mhurhangee/ep-ind-claims huggingface dataset:
A processor-implemented method of determining whether a gyroscope reading represents movement based on determining a noise variance associated with a signal of an axis of a gyroscope, the method comprising: representing a plurality of gyroscope readings for the axis in a histogram, the histogram including a plurality of bins associated with respective ranges; determining a bias for the axis of the gyroscope by identifying a concentration of the gyroscope readings within the histogram; determining a noise variance for the axis of the gyroscope based on features of the histogram and based on the determined bias; obtaining, by the processor, a gyroscope reading; and determining, based on the bias and the noise variance, whether the gyroscope reading represents a movement of the gyroscope by: determining a measure of the difference between the gyroscope reading and the bias; determining a variance threshold as the product of the noise variance and a predetermined value; and determining whether the determined difference is greater than the variance threshold and, if so, determining that the gyroscope reading represents a movement of the gyroscope. representing a plurality of gyroscope readings for the axis in a histogram, the histogram including a plurality of bins associated with respective ranges; determining a bias for the axis of the gyroscope by identifying a concentration of the gyroscope readings within the histogram; determining a noise variance for the axis of the gyroscope based on features of the histogram and based on the determined bias; obtaining, by the processor, a gyroscope reading; and determining, based on the bias and the noise variance, whether the gyroscope reading represents a movement of the gyroscope by: determining a measure of the difference between the gyroscope reading and the bias; determining a variance threshold as the product of the noise variance and a predetermined value; and determining whether the determined difference is greater than the variance threshold and, if so, determining that the gyroscope reading represents a movement of the gyroscope. determining a measure of the difference between the gyroscope reading and the bias; determining a variance threshold as the product of the noise variance and a predetermined value; and determining whether the determined difference is greater than the variance threshold and, if so, determining that the gyroscope reading represents a movement of the gyroscope.
A gas cylinder monitoring system comprising: a) a gas cylinder for receiving and distributing gas contained therein, b) a flow control valve associated with the gas cylinder operable to allow or prevent the flow of gas from said cylinder; c) a monitor for monitoring a signal from an input device; and d) an input device associated with said flow control valve comprising an environmental parameter sensor for detecting the presence or absence of an environmental parameter in the vicinity of the cylinder and being operably connected to the monitor for transmitting an environmental status signal thereto; e) a transmitter for transmitting a signal to a receiver obtained by the monitor from the input device; f) characterized by a removable cover covering both the flow control valve and the environmental parameter sensor such as to only allow access to the flow control valve upon removal of the cover. a) a gas cylinder for receiving and distributing gas contained therein, b) a flow control valve associated with the gas cylinder operable to allow or prevent the flow of gas from said cylinder; c) a monitor for monitoring a signal from an input device; and d) an input device associated with said flow control valve comprising an environmental parameter sensor for detecting the presence or absence of an environmental parameter in the vicinity of the cylinder and being operably connected to the monitor for transmitting an environmental status signal thereto; e) a transmitter for transmitting a signal to a receiver obtained by the monitor from the input device; f) characterized by a removable cover covering both the flow control valve and the environmental parameter sensor such as to only allow access to the flow control valve upon removal of the cover.
A method for selective enrichment of circulating tumor cells from a heterogeneous cell population originating from a biological sample comprising a bodily fluid, the method comprising: (a) contacting said heterogeneous cell population with a substrate; and (b) incubating said heterogeneous cell population under conditions sufficient to allow growth of said circulating tumor cells, wherein said conditions comprise incubating said heterogeneous cell population under a pressurised condition of 103.4 kPa (15 PSIA) or higher and hypoxic conditions, wherein said incubating results in a selective enrichment of said circulating tumor cells. (a) contacting said heterogeneous cell population with a substrate; and (b) incubating said heterogeneous cell population under conditions sufficient to allow growth of said circulating tumor cells, wherein said conditions comprise incubating said heterogeneous cell population under a pressurised condition of 103.4 kPa (15 PSIA) or higher and hypoxic conditions, wherein said incubating results in a selective enrichment of said circulating tumor cells.
