mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling the capacity of a gas compression system having a centrifugal compressor, a refrigerant condenser, and an evaporator connected in a refrigerant loop, the method comprising the steps of: providing a diffuser at a centrifugal compressor discharge; sensing a value representative of a load of the gas compression system; determining a system pressure differential of the gas compression system; controlling a position of the diffuser in response to the sensed load value and the determined system pressure differential to control a capacity of the gas compression system, preferably further comprising the steps of: providing a prime mover controllably operable at a variable speed for driving the centrifugal compressor, controlling a speed of the prime mover in response to the sensed load value and the determined system pressure differential, more preferably further comprising the steps of: providing a hot gas bypass valve to regulate flow of refrigerant between a high pressure side of the gas compression system and a low pressure side of the gas compression system; and controlling the hot gas bypass valve in response to the sensed load value and the determined system pressure differential to control the capacity of the gas compression system, characterized in, that no pre-rotation vanes are provided at an inlet of the centrifugal compressor. providing a diffuser at a centrifugal compressor discharge; sensing a value representative of a load of the gas compression system; determining a system pressure differential of the gas compression system; controlling a position of the diffuser in response to the sensed load value and the determined system pressure differential to control a capacity of the gas compression system, providing a prime mover controllably operable at a variable speed for driving the centrifugal compressor, controlling a speed of the prime mover in response to the sensed load value and the determined system pressure differential, providing a hot gas bypass valve to regulate flow of refrigerant between a high pressure side of the gas compression system and a low pressure side of the gas compression system; and controlling the hot gas bypass valve in response to the sensed load value and the determined system pressure differential to control the capacity of the gas compression system,
A system for reducing discomfort caused by a magnetic stimulation device, comprising: the magnetic stimulation device for creating magnetic fields for inducing stimulation, characterized in that: at least one conductor located peripheral to the magnetic stimulation device, wherein the conductor is adapted to reduce surface-proximate stimulation induced by the magnetic stimulation device such that the efficacy of stimulation induced by the magnetic fields created by the magnetic stimulation device within an area that is desired to be treated is maintained. the magnetic stimulation device for creating magnetic fields for inducing stimulation, characterized in that: at least one conductor located peripheral to the magnetic stimulation device, wherein the conductor is adapted to reduce surface-proximate stimulation induced by the magnetic stimulation device such that the efficacy of stimulation induced by the magnetic fields created by the magnetic stimulation device within an area that is desired to be treated is maintained.
A compound of the formula: wherein: R 1 is (C 1 -C 6)-alkyl, (C 2 -C 5)-alkenyl, or (C 2 -C 5)-alkynyl, each independently unsubstituted or substituted with two or more halogens; R 2 is H or halogen; R 3 is a bi- or tri-halogen substituted phenyl; R 4 is H or halogen; and R 5 is H or halogen. R 1 is (C 1 -C 6)-alkyl, (C 2 -C 5)-alkenyl, or (C 2 -C 5)-alkynyl, each independently unsubstituted or substituted with two or more halogens; R 2 is H or halogen; R 3 is a bi- or tri-halogen substituted phenyl; R 4 is H or halogen; and R 5 is H or halogen.
An isolated antibody or antibody fragment thereof that specifically binds to IL-4, wherein the antibody or antibody fragment thereof is humanized and wherein the antibody or antibody fragment thereof comprises a variable light chain comprising the amino acid sequence of SEQ ID NO: 3 and comprises a variable heavy chain comprising the amino acid sequence of SEQ ID NO: 4.
A method for treating solid waste which comprises: introducing said waste into the interior of a rotary autoclave which has a fixed downwardly inclined attitude towards its discharge end and has a door at the discharge end for closing the autoclave, the door having a front dished region and a projecting flange region (281, 378) which assists in sealing with a lower opening of the autoclave body from which treated waste is discharged; injecting steam for treating the load through said door via a plenum chamber defined between the front dished region of the door and a plate secured to the door at a small spacing inwardly of said front dished region, the injection being via fluid delivery line, pressure-tight rotary connector and an inlet which passes axially through said front dished region for leading steam from rotary connector into the autoclave; and passing water and steam from the plenum chamber into the interior of the autoclave through outlets defined in the plate and through a plurality of one-way devices fitted to the outlets and providing parallel paths from the plenum chamber into the interior of the autoclave, the one-way devices preventing solid waste entering the plenum chamber from the interior of the autoclave and being porous stainless-steel discs or one-way valves. introducing said waste into the interior of a rotary autoclave which has a fixed downwardly inclined attitude towards its discharge end and has a door at the discharge end for closing the autoclave, the door having a front dished region and a projecting flange region (281, 378) which assists in sealing with a lower opening of the autoclave body from which treated waste is discharged; injecting steam for treating the load through said door via a plenum chamber defined between the front dished region of the door and a plate secured to the door at a small spacing inwardly of said front dished region, the injection being via fluid delivery line, pressure-tight rotary connector and an inlet which passes axially through said front dished region for leading steam from rotary connector into the autoclave; and passing water and steam from the plenum chamber into the interior of the autoclave through outlets defined in the plate and through a plurality of one-way devices fitted to the outlets and providing parallel paths from the plenum chamber into the interior of the autoclave, the one-way devices preventing solid waste entering the plenum chamber from the interior of the autoclave and being porous stainless-steel discs or one-way valves.
