access lid ; ii. at least one grill rack located within the food smoking enclosure for holding the food product to be cooked; and iii. a smoke inlet for introducing smoke and heat into the food smoking enclosure ; i. an access lid ; ii. at least one grill rack located within the food smoking enclosure for holding the food product to be cooked; and iii. a smoke inlet for introducing smoke and heat into the food smoking enclosure ; b. a stack external to the food smoking enclosure with a top opening and a bottom and including: i. a fire box located near the bottom of the stack and including: (a) a fire grate ; and (b) a fire box outlet that connects to the food smoking enclosure (12, 1 12) above the fire grate ; ii. a fuel hopper positioned above the fire box and connected to the fire box for gravity feeding solid fuel into the fire box ; and i. a fire box located near the bottom of the stack and including: (a) a fire grate ; and (b) a fire box outlet that connects to the food smoking enclosure (12, 1 12) above the fire grate ; (a) a fire grate ; and (b) a fire box outlet that connects to the food smoking enclosure (12, 1 12) above the fire grate ; ii. a fuel hopper positioned above the fire box and connected to the fire box for gravity feeding solid fuel into the fire box ; and c. a fan comprising a fan outlet connected to the fire box below the fire grate for forcing air into the fire box .
A method for manufacturing a member having a substrate and a sprayed coating formed on a surface of the substrate, the method comprising: supplying an oil into a recessed portion of the sprayed coating, a kinematic viscosity of the oil at 40°C being more than or equal to 3 mm 2 /s and less than or equal to 43 mm 2 /s; and dry-cutting, using a cutting tool, a surface of the sprayed coating with the recessed portion supplied with the oil, at least a portion of the cutting tool being constituted of a sintered material of cubic boron nitride, a cutting edge of the cutting tool being formed at the sintered material of cubic boron nitride, a supplied amount of the oil being more than or equal to 0.1 weight % and less than or equal to 2.7 weight % with respect to an apparent weight of the sprayed coating, the apparent weight being the weight of the sprayed coating including the weight of the oil supplied to the recess portion, wherein the substrate is an A1 alloy and the sprayed coating is a low-carbon steel, the low-carbon steel being a steel having a carbon weight content of less than or equal to 0.3%. supplying an oil into a recessed portion of the sprayed coating, a kinematic viscosity of the oil at 40°C being more than or equal to 3 mm 2 /s and less than or equal to 43 mm 2 /s; and dry-cutting, using a cutting tool, a surface of the sprayed coating with the recessed portion supplied with the oil, at least a portion of the cutting tool being constituted of a sintered material of cubic boron nitride, a cutting edge of the cutting tool being formed at the sintered material of cubic boron nitride, a supplied amount of the oil being more than or equal to 0.1 weight % and less than or equal to 2.7 weight % with respect to an apparent weight of the sprayed coating, the apparent weight being the weight of the sprayed coating including the weight of the oil supplied to the recess portion, wherein the substrate is an A1 alloy and the sprayed coating is a low-carbon steel, the low-carbon steel being a steel having a carbon weight content of less than or equal to 0.3%.