mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting point cloud data, the method comprising: encoding (S7300) the point cloud data; encapsulating (S7310) a bitstream including the point cloud data into a file including video component tracks carrying the point cloud data and a track for a plurality of atlas data of the point cloud data; and transmitting (S7320) the file to an apparatus, wherein a first sample entry of the file includes an atlas identifier of atlas data for the point cloud data, parameter set information for the atlas data, and Supplemental Enhancement Information, SEI, message for the atlas data, wherein a second sample entry of the file includes identifier information for identifying an atlas tile group in the atlas data, and information for representing a number of atlas tile groups in the atlas data, wherein the plurality of the atlas data are grouped based on a grouping type, wherein one or more video component tracks related to a specific atlas identifier are grouped among the video component tracks, and wherein the file further includes a timed metadata track for spatial regions that are dynamic in the point cloud data including information for a number of spatial regions. encoding (S7300) the point cloud data; encapsulating (S7310) a bitstream including the point cloud data into a file including video component tracks carrying the point cloud data and a track for a plurality of atlas data of the point cloud data; and transmitting (S7320) the file to an apparatus, wherein a first sample entry of the file includes an atlas identifier of atlas data for the point cloud data, parameter set information for the atlas data, and Supplemental Enhancement Information, SEI, message for the atlas data, wherein a second sample entry of the file includes identifier information for identifying an atlas tile group in the atlas data, and information for representing a number of atlas tile groups in the atlas data, wherein the plurality of the atlas data are grouped based on a grouping type, wherein one or more video component tracks related to a specific atlas identifier are grouped among the video component tracks, and wherein the file further includes a timed metadata track for spatial regions that are dynamic in the point cloud data including information for a number of spatial regions.
A method for using digital measurements to determine a concentration of an analyte molecule in a sample, the method comprising: producing a plurality of droplets having a volume distribution on a patterned surface with hydrophobic and hydrophilic patches, wherein at least one of the droplets of the plurality contains the analyte molecule from the sample and a detectable agent, measuring individual volumes of droplets in a first plurality of the droplets having a first volume distribution; analyzing at least a second plurality of the droplets having a second volume distribution to determine a number of droplets in the second plurality that contain the analyte molecule and the detectable agent; and using individual volumes of the droplets in the first plurality and the number of droplets in the second plurality that contain the analyte molecule and the detectable agent to determine the concentration of the analyte molecule in the sample; wherein the first volume distribution is the same as the second volume distribution. producing a plurality of droplets having a volume distribution on a patterned surface with hydrophobic and hydrophilic patches, wherein at least one of the droplets of the plurality contains the analyte molecule from the sample and a detectable agent, measuring individual volumes of droplets in a first plurality of the droplets having a first volume distribution; analyzing at least a second plurality of the droplets having a second volume distribution to determine a number of droplets in the second plurality that contain the analyte molecule and the detectable agent; and using individual volumes of the droplets in the first plurality and the number of droplets in the second plurality that contain the analyte molecule and the detectable agent to determine the concentration of the analyte molecule in the sample; wherein the first volume distribution is the same as the second volume distribution.
Battery arrangement (BA) for an auxiliary operation of a rail vehicle, comprising at least one battery unit (BU), wherein the battery unit (BU) has an electronic protection device (BMU) and a circuit for charging and discharging the battery unit, wherein for the positive input of the battery unit (BU), in particular a lithium ion battery unit, this circuit has a charge path (L) for charging the battery unit (BU) and a discharge path (E) which differs from the charge path (L) for discharging the battery unit (BU), wherein the discharge path (E) connects the positive input of the battery unit (BU) with a positive output terminal (BL+) of the battery arrangement (BA) as a discharge path, and wherein the charge path (L) is equipped with one or more electrical components, which offer protection for the battery unit (BU) from short-circuit current, overcharging and overheating, and wherein the discharge path (E) is equipped with one or more electrical components, which offer protection for the battery unit from short-circuit current, characterised in that at least one charging contactor (LS) is provided in the charge path (L) for switching off the charge path which is connected to the electronic protection device (BMU), wherein the connection is embodied so that at least one charging contactor (LS) switches off the charge path (L) when the electronic protection device (BMU) detects an overcharge of the battery unit (BU) and/or an impermissibly high current of the battery unit (BU) and/or an overheating.
