mhurhangee/ep-ind-claims huggingface dataset:
A method for analyzing fault gas concentrations in a liquid obtained from an electrical asset such as a switchgear or an electric power transformer, the method comprising: - measuring, by a liquid analyzer comprising a system configured to generate at least two gas samples from the liquid at at least two temperatures and an analyzer for gas sampled by the system, the concentration of at least one dissolved fault gas in the at least two gas samples; - determining, by the liquid analyzer, a disturbing gas contribution in at least one sample of the at least two gas samples on the basis of the fault gas concentration measurements by utilizing differences in temperature dependency of solubility of the fault gas and the disturbing gases; and - analyzing, by the liquid analyzer, fault gas concentrations by compensating fault gas concentrations on the basis of the determined disturbing gas contribution. - measuring, by a liquid analyzer comprising a system configured to generate at least two gas samples from the liquid at at least two temperatures and an analyzer for gas sampled by the system, the concentration of at least one dissolved fault gas in the at least two gas samples; - determining, by the liquid analyzer, a disturbing gas contribution in at least one sample of the at least two gas samples on the basis of the fault gas concentration measurements by utilizing differences in temperature dependency of solubility of the fault gas and the disturbing gases; and - analyzing, by the liquid analyzer, fault gas concentrations by compensating fault gas concentrations on the basis of the determined disturbing gas contribution.
A sensing system for a packaged sensor module, comprising a sensor module comprising a flexible substrate including at least one sensing element for providing a signal as a response to a measurement of a parameter from a location, the sensor module further comprising electronic circuitry for processing said signal, the flexible substrate being adapted to increase the length of a thermal path between the at least one sensing element and the electronic circuitry, the sensing system further comprising a sensor package, the sensor package including at least one structural element (210, 220) for housing the sensor module, the sensor package comprising holding means for holding the at least one sensing element provided on the flexible substrate in a fixed position in a sensing zone so the location parameter can be directly sensed by the sensing element, characterized in that the sensor package comprises a thermally insulating barrier (214, 215) for separating a portion of the structural element (210, 220) adapted for housing the at least one sensing element from a portion of the structural element (210, 220) adapted for housing the electronic circuitry.
A quinoid silafluorene organic semiconductor material of the general formula: wherein, R 1, R 2, R 5 and R 6 are independently selected from the group consisting of -H and C 1 -C 20 alkyl, R 3 and R 4 are independently C 1 -C 20 alkyl, m and n are independently integers of 0-10.
A container comprising a base provided with an opening and a closing member which comprises at least one magnetised lower face coming into contact with the base, magnetic coupling means being arranged for keeping the closing member in the position for closing the opening by magnetic attraction, characterised in that at least one portion of the base consists of a non-magnetic material loaded with ferromagnetic particles.
A lubricating composition comprising: (a) an oil of lubricating viscosity; (b) 50 to 140 parts per million by weight of titanium in the form of an oil-soluble titanium-containing material; (c) 70 to 150 parts per million by weight molybdenum in the form of an oil-soluble molybdenum-containing material; (d) 0.7 to 2.0 percent by weight of a hindered phenolic antioxidant; and at least one additive selected from the group consisting of (e) anti-wear agents and (f) dispersants. (a) an oil of lubricating viscosity; (b) 50 to 140 parts per million by weight of titanium in the form of an oil-soluble titanium-containing material; (c) 70 to 150 parts per million by weight molybdenum in the form of an oil-soluble molybdenum-containing material; (d) 0.7 to 2.0 percent by weight of a hindered phenolic antioxidant; and at least one additive selected from the group consisting of (e) anti-wear agents and (f) dispersants.
