mhurhangee/patent-ind-claim-en huggingface dataset:
Robotized construction system with a cartesian robot , that comprises: • Two horizontal beams located on vertical supports such that any point of a storey of a building to be built is located under and between the beams, • One or more bridge beams arranged between the horizontal beams and designed to move along the said horizontal beams , • One or more carts arranged on each of the said bridge beams and designed to move along the said bridge beams , • A device of electric supply ; • One or more extendible columns coupled to one of the said carts , • One or more overhanging arms , each of the said overhanging arms is provided with one or more degrees of freedom and is coupled to a free end of one of the extendible columns , • One or more fabrication tools , arranged on the overhanging arms and comprising one or more nozzles , • A plurality of actuators that move the bridge beams , the carts , the overhanging arms and extend or retract the extendible columns , • A plurality of position sensors of the bridge beams , the carts and the overhanging arms , • A programmable controller that at least controls the actuators and receives data from at least the position sensors; and • A device of simultaneous supply of one or more fluid construction materials hydraulically coupled to the one or more nozzles , characterized in that when the one or more bridge beams are positioned at a working position above an uppermost storey of the construction to be built, the one or more extendible columns are long enough to allow the one or more nozzles to deposit multiple layers of the fluid construction material on top of another to generate vertical elements or horizontal elements to complete the storey of the construction to be built from that working position. • Two horizontal beams located on vertical supports such that any point of a storey of a building to be built is located under and between the beams, • One or more bridge beams arranged between the horizontal beams and designed to move along the said horizontal beams , • One or more carts arranged on each of the said bridge beams and designed to move along the said bridge beams , • A device of electric supply ; • One or more extendible columns coupled to one of the said carts , • One or more overhanging arms , each of the said overhanging arms is provided with one or more degrees of freedom and is coupled to a free end of one of the extendible columns , • One or more fabrication tools , arranged on the overhanging arms and comprising one or more nozzles , • A plurality of actuators that move the bridge beams , the carts , the overhanging arms and extend or retract the extendible columns , • A plurality of position sensors of the bridge beams , the carts and the overhanging arms , • A programmable controller that at least controls the actuators and receives data from at least the position sensors; and • A device of simultaneous supply of one or more fluid construction materials hydraulically coupled to the one or more nozzles ,
A processor device comprising: an image acquisition unit that acquires a plurality of images obtained by imaging an observation object with a plurality of illumination light beams having different wavelength ranges, respectively; a control unit configured to perform designation of the type and the light emission amount of the illumination light for a light source control unit; an oxygen saturation calculation unit that calculates an oxygen saturation of the observation object, based on data being either a look-up table or a predetermined calculation formula; a correction unit that corrects the data that the oxygen saturation calculation unit uses for the calculation of the oxygen saturation, using the image; a determination unit that determines a success or failure of the correction using the image or the light emission amount; and a warning unit that performs warning in a case where a determination result obtained by the determination unit is a failure. an image acquisition unit that acquires a plurality of images obtained by imaging an observation object with a plurality of illumination light beams having different wavelength ranges, respectively; a control unit configured to perform designation of the type and the light emission amount of the illumination light for a light source control unit; an oxygen saturation calculation unit that calculates an oxygen saturation of the observation object, based on data being either a look-up table or a predetermined calculation formula; a correction unit that corrects the data that the oxygen saturation calculation unit uses for the calculation of the oxygen saturation, using the image; a determination unit that determines a success or failure of the correction using the image or the light emission amount; and a warning unit that performs warning in a case where a determination result obtained by the determination unit is a failure.
