mhurhangee/patent-ind-claim-en huggingface dataset:
A method for obtaining a substitute for cooked animal flesh comprising the steps of: a. mixing water, food oil and plant-based proteins constituting an extract consisting of 50% to 98% protein from soybeans, peas, mung beans, broad beans, potatoes, wheat or microalgae or a combination thereof, in a ratio of 8% to 20% plant-based proteins, 2% to 10% food oil and 70% to 90% water; b. homogenizing the product obtained in step a. at a pressure of between 100 and 600 bar, at a temperature of between 50°C and 90°C, at a speed of the liquid under pressure of between 100 and 400 m.s-1; c. heating the product obtained in step b. for 10 to 30 min at a temperature of 70 to 95°C, while stirring at 50 to 200 rpm; d. feeding the product obtained in step c. into an extruder at a rate of up to 25 kilograms per minute, the motor linked to the screws of the extruder being set to a speed of between 200 and 500 rpm, and the extruder temperature being set to between 50°C and 200°C; e. obtaining a substitute for cooked animal flesh. a. mixing water, food oil and plant-based proteins constituting an extract consisting of 50% to 98% protein from soybeans, peas, mung beans, broad beans, potatoes, wheat or microalgae or a combination thereof, in a ratio of 8% to 20% plant-based proteins, 2% to 10% food oil and 70% to 90% water; b. homogenizing the product obtained in step a. at a pressure of between 100 and 600 bar, at a temperature of between 50°C and 90°C, at a speed of the liquid under pressure of between 100 and 400 m.s-1; c. heating the product obtained in step b. for 10 to 30 min at a temperature of 70 to 95°C, while stirring at 50 to 200 rpm; d. feeding the product obtained in step c. into an extruder at a rate of up to 25 kilograms per minute, the motor linked to the screws of the extruder being set to a speed of between 200 and 500 rpm, and the extruder temperature being set to between 50°C and 200°C; e. obtaining a substitute for cooked animal flesh.
Apparatus for driving a fastening element into a substrate, having a mechanical energy store for storing mechanical energy, an energy transmission element , which is movable along a setting axis between a starting position and a setting position, for transmitting energy from the mechanical energy store to the fastening element, a coupling device for temporarily holding the energy transmission element only in the starting position, and an energy transmission device having a linearly movable linear output for transferring the energy transmission element from the setting position into the starting position towards the coupling device , characterized in that the coupling device comprises a locking element that is movable transversely to the setting axis, an inner sleeve that is oriented along the setting axis and has a cutout , extending transversely to the setting axis, for receiving the locking element , and an outer sleeve , engaging around the inner sleeve, having a support face for supporting the locking element.
A device for lubricating a railway switch , the device being remotely controllable and configured for moving on a railway track , wherein the device comprises a container for lubricant and at least one nozzle configured for lubricating the railway switch with the lubricant, characterised in that the at least one nozzle is further configured for providing a variable lubrication width.
An information presentation system comprising: an onboard device including a camera configured to be arranged on a vehicle; and a terminal device having portability and performing wireless communication with the onboard device , the terminal device being configured: to acquire an image around the vehicle captured by the camera ; to superimpose a distance marker on the image, the distance marker representing a distance from the vehicle; to determine a delay state including a delay time of the wireless communication between the onboard device and the terminal device ; and to present the image on which the distance marker is superimposed, wherein, when the wireless communication is not delayed, the terminal device superimposes the distance marker on the image at a reference position at which a distance from the vehicle is a distance represented by the distance marker, and when the wireless communication is delayed, the terminal device superimposes the distance marker on the image at a position at a traveling direction side of the vehicle than the reference position or a position at the vehicle side than the reference position. an onboard device including a camera configured to be arranged on a vehicle; and a terminal device having portability and performing wireless communication with the onboard device , the terminal device being configured: to acquire an image around the vehicle captured by the camera ; to superimpose a distance marker on the image, the distance marker representing a distance from the vehicle; to determine a delay state including a delay time of the wireless communication between the onboard device and the terminal device ; and to present the image on which the distance marker is superimposed, to acquire an image around the vehicle captured by the camera ; to superimpose a distance marker on the image, the distance marker representing a distance from the vehicle; to determine a delay state including a delay time of the wireless communication between the onboard device and the terminal device ; and to present the image on which the distance marker is superimposed, wherein, when the wireless communication is not delayed, the terminal device superimposes the distance marker on the image at a reference position at which a distance from the vehicle is a distance represented by the distance marker, and when the wireless communication is delayed, the terminal device superimposes the distance marker on the image at a position at a traveling direction side of the vehicle than the reference position or a position at the vehicle side than the reference position.
