mhurhangee/ep-ind-claims huggingface dataset:
Zeolitic adsorbent material comprising an organic binder, comprising: a) a polymer matrix, and b) at least one zeolite of type 3A, and in which: - the zeolite crystals are homogeneously distributed in the said matrix, and - the amount of zeolite crystals is greater than 70%, with respect to the total weight of the said adsorbent material, and less than 99%, preferably less than 95%, more preferably less than 90% and entirely preferably less than or equal to 85% by weight, with respect to the total weight of the said adsorbent material, and - the zeolite included in the zeolitic adsorbent material is a natural, synthetic or artificial zeolite, the mean particle size of which is less than 20 μm, preferably less than 15 μm, and is greater than 0.05 μm, preferably greater than 0.1 μm, and - the polymer matrix comprises an ethylene/butyl acrylate copolymer, and - the said zeolitic adsorbent material exhibits just one type of porosity which is a microporosity. a) a polymer matrix, and b) at least one zeolite of type 3A, and in which: - the zeolite crystals are homogeneously distributed in the said matrix, and - the amount of zeolite crystals is greater than 70%, with respect to the total weight of the said adsorbent material, and less than 99%, preferably less than 95%, more preferably less than 90% and entirely preferably less than or equal to 85% by weight, with respect to the total weight of the said adsorbent material, and - the zeolite included in the zeolitic adsorbent material is a natural, synthetic or artificial zeolite, the mean particle size of which is less than 20 μm, preferably less than 15 μm, and is greater than 0.05 μm, preferably greater than 0.1 μm, and - the polymer matrix comprises an ethylene/butyl acrylate copolymer, and - the said zeolitic adsorbent material exhibits just one type of porosity which is a microporosity. - the zeolite crystals are homogeneously distributed in the said matrix, and - the amount of zeolite crystals is greater than 70%, with respect to the total weight of the said adsorbent material, and less than 99%, preferably less than 95%, more preferably less than 90% and entirely preferably less than or equal to 85% by weight, with respect to the total weight of the said adsorbent material, and - the zeolite included in the zeolitic adsorbent material is a natural, synthetic or artificial zeolite, the mean particle size of which is less than 20 μm, preferably less than 15 μm, and is greater than 0.05 μm, preferably greater than 0.1 μm, and - the polymer matrix comprises an ethylene/butyl acrylate copolymer, and - the said zeolitic adsorbent material exhibits just one type of porosity which is a microporosity.
A tissue cooling device for use in a method of protecting tissue, wherein said device comprises: an elongate member having a fluid delivery lumen extending therethrough to a distal port and being sized and configured to extend within a blood vessel; a thermal member extending along at least a portion of the elongate member and having a fluid chamber through which a circulating first fluid flows when in use, thereby cooling a second fluid flowing through the fluid delivery lumen and out the distal port; a cooling unit in fluid communication with the fluid chamber at a proximal region of the device and that comprises (i) a refrigeration element that cools the first fluid and (ii) a pump for circulating the first fluid through the fluid chamber; wherein the fluid chamber is divided into an outer lumen and an inner lumen in fluid communication with the outer lumen, the inner lumen extending alongside a length of the elongate member and being closer to the fluid delivery lumen than is the outer lumen; wherein the device is configured such that, in use, the circulating first fluid flows from the cooling unit into and through the outer lumen in a direction from proximal to distal, then flows into and through the inner lumen in a direction from distal to proximal alongside; wherein the device is configured to introduce the second fluid from a proximal end of the elongate member through the distal port when the distal port is positioned in a lumen of an artery, the second fluid being cooler than blood in the artery, characterized in that the delivery lumen is thermally insulated. an elongate member having a fluid delivery lumen extending therethrough to a distal port and being sized and configured to extend within a blood vessel; a thermal member extending along at least a portion of the elongate member and having a fluid chamber through which a circulating first fluid flows when in use, thereby cooling a second fluid flowing through the fluid delivery lumen and out the distal port; a cooling unit in fluid communication with the fluid chamber at a proximal region of the device and that comprises (i) a refrigeration element that cools the first fluid and (ii) a pump for circulating the first fluid through the fluid chamber; wherein the fluid chamber is divided into an outer lumen and an inner lumen in fluid communication with the outer lumen, the inner lumen extending alongside a length of the elongate member and being closer to the fluid delivery lumen than is the outer lumen; wherein the device is configured such that, in use, the circulating first fluid flows from the cooling unit into and through the outer lumen in a direction from proximal to distal, then flows into and through the inner lumen in a direction from distal to proximal alongside; wherein the device is configured to introduce the second fluid from a proximal end of the elongate member through the distal port when the distal port is positioned in a lumen of an artery, the second fluid being cooler than blood in the artery, characterized in that the delivery lumen is thermally insulated.
