mhurhangee/patent-ind-claim-en huggingface dataset:
A method of electrochemically decontaminating irradiated nuclear graphite, the method comprising: immersing irradiated nuclear graphite in a molten salt electrolyte, wherein the molten salt comprises one or more alkali metal halide salts, alkaline earth metal halide salts, or combinations thereof; and subjecting the irradiated nuclear graphite to an electrochemical treatment comprising one or more electrochemical cycles, wherein each electrochemical cycle comprises exposing the irradiated nuclear graphite to an oxidising and reducing electric potential. immersing irradiated nuclear graphite in a molten salt electrolyte, wherein the molten salt comprises one or more alkali metal halide salts, alkaline earth metal halide salts, or combinations thereof; and subjecting the irradiated nuclear graphite to an electrochemical treatment comprising one or more electrochemical cycles, wherein each electrochemical cycle comprises exposing the irradiated nuclear graphite to an oxidising and reducing electric potential.
An organic salt comprising terephthalic acid and at least one kind of primary alkylamine, wherein an alkyl group constituting the primary alkylamine has 6 or more and 17 or less carbon atoms.
An apparatus for applying negative pressure to a wound, the apparatus comprising: a negative pressure source configured to couple via a fluid flow path to a wound dressing and provide negative pressure to the wound dressing; a sensor configured to monitor pressure in the fluid flow path; characterized by a controller configured to: based at least in part on the pressure in the fluid flow path, determine that the wound dressing is coupled to a wound further based on at least one of detection of change in flow of exudate in the fluid flow path or detection of presence of blood in the fluid flow path, and output an indication that the wound dressing is coupled to the wound. a negative pressure source configured to couple via a fluid flow path to a wound dressing and provide negative pressure to the wound dressing; a sensor configured to monitor pressure in the fluid flow path; characterized by a controller configured to: based at least in part on the pressure in the fluid flow path, determine that the wound dressing is coupled to a wound further based on at least one of detection of change in flow of exudate in the fluid flow path or detection of presence of blood in the fluid flow path, and output an indication that the wound dressing is coupled to the wound. based at least in part on the pressure in the fluid flow path, determine that the wound dressing is coupled to a wound further based on at least one of detection of change in flow of exudate in the fluid flow path or detection of presence of blood in the fluid flow path, and output an indication that the wound dressing is coupled to the wound.
An electrical load protection device connectable between an electrical load and an electrical supply, the device comprising: a circuit breaker operable between a closed state in which the load is connected to the supply, and an open state in which the load is disconnected from the supply; a current sensor for measuring current drawn by the load from the supply; a control unit configured to control the operation of the circuit breaker depending on the measured current in accordance with a trip characteristic, characterised in that the device is configured to maintain a load profile comprising data indicating how the load varies over one or more periods of time, and wherein said trip characteristic is determined by said load profile. a circuit breaker operable between a closed state in which the load is connected to the supply, and an open state in which the load is disconnected from the supply; a current sensor for measuring current drawn by the load from the supply; a control unit configured to control the operation of the circuit breaker depending on the measured current in accordance with a trip characteristic, characterised in that the device is configured to maintain a load profile comprising data indicating how the load varies over one or more periods of time, and wherein said trip characteristic is determined by said load profile.
