mhurhangee/patent-ind-claim-en huggingface dataset:
Movement device for a movable furniture part, in particular a furniture flap, door, drawer or the like, with an actuator and an output for the movable furniture part, drivable by the actuator , wherein there is provided a coupling interacting with the actuator and the output , characterised in that the coupling is in the form of a switch coupling which may be set in at least three switch positions, differing from one another, of which there are provided at least two coupling switch positions coupling the actuator and the output to one another, and at least one uncoupling switch position uncoupling the actuator and the output from one another, wherein the actuator is designed as a reversing drive, which may be switched between anti-clockwise rotation and clockwise rotation, wherein one of the coupling switch positions is assigned to anti-clockwise rotation and another of the coupling switch positions is assigned to clockwise rotation, wherein the coupling has coupling means which are or may be movement-coupled to the actuator and which may be moved solely by the driving movement of the actuator without further assistance into the desired coupling switch position or uncoupling switch position , and wherein the coupling means comprise several coupling parts (17a-c), of which at least one is assigned to the actuator and at least one is assigned to the output, wherein the at least one drive-side coupling part is arranged movably relative to the at least one output-side coupling part .
Method for mapping painful zones, including the following steps: - Displaying (A1) a first silhouette representing the rear face of a body, on a first screen - Drawing (B1) at least one painful zone on said first displayed silhouette , indicating the location of a pain felt by a patient - Determining (C1) a first number of pixels on the first screen , corresponding to said painful zone , characterized in that : - Measuring (D1) a reference distance between two morphological reference points on the patient, calculate a horizontal coefficient equal to the distance between the two morphological reference points on the patient divided by the number of pixels representing the distance between the two morphological reference points on the silhouette, - Calculate a vertical coefficient equal to the actual size of the patient divided by the number of pixels representing the size of the silhouette, - Converting (E1) said first number of pixels into a painful cutaneous surface, said horizontal and vertical coefficient being used as a parameter in said conversion. - Displaying (A1) a first silhouette representing the rear face of a body, on a first screen - Drawing (B1) at least one painful zone on said first displayed silhouette , indicating the location of a pain felt by a patient - Determining (C1) a first number of pixels on the first screen , corresponding to said painful zone , - Measuring (D1) a reference distance between two morphological reference points on the patient, calculate a horizontal coefficient equal to the distance between the two morphological reference points on the patient divided by the number of pixels representing the distance between the two morphological reference points on the silhouette, - Calculate a vertical coefficient equal to the actual size of the patient divided by the number of pixels representing the size of the silhouette, - Converting (E1) said first number of pixels into a painful cutaneous surface, said horizontal and vertical coefficient being used as a parameter in said conversion.
A workpiece storage device including at least one sensor , a control device and a pick-up device with receptacles for workpieces , wherein the receptacles are individually adapted to the shape of the workpieces , wherein the at least one sensor is configured, to acquire sensor data , by means of which the presence and/or location of the workpieces in the receptacles is determinable, and to transmit the sensor data to the control device , wherein the control device is configured, to receive the sensor data of the sensor and to feed them as input values to at least one machine learning model , characterised in that the machine learning model is trained, to calculate at least one binary output value from the input values , wherein the binary output value indicates, whether a statement about a loading state of the pick-up device is applicable, wherein the control device is configured, to generate a signal including the binary output value .
A resin for enhancing the wet strength of paper, the resin having a ratio of azetidinium ions to amide residues of 0.7 to 1, wherein the resin is obtainable by a process comprising: a) reacting a polyamine with a symmetric cross-linker to produce a partially cross-linked polyamine, wherein the symmetric cross-linker is selected from a polyethylene glycol diacrylate, a bis(acrylamide) compound, a di-epoxide compound, a polyazetidinium compound, N,N'-methylene-bis-methacrylamide, poly(ethylene glycol) diglycidyl ether, poly(propylene glycol) diglycidyl ether, and any combination thereof; b) adding an epihalohydrin to the partially cross-linked polyamine to produce a halohydrin-functionalized polymer; and c) cyclizing the halohydrin-functionalized polymer to form the resin having azetidinium moieties. a) reacting a polyamine with a symmetric cross-linker to produce a partially cross-linked polyamine, wherein the symmetric cross-linker is selected from a polyethylene glycol diacrylate, a bis(acrylamide) compound, a di-epoxide compound, a polyazetidinium compound, N,N'-methylene-bis-methacrylamide, poly(ethylene glycol) diglycidyl ether, poly(propylene glycol) diglycidyl ether, and any combination thereof; b) adding an epihalohydrin to the partially cross-linked polyamine to produce a halohydrin-functionalized polymer; and c) cyclizing the halohydrin-functionalized polymer to form the resin having azetidinium moieties.
