mhurhangee/patent-ind-claim-en huggingface dataset:
A video display device comprising: a video input unit ; a first Retinex processing unit which performs a first Retinex process on a video inputted from the video input unit ; a second Retinex processing unit which performs a second Retinex process, which is different from the first Retinex process in a method, on the video inputted from the video input unit ; a video composing unit which can compose a video processed by the first Retinex processing unit and a video processed by the second Retinex processing unit in accordance with a feature of the video inputted from the video input unit ; and a display unit which can display an output video of the video composing unit , wherein the first Retinex process is a process which separates an input video into a plurality of reflected light components including a specular component and a diffusing component, which adjusts each of the plurality of separated reflected light components by a weight value, which performs a weighted average, and which controls a ratio of a reflected light in the video, and wherein the second Retinex process is a Retinex process having a larger scale than a scale of the first Retinex process. a video input unit ; a first Retinex processing unit which performs a first Retinex process on a video inputted from the video input unit ; a second Retinex processing unit which performs a second Retinex process, which is different from the first Retinex process in a method, on the video inputted from the video input unit ; a video composing unit which can compose a video processed by the first Retinex processing unit and a video processed by the second Retinex processing unit in accordance with a feature of the video inputted from the video input unit ; and a display unit which can display an output video of the video composing unit , wherein the first Retinex process is a process which separates an input video into a plurality of reflected light components including a specular component and a diffusing component, which adjusts each of the plurality of separated reflected light components by a weight value, which performs a weighted average, and which controls a ratio of a reflected light in the video, and wherein the second Retinex process is a Retinex process having a larger scale than a scale of the first Retinex process.
A gas turbine engine with a seal arrangement comprising: a first outer skin and a second outer skin disposed about an axial centerline of the gas turbine engine and forming portions of a nacelle of the gas turbine engine, the second outer skin adjacent the first outer skin and comprising at least one cowl door ; a bulkhead extending substantially radially at least a portion of a distance between the axial centerline and one of the first outer skin and the second outer skin ; a first outer frame comprising a first portion , a second portion , and a third portion , the first portion of the first outer frame mounted to the bulkhead ; and a seal mounted to one of the at least one cowl door and the second portion , wherein the at least one cowl door is rotatable between a first position and a second position and wherein in the second position the seal is in contact with the at least one cowl door and the second portion , characterised in that the third portion is configured to limit a compression of the seal between the at least one cowl door and the second portion . a first outer skin and a second outer skin disposed about an axial centerline of the gas turbine engine and forming portions of a nacelle of the gas turbine engine, the second outer skin adjacent the first outer skin and comprising at least one cowl door ; a bulkhead extending substantially radially at least a portion of a distance between the axial centerline and one of the first outer skin and the second outer skin ; a first outer frame comprising a first portion , a second portion , and a third portion , the first portion of the first outer frame mounted to the bulkhead ; and a seal mounted to one of the at least one cowl door and the second portion , wherein the at least one cowl door is rotatable between a first position and a second position and wherein in the second position the seal is in contact with the at least one cowl door and the second portion , characterised in that the third portion is configured to limit a compression of the seal between the at least one cowl door and the second portion .
A method for adaptive streaming of chunk encoded content, the method comprising receiving, by a computing device , a chunk of content; determining, based on the chunk of the content, a clock reference; determining a time associated with the computing device; determining, based on the clock reference and the time associated with the computing device , a modified time associated with the computing device, wherein the modified time is synchronized with a clock associated with a source of the chunk of the content; determining, based on the modified time, a transmission duration of the chunk of the content; determining, based on the transmission duration satisfying a threshold, that a bitrate for the chunk of the content is network limited; and determining, based on the bitrate for the chunk of the content being network limited, a bitrate for a next chunk of the content. determining, based on the chunk of the content, a clock reference; determining a time associated with the computing device; determining, based on the clock reference and the time associated with the computing device , a modified time associated with the computing device, wherein the modified time is synchronized with a clock associated with a source of the chunk of the content; determining, based on the modified time, a transmission duration of the chunk of the content; determining, based on the transmission duration satisfying a threshold, that a bitrate for the chunk of the content is network limited; and determining, based on the bitrate for the chunk of the content being network limited, a bitrate for a next chunk of the content.
