mhurhangee/ep-ind-claims huggingface dataset:
A concrete vibrator system comprising: a vibrating head (78, 150, 154) including a shaft having a center of mass radially offset from a rotational axis of the shaft and an onboard electric motor (82, 514) configured to provide torque to the shaft, causing the shaft to rotate; a portable power unit including a battery pack configured to provide electrical current to the motor (82, 514); and a cable extending between the portable power unit and the vibrating head, the cable being configured to transmit electrical current from the battery pack to the motor (82, 514) and a motor control signal from the portable power unit to the motor (82, 514), wherein the portable power unit includes a motor control unit configured to transmit the motor control signal to the motor (82, 514), characterized in that the portable power unit includes a battery receptacle unit to which the battery pack is removably coupled and in that the battery receptacle unit and the motor control unit are integrated in a common housing. a vibrating head (78, 150, 154) including a shaft having a center of mass radially offset from a rotational axis of the shaft and an onboard electric motor (82, 514) configured to provide torque to the shaft, causing the shaft to rotate; a portable power unit including a battery pack configured to provide electrical current to the motor (82, 514); and a cable extending between the portable power unit and the vibrating head, the cable being configured to transmit electrical current from the battery pack to the motor (82, 514) and a motor control signal from the portable power unit to the motor (82, 514), wherein the portable power unit includes a motor control unit configured to transmit the motor control signal to the motor (82, 514), characterized in that the portable power unit includes a battery receptacle unit to which the battery pack is removably coupled and in that the battery receptacle unit and the motor control unit are integrated in a common housing.
A device configured to decode a bitstream comprising: one or more processors configured to: extract, from the bitstream, a type of quantization mode; and switch, based on the type of quantization mode, between non-predictive vector dequantization to reconstruct a first set of one or more weights used to approximate a multi-directional V-vector in a higher order ambisonics domain, and predictive vector dequantization to reconstruct a second set of one or more weights used to approximate the multi-directional V-vector in the higher order ambisonics domain; and a memory, electrically coupled to the one or more processors, configured to store the reconstructed first set of one or more weights used to approximate the multi-directional V-vector in the higher order ambisonics domain, and the reconstructed second set of one or more weights used to approximate the multi-directional V-vector in the higher order ambisonics domain. one or more processors configured to: extract, from the bitstream, a type of quantization mode; and switch, based on the type of quantization mode, between non-predictive vector dequantization to reconstruct a first set of one or more weights used to approximate a multi-directional V-vector in a higher order ambisonics domain, and predictive vector dequantization to reconstruct a second set of one or more weights used to approximate the multi-directional V-vector in the higher order ambisonics domain; and extract, from the bitstream, a type of quantization mode; and switch, based on the type of quantization mode, between non-predictive vector dequantization to reconstruct a first set of one or more weights used to approximate a multi-directional V-vector in a higher order ambisonics domain, and predictive vector dequantization to reconstruct a second set of one or more weights used to approximate the multi-directional V-vector in the higher order ambisonics domain; and a memory, electrically coupled to the one or more processors, configured to store the reconstructed first set of one or more weights used to approximate the multi-directional V-vector in the higher order ambisonics domain, and the reconstructed second set of one or more weights used to approximate the multi-directional V-vector in the higher order ambisonics domain.
A micro scaled method for separating a subgroup of cells and/or particles from a mixture of different types of cells and/or particles in a suspension, comprising the steps of; i) subjecting a suspension to pressure, wherein said pressure forces said suspension into one inlet and into at least one pre-alignment channel present on a microfluid chip, ii) subjecting said suspension to a two dimensional acoustic force directed perpendicular to the length direction of the pre-alignment channel, iii) forcing said mixture of cells and/or particles and infusing cell free buffer solution through a second inlet simultaneously into at least one separation channel, wherein said mixture of cells and/or particles are forced towards the walls of the channel, iv) subjecting said cells and/or particles to a one dimensional acoustic force directed perpendicular to the length direction of the separation channel and v) collecting cells and/or particles having the same size and/or mass density and/or compressibility from said second channel present on the microfluid chip through at least two outlets (13,14). i) subjecting a suspension to pressure, wherein said pressure forces said suspension into one inlet and into at least one pre-alignment channel present on a microfluid chip, ii) subjecting said suspension to a two dimensional acoustic force directed perpendicular to the length direction of the pre-alignment channel, iii) forcing said mixture of cells and/or particles and infusing cell free buffer solution through a second inlet simultaneously into at least one separation channel, wherein said mixture of cells and/or particles are forced towards the walls of the channel, iv) subjecting said cells and/or particles to a one dimensional acoustic force directed perpendicular to the length direction of the separation channel and v) collecting cells and/or particles having the same size and/or mass density and/or compressibility from said second channel present on the microfluid chip through at least two outlets (13,14).