A coupling assembly comprising a first device having a bayonet; a top plate having a slot along a connection axis, the slot being configured to receive the bayonet; a bottom plate having a locking arm in axial alignment with the slot and a biasing arm in a region that is radially offset from the locking arm; first fasteners securing the top and bottom plates (20, 24) to one another; an outer ring and first fasteners securing the top and bottom plates (20, 24) to one another so that the outer ring is rotatable about the connection axis between a first position and a second position; and a rotational biasing member securing the outer ring to the top plate and/or bottom plate, the rotational biasing member biasing the outer ring to the first position, wherein the region is configured to receive the bayonet, when in a locked position, with the locking arm preventing the bayonet, by interference with locking arm, from rotating about the connection axis back into alignment with the slot and with the biasing arm preventing the bayonet, by interference with the biasing arm, from being withdrawn axially along the connection axis. a top plate having a slot along a connection axis, the slot being configured to receive the bayonet; a bottom plate having a locking arm in axial alignment with the slot and a biasing arm in a region that is radially offset from the locking arm; first fasteners securing the top and bottom plates (20, 24) to one another; an outer ring and first fasteners securing the top and bottom plates (20, 24) to one another so that the outer ring is rotatable about the connection axis between a first position and a second position; and a rotational biasing member securing the outer ring to the top plate and/or bottom plate, the rotational biasing member biasing the outer ring to the first position, wherein the region is configured to receive the bayonet, when in a locked position, with the locking arm preventing the bayonet, by interference with locking arm, from rotating about the connection axis back into alignment with the slot and with the biasing arm preventing the bayonet, by interference with the biasing arm, from being withdrawn axially along the connection axis.
A method for producing a diesel fuel, comprising: hydrotreating a feed having a boiling range from 215°F to 800°F (102°C to 427°C) that includes a biocomponent portion under effective hydrotreating conditions to produce a hydrotreated feedstock with a sulfur content of less than 50 wppm and a nitrogen content of less than 20 wppm, wherein effective hydrotreating conditions include exposing the feed to a catalyst including at least one hydrogenation metal at a temperature of 315-425°C, pressure of from 300 to 500 psig (2.1 to 3.4 MPa), Liquid Hourly Space Velocities (LHSV) of 0.2-10 h-1, and hydrogen treat rate of 90 - 1800m 3 /m 3 (500-10000 scf/bbl); dewaxing the hydrotreated feedstream under effective catalytic dewaxing conditions by exposing the feedstream to a ZSM-48 containing catalyst, further comprising a Group VIII noble metal wherein the effective catalytic dewaxing conditions include a temperature of 280-380°C, a total pressure of 300-3000 psig (2.1 - 20.6 MPa), LHSV of 0.1-5.0 h-1, and a treat gas rate of from 90 - 900m 3 /m 3 (500-5000 scf/bbl). hydrotreating a feed having a boiling range from 215°F to 800°F (102°C to 427°C) that includes a biocomponent portion under effective hydrotreating conditions to produce a hydrotreated feedstock with a sulfur content of less than 50 wppm and a nitrogen content of less than 20 wppm, wherein effective hydrotreating conditions include exposing the feed to a catalyst including at least one hydrogenation metal at a temperature of 315-425°C, pressure of from 300 to 500 psig (2.1 to 3.4 MPa), Liquid Hourly Space Velocities (LHSV) of 0.2-10 h-1, and hydrogen treat rate of 90 - 1800m 3 /m 3 (500-10000 scf/bbl); dewaxing the hydrotreated feedstream under effective catalytic dewaxing conditions by exposing the feedstream to a ZSM-48 containing catalyst, further comprising a Group VIII noble metal wherein the effective catalytic dewaxing conditions include a temperature of 280-380°C, a total pressure of 300-3000 psig (2.1 - 20.6 MPa), LHSV of 0.1-5.0 h-1, and a treat gas rate of from 90 - 900m 3 /m 3 (500-5000 scf/bbl).
