mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: applying a first transformation function to an input video segment having a first bit depth to generate a first distribution video segment having a second bit depth lower than the first bit depth; defining a region of interest in the input video; applying a second transformation function to the input video segment to generate a second distribution video segment having the second bit depth, wherein the second transformation function is designed to enhance contrast in the region of interest as compared to the first transformation function; sending, to a client, information identifying the availability of the first and second distribution video segments and information indicating that the second distribution video segment is designed for the region of interest; receiving, from the client, a selection of one of the first and second distribution video segments; and responsively sending the selected distribution video segment to the client. applying a first transformation function to an input video segment having a first bit depth to generate a first distribution video segment having a second bit depth lower than the first bit depth; defining a region of interest in the input video; applying a second transformation function to the input video segment to generate a second distribution video segment having the second bit depth, wherein the second transformation function is designed to enhance contrast in the region of interest as compared to the first transformation function; sending, to a client, information identifying the availability of the first and second distribution video segments and information indicating that the second distribution video segment is designed for the region of interest; receiving, from the client, a selection of one of the first and second distribution video segments; and responsively sending the selected distribution video segment to the client.
Method of managing a remote controller of a home electronic device comprising the steps of - by the home electronic device , detecting proximity of a portable device of a pre-registered user (U), wherein a personalized setting of the remote controller for said pre-registered user (U) is stored at the home electronic device , - by the home electronic device , upon detection of said portable device in proximity, activating user recognition means for recognition of pre-registered user (U) and - by the home electronic device , upon recognition of a pre-registered user (U), loading personalized settings of the remote controller for the recognized pre-registered user (U) by either loading personalized settings of the remote controller for the recognized pre-registered user (U) at the home electronic device or transmitting personalized settings of the remote controller for the recognized pre-registered user (U) from the home electronic device to the remote controller . - by the home electronic device , detecting proximity of a portable device of a pre-registered user (U), wherein a personalized setting of the remote controller for said pre-registered user (U) is stored at the home electronic device , - by the home electronic device , upon detection of said portable device in proximity, activating user recognition means for recognition of pre-registered user (U) and - by the home electronic device , upon recognition of a pre-registered user (U), loading personalized settings of the remote controller for the recognized pre-registered user (U) by either loading personalized settings of the remote controller for the recognized pre-registered user (U) at the home electronic device or transmitting personalized settings of the remote controller for the recognized pre-registered user (U) from the home electronic device to the remote controller .
An induction cooktop comprising: a cooking surface ; two or more movable induction coils movable under said cooking surface ; a sensor for detecting a cooking vessel on said cooking surface ; wherein said sensor is operated to determine (i) the location and (ii) the size of said cooking vessel ; and wherein said cooktop is operated to select a coil and move that coil to a selected location based on information from said sensor ; wherein said two or more induction coils include coils of different sizes and wherein said cooktop is operated to select a size of coil based on information from said sensor . a cooking surface ; two or more movable induction coils movable under said cooking surface ; a sensor for detecting a cooking vessel on said cooking surface ; wherein said sensor is operated to determine (i) the location and (ii) the size of said cooking vessel ; and wherein said cooktop is operated to select a coil and move that coil to a selected location based on information from said sensor ; wherein said two or more induction coils include coils of different sizes and wherein said cooktop is operated to select a size of coil based on information from said sensor . wherein said sensor is operated to determine (i) the location and (ii) the size of said cooking vessel ; and wherein said cooktop is operated to select a coil and move that coil to a selected location based on information from said sensor ; wherein said two or more induction coils include coils of different sizes and wherein said cooktop is operated to select a size of coil based on information from said sensor .
Transport device for round bales, comprising a conveying unit extending in a longitudinal direction , forming a storage surface for the round bales, preferably a rotary conveyor or a roller track, having a cage-like superstructure for receiving a plurality of round bales and a connection element for coupling the transport device with a preferably agricultural utility vehicle, wherein the transport device has a delivery unit , that is able to be swivelled, disposed at one end of the storage surface , by means of which delivery unit a round bale can be delivered onto the storage surface , and wherein a round bale located on the storage surface can be conveyed by means of the conveying unit in the direction of the end of the storage surface located opposite the delivery unit , wherein the delivery unit has an L-shaped swivel arm , which swivel arm can be swivelled about a first swivel axis , extending parallel to the storage surface and normal to the longitudinal direction , from a gripping position (B) for gripping under a round bale into a delivery position (A) for the delivery of the round bale, gripped from below, onto the storage surface , wherein a first leg of the L-shaped swivel arm is aligned parallel to the first swivel axis, characterised in that the swivel arm can be swivelled out about a second swivel axis aligned normal to the first swivel axis from an uptake position (C) in which the swivel arm can be swivelled out laterally to the conveying surface , into the gripping position (B).