A vaccine composition comprising: (a) at least one retrievable biocompatible macrocapsule comprising between about 5x10 5 and about 15x10 5 immuno-isolated allogeneic cells that secrete at least 20 ng/24 hour of GM-CSF and (b) an antigenic component, wherein the at least one biocompatible macrocapsule comprises: a core comprising the allogenic cells and an internal coil, wherein the distance between spires on the internal coil is about 1mm ± 0.1mm and wherein the allogeneic cells are distributed on the internal coil; and a semipermeable membrane surrounding the core that permits diffusion of GM-CSF there through, wherein the said at least one biocompatible macrocapsule has a length from higher than 5 mm up to 25 mm. (a) at least one retrievable biocompatible macrocapsule comprising between about 5x10 5 and about 15x10 5 immuno-isolated allogeneic cells that secrete at least 20 ng/24 hour of GM-CSF and (b) an antigenic component, a core comprising the allogenic cells and an internal coil, wherein the distance between spires on the internal coil is about 1mm ± 0.1mm and wherein the allogeneic cells are distributed on the internal coil; and a semipermeable membrane surrounding the core that permits diffusion of GM-CSF there through, wherein the said at least one biocompatible macrocapsule has a length from higher than 5 mm up to 25 mm.
A method controlling a motor by determining an absolute angular position, the method comprising the steps of: converting a rotor position signal to an angle with error (θ E ); tracking the angle with error (θ E ) to provide an angle (θ M ) that retains mechanical dynamics as stationary reference frame signals; transforming the stationary reference frame signals and the angle with mechanical dynamics (θ M ) to rotating reference frame signals; filtering the rotating reference frame signals; transforming the filtered rotating reference frame signals to provide filtered stationary frame signals; and taking an arctangent of the filtered stationary reference frame signals to create a corrected motor control angle(θ C ). converting a rotor position signal to an angle with error (θ E ); tracking the angle with error (θ E ) to provide an angle (θ M ) that retains mechanical dynamics as stationary reference frame signals; transforming the stationary reference frame signals and the angle with mechanical dynamics (θ M ) to rotating reference frame signals; filtering the rotating reference frame signals; transforming the filtered rotating reference frame signals to provide filtered stationary frame signals; and taking an arctangent of the filtered stationary reference frame signals to create a corrected motor control angle(θ C ).
A knife comprising: - a knife blade having a tang ; - an RFID transponder which is fixed to the tang ; and - a knife handle which surrounds the tang and the RFID transponder ; wherein the knife blade is produced from metal, in particular from steel metal; characterized in that the RFID transponder has an antenna and at least a portion (12a, 12b; 15; 18a, 18b; 21) of the antenna of the RFID transponder is constructed in a planar manner and is arranged parallel with a planar lateral face (9; 19) of the tang . - a knife blade having a tang ; - an RFID transponder which is fixed to the tang ; and - a knife handle which surrounds the tang and the RFID transponder ; wherein the knife blade is produced from metal, in particular from steel metal; characterized in that the RFID transponder has an antenna and at least a portion (12a, 12b; 15; 18a, 18b; 21) of the antenna of the RFID transponder is constructed in a planar manner and is arranged parallel with a planar lateral face (9; 19) of the tang .
A medicament for use in the treatment of a disease or a condition of the eye of a subject, wherein said medicament is provided as a plurality of ejected droplets generated by an ejector device having an ejector plate coupled to a piezoelectric actuator, wherein the droplets have an average droplet size that is in the range of about 20 microns to about 100 microns in diameter; and the droplets have an average droplet ejecting velocity of between 0.5 m/s and 20 m/s; and wherein between about 80% to about 100% of the ejected mass of said droplets is deposited on the eye, wherein the medicament is selected from the group consisting of ranibizumab antibody FAB (including Lucentis), VEGF Trap fusion molecule (including VEGF Trap-Eye), microplasmin enzyme (including Ocriplasmin), macugen pegylated polypeptide (including Pegaptanib), bevacizumab (including Avastin), carboxymethylcellulose sodium, tetrahydrozoline HCl, pheniramine maleate, ketotifen fumarate, oxymetazoline HCl, naphazoline HCl, moxifloxacin hydrochloride, bromfenac, proparacaine hydrochloride, difluprednate, gatifloxacin, travoprost, bepotastine besilate, gatifloxacin, loteprednol etabonate, timolol ophthalmic, olopatadine hydrochloride, phenylephrine hydrochloride, levofloxacin, ketorolac tromethamine, letanoprost, bimatoprost, BAK free latanoprost, fluorosilicone acrylate, sodium carboxymethylcellulose, hydroxypropyl methylcellulose, carboxymethylcellulose sodium, propylene glycol, hypromellose, zinc sulfate, dorzolamide, HCl timolol maleate, azithromycin, nepafenac, brinzolamide, besifloxacin, prenisone acetate, tobramycin, gentamycin, tobramycin/dexamethasone, cyclosporine, timolol maleate, and brimonidine tartrate.
