mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting point cloud data, the method comprising: encoding the point cloud data; encapsulating 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 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 the point cloud data; encapsulating 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 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.
Method for keeping an exhaust gas aftertreatment system within its working temperature range during idle or motoring engine operation modes of an internal combustion engine, wherein the internal combustion engine is connected to the exhaust gas aftertreatment system and comprises a gas intake side and an exhaust gas outlet side, wherein the exhaust gas outlet side of the internal combustion engine is connected with the exhaust gas aftertreatment system via an exhaust gas duct and with the gas intake side via a connecting duct, the connecting duct providing a gas recirculation of the exhaust gas to the gas intake side of the internal combustion engine, and at least one valve (22; 24) controlling the recirculation of the exhaust gas, characterized in that the method comprises the steps of: - sensing the temperature of the gas at the gas intake side of the internal combustion engine; - determining whether or not the sensed temperature value is in a predetermined temperature interval; - determining whether the internal combustion engine is in an idle or motoring engine operation mode; - in case the internal combustion engine is determined to be in an idle or motoring engine operation mode, controlling the temperature of the gas at the gas intake side of the internal combustion engine to be within the predetermined temperature range by recirculating exhaust gas through the connecting duct by controlling the at least one valve (22; 24). - sensing the temperature of the gas at the gas intake side of the internal combustion engine; - determining whether or not the sensed temperature value is in a predetermined temperature interval; - determining whether the internal combustion engine is in an idle or motoring engine operation mode; - in case the internal combustion engine is determined to be in an idle or motoring engine operation mode, controlling the temperature of the gas at the gas intake side of the internal combustion engine to be within the predetermined temperature range by recirculating exhaust gas through the connecting duct by controlling the at least one valve (22; 24).
A method of electron beam welding with operational control of the power density and level of focus of the electron beam, comprising: - performing electron beam welding, wherein the electron beam is deflected by injecting linear, saw-toothed or sinusoidal oscillations in the frequency range from 300 to 2,000 Hz into a deflection current supplied to deflection coils for deflecting the electron beam; and further characterised by the following steps: - measuring, filtering and rectifying the waveform of a secondary current in the plasma generated during the welding process; - processing the filtered-and-rectified or original waveform of the secondary current using a synchronous integration method to obtain a function S(τ), wherein the function S(τ) is obtained by the formula S τ = ∫ t 0 g t + τ ⋅ Data t dt, where g(t+τ) is a reference waveform generated from the waveform of the deflection current shifted by time τ (0<τ<T, where T is the period of the deflection current), Data (t) is the waveform of the secondary current, t is time and t 0 is a sample time; - measuring a value of a delay of the function S(τ) relative to a waveform of the deflection current supplied to the deflection coils; - regulating a focusing current supplied to focusing coils for focusing the electron beam while holding the value of the delay at a constant level that corresponds to a specified magnitude of the power density of the electron beam. - performing electron beam welding, wherein the electron beam is deflected by injecting linear, saw-toothed or sinusoidal oscillations in the frequency range from 300 to 2,000 Hz into a deflection current supplied to deflection coils for deflecting the electron beam; and further characterised by the following steps: - measuring, filtering and rectifying the waveform of a secondary current in the plasma generated during the welding process; - processing the filtered-and-rectified or original waveform of the secondary current using a synchronous integration method to obtain a function S(τ), wherein the function S(τ) is obtained by the formula S τ = ∫ t 0 g t + τ ⋅ Data t dt, where g(t+τ) is a reference waveform generated from the waveform of the deflection current shifted by time τ (0<τ<T, where T is the period of the deflection current), Data (t) is the waveform of the secondary current, t is time and t 0 is a sample time; - measuring a value of a delay of the function S(τ) relative to a waveform of the deflection current supplied to the deflection coils; - regulating a focusing current supplied to focusing coils for focusing the electron beam while holding the value of the delay at a constant level that corresponds to a specified magnitude of the power density of the electron beam.