A hand dishwashing detergent composition comprising anionic surfactant and an amine oxide surfactant comprising a low-cut amine oxide of formula RaRbRcAO wherein Ra and Rb are selected from hydrogen, C1-C4 alkyls and mixtures thereof and wherein Rc is selected from C10 alkyls and mixtures thereof, and a cyclic diamine selected from the group consisting of 2-methylcyclohexane-1,3-diamine, 4-methylcyclohexane-1,3-diamine and mixtures thereof.
A continuous steel casting method, the method including producing a strand, the producing of the strand including pouring molten steel into a mold of a continuous casting machine and withdrawing a solidified shell from the mold, the solidified shell being a solidified portion of the molten steel, the method comprising applying a static magnetic field to at least a portion of a region of the strand, the strand being in the continuous casting machine, the region being a region where a solid fraction fs at a thickness-wise middle position of the strand is in a range of formula below, the static magnetic field having a magnetic field strength of greater than or equal to 0.15 T and being in a direction orthogonal to a direction in which the strand is withdrawn, the static magnetic field being applied at an application time ratio of greater than or equal to 10%, the application time ratio being defined by formula below; [Math. 1] 0 < fs ≤ 0.3 Application time ratio % = Time period during which static magnetic field is applied to strand min Time period from time at which solid fraction at thickness-wise middle position of strand exceeds 0 to time at which solid fraction reaches 0.3 min × 100 wherein, in a region where the solid fraction at the thickness-wise middle position of the strand is 0.3, a value determined by formula below is greater than or equal to 0.27 °C×min 1/2 /mm 3/2, [Math. 2] G V where G is a temperature gradient (°C/mm) at a position where a solid fraction of the strand is 0.99 in a region where the solid fraction at the thickness-wise middle position is 0.3, and V is a speed (mm/min) at which a solid-liquid interface of the strand moves. the method comprising applying a static magnetic field to at least a portion of a region of the strand, the strand being in the continuous casting machine, the region being a region where a solid fraction fs at a thickness-wise middle position of the strand is in a range of formula below, the static magnetic field having a magnetic field strength of greater than or equal to 0.15 T and being in a direction orthogonal to a direction in which the strand is withdrawn, the static magnetic field being applied at an application time ratio of greater than or equal to 10%, the application time ratio being defined by formula below; [Math. 1] 0 < fs ≤ 0.3 Application time ratio % = Time period during which static magnetic field is applied to strand min Time period from time at which solid fraction at thickness-wise middle position of strand exceeds 0 to time at which solid fraction reaches 0.3 min × 100 wherein, in a region where the solid fraction at the thickness-wise middle position of the strand is 0.3, a value determined by formula below is greater than or equal to 0.27 °C×min 1/2 /mm 3/2, [Math. 2] G V where G is a temperature gradient (°C/mm) at a position where a solid fraction of the strand is 0.99 in a region where the solid fraction at the thickness-wise middle position is 0.3, and V is a speed (mm/min) at which a solid-liquid interface of the strand moves.
Composition comprising, in a physiologically acceptable medium, at least hydroxyapatite that is at least partially in free form and at least calcium pantetheine sulfonate.
An optical data transmission system, comprising: an input for receiving a data signal (Din); a light emitting component; a modulator for modulating the data signal to provide a modulated data signal having only positive modulated values; an offset unit for adding a positive DC offset to said only positive modulated values; and a converter for generating current signals based on the offset and modulated values, thereby providing a modulated drive current signal for driving the light emitting component, wherein the modulated data signal comprises a non-negative OFDM signal having a probability density function of the modulated output which has a peak at zero and wherein as a result of the positive DC offset added to the modulated values, the minimum drive current falls in a range where the electron-to-photon efficiency of the light emitting component is substantially constant. an input for receiving a data signal (Din); a light emitting component; a modulator for modulating the data signal to provide a modulated data signal having only positive modulated values; an offset unit for adding a positive DC offset to said only positive modulated values; and a converter for generating current signals based on the offset and modulated values, thereby providing a modulated drive current signal for driving the light emitting component, wherein the modulated data signal comprises a non-negative OFDM signal having a probability density function of the modulated output which has a peak at zero and wherein as a result of the positive DC offset added to the modulated values, the minimum drive current falls in a range where the electron-to-photon efficiency of the light emitting component is substantially constant.
