mhurhangee/ep-ind-claims huggingface dataset:
A touch sensing device, comprising: touch electrodes; a sensing circuit unit configured to sense a capacitance change value of each of a plurality of touch nodes formed by touch electrodes; an analog-digital converter configured to output the capacitance change value of each of the plurality of touch nodes as digital touch sensing data; and a touch data compensator configured to analyze the touch sensing data to calculate a touch area ratio and configured to compensate for the touch sensing data according to the touch area ratio, wherein the touch data compensator is configured: to determine the touch sensing data to be effective touch data when the touch sensing data is equal to or greater than a threshold value, to calculate the number of the effective touch data relative to the number of the plurality of touch nodes as the touch area ratio, to calculate a compensation weighted value to be applied to the touch sensing data according to the touch area ratio, wherein the compensation weighted value increases as the touch area ratio increases, to calculate compensated touch sensing data by applying the compensation weighted value into the touch sensing data, and to calculate a touch coordinate according to the compensated touch sensing data. touch electrodes; a sensing circuit unit configured to sense a capacitance change value of each of a plurality of touch nodes formed by touch electrodes; an analog-digital converter configured to output the capacitance change value of each of the plurality of touch nodes as digital touch sensing data; and a touch data compensator configured to analyze the touch sensing data to calculate a touch area ratio and configured to compensate for the touch sensing data according to the touch area ratio, wherein the touch data compensator is configured: to determine the touch sensing data to be effective touch data when the touch sensing data is equal to or greater than a threshold value, to calculate the number of the effective touch data relative to the number of the plurality of touch nodes as the touch area ratio, to calculate a compensation weighted value to be applied to the touch sensing data according to the touch area ratio, wherein the compensation weighted value increases as the touch area ratio increases, to calculate compensated touch sensing data by applying the compensation weighted value into the touch sensing data, and to calculate a touch coordinate according to the compensated touch sensing data. to determine the touch sensing data to be effective touch data when the touch sensing data is equal to or greater than a threshold value, to calculate the number of the effective touch data relative to the number of the plurality of touch nodes as the touch area ratio, to calculate a compensation weighted value to be applied to the touch sensing data according to the touch area ratio, wherein the compensation weighted value increases as the touch area ratio increases, to calculate compensated touch sensing data by applying the compensation weighted value into the touch sensing data, and to calculate a touch coordinate according to the compensated touch sensing data.
A distributed temperature sensor, comprising: an optical fiber disposed in an area where temperature is to be measured; a primary light source configured to inject light into the optical fiber; a secondary light source configured to inject light into the optical fiber; a photodetector configured to detect backscatter light energy from the optical fiber, the backscatter light energy including Stokes Raman scatter or anti-Stokes Raman scatter and primary Rayleigh scatter resulting from the primary light source and secondary Rayleigh scatter resulting from the secondary light source; and a processor configured to calculate the temperature; characterised in that either: the secondary light source operates at a wavelength of the Stokes Raman scatter resulting from the primary light source and the processor determines the temperature based on: S RAp RAs, where S is the Stokes Raman backscatter, RAp is the primary Rayleigh backscatter, and RAs is the secondary Rayleigh backscatter; or the secondary light source operates at a wavelength of the anti-Stokes Raman scatter resulting from the primary light source and the processor determines the temperature based on: AS RAp RAas, where AS is the anti-Stokes Raman backscatter, RAp is the primary Rayleigh backscatter, and RAas is the secondary Rayleigh backscatter. an optical fiber disposed in an area where temperature is to be measured; a primary light source configured to inject light into the optical fiber; a secondary light source configured to inject light into the optical fiber; a photodetector configured to detect backscatter light energy from the optical fiber, the backscatter light energy including Stokes Raman scatter or anti-Stokes Raman scatter and primary Rayleigh scatter resulting from the primary light source and secondary Rayleigh scatter resulting from the secondary light source; and a processor configured to calculate the temperature; characterised in that either: the secondary light source operates at a wavelength of the Stokes Raman scatter resulting from the primary light source and the processor determines the temperature based on: S RAp RAs, the secondary light source operates at a wavelength of the Stokes Raman scatter resulting from the primary light source and the processor determines the temperature based on: S RAp RAs, where S is the Stokes Raman backscatter, RAp is the primary Rayleigh backscatter, and RAs is the secondary Rayleigh backscatter; or the secondary light source operates at a wavelength of the anti-Stokes Raman scatter resulting from the primary light source and the processor determines the temperature based on: AS RAp RAas, where AS is the anti-Stokes Raman backscatter, RAp is the primary Rayleigh backscatter, and RAas is the secondary Rayleigh backscatter.
