mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a composite membrane suitable for the separation of CO 2 and N 2 comprising a porous support layer and a discriminating layer, the process comprising the steps of: (a) providing a porous support layer; (b) incorporating an inert liquid into the pores of the support layer; (c) applying a radiation curable composition to the support layer; and (d) irradiating and thereby curing the radiation curable composition, thereby forming the discriminating layer on the porous support; wherein the radiation curable composition comprises: (i) 0 to 80 parts in total of monofunctional compounds; (ii) 1 to 99 parts in total of difunctional compounds comprising at least 10 oxyethylene groups; (iii) 0 to 50 parts in total of polyfunctional compounds; and (iv) 2 to 99 parts of an inert liquid; wherein all parts are by weight; and wherein the inert liquid and the radiation curable composition are coated onto the support layer by a multilayer coating method wherein a layer of the inert liquid and a layer of the radiation curable composition are applied simultaneously to the support layer with the inert liquid layer being the lower layer and therefore contacting the support ahead of the radiation curable composition. (a) providing a porous support layer; (b) incorporating an inert liquid into the pores of the support layer; (c) applying a radiation curable composition to the support layer; and (d) irradiating and thereby curing the radiation curable composition, thereby forming the discriminating layer on the porous support; (i) 0 to 80 parts in total of monofunctional compounds; (ii) 1 to 99 parts in total of difunctional compounds comprising at least 10 oxyethylene groups; (iii) 0 to 50 parts in total of polyfunctional compounds; and (iv) 2 to 99 parts of an inert liquid;
A method for use by an access device of a communication network system, the method comprising: calculating power estimation values for successive time slots of a communication channel based on measurement values for the successive time slots from a user equipment accessing the communication network system via the access device; performing transmit power control based on the power estimation values; detecting if a compressed mode is active for the user equipment; and in case the compressed mode is active, excluding from the calculating power estimation values or measurement values for predetermined time slots from at least a first time point T1 at which the user equipment has entered the compressed mode, at least one time slot after a second time point T2 at which the user equipment has returned from the compressed mode, and each time slot between the first time point T1 and the second time point T2. calculating power estimation values for successive time slots of a communication channel based on measurement values for the successive time slots from a user equipment accessing the communication network system via the access device; performing transmit power control based on the power estimation values; detecting if a compressed mode is active for the user equipment; and in case the compressed mode is active, excluding from the calculating power estimation values or measurement values for predetermined time slots from at least a first time point T1 at which the user equipment has entered the compressed mode, at least one time slot after a second time point T2 at which the user equipment has returned from the compressed mode, and each time slot between the first time point T1 and the second time point T2.
A composition for use in a method of treating or preventing a complication of sickle-cell disease in a subject, the method comprising administering the composition to a subject, wherein the composition comprises an ActRII antagonist, wherein the complication is selected from the group consisting of pain crisis, vaso-occlusion and vaso-occlusive crisis, wherein the ActRII antagonist comprises a polypeptide that comprises an amino acid sequence that is at least 90% identical to the sequence of amino acids 29-109 of SEQ ID NO: 1, wherein the polypeptide comprises an acidic amino acid at the position corresponding to position 79 of SEQ ID NO: 1; wherein the polypeptide binds to GDF8 and/or GDF11.
A semitrailer for interchangeable bodies, containers and similar equipment used for intermodal transport, wherein comprises: - a frame, adapted to support two aligned twenty-foot containers of standardized type and provided with traditional corner castings, - a pin, provided on an end of said frame and removably engageable in a fifth wheel of a traditional tractor, - a plurality of locking means mounted on said frame in positions corresponding to the corner castings of said containers, - an axle-carrying structure longitudinally sliding on said frame and lockable in a plurality of predetermined positions, - three axles (6,8,10) mounted on said axle-carrying structure, one front, one central and one rear, characterized in that, the latter being steering and having a distance from the central axle greater than the distance of the latter from the front axle, and in that the extreme rear position of said axle-carrying structure with respect to said frame being such to keep the axis of said steering rear axle in position protruding on the rear beyond the rear locking means mounted on said frame. - a frame, adapted to support two aligned twenty-foot containers of standardized type and provided with traditional corner castings, - a pin, provided on an end of said frame and removably engageable in a fifth wheel of a traditional tractor, - a plurality of locking means mounted on said frame in positions corresponding to the corner castings of said containers, - an axle-carrying structure longitudinally sliding on said frame and lockable in a plurality of predetermined positions, - three axles (6,8,10) mounted on said axle-carrying structure, one front, one central and one rear, characterized in that, the latter being steering and having a distance from the central axle greater than the distance of the latter from the front axle,
