mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication by a wireless communication device, comprising: selecting (1100; 1200) a cyclic prefix overhead for orthogonal division multiple access, OFDMA, symbols to be transmitted in a broadcast, wherein the cyclic prefix overhead is selected from a series of fractional cyclic prefixes that are integer multiples of a unitary fraction having a denominator of 75 or 180; selecting (1101; 1201) a total duration including a cyclic prefix duration and a symbol duration for a symbol to be transmitted in a subframe, wherein the cyclic prefix duration is selected from one or more cyclic prefix durations determined to result in an integer number of carriers per resource block, RB, based on the series of fractional cyclic prefixes; and transmitting (1102; 1202) the OFDMA symbols using the integer number of carriers per RB. selecting (1100; 1200) a cyclic prefix overhead for orthogonal division multiple access, OFDMA, symbols to be transmitted in a broadcast, wherein the cyclic prefix overhead is selected from a series of fractional cyclic prefixes that are integer multiples of a unitary fraction having a denominator of 75 or 180; selecting (1101; 1201) a total duration including a cyclic prefix duration and a symbol duration for a symbol to be transmitted in a subframe, wherein the cyclic prefix duration is selected from one or more cyclic prefix durations determined to result in an integer number of carriers per resource block, RB, based on the series of fractional cyclic prefixes; and transmitting (1102; 1202) the OFDMA symbols using the integer number of carriers per RB.
Retaining dome for retaining a hearing aid or a hearing aid part in the ear of a user wearing the hearing aid, characterized in that the retaining dome comprises an indicator material, which changes perceptibly as a function of a duration of use of the retaining dome, so that the exceedance of a recommended maximum duration of use of the retaining dome is recognizable based on the change in the indicator material.
A medical thin-film mesh device covered with a medical thin-film mesh that comprises a plurality of spirals (3020, 3030, 5020, 5030, 7020, 7030, 9020, 9030, 1120), that are omni-directionally expandable, wherein each of the plurality of spirals comprises a plurality of spiral arms (3040, 3050, 5040, 5050, 7040, 7050, 9040, 9050, 1140).
A device (100, 300), comprising: a first module comprising a first hemispherical cap (118, 318) a first container (110, 310) and a first attacher; a first fragrance formulation contained by the first container (110, 310), when the first cap is in a closed position; a second module comprising a second container (130, 330) having a second hemispherical cap (138, 338) and a second attacher; a second fragrance formulation contained by the second container (130, 330), when the second cap is in a closed position; and a ring-shaped adaptor (102, 302) comprising a first feature (108, 356A) for attaching to the first module at the first attacher and a second feature (108, 356B) for attaching to the second module at the second attacher, wherein when the first and second modules are each attached to the adaptor and the caps are in a closed position, the device has a capsule shape and the first module opposes the second module and characterized in that the first module further comprises a first modular cap (124, 324) that receives the first hemispherical cap (118, 318), and the second module further comprises a second modular cap (142, 342) that receives the second hemispherical cap (138, 338). a first module comprising a first hemispherical cap (118, 318) a first container (110, 310) and a first attacher; a first fragrance formulation contained by the first container (110, 310), when the first cap is in a closed position; a second module comprising a second container (130, 330) having a second hemispherical cap (138, 338) and a second attacher; a second fragrance formulation contained by the second container (130, 330), when the second cap is in a closed position; and a ring-shaped adaptor (102, 302) comprising a first feature (108, 356A) for attaching to the first module at the first attacher and a second feature (108, 356B) for attaching to the second module at the second attacher, wherein when the first and second modules are each attached to the adaptor and the caps are in a closed position, the device has a capsule shape and the first module opposes the second module and characterized in that the first module further comprises a first modular cap (124, 324) that receives the first hemispherical cap (118, 318), and the second module further comprises a second modular cap (142, 342) that receives the second hemispherical cap (138, 338).
