mhurhangee/patent-ind-claim-en huggingface dataset:
A process for forming modified cellulose microspheres comprising: forming a first plurality of microspheres comprising a biodegradable polymer; contacting the first plurality of microspheres with a modified cellulose solution to form a discontinuous phase liquid; and contacting the discontinuous phase liquid with a continuous phase liquid to form an emulsion; and extracting a second plurality of microspheres from the emulsion, the second plurality of microspheres comprising the first plurality of microspheres. forming a first plurality of microspheres comprising a biodegradable polymer; contacting the first plurality of microspheres with a modified cellulose solution to form a discontinuous phase liquid; and contacting the discontinuous phase liquid with a continuous phase liquid to form an emulsion; and extracting a second plurality of microspheres from the emulsion, the second plurality of microspheres comprising the first plurality of microspheres.
An iterative decoding device having a predetermined maximum number of iterations, comprising: a first component decoder , for receiving information symbols and first parity symbols, and for decoding the information symbols using the first parity symbols; an interleaver coupled to the first component decoder , for interleaving the order of the first decoded information symbols from an original data order; a second component decoder , for receiving an output of the interleaver and second parity symbols, and for decoding the symbols output from the interleaver using the second parity symbols; a deinterleaver for deinterleaving the second decoded information symbols to recover the original data order of the information symbols, wherein an output of the deinterleaver is fed back to the first component decoder for iterative decoding; an error detector for performing error detection in a decoded frame, the decoded frame having the original data order of the information symbols, wherein the error detector is adapted to perform error detection in an output of the deinterleaver within the predetermined maximum number of iterations until the output is error-free; wherein decoding is stopped immediately in case there is no error on the decoded frame before the predetermined maximum number of iterations, and wherein the decoding is performed iteratively up to the predetermined maximum number of iterations, in case that there is an error on the decoded frame and an iteration count does not exceed the predetermined maximum number of iterations. a first component decoder , for receiving information symbols and first parity symbols, and for decoding the information symbols using the first parity symbols; an interleaver coupled to the first component decoder , for interleaving the order of the first decoded information symbols from an original data order; a second component decoder , for receiving an output of the interleaver and second parity symbols, and for decoding the symbols output from the interleaver using the second parity symbols; a deinterleaver for deinterleaving the second decoded information symbols to recover the original data order of the information symbols, wherein an output of the deinterleaver is fed back to the first component decoder for iterative decoding; an error detector for performing error detection in a decoded frame, the decoded frame having the original data order of the information symbols, wherein the error detector is adapted to perform error detection in an output of the deinterleaver within the predetermined maximum number of iterations until the output is error-free; wherein decoding is stopped immediately in case there is no error on the decoded frame before the predetermined maximum number of iterations, and wherein the decoding is performed iteratively up to the predetermined maximum number of iterations, in case that there is an error on the decoded frame and an iteration count does not exceed the predetermined maximum number of iterations.
A method of determining an electro-mechanical fault condition in a synchronous machine having a stator a rotor , and an exciter (20-1), wherein the exciter (20-1) is a rotating exciter having an exciter stator (20-1a), an exciter rotor (20-1b), and exciter stator windings , wherein the method comprises: a) obtaining an exciter current signal which is a measurement of an exciter current flowing through the exciter stator windings of the exciter (20-1;), wherein the exciter current signal is an exciter stator current, b) transforming the exciter current signal to obtain an exciter current frequency spectrum, characterised in that the rotating exciter has a DC/AC type of stator-rotor arrangement, and in that the method comprises: c) determining that a static eccentricity fault is present in case the harmonic content of the exciter current frequency spectrum comprises a dominant frequency component at the rotation frequency (f r ) of the rotor compared to a frequency component at the rotation frequency of the rotor present during healthy conditions, and a direct current, DC, component of the exciter current signal is greater than during healthy conditions. a) obtaining an exciter current signal which is a measurement of an exciter current flowing through the exciter stator windings of the exciter (20-1;), wherein the exciter current signal is an exciter stator current, b) transforming the exciter current signal to obtain an exciter current frequency spectrum, characterised in that the rotating exciter has a DC/AC type of stator-rotor arrangement, and in that the method comprises: c) determining that a static eccentricity fault is present in case the harmonic content of the exciter current frequency spectrum comprises a dominant frequency component at the rotation frequency (f r ) of the rotor compared to a frequency component at the rotation frequency of the rotor present during healthy conditions, and a direct current, DC, component of the exciter current signal is greater than during healthy conditions.