A compound depicted in formula wherein • R1 is selected from the groups consisting of H and aryl-(C1-C4)alkyl, wherein aryl is a halogen substituted or an unsubstituted single-ring aromatic group in which each atom of the ring is carbon or nitrogen; • R2 is aryl-(C1-C4)alkyl, wherein aryl is a halogen substituted or an unsubstituted single-ring aromatic group in which each atom of the ring is carbon or nitrogen; • R3 is selected from the groups consisting of a C3-C12-cycloalkyl optionally substituted with one of more halogens, optionally replacing one or more carbons by heteroatoms in the cycloalkyl ring structure; • R4 is selected from the groups consisting of C1-C4-alkyl, wherein said C1-C4 alkyl is terminated with an R7 group wherein R7 is a C3-C10-heterocycle optionally substituted with one or more halogens; • R5 is selected from the groups consisting of H or C3-C12-cycloalkyl optionally substituted with one of more halogens, optionally replacing one or more carbons by heteroatoms in the cycloalkyl ring structure; • R6 is selected from the groups consisting of H or a structure as defined in R4 and pharmaceutically acceptable salts thereof, and individual enantiomers and diastereomers thereof. • R1 is selected from the groups consisting of H and aryl-(C1-C4)alkyl, wherein aryl is a halogen substituted or an unsubstituted single-ring aromatic group in which each atom of the ring is carbon or nitrogen; • R2 is aryl-(C1-C4)alkyl, wherein aryl is a halogen substituted or an unsubstituted single-ring aromatic group in which each atom of the ring is carbon or nitrogen; • R3 is selected from the groups consisting of a C3-C12-cycloalkyl optionally substituted with one of more halogens, optionally replacing one or more carbons by heteroatoms in the cycloalkyl ring structure; • R4 is selected from the groups consisting of C1-C4-alkyl, wherein said C1-C4 alkyl is terminated with an R7 group wherein R7 is a C3-C10-heterocycle optionally substituted with one or more halogens; • R5 is selected from the groups consisting of H or C3-C12-cycloalkyl optionally substituted with one of more halogens, optionally replacing one or more carbons by heteroatoms in the cycloalkyl ring structure; • R6 is selected from the groups consisting of H or a structure as defined in R4
A ferrule for a tube fitting, comprising: an outer layer having a hardness equal or greater than 40 HRc, the outer layer having a thickness of about 0.025 to about 0.051 mm (about 0.001 to about 0.002 inches); an intermediate layer below the outer layer, the intermediate layer having a hardness that is less than the hardness of the outer layer and in the range of 80 HRb to 40 HRc, and the intermediate layer having a thickness equal or greater than 0.076 mm (0.003 inches), wherein the intermediate layer is formed by nitrogen infusion; a core below the intermediate layer, the core having a hardness that is less than the hardness of the intermediate layer. an outer layer having a hardness equal or greater than 40 HRc, the outer layer having a thickness of about 0.025 to about 0.051 mm (about 0.001 to about 0.002 inches); an intermediate layer below the outer layer, the intermediate layer having a hardness that is less than the hardness of the outer layer and in the range of 80 HRb to 40 HRc, and the intermediate layer having a thickness equal or greater than 0.076 mm (0.003 inches), wherein the intermediate layer is formed by nitrogen infusion; a core below the intermediate layer, the core having a hardness that is less than the hardness of the intermediate layer.
Damping device, in particular for damping or preventing pressure shocks, such as pulsations, in hydraulic supply circuits, preferably in the form of a silencer, with a damping housing surrounding a damping chamber, which has at least one fluid inlet and at least one fluid outlet as well as a fluid receiving chamber extending between the fluid inlet and the fluid outlet and forming the damping chamber, wherein, during operation of the device, a fluid flow coming from the fluid inlet traverses the damping chamber to the fluid outlet, wherein a wall portion of the fluid receiving chamber extends as a guide element in at least one direction of expansion transverse to the direction of the fluid flow between mutually opposing end walls (12, 14) of the damping housing, and wherein a plurality of guide elements are provided in the damping chamber, which guide elements the fluid flow can impinge upon thereby changing its flow velocity in certain areas, wherein at least some of the guide elements are configured as continuous hollow bodies, characterised in that the continuous hollow bodies are formed with a cylindrical central portion, to which cones are connected at the ends, which cones each widen in the direction of the assignable end wall (12, 14) of the damping housing.