A method of preparing a compound of formula : or a salt thereof, said method comprising reacting a compound of formula with a monomer compound of formula (d 1 ), wherein X 3 is -Cl; P 3 is H or an amine protecting group; and R 100 is (C 1 -C 3 )alkoxy.
A tellurium-oxide-based glass composition for the glass-to-metal sealing of alloys or metals having a coefficient of thermal expansion higher than 16 ppm/°C, said composition consisting of, in molar percent: - between 60 and 80% and advantageously between 64 and 79% TeO 2 ; - between 5 and 35% and advantageously between 14 and 31% ZnO; - TiO 2 ; - between 0 and 30% and advantageously between 0 and 20% K 2 O; - and unavoidable impurities, said composition being essentially free of lead oxide, sodium oxide and vanadium oxide and the TiO 2 amount being of at most 15%. - between 60 and 80% and advantageously between 64 and 79% TeO 2 ; - between 5 and 35% and advantageously between 14 and 31% ZnO; - TiO 2 ; - between 0 and 30% and advantageously between 0 and 20% K 2 O; - and unavoidable impurities,
Stapler for stapling sheet material by means of staples , each staple having two staple legs and a staple crown interconnecting the staple legs and extending transversely to them, with an anvil arm having a support plate for placing the sheet material thereon, the anvil arm carrying a cutting pad with two cutting edges for cutting off excess end parts of the staple legs , with a stapling unit that is pivotally mounted relative to the anvil arm , which stapling unit comprises a staple magazine receiving the staples in a row with the staple crowns mutually abutting and being aligned parallel to each other and a driver for pushing individual staples with the free ends of their staple legs first through the sheet material, with a base part , on which the anvil arm is mounted movably towards it against a restoring force, and with two two-armed bending levers pivotably mounted on the anvil arm about a respective pivot axis , each bending lever having a first lever arm with a bending surface for bending the staple legs and a second lever arm , wherein upon approach of the anvil arm to the base part , the second lever arms are pivoted by action of the base part about the pivot axes and the bending surfaces bend the staple legs towards each other and cut off any excess end portions by pressing against the cutting edges , characterized in that the pivot axes extend substantially perpendicular to the staple crowns of the staples received in the staple magazine and that the second lever arms have end portions beginning at their free ends which are arranged offset to one another in the axial direction of the pivot axes so that they move past one another as the anvil arm approaches the base part .
A method for producing a relief-pattern body , characterized in that the method includes: printing a transfer pattern onto a surface of a first substrate on which a relief-structure pattern is formed at a predetermined position using a printing ink containing an ionizing radiation-curable resin by registration with the relief-structure pattern; drying the printed transfer pattern; after the drying, laminating a second substrate onto the surface of the first substrate on which the transfer pattern has been printed; after the lamination, curing the printed transfer pattern by irradiating ionizing radiation; and after the curing, performing peeling at an interface between the transfer pattern and a surface of the first substrate on which the relief-structure pattern is formed to form the transfer pattern having an inverted structure of the relief-structure pattern on the second substrate . printing a transfer pattern onto a surface of a first substrate on which a relief-structure pattern is formed at a predetermined position using a printing ink containing an ionizing radiation-curable resin by registration with the relief-structure pattern; drying the printed transfer pattern; after the drying, laminating a second substrate onto the surface of the first substrate on which the transfer pattern has been printed; after the lamination, curing the printed transfer pattern by irradiating ionizing radiation; and after the curing, performing peeling at an interface between the transfer pattern and a surface of the first substrate on which the relief-structure pattern is formed to form the transfer pattern having an inverted structure of the relief-structure pattern on the second substrate .