A filtering beaker for producing a liquid emulsion comprising: a main body with tubular geometry configured for receiving therein a blending device for producing the liquid emulsion; a filtering body with a geometry matching the tubular geometry of the main body at least at a connecting portion of the filtering body , wherein the filtering body is removably attachable to the main body by the connecting portion thereof, wherein the filtering body is or comprises a base covering a cross-section of the filtering beaker , and wherein the filtering beaker , in particular the filtering body , comprises at least one filtering area for filtering and emulsifying a liquid emulsion being produced with the filtering beaker , wherein the at least one filtering area is arranged on the base of the filtering body ; wherein the filtering beaker further comprises one or more standing portions for supporting the filtering beaker on a substrate when the filtering beaker stands on said substrate, wherein the one or more standing portions extend in a longitudinal direction of the filtering beaker such that, when the filtering beaker stands on said substrate, a gap remains between the substrate and the filtering body and/or between the substrate and the base , allowing a turbulent flow driven by a blending device received within the filtering beaker to be directed through the at least one filtering area axially downwards within said gap towards the substrate. a main body with tubular geometry configured for receiving therein a blending device for producing the liquid emulsion; a filtering body with a geometry matching the tubular geometry of the main body at least at a connecting portion of the filtering body , wherein the filtering body is removably attachable to the main body by the connecting portion thereof, wherein the filtering body is or comprises a base covering a cross-section of the filtering beaker , and wherein the filtering beaker , in particular the filtering body , comprises at least one filtering area for filtering and emulsifying a liquid emulsion being produced with the filtering beaker , wherein the at least one filtering area is arranged on the base of the filtering body ; wherein the filtering beaker further comprises one or more standing portions for supporting the filtering beaker on a substrate when the filtering beaker stands on said substrate, wherein the one or more standing portions extend in a longitudinal direction of the filtering beaker such that, when the filtering beaker stands on said substrate, a gap remains between the substrate and the filtering body and/or between the substrate and the base , allowing a turbulent flow driven by a blending device received within the filtering beaker to be directed through the at least one filtering area axially downwards within said gap towards the substrate.
A method for monitoring a layerwise additive manufacturing process, the method comprising: obtaining, by a computing system comprising one or more computing devices, geometric measurement data captured by an image capture device , the geometric measurement data representing a layer of a structure being manufactured using an additive manufacturing process; characterized by comparing, by the computing system , the geometric measurement data with a standard optical representation associated with the structure ; determining, by the computing system , one or more nonconformance conditions between the geometric measurement data representing the layer and the standard optical representation ; and implementing, by the computing system , a control action based at least in part on the one or more nonconformance conditions, wherein determining one or more nonconformance conditions comprises: dividing, by the computing system , the geometric measurement data into spatial regions ; comparing, by the computing system , each of the spatial regions of the geometric measurement data with the standard optical representation ; and determining, by the computing system , one or more nonconformance conditions for the spatial regions based at least in part on a difference between the geometric measurement data and the standard optical representation for the spatial regions . obtaining, by a computing system comprising one or more computing devices, geometric measurement data captured by an image capture device , the geometric measurement data representing a layer of a structure being manufactured using an additive manufacturing process; characterized by comparing, by the computing system , the geometric measurement data with a standard optical representation associated with the structure ; determining, by the computing system , one or more nonconformance conditions between the geometric measurement data representing the layer and the standard optical representation ; and dividing, by the computing system , the geometric measurement data into spatial regions ; comparing, by the computing system , each of the spatial regions of the geometric measurement data with the standard optical representation ; and determining, by the computing system , one or more nonconformance conditions for the spatial regions based at least in part on a difference between the geometric measurement data and the standard optical representation for the spatial regions .
