mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid-type retarding device, comprising: a rotating disk provided to a rotating shaft ; a rotating housing that includes paired disk portions and a cylinder portion connecting outer circumferential portions of the disk portions so as to surround the rotating disk , and is rotatably supported with the rotating shaft ; and a friction brake that presses a friction member against the rotating housing at a time of braking to bring the rotating housing to a stop, wherein on at least one surface of the rotating disk , a disk vane extending from an inner circumference of the surface toward an outer peripheral side is formed, on an inner surface of each of the paired disk portions corresponding to the disk vane , a housing vane extending from an inner circumference to an outer periphery is formed, working fluid is accommodated within the rotating housing , characterized in that the rotating shaft supporting the rotating housing has a tubular body having a space accommodating the working fluid therein, and includes a communicating hole that allows an internal space of the rotating housing and an internal space of the rotating shaft to communicate with each other. a rotating disk provided to a rotating shaft ; a rotating housing that includes paired disk portions and a cylinder portion connecting outer circumferential portions of the disk portions so as to surround the rotating disk , and is rotatably supported with the rotating shaft ; and a friction brake that presses a friction member against the rotating housing at a time of braking to bring the rotating housing to a stop, wherein on at least one surface of the rotating disk , a disk vane extending from an inner circumference of the surface toward an outer peripheral side is formed, on an inner surface of each of the paired disk portions corresponding to the disk vane , a housing vane extending from an inner circumference to an outer periphery is formed, working fluid is accommodated within the rotating housing , characterized in that the rotating shaft supporting the rotating housing has a tubular body having a space accommodating the working fluid therein, and includes a communicating hole that allows an internal space of the rotating housing and an internal space of the rotating shaft to communicate with each other.
Wind turbine blade spar cap for a wind turbine blade for a wind turbine , the wind turbine blade comprising a down conductor , the wind turbine blade spar cap comprising at least one carbon element and at least one conductive layer , wherein the at least one carbon element and the at least one conductive layer are electrically connected, and at least one conductive profile to electrically connect the at least one conductive layer to the down conductor of the wind turbine blade , wherein the conductive profile is electrically connected to the at least one conductive layer and wherein the conductive profile is arranged at the wind turbine blade spar cap , characterized in that the conductive layer comprises at least one recess , wherein the at least one recess contacts at least one outer side of the conductive profile .
A wireless backhaul connection establishment method, wherein the method comprises: obtaining , by a first base station, a valid backhaul capability of a neighboring base station, wherein the neighboring base station is a base station capable of performing wireless communication with the first base station, and the valid backhaul capability is a maximum capability of a base station to serve a newly-added backhaul service; characterized in that the method further comprises: selecting , by the first base station, an upstream base station from the neighboring base station according to the valid backhaul capability of the neighboring base station and a backhaul service requirement of the first base station, wherein the upstream base station is configured to provide a wireless backhaul relay service for the first base station, wherein the selecting comprises: selecting a neighboring base station that meets the backhaul service requirement of the first base station as the upstream base station; and establishing , by the first base station, a wireless backhaul connection with the upstream base station. obtaining , by a first base station, a valid backhaul capability of a neighboring base station, wherein the neighboring base station is a base station capable of performing wireless communication with the first base station, and the valid backhaul capability is a maximum capability of a base station to serve a newly-added backhaul service; characterized in that the method further comprises: selecting , by the first base station, an upstream base station from the neighboring base station according to the valid backhaul capability of the neighboring base station and a backhaul service requirement of the first base station, wherein the upstream base station is configured to provide a wireless backhaul relay service for the first base station, wherein the selecting comprises: selecting a neighboring base station that meets the backhaul service requirement of the first base station as the upstream base station; and establishing , by the first base station, a wireless backhaul connection with the upstream base station. selecting , by the first base station, an upstream base station from the neighboring base station according to the valid backhaul capability of the neighboring base station and a backhaul service requirement of the first base station, wherein the upstream base station is configured to provide a wireless backhaul relay service for the first base station, wherein the selecting comprises: selecting a neighboring base station that meets the backhaul service requirement of the first base station as the upstream base station; and establishing , by the first base station, a wireless backhaul connection with the upstream base station.
