mhurhangee/ep-ind-claims huggingface dataset:
A compression system, comprising: a driver comprising a drive shaft extending therethrough, the driver configured to provide the drive shaft with rotational energy; a first single-stage compressor and a second single-stage compressor, each comprising a rotary shaft (114, 116) coupled with or integral with the drive shaft, characterized in that the first single-stage compressor and the second single-stage compressor are configured to compress a high molecular weight process fluid and to provide a compressed process fluid having a pressure ratio of about 10:1 or greater, the compressed process fluid containing heat from the compression thereof; and in that a heat recovery system is fluidly coupled with the first single-stage compressor and the second single-stage compressor and configured to receive the compressed process fluid therefrom and absorb at least a portion of the heat contained in the compressed process fluid, and wherein the first single-stage compressor has a compression ratio of at least about 3.8:1 and is operatively coupled with a first end of the drive shaft and configured to compress the high molecular weight process fluid to provide a first compressed process fluid. a driver comprising a drive shaft extending therethrough, the driver configured to provide the drive shaft with rotational energy; a first single-stage compressor and a second single-stage compressor, each comprising a rotary shaft (114, 116) coupled with or integral with the drive shaft, characterized in that the first single-stage compressor and the second single-stage compressor are configured to compress a high molecular weight process fluid and to provide a compressed process fluid having a pressure ratio of about 10:1 or greater, the compressed process fluid containing heat from the compression thereof; and in that a heat recovery system is fluidly coupled with the first single-stage compressor and the second single-stage compressor and configured to receive the compressed process fluid therefrom and absorb at least a portion of the heat contained in the compressed process fluid, and wherein the first single-stage compressor has a compression ratio of at least about 3.8:1 and is operatively coupled with a first end of the drive shaft and configured to compress the high molecular weight process fluid to provide a first compressed process fluid.
An arrangement with a light lens for a vehicle lamp, and with at least one component (03, 30) arranged on the outer side of the light lens and a latch connection between the component (03, 30) and the light lens, wherein: - the light lens is provided with at least one first latch element that is accessible from the outer side of the light lens, and the component (03, 30) has at least one second latch element corresponding with the at least one first latch element, and - the first latch element or latch elements is/are formed on a carrier that is connected to the light lens, and - the carrier is connected to the light lens in a material-bonded manner, characterised in that the carrier is embedded in the injection-moulded light lens that is made of plastic and in that the carrier consists of a different material than the light lens. - the light lens is provided with at least one first latch element that is accessible from the outer side of the light lens, and the component (03, 30) has at least one second latch element corresponding with the at least one first latch element, and - the first latch element or latch elements is/are formed on a carrier that is connected to the light lens, and - the carrier is connected to the light lens in a material-bonded manner,
A belt conveyor comprising: a conveyor belt configured to convey a conveyed object; a trough supporting the conveyor belt through air; an air supply line through which the air is supplied to between the conveyor belt and the trough; characterized in that a pressure variation suppressor provided at the air supply line and configured to suppress a pressure variation having a predetermined frequency in the air supply line by generating a pressure variation that interferes with the pressure variation having the predetermined frequency in the air supply line, and in that the pressure variation suppressor includes a main body portion having a predetermined volume, a tubular neck portion extending from the main body portion to the air supply line, and an operation frequency adjuster configured to change a sectional area of the neck portion to adjust an operation frequency of the pressure variation suppressor such that the pressure variation that interferes with the pressure variation having the predetermined frequency in the air supply line is generated from the pressure variation suppressor. a conveyor belt configured to convey a conveyed object; a trough supporting the conveyor belt through air; an air supply line through which the air is supplied to between the conveyor belt and the trough; characterized in that a pressure variation suppressor provided at the air supply line and configured to suppress a pressure variation having a predetermined frequency in the air supply line by generating a pressure variation that interferes with the pressure variation having the predetermined frequency in the air supply line, and in that the pressure variation suppressor includes a main body portion having a predetermined volume, a tubular neck portion extending from the main body portion to the air supply line, and an operation frequency adjuster configured to change a sectional area of the neck portion to adjust an operation frequency of the pressure variation suppressor such that the pressure variation that interferes with the pressure variation having the predetermined frequency in the air supply line is generated from the pressure variation suppressor.
Method for determining a maintenance interval of a vehicle which is moved along a lane, wherein position data of the vehicle are recorded and stored, wherein at least one maintenance parameter is determined, wherein the maintenance parameter is compared with a predefined reference value, and wherein a signal is output to indicate that maintenance of the vehicle is due if the maintenance parameter is in a certain relation with respect to the reference value, in particular if it is greater than the reference value, characterised in that the vehicle is an overhead monorail, a storage and retrieval system, a crane installation or trolley, markers, in particular code carriers or barcodes, are arranged along the lane, the markers are detected with a digital camera arranged on the vehicle, by means of image processing a relative position of the vehicle in relation to the respective marker (21, 22, 23) or the respective markers is determined from a position of at least one marker image in the detection range of the digital camera and the maintenance parameter is determined based on the position data.