A computer implemented process for Earth observation and analysis, the process comprising: i) pre-processing remote sensing images by a) applying, on individual pixel locations a temporal signal processing filter (15, 17) to a time series of remote sensing images to smooth out the signal noise for each pixel within a year or with respect to growth cycles within a year and b) extracting within-year and/or across year descriptive statistics from image pixels of the remote sensing images to create input independent variables (47, 135) for use in a machine learning training process; ii) applying the machine learning training process to create a model which determines how the input independent variable values (47, 135) map to a range of possible target variable values (47, 135), through a regression process; iii) applying the model created in step ii) to a potentially new Area of Interest to predict target variable values (47, 135) for known independent variables (47, 135); and iv) generating output images corresponding to the specific regions defining the Area of Interest, for each of the target variables (47, 135) used in the machine learning training process; wherein the step of applying a machine learning training process comprises using a Random Forest machine learning software application (7, 97) which creates a 1 dimensional data array indexed by n samples in the data set, stores the information for each tree and collates the information for processing to improve RAM allocation and parallelizing in the software and processors used during the machine learning training process, wherein parallelizing is achieved by processing each tree through multi-threading to allow for N-fold parallelisation of the core tree growing part of the processing, giving an effective (N-1)-fold reduction in processing time. i) pre-processing remote sensing images by a) applying, on individual pixel locations a temporal signal processing filter (15, 17) to a time series of remote sensing images to smooth out the signal noise for each pixel within a year or with respect to growth cycles within a year and b) extracting within-year and/or across year descriptive statistics from image pixels of the remote sensing images to create input independent variables (47, 135) for use in a machine learning training process; ii) applying the machine learning training process to create a model which determines how the input independent variable values (47, 135) map to a range of possible target variable values (47, 135), through a regression process; iii) applying the model created in step ii) to a potentially new Area of Interest to predict target variable values (47, 135) for known independent variables (47, 135); and iv) generating output images corresponding to the specific regions defining the Area of Interest, for each of the target variables (47, 135) used in the machine learning training process;
A hydrogen gas producing apparatus, comprising: a container portion which receives water; a photocatalyst body, dispersed or placed in the water in the container portion, which has a photocatalyst material, which, when it is irradiated with light, generates excited electrons and electron holes, causing a water decomposition reaction in which water is decomposed into hydrogen and oxygen thereby generating hydrogen gas; a light source emitting light which is irradiated to the photocatalyst body and causes the water decomposition reaction; and a housing, made of a metal material, carrying the light source; wherein the housing is placed in the water in the container portion so that the water is warmed by waste heat of the light source discharged from the surface of the housing, and the surface of the housing in contact with the water is coated with a photocatalyst material. a container portion which receives water; a photocatalyst body, dispersed or placed in the water in the container portion, which has a photocatalyst material, which, when it is irradiated with light, generates excited electrons and electron holes, causing a water decomposition reaction in which water is decomposed into hydrogen and oxygen thereby generating hydrogen gas; a light source emitting light which is irradiated to the photocatalyst body and causes the water decomposition reaction; and a housing, made of a metal material, carrying the light source;
Sample media for the analysis of one or more analytes in a fluid test sample which comprises: a carrier; at least one test field on the surface of the carrier including at least one reagent reactive with the one or more analytes and capable of providing a detectable response; characterized in that a non-visible bar code formed by at least two distinct non-visible marker fields (60, 60a, 60b) is disposed on the carrier, the non-visible marker fields configured to reflect electro-magnetic radiation within one or more ranges of non-visible wavelengths to form a coded sequence of reflectances which sequence correlates to information concerning identification of the sample media; and a visible bar code formed by at least two distinct visible marker fields (504, 504a, 504b, 504c) is disposed on the carrier, the visible marker fields configured to reflect electro-magnetic radiation at ranges of wavelengths in the visible light spectrum and predetermined to form a coded sequence of reflectances which sequence correlates to other information concerning identification of the sample media. a carrier; at least one test field on the surface of the carrier including at least one reagent reactive with the one or more analytes and capable of providing a detectable response; characterized in that a non-visible bar code formed by at least two distinct non-visible marker fields (60, 60a, 60b) is disposed on the carrier, the non-visible marker fields configured to reflect electro-magnetic radiation within one or more ranges of non-visible wavelengths to form a coded sequence of reflectances which sequence correlates to information concerning identification of the sample media; and a visible bar code formed by at least two distinct visible marker fields (504, 504a, 504b, 504c) is disposed on the carrier, the visible marker fields configured to reflect electro-magnetic radiation at ranges of wavelengths in the visible light spectrum and predetermined to form a coded sequence of reflectances which sequence correlates to other information concerning identification of the sample media.