A process for producing a waterproof membrane for waterproofing a building or a part of a building, wherein the waterproof membrane comprises at least one support carrier and at least one topcoat layer of a cross-linked two component polyurethane coating composition, the process comprising the steps of: (a) providing at least one support carrier, wherein the support carrier can be composed of a single layer or multiple layers; (b) applying a layer of a coating composition comprising at least one compound having hydroxyl-functional groups, and at least one polyisocyanate cross-linking agent with free isocyanate groups to form at least one topcoat layer of a two component polyurethane coating composition on said support carrier; (c) curing the layer of the coating composition at temperatures in the range of 50° to 160 °C to produce a cross-linked waterproof membrane; and (d) applying the cross-linked waterproof membrane to the building or part of the building. (a) providing at least one support carrier, wherein the support carrier can be composed of a single layer or multiple layers; (b) applying a layer of a coating composition comprising at least one compound having hydroxyl-functional groups, and at least one polyisocyanate cross-linking agent with free isocyanate groups to form at least one topcoat layer of a two component polyurethane coating composition on said support carrier; (c) curing the layer of the coating composition at temperatures in the range of 50° to 160 °C to produce a cross-linked waterproof membrane; and (d) applying the cross-linked waterproof membrane to the building or part of the building.
A substantially anhydrous composition comprising - Krill oil pretreated by ultracentrifugation, the krill oil being pretreated by ultracentrifugation at 200,000 to 250,000 g for 20 to 30 minutes. - optionally silica as emulsifier, - at least one water-soluble active substance and/or at least one fat-soluble active substance, and - at least one antioxidant substance. - Krill oil pretreated by ultracentrifugation, the krill oil being pretreated by ultracentrifugation at 200,000 to 250,000 g for 20 to 30 minutes. - optionally silica as emulsifier, - at least one water-soluble active substance and/or at least one fat-soluble active substance, and - at least one antioxidant substance.
Process for the production of a superconductor material, said superconductor material comprising a substrate ; a superconductor layer deposited on the substrate; a stabilizer layer having an electrical resistance greater than the superconductor layer when said layer is in a superconducting state and lower than the superconductor layer when said layer is in a normal state, and comprising an inner surface at least partly in contact with the superconductor layer and an opposed outer surface ; and a current flow diverter layer having a greater electrical resistance than the stabilizer layer , and located between the stabilizer layer and the superconductor layer or inside the stabilizer layer , the current flow diverter layer extending between the superconductor layer and the stabilizer layer's outer surface along a portion of the width of the superconductor layer , wherein the current flow diverter layer , in its width comprises at least one edge and a central region, wherein the process comprises the step of inkjet-printing a current flow ink onto a portion of the width of the superconductor layer when the current flow diverter layer is located between the superconductor layer and the stabilizer layer , or onto a first portion of the stabilizer layer when the current flow diverter layer is located inside the stabilizer layer , to generate the current flow diverter layer , characterized in that in the step of inkjet-printing, the current flow diverter layer is generated by reducing the droplet density of the current flow diverter ink in the at least one edge of the current flow diverter layer with regard to the droplet density of the central region of the current flow diverter layer .
Drive device comprising at least one drive cylinder having an outer surface and at least one cover strip having an inner face and an outer face , the inner face of the cover strip being wound around at least a portion of the outer surface of the drive cylinder and fastened around the drive cylinder by a self-adhesive fastener , characterized in that the device comprises a plurality of cover strips , each cover strip being fastened around the drive cylinder by a self-adhesive fastener , at least a part of the outer surface of the drive cylinder and at least a part of the inner face of each cover strip being secured to each other by a self-adhesive fastener , each cover strip being wound around a cylindrical portion of the drive cylinder , the plurality of cover strips being placed side by side along a main axis (X) of the drive cylinder .
Hood module for arranging on a cylinder head of an internal combustion engine, having a hood body consisting of a plastic, and having at least one bearing bridge comprising a metal material for rotatably receiving at least one camshaft in the hood module , wherein the bearing bridge is arranged in a positionally accurate manner by a joining connection on the hood body in such a way that the bearing bridge is oriented for the arrangement on the cylinder head by the hood body , characterized in that the joining connection is formed by at least one joining element which is inserted with the formation of a melting region in the plastic material of the hood body or in an auxiliary element .
