mhurhangee/ep-ind-claims huggingface dataset:
An exhaust gas oxidation catalyst characterised as comprising a catalyst substrate, wherein a plurality of exhaust gas channels has been formed, and a catalyst layer formed on the surface of the exhaust gas channels in the catalyst substrate; wherein the catalyst layer consists of a bottom catalyst layer, a top catalyst layer exposed in the exhaust gas channels, and an intermediate catalyst layer located between the bottom catalyst layer and top catalyst layer, is provided so as to cover not less than 25% of the exhaust gas channel surface, and wherein: (a) the bottom catalyst layer contains at least an oxygen-occluding agent as catalyst component but does not contain a hydrocarbon adsorbent, wherein the hydrocarbon adsorbent is a zeolite or a metallosilicate structure in which silicon or aluminium in a zeolite crystal lattice is replaced with a transition metal; (b) the intermediate catalyst layer contains at least catalyst metal, supported on a metal oxide support, and a hydrocarbon adsorbent as catalyst components, wherein the hydrocarbon adsorbent is a zeolite or a metallosilicate structure in which silicon or aluminium in a zeolite crystal lattice is replaced with a transition metal; and (c) the top catalyst layer contains at least an oxygen-occluding agent and a hydrocarbon adsorbent as catalyst components, wherein the hydrocarbon adsorbent is a zeolite or a metallosilicate structure in which silicon or aluminium in a zeolite crystal lattice is replaced with a transition metal. (a) the bottom catalyst layer contains at least an oxygen-occluding agent as catalyst component but does not contain a hydrocarbon adsorbent, wherein the hydrocarbon adsorbent is a zeolite or a metallosilicate structure in which silicon or aluminium in a zeolite crystal lattice is replaced with a transition metal; (b) the intermediate catalyst layer contains at least catalyst metal, supported on a metal oxide support, and a hydrocarbon adsorbent as catalyst components, wherein the hydrocarbon adsorbent is a zeolite or a metallosilicate structure in which silicon or aluminium in a zeolite crystal lattice is replaced with a transition metal; and (c) the top catalyst layer contains at least an oxygen-occluding agent and a hydrocarbon adsorbent as catalyst components, wherein the hydrocarbon adsorbent is a zeolite or a metallosilicate structure in which silicon or aluminium in a zeolite crystal lattice is replaced with a transition metal.
A vapour-generating system, comprising: a reservoir (24, 224) holding an aerosol-generating substrate; and a heating assembly (30, 230), comprising: a heating element (32, 233); and a ceramic element (31, 231, 331) comprising pores, one side of the ceramic element being in fluidic communication with the reservoir such that the pores receive the aerosol-generating substrate from the reservoir by capillary action, an opposite side of the ceramic element being in thermal communication with the heating element, wherein the heating element of the heating assembly is encapsulated within an impermeable material (232, 332) so as to inhibit fluidic communication between the heating element and the aerosol-generating substrate, wherein the impermeable material is in fluidic communication with the ceramic element, and wherein the heating element is configured to heat the ceramic element having the aerosol-generating substrate therein to generate a vapour. a reservoir (24, 224) holding an aerosol-generating substrate; and a heating assembly (30, 230), comprising: a heating element (32, 233); and a ceramic element (31, 231, 331) comprising pores, one side of the ceramic element being in fluidic communication with the reservoir such that the pores receive the aerosol-generating substrate from the reservoir by capillary action, an opposite side of the ceramic element being in thermal communication with the heating element, a heating element (32, 233); and a ceramic element (31, 231, 331) comprising pores, one side of the ceramic element being in fluidic communication with the reservoir such that the pores receive the aerosol-generating substrate from the reservoir by capillary action, an opposite side of the ceramic element being in thermal communication with the heating element, wherein the heating element of the heating assembly is encapsulated within an impermeable material (232, 332) so as to inhibit fluidic communication between the heating element and the aerosol-generating substrate, wherein the impermeable material is in fluidic communication with the ceramic element, and wherein the heating element is configured to heat the ceramic element having the aerosol-generating substrate therein to generate a vapour.
Suction wheel with a suction wheel body rotatable about an axis of rotation and provided with a plurality of suction openings formed in its circumferential surface for attracting sheets by suction and transporting them, the suction wheel body being of non-circular design, wherein the suction wheel body is subdivided into n segments (21, 22, 23) of essentially equal size, with n = 1, 2, 3, 4..., characterized in that each segment (21, 22, 23) includes an attraction area for attracting a sheet by suction, a retaining area for retaining and conveying a sheet, and a release area for releasing a sheet, the attraction area, the retaining area, and the release area being different from each other.
