mhurhangee/patent-ind-claim-en huggingface dataset:
A battery diagnosing apparatus , comprising: a measuring unit configured to measure discharge capacity and temperature of a battery; and an ohmic resistance determining unit configured to determine an ohmic resistance of the battery based on an impedance profile generated for the battery, characterized by a control unit configured to calculate a capacity change rate by comparing the discharge capacity of the battery measured by the measuring unit with a reference capacity, calculate a resistance change rate by comparing the ohmic resistance determined by the ohmic resistance determining unit with a reference resistance, judge an internal gas generation level of the battery by comparing magnitudes of the calculated resistance change rate and a criterion resistance change rate, and judge an internal gas generation cause of the battery by comparing magnitudes of the calculated capacity change rate and a criterion capacity change rate. a measuring unit configured to measure discharge capacity and temperature of a battery; and an ohmic resistance determining unit configured to determine an ohmic resistance of the battery based on an impedance profile generated for the battery, characterized by a control unit configured to calculate a capacity change rate by comparing the discharge capacity of the battery measured by the measuring unit with a reference capacity, calculate a resistance change rate by comparing the ohmic resistance determined by the ohmic resistance determining unit with a reference resistance, judge an internal gas generation level of the battery by comparing magnitudes of the calculated resistance change rate and a criterion resistance change rate, and judge an internal gas generation cause of the battery by comparing magnitudes of the calculated capacity change rate and a criterion capacity change rate.
A method for processing data collected by a touch panel, wherein a touch panel communicates with an application processor by using a micro control unit, MCU , the method comprising: obtaining , by the MCU , touch data from the touch panel; and pre-processing , by the MCU , the touch data in order to determine a touch event corresponding to the touch data, and sending the pre-processed touch data to the application processor which is configured to perform touch event response according to the touch data sent by the MCU and display a change effect of a triggered object by using the touch panel ; characterized in that the pre-processing, by the MCU , of the touch data comprises: pre-processing, by the MCU , the touch data by using a first frequency, which is equal to a sampling frequency of the touch panel , in order to determine a touch event corresponding to the touch data, wherein the first frequency is greater than a second frequency, said second frequency corresponding to a processing frequency of the application processor , which is equal to a display frame synchronization frequency. obtaining , by the MCU , touch data from the touch panel; and pre-processing , by the MCU , the touch data in order to determine a touch event corresponding to the touch data, and sending the pre-processed touch data to the application processor which is configured to perform touch event response according to the touch data sent by the MCU and display a change effect of a triggered object by using the touch panel ; characterized in that the pre-processing, by the MCU , of the touch data comprises: pre-processing, by the MCU , the touch data by using a first frequency, which is equal to a sampling frequency of the touch panel , in order to determine a touch event corresponding to the touch data, wherein the first frequency is greater than a second frequency, said second frequency corresponding to a processing frequency of the application processor , which is equal to a display frame synchronization frequency.
A tire with self-generation and sound absorption that is configured to operate an electronic module through self-power generation, the tire comprising: a wall structure formed on a surface of an inner liner of the tire; a sound absorber spaced apart upward from the inner liner with both ends coupled to the wall structure and blocking sound generated by surfaces of treads and a road surface; and an electronic unit disposed on the surface of the inner liner and positioned between the inner liner and the sound absorber . a wall structure formed on a surface of an inner liner of the tire; a sound absorber spaced apart upward from the inner liner with both ends coupled to the wall structure and blocking sound generated by surfaces of treads and a road surface; and an electronic unit disposed on the surface of the inner liner and positioned between the inner liner and the sound absorber .