A memory block type processing method, applied to an electronic device, a memory of the electronic device comprising a plurality memory blocks of a movable type, a plurality of memory blocks of a reclaimable type and a plurality of memory blocks of an unmovable type, characterized in that the method comprises: monitoring a state of each memory block in the electronic device (S110); when it is monitored that a memory block is released, detecting a type of the released memory block (S120); responsive to detecting that an original type of the released memory block is inconsistent with a present type of the released memory block, detecting a released memory capacity of the released memory block (S130); and adjusting the present type of the released memory block according to the detected released memory capacity (S140), wherein the step of detecting the released memory capacity of the released memory block (S120) comprises: detecting the released memory capacity of the released memory block (S131); and comparing the detected released memory capacity with a preset capacity threshold value (S132), wherein the step of adjusting the present type of the released memory block according to the detected released memory capacity (S140) comprises: when the detected released memory capacity is not less than the preset capacity threshold value, adjusting the present type of the released memory block into the original type of the released memory block. monitoring a state of each memory block in the electronic device (S110); when it is monitored that a memory block is released, detecting a type of the released memory block (S120); responsive to detecting that an original type of the released memory block is inconsistent with a present type of the released memory block, detecting a released memory capacity of the released memory block (S130); and adjusting the present type of the released memory block according to the detected released memory capacity (S140), wherein the step of detecting the released memory capacity of the released memory block (S120) comprises: detecting the released memory capacity of the released memory block (S131); and comparing the detected released memory capacity with a preset capacity threshold value (S132), wherein the step of adjusting the present type of the released memory block according to the detected released memory capacity (S140) comprises: when the detected released memory capacity is not less than the preset capacity threshold value, adjusting the present type of the released memory block into the original type of the released memory block. detecting the released memory capacity of the released memory block (S131); and comparing the detected released memory capacity with a preset capacity threshold value (S132), wherein the step of adjusting the present type of the released memory block according to the detected released memory capacity (S140) comprises: when the detected released memory capacity is not less than the preset capacity threshold value, adjusting the present type of the released memory block into the original type of the released memory block.
A method of determining the feasibility of an offshore unit going on or coming off location by transitioning the offshore unit from an afloat mode in which legs of the offshore unit are not coupled to the seabed to an elevated mode in which the legs of the offshore unit are coupled to the seabed , and vice versa, the method comprising the steps of: obtaining data from one or more motion sensors located on the offshore unit over a series of specified time intervals; processing the motion data, over a series of specified time intervals, to calculate one or more angular motion components, one or more angular velocities and/or one or more translational accelerations of the offshore unit ; comparing the calculated data to a stored set of critical statistics of permitted conditions generated based upon: water depth, seabed soil conditions, leg-seabed interactions, jacking speed, footing shape, jacking system stiffness and/or the structural capacity of (i) the legs of the unit , (ii) the hull and/or (iii) the jacking system of the unit ; determining, in real time, an indication of the feasibility of an offshore unit going on or coming off location by utilising the calculated data and critical statistics of permitted conditions. obtaining data from one or more motion sensors located on the offshore unit over a series of specified time intervals; processing the motion data, over a series of specified time intervals, to calculate one or more angular motion components, one or more angular velocities and/or one or more translational accelerations of the offshore unit ; comparing the calculated data to a stored set of critical statistics of permitted conditions generated based upon: water depth, seabed soil conditions, leg-seabed interactions, jacking speed, footing shape, jacking system stiffness and/or the structural capacity of (i) the legs of the unit , (ii) the hull and/or (iii) the jacking system of the unit ; determining, in real time, an indication of the feasibility of an offshore unit going on or coming off location by utilising the calculated data and critical statistics of permitted conditions.
Energy storage plant, comprising: a casing storing a working fluid other than atmospheric air, in a gaseous phase and in equilibrium of pressure with the atmosphere, wherein said casing is a pressure-balloon or has the structure of a gasometer; a tank storing said working fluid in liquid or supercritical phase with a temperature close to the critical temperature; wherein said critical temperature is close to the ambient temperature; wherein the plant is configured to perform a closed cyclic thermodynamic transformation (TTC), first in one direction in a charge configuration and then in an opposite direction in a discharge configuration, between said casing and said tank ; wherein in the charge configuration the plant stores heat and pressure and in the discharge configuration generates energy. a casing storing a working fluid other than atmospheric air, in a gaseous phase and in equilibrium of pressure with the atmosphere, wherein said casing is a pressure-balloon or has the structure of a gasometer; a tank storing said working fluid in liquid or supercritical phase with a temperature close to the critical temperature; wherein said critical temperature is close to the ambient temperature; wherein the plant is configured to perform a closed cyclic thermodynamic transformation (TTC), first in one direction in a charge configuration and then in an opposite direction in a discharge configuration, between said casing and said tank ; wherein in the charge configuration the plant stores heat and pressure and in the discharge configuration generates energy.
