mhurhangee/ep-ind-claims huggingface dataset:
Tyre with a radial carcass reinforcement, comprising a crown reinforcement, itself capped radially by a tread, the said tread being joined to two beads via two sidewalls, the crown reinforcement having at least one layer of circumferential reinforcing elements, the said tread having at least one layer of polymeric compound forming a tread surface intended to come into contact with a roadway, characterized in that the thermal conductivity of the said layer of polymeric compound forming the tread surface is strictly less than 0.270 W/(m.K), the thermal conductivity being measured in accordance with the standard ISO 8302:1991, in that the said layer of polymeric compound forming the tread surface is formed of a rubber composition based on at least one elastomer matrix predominantly comprising a copolymer that is based on styrene and butadiene and has a glass transition temperature Tg strictly greater than -65°C and less than or equal to -30°C, and in that, in a radial plane, over at least 50% of the meridian profile of the tyre, the thickness of rubber compound between the inner surface of the cavity of the tyre and that point of a metal reinforcing element of the carcass reinforcement that is closest to the said inner surface of the cavity is less than 4.5 mm.
Machine for manufacturing layer by layer, comprising a circular container situated in the lower part that rotates continuously or stepwise on a fixed base and the inside of which is provided with independently vertically motorized cylindrical crowns that receive the successive layers, and a stationary part in the upper part of the machine that caps the container and comprising, contained in an angular portion of the surface of the circle of the lower container, at least one manufacturing unit which in turn is divided into several successive sections, said successive sections comprising - a first section which distributes the layer of product from a store, - a second section which evens out the thickness of the layer of product or compresses it and sends the excess distributed product to the store, - a third section which makes it possible to control and regulate the temperature of the next layer with a stationary plate, which is preferably microporous, - a fourth section which is that where the useful surfaces of the layer of product to be kept are swept either by the laser to melt them or by spraying an additive to agglomerate them or other means to modify the consistency of the product, - a fifth section which makes it possible to control and regulate the temperature of the layer just deposited, preferably using a hollow cylinder with a controlled and regulated temperature whereof the periphery rotates with the layer, and - a sixth section which makes it possible to treat and impregnate the layer before presentation to the following manufacturing unit by adding a complementary product by spraying or by the presence of a gas. - a first section which distributes the layer of product from a store, - a second section which evens out the thickness of the layer of product or compresses it and sends the excess distributed product to the store, - a third section which makes it possible to control and regulate the temperature of the next layer with a stationary plate, which is preferably microporous, - a fourth section which is that where the useful surfaces of the layer of product to be kept are swept either by the laser to melt them or by spraying an additive to agglomerate them or other means to modify the consistency of the product, - a fifth section which makes it possible to control and regulate the temperature of the layer just deposited, preferably using a hollow cylinder with a controlled and regulated temperature whereof the periphery rotates with the layer, and - a sixth section which makes it possible to treat and impregnate the layer before presentation to the following manufacturing unit by adding a complementary product by spraying or by the presence of a gas.
An oral care implement comprising: a handle extending along a longitudinal axis (A-A); first and second prong members (120, 130) extending from a distal end of the handle; and a pad for engaging soft tissue, the pad having a first major surface and a second major surface, the pad positioned between and coupled to the first and second prong members (120, 130); characterised in that the pad comprises a base formed of a first material and a layer formed of a second material overlying at least a portion of the base, the first material having a hardness that is greater than a hardness of the second material. a handle extending along a longitudinal axis (A-A); first and second prong members (120, 130) extending from a distal end of the handle; and a pad for engaging soft tissue, the pad having a first major surface and a second major surface, the pad positioned between and coupled to the first and second prong members (120, 130); characterised in that the pad comprises a base formed of a first material and a layer formed of a second material overlying at least a portion of the base, the first material having a hardness that is greater than a hardness of the second material.