A method for setting up an X2 interface in a mobile communication system, the method comprising: transmitting, by a first base station, BS, an X2 interface setup request message to a second BS, wherein the X2 interface setup request message includes a closed subscriber group, CSG, identifier, ID, of a cell served by the first BS, and information on an adjacent cell of the first BS, in case that a CSG cell or a hybrid cell is served by the first BS; and receiving, by the first BS, an X2 interface setup response message from the second BS, wherein the X2 interface setup response message comprises the CSG ID of a cell served by the second BS, and information on an adjacent cell of the second BS, in case that a CSG cell or a hybrid cell is served by the second BS. transmitting, by a first base station, BS, an X2 interface setup request message to a second BS, wherein the X2 interface setup request message includes a closed subscriber group, CSG, identifier, ID, of a cell served by the first BS, and information on an adjacent cell of the first BS, in case that a CSG cell or a hybrid cell is served by the first BS; and receiving, by the first BS, an X2 interface setup response message from the second BS, wherein the X2 interface setup response message comprises the CSG ID of a cell served by the second BS, and information on an adjacent cell of the second BS, in case that a CSG cell or a hybrid cell is served by the second BS.
Assist handle assembly for a motor vehicle, comprising a main handle part and at least one fastening means , said main handle part being intended to be fastened to a wall of the vehicle with the aid of said fastening means , said assist handle assembly having a light source provided to at least partially illuminate the surroundings of the assist handle assembly , further comprising a cylindrical part that is able to rotate about its own axis (Δ) with respect to the main handle part , the rotation of the cylindrical part about its own axis (Δ) controlling the emission of light produced by the light source, characterized in that the light source is mounted on the cylindrical part .
A method of stabilizing a scale factor associated with an optic rotation sensor , comprising: providing broadband light from a broadband spectral light source , the broadband light being produced by a superluminescence diode; processing the broadband light in an optic rotation sensor to generate an optic signal in response to an angular speed of the optic rotation sensor ; passing the optic signal to a sensor detection system configured to produce a rotation measurement signal based on the optic signal , the rotation measurement signal characterizing the angular speed of the optic rotation sensor in accordance with a default interferometric wavelength; wherein the method further comprises directing at least a portion of the broadband light to a wavemeter , the spectrum of the broadband light directed to the wavemeter being the same as the spectrum of the broadband light processed in the optic rotation sensor ; measuring, by the wavemeter , an effective interferometric wavelength based on the broadband light directed to the wavemeter , the effective interferometric wavelength being a wavelength that would make the wavemeter respond exactly the same as with the broadband light source; and correcting the rotation measurement signal in accordance with the effective interferometric wavelength. providing broadband light from a broadband spectral light source , the broadband light being produced by a superluminescence diode; processing the broadband light in an optic rotation sensor to generate an optic signal in response to an angular speed of the optic rotation sensor ; passing the optic signal to a sensor detection system configured to produce a rotation measurement signal based on the optic signal , the rotation measurement signal characterizing the angular speed of the optic rotation sensor in accordance with a default interferometric wavelength; wherein the method further comprises directing at least a portion of the broadband light to a wavemeter , the spectrum of the broadband light directed to the wavemeter being the same as the spectrum of the broadband light processed in the optic rotation sensor ; measuring, by the wavemeter , an effective interferometric wavelength based on the broadband light directed to the wavemeter , the effective interferometric wavelength being a wavelength that would make the wavemeter respond exactly the same as with the broadband light source; and correcting the rotation measurement signal in accordance with the effective interferometric wavelength.
