mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for calculating values indicative for the local spatial structure of conducting properties of heart muscle tissue, using a continuous region of interest, ROI, where it is considered that there may exist a conducting channel, CC, wherein each point of the ROI is associated with a value of a given spatial distribution assigning a value to every point of the ROI representing the tissue properties acquired via an acquisition technology, the method comprising performing, by a processor of a computer system, for each one of a plurality of points within the ROI, the following steps: a) spanning a plurality of rays starting from the given point within the ROI in multiple 3-D directions by at least using coordinates of a reference coordinate system of the point, providing a structure with a plurality of rays with a given geometry; b) defining a sequence of sampling points on each ray of said structure; c) mapping the value of the spatial distribution on each defined sampling point of each ray of the structure; d) classifying each ray of the structure by assigning to each ray a single value based on: the mapped values, the absolute positions within said reference coordinate system of the sampling points, and the positions of the sampling points relative to each ray of the structure, providing an associated ray value; and e) reducing each structure to a single point value in view of the geometry of the rays and their associated ray value, wherein said single point value is indicative of a local spatial structure of conducting properties of an area of heart muscle tissue. a) spanning a plurality of rays starting from the given point within the ROI in multiple 3-D directions by at least using coordinates of a reference coordinate system of the point, providing a structure with a plurality of rays with a given geometry; b) defining a sequence of sampling points on each ray of said structure; c) mapping the value of the spatial distribution on each defined sampling point of each ray of the structure; d) classifying each ray of the structure by assigning to each ray a single value based on: the mapped values, the absolute positions within said reference coordinate system of the sampling points, and the positions of the sampling points relative to each ray of the structure, providing an associated ray value; and the mapped values, the absolute positions within said reference coordinate system of the sampling points, and the positions of the sampling points relative to each ray of the structure, providing an associated ray value; and e) reducing each structure to a single point value in view of the geometry of the rays and their associated ray value, wherein said single point value is indicative of a local spatial structure of conducting properties of an area of heart muscle tissue.
An antenna comprising: two sub antennas, each sub antenna comprising at least one radiating element, said two sub antennas comprising an inner sub antenna and an outer sub antenna; and signal feed circuitry configured to supply a first signal to said inner sub antenna and signal feed circuitry configured to supply a second signal to said outer sub antenna; wherein said at least one radiating element of said outer sub antenna comprises: a flexible material and at least one flexible radiating patch wherein said at least one flexible radiating patch is configured to be mounted on said flexible material arranged to wrap at least partially around at least a portion of said inner sub antenna; said antenna having a longitudinal axis running along a length of said antenna, said outer sub antenna wrapping at least partially around said longitudinal axis; wherein an input port to said signal feed circuitry of one sub antenna is arranged at a different end of said longitudinal axis of said antenna to an input port to said signal feed circuitry of the other of said two sub antennas. two sub antennas, each sub antenna comprising at least one radiating element, said two sub antennas comprising an inner sub antenna and an outer sub antenna; and signal feed circuitry configured to supply a first signal to said inner sub antenna and signal feed circuitry configured to supply a second signal to said outer sub antenna; wherein said at least one radiating element of said outer sub antenna comprises: a flexible material and at least one flexible radiating patch wherein said at least one flexible radiating patch is configured to be mounted on said flexible material arranged to wrap at least partially around at least a portion of said inner sub antenna; said antenna having a longitudinal axis running along a length of said antenna, said outer sub antenna wrapping at least partially around said longitudinal axis; wherein an input port to said signal feed circuitry of one sub antenna is arranged at a different end of said longitudinal axis of said antenna to an input port to said signal feed circuitry of the other of said two sub antennas.
