mhurhangee/patent-ind-claim-en huggingface dataset:
A slot die , which includes a feed unit for introducing a coating materia, a chamber for accommodating a coating material supplied through the feed unit , a slit communicating with the chamber to discharge the coating material, a die body having die lips which form the slit , and a shim plate to be inserted into and fixed to the die body to support the chamber , wherein the shim plate has an inner width corresponding to the width of the inner space of the chamber block , wherein the chamber includes a chamber block which has an inner space for accommodating the coating material and is configured so that the entire block is exchangeable with respect to the die body , and wherein a coating width is determined by a width of the inner space of the chamber block , wherein the chamber block is a member provided separately from the die body , and the chamber block is disposed to be accommodated in the die body , characterized in that chamber blocks whose inner spaces have different widths are provided for different coating widths, and the different chamber blocks have the same outer width, and wherein the coating width is adjustable by exchanging the chamber block .
Trailer intended to be towed in a route train, the trailer comprising a towing drawbar for connection to a towing vehicle or trailer and a trailer hitch for receiving a towing drawbar of a towed trailer, the trailer having a control system communicating with a control system of the towing vehicle or trailer via a data exchange protocol and also communicating with a control system of a towed trailer for data exchange, if a towed trailer is present, wherein the control system has two interfaces, a first interface of which is configured as a slave and a second interface of which is configured as a master, characterized in that , in response to a brake signal, the control system actuates a brake of the trailer, wherein the control system initiates the braking process depending on the position of the trailer stored in the control system.
An arrangement intended to be mounted at a vehicle intended for forestry, comprising a load-bearing part and driving wheels , where the arrangement comprises at least two extra wheels that can be individually controlled in the vertical direction and that are mounted at the vehicle in order to distribute the weight of the vehicle, the gross weight of the vehicle including its payload weight, over more areas of the support , the ground, and in this way improve the distribution of weight and reduce the pressure exerted against the support, the ground, characterised in that each of the individually controlled extra wheels comprises a pair of wheels and is subject to a driving force.
A method of extracting oil from a whole stillage or beer, wherein the method comprises: (a) providing a whole stillage or beer; (b) separating the whole stillage or beer into a first liquid fraction and a first solids fraction, wherein the first solids fraction has a total solids content in a range from 15 to less than 35% (wt/wt) based on the total weight of the first solids fraction; (c) applying pressure to the first solids fraction to separate the first solids fraction into a second liquid fraction and a second solids fraction and to move oil into the second liquid fraction; and (d) recovering or separating oil from the second liquid fraction. (a) providing a whole stillage or beer; (b) separating the whole stillage or beer into a first liquid fraction and a first solids fraction, wherein the first solids fraction has a total solids content in a range from 15 to less than 35% (wt/wt) based on the total weight of the first solids fraction; (c) applying pressure to the first solids fraction to separate the first solids fraction into a second liquid fraction and a second solids fraction and to move oil into the second liquid fraction; and (d) recovering or separating oil from the second liquid fraction.
A system comprising: a conveyor ; a first developer unit to: - concentrate first printing liquid, and - deliver the concentrated first printing liquid to the conveyor as a first layer of printing liquid; a second developer unit to: - concentrate second printing liquid, and - deliver the concentrated second printing liquid to the conveyor as a second layer of printing liquid; and a squeegee unit between the first developer unit and the second developer unit , the squeegee unit to apply mechanical and electrical forces to the first layer of printing liquid on the conveyor to further concentrate the first layer of printing liquid. a conveyor ; a first developer unit to: - concentrate first printing liquid, and - deliver the concentrated first printing liquid to the conveyor as a first layer of printing liquid; - concentrate first printing liquid, and - deliver the concentrated first printing liquid to the conveyor as a first layer of printing liquid; a second developer unit to: - concentrate second printing liquid, and - deliver the concentrated second printing liquid to the conveyor as a second layer of printing liquid; and - concentrate second printing liquid, and - deliver the concentrated second printing liquid to the conveyor as a second layer of printing liquid; and a squeegee unit between the first developer unit and the second developer unit , the squeegee unit to apply mechanical and electrical forces to the first layer of printing liquid on the conveyor to further concentrate the first layer of printing liquid.