A computer-implemented method , the method comprising: utilizing a sensor mounted to a tracking device to detect movement of the tracking device ; determining if one or more inertial sensors mounted to a moving platform are present; receiving information describing the one or more inertial sensors mounted to the moving platform if it is determined that the one or more inertial sensors mounted to the moving platform are present, said information comprising an acceleration sensitivity of the one or more inertial sensors mounted to the moving platform; determining, if the acceleration sensitivity of the one or more inertial sensors mounted to the moving platform is within a threshold value of an acceleration sensitivity of the sensor mounted to the tracking device , that the one or more inertial sensors mounted to the moving platform are usable with the sensor mounted to the tracking device ; and if it is determined that the one or more inertial sensors mounted to the moving platform are usable with the sensor mounted to the tracking device , utilizing the one or more inertial sensors mounted to the moving platform to determine a frame of reference , and utilizing the sensor mounted to the tracking device to detect movement of the tracking device within the frame of reference . utilizing a sensor mounted to a tracking device to detect movement of the tracking device ; determining if one or more inertial sensors mounted to a moving platform are present; receiving information describing the one or more inertial sensors mounted to the moving platform if it is determined that the one or more inertial sensors mounted to the moving platform are present, said information comprising an acceleration sensitivity of the one or more inertial sensors mounted to the moving platform; determining, if the acceleration sensitivity of the one or more inertial sensors mounted to the moving platform is within a threshold value of an acceleration sensitivity of the sensor mounted to the tracking device , that the one or more inertial sensors mounted to the moving platform are usable with the sensor mounted to the tracking device ; and if it is determined that the one or more inertial sensors mounted to the moving platform are usable with the sensor mounted to the tracking device , utilizing the one or more inertial sensors mounted to the moving platform to determine a frame of reference , and utilizing the sensor mounted to the tracking device to detect movement of the tracking device within the frame of reference . utilizing the one or more inertial sensors mounted to the moving platform to determine a frame of reference , and utilizing the sensor mounted to the tracking device to detect movement of the tracking device within the frame of reference .
A system for marking a biopsy location in a representation of a patient's airways, the system comprising: a navigation system including a navigation plan which includes a CT volume generated from a plurality of CT images; a probe for insertion into a patient's airways, the probe including a location sensor in operative communication with the navigation system; and the system configured to carry out the steps of registering a sensed location of the probe with the CT volume of the navigation plan; selecting or enabling the selection of a target in the navigation plan; storing a position of the location sensor in the navigation system when at the target as a biopsy location; and said system being characterized in that it further comprises the step of presenting a view of a 3D volume which corresponds to the registered location of the sensor , the view including a virtual probe which provides a visualization of the distal tip of the probe and indicates the direction that the distal tip of the probe is facing. a navigation system including a navigation plan which includes a CT volume generated from a plurality of CT images; a probe for insertion into a patient's airways, the probe including a location sensor in operative communication with the navigation system; and the system configured to carry out the steps of registering a sensed location of the probe with the CT volume of the navigation plan; selecting or enabling the selection of a target in the navigation plan; storing a position of the location sensor in the navigation system when at the target as a biopsy location; and said system being characterized in that it further comprises the step of presenting a view of a 3D volume which corresponds to the registered location of the sensor , the view including a virtual probe which provides a visualization of the distal tip of the probe and indicates the direction that the distal tip of the probe is facing.
A gradient coil assembly for a magnetic resonance imaging system comprising a set of inner gradient coils and a set of outer gradient coils , which are concentrically arranged in respect to a common rotational axis of the set of inner and outer gradient coils , wherein the set of inner gradient coils and a set of outer gradient coils being controlled to generate gradient magnetic fields within an inner space of the gradient coil assembly , the set of outer gradient coils provides a shielding of the set of inner gradient coils , at least one coil of the set of outer coils is at least partially made of aluminum, characterized in that at least a y-coil and a x-coil of the set of inner gradient coils are made of copper.
A method for optimizing memory power consumption in a portable communication device, the method comprising: configuring a heterogeneous system memory for a system on chip, SoC, on the portable communication device, the heterogeneous system memory comprising non-volatile random access memory, NVRAM, and volatile random access memory, VRAM, coupled to the SoC ; allocating a first portion of the NVRAM as a block device for a swap operation, a second portion of the NVRAM for read-only program code and data, and a third portion of the NVRAM for operating system page tables; allocating the VRAM for a program heap and a program stack; and further characterized by : calibrating a size of the block device, wherein the calibrating comprises periodically measuring an average write count and a read count associated with the NVRAM over a time period. configuring a heterogeneous system memory for a system on chip, SoC, on the portable communication device, the heterogeneous system memory comprising non-volatile random access memory, NVRAM, and volatile random access memory, VRAM, coupled to the SoC ; allocating a first portion of the NVRAM as a block device for a swap operation, a second portion of the NVRAM for read-only program code and data, and a third portion of the NVRAM for operating system page tables; allocating the VRAM for a program heap and a program stack; and further characterized by : calibrating a size of the block device, wherein the calibrating comprises periodically measuring an average write count and a read count associated with the NVRAM over a time period.
