mhurhangee/ep-ind-claims huggingface dataset:
A method for installing an antenna device, comprising: - a lower-side-columnar-conductor installing process including: setting up a first support body, setting up a second support body, characterised in that the method further comprises setting up a main columnar conductor (1, 4; 15) disposed between the first support body and the second support body; and - a U-shaped-conductor fastening process including: fastening one end of a U-shaped conductor to a first upper dielectric spacer that is formed on an upper-side end portion of the first support body, the U-shaped conductor being bent in a U-shape, fastening the other end of the U-shaped conductor to a second upper dielectric spacer that is formed on an upper-side end portion of the second support body, and fastening a center portion of the U-shaped conductor to a tip portion of the main columnar conductor (1, 4), a power feeding portion being built in the main columnar conductor (1, 4). - a lower-side-columnar-conductor installing process including: setting up a first support body, setting up a second support body, characterised in that the method further comprises setting up a main columnar conductor (1, 4; 15) disposed between the first support body and the second support body; and setting up a first support body, setting up a second support body, characterised in that the method further comprises setting up a main columnar conductor (1, 4; 15) disposed between the first support body and the second support body; and - a U-shaped-conductor fastening process including: fastening one end of a U-shaped conductor to a first upper dielectric spacer that is formed on an upper-side end portion of the first support body, the U-shaped conductor being bent in a U-shape, fastening the other end of the U-shaped conductor to a second upper dielectric spacer that is formed on an upper-side end portion of the second support body, and fastening a center portion of the U-shaped conductor to a tip portion of the main columnar conductor (1, 4), a power feeding portion being built in the main columnar conductor (1, 4). fastening one end of a U-shaped conductor to a first upper dielectric spacer that is formed on an upper-side end portion of the first support body, the U-shaped conductor being bent in a U-shape, fastening the other end of the U-shaped conductor to a second upper dielectric spacer that is formed on an upper-side end portion of the second support body, and fastening a center portion of the U-shaped conductor to a tip portion of the main columnar conductor (1, 4), a power feeding portion being built in the main columnar conductor (1, 4).
A fuel supply system comprising a fuel valve ( 60; 60') for controlling delivery of fuel to a main air passage of a carburetor of an internal combustion engine, the fuel valve ( 60; 60') comprising: - at least one inlet port for receiving fuel from a fuel regulator of the carburetor, - at least one fuel outlet port for connecting to at least one nozzle ( 35; 36) in the air passage leading into the engine, - a fuel cavity between the inlet port and the outlet port, and - a valve member movable in a manner so as to enable at least two states, a first state permitting flow of fuel from the inlet port through the cavity to the outlet port, and a second state at least principally blocking such flow, characterized in that the valve ( 60; 60') has a pump port in communication with the fuel cavity, wherein said pump port is connected to a manually operated pump ( 81a; 81b). - at least one inlet port for receiving fuel from a fuel regulator of the carburetor, - at least one fuel outlet port for connecting to at least one nozzle ( 35; 36) in the air passage leading into the engine, - a fuel cavity between the inlet port and the outlet port, and - a valve member movable in a manner so as to enable at least two states, a first state permitting flow of fuel from the inlet port through the cavity to the outlet port, and a second state at least principally blocking such flow, characterized in that the valve ( 60; 60') has a pump port in communication with the fuel cavity, wherein said pump port is connected to a manually operated pump ( 81a; 81b).