A method of handling service rejection for circuit switch service for a mobile device in a wireless communication system, the method comprising: receiving, at the mobile device, a service reject message with Evolved Packet System Mobility Management, EMM, cause #39 indicating circuit switch service temporarily not available, and a non zero timer value for a timer T3442 whose running state indicates that the mobile device is not allowed to send an extended service request message for a circuit switch service, from a network of the wireless communication system; and starting, at the mobile device, the timer T3442 with the non zero timer value; characterized by: sending, by the mobile device, the extended service request message for a packet service to the network even when the timer T3442 is running. receiving, at the mobile device, a service reject message with Evolved Packet System Mobility Management, EMM, cause #39 indicating circuit switch service temporarily not available, and a non zero timer value for a timer T3442 whose running state indicates that the mobile device is not allowed to send an extended service request message for a circuit switch service, from a network of the wireless communication system; and starting, at the mobile device, the timer T3442 with the non zero timer value; characterized by: sending, by the mobile device, the extended service request message for a packet service to the network even when the timer T3442 is running. sending, by the mobile device, the extended service request message for a packet service to the network even when the timer T3442 is running.
Cooling tower comprising at least one exchange surface on which water flows, and a water supply device comprising a water tank for each exchange surface, characterized in that the water supply device comprises a distribution edge connected to the water tank and positioned approximately parallel to one extremity of the exchange surface, wherein the supply of water goes from the water tank to the exchange surface between the distribution edge and said extremity of the exchange surface, and wherein the exchange surface is inclined by 2° to 10° from horizontal to generate a water film adhering to the exchange surface.
A controller for a dock leveller comprising a motor, wherein the controller is configured to determine when the dock leveller is approaching a maximally raised position, by detecting an increase in power consumption of the motor; wherein the controller is configured to determine a first time period (Tup) taken by the dock leveller to move from its resting position to its maximally raised position, to thereafter allow the dock leveller to lower for the determined first time period (Tup), to determine a second time period (Tdown) taken by the dock leveller to again move to its maximally raised position and to calculate a speed ratio of the dock leveller based on the first (Tup) and second (Tdown) time periods; and wherein the controller is configured to adjust operation time of the dock leveller based on the speed ratio and one or both of the acquired time periods (Tup, Tdown). wherein the controller is configured to determine a first time period (Tup) taken by the dock leveller to move from its resting position to its maximally raised position, to thereafter allow the dock leveller to lower for the determined first time period (Tup), to determine a second time period (Tdown) taken by the dock leveller to again move to its maximally raised position and to calculate a speed ratio of the dock leveller based on the first (Tup) and second (Tdown) time periods; and wherein the controller is configured to adjust operation time of the dock leveller based on the speed ratio and one or both of the acquired time periods (Tup, Tdown).
An inverter device intended to convert a DC voltage into a single-phase voltage, the inverter device comprising a low-pass filter, a measurement device, and four H-bridge power switches, said low-pass filter comprising a first capacitor and an inductance, said measurement device being configured to deliver a voltage corresponding to the superimposition of an input voltage applied to the terminals of the measurement device and to a voltage reflecting a current flowing in the first capacitor, at the terminals of which the input voltage is applied, the measurement device comprising: - a by-pass filter mounted parallel to the first capacitor and comprising a second capacitor and a first resistor mounted in series with the second capacitor; - a second resistor mounted parallel to the second capacitor; said bridge comprising two branches each comprising two switches connected in series, a first centre tap connecting the two switches of a first one of the two branches and a second centre tap connecting the two switches of a second one of the two branches, with the first centre tap being connected to a first terminal of the first capacitor via the inductance and the second centre tap being connected to a second terminal of the first capacitor. - a by-pass filter mounted parallel to the first capacitor and comprising a second capacitor and a first resistor mounted in series with the second capacitor; - a second resistor mounted parallel to the second capacitor;
An additive manufacturing machine (10, 100, 200, 300, 400, 500, 600), comprising: a resin support (22, 122, 222, 322, 422, 522, 622) which has at least a portion which is transparent, wherein the resin support (22, 122, 222, 322, 422, 522, 622) defines a build surface; a material depositor operable to deposit a resin which is radiant-energy-curable onto the build surface; at least two build stations, each build station including: a stage positioned adjacent the build surface and configured to hold a stacked arrangement of one or more cured layers of the resin; one or more actuators operable to manipulate a relative position of the stage and the build surface; and at least one radiant energy apparatus (16, 116) positioned opposite to the stage, and operable to generate and project radiant energy in a predetermined pattern. a resin support (22, 122, 222, 322, 422, 522, 622) which has at least a portion which is transparent, wherein the resin support (22, 122, 222, 322, 422, 522, 622) defines a build surface; a material depositor operable to deposit a resin which is radiant-energy-curable onto the build surface; at least two build stations, each build station including: a stage positioned adjacent the build surface and configured to hold a stacked arrangement of one or more cured layers of the resin; one or more actuators operable to manipulate a relative position of the stage and the build surface; and a stage positioned adjacent the build surface and configured to hold a stacked arrangement of one or more cured layers of the resin; one or more actuators operable to manipulate a relative position of the stage and the build surface; and at least one radiant energy apparatus (16, 116) positioned opposite to the stage, and operable to generate and project radiant energy in a predetermined pattern.
