mhurhangee/ep-ind-claims huggingface dataset:
A device for inspecting the external surfaces of containers, including a radiation device directing light onto a container to be inspected, including a transport device which transports the container with respect to the radiation device, and including an image capturing device capturing an image of the container illuminated by the radiation device, a housing being arranged on which a background is created, the background being arranged behind the container in the viewing direction of the image capturing device, with respect to which the container can be imaged and wherein the background has at least a lighter area and a darker area with respect to this lighter area, wherein the lighter area runs along a straight line, which originates from the image capturing device and extends through the longitudinal direction of the container, is situated behind the container and a darker area of the background follows at least one side of the lighter area, characterized in that - the housing substantially completely surrounds the image capturing device and the container to be inspected and the background is a component of said housing and - the oriented radiation device radiates the light in the direction parallel to the longitudinal direction of the container onto the latter. - the housing substantially completely surrounds the image capturing device and the container to be inspected and the background is a component of said housing and - the oriented radiation device radiates the light in the direction parallel to the longitudinal direction of the container onto the latter.
A method for reacting loads into a space vehicle payload adapter, the method comprising: reacting, by more than two interstitial rings (430a, 430b, 430c) of the space vehicle payload adapter, the loads created by secondary payloads (220a, 220b, 220c) mounted onto the space vehicle payload adapter, into a truss structure of the space vehicle payload adapter; and reacting, by struts of the truss structure, the loads to a forward ring and an aft ring of the space vehicle payload adapter; wherein the struts connect the forward ring to the aft ring. reacting, by more than two interstitial rings (430a, 430b, 430c) of the space vehicle payload adapter, the loads created by secondary payloads (220a, 220b, 220c) mounted onto the space vehicle payload adapter, into a truss structure of the space vehicle payload adapter; and reacting, by struts of the truss structure, the loads to a forward ring and an aft ring of the space vehicle payload adapter; wherein the struts connect the forward ring to the aft ring.
A method of manufacturing an HVAC data processing and communication network, comprising: configuring a subnet controller to: assign to a first device associated with said network a first equipment type number based on a first device ID number and a first offset; in the event that said first device shares a same enclosure with a second device associated with said network, assign to said second device a second equipment type number based on said first device ID number and a second offset; and in the event that said first device does not share a same enclosure with said second device, assign to said second device said second equipment type number based on a second device ID number and said second offset. configuring a subnet controller to: assign to a first device associated with said network a first equipment type number based on a first device ID number and a first offset; in the event that said first device shares a same enclosure with a second device associated with said network, assign to said second device a second equipment type number based on said first device ID number and a second offset; and in the event that said first device does not share a same enclosure with said second device, assign to said second device said second equipment type number based on a second device ID number and said second offset. assign to a first device associated with said network a first equipment type number based on a first device ID number and a first offset; in the event that said first device shares a same enclosure with a second device associated with said network, assign to said second device a second equipment type number based on said first device ID number and a second offset; and in the event that said first device does not share a same enclosure with said second device, assign to said second device said second equipment type number based on a second device ID number and said second offset.
A method for lessening an initial pressure spike in a receiving tank caused by residual H 2 -containing gas contained between a control valve and a block valve when dispensing the residual H 2 -containing gas into the receiving tank, the residual H 2 -containing gas having an initial pressure, P 1, and the receiving tank having an initial pressure, P 2, therein, characterized in that the method comprises, in sequence: (a) opening the block valve thereby allowing a first portion of the residual H 2 -containing gas to flow through the block valve into the receiving tank; (b) closing the block valve before the pressure of the residual H 2 -containing gas that remains between the control valve and the block valve decreases below an intermediate pressure, P 3, wherein P 1 − P 3 P 1 − P 2 < 0.2; and (c) opening the block valve thereby allowing a second portion of the residual H 2 -containing gas to flow through the block valve into the receiving tank; wherein the control valve is kept closed throughout the sequence from (a) to (c). (a) opening the block valve thereby allowing a first portion of the residual H 2 -containing gas to flow through the block valve into the receiving tank; (b) closing the block valve before the pressure of the residual H 2 -containing gas that remains between the control valve and the block valve decreases below an intermediate pressure, P 3, wherein P 1 − P 3 P 1 − P 2 < 0.2; and (c) opening the block valve thereby allowing a second portion of the residual H 2 -containing gas to flow through the block valve into the receiving tank;
A pH-switchable carrier composition comprising: a plurality of bioactive glass particles, said glass particles comprising, expressed in terms of weight percent on the oxide basis: from 30 % to 70 % B 2 O 3, from 5 % to 25 % CaO from 1 % to 10 % P 2 O 5; from 0 % to 5 % SiO 2; from 0 % to 15 % Al 2 O 3; from 0 % to 10 % MgO; from 0 % to 10 % ZrO 2; from 0 % to 5 % F; and from 0 % to 20 % R 2 O, wherein R 2 O comprises from 0 % to 20 % K 2 O and from 0 % to 10 % Na 2 O; wherein each of the bioactive glass particles is optionally at least partially coated with a surface modifier; wherein the bioactive glass particles, with or without, the surface modifier can bind to a nucleic acid compound upon contact at pH in the range of 7 to 11, and exhibit controlled release of the nucleic acid compound at pH in the range of 5 to 6. from 30 % to 70 % B 2 O 3, from 5 % to 25 % CaO from 1 % to 10 % P 2 O 5; from 0 % to 5 % SiO 2; from 0 % to 15 % Al 2 O 3; from 0 % to 10 % MgO; from 0 % to 10 % ZrO 2; from 0 % to 5 % F; and from 0 % to 20 % R 2 O, wherein R 2 O comprises from 0 % to 20 % K 2 O and from 0 % to 10 % Na 2 O; wherein each of the bioactive glass particles is optionally at least partially coated with a surface modifier; wherein the bioactive glass particles, with or without, the surface modifier can bind to a nucleic acid compound upon contact at pH in the range of 7 to 11, and exhibit controlled release of the nucleic acid compound at pH in the range of 5 to 6.