A process, comprising: compressing in a first stage of a compressor a gas mixture of vaporized liquid chlorine and a feed gas containing chlorine, where the vaporized liquid chlorine and the feed gas both contain chlorine heavy compounds having a molecular weight of at least 85 grams/mole, to produce a compressed gas at a first compression pressure; supplying the gas mixture at the first compression pressure to a chlorine heavies removal tower; removing at least some of the chlorine heavy compounds from the gas mixture in the chlorine heavies removal tower; compressing in a second stage of the compressor the gas mixture having a reduced concentration of chlorine heavy compounds to further compress the compressed gas; condensing in a condenser and a heat recovery unit chlorine in the compressed gas into liquid chlorine; vaporizing a first portion of the liquid chlorine to provide a heat of condensation to condense chlorine from the compressed gas into liquid chlorine; and vaporizing a second portion of the liquid chlorine to provide the vaporized liquid chlorine for the gas mixture and a heat of condensation to cool a tail gas from the process. compressing in a first stage of a compressor a gas mixture of vaporized liquid chlorine and a feed gas containing chlorine, where the vaporized liquid chlorine and the feed gas both contain chlorine heavy compounds having a molecular weight of at least 85 grams/mole, to produce a compressed gas at a first compression pressure; supplying the gas mixture at the first compression pressure to a chlorine heavies removal tower; removing at least some of the chlorine heavy compounds from the gas mixture in the chlorine heavies removal tower; compressing in a second stage of the compressor the gas mixture having a reduced concentration of chlorine heavy compounds to further compress the compressed gas; condensing in a condenser and a heat recovery unit chlorine in the compressed gas into liquid chlorine; vaporizing a first portion of the liquid chlorine to provide a heat of condensation to condense chlorine from the compressed gas into liquid chlorine; and vaporizing a second portion of the liquid chlorine to provide the vaporized liquid chlorine for the gas mixture and a heat of condensation to cool a tail gas from the process.
A compound of formula in free form or in pharmaceutically acceptable salt form, wherein R 1 is C 1 -C 3 alkyl; R 2 is halogen; R 3 is cyano; R 4 is selected from amino, halogen, hydroxy, C 1 -C 3 alkyl, halogen-C 1 -C 3 alkyl, hydroxy-C 1 -C 3 alkyl, C 3 -C 6 cycloalkyl, C 1 -C 3 alkoxy, halogen-C 1 -C 3 alkoxy, C 1 -C 3 alkoxy-C 1 -C 3 alkoxy, C 3 -C 6 cycloalkyl-C 1 -C 3 alkoxy, C 3 -C 6 cycloalkoxy; or R 4 is selected from a (=O), (=S) or (=N(R 8)) group; R 5 is selected from hydrogen, amino, halogen, hydroxy, C 1 -C 3 alkyl, halogen-C 1 -C 3 alkyl, hydroxy-C 1 -C 3 alkyl, C 3 -C 6 cycloalkyl, C 1 -C 3 alkoxy, halogen-C 1 -C 3 alkoxy, C 3 -C 6 cycloalkoxy; or R 5 is selected from a (=O), (=S) or (=N(R' 8)) group; R 6 is selected from hydrogen, amino, halogen, hydroxy, C 1 -C 3 alkyl, halogen-C 1 -C 3 alkyl, C 3 -C 6 cycloalkyl, C 1 -C 3 alkoxy, halogen-C 1 -C 3 alkoxy, C 3 -C 6 cycloalkoxy; R 7 is selected from hydrogen, halogen, halogen-C 1 -C 3 alkyl; or R 6 and R 7 together with the carbon to which they are attached form a -C(=O)- or -C(=S)-group; R 8 and R' 8 are independently selected from hydrogen, hydroxy; provided R 5, R 6, and R 7 are not all hydrogen.
An apparatus comprising: first and second electrodes (18, 20) configured to provide an electric field therebetween when operatively coupled to a power source; and first and second dielectric layers (22, 24) disposed between the first and second electrodes (18, 20), the dielectric layers are spaced from one another to at least partially define a microfluidic channel therebetween, the microfluidic channel extending along a length normal to the electric field; characterized in that the apparatus further comprises a driving electrode and a bulk acoustic wave resonator comprising a piezoelectric portion disposed between the first electrode and the driving electrode, the driving electrode disposed outside of the channel, the first electrode and the driving electrode operatively coupled to an oscillation circuit to power the resonator. first and second electrodes (18, 20) configured to provide an electric field therebetween when operatively coupled to a power source; and first and second dielectric layers (22, 24) disposed between the first and second electrodes (18, 20), the dielectric layers are spaced from one another to at least partially define a microfluidic channel therebetween, the microfluidic channel extending along a length normal to the electric field; characterized in that the apparatus further comprises a driving electrode and a bulk acoustic wave resonator comprising a piezoelectric portion disposed between the first electrode and the driving electrode, the driving electrode disposed outside of the channel, the first electrode and the driving electrode operatively coupled to an oscillation circuit to power the resonator.