An anion exchange stationary phase comprising: a) negatively charged substrate particles, b) a base condensation polymer layer attached to the negatively charged substrate particles, the base condensation polymer layer comprising: 1) quaternary amines, 2) polyethylene oxides, and 3) hydroxy groups; wherein at least a portion of the hydroxy groups are spaced from the quaternary amines by two carbons; c) one or more alkylamine condensation polymer layers covalently attached to base condensation polymer layer at the quaternary amine of that layer, the alkylamine condensation polymer layers comprising: 1) polyethylene oxides, 2) hydroxy groups; wherein at least a portion of the hydroxy groups are spaced from the quaternary amines by two carbons, and 3) quaternary amines; d) a terminating condensation layer covalently attached to the alkylamine condensation polymer layer, the terminating condensation layer comprising: 1) polyethylene oxides, 2) hydroxy groups; wherein at least a portion of the hydroxy groups are spaced from the quaternary amines by two carbons, and 3) quaternary amines, wherein the quaternary amine comprises two alkyl alcohols, wherein the alcohols are spaced from the quaternary amines by two carbons. a) negatively charged substrate particles, b) a base condensation polymer layer attached to the negatively charged substrate particles, the base condensation polymer layer comprising: 1) quaternary amines, 2) polyethylene oxides, and 3) hydroxy groups; wherein at least a portion of the hydroxy groups are spaced from the quaternary amines by two carbons; 1) quaternary amines, 2) polyethylene oxides, and 3) hydroxy groups; wherein at least a portion of the hydroxy groups are spaced from the quaternary amines by two carbons; c) one or more alkylamine condensation polymer layers covalently attached to base condensation polymer layer at the quaternary amine of that layer, the alkylamine condensation polymer layers comprising: 1) polyethylene oxides, 2) hydroxy groups; wherein at least a portion of the hydroxy groups are spaced from the quaternary amines by two carbons, and 3) quaternary amines; 1) polyethylene oxides, 2) hydroxy groups; wherein at least a portion of the hydroxy groups are spaced from the quaternary amines by two carbons, and 3) quaternary amines; d) a terminating condensation layer covalently attached to the alkylamine condensation polymer layer, the terminating condensation layer comprising: 1) polyethylene oxides, 2) hydroxy groups; wherein at least a portion of the hydroxy groups are spaced from the quaternary amines by two carbons, and 3) quaternary amines, wherein the quaternary amine comprises two alkyl alcohols, wherein the alcohols are spaced from the quaternary amines by two carbons. 1) polyethylene oxides, 2) hydroxy groups; wherein at least a portion of the hydroxy groups are spaced from the quaternary amines by two carbons, and 3) quaternary amines, wherein the quaternary amine comprises two alkyl alcohols, wherein the alcohols are spaced from the quaternary amines by two carbons.
A bending press having a drive device for actuating a pressure beam of the bending press mounted on a machine frame so as to be adjustable in linear guides, having a rotary drive for a spindle nut mounted in a housing so as to be rotatable in a bearing arrangement and having a threaded spindle which is drive-connected to the pressure beam, wherein the rotary drive is formed by an hollow shaft electric motor having a stator and a rotor, and the rotor of the rotary drive is formed by a disc-shaped magnet-equipped rotor rim and a bearing body formed as a spindle nut, characterized in that a bearing interior of the housing comprising the bearing arrangement is bounded by a cover ring in a pipe extension of the housing, which cover ring is bounded between an annular clamping section and the pipe extension, wherein it has an annular sealing element arranged in a groove on its inner circumference for sealing a bearing interior, which sealing element cooperates with a clamping flange of the bearing body, and that the bearing interior of the housing is bounded by a cover ring with a further sealing element in the region of a cylindrical centering extension of the bearing body, wherein the cover ring is arranged inside the rotor rim of the rotor and is fastened on a flange of the housing, whereby a sealing closure of the bearing interior with respect to the rotary drive is realized, wherein the bearing arrangement comprises a pair of radial bearings arranged in opposite directions and supporting the bearing body in the pipe extension. having a rotary drive for a spindle nut mounted in a housing so as to be rotatable in a bearing arrangement and having a threaded spindle which is drive-connected to the pressure beam, wherein the rotary drive is formed by an hollow shaft electric motor having a stator and a rotor, and the rotor of the rotary drive is formed by a disc-shaped magnet-equipped rotor rim and a bearing body formed as a spindle nut, characterized in that a bearing interior of the housing comprising the bearing arrangement is bounded by a cover ring in a pipe extension of the housing, which cover ring is bounded between an annular clamping section and the pipe extension, wherein it has an annular sealing element arranged in a groove on its inner circumference for sealing a bearing interior, which sealing element cooperates with a clamping flange of the bearing body, and that the bearing interior of the housing is bounded by a cover ring with a further sealing element in the region of a cylindrical centering extension of the bearing body, wherein the cover ring is arranged inside the rotor rim of the rotor and is fastened on a flange of the housing, whereby a sealing closure of the bearing interior with respect to the rotary drive is realized, wherein the bearing arrangement comprises a pair of radial bearings arranged in opposite directions and supporting the bearing body in the pipe extension.