A light emitting device, comprising: a light source including a light emitting semiconductor element; and a light emitting part including a mixed phosphor made of a plurality of phosphors emitting different colors and emitting visible light when excited by light from the light source, wherein a maximum value (Δx, Δy) of color difference, absolute value, between emission chromaticity (x, y) and emission chromaticity (x1, y1) satisfies conditions of Δx < 0.05 and Δy < 0.05, where (x, y) is the emission chromaticity measured directly above the light source and (x1, y1) is the emission chromaticity measured for each of front lights and side leakage lights in all directions from the light emitting device; wherein the plurality of phosphors satisfy a condition represented by an expression − 0.2 < D 1 2 × w 1 − D 2 2 × w 2 < 0.2, where D1 (μm) and w1 (g/mm3) are an average particle size and a specific gravity, respectively, of one phosphor among the plurality of phosphors, and D2 (μm) and w2 (g/mm3) are an average particle size and a specific gravity, respectively, of another phosphor. a light source including a light emitting semiconductor element; and a light emitting part including a mixed phosphor made of a plurality of phosphors emitting different colors and emitting visible light when excited by light from the light source, wherein a maximum value (Δx, Δy) of color difference, absolute value, between emission chromaticity (x, y) and emission chromaticity (x1, y1) satisfies conditions of Δx < 0.05 and Δy < 0.05, where (x, y) is the emission chromaticity measured directly above the light source and (x1, y1) is the emission chromaticity measured for each of front lights and side leakage lights in all directions from the light emitting device; wherein the plurality of phosphors satisfy a condition represented by an expression − 0.2 < D 1 2 × w 1 − D 2 2 × w 2 < 0.2, where D1 (μm) and w1 (g/mm3) are an average particle size and a specific gravity, respectively, of one phosphor among the plurality of phosphors, and D2 (μm) and w2 (g/mm3) are an average particle size and a specific gravity, respectively, of another phosphor.
An acoustic transducer, the transducer comprising: an acoustic matching structure comprising: a cavity configured to contain an acoustic medium, the cavity having a substantially planar shape; two end walls (785, 790, 770, 1420, 620a, 620b) bounding the cavity; a side wall (1410a, 1410b, 780, 610a, 610b) bounding the cavity and substantially perpendicular to the end walls; the cavity defining an area A cavity given by the average cross-sectional area in the planar dimension in the cavity between the end walls, and at least one aperture (650, 797, 1490) placed in one of the end walls (770, 1420), wherein a the cavity height h cavity is defined as the average separation of the end walls; the transducer further comprising a transducing element (1440, 630, 785) configured to act on or define the cavity end wall (790, 620a, 620b, 1430) which is opposite to the end wall (770, 1420) comprising the aperture (650, 797, 1490) and configured to generate acoustic oscillations in the acoustic medium in the cavity; and whereby the acoustic oscillations in the acoustic medium in the cavity cause pressure waves to propagate into a surrounding acoustic medium, characterized in that the cavity has an effective side wall radius r cavity defined as r cavity = A cavity /π) 1/2 and that the at least one aperture is located in the end wall within a distance less than r cavity /2 from the side wall and in that r cavity and h cavity satisfy the inequality: r cavity is greater than h cavity. a cavity configured to contain an acoustic medium, the cavity having a substantially planar shape; two end walls (785, 790, 770, 1420, 620a, 620b) bounding the cavity; a side wall (1410a, 1410b, 780, 610a, 610b) bounding the cavity and substantially perpendicular to the end walls; the cavity defining an area A cavity given by the average cross-sectional area in the planar dimension in the cavity between the end walls, and at least one aperture (650, 797, 1490) placed in one of the end walls (770, 1420), wherein a the cavity height h cavity is defined as the average separation of the end walls; the transducer further comprising a transducing element (1440, 630, 785) configured to act on or define the cavity end wall (790, 620a, 620b, 1430) which is opposite to the end wall (770, 1420) comprising the aperture (650, 797, 1490) and configured to generate acoustic oscillations in the acoustic medium in the cavity; and whereby the acoustic oscillations in the acoustic medium in the cavity cause pressure waves to propagate into a surrounding acoustic medium, characterized in that the cavity has an effective side wall radius r cavity defined as r cavity = A cavity /π) 1/2 and that the at least one aperture is located in the end wall within a distance less than r cavity /2 from the side wall and in that r cavity and h cavity satisfy the inequality: r cavity is greater than h cavity.
