mhurhangee/ep-ind-claims huggingface dataset:
A processor-implemented method to personalize a speech recognition model, the method comprising: identifying a plurality of hierarchically configured language groups corresponding to a current user, in response to the current user being different from a previous user, wherein the identifying of the plurality of hierarchically configured language groups corresponding to the current user comprises loading a portion of group scale matrices corresponding to a plurality of hierarchically configured language groups to which the previous user belongs; and generating a personalized speech recognition model by applying the loaded portion of the group scale matrices to one or more layers of a speech recognition model implemented as a neural network. identifying a plurality of hierarchically configured language groups corresponding to a current user, in response to the current user being different from a previous user, wherein the identifying of the plurality of hierarchically configured language groups corresponding to the current user comprises loading a portion of group scale matrices corresponding to a plurality of hierarchically configured language groups to which the previous user belongs; and generating a personalized speech recognition model by applying the loaded portion of the group scale matrices to one or more layers of a speech recognition model implemented as a neural network.
A method comprising: operating a capacitive type digitizer system to detect both finger touch and signals emitted by a stylus, wherein the digitizer system is operated with an electronic device including software applications; CHARACTERIZED BY: receiving instructions for adjusting one or more operating parameters of the digitizer system, the instructions including at least a command to suspend the detection of finger touch or to suspend the detection of signals emitted by the stylus, wherein the instructions are defined by a software application, the software application configured to receive input from the digitizer system; and updating operation of the digitizer system based on the instructions defined by the software application, wherein the software application is configured to define the instructions based on data accumulated from a user while using the software application over one or more sessions, wherein the data accumulated is processed to characterize a habit of the user. operating a capacitive type digitizer system to detect both finger touch and signals emitted by a stylus, wherein the digitizer system is operated with an electronic device including software applications; receiving instructions for adjusting one or more operating parameters of the digitizer system, the instructions including at least a command to suspend the detection of finger touch or to suspend the detection of signals emitted by the stylus, wherein the instructions are defined by a software application, the software application configured to receive input from the digitizer system; and updating operation of the digitizer system based on the instructions defined by the software application, wherein the software application is configured to define the instructions based on data accumulated from a user while using the software application over one or more sessions, wherein the data accumulated is processed to characterize a habit of the user.
A wireless communication device comprising: a receiving unit for receiving measurement information based on measurement of radio conditions transmitted from a base station in association with identification information and for receiving expiration information of the radio condition measurement information from the base station; and a control unit for controlling communication by using the measurement and expiration information received by the receiving unit when the wireless communication device corresponds to the identification information received by the receiving unit, wherein the identification information is position information, and wherein the wireless communication device corresponding to the identification information is a wireless communication device located within a range specified by the identification information. a receiving unit for receiving measurement information based on measurement of radio conditions transmitted from a base station in association with identification information and for receiving expiration information of the radio condition measurement information from the base station; and a control unit for controlling communication by using the measurement and expiration information received by the receiving unit when the wireless communication device corresponds to the identification information received by the receiving unit, wherein the identification information is position information, and wherein the wireless communication device corresponding to the identification information is a wireless communication device located within a range specified by the identification information.
A road finisher or a charger comprising a material hopper and at least one damper device, which is fixed to the chassis of the road finisher or charger and carries a push-bar to which a material supply vehicle can be docked in order to fill up the material hopper, wherein the damper device comprises a cylinder which has a piston bearing on one side, the piston bearing displaceably receiving a piston rod, and provides for a bottom unit on another side, characterized in that the cylinder, the piston bearing and the bottom unit form a closed chamber which is filled with a compressible liquid, and wherein the piston rod subdivides the chamber into a first and a second chamber half (9, 10) between which the liquid can be displaced if the piston rod is displaced relative to the cylinder, that the closed chamber has a variable volume so as to compensate temperature-induced pressure fluctuations inside the closed chamber, that the bottom unit comprises a bulkhead which is displaceably arranged inside the cylinder, wherein the bottom unit comprises a lid and a spring element, the spring element being arranged between the lid and the bulkhead, the bulkhead comprises an end section and a guiding section, the guiding section having a greater outer diameter than the end section, and wherein the bulkhead provides a seat between the end section and the guiding section to which the spring element can be coupled.