A collision detection device configured to be arranged in an adjustable piece of furniture comprising a driving arrangement and a first part and a second part being moveable relative to each other, said collision detection device being configured to detect a collision during motion of said adjustable piece of furniture, the collision detection device comprising: - a holder configured to, when in use, be arranged to one of the first and second parts of the adjustable piece of furniture to be at least indirectly in contact with a part of the driving arrangement ; - a circuit board arranged on the holder , said circuit board comprising a wiring circuit on at least one of its sides; wherein the holder is configured to, when arranged to the adjustable piece of furniture, transfer a force from the driving arrangement acting on the holder to the circuit board such that said force implies a flexure of the circuit board ; and wherein the wiring circuit is configured to have an electrical characteristic that depend on the flexure of the circuit board . - a holder configured to, when in use, be arranged to one of the first and second parts of the adjustable piece of furniture to be at least indirectly in contact with a part of the driving arrangement ; - a circuit board arranged on the holder , said circuit board comprising a wiring circuit on at least one of its sides; wherein the holder is configured to, when arranged to the adjustable piece of furniture, transfer a force from the driving arrangement acting on the holder to the circuit board such that said force implies a flexure of the circuit board ; and wherein the wiring circuit is configured to have an electrical characteristic that depend on the flexure of the circuit board .
A tire comprising a tread having a tread surface on which one or more land portions are defined by two or more circumferential grooves extending in a circumferential direction of the tread , wherein the one or more land portions each have a plurality of sipes (14A, 14, B, 14C) extending in a direction traversing an equator (C) of the tire and spaced from each other in the circumferential direction of the tread , and a dynamic elastic modulus E' at 30 °C of a rubber composition forming the one or more land portions , a number N of the plurality of sipes (14A, 14, B, 14C), and a depth D of the circumferential grooves satisfy the following expression: 0.009 MPa / mm ≤ E ′ / N × D ≤ 0.029 MPa / mm ; characterised in that : the circumferential grooves include four circumferential grooves , the one or more land portions include three land portions , the three land portions being defined between the four circumferential grooves , and a width (WB) of a land portion at a center of the three land portions is in a range of 90 % to 130 % of a width (WA, WC) of each of land portions on both sides thereof.
Recuperator burner comprising a recuperator , which has two separate flow systems provided for guiding counter-flowing fluids, each system comprising at least one flow channel being open on both sides, and the at least two fluids entering/leaving via intake inputs and offtake outputs (6, 7; 8, 9) at opposite ends of the burner inlet and burner outlet , and one of the fluids is set up by a combustion air to be preheated and the other by an exhaust gas of the burner, characterized in in that the recuperator accommodates said two flow systems in a heat transfer body which is made of one piece and whose jacket-shaped outer wall section at the burner inlet defines a flow pot comprising said input and output integrally attached.
A method for producing a dental prosthesis which comprises an implant and an abutment , on or at which a dental structure made of dental material, in particular ceramics, is attachable, the dental material being produced using build-up methods such as rapid prototyping, or ablative methods such as milling, in particular by means of CAM, wherein the abutment is supported onto the implant especially through a detachable connection, in particular a screw connection, wherein the abutment has an implant connection, a collar and a tube portion which is for connecting to the dental structure, characterized in that the abutment has a tube portion and an implant connection part, in between of which an outwardly projecting collar extends, and in that an auxiliary member having an inside diameter which matches the outside diameter of the tube portion is provided, which auxiliary member has at least one height stop which is for abutting against an end face of the tube portion at an implant screw and/or on the collar , and in that the method comprises the following steps: determining the height of the pipe portion with the auxiliary member and/or determining the height of the pipe portion by selecting a suitable abutment or by cutting back the pipe portion .
A composition for use in treating A. baumannii infection, the composition comprising water, a solvent, an acid, and rifabutin for intravenous delivery at a dosage that is at least about 2 mg/kg q24h, 1 mg/kg q12h, or 0.5 mg/kg q6h.
