mhurhangee/ep-ind-claims huggingface dataset:
A method of object tracking in a scene (18, 30) overtime, the method comprising: obtaining tracking data from a tracking device, the tracking data comprising at least one point of interest in the scene, computed by the tracking device, the tracking data corresponding to gaze data obtained by an eye tracker and the point of interest being a point of gaze; obtaining target data from a scene information provider, the scene (18, 30) comprising a plurality of targets, the target data corresponding to targets in the scene (18, 30) and each target being represented by one or more points in the scene; applying a probabilistic graphical model to the tracking data and the target data to predict, for each point of interest being tracked, an associated target of interest; and using the associated target of interest to refine the at least one point of interest; and outputting the refined point of interest, said method further comprising utilizing the refined point of interest to enhance tracking accuracy and, optionally, wherein the utilizing comprises one or more of: using the refined point of interest as input to a system receiving tracked signal data; and sending the refined point of interest to the tracking device, to assist in determining a true tracked signal. obtaining tracking data from a tracking device, the tracking data comprising at least one point of interest in the scene, computed by the tracking device, the tracking data corresponding to gaze data obtained by an eye tracker and the point of interest being a point of gaze; obtaining target data from a scene information provider, the scene (18, 30) comprising a plurality of targets, the target data corresponding to targets in the scene (18, 30) and each target being represented by one or more points in the scene; applying a probabilistic graphical model to the tracking data and the target data to predict, for each point of interest being tracked, an associated target of interest; and using the associated target of interest to refine the at least one point of interest; and outputting the refined point of interest, using the refined point of interest as input to a system receiving tracked signal data; and sending the refined point of interest to the tracking device, to assist in determining a true tracked signal.
A supercharger for feeding honey and beeswax mixture into a honey and beeswax separation screw, which comprises at least a filter pipe, a pipe connection fitting,; wherein the pipe connection fitting is connected radially to the side of the filter pipe, characterized in that the supercharger comprises an inlet pipe for honey and beeswax mixture and an inlet pipe connection for the honey and beeswax mixture inlet pipe, and to the other end of the pipe connection fitting is connected the inlet pipe for honey and beeswax mixture using the inlet pipe connection for the honey and beeswax mixture inlet pipe, herein the inlet pipe for honey and beeswax mixture, has its one end connected to a honey pump, to generate pressure for the honey and beeswax mixture, so that the honey pump pumps honey and beeswax mixture while the device is operating to the honey and beeswax separation screw.
A water-absorbent resin composition comprising a crosslinked polymer comprising, as essential constitutional units, a water-soluble vinyl monomer and/or a vinyl monomer that turns into a water-soluble vinyl monomer through hydrolysis and a crosslinking agent (b); and a cationic organic polymer having a cationic group that is a salt of at least one amino group (am) selected from the group consisting of a -NH 2 group, a mono-alkyl(having 1 to 4 carbon atoms)-substituted -NH 2 group, and a di-alkyl(having 1 to 4 carbon atoms)-substituted -NH 2 group, wherein the cationic organic polymer is a polymer or a salt thereof of a monomer composition comprising, as essential constituents, a cationic monomer having the amino group (am) and/or a cationic monomer having a salt of the amino group (am), and wherein the ratio of the cationic monomer contained in the monomer composition is 50 mol% or more based on the total number of moles of the monomers contained in the monomer composition, wherein the cationic organic polymer has a structural unit represented by the following formula: wherein R 1 and R 2 are each a hydrogen atom or an alkyl group having 1 to 4 carbon atoms, R 3 is a hydrogen atom or a methyl group, Q is an alkylene group having 1 to 4 carbon atoms, X is an oxygen atom or an imino group, and Z - represents a conjugate base of a Brønsted acid and the content of the cationic organic polymer is 0.01 to 5% by weight based on the total weight of the crosslinked polymer and the cationic organic polymer.
Spacer for spacing a headset from a stem of a bicycle, the spacer comprising a cable guide with a cable guide opening and a cable guide wall enclosing the cable guide opening, the cable guide wall being interrupted by a cable insertion gap, characterized in that the cable guide wall comprises one or more resilient arms extending from a tubular section for receiving a steering tube; wherein the spacer has an axial length and a cross section which is the same over the entire axial length, i.e., having the same shape, size and wall thickness over the entire axial length of the spacer.