A method of electrowinning nickel from an electrolyte that contains nickel sulphate in an electrolytic tank, which comprises a number of anodes and a number of cathodes that are arranged alternately, each anode being arranged inside an anode bag, the anode bag consisting of a material that permeates the electrolyte in a controlled manner and defining inside it an anodic space and outside it a free cathodic space, where the cathodes are located, whereby nickel is precipitated on the surface of the cathode and acid and oxygen are generated on the anodes, and the hydrogen ions generated on the anode are prevented from entering through the diaphragm fabric by means of a pressure difference, so that the electrolyte flows constantly from the cathodic space into the anodic space inside the anode bag; and the catholyte is fed into the cathodic space of the electrolytic tank, removed therefrom as an overflow and recirculated back into the cathodic space, and the anolyte is removed separately from each anode bag as an overflow or by suction, and wherein as the material of the anode bag, a diaphragm fabric is selected from a group of diaphragm fabrics with different permeabilities, characterised in that the dependences of the permeability of the diaphragm fabric on the viscosity of the catholyte and the pressure difference used are determined and, on the basis of these determined dependences, the exit velocity of the anolyte from the anode bag is adjusted by the current density used, the pressure difference and the viscosity of the catholyte, so that an acid content of the anolyte of at least 122 g/l is obtained; and in that the concentration of nickel sulphate in the catholyte and/or the viscosity of the catholyte are measured, and the circulation speed of the catholyte is increased, if the nickel sulphate concentration in the catholyte and/or the viscosity exceed a predefined limit value, and the circulation speed of the catholyte is reduced, if the nickel sulphate concentration in the catholyte and/or the viscosity of the catholyte are below the predefined limit value.
A heart status assessment apparatus, comprising: a sample obtaining module, configured to obtain heart rhythm sample data, wherein the heart rhythm sample data comprises sample heart rhythm features and sample labels; a model training module, configured to train a preset scoring model based on the heart rhythm sample data, to obtain a heart rhythm scoring model; and a status assessment module, configured to input a to-be-recognized heart rhythm feature into the heart rhythm scoring model, to obtain a heart status assessment score, characterised in that ranks of different arrhythmia events are used as the sample labels, and the preset scoring model is a ranking model. a sample obtaining module, configured to obtain heart rhythm sample data, wherein the heart rhythm sample data comprises sample heart rhythm features and sample labels; a model training module, configured to train a preset scoring model based on the heart rhythm sample data, to obtain a heart rhythm scoring model; and a status assessment module, configured to input a to-be-recognized heart rhythm feature into the heart rhythm scoring model, to obtain a heart status assessment score, characterised in that ranks of different arrhythmia events are used as the sample labels, and the preset scoring model is a ranking model.
A test system for testing a device having a plurality of electrical contacts, the test system comprising: a device table operable to hold at least one device under test, the device table comprising two or more reference structures extending out of or into the device table, wherein at least two of the reference structures extend out of or into the device table by different distances; a probe comprising at least one probe end for contacting electrical contacts of a device under test; and a movement mechanism operable to move one or both of the device table and the probe so as to bring the at least one probe end into contact with at least one electrical contact of a device under test; wherein the two or more reference structures provide references at different distances to determine the position of electrical contacts of a device under test, relative to the reference structures. a device table operable to hold at least one device under test, the device table comprising two or more reference structures extending out of or into the device table, wherein at least two of the reference structures extend out of or into the device table by different distances; a probe comprising at least one probe end for contacting electrical contacts of a device under test; and a movement mechanism operable to move one or both of the device table and the probe so as to bring the at least one probe end into contact with at least one electrical contact of a device under test; wherein the two or more reference structures provide references at different distances to determine the position of electrical contacts of a device under test, relative to the reference structures.