A monoclonal antibody that can bind to an epitope of meperidine and normeperidine characterised by having been raised against an immunogen of the structure: Wherein the accm is an antigenicity-conferring carrier material and wherein the cross-linker is: In which X is carbonyl or thionyl and n=0 or 1; Y is a C 2-6, substituted or unsubstituted straight chain alkylene moiety, or an arylene moiety; Z, before connection to the antigenicity-conferring carrier material (accm), is carboxy, dithiopyridyl, maleimide, amino, thiol, ester, thioester or an aldehyde moiety and the accm is bovine serum albumin, bovine thyroglobulin, bovine gamma globulin, keyhole limpet haemocyanin or egg ovalbumin; the antibody further characterised by having a cross-reactivity of 100% to meperidine and a cross-reactivity of 80-120% to normeperidine and an IC 50 of less than about 0.5 ng/ml for both meperidine and normeperidine.
A tractor rear hitch comprising a drawbar and a drawbar support frame, the drawbar being secured to the support frame by a pin which is inserted through respective holes in the support frame and the drawbar, and a drawbar release member comprising a lever which is pivotally mounted to the support frame, and a pedal disposed at a rear end of the lever and at a height below the pivot mount for the lever, the lever being pivotally connected at a forward end to the pin so as to lift the pin, and thus release the drawbar, when the pedal is forced downward, characterised in that the forward end of the drawbar release member comprises a U-shaped portion which is pivotally mounted to the support frame in two places, the pivotal mountings being transversely spaced either side of the support frame and being pivotal about a common transverse axis.
Spraying system of an agricultural field spraying device, comprising a spraying linkage for discharging a spraying solution, a tank for the spraying solution, a filling device for filling the tank, a flushing device for flushing the tank, a circulating device for circulating the spraying solution in the tank, a discharging device for conveying the spraying solution out of the tank, an integrated self-priming pump, an integrated non-self-priming pump and an electronic control device for controlling the spraying system, characterized in that the self-priming pump is operable exclusively for operating the filling device and the flushing device, and the non-self-priming pump is operable for operating the circulating device, the discharging device and the flushing device, wherein the non-self-priming pump is arranged in such a manner that charging by means of spraying solution from the tank takes place because of gravity, and the filling device is fluidically separated from the circulating device and the discharging device.
A method of encoding an audio signal comprising: receiving an audio signal frame, frame; applying multiple different time-frequency transforms to the frame across a frequency spectrum to produce multiple transforms of the frame, each transform having a corresponding time-frequency resolution across the frequency spectrum; computing measures of coding efficiency for multiple frequency bands within the frequency spectrum, for multiple time-frequency resolutions corresponding to the multiple transforms; selecting a combination of time-frequency resolutions to represent the frame at each of the multiple frequency bands within the frequency spectrum, based at least in part upon the computed measures of coding efficiency; determining a window size and a corresponding transform size for the frame, based at least in part upon the selected combination of time-frequency resolutions; determining a modification transformation for at least a one of the frequency bands based at least in part upon the selected combination of time-frequency resolutions and the determined window size; windowing the frame using the determined window size to produce a windowed frame; transforming the windowed frame using the determined transform size to produce a transform of the windowed frame that has a corresponding time-frequency resolution at each of the multiple frequency bands of the frequency spectrum; modifying a time-frequency resolution within at least one frequency band of the transform of the windowed frame based at least in part upon the determined modification transformation. receiving an audio signal frame, frame; applying multiple different time-frequency transforms to the frame across a frequency spectrum to produce multiple transforms of the frame, each transform having a corresponding time-frequency resolution across the frequency spectrum; computing measures of coding efficiency for multiple frequency bands within the frequency spectrum, for multiple time-frequency resolutions corresponding to the multiple transforms; selecting a combination of time-frequency resolutions to represent the frame at each of the multiple frequency bands within the frequency spectrum, based at least in part upon the computed measures of coding efficiency; determining a window size and a corresponding transform size for the frame, based at least in part upon the selected combination of time-frequency resolutions; determining a modification transformation for at least a one of the frequency bands based at least in part upon the selected combination of time-frequency resolutions and the determined window size; windowing the frame using the determined window size to produce a windowed frame; transforming the windowed frame using the determined transform size to produce a transform of the windowed frame that has a corresponding time-frequency resolution at each of the multiple frequency bands of the frequency spectrum; modifying a time-frequency resolution within at least one frequency band of the transform of the windowed frame based at least in part upon the determined modification transformation.
