mhurhangee/ep-ind-claims huggingface dataset:
A system for determining a sound source, the system comprising: an audio sensor; a biosensor for measuring one or more biosignals of a subject; and a processing unit communicatively coupled with the audio sensor and the biosensor, the processing unit configured to perform operations comprising: obtaining audio data from the audio sensor and biosignal data from the biosensor, the audio data and the biosignal data being time-synced with each other, characterized in that the operations further comprise: detecting, based on the audio data, a sound exceeding a threshold, and determining that the sound exceeding the threshold originates from the subject if the biosignal data indicates a change in the one or more biosignals at a corresponding time. an audio sensor; a biosensor for measuring one or more biosignals of a subject; and a processing unit communicatively coupled with the audio sensor and the biosensor, the processing unit configured to perform operations comprising: obtaining audio data from the audio sensor and biosignal data from the biosensor, the audio data and the biosignal data being time-synced with each other, characterized in that the operations further comprise: detecting, based on the audio data, a sound exceeding a threshold, and determining that the sound exceeding the threshold originates from the subject if the biosignal data indicates a change in the one or more biosignals at a corresponding time. detecting, based on the audio data, a sound exceeding a threshold, and determining that the sound exceeding the threshold originates from the subject if the biosignal data indicates a change in the one or more biosignals at a corresponding time.
A method of accessing memory cells, wherein the cells are divided into at least a first region and a second region, the method comprising: receiving in a pre-decode block a request address associated with a memory request from a master; determining a region of a memory system to which the request address is directed; comparing a size of the memory request to a channel depth of the region to which the request address is directed, wherein the channel depth comprises a number of bytes to be accessed from the channel before the request address moves to another channel; rearranging digits of the request address into a first memory address according to a first definition if the request address corresponds to memory cells in the first region of the memory system; and rearranging the digits of the request address into a second memory address according to a second definition if the request address corresponds to memory cells in the second region of the memory system, the second definition being different from the first definition. receiving in a pre-decode block a request address associated with a memory request from a master; determining a region of a memory system to which the request address is directed; comparing a size of the memory request to a channel depth of the region to which the request address is directed, wherein the channel depth comprises a number of bytes to be accessed from the channel before the request address moves to another channel; rearranging digits of the request address into a first memory address according to a first definition if the request address corresponds to memory cells in the first region of the memory system; and rearranging the digits of the request address into a second memory address according to a second definition if the request address corresponds to memory cells in the second region of the memory system, the second definition being different from the first definition.
A battery comprising: a positive electrode; and a negative electrode, wherein at least one electrode of the positive electrode and the negative electrode includes a current collector (21A; 22A), a mixture layer over one main surface of the current collector (21A; 22A), the mixture layer (21 B) including a gap through which a part of the current collector (21A; 22A) is exposed. a lead bonded to an exposed surface of the current collector (21A; 22A) exposed through the gap, and a protective layer configured to protect the current collector (21A; 22A), at least a part of the protective layer being over the exposed surface of the current collector (21A; 22A) and interposed between a part of the lead and the exposed surface, and wherein the part of the lead includes at least a part of a peripheral edge of the lead. a positive electrode; and a negative electrode, wherein at least one electrode of the positive electrode and the negative electrode includes a current collector (21A; 22A), a mixture layer over one main surface of the current collector (21A; 22A), the mixture layer (21 B) including a gap through which a part of the current collector (21A; 22A) is exposed. a lead bonded to an exposed surface of the current collector (21A; 22A) exposed through the gap, and a protective layer configured to protect the current collector (21A; 22A), at least a part of the protective layer being over the exposed surface of the current collector (21A; 22A) and interposed between a part of the lead and the exposed surface, and wherein the part of the lead includes at least a part of a peripheral edge of the lead.
