mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, from an encoded video data bitstream, video data, a plurality of filters and filter selection information embedded in the video data bitstream; determining pixels for which each filter of the plurality of filters is to be applied based on a predetermined measure of local characteristics of an image wherein the predetermined measure of local characteristics of the image is a variance value of the pixels of a reconstructed image from a mean value of the pixels of the reconstructed image; selecting for the pixels, based on the filter selection information included in the video data bitstream and the variance value, a particular filter of the plurality of filters; and applying the particular filter to the pixels of decoded video data of the video data bitstream to produce filtered decoded video data wherein the particular filter is applied within a processing loop at the decoder in which a filtered frame is used to predict future frames; wherein a first filter of the plurality of filters is applied to first pixels having a first value of the predetermined measure of local characteristics of the image in a first range of values and a second filter of the plurality of filters is applied to second pixels having a second value of the predetermined measure of local characteristics of the image in a second range of values. receiving, from an encoded video data bitstream, video data, a plurality of filters and filter selection information embedded in the video data bitstream; determining pixels for which each filter of the plurality of filters is to be applied based on a predetermined measure of local characteristics of an image wherein the predetermined measure of local characteristics of the image is a variance value of the pixels of a reconstructed image from a mean value of the pixels of the reconstructed image; selecting for the pixels, based on the filter selection information included in the video data bitstream and the variance value, a particular filter of the plurality of filters; and applying the particular filter to the pixels of decoded video data of the video data bitstream to produce filtered decoded video data wherein the particular filter is applied within a processing loop at the decoder in which a filtered frame is used to predict future frames; wherein a first filter of the plurality of filters is applied to first pixels having a first value of the predetermined measure of local characteristics of the image in a first range of values and a second filter of the plurality of filters is applied to second pixels having a second value of the predetermined measure of local characteristics of the image in a second range of values.
A filter cartridge configured to be removably positionable within an inner opening of a housing , wherein the filter cartridge comprises: a media pack comprising an inlet end, an outlet end, and an outer surface having an outer peripheral shape; (a) a frame member at least partially surrounding the media pack, the frame member comprising a frame wall having a shape that is different from the outer perimeter shape of the media pack; and (b) a shell at least partially surrounding the media pack, the shell comprising a shell wall having a shape that is different from the outer perimeter shape of the media pack ; and a sealing member extending at least partially around the inlet end of the media pack, wherein the sealing member comprises a pinch seal portion that is spaced from the outer surface of the media pack ; wherein the sealing member connects the media pack to the frame member and the shell , characterized in that the outer perimeter shape of the media pack comprises at least one curved portion, and wherein the shape of at least one of the frame wall and the shell comprises a polygon shape. a media pack comprising an inlet end, an outlet end, and an outer surface having an outer peripheral shape; (a) a frame member at least partially surrounding the media pack, the frame member comprising a frame wall having a shape that is different from the outer perimeter shape of the media pack; and (b) a shell at least partially surrounding the media pack, the shell comprising a shell wall having a shape that is different from the outer perimeter shape of the media pack ; and (a) a frame member at least partially surrounding the media pack, the frame member comprising a frame wall having a shape that is different from the outer perimeter shape of the media pack; and (b) a shell at least partially surrounding the media pack, the shell comprising a shell wall having a shape that is different from the outer perimeter shape of the media pack ; and a sealing member extending at least partially around the inlet end of the media pack, wherein the sealing member comprises a pinch seal portion that is spaced from the outer surface of the media pack ; wherein the sealing member connects the media pack to the frame member and the shell ,
Device for transferring a flat piece , in particular a plastic card , from an initial position to a destination position, comprising a holder element for holding the flat piece ; and a rotator element , which is rotatable around a rotation axis ; wherein the holder element is swivel-mounted to the rotator element , such that the holder element is rotatable relative to the rotator element around a swivel axis ; characterised in that when the rotator element is at a destination rotation angle, the holder element can have a first or a second holder orientation relative to the rotator element , wherein the first and second holder orientation relative to the rotator element are oriented opposite to each other; and, when the rotator element is rotated from an initial rotation angle towards the destination rotation angle in a first rotation direction, the holder element reaches the destination position having the second orientation relative to the rotator element . a holder element for holding the flat piece ; and a rotator element , which is rotatable around a rotation axis ; wherein the holder element is swivel-mounted to the rotator element , such that the holder element is rotatable relative to the rotator element around a swivel axis ; characterised in that when the rotator element is at a destination rotation angle, the holder element can have a first or a second holder orientation relative to the rotator element , wherein the first and second holder orientation relative to the rotator element are oriented opposite to each other; and, when the rotator element is rotated from an initial rotation angle towards the destination rotation angle in a first rotation direction, the holder element reaches the destination position having the second orientation relative to the rotator element .