A device for controlling the charge of an aerosol comprising: - an aerosol (A) inlet zone ; - a discharge zone , in which charged species are generated, the discharge zone and the aerosol (A) inlet zone being arranged relative to one another so that the aerosol (A) thus introduced does not circulate through the discharge zone ; - a mixing zone for mixing the aerosol (A) with part of the charged species originating from the discharge zone ; - a post-discharge zone linked to the discharge zone , the aerosol (A) inlet zone and the mixing zone being arranged so that at least part of a flow circulating in the post-discharge zone conveys at least part of the charged species formed in the discharge zone towards said mixing zone , characterised in that the discharge zone is a discharge zone with dielectric barriers, the discharge zone being arranged so as to increase the amount of charged species extracted from the discharge zone towards the post-discharge zone through electrostatic repulsion. - an aerosol (A) inlet zone ; - a discharge zone , in which charged species are generated, the discharge zone and the aerosol (A) inlet zone being arranged relative to one another so that the aerosol (A) thus introduced does not circulate through the discharge zone ; - a mixing zone for mixing the aerosol (A) with part of the charged species originating from the discharge zone ; - a post-discharge zone linked to the discharge zone , the aerosol (A) inlet zone and the mixing zone being arranged so that at least part of a flow circulating in the post-discharge zone conveys at least part of the charged species formed in the discharge zone towards said mixing zone , characterised in that the discharge zone is a discharge zone with dielectric barriers, the discharge zone being arranged so as to increase the amount of charged species extracted from the discharge zone towards the post-discharge zone through electrostatic repulsion.
A switch-fuse module comprising: a housing having therein a switch enclosure comprising an insulating gas and a cable compartment that is different and separate from the switch enclosure ; at least one switch disconnector arranged within the switch enclosure ; and at least one fuse canister ; wherein the fuse canister is adapted to receive a fuse , characterized in that the fuse canister has a vertically oriented longitudinal axis , and is arranged within the cable compartment , and the insulating gas has a global warming potential less than a global warming potential of SF6. a housing having therein a switch enclosure comprising an insulating gas and a cable compartment that is different and separate from the switch enclosure ; at least one switch disconnector arranged within the switch enclosure ; and at least one fuse canister ; wherein the fuse canister is adapted to receive a fuse , characterized in that the fuse canister has a vertically oriented longitudinal axis , and is arranged within the cable compartment , and the insulating gas has a global warming potential less than a global warming potential of SF6.
A secure device implemented by a secure tamper-resistant platform including a tamper-resistant hardware platform and a virtual primary platform operating with a low level operating system performing an abstraction of resources of the hardware platform , and a secondary platform with a high level operating system providing a further abstraction of resources to applications in which respective internal hosts are embedded, said secure device including an internal host domain including said internal hosts , said secure device including a plurality of physical and/or logical input/output interfaces through which externals hosts can access said internal hosts , said virtual primary platform being configured to set interactions between said externals hosts and said internal hosts , wherein said internal host domain includes a further set of virtual hosts each configured to operate as a proxy between an input/output interface and an application , each input/output interface being configured to address only one among the virtual hosts . said secure device including a plurality of physical and/or logical input/output interfaces through which externals hosts can access said internal hosts , said virtual primary platform being configured to set interactions between said externals hosts and said internal hosts , wherein said internal host domain includes a further set of virtual hosts each configured to operate as a proxy between an input/output interface and an application , each input/output interface being configured to address only one among the virtual hosts .
A system for localizing an ultra-wide band, UWB, apparatus , comprising: a UWB transceiver including a channel impulse response, CIR, feature processor configured to identify and extract a plurality of features of at least one CIR; wherein the CIR feature processor is further configured to filter the plurality of features of the at least one CIR in order to extract features within a region of a channel response index wherein the region of the channel response index is a subset of the total channel response index, to provide a filtered CIR; and a special-purpose processor configured to apply a machine learning classification process to the filtered CIR for analysis and subsequent processing by the machine learning classification process to localize the UWB apparatus in a vehicle. a UWB transceiver including a channel impulse response, CIR, feature processor configured to identify and extract a plurality of features of at least one CIR; wherein the CIR feature processor is further configured to filter the plurality of features of the at least one CIR in order to extract features within a region of a channel response index wherein the region of the channel response index is a subset of the total channel response index, to provide a filtered CIR; and a special-purpose processor configured to apply a machine learning classification process to the filtered CIR for analysis and subsequent processing by the machine learning classification process to localize the UWB apparatus in a vehicle.