A reaction system for forming a step-growth polymerized sulfur-containing polyester polyol, the reaction system comprising: at least one sulfur-containing component selected from the group of a sulfur-containing polyol and a sulfur-containing polycarboxylic acid, an amount of the at least one sulfur-containing component being from 15 wt% to 45 wt%, based on a total weight of the reaction system; at least one aromatic component selected from the group of an aromatic multi-functional ester, an aromatic multi-functional carboxylic acid, and an aromatic anhydride, an amount of the at least one aromatic component being from 1 wt% to 60 wt%, based on the total weight of the reaction system; at least one simple polyol that excludes sulfur and is different from the sulfur-containing polyol, said at least one simple polyol including at least polyethylene glycol and glycerine, an amount of the at least one simple polyol being from 5 wt% to 60 wt%, based on a total weight of the reaction system; and at least one polymerization catalyst, the reaction system for forming the sulfur-containing polyester polyol having a sulfur content that is from 2 wt% to 20 wt%, based on a total weight of the reaction system. at least one sulfur-containing component selected from the group of a sulfur-containing polyol and a sulfur-containing polycarboxylic acid, an amount of the at least one sulfur-containing component being from 15 wt% to 45 wt%, based on a total weight of the reaction system; at least one aromatic component selected from the group of an aromatic multi-functional ester, an aromatic multi-functional carboxylic acid, and an aromatic anhydride, an amount of the at least one aromatic component being from 1 wt% to 60 wt%, based on the total weight of the reaction system; at least one simple polyol that excludes sulfur and is different from the sulfur-containing polyol, said at least one simple polyol including at least polyethylene glycol and glycerine, an amount of the at least one simple polyol being from 5 wt% to 60 wt%, based on a total weight of the reaction system; and at least one polymerization catalyst, the reaction system for forming the sulfur-containing polyester polyol having a sulfur content that is from 2 wt% to 20 wt%, based on a total weight of the reaction system.
Test structure comprising a central torque coupling device and a transmission , wherein the central torque coupling device has a shaft part which is arranged so that it can rotate relative to a housing part of the central torque coupling device , wherein the housing part is arranged so that it is stationary relative to a plinth , wherein the shaft part is connected to a shaft of the transmission in a force- and/or form-fitting fashion, wherein the transmission has a torque support which is arranged on a housing or a ring gear of the transmission , characterized in that the torque support of the transmission is connected to the housing part of the central torque coupling device in a force- and/or form-fitting fashion.
A microscope apparatus comprising: an illumination apparatus which includes a surface light emitter having a light emitting surface as a planar light-emitting region and irradiates a sample (S) with light emitted from the surface light emitter; and an imaging optical system which includes an objective lens configured to condense light from the sample, and a variable power lens group configured to form an image of the sample and to change the magnification of the image, wherein the illumination apparatus includes a light diffusing element which diffuses the light emitted from the light emitting surface, a light shielding element which is arranged at a position between the surface light emitter and the light diffusing element, and shields a part of a luminous flux emitted from the light emitting surface, wherein the light diffusing element is arranged between the sample and a conjugate image (PI)of an entrance pupil of the imaging optical system, and the surface light emitter and the light shielding element are arranged in the range of the diffused conjugate images of the entrance pupil for all magnifications of the imaging optical system so that the entrance pupil can be filled with the illumination light regardless of the magnification of the imaging optical system. an illumination apparatus which includes a surface light emitter having a light emitting surface as a planar light-emitting region and irradiates a sample (S) with light emitted from the surface light emitter; and an imaging optical system which includes an objective lens configured to condense light from the sample, and a variable power lens group configured to form an image of the sample and to change the magnification of the image, wherein the illumination apparatus includes a light diffusing element which diffuses the light emitted from the light emitting surface, a light shielding element which is arranged at a position between the surface light emitter and the light diffusing element, and shields a part of a luminous flux emitted from the light emitting surface, wherein the light diffusing element is arranged between the sample and a conjugate image (PI)of an entrance pupil of the imaging optical system, and the surface light emitter and the light shielding element are arranged in the range of the diffused conjugate images of the entrance pupil for all magnifications of the imaging optical system so that the entrance pupil can be filled with the illumination light regardless of the magnification of the imaging optical system.