A preservative removing device for fitting an outlet of a container for an ophthalmic solution, emulsion, or suspension comprising a preservative, wherein the preservative removing device is a plug, characterized in that the preservative removing device comprises a porous hydrophilic polymeric matrix, wherein the porous hydrophilic polymeric matrix is partitioned as microparticles with cross-sections of 2 to 100 μm, and wherein the porous hydrophilic polymeric matrix has a hydraulic permeability greater than 0.01 Da and a partition coefficient for the preservative from the solution, emulsion, or suspension of at least 100.
A printer, comprising: a housing ; a printer cover configured to rotate between a closed position at which the printer cover closes an interior of the housing and an open position at which the printer cover opens the interior of the housing ; a platen roller configured to feed print medium (P); a thermal head opposed to the platen roller when the printer cover is located at the closed position; an operation member configured to connect and disconnect the thermal head , the operation member guides the print medium (P) fed by the platen roller when the printer cover is located at the closed position; a connecting part capable of being connected to and disconnected from the thermal head , wherein connecting of the connecting part to the thermal head establishes a connection of the thermal head to a control circuit; and the operation member moves between a first position and a second position different from the first position to connect and disconnect the thermal head and the connecting part . a housing ; a printer cover configured to rotate between a closed position at which the printer cover closes an interior of the housing and an open position at which the printer cover opens the interior of the housing ; a platen roller configured to feed print medium (P); a thermal head opposed to the platen roller when the printer cover is located at the closed position; an operation member configured to connect and disconnect the thermal head , the operation member guides the print medium (P) fed by the platen roller when the printer cover is located at the closed position; a connecting part capable of being connected to and disconnected from the thermal head , wherein connecting of the connecting part to the thermal head establishes a connection of the thermal head to a control circuit; and the operation member moves between a first position and a second position different from the first position to connect and disconnect the thermal head and the connecting part .
A computer-implemented method of operating an image segmentation system, the method comprising: collecting at least one image of a scene, wherein the scene comprises a plurality of distinct objects; generating a plurality of segmentation predictions for the scene, wherein each segmentation prediction of the plurality of segmentation predictions includes a plurality of object regions each representing a region predicted to correspond to a single object and a confidence associated with the prediction of each region; and outputting a final segmentation prediction comprising at least one identified object region, wherein the at least one identified object region is chosen based on the confidence associated with the at least one identified object region and a confidence threshold, wherein the confidence associated with the at least one identified object region is greater than the confidence threshold, wherein outputting the final segmentation prediction comprises: identifying the confidence threshold, wherein the confidence threshold corresponds to a minimum percentage; and wherein the at least one identified object region is a region where the minimum percentage of segmentation predictions from the plurality of segmentation predictions overlap. collecting at least one image of a scene, wherein the scene comprises a plurality of distinct objects; generating a plurality of segmentation predictions for the scene, wherein each segmentation prediction of the plurality of segmentation predictions includes a plurality of object regions each representing a region predicted to correspond to a single object and a confidence associated with the prediction of each region; and outputting a final segmentation prediction comprising at least one identified object region, wherein the at least one identified object region is chosen based on the confidence associated with the at least one identified object region and a confidence threshold, wherein the confidence associated with the at least one identified object region is greater than the confidence threshold, wherein outputting the final segmentation prediction comprises: identifying the confidence threshold, wherein the confidence threshold corresponds to a minimum percentage; and wherein the at least one identified object region is a region where the minimum percentage of segmentation predictions from the plurality of segmentation predictions overlap. a minimum percentage; and wherein the at least one identified object region is a region where the minimum percentage of segmentation predictions from the plurality of segmentation predictions overlap.