An ink jet printing device for printing letter by ejecting ink, comprising: a liquid container for containing ink or solvent; a surface level sensor for detecting the surface level of ink or solvent in the liquid container ; storage unit for a control unit; and a display unit, wherein the display unit displays - for a leak detection processing - an indication based on a comparison between (i) an elapsed time that is calculated based on the detected and stored time of how long the surface level takes to reach a second level from a first level, and (ii) a detection time for the surface level to reach the second level from the first level which is calculated based on the printing contents and the ambient temperature, and a comparison between the elapsed time and a past elapsed time that is the stored elapsed time of a previous leak detection processing. a liquid container for containing ink or solvent; a surface level sensor for detecting the surface level of ink or solvent in the liquid container ; storage unit for a control unit; and a display unit, wherein the display unit displays - for a leak detection processing - an indication based on a comparison between (i) an elapsed time that is calculated based on the detected and stored time of how long the surface level takes to reach a second level from a first level, and (ii) a detection time for the surface level to reach the second level from the first level which is calculated based on the printing contents and the ambient temperature, and a comparison between the elapsed time and a past elapsed time that is the stored elapsed time of a previous leak detection processing.
An engine oil lubricant composition comprising at least 65 wt% of a Group IV base oil having a kinematic viscosity at 100°C of 5 cSt or less; 1 wt% to 5 wt% of a Group IV base oil having a kinematic viscosity at 100°C of 100 cSt to 200 cSt; and 10 wt% to 15 wt% of a Group II base oil having a kinematic viscosity at 100°C of 5 cSt or less, wherein the weight percents are based on the total weight of the engine oil lubricant composition, and wherein the engine oil lubricant composition has a kinematic viscosity at 100°C of 6 cSt or less, an HTHS (ASTM D4683) of less than or equal to 2.2 cP at 150°C and a FZG failure load stage of at least 6, as measured by the FZG A10/16.6R/130 test procedure.
An apparatus for location in a borehole, the apparatus comprising: a body ; a traction member comprising a sleeve configured for location around the body , the traction member rotatably mountable on the body so that the traction member rotates around the body , wherein the traction member is mountable on the body so as to define a skew angle relative to a longitudinal axis of the body and is configured to engage a wall of a borehole or bore-lining tubular to urge the apparatus along the wall of the borehole or bore-lining tubular on rotation of the traction member relative to the body ; and a fluid lubricated bearing between the traction member and the body , wherein at least part of the fluid lubricated bearing is formed on the traction member , wherein at least part of the traction member is constructed from an elastomeric or polymer material, the inner surface of the elastomeric or polymeric material provided with flutes and pads to create the fluid lubricated bearing. a body ; a traction member comprising a sleeve configured for location around the body , the traction member rotatably mountable on the body so that the traction member rotates around the body , wherein the traction member is mountable on the body so as to define a skew angle relative to a longitudinal axis of the body and is configured to engage a wall of a borehole or bore-lining tubular to urge the apparatus along the wall of the borehole or bore-lining tubular on rotation of the traction member relative to the body ; and a fluid lubricated bearing between the traction member and the body , wherein at least part of the fluid lubricated bearing is formed on the traction member , wherein at least part of the traction member is constructed from an elastomeric or polymer material, the inner surface of the elastomeric or polymeric material provided with flutes and pads to create the fluid lubricated bearing.
A sensor assembly for in-vivo monitoring of a body fluid or tissue (F), comprising: a pressure sensor element , comprising a microelectromechanical system (MEMS) and arranged to detect a pressure of the body fluid or tissue (F) in use; and a shield , which generally surrounds the pressure sensor element such that the pressure sensor element is within an interior volume of the shield , in order to protect and to prevent distortion of the pressure sensor element in use; wherein: the pressure sensor element comprises a biocompatible thin film layer , for resisting corrosion and/or fouling of a surface of the pressure sensor element by the body fluid or tissue (F) or biological matter thereof, the sensor assembly characterised in that the pressure sensor element and the shield are in fixed relationship with each other, the pressure sensor element being fixed relative to the shield by a filler material which fills a cavity in the interior volume of the shield , the filler material comprising a cured adhesive. a pressure sensor element , comprising a microelectromechanical system (MEMS) and arranged to detect a pressure of the body fluid or tissue (F) in use; and a shield , which generally surrounds the pressure sensor element such that the pressure sensor element is within an interior volume of the shield , in order to protect and to prevent distortion of the pressure sensor element in use; the pressure sensor element comprises a biocompatible thin film layer , for resisting corrosion and/or fouling of a surface of the pressure sensor element by the body fluid or tissue (F) or biological matter thereof, the sensor assembly characterised in that the pressure sensor element and the shield are in fixed relationship with each other, the pressure sensor element being fixed relative to the shield by a filler material which fills a cavity in the interior volume of the shield , the filler material comprising a cured adhesive.