Method for loading digital geographical map tiles by way of an autonomous or semiautonomous vehicle from an external server unit , having the steps of: - determining a current speed of the vehicle , - determining a connection quality of a data connection currently available for the vehicle to an external server unit , - calculating a size of area to be loaded by the vehicle for a planned route on the basis of the speed of the vehicle and the connection quality of the vehicle to the at least one external server unit , - calculating a list of map tiles to be loaded on the basis of the size of area to be loaded by excluding map tiles that are already stored in a control unit of the vehicle, - determining a prioritized order for the listed map tiles that are to be loaded, - loading the map tiles in prioritized order, wherein during manual operation of the vehicle a size of area to be loaded is minimized as speed increases, the size of area of the area to be loaded in the form of map tiles being maximized as speed increases at speeds of the vehicle below a maximum speed of an automatic driving function or a driving assistance function. - determining a current speed of the vehicle , - determining a connection quality of a data connection currently available for the vehicle to an external server unit , - calculating a size of area to be loaded by the vehicle for a planned route on the basis of the speed of the vehicle and the connection quality of the vehicle to the at least one external server unit , - calculating a list of map tiles to be loaded on the basis of the size of area to be loaded by excluding map tiles that are already stored in a control unit of the vehicle, - determining a prioritized order for the listed map tiles that are to be loaded, - loading the map tiles in prioritized order,
A display device comprising an organic fluorescent body unit (ODU) and a display panel (DP) provided on the organic fluorescent body unit, wherein the organic fluorescent body unit comprises: a light source unit comprising a light source substrate (CB) and a plurality of light sources (LS) on the light source substrate; a plurality of red organic fluorescent bodies (ODP), each of which respectively covers one of the light sources, the plurality of red organic fluorescent bodies forming a red organic fluorescent body pattern; and a green organic fluorescent body layer (ODL2) provided on the red organic fluorescent body pattern and comprising a green organic fluorescent body (GOD). a light source unit comprising a light source substrate (CB) and a plurality of light sources (LS) on the light source substrate; a plurality of red organic fluorescent bodies (ODP), each of which respectively covers one of the light sources, the plurality of red organic fluorescent bodies forming a red organic fluorescent body pattern; and a green organic fluorescent body layer (ODL2) provided on the red organic fluorescent body pattern and comprising a green organic fluorescent body (GOD).
A multi-camera endoscope having a dynamic field of view comprising: a. an elongated shaft terminating with a tip section , wherein a tilted front camera is located on a frontal tip section of said tip section and provides a field of view of 80 degrees or more b. a maneuvering section connected to the elongated shaft , the maneuvering section being located between the tip section and the shaft and being configured to control the angle of the tip section relative to the shaft, wherein said maneuvering section is operated manually or electrically; c. a second camera located in the tip section and a third camera located behind the maneuvering section on an external surface of the elongated shaft , wherein the second and third cameras are placed at 90 degrees to the elongated shaft longitudinal axis facing the same viewing direction, and wherein the second and third cameras each provide a field of view of 80 degrees or more, and d. one or more illuminators located on external surface of the elongated shaft; wherein an overlap of the field of view of the second camera and the field of view of the third camera is changed when the maneuvering section changes the angle of the tip section relative to the shaft so as to provide the dynamic field of view. a. an elongated shaft terminating with a tip section , wherein a tilted front camera is located on a frontal tip section of said tip section and provides a field of view of 80 degrees or more b. a maneuvering section connected to the elongated shaft , the maneuvering section being located between the tip section and the shaft and being configured to control the angle of the tip section relative to the shaft, wherein said maneuvering section is operated manually or electrically; c. a second camera located in the tip section and a third camera located behind the maneuvering section on an external surface of the elongated shaft , wherein the second and third cameras are placed at 90 degrees to the elongated shaft longitudinal axis facing the same viewing direction, and wherein the second and third cameras each provide a field of view of 80 degrees or more, and d. one or more illuminators located on external surface of the elongated shaft;
A producing method for producing a formed metal item that includes a tubular part with a slit , the producing method comprising: (i) a step of forming a U-shaped part having a U-shaped cross section by deforming a metal plate ; and (ii) a step of forming the tubular part with the slit by deforming the U-shaped part using a die assembly provided with a protruding part in such a manner that two end parts (E1, E2) of the U-shaped part clamp the protruding part , wherein in the step (ii), the cross-section peripheral length LH of the tubular part is made shorter than the cross-section length LU of the U-shaped part and the step (ii) includes: (ii-1) a step of forming a cylindrical-shape portion by deforming the U-shaped part using the die assembly in such a manner that the two end parts (E1, E2) of the U-shaped part clamp the protruding part , the cylindrical-shape portion being to be the tubular part; and (ii-2) a step of pressing an outer peripheral surface of the cylindrical-shape portion while the two end parts (E1, E2) are clamping the protruding part , whereby the cross-section peripheral length LT of the cylindrical-shape portion is shortened. (i) a step of forming a U-shaped part having a U-shaped cross section by deforming a metal plate ; and (ii) a step of forming the tubular part with the slit by deforming the U-shaped part using a die assembly provided with a protruding part in such a manner that two end parts (E1, E2) of the U-shaped part clamp the protruding part , wherein (ii-1) a step of forming a cylindrical-shape portion by deforming the U-shaped part using the die assembly in such a manner that the two end parts (E1, E2) of the U-shaped part clamp the protruding part , the cylindrical-shape portion being to be the tubular part; and (ii-2) a step of pressing an outer peripheral surface of the cylindrical-shape portion while the two end parts (E1, E2) are clamping the protruding part , whereby the cross-section peripheral length LT of the cylindrical-shape portion is shortened.