A non-surgical method of transmitting torque through an offset drive shaft (86, 198) routed within a rotatable main shaft, the method comprising: supporting a main shaft (74, 168A, 264) to rotate relative to a base so that the main shaft (74, 168A, 264) rotates about a main shaft rotational axis; supporting a drive shaft (86, 198) to rotate relative to the main shaft (74, 168A, 264) so that the drive shaft (86, 198) rotates about a drive shaft rotational axis that is offset from the main shaft rotational axis; engaging the drive shaft (86, 198) with a drive feature having a drive feature rotational axis that is fixed relative to the base as the main shaft (74, 168A, 264) rotates; rotating the main shaft (74, 168A, 264) relative to the base; rotating the drive feature relative to the main shaft (74, 168A, 264) so as to rotate the drive shaft (86, 198) relative to the main shaft (74, 168A, 264); and articulating a jaw of an end effector pivotally coupled to the main shaft (74, 168A, 264) by actuating a control cable drive feature coupled with the base to actuate a control cable drivingly coupling the jaw with the control cable drive feature, the control cable being routed within the main shaft (74, 168A, 264). supporting a main shaft (74, 168A, 264) to rotate relative to a base so that the main shaft (74, 168A, 264) rotates about a main shaft rotational axis; supporting a drive shaft (86, 198) to rotate relative to the main shaft (74, 168A, 264) so that the drive shaft (86, 198) rotates about a drive shaft rotational axis that is offset from the main shaft rotational axis; engaging the drive shaft (86, 198) with a drive feature having a drive feature rotational axis that is fixed relative to the base as the main shaft (74, 168A, 264) rotates; rotating the main shaft (74, 168A, 264) relative to the base; rotating the drive feature relative to the main shaft (74, 168A, 264) so as to rotate the drive shaft (86, 198) relative to the main shaft (74, 168A, 264); and articulating a jaw of an end effector pivotally coupled to the main shaft (74, 168A, 264) by actuating a control cable drive feature coupled with the base to actuate a control cable drivingly coupling the jaw with the control cable drive feature, the control cable being routed within the main shaft (74, 168A, 264).
A multi-unit air conditioner comprising an outdoor unit provided with a compressor which compresses a refrigerant and a plurality of indoor units (20A, 20B) provided with an indoor heat exchanger, wherein said multi-unit air conditioner comprises: a pressure reducing expansion valve which reduces the pressure of the refrigerant discharged from the outdoor unit; characterized in that said multi-unit air conditioner further comprises a control section which adjusts an opening of the pressure reducing expansion valve, during a cooling operation, on the basis of the rotation speed of the compressor; and a pressure sensor which detects the refrigerant pressure on the high-pressure side of the compressor of the outdoor unit or on the high-pressure side of an expansion valve of the indoor unit (20A, 20B), wherein the control section is configured for adjusting the opening of the pressure reducing expansion valve only when the refrigerant pressure detected by the pressure sensor has exceeded a predetermined reference value. a pressure reducing expansion valve which reduces the pressure of the refrigerant discharged from the outdoor unit; characterized in that said multi-unit air conditioner further comprises a control section which adjusts an opening of the pressure reducing expansion valve, during a cooling operation, on the basis of the rotation speed of the compressor; and a pressure sensor which detects the refrigerant pressure on the high-pressure side of the compressor of the outdoor unit or on the high-pressure side of an expansion valve of the indoor unit (20A, 20B), wherein the control section is configured for adjusting the opening of the pressure reducing expansion valve only when the refrigerant pressure detected by the pressure sensor has exceeded a predetermined reference value.
A binaural hearing system comprising left (HD l) and right (HD r) hearing devices adapted for being located at or in left and right ears of a user, or adapted for being fully or partially implanted in the head of the user, each of the left (HD l) and right (HD r) hearing devices comprising • an input unit for providing an electric input signal representing a sound in the environment of the hearing device; • a noise reduction system for providing an estimate of a noise component of the electric input signal and for reducing said noise component of the electric input signal; • antenna and transceiver circuitry (Rx/Tx) allowing an interaural wireless communication link (IA-WL) between the left and right hearing devices to be established to allow exchange of data (CT-D x) between them, wherein the binaural hearing system - in a specific, automatically or manually activated, near-field mode of operation, where a near-field sound source is present and predominantly audible at a first one of the left and right hearing devices - is • configured to transmit the estimate of the noise component, or a measure thereof, determined in a second one (HD l) of the hearing devices of the binaural hearing system to the first hearing device ( HD r), and • configured to use said estimate to reduce the noise component in the electric signal of the first hearing device (HD r) and to provide a noise reduced signal in the first hearing device (HD r). • an input unit for providing an electric input signal representing a sound in the environment of the hearing device; • a noise reduction system for providing an estimate of a noise component of the electric input signal and for reducing said noise component of the electric input signal; • antenna and transceiver circuitry (Rx/Tx) allowing an interaural wireless communication link (IA-WL) between the left and right hearing devices to be established to allow exchange of data (CT-D x) between them, • configured to transmit the estimate of the noise component, or a measure thereof, determined in a second one (HD l) of the hearing devices of the binaural hearing system to the first hearing device ( HD r), and • configured to use said estimate to reduce the noise component in the electric signal of the first hearing device (HD r) and to provide a noise reduced signal in the first hearing device (HD r).