A home appliance system comprising a hob , which has a control unit , and comprising a functional unit that is different from the hob and is provided for communicating with the control unit in at least one operating state and is provided for transferring, in the operating state, at least one victual parameter of a victual that is to be cooked to the control unit , wherein the control unit is provided for determining, in the operating state, in dependency of the victual parameter, at least one operating parameter and for taking the determined operating parameter into account when cooking the victual, and for suggesting, in the operating state, in dependency of the victual parameter, a heating zone suitable for a cooking of the victual to be cooked.
An induction heating cooker comprising: a burner comprising a coil; a handling portion provided in a predetermined area separated from the burner and comprising an input section for receiving a control of a user and a first display for displaying information corresponding to the control of the user; a glass flat plate comprising a cooking area for the burner ; and characterised by comprising a second display attached to an aluminum plate provided below the glass flat plate in an area separated from the handling portion , where the aluminum plate is parallel to the glass flat plate and the second display is attached to the aluminum plate at an inclined angle; and a processor configured to control the second display to display cooking information about the burner . a burner comprising a coil; a handling portion provided in a predetermined area separated from the burner and comprising an input section for receiving a control of a user and a first display for displaying information corresponding to the control of the user; a glass flat plate comprising a cooking area for the burner ; and characterised by comprising a second display attached to an aluminum plate provided below the glass flat plate in an area separated from the handling portion , where the aluminum plate is parallel to the glass flat plate and the second display is attached to the aluminum plate at an inclined angle; and a processor configured to control the second display to display cooking information about the burner .
A material heating device, comprising a rotary kiln , a plurality of heat exchange tubes , a hot air hood , a high-temperature gas input mechanism , an exhaust gas collecting chamber and an exhaust gas output pipeline , the rotary kiln being provided with a material feed end and a material discharge end , the plurality of heat exchange tubes are provided in the rotary kiln , uniformly distributed in a circumferential direction and adjacent to an inner wall of the rotary kiln, heat exchange tube brackets are provided on the inner wall of the rotary kiln, a heat insulation layer is provided on a wall of the rotary kiln, a space between the heat exchange tubes and the rotary kiln is used as a material channel, the hot air hood is provided at a periphery of a rotary kiln housing, an air inlet end of each heat exchange tube is in communication with the hot air hood , each heat exchange tube is connected with the hot air hood through an elbow, with the elbow being a part of the each heat exchange tube , an air inlet elbow end of each heat exchange tube is connected with the rotary kiln housing, the hot air hood and the rotary kiln housing form, in combination, a hot air distribution chamber, an air outlet end of each heat exchange tube is in communication with the exhaust gas collecting chamber that is in communication with the exhaust gas output pipeline , the exhaust gas collecting chamber is provided at the material feed end of the rotary kiln, the hot air hood is in communication with the high-temperature gas input mechanism , and a sealing mechanism is provided at an outer side of a portion of the hot air hood where the hot air hood is connected with the rotary kiln housing, characterized in that a heat insulation ring is provided on an outer side of the rotary kiln housing, a heat-insulating air gap is formed between the heat insulation ring and the rotary kiln housing, with the air gap communicating with atmosphere to cool the heat insulation ring and a corresponding portion of the rotary kiln housing, an elbow end of each heat exchange tube penetrates through the rotary kiln housing to be connected to the heat insulation ring , the hot air hood and the heat insulation ring form, in combination, a hot air distribution chamber, and a fireproof material layer is provided on an inner side of the hot air distribution chamber formed by combination of the hot air hood and the heat insulation ring .
A receiving apparatus for receiving OFDM pilot signals, comprising: a receiving unit for receiving an OFDM signal including pattern information indicating which pilot pattern among at least two pilot patterns is respectively assigned to each time slot of a plurality of time slots and assignment information indicative of which time slot is assigned transmission data to which receiving apparatus, each of the pilot patterns representing an mutually different arrangement densities of OFDM pilot signals in at least one of a frequency domain and a time domain, at least two of the time slots being assigned different ones of the pilot patterns; and a decoding unit for decoding the OFDM signal; wherein the receiving unit is adapted to receive OFDM pilot signals according to the pilot patterns respectively assigned to the time slots based on the pattern information extracted from the decoded OFDM signal, and the pilot pattern that is set on a beginning time slot of the time slots is used as a pilot pattern of the pattern information and the assignment information. a receiving unit for receiving an OFDM signal including pattern information indicating which pilot pattern among at least two pilot patterns is respectively assigned to each time slot of a plurality of time slots and assignment information indicative of which time slot is assigned transmission data to which receiving apparatus, each of the pilot patterns representing an mutually different arrangement densities of OFDM pilot signals in at least one of a frequency domain and a time domain, at least two of the time slots being assigned different ones of the pilot patterns; and a decoding unit for decoding the OFDM signal; wherein the receiving unit is adapted to receive OFDM pilot signals according to the pilot patterns respectively assigned to the time slots based on the pattern information extracted from the decoded OFDM signal, and the pilot pattern that is set on a beginning time slot of the time slots is used as a pilot pattern of the pattern information and the assignment information.