Computer implemented method for determining at least one physical and/or chemical characteristic of a keratinous surface of a user, said characteristic being a hair tone, the method comprising the steps of : - receiving data corresponding to at least one image of the keratinous surface encoded in a RGB or CMYK or another color space, said image picturing an area of the scalp of the user comprising hairs, said image being a macro image shot at a magnification ratio of 1:1 or higher, - applying a pre-processing segmentation step configured to identify at least one hair segment, - processing the image by transforming color values of the at least one identified hair segment into CIELAB color space by applying machine learning model before applying successively at least one second machine learning model trained accordingly to evaluate said characteristic of the keratinous surface from median L* values of the pixels of the at least one identified hair segment, - returning at least one numerical value corresponding to a grade of the characteristic of the keratinous surface to be determined. - receiving data corresponding to at least one image of the keratinous surface encoded in a RGB or CMYK or another color space, said image picturing an area of the scalp of the user comprising hairs, said image being a macro image shot at a magnification ratio of 1:1 or higher, - applying a pre-processing segmentation step configured to identify at least one hair segment, - processing the image by transforming color values of the at least one identified hair segment into CIELAB color space by applying machine learning model before applying successively at least one second machine learning model trained accordingly to evaluate said characteristic of the keratinous surface from median L* values of the pixels of the at least one identified hair segment, - returning at least one numerical value corresponding to a grade of the characteristic of the keratinous surface to be determined.
A drug for use in treating or preventing ectopic ossification, wherein the drug inhibits protease-activated receptor 1.
A gastric retention device comprising: a central elastic polymeric component coupled to between three and eight loadable polymeric components, each loadable polymeric component projecting radially from the central elastic polymeric component to form a star-like cross-sectional shape, wherein each of the loadable polymeric components is coupled to the central elastic polymeric component, wherein a first degradable linker is present in each loadable polymeric component near or at the interface with the elastic polymeric component. a central elastic polymeric component coupled to between three and eight loadable polymeric components, each loadable polymeric component projecting radially from the central elastic polymeric component to form a star-like cross-sectional shape, wherein each of the loadable polymeric components is coupled to the central elastic polymeric component, wherein a first degradable linker is present in each loadable polymeric component near or at the interface with the elastic polymeric component.
A method of selecting a needle with an injection length for subcutaneous injection of a therapeutic agent at a body location, comprising, with a skinfold caliper: measuring the width SF of a skin fold at the body location; determining a depth of body fat at the body location as SF / 2 + f p + f SF ∗ SF , wherein, f(p) is an adjustment factor for tissue compression at the body location, and f(SF) ∗ SF is an adjustment factor for the size of the skin fold measurement, and wherein f(p) is selected from about 0.1 to 4 mm and f(SF) is from about 0.01 to about 0.5; correlating the determined depth of body fat to a needle injection length suited to position an anterior opening of the needle within the subcutis at the body location; and outputting the correlated needle injection length. measuring the width SF of a skin fold at the body location; determining a depth of body fat at the body location as SF / 2 + f p + f SF ∗ SF , wherein, f(p) is an adjustment factor for tissue compression at the body location, and f(SF) ∗ SF is an adjustment factor for the size of the skin fold measurement, and wherein f(p) is selected from about 0.1 to 4 mm and f(SF) is from about 0.01 to about 0.5; correlating the determined depth of body fat to a needle injection length suited to position an anterior opening of the needle within the subcutis at the body location; and outputting the correlated needle injection length.
A sensor management unit for receiving, from at least one sensor device installed external to the sensor management unit, sensing data generated by the at least one sensor device monitoring a target, the sensing data including background noise data representing noise from a cause other than the target, the sensor management unit comprising: a background noise data obtaining unit configured to obtain the background noise data; a reliability determination unit configured to determine a reliability of the sensing data based on the background noise data; and a determination result output unit configured to output a result of the determination performed by the reliability determination unit , wherein the background noise data obtaining unit is configured to obtain the background noise data by sorting sensing data pieces obtained through sensing performed over time based on the values indicated by the sensing data pieces. a background noise data obtaining unit configured to obtain the background noise data; a reliability determination unit configured to determine a reliability of the sensing data based on the background noise data; and a determination result output unit configured to output a result of the determination performed by the reliability determination unit , wherein the background noise data obtaining unit is configured to obtain the background noise data by sorting sensing data pieces obtained through sensing performed over time based on the values indicated by the sensing data pieces.