An image processing system comprising: a haze depth estimating unit that derives a haze depth estimate value of one frame among a plurality of frames included in a moving image; a haze reliability estimating unit that estimates a reliability of the haze depth estimate value; a parameter adjusting unit that adjusts a parameter to be used in a haze removal process of the one frame based on the haze depth estimate value of the one frame, the estimated reliability of the haze depth estimate value and a relationship between the one frame and a past frame of the one frame; a haze removing unit that executes a haze removal process on the one frame based on the parameter adjusted by the parameter adjusting unit , wherein when the haze reliability estimating unit judges that in the one frame, the haze depth estimate value is not reliable, the parameter adjusting unit adjusts the parameter to be used in the haze removal process of the one frame such that it becomes close to, stepwise, a haze depth target value set at a time of the past frame; and when the haze reliability estimating unit judges otherwise, using the haze depth estimate value of the one frame as a haze depth target value of the one frame, the parameter adjusting unit adjusts the parameter to be used in the haze removal process of the one frame such that the parameter adjusted in the past frame becomes close to, stepwise, the haze depth target value. a haze depth estimating unit that derives a haze depth estimate value of one frame among a plurality of frames included in a moving image; a haze reliability estimating unit that estimates a reliability of the haze depth estimate value; a parameter adjusting unit that adjusts a parameter to be used in a haze removal process of the one frame based on the haze depth estimate value of the one frame, the estimated reliability of the haze depth estimate value and a relationship between the one frame and a past frame of the one frame; a haze removing unit that executes a haze removal process on the one frame based on the parameter adjusted by the parameter adjusting unit , wherein when the haze reliability estimating unit judges that in the one frame, the haze depth estimate value is not reliable, the parameter adjusting unit adjusts the parameter to be used in the haze removal process of the one frame such that it becomes close to, stepwise, a haze depth target value set at a time of the past frame; and when the haze reliability estimating unit judges otherwise, using the haze depth estimate value of the one frame as a haze depth target value of the one frame, the parameter adjusting unit adjusts the parameter to be used in the haze removal process of the one frame such that the parameter adjusted in the past frame becomes close to, stepwise, the haze depth target value.
A powder hair dye composition characterized by comprising the following components (A) to (C): (A) sodium percarbonate whose content is 1.8 to 3.7 mass% at the time of use; (B) p-phenylenediamine sulfate; and (C) m-aminophenol sulfate, characterized in that the content of p-phenylenediamine sulfate (B) is at least 7.5 times the content of m-aminophenol sulfate (C) on mass basis. (A) sodium percarbonate whose content is 1.8 to 3.7 mass% at the time of use; (B) p-phenylenediamine sulfate; and (C) m-aminophenol sulfate,
A slice resource deployment method, comprising: acquiring an overall slice resource deployment request by organizing sub-slice resource deployment requirement of each sub-slice; obtaining a resource deployment position corresponding to each sub-slice according to the overall slice resource deployment request and pre-acquired end-to-end resource information, the end-to-end resource information comprising end-to-end resource network topology relationship and end-to-end resource running information ; and performing slice resource deployment according to the resource deployment position corresponding to each sub-slice ; wherein obtaining the resource deployment position corresponding to each sub-slice according to the overall slice resource deployment request and the pre-acquired end-to-end resource information comprises: filtering Virtualized Infrastructure Manager, VIM, platform resources that do not meet the overall slice resource deployment request according to the end-to-end resource information to obtain filtered VIM platform resources; and obtaining the resource deployment position corresponding to each sub-slice according to the overall slice resource deployment request, the pre-acquired end-to-end resource information and the filtered VIM platform resources. acquiring an overall slice resource deployment request by organizing sub-slice resource deployment requirement of each sub-slice; obtaining a resource deployment position corresponding to each sub-slice according to the overall slice resource deployment request and pre-acquired end-to-end resource information, the end-to-end resource information comprising end-to-end resource network topology relationship and end-to-end resource running information ; and performing slice resource deployment according to the resource deployment position corresponding to each sub-slice ; wherein obtaining the resource deployment position corresponding to each sub-slice according to the overall slice resource deployment request and the pre-acquired end-to-end resource information comprises: filtering Virtualized Infrastructure Manager, VIM, platform resources that do not meet the overall slice resource deployment request according to the end-to-end resource information to obtain filtered VIM platform resources; and obtaining the resource deployment position corresponding to each sub-slice according to the overall slice resource deployment request, the pre-acquired end-to-end resource information and the filtered VIM platform resources. filtering Virtualized Infrastructure Manager, VIM, platform resources that do not meet the overall slice resource deployment request according to the end-to-end resource information to obtain filtered VIM platform resources; and obtaining the resource deployment position corresponding to each sub-slice according to the overall slice resource deployment request, the pre-acquired end-to-end resource information and the filtered VIM platform resources.