A method for operating by a user equipment, UE, in a wireless communication system, the method comprising: receiving configuration information for receiving a plurality of data generated from one transport block, TB; receiving downlink control information, DCI, including information about two transmission configuration indicator, TCI, states; and receiving, from two different transmission reception points, TRPs, two physical downlink shared channels, PDSCHs, based on the DCI and the configuration information, wherein a first PDSCH of the two PDSCHs corresponds to a first TCI state of the two TCI states and a second PDSCH of the two PDSCHs corresponds to a second TCI state of the two TCI states, wherein a total resource blocks, RBs, allocated for the LTE are divided into a plurality of precoding resource block groups, PRGs, wherein the first PDSCH is received in a first resource including PRGs with even indexes among the plurality of PRGs and the second PDSCH is received in a second resource including PRGs with odd indexes, and characterized in that a combination of Redundancy Version, RV, values for the two PDSCHs is determined based on a single RV value indicated by the DCI and a transport block size, TBS, of the second PDSCH is determined based on information about the first PDSCH. receiving configuration information for receiving a plurality of data generated from one transport block, TB; receiving downlink control information, DCI, including information about two transmission configuration indicator, TCI, states; and receiving, from two different transmission reception points, TRPs, two physical downlink shared channels, PDSCHs, based on the DCI and the configuration information, wherein a first PDSCH of the two PDSCHs corresponds to a first TCI state of the two TCI states and a second PDSCH of the two PDSCHs corresponds to a second TCI state of the two TCI states, wherein a total resource blocks, RBs, allocated for the LTE are divided into a plurality of precoding resource block groups, PRGs, wherein the first PDSCH is received in a first resource including PRGs with even indexes among the plurality of PRGs and the second PDSCH is received in a second resource including PRGs with odd indexes, and characterized in that a combination of Redundancy Version, RV, values for the two PDSCHs is determined based on a single RV value indicated by the DCI and a transport block size, TBS, of the second PDSCH is determined based on information about the first PDSCH.
A bed comprising a mattress unit, displacing means arranged for displacing said mattress unit in a displacement direction, wherein said bed further comprises guide means for guiding said mattress unit at least during said displacement and wherein said guide means are arranged for guiding said mattress unit in a direction away from said displacement direction, wherein said mattress unit comprises slats and wherein said slats are provided with guide members of said guide means, said guide members being arranged to engage track means of said guide means and wherein said track means are arranged on a bed frame structure of said bed, characterized in that said bed comprises foot end elevating means arranged to elevate at least a part of said track means independently from the rest of the bed.
A method of reducing jet noise by weakening Mach cones (16;16') in a jet exhaust gas streamtube (14; 14') by modifying exhaust gas flow in a longitudinal axial core (13; 13') of the exhaust gas streamtube, characterised in that the step of modifying exhaust gas flow includes deploying a transpiration element (24; 40) along the longitudinal axial core (13; 13') of the exhaust gas streamtube (14; 14') to passively weaken exhaust plume Mach cones (16; 16') by reducing pressure differentials across Mach cone shock waves.
A method of regenerating an oxidation device of an internal combustion engine, in particular a stationary internal combustion engine, wherein the oxidation device is connected downstream of the internal combustion engine and wherein a mixture of combustion gas and exhaust gas can be fed to the oxidation device to increase a temperature in the oxidation device and wherein exhaust gas can be passed around the oxidation device by way of a bypass conduit, wherein the amount of exhaust gas passed around the oxidation device by way of the bypass conduit is controlled in open-loop or closed-loop control mode in dependence on an ascertained exhaust gas temperature downstream of the oxidation device, characterized in that a critical temperature of the exhaust gas turbine is not exceeded to protect the exhaust gas turbine arranged downstream of the oxidation device.