A device for sealing of a circumferentially closed canal , comprising a laser, a light guide connected to the laser and conducting a laser beam, and a closure element secured to a free end of the light guide, wherein the closure element is connected to the free end of the light guide by means of a connection material , characterized in that the enclosure element comprises an expandable material; and the material of the closure element expands at temperatures lower than the melting temperature of the connection material.
Injection nozzle for injecting a reducing agent into the exhaust gas flow of an internal combustion engine for selective catalytic reduction, wherein the injection nozzle 100) includes an outer nozzle jacket , an inner body arranged in the nozzle jacket and a nozzle head having at least one outlet opening , wherein the nozzle jacket has a reduction agent inlet and between the nozzle jacket and the inner body is formed at least one flow channel running from the reduction agent inlet to the nozzle head , wherein the injection nozzle has at least one heating element, characterised in that the flow channel is formed at least partially by a thread, in particular a single thread or multiple thread, around the inner body from the reduction agent inlet of the nozzle head , wherein the flow channel is formed by several portions, connected to one another in axial direction of the extension of the inner body , of screw lines of different thread pitches running around the inner body .
A method comprising: determining , by a control system , one or more operational parameters of a motor for a winch disposed in an aerial vehicle , wherein the winch comprises a tether and a spool ; detecting , by the control system, in the one or more operational parameters of the motor, an operational pattern of the motor that is indicative of a particular user-interaction with the tether, wherein the particular user-interaction with the tether involves a user applying an external force to the tether; based on the detected operational pattern of the motor that is indicative of the particular user-interaction with the tether, determining , by the control system, a motor response process; and operating , by the control system, the motor in accordance with the determined motor response process. determining , by a control system , one or more operational parameters of a motor for a winch disposed in an aerial vehicle , wherein the winch comprises a tether and a spool ; detecting , by the control system, in the one or more operational parameters of the motor, an operational pattern of the motor that is indicative of a particular user-interaction with the tether, wherein the particular user-interaction with the tether involves a user applying an external force to the tether; based on the detected operational pattern of the motor that is indicative of the particular user-interaction with the tether, determining , by the control system, a motor response process; and operating , by the control system, the motor in accordance with the determined motor response process.
A method of coating a glass fiber textile comprising the following steps: - Preparing an aqueous coating composition comprising (a) 50 to 95 % by weight, with respect to the total weight of (a) and (b), of a synthetic polymer, dissolved or dispersed in the aqueous coating composition, selected from the group consisting of styrene-butadiene rubber latex and acrylic polymer latex and (b) 5 to 50 % by weight, with respect to the total weight of (a) and (b), of a dextrin exhibiting a weight-average molecular weight ranging from 250 000 to 2 000 000 Da and a solubility, measured according to a test A, ranging from 50 to 85 %, - Applying said aqueous coating composition to a glass fiber textile, thereby obtaining a wet-coated glass fiber textile, - Submitting the wet-coated glass fiber textile to a step of drying and/or curing thereby obtaining a glass fiber textile coated with a water-insoluble polymer coating. - Preparing an aqueous coating composition comprising (a) 50 to 95 % by weight, with respect to the total weight of (a) and (b), of a synthetic polymer, dissolved or dispersed in the aqueous coating composition, selected from the group consisting of styrene-butadiene rubber latex and acrylic polymer latex and (b) 5 to 50 % by weight, with respect to the total weight of (a) and (b), of a dextrin exhibiting a weight-average molecular weight ranging from 250 000 to 2 000 000 Da and a solubility, measured according to a test A, ranging from 50 to 85 %, (a) 50 to 95 % by weight, with respect to the total weight of (a) and (b), of a synthetic polymer, dissolved or dispersed in the aqueous coating composition, selected from the group consisting of styrene-butadiene rubber latex and acrylic polymer latex and (b) 5 to 50 % by weight, with respect to the total weight of (a) and (b), of a dextrin exhibiting a weight-average molecular weight ranging from 250 000 to 2 000 000 Da and a solubility, measured according to a test A, ranging from 50 to 85 %, - Applying said aqueous coating composition to a glass fiber textile, thereby obtaining a wet-coated glass fiber textile, - Submitting the wet-coated glass fiber textile to a step of drying and/or curing thereby obtaining a glass fiber textile coated with a water-insoluble polymer coating.
