mhurhangee/ep-ind-claims huggingface dataset:
A method for a communications device operation, the method comprising: receiving, by a mobile station, a pilot (405,505,605) transmitted by a serving base station of the mobile station; computing, by the mobile station, a channel estimate for a channel between the base station and the mobile station, the computing being based on the pilot; determining, by the mobile station, whether an instruction issued by the base station is received, if yes, computing a channel correlation matrix (417,510, 607) for the channel based on the channel estimate; transmitting, by the mobile station, a reduced rank representation of the channel correlation matrix (525,613) to the base station as a first feedback information; adapting, by the mobile station, a first codebook based on the reduced rank representation of the channel correlation matrix; computing, by the mobile station, a representation of the channel using the adapted first codebook; transmitting, by the mobile station, the representation of the channel as a second feedback information; and receiving, by the mobile station, a transmission beamformed (421,530) based on the first feedback information and the second feedback information. receiving, by a mobile station, a pilot (405,505,605) transmitted by a serving base station of the mobile station; computing, by the mobile station, a channel estimate for a channel between the base station and the mobile station, the computing being based on the pilot; determining, by the mobile station, whether an instruction issued by the base station is received, if yes, computing a channel correlation matrix (417,510, 607) for the channel based on the channel estimate; transmitting, by the mobile station, a reduced rank representation of the channel correlation matrix (525,613) to the base station as a first feedback information; adapting, by the mobile station, a first codebook based on the reduced rank representation of the channel correlation matrix; computing, by the mobile station, a representation of the channel using the adapted first codebook; transmitting, by the mobile station, the representation of the channel as a second feedback information; and receiving, by the mobile station, a transmission beamformed (421,530) based on the first feedback information and the second feedback information.
A computer-implemented method for separating simultaneous source composite data containing data responses to at least two sources, the method comprising: 1) sorting the composite data into gathers aligned with a first source of the at least two sources in a time-space domain; 2) transforming the composite data from the time-space domain into a frequency-space domain; and 3) setting a reference frequency to a first frequency in the composite data in the frequency-space domain and selecting a plurality of frequencies around the reference frequency; characterized in that the method further comprises: 4) forming multi-frequency sets of basis functions, one set for each of the at least two sources, each multi-frequency set of basis functions including basis functions at multiple frequencies; 5) forming an operator matrix A from the basis functions, wherein operator matrix A contains matrices A S 1 and A S 2 corresponding to the first source and a second source of the at least two sources respectively; 6) solving an optimization problem of Am-d to derive model vector m, wherein d is the data, and model vector m contains m S 1 and m S 2 representing each of the at least two sources; 7) deriving separated source data for the source 1, wherein the separated data is the product of the source vector m S 1 and the operator matrix A S 1, 8) repeating 3) to 7) using other reference frequencies; and 9) transforming the separated data from frequency-space domain into time-space domain. 1) sorting the composite data into gathers aligned with a first source of the at least two sources in a time-space domain; 2) transforming the composite data from the time-space domain into a frequency-space domain; and 3) setting a reference frequency to a first frequency in the composite data in the frequency-space domain and selecting a plurality of frequencies around the reference frequency; 4) forming multi-frequency sets of basis functions, one set for each of the at least two sources, each multi-frequency set of basis functions including basis functions at multiple frequencies; 5) forming an operator matrix A from the basis functions, wherein operator matrix A contains matrices A S 1 and A S 2 corresponding to the first source and a second source of the at least two sources respectively; 6) solving an optimization problem of Am-d to derive model vector m, wherein d is the data, and model vector m contains m S 1 and m S 2 representing each of the at least two sources; 7) deriving separated source data for the source 1, wherein the separated data is the product of the source vector m S 1 and the operator matrix A S 1, 8) repeating 3) to 7) using other reference frequencies; and 9) transforming the separated data from frequency-space domain into time-space domain.
A torsion carrier having at least two layers, each consisting of at least one spiral coil (1, 3) made of composite fiber material, wherein at least two layers have a counterrotating spiral coil orientation and at least one spacing elastic intermediate layer is arranged between said layers, wherein gaps (4, 5) are at least partially provided between adjacent spiral coils of a layer (1, 3), and/or a filling (2c1, 2c3) of elastic filling material is at least partially arranged between adjacent spiral coils of a layer, and/or an elastic intermediate layer at least partially extends into the region between adjacent spiral coils of a layer.