A process for the preparation of a nicotinamide powder, comprising the steps of (a) providing an aqueous solution of nicotinamide, (b) spray drying the solution and (c) fluidizing the spray dried nicotinamide in a fluidized bed, wherein steps (b) and (c) are carried out in a fluidized spray dryer. (a) providing an aqueous solution of nicotinamide, (b) spray drying the solution and (c) fluidizing the spray dried nicotinamide in a fluidized bed,
A device for cutting a plate or panel of porous construction material, comprising: - movement means (3, 4) that move the plate or panel and comprise at least one conveyor, and which are able to move in a direction, - a wire intended to cut the plate or panel, - means (8, 9) of passing the wire in a direction perpendicular to the direction of travel of the plate or panel, the device for cutting being characterized in that it comprising holding means (5, 6, 7) that hold the plate or panel, the holding means comprising a vaccum holding system designed to move simultaneously with and in the same direction as the movement means (3, 4) that move the plate or panel. - movement means (3, 4) that move the plate or panel and comprise at least one conveyor, and which are able to move in a direction, - a wire intended to cut the plate or panel, - means (8, 9) of passing the wire in a direction perpendicular to the direction of travel of the plate or panel,
A machining jig that may hold a workpiece with respect to a tool that partially removes an outer peripheral surface of the workpiece, the machining jig comprising: a first jig including an inner peripheral surface having a shape similar to a contour of the workpiece and an outer peripheral surface including a first inclined section inclined with respect to an axial direction of the workpiece; a second jig including an inner peripheral surface including a second inclined section configured to be fitted to the first inclined section; a base to which the second jig is coaxially fixed; and a sliding mechanism that enables a large-diameter portion of the first inclined section and a small-diameter portion of the second inclined section to move toward and away from each other, wherein the sliding mechanism causes the small-diameter portion of the second inclined section to press the large-diameter portion of the first inclined section so that compressive stress can be applied to the outer peripheral surface of the workpiece at a position near a portion to be removed by the tool; characterised in that the machining jig further includes a retaining portion which includes an inner retaining portion that may be inserted in the workpiece to retain an inner peripheral surface of the workpiece. a first jig including an inner peripheral surface having a shape similar to a contour of the workpiece and an outer peripheral surface including a first inclined section inclined with respect to an axial direction of the workpiece; a second jig including an inner peripheral surface including a second inclined section configured to be fitted to the first inclined section; a base to which the second jig is coaxially fixed; and a sliding mechanism that enables a large-diameter portion of the first inclined section and a small-diameter portion of the second inclined section to move toward and away from each other, wherein the sliding mechanism causes the small-diameter portion of the second inclined section to press the large-diameter portion of the first inclined section so that compressive stress can be applied to the outer peripheral surface of the workpiece at a position near a portion to be removed by the tool; characterised in that the machining jig further includes a retaining portion which includes an inner retaining portion that may be inserted in the workpiece to retain an inner peripheral surface of the workpiece.
Mechanical steering lock for vehicles, comprising a lock cylinder which has a keyway, in which a key can be inserted in a locked position in order to release the lock cylinder, and which, after being released from the locked position, can be rotated through at least two defined rotation angle ranges (I, II, III) which each lead to one of a plurality of defined operating positions (1, 2), a locking bolt which is movably mounted in the steering lock in order to be translationally moved between a first position, in which said bolt engages in a ratchet wheel on a steering column in order to prevent the rotation of said column, and a second position, in which said bolt is completely disengaged from the ratchet wheel, wherein the locking bolt is mechanically coupled to the lock cylinder such that the rotation of the lock cylinder through at least two of the defined rotation angle ranges (I, II, III) moves the locking bolt from the first position into the second position, and a securing mechanism for the locking bolt, wherein the securing mechanism comprises a securing element which is mechanically associated with both the lock cylinder and the locking bolt and is movably mounted in the steering lock such that said securing mechanism can be moved from a release position into a detent step by inserting the key in the keyway, in which detent step said locking mechanism is in mechanical engagement with the locking bolt when said bolt is in the second position, and thus prevents the locking bolt from moving back into the first position as long as the key is in the keyway, and wherein the mechanical association of securing element and locking bolt is designed such that the securing element can be moved between the release position and the detent step into an intermediate detent step, in which said element prevents the locking bolt from moving back into the first position by means of mechanical engagement while the locking bolt is in a position between the first and second positions.