An Arthropoda repellent composition, comprising (i) Icaridin (1-(1-methylpropoxycarbonyl)-2-(2-hydroxyethyl)piperidine, (ii) optionally at least one further Arthropoda repellent compound selected from PMD ( para -menthan-3,8-diol), DEET ( N, N -diethyl- m- methylbenzamide), IR 3535 (ethyl-3-acetylbutylaminopropanoate), KBR 3023 ( -sec-butyl- -2-(2hydroxyethyl) piperidine-1-carboxylate) or ethyl anthranilate (ethyl-2-aminobenzoate), and (iii) at least PPG-20 methyl glucose ether and optionally at least one further polyol, selected from PPG-10 methyl glucose ether, propylene glycol, butylene glycol and pentylene glycol. (i) Icaridin (1-(1-methylpropoxycarbonyl)-2-(2-hydroxyethyl)piperidine, (ii) optionally at least one further Arthropoda repellent compound selected from PMD ( para -menthan-3,8-diol), DEET ( N, N -diethyl- m- methylbenzamide), IR 3535 (ethyl-3-acetylbutylaminopropanoate), KBR 3023 ( -sec-butyl- -2-(2hydroxyethyl) piperidine-1-carboxylate) or ethyl anthranilate (ethyl-2-aminobenzoate), and (iii) at least PPG-20 methyl glucose ether and optionally at least one further polyol, selected from PPG-10 methyl glucose ether, propylene glycol, butylene glycol and pentylene glycol.
A rail break detection device to which a first output waveform from a first vibration sensor mounted on rails and a second output waveform from a second vibration sensor mounted at a different position from the first vibration sensor are input, the rail break detection device comprising: a first waveform separation unit configured to separate the first output waveform of the first vibration sensor and output a first impulse waveform, which is a forced vibration component, and a first continuous waveform, which is a free vibration component; a second waveform separation unit configured to separate the second output waveform of the second vibration sensor and output a second impulse waveform, which is a forced vibration component, and a second continuous waveform, which is a free vibration component; and a waveform similarity determination unit configured to perform at least one of comparison between the first impulse waveform and the second impulse waveform and comparison between the first continuous waveform and the second continuous waveform, and determine similarity between the first output waveform and the second output waveform, wherein a break of rails is detected on the basis of the similarity. a first waveform separation unit configured to separate the first output waveform of the first vibration sensor and output a first impulse waveform, which is a forced vibration component, and a first continuous waveform, which is a free vibration component; a second waveform separation unit configured to separate the second output waveform of the second vibration sensor and output a second impulse waveform, which is a forced vibration component, and a second continuous waveform, which is a free vibration component; and a waveform similarity determination unit configured to perform at least one of comparison between the first impulse waveform and the second impulse waveform and comparison between the first continuous waveform and the second continuous waveform, and determine similarity between the first output waveform and the second output waveform, wherein a break of rails is detected on the basis of the similarity.
A filter arrangement, in particular air filter arrangement, with a housing having an untreated space inlet and a clean space outlet and a filter insert which can be attached to the clean space outlet in the housing, the filter wall of which separates a clean space in the interior of the filter insert from an untreated space outside the filter insert in the interior of the housing, characterised in that a lining part on the filter insert for a region of the interior of the housing at the clean space outlet is arranged to the filter insert, which part forms a collection space for dirt retained by the filter wall in the vicinity of the clean space outlet.
An Intelligent Transportation System station, ITS-S, (S U) for being carried by a Vulnerable Road User, VRU, (U j) comprising: a motion sensor configured to determine VRU motion data (md U) indicative of a VRU position (p U), a VRU speed (v U), and a VRU heading (h U); a transmitter connected to the motion sensor and configured to transmit a VRU message (M U) including the determined VRU motion data (md U); a receiver configured to receive, concerning a vehicle (C i), vehicle motion data (md C) indicative of a vehicle position (p C), a vehicle speed (v C), and a vehicle heading (h C); and a controller connected to the motion sensor and to the receiver and configured to control the transmitter, wherein the controller is configured to compare the determined VRU motion data (md U) with the received vehicle motion data (md C) and, when the result of the comparison meets a predetermined criterion, to suppress the transmitting of said VRU message (M U), wherein said comparison comprises the determination of a position difference (Δp) between the VRU position (p U) and the vehicle position (p C) and of a heading difference (Δh) between the VRU heading (h U) and the vehicle heading (h C), characterised in that said predetermined criterion is met when the position difference (Δp) falls below a predetermined position threshold (Tp), the heading difference (Δh) falls within a predetermined range (α), and the vehicle speed (v C) is substantially zero, and wherein said predetermined range (α) is from 30 degrees to 150 degrees and/or from 210 degrees to 330 degrees. a motion sensor configured to determine VRU motion data (md U) indicative of a VRU position (p U), a VRU speed (v U), and a VRU heading (h U); a transmitter connected to the motion sensor and configured to transmit a VRU message (M U) including the determined VRU motion data (md U); a receiver configured to receive, concerning a vehicle (C i), vehicle motion data (md C) indicative of a vehicle position (p C), a vehicle speed (v C), and a vehicle heading (h C); and a controller connected to the motion sensor and to the receiver and configured to control the transmitter, wherein the controller is configured to compare the determined VRU motion data (md U) with the received vehicle motion data (md C) and, when the result of the comparison meets a predetermined criterion, to suppress the transmitting of said VRU message (M U), wherein said comparison comprises the determination of a position difference (Δp) between the VRU position (p U) and the vehicle position (p C) and of a heading difference (Δh) between the VRU heading (h U) and the vehicle heading (h C), characterised in that said predetermined criterion is met when the position difference (Δp) falls below a predetermined position threshold (Tp), the heading difference (Δh) falls within a predetermined range (α), and the vehicle speed (v C) is substantially zero, and wherein said predetermined range (α) is from 30 degrees to 150 degrees and/or from 210 degrees to 330 degrees.
