mhurhangee/ep-ind-claims huggingface dataset:
A dialysis system comprising: a fresh dialysis fluid membrane pump (22, 24); a spent dialysis fluid membrane pump (26,28); a dialysis fluid cassette including a first rigid portion and a second rigid portion, the first and second rigid portions defining a chamber, a flexible sheet located between the rigid portions (96, 98) which divides the chamber in two to form a balance chamber having a fresh dialysis fluid compartment and a spent dialysis fluid compartment; a fresh fluid inlet path and a fresh fluid outlet path defined in the first rigid portion for respectively conveying fresh fluid to and from the fresh dialysis fluid compartment; a spent fluid inlet path and a spent fluid outlet path defined in the second rigid portion for respectively conveying spent fluid to and from the spent dialysis fluid compartment; a first valve located downstream of the fresh fluid outlet path; a second valve located downstream of the spent fluid outlet path; a third valve located between the fresh dialysis fluid membrane pump (22, 24) and the fresh dialysis fluid compartment; and a fourth valve located between the spent dialysis fluid membrane pump (26, 28) and the spent dialysis fluid compartment, wherein the fresh dialysis fluid membrane pump (22, 24) is in fluid communication with the fresh dialysis fluid compartment via the third valve and the fresh fluid inlet path and the spent dialysis fluid membrane pump (26, 28) is in fluid communication with the spent dialysis fluid compartment via the fourth valve and the spent fluid inlet path. a fresh dialysis fluid membrane pump (22, 24); a spent dialysis fluid membrane pump (26,28); a dialysis fluid cassette including a first rigid portion and a second rigid portion, the first and second rigid portions defining a chamber, a flexible sheet located between the rigid portions (96, 98) which divides the chamber in two to form a balance chamber having a fresh dialysis fluid compartment and a spent dialysis fluid compartment; a fresh fluid inlet path and a fresh fluid outlet path defined in the first rigid portion for respectively conveying fresh fluid to and from the fresh dialysis fluid compartment; a spent fluid inlet path and a spent fluid outlet path defined in the second rigid portion for respectively conveying spent fluid to and from the spent dialysis fluid compartment; a first valve located downstream of the fresh fluid outlet path; a second valve located downstream of the spent fluid outlet path; a third valve located between the fresh dialysis fluid membrane pump (22, 24) and the fresh dialysis fluid compartment; and a fourth valve located between the spent dialysis fluid membrane pump (26, 28) and the spent dialysis fluid compartment, wherein the fresh dialysis fluid membrane pump (22, 24) is in fluid communication with the fresh dialysis fluid compartment via the third valve and the fresh fluid inlet path and the spent dialysis fluid membrane pump (26, 28) is in fluid communication with the spent dialysis fluid compartment via the fourth valve and the spent fluid inlet path.
An alpine helmet for protecting the head of a wearer while the helmet is worn over a broad temperature range, the helmet comprising: an outer shell; and an energy dissipating padding assembly coupled to an interior of the outer shell, the padding assembly including a first layer disposed inwardly of a second layer, the first layer including structural alterations that structurally weaken the first layer. an outer shell; and an energy dissipating padding assembly coupled to an interior of the outer shell, the padding assembly including a first layer disposed inwardly of a second layer, the first layer including structural alterations that structurally weaken the first layer.
A light emitting device package comprising: a rectangular light emitting device that has a first side extending in a first direction and a second side extending in a second direction, and is disposed on a substrate; and a molding unit disposed on the substrate to surround the light emitting device, wherein a square root of {(length of the first side) 2 + (length of the second side) 2} is smaller than a diameter of the isotropic lens, and the length of the first side is at least 5/3 times more than the length of the second side, and a plurality of the rectangular light emitting devices is arranged in the first direction and the second direction, characterized in that the molding unit has a shape of an isotropic lens; and the number of the plurality of the rectangular light emitting devices arranged in the first direction is at least 5/3 times more than the number of the plurality of the rectangular light emitting devices arranged in the second direction. a rectangular light emitting device that has a first side extending in a first direction and a second side extending in a second direction, and is disposed on a substrate; and a molding unit disposed on the substrate to surround the light emitting device, wherein a square root of {(length of the first side) 2 + (length of the second side) 2} is smaller than a diameter of the isotropic lens, and the length of the first side is at least 5/3 times more than the length of the second side, and a plurality of the rectangular light emitting devices is arranged in the first direction and the second direction, characterized in that the molding unit has a shape of an isotropic lens; and the number of the plurality of the rectangular light emitting devices arranged in the first direction is at least 5/3 times more than the number of the plurality of the rectangular light emitting devices arranged in the second direction.