A process for forming mineral fibers by internal centrifugation using a device comprising a basket and a fiberizing spinner which are suitable for rotating jointly about an axis of rotation, the basket comprising an annular wall pierced by a plurality of orifices and the fiberizing spinner comprising an annular wall pierced by a plurality of orifices, said process comprising: - feeding the basket with material to be fiberized at a temperature T a; - centrifuging the material to be fiberized by joint rotation of the basket and of the fiberizing spinner, characterized in that the factor F is greater than 2000, preferably greater than 5000, more preferentially greater than 10 000, the factor F being defined by F = μ a d N Q, wherein: μ a is the viscosity, expressed in Pa.s, of the material to be fiberized at the temperature T a; d is the distance, expressed in m, between the annular wall of the basket and the annular wall of the fiberizing spinner; N is the number of orifices of the basket; and Q is the feed flow rate, expressed in kg/s, of the material to be fiberized. - feeding the basket with material to be fiberized at a temperature T a; - centrifuging the material to be fiberized by joint rotation of the basket and of the fiberizing spinner, μ a is the viscosity, expressed in Pa.s, of the material to be fiberized at the temperature T a; d is the distance, expressed in m, between the annular wall of the basket and the annular wall of the fiberizing spinner; N is the number of orifices of the basket; and Q is the feed flow rate, expressed in kg/s, of the material to be fiberized.
A lighting unit, comprising: a light source; and a light modifying panel positioned over the light source for modifying the light output from the light source before it enters a space to be illuminated, wherein the panel comprises a base and a set of protrusions over the base, the protrusions facing the light source, wherein the protrusions comprise circular, elliptical or at least 5-sided polygonal cylinders, or circular, elliptical or at least 5-sided polygonal cone sections, having a flat circular elliptical or polygonal top, wherein for cone sections the cone taper angle is less than 5 degrees, wherein the protrusions each have a height H which satisfies H >N(D-H*tanα), where α is the cone taper angle with α =0 for cylinders, D is the diameter of the tip, and N is given by 1/N = tan(sin -1 (sin35/n)) where n is the refractive index of the panel material, wherein the light source comprises an array of LEDs and wherein a beam shaping optical arrangement is provided over the LED array, characterized in that N is in the range 2.3 to 2.7, and the beam shaping optical arrangement is formed of lens array plates, and comprises at least first and second different types of lens (132, 134). a light source; and a light modifying panel positioned over the light source for modifying the light output from the light source before it enters a space to be illuminated, wherein the panel comprises a base and a set of protrusions over the base, the protrusions facing the light source, wherein the protrusions comprise circular, elliptical or at least 5-sided polygonal cylinders, or circular, elliptical or at least 5-sided polygonal cone sections, having a flat circular elliptical or polygonal top, wherein for cone sections the cone taper angle is less than 5 degrees, wherein the protrusions each have a height H which satisfies H >N(D-H*tanα), where α is the cone taper angle with α =0 for cylinders, D is the diameter of the tip, and N is given by 1/N = tan(sin -1 (sin35/n)) where n is the refractive index of the panel material, wherein the light source comprises an array of LEDs and wherein a beam shaping optical arrangement is provided over the LED array,
A traction drive circuit comprising a motor, and a dual inverter module (12, 13) adapted to supply a voltage for powering the motor and comprising a first inverter and a second inverter, said drive circuit being characterised in that it comprises a switching block and a control block, wherein the switching block is adapted to switch the drive circuit from one mode to another between a first and a second operational mode; and the control block is adapted to determine the current value of the voltage to be supplied by the dual inverter module, to compare the current value of said voltage with a threshold (V L), and depending on the comparison, to command the switching block to switch from the current operational mode among the first and second modes to the other operational mode among the first and second modes; wherein: in the first operational mode of the drive circuit, one of the first and second inverters is disconnected from the motor, and the other of the first and second inverters is connected to the motor adapted to then form a wye point; and in the second operational mode of the drive circuit, the first inverter and the second inverter are connected to the motor then adapted to operate as an open-ended motor, the phases of the motor being disconnected from each other; wherein, upon each new switchover to the first operational mode, the switching unit is able to disconnect from the motor one inverter, selected from the first and second inverters, different from the one disconnected from the motor during a previous switchover to the first operational mode. in the first operational mode of the drive circuit, one of the first and second inverters is disconnected from the motor, and the other of the first and second inverters is connected to the motor adapted to then form a wye point; and in the second operational mode of the drive circuit, the first inverter and the second inverter are connected to the motor then adapted to operate as an open-ended motor, the phases of the motor being disconnected from each other; wherein, upon each new switchover to the first operational mode, the switching unit is able to disconnect from the motor one inverter, selected from the first and second inverters, different from the one disconnected from the motor during a previous switchover to the first operational mode.