Automated container-emptying device for emptying blood product equipped with means for collecting and gravity-emptying containers and comprising a product collection zone, and further comprising a dripper equipped with at least one element for supporting upside down containers; said dripper also having two operating positions: a first for holding the containers to allow the product to drip onto the product collection zone and a second for ejecting said containers, characterized in that in the holding position, the at least one support element is pointing upwards from a horizontal shaft of the dripper..
A sintered cubic boron nitride compact tool comprising: a sintered cBN compact at least on an edge, the sintered cBN compact including a cubic boron nitride particle and a bonding phase, wherein a plurality of flutes is formed on a rake face, each of the flutes having a starting end on an edge ridgeline and causing the edge ridgeline to be wavy, and a terminal end of the flute is located inwardly of the edge ridgeline, and characterised in that the flute has a flute width of 10 to 100 μm and a flute depth (d) of 10 to 50 μm, the flute width of the flute decreases with distance from the edge ridgeline, the flute depth (d) decreases with distance from the edge ridgeline, and the rake face has a positive rake angle. a sintered cBN compact at least on an edge, the sintered cBN compact including a cubic boron nitride particle and a bonding phase, wherein a plurality of flutes is formed on a rake face, each of the flutes having a starting end on an edge ridgeline and causing the edge ridgeline to be wavy, and a terminal end of the flute is located inwardly of the edge ridgeline, and characterised in that the flute has a flute width of 10 to 100 μm and a flute depth (d) of 10 to 50 μm, the flute width of the flute decreases with distance from the edge ridgeline, the flute depth (d) decreases with distance from the edge ridgeline, and the rake face has a positive rake angle.
A turbine comprising: a shaft body supported rotatably; a plurality of turbine blade members that is provided on an outer periphery of the shaft body and constitutes a turbine blade row in a circumferential direction of the shaft body; a casing covering the shaft body and the turbine blade row; an outer ring (11,72) that is provided on an inner periphery of the casing and includes an inner peripheral portion in which a cross-section having an uneven shape is continuous in a circumferential direction; a plurality of turbine vane members that each has a shroud fitted into the inner peripheral portion of the outer ring (11,72) and a turbine vane main body extending from the shroud to a radially inward side and that is provided in the circumferential direction and constitutes a turbine vane row in which the shrouds adjacent to each other are aligned in the circumferential direction; and a plate member that connects at least some of the plurality of turbine vane members and covers the upstream side of the shrouds in the axial direction with respect to a main flow of fluid through the turbine vane row and the turbine blade row, thereby sealing a shroud gap formed between the shrouds adjacent to each other in the circumferential direction, wherein the turbine vane members have the shroud and the plate member fitted into the inner peripheral portion of the outer ring (11,72) such that the radially inward sides of the turbine vane members and the plate member are exposed. a shaft body supported rotatably; a plurality of turbine blade members that is provided on an outer periphery of the shaft body and constitutes a turbine blade row in a circumferential direction of the shaft body; a casing covering the shaft body and the turbine blade row; an outer ring (11,72) that is provided on an inner periphery of the casing and includes an inner peripheral portion in which a cross-section having an uneven shape is continuous in a circumferential direction; a plurality of turbine vane members that each has a shroud fitted into the inner peripheral portion of the outer ring (11,72) and a turbine vane main body extending from the shroud to a radially inward side and that is provided in the circumferential direction and constitutes a turbine vane row in which the shrouds adjacent to each other are aligned in the circumferential direction; and a plate member that connects at least some of the plurality of turbine vane members and covers the upstream side of the shrouds in the axial direction with respect to a main flow of fluid through the turbine vane row and the turbine blade row, thereby sealing a shroud gap formed between the shrouds adjacent to each other in the circumferential direction,
Cutting tool comprising a part having an insert seat as well as a cutting insert detachably connected in the same, which insert comprises a first serration connecting surface, which is formed of ridges spaced-apart by grooves, which ridges are arranged to engage grooves existing between ridges in a second serration connecting surface serving as insert seat in said tool part, characterized in that, in one of said serration connecting surfaces (3, 4), at least one enlarged ridge is arranged between two spaced-apart fields (20a, 20b), which separately comprises a plurality of ordinary ridges of a certain size, which enlarged ridge is arranged to engage a correspondingly enlarged groove in the second serration connecting surface, and in that the extension of the enlarged ridge is parallel with the ordinary ridges.