A tool for stripping or removing part of a tubular in a wellbore, the tool comprising: a plurality of tool sections , each tool section comprising a propellant source having an upper surface ) and lower surface , the upper and lower surfaces being separated by an outer surface extending around the perimeter of the propellant source , a first flame retardant material being associated with the propellant source upper surface and a second flame retardant material being associated with the propellant source lower surface ; at least one modifying agent provided in or adjacent the tool sections or generated by the tool sections ; and an ignition mechanism for igniting the propellant source outer surface of each tool section , such that upon ignition, each propellant source is adapted to deflagrate and combining with the at least one modifying agent to create a stream of combustion products , the stream of combustion products extending around, and flowing away from, the outer surface of said propellant source , wherein the ignition mechanism comprises an initiator which runs from a control location to the outer surface of the first tool propellant source and the tool sections are arranged in a stack, transfer ignitors being positioned between the tool sections. a plurality of tool sections , each tool section comprising a propellant source having an upper surface ) and lower surface , the upper and lower surfaces being separated by an outer surface extending around the perimeter of the propellant source , a first flame retardant material being associated with the propellant source upper surface and a second flame retardant material being associated with the propellant source lower surface ; at least one modifying agent provided in or adjacent the tool sections or generated by the tool sections ; and an ignition mechanism for igniting the propellant source outer surface of each tool section , such that upon ignition, each propellant source is adapted to deflagrate and combining with the at least one modifying agent to create a stream of combustion products , the stream of combustion products extending around, and flowing away from, the outer surface of said propellant source , wherein the ignition mechanism comprises an initiator which runs from a control location to the outer surface of the first tool propellant source and the tool sections are arranged in a stack, transfer ignitors being positioned between the tool sections.
A system comprising: a pressure-mitigation apparatus that includes a geometric arrangement of inflatable chambers formed by interconnections between a top layer and a bottom layer , wherein the top layer is comprised of an air-permeable, non-irritating material configured for direct contact with a human body, and wherein the inflatable chambers are configured to mitigate contact pressure applied to the human body by a support surface when pressure in the inflatable chambers is varied; and an attachment apparatus for securing the pressure-mitigation apparatus to the support surface, characterised in that the attachment apparatus is comprised of a material that, when contacted by an outer surface of the bottom layer , provides sufficient tackiness to naturally limit movement of the pressure-mitigation apparatus in relation to the support surface, but allows the pressure-mitigation apparatus to be readily detached from the attachment apparatus , and wherein the attachment apparatus includes an adhesive film disposed along a bottom surface that is to contact the support surface. a pressure-mitigation apparatus that includes a geometric arrangement of inflatable chambers formed by interconnections between a top layer and a bottom layer , wherein the top layer is comprised of an air-permeable, non-irritating material configured for direct contact with a human body, and wherein the inflatable chambers are configured to mitigate contact pressure applied to the human body by a support surface when pressure in the inflatable chambers is varied; and an attachment apparatus for securing the pressure-mitigation apparatus to the support surface, characterised in that the attachment apparatus is comprised of a material that, when contacted by an outer surface of the bottom layer , provides sufficient tackiness to naturally limit movement of the pressure-mitigation apparatus in relation to the support surface, but allows the pressure-mitigation apparatus to be readily detached from the attachment apparatus , and wherein the attachment apparatus includes an adhesive film disposed along a bottom surface that is to contact the support surface.