Discharge system for discharging a plurality of flexible containers from a tubular storage assembly, wherein each of the containers comprises a dispensing spout and wherein the storage assembly comprises a plurality of elongated guiding elements onto which a plurality of rows of dispensing spouts can be carried, wherein the guiding elements are configured to be maintained in a substantially tubular arrangement while the containers extend in a generally helical trajectory in the interior formed by the tubular arrangement, the discharge system having an axial direction (Pp) and comprising: - a storage assembly support configured to support the tubular storage assembly, the guiding elements extending in said axial direction; - a discharge device configured to remove the containers from the tubular storage assembly and move the containers one by one from the second end of the tubular storage assembly towards a discharge region, wherein the discharge device comprises: - a gripper unit; - a drive (82,84) configured to cause the storage assembly and the gripper unit to rotate relative to each other; wherein the gripper unit is configured to grip dispensing spouts of containers successively passing by the gripper unit, to transport the gripped dispensing spouts and associated containers in essentially the axial direction (Pp) and to collect the dispensing spouts in the discharge region. - a storage assembly support configured to support the tubular storage assembly, the guiding elements extending in said axial direction; - a discharge device configured to remove the containers from the tubular storage assembly and move the containers one by one from the second end of the tubular storage assembly towards a discharge region, wherein the discharge device comprises: - a gripper unit; - a drive (82,84) configured to cause the storage assembly and the gripper unit to rotate relative to each other; wherein the gripper unit is configured to grip dispensing spouts of containers successively passing by the gripper unit, to transport the gripped dispensing spouts and associated containers in essentially the axial direction (Pp) and to collect the dispensing spouts in the discharge region. - a gripper unit; - a drive (82,84) configured to cause the storage assembly and the gripper unit to rotate relative to each other;
Radiofrequency communication module comprising an electronic device coated in elastomeric material (3a, 3b), the elastomeric material comprising: - from 40 to 55 phr of a butadiene elastomer selected from the polybutadienes, and from 45 to 60 pce of an isoprene elastomer, selected from natural rubber and synthetic polyisoprenes, and does not comprise other elastomers; - from 6 to 20 phr of carbon black exhibiting a BET specific surface ranging from 70 to 99 m 2 /g; - from 25 to 35 phr of inorganic filler. - from 40 to 55 phr of a butadiene elastomer selected from the polybutadienes, and from 45 to 60 pce of an isoprene elastomer, selected from natural rubber and synthetic polyisoprenes, and does not comprise other elastomers; - from 6 to 20 phr of carbon black exhibiting a BET specific surface ranging from 70 to 99 m 2 /g; - from 25 to 35 phr of inorganic filler.
A gasket handling method of separating a gasket main body from a carrier film in a gasket including a combination of the gasket main body including a rubber-like elastic body and the carrier film that holds the gasket main body by being adhered to the gasket main body, comprising using a suction jig when separating the gasket main body from the carrier film, wherein the suction jig includes a suction surface at a position facing the carrier film; the suction surface is formed with a suction groove having a shape that corresponds with a planar shape of the gasket main body, the suction groove being formed with a plurality of suction paths at a required interval over the entire periphery; and separating the gasket main body from the carrier film by fixing the carrier film, and suctioning one surface in a thickness direction of the gasket main body to the suction groove with a suction force from the suction paths in the suction jig.