A method of self-guided geosteering a downhole assembly, the method comprising: determining, by a CPU guidance system as part of the downhole assembly, a modeled well path of the downhole assembly through a formation; determining, by the CPU guidance system, an actual well path of the downhole assembly through the formation; analyzing, by the CPU guidance system, formation stratigraphic characteristic data collected by a stratigraphic sensing tool as part of the downhole assembly, the stratigraphic characteristic data corresponding to the formation surrounding the downhole assembly; analyzing, by the CPU guidance system, formation fracture density data collected by an imaging tool as part of the downhole assembly, the fracture data corresponding to the formation surrounding the downhole assembly; comparing, by the CPU guidance system, the formation stratigraphic characteristic data and formation fracture density data associated with the actual well path of the downhole assembly with the formation stratigraphic characteristic data and formation fracture density data associated with the modeled well path of the downhole assembly; and adjusting, by a directional controller as part of the downhole assembly and instructed by the CPU guidance system based on the comparison, the actual well path of the downhole assembly as necessary to correspond to the modeled well path of the downhole assembly without surface intervention. determining, by a CPU guidance system as part of the downhole assembly, a modeled well path of the downhole assembly through a formation; determining, by the CPU guidance system, an actual well path of the downhole assembly through the formation; analyzing, by the CPU guidance system, formation stratigraphic characteristic data collected by a stratigraphic sensing tool as part of the downhole assembly, the stratigraphic characteristic data corresponding to the formation surrounding the downhole assembly; analyzing, by the CPU guidance system, formation fracture density data collected by an imaging tool as part of the downhole assembly, the fracture data corresponding to the formation surrounding the downhole assembly; comparing, by the CPU guidance system, the formation stratigraphic characteristic data and formation fracture density data associated with the actual well path of the downhole assembly with the formation stratigraphic characteristic data and formation fracture density data associated with the modeled well path of the downhole assembly; and adjusting, by a directional controller as part of the downhole assembly and instructed by the CPU guidance system based on the comparison, the actual well path of the downhole assembly as necessary to correspond to the modeled well path of the downhole assembly without surface intervention.
An aqueous coating composition for preventing or reducing air oxidation of a carbon material comprising: an aqueous solution comprising a combination of a sodium salt of carbonate and a potassium salt of carbonate providing an equivalent Na 2 O:K 2 O molar ratio of 0.4 to 2.0, and water, said aqueous coating having a melting temperature of 400°C and up to 600°C to prevent and/or reduce air oxidation of said carbon material from that melting temperature and above, wherein said carbon material is made from carbon selected from the group consisting of graphite, petroleum, metallurgical coke, a partially graphitized carbon, and amorphous carbon. an aqueous solution comprising a combination of a sodium salt of carbonate and a potassium salt of carbonate providing an equivalent Na 2 O:K 2 O molar ratio of 0.4 to 2.0, and water, said aqueous coating having a melting temperature of 400°C and up to 600°C to prevent and/or reduce air oxidation of said carbon material from that melting temperature and above, wherein said carbon material is made from carbon selected from the group consisting of graphite, petroleum, metallurgical coke, a partially graphitized carbon, and amorphous carbon.
A wireless power system including: a wireless power transmitter unit having a first self-resonant frequency; a repeating resonator unit comprising several resonators, having a second self-resonant frequency, and arranged in a form of lattice or matrix; a wireless power receiver having a third self-resonant frequency; wherein when the wireless power receiver is placed on a specific repeating resonator, the wireless power transmitter is controlled to generate an AC power at the mutual-changed resonant frequency resulting from the mutual inductance between the wireless receiver and the repeating resonator when the wireless power receiver is placed on the repeating resonator, and wherein the informations regarding the mutual changed frequency are previously stored in the wireless power transmitter. a wireless power transmitter unit having a first self-resonant frequency; a repeating resonator unit comprising several resonators, having a second self-resonant frequency, and arranged in a form of lattice or matrix; a wireless power receiver having a third self-resonant frequency; wherein when the wireless power receiver is placed on a specific repeating resonator, the wireless power transmitter is controlled to generate an AC power at the mutual-changed resonant frequency resulting from the mutual inductance between the wireless receiver and the repeating resonator when the wireless power receiver is placed on the repeating resonator, and wherein the informations regarding the mutual changed frequency are previously stored in the wireless power transmitter.
A method for predicting responsiveness of a house dust mite allergic patient to immunotherapy, which method comprises a) measuring the abundance of IL-10 mRNA in a whole blood cell sample from said patient, b) comparing said abundance of IL-10 mRNA with a control, c) identifying said patient as likely to be a responder or non-responder to immunotherapy based on the comparison with the control, wherein said whole blood cell sample is taken before the commencement of immunotherapy, and wherein said immunotherapy comprises administration of a house dust mite allergen to said patient in order to treat house dust mite allergy, wherein step c) is performed by: (i) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a responder subject, or group of responder subjects, known to respond to said immunotherapy, and if abundance of IL-10 mRNA in the patient sample is equal to or greater than the level of expression in the control; or (ii) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a non-responder subject, or group of non-responder subjects, and if abundance of IL-10 mRNA in the patient sample is greater than the level of expression in the control; or (iii) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a randomly selected group of subjects, and if abundance of IL-10 mRNA in the patient sample is greater than the level of expression in the control. a) measuring the abundance of IL-10 mRNA in a whole blood cell sample from said patient, b) comparing said abundance of IL-10 mRNA with a control, c) identifying said patient as likely to be a responder or non-responder to immunotherapy based on the comparison with the control, (i) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a responder subject, or group of responder subjects, known to respond to said immunotherapy, and if abundance of IL-10 mRNA in the patient sample is equal to or greater than the level of expression in the control; or (ii) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a non-responder subject, or group of non-responder subjects, and if abundance of IL-10 mRNA in the patient sample is greater than the level of expression in the control; or (iii) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a randomly selected group of subjects, and if abundance of IL-10 mRNA in the patient sample is greater than the level of expression in the control.