A method for canceling crosstalk between lines in a digital subscriber line, DSL, system, wherein the DSL system comprises multiple DSL lines and each DSL line is connected to one central office, CO, and one customer premises equipment, CPE, and the method comprises: obtaining an upstream signal that is sent by CPE corresponding to each CO and that is received by the CO, forming an upstream signal sequence comprising upstream signals of all COs, obtaining a downstream signal that is sent by each CO to the CPE corresponding to each CO, and forming a downstream signal sequence comprising downstream signals of all the COs (Step 61); performing FEXT cancellation processing on the upstream signal sequence by using an FEXT cancellation coefficient sequence formed by FEXT cancellation coefficients that are used to cancel far-end crosstalk FEXT signals in the upstream signals of all the COs, to obtain a first signal sequence, and processing the downstream signal sequence by using a preconfigured joint upstream cancellation coefficient sequence, to determine near-end crosstalk NEXT signals in the upstream signals of all the COs (Step 62); and performing NEXT cancellation processing on the first signal sequence by using the determined NEXT signals, to obtain a second signal sequence, and sending upstream signals in the second signal sequence to all the COs (Step 63); wherein the preconfigured joint upstream cancellation coefficient sequence is based on a combination of at least the FEXT cancellation coefficient sequence and a NEXT cancellation coefficient sequence and the preconfigured joint upstream cancellation coefficient sequence is first determined according to a configured pilot symbol. obtaining an upstream signal that is sent by CPE corresponding to each CO and that is received by the CO, forming an upstream signal sequence comprising upstream signals of all COs, obtaining a downstream signal that is sent by each CO to the CPE corresponding to each CO, and forming a downstream signal sequence comprising downstream signals of all the COs (Step 61); performing FEXT cancellation processing on the upstream signal sequence by using an FEXT cancellation coefficient sequence formed by FEXT cancellation coefficients that are used to cancel far-end crosstalk FEXT signals in the upstream signals of all the COs, to obtain a first signal sequence, and processing the downstream signal sequence by using a preconfigured joint upstream cancellation coefficient sequence, to determine near-end crosstalk NEXT signals in the upstream signals of all the COs (Step 62); and performing NEXT cancellation processing on the first signal sequence by using the determined NEXT signals, to obtain a second signal sequence, and sending upstream signals in the second signal sequence to all the COs (Step 63); wherein the preconfigured joint upstream cancellation coefficient sequence is based on a combination of at least the FEXT cancellation coefficient sequence and a NEXT cancellation coefficient sequence and the preconfigured joint upstream cancellation coefficient sequence is first determined according to a configured pilot symbol.
Method for controlling an asynchronous electrical motor, implemented in a processing unit, said processing unit being associated with a power converter connected by output phases (a, b, c) to said electrical motor and disposed to execute a control law for the purpose of determining voltages to be applied to said electrical motor based on a speed reference and a flux reference applied in input, characterized in that it includes an identification phase, which consists in: • Generating a speed trajectory in input of the control law in order to make the speed reference take several determined successive values, • For each value taken by the speed reference, determining the voltage ( U m) at the terminals of the electrical motor, • For each value taken by the speed reference, determining and storing the flux value for which the voltage at the terminals of the electrical motor is equal to a determined threshold value ( U max). • Generating a speed trajectory in input of the control law in order to make the speed reference take several determined successive values, • For each value taken by the speed reference, determining the voltage ( U m) at the terminals of the electrical motor, • For each value taken by the speed reference, determining and storing the flux value for which the voltage at the terminals of the electrical motor is equal to a determined threshold value ( U max).
A system for in-body navigation and positioning of an instrument (12, 40, 112) comprising a sensor for optical inspection of tissue, wherein the in-body navigation and positioning is based on i) an optical tissue signal generated by the sensor and ii) a temporal sequence of images of the interior of the body recorded by a medical imaging device; the system comprising: a tissue-type determination device (16, 102) configured to receive the optical tissue signal from the instrument (12, 40, 112) at each of a plurality of times Ts (24, 26, 28) and to determine a set of parameters indicative of a tissue type based on the optical tissue signal; the medical imaging device wherein the medical imaging device is for forming an image of the interior of the body and is configured to record a temporal sequence of images, each image in the sequence having a timestamp Tf (30, 32, 34); an image processing unit configured to receive the temporal sequence of images of the interior of the body and to establish a combined image of the interior of the body at each timestamp Tf (30, 32, 34) and an indication of tissue-type at the spatial position of the instrument corresponding to a time Ts (24, 26, 28); and a display unit for displaying the combined image of the interior of the body; characterised in that an interval between each timestamp Tf (30, 32, 34) is relatively lower than an interval between each of times Ts, and in that the image processing unit is time-synchronized with the tissue-type determination device such that the combined image comprises the current instrument spatial position (xc, yc) and an indication of tissue-type at a previous instrument spatial position (xs, ys) at its corresponding time Ts. a tissue-type determination device (16, 102) configured to receive the optical tissue signal from the instrument (12, 40, 112) at each of a plurality of times Ts (24, 26, 28) and to determine a set of parameters indicative of a tissue type based on the optical tissue signal; the medical imaging device wherein the medical imaging device is for forming an image of the interior of the body and is configured to record a temporal sequence of images, each image in the sequence having a timestamp Tf (30, 32, 34); an image processing unit configured to receive the temporal sequence of images of the interior of the body and to establish a combined image of the interior of the body at each timestamp Tf (30, 32, 34) and an indication of tissue-type at the spatial position of the instrument corresponding to a time Ts (24, 26, 28); and a display unit for displaying the combined image of the interior of the body; characterised in that an interval between each timestamp Tf (30, 32, 34) is relatively lower than an interval between each of times Ts, and in that the image processing unit is time-synchronized with the tissue-type determination device such that the combined image comprises the current instrument spatial position (xc, yc) and an indication of tissue-type at a previous instrument spatial position (xs, ys) at its corresponding time Ts.