A drill string element for use in the drilling of a borehole having a wall, the drill string element comprising: a main body defining a central bore; and characterised in that the drill string element further comprises: an actuatable flow control mechanism, wherein the drill string element defines a first aperture, another aperture and a passage configured to provide a fluid flow path between the first aperture and the other aperture, the first and other apertures (161,162) provide fluid communication between a volume around the drill string element and the passage, and the flow control mechanism is configured to inhibit flow of fluid through the passage in a first operating mode and to permit flow of fluid through the passage in a second operating mode. an actuatable flow control mechanism, wherein the drill string element defines a first aperture, another aperture and a passage configured to provide a fluid flow path between the first aperture and the other aperture, the first and other apertures (161,162) provide fluid communication between a volume around the drill string element and the passage, and the flow control mechanism is configured to inhibit flow of fluid through the passage in a first operating mode and to permit flow of fluid through the passage in a second operating mode.
An information processing program that causes at least one computer to execute a process, the process comprising: training a first machine learning model by using first training data to generate a trained machine learning model; generating additional data by inputting meaningless data to the first machine learning model which has been trained with the first training data; changing a number of pieces of at least one data selected from the first training data and the additional data so that a ratio of pieces of the additional data to pieces of the first training data to be a certain value (a) by up-sampling or down-sampling of at least one of the first training data and the additional data (S5, S6); acquiring second training data by combining the first training data and the additional data; and retraining the first machine learning model by using the second training data. training a first machine learning model by using first training data to generate a trained machine learning model; generating additional data by inputting meaningless data to the first machine learning model which has been trained with the first training data; changing a number of pieces of at least one data selected from the first training data and the additional data so that a ratio of pieces of the additional data to pieces of the first training data to be a certain value (a) by up-sampling or down-sampling of at least one of the first training data and the additional data (S5, S6); acquiring second training data by combining the first training data and the additional data; and retraining the first machine learning model by using the second training data.
A method performed by a wireless terminal for facilitating handover of the wireless terminal in a wireless system, the method comprising: determining a measurement set, wherein the measurement set comprises a set of base stations, the set of base stations are target base stations for handoff; receiving an uplink, UL, channel quality metrics of a target base station; retaining a handover fitness score associated with a source of the received UL channel quality metrics, wherein the handover fitness score is a function of a differential channel quality amongst the target base station and a serving base station; conveying a sounding reference signal to the target base station in the set of base stations when the handover fitness score associated with the target base station is above a threshold; and establishing a handoff based at least in part on the received UL channel quality metrics and the retained handover fitness score. determining a measurement set, wherein the measurement set comprises a set of base stations, the set of base stations are target base stations for handoff; receiving an uplink, UL, channel quality metrics of a target base station; retaining a handover fitness score associated with a source of the received UL channel quality metrics, wherein the handover fitness score is a function of a differential channel quality amongst the target base station and a serving base station; conveying a sounding reference signal to the target base station in the set of base stations when the handover fitness score associated with the target base station is above a threshold; and establishing a handoff based at least in part on the received UL channel quality metrics and the retained handover fitness score.
A non-combustion type flavor inhaler comprising: a housing having an airflow path continuing from an inlet to an outlet; an atomizing part that atomizes an aerosol source without burning; a sensor outputting a value that changes according to a user's puff operation; and a control unit that controls a power supply output to the atomizing part based on an absolute value of a ratio of an amount of change of a value output from the sensor or of a value derived from the value output from the sensor to time taken for the change such that an aerosol amount falls within a desired range, wherein the aerosol amount is an amount of an aerosol to be atomized by the atomizing part in one energization to the atomizing part, characterizing in that: the control unit increases the magnitude of the power supply output to the atomizing part as the absolute value of the ratio is larger. a housing having an airflow path continuing from an inlet to an outlet; an atomizing part that atomizes an aerosol source without burning; a sensor outputting a value that changes according to a user's puff operation; and a control unit that controls a power supply output to the atomizing part based on an absolute value of a ratio of an amount of change of a value output from the sensor or of a value derived from the value output from the sensor to time taken for the change such that an aerosol amount falls within a desired range, wherein the aerosol amount is an amount of an aerosol to be atomized by the atomizing part in one energization to the atomizing part, characterizing in that: the control unit increases the magnitude of the power supply output to the atomizing part as the absolute value of the ratio is larger.
