mhurhangee/ep-ind-claims huggingface dataset:
Bearing arrangement of a machining shaft of a machining device rotating about an axis of rotation 1b) in particular a compacting and/or perforating and/or separating device, for objects to be processed, with 1c) an axially fixed or axially loose shaft bearing 1d) a support plate, at the outside of which the shaft bearing is fixed directly or at a distance, 1e) a splash protection wall arranged at the inside of the support plate and at a distance from the support plate wherein the support plate and the splash protection wall each have a passage (13, 14) for each machining shaft, where 1g) a scraper device with a plate-shaped scraper is arranged within the distance between the support plate and the splash protection wall for scraping off impurities from the scraping section of the machining shaft passing through the distance, characterized in that 1h) the scraper butts with a scraping edge as the front, acute-angled end of a scraper extension against the scraping section of the machining shaft or a shaft part, such as a ring, fixed non-rotatably on the machining shaft. 1b) in particular a compacting and/or perforating and/or separating device, for objects to be processed, with 1c) an axially fixed or axially loose shaft bearing 1d) a support plate, at the outside of which the shaft bearing is fixed directly or at a distance, 1e) a splash protection wall arranged at the inside of the support plate and at a distance from the support plate wherein the support plate and the splash protection wall each have a passage (13, 14) for each machining shaft, where 1g) a scraper device with a plate-shaped scraper is arranged within the distance between the support plate and the splash protection wall for scraping off impurities from the scraping section of the machining shaft passing through the distance, characterized in that 1h) the scraper butts with a scraping edge as the front, acute-angled end of a scraper extension against the scraping section of the machining shaft or a shaft part, such as a ring, fixed non-rotatably on the machining shaft.
A paging method, comprising: receiving, by a second evolved Node B, eNB, from a first eNB a paging message, which is for use in paging a User Equipment, UE, under a Light Connection, LC, State, wherein the paging message is transmitted by the first eNB within a paging area, when the first eNB receives downlink data of the UE under the LC state; and, transmitting, by the second eNB, the paging message within a cell under coverage; wherein the method further includes: establishing, by the second eNB, a Radio Resource Control, RRC, connection to the UE, discarding a paging related Non-Access-Stratum, NAS, message carried by a connection establishment process; and, informing, by the second eNB, the first eNB a message that a connection has been established with the UE. receiving, by a second evolved Node B, eNB, from a first eNB a paging message, which is for use in paging a User Equipment, UE, under a Light Connection, LC, State, wherein the paging message is transmitted by the first eNB within a paging area, when the first eNB receives downlink data of the UE under the LC state; and, transmitting, by the second eNB, the paging message within a cell under coverage; wherein the method further includes: establishing, by the second eNB, a Radio Resource Control, RRC, connection to the UE, discarding a paging related Non-Access-Stratum, NAS, message carried by a connection establishment process; and, informing, by the second eNB, the first eNB a message that a connection has been established with the UE. establishing, by the second eNB, a Radio Resource Control, RRC, connection to the UE, discarding a paging related Non-Access-Stratum, NAS, message carried by a connection establishment process; and, informing, by the second eNB, the first eNB a message that a connection has been established with the UE.
A downhole tool comprising: a mandrel having an exterior surface with at least one pocket (115A, 115B, 115C, 115D, 115E, 115F) formed in the exterior surface; and characterised by: a sleeve having an inner surface and an outer surface, the sleeve being configured to be positioned around the exterior surface of the mandrel to cover the at least one pocket (115A, 115B, 115C, 115D, 115E, 115F), the sleeve having a first portion positioned opposite the at least one pocket (115A, 115B, 115C, 115D, 115E, 115F) and having second and third portions positioned adjacent to the first portion, wherein the second and third portions of the sleeve are configured to contact the exterior surface of the mandrel upon the application of a pressure external of the sleeve; wherein the inner surface of the first portion of the sleeve is a conic section that differs from a curvature of the inner surfaces of the second and third portions, and the first portion of the sleeve is configured to distribute stress towards the second and third portions of the sleeve. a sleeve having an inner surface and an outer surface, the sleeve being configured to be positioned around the exterior surface of the mandrel to cover the at least one pocket (115A, 115B, 115C, 115D, 115E, 115F), the sleeve having a first portion positioned opposite the at least one pocket (115A, 115B, 115C, 115D, 115E, 115F) and having second and third portions positioned adjacent to the first portion, wherein the second and third portions of the sleeve are configured to contact the exterior surface of the mandrel upon the application of a pressure external of the sleeve; wherein the inner surface of the first portion of the sleeve is a conic section that differs from a curvature of the inner surfaces of the second and third portions, and the first portion of the sleeve is configured to distribute stress towards the second and third portions of the sleeve.