A method of communicating using multiple data streams in accordance with CDMA, the method comprising: channel-encoding a first data stream by a first channel encoder (324a; 824a); modulating the channel-encoded first data stream by a first modulator (326a; 826a); spread-encoding the modulated first data stream with a first spreading code (344; 860) to form a first spread data stream; channel-encoding a second data stream by a second channel encoder (324b; 824b); modulating the channel-encoded second data stream by a second modulator (326b; 826b); spread-encoding the modulated second data stream with the first spreading code (344; 860) to form a second spread data stream; and transmitting the first spread data stream and the second spread data stream. channel-encoding a first data stream by a first channel encoder (324a; 824a); modulating the channel-encoded first data stream by a first modulator (326a; 826a); spread-encoding the modulated first data stream with a first spreading code (344; 860) to form a first spread data stream; channel-encoding a second data stream by a second channel encoder (324b; 824b); modulating the channel-encoded second data stream by a second modulator (326b; 826b); spread-encoding the modulated second data stream with the first spreading code (344; 860) to form a second spread data stream; and transmitting the first spread data stream and the second spread data stream.
A detection probe oligomer configured to specifically hybridize to all of a region of a target sequence of Atopobium vaginae 16S rRNA nucleic acid or amplified A. vaginae nucleic acid, said region corresponding to SEQ ID NO:46 or the complement thereof, wherein said detection probe oligomer is from 19 to 40 nucleotides in length and comprises a nucleotide sequence that consists of SEQ ID NO:4 or the complement thereof or SEQ ID NO: 17 or the complement thereof.
Process for the production of heat- and flame-resistant, low-emission nonwovens or nonwoven fabrics based on melamine/formaldehyde, with the following stages: a) provision of a melamine/formaldehyde resin with M:F ratio 1:2 and with almost complete etherification of the methylol groups with methanol, at least 80 % of the methylol groups being etherified; b) spinning of the melt at a mass flow rate of from 0.3 to 3.0 g/min per die at a melt temperature of from 80 to 200 °C in a melt-blow process; c) causing of a gas stream at a temperature of from 130 to 330 °C to flow onto the spun melt stream; d) laying of the flocs and/or fibres formed in stage c) to give a nonwoven or nonwoven fabric, with cooling to from 40 to 20 °C; e) treatment of the nonwoven or nonwoven fabric with gaseous hydrogen chloride; f) heating of the nonwoven or nonwoven fabric obtained in stage e) to from 260 to 340 °C, where air is caused to flow onto or through said nonwoven, and where the temperature in the range up to 160 °C is increased by at most 20 °C/min, and thereafter is increased by up to 100 °C/min; g) keeping of the nonwoven or nonwoven fabric for from 5 to 90 min at the temperature of from 260 to 340 °C reached in stage f), with from 5 to 50 % of the convection air being replaced by fresh air; and h) cooling of the nonwoven or nonwoven fabric to from 30 to 60 °C within from 5 s to 3 min by contact with material suitable for rapid heat exchange. a) provision of a melamine/formaldehyde resin with M:F ratio 1:2 and