Mobile lifting column (4,4') for lifting a vehicle, the column comprising: - a frame with a moveable carrier, wherein the carrier comprises a carrier part and a guiding part with the carrier being configured for carrying the vehicle; - a drive system which acts on the carrier and is configured for raising and/or lowering the carrier relative to the frame; and - a lifting controller configured for controlling movement of the carrier, - wherein the guiding part of the carrier comprises a U-shaped guiding part further comprising a displacement mechanism (110, 224, 258) configured for positioning the lifting column, wherein the displacement mechanism comprises: - a displacement frame comprising a housing, and a wheel that is provided at a first end of the housing, wherein the wheel is moveable relative to the frame between a displacement position wherein the lifting column can be displaced and a stationary position wherein the lifting column is in a stationary position; - a counter force element that is providing in or on the frame; and - a steering handle that is operatively coupled to the wheel with a linkage mechanism that is configured for moving the wheel relative to the frame, and wherein the steering handle is connected to the displacement frame at a second end of the housing. - a frame with a moveable carrier, wherein the carrier comprises a carrier part and a guiding part with the carrier being configured for carrying the vehicle; - a drive system which acts on the carrier and is configured for raising and/or lowering the carrier relative to the frame; and - a lifting controller configured for controlling movement of the carrier, - wherein the guiding part of the carrier comprises a U-shaped guiding part further comprising a displacement mechanism (110, 224, 258) configured for positioning the lifting column, wherein the displacement mechanism comprises: - a displacement frame comprising a housing, and a wheel that is provided at a first end of the housing, wherein the wheel is moveable relative to the frame between a displacement position wherein the lifting column can be displaced and a stationary position wherein the lifting column is in a stationary position; - a counter force element that is providing in or on the frame; and - a steering handle that is operatively coupled to the wheel with a linkage mechanism that is configured for moving the wheel relative to the frame, and wherein the steering handle is connected to the displacement frame at a second end of the housing. - a displacement frame comprising a housing, and a wheel that is provided at a first end of the housing, wherein the wheel is moveable relative to the frame between a displacement position wherein the lifting column can be displaced and a stationary position wherein the lifting column is in a stationary position; - a counter force element that is providing in or on the frame; and - a steering handle that is operatively coupled to the wheel with a linkage mechanism that is configured for moving the wheel relative to the frame, and wherein the steering handle is connected to the displacement frame at a second end of the housing.
A method for processing information, characterized by comprising: encapsulating (201, 501), by a first node in a layer 2 network, bit indexed explicit replication, BIER, bit string length information of the first node into a link layer discovery protocol data unit, LLDPDU; and sending (202, 502), by the first node, the LLDPDU to a second node in the layer 2 network, so that the second node parses the LLDPDU to acquire BIER bit string length information of the first node and modifies bit string length information of a BIER header according to the BIER bit string length information of the first node to forward the BIER traffic to the first node; wherein the second node is an adjacent node of the first node, and the second node forwards BIER traffic according to the BIER bit string length information of the first node. encapsulating (201, 501), by a first node in a layer 2 network, bit indexed explicit replication, BIER, bit string length information of the first node into a link layer discovery protocol data unit, LLDPDU; and sending (202, 502), by the first node, the LLDPDU to a second node in the layer 2 network, so that the second node parses the LLDPDU to acquire BIER bit string length information of the first node and modifies bit string length information of a BIER header according to the BIER bit string length information of the first node to forward the BIER traffic to the first node; wherein the second node is an adjacent node of the first node, and the second node forwards BIER traffic according to the BIER bit string length information of the first node.
An image processing device comprising: a main image selection unit configured to select for broadcasting, recording, displaying or uploading to a server, a selection image as a main image among a plurality of images of a scene including images with different angle of views; and a period setting unit configured to set a continuous period length (Tx) for which the selection image selected by the main image selection unit is continued as the main image in accordance with an image classification to which the selection image corresponds among a plurality of image classifications; characterised in that: when a period, for which an image among the plurality of images having an image classification indicating a whole image is not selected as the main image, passes a second period length, the main image selection unit is configured to select the image among the plurality of images having the image classification a whole image as a new main image. a main image selection unit configured to select for broadcasting, recording, displaying or uploading to a server, a selection image as a main image among a plurality of images of a scene including images with different angle of views; and a period setting unit configured to set a continuous period length (Tx) for which the selection image selected by the main image selection unit is continued as the main image in accordance with an image classification to which the selection image corresponds among a plurality of image classifications; characterised in that: when a period, for which an image among the plurality of images having an image classification indicating a whole image is not selected as the main image, passes a second period length, the main image selection unit is configured to select the image among the plurality of images having the image classification a whole image as a new main image.