A laundry treatment apparatus comprising: a cabinet forming an external appearance of the laundry treatment apparatus and including an opening through which laundry is introduced; a laundry receiving portion disposed inside the cabinet to perform one of washing or drying of the laundry; a door coupled to the cabinet to open and close the opening; and a voice recognition unit coupled to one of the cabinet and the door and including a microphone, the voice recognition unit being configured to receive voice of a user and to convert the voice into an input signal for driving the laundry receiving portion; characterized in that the laundry treatment apparatus comprises a shielding portion coupled to at least one of the cabinet or the door to accommodate at least a part of the voice recognition unit in the one of the cabinet and the door to prevent vibrations or sound waves generated from the laundry receiving portion or transmitted to the cabinet from being transmitted to the voice recognition unit. a cabinet forming an external appearance of the laundry treatment apparatus and including an opening through which laundry is introduced; a laundry receiving portion disposed inside the cabinet to perform one of washing or drying of the laundry; a door coupled to the cabinet to open and close the opening; and a voice recognition unit coupled to one of the cabinet and the door and including a microphone, the voice recognition unit being configured to receive voice of a user and to convert the voice into an input signal for driving the laundry receiving portion; characterized in that the laundry treatment apparatus comprises a shielding portion coupled to at least one of the cabinet or the door to accommodate at least a part of the voice recognition unit in the one of the cabinet and the door to prevent vibrations or sound waves generated from the laundry receiving portion or transmitted to the cabinet from being transmitted to the voice recognition unit.
A tiltrotor aircraft having a VTOL flight mode, a forward flight mode and a storage mode, the aircraft comprising: a fuselage; a wing rotatably mounted to the fuselage and having first and second outboard ends, the wing reversibly rotatable between a flight orientation, generally perpendicular to the fuselage, in the flight modes, and a stowed orientation, generally parallel to the fuselage, in the storage mode; first and second pylon assemblies (22a-b) respectively positioned proximate the first and second outboard ends of the wing; first and second mast assemblies (24a-b) respectively rotatably coupled relative to the first and second pylon assemblies (22a-b), the first and second mast assemblies (24a-b) reversibly rotatable between a vertical orientation, in the VTOL flight mode, and a horizontal orientation, in the forward flight mode and the storage mode; and first and second proprotor assemblies (26a-b) respectively rotatably coupled relative to the first and second mast assemblies (24a-b), the first and second proprotor assemblies (26a-b) each including first, second and third rotor blades (52a-c) and each having a radially extended orientation, in the flight modes, and a stowed orientation, in the storage mode, wherein the first rotor blade of each proprotor assembly (26a-b) is folded beamwise below the wing generally conforming with the respective pylon assembly (22a-b) and the second and third rotor blades (52b-c) of each proprotor assembly (22a-b) are folded beamwise above the wing generally conforming with the respective pylon assembly (22a-b). a fuselage; a wing rotatably mounted to the fuselage and having first and second outboard ends, the wing reversibly rotatable between a flight orientation, generally perpendicular to the fuselage, in the flight modes, and a stowed orientation, generally parallel to the fuselage, in the storage mode; first and second pylon assemblies (22a-b) respectively positioned proximate the first and second outboard ends of the wing; first and second mast assemblies (24a-b) respectively rotatably coupled relative to the first and second pylon assemblies (22a-b), the first and second mast assemblies (24a-b) reversibly rotatable between a vertical orientation, in the VTOL flight mode, and a horizontal orientation, in the forward flight mode and the storage mode; and first and second proprotor assemblies (26a-b) respectively rotatably coupled relative to the first and second mast assemblies (24a-b), the first and second proprotor assemblies (26a-b) each including first, second and third rotor blades (52a-c) and each having a radially extended orientation, in the flight modes, and a stowed orientation, in the storage mode, wherein the first rotor blade of each proprotor assembly (26a-b) is folded beamwise below the wing generally conforming with the respective pylon assembly (22a-b) and the second and third rotor blades (52b-c) of each proprotor assembly (22a-b) are folded beamwise above the wing generally conforming with the respective pylon assembly (22a-b).