A control apparatus for a medical device, having at least one sensor for three-dimensional detection of an object, the object being designed to allow its position and, by its orientation, a vector for a direction to be detected, where the object is directed at a target area, and the vector originating from the object forms a point of intersection with a surface of the target area, the control apparatus is configured to detect in which target area the point of intersection lies and to trigger an action by the medical device, which action has been predetermined for that target area, where the control apparatus is configured to process a predetermined registration movement of the object (8, 8') such that the further predetermined movements of the object (8, 8') are converted into the control command for the predetermined action of the medical device, and to process a predetermined deregistration movement of the object (8, 8') such that no further movements of the object (8, 8') are converted into a control command for an action of the medical device, wherein the control apparatus is configured to process specific gestures as the predetermined registration movement and the predetermined deregistration movement, with gestures being movements of hands as objects. the object is directed at a target area, and the vector originating from the object forms a point of intersection with a surface of the target area, the control apparatus is configured to detect in which target area the point of intersection lies and to trigger an action by the medical device, which action has been predetermined for that target area, where the control apparatus is configured to process a predetermined registration movement of the object (8, 8') such that the further predetermined movements of the object (8, 8') are converted into the control command for the predetermined action of the medical device, and to process a predetermined deregistration movement of the object (8, 8') such that no further movements of the object (8, 8') are converted into a control command for an action of the medical device, wherein the control apparatus is configured to process specific gestures as the predetermined registration movement and the predetermined deregistration movement, with gestures being movements of hands as objects.
A lubricating oil composition for a 4-stroke trunk piston medium speed compression-ignited marine engine, comprising an admixture of: an oil of lubricating viscosity, in a major amount; and an oil soluble overbased metal detergent additive, in a minor amount, in the form of a complex wherein the basic material of the detergent is stabilised by more than one surfactant, wherein at least one of the surfactants is a salicylate; the composition being dispersant-free or containing less than 0.5 mass %, based on the mass of the composition, of a dispersant; and the composition having a TBN in the range of 8 to 100 as measured by ASTM D2896. an oil of lubricating viscosity, in a major amount; and an oil soluble overbased metal detergent additive, in a minor amount, in the form of a complex wherein the basic material of the detergent is stabilised by more than one surfactant, wherein at least one of the surfactants is a salicylate;
A phosphor-converted light emitting device, comprising: a light emitting device; and a thin-film phosphor layer disposed in an optical path of the light emitting device, wherein a thickness of the thin-film phosphor layer is in the range of 1 nm to 100 μm, and the thin-film phosphor layer includes: a first phosphor powder layer including first phosphor particles; and a first polymer layer adjacent to the first phosphor powder layer, the first polymer layer serving as a binder for the first phosphor particles, wherein a cavity or an air gap (71, 73, 75) is between the light emitting device and the thin-film phosphor layer, wherein the first polymer layer includes a polymer including a repeating unit of the formula: -CZZ'-Ar-CZ"Z"'-,wherein Ar is selected from an un-substituted phenylene group, a chlorine-substituted phenylene group of the formula: C 6 H 4-x Cl x, with x being an integer in the range of 1 to 4, and a fluorine-substituted phenylene group of the formula: C 6 H 4-x' F x', with x' being an integer in the range of 1 to 4, and Z, Z', Z", and Z"' are independently selected from H, F, alkyl groups, and aryl groups. a light emitting device; and a thin-film phosphor layer disposed in an optical path of the light emitting device, wherein a thickness of the thin-film phosphor layer is in the range of 1 nm to 100 μm, and the thin-film phosphor layer includes: a first phosphor powder layer including first phosphor particles; and a first polymer layer adjacent to the first phosphor powder layer, the first polymer layer serving as a binder for the first phosphor particles, wherein a cavity or an air gap (71, 73, 75) is between the light emitting device and the thin-film phosphor layer, wherein the first polymer layer includes a polymer including a repeating unit of the formula: -CZZ'-Ar-CZ"Z"'-,wherein Ar is selected from an un-substituted phenylene group, a chlorine-substituted phenylene group of the formula: C 6 H 4-x Cl x, with x being an integer in the range of 1 to 4, and a fluorine-substituted phenylene group of the formula: C 6 H 4-x' F x', with x' being an integer in the range of 1 to 4, and Z, Z', Z", and Z"' are independently selected from H, F, alkyl groups, and aryl groups. a first phosphor powder layer including first phosphor particles; and a first polymer layer adjacent to the first phosphor powder layer, the first polymer layer serving as a binder for the first phosphor particles, wherein a cavity or an air gap (71, 73, 75) is between the light emitting device and the thin-film phosphor layer, wherein the first polymer layer includes a polymer including a repeating unit of the formula: -CZZ'-Ar-CZ"Z"'-,wherein Ar is selected from an un-substituted phenylene group, a chlorine-substituted phenylene group of the formula: C 6 H 4-x Cl x, with x being an integer in the range of 1 to 4, and a fluorine-substituted phenylene group of the formula: C 6 H 4-x' F x', with x' being an integer in the range of 1 to 4, and Z, Z', Z", and Z"' are independently selected from H, F, alkyl groups, and aryl groups.