A terminal comprising: an antenna incorporated into the terminal and configured to emit electronic waves; a metal bezel disposed along an edge of the terminal; and a beam forming auxiliary unit separately disposed by a predetermined distance from the antenna and configured to assist in forming beams of the electronic waves emitted from the antenna, wherein the beam forming auxiliary unit, incorporated into the terminal, comprises a film layer configured to compensate a phase of the electronic waves emitted through the antenna and a pattern layer and is disposed between the metal bezel and the antenna, and wherein the pattern layer is configured to reduce an advancing speed of the electronic waves collided with the pattern layer such that the electronic waves emitted from the antenna pass through the metal bezel. an antenna incorporated into the terminal and configured to emit electronic waves; a metal bezel disposed along an edge of the terminal; and a beam forming auxiliary unit separately disposed by a predetermined distance from the antenna and configured to assist in forming beams of the electronic waves emitted from the antenna, wherein the beam forming auxiliary unit, incorporated into the terminal, comprises a film layer configured to compensate a phase of the electronic waves emitted through the antenna and a pattern layer and is disposed between the metal bezel and the antenna, and wherein the pattern layer is configured to reduce an advancing speed of the electronic waves collided with the pattern layer such that the electronic waves emitted from the antenna pass through the metal bezel.
Device for extracting moisture from a wall or similar structure, the device being configured to be positioned in a hole in said wall, the device comprising: - a front part which comprises a central air guide which projects outwardly, wherein the front part defines two openings which extend in different directions (18, 19), the openings being configured to act as an air intake and an air exit, - a chamber which defines an inner space, wherein an air flow channel for a main air flow extends through the inner space between the air intake and the air exit, - a longitudinal partition wall which extends in a longitudinal direction from a rear end of the central air guide further into the chamber, and extends the length of the air flow channel, wherein the air flow channel 24 has a general U-shape, wherein the airflow channel comprises an ingoing part and an outgoing part, wherein the flow has respectively an ingoing direction and an outgoing direction, - a housing which forms a housing wall of the chamber, the housing being connected to the front part, wherein the main air flow that flows through the air flow channel carries off moisture from the wall, wherein the device comprises at least one partition wall (60; 60A) which divides the chamber into a first chamber which is in open connection with the outside via the openings and a second chamber which is substantially closed, wherein the partition wall reduces the heat loss of the device and creates different temperature zones inside the device, and wherein the partition wall extends substantially transverse to a main longitudinal direction of the device, wherein the airflow channel comprises a U-turn at an end of the longitudinal partition wall at the transition between the ingoing part and the outgoing part, wherein the U-turn is located between the end of the longitudinal partition wall and the transverse partition wall. - a front part which comprises a central air guide which projects outwardly, wherein the front part defines two openings which extend in different directions (18, 19), the openings being configured to act as an air intake and an air exit, - a chamber which defines an inner space, wherein an air flow channel for a main air flow extends through the inner space between the air intake and the air exit, - a longitudinal partition wall which extends in a longitudinal direction from a rear end of the central air guide further into the chamber, and extends the length of the air flow channel, wherein the air flow channel 24 has a general U-shape, wherein the airflow channel comprises an ingoing part and an outgoing part, wherein the flow has respectively an ingoing direction and an outgoing direction, - a housing which forms a housing wall of the chamber, the housing being connected to the front part,
A heat protection product with at least one seam, comprising at least - a textile layer of polymer fibers from a thermoplastic material; - a polymer layer; - a metal layer; wherein said at least one seam is obtained by welding. - a textile layer of polymer fibers from a thermoplastic material; - a polymer layer; - a metal layer;
A method at a WTRU characterized by: determining a non-differential precoder feedback information using a Jacobi rotation matrix to perform matrix diagonalization on at least one of a channel response matrix and a channel correlation matrix associated with a channel estimate and transmitting the non-differential precoder feedback information comprising angular parameters of the Jacobi rotation matrix; determining a differential Jacobi rotation matrix based on the Jacobi rotation matrix and on an additional channel correlation matrix associated with a second channel estimate; and determining differential precoder feedback information comprising angular parameters of the differential Jacobi rotation matrix; and transmitting the differential precoder feedback information. determining a non-differential precoder feedback information using a Jacobi rotation matrix to perform matrix diagonalization on at least one of a channel response matrix and a channel correlation matrix associated with a channel estimate and transmitting the non-differential precoder feedback information comprising angular parameters of the Jacobi rotation matrix; determining a differential Jacobi rotation matrix based on the Jacobi rotation matrix and on an additional channel correlation matrix associated with a second channel estimate; and determining differential precoder feedback information comprising angular parameters of the differential Jacobi rotation matrix; and transmitting the differential precoder feedback information.