A smoking substitute apparatus having: an air inlet; an outlet; a flow passage formed between the air inlet and the outlet; a vaporisation chamber in communication with the flow passage, the vaporisation chamber having an aerosol generator configured to generate an aerosol from an aerosol precursor by heating, wherein the aerosol generator comprises: a vaporiser element loaded with aerosol precursor, the vaporiser element being heatable by a heater and presenting a vaporiser element surface to air in the vaporisation chamber, a vaporiser element region being defined as a volume extending outwardly from the vaporiser element surface to a distance of 1 mm from the vaporiser element surface, characterized in that the air inlet, flow passage, outlet and the vaporisation chamber are configured so that, when the air flow rate inhaled by the user through the apparatus is 1.3 L min -1, the maximum magnitude of velocity of air in the vaporiser element region is in the range 0-2.0 ms -1. an air inlet; an outlet; a flow passage formed between the air inlet and the outlet; a vaporisation chamber in communication with the flow passage, the vaporisation chamber having an aerosol generator configured to generate an aerosol from an aerosol precursor by heating, wherein the aerosol generator comprises: a vaporiser element loaded with aerosol precursor, the vaporiser element being heatable by a heater and presenting a vaporiser element surface to air in the vaporisation chamber, a vaporiser element region being defined as a volume extending outwardly from the vaporiser element surface to a distance of 1 mm from the vaporiser element surface, characterized in that the air inlet, flow passage, outlet and the vaporisation chamber are configured so that, when the air flow rate inhaled by the user through the apparatus is 1.3 L min -1, the maximum magnitude of velocity of air in the vaporiser element region is in the range 0-2.0 ms -1. a vaporiser element loaded with aerosol precursor, the vaporiser element being heatable by a heater and presenting a vaporiser element surface to air in the vaporisation chamber, a vaporiser element region being defined as a volume extending outwardly from the vaporiser element surface to a distance of 1 mm from the vaporiser element surface, characterized in that the air inlet, flow passage, outlet and the vaporisation chamber are configured so that, when the air flow rate inhaled by the user through the apparatus is 1.3 L min -1, the maximum magnitude of velocity of air in the vaporiser element region is in the range 0-2.0 ms -1.
A wearable nitric oxide generation system comprising: a housing configured to be wearable; a reactant gas flow path located in the housing, the reactant gas flow path configured to provide release of a pressurized reactant gas at specific flow rates to one or more plasma chambers; one or more electrodes located in the one or more plasma chambers configured to generate a product gas containing nitric oxide using a flow of the reactant gas through the one or more plasma chambers; a controller configured to regulate the amount of nitric oxide generated in the reactant gas; a disposable cartridge including one or more scavenger paths configured to remove NO 2 from the product gas generated by the one or more plasma chambers, and a connector to deliver the product gas to a patient delivery device; wherein the controller measures a resonant frequency of a high voltage circuit and controls a frequency and a duty cycle of an AC waveform to maximize excitation of the high voltage circuit; and wherein the resonant frequency is determined throughout a service life of the system to accommodate changes in environmental conditions, system wear, and/or manufacturing variance. a housing configured to be wearable; a reactant gas flow path located in the housing, the reactant gas flow path configured to provide release of a pressurized reactant gas at specific flow rates to one or more plasma chambers; one or more electrodes located in the one or more plasma chambers configured to generate a product gas containing nitric oxide using a flow of the reactant gas through the one or more plasma chambers; a controller configured to regulate the amount of nitric oxide generated in the reactant gas; a disposable cartridge including one or more scavenger paths configured to remove NO 2 from the product gas generated by the one or more plasma chambers, and a connector to deliver the product gas to a patient delivery device; wherein the controller measures a resonant frequency of a high voltage circuit and controls a frequency and a duty cycle of an AC waveform to maximize excitation of the high voltage circuit; and wherein the resonant frequency is determined throughout a service life of the system to accommodate changes in environmental conditions, system wear, and/or manufacturing variance.
A method for logical address 'LA' translation, comprising: receiving a command associated with a plurality of LAs, wherein the plurality of LAs includes a first LA in a first range of LAs and a second LA in a second range of LAs, wherein the first range of LAs precedes the second range of LAs and the first range of LAs is associated with a first encryption key and the second range of LAs is associated with a second encryption key; the method being further characterized in that: in response to receiving the command including LAs associated with the first encryption key and the second encryption key, translating the second LA to a physical location in a memory (248, 250) based on an offset corresponding to a first number of physical locations that were skipped when writing data associated with the first range of LAs to a page in memory, and wherein the first number of physical locations corresponds to physical locations that remain without data in the page when writing data associated with the first LA to the page so that data associated with the first LA and data associated with the second LA are on different pages.
