mhurhangee/patent-ind-claim-en huggingface dataset:
A production method for an optical laminate, the production method comprising: a thin glass production step of producing a thin glass having a thickness of 100 um or less; and a lamination step of laminating an optical film on one surface, or each of both surfaces, of the thin glass, the thin glass production step and the lamination step being performed in an integrated line, wherein thin glass continuously formed in the thin glass production step is subjected to the lamination step as it is without being taken up, the lamination step comprising applying an adhesive onto the optical film to form an application layer, and bonding the thin glass and the optical film through intermediation of the application layer while thin glass is inserted into a pair of rolls from below, followed by curing the adhesive to form an adhesive layer between the optical film and the thin glass. a thin glass production step of producing a thin glass having a thickness of 100 um or less; and a lamination step of laminating an optical film on one surface, or each of both surfaces, of the thin glass, the thin glass production step and the lamination step being performed in an integrated line, wherein thin glass continuously formed in the thin glass production step is subjected to the lamination step as it is without being taken up, the lamination step comprising applying an adhesive onto the optical film to form an application layer, and bonding the thin glass and the optical film through intermediation of the application layer while thin glass is inserted into a pair of rolls from below, followed by curing the adhesive to form an adhesive layer between the optical film and the thin glass.
Handling device for inserting a part to be bent (B) into a bending device for the bending thereof about at least one bending edge , wherein with the handling device the part to be bent (B) is movable between a receiving position for the part to be bent on a loading surface and a bending device insertion position for the part to be bent, wherein the handling device has a holding unit which is formed to be elongate in a longitudinal direction and has at least one holding element with which the part to be bent (B), which is to be received and is arranged on a loading surface , is grippable on one of its flat sides (F) by forces (KS) of attraction on one side of the flat side (F) at a plurality of successive locations in the longitudinal direction , and the holding unit for its part is pivotable relative to a pivoting carrier unit about a first pivot axis parallel to the longitudinal direction , the pivoting carrier unit being pivotable relative to a pivoting carrier base about a second pivot axis which extends parallel to the first pivot axis , wherein the pivoting carrier base is movable by means of a carrier base moving unit in a direction transverse to the second pivot axis , characterised in that the pivoting carrier unit has at least two pivot arms extending to the first pivot axis , in that the pivot arms are rigidly connected to one another, in that the pivot arms are connected to one another by an insert extending therebetween, and in that in particular the insert is constructed as an inherently rigid frame , and in that in particular the holding unit is pivotally mounted on the insert about the first pivot axis by means of a plurality of pivot bearing points arranged successively in the longitudinal direction .
A body , comprising i) at least one first polymer segment having a porosity p1 and an electrical conductivity c1, and ii) at least one further polymer segment being in seamless contact with the at least one first polymer segment and having a porosity p2 ≠ p1 and an electrical conductivity c2 # c1, characterized in that the first polymer segment has an electrical conductivity c1 of at least 0.001 S/cm and wherein the further polymer segment has an electrical conductivity c2 of less than 1 × 10 -9 S/cm. i) at least one first polymer segment having a porosity p1 and an electrical conductivity c1, and ii) at least one further polymer segment being in seamless contact with the at least one first polymer segment and having a porosity p2 ≠ p1 and an electrical conductivity c2 # c1,
A liquid feeding type screw compressor comprising as components: a compressor main body equipped with a screw rotor; a motor driving the compressor main body; and a gas-liquid separator separating a liquid from a compressed air discharged from the compressor main body, wherein the motor is arranged above the compressor main body, and a compressor main body casing constituting an inner cylindrical space forming a compression operation chamber together with the screw rotor and constituting a contour of the compressor main body and a casing constituting a contour of another component consist of an integrally molded single member, characterized in that the gas-liquid separator is arranged below the compressor main body, and a synthetic center of gravity (G1) of the compressor main body and the motor and a center of gravity (G2) of the gas-liquid separator are positioned on the same vertical axis. a compressor main body equipped with a screw rotor; a motor driving the compressor main body; and a gas-liquid separator separating a liquid from a compressed air discharged from the compressor main body, wherein the motor is arranged above the compressor main body, and a compressor main body casing constituting an inner cylindrical space forming a compression operation chamber together with the screw rotor and constituting a contour of the compressor main body and a casing constituting a contour of another component consist of an integrally molded single member, characterized in that the gas-liquid separator is arranged below the compressor main body, and a synthetic center of gravity (G1) of the compressor main body and the motor and a center of gravity (G2) of the gas-liquid separator are positioned on the same vertical axis.