A computer-implemented method of encoding a point cloud to generate a bitstream of compressed point cloud data, the point cloud being defined in a tree structure having a plurality of nodes having parent-child relationships and that represent the geometry of a volumetric space recursively split into sub-volumes and containing the points of the point cloud, the method comprising: for each of a plurality of current nodes, each current node associated with a said sub-volume split into further sub-volumes, and each further sub-volume corresponding to a child node of the current node: determining an occupancy pattern for the current node based on occupancy statuses of the child nodes indicated by an occupancy flag for each child node, wherein the occupancy pattern is specified by an integer representing a sequence of said occupancy flags associated with the child nodes in a pre-defined scan order; selecting one or more probabilities associated with respective entropy coders for entropy encoding the occupancy pattern, wherein the selecting is based on occupancy data for a plurality of neighbouring nodes of the current node and on occupancy data for child nodes of at least one of the plurality of neighbouring nodes; and entropy encoding the occupancy pattern based on the selected one or more probabilities, using the associated one or more entropy coders, to produce encoded data for the bitstream, wherein the selecting the one or more probabilities is based on a neighbouring configuration that is determined based on an occupancy status of each of the neighbouring nodes of the current node, and wherein the neighbouring nodes of the current nodes are those nodes that are at the same depth in the tree structure as the current node and whose associated sub-volumes intersect the sub-volume of the current node. determining an occupancy pattern for the current node based on occupancy statuses of the child nodes indicated by an occupancy flag for each child node, wherein the occupancy pattern is specified by an integer representing a sequence of said occupancy flags associated with the child nodes in a pre-defined scan order; selecting one or more probabilities associated with respective entropy coders for entropy encoding the occupancy pattern, wherein the selecting is based on occupancy data for a plurality of neighbouring nodes of the current node and on occupancy data for child nodes of at least one of the plurality of neighbouring nodes; and entropy encoding the occupancy pattern based on the selected one or more probabilities, using the associated one or more entropy coders, to produce encoded data for the bitstream, wherein the selecting the one or more probabilities is based on a neighbouring configuration that is determined based on an occupancy status of each of the neighbouring nodes of the current node, and wherein the neighbouring nodes of the current nodes are those nodes that are at the same depth in the tree structure as the current node and whose associated sub-volumes intersect the sub-volume of the current node.
Electronic device (22; 32) for measuring a physical parameter comprising: - an analogue sensor formed from a passive differential electrical component (C1, C2), the value of which varies as a function of the physical parameter, - an excitation circuit (26; 36) of the analogue sensor arranged in order to provide, to the passive differential electrical component, at least one first electrical excitation signal , - a measuring circuit comprising an amplifier which, connected to a feedback loop forming this measuring circuit, is provided in order to generate, at output, an electrical voltage (V out ) which is a certain function of said value of said passive differential electrical component, and - a circuit for compensating for an offset of said passive differential electrical component, this compensation circuit comprising a first passive electrical component (Cos1; Cos2), said excitation circuit (26 ; 36) being arranged in order to provide, to this first passive electrical component, a second electrical excitation signal (28; 18) ; characterised in that said excitation circuit is arranged in order to be able to provide to an electrical component (Cos1; C comp ) of the compensation circuit an electrical excitation signal having an affine dependence or a linear dependence on the absolute temperature with a determined proportionality factor, the proportionality factor being selected in order to compensate for a drift in temperature of an electrical assembly of the measuring device comprising at least the first passive electrical component of the compensation circuit. - an analogue sensor formed from a passive differential electrical component (C1, C2), the value of which varies as a function of the physical parameter, - an excitation circuit (26; 36) of the analogue sensor arranged in order to provide, to the passive differential electrical component, at least one first electrical excitation signal , - a measuring circuit comprising an amplifier which, connected to a feedback loop forming this measuring circuit, is provided in order to generate, at output, an electrical voltage (V out ) which is a certain function of said value of said passive differential electrical component, and - a circuit for compensating for an offset of said passive differential electrical component, this compensation circuit comprising a first passive electrical component (Cos1; Cos2), said excitation circuit (26 ; 36) being arranged in order to provide, to this first passive electrical component, a second electrical excitation signal (28; 18) ;