with almost complete etherification of the methylol groups with methanol, at least 80 % of the methylol groups being etherified; b) spinning of the melt at a mass flow rate of from 0.3 to 3.0 g/min per die at a melt temperature of from 80 to 200 °C in a melt-blow process; c) causing of a gas stream at a temperature of from 130 to 330 °C to flow onto the spun melt stream; d) laying of the flocs and/or fibres formed in stage c) to give a nonwoven or nonwoven fabric, with cooling to from 40 to 20 °C; e) treatment of the nonwoven or nonwoven fabric with gaseous hydrogen chloride; f) heating of the nonwoven or nonwoven fabric obtained in stage e) to from 260 to 340 °C, where air is caused to flow onto or through said nonwoven, and where the temperature in the range up to 160 °C is increased by at most 20 °C/min, and thereafter is increased by up to 100 °C/min; g) keeping of the nonwoven or nonwoven fabric for from 5 to 90 min at the temperature of from 260 to 340 °C reached in stage f), with from 5 to 50 % of the convection air being replaced by fresh air; and h) cooling of the nonwoven or nonwoven fabric to from 30 to 60 °C within from 5 s to 3 min by contact with material suitable for rapid heat exchange.
Process of shutting down a blast furnace plant comprising a blast furnace and a gas cleaning section for cleaning gas from the blast furnace, wherein clean gas is released via a clean gas vent line downstream of the gas cleaning section and wherein hot blast pressure and/or flow are reduced to a set value, and subsequently a flow is generated from tuyeres of the blast furnace to the clean gas vent line.
A polymer light-emitting diode having a plurality of layers, comprising: an anode layer; a hole injection layer disposed over said anode layer, said hole injection layer comprises a crosslinked hole injection material doped with at least one conductivity dopant selected from a group comprising ferric chloride (FeCl 3), ferric bromide (FeBr 3), antimony pentachloride (SbCl 5), arsenic pentachloride(AsCl 5), boron trifluoride (BF 3), 2,3,5,6-tetrafluoro-7,7,8,8-tetracyano-quinodimethane (F 4 -TCNQ), dicyanodichloroquinone, and trinitrofluorenone; said hole injection layer being in physical contact with the anode, and a hole transporting interlayer disposed over said hole injection layer, said hole transporting interlayer comprises a crosslinked hole transporting material doped with at least one conductivity dopant, wherein each of the hole injection layer and the hole transporting interlayer is free of PEDOT:PSS. an anode layer; a hole injection layer disposed over said anode layer, said hole injection layer comprises a crosslinked hole injection material doped with at least one conductivity dopant selected from a group comprising ferric chloride (FeCl 3), ferric bromide (FeBr 3), antimony pentachloride (SbCl 5), arsenic pentachloride(AsCl 5), boron trifluoride (BF 3), 2,3,5,6-tetrafluoro-7,7,8,8-tetracyano-quinodimethane (F 4 -TCNQ), dicyanodichloroquinone, and trinitrofluorenone; said hole injection layer being in physical contact with the anode, and a hole transporting interlayer disposed over said hole injection layer, said hole transporting interlayer comprises a crosslinked hole transporting material doped with at least one conductivity dopant, wherein each of the hole injection layer and the hole transporting interlayer is free of PEDOT:PSS.