A combustor panel for a gas turbine engine comprising a cooling hole arrangement comprising: a plurality of cooling holes that are located closest to an edge of the combustor panel, relative to other cooling holes of the combustor panel, the plurality of cooling holes comprising: a first group of cooling holes, each of the first group of cooling holes extending from a first inlet to a first outlet; and a second group of cooling holes, each of the second group of cooling holes extending from a second inlet to a second outlet, each of the first group of cooling holes and the second group of cooling holes spaced from the edge of the combustor panel in an axial direction and arranged parallel to the edge of the combustor panel; at least a portion of the first inlet of each first group of cooling holes axially overlapped with a portion of the second inlet of the second group of cooling holes, the first outlet of each of the first group of cooling holes being closer to the edge of the combustor panel than the second outlet of the second group of cooling holes is to the edge; wherein each of the first group of cooling holes extend from the first inlet to the first outlet at a first angular orientation, each of the second group of cooling holes extending from the second inlet to the second outlet at a second angular orientation, the first angular orientation ranging from about 10 degrees to about 50 degrees relative to a circumferential direction and the second angular orientation ranging from about -15 degrees to about 15 degrees relative to a circumferential direction. a first group of cooling holes, each of the first group of cooling holes extending from a first inlet to a first outlet; and a second group of cooling holes, each of the second group of cooling holes extending from a second inlet to a second outlet, each of the first group of cooling holes and the second group of cooling holes spaced from the edge of the combustor panel in an axial direction and arranged parallel to the edge of the combustor panel; at least a portion of the first inlet of each first group of cooling holes axially overlapped with a portion of the second inlet of the second group of cooling holes, the first outlet of each of the first group of cooling holes being closer to the edge of the combustor panel than the second outlet of the second group of cooling holes is to the edge; wherein each of the first group of cooling holes extend from the first inlet to the first outlet at a first angular orientation, each of the second group of cooling holes extending from the second inlet to the second outlet at a second angular orientation, the first angular orientation ranging from about 10 degrees to about 50 degrees relative to a circumferential direction and the second angular orientation ranging from about -15 degrees to about 15 degrees relative to a circumferential direction.
Process for producing spherical polysilsesquioxane particles in which in a first step trialkoxysilane of general formula RSi(OR 1) 3, in which R represents a hydrocarbon radical having 1 to 16 carbon atoms whose carbon chain may be interrupted by nonadjacent -O- groups, R 1 represents a C 1 - to C 4 -alkyl radical, is reacted with acidified water having a pH of not more than 6 with commixing to afford a hydrolyzate, in a second step the hydrolyzate is mixed with a solution of a base in water or C 1 - to C 4 -alkanol, in a third step the mixture is stored for 30 minutes to 6 hours, in a fourth step the mixture is mixed with a further solution of a base in water or C 1 - to C 4 -alkanol, in a fifth step the mixture is stored or agitated for at least 5 minutes and in a sixth step the polysilsesquioxane particles are isolated. R represents a hydrocarbon radical having 1 to 16 carbon atoms whose carbon chain may be interrupted by nonadjacent -O- groups, R 1 represents a C 1 - to C 4 -alkyl radical, is reacted with acidified water having a pH of not more than 6 with commixing to afford a hydrolyzate, in a second step the hydrolyzate is mixed with a solution of a base in water or C 1 - to C 4 -alkanol, in a third step the mixture is stored for 30 minutes to 6 hours, in a fourth step the mixture is mixed with a further solution of a base in water or C 1 - to C 4 -alkanol, in a fifth step the mixture is stored or agitated for at least 5 minutes and in a sixth step the polysilsesquioxane particles are isolated.
An applicator for applying a product onto keratinous fibers, notably eyelashes and/or eyebrows, including: - a stem, - a core which extends along a longitudinal axis, - applicator elements borne by the core, the distal end of the applicator being defined by the core or by at least one applicator element, the applicator elements extending in at least three different directions around the core, - the applicator being characterized by the fact that the applicator elements define an envelope surface which increases and then decreases in the direction of the distal end of the applicator, and defines a peak ridge, - the total length q max along the longitudinal axis of the envelope surface being less than or equal to twice the largest diameter d max of the cross-section of the envelope surface, - the angle α formed by the slopes of the envelope surface in at least one longitudinal section on either side of the peak ridge, being greater than 120°, the core being twisted or the applicator elements being molded with the core and having a variable height. - a stem, - a core which extends along a longitudinal axis, - applicator elements borne by the core, the distal end of the applicator being defined by the core or by at least one applicator element, the applicator elements extending in at least three different directions around the core, - the applicator being characterized by the fact that the applicator elements define an envelope surface which increases and then decreases in the direction of the distal end of the applicator, and defines a peak ridge, - the total length q max along the longitudinal axis of the envelope surface being less than or equal to twice the largest diameter d max of the cross-section of the envelope surface, - the angle α formed by the slopes of the envelope surface in at least one longitudinal section on either side of the peak ridge, being greater than 120°,
Disposable device for single use for pressure-reduced delivery of intestinal gases including an elongated body positionable in the anal canal having a watertight and gas-tight cylinder made of flexible material wherein the end opposing the sphincter side end of the body in functional position has formed a tip of one or more parts made of soft material, this tip including at its widest location a larger width than the cylinder, this tip being wet, and the interior of the cylinder consisting of soft, large pored, filter-like material, characterized in that the tip is formed by nature and/or synthetic fibres and includes a multiply curved surface and is formed by a plurality of blades arranged in several parts around the longitudinal axis of the cylinder, optionally compressed or arranged in a loop-like manner.