Method for the transfer of people on wheel-chair on/from public transport means characterised in that it makes use of a vehicle for transporting a person on a wheel-chair comprising a chassis, at least three wheels pivotably connected to said chassis, motor means, steering means, automatic drive means, and a supporting board vertically sliding in said chassis and supporting said wheel-chair, and wireless remote communication means, said method comprising the steps of: - sending an activation signal to said vehicle; - sending information about a transport means, where the person on wheel-chair has to board/get off, and information about a position to be reached by the vehicle, to said vehicle; - automatic drive of said vehicle up to said position to be reached, said automatic drive being performed by said automatic drive means; - aligning the vehicle in front of an access door of said transport means in a wheel-chair transfer state for transferring said person on wheel-chair from said vehicle to said transport means or vice-versa, said aligning being performed by said automatic drive means. - sending an activation signal to said vehicle; - sending information about a transport means, where the person on wheel-chair has to board/get off, and information about a position to be reached by the vehicle, to said vehicle; - automatic drive of said vehicle up to said position to be reached, said automatic drive being performed by said automatic drive means; - aligning the vehicle in front of an access door of said transport means in a wheel-chair transfer state for transferring said person on wheel-chair from said vehicle to said transport means or vice-versa, said aligning being performed by said automatic drive means.
A method of wireless communication by a first user equipment, UE, (1604, 1802) wherein the first UE (1604, 1802) is located inside a coverage area of a base station (1610, 1806), the method comprising: receiving (1702, 2202) sidelink grant information (1612, 1808) from the base station (1610, 1806); and transmitting (1710, 2204) a direction selection signal, DSS (704, 804), in a first transmission time interval, TTI, to one or more UEs (1602, 1810, 1812) located outside the coverage area of the base station (1610, 1806), wherein the DSS (704, 804) comprises sidelink scheduling information which provides timing information indicated in the sidelink grant information; receiving, after transmitting the DSS (704, 804), a source transmit signal, STS (706, 806), in the first TTI from a second UE (1602, 1810, 1812) of the one or more UEs (1602, 1810, 1812) located outside the coverage area, wherein the STS (706, 806) is configured to request a duration of time to keep a sidelink channel available; and transmitting, in the first TTI, a destination receive signal, DRS (708, 808), to the second UE (1602, 1810, 1812) to indicate availability of the sidelink channel such that the sidelink channel is established between the first UE (1604, 1802) and the second UE (1602, 1810, 1812) based on the sidelink grant information. receiving (1702, 2202) sidelink grant information (1612, 1808) from the base station (1610, 1806); and transmitting (1710, 2204) a direction selection signal, DSS (704, 804), in a first transmission time interval, TTI, to one or more UEs (1602, 1810, 1812) located outside the coverage area of the base station (1610, 1806), wherein the DSS (704, 804) comprises sidelink scheduling information which provides timing information indicated in the sidelink grant information; receiving, after transmitting the DSS (704, 804), a source transmit signal, STS (706, 806), in the first TTI from a second UE (1602, 1810, 1812) of the one or more UEs (1602, 1810, 1812) located outside the coverage area, wherein the STS (706, 806) is configured to request a duration of time to keep a sidelink channel available; and transmitting, in the first TTI, a destination receive signal, DRS (708, 808), to the second UE (1602, 1810, 1812) to indicate availability of the sidelink channel such that the sidelink channel is established between the first UE (1604, 1802) and the second UE (1602, 1810, 1812) based on the sidelink grant information.
An intensifying screen for an X-ray detector, comprising: a support; and a phosphor layer, formed on the support, containing phosphor particles made of a praseodymium-activated gadolinium oxysulfide phosphor and a binder, wherein the phosphor particles have a center particle diameter D1 in a range of 1 μm or more and 20 μm or less, and a particle size distribution in which a ratio of particles having a particle diameter falling in a range of [D1 ± 0.3D1] with respect to the center particle diameter D1 is 45% by volume or more, and wherein the phosphor layer contains the phosphor particles in a range of 60% by volume or more and 75% by volume or less, the binder in a range of 5% by volume or more and 15% by volume or less, and voids in a range of 10% by volume or more and 35% by volume or less. a support; and a phosphor layer, formed on the support, containing phosphor particles made of a praseodymium-activated gadolinium oxysulfide phosphor and a binder, wherein the phosphor particles have a center particle diameter D1 in a range of 1 μm or more and 20 μm or less, and a particle size distribution in which a ratio of particles having a particle diameter falling in a range of [D1 ± 0.3D1] with respect to the center particle diameter D1 is 45% by volume or more, and wherein the phosphor layer contains the phosphor particles in a range of 60% by volume or more and 75% by volume or less, the binder in a range of 5% by volume or more and 15% by volume or less, and voids in a range of 10% by volume or more and 35% by volume or less.