An exhaust heat recovery device configured to recover heat of exhaust gas discharged from an engine by heat exchange with a refrigerant, the exhaust heat recovery device comprising: a first flow path member in which a first flow path through which the exhaust gas flows is formed; a second flow path member which is provided adjacent to the first flow path member, in which a second flow path that bypasses a part of the first flow path is formed, and which includes a heat exchange unit configured to perform heat exchange between the exhaust gas flowing in the second flow path and the refrigerant; a valve mechanism configured to switch between opening and closing of the first flow path and the second flow path by rotation of a rotation shaft portion disposed in the first flow path member; and a drive unit which includes a drive shaft configured to rotate the rotation shaft portion, wherein the second flow path member is disposed so as to be inclined with respect to a flow direction of the exhaust gas in the first flow path, characterized in that the drive shaft extends toward the first flow path member and is connected to the rotation shaft portion in a region formed on a lateral side of the second flow path member when viewed in an axial direction of the drive shaft of the drive unit by disposing the second flow path member so as to be inclined with respect to the first flow path member. a first flow path member in which a first flow path through which the exhaust gas flows is formed; a second flow path member which is provided adjacent to the first flow path member, in which a second flow path that bypasses a part of the first flow path is formed, and which includes a heat exchange unit configured to perform heat exchange between the exhaust gas flowing in the second flow path and the refrigerant; a valve mechanism configured to switch between opening and closing of the first flow path and the second flow path by rotation of a rotation shaft portion disposed in the first flow path member; and a drive unit which includes a drive shaft configured to rotate the rotation shaft portion, wherein the second flow path member is disposed so as to be inclined with respect to a flow direction of the exhaust gas in the first flow path, characterized in that the drive shaft extends toward the first flow path member and is connected to the rotation shaft portion in a region formed on a lateral side of the second flow path member when viewed in an axial direction of the drive shaft of the drive unit by disposing the second flow path member so as to be inclined with respect to the first flow path member.
A sterile pharmaceutical composition comprising a preservative effective amount of a compound of the following formula, wherein: R 1 and R 3 are (C 1 -C 6)-alkyl; R 2 is selected from the group consisting of hydrogen and (C 1 -C 16)-alkyl optionally substituted by NHC(=O)-(CH 2) 10 CH 3 or NHC(=OHCH 2) 12 CH 3; R 4 is selected from the group consisting of hydrogen and CH 2 CH CH 2 N + R 1 R 2 R 3 X, wherein R 1, R 2, and R 3, are as defined above; X is halo; Y is selected from the group consisting of OH, O-(C 1 -C 10)-alkyl and O-(C 1 -C 10)-alkenyl; M is selected from the group consisting of sodium and potassium; a physiologically suitable buffer, and a pharmaceutically acceptable vehicle therefor, wherein the composition has an ionic strength of not greater than 0.12, wherein the amount of the compound of formula is 0.001% (w/v) to 0.005% (w/v), and which composition does not contain other antimicrobial agents. R 1 and R 3 are (C 1 -C 6)-alkyl; R 2 is selected from the group consisting of hydrogen and (C 1 -C 16)-alkyl optionally substituted by NHC(=O)-(CH 2) 10 CH 3 or NHC(=OHCH 2) 12 CH 3; R 4 is selected from the group consisting of hydrogen and CH 2 CH CH 2 N + R 1 R 2 R 3 X, wherein R 1, R 2, and R 3, are as defined above; X is halo; Y is selected from the group consisting of OH, O-(C 1 -C 10)-alkyl and O-(C 1 -C 10)-alkenyl; M is selected from the group consisting of sodium and potassium;
A passively cooled storage module for spent nuclear fuel comprising: an elongated module body defining a top end, a bottom end, a sidewall, and an internal cavity extending between the ends along a longitudinal axis, the internal cavity being configured for holding a fuel storage canister; a plurality of cooling air inlet ducts spaced circumferentially apart around the body, the inlet ducts each forming a radially oriented air inlet passageway fluidly connecting ambient atmosphere with the internal cavity; each air inlet duct having an inlet end opening at an exterior surface of the sidewall and an outlet end opening at an interior surface of the sidewall adjoining the cavity; wherein the air inlet ducts each have a recurving configuration to draw cooling air radially inwards and initially upwards from ambient atmosphere, and then redirect the cooling air downwards through the air inlet duct into a lower part of the internal cavity of the module. an elongated module body defining a top end, a bottom end, a sidewall, and an internal cavity extending between the ends along a longitudinal axis, the internal cavity being configured for holding a fuel storage canister; a plurality of cooling air inlet ducts spaced circumferentially apart around the body, the inlet ducts each forming a radially oriented air inlet passageway fluidly connecting ambient atmosphere with the internal cavity; each air inlet duct having an inlet end opening at an exterior surface of the sidewall and an outlet end opening at an interior surface of the sidewall adjoining the cavity; wherein the air inlet ducts each have a recurving configuration to draw cooling air radially inwards and initially upwards from ambient atmosphere, and then redirect the cooling air downwards through the air inlet duct into a lower part of the internal cavity of the module.