A method for communicating between a managed device and a device manager , the method comprising the steps of: sending the managed device a message over a first communications channel; and initiating communication between the managed device and the device manager over a second communications channel in response to the message, wherein the first communications channel and the second communications channel are of different types, wherein communications between the managed device and the device manager over the second communications channel are suspended until the message is received, wherein receipt of the message at the managed device additionally causes communications between the managed device and the device manager over a third communications channel to cease and switch to the second communications channel, wherein the third communications channel is different to the second communications channel, and wherein the second communications channel is secure and has a different security architecture to the first communications channel. sending the managed device a message over a first communications channel; and initiating communication between the managed device and the device manager over a second communications channel in response to the message, wherein the first communications channel and the second communications channel are of different types, wherein communications between the managed device and the device manager over the second communications channel are suspended until the message is received, wherein receipt of the message at the managed device additionally causes communications between the managed device and the device manager over a third communications channel to cease and switch to the second communications channel, wherein the third communications channel is different to the second communications channel, and wherein the second communications channel is secure and has a different security architecture to the first communications channel.
A use of a composition comprising a surfactant and an acidic material, wherein the composition is used for swelling pretreatment of a cured thermosetting resin material such as a cured epoxy resin material before decomposition such as pyrolysis or decpolymerization, wherein the surfactant is at least one selected from the group consisting of anionic surfactant, cationic surfactant, amphoteric surfactant, nonionic surfactant and special surfactant.
Biomass furnace having two side walls of the biomass furnace, comprising: a combustion chamber which is narrower at the rear than at the front; a flue gas collecting region arranged below the combustion chamber; and at least one flue gas channel for conducting flue gas from an upper region of the combustion chamber downwards into the flue gas collecting region, characterised in that the at least one flue gas channel is arranged at least partially between one of the side walls and the combustion chamber in the region, where the combustion chamber is designed in a narrower manner and a cross section of the at least one flue gas channel is adapted to the chamber provided by tapering of the combustion chamber between the one side wall and the combustion chamber. a combustion chamber which is narrower at the rear than at the front; a flue gas collecting region arranged below the combustion chamber; and at least one flue gas channel for conducting flue gas from an upper region of the combustion chamber downwards into the flue gas collecting region, characterised in that the at least one flue gas channel is arranged at least partially between one of the side walls and the combustion chamber in the region, where the combustion chamber is designed in a narrower manner and a cross section of the at least one flue gas channel is adapted to the chamber provided by tapering of the combustion chamber between the one side wall and the combustion chamber.
A magnetic actuator comprising: a first flexible magnetic fabric layer configured to support first magnetic dipoles ; a second flexible magnetic fabric layer configured to support a second magnetic dipole , wherein the second flexible magnetic fabric layer is arranged in slidable contact with the first flexible magnetic fabric layer; and a control circuit configured to reorient at least the first magnetic dipoles and thereby modify a force of interaction between the first and second flexible magnetic fabric layers, wherein the first flexible magnetic fabric layer is a flexible electropermanent magnetic fabric layer including a winding coupled electrically to the control circuit that is configured to control the magnitude and direction of electric current flowing through the winding and reorient the first magnetic dipoles by an induced magnetic field, and the first flexible magnetic fabric layer comprises discrete magnetic domains including the first magnetic dipoles, the discrete magnetic domains being arranged within particles distributed within the first flexible magnetic fabric layer, external to non-magnetic warp fibers and non-magnetic weft fibers included in the first flexible magnetic fabric layer. a first flexible magnetic fabric layer configured to support first magnetic dipoles ; a second flexible magnetic fabric layer configured to support a second magnetic dipole , wherein the second flexible magnetic fabric layer is arranged in slidable contact with the first flexible magnetic fabric layer; and a control circuit configured to reorient at least the first magnetic dipoles and thereby modify a force of interaction between the first and second flexible magnetic fabric layers, wherein the first flexible magnetic fabric layer is a flexible electropermanent magnetic fabric layer including a winding coupled electrically to the control circuit that is configured to control the magnitude and direction of electric current flowing through the winding and reorient the first magnetic dipoles by an induced magnetic field, and the first flexible magnetic fabric layer comprises discrete magnetic domains including the first magnetic dipoles, the discrete magnetic domains being arranged within particles distributed within the first flexible magnetic fabric layer, external to non-magnetic warp fibers and non-magnetic weft fibers included in the first flexible magnetic fabric layer.