Rubberized reinforcing ply for articles composed of elastomeric material, preferably for vehicle tires, wherein the reinforcing ply has a multiplicity of strengthening elements which are in parallel and spaced apart, wherein each strengthening element is a cord which is end-twisted from at least two twisted multifilament yarns, characterized in that the cord is end-twisted from at least two twisted multifilament yarns composed of polyamide 6.6, in that the raw yarn composed of polyamide 6.6 has a tenacity which, at an elongation of 4%, is within a range from 1.35 cN/dtex to 1.60 cN/dtex, in that the cord has a tenacity which, at an elongation of 4%, is within a range from 1.2 cN/dtex to 2 cN/dtex and in that the cord has a thermal shrinkage at 177° within a range of 4.0% - 7.0%, wherein the tenacity in accordance with ASTM D885-16 and the thermal shrinkage at 177°C are determined under a pre-tension of 0.045 g/dtex with an exposure time of two minutes.
An acoustic shutter assembly adapted to cover a window opening in a wall, including at least one window pane arranged in a frame having an inside adapted to be mounted on the wall and an outside adapted to face away from the wall, wherein at least one ventilation duct is arranged in the frame between an outer ventilation opening and an inner ventilation opening , wherein the ventilation duct extends between a first layer of sound absorbing material arranged at the inside of the frame and a second layer of sound absorbing material arranged at the outside of the frame, and wherein the first and second layers of sound absorbing material extend at least substantially in parallel with the window pane , wherein a number of acoustic reflectors in the form of plate material are arranged between the first and second layers of sound absorbing material so that the ventilation duct is separated into a number of respective ventilation channels formed between the acoustic reflectors , and in that each ventilation channel changes direction at least once between the outer ventilation opening and the inner ventilation opening , thereby at least substantially blocking any linear path from the outer ventilation opening to the inner ventilation opening .
A stereo vision system for a motor vehicle, comprising two imaging devices adapted to detect images from a region surrounding the motor vehicle, and an electronic processing means for processing image data provided by said imaging devices , wherein each imaging device comprises an image sensor , characterized in that said vision system is adapted to input window parameters to each image sensor for cutting out and outputting a window image part of the complete image area of each image sensor , wherein the window parameters are set independently for every image sensor , wherein each of the image sensors comprises a window input for specifying individual window parameters to each image sensor .
A system for treating a patient, comprising: a catheter defining a lumen: a pusher assembly slidably disposed within the lumen; a constraining element slidably disposed within the lumen and moveable independently of the pusher assembly, the constraining element having a tubular distal end disposable about a distal portion of the pusher assembly; and an embolic coil with a proximal end comprising a bulbous element , wherein the pusher assembly includes a distal receiving element , characterized in that the distal receiving element has a first portion defining a first planar surface extending radially and a second portion defining an elongated planar surface extending substantially perpendicular to and distally from the planar surface, the elongated planar surface having a protrusion extending away from the planar surface. a pusher assembly slidably disposed within the lumen; a constraining element slidably disposed within the lumen and moveable independently of the pusher assembly, the constraining element having a tubular distal end disposable about a distal portion of the pusher assembly; and an embolic coil with a proximal end comprising a bulbous element , wherein the pusher assembly includes a distal receiving element , characterized in that the distal receiving element has a first portion defining a first planar surface extending radially and a second portion defining an elongated planar surface extending substantially perpendicular to and distally from the planar surface, the elongated planar surface having a protrusion extending away from the planar surface.
A ventilation assembly comprising - a heat exchanger; - a collecting vessel ; - a mist generator ; said heat exchanger comprising two sets of channels arranged adjacent to each other for heat exchange between a first and a second air stream, said first air stream is intake air and said second air stream is exhaust air, wherein each of the sets of channels comprise at least one transversal drainage channel for drainage of condensate, said at least one drainage channel being connected to said collecting vessel , wherein said condensate collected in said collecting vessel is converted to an aerosol by said mist generator and - means for introducing said aerosol into the intake air stream under conditions of dry inlet air. - a heat exchanger; - a collecting vessel ; - a mist generator ; said heat exchanger comprising two sets of channels arranged adjacent to each other for heat exchange between a first and a second air stream, said first air stream is intake air and said second air stream is exhaust air, wherein each of the sets of channels comprise at least one transversal drainage channel for drainage of condensate, said at least one drainage channel being connected to said collecting vessel , wherein said condensate collected in said collecting vessel is converted to an aerosol by said mist generator and - means for introducing said aerosol into the intake air stream under conditions of dry inlet air.