A tree shaking device comprising: - a reciprocating rod driven by a motor, moving of an axial reciprocating motion and provided at its end with a hook for engaging the branch of a tree; - a rear handgrip; - a front handgrip placed around said reciprocating rod, said rod freely axially sliding relative to said front handgrip; characterised in that said front handgrip comprises a shell having substantially a cylindrical profile including a first portion having a smaller diameter and a second portion having a greater diameter, said first and second portions (27a,27b) of said front handgrip being joined through a frustoconical portion, and in that a cursor integral to said rod or to said front handgrip is interposed between said front handgrip and said reciprocating rod and allows the relative sliding motion between said reciprocating rod and said front handgrip, said cursor comprising an engaging surface engaging said front handgrip or said rod that prevents the rotation between said rod and said front handgrip, said cursor being interposed between said front handgrip and said rod at said second portion of said front handgrip so as to reduce the transmission of vibrations from said rod to said front handgrip. - a reciprocating rod driven by a motor, moving of an axial reciprocating motion and provided at its end with a hook for engaging the branch of a tree; - a rear handgrip; - a front handgrip placed around said reciprocating rod, said rod freely axially sliding relative to said front handgrip; characterised in that said front handgrip comprises a shell having substantially a cylindrical profile including a first portion having a smaller diameter and a second portion having a greater diameter, said first and second portions (27a,27b) of said front handgrip being joined through a frustoconical portion, and in that a cursor integral to said rod or to said front handgrip is interposed between said front handgrip and said reciprocating rod and allows the relative sliding motion between said reciprocating rod and said front handgrip, said cursor comprising an engaging surface engaging said front handgrip or said rod that prevents the rotation between said rod and said front handgrip, said cursor being interposed between said front handgrip and said rod at said second portion of said front handgrip so as to reduce the transmission of vibrations from said rod to said front handgrip.
An apparatus comprising: an aircraft having one or more propulsion engines and an external pod and including a turbine apart from the one or more propulsion engines, the aircraft also having an electrical generator and a heat exchange system, the turbine being in power communication with the electrical generator and the heat exchange system, the heat exchange system including a phase change heat exchanger which comprises a thermal energy storage device in the form of a phase change material, the aircraft further including a payload in thermal communication with the heat exchange system via the thermal energy storage device; and wherein the heat exchange system further comprises a refrigerant compressor, and the turbine is in power communication with the refrigerant compressor. an aircraft having one or more propulsion engines and an external pod and including a turbine apart from the one or more propulsion engines, the aircraft also having an electrical generator and a heat exchange system, the turbine being in power communication with the electrical generator and the heat exchange system, the heat exchange system including a phase change heat exchanger which comprises a thermal energy storage device in the form of a phase change material, the aircraft further including a payload in thermal communication with the heat exchange system via the thermal energy storage device; and wherein the heat exchange system further comprises a refrigerant compressor, and the turbine is in power communication with the refrigerant compressor.