A pharmaceutical composition comprising a humanised monoclonal antibody that specifically binds an epitope contained within positions 13-28 of Aβ for use in preventing or treating pre-clinical or clinical Alzheimer's disease, wherein the antibody comprises: a) a light chain comprising three light chain complementarity determining regions (CDRs) having the following amino acid sequences: light chain CDR1: or light chain CDR2: and light chain CDR3: and a light chain framework sequence from a human immunoglobulin light chain; and: b) a heavy chain comprising three heavy chain complementarity determining regions (CDRs) having the following amino acid sequences: a heavy chain CDR1: heavy chain CDR2: or and heavy chain CDR3: and a heavy chain framework sequence from a human immunoglobulin heavy chain. a) a light chain comprising three light chain complementarity determining regions (CDRs) having the following amino acid sequences: light chain CDR1: or light chain CDR2: and light chain CDR3: and a light chain framework sequence from a human immunoglobulin light chain; and: light chain CDR1: or light chain CDR2: and light chain CDR3: b) a heavy chain comprising three heavy chain complementarity determining regions (CDRs) having the following amino acid sequences: a heavy chain CDR1: heavy chain CDR2: or and heavy chain CDR3: and a heavy chain framework sequence from a human immunoglobulin heavy chain. a heavy chain CDR1: heavy chain CDR2: or and heavy chain CDR3:
Nucleotide sequence according to SEQ.ID.NO.81, or the sequence complementary to SEQ.ID.NO.81, coding for the imp gene of phytoplasmas belonging to the ribosomal group 16SrV.
A method comprising: (a) obtaining target color information for a target color; (b) identifying in a paint system a plurality of toners and corresponding concentrations of the toners corresponding to a paint formula that can be used to produce a paint having a color that is similar to the target color within user specified acceptance criteria, wherein the paint system includes complementary color toners; (c) removing one of the identified toners having a lowest concentration from said paint formula and using the corresponding reduced set of toners to identify a modified paint formula that can be used to produce a paint having a color that is similar to the target color, wherein the identified toners in the reduced set of toners do not include complementary color toners; and (d) determining if the modified paint formula meets the user specified acceptance criteria. (a) obtaining target color information for a target color; (b) identifying in a paint system a plurality of toners and corresponding concentrations of the toners corresponding to a paint formula that can be used to produce a paint having a color that is similar to the target color within user specified acceptance criteria, wherein the paint system includes complementary color toners; (c) removing one of the identified toners having a lowest concentration from said paint formula and using the corresponding reduced set of toners to identify a modified paint formula that can be used to produce a paint having a color that is similar to the target color, wherein the identified toners in the reduced set of toners do not include complementary color toners; and (d) determining if the modified paint formula meets the user specified acceptance criteria.
A catalyst comprising: a porous carrier having 5 to 200 pores per 2.54 centimeters (preferably, 5 to 100 pores per 2.54 centimeters) determined in accordance with ASTM D3576-04, Procedure A and a pore volume of at least 90 vol% preferably 94 to 98 vol% based on the total volume of the porous carrier; wherein the porous carrier comprises one or both of carbon and a metal; and a sulfonated, cross-linked polystyrene located on at least part of a surface of the porous carrier, wherein the sulfonated, cross-linked polystyrene comprises 0.5 to 20 mol% of a repeat unit derived from a cross-linker relative to a total amount of repeat units. a porous carrier having 5 to 200 pores per 2.54 centimeters (preferably, 5 to 100 pores per 2.54 centimeters) determined in accordance with ASTM D3576-04, Procedure A and a pore volume of at least 90 vol% preferably 94 to 98 vol% based on the total volume of the porous carrier; wherein the porous carrier comprises one or both of carbon and a metal; and a sulfonated, cross-linked polystyrene located on at least part of a surface of the porous carrier, wherein the sulfonated, cross-linked polystyrene comprises 0.5 to 20 mol% of a repeat unit derived from a cross-linker relative to a total amount of repeat units.