A wall formwork for concrete structures, comprising a basic body, an outer face configured as a formwork facing, anchor holes (2, 3, 4, 5) for the detachable connection to other wall formworks, wherein the wall formwork comprises more anchor holes (2, 3, 4, 5) in one half than in the other half, both halfs comprising at least one anchor hole, characterized in that one or more central anchor holes, are located on the center line that separates the upper half of the wall formwork from the lower, an additional anchor hole respectively holes is disposed between the central anchor hole repectively holes and an uppermost hole repectively holes, which, viewed along the length, is at an edge, in such a way that the additional anchor hole or holes are provided centrally between the central and the uppermost anchor hole respectively holes.
System for immobilising an unlawfully used vehicle, comprising - a first control unit of the vehicle for receiving a vehicle immobilisation command, - a server, wherein the server is connected to the first control unit and the server transmits the vehicle immobilisation command to the first control unit, and - a second control unit of the vehicle for initiating an immobilisation of the vehicle, characterised in that before immobilising the vehicle, the first control unit requests a confirmation of the vehicle immobilisation command from an external authorisation system. - a first control unit of the vehicle for receiving a vehicle immobilisation command, - a server, wherein the server is connected to the first control unit and the server transmits the vehicle immobilisation command to the first control unit, and - a second control unit of the vehicle for initiating an immobilisation of the vehicle,
A B-cell depleting agent capable of depleting peripheral CD19+ B-cells for use in a method of conserving or increasing the number of long term survivors in a group of patients suffering from relapsed/refractory adult B-precursor acute lymphoblastic leukemia, said method comprising (a) administering a B-cell depleting agent (b) observing within a first predefined period of time starting with the first day of initial treatment with the B-cell depleting agent the number of B-cells in the blood of said patient and (c) adjusting the treatment regimen or dosage of said B-cell depleting agent such that the number of B-cells in the blood of the patients of said group falls below one B-cell/ml serum within a second predefined period of time of 8 days after the initial treatment with said B-cell depleting agent, wherein the first predefined period of time is shorter than the second predefined period of time, wherein said B-cell depleting agent is Blinatumomab and said long term survivors are alive for ≥30 months after starting Blinatumomab treatment.
A method for producing a plurality of articles from a glass tube, the method comprising: securing a working end of the glass tube in a glass tube holder of a converter having a plurality of processing stations comprising at least one heating station and at least one forming station after the at least one heating station, wherein the converter moves the glass tube holder through the plurality of processing stations, wherein an initial length of the glass tube comprises a plurality of serial segments, each of the plurality of serial segments corresponding to one article and having an article number; heating the working end of the glass tube at the at least one heating station; increasing or decreasing an amount of heating of the glass tube based on the article number corresponding to the working end of the glass tube, wherein increasing or decreasing the amount of heating based on the article number reduces variation in tube temperature, article dimensions, or both, from one article number to the next article number; forming at least one feature of the article at the working end of the glass tube in the at least one forming station; separating the article from the working end of the glass tube at a separating station; and indexing the glass tube downward in the glass tube holder to form a subsequent article. securing a working end of the glass tube in a glass tube holder of a converter having a plurality of processing stations comprising at least one heating station and at least one forming station after the at least one heating station, wherein the converter moves the glass tube holder through the plurality of processing stations, wherein an initial length of the glass tube comprises a plurality of serial segments, each of the plurality of serial segments corresponding to one article and having an article number; heating the working end of the glass tube at the at least one heating station; increasing or decreasing an amount of heating of the glass tube based on the article number corresponding to the working end of the glass tube, wherein increasing or decreasing the amount of heating based on the article number reduces variation in tube temperature, article dimensions, or both, from one article number to the next article number; forming at least one feature of the article at the working end of the glass tube in the at least one forming station; separating the article from the working end of the glass tube at a separating station; and indexing the glass tube downward in the glass tube holder to form a subsequent article.