A plied cord of organic fiber twisted yarns, wherein the cord has a total fineness in the range of 5000 dtex to 15000 dtex, characterized in that the coefficient of twisted yarn length difference between untwisted yarns constituting the twisted yarn cord obtained from the following formula: coefficient of twisted yarn length difference % = maximum value of fiber length difference between untwisted yarns / average value of fiber length of untwisted yarns × 100 , determined as described in the description, is not greater than 1.5%, the breaking strength of the twisted yarn cord, determined in accordance with JIS-L-1017 8.5 is not less than 7.0 cN/dtex, and the organic fiber twisted yarn is a polyhexamethylene adipamide fiber twisted yarn.
An electric device comprising: a motor ; an inverter circuit configured to have a switching element (S1 to S6) including a high voltage side switching element (S1 to S3) connected to a power line on which a drive voltage of the motor is supplied and a low voltage side switching element (S4 to S6) connected to a ground line, and drive the motor ; and a charge pump circuit configured to generate a drive voltage of the switching element (S1 to S6), the charge pump circuit having a high voltage side part connected to a control terminal of the high voltage side switching element (S1 to S3) and a low voltage side part connected to the low voltage side switching element (S4 to S6); the electric device being characterized in that : a discharge circuit (14, R, ZD, C1) is provided between the power line and an output terminal of the charge pump circuit , the discharge circuit (14, R, ZD, C1) is provided between the power line and the high voltage side part, wherein the electric device comprises a diode (D1) connecting an interconnection part of the high voltage side switching element (S1 to S3) and the low voltage side switching element (S4 to S6) and the high voltage side part of the charge pump circuit , and wherein a cathode of the diode (D1) is connected to the high voltage side part. a motor ; an inverter circuit configured to have a switching element (S1 to S6) including a high voltage side switching element (S1 to S3) connected to a power line on which a drive voltage of the motor is supplied and a low voltage side switching element (S4 to S6) connected to a ground line, and drive the motor ; and a charge pump circuit configured to generate a drive voltage of the switching element (S1 to S6), the charge pump circuit having a high voltage side part connected to a control terminal of the high voltage side switching element (S1 to S3) and a low voltage side part connected to the low voltage side switching element (S4 to S6); the electric device being characterized in that : a discharge circuit (14, R, ZD, C1) is provided between the power line and an output terminal of the charge pump circuit , the discharge circuit (14, R, ZD, C1) is provided between the power line and the high voltage side part, wherein the electric device comprises a diode (D1) connecting an interconnection part of the high voltage side switching element (S1 to S3) and the low voltage side switching element (S4 to S6) and the high voltage side part of the charge pump circuit , and wherein a cathode of the diode (D1) is connected to the high voltage side part. a discharge circuit (14, R, ZD, C1) is provided between the power line and an output terminal of the charge pump circuit , the discharge circuit (14, R, ZD, C1) is provided between the power line and the high voltage side part, wherein the electric device comprises a diode (D1) connecting an interconnection part of the high voltage side switching element (S1 to S3) and the low voltage side switching element (S4 to S6) and the high voltage side part of the charge pump circuit , and wherein a cathode of the diode (D1) is connected to the high voltage side part.
Cleaning agent for the machine cleaning of dishware, characterized by the following features: a. it contains at least one chelating agent selected from the group consisting of aminopolycarboxylic acids, b. it contains at least one polymeric dispersing aid and/or at least one aminopolyphosphonic acid, c. the pH is 8 to 12, preferably 8 to 11, more preferably 9 to 11, d. the cleaning agent is enzyme-free, e. the cleaning agent is bleach-free, f. it contains an alkali metal source which is an alkali metal hydroxide. a. it contains at least one chelating agent selected from the group consisting of aminopolycarboxylic acids, b. it contains at least one polymeric dispersing aid and/or at least one aminopolyphosphonic acid, c. the pH is 8 to 12, preferably 8 to 11, more preferably 9 to 11, d. the cleaning agent is enzyme-free, e. the cleaning agent is bleach-free, f. it contains an alkali metal source which is an alkali metal hydroxide.
A therapeutic combination comprising (I) cisplatin and (II) a hot water-based extract of Nerium oleander.