An in vitro method for obtaining an autologous population of cells enriched for T SCM cells suitable for introduction into a human patient comprising the steps of: a) preparing PME-CD40L mature DCs from a tissue source isolated from a human patient; b) culturing PBMCs obtained from said patient in vitro with said PME-CD40L mature DCs in a coculture for a time sufficient to induce an increase in the number of T SCM cells in said coculture; c) enriching said T SCM cells from said coculture. a) preparing PME-CD40L mature DCs from a tissue source isolated from a human patient; b) culturing PBMCs obtained from said patient in vitro with said PME-CD40L mature DCs in a coculture for a time sufficient to induce an increase in the number of T SCM cells in said coculture; c) enriching said T SCM cells from said coculture.
Airbag arrangement for a motor vehicle, with - an airbag which can be deployed in order to protect an individual, wherein - the airbag has at least two inflatable chambers (11, 11') which are separated from each other by a side wall, wherein - the chambers (11, 11') are confined by at least one common material layer, wherein the material layer has a region which is folded in the non-inflated state of the airbag and, in the inflated state of the airbag, forms at least one portion of the side wall, characterized in that the material layer has at least two regions which are folded in the non-inflated state of the airbag and which, in the inflated state of the airbag, bear against one another at least in sections, forming the side wall. - an airbag which can be deployed in order to protect an individual, wherein - the airbag has at least two inflatable chambers (11, 11') which are separated from each other by a side wall, wherein - the chambers (11, 11') are confined by at least one common material layer, wherein the material layer has a region which is folded in the non-inflated state of the airbag and, in the inflated state of the airbag, forms at least one portion of the side wall, characterized in that the material layer has at least two regions which are folded in the non-inflated state of the airbag and which, in the inflated state of the airbag, bear against one another at least in sections, forming the side wall.
A method of representing a virtual object in a real environment, comprising the following steps: - generating at least one two-dimensional image of a real environment by means of a recording device, wherein the recording device comprises a camera or a radar device or a time-of-flight camera or a stereo camera for providing 3D information, - ascertaining a position of the recording device relative to at least one component of the real environment, - wherein a clustering algorithm is applied to distinguish spurious objects from the 3D information, - 2D segmenting at least one area of the real environment in the two-dimensional image on the basis of the non-manually generated 3D information for identifying at least one segment of the real environment in distinction to a remaining part of the real environment while supplying corresponding segmentation data, wherein the 2D segmenting is used for occlusion through or removal of spurious objects and the 3D information is used as initialization for the 2D segmenting, wherein a Graph Cuts method is applied for the segmenting and the 2D segmenting makes a foreground/background distinction per spurious object, wherein as pixels of the spurious object or pixels of the background 3D information mapped into the two-dimensional image is adopted, - merging the virtual object with the two-dimensional image of the real environment or, by means of an optical, semitransparent element, directly with reality with consideration of the segmentation data. - generating at least one two-dimensional image of a real environment by means of a recording device, wherein the recording device comprises a camera or a radar device or a time-of-flight camera or a stereo camera for providing 3D information, - ascertaining a position of the recording device relative to at least one component of the real environment, - wherein a clustering algorithm is applied to distinguish spurious objects from the 3D information, - 2D segmenting at least one area of the real environment in the two-dimensional image on the basis of the non-manually generated 3D information for identifying at least one segment of the real environment in distinction to a remaining part of the real environment while supplying corresponding segmentation data, wherein the 2D segmenting is used for occlusion through or removal of spurious objects and the 3D information is used as initialization for the 2D segmenting, wherein a Graph Cuts method is applied for the segmenting and the 2D segmenting makes a foreground/background distinction per spurious object, wherein as pixels of the spurious object or pixels of the background 3D information mapped into the two-dimensional image is adopted, - merging the virtual object with the two-dimensional image of the real environment or, by means of an optical, semitransparent element, directly with reality with consideration of the segmentation data.