Process of preparing a fat composition comprising the steps of: a) providing a fat, preferably from a single natural source, comprising at least 25% by weight of StOSt triglycerides based on the total glycerides present in the fat, wherein St is stearic acid and O is oleic acid; b) fractionating the fat source obtained in step a) to form a stearin fraction comprising at least 60% by weight of StOSt triglycerides based on the total glycerides present in the fat, wherein St is stearic acid and O is oleic acid; c) blending a fat which is the same as that provided in step a) and the stearin fraction obtained in step b) in a weight ratio of from 90:10 to 10:90 to form a fat composition. a) providing a fat, preferably from a single natural source, comprising at least 25% by weight of StOSt triglycerides based on the total glycerides present in the fat, wherein St is stearic acid and O is oleic acid; b) fractionating the fat source obtained in step a) to form a stearin fraction comprising at least 60% by weight of StOSt triglycerides based on the total glycerides present in the fat, wherein St is stearic acid and O is oleic acid; c) blending a fat which is the same as that provided in step a) and the stearin fraction obtained in step b) in a weight ratio of from 90:10 to 10:90 to form a fat composition.
A reservoir tank connection connector, characterized by at least the following parts: a connector body installed on a master cylinder, a hose connection tube body (6b, 6c), which is L-shaped and is arranged protruding from the edge of the connector body and has a hose (7,8) connected with the reservoir tank connected thereto, and a conveying arm guide section as an interference preventing section which is arranged on the connector body and prevents interference of a conveying jig with the hose connection tube body (6b, 6c) when the connector body is supported by the conveying jig, wherein the conveying arm guide section on the side where the hose connection tube body (6b, 6c) protrudes is arranged divided and protruding only on a long side edge (6a2) of the connector body excluding regions (6j, 6k), the regions (6j, 6k) including the side where the hose connection tube body (6b, 6c) protrudes. a connector body installed on a master cylinder, a hose connection tube body (6b, 6c), which is L-shaped and is arranged protruding from the edge of the connector body and has a hose (7,8) connected with the reservoir tank connected thereto, and a conveying arm guide section as an interference preventing section which is arranged on the connector body and prevents interference of a conveying jig with the hose connection tube body (6b, 6c) when the connector body is supported by the conveying jig, wherein the conveying arm guide section on the side where the hose connection tube body (6b, 6c) protrudes is arranged divided and protruding only on a long side edge (6a2) of the connector body excluding regions (6j, 6k), the regions (6j, 6k) including the side where the hose connection tube body (6b, 6c) protrudes.
Method for checking a drive current (I A) of an electric machine, in particular an electric machine of a coordinate measuring machine, wherein the electric machine has a control unit and an electric drive having a stator and a rotor, wherein the control unit energizes the stator by means of the drive current, having the steps of: - detecting a value of the drive current (I A), which is fed to the electric drive for the purpose of driving the rotor, - detecting a measurement value (U C) of an electrical input variable of the electric machine, wherein the electrical input variable is a total current (I V) consumed by the electric machine or an electrical variable (U S) corresponding to the total current (I V) consumed by the electric machine, - determining a calculation value (U C) on the basis of the detected value of the drive current (I A) and of a performance model of the electric machine, and - determining a comparison value on the basis of the detected measurement value (U S) and of the determined calculation value (U C) of the electrical input variable, in order to check the detected value of the drive current (I A), - characterized in that the calculation value (U C) is a calculated value of the electrical input variable, wherein the comparison value is determined on the basis of a difference value between the measurement value (U S) and the calculation value (U C) of the electrical input variable. - detecting a value of the drive current (I A), which is fed to the electric drive for the purpose of driving the rotor, - detecting a measurement value (U C) of an electrical input variable of the electric machine, wherein the electrical input variable is a total current (I V) consumed by the electric machine or an electrical variable (U S) corresponding to the total current (I V) consumed by the electric machine, - determining a calculation value (U C) on the basis of the detected value of the drive current (I A) and of a performance model of the electric machine, and - determining a comparison value on the basis of the detected measurement value (U S) and of the determined calculation value (U C) of the electrical input variable, in order to check the detected value of the drive current (I A), - characterized in that the calculation value (U C) is a calculated value of the electrical input variable, wherein the comparison value is determined on the basis of a difference value between the measurement value (U S) and the calculation value (U C) of the electrical input variable.