Method for generating methane from biomass, comprising the process steps of: a) a pulp of biomass is generated out of the biomass thereby establishing a requested amount of dry matter, b) the pulp of biomass is set under pressure, c) the pulp of biomass is heated under pressure in order to liquefy solid organic components of the pulp of biomass, d) the pulp of biomass, thus, being put under pressure and heated is further heated at least to the critical temperature of the pulp of biomass, e) under pressure and elevated temperature precipitated solid matters are thereby separated from the fluid phase, and f) by means of a catalytic reactor at least one part of the remaining fluid phase is turned to a methane-rich gas under pressure and elevated temperature. a) a pulp of biomass is generated out of the biomass thereby establishing a requested amount of dry matter, b) the pulp of biomass is set under pressure, c) the pulp of biomass is heated under pressure in order to liquefy solid organic components of the pulp of biomass, d) the pulp of biomass, thus, being put under pressure and heated is further heated at least to the critical temperature of the pulp of biomass, e) under pressure and elevated temperature precipitated solid matters are thereby separated from the fluid phase, and f) by means of a catalytic reactor at least one part of the remaining fluid phase is turned to a methane-rich gas under pressure and elevated temperature.
A method of preparing nanocrystalline titanium alloy Ti-13Nb-13Zr at low strain, the method comprising segmenting a martensite structure into a fine equiaxed structure by rolling under conditions that a deformation temperature ranges from 575°C to 625°C, a strain rate ranges from 0.07 to 0.13 s -1, and a strain ranges from 0.9 to 1.8.
A molecular sieve belonging to the ABC-6 framework family with disorder in the ABC stacking sequence composed of double-six-ring periodic building units and having a mole ratio of silicon oxide to aluminum oxide from 8 to 60 - wherein the molecular sieve belonging to the ABC-6 framework family with disorder in the ABC stacking sequence belongs to the disordered CHA-GME series, and - wherein the calcined form of the molecular sieve has a powder X-ray diffraction pattern collected in Bragg-Brentano geometry with a variable divergence slit using Cu K-alpha radiation as shown in the following Table: 2-Theta (°) d-spacing (Å) Relative peak area Peak character 7.45-7.54 11.85-11.72 W-M Broad to sharp 9.55-9.65 9.24-9.15 VS-W Sharp to broad 11.40-11.66 7.75-7.58 W-M Broad to sharp 12.90-13.04 6.85-6.78 VS-M Sharp 14.07-14.21 6.29-6.23 W Sharp to broad 14.89-15.12 5.94-5.85 W Broad to sharp 16.08-16.27 5.50-5.44 VS-W Sharp to broad 17.17-17.34 5.16-5.11 W-S Broad to sharp 17.71-18.00 5.00-4.92 VS-M Sharp where the relative areas of the observed peaks in the 2-Theta range 7-19 degrees are shown according to: W = weak: 0-20%; M = medium: 20-40%; S = strong: 40-60% and VS = very strong: 60-100%. - wherein the molecular sieve belonging to the ABC-6 framework family with disorder in the ABC stacking sequence belongs to the disordered CHA-GME series, and - wherein the calcined form of the molecular sieve has a powder X-ray diffraction pattern collected in Bragg-Brentano geometry with a variable divergence slit using Cu K-alpha radiation as shown in the following Table: 2-Theta (°) d-spacing (Å) Relative peak area Peak character 7.45-7.54 11.85-11.72 W-M Broad to sharp 9.55-9.65 9.24-9.15 VS-W Sharp to broad 11.40-11.66 7.75-7.58 W-M Broad to sharp 12.90-13.04 6.85-6.78 VS-M Sharp 14.07-14.21 6.29-6.23 W Sharp to broad 14.89-15.12 5.94-5.85 W Broad to sharp 16.08-16.27 5.50-5.44 VS-W Sharp to broad 17.17-17.34 5.16-5.11 W-S Broad to sharp 17.71-18.00 5.00-4.92 VS-M Sharp where the relative areas of the observed peaks in the 2-Theta range 7-19 degrees are shown according to: W = weak: 0-20%; M = medium: 20-40%; S = strong: 40-60% and VS = very strong: 60-100%.