A collimation device for an X-ray detection system, the collimation device comprising: a collimator comprising a substantially planar support made of a material with partial or zero radio transparency, the support being rotatably movable about an axis (Δ) of rotation which passes through the support and which is perpendicular to a first face of the support which acts as an X-ray plane of incidence referred to as the main plane of the support, said support being provided on the first face with a single slit which is completely transparent to X-rays and which is configured to generate an X-ray flow when the collimator is exposed to an X-ray source, said slit extending longitudinally in the main plane of the support along an axis located at a non-zero distance (d) from the axis of rotation (Δ), said slit extending through the entire thickness of the support.
A method for amplification of circulating nucleic acids that are present in the non-cellular fraction of a biological sample, the method comprising: filtering the biological sample to separate the non-cellular fraction from intact cells; collecting the separated, non-cellular fraction onto a dry solid matrix; extracting the circulating nucleic acids from the collected, non-cellular fraction; circularizing the extracted, circulating nucleic acids to form single-stranded nucleic acid circles; and amplifying the single-stranded nucleic acid circles via random-primed rolling circle amplification to form an amplified, circulating nucleic acid product. filtering the biological sample to separate the non-cellular fraction from intact cells; collecting the separated, non-cellular fraction onto a dry solid matrix; extracting the circulating nucleic acids from the collected, non-cellular fraction; circularizing the extracted, circulating nucleic acids to form single-stranded nucleic acid circles; and amplifying the single-stranded nucleic acid circles via random-primed rolling circle amplification to form an amplified, circulating nucleic acid product.
A filter assembly for removal from and replacement on a product, the product comprising a motor assembly having a motor, the filter assembly comprising: a filter housing; a first filter; and a second filter, wherein the first filter is a pre-motor filter upstream of the motor in use, and the second filter is a post-motor filter downstream of the motor in use, and both the first and second filters (3, 4) are fixed to the filter housing and are annular about a common axis, wherein the flow direction for the first filter is opposite to the flow direction for the second filter, and the flow direction for the first filter is radially inwards towards the common axis, and the flow direction for the second filter is radially outwards away from the common axis, so that the filter assembly is to be positioned around a motor along the common axis. a filter housing; a first filter; and a second filter, wherein the first filter is a pre-motor filter upstream of the motor in use, and the second filter is a post-motor filter downstream of the motor in use, and both the first and second filters (3, 4) are fixed to the filter housing and are annular about a common axis, wherein the flow direction for the first filter is opposite to the flow direction for the second filter, and the flow direction for the first filter is radially inwards towards the common axis, and the flow direction for the second filter is radially outwards away from the common axis, so that the filter assembly is to be positioned around a motor along the common axis.
An apparatus for carrier frequency synchronization in an orthogonal frequency division multiplexing, OFDM, system, the apparatus comprising: a metric generator for frequency estimation configured to: perform a first accumulation process for a value computed by multiplying a phase reference symbol, PRS, generated from a receiver by a fast fourier transform, FFT, output signal for an OFDM symbol in a PRS position within a predefined accumulation interval, a length of the predefined accumulation interval being set to a value to reduce degradation of performance due to a symbol timing offset, acquire a differential symbol from a product of adjacent FFT output symbols in FFT output symbols generating by performing the first accumulation process, perform a second accumulation process for a real part extracted from the differential symbol, and output a metric value for the frequency estimation based on a result of the second accumulation process; and a maximal value-related index generator configured to select a maximal metric value from among metric values for initial frequency estimation within a frequency offset estimation range, and output the selected maximal metric value as a frequency offset estimate; or a threshold comparator configured to determine whether each of the metric values for the initial frequency estimation exceed a threshold, select a metric value exceeding the threshold from among the metric values, and output the selected metric value exceeding the threshold as the frequency offset estimate. perform a first accumulation process for a value computed by multiplying a phase reference symbol, PRS, generated from a receiver by a fast fourier transform, FFT, output signal for an OFDM symbol in a PRS position within a predefined accumulation interval, a length of the predefined accumulation interval being set to a value to reduce degradation of performance due to a symbol timing offset, acquire a differential symbol from a product of adjacent FFT output symbols in FFT output symbols generating by performing the first accumulation process, perform a second accumulation process for a real part extracted from the differential symbol, and output a metric value for the frequency estimation based on a result of the second accumulation process; and a maximal value-related index generator configured to select a maximal metric value from among metric values for initial frequency estimation within a frequency offset estimation range, and output the selected maximal metric value as a frequency offset estimate; or a threshold comparator configured to determine whether each of the metric values for the initial frequency estimation exceed a threshold, select a metric value exceeding the threshold from among the metric values, and output the selected metric value exceeding the threshold as the frequency offset estimate.