A method of receiving, by a terminal, a phase noise compensation reference signal in a wireless communication system, the method comprising: determining, by the terminal, a time location of a demodulation reference signal, DM-RS, that is received from a base station for demodulating downlink data; and receiving, from the base station and based on the determined time location of the DM-RS, the phase noise compensation reference signal on at least one symbol after a symbol of the DM-RS, wherein the phase noise compensation reference signal is received from the base station using at least one antenna port, such that for a first antenna port, the phase noise compensation reference signal is received on a first frequency, and for a second antenna port, the phase noise compensation reference signal is received on a second frequency different from the first frequency, characterized in that, the DM-RS is defined by a DM-RS sequence, and the phase noise compensation reference signal is received on an identical frequency as the DM-RS and the phase noise compensation reference signal is defined by the DM-RS sequence. determining, by the terminal, a time location of a demodulation reference signal, DM-RS, that is received from a base station for demodulating downlink data; and receiving, from the base station and based on the determined time location of the DM-RS, the phase noise compensation reference signal on at least one symbol after a symbol of the DM-RS, wherein the phase noise compensation reference signal is received from the base station using at least one antenna port, such that for a first antenna port, the phase noise compensation reference signal is received on a first frequency, and for a second antenna port, the phase noise compensation reference signal is received on a second frequency different from the first frequency, characterized in that, the DM-RS is defined by a DM-RS sequence, and the phase noise compensation reference signal is received on an identical frequency as the DM-RS and the phase noise compensation reference signal is defined by the DM-RS sequence.
A method comprising: identifying, using data indicative of a degree of muscle tremor from an accelerometer included in a device worn on a user's limb, a deliberate action performed by the user's limb on which the device is worn, that changes a state of the limb in terms of muscle contraction and that indicates to activate ultrasound sensing detecting, by using an ultrasound transducer comprised in the device, an ultrasound event that includes receipt of an ultrasound signal that is transdermally propagated on the body of the user and effected by an on-body touch in an area in which the ultrasound signal has propagated; detecting a mode corresponding to the state of the limb based on the degree of muscle contraction, wherein the state is a contracted state or a relaxed state; and selecting, by the device, an input to control operation of a main device including the device or of another main device to which the input is transmitted, based on the receipt of the ultrasound signal and the mode corresponding to the state of the limb. identifying, using data indicative of a degree of muscle tremor from an accelerometer included in a device worn on a user's limb, a deliberate action performed by the user's limb on which the device is worn, that changes a state of the limb in terms of muscle contraction and that indicates to activate ultrasound sensing detecting, by using an ultrasound transducer comprised in the device, an ultrasound event that includes receipt of an ultrasound signal that is transdermally propagated on the body of the user and effected by an on-body touch in an area in which the ultrasound signal has propagated; detecting a mode corresponding to the state of the limb based on the degree of muscle contraction, wherein the state is a contracted state or a relaxed state; and selecting, by the device, an input to control operation of a main device including the device or of another main device to which the input is transmitted, based on the receipt of the ultrasound signal and the mode corresponding to the state of the limb.
A method for degradation-compensated evaluation of detection signals of a sensor arrangement operating on the principle of luminescence quenching, which sensor arrangement comprises a luminophore that degrades over time, an excitation radiation source, and at least one optical sensor, the luminophore radiating, in accordance with a response characteristic (62, 64, 66, 70, 72, 74) typical of the sensor arrangement, in reaction to irradiation with a predefined modulated excitation radiation and as a function of the extent of an interaction of the luminophore with a quencher substance that quenches the luminescence of the luminophore, a response radiation detected by the at least one optical sensor; the sensor arrangement outputting, as detection signals, a detected intensity value representing an intensity of the response radiation and a detected phase value representing a phase difference of the response radiation with respect to the modulation of the excitation radiation; characterized in that for an accomplished detection of a response radiation, a quantitative deviation of one of the detected values, from among a detected intensity value and detected phase value, being quantitatively decreased in accordance both with the detected intensity value and with the detected phase value, the deviation being based on a degradation-based change in the response characteristic (62, 64, 66, 70, 72, 74) at the time of the accomplished detection, with respect to a reference response characteristic (64, 70, 72, 74) which is a basis of a calibration of the sensor arrangement, a degradation-compensated detected value thus being identified; a result value of the accomplished detection, referred to the quencher substance, being determined on the basis of the degradation-compensated detected value in accordance with a predetermined calibration value correlation identified in consideration of the reference response characteristic (64, 70, 72, 74).