An electronic device comprising: a display; a processor configured to process image data to be output on the display; and a display driver integrated circuit, DDI, configured to output the image data, which is transmitted by the processor, on the display , wherein the DDI is configured to: change a frame rate of the display to a target frame rate based on an image display state representing whether an image output on the display is a still image or a moving picture by determining whether code information, which is to indicate an image data update and is contained in the image data transmitted by the processor, is received, and drive the display to output an image corresponding to the image data at the changed target frame rate, wherein the change of the frame rate comprises changing the frame rate as a manner of stepwise changing from the frame rate to the target frame rate, and wherein the DDI is configured to: output the image data at a first frame rate if the code information is consecutively received and output the image data at a second frame rate lower than the first frame rate if the code information has stopped being received. a display; a processor configured to process image data to be output on the display; and a display driver integrated circuit, DDI, configured to output the image data, which is transmitted by the processor, on the display , wherein the DDI is configured to: change a frame rate of the display to a target frame rate based on an image display state representing whether an image output on the display is a still image or a moving picture by determining whether code information, which is to indicate an image data update and is contained in the image data transmitted by the processor, is received, and drive the display to output an image corresponding to the image data at the changed target frame rate, wherein the change of the frame rate comprises changing the frame rate as a manner of stepwise changing from the frame rate to the target frame rate, and wherein the DDI is configured to: output the image data at a first frame rate if the code information is consecutively received and output the image data at a second frame rate lower than the first frame rate if the code information has stopped being received. change a frame rate of the display to a target frame rate based on an image display state representing whether an image output on the display is a still image or a moving picture by determining whether code information, which is to indicate an image data update and is contained in the image data transmitted by the processor, is received, and drive the display to output an image corresponding to the image data at the changed target frame rate, wherein the change of the frame rate comprises changing the frame rate as a manner of stepwise changing from the frame rate to the target frame rate, and wherein the DDI is configured to: output the image data at a first frame rate if the code information is consecutively received and output the image data at a second frame rate lower than the first frame rate if the code information has stopped being received.
Crosslinking system comprising at least (a) a polyacid compound selected from organopolyphosphorus compounds of general formula (I) and polysulfonic acids of general formula (II), and (b) a polyphenol compound comprising at least one aromatic ring comprising 6 carbon atoms and at least two vicinal hydroxyl -OH functions; in which - A represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms, and - the R symbols represent, independently of one another, a hydrocarbon group comprising at least 1 carbon atom or a hydrogen atom; in which - A' represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms. (a) a polyacid compound selected from organopolyphosphorus compounds of general formula (I) and polysulfonic acids of general formula (II), and (b) a polyphenol compound comprising at least one aromatic ring comprising 6 carbon atoms and at least two vicinal hydroxyl -OH functions; in which - A represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms, and - the R symbols represent, independently of one another, a hydrocarbon group comprising at least 1 carbon atom or a hydrogen atom; in which - A' represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms. - A represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms, and - the R symbols represent, independently of one another, a hydrocarbon group comprising at least 1 carbon atom or a hydrogen atom; in which - A' represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom, which is optionally substituted and optionally interrupted by one or more heteroatoms.