Method for manufacturing polylactide, comprising the steps of mixing lactide and a metal-coordination compound as polymerization catalyst to obtain a reaction mixture, polymerizing the lactide at a temperature of at least 150°C to form polylactide in liquid phase and allowing the polylactide to solidify, characterized in that the polymerization catalyst comprises a metal-ligand coordination compound whereby the parent ligand answers the formula, whereby R represents an H atom, an aliphatic group, a halide atom or a nitro group and the metal is at least one of Zr and Hf.
A filtration apparatus comprising: a filtration tank; a layer of filtration media that filters supplied raw water by passing the raw water therethrough within the interior of the filtration tank; and a screw cleansing mechanism having a cylindrical outer cylinder which is provided within the filtration tank in a vertical orientation, a spiral shaped screw which is provided such that the long axis thereof extends in the longitudinal direction of the outer cylinder, and a screw driving means for rotating the screw, that scrubs and cleans filtration media by rotating the screw; characterized in that the shape of the screw as viewed from the direction of an axis of the screw is in a shape in which screw blade members are present in an annular manner around a central aperture at which no member is present. a filtration tank; a layer of filtration media that filters supplied raw water by passing the raw water therethrough within the interior of the filtration tank; and a screw cleansing mechanism having a cylindrical outer cylinder which is provided within the filtration tank in a vertical orientation, a spiral shaped screw which is provided such that the long axis thereof extends in the longitudinal direction of the outer cylinder, and a screw driving means for rotating the screw, that scrubs and cleans filtration media by rotating the screw; characterized in that the shape of the screw as viewed from the direction of an axis of the screw is in a shape in which screw blade members are present in an annular manner around a central aperture at which no member is present.
A system for vertical augmentation of osseous tissue on a surface of a bone, said system comprising: a scaffolding comprising tricalcium phosphates, adapted to be placed on portions of said bone which is to be augmented, wherein the cortical portion of said bone comprises a plurality of minute perforations; a rigid enclosure enclosing said scaffolding relatively to the surface of said bone; a cell culture seeded onto said scaffolding, wherein said tissue culture is selected from the group consisting of: a late endothelial progenitor cell culture, a late mesenchymal stem cells culture, peripheral blood derived endothelial progenitor cells and mesenchymal stem cells. a scaffolding comprising tricalcium phosphates, adapted to be placed on portions of said bone which is to be augmented, wherein the cortical portion of said bone comprises a plurality of minute perforations; a rigid enclosure enclosing said scaffolding relatively to the surface of said bone; a cell culture seeded onto said scaffolding, wherein said tissue culture is selected from the group consisting of: a late endothelial progenitor cell culture, a late mesenchymal stem cells culture, peripheral blood derived endothelial progenitor cells and mesenchymal stem cells.
An autonomous firefighting agent made from a material having fire-extinguishing properties comprising microcapsules filled with a fire-extinguishing composition and having a size from 2 to 100 μm, said microcapsules being a halocarbon enclosed in a polymeric shell of polyurea and/or polyurethane, and a binder, wherein the binder is a composite material comprising a polymeric component and mineral fibers and/or particles.
A cyclical swing adsorption process in which one adsorber bed is in an on-stream mode, during which adsorbate is adsorbed from a feed gas mixture passing through the bed, while another adsorber bed is in a regeneration mode, during which the adsorbed adsorbate is desorbed from the bed, and said beds alternate between said modes, wherein the time required to complete the on-stream mode is determined by the total amount of the adsorbate in the feed gas mixture fed to the bed during said mode, the concentration of the adsorbate in the feed gas mixture is monitored during said on-stream mode and the time required to complete the on-stream mode predicted from said monitored concentration, and at least one regeneration mode operating condition is modified in response to changes in said predicted time whereby the regeneration mode is completed at the same time as the concurrent on-stream mode.