A method for reading data from a non-volatile mass storage device that operates in a direct data file access mode allowing a host system to access data from the non-volatile mass storage device on a file-by-file basis, wherein files are stored as file data and have entries in a file directory stored by the non-volatile mass storage device, the method comprising: determining that the non-volatile mass storage device has been connected to a host that is configured to access stored data using a virtual logical address space and, only as a result of said determining, performing logical configuration for the non-volatile mass storage device, wherein during the logical configuration file data is allocated addresses in a virtual logical address space such that files stored by the non-volatile mass storage device on the file-by-file basis are made accessible to the host via a logical interface using the virtual logical address space, wherein the file data stored on the file-by-file basis is accessed using both a file identifier identifying a file containing the file data and an offset address within the file; and providing the logical interface on the non-volatile mass storage device such that data associated with files identified in the file directory and stored on the non-volatile mass storage device as file data and identified to the non-volatile mass storage device by the host using virtual logical addresses in the virtual logical address space can be read by a host system. determining that the non-volatile mass storage device has been connected to a host that is configured to access stored data using a virtual logical address space and, only as a result of said determining, performing logical configuration for the non-volatile mass storage device, wherein during the logical configuration file data is allocated addresses in a virtual logical address space such that files stored by the non-volatile mass storage device on the file-by-file basis are made accessible to the host via a logical interface using the virtual logical address space, wherein the file data stored on the file-by-file basis is accessed using both a file identifier identifying a file containing the file data and an offset address within the file; and providing the logical interface on the non-volatile mass storage device such that data associated with files identified in the file directory and stored on the non-volatile mass storage device as file data and identified to the non-volatile mass storage device by the host using virtual logical addresses in the virtual logical address space can be read by a host system.
A printing system comprising: a substrate support having a plurality of apertures spaced apart from each other; a colour sensor moveable to measure light from each aperture; and a controller to: control the colour sensor to measure characteristics of light emitted through each aperture; and determine, for each aperture, light calibration data; wherein the printing system further comprises: a printing engine to print on a substrate; and a substrate advance mechanism; wherein the controller is further configured to: control the printing system to print, using the print engine, a predetermined set of colour patches on a substrate intended to be viewed using backlighting, each printed colour patch being alignable with an aperture; control the substrate advance mechanism to position the substrate such that at least some of the printed colour patches are located above a corresponding aperture; control the colour sensor to measure characteristics of light emitted through an aperture and corresponding colour patch; and determine, using the previously determined light calibration data for the aperture, calibrated colour patch light characteristic data. a substrate support having a plurality of apertures spaced apart from each other; a colour sensor moveable to measure light from each aperture; and a controller to: control the colour sensor to measure characteristics of light emitted through each aperture; and determine, for each aperture, light calibration data; control the colour sensor to measure characteristics of light emitted through each aperture; and determine, for each aperture, light calibration data; a printing engine to print on a substrate; and a substrate advance mechanism; wherein the controller is further configured to: control the printing system to print, using the print engine, a predetermined set of colour patches on a substrate intended to be viewed using backlighting, each printed colour patch being alignable with an aperture; control the substrate advance mechanism to position the substrate such that at least some of the printed colour patches are located above a corresponding aperture; control the colour sensor to measure characteristics of light emitted through an aperture and corresponding colour patch; and determine, using the previously determined light calibration data for the aperture, calibrated colour patch light characteristic data. control the printing system to print, using the print engine, a predetermined set of colour patches on a substrate intended to be viewed using backlighting, each printed colour patch being alignable with an aperture; control the substrate advance mechanism to position the substrate such that at least some of the printed colour patches are located above a corresponding aperture; control the colour sensor to measure characteristics of light emitted through an aperture and corresponding colour patch; and determine, using the previously determined light calibration data for the aperture, calibrated colour patch light characteristic data.
An EZH2 inhibitor for use in treatment of a non-Hodgkin's lymphoma wherein the NHL is diffuse large B-cell lymphoma (DLBCL), and wherein the EZH2 inhibitor is EPZ-6438 having the following formula: or a pharmaceutically acceptable salt thereof.