A method for determining a cause of error in an agricultural working machine comprising a faulty component, characterized in that in an analysis routine based on operating data of the working machine comprising workload data, at least design data associated with the agricultural working machine comprising design data for the faulty component and cause of error data are determined, wherein the analysis routine is configured to determine whether a workload and/or a design of the agricultural working machine, in particular of the faulty component, can be excluded and/or identified as a cause of error. in an analysis routine based on operating data of the working machine comprising workload data, at least design data associated with the agricultural working machine comprising design data for the faulty component and cause of error data are determined, wherein the analysis routine is configured to determine whether a workload and/or a design of the agricultural working machine, in particular of the faulty component, can be excluded and/or identified as a cause of error.
Cosmetic composition for treating keratin fibres, comprising, in a cosmetically acceptable medium: - one or more oxidation bases; - one or more alkanolamines; - one or more amino acids; and - one or more cationic polymers, wherein the cationic polymer is hexadimethrine chloride. - one or more oxidation bases; - one or more alkanolamines; - one or more amino acids; and - one or more cationic polymers, wherein the cationic polymer is hexadimethrine chloride.
A fuel physical property determination method to determine a physical property of a test fuel, the method comprising: a test fuel flame-imaging step of obtaining first imaging data by imaging flames formed inside a test tube (2, 2A) by supplying a pre-mixed gas containing the test fuel and an oxidant agent, to the test tube (2, 2A) which includes an internal flow path and in which a temperature distribution is formed; and a physical property determination step of determining the physical property of the test fuel by comparing the first imaging data obtained in the test fuel flame-imaging step and second imaging data obtained by imaging flames ignited inside the or another test tube (2, 2B) by supplying a pre-mixed gas containing a standard-mixed fuel and an oxidant agent, to the or the other test tube (2, 2B), the standard-mixed fuel having a known physical property, wherein the internal flow path of the test tube has a diameter set to be smaller than a flame-quenching distance at normal temperature, in the physical property determination step, data denoting a generation position of the flames in the first imaging data and data denoting a generation position of the flames in the second imaging data are used when the first and second imaging data are compared, and the physical property is an octane number or a cetane number. a test fuel flame-imaging step of obtaining first imaging data by imaging flames formed inside a test tube (2, 2A) by supplying a pre-mixed gas containing the test fuel and an oxidant agent, to the test tube (2, 2A) which includes an internal flow path and in which a temperature distribution is formed; and a physical property determination step of determining the physical property of the test fuel by comparing the first imaging data obtained in the test fuel flame-imaging step and second imaging data obtained by imaging flames ignited inside the or another test tube (2, 2B) by supplying a pre-mixed gas containing a standard-mixed fuel and an oxidant agent, to the or the other test tube (2, 2B), the standard-mixed fuel having a known physical property, wherein the internal flow path of the test tube has a diameter set to be smaller than a flame-quenching distance at normal temperature, in the physical property determination step, data denoting a generation position of the flames in the first imaging data and data denoting a generation position of the flames in the second imaging data are used when the first and second imaging data are compared, and the physical property is an octane number or a cetane number.
A method for desulfating a SCR catalyst having sulfur thereon, comprising treating the SCR catalyst to desorb sulfur from the surface of the SCR catalyst and increase NOx conversion activity of the SCR catalyst, the treating step comprising treating the SCR catalyst with a gaseous stream comprising a reductant for a first treatment time period and at a first treatment temperature, wherein the first treatment temperature is about 350°C or less, followed by a second treatment time period and a second treatment temperature higher than the first treatment temperature, wherein the molar ratio of reductant to NOx during the treating step is about 1.05:1 or higher, wherein the reductant comprises ammonia or an ammonia precursor.
A monitoring system for monitoring electronic devices, the system comprising: - a first server that is configured to communicate via the internet with the electronic devices according to a first protocol, said first server configured to transmit security instructions to electronic devices that are reported as lost or stolen, including security instructions that protect data stored on the electronic devices; and - a second server that is configured to communicate via the internet with the electronic devices according to a second protocol more frequently than said first server communicates with the electronic devices, said second server configured to instruct an electronic device that is reported as lost or stolen to contact the first server, such that the electronic device can retrieve a security instruction from the first server; - wherein the second protocol is optimized for communications having a smaller size in terms of numbers of bytes communicated than commmunications according to the first protocol. - a first server that is configured to communicate via the internet with the electronic devices according to a first protocol, said first server configured to transmit security instructions to electronic devices that are reported as lost or stolen, including security instructions that protect data stored on the electronic devices; and - a second server that is configured to communicate via the internet with the electronic devices according to a second protocol more frequently than said first server communicates with the electronic devices, said second server configured to instruct an electronic device that is reported as lost or stolen to contact the first server, such that the electronic device can retrieve a security instruction from the first server; - wherein the second protocol is optimized for communications having a smaller size in terms of numbers of bytes communicated than commmunications according to the first protocol.