A computer-implemented method for ranking multiple computer modules to reduce failure impacts of failing computer modules, the method comprising: associating the multiple computer modules with multiple services that rely on the multiple computer modules , at least one of the multiple services relying on more than one of the multiple computer modules , wherein said services and computer modules are arranged to control a technical system ; determining numerical values of the multiple services that represent criticality of the respective services at different time periods of the service schedule; ranking the multiple computer modules based on the numerical values of the multiple services which rely on the respective computer modules, wherein said ranking is dynamically determined as the service criticality changes due to service transitions from one time period to another time period of its schedule; operating the computer modules according to the result of the ranking by dynamically adjusting the monitoring frequency of computer modules according to the result of the ranking. associating the multiple computer modules with multiple services that rely on the multiple computer modules , at least one of the multiple services relying on more than one of the multiple computer modules , wherein said services and computer modules are arranged to control a technical system ; determining numerical values of the multiple services that represent criticality of the respective services at different time periods of the service schedule; ranking the multiple computer modules based on the numerical values of the multiple services which rely on the respective computer modules, wherein said ranking is dynamically determined as the service criticality changes due to service transitions from one time period to another time period of its schedule; operating the computer modules according to the result of the ranking by dynamically adjusting the monitoring frequency of computer modules according to the result of the ranking.
A method of obtaining boron carbide nanoparticles by direct synthesis process from boron and carbon powders, which are heated at the temperature of 1400-1700°C and next comminuted characterized in that in a graphite crucible, on a graphite pad, the following are placed successively: a layer of amorphous boron powder, and next a layer of carbon in the form of amorphous carbon black, wherein a ratio of amorphous boron to amorphous carbon black is 4:1 by weight, and all of it is heated for 10 minutes to 4 hours, after which from the obtained bed of the product in the form of three clearly distinguishable layers, the top two layers are poured down and undergo recycling and/or are returned as a raw material to the re-synthesis of boron carbide, and the layer at the lowest, near the bottom of the crucible, distinguished by its light gray colour and showing the greatest compactness and hardness, is subjected to intensive milling using steel elements in an isopropanol environment for a period of 6 to 24 hours, and next is subjected to chemical etching to wash out impurities in the form of iron ions derived from milling , using successively: concentrated HCl, next concentrated HNO 3 and again concentrated HCl, after which the obtained powder is subjected to repeated washing out using distilled water until achieving pH of the suspension from 6.5 to 7.5, and in final step, the suspension is subjected to intensive centrifugation at a speed of 5000 to 12000 rpm, with a centrifugation time from 5 minutes to 4 hours, achieving rounded off grains of boron carbide from 50 to 200 nm in size.
A magnetometer system for medical use, comprising: one or more induction coils , each induction coil of the one or more induction coils having: a maximum outer diameter (D) of 4 to 7 cm, and a configuration such that the ratio of the coil's length (I) to its outer diameter (D) is in the range 0.5:1 to 0.8:1, and the ratio of the coil's inner diameter (Di) to its outer diameter (D) is in the range 0.3:1 to 0.5:1; the magnetometer system further comprising a detection circuit coupled to each induction coil of the one or more induction coils and configured to convert a current or voltage generated in each induction coil of the one or more induction coils by a time varying magnetic field to an output signal for use to analyse the time varying magnetic field. a maximum outer diameter (D) of 4 to 7 cm, and a configuration such that the ratio of the coil's length (I) to its outer diameter (D) is in the range 0.5:1 to 0.8:1, and the ratio of the coil's inner diameter (Di) to its outer diameter (D) is in the range 0.3:1 to 0.5:1; the magnetometer system further comprising a detection circuit coupled to each induction coil of the one or more induction coils and configured to convert a current or voltage generated in each induction coil of the one or more induction coils by a time varying magnetic field to an output signal for use to analyse the time varying magnetic field.