A damper assembly for minimizing heat loss from a heat recovery steam generator through an exhaust stack of the heat recovery steam generator of a power plant during shut down periods of the power plant, the damper assembly comprising: a housing mounted within the stack; and an umbrella received within the housing; characterized in that the umbrella is selectively movable between a first position in which the umbrella is received within the housing, and second position in which the umbrella is extended from the housing such that a peripheral edge of the umbrella is in close association with an interior sidewall of the exhaust stack to minimize a flow of fluid past the umbrella and out of the stack. a housing mounted within the stack; and an umbrella received within the housing; characterized in that the umbrella is selectively movable between a first position in which the umbrella is received within the housing, and second position in which the umbrella is extended from the housing such that a peripheral edge of the umbrella is in close association with an interior sidewall of the exhaust stack to minimize a flow of fluid past the umbrella and out of the stack.
An information communication terminal including a peripheral device cooperative application and a plurality of service applications adapted to cooperate with a plurality of connected peripheral devices via the peripheral device cooperative application, and wherein the peripheral device cooperative application comprises: a reception unit configured to receive, from each of the plurality of peripheral devices, a first setting value of a notification setting, wherein the notification setting is for determining an operation of each peripheral device when each peripheral device receives data; a peripheral device setting storage unit configured to store the received first setting value of the notification setting; a service application setting storage unit configured to store a second setting value of the notification setting for determining an operation of the peripheral device when the peripheral device receives data from a service application, by using the first setting value of the notification settings stored in the peripheral device setting storage unit as an initial value; a control unit configured to assign, when data transmitted from the service application to at least one peripheral device are received, a setting value of the notification setting for determining an operation of the at least one peripheral device to the data on the basis of the second setting value of the notification setting stored in the service application setting storage unit; and a transmission unit configured to transmit the data to which the setting value of the notification setting is assigned to the at least one peripheral device so as to cause an output unit of the at least one peripheral device to output a notification. a reception unit configured to receive, from each of the plurality of peripheral devices, a first setting value of a notification setting, wherein the notification setting is for determining an operation of each peripheral device when each peripheral device receives data; a peripheral device setting storage unit configured to store the received first setting value of the notification setting; a service application setting storage unit configured to store a second setting value of the notification setting for determining an operation of the peripheral device when the peripheral device receives data from a service application, by using the first setting value of the notification settings stored in the peripheral device setting storage unit as an initial value; a control unit configured to assign, when data transmitted from the service application to at least one peripheral device are received, a setting value of the notification setting for determining an operation of the at least one peripheral device to the data on the basis of the second setting value of the notification setting stored in the service application setting storage unit; and
A connection, having a shaft, at least partially inserted in a hollow shaft, and a ring part, in particular of a clamping ring, placed onto the hollow shaft, wherein the ring part is axially bounded by a radially projecting collar formed on the hollow shaft or the ring part rests against a collar, formed on the hollow shaft and radially projecting, wherein the hollow shaft has slots, in particular axial slots, spaced apart from the collar, wherein the ring part has a bevel at its axial end region facing the collar, so that the inner diameter of the ring part is greater in the axial region covered by the bevel than the inner diameter of the ring part in that axial region in which the ring part contacts the hollow shaft, wherein the bevel is in the form of a bevel in the form of a curved taper, which arises through rotation of a curved curve portion which is an elliptical portion, wherein the bevel smoothly becomes that region of the ring part which contacts the hollow shaft.