mhurhangee/ep-ind-claims huggingface dataset:
A pulverizer for pulverizing a pulp sheet, comprising: a casing into which the pulp sheet is introduced; and a rotary blade including a plurality of cutter plates accommodated in the casing, and a rotary shaft fixed to the cutter plates in a state that the rotary shaft passes through the cutter plates in a thickness direction of the cutter plates, wherein the cutter plates are disposed away from each other at an interval in an axial direction of the rotary shaft, each of the cutter plates includes a plurality of pulverizing blades aligned circumferentially along an outer periphery edge of the cutter plate, all the cutter plates are fixed to the rotary shaft in a state that all the cutter plates are inclined with respect to a direction orthogonal to the rotary shaft and disposed in parallel to each other, a tilt angle of a specific one of the cutter plates with respect to the rotary shaft is set in such a manner that a pulverizing range by which the pulverizing blades of the specific cutter plate are axially displaced when the rotary shaft makes one turn and a pulverizing range of the cutter plate adjacent to the specific cutter plate overlap each other, and the pulverizing blades of the respective two adjacent cutter plates of the cutter plates are disposed at positions away from each other circumferentially of the rotary shaft. a casing into which the pulp sheet is introduced; and a rotary blade including a plurality of cutter plates accommodated in the casing, and a rotary shaft fixed to the cutter plates in a state that the rotary shaft passes through the cutter plates in a thickness direction of the cutter plates, wherein the cutter plates are disposed away from each other at an interval in an axial direction of the rotary shaft, each of the cutter plates includes a plurality of pulverizing blades aligned circumferentially along an outer periphery edge of the cutter plate, all the cutter plates are fixed to the rotary shaft in a state that all the cutter plates are inclined with respect to a direction orthogonal to the rotary shaft and disposed in parallel to each other, a tilt angle of a specific one of the cutter plates with respect to the rotary shaft is set in such a manner that a pulverizing range by which the pulverizing blades of the specific cutter plate are axially displaced when the rotary shaft makes one turn and a pulverizing range of the cutter plate adjacent to the specific cutter plate overlap each other, and the pulverizing blades of the respective two adjacent cutter plates of the cutter plates are disposed at positions away from each other circumferentially of the rotary shaft.
Tooth for attaching to an excavator bucket of a bucket-wheel excavator, the tooth being formed partly from a metal matrix composite material and the metal matrix composite material having an insert of a hard material cast into a metal matrix material, the insert at least partially forming the surface of the tooth, characterised in that the insert of the metal matrix composite material is arranged at least in the region of the tooth head and encloses this tooth head in the region of at least two outer faces (26, 30), wherein the insert is in the form of a shell and the at least two outer faces comprise two lateral cutting faces or two lateral cutting faces and a central ripping face.
A method for generating a certificate, comprising the following steps: - sending a transaction request for a user, to whom an ID token is assigned, to carry out a transaction, - on account of the sending of the transaction request, checking whether a certificate suitable for the requested transaction is available for user signing of data, of which the signing is necessary to carry out the transaction requested in the transaction request, and, if this is not the case, executing the following steps: • generating an asymmetric key pair consisting of a private key and a public key by means of an ID token, • storing the generated asymmetric key pair on the ID token, wherein at least the private key is stored in a protected memory area of the ID token, • transmitting (208; 509) the generated public key to a first computer system, and • generating the certificate by means of the first computer system for the public key, wherein the certificate is a transaction-linked certificate, the validity of which is limited to the requested transaction, and wherein the certificate is assigned to the user. - sending a transaction request for a user, to whom an ID token is assigned, to carry out a transaction, - on account of the sending of the transaction request, checking whether a certificate suitable for the requested transaction is available for user signing of data, of which the signing is necessary to carry out the transaction requested in the transaction request, and, if this is not the case, executing the following steps: • generating an asymmetric key pair consisting of a private key and a public key by means of an ID token, • storing the generated asymmetric key pair on the ID token, wherein at least the private key is stored in a protected memory area of the ID token, • transmitting (208; 509) the generated public key to a first computer system, and • generating the certificate by means of the first computer system for the public key, wherein the certificate is a transaction-linked certificate, the validity of which is limited to the requested transaction, and wherein the certificate is assigned to the user. • generating an asymmetric key pair consisting of a private key and a public key by means of an ID token, • storing the generated asymmetric key pair on the ID token, wherein at least the private key is stored in a protected memory area of the ID token, • transmitting (208; 509) the generated public key to a first computer system, and • generating the certificate by means of the first computer system for the public key, wherein the certificate is a transaction-linked certificate, the validity of which is limited to the requested transaction, and wherein the certificate is assigned to the user.