Loading device for the net-shape heat-treatment of disc- or ring-shaped workpieces, with a loading rack for the horizontal storage of the workpiece, characterized in that at least three ball joint supports are arranged on the loading rack, wherein the ball joint supports have a base plate with an internal thread, a screw element with an external thread matching the internal thread and a head in the shape of the surface of a portion of a sphere, and a pressure piece which matches the sphere portion surface of the head with an exact fit and is arranged thereon so as to be able to move.
Energy storage apparatus for the supply of electric energy to the powertrain of a motor vehicle, comprising a housing and at least one energy store accommodated in the housing, wherein a coil apparatus is provided which is configured for the inductive feeding of energy by means of an external magnetic field for charging the energy store and is arranged on an outer side of the housing, wherein the coil apparatus has a magnetically conductive carrier by means of which it is fixed to the housing, characterised in that the carrier is formed of an elastically deformable basic material with the admixture of a ferrite.
A door assembly for a space of a means of transport, comprising: a first door leaf; a second door leaf; characterized in that the door assembly further comprises a limitation device (301, 401, 501) for limiting the maximum angle of opening of the first door leaf relative to the second door leaf, irrespective of the angle of the second door leaf relative to a door frame (104, 105); wherein for adjusting the angle of opening the first door leaf and the second door leaf are pivotally held relative to each other. a first door leaf; a second door leaf; characterized in that the door assembly further comprises a limitation device (301, 401, 501) for limiting the maximum angle of opening of the first door leaf relative to the second door leaf, irrespective of the angle of the second door leaf relative to a door frame (104, 105);
A fluid dispenser module (M; M') for incorporating in a fluid dispenser head (T; T'; T") that is mounted on a fluid reservoir, the fluid dispenser module (M; M') comprising a fluid inlet (13; 13'), a dispenser orifice, and a fluid flow path (Cp) between the fluid inlet (13; 13') and the dispenser orifice, the dispenser module (M; M') further comprising a valve (3, 20; 3', 2') that selectively interrupts said fluid flow path (Cp), said valve (3, 20; 3', 2') opening when the fluid in the fluid flow path (Cp) upstream from the valve (3, 20; 3', 2') is at a determined pressure, characterized in that it further comprises a vent path (Ca) for venting the fluid reservoir.
A prosthetic foot, comprising: an elongate support member of carbon filament material having a top surface (128, 228); an adapter (110, 210) comprising: a compressible member (154, 254); a base portion; a cavity (170, 270) sized to receive the compressible member (154, 254); a connector portion extending from the base portion and configured to releasably secure the prosthetic foot to a prosthesis, wherein the base portion comprises a contact surface (162, 262) arranged to contact the top surface (128, 228) of the support member, wherein the volume of the cavity (170, 270) provides a gap between the compressible member (154, 254) and the surfaces of the cavity (170, 270) prior to use, the compressible member (154, 254) is deformable to fill the cavity (170, 270) when compressed and wherein the application of a force to the connector portion compresses the compressible member (154, 254) to dampen movement of the base portion relative to the support member until the contact surface (162, 262) contacts the top surface (128, 228). a compressible member (154, 254); a base portion; a cavity (170, 270) sized to receive the compressible member (154, 254); a connector portion extending from the base portion and configured to releasably secure the prosthetic foot to a prosthesis, wherein the base portion comprises a contact surface (162, 262) arranged to contact the top surface (128, 228) of the support member, wherein the volume of the cavity (170, 270) provides a gap between the compressible member (154, 254) and the surfaces of the cavity (170, 270) prior to use, the compressible member (154, 254) is deformable to fill the cavity (170, 270) when compressed and wherein the application of a force to the connector portion compresses the compressible member (154, 254) to dampen movement of the base portion relative to the support member until the contact surface (162, 262) contacts the top surface (128, 228).