An image decoding method performed by a decoding apparatus, the method comprising: receiving (S810) a bitstream comprising residual information; deriving (S820) transform coefficients for a target block based on the residual information; deriving (S830) modified transform coefficients based on an inverse non-separable transform of the transform coefficients; deriving (S840) residual samples for the target block based on an inverse primary transform of the modified transform coefficients; and generating (S850) a reconstructed picture based on the residual samples for the target block, wherein the inverse non-separable transform is performed based on a transform index indicating a predetermined transform kernel matrix, wherein the inverse primary transform is performed based on a multiple transform selection, MTS, index indicating an MTS of a horizontal transform kernel and a vertical transform kernel, wherein the MTS index is not received from the bitstream and is inferred equal to 0, wherein the transform index indicating the predetermined transform kernel matrix is context-decoded based on a context increment, wherein based on a tree type of a partition structure of the target block being not a single tree type, a context increment on a first bin among bin strings for the transform index is derived as a first context increment equal to 1, and wherein based on the tree type being the single tree type, the context increment on the first bin is derived as a second context increment equal to 0. receiving (S810) a bitstream comprising residual information; deriving (S820) transform coefficients for a target block based on the residual information; deriving (S830) modified transform coefficients based on an inverse non-separable transform of the transform coefficients; deriving (S840) residual samples for the target block based on an inverse primary transform of the modified transform coefficients; and generating (S850) a reconstructed picture based on the residual samples for the target block, wherein the inverse non-separable transform is performed based on a transform index indicating a predetermined transform kernel matrix, wherein the inverse primary transform is performed based on a multiple transform selection, MTS, index indicating an MTS of a horizontal transform kernel and a vertical transform kernel, wherein the MTS index is not received from the bitstream and is inferred equal to 0, wherein the transform index indicating the predetermined transform kernel matrix is context-decoded based on a context increment, wherein based on a tree type of a partition structure of the target block being not a single tree type, a context increment on a first bin among bin strings for the transform index is derived as a first context increment equal to 1, and wherein based on the tree type being the single tree type, the context increment on the first bin is derived as a second context increment equal to 0.
A lifting apparatus for a deck of a vehicle transporter comprising at least one first pivot arm which is mounted pivotably at a first pivot mounting and to which a second pivot arm is pivotably connected, wherein the second pivot arm is mounted pivotably by way of a second pivot mounting , wherein a spacing (d) between the first pivot mounting of the first pivot arm and the second pivot mounting of the second pivot arm is variable by a pivotal movement of the second pivot arm and wherein at least one boom is telescopically mounted at or in the first pivot arm , to which boom the deck can be fixed preferably by way of a joint, wherein there is provided an adjusting mechanism for retracting and extending the at least one boom , characterised in that the adjusting mechanism for the at least one boom is in the form of a linear actuator which is connected to the first pivot arm and which is actuable independently of a pivotal position of the first pivot arm .
Method for replacing a used bearing with a new bearing, in particular for replacing a large bearing such as the main bearing of a wind turbine, wherein - the used bearing is arranged during operation at a bearing seat and supports a rotor shaft extending along an axis of rotation and in an axial direction towards a rotor hub as part of a rotor unit and the used bearing is arranged in a bearing housing, which is fastened to a machine carrier, wherein - the replacement of the used bearing is carried out without disassembly of the rotor shaft, by - removing the bearing housing from the used bearing by axial displacement, - dividing the used bearing and removing it from the rotor shaft, - mounting the new bearing around the rotor shaft, - arranging the new bearing in the bearing housing again after removal of the old bearing, characterized in that - the bearing housing is designed as a one-piece, undivided bearing housing. - the used bearing is arranged during operation at a bearing seat and supports a rotor shaft extending along an axis of rotation and in an axial direction towards a rotor hub as part of a rotor unit and the used bearing is arranged in a bearing housing, which is fastened to a machine carrier, wherein - the replacement of the used bearing is carried out without disassembly of the rotor shaft, by - removing the bearing housing from the used bearing by axial displacement, - dividing the used bearing and removing it from the rotor shaft, - mounting the new bearing around the rotor shaft, - arranging the new bearing in the bearing housing again after removal of the old bearing, characterized in that - the bearing housing is designed as a one-piece, undivided bearing housing.
An oven , comprising: an oven body having a peripheral wall at least partially defining a cooking cavity with a top wall comprising spaced interior panels and exterior panels defining a channel therebetween; insulation located in the channel ; an imaging device mounted in the channel in thermal engagement with the insulation with a field of view including at least a portion of the cooking cavity ; and a heat sink coupled to the imaging device ; characterized in that the oven comprises a heat pipe comprising a first end coupled to the imaging device and a second end spaced from the first end coupled to the heat sink . an oven body having a peripheral wall at least partially defining a cooking cavity with a top wall comprising spaced interior panels and exterior panels defining a channel therebetween; insulation located in the channel ; an imaging device mounted in the channel in thermal engagement with the insulation with a field of view including at least a portion of the cooking cavity ; and a heat sink coupled to the imaging device ; characterized in that the oven comprises a heat pipe comprising a first end coupled to the imaging device and a second end spaced from the first end coupled to the heat sink .