A visualization apparatus for visualizing a quality of applying energy to an object, wherein the visualization apparatus is adapted to visualize the quality of applying energy at a location on the object based on a provided image of the object and a provided quality value representing the quality of applying energy to the object at the location on the object, wherein the quality value is a depth value being indicative of the depth to which the applied energy has altered the object at the location, wherein the visualization apparatus comprises: - a visual property assigning unit for assigning a visual property to the location depending on the quality value, and - a display for displaying the provided image and the assigned visual property at the location on the provided image, characterized in that the depth value is provided with respect to a thickness of a wall of the object to which the energy is applied, wherein the visualization apparatus further comprises a transmural region calculation unit for calculating a transmural region (16, 17) of the object based on the provided depth value and wherein the display is adapted to show the calculated transmural region (16, 17) on the image of object, wherein the transmural region calculation unit is adapted to calculate the transmural region (16, 17) by using several depth values, which are provided for several locations, and by using the locations for which the several depth values have been provided. - a visual property assigning unit for assigning a visual property to the location depending on the quality value, and - a display for displaying the provided image and the assigned visual property at the location on the provided image, characterized in that the depth value is provided with respect to a thickness of a wall of the object to which the energy is applied, wherein the visualization apparatus further comprises a transmural region calculation unit for calculating a transmural region (16, 17) of the object based on the provided depth value and wherein the display is adapted to show the calculated transmural region (16, 17) on the image of object, wherein the transmural region calculation unit is adapted to calculate the transmural region (16, 17) by using several depth values, which are provided for several locations, and by using the locations for which the several depth values have been provided.
A wireless communications apparatus for providing notifications associated with newly established connections to a primary base station, comprising: means for providing a first connection to a first base station; means for obtaining a signal emanating from a second base station; means for deriving at least a partial identifier related to the second base station from the received signal emanating from the second base station; means for establishing a second connection to the second base station; and means for transmitting a notification to the first base station indicating establishment of the second connection and including the at least partial identifier related to the second base station. means for providing a first connection to a first base station; means for obtaining a signal emanating from a second base station; means for deriving at least a partial identifier related to the second base station from the received signal emanating from the second base station; means for establishing a second connection to the second base station; and means for transmitting a notification to the first base station indicating establishment of the second connection and including the at least partial identifier related to the second base station.
A system for lubricating an aeronautical engine and a reduction gearbox associated with the aeronautical engine, the system comprising a lubricating oil reservoir feeding at least a first oil supply pump supplying a first lubrication circuit of the reduction gearbox opening into at least one lubrication enclosure of the reduction gearbox and in parallel a second lubrication circuit of the aeronautical engine opening into lubrication enclosures of the aeronautical engine, recirculation pumps at the exit of the aeronautical engine and of the reduction gearbox returning the oil to the oil reservoir, characterized in that the second circuit comprises a variable-section jet pump supplied at least by said at least one first supply pump bypassing the first circuit, a second driven supply pump being integrated into the second circuit downstream of the variable-section jet pump, a part of a flow rate (Qp) in the first circuit being collected by the variable-section jet pump to supply the second circuit.
Apparatus for calibrating a microwave applicator for treating tissue, comprising the following features: a controller for controlling calibration signals which are to be applied to the microwave applicator for calibration; a device for identifying an environment (51, 52, 350) of at least part of the microwave applicator; characterized by: an evaluation unit which is designed, upon application of the calibration signals, to determine associated reflection signals (Γ n) from the environment (51, 52, 350) of the microwave applicator, and to calibrate the microwave applicator based on measurements at at least two predetermined environments with known permittivities ( ε n) and based on a measurement in a healthy tissue environment, the measurement at the healthy tissue being automatically performed upon identification by the device. a controller for controlling calibration signals which are to be applied to the microwave applicator for calibration; a device for identifying an environment (51, 52, 350) of at least part of the microwave applicator; characterized by: an evaluation unit which is designed, upon application of the calibration signals, to determine associated reflection signals (Γ n) from the environment (51, 52, 350) of the microwave applicator, and to calibrate the microwave applicator based on measurements at at least two predetermined environments with known permittivities ( ε n) and based on a measurement in a healthy tissue environment, the measurement at the healthy tissue being automatically performed upon identification by the device.
Method of processing kieserite-containing, ground, crude potash salts to produce a crude kieserite fraction and a crude potash fraction by way of a one-stage or multistage separation process characterized by a) the ground crude potash salt being intensively mixed with a conditioner containing a combination of an aromatic carboxylic acid or its derivatives, an ammonium salt of an aromatic carboxylic acid and an unbranched fatty alcohol with a C 10 to C 15 chain length, and b) subsequently triboelectrically charged at 1-10 % relative humidity and separated into a crude kieserite fraction and a crude potash fraction by means of an electrostatic separation process. a) the ground crude potash salt being intensively mixed with a conditioner containing a combination of an aromatic carboxylic acid or its derivatives, an ammonium salt of an aromatic carboxylic acid and an unbranched fatty alcohol with a C 10 to C 15 chain length, and b) subsequently triboelectrically charged at 1-10 % relative humidity and separated into a crude kieserite fraction and a crude potash fraction by means of an electrostatic separation process.