Device for the production of a cruciform element made of at least three plastic profile rods connected to one another at the contact surfaces of their ends, wherein the device comprises at least the following: - a biasing device for each profile brought which is mounted so as to be movable and can be moved by a drive at least such as to move the respective profile rod parallel to its longitudinal extension and to position it, - at least one heating element, angled in form, for heating or plasticizing the contact surfaces or regions of the profile rods which are preferably angled in form, - at least three such biasing devices, which are designed to move profile rods biased therein towards one another in the direction of the common connecting region, characterized by - at least one processing tool for the processing of the respective contact surface or regions and/or of the visible surfaces of the connecting region of the element, - wherein the at least one processing tool is configured for the machining processing of at least the visible surface of the elements in the connecting region of the profile rods after the joining, - wherein the at least one processing tool is configured to carry out a machining processing of at least the side surfaces connecting the visible surfaces of the elements in the connecting region of the profile rods, after the joining and connecting of the profile rods. - a biasing device for each profile brought which is mounted so as to be movable and can be moved by a drive at least such as to move the respective profile rod parallel to its longitudinal extension and to position it, - at least one heating element, angled in form, for heating or plasticizing the contact surfaces or regions of the profile rods which are preferably angled in form, - at least three such biasing devices, which are designed to move profile rods biased therein towards one another in the direction of the common connecting region, - at least one processing tool for the processing of the respective contact surface or regions and/or of the visible surfaces of the connecting region of the element, - wherein the at least one processing tool is configured for the machining processing of at least the visible surface of the elements in the connecting region of the profile rods after the joining, - wherein the at least one processing tool is configured to carry out a machining processing of at least the side surfaces connecting the visible surfaces of the elements in the connecting region of the profile rods, after the joining and connecting of the profile rods.
A mechanism for reversing a tubular textile with an open-end comprising: a vertically extending air suction hose , an air suction means connected to the air suction hose for generating air suction and a drive source for moving the air suction hose up and down, characterized in that the mechanism comprises a guide means mounted inside of the air suction hose and protruding down beneath the lower end of the air suction hose as a passage for guiding the reversed textile between the air suction hose and the guide means , and a vertical extending hold means disposed below the air suction hose for receiving the textile with a closed end from the guide means .
A ship steering device for performing dynamic positioning control for maintaining a ship body at a target position with use of a satellite positioning system , wherein a positioning accuracy level of the satellite positioning system is calculated based on a radio-wave reception state of the satellite positioning system , a fixed-point deviation level is calculated based on a fixed-point deviation amount calculated from the target position and a measured position measured by the satellite positioning system , and a fixed-point maintaining accuracy level indicative of an assumed range of an absolute position of the ship body relative to the target position is determined with reference to the positioning accuracy level and the fixed-point deviation level , characterized in that the positioning accuracy level and the fixed-point deviation level are compared to each other such that in a case where the positioning accuracy level is lower than the fixed-point deviation level , the positioning accuracy level is determined as the fixed-point maintaining accuracy level , in a case where the fixed-point deviation level is lower than the positioning accuracy level, the fixed-point deviation level is determined as the fixed-point maintaining accuracy level , and in a case where the positioning accuracy level and the fixed-point deviation level are equal to each other, the positioning accuracy level and the fixed-point deviation level are determined as the fixed-point maintaining accuracy level .
A hermetically sealed infection control bedding product such as a pillow , duvet, mattress, cushion or such like having a sealed cover and having a resiliently deformable filling material, comprising a vent means in the cover , wherein an aperture is formed in the cover of the product and is adapted to receive the vent means; wherein the vent means comprises a filter medium including a filter membrane for the removal of particles of microbial size and wherein the filter medium also comprises a strengthening layer of material for providing mechanical strength to the filter medium , wherein the filter medium also comprises an adhesive layer, whereby the filter medium allows air flow therethrough but is substantially impermeable to liquid while maintaining a barrier to particles of microbial size, characterised in that the adhesive layer is formed from a plurality of dots of adhesive applied to the strengthening layer ;.
A method at a wireless terminal providing communication of Network Access Stratum, NAS, messages with a network node of a wireless communication network, the method comprising: communicating a first NAS message between the wireless terminal and the network node over a first NAS connection, wherein communicating the first NAS message comprises performing integrity protection for the first NAS message using a first NAS connection identification; and performing the integrity protection for the first NAS message by generating a first message authentication code based on the first NAS connection identification, a master key of a NAS security context, and the first NAS message, and transmitting the first NAS message with the first message authentication code over the first NAS connection to the network node; communicating a second NAS message between the wireless terminal and the network node over a second NAS connection, wherein communicating the second NAS message comprises performing integrity protection for the second NAS message using a second NAS connection identification, wherein the first and second NAS connections are different and share the master key, and performing the integrity protection for the second NAS message by generating a second message authentication code based on the second NAS connection identification, the master key, and the second NAS message, and transmitting the second NAS message with the second message authentication code over the second NAS connection to the network node. communicating a first NAS message between the wireless terminal and the network node over a first NAS connection, wherein communicating the first NAS message comprises performing integrity protection for the first NAS message using a first NAS connection identification; and performing the integrity protection for the first NAS message by generating a first message authentication code based on the first NAS connection identification, a master key of a NAS security context, and the first NAS message, and transmitting the first NAS message with the first message authentication code over the first NAS connection to the network node; communicating a second NAS message between the wireless terminal and the network node over a second NAS connection, wherein communicating the second NAS message comprises performing integrity protection for the second NAS message using a second NAS connection identification, wherein the first and second NAS connections are different and share the master key, and performing the integrity protection for the second NAS message by generating a second message authentication code based on the second NAS connection identification, the master key, and the second NAS message, and transmitting the second NAS message with the second message authentication code over the second NAS connection to the network node.