A gas phase surface treatment for treating carbon fiber, comprising: a) exposing a carbon fiber to a gaseous oxidizing atmosphere to form a modified carbon fiber with an oxidized fiber surface; followed by b) exposing the oxidized fiber surface to a gaseous nitrogen-containing atmosphere to form a modified carbon fiber with a nitrogen-enriched surface, wherein the gaseous nitrogen-containing atmosphere comprises at least 50% by volume of ammonia gas and the nitrogen-enriched surface exhibits an increase in surface nitrogen to surface carbon (N/C) ratio as compared to the surface of the carbon fiber prior to exposure at (a), and wherein steps (a) and (b) are carried out continuously without any additional intervening surface treatment and are performed at a temperature in the range of 100°C to 200°C. a) exposing a carbon fiber to a gaseous oxidizing atmosphere to form a modified carbon fiber with an oxidized fiber surface; followed by b) exposing the oxidized fiber surface to a gaseous nitrogen-containing atmosphere to form a modified carbon fiber with a nitrogen-enriched surface, wherein the gaseous nitrogen-containing atmosphere comprises at least 50% by volume of ammonia gas and the nitrogen-enriched surface exhibits an increase in surface nitrogen to surface carbon (N/C) ratio as compared to the surface of the carbon fiber prior to exposure at (a), and
A system for switching focus between devices of participants participating in a communication session, the focus indicating the participant that has the floor in the communication session, the system comprising: a connector (111a-c, 112a-c, 200, 307) to link a device (101a-c, I03, 105, 107, 199, 301, 312) to a master control apparatus , the connector including: an actuator , wherein the actuator is configured to trigger a signal representing a focus request indicating that a participant wishes to share information with other participants; and a one-wire bidirectional serial bus to bi-directionally communicatively couple the device to the master control apparatus, wherein when the actuator is actuated by the participant requesting the focus, the one-wire bidirectional serial bus is configured to transmit the signal to the master control apparatus, the signal representing the focus request for the device in question to shift focus to the participant making the focus request, and characterised in that : the connector is part of cabling for carrying audio and visual signals for the communication session, the actuator being communicatively coupled to a single pin of the connector and wherein the single pin selected for integration with the actuator is a redundant part of the cabling. an actuator , wherein the actuator is configured to trigger a signal representing a focus request indicating that a participant wishes to share information with other participants; and a one-wire bidirectional serial bus to bi-directionally communicatively couple the device to the master control apparatus, wherein when the actuator is actuated by the participant requesting the focus, the one-wire bidirectional serial bus is configured to transmit the signal to the master control apparatus, the signal representing the focus request for the device in question to shift focus to the participant making the focus request, and
Method for controlling an electrically heatable device , in which non-usage is determined as a function of a usage state of the device and the electric heater of the device can be deactivated if the duration of non-usage has reached a first temporal threshold value (S1), characterised in that the duration of a first non-usage is measured and compared to a second temporal threshold value (S2), and during a second non-usage following on from the first non-usage, the deactivation will occur after the first temporal threshold value (S1) is reached only if the duration of the first non-usage has not exceeded the second temporal threshold value (S2).
An internal combustion engine of a compressed self-ignition type that performs combustion by injecting fuel into a compressed combustion chamber , comprising: a fuel injection nozzle having a nozzle hole that injects fuel, the nozzle hole being provided to be exposed to the combustion chamber from a cylinder head of the internal combustion engine ; and a hollow duct in which an inlet and an outlet are exposed to the combustion chamber , wherein the duct is provided to penetrate through an inside of the cylinder head so that fuel spray injected from the nozzle hole of the fuel injection nozzle passes from the inlet to the outlet , wherein the cylinder head is configured by including an integrated member (48; 52) integrated with a top surface, and the duct is configured to penetrate through the integrated member (48; 52) wherein the integrated member (48; 52) is configured so that a surface area of a surface contacting the cylinder head is larger than a surface area of a surface exposed to the combustion chamber , and wherein in the integrated member , a periphery of the nozzle hole is formed into a shape that is protruded annularly. a fuel injection nozzle having a nozzle hole that injects fuel, the nozzle hole being provided to be exposed to the combustion chamber from a cylinder head of the internal combustion engine ; and a hollow duct in which an inlet and an outlet are exposed to the combustion chamber , wherein the duct is provided to penetrate through an inside of the cylinder head so that fuel spray injected from the nozzle hole of the fuel injection nozzle passes from the inlet to the outlet , wherein the cylinder head is configured by including an integrated member (48; 52) integrated with a top surface, and the duct is configured to penetrate through the integrated member (48; 52) wherein the integrated member (48; 52) is configured so that a surface area of a surface contacting the cylinder head is larger than a surface area of a surface exposed to the combustion chamber , and wherein in the integrated member , a periphery of the nozzle hole is formed into a shape that is protruded annularly.