A filling method comprising steps of: (a) inserting an expansion material into an inside of an outer cover material having elasticity; (b) compressing the expansion material by evacuating the outer cover material; (c) forming a filling material by blocking a nozzle provided at one side of the outer cover material through using a stopper and maintaining the inside of the outer cover material to be vacuous; (d) inserting the filling material between members of a building or a structure; and (e) filling a gap between the members of the building or the structure with the filling material by opening the stopper to flow air through the nozzle and expanding the expansion material through the air. (a) inserting an expansion material into an inside of an outer cover material having elasticity; (b) compressing the expansion material by evacuating the outer cover material; (c) forming a filling material by blocking a nozzle provided at one side of the outer cover material through using a stopper and maintaining the inside of the outer cover material to be vacuous; (d) inserting the filling material between members of a building or a structure; and (e) filling a gap between the members of the building or the structure with the filling material by opening the stopper to flow air through the nozzle and expanding the expansion material through the air.
A method of manufacturing a stainless steel pipe for oil wells of claim 5 comprising: the step of hot working to prepare a hollow shell having a chemical composition of, in mass %: up to 0.05 % C; 0.05 to 1.0 % Si; 0.01 to 1.0 % Mn; up to 0.05 % P; below 0.002 % S; 0.001 to 0.1 % Al; 16.0 to 18.0 % Cr; 3.0 to 5.5 % Ni; 1.8 to 3.0 % Mo; 1.0 to 3.5 % Cu; up to 0.05 % N; up to 0.05 % O; 0 to 0.3 % Ti; 0 to 0.3 % Nb; 0 to 0.3 % V; 0 to 2.0 % W; 0 to 0.01 % Ca; 0 to 0.01 % B; and the balance Fe and impurities, and cooling after hot working to a temperature not higher than the Ms point to form a metal structure including martensite; a first step for holding the hollow shell in a temperature range of 420 to 460 °C for a holding time of 60 to 180 minutes; and a second step, after the first step, for holding the hollow shell in a temperature range of 550 to 600 °C for a holding time of 60 to 300 minutes. the step of hot working to prepare a hollow shell having a chemical composition of, in mass %: up to 0.05 % C; 0.05 to 1.0 % Si; 0.01 to 1.0 % Mn; up to 0.05 % P; below 0.002 % S; 0.001 to 0.1 % Al; 16.0 to 18.0 % Cr; 3.0 to 5.5 % Ni; 1.8 to 3.0 % Mo; 1.0 to 3.5 % Cu; up to 0.05 % N; up to 0.05 % O; 0 to 0.3 % Ti; 0 to 0.3 % Nb; 0 to 0.3 % V; 0 to 2.0 % W; 0 to 0.01 % Ca; 0 to 0.01 % B; and the balance Fe and impurities, and cooling after hot working to a temperature not higher than the Ms point to form a metal structure including martensite; a first step for holding the hollow shell in a temperature range of 420 to 460 °C for a holding time of 60 to 180 minutes; and a second step, after the first step, for holding the hollow shell in a temperature range of 550 to 600 °C for a holding time of 60 to 300 minutes.
An aircraft, comprising: an aircraft body, the aircraft body including one or more exterior surfaces; and a projector secured to a component of the aircraft, the projector configured to selectably project one or more images on the one or more exterior surfaces; and characterised by further comprising a controller operably connected to the projector via a wireless connection to selectably command projection of the one or more images on the one or more exterior surfaces; wherein the component is a landing gear strut of the aircraft; and the controller is configured, such that operation of the projector is tied to operation of the landing gear strut such that when the landing gear strut is in an extended position the projector is automatically activated by the controller, thereby projecting the one or more images, and when the landing gear strut is moved to a retracted position the projector is automatically deactivated thereby not projecting the one or more images. an aircraft body, the aircraft body including one or more exterior surfaces; and a projector secured to a component of the aircraft, the projector configured to selectably project one or more images on the one or more exterior surfaces; and characterised by further comprising a controller operably connected to the projector via a wireless connection to selectably command projection of the one or more images on the one or more exterior surfaces; wherein the component is a landing gear strut of the aircraft; and the controller is configured, such that operation of the projector is tied to operation of the landing gear strut such that when the landing gear strut is in an extended position the projector is automatically activated by the controller, thereby projecting the one or more images, and when the landing gear strut is moved to a retracted position the projector is automatically deactivated thereby not projecting the one or more images.