A method for decoding from a bitstream a current block of a picture of a video sequence, comprising: decoding a slice header of a slice comprising the current block, the slice header comprising a set of first flags specifying a condition allowing a coding of a second flag indicating whether an illumination compensation mode is enabled or disabled for the current block, each first flag being associated to a corresponding reference index of a reference picture in a reference list and indicating with a first value that the second flag is coded in the bitstream for each block in inter mode of the slice using the associated reference index and with a second value that no second flag is coded for any block in inter mode of the slice using the associated reference index; decoding a coding mode for the current block; and, responsive to the coding mode being inter, decoding at least one current reference index of the current block; decoding from the bitstream (640, 650, 660) a value of the second flag of the current block based on the at least one current reference index and on the set of first flags; and, applying the illumination compensation mode to decode the current block based on the value of the second flag. decoding a slice header of a slice comprising the current block, the slice header comprising a set of first flags specifying a condition allowing a coding of a second flag indicating whether an illumination compensation mode is enabled or disabled for the current block, each first flag being associated to a corresponding reference index of a reference picture in a reference list and indicating with a first value that the second flag is coded in the bitstream for each block in inter mode of the slice using the associated reference index and with a second value that no second flag is coded for any block in inter mode of the slice using the associated reference index; decoding a coding mode for the current block; and, responsive to the coding mode being inter, decoding at least one current reference index of the current block; decoding from the bitstream (640, 650, 660) a value of the second flag of the current block based on the at least one current reference index and on the set of first flags; and, applying the illumination compensation mode to decode the current block based on the value of the second flag.
A single solid-solution phase ceria-zirconia-based composite oxide having a chemical composition, by mass ratio, of zirconia: 30% to 80%, a total of oxides of one or more elements selected from yttrium and rare earth elements having atomic number 57 to 71 except cerium and promethium: 0% to 20%, and a balance of ceria being 10% to 70% and unavoidable impurities, said composite oxide being deemed to be a single solid-solution phase in an X-ray diffraction pattern after a durability test which heats the oxide in the atmosphere at a temperature condition of 1100°C for 5 hours, wherein a ratio (b/a) of a mode pore diameter (b) of a pore distribution after the durability test which heats the oxide in the atmosphere at the temperature condition of 1100°C for 5 hours to a mode pore diameter (a) before said durability test is 1.0≤b/a≤2.0 wherein the mode pore diameter (a) of the pore distribution before the durability test is 10 to 70 nm in range and the mode pore diameter (b) of pore distribution after a durability test is 20 to 90 nm in range, and wherein the mode pore diameter of the pore distribution is a mean pore diameter corresponding to a norm in distribution in a distribution chart of a Log differential pore volume for the mean pore diameters in the different sections obtained from measurement of mercury intrusion technique that is performed using a mercury porosimeter.
An anti-rust coating composition comprising: a binder comprising silica nanoparticles; at least one zinc-based powder selected from a zinc powder and a zinc alloy powder; an aluminum phosphate-based compound; a conductive pigment; and water, wherein the mass ratio [ /{ +}] of the zinc-based powder to the total of the aluminum phosphate-based compound and the conductive pigment is 0.1 to 7.0 and wherein the conductive pigment is zinc oxide. a binder comprising silica nanoparticles; at least one zinc-based powder selected from a zinc powder and a zinc alloy powder; an aluminum phosphate-based compound; a conductive pigment; and water, wherein the mass ratio [ /{ +}] of the zinc-based powder to the total of the aluminum phosphate-based compound and the conductive pigment is 0.1 to 7.0 and wherein the conductive pigment is zinc oxide.