A method for continuously culturing Ehrlichia canis comprising: i) obtaining Ehrlichia canis; ii) obtaining feline embryonic fibroblast cells; iii) infecting the feline embryonic fibroblast cells with said Ehrlichia canis; and iv) continuously culturing said feline embryonic fibroblast cells in feline embryonic cell growth medium under conditions conducive to propagating the feline embryonic fibroblast cells, thereby continuously culturing the Ehrlichia canis. i) obtaining Ehrlichia canis; ii) obtaining feline embryonic fibroblast cells; iii) infecting the feline embryonic fibroblast cells with said Ehrlichia canis; and iv) continuously culturing said feline embryonic fibroblast cells in feline embryonic cell growth medium under conditions conducive to propagating the feline embryonic fibroblast cells, thereby continuously culturing the Ehrlichia canis.
Lifting beam for lifting a load, having a primary structure comprising two transversely spaced-apart longitudinal beams, each longitudinal beam carrying two longitudinally spaced-apart balancers, each balancer being rotatably articulated about a transverse balancer axis carried by said longitudinal beam, and, gripping means, preferably comprising at least one sling extending downwards from each balancer, said gripping means being adapted to engage a lifting point of the load, characterized in that each longitudinal beam comprises a swing mounted for rotation about the balancer axis, a longitudinal girder disposed beneath said swing, and hangers for securing said girder to said swing.
A first wearable electronic device comprising: a charm device comprising: sensory output means for outputting at least one of light, audio, or a vibration; touch input means for receiving a user input; wireless communication means for: establishing a wireless connection with a second wearable device; sending a first message to the second wearable device, the first message indicative of a user input via the touch input means; and receiving a second message from the second wearable device, wherein the second message represents a pattern input to a touch input device of the second wearable device; processing means for activating the sensory output means in the pattern representative of the second message; and circuitry to communicatively couple the processing means with the sensory output means, the touch input means, and the wireless communication means. a charm device comprising: sensory output means for outputting at least one of light, audio, or a vibration; touch input means for receiving a user input; sensory output means for outputting at least one of light, audio, or a vibration; touch input means for receiving a user input; wireless communication means for: establishing a wireless connection with a second wearable device; sending a first message to the second wearable device, the first message indicative of a user input via the touch input means; and receiving a second message from the second wearable device, wherein the second message represents a pattern input to a touch input device of the second wearable device; establishing a wireless connection with a second wearable device; sending a first message to the second wearable device, the first message indicative of a user input via the touch input means; and receiving a second message from the second wearable device, wherein the second message represents a pattern input to a touch input device of the second wearable device; processing means for activating the sensory output means in the pattern representative of the second message; and circuitry to communicatively couple the processing means with the sensory output means, the touch input means, and the wireless communication means.
An illuminating device for image digitization scanners that are provided with at least a linear or multilinear sensor and an optical system with its optical axis, the device comprising a first light source composed of LEDs and at least a second light source composed of LEDs, which are located in a space delimited by a scanning plane being defined by the object to be scanned and by a plane containing the optical axis, so as to emit incident light beams (7a, 7b) formed by a set of rays falling on an active scanning area of the scanning plane with given angles of incidence, the first light source being controlled by a dimmer apparatus which modulates the light intensity of the first light source, characterised in that said at least second light source is controlled by said dimmer apparatus so that multiple different lighting configurations in the active scanning area are achieved by modulation of the intensity of light from at least the two light sources (6a, 6b) by applying combined independent dimming of individual light sources.