Diene polymers, characterized in that the diene polymers have, at the start of the polymer chains, tertiary amino groups of the formula or or where R 1, R 2 are the same or different and are each alkyl, cycloalkyl, aryl, alkaryl and aralkyl radicals which may contain heteroatoms such as O, N, S and/or Si, is a divalent organic radical which, as well as C and H, may contain heteroatoms such as O, N, S and/or Si, and, at the end of the polymer chains, silane-containing carbinol groups of the formula or metal salts thereof or semimetal salts thereof, where R 3, R 4, R 5, R 6 are the same or different and are each an H or alkyl, cycloalkyl, aryl, alkaryl and aralkyl radicals which may contain heteroatoms such as O, N, S and/or Si, A is a divalent organic radical which, as well as C and H, may contain heteroatoms such as O, N, S and/or Si. R 1, R 2 are the same or different and are each alkyl, cycloalkyl, aryl, alkaryl and aralkyl radicals which may contain heteroatoms such as O, N, S and/or Si, is a divalent organic radical which, as well as C and H, may contain heteroatoms such as O, N, S and/or Si, R 3, R 4, R 5, R 6 are the same or different and are each an H or alkyl, cycloalkyl, aryl, alkaryl and aralkyl radicals which may contain heteroatoms such as O, N, S and/or Si, A is a divalent organic radical which, as well as C and H, may contain heteroatoms such as O, N, S and/or Si.
A method in a user equipment (201, 700) for interference mitigation in a dynamic time division duplex system, wherein the user equipment (201, 700), a serving base station serving the user equipment (201, 700), at least one neighboring base station and at least one neighboring user equipment served by the at least neighboring base station are comprised in the dynamic time division duplex system, the method comprising: obtaining link direction information and at least one transmission parameter, wherein the link direction information and the at least one transmission parameter are associated with downlink transmission of the at least one neighboring base station or uplink transmission of the at least one neighboring user equipment; determining whether or not to mitigate the interference based on a blind detection of an interference reference signal; and if it is determined to mitigate the interference, mitigating interference caused by the downlink transmission or uplink transmission based upon the link direction information and the at least one transmission parameter. determining whether or not to mitigate the interference based on a blind detection of an interference reference signal; and if it is determined to mitigate the interference, mitigating interference caused by the downlink transmission or uplink transmission based upon the link direction information and the at least one transmission parameter.
A hot-melt pressure-sensitive adhesive, comprising: a Ziegler-Natta-based olefin resin; a metallocene-based olefin resin; a hydrocarbon-based tackifier; and an oil component, wherein the hot-melt pressure-sensitive adhesive has: an adhesive strength at 23°C, a peel angle of 90°, and a peel rate of 300 mm/min on a polypropylene spunbonded non-woven fabric having a basis weight of 19 g/m 2 of 200 g/25 mm or more; an adhesive strength at 23°C, a peel angle of 90°, and a peel rate of 300 mm/min on a stainless-steel plate of 700 g/25 mm or more; a melt viscosity at 160°C of 10,000 mPa·s or less; a melt viscosity at 140°C of 15,000 mPa·s or less; and a softening point temperature of 100°C or less, wherein the content of the metallocene-based olefin resin in the hot-melt pressure-sensitive adhesive is from 8 wt% to 0.1 wt%, and wherein the content of the hydrocarbon-based tackifier in the hot-melt pressure-sensitive adhesive is from 60 wt% to 30 wt%. a Ziegler-Natta-based olefin resin; a metallocene-based olefin resin; a hydrocarbon-based tackifier; and an oil component, an adhesive strength at 23°C, a peel angle of 90°, and a peel rate of 300 mm/min on a polypropylene spunbonded non-woven fabric having a basis weight of 19 g/m 2 of 200 g/25 mm or more; an adhesive strength at 23°C, a peel angle of 90°, and a peel rate of 300 mm/min on a stainless-steel plate of 700 g/25 mm or more; a melt viscosity at 160°C of 10,000 mPa·s or less; a melt viscosity at 140°C of 15,000 mPa·s or less; and a softening point temperature of 100°C or less,
An absorbent article having an upper surface, a lower surface and a periphery, comprising: a topsheet having a bottom surface and a viewing surface positioned opposite to the bottom surface, the viewing surface facing upwardly towards the upper surface of the absorbent article; a backsheet having a garment facing surface and a user facing surface positioned oppositely to the garment facing surface, the backsheet being joined to the topsheet; an absorbent core having a top surface and a bottom surface positioned opposite to the top surface, the absorbent core being positioned between the topsheet and the backsheet; and the absorbent article having a colored portion, wherein the colored portion is an insert between the topsheet and the absorbent core, the colored portion being viewable from the viewing surface of the topsheet, the colored portion having a first shade and a second shade, the first shade being positioned substantially within the second shade, the second shade being different from the first shade. a topsheet having a bottom surface and a viewing surface positioned opposite to the bottom surface, the viewing surface facing upwardly towards the upper surface of the absorbent article; a backsheet having a garment facing surface and a user facing surface positioned oppositely to the garment facing surface, the backsheet being joined to the topsheet; an absorbent core having a top surface and a bottom surface positioned opposite to the top surface, the absorbent core being positioned between the topsheet and the backsheet; and the absorbent article having a colored portion, wherein the colored portion is an insert between the topsheet and the absorbent core, the colored portion being viewable from the viewing surface of the topsheet, the colored portion having a first shade and a second shade, the first shade being positioned substantially within the second shade, the second shade being different from the first shade.