Door for a refrigerator, said door comprising two hollow parts made in the external side walls of the door and configured for opening the door, said hollow parts extending from the top to the bottom of the door, said door comprising means arranged on the bottom of the door and closing at least one hollow part and configured so as to prevent the sliding of the hand of a user from the hollow part to the space comprised between said door and a vertically lower door, said means comprising at least one insert with a flat part next to the lower end of the hollow part and elements that are suitable for cooperating with the door for integral engagement of the insert with said door, characterized in that said means are comprising a pair of inserts arranged on the bottom of the door and are closing the hollow parts, said door comprising another pair of inserts arranged on the top of the door and closing the hollow parts and a metal sheet that is arranged on the front part and has folded parts covering the bottom and the top of the door in such a manner as to form with said inserts a uniform structure without differences of level on the bottom and the top of the door.
A pharmaceutical composition for use in treating or cleaning a wound on the human body and removing a biofilm from a surface of the wound, comprising (in weight percent): (a) from about 0.1% to about 2.5% of a meta-silicate, (b) from about 0.1% to about 2.0% of a carbonate, (c) from about 0.1% to about 1.0% of a gluconate, (d) from about 0.1% to about 1.0% of potassium aluminium sulfate, and (e) from about 0.1% to about 1.0% of sodium chloride; wherein the use comprises applying said composition to a wound, optionally followed by applying a curative agent to the wound (a) from about 0.1% to about 2.5% of a meta-silicate, (b) from about 0.1% to about 2.0% of a carbonate, (c) from about 0.1% to about 1.0% of a gluconate, (d) from about 0.1% to about 1.0% of potassium aluminium sulfate, and (e) from about 0.1% to about 1.0% of sodium chloride;
A face orientation system of a ride, comprising: one or more sensors (114, 118, 119, 120); and a controller configured to: receive ride cart data from the one or more sensors, the ride cart data indicative of a presence and position of the ride cart on the ride; determine ride cart orientation based on the ride cart data; receive position data of a guest (210, 212) from the one or more sensors, the position data indicative of a position of a body, a face, or a combination thereof, of the guest; determine (262, 264, 266, 267) face orientation, face rotation, or a combination thereof, of the guest based at least in part upon the ride cart orientation and the position data; and transmit data indicative of the determined face orientation, face rotation, or a combination thereof to a downstream controller for subsequent control based upon the determined face orientation, face rotation, or the combination thereof. one or more sensors (114, 118, 119, 120); and a controller configured to: receive ride cart data from the one or more sensors, the ride cart data indicative of a presence and position of the ride cart on the ride; determine ride cart orientation based on the ride cart data; receive position data of a guest (210, 212) from the one or more sensors, the position data indicative of a position of a body, a face, or a combination thereof, of the guest; determine (262, 264, 266, 267) face orientation, face rotation, or a combination thereof, of the guest based at least in part upon the ride cart orientation and the position data; and transmit data indicative of the determined face orientation, face rotation, or a combination thereof to a downstream controller for subsequent control based upon the determined face orientation, face rotation, or the combination thereof. receive ride cart data from the one or more sensors, the ride cart data indicative of a presence and position of the ride cart on the ride; determine ride cart orientation based on the ride cart data; receive position data of a guest (210, 212) from the one or more sensors, the position data indicative of a position of a body, a face, or a combination thereof, of the guest; determine (262, 264, 266, 267) face orientation, face rotation, or a combination thereof, of the guest based at least in part upon the ride cart orientation and the position data; and transmit data indicative of the determined face orientation, face rotation, or a combination thereof to a downstream controller for subsequent control based upon the determined face orientation, face rotation, or the combination thereof.
A process for the mineralization of carbon dioxide to form a magnesium carbonate compound, which comprises contacting the carbon dioxide, in the free form or in the form of an alkali metal bicarbonate or carbonate, with an alkali metal magnesium silicate to produce the magnesium carbonate compound.