A hydraulic tool , comprising: a stator having a plurality of lobes ; and a rotor rotatably disposed within the stator , the rotor having one fewer lobe than the stator , wherein the lobes of the rotor are configured to engage with the lobes of the stator when the rotor moves; characterised in that at least one of at least an inner portion of the stator and at least an outer portion of the rotor comprises at least one insert , the at least one insert comprising a volume of a hard material attached to a substrate , the hard material having a Knoop hardness value of about 800 Kg f /mm 2 (7,845 MPa) or more, the insert having a thickness of at least 1 mm, wherein the at least one insert has a major surface that is contoured to match a surface of the stator or the rotor ; and wherein the at least one of the inner portion of the stator and the outer portion of the rotor comprises a metal matrix material at least partially surrounding the at least one insert and comprising a material having a higher flexibility than the hard material of the at least one insert . a stator having a plurality of lobes ; and a rotor rotatably disposed within the stator , the rotor having one fewer lobe than the stator , wherein the lobes of the rotor are configured to engage with the lobes of the stator when the rotor moves; characterised in that at least one of at least an inner portion of the stator and at least an outer portion of the rotor comprises at least one insert , the at least one insert comprising a volume of a hard material attached to a substrate , the hard material having a Knoop hardness value of about 800 Kg f /mm 2 (7,845 MPa) or more, the insert having a thickness of at least 1 mm, wherein the at least one insert has a major surface that is contoured to match a surface of the stator or the rotor ; and at least one of at least an inner portion of the stator and at least an outer portion of the rotor comprises at least one insert , the at least one insert comprising a volume of a hard material attached to a substrate , the hard material having a Knoop hardness value of about 800 Kg f /mm 2 (7,845 MPa) or more, the insert having a thickness of at least 1 mm, wherein the at least one insert has a major surface that is contoured to match a surface of the stator or the rotor ; and wherein the at least one of the inner portion of the stator and the outer portion of the rotor comprises a metal matrix material at least partially surrounding the at least one insert and comprising a material having a higher flexibility than the hard material of the at least one insert .
A driving assembly, comprising: a connecting base , and a driving device , comprising a driving body , a mounting part and an output shaft , wherein the output shaft comprises an input section and an output section , the input section is housed in the driving body and extends outward from the driving body to form the output section , the mounting part is arranged on a side of the driving body close to the output section , characterized in that a receiving hole is arranged on the connecting base , and a side of the driving body away from the output section passes through the receiving hole and connects a bottom of the connecting base with the mounting part . a connecting base , and a driving device , comprising a driving body , a mounting part and an output shaft , wherein the output shaft comprises an input section and an output section , the input section is housed in the driving body and extends outward from the driving body to form the output section , the mounting part is arranged on a side of the driving body close to the output section , characterized in that a receiving hole is arranged on the connecting base , and a side of the driving body away from the output section passes through the receiving hole and connects a bottom of the connecting base with the mounting part .
Isolated or substantially purified heparan sulphate HS6 for use in a therapeutic method of repair and/or regeneration of skin, wherein the isolated or substantially purified heparan sulphate HS6 is capable of binding a peptide or polypeptide having, or consisting of, the amino acid sequence RAKTPQTRVTIRTVRVRRPPKGKHRKFKHTHDK (SEQ ID NO:1); and wherein following digestion with heparin lyases I, II and III and then subjecting the resulting disaccharide fragments to HPLC analysis the isolated or substantially purified heparan sulphate HS6 has a disaccharide composition comprising: Disaccharide Normalised weight percentage ΔUA,2S-GlcNS,6S 12.9 ± 0.5 ΔUA,2S-GlcNS 6.8 ± 0.2 ΔUA-GlcNS,6S 11.7± 0.5 ΔUA-GlcNS 24.5 ±1.5 ΔUA,2S-GlcNAc 0.5 ± 0.2 ΔUA-GlcNAc,6S 12.1 ± 0.5 ΔUA-GlcNAc 31.6 ±0.8