A method comprising: a) dispensing a dispense volume of a cell suspension into each of a plurality of wells in a multi-well device, wherein said cell suspension comprises cells present in said cell suspension at a concentration such that, on average, between 0.1 and 100 cells are present in said dispense volume, and wherein said dispensing is performed with a liquid dispensing system; b) labeling at least a portion of said cells with a first detectable label before and/or after said dispensing; [[and]] c) determining the number of cell(s) present in each of at least some of said plurality of wells, wherein at least some of said plurality of wells are determined to have zero cells or more than one cell; and d) dispensing a reagent into each of at least some of said plurality of wells, wherein the reagent is not dispensed into any of the wells that were determined to have zero cells or more than one cell. a) dispensing a dispense volume of a cell suspension into each of a plurality of wells in a multi-well device, wherein said cell suspension comprises cells present in said cell suspension at a concentration such that, on average, between 0.1 and 100 cells are present in said dispense volume, and wherein said dispensing is performed with a liquid dispensing system; b) labeling at least a portion of said cells with a first detectable label before and/or after said dispensing; [[and]] c) determining the number of cell(s) present in each of at least some of said plurality of wells, wherein at least some of said plurality of wells are determined to have zero cells or more than one cell; and d) dispensing a reagent into each of at least some of said plurality of wells, wherein the reagent is not dispensed into any of the wells that were determined to have zero cells or more than one cell.
A handoff access method based on random access channel, for handoff access of a mobile terminal of a cellular mobile communication system, comprising Step a, sending a handoff request message to a target BS by a source BS, the handoff request message is used to request switching a mobile terminal that the source BS serves to the target BS; and characterized by further comprising: Step b, sending a handoff response message to the source BS by the target BS, then forwarding a handoff command with the content of the handoff response message to the mobile terminal by the source BS, wherein the handoff command message does not include reserved character code, and the reserved character code is a part of random access character codes separately allocated to the handoff access mobile terminal; Step c, after receiving the handoff command message by the mobile terminal, determining the handoff command message does not include the reserved character code, and then selecting a random access sub-channel, wherein the step of selecting a random access sub-channel comprises the following step: selecting a random access sub-channel having no reserved character code by the mobile terminal; or selecting a non-reserved character code and selecting a random access sub-channel that the non-reserved character code is located in by the mobile terminal, wherein the non-reserved character code is a residual random access character code; and Step d, initiating a handoff access procedure on the random access sub-channel by the mobile terminal. Step b, sending a handoff response message to the source BS by the target BS, then forwarding a handoff command with the content of the handoff response message to the mobile terminal by the source BS, wherein the handoff command message does not include reserved character code, and the reserved character code is a part of random access character codes separately allocated to the handoff access mobile terminal; Step c, after receiving the handoff command message by the mobile terminal, determining the handoff command message does not include the reserved character code, and then selecting a random access sub-channel, wherein the step of selecting a random access sub-channel comprises the following step: selecting a random access sub-channel having no reserved character code by the mobile terminal; or selecting a non-reserved character code and selecting a random access sub-channel that the non-reserved character code is located in by the mobile terminal, wherein the non-reserved character code is a residual random access character code; and Step d, initiating a handoff access procedure on the random access sub-channel by the mobile terminal.
A polysaccharide alkali swellable rheology modifier comprising an emulsion polymer comprising at least one polysaccharide portion and at least one synthetic portion, said polysaccharide alkali swellable rheology modifier being obtainable by emulsion polymerizing at least one polysaccharide with at least one anionic ethylenically unsaturated monomer and at least one nonionic ethylenically unsaturated monomer in the presence of an initiating system, wherein the minimum weight of anionic ethylenically unsaturated monomer is 15 weight percent or more of the total monomer added to the polymerization process, wherein at least one of the at least one nonionic ethylenically unsaturated monomers is a hydrophobic ethylenically unsaturated monomer present in an amount effective to form an emulsion, and wherein when the polysaccharide portion is obtained from cellulose or a cellulose derivative, the cellulose or cellulose derivative has 0.1% or greater solubility in water at 25°C.