A golf club head comprising: a face having a ball striking surface adapted to impact a golf ball and an inner surface opposite the ball striking surface; a body connected to the face and extending rearward from the face, and defining together with the face an inner cavity; and a deformation limiting member located behind the face and having a fixed end connected to an inner surface of the body proximate a peripheral edge of the face and a free end spaced a distance from the inner surface of the face, wherein the deformation limiting member comprises a flange extending from the fixed end at the inner surface of the body toward the inner surface of the face and extending inward into the cavity, wherein the flange forms an inner edge at the free end, wherein the inner edge forms an elliptical shape, and wherein the face and the deformation limiting member are adapted such that an impact of the ball on the ball striking surface causes deformation of the face toward the deformation limiting member, and wherein when the deformation of the face is sufficient to cause the inner surface of the face to engage the free end of the deformation limiting member, the deformation limiting member exerts a force on the face to resist further deformation of the face. a face having a ball striking surface adapted to impact a golf ball and an inner surface opposite the ball striking surface; a body connected to the face and extending rearward from the face, and defining together with the face an inner cavity; and a deformation limiting member located behind the face and having a fixed end connected to an inner surface of the body proximate a peripheral edge of the face and a free end spaced a distance from the inner surface of the face, wherein the deformation limiting member comprises a flange extending from the fixed end at the inner surface of the body toward the inner surface of the face and extending inward into the cavity, wherein the flange forms an inner edge at the free end, wherein the inner edge forms an elliptical shape, and wherein the face and the deformation limiting member are adapted such that an impact of the ball on the ball striking surface causes deformation of the face toward the deformation limiting member, and wherein when the deformation of the face is sufficient to cause the inner surface of the face to engage the free end of the deformation limiting member, the deformation limiting member exerts a force on the face to resist further deformation of the face.
Particles of silica bonded to polymer chains constituted of at least one polymer comprising at least one fluorinated styrenic repetitive unit carrying at least one proton-conducting group, optionally in the form of a salt, with the bond between said particles and each one of these chains being carried out via at least one organic spacer group.
A system for displaying injection sites on veins of a patient comprising a display configured to display medical information of the patient; and a processor configured to: receive vein patterns of the patient; determine an identity of the patient based on the vein patterns; display a graphical indicia of a previous injection site of the patient as overlaid on the veins of the patient on the display; and display a graphical indicia of a potential new injection site for the patient as overlaid on the veins of the patient, wherein the position of the previous injection site of the patient and the position of the potential new injection site for the patient do not overlap. receive vein patterns of the patient; determine an identity of the patient based on the vein patterns; display a graphical indicia of a previous injection site of the patient as overlaid on the veins of the patient on the display; and display a graphical indicia of a potential new injection site for the patient as overlaid on the veins of the patient, wherein the position of the previous injection site of the patient and the position of the potential new injection site for the patient do not overlap.
A suction device for removing a mixed fluid, in particular fecal matter, from a collecting tank, in particular from a sewage tank of a railway vehicle, comprising - a mixed fluid inlet for receiving the mixed fluid, said mixed fluid inlet being fluidically connectable to a connection port of said collecting tank, - a mixed fluid outlet for discharging the mixed fluid, said mixed fluid outlet being fluidically connectable to a suction line, and - a flow channel extending between said inlet and said outlet, characterized by a constriction member which is adapted to reduce a cross-section of the flow channel in sections thereof or along the entire length thereof, wherein the constriction member can be moved relative to the inlet and/or outlet into a first and a second position, the cross-section of the flow channel being less in the second position than in the first position, wherein the constriction member has a recess which is in fluidic communication with the inlet and the outlet when the constriction member is in the second position. - a mixed fluid inlet for receiving the mixed fluid, said mixed fluid inlet being fluidically connectable to a connection port of said collecting tank, - a mixed fluid outlet for discharging the mixed fluid, said mixed fluid outlet being fluidically connectable to a suction line, and - a flow channel extending between said inlet and said outlet,
Turbine blade for an aircraft turbomachine comprising a root, an airfoil and a platform inserted between the airfoil and the root and delimiting a gas circulation flowpath, the platform having two axial ends each forming an angel wing (44, 46) of which at least one has an internal cavity that will be supplied with air from the root of the blade, at least one of the two angel wings is drilled with at least one bleed hole for passage of a bleed flow from the internal cavity that will limit / prevent gas recirculation outside said flowpath by bypassing said angel wing characterised in that the blade comprises a stiffener (50, 52) associated with each of the two angel wings (44, 46), each stiffener extending radially inwards from its associated angel wing, along a circumferential length approximately equal to the length of the angel wing, and in that said cavity of the upstream angel wing of at least one of the two angel wings also extends along part of its associated stiffener.