Device for producing an electron beam, comprising a housing, which bounds a space that can be evacuated and has an electron beam outlet opening; an inlet for feeding a working gas into the space that can be evacuated; a planar cathode and an anode, which are arranged in the space that can be evacuated and between which a glow-discharge plasma can be produced by means of an applied electrical voltage, wherein ions can be accelerated from the glow-discharge plasma onto the surface of the cathode and electrons emitted by the cathode can be accelerated into the glow-discharge plasma, wherein a) a first part of the cathode, which forms a centrally arranged first surface region of the cathode, consists of a first material, at least on the emission side; b) a second part of the cathode, which forms a second surface region of the cathode that encloses the first surface region, consists of a second material; c) the first material is electrically conductive, has a melting temperature T S greater than 1750 K and has an electron work function less than 4 eV; d) the second material is electrically conductive, has a melting temperature T S greater than 1750 K and has an electron work function greater than 4 eV; e) the first material can be heated by the impingement with accelerated ions to a temperature at which electrons escape from the first material predominantly due to thermionic emission and the device has no means for cooling the cathode. a) a first part of the cathode, which forms a centrally arranged first surface region of the cathode, consists of a first material, at least on the emission side; b) a second part of the cathode, which forms a second surface region of the cathode that encloses the first surface region, consists of a second material; c) the first material is electrically conductive, has a melting temperature T S greater than 1750 K and has an electron work function less than 4 eV; d) the second material is electrically conductive, has a melting temperature T S greater than 1750 K and has an electron work function greater than 4 eV; e) the first material can be heated by the impingement with accelerated ions to a temperature at which electrons escape from the first material predominantly due to thermionic emission and
A method implemented on a computing device including a processor and a memory for processing log data in a server system, comprising: extracting level information associated with the log data, wherein the level information comprises at least one log level indicative of severity of a log event; filtering the log data based at least in part on the level information to generate filtered log data; and automatically correcting, by the processor, the level information in response to automatically determining, by the processor, that the level information of the filtered log data does not match the log event using an analysis model generated by a first artificial intelligence, AI, algorithm, wherein filtering the log data based at least in part on the level information comprises: determining, by the processor, a threshold level using a second AI algorithm; comparing the level information with the threshold level; and filtering the log data based on the comparison. extracting level information associated with the log data, wherein the level information comprises at least one log level indicative of severity of a log event; filtering the log data based at least in part on the level information to generate filtered log data; and automatically correcting, by the processor, the level information in response to automatically determining, by the processor, that the level information of the filtered log data does not match the log event using an analysis model generated by a first artificial intelligence, AI, algorithm, determining, by the processor, a threshold level using a second AI algorithm; comparing the level information with the threshold level; and filtering the log data based on the comparison.
A gas turbine engine comprising: a pylon attachment; a shaft defining an engine centreline which lies in an engine central plane intersecting the pylon attachment; a fan defining a fan plane normal to the engine centreline; and an intake upstream of the fan plane, the intake defining a geometric centreline, characterized in that the geometric centreline of the intake coincides with the engine centreline at an axial position corresponding to the downstream end of the intake and curves, in a plane of curvature, away from the engine centreline upstream of said axial position, the engine central plane being either normal to the plane of curvature or inclined to a plane normal to the plane of curvature by an angle less than or equal to 30°. a pylon attachment; a shaft defining an engine centreline which lies in an engine central plane intersecting the pylon attachment; a fan defining a fan plane normal to the engine centreline; and an intake upstream of the fan plane, the intake defining a geometric centreline, characterized in that the geometric centreline of the intake coincides with the engine centreline at an axial position corresponding to the downstream end of the intake and curves, in a plane of curvature, away from the engine centreline upstream of said axial position, the engine central plane being either normal to the plane of curvature or inclined to a plane normal to the plane of curvature by an angle less than or equal to 30°.
A method for a wireless device of determining multi-beam channel state information, CSI, the method comprising: receiving from the network node in a first time instance, a first CSI feedback request requesting CSI feedback; generating a first CSI report associated with a first beam; reporting the first CSI report identifying the first precoder; receiving from the network node in a second time instance, a second CSI feedback request requesting additional CSI feedback; generating a second CSI report associated with a second beam, the second CSI report including at least a co-phasing coefficient between the first and second beams; and reporting the second CSI report identifying the second precoder, wherein the first CSI report includes a first precoder, the second CSI report includes a second precoder and a linear combination of the first and second precoders has a channel estimation accuracy exceeding a channel estimation accuracy of any one of the first and second precoders. receiving from the network node in a first time instance, a first CSI feedback request requesting CSI feedback; generating a first CSI report associated with a first beam; reporting the first CSI report identifying the first precoder; receiving from the network node in a second time instance, a second CSI feedback request requesting additional CSI feedback; generating a second CSI report associated with a second beam, the second CSI report including at least a co-phasing coefficient between the first and second beams; and reporting the second CSI report identifying the second precoder, wherein the first CSI report includes a first precoder, the second CSI report includes a second precoder and a linear combination of the first and second precoders has a channel estimation accuracy exceeding a channel estimation accuracy of any one of the first and second precoders.