A set of mandibular advancement splints comprising: a maxillary splint (12, 112) having a maxillary body (20, 120) with an inner portion adapted to fit a maxillary dental arch of a mouth of a patient and an opposed outer portion having an outer wall surface (34, 134), the maxillary splint (12, 112) having a maxillary abutment assembly (40, 140); and a mandibular splint (14, 114) having a mandibular body (20, 120) with an inner portion adapted to fit a mandibular dental arch of the mouth of the patient and an opposed outer portion having an outer wall surface (34, 134), the mandibular splint (14, 114) having a mandibular abutment assembly (50, 150); wherein the maxillary abutment assembly (40, 140) comprises an advancement adjustment structure and the mandibular abutment assembly (50, 150) comprises two projections (52, 152) extending upwardly from the outer wall surface (34, 134), on opposed sides of the mandibular body (20, 120) of the mandibular splint (14, 114), the advancement adjustment structure comprising support brackets (42, 142) projecting outwardly from the outer wall surface (34, 134) of the outer portion of the maxillary splint (12, 112) and at least one set of adjustment spacers (44, 144) removably securable to the support brackets (42, 142) of the maxillary splint (12, 112), each one of the support brackets (42, 142) projecting from a respective side of the outer portion, the adjustment spacers (44, 144) of the at least one set being selectively and removably securable to a corresponding one of the support brackets (42, 142), the adjustment spacers (44, 144) having a same spacing length defining the mandibular advancement provided by the set of mandibular advancement splints, being characterized in that the maxillary abutment assembly (40, 140) further comprises lateral support sections, each one of the lateral support sections being a substantially flat section of the outer wall surface (34, 134) of the maxillary splint (12, 112) positioned forwardly of the support brackets (42, 142) and configured to abut at least partially with an inner surface of a corresponding one of the adjustment spacers (44, 144) and provide lateral support thereto. a maxillary splint (12, 112) having a maxillary body (20, 120) with an inner portion adapted to fit a maxillary dental arch of a mouth of a patient and an opposed outer portion having an outer wall surface (34, 134), the maxillary splint (12, 112) having a maxillary abutment assembly (40, 140); and a mandibular splint (14, 114) having a mandibular body (20, 120) with an inner portion adapted to fit a mandibular dental arch of the mouth of the patient and an opposed outer portion having an outer wall surface (34, 134), the mandibular splint (14, 114) having a mandibular abutment assembly (50, 150);
Semi-finished product for the production of a printed circuit board, the semi-finished product comprising a plurality of insulating layers of a prepreg material and conductive layers (2, 2') of a conductive material and further comprising at least one electronic component surrounded by at least one of the said plurality of insulating layers wherein the at least one electronic component is attached to a corresponding conductive layer by the aid of an Anisotropic Conductive Film and the Anisotropic Conductive Film as well as the prepreg material are in an unprocessed state wherein a combined thickness (a) of the Anisotropic Conductive Film and the electronic component between a conductive layer and an insulating layer prior to lamination is greater than a thickness of the at least one insulating layer surrounding the electronic component after lamination and characterised in that the at least one electronic component is also covered by at least another one of the said plurality of insulating layers.
A circuit for feeding a fluid to an inflatable chamber, comprising: - a compressor; - a two-way and two-position solenoid valve, provided with a first port and a second port and operable between an open configuration, in which the ports (31,32) are in communication with one another, and a closed configuration, wherein at least the second port is closed; - a first conduit connecting the compressor to the solenoid valve; - a second conduit connected to the solenoid valve and predisposed for being connected to an inflatable chamber; - a pressure detector, arranged for measuring the pressure inside the second conduit; - a control module, predisposed for receiving a pressure signal from the pressure detector, and controlling the solenoid valve as well as the compressor; characterized in that it comprises a vent opening arranged along the first conduit. - a compressor; - a two-way and two-position solenoid valve, provided with a first port and a second port and operable between an open configuration, in which the ports (31,32) are in communication with one another, and a closed configuration, wherein at least the second port is closed; - a first conduit connecting the compressor to the solenoid valve; - a second conduit connected to the solenoid valve and predisposed for being connected to an inflatable chamber; - a pressure detector, arranged for measuring the pressure inside the second conduit; - a control module, predisposed for receiving a pressure signal from the pressure detector, and controlling the solenoid valve as well as the compressor;
A first device, the first device comprising: a processor; and a memory coupled with the processor, the memory storing executable instructions that when executed by the processor cause the processor to effectuate operations comprising: enabling a relay function for relaying a paging message, wherein the enabling of the relay function is based on an indication of capacity or a number of relay wireless transmit/receive units, WTRU, proximate to the first device; receiving a request to serve as a paging relay for a second device; in response to the request, determining to serve as a paging relay for a second device; receiving a paging message from a third device, the paging message comprising a paging propagation path identifier, ID; and forwarding the paging message towards the second device based on the paging propagation path ID. a processor; and a memory coupled with the processor, the memory storing executable instructions that when executed by the processor cause the processor to effectuate operations comprising: enabling a relay function for relaying a paging message, wherein the enabling of the relay function is based on an indication of capacity or a number of relay wireless transmit/receive units, WTRU, proximate to the first device; receiving a request to serve as a paging relay for a second device; in response to the request, determining to serve as a paging relay for a second device; receiving a paging message from a third device, the paging message comprising a paging propagation path identifier, ID; and forwarding the paging message towards the second device based on the paging propagation path ID. enabling a relay function for relaying a paging message, wherein the enabling of the relay function is based on an indication of capacity or a number of relay wireless transmit/receive units, WTRU, proximate to the first device; receiving a request to serve as a paging relay for a second device; in response to the request, determining to serve as a paging relay for a second device; receiving a paging message from a third device, the paging message comprising a paging propagation path identifier, ID; and forwarding the paging message towards the second device based on the paging propagation path ID.