A cooling system, comprising: an evaporator having a fin-and-tube cooling coil, a condenser having a micro-channel cooling coil, a compressor, a sub-cooler having a fin-and-tube cooling coil and an expansion device configured in a direct expansion cooling circuit with the sub-cooler coupled in series between an outlet of the condenser and an inlet of the expansion device, the fin-and tube cooling coil of the evaporator and the micro-channel cooling coil of the condenser configured so that the fin-and-tube cooling coil of the evaporator has a volume that is greater than 2.5 times a volume of the micro-channel cooling coil of the condenser, wherein the fin-and-tube cooling coil of the sub-cooler and the micro-channel cooling coil of the condenser are configured so that the fin-and-tube cooling coil of the sub-cooler holds a majority of a liquid refrigerant charge of the condenser and the micro-channel cooling coil of the condenser holds a remainder of the liquid refrigerant charge and any remaining volume of the micro-channel cooling coil holds a vapor refrigerant charge.
A copolyamide resin comprising a diamine component which comprises two or more diamines and a dicarboxylic acid component, wherein the diamine component comprises 70 mol % or more of a xylylenediamine which comprises 20 mol % or more of p-xylylenediamine and the dicarboxylic acid component comprises 70 mol % or more of a straight-chain aliphatic dicarboxylic acid having 6 to 18 carbon atoms, and the copolyamide resin contains particles having a major diameter of 50 μm or more in an amount of 1000 particles/g or less, the particles comprising a polyamide having a melting point higher than that of the copolyamide resin by 20 °C or more when measured by a differential scanning calorimetry.
A method for wireless communications, comprising: determining contention-based grant information that includes information allocating a subset of system resources for contention-based access; and signaling the contention-based grant information to one or more user devices; characterized in that the method further comprises: measuring a first set of contention-based uplink transmissions received during a first uplink transmission period to generate a power measure, the first set of contention-based uplink transmissions occurring within the subset of system resources allocated for contention-based access; determining a state value based upon the power measure and a background noise measure, wherein the state value is a value that configures how one or more user devices contend for contention-based resources; and signaling the state value to the one or more user devices, wherein the state value is usable by the one or more user devices for a second set of contention-based uplink transmissions in the subset of system resources during a second uplink transmission period. determining contention-based grant information that includes information allocating a subset of system resources for contention-based access; and signaling the contention-based grant information to one or more user devices; characterized in that the method further comprises: measuring a first set of contention-based uplink transmissions received during a first uplink transmission period to generate a power measure, the first set of contention-based uplink transmissions occurring within the subset of system resources allocated for contention-based access; determining a state value based upon the power measure and a background noise measure, wherein the state value is a value that configures how one or more user devices contend for contention-based resources; and signaling the state value to the one or more user devices, wherein the state value is usable by the one or more user devices for a second set of contention-based uplink transmissions in the subset of system resources during a second uplink transmission period. measuring a first set of contention-based uplink transmissions received during a first uplink transmission period to generate a power measure, the first set of contention-based uplink transmissions occurring within the subset of system resources allocated for contention-based access; determining a state value based upon the power measure and a background noise measure, wherein the state value is a value that configures how one or more user devices contend for contention-based resources; and signaling the state value to the one or more user devices, wherein the state value is usable by the one or more user devices for a second set of contention-based uplink transmissions in the subset of system resources during a second uplink transmission period.
A computer-implemented method comprising: receiving a communication from a client device to a RESTful web server, the communication being associated with a plurality of operations that are requested by the client device and to be performed by a web service implemented by the RESTful web server; responsive to said receiving, initiating a distributed agreement protocol with one or more nodes, each node corresponding to a different RESTful web server that implements the same web service; utilizing the distributed agreement protocol to arrive at a consensus regarding the ordering of operations in the plurality of operations that is to be performed, relative to the plurality of operations, among the nodes; and performing the plurality of operations in the agreed-upon order at the RESTFUL web server and the one or more nodes. receiving a communication from a client device to a RESTful web server, the communication being associated with a plurality of operations that are requested by the client device and to be performed by a web service implemented by the RESTful web server; responsive to said receiving, initiating a distributed agreement protocol with one or more nodes, each node corresponding to a different RESTful web server that implements the same web service; utilizing the distributed agreement protocol to arrive at a consensus regarding the ordering of operations in the plurality of operations that is to be performed, relative to the plurality of operations, among the nodes; and performing the plurality of operations in the agreed-upon order at the RESTFUL web server and the one or more nodes.