A DNase variant, comprising one or more substitutions selected from the group consisting of N4E, L17E, T19A, T19G, T19I, K36P, Q38P, S39V, S39R, A40P, A40H, L41T, L41H, V45H, L51G, K53T, K53P, G54P, A55P, E64A, E64Q, E64R, E64T, E64I, E64S, T66H, K67A, K67T, N68V, N68P, N68I, N68H, S69A, S69D, S69E, S69K, S69L, S69W, S69Y, S69Q, N70T, N70H, N70G, R71T, D72E, S74H, S74G, G75I, N77T, K82P, K82I, D83T, D83P, D83I, D83H, D83G, P84H, Q85T, Q85P, Q85H, K86T, K86P, K86H, G88P, G88H, A91P, W99T, A101W, K105E, K105N, K105T, K105D, S106T, S115T, L116I, Q135L, G136L, V138I, V138L, V138P, V138Q, L139A, N140R, N140L, N140A, G141L, F151R, D152Y, D152L, D152I, D152A, P153E, S154R, T162R, W163E, F164R, I166Y, I166R, K168N, F169R, F169E, A173I, A173R, A173T, S182R, N183E, D184I, K185Y, S186I, D189G, D189H, K212G, K212P and K215I, wherein the positions correspond to the positions of SEQ ID NO: 1, wherein the variant has a sequence identity to the mature polypeptide of SEQ ID NO: 1 of at least 80%, wherein the variant has DNase activity and wherein the variant has improved detergent stability as compared to the polypeptide of SEQ ID NO: 1.
A dental curable composition comprising: fluoroaluminosilicate glass particles (A), basic calcium phosphate particles (B1), acidic calcium phosphate particles (B2), a polyalkenic acid (C), tartaric acid (D), and water (E), wherein the tartaric acid (D) is L-tartaric acid, and the dental curable composition comprises 70 to 99 parts by weight of the fluoroaluminosilicate glass particles (A), 1 to 30 parts by weight in total of the basic calcium phosphate particles (B1) and the acidic calcium phosphate particles (B2), 10 to 40 parts by weight of the polyalkenic acid (C), 0.3 to 10 parts by weight of the tartaric acid (D), and 10 to 90 parts by weight of the water (E) each relative to 100 parts by weight in total of the fluoroaluminosilicate glass particles (A), the basic calcium phosphate particles (B1), and the acidic calcium phosphate particles (B2), and a Ca/P ratio of a sum of the basic calcium phosphate particles (B1) and the acidic calcium phosphate particles (B2) is from 1.10 to 1.95. fluoroaluminosilicate glass particles (A), basic calcium phosphate particles (B1), acidic calcium phosphate particles (B2), a polyalkenic acid (C), tartaric acid (D), and water (E), wherein the tartaric acid (D) is L-tartaric acid, and the dental curable composition comprises 70 to 99 parts by weight of the fluoroaluminosilicate glass particles (A), 1 to 30 parts by weight in total of the basic calcium phosphate particles (B1) and the acidic calcium phosphate particles (B2), 10 to 40 parts by weight of the polyalkenic acid (C), 0.3 to 10 parts by weight of the tartaric acid (D), and 10 to 90 parts by weight of the water (E) each relative to 100 parts by weight in total of the fluoroaluminosilicate glass particles (A), the basic calcium phosphate particles (B1), and the acidic calcium phosphate particles (B2), and a Ca/P ratio of a sum of the basic calcium phosphate particles (B1) and the acidic calcium phosphate particles (B2) is from 1.10 to 1.95.