An automatic door for a domestic appliance , in particular an automatic oven door for a cooking oven , wherein: - the door comprises at least one door handle for manually opening and/or closing said door , and - the door comprises at least one switch element for automatically opening and/or closing said door , wherein - the door comprises at least one door sensor for detecting the opening angle and/or the opening and closing speed of said door , characterised in that the door handle is elongated and arranged horizontally or vertically in the front of the door , and in that the switch element and the door sensor are arranged serially along the elongated door handle . - the door comprises at least one door handle for manually opening and/or closing said door , and - the door comprises at least one switch element for automatically opening and/or closing said door , wherein - the door comprises at least one door sensor for detecting the opening angle and/or the opening and closing speed of said door ,
A method performed by a wireless communication device for reducing handover delay, wherein the wireless communication device is arranged to operate in a cellular communication system and to operate in a cell using unlicensed spectrum, the method comprising receiving a downlink, DL, signal from a first network node operating a neighbouring cell operating in the unlicensed spectrum, wherein the DL signal comprises a discovery reference signal, DRS, subframe; receiving a handover command from a second network node operating a serving cell where the neighbouring cell is a target cell; and performing a random access procedure for handover to the target cell, wherein the performing of the random access procedure is performed directly after the reception of the handover command based on data associated with the DRS subframe without trying to receive any further periodically provided target cell DRS. receiving a downlink, DL, signal from a first network node operating a neighbouring cell operating in the unlicensed spectrum, wherein the DL signal comprises a discovery reference signal, DRS, subframe; receiving a handover command from a second network node operating a serving cell where the neighbouring cell is a target cell; and performing a random access procedure for handover to the target cell, wherein the performing of the random access procedure is performed directly after the reception of the handover command based on data associated with the DRS subframe without trying to receive any further periodically provided target cell DRS.
A computer-implemented security method comprising the step of: generating an elliptic curve digital signature algorithm signature comprising a first signature component, r, and a second signature component, w, the generation step comprising: forming, by a node, a signing group with other nodes; obtaining , by the node, based on a secure random number: a) a multiplicative inverse of the secure random number; and b) the first signature component, r, wherein the first signature component is determined based on the secure random number and an elliptic curve generator point; determining , by the node, a partial signature based on a private secret share, the multiplicative inverse of the secure random number and the first signature component, wherein the partial signature is determined within an enclave associated with a trusted execution environment of the node; receiving , by the node, partial signatures from other nodes of the signing group; and generating , by the node, the second signature component, w, based on determined and received partial signatures. forming, by a node, a signing group with other nodes; obtaining , by the node, based on a secure random number: a) a multiplicative inverse of the secure random number; and b) the first signature component, r, wherein the first signature component is determined based on the secure random number and an elliptic curve generator point; determining , by the node, a partial signature based on a private secret share, the multiplicative inverse of the secure random number and the first signature component, wherein the partial signature is determined within an enclave associated with a trusted execution environment of the node; receiving , by the node, partial signatures from other nodes of the signing group; and generating , by the node, the second signature component, w, based on determined and received partial signatures.
A method for wireless communication performed by a user equipment, UE , the method comprising: receiving a master information block, MIB, from a cell, the MIB including a cell barred information element, IE; receiving a system information block type 1, SIB1, from the cell, the SIB1 including a first non-public network, NPN, identity, ID, a second NPN ID, a first cell reserved for operator use IE associated with the first NPN ID, a second cell reserved for operator use IE associated with the second NPN ID, and a cell reserved for other use IE; and determining whether to treat the cell as a barred cell or a candidate cell for cell selection or cell reselection procedures based on the cell barred IE, the first cell reserved for operator use IE, and the cell reserved for other use IE, wherein the UE treats the cell as the candidate cell for cell selection or cell reselection procedures when the cell barred IE is "not barred", the cell reserved for other use IE is not "true", the first cell reserved for operator use IE is "reserved", the first NPN ID matches a registered stand-alone NPN, SNPN, ID of the UE, and an access ID of the UE is 11 or 15. receiving a master information block, MIB, from a cell, the MIB including a cell barred information element, IE; receiving a system information block type 1, SIB1, from the cell, the SIB1 including a first non-public network, NPN, identity, ID, a second NPN ID, a first cell reserved for operator use IE associated with the first NPN ID, a second cell reserved for operator use IE associated with the second NPN ID, and a cell reserved for other use IE; and determining whether to treat the cell as a barred cell or a candidate cell for cell selection or cell reselection procedures based on the cell barred IE, the first cell reserved for operator use IE, and the cell reserved for other use IE, wherein the UE treats the cell as the candidate cell for cell selection or cell reselection procedures when the cell barred IE is "not barred", the cell reserved for other use IE is not "true", the first cell reserved for operator use IE is "reserved", the first NPN ID matches a registered stand-alone NPN, SNPN, ID of the UE, and an access ID of the UE is 11 or 15.