An apparatus for a user equipment, comprising: means (22, 28) for receiving, from a network node, an allocation of a pair of resources at the user equipment operating in a first mode of vehicle-to-vehicle, V2V, communication that is configured to use resources from a shared transmit, Tx, pool of a second mode of V2V communication, wherein a first resource of the pair of resources is allocated from an exclusive Tx pool for the first mode, and a second resource of the pair of resources is allocated from the shared Tx pool; means for determining whether the second resource is ready to replace the first resource, comprises means for monitoring the allocated second resource and means for determining that the second resource is ready while using the first resource for transmission; means for replacing the first resource with the second resource when it is determined that the second resource is ready to replace the first resource; and means (22, 28) for indicating, to the network node in response to determining that the second resource is ready to replace the first resource, release of the first resource and the readiness of the user equipment to replace the first resource with the second resource. means (22, 28) for receiving, from a network node, an allocation of a pair of resources at the user equipment operating in a first mode of vehicle-to-vehicle, V2V, communication that is configured to use resources from a shared transmit, Tx, pool of a second mode of V2V communication, wherein a first resource of the pair of resources is allocated from an exclusive Tx pool for the first mode, and a second resource of the pair of resources is allocated from the shared Tx pool; means for determining whether the second resource is ready to replace the first resource, comprises means for monitoring the allocated second resource and means for determining that the second resource is ready while using the first resource for transmission; means for replacing the first resource with the second resource when it is determined that the second resource is ready to replace the first resource; and means (22, 28) for indicating, to the network node in response to determining that the second resource is ready to replace the first resource, release of the first resource and the readiness of the user equipment to replace the first resource with the second resource.
A sensor (10; 120; 151-158), comprising: a waveguide (20; 50; 70) having a longitudinal axis and an end face (21; 51; 71), the waveguide (20; 50; 70) comprising a Bragg grating (23; 53; 73); at least one reflector (24; 28; 54; 74) on the end face (21; 51; 71) of the waveguide (20; 50; 70); wherein an optical resonator (25; 55; 75) is formed by the Bragg grating (23; 53; 73), the at least one reflector (24; 28; 54; 74), and an inner portion of the optical resonator, the inner portion being arranged between the Bragg grating (23; 53; 73) and the least one reflector (24; 28; 54; 74), the inner portion of the optical resonator extending within a portion of the waveguide (20; 50; 70) and being monolithically formed with the waveguide (20; 50; 70); and a detector configured to detect at least one spectral characteristic of the optical resonator (25; 55; 75) or a change of at least one spectral characteristic of the optical resonator (25; 55; 75). a waveguide (20; 50; 70) having a longitudinal axis and an end face (21; 51; 71), the waveguide (20; 50; 70) comprising a Bragg grating (23; 53; 73); at least one reflector (24; 28; 54; 74) on the end face (21; 51; 71) of the waveguide (20; 50; 70); wherein an optical resonator (25; 55; 75) is formed by the Bragg grating (23; 53; 73), the at least one reflector (24; 28; 54; 74), and an inner portion of the optical resonator, the inner portion being arranged between the Bragg grating (23; 53; 73) and the least one reflector (24; 28; 54; 74), the inner portion of the optical resonator extending within a portion of the waveguide (20; 50; 70) and being monolithically formed with the waveguide (20; 50; 70); and the Bragg grating (23; 53; 73), the at least one reflector (24; 28; 54; 74), and an inner portion of the optical resonator, the inner portion being arranged between the Bragg grating (23; 53; 73) and the least one reflector (24; 28; 54; 74), the inner portion of the optical resonator extending within a portion of the waveguide (20; 50; 70) and being monolithically formed with the waveguide (20; 50; 70); and a detector configured to detect at least one spectral characteristic of the optical resonator (25; 55; 75) or a change of at least one spectral characteristic of the optical resonator (25; 55; 75).