A valve device for at least one liquid plastic component or liquid plastic, comprising a closure device which has a needle which can be pressed against a seat for closing a valve opening of the valve device, wherein the needle and/or the seat is/are adapted to be yielding or mounted yieldingly, wherein the needle can move relative to the seat beyond the actual sealing point, characterized in that at least one sensor for - preferably contact-less - position monitoring of the position of the needle and/or the seat and/or the needle mounting and/or the seat mounting, the signals of which can be fed to an evaluation device which from the signals determines a signal which is characteristic of the closure action, wherein stored in the evaluation device are at least two positions (P1, P2) which are characteristic of predetermined closure states of the closure device.
A speech transmission system with data packet transport and delay compensation, comprising: - an air traffic control working position, CWP, comprising capture means, - a voice communication switch including a packing unit (40, 40'), connected to said capture means and configured to convert a digital sample stream (120, 120') into data packets (130, 130'), and - a plurality of ground radio stations (60, 60') respectively including at least one jitter buffer (70, 70') receiving the data packets transmitted from the communication switch, and respectively including at least one radio frequency, RF, unit (100, 100') with an antenna (110, 110'), wherein at least one data packet (130, 130') includes a delay command, and wherein the delay command is processed in the jitter buffer (70, 70') to adjust a jitter buffer delay time, wherein the delay command is calculated based on an estimated end to end data delay between the capture means and the output of the radio frequency unit (100, 100') wherein said capture means are configured to convert an input signal into a digital sample stream (120, 120'). - an air traffic control working position, CWP, comprising capture means, - a voice communication switch including a packing unit (40, 40'), connected to said capture means and configured to convert a digital sample stream (120, 120') into data packets (130, 130'), and - a plurality of ground radio stations (60, 60') respectively including at least one jitter buffer (70, 70') receiving the data packets transmitted from the communication switch, and respectively including at least one radio frequency, RF, unit (100, 100') with an antenna (110, 110'), wherein at least one data packet (130, 130') includes a delay command, and wherein the delay command is processed in the jitter buffer (70, 70') to adjust a jitter buffer delay time, wherein the delay command is calculated based on an estimated end to end data delay between the capture means and the output of the radio frequency unit (100, 100') wherein said capture means are configured to convert an input signal into a digital sample stream (120, 120').
A method performed by a user equipment, UE (no) to enable detection of a base station in high-interference environments, comprising: detecting a low reuse preamble transmitted by the base station, wherein the low reuse preamble is located in a traffic channel portion of a sub-frame, wherein the low reuse preamble includes at least a synchronization signal, a broadcast channel and a reference signal, wherein the broadcast channel includes system information associated with the base station, wherein detecting the low reuse preamble comprises detecting the synchronization signal included in the low reuse preamble; and evaluating the low reuse preamble to identify system information associated with the base station, wherein evaluating the low reuse preamble comprises coherent demodulation and decoding of the broadcast channel included in the preamble by using the reference signals included in the low reuse preamble. detecting a low reuse preamble transmitted by the base station, wherein the low reuse preamble is located in a traffic channel portion of a sub-frame, wherein the low reuse preamble includes at least a synchronization signal, a broadcast channel and a reference signal, wherein the broadcast channel includes system information associated with the base station, wherein detecting the low reuse preamble comprises detecting the synchronization signal included in the low reuse preamble; and evaluating the low reuse preamble to identify system information associated with the base station, wherein evaluating the low reuse preamble comprises coherent demodulation and decoding of the broadcast channel included in the preamble by using the reference signals included in the low reuse preamble.
A ringfilter, which extends ring-shaped about a central axis and is configured for being disposed in a door operator, including a housing, which includes a reception, with filter material, which serves for filtering a medium which flows through the filter material, characterized in that the ringfilter is formed at least by the following: a first ring body for the resting disposition in the reception, and a second ring body, which is movable in the reception, wherein the filter material is accommodated between the first ring body and the second ring body. a first ring body for the resting disposition in the reception, and a second ring body, which is movable in the reception, wherein the filter material is accommodated between the first ring body and the second ring body.