A rotary wing aircraft bearing to provide a constrained relative motion between a first rotary wing aircraft member and a second rotary wing aircraft member, said bearing including an elastomeric mold bonded laminated subassembly, said elastomeric mold bonded laminated subassembly including a plurality of mold bonded alternating layers of interior nonelastomeric shim members and interior elastomeric shim members, said interior elastomeric shim members including a first laminate end elastomeric shim and a distal second laminate end elastomeric shim (30"), said first laminate end elastomeric shim having a first side mold bonded to a first end interior nonelastomeric shim member and a second side mold bonded to a first metal first laminate end structural bond shim, said distal second laminate end elastomeric shim (30") having a first side mold bonded to a distal second end interior nonelastomeric shim member and a second side mold bonded to a second metal distal laminate end structural bond shim, said elastomeric mold bonded laminated subassembly having an elastomeric subassembly tensile strength ESTS between said first metal first laminate end structural bond shim and said second metal distal laminate end structural bond shim, said rotary wing aircraft bearing including a first end bearing connector first metal member for connecting to said first rotary wing aircraft member, characterized by a first end structural chemical adhesive post-elastomeric mold bond between said first end bearing connector first metal member and said first metal first laminate end structural bond shim, said first end structural chemical adhesive post-elastomeric mold bond having an elongation of at least 11 %, and a first end tensile strength FETS ≥ ESTS, said second metal distal laminate end structural bond shim mechanically grounded to said second rotary wing aircraft member.
An ultrasound imaging apparatus for identifying anatomical objects in a field of view, comprising: - an image interface for receiving 3D medical image data of a patient, - a segmentation unit for segmenting anatomical objects of the patient in the 3D medical image data and for providing segmentation data of the anatomical obj ects, - an ultrasound acquisition unit including an ultrasound probe for acquiring ultrasound data of the patient, - a position determining unit for determining an initial position of the ultrasound probe, wherein the position determining unit includes a calibration unit adapted to determine the initial position of the ultrasound probe as a calibrated position with respect to the segmentation data on the basis of anatomical features in the ultrasound data of the patient acquired at the initial position of the ultrasound probe, the initial position of the ultrasound probe and the segmentation data, and wherein the position determining unit is further configured to determine a current position of the ultrasound probe with respect to the calibrated position by detecting a distance and a direction of movement of the ultrasound probe with respect to the calibrated position, and - an identification unit for identifying the anatomical objects within the field of view of the ultrasound probe on the basis of the segmentation data and the current position of the ultrasound probe with respect to the calibrated position. - an image interface for receiving 3D medical image data of a patient, - a segmentation unit for segmenting anatomical objects of the patient in the 3D medical image data and for providing segmentation data of the anatomical obj ects, - an ultrasound acquisition unit including an ultrasound probe for acquiring ultrasound data of the patient, - a position determining unit for determining an initial position of the ultrasound probe, wherein the position determining unit includes a calibration unit adapted to determine the initial position of the ultrasound probe as a calibrated position with respect to the segmentation data on the basis of anatomical features in the ultrasound data of the patient acquired at the initial position of the ultrasound probe, the initial position of the ultrasound probe and the segmentation data, and wherein the position determining unit is further configured to determine a current position of the ultrasound probe with respect to the calibrated position by detecting a distance and a direction of movement of the ultrasound probe with respect to the calibrated position, and - an identification unit for identifying the anatomical objects within the field of view of the ultrasound probe on the basis of the segmentation data and the current position of the ultrasound probe with respect to the calibrated position.