mhurhangee/ep-ind-claims huggingface dataset:
Station for loading plate elements (1, 1a) from an initial stack of elements located in a store to a station for the insertion thereof into a machine for processing said elements, comprising: - unloading means for unloading the elements from the initial stack, - intermediate storage means for storing the unloaded elements in the form of an intermediate packet, and positioned downstream from the unloading means, - transferring means for transferring the elements from the unloading means to the storage means, - transporting means for transporting the elements from the storage means to the insertion station, and - layering means for layering the elements, and positioned downstream from the storage means, characterised in that the storage means have an arrangement capable of varying the height of the transporting means in relation to the transferring means, the transporting means being positioned at a height lower than that of the transferring means, such as to vary the intermediate storage capacity for the elements. - unloading means for unloading the elements from the initial stack, - intermediate storage means for storing the unloaded elements in the form of an intermediate packet, and positioned downstream from the unloading means, - transferring means for transferring the elements from the unloading means to the storage means, - transporting means for transporting the elements from the storage means to the insertion station, and - layering means for layering the elements, and positioned downstream from the storage means, characterised in that the storage means have an arrangement capable of varying the height of the transporting means in relation to the transferring means, the transporting means being positioned at a height lower than that of the transferring means, such as to vary the intermediate storage capacity for the elements.
A nuclear magnetic resonance imaging method for acquiring nuclear magnetic resonance signals of an imaging region of a subject to be examined, in a static magnetic field space of a nuclear magnetic resonance imaging apparatus provided with an FOV being desirable, the imaging region being wider than the FOV, while continuously moving a transport unit having the examined subject thereon, comprising, moving the examined subject so that the imaging region of the examined subject passes through a space for imaging, acquiring a biological gating signal from at least one of an electrodiograph, a sphygmograph and a body motion detector, the biological gating signal defining a first period, in which imaging is turned on, and a second period, in which imaging is turned off, after which imaging is turned on again relatively displacing the FOV with respect to both the examined subject and the static magnetic field space by controlling the velocity of the relative displacement of the FOV in response to the biological gating signal during at least a part of a period when the examined subject is being moved, such that the velocity of the relative displacement is different in the first and second periods and such that loss of data in the imaging region is avoided, when imaging is continued after the second period; executing an imaging pulse sequence during the first period and after the second period while the examined subject is being moved, and collecting nuclear magnetic resonance signals from the examined subject, and reconstructing an image of the wide imaging region of the examined subject, by using the nuclear magnetic resonance signals.
A storage rail assembly comprising: a first rail extending from a left end to a right end along a first longitudinal axis, the first rail configured to be coupled to a wall; a first left end cap coupled to the left end of the rail, the left end cap including a concave pocket extending inwardly from a left face of the first left end cap and having a pocket contact surface; and a right end cap coupled to the right end of the rail, the right end cap including a projection extending outwardly from a right face of the right end cap, wherein the projection is configured to be received in a pocket of a second left end cap to form a horizontal rail assembly. a first rail extending from a left end to a right end along a first longitudinal axis, the first rail configured to be coupled to a wall; a first left end cap coupled to the left end of the rail, the left end cap including a concave pocket extending inwardly from a left face of the first left end cap and having a pocket contact surface; and a right end cap coupled to the right end of the rail, the right end cap including a projection extending outwardly from a right face of the right end cap, wherein the projection is configured to be received in a pocket of a second left end cap to form a horizontal rail assembly.