A front-illuminated type semiconductor light-detecting element comprising: a silicon substrate comprised of a semiconductor of a first conductivity type, having a first principal surface and a second principal surface opposed to each other, and having a semiconductor region of a second conductivity type formed in the first principal surface side, wherein in the silicon substrate, an accumulation layer of the first conductivity type having a higher impurity concentration than the silicon substrate is formed in the second principal surface side and an irregular asperity is formed in at least a region opposed to the semiconductor region of the second conductivity type in the second principal surface, wherein the region opposed to the semiconductor region of the second conductivity type in the second principal surface of the silicon substrate is optically exposed, and wherein the first principal surface constitutes a light incident surface and light incident from the light incident surface travels in the silicon substrate. a silicon substrate comprised of a semiconductor of a first conductivity type, having a first principal surface and a second principal surface opposed to each other, and having a semiconductor region of a second conductivity type formed in the first principal surface side, wherein in the silicon substrate, an accumulation layer of the first conductivity type having a higher impurity concentration than the silicon substrate is formed in the second principal surface side and an irregular asperity is formed in at least a region opposed to the semiconductor region of the second conductivity type in the second principal surface, wherein the region opposed to the semiconductor region of the second conductivity type in the second principal surface of the silicon substrate is optically exposed, and wherein the first principal surface constitutes a light incident surface and light incident from the light incident surface travels in the silicon substrate.
Cleaning device, in particular washing machine or dishwasher, for cleaning a merchandise to be cleaned with process water in a washing process, with a device regulator, a vat for receiving the merchandise to be cleaned, a sump arranged below the vat, a waste water tank for temporarily storing waste water from the vat, a heat pump for extracting heat from the waste water tank and for adding it to the process water in the vat, a first connecting pipe, which leads from the sump to the waste water tank, wherein the first connecting pipe has an apex area higher than an upper side of the waste water tank and higher than the sump between the vat and the waste water tank, wherein the first connecting pipe leads into the upper side of the waste water tank and wherein the first connecting pipe decreases from the apex area monotonically towards the sump, a second connecting pipe, via which the waste water tank is connected with a discharge of the cleaning device, and a first pump for transporting process water through the first connecting pipe from the vat into the waste water tank, characterized in that no aeration is arranged at the apex area of the first connecting pipe.
A method for dynamic radio switching with user equipment (301, 400) feedback of performance metrics for use by a scheduler, the user equipment (301, 400) having a plurality of radios, the method comprising: the user equipment (301, 400) receiving an indication to switch from a first radio associated with a first radio access technology of a communication system to a second radio associated with a second radio access technology of the communication system; the user equipment (301, 400) transmitting (203, 207) the performance metrics; and the user equipment (301, 400) switching from a first radio of the plurality of radios to a second radio of the plurality of radios, the first radio associated with the first radio access technology and the second radio associated with the second radio access technology; characterized in that the performance metrics are metrics of the performance or state of a user application of the user equipment (301, 400) and are transmitted (203, 207) to the second radio at the time of switching from the first radio to the second radio. the user equipment (301, 400) receiving an indication to switch from a first radio associated with a first radio access technology of a communication system to a second radio associated with a second radio access technology of the communication system; the user equipment (301, 400) transmitting (203, 207) the performance metrics; and the user equipment (301, 400) switching from a first radio of the plurality of radios to a second radio of the plurality of radios, the first radio associated with the first radio access technology and the second radio associated with the second radio access technology; characterized in that the performance metrics are metrics of the performance or state of a user application of the user equipment (301, 400) and are transmitted (203, 207) to the second radio at the time of switching from the first radio to the second radio.
A method of activating a carbon monoxide removing catalyst for removing carbon monoxide from a reformed gas containing hydrogen as its major component and containing also carbon monoxide, said carbon monoxide removing catalyst comprising a ruthenium catalyst supported on an alumina support, characterized in that said carbon monoxide removing catalyst is activated solely by being caused to contact, at a temperature from 80 to 400 °C, an inactive gas or a hydrogen-containing inactive gas that consists of less than 50 volume % of hydrogen gas and the remaining volume of the inactive gas.