An anchor node (200, 300, 400, 500) configured for placement in a space having multiple sides and comprising: multiple radio frequency transmitters (210, 215, 305, 310, 315, 405, 410, 525, 530, 535, 540, 545, 550) supported by the multiple sides of the anchor node (200, 300, 400, 500); and multiple radio frequency attenuators (220, 225) supported by the multiple sides of the anchor node (200, 300, 400, 500), each of the multiple radio frequency attenuators (220, 225) paired with a corresponding one of the multiple radio frequency transmitters (210, 215, 305, 310, 315, 405, 410, 525, 530, 535, 540, 545, 550), the multiple radio frequency transmitters (210, 215, 305, 310, 315, 405, 410, 525, 530, 535, 540, 545, 550) in combination with the multiple radio frequency attenuators (220, 225) providing a distinctive signature of transmission within the space, the distinctive signature being receivable by a radio for the determination of a location of the radio within the space. multiple radio frequency transmitters (210, 215, 305, 310, 315, 405, 410, 525, 530, 535, 540, 545, 550) supported by the multiple sides of the anchor node (200, 300, 400, 500); and multiple radio frequency attenuators (220, 225) supported by the multiple sides of the anchor node (200, 300, 400, 500), each of the multiple radio frequency attenuators (220, 225) paired with a corresponding one of the multiple radio frequency transmitters (210, 215, 305, 310, 315, 405, 410, 525, 530, 535, 540, 545, 550), the multiple radio frequency transmitters (210, 215, 305, 310, 315, 405, 410, 525, 530, 535, 540, 545, 550) in combination with the multiple radio frequency attenuators (220, 225) providing a distinctive signature of transmission within the space, the distinctive signature being receivable by a radio for the determination of a location of the radio within the space.
A method for preparing an electrolyte supplement system in an aluminium electrolysis process, wherein said system includes low-molecular-ratio cryolite selected from mKF·AlF 3, nNaF·AlF 3 or mixture thereof, where m=1 ∼ 1.5 and n=1 ∼ 1.5, including the following steps: A) putting aluminium into a reactor, injecting an inert gas to the reactor after vacuumizing, heating the reactor to a temperature of between 700 and 850 DEG C, adding potassium fluoborate; stirring for 4 to 6 hours, then pumping the superstratum melt liquid to obtain potassium cryolite of which the molecular formula is KF·AlF 3; adding the mixture of sodium fluoborate and sodium fluotitanate with a mole ratio of 2:1 in the reactor; stirring for 4 to 6 hours, then pumping the superstratum melt liquid to obtain sodium cryolite of which the molecular formula is 6 5 NaF ⋅ AlF 3; and B) mixing the obtained potassium cryolite KF·AlF 3 with the obtained sodium cryolite 6 5 NaF ⋅ AlF 3 in a mole ratio cryolite of 1:1-1:3 to obtain the electrolyte supplement system cryolite mixture in the aluminium electrolysis process. A) putting aluminium into a reactor, injecting an inert gas to the reactor after vacuumizing, heating the reactor to a temperature of between 700 and 850 DEG C, adding potassium fluoborate; stirring for 4 to 6 hours, then pumping the superstratum melt liquid to obtain potassium cryolite of which the molecular formula is KF·AlF 3; adding the mixture of sodium fluoborate and sodium fluotitanate with a mole ratio of 2:1 in the reactor; stirring for 4 to 6 hours, then pumping the superstratum melt liquid to obtain sodium cryolite of which the molecular formula is 6 5 NaF ⋅ AlF 3; and B) mixing the obtained potassium cryolite KF·AlF 3 with the obtained sodium cryolite 6 5 NaF ⋅ AlF 3 in a mole ratio cryolite of 1:1-1:3 to obtain the electrolyte supplement system cryolite mixture in the aluminium electrolysis process.
A soluble whole oat flour or soluble whole barley flour, prepared by: combining a whole oat or barley flour starting mixture and a suitable enzyme and water to form an enzyme starting mixture, wherein the whole oat or barley flour starting mixture comprises 50 to 100 wt% whole oat or barley flour; heating the enzyme starting mixture to between 48.8°C (120°F) and 93.3°C (200°F) to begin to hydrolyze the starch molecules; and extruding the resultant mixture to continue hydrolyzing the starch and further to gelatinize and cook the mixture to form the soluble whole oat flour or soluble whole barley flour; and wherein the soluble whole oat flour or soluble whole barley flour is pelletized using a forming extruder, dried to 1.5 to 10% moisture content, granulated to a Max 85% through a 0.6mm (US 30) screen. combining a whole oat or barley flour starting mixture and a suitable enzyme and water to form an enzyme starting mixture, wherein the whole oat or barley flour starting mixture comprises 50 to 100 wt% whole oat or barley flour; heating the enzyme starting mixture to between 48.8°C (120°F) and 93.3°C (200°F) to begin to hydrolyze the starch molecules; and extruding the resultant mixture to continue hydrolyzing the starch and further to gelatinize and cook the mixture to form the soluble whole oat flour or soluble whole barley flour; and wherein the soluble whole oat flour or soluble whole barley flour is pelletized using a forming extruder, dried to 1.5 to 10% moisture content, granulated to a Max 85% through a 0.6mm (US 30) screen.