A method for printing an image on a surface, comprising: printing, using a printhead mounted to an arm of a robot, a new image slice on the surface while moving the printhead over the surface along a rastering path; printing a reference line on the surface when printing the new image slice; sensing, using a reference line sensor, the reference line of an existing image slice while printing the new image slice; and adjusting the lateral position of the new image slice based on a sensed position of the reference line in a manner aligning a side edge of the new image slice with the side edge of the existing image slice, wherein the step of adjusting the lateral position of the new image slice includes electronically shifting nozzles actively ejecting droplets by activating one or more unused nozzles at one end of widthwise ends of the printhead and deactivating an equal number of nozzles at an opposite widthwise end of the printhead while effectively shifting a lateral position of the new image slice without laterally moving the printhead. printing, using a printhead mounted to an arm of a robot, a new image slice on the surface while moving the printhead over the surface along a rastering path; printing a reference line on the surface when printing the new image slice; sensing, using a reference line sensor, the reference line of an existing image slice while printing the new image slice; and adjusting the lateral position of the new image slice based on a sensed position of the reference line in a manner aligning a side edge of the new image slice with the side edge of the existing image slice, wherein the step of adjusting the lateral position of the new image slice includes electronically shifting nozzles actively ejecting droplets by activating one or more unused nozzles at one end of widthwise ends of the printhead and deactivating an equal number of nozzles at an opposite widthwise end of the printhead while effectively shifting a lateral position of the new image slice without laterally moving the printhead.
A composition comprising a combination of gelatin, a denaturant and transglutaminase, wherein a ratio of an amount of said gelatin and an amount of said transglutaminase is sufficient to reduce bleeding in a wound of a mammal, wherein said gelatin has not undergone thermoreversible gelation due to said denaturant, wherein said denaturant is selected from the group consisting of urea and guanidine hydrochloride, wherein said guanidine hydrochloride is present in a concentration of between 1:2 to 2:2 of guanidine hydrochloride:gelatin, weight per weight, plus or minus 10 percent of the indicated value, and wherein said urea is present in a concentration of between 0.5:1 to 1:1 of urea:gelatin, weight per weight, plus or minus 10 percent of the indicated value, to block said thermoreversible gelation and to reduce sol-gel transition temperature of said gelatin, such that said gelatin forms a solution with transglutaminase at a temperature lower than the natural sol-gel transition temperature of standard animal gelatin, and wherein said gelatin is produced from animal origin, recombinant origin or a combination thereof.
A hearing device, e.g. a hearing aid, comprising • an input transducer for providing an electric input signal representative of a sound in the environment of the hearing device, • an output transducer for providing an output sound representative of said electric input signal, and • a signal processor operationally connected to the input and output transducers, and forming part of an electric forward path for processing said electric input signal and providing a processed electric output signal (ENHS), • a feedback detector for providing first and second indications (FBDetl, FBDet2) of current feedback in an external - acoustic and/or mechanical - feedback path from said output transducer to said input transducer, wherein the feedback detector comprises first and second detectors (1stD, 2ndD) for providing said first and second indications (FBDetl, FBDet2) of current feedback, respectively, based on said electric input signal or a processed version thereof, and wherein said first and second indications (FBDetl, FBDet2) of current feedback are generated with first and second time constants, respectively, and where the first time constant is larger than the second time constant, CHARACTERIZED IN THAT the hearing device is configured to provide that a detection of feedback by the second detector triggers activation of the first detector. • an input transducer for providing an electric input signal representative of a sound in the environment of the hearing device, • an output transducer for providing an output sound representative of said electric input signal, and • a signal processor operationally connected to the input and output transducers, and forming part of an electric forward path for processing said electric input signal and providing a processed electric output signal (ENHS), • a feedback detector for providing first and second indications (FBDetl, FBDet2) of current feedback in an external - acoustic and/or mechanical - feedback path from said output transducer to said input transducer,