An organometallic layer which is formed from a treatment formulation comprising: (a) an organic polymer containing multi-chelating functionalities; (b) a metallic agent which is selected from an oxide, hydroxide or salt of silver, copper, nickel, strontium, thallium, tin, titanium, vanadium, zinc, tungsten or zirconium and which forms an organo metallic complex with the organic polymer containing multi-chelating functionalities; and (c) a solvent, wherein the molar ratio (Z:A) of metallic agent to the chelating functionality of the organic polymer containing multi-chelating functionalities is in the range of 1:1 (Z:A) to 1:10 (Z:A); the treatment formulation having a solid concentration in the range of 1% to 10% based on the total weight of the formulation; and the organometallic layer having a dry thickness in the range of 5 microns or less and being located between an optionally coated substrate and at least one post coating layer of a coating system. (a) an organic polymer containing multi-chelating functionalities; (b) a metallic agent which is selected from an oxide, hydroxide or salt of silver, copper, nickel, strontium, thallium, tin, titanium, vanadium, zinc, tungsten or zirconium and which forms an organo metallic complex with the organic polymer containing multi-chelating functionalities; and (c) a solvent, wherein the molar ratio (Z:A) of metallic agent to the chelating functionality of the organic polymer containing multi-chelating functionalities is in the range of 1:1 (Z:A) to 1:10 (Z:A); the treatment formulation having a solid concentration in the range of 1% to 10% based on the total weight of the formulation; and the organometallic layer having a dry thickness in the range of 5 microns or less and being located between an optionally coated substrate and at least one post coating layer of a coating system.
Drainage pump unit for aspirating body fluids by means of a suction pump, wherein the drainage pump unit has a suction pump housing and a suction pump arranged in the latter, wherein a fluid collection container can be secured releasably on the suction pump housing, and wherein a capacitive filling level sensor is arranged on the suction pump housing for the purpose of detecting a filling level in the fluid collection container, characterized in that the filling level sensor has at least two electrodes (70, 71), which are arranged at a distance from each other and extend along a common path, that a first of the at least two electrodes is in one piece, and at least a second of these electrodes is segmented and that the one-piece first electrode is designed as transmitter electrode and the segmented second electrode is designed as receiver electrode, wherein an excitation signal can be applied by a modulator to the one-piece first electrode.
A method of analyzing kerogen, said method comprising: a) obtaining a sample of kerogen; b) performing elemental analysis on a portion of said kerogen to determine its C, H, N, S and O content; c) performing 13 C and 1 H NMR analysis on a portion of said kerogen to determine the relative abundance of different C and H species; d) pyrolyzing a portion of said kerogen to determine a pyrogram and generate petroleum fluid and a kerogen residue, wherein said pyrogram comprises S 1, S 2, S 3 and T max, wherein S1 is the amount of free hydrocarbons, S 2 is the amount of hydrocarbons generated through thermal cracking of kerogen, S3 is the amount of CO 2 produced during pyrolysis, and T max is the temperature at which the Sz signal peaks; e) analyzing the composition of said petroleum fluid; and, f) performing 13 C and 1 H NMR analysis on said kerogen residue to determine the kerogen residue's matured relative abundances of H and C species. a) obtaining a sample of kerogen; b) performing elemental analysis on a portion of said kerogen to determine its C, H, N, S and O content; c) performing 13 C and 1 H NMR analysis on a portion of said kerogen to determine the relative abundance of different C and H species; d) pyrolyzing a portion of said kerogen to determine a pyrogram and generate petroleum fluid and a kerogen residue, wherein said pyrogram comprises S 1, S 2, S 3 and T max, wherein S1 is the amount of free hydrocarbons, S 2 is the amount of hydrocarbons generated through thermal cracking of kerogen, S3 is the amount of CO 2 produced during pyrolysis, and T max is the temperature at which the Sz signal peaks; e) analyzing the composition of said petroleum fluid; and, f) performing 13 C and 1 H NMR analysis on said kerogen residue to determine the kerogen residue's matured relative abundances of H and C species.
A pharmaceutical composition comprising: 2-(((1r,4r)-4-(((4-chlorophenyl)(phenyl) carbamoyloxy)methyl)cyclohexyl)methoxy)acetic acid, hydrate or solvate thereof; and a pharmaceutically acceptable carrier.
A jacket assembly guide for assembling a jacket structure, which jacket structure comprises a plurality of legs, a plurality of connecting braces and a plurality of node elements (20A, 20B, 20C, 20D, 20E) arranged on the legs for connecting the braces to the legs (10, 100), which assembly guide comprises - a supporting tower for supporting each leg (10, 100) of the jacket structure such that a supported leg (10, 100) is held in a position corresponding to the position of that leg (10, 100) in the assembled state of the jacket structure; and - a number of clamps for releasably connecting a leg (10, 100) to a supporting tower. - a supporting tower for supporting each leg (10, 100) of the jacket structure such that a supported leg (10, 100) is held in a position corresponding to the position of that leg (10, 100) in the assembled state of the jacket structure; and - a number of clamps for releasably connecting a leg (10, 100) to a supporting tower.