Plant for the endless, batch or combined production of strips and plates of hot-rolled steel with thickness from 0,6 mm to 50 mm or half of the maximum thickness of the cast slab, comprising a continuous caster with liquid core reduction of thin slabs having a minimum thickness of 80 mm at the outlet of said continuous caster , followed by an induction heater , with a first shear therebetween, and then a rolling mill followed by a second shear and a run out table with a cooling device and a pusher or pusher/piler for plates and then a third shear and a plurality of coilers , said plant further including a minimum-reduction rolling stand arranged between said continuous caster and said first shear , said minimum-reduction rolling stand being designed to perform a slab thickness reduction of only about 10% and in any case not more than 20%, starting from a thickness reduction of about 8 mm, wherein the plant further includes an additional induction heater and a descaler that are arranged between the continuous caster and the minimum-reduction rolling stand .
A tyre analysis method for determining characteristic parameters of an agricultural tractor provided with two front wheels supporting two front tyres and with two rear wheels supporting two rear tyres ; the method comprises the steps of: mounting a first rotation sensor on a first wheel ; mounting a second rotation sensor on a second wheel ; driving the agricultural tractor along a straight path; measuring, while driving the agricultural tractor along the straight path, the total number of revolutions made by the first wheel and by the second wheel ; determining at least one characteristic parameter using the total number of revolutions made by the first wheel and by the second wheel ; and measuring with a distance sensor a distance (D) traveled by the agricultural tractor ; said method being characterized in that the distance sensor is formed by: a receiver which is attached to a body of the agricultural tractor ; and a beacon placed in a fixed position on the ground nearby the travelling path of the agricultural tractor . mounting a first rotation sensor on a first wheel ; mounting a second rotation sensor on a second wheel ; driving the agricultural tractor along a straight path; measuring, while driving the agricultural tractor along the straight path, the total number of revolutions made by the first wheel and by the second wheel ; determining at least one characteristic parameter using the total number of revolutions made by the first wheel and by the second wheel ; and measuring with a distance sensor a distance (D) traveled by the agricultural tractor ; said method being characterized in that the distance sensor is formed by: a receiver which is attached to a body of the agricultural tractor ; and a beacon placed in a fixed position on the ground nearby the travelling path of the agricultural tractor . a receiver which is attached to a body of the agricultural tractor ; and a beacon placed in a fixed position on the ground nearby the travelling path of the agricultural tractor .
An intermittent movement type strong magnetic motor, comprising two permanent magnets , an electromagnetic coil set between the two permanent magnets , and a power supply device and a power output device connected with the electromagnetic coil , characterized in that , the intermittent movement type strong magnetic motor also comprises an arresting device which is capable of automatically locking/releasing the electromagnetic coil ; the arresting device comprises a locking mechanism and a transmission device that drives the locking mechanism to move; a control device which controls power connection/disconnection and reversal of current direction of the power supply device and which also controls operation of the transmission device , is also provided; the electromagnetic coil performs intermittent linear reciprocating movement or intermittent rotational movement repeatedly between the two permanent magnets ; the arresting device locks the electromagnetic coil just before each time the electromagnetic coil starts a journey of movement; before each time the electromagnetic coil is being locked, the control device first controls the power supply device to disconnect with power; after the arresting device locks the electromagnetic coil , the control device controls the power supply device to start power supply; after the power supply device has supplied power for a given length of time, the arresting device releases the electromagnetic coil quickly; the electromagnetic coil disengaged from the arresting device starts to move and operate.