A method for providing notice to a user of a hearing device, the method being performed by a hearing system comprising the hearing device and the method comprising: extracting an own voice signal of the user from an audio signal acquired with a microphone of the hearing device; determining a sound level of the own voice signal; determining an acoustic situation of the user; determining at least one of a minimum threshold and a maximum threshold for the sound level of the own voice signal from the acoustic situation of the user; notifying the user, when the sound level is at least one of lower than the minimum threshold and higher than the maximum threshold respectively. extracting an own voice signal of the user from an audio signal acquired with a microphone of the hearing device; determining a sound level of the own voice signal; determining an acoustic situation of the user; determining at least one of a minimum threshold and a maximum threshold for the sound level of the own voice signal from the acoustic situation of the user; notifying the user, when the sound level is at least one of lower than the minimum threshold and higher than the maximum threshold respectively.
A magnetic hearing device, comprising: at least one housing; an electromagnetic ("EM") transducer disposed within or attached to the housing, and a magnetic spacer configured to be: (i) mechanically and acoustically coupled to the EM transducer, and (ii) adapted to be magnetically coupled, through a patient's skin, to an implantable member suitable for being fixed to the patient's skull and containing a pair of implanted magnets (60a, 60b); wherein the magnetic spacer comprises two recesses (56a, 56b) configured to removably receive a respective stack of magnetic members (55a, 55b), the number of magnetic members (55a, 55b) of each stack being adjustable so as to obtain a magnetic coupling force of between about 0.5 Newtons and about 3 Newtons accomplished by the magnetic members (55a, 55b) and the corresponding implanted magnets (60a, 60b). at least one housing; an electromagnetic ("EM") transducer disposed within or attached to the housing, and a magnetic spacer configured to be: (i) mechanically and acoustically coupled to the EM transducer, and (ii) adapted to be magnetically coupled, through a patient's skin, to an implantable member suitable for being fixed to the patient's skull and containing a pair of implanted magnets (60a, 60b); wherein the magnetic spacer comprises two recesses (56a, 56b) configured to removably receive a respective stack of magnetic members (55a, 55b), the number of magnetic members (55a, 55b) of each stack being adjustable so as to obtain a magnetic coupling force of between about 0.5 Newtons and about 3 Newtons accomplished by the magnetic members (55a, 55b) and the corresponding implanted magnets (60a, 60b).
A circuit for a Synthetic Physically Unclonable Function in a computer device, wherein the circuit is configured to: - receive data from a plurality of sensors in the computer device; - determine intrinsic noise for each of said sensors based on the received data; - determine the distribution of each said intrinsic noise; - select a combination of sensors from the plurality of sensors based on the determined distributions of intrinsic noises; - determine a multivariate statistical distribution associated with the combination of intrinsic noises of the selected combination of sensors; - determine an identifier from said multivariate statistical distribution of noise. - receive data from a plurality of sensors in the computer device; - determine intrinsic noise for each of said sensors based on the received data; - determine the distribution of each said intrinsic noise; - select a combination of sensors from the plurality of sensors based on the determined distributions of intrinsic noises; - determine a multivariate statistical distribution associated with the combination of intrinsic noises of the selected combination of sensors; - determine an identifier from said multivariate statistical distribution of noise.
A molecule, N -(3-chloro-1-(pyridin-3-yl)-1 H -pyrazol-4-yl)-2-(methylsulfonyl)propanamide, having the following formula (Formula One): and N-oxides, agriculturally-acceptable acid addition salts, salt derivatives, solvates, ester derivatives, polymorphs, isotopes, resolved stereoisomers, and tautomers, and radionuclides thereof.
Method for detecting a cut break when cutting a workpiece with a high energy beam, in particular with a laser beam, comprising: recording an image of a region of the workpiece to be monitored, which comprises an interaction region of the high energy beam with the workpiece, characterized by evaluating the recorded image to detect slag droplets at an end of the interaction region opposite a cutting front, which droplets flow rearward towards the upper side of the workpiece, counter to a feed direction (v), and emerge there from a cut gap formed during cutting, and detecting the cut break based on the occurrence of the slag droplets. recording an image of a region of the workpiece to be monitored, which comprises an interaction region of the high energy beam with the workpiece, characterized by evaluating the recorded image to detect slag droplets at an end of the interaction region opposite a cutting front, which droplets flow rearward towards the upper side of the workpiece, counter to a feed direction (v), and emerge there from a cut gap formed during cutting, and detecting the cut break based on the occurrence of the slag droplets.