Milk hose coupling for connection to a hose piece suitable for conveying milk, comprising a first coupling part, a second coupling part provided with a conically configured outer area which defines a conical sealing surface, an O-ring attached to said first or said second coupling part, wherein said first coupling part and said second coupling part comprise areas (120a, 120b) which are configured such that they are complementary to one another and which do not include any movable components, and said first and second coupling parts (100a, 100b) are adapted to be locked on one another by mutual twisting by means of said complementary areas, so that the O-ring is in contact with the conical sealing surface, and wherein the first coupling part, the second coupling part and the O-ring ring are the only components, characterized in that the angular range required for locking upon twisting is 30° or smaller.
A compound of Formula 1 below: wherein: X is CH or N; A is CH or N, provided that at least one of X and A is N; L is a -C 1-3 alkyl; R is selected from: -S 2 NHR4, -NHS 2 R5, and -NHC -R6; R1 is H or halo; R2 is selected from: H, -C 1-2 alkyl, -CN, -CF 3, -NH 2, -N CH 3, -N(CH 3) 2,-OCH 3, -CH 2 -O-CH 3, -cyclopropyl, 4-methyl piperazinyl, and morpholinyl; R3 is selected from C 1-2 alkyl, halo, -CHF 2, -CF 3, and -OCH 3; R4 is H or -CH 3; R5 is selected from: -CH 3, -NH 2, and -NHCH 3; R6 is selected from: -CH 3, -CH 2 OH, -CH 2 OCH 3, -CH CH 3, -NH 2, and-NHCH 3; R7 is H or -CH 3; provided that when R1 is H, R2 is Me, R3 is Cl, R7 is H, and X and A are both N, L-R is not -(CH 2)S 2 -NH 2, or -(CH 2)S 2 -NHCH 3, or a pharmaceutically acceptable salt thereof. X is CH or N; A is CH or N, provided that at least one of X and A is N; L is a -C 1-3 alkyl; R is selected from: -S 2 NHR4, -NHS 2 R5, and -NHC -R6; R1 is H or halo; R2 is selected from: H, -C 1-2 alkyl, -CN, -CF 3, -NH 2, -N CH 3, -N(CH 3) 2,-OCH 3, -CH 2 -O-CH 3, -cyclopropyl, 4-methyl piperazinyl, and morpholinyl; R3 is selected from C 1-2 alkyl, halo, -CHF 2, -CF 3, and -OCH 3; R4 is H or -CH 3; R5 is selected from: -CH 3, -NH 2, and -NHCH 3; R6 is selected from: -CH 3, -CH 2 OH, -CH 2 OCH 3, -CH CH 3, -NH 2, and-NHCH 3; R7 is H or -CH 3; provided that when R1 is H, R2 is Me, R3 is Cl, R7 is H, and X and A are both N, L-R is not -(CH 2)S 2 -NH 2, or -(CH 2)S 2 -NHCH 3, or
A method for preparing a pharmaceutical composition comprising TIMP-GLIA particles, the method comprising: (a) homogenizing gliadin dissolved in an aqueous media with an oil phase including a polymer to produce water-in-oil primary emulsion particles; (b) mixing the primary emulsion particles with a surfactant; (c) homogenizing the mixture of (b) to provide secondary emulsion particles; and (d) hardening the secondary emulsion particles, wherein the method is carried out without trifluoroacetic acid. (a) homogenizing gliadin dissolved in an aqueous media with an oil phase including a polymer to produce water-in-oil primary emulsion particles; (b) mixing the primary emulsion particles with a surfactant; (c) homogenizing the mixture of (b) to provide secondary emulsion particles; and (d) hardening the secondary emulsion particles,
A method of processing a target component in a specimen using a specimen processing chip provided with a flow-path, the method comprising: introducing a fluid in the flow-path to form an interface that divides the fluid from a process liquid used for processing the target component with a rim of the interface on an inner wall of the flow-path, the process liquid containing particles including the target component; and moving the interface along the flow-path with the rim of the interface on the inner wall so that the particles retained in the process liquid are forced out of the specimen processing chip by the fluid, wherein: the fluid is air, wherein: the air is intermittently interposed a plurality of times in the process liquid in the flow-path to form a plurality of interposed regions of the air, each of the interposed regions having the interfaces on both ends adjoining the process liquid, and the interposed regions of the air are moved together with the process liquid in a moving direction, and wherein: the particles forced out of the specimen processing chip are counted by a flow cytometer. introducing a fluid in the flow-path to form an interface that divides the fluid from a process liquid used for processing the target component with a rim of the interface on an inner wall of the flow-path, the process liquid containing particles including the target component; and moving the interface along the flow-path with the rim of the interface on the inner wall so that the particles retained in the process liquid are forced out of the specimen processing chip by the fluid, wherein: the fluid is air, wherein: the air is intermittently interposed a plurality of times in the process liquid in the flow-path to form a plurality of interposed regions of the air, each of the interposed regions having the interfaces on both ends adjoining the process liquid, and the interposed regions of the air are moved together with the process liquid in a moving direction, and wherein: the particles forced out of the specimen processing chip are counted by a flow cytometer.