A resonant sensor including a support , a proof body suspended from the support and having a resonant frequency ωa, means for measuring a force including at least one resonator of resonant frequency ω rn , said force being applied by the proof body , and a mechanical decoupling structure (S1) interposed between the proof body and the resonator , said decoupling structure (S1) including a decoupling mass , a first connecting element between the decoupling mass and the proof body, a second connecting element between the decoupling mass and the resonator , the decoupling structure (S1) having a main vibration mode whose resonant frequency ω d is such that ωa <ω d < ω rn , said mechanical decoupling structure forming a mechanical lowpass filter between the proof body and the resonator .
A microprocessor or microcontroller comprising at least one memory for storing instructions , at least one instruction loading unit configured to retrieve instructions from the memory and to transmit said instructions to an instruction execution unit , at least one of which is included, each instruction including at least a command and a time specification , and the instruction execution unit being configured to execute the command , and a time management unit , characterized in that the time management unit is configured to prescribe a system clock consisting of a sequence of system cycles and to signal at least the start of each system cycle to the instruction execution unit , each system cycle comprising a plurality of cycles of the processor clock of the microprocessor or microcontroller , the time specification in the respective instruction indicating for which system cycle the execution of the command is scheduled, and the instruction execution unit being configured to, in response to the signaling of the start of a system cycle , execute within this system cycle all commands whose execution has been scheduled for this system cycle .
An apparatus of a terminal in a wireless communication system, the apparatus comprising: at least one processor ; and at least one transceiver operatively coupled to the at least one processor, wherein the at least one processor is configured to: receive , from a base station , a measurement configuration, perform a measurement based on the measurement configuration, and transmit , to the base station , a measurement report including a measurement result for a cell, and wherein the measurement result for the cell comprises: a result of a layer-3 filtering for a cell quality of the cell, and path diversity information for indicating the number of one or more available beams, each of the one or more available beams providing a signal quality higher than a threshold, wherein the cell quality is obtained based on an average of signal qualities of downlink signals using multiple beams associated with the cell, and wherein each of the signal qualities is higher than the threshold. at least one processor ; and at least one transceiver operatively coupled to the at least one processor, wherein the at least one processor is configured to: receive , from a base station , a measurement configuration, perform a measurement based on the measurement configuration, and transmit , to the base station , a measurement report including a measurement result for a cell, and receive , from a base station , a measurement configuration, perform a measurement based on the measurement configuration, and transmit , to the base station , a measurement report including a measurement result for a cell, and wherein the measurement result for the cell comprises: a result of a layer-3 filtering for a cell quality of the cell, and path diversity information for indicating the number of one or more available beams, each of the one or more available beams providing a signal quality higher than a threshold, a result of a layer-3 filtering for a cell quality of the cell, and path diversity information for indicating the number of one or more available beams, each of the one or more available beams providing a signal quality higher than a threshold, wherein the cell quality is obtained based on an average of signal qualities of downlink signals using multiple beams associated with the cell, and wherein each of the signal qualities is higher than the threshold.
A polyacetal resin composition, comprising: (A) a polyacetal copolymer in an amount of 100 parts by mass, wherein the polyacetal copolymer (A) has a hemiformal end group content of 0.8 mmol/kg or less, (B) a hindered phenol-based antioxidant in an amount of more than 1.0 part by mass and 5.0 parts by mass or less, and (C) magnesium oxide in an amount of more than 4.0 parts by mass and 30 parts by mass or less, having an average particle diameter is 5.0 μm or less, wherein the average particle diameter is determined by the particle diameter at a cumulative value of 50% in the particle diameter distribution on a volume basis as measured by a laser diffraction / scattering method. (B) a hindered phenol-based antioxidant in an amount of more than 1.0 part by mass and 5.0 parts by mass or less, and (C) magnesium oxide in an amount of more than 4.0 parts by mass and 30 parts by mass or less, having an average particle diameter is 5.0 μm or less, wherein the average particle diameter is determined by the particle diameter at a cumulative value of 50% in the particle diameter distribution on a volume basis as measured by a laser diffraction / scattering method.