A measurement signal configuration method performed by a first node, wherein the method is applied to a wireless relay system, the wireless relay system comprises at least the first node and a second node, the first node is a wireless relay or a base station , the second node is a wireless relay , and the method comprises: sending (S501), by the first node, a synchronization signal block, SSB, at a first set of candidate locations of the SSB, wherein the synchronization signal block, SSB, is to-be-used by the second node to discover (S502) the first node or measure (S502) an SSB of the first node, and the first set of candidate locations of the SSB comprises a set of candidate locations of SSBs sent by the first node to implement coverage; receiving (S503), by the first node, SSB optimization configuration information, wherein the SSB optimization configuration information comprises an identifier or a number of the SSB; characterized in that the method further comprises: determining (S504), by the first node, a synchronization signal block, SSB, sending subset based on the SSB optimization configuration information, wherein the SSB sending subset comprises some synchronization signal block, SSB, candidate locations; and sending (S506), by the first node, the SSB on the SSB sending subset. sending (S501), by the first node, a synchronization signal block, SSB, at a first set of candidate locations of the SSB, wherein the synchronization signal block, SSB, is to-be-used by the second node to discover (S502) the first node or measure (S502) an SSB of the first node, and the first set of candidate locations of the SSB comprises a set of candidate locations of SSBs sent by the first node to implement coverage; receiving (S503), by the first node, SSB optimization configuration information, wherein the SSB optimization configuration information comprises an identifier or a number of the SSB; characterized in that the method further comprises: determining (S504), by the first node, a synchronization signal block, SSB, sending subset based on the SSB optimization configuration information, wherein the SSB sending subset comprises some synchronization signal block, SSB, candidate locations; and sending (S506), by the first node, the SSB on the SSB sending subset. determining (S504), by the first node, a synchronization signal block, SSB, sending subset based on the SSB optimization configuration information, wherein the SSB sending subset comprises some synchronization signal block, SSB, candidate locations; and sending (S506), by the first node, the SSB on the SSB sending subset.
A camera to which an interchangeable lens apparatus is connectable via at least one adapter apparatus , the camera comprising: a lens-camera communication controller configured to communicate with the interchangeable lens apparatus by using a camera-lens communication channel ; and an adapter-camera communication controller configured to communicate with the adapter apparatus by using a camera-adapter communication channel provided separately from the camera-lens communication channel , wherein the camera-lens communication channel includes a first data communication line (DLC, DCL) used during a data communication and a first notification line (LCLK) used for a notification of a timing of a communication between the camera and the interchangeable lens apparatus, wherein the camera-adapter communication channel includes a second data communication line (DATA) used during the data communication and a second notification line (CS) that is used for a notification of a timing of a communication between the camera and the adapter apparatus and is provided separately from the first notification line (LCLK), and wherein the lens-camera communication controller is adapted to perform the communication regardless of whether the adapter-camera communication controller is communicating or not. a lens-camera communication controller configured to communicate with the interchangeable lens apparatus by using a camera-lens communication channel ; and an adapter-camera communication controller configured to communicate with the adapter apparatus by using a camera-adapter communication channel provided separately from the camera-lens communication channel , wherein the camera-lens communication channel includes a first data communication line (DLC, DCL) used during a data communication and a first notification line (LCLK) used for a notification of a timing of a communication between the camera and the interchangeable lens apparatus, wherein the camera-adapter communication channel includes a second data communication line (DATA) used during the data communication and a second notification line (CS) that is used for a notification of a timing of a communication between the camera and the adapter apparatus and is provided separately from the first notification line (LCLK), and wherein the lens-camera communication controller is adapted to perform the communication regardless of whether the adapter-camera communication controller is communicating or not.
A lighting device comprising an envelope , a solid-state light source , and an optical means , wherein the optical means is an element inside the lighting device separate from and not integrated with the envelope , characterized in that the solid-state light source is optically coupled to the optical means , wherein the optical means is provided with a light-outcoupling surface that allows outcoupling of light from the optical means by a surface roughness of the optical means , and wherein the surface roughness is provided such that the emission from the optical means resembles the emission of a carbon filament lamp.