A method for controlling a fuel cell, the fuel cell comprising at least one electrochemical cell for generating an electric current by reaction of an oxidizing fluid, flowing in a cathode compartment of the fuel cell, with a reducing fluid flowing in an anode compartment of the fuel cell, the method comprising the following steps: - measuring the fluid pressure in a first compartment from the anode and the cathode compartments, - calculating a first target pressure for the fluid pressure in the second compartment, said first target pressure depending on the fluid pressure measured in the first compartment, and - stabilizing the fluid pressure in the second compartment at the first target pressure. characterized in that the method further comprises the following steps: - measuring the fluid pressure in the second compartment, - calculating a second target pressure for the fluid pressure in the first compartment, said second target pressure depending on the fluid pressure measured in the second compartment, and - stabilizing the fluid pressure in the first compartment at the second target pressure. - measuring the fluid pressure in a first compartment from the anode and the cathode compartments, - calculating a first target pressure for the fluid pressure in the second compartment, said first target pressure depending on the fluid pressure measured in the first compartment, and - stabilizing the fluid pressure in the second compartment at the first target pressure. - measuring the fluid pressure in the second compartment, - calculating a second target pressure for the fluid pressure in the first compartment, said second target pressure depending on the fluid pressure measured in the second compartment, and - stabilizing the fluid pressure in the first compartment at the second target pressure.
A process for removing nitriles and/or pyrroles from a feedstream, the process comprising contacting at least one feedstream comprising olefins, paraffins, and at least one of a nitrile and a pyrrole with at least one solvent to remove at least a portion of the nitrile and the pyrrole from the at least one feedstream; wherein the process comprises a distribution coefficient expressed by the following: D = molNP lfs molNP lsol wherein mol PP/ l fs is the molar concentration of the nitrile and the pyrrole in the feedstream after extraction; mol NP/ l sol is the molar concentration of the nitrile and the pyrrole in the solvent(s) after extraction; and is from 0.04 to 0.50; wherein the at least one feedstream has a liquid density (in accordance with ASTM D4052) at 15 o C of.94 kg/l or less; wherein the at least one solvent comprises a compound represented by the formula: wherein the at least one feedstream comprises at least 3.00 ppm nitrogen derived from the nitrile and/or the pyrrole before the contacting and the at least one feedstream comprises 1.50 ppm or less of nitrogen derived from the nitrile and/or the pyrrole after contacting the at least one feedstream with the at least one solvent. wherein the process comprises a distribution coefficient expressed by the following: D = molNP lfs molNP lsol wherein mol PP/ l fs is the molar concentration of the nitrile and the pyrrole in the feedstream after extraction; mol NP/ l sol is the molar concentration of the nitrile and the pyrrole in the solvent(s) after extraction; and is from 0.04 to 0.50; wherein the at least one feedstream has a liquid density (in accordance with ASTM D4052) at 15 o C of.94 kg/l or less; wherein the at least one solvent comprises a compound represented by the formula: wherein the at least one feedstream comprises at least 3.00 ppm nitrogen derived from the nitrile and/or the pyrrole before the contacting and the at least one feedstream comprises 1.50 ppm or less of nitrogen derived from the nitrile and/or the pyrrole after contacting the at least one feedstream with the at least one solvent.