A method for reprocessing a reusable medical instrument , including: - providing a container including a tray and a lid , the tray including one or more supports supporting the medical instrument, the tray having an opening for inserting therethrough the medical instrument into an inner space of the tray, and the lid being arranged for hermetically closing the opening; - inserting the container into a decontamination device ; - inside the decontamination device decontaminating the tray, the lid and the medical instrument while the lid is positioned away from the opening; - inside the decontamination device, a container handler of the decontamination device hermetically closing the container by closing the lid onto the tray for closing the opening; - reducing gas pressure inside the container prior to closing the container and maintaining said reduced gas pressure inside the container after removing the closed container from the decontamination device; and - removing the closed container containing the decontaminated medical instrument from the decontamination device. - providing a container including a tray and a lid , the tray including one or more supports supporting the medical instrument, the tray having an opening for inserting therethrough the medical instrument into an inner space of the tray, and the lid being arranged for hermetically closing the opening; - inserting the container into a decontamination device ; - inside the decontamination device decontaminating the tray, the lid and the medical instrument while the lid is positioned away from the opening; - inside the decontamination device, a container handler of the decontamination device hermetically closing the container by closing the lid onto the tray for closing the opening; - reducing gas pressure inside the container prior to closing the container and maintaining said reduced gas pressure inside the container after removing the closed container from the decontamination device; and - removing the closed container containing the decontaminated medical instrument from the decontamination device.
A developing cartridge comprising: a toner storing portion to store toner; a developing portion disposed below the toner storing portion ; a partition wall formed between the developing portion and the toner storing portion , the partition wall having a toner supply opening through which the toner in the toner storing portion is to be supplied to the developing portion ; a storing-portion agitating member rotatably disposed in the toner storing portion to rotate to move the toner in the toner storing portion toward the toner supply opening; a developing-portion agitating member rotatably disposed in the developing portion to rotate while the storing-portion agitating member rotates; and a supply roller located below the developing-portion agitating member , wherein the developing-portion agitating member is to rotate to move the toner in the developing portion toward the supply roller ; wherein at least one of the storing-portion agitating member and the developing-portion agitating member comprises an elastic member , and characterized in that the developing-portion agitating member continuously rotates while the storing-portion agitating member intermittently rotates. a toner storing portion to store toner; a developing portion disposed below the toner storing portion ; a partition wall formed between the developing portion and the toner storing portion , the partition wall having a toner supply opening through which the toner in the toner storing portion is to be supplied to the developing portion ; a storing-portion agitating member rotatably disposed in the toner storing portion to rotate to move the toner in the toner storing portion toward the toner supply opening; a developing-portion agitating member rotatably disposed in the developing portion to rotate while the storing-portion agitating member rotates; and a supply roller located below the developing-portion agitating member , wherein the developing-portion agitating member is to rotate to move the toner in the developing portion toward the supply roller ; wherein at least one of the storing-portion agitating member and the developing-portion agitating member comprises an elastic member , and characterized in that the developing-portion agitating member continuously rotates while the storing-portion agitating member intermittently rotates.
A method for a user equipment, UE , to report channel state information, CSI, for a plurality of transmission and reception points, TRPs, in a communication system, the method comprising: measuring downlink, DL, channels received from a plurality of TRPs; determining a plurality of transmission hypotheses based on the measured DL channels from the plurality of TRPs; and transmitting channel state information, CSI, to a network in the communication system, the CSI including a precoding matrix indicator, PMI, characterized by the PMI having at least a spatial domain basis matrix that is common to all of the plurality of transmission hypotheses and at least one coefficient matrix that is based on the spatial domain basis matrix . measuring downlink, DL, channels received from a plurality of TRPs; determining a plurality of transmission hypotheses based on the measured DL channels from the plurality of TRPs; and transmitting channel state information, CSI, to a network in the communication system, the CSI including a precoding matrix indicator, PMI, characterized by the PMI having at least a spatial domain basis matrix that is common to all of the plurality of transmission hypotheses and at least one coefficient matrix that is based on the spatial domain basis matrix .