A vehicle seating row for installation in a passenger cabin adjacent an aisle, comprising: a framework including a first seat and a second seat positioned laterally adjacent the first seat; the framework for the first seat including a fixed rear leg coupled to a fixed rear transverse beam, and a fixed front leg coupled to a fixed front transverse beam; the framework for the second seat including a fixed rear leg coupled to the fixed rear transverse beam, and a movable front leg coupled to a movable front transverse beam, wherein the movable front leg and the movable front transverse beam are coupled such that the movable front leg and the movable front transverse beam are displaceable together relative to the fixed rear leg and the fixed rear transverse beam, respectively, between a first position in which the second seat has a maximum length and a second position in which the second seat has a minimum length; and an actuator coupled to at least one of the movable front leg and the movable front transverse beam of the second seat, wherein the actuator is operative to displace the movable front leg and the movable front transverse beam together between the first and second positions characterised in that the framework for the second seat further includes spaced backrest members coupled to the fixed rear transverse beam and spaced seat bottom members rotatably coupled at one end to the fixed rear transverse beam, wherein forward ends of the spaced seat bottom members define elongated guides receiving the movable front transverse beam such that the movable front transverse beam travels along the elongated guides as the movable front transverse beam is displaced between the first and second positions. a framework including a first seat and a second seat positioned laterally adjacent the first seat; the framework for the first seat including a fixed rear leg coupled to a fixed rear transverse beam, and a fixed front leg coupled to a fixed front transverse beam; the framework for the second seat including a fixed rear leg coupled to the fixed rear transverse beam, and a movable front leg coupled to a movable front transverse beam, wherein the movable front leg and the movable front transverse beam are coupled such that the movable front leg and the movable front transverse beam are displaceable together relative to the fixed rear leg and the fixed rear transverse beam, respectively, between a first position in which the second seat has a maximum length and a second position in which the second seat has a minimum length; and an actuator coupled to at least one of the movable front leg and the movable front transverse beam of the second seat, wherein the actuator is operative to displace the movable front leg and the movable front transverse beam together between the first and second positions
A method for denoising a noisy acoustic signal for a multi-microphone audio device operating in a noisy environment, the noisy acoustic signal comprising a useful component coming from a source of speech and a spurious noise component, said device comprising an array of sensors formed of a plurality of microphone sensors (M 1... M 4) arranged in a predetermined configuration and adapted to collect the noisy signal, the sensors being grouped into two sub-arrays, with a first sub-array (R 1) of sensors adapted to collect a high frequency part of the spectrum, and a second sub-array (R 2) of sensors adapted to collect a low frequency part of the spectrum, distinct from said high frequency part, the method comprising the following steps: a) partitioning the noisy signal spectrum into said high frequency part and said low frequency part, by filtering (10, 16) respectively above and below a predetermined pivot frequency, b) denoising each of the two parts of the spectrum by implementing an adaptive algorithm estimator; and c) reconstructing the spectrum by combining the signals delivered after denoising of the two parts of the spectrum at steps b1 and b2), the method being characterized in that the denoising step b) is operated by distinct processings for each of the two parts of the spectrum, with: b1) for the high frequency part, a denoising exploiting the predictable character of the useful signal from one sensor to another between sensors of the first sub-array, by means of a first adaptive algorithm estimator, and b2) for the low frequency part, a denoising by prediction of the noise from one sensor to another between sensors of the second sub-array, by means of a second adaptive algorithm estimator. a) partitioning the noisy signal spectrum into said high frequency part and said low frequency part, by filtering (10, 16) respectively above and below a predetermined pivot frequency, b) denoising each of the two parts of the spectrum by implementing an adaptive algorithm estimator; and c) reconstructing the spectrum by combining the signals delivered after denoising of the two parts of the spectrum at steps b1 and b2), b1) for the high frequency part, a denoising exploiting the predictable character of the useful signal from one sensor to another between sensors of the first sub-array, by means of a first adaptive algorithm estimator, and b2) for the low frequency part, a denoising by prediction of the noise from one sensor to another between sensors of the second sub-array, by means of a second adaptive algorithm estimator.
A method for transmitting a power headroom report, PHR, the method performed by a terminal and comprising: receiving, by the terminal with dual connectivity to a master cell group, MCG, and a secondary cell group, SCG, a configuration of a PHR mode; generating, by the UE, the PHR based on the received configuration of the PHR mode; and transmitting the generated PHR to the MCG, wherein the PHR mode indicates whether a mode for computing a power headroom for the SCG is a real mode or a virtual mode, and wherein when the PHR mode indicates the virtual mode, the power headroom is computed based on an assumption that at least one of PUSCH and PUCCH is not transmitted on the SCG, wherein the MCG is provided by a first base station, and the SCG is provided by a second base station. receiving, by the terminal with dual connectivity to a master cell group, MCG, and a secondary cell group, SCG, a configuration of a PHR mode; generating, by the UE, the PHR based on the received configuration of the PHR mode; and transmitting the generated PHR to the MCG, wherein the PHR mode indicates whether a mode for computing a power headroom for the SCG is a real mode or a virtual mode, and wherein when the PHR mode indicates the virtual mode, the power headroom is computed based on an assumption that at least one of PUSCH and PUCCH is not transmitted on the SCG, wherein the MCG is provided by a first base station, and the SCG is provided by a second base station.