An extracorporeal phototherapy system for removing carbon monoxide from whole blood, the extracorporeal phototherapy system comprising: an oxygenator including: a plurality of membrane layers each including a plurality of microporous hollow fiber membranes each having an external surface and an internal channel, wherein each of the plurality of membrane layers is rotationally offset with respect to an adjacent layer; a gas inlet port in fluid communication with a first end of the internal channels; a gas outlet port in fluid communication with a second end of the internal channels; a blood inlet port in fluid communication with the external surfaces; a blood outlet port in fluid communication with the external surfaces; a light source (104, 106) configured to output light and arranged to emit the light output by the light source onto at least one surface of the oxygenator; wherein the oxygenator includes a housing enclosing the plurality of membrane layers; and wherein the housing and the plurality of membrane layers define a planar shape. an oxygenator including: a plurality of membrane layers each including a plurality of microporous hollow fiber membranes each having an external surface and an internal channel, wherein each of the plurality of membrane layers is rotationally offset with respect to an adjacent layer; a gas inlet port in fluid communication with a first end of the internal channels; a gas outlet port in fluid communication with a second end of the internal channels; a blood inlet port in fluid communication with the external surfaces; a blood outlet port in fluid communication with the external surfaces; a plurality of membrane layers each including a plurality of microporous hollow fiber membranes each having an external surface and an internal channel, wherein each of the plurality of membrane layers is rotationally offset with respect to an adjacent layer; a gas inlet port in fluid communication with a first end of the internal channels; a gas outlet port in fluid communication with a second end of the internal channels; a blood inlet port in fluid communication with the external surfaces; a blood outlet port in fluid communication with the external surfaces; a light source (104, 106) configured to output light and arranged to emit the light output by the light source onto at least one surface of the oxygenator; wherein the oxygenator includes a housing enclosing the plurality of membrane layers; and wherein the housing and the plurality of membrane layers define a planar shape.
An axial fan for use with a wall ring plate, comprising a motor, a housing with an inlet region and an outlet region, and a rotor which can be driven by the motor, wherein the housing, on the inlet side, has an outer housing dimension (D 1) and the rotor has an increased rotor diameter (D L) as compared with a rotor diameter (D standard) which is standardized based on the standard series R20 of DIN 323 or ISO 3, so that a ratio of D 1 /D L is less than a ratio of D 1 /D standard, wherein, on the inlet side, the inlet region has a tapered section that narrows in an arched manner in a cross-sectional view from an inlet diameter (D A) to a wall ring diameter (D WR), the axial width (b) and radial length (a) of which tapered section form a ratio of (a)/(b) in a range from 0.3 to 0.7, in particular 0.4 to 0.6, wherein the motor is configured as an external rotor motor, and the rotor has a hub in which the motor is received, wherein a motor replacement insert is arranged inside the hub, wherein different motors with different motor diameters can be connected to this insert, and wherein in the outlet region, a diffusor is arranged integrally on the housing, and in that a transition of the housing from the wall ring region to the diffusor is rounded off, wherein the rotor diameter (D L) is increased by the factor g with a constant outer housing diameter (D 1) as compared with the standardized rotor diameter (D standard), wherein the factor g is defined in a range of g min to g max, wherein g min = − 0.00008 × D standard + 1.1 and g max = − 0.00022 × D standard + 1.34, and wherein the housing has an inlet geometry in which a ratio j of the axial width (b) to the outer edge region extending radially vertically over the length (c) is defined in a range of jmin to jmax, wherein j min = − 0.0047 × D standard + 6.5225, and j max = 0.0054 × D standard + 8.8135. the rotor diameter (D L) is increased by the factor g with a constant outer housing diameter (D 1) as compared with the standardized rotor diameter (D standard), wherein the factor g is defined in a range of g min to g max, wherein g min = − 0.00008 × D standard + 1.1 and g max = − 0.00022 × D standard + 1.34, and wherein the housing has an inlet geometry in which a ratio j of the axial width (b) to the outer edge region extending radially vertically over the length (c) is defined in a range of jmin to jmax, wherein j min = − 0.0047 × D standard + 6.5225, and j max = 0.0054 × D standard + 8.8135.