A process for the production of an at least two-layer thermoplastic foam sheet via symmetrical bonding of at least two thinner thermoplastic foam sheets to give the at least two-layer thermoplastic foam sheet, where the symmetrical bonding takes place via symmetrical adhesive bonding and/or via symmetrical thermal welding, where the symmetrical bonding for at least one pair of sheets to be bonded comprises bonding either two upper sides or two lower sides of the respective thinner thermoplastic foam sheets to one another.
A radio frequency, RF, multiplexer for routing transmit signals to an antenna and routing receive signals to a receiver, the multiplexer comprising: a first hybrid coupler providing four ports, a first port configured to connect to an antenna, a second port being an input port and configured to receive an N-band transmit signal; a first M-band splitter connected to a third port of the first hybrid coupler, the first M-band splitter having a first set of M outputs; a first set of M amplifying circuits (91, 93, 95), each having an input port connected to one of the first set of M outputs and configured to produce an amplified output via an output port; a second M-band splitter connected to a fourth port of the first hybrid coupler, the second M-band splitter having a second set of M outputs; a second set of M amplifying circuits (97, 99, 101), each having an input port connected to one of the second set of M outputs and configured to produce an amplified output via an output port; at least one other hybrid coupler (83, 84, 86) providing four ports, a first port being connected to receive the amplified output of one of the first set of amplifying circuits, and a second port being connected to the amplified output of one of the second set of amplifying circuits, each of the at least one other hybrid coupler (83, 84, 86) having a third port being an output port and configured to output one of M receive signals for one of M receive circuits and a fourth port configured to connect to one of M loads; and wherein M is a positive integer greater than one and the at least one other hybrid coupler (83, 84, 86) is a set of M hybrid couplers. a first hybrid coupler providing four ports, a first port configured to connect to an antenna, a second port being an input port and configured to receive an N-band transmit signal; a first M-band splitter connected to a third port of the first hybrid coupler, the first M-band splitter having a first set of M outputs; a first set of M amplifying circuits (91, 93, 95), each having an input port connected to one of the first set of M outputs and configured to produce an amplified output via an output port; a second M-band splitter connected to a fourth port of the first hybrid coupler, the second M-band splitter having a second set of M outputs; a second set of M amplifying circuits (97, 99, 101), each having an input port connected to one of the second set of M outputs and configured to produce an amplified output via an output port; at least one other hybrid coupler (83, 84, 86) providing four ports, a first port being connected to receive the amplified output of one of the first set of amplifying circuits, and a second port being connected to the amplified output of one of the second set of amplifying circuits, each of the at least one other hybrid coupler (83, 84, 86) having a third port being an output port and configured to output one of M receive signals for one of M receive circuits and a fourth port configured to connect to one of M loads; and wherein M is a positive integer greater than one and the at least one other hybrid coupler (83, 84, 86) is a set of M hybrid couplers.
A process for forming silicon oxide film on a substrate through chemical vapor deposition of a silane oxide precursor by reaction with an oxidizing agent which is characterised in: using a silane precursor selected from an organoaminosilane represented by the formula: wherein R and R 1 are selected from linear, branched, or cyclic, saturated or unsaturated C 1 -C 10 alkyl groups, aromatic groups, alkylamino groups; R and R 1 can also be formed into a cyclic group; and R 2 represents a single bond, (CH 2) n chain, a ring, SiR 2, or SiH 2.
An information processing apparatus for controlling, in one image capture region in a fundus, image capture of a plurality of high-magnification images having a viewing angle smaller than the viewing angle of the image capture region, comprising: presentation means for presenting to an operator for selection a plurality of basic patterns each representing a distribution of positions at which to respectively capture a high-magnification image by Adaptive Optics Scanning Laser Ophthalmoscopy; adjustment means for adjusting, in accordance with an instruction of the operator, an image capture condition of the plurality of high-magnification images associated with a basic pattern selected from the plurality of basic patterns; and control means (110, 112) for causing capture of the plurality of high-magnification images in the image capture region by Adaptive Optics Scanning Laser Ophthalmoscopy in accordance with the adjusted image capture condition. presentation means for presenting to an operator for selection a plurality of basic patterns each representing a distribution of positions at which to respectively capture a high-magnification image by Adaptive Optics Scanning Laser Ophthalmoscopy; adjustment means for adjusting, in accordance with an instruction of the operator, an image capture condition of the plurality of high-magnification images associated with a basic pattern selected from the plurality of basic patterns; and control means (110, 112) for causing capture of the plurality of high-magnification images in the image capture region by Adaptive Optics Scanning Laser Ophthalmoscopy in accordance with the adjusted image capture condition.