A process for the preparation of a 5-chloro pyridine-2-carboxylic acid amide of formula I: wherein R 1 is hydrogen, C 1 -C 4 alkyl, C 1 -C 4 hydroxyalkyl, C 3 -C 7 cycloalkyl, aryl or optionally substituted heteroaryl; and R 2 is C 1 -C 4 alkyl; or an agrochemically acceptable salt of a compound of formula; which process comprises: reacting a compound of formula with a thiol compound R 4 -S-R 2 wherein R 2 is as defined in formula I and R 4 is H or an alkali metal ion; in the presence of a suitable base, in an appropriate solvent (or diluent) selected from dioxane, THF, methyltetrahydrofuran, toluene, anisole, pyridine, methylisobutyl ketone, and tBuOH; to produce a compound of formula or a salt thereof and, optionally, hydrolyzing the compound of the formula or a salt thereof under either basic or acidic conditions; to selectively produce the compound of formula where R 2 is as defined in formula I and R 3 is hydrogen, sodium, potassium or lithium. wherein R 1 is hydrogen, C 1 -C 4 alkyl, C 1 -C 4 hydroxyalkyl, C 3 -C 7 cycloalkyl, aryl or optionally substituted heteroaryl; and R 2 is C 1 -C 4 alkyl; or an agrochemically acceptable salt of a compound of formula; which process comprises: reacting a compound of formula with a thiol compound R 4 -S-R 2 wherein R 2 is as defined in formula I and R 4 is H or an alkali metal ion; in the presence of a suitable base, in an appropriate solvent (or diluent) selected from dioxane, THF, methyltetrahydrofuran, toluene, anisole, pyridine, methylisobutyl ketone, and tBuOH; to produce a compound of formula or a salt thereof and, optionally, hydrolyzing the compound of the formula or a salt thereof under either basic or acidic conditions; to selectively produce the compound of formula where R 2 is as defined in formula I and R 3 is hydrogen, sodium, potassium or lithium. reacting a compound of formula with a thiol compound R 4 -S-R 2 wherein R 2 is as defined in formula I and R 4 is H or an alkali metal ion; in the presence of a suitable base, in an appropriate solvent (or diluent) selected from dioxane, THF, methyltetrahydrofuran, toluene, anisole, pyridine, methylisobutyl ketone, and tBuOH; to produce a compound of formula or a salt thereof and, optionally, hydrolyzing the compound of the formula or a salt thereof under either basic or acidic conditions; to selectively produce the compound of formula where R 2 is as defined in formula I and R 3 is hydrogen, sodium, potassium or lithium.
A method for constructing a component, comprising: receiving a component template comprising instructions to control the operation of a fused filament fabrication, FFF, device; depositing, by a nozzle of the FFF device, a first layer (106, 406) formed from first parallel abutting laid down extrusions (202, 420) of material in a first orientation according to the component template and second parallel abutting laid down extrusions of material in an orientation different than the first orientation, wherein the first layer (106, 406) is manufactured using multi-directional layering strengthening, wherein depositing the first layer (106, 406) of parallel abutting laid down extrusions (202, 420) is performed using a mandrel, wherein an end of the first parallel abutting laid down extrusions (202, 420) and an end of the second parallel abutting laid down extrusions join at a junction; and depositing, by the nozzle, a second layer of parallel abutting laid down extrusions of the material in a second orientation according to a first offset angle with respect to the first orientation as provided by the component template, wherein each of the laid down extrusions is expelled from the nozzle. receiving a component template comprising instructions to control the operation of a fused filament fabrication, FFF, device; depositing, by a nozzle of the FFF device, a first layer (106, 406) formed from first parallel abutting laid down extrusions (202, 420) of material in a first orientation according to the component template and second parallel abutting laid down extrusions of material in an orientation different than the first orientation, wherein the first layer (106, 406) is manufactured using multi-directional layering strengthening, wherein depositing the first layer (106, 406) of parallel abutting laid down extrusions (202, 420) is performed using a mandrel, wherein an end of the first parallel abutting laid down extrusions (202, 420) and an end of the second parallel abutting laid down extrusions join at a junction; and depositing, by the nozzle, a second layer of parallel abutting laid down extrusions of the material in a second orientation according to a first offset angle with respect to the first orientation as provided by the component template, wherein each of the laid down extrusions is expelled from the nozzle.
A power module comprising: a first metallic pattern formed on a front surface of an insulating mounting substrate; at least one power device bonded on the first metallic pattern; a frame member disposed so as to collectively enclose the at least one power device on the first metallic pattern, the thickness of the frame member being thicker than the thickness of the at least one power device; a second metallic pattern (5, 7) disposed outside the frame member, the second metallic pattern (5, 7) being disposed on the front surface of the insulating mounting substrate; and a resin layer configured to seal the at least one power device, the first metallic pattern, and the second metallic pattern (5, 7) including the frame member, wherein the coefficient of thermal expansion of the frame member is smaller than the coefficient of thermal expansion of the first metallic pattern, and in cross-section the frame member is any one of a T-shaped structure, an inverted-L-shaped structure, or a ┌-shaped structure. a first metallic pattern formed on a front surface of an insulating mounting substrate; at least one power device bonded on the first metallic pattern; a frame member disposed so as to collectively enclose the at least one power device on the first metallic pattern, the thickness of the frame member being thicker than the thickness of the at least one power device; a second metallic pattern (5, 7) disposed outside the frame member, the second metallic pattern (5, 7) being disposed on the front surface of the insulating mounting substrate; and a resin layer configured to seal the at least one power device, the first metallic pattern, and the second metallic pattern (5, 7) including the frame member, wherein the coefficient of thermal expansion of the frame member is smaller than the coefficient of thermal expansion of the first metallic pattern, and in cross-section the frame member is any one of a T-shaped structure, an inverted-L-shaped structure, or a ┌-shaped structure.