A torque delivering power tool with a telescopically arranged output shaft including: - a motor, - a housing (11-15), - an input shaft , which is driven by said motor, - an output shaft , which is rotationally connected to the input shaft and axially translatable with respect to the input shaft , wherein a sensor is arranged to monitor an axial position of the output shaft with respect to the input shaft , wherein the output shaft is telescopically arranged with respect to the input shaft between a fully extended position (P E ) and a fully compressed position (P C ), wherein a resilient member having a known resilience in function of the extension is arranged to urge the output shaft towards the fully extended position (P E ), such that the extension of the output shaft continuously reflects the compression force acting between the output shaft and the input shaft , characterised in that an indication unit is arranged to indicate the axial compression force acting between the output shaft and the input shaft based on the level of extension between the shafts. - a motor, - a housing (11-15), - an input shaft , which is driven by said motor, - an output shaft , which is rotationally connected to the input shaft and axially translatable with respect to the input shaft , wherein a sensor is arranged to monitor an axial position of the output shaft with respect to the input shaft , wherein the output shaft is telescopically arranged with respect to the input shaft between a fully extended position (P E ) and a fully compressed position (P C ), wherein a resilient member having a known resilience in function of the extension is arranged to urge the output shaft towards the fully extended position (P E ), such that the extension of the output shaft continuously reflects the compression force acting between the output shaft and the input shaft , characterised in that an indication unit is arranged to indicate the axial compression force acting between the output shaft and the input shaft based on the level of extension between the shafts.
A double pipe icemaker comprising an inner pipe , and an outer pipe provided radially outside the inner pipe and coaxially with the inner pipe , and configured to allow a cooling target to flow in the inner pipe and allow a refrigerant to flow in a space between the inner pipe and the outer pipe , wherein the outer pipe has a wall provided with at least one nozzle configured to jet the refrigerant into the space , and the nozzle has a jet port allowing the refrigerant to jet in an axial direction of the inner pipe and a jet port allowing the refrigerant to jet in a circumferential direction of the inner pipe .
A method for determining an analyte concentration in a sample, comprising: applying an input signal to a sample including an analyte; generating an output signal responsive to a concentration of the analyte in the sample and the input signal and providing an uncompensated output value ; determining a compensated value of the uncompensated output value in response to a conversion function , a primary function , a residual function , and a segmented signal processing function ; and determining the analyte concentration in the sample with the compensated value . applying an input signal to a sample including an analyte; generating an output signal responsive to a concentration of the analyte in the sample and the input signal and providing an uncompensated output value ; determining a compensated value of the uncompensated output value in response to a conversion function , a primary function , a residual function , and a segmented signal processing function ; and determining the analyte concentration in the sample with the compensated value .
A computer-implemented method for training a cell defect detection model, wherein the defect detection model comprises a backbone model and a defect classification model with at least an output layer removed, and the method comprises: obtaining (S401) a plurality of first sample images, wherein the plurality of first sample images comprise sample images corresponding to a plurality of first-preset-category defects of a cell, and wherein the cell is an electrode assembly included in a battery cell ; using (S402) the plurality of first sample images to train a defect classification model that comprises the output layer so that a defect classification model obtained through training is capable of predicting the plurality of first-preset-category defects of the cell; obtaining (S403) a second sample image, wherein the second sample image comprises a second-preset-category defect of the cell; inputting (S404) the second sample image to the defect classification model with at least an output layer removed to obtain a sample feature vector of the second sample image; inputting (S405) the sample feature vector of the second sample image to the backbone model to obtain a predicted defect classification result of the second sample image; and adjusting (S406), based on the second-preset-category defect and the predicted defect classification result of the second sample image, parameters of the backbone model and the defect classification model with at least an output layer removed. obtaining (S401) a plurality of first sample images, wherein the plurality of first sample images comprise sample images corresponding to a plurality of first-preset-category defects of a cell, and wherein the cell is an electrode assembly included in a battery cell ; using (S402) the plurality of first sample images to train a defect classification model that comprises the output layer so that a defect classification model obtained through training is capable of predicting the plurality of first-preset-category defects of the cell; obtaining (S403) a second sample image, wherein the second sample image comprises a second-preset-category defect of the cell; inputting (S404) the second sample image to the defect classification model with at least an output layer removed to obtain a sample feature vector of the second sample image; inputting (S405) the sample feature vector of the second sample image to the backbone model to obtain a predicted defect classification result of the second sample image; and adjusting (S406), based on the second-preset-category defect and the predicted defect classification result of the second sample image, parameters of the backbone model and the defect classification model with at least an output layer removed.