A method of producing an integrated monolithic aluminium structure, the method comprising the steps of: - providing an aluminium alloy rolled product with a predetermined thickness of at least 2 mm, and wherein the aluminium alloy rolled product is an AlMgSc-series aluminium alloy; - forming the rolled product; - heating and cooling the formed structure; characterized in that the method producing an integrated monolithic aluminium structure comprises the steps of: - optionally pre-machining of the aluminium alloy rolled product to an intermediate machined structure; - high-energy hydroforming of the rolled product or optional intermediate machined structure against a forming surface of a rigid die having a contour in accordance with a desired curvature of the integrated monolithic aluminium structure, the high energy forming causing the plate or the intermediate machined structure to conform to the contour of the forming surface to at least one of a uniaxial curvature and a biaxial curvature; - annealing and cooling of the high-energy hydroformed structure; - machining of the annealed high-energy formed structure to a near-final or final machined integrated monolithic aluminium structure; and - optionally annealing of the near-final or final integrated monolithic aluminium structure to a desired temper. - providing an aluminium alloy rolled product with a predetermined thickness of at least 2 mm, and wherein the aluminium alloy rolled product is an AlMgSc-series aluminium alloy; - forming the rolled product; - heating and cooling the formed structure; - optionally pre-machining of the aluminium alloy rolled product to an intermediate machined structure; - high-energy hydroforming of the rolled product or optional intermediate machined structure against a forming surface of a rigid die having a contour in accordance with a desired curvature of the integrated monolithic aluminium structure, the high energy forming causing the plate or the intermediate machined structure to conform to the contour of the forming surface to at least one of a uniaxial curvature and a biaxial curvature; - annealing and cooling of the high-energy hydroformed structure; - machining of the annealed high-energy formed structure to a near-final or final machined integrated monolithic aluminium structure; and - optionally annealing of the near-final or final integrated monolithic aluminium structure to a desired temper.
A turbine engine subassembly or turbine engine comprising: a transmission ; an output fan shaft coupled to the transmission ; an input shaft coupled to the transmission ; a fingered flexure coupled to the transmission for resisting rotation of a gear carrier of the transmission ; a front frame assembly at least partially encircling the transmission ; a bearing support ; and a bearing coupling the bearing support to the input shaft , wherein: from forward to aft, respective flanges of the fingered flexure , front frame assembly , and bearing support are secured in a sandwich with fasteners , characterised in that : additional bolts , smaller in count than the fasteners , hold the flanges of the fingered flexure and the front frame assembly to each other but not the flange of the bearing support . a transmission ; an output fan shaft coupled to the transmission ; an input shaft coupled to the transmission ; a fingered flexure coupled to the transmission for resisting rotation of a gear carrier of the transmission ; a front frame assembly at least partially encircling the transmission ; a bearing support ; and a bearing coupling the bearing support to the input shaft , wherein: from forward to aft, respective flanges of the fingered flexure , front frame assembly , and bearing support are secured in a sandwich with fasteners , characterised in that : additional bolts , smaller in count than the fasteners , hold the flanges of the fingered flexure and the front frame assembly to each other but not the flange of the bearing support .
User equipment, characterized by comprising: a receiving unit , configured to receive first resource configuration information from a base station, wherein the first resource configuration information indicates N radio resource sets that are used when N radio communication nodes separately perform communication with the user equipment, N is a positive integer, a radio resource in each radio resource set among the N radio resource sets is used for the radio communication node corresponding to each radio resource set to schedule the user equipment, and the radio resource comprises a time domain resource and/or a frequency domain resource; and a controlling unit , configured to control the receiving unit to communicate with a transmission point by using a radio resource in respective radio resource sets of transmission points, wherein the respective radio resource sets of the transmission points do not intersect, the respective radio resource sets of the transmission points comprise the N radio resource sets, and the transmission points comprise the N radio communication nodes. a receiving unit , configured to receive first resource configuration information from a base station, wherein the first resource configuration information indicates N radio resource sets that are used when N radio communication nodes separately perform communication with the user equipment, N is a positive integer, a radio resource in each radio resource set among the N radio resource sets is used for the radio communication node corresponding to each radio resource set to schedule the user equipment, and the radio resource comprises a time domain resource and/or a frequency domain resource; and a controlling unit , configured to control the receiving unit to communicate with a transmission point by using a radio resource in respective radio resource sets of transmission points, wherein the respective radio resource sets of the transmission points do not intersect, the respective radio resource sets of the transmission points comprise the N radio resource sets, and the transmission points comprise the N radio communication nodes.