Silencer for compressed air systems, comprising: an inlet opening for a compressed gas flow, a first sound damping means being arranged downstream of the inlet opening; a second sound damping means being arranged downstream of the first sound damping means; the silencer being characterized by a grid being arranged downstream of the second sound damping means, comprising at least two passages through which the compressed air flow is adapted to leave the silencer, wherein the first sound damping means has a smaller diameter compared to the second sound damping means, and wherein the second sound damping means has at least a portion with higher density compared to the first sound damping means. an inlet opening for a compressed gas flow, a first sound damping means being arranged downstream of the inlet opening; a second sound damping means being arranged downstream of the first sound damping means; the silencer being characterized by a grid being arranged downstream of the second sound damping means, comprising at least two passages through which the compressed air flow is adapted to leave the silencer, wherein the first sound damping means has a smaller diameter compared to the second sound damping means, and wherein the second sound damping means has at least a portion with higher density compared to the first sound damping means.
A method comprising: additively manufacturing a feedstock material to create an AM preform, wherein the AM preform is configured with a body having an internal passage defined therein, wherein the internal passage further includes at least one of a void and a channel; inserting a filler material into the internal passage of the AM preform; closing the AM preform with an enclosure component such that the filler material is retained within the internal passage of the AM preform, the enclosure component being selected from a mechanical attachment device, a cap, a plug or a combination thereof; and deforming the AM preform to a sufficient amount to create a product having an internal passage therein, wherein the product is configured with wrought properties for that material via the deforming step. additively manufacturing a feedstock material to create an AM preform, wherein the AM preform is configured with a body having an internal passage defined therein, wherein the internal passage further includes at least one of a void and a channel; inserting a filler material into the internal passage of the AM preform; closing the AM preform with an enclosure component such that the filler material is retained within the internal passage of the AM preform, the enclosure component being selected from a mechanical attachment device, a cap, a plug or a combination thereof; and deforming the AM preform to a sufficient amount to create a product having an internal passage therein, wherein the product is configured with wrought properties for that material via the deforming step.
A coffee maker comprising: a stator frame; a grinding chamber, having a cavity; and a cover; wherein the cavity is mounted on the stator frame, the cavity is covered by the cover to form a grinding cavity, a bottom of the grinding cavity is provided with a beverage outlet; a grinding device, having a grinding knife tackle, provided in the grinding cavity; and a motor, provided outside the grinding cavity and configured for driving the grinding knife tackle to rotate; a coffee strainer, circularly arranged on a periphery of the grinding knife tackle; wherein, a lower part of the coffee strainer abuts a bottom wall of the grinding cavity so as to separate the grinding cavity into a grinding bean cavity and a beverage cavity that is disposed around the periphery of the grinding bean cavity, the beverage outlet is communicated with the beverage cavity; a hot water supply device, communicated with the grinding cavity and configured to supply hot water into the grinding bean cavity; a pressure space is formed in an upper part of the grinding bean cavity after a preset volume of the hot water is injected into the grinding bean cavity characterized in that, the hot water supply device is configured to inject air to the grinding bean cavity, to increase or maintain an air pressure in the pressure space, wherein the air pressure in the pressure space is greater than or equal to 1 bar, and less than or equal to 2 bar. a stator frame; a grinding chamber, having a cavity; and a cover; wherein the cavity is mounted on the stator frame, the cavity is covered by the cover to form a grinding cavity, a bottom of the grinding cavity is provided with a beverage outlet; a cavity; and a cover; wherein the cavity is mounted on the stator frame, the cavity is covered by the cover to form a grinding cavity, a bottom of the grinding cavity is provided with a beverage outlet; a grinding device, having a grinding knife tackle, provided in the grinding cavity; and a motor, provided outside the grinding cavity and configured for driving the grinding knife tackle to rotate; a coffee strainer, circularly arranged on a periphery of the grinding knife tackle; wherein, a lower part of the coffee strainer abuts a bottom wall of the grinding cavity so as to separate the grinding cavity into a grinding bean cavity and a beverage cavity that is disposed around the periphery of the grinding bean cavity, the beverage outlet is communicated with the beverage cavity; a hot water supply device, communicated with the grinding cavity and configured to supply hot water into the grinding bean cavity; a pressure space is formed in an upper part of the grinding bean cavity after a preset volume of the hot water is injected into the grinding bean cavity characterized in that, the hot water supply device is configured to inject air to the grinding bean cavity, to increase or maintain an air pressure in the pressure space, wherein the air pressure in the pressure space is greater than or equal to 1 bar, and less than or equal to 2 bar.