A method for producing an ethylene-vinyl ester copolymer by copolymerizing a vinyl ester monomer and ethylene, wherein the vinyl ester monomer is stored and/or transported in a state of an oxygen concentration of 2 to 8 ppm and subsequently is used for the polymerization with adjusting the oxygen concentration to less than 2 ppm.
A method of making, a thermally treated aerogel comprising polyamic amide, the method comprising: (a) providing at least one diamine compound to a solvent to form a solution; (b) providing at least one dianhydride compound to the solution of step (a) under conditions sufficient to form a polyamic acid solution; (c) providing a secondary amine to the polyamic acid solution; (d) subjecting the solution of step (c) to conditions suitable to produce a polymer matrix solution comprising a polyamic amide; (e) subjecting the polymer matrix solution to conditions sufficient to form an aerogel comprising an open-cell structured polymer matrix having a polyamic amide; and (f) thermally treating the aerogel in step (e) at a temperature sufficient to lower the amount of the polyamic amide in the aerogel, wherein the conditions comprise heating the aerogel at a temperature of 275 °C to 550 °C under an inert atmosphere, wherein the aerogel in step (e) comprises at least 5 wt. % of the polyamic amide, and wherein the thermally treated aerogel in step (f) comprises less than 5 wt. % of the polyamic amide, preferably 0.01 wt. % up to 4.95 wt. % of the polyamic amide. (a) providing at least one diamine compound to a solvent to form a solution; (b) providing at least one dianhydride compound to the solution of step (a) under conditions sufficient to form a polyamic acid solution; (c) providing a secondary amine to the polyamic acid solution; (d) subjecting the solution of step (c) to conditions suitable to produce a polymer matrix solution comprising a polyamic amide; (e) subjecting the polymer matrix solution to conditions sufficient to form an aerogel comprising an open-cell structured polymer matrix having a polyamic amide; and (f) thermally treating the aerogel in step (e) at a temperature sufficient to lower the amount of the polyamic amide in the aerogel, wherein the conditions comprise heating the aerogel at a temperature of 275 °C to 550 °C under an inert atmosphere, wherein the aerogel in step (e) comprises at least 5 wt. % of the polyamic amide, and wherein the thermally treated aerogel in step (f) comprises less than 5 wt. % of the polyamic amide, preferably 0.01 wt. % up to 4.95 wt. % of the polyamic amide.
A method of transmitting broadcasting signal to a receiver, the method comprising: encoding preamble data; symbol mapping the encoded preamble data into first symbols; building a signal frame including a number N of preamble symbols, each preamble symbol having a bandwidth, wherein the number N is greater than a minimum number of preamble symbols that are required for carrying a layer 1, L1, block including the first symbols, wherein the first symbols are selectively time-interleaved with a time-interleaving depth of N in accordance with L1 TI Mode information, wherein the L1 block is divided into N portions and an L1 header is inserted into each portion, and wherein within each preamble symbol, one of said portions of the L1 block with the inserted L1 header is cyclically repeated to fill said bandwidth; modulating the signal frame by an Orthogonal Frequency Division Multiplexing, OFDM, method; and transmitting the modulated signal frame, wherein the L1 header has the L1 TI Mode information indicating whether to perform time-interleaving on the symbols or not and the time-interleaving depth N, wherein the time-interleaving is performed using two buffers, wherein the time-interleaving is performed by serially writing input cells into interleaving memory in a diagonal direction to one of the two buffers, and serially reading out row-wise the written cells from that buffer, wherein pilot positions are excluded in the time interleaving. encoding preamble data; symbol mapping the encoded preamble data into first symbols; building a signal frame including a number N of preamble symbols, each preamble symbol having a bandwidth, wherein the number N is greater than a minimum number of preamble symbols that are required for carrying a layer 1, L1, block including the first symbols, wherein the first symbols are selectively time-interleaved with a time-interleaving depth of N in accordance with L1 TI Mode information, wherein the L1 block is divided into N portions and an L1 header is inserted into each portion, and wherein within each preamble symbol, one of said portions of the L1 block with the inserted L1 header is cyclically repeated to fill said bandwidth; modulating the signal frame by an Orthogonal Frequency Division Multiplexing, OFDM, method; and transmitting the modulated signal frame, wherein the L1 header has the L1 TI Mode information indicating whether to perform time-interleaving on the symbols or not and the time-interleaving depth N, wherein the time-interleaving is performed using two buffers, wherein the time-interleaving is performed by serially writing input cells into interleaving memory in a diagonal direction to one of the two buffers, and serially reading out row-wise the written cells from that buffer, wherein pilot positions are excluded in the time interleaving.