A method for avoiding handover failure by a source base station, BS, the method comprising: transmitting , to a target BS by the source BS, first information indicating a local network identifier corresponding to the source BS and second information indicating a local sub network corresponding to the source BS; receiving , from the target BS by the source BS, third information indicating a local network identifier corresponding to the target BS and fourth information indicating a local sub network corresponding to the target BS; determining , by the source BS, to perform a handover of a user equipment, UE, from the source BS to the target BS; determining, by the source BS, whether the target BS connects with the local gateway, LGW, serving the UE at the source BS, based on the first, second, third and fourth information, when deciding to perform the handover of the UE; releasing , by the source BS, the resources for a local ip access, LIPA, connection of the UE, when the target BS does not connect with the LGW serving the UE at the source BS, this being determined in case that the first information and the third information are different, and in case that the second information and the fourth information are different; and transmitting , by the source BS to a source mobility management entity, MME, a handover request message including a closed subscriber group, CSG, ID of the target BS. transmitting , to a target BS by the source BS, first information indicating a local network identifier corresponding to the source BS and second information indicating a local sub network corresponding to the source BS; receiving , from the target BS by the source BS, third information indicating a local network identifier corresponding to the target BS and fourth information indicating a local sub network corresponding to the target BS; determining , by the source BS, to perform a handover of a user equipment, UE, from the source BS to the target BS; determining, by the source BS, whether the target BS connects with the local gateway, LGW, serving the UE at the source BS, based on the first, second, third and fourth information, when deciding to perform the handover of the UE; releasing , by the source BS, the resources for a local ip access, LIPA, connection of the UE, when the target BS does not connect with the LGW serving the UE at the source BS, this being determined in case that the first information and the third information are different, and in case that the second information and the fourth information are different; and transmitting , by the source BS to a source mobility management entity, MME, a handover request message including a closed subscriber group, CSG, ID of the target BS.
A vehicle control device comprising: an environment information acquisition unit configured to acquire surrounding environment information of a vehicle; and a vehicle braking control unit configured to recognize a vehicle brake instruction from outside on the basis of the surrounding environment information acquired by the environment information acquisition unit and start a vehicle braking sequence on the basis of the recognition result, characterized in that the vehicle braking sequence includes processing for invalidating a part of or all of the vehicle braking sequence by an instruction from a driver after the vehicle braking sequence has been started, and in that the vehicle control device comprises an operation unit configured to invalidate the vehicle braking sequence and a recording and reproduction processing unit configured to record an invalidation history of the vehicle braking sequence performed by an instruction by the driver so as not to be rewritten and deleted. an environment information acquisition unit configured to acquire surrounding environment information of a vehicle; and a vehicle braking control unit configured to recognize a vehicle brake instruction from outside on the basis of the surrounding environment information acquired by the environment information acquisition unit and start a vehicle braking sequence on the basis of the recognition result, characterized in that the vehicle braking sequence includes processing for invalidating a part of or all of the vehicle braking sequence by an instruction from a driver after the vehicle braking sequence has been started, and in that the vehicle control device comprises an operation unit configured to invalidate the vehicle braking sequence and a recording and reproduction processing unit configured to record an invalidation history of the vehicle braking sequence performed by an instruction by the driver so as not to be rewritten and deleted.
A method of producing polypropylene-based resin extruded expanded particles, comprising the steps of: (a) melting and kneading, with use of an extruder including a die, a composition containing a blowing agent and a resin mixture that contains a polypropylene-based resin having a branched structure; (b) extruding, through the die, the composition into a region which is a liquid phase and which is at a lower pressure than the extruder; (c) cutting the composition in the region; and (d) obtaining polypropylene-based resin extruded expanded particles, the blowing agent being carbon dioxide, an amount of the blowing agent used being 0.5 parts by weight to 7.0 parts by weight with respect to 100.0 parts by weight of the resin mixture, a temperature A of the composition immediately after entering the die being a melting point of the resin mixture + 0°C to the melting point + 30°C, a temperature B of the liquid phase being 20°C to 90°C, a value T, calculated by the following expression , being 10 to 25: T = (the temperature A) - (the melting point) + (the amount of the blowing agent used) × 2.5 - {(the temperature A - the temperature B) × 0.08} the melting point of the resin mixture being measured by the method defined in the description. (a) melting and kneading, with use of an extruder including a die, a composition containing a blowing agent and a resin mixture that contains a polypropylene-based resin having a branched structure; (b) extruding, through the die, the composition into a region which is a liquid phase and which is at a lower pressure than the extruder; (c) cutting the composition in the region; and (d) obtaining polypropylene-based resin extruded expanded particles, the blowing agent being carbon dioxide, an amount of the blowing agent used being 0.5 parts by weight to 7.0 parts by weight with respect to 100.0 parts by weight of the resin mixture, a temperature A of the composition immediately after entering the die being a melting point of the resin mixture + 0°C to the melting point + 30°C, a temperature B of the liquid phase being 20°C to 90°C, a value T, calculated by the following expression , being 10 to 25: T = (the temperature A) - (the melting point) + (the amount of the blowing agent used) × 2.5 - {(the temperature A - the temperature B) × 0.08} the melting point of the resin mixture being measured by the method defined in the description.
An immunogenic composition comprising an M72 related antigen, wherein the M72 related antigen comprises a sequence having at least 90% identity to SEQ ID No: 1, the pH of said composition is in the range 7.5 to 8.5, and the concentration of sodium chloride is 50 mM or lower.