A compressor comprising: a casing having a cylindrical barrel and configured to store lubricant at a bottom of the casing , the casing being in a form of a closed container; a compression mechanism housed in the casing and configured to compress a fluid sucked and discharge the compressed fluid into an internal space (S) of the casing ; and an electric motor housed in the casing and configured to drive the compression mechanism , the electric motor having a tubular stator along an inner peripheral surface of the barrel and a rotor disposed inside the stator , between an outer peripheral surface of the stator and the inner peripheral surface of the barrel , a fluid passage extending from one end to the other end of the stator and through which the fluid discharged from the compression mechanism passes being provided, the fluid passage having a plurality of wide portions arranged in a circumferential direction of the stator and a narrow portion provided between adjacent ones of the wide portions , the narrow portion having a smaller width in a radial direction of the stator than each of the wide portions , characterized in that the stator has a stator core with teeth and slots between the teeth and core cuts provided at a position radially outward from the teeth in the outer peripheral surface of the stator core and the narrow portion is provided only at a position corresponding to the space between the outer surface of the slot and the inner peripheral surface of the barrel , and the wide portions are provided only between the core cuts and the inner peripheral surface of the barrel . a casing having a cylindrical barrel and configured to store lubricant at a bottom of the casing , the casing being in a form of a closed container; a compression mechanism housed in the casing and configured to compress a fluid sucked and discharge the compressed fluid into an internal space (S) of the casing ; and an electric motor housed in the casing and configured to drive the compression mechanism , the electric motor having a tubular stator along an inner peripheral surface of the barrel and a rotor disposed inside the stator , between an outer peripheral surface of the stator and the inner peripheral surface of the barrel , a fluid passage extending from one end to the other end of the stator and through which the fluid discharged from the compression mechanism passes being provided, the fluid passage having a plurality of wide portions arranged in a circumferential direction of the stator and a narrow portion provided between adjacent ones of the wide portions , the narrow portion having a smaller width in a radial direction of the stator than each of the wide portions , the stator has a stator core with teeth and slots between the teeth and core cuts provided at a position radially outward from the teeth in the outer peripheral surface of the stator core and the narrow portion is provided only at a position corresponding to the space between the outer surface of the slot and the inner peripheral surface of the barrel , and the wide portions are provided only between the core cuts and the inner peripheral surface of the barrel .
Detection device for detection of an event in a monitoring area , with a camera interface for transferring at least one image, wherein the at least one image shows the monitoring area , with an image analysis unit , wherein the image analysis unit is configured to determine event specifications for at least any one position in the monitoring area on the basis of the image, with an alarm unit with alarm specifications, wherein the alarm unit is configured to define an alarm on the basis of a comparison of the alarm specifications with the event specifications, with a storage unit , wherein the storage unit is configured to store the event specifications for the at least any one position in the monitoring area , characterized by a calculation unit for calculating and/or defining at least one false event area on the basis of the event specifications and the alarm specifications, wherein the false event area is an area of the monitoring area in which the event is detected with selected alarm specifications even though the event has not actually occurred. with a masking unit for the automatic modification of the alarm specifications within the at least one false event area and/or for the exclusion of the false event area from the determination of event specifications by the image analysis unit . with a camera interface for transferring at least one image, wherein the at least one image shows the monitoring area , with an image analysis unit , wherein the image analysis unit is configured to determine event specifications for at least any one position in the monitoring area on the basis of the image, with an alarm unit with alarm specifications, wherein the alarm unit is configured to define an alarm on the basis of a comparison of the alarm specifications with the event specifications, with a storage unit , wherein the storage unit is configured to store the event specifications for the at least any one position in the monitoring area , characterized by a calculation unit for calculating and/or defining at least one false event area on the basis of the event specifications and the alarm specifications, wherein the false event area is an area of the monitoring area in which the event is detected with selected alarm specifications even though the event has not actually occurred. with a masking unit for the automatic modification of the alarm specifications within the at least one false event area and/or for the exclusion of the false event area from the determination of event specifications by the image analysis unit .
An amorphous form of a compound represented by formula (I), wherein the X-ray powder diffraction pattern of the amorphous form is shown in Fig. 1.