A ferrite material, characterised in that it has the following chemical formula: (1-x) (Y a TR b Bi b,Fe c Al d In e Ca f Cu g Zr h Co i Si j O 12± y) + x (Li 2 CO 3 or Li 2 O or LiF or LiCI) with x mass percent ranging between 0.1 and 2, with TR being a rare earth or a combination of rare earths which does not comprise the element Y, − 1 ≤ γ ≤ 1; 3 a + b + b' + c + d + e + 2 f + g + i + 4 h + j = 24 ± 2 γ; 0 ≤ a ≤ 2; 0 ≤ b ≤ 1.5; 0.1 < b' < 3; 4 ≤ c ≤ 5; 0 ≤ d ≤ 1.5; 0 ≤ e ≤ 0.8; 0 ≤ f ≤ 1; 0 < g < 0.05; 0 ≤ h ≤ 1; 0 ≤ i ≤ 0.5; 0 ≤ j ≤ 0.5. with x mass percent ranging between 0.1 and 2, with TR being a rare earth or a combination of rare earths which does not comprise the element Y, − 1 ≤ γ ≤ 1; 3 a + b + b' + c + d + e + 2 f + g + i + 4 h + j = 24 ± 2 γ; 0 ≤ a ≤ 2; 0 ≤ b ≤ 1.5; 0.1 < b' < 3; 4 ≤ c ≤ 5; 0 ≤ d ≤ 1.5; 0 ≤ e ≤ 0.8; 0 ≤ f ≤ 1; 0 < g < 0.05; 0 ≤ h ≤ 1; 0 ≤ i ≤ 0.5; 0 ≤ j ≤ 0.5.
A transmitted light illumination apparatus for light microscopes, in particular stereo microscopes or macroscopes with a changing effective entrance pupil of an objective, the apparatus comprising a light source adapted to emit an illuminating light beam, a housing, in which the light source is arranged, a holding device for holding a sample to be examined and at least one diaphragm edge (BK, BH, BV) to trim the illuminating light beam, wherein the diaphragm edge (BK, BH, BV) extends transversely to an optical axis, in particular of an objective (OBJ1, OBJ2, OBJ3), of a light microscope, which can be positioned in an operating state on the transmitted light illumination apparatus, and wherein a beam path of the illuminating light between the diaphragm edge (BK, BH, BV) and the sample which is held by the holding device is free of adjustable beam-focussing components, characterised in that in order to adapt the beam path of the illuminating light to the effective entrance pupil of the objective (OBJ1, OBJ2, OBJ3) means for variable positioning of the diaphragm edge (BK, BH, BV) in direction of the optical axis are provided, wherein a position of the diaphragm edge (BK, BH, BV) in the direction of the optical axis can be varied irrespectively of a position of the diaphragm edge (BK, BH, BV) transversely to the optical axis, assembly means are provided on the housing for assembling a separate sample support table, means for determining the presence of a sample support table are present, the housing comprises a passage opening, through which the diaphragm edge (BK, BH, BV) can be moved in the direction of the optical axis, the holding device is formed in the region of the passage opening of the housing or on a separate sample support table, and a control device is provided which is adapted to position the diaphragm edge in dependence upon at least a determined presence of a sample support table.
A monolithic loudspeaker comprising: a first pair of speakers for a first channel, including a first front speaker and a first rear speaker, wherein the first front speaker and the first rear speaker are arranged along a first axis in a first cross-section of the monolithic loudspeaker, and are arranged towards opposite directions; and a second pair of speakers for a second channel, including a second front speaker and a second rear speaker, wherein the second front speaker and the second rear speaker are arranged along a second axis in a second cross-section of the monolithic loudspeaker, and are arranged towards opposite directions; wherein the first axis and the second axis are deflected by an angle; a signal applied to the first rear speaker is delayed from that applied to the first front speaker to form a radiation pattern for the first channel, and a signal applied to the second rear speaker is delayed from that applied to the second front speaker to form a radiation pattern for the second channel. a first pair of speakers for a first channel, including a first front speaker and a first rear speaker, wherein the first front speaker and the first rear speaker are arranged along a first axis in a first cross-section of the monolithic loudspeaker, and are arranged towards opposite directions; and a second pair of speakers for a second channel, including a second front speaker and a second rear speaker, wherein the second front speaker and the second rear speaker are arranged along a second axis in a second cross-section of the monolithic loudspeaker, and are arranged towards opposite directions; wherein the first axis and the second axis are deflected by an angle; a signal applied to the first rear speaker is delayed from that applied to the first front speaker to form a radiation pattern for the first channel, and a signal applied to the second rear speaker is delayed from that applied to the second front speaker to form a radiation pattern for the second channel.