A method of wireless communication performed by a user equipment, UE, comprising: determining a block error rate, BLER, target for communications associated with the UE; determining a resource allocation pattern for transmission of channel state information reference signals, CSI-RS, based at least in part on the BLER target, wherein the resource allocation pattern indicates a number of the CSI-RS to be transmitted; and monitoring one or more resources, indicated by the resource allocation pattern, for the CSI-RS. determining a block error rate, BLER, target for communications associated with the UE; determining a resource allocation pattern for transmission of channel state information reference signals, CSI-RS, based at least in part on the BLER target, wherein the resource allocation pattern indicates a number of the CSI-RS to be transmitted; and monitoring one or more resources, indicated by the resource allocation pattern, for the CSI-RS.
An interrupter comprising: a gas producer configured to produce a gas by burning a fuel ; an actuator pin configured to be driven under pressure of the gas produced by the gas producer ; and an electrical conductor configured to electrically connect two terminals of an external electric circuit (EC10); the electrical conductor including: a terminal portion ; a separable portion connected to the terminal portion ; and a boundary portion coupling the terminal portion and the separable portion together, the separable portion being configured to be cut off from the terminal portion by the actuator pin driven, the terminal portion including an adjacent portion adjacent to the boundary portion , when measured in a predetermined direction intersecting with a direction in which an electric current flows through the boundary portion , a dimension, along the predetermined direction, of the adjacent portion is larger than a dimension, along the predetermined direction, of the boundary portion , the predetermined direction being aligned with the direction in which the actuator pin advances, or the predetermined direction being orthogonal to the direction in which the actuator pin advances, characterized in that the interrupter further comprises a mask having electrical insulation properties, the mask covering the adjacent portion . a gas producer configured to produce a gas by burning a fuel ; an actuator pin configured to be driven under pressure of the gas produced by the gas producer ; and an electrical conductor configured to electrically connect two terminals of an external electric circuit (EC10); the electrical conductor including: a terminal portion ; a separable portion connected to the terminal portion ; and a boundary portion coupling the terminal portion and the separable portion together, the separable portion being configured to be cut off from the terminal portion by the actuator pin driven, the terminal portion including an adjacent portion adjacent to the boundary portion , when measured in a predetermined direction intersecting with a direction in which an electric current flows through the boundary portion , a dimension, along the predetermined direction, of the adjacent portion is larger than a dimension, along the predetermined direction, of the boundary portion , the predetermined direction being aligned with the direction in which the actuator pin advances, or the predetermined direction being orthogonal to the direction in which the actuator pin advances, characterized in that the interrupter further comprises a mask having electrical insulation properties, the mask covering the adjacent portion .
A host cell, comprising a fusion protein and an antigen binding protein, wherein the fusion protein comprises a transmembrane domain disposed between an extracellular component comprising a cytokine binding domain or a cytokine binding domain portion thereof, and an intracellular component comprising an IL-2R intracellular portion, intracellular signaling domain or an intracellular signaling domain portion thereof; and wherein the antigen binding protein is a T cell receptor (TCR), a chimeric antigen receptor (CAR), or both, wherein the TCR is exogenous to the host cell; and wherein the antigen binding protein is specific for a cancer-specific antigen. wherein the fusion protein comprises a transmembrane domain disposed between an extracellular component comprising a cytokine binding domain or a cytokine binding domain portion thereof, and an intracellular component comprising an IL-2R intracellular portion, intracellular signaling domain or an intracellular signaling domain portion thereof; and wherein the antigen binding protein is a T cell receptor (TCR), a chimeric antigen receptor (CAR), or both, wherein the TCR is exogenous to the host cell; and wherein the antigen binding protein is specific for a cancer-specific antigen.
A water-based cosmetic comprising: agar having a weight average molecular weight of 10,000 to 60,000 (component (A)); xanthan gum (component (B)); and a water-soluble polymer excluding the component (A) or (B) (component (C)), wherein said component (C) is at least one selected from a carboxyvinyl polymer and an acrylic acid/ alkyl methacrylate copolymer. agar having a weight average molecular weight of 10,000 to 60,000 (component (A)); xanthan gum (component (B)); and a water-soluble polymer excluding the component (A) or (B) (component (C)), wherein said component (C) is at least one selected from a carboxyvinyl polymer and an acrylic acid/ alkyl methacrylate copolymer.