A climate control outdoor unit comprising: a fan housing for accommodating a fan (42,154) rotating about a central axis, the fan housing comprising: an inlet; a diffuser; an inner diameter surface (200, 210) facing the central axis; and an outer diameter surface facing away from the central axis; a compressor having an electric motor; a refrigerant-air heat exchanger coupled to the compressor and extending around the central axis between a first header and a second header; and wherein the fan is an electric fan (42,154) encircled by the fan housing and positioned to drive an air flow along an air flowpath across the refrigerant-air heat exchanger then through the inlet and out the diffuser; characterised in that: a rim at the inlet of the fan housing has a plurality of apexes and a plurality of nadirs; the refrigerant air heat exchanger has a footprint with four sides and four corners, an inter-header gap at one of the four corners; the apexes are aligned with respective ones of the four corners; and the nadirs are aligned with respective ones of the four sides. an inlet; a diffuser; an inner diameter surface (200, 210) facing the central axis; and an outer diameter surface facing away from the central axis; a compressor having an electric motor; a refrigerant-air heat exchanger coupled to the compressor and extending around the central axis between a first header and a second header; and wherein the fan is an electric fan (42,154) encircled by the fan housing and positioned to drive an air flow along an air flowpath across the refrigerant-air heat exchanger then through the inlet and out the diffuser; characterised in that: a rim at the inlet of the fan housing has a plurality of apexes and a plurality of nadirs; the refrigerant air heat exchanger has a footprint with four sides and four corners, an inter-header gap at one of the four corners; the apexes are aligned with respective ones of the four corners; and the nadirs are aligned with respective ones of the four sides. a compressor having an electric motor; a refrigerant-air heat exchanger coupled to the compressor and extending around the central axis between a first header and a second header; and wherein the fan is an electric fan (42,154) encircled by the fan housing and positioned to drive an air flow along an air flowpath across the refrigerant-air heat exchanger then through the inlet and out the diffuser; characterised in that: a rim at the inlet of the fan housing has a plurality of apexes and a plurality of nadirs; the refrigerant air heat exchanger has a footprint with four sides and four corners, an inter-header gap at one of the four corners; the apexes are aligned with respective ones of the four corners; and the nadirs are aligned with respective ones of the four sides.
A nucleic acid vector, comprising a humanized cluster of differentiation 274 gene encoding a humanized Programmed death-ligand 1 (PD-L1) polypeptide, wherein said humanized CD274 gene comprises a nucleic acid sequence encoding the extracellular sequence of a human PD-L1 polypeptide, operably linked to a nucleic acid sequence encoding the intracellular sequence and the transmembrane sequence of a rodent PD-L1 polypeptide.
A method for producing a carbon material, the method comprising the steps of: allowing a cellulosic material and/or a regenerated cellulosic material to adsorb a sulfonic acid; and heating the cellulosic material and/or the regenerated cellulosic material which has adsorbed the sulfonic acid at a temperature of 600-2800°C in an inert gas atmosphere; wherein the step of adsorbing the sulfonic acid is performed by immersing a cellulosic material in an aqueous solution of the sulfonic acid; and the concentration of the sulfonic acid in the aqueous solution is 0.1-2.0 mol/L.
A method of encoding video data, the method comprising: encoding a prediction unit of a coding unit of video data using a motion vector having one of a first sub-pixel precision or a second, different sub-pixel precision; determining a context for encoding an indication of whether the motion vector has the first sub-pixel precision or the second sub-pixel precision using context adaptive binary arithmetic coding, wherein the context comprises at least one of a depth of the coding unit and a size of the prediction unit; and entropy encoding the indication using the determined context in accordance with context adaptive binary arithmetic coding. encoding a prediction unit of a coding unit of video data using a motion vector having one of a first sub-pixel precision or a second, different sub-pixel precision; determining a context for encoding an indication of whether the motion vector has the first sub-pixel precision or the second sub-pixel precision using context adaptive binary arithmetic coding, wherein the context comprises at least one of a depth of the coding unit and a size of the prediction unit; and entropy encoding the indication using the determined context in accordance with context adaptive binary arithmetic coding.