mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a hydrogen generator comprising a hydrogen generation unit, a hydrodesulfurizer, a recycle gas passage, a first detector configured to detect a temperature of the hydrodesulfurizer, and a controller configured to control the operation of the hydrogen generator, the method comprising: while the hydrogen generator is in operation, a step (a) of generating a hydrogen-containing gas by the hydrogen generation unit by using a raw material; and a step (b) of removing a sulfur compound from the raw material by the hydrodesulfurizer which is heated by heat transferred from the hydrogen generation unit; at operation stop or re-starting, determining whether or not the temperature of the hydrodesulfurizer is lower than or equal to a first predetermined temperature; and a step (c) of performing an operation of supplying the raw material to the hydrodesulfurizer after stopping the generating of the hydrogen-containing gas by the hydrogen generation unit, and if the temperature of the hydrodesulfurizer is lower than or equal to the first predetermined temperature, the first predetermined temperature corresponding to such a temperature of the hydrodesulfurizer at which carbon deposition from the raw material onto a hydrodesulfurization catalyst is suppressed. while the hydrogen generator is in operation, a step (a) of generating a hydrogen-containing gas by the hydrogen generation unit by using a raw material; and a step (b) of removing a sulfur compound from the raw material by the hydrodesulfurizer which is heated by heat transferred from the hydrogen generation unit; at operation stop or re-starting, determining whether or not the temperature of the hydrodesulfurizer is lower than or equal to a first predetermined temperature; and a step (c) of performing an operation of supplying the raw material to the hydrodesulfurizer after stopping the generating of the hydrogen-containing gas by the hydrogen generation unit, and if the temperature of the hydrodesulfurizer is lower than or equal to the first predetermined temperature, the first predetermined temperature corresponding to such a temperature of the hydrodesulfurizer at which carbon deposition from the raw material onto a hydrodesulfurization catalyst is suppressed.
A sheath for an intravascular probe for insertion into a vasculature, the sheath comprising: a flexible sheath having an ultrasound probe lumen for receiving a sensing probe; a distal tip attached to a distal extremity of the flexible sheath and defining a guide wire lumen having a distal guide wire opening and a proximal guidewire opening extending through a sidewall, wherein the distal tip includes an inner layer adjacent the guide wire lumen, a middle layer adjacent the inner layer, an outer layer adjacent the middle layer; a support member positioned within at least the distal extremity of the flexible sheath adjacent the distal tip and forming a reinforced transition region, wherein the support member is configured to prevent collapse of the distal extremity of the sheath during advancement along the guidewire; and the proximal guidewire opening includes a flush hole configured to allow saline to flow out of the ultrasound proble lumen. a flexible sheath having an ultrasound probe lumen for receiving a sensing probe; a distal tip attached to a distal extremity of the flexible sheath and defining a guide wire lumen having a distal guide wire opening and a proximal guidewire opening extending through a sidewall, wherein the distal tip includes an inner layer adjacent the guide wire lumen, a middle layer adjacent the inner layer, an outer layer adjacent the middle layer; a support member positioned within at least the distal extremity of the flexible sheath adjacent the distal tip and forming a reinforced transition region, wherein the support member is configured to prevent collapse of the distal extremity of the sheath during advancement along the guidewire; and the proximal guidewire opening includes a flush hole configured to allow saline to flow out of the ultrasound proble lumen.
A method for training a classifier, the method comprising: collecting, with a processor, a plurality of training samples from an atlas image having at least one pre-identified structure of interest, wherein the atlas image includes a plurality of image data points, wherein the plurality of training samples are randomly selected from image data points located within a threshold distance from a contour of the structure of interest; computing, with the processor, a set of image attributes associated with each collected training sample; and applying, with the processor, the collected training samples and the computed image attributes associated with the collected training samples to a machine-learning algorithm to generate a trained structure classifier, the structure classifier being configured to determine a structure of interest in a subject image. collecting, with a processor, a plurality of training samples from an atlas image having at least one pre-identified structure of interest, wherein the atlas image includes a plurality of image data points, wherein the plurality of training samples are randomly selected from image data points located within a threshold distance from a contour of the structure of interest; computing, with the processor, a set of image attributes associated with each collected training sample; and applying, with the processor, the collected training samples and the computed image attributes associated with the collected training samples to a machine-learning algorithm to generate a trained structure classifier, the structure classifier being configured to determine a structure of interest in a subject image.
A filter element configured for use with an air cleaner housing having a pivot receptacle in a housing base and a clamping cam surface on a pivotable housing lid, the filter element, comprising: a filter media pack having an inlet end, an outlet end and an outer periphery extending between the inlet end and the outlet end, the inlet end and the outlet end being separated along a central axis; a frame supporting the filter media pack, the frame including a pivot projection and a clamp projection in spaced apart relationship, the pivot projection and the clamp projection projecting outwardly away from the outer periphery; and a housing seal supported by the frame surrounding the central axis; wherein the clamp projection and the pivot projection are located on opposite sides (70c, 70d) of the frame, characterised in that: the clamp projection defines a non-linear bearing surface extending in a direction transverse to the central axis, the pivot projection is configured and arranged for engagement with the pivot receptacle and the non-linear bearing surface is configured and arranged for engagement with the clamping cam surface, the non-linear bearing surface being arranged relative to the pivot projection to cooperate for receiving forces in an axial direction of the central axis so that the filter element is configured to develop an axial clamping force along the central axis for axial sealing of the housing seal, wherein the clamp projection comprises a block member defining a central recess configured for receiving a center camming projection of the clamping cam surface and first and second wings on opposed sides defining portions of the non-linear bearing surface. a filter media pack having an inlet end, an outlet end and an outer periphery extending between the inlet end and the outlet end, the inlet end and the outlet end being separated along a central axis; a frame supporting the filter media pack, the frame including a pivot projection and a clamp projection in spaced apart relationship, the pivot projection and the clamp projection projecting outwardly away from the outer periphery; and a housing seal supported by the frame surrounding the central axis; wherein the clamp projection and the pivot projection are located on opposite sides (70c, 70d) of the frame, characterised in that: the clamp projection defines a non-linear bearing surface extending in a direction transverse to the central axis, the pivot projection is configured and arranged for engagement with the pivot receptacle and the non-linear bearing surface is configured and arranged for engagement with the clamping cam surface, the non-linear bearing surface being arranged relative to the pivot projection to cooperate for receiving forces in an axial direction of the central axis so that the filter element is configured to develop an axial clamping force along the central axis for axial sealing of the housing seal, wherein the clamp projection comprises a block member defining a central recess configured for receiving a center camming projection of the clamping cam surface and first and second wings on opposed sides defining portions of the non-linear bearing surface.
The use of a polymer comprising polymerized units and: at least one first monomer of the formula: where n is 3 to 12; m is 0 to 3; R 1 is C 1 -C 10 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; R 2, R 3 and R 4 are each, independently of one another, hydrogen, C 1 -C 10 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; and at least one second monomer of the formula where R 5, R 6 and R 7 are each, independently of one another, hydrogen, C 1 -C 10 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; R 8 is C 1 -C 20 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; as a support material in a fused filament fabrication process. at least one first monomer of the formula: where n is 3 to 12; m is 0 to 3; R 1 is C 1 -C 10 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; R 2, R 3 and R 4 are each, independently of one another, hydrogen, C 1 -C 10 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; and n is 3 to 12; m is 0 to 3; R 1 is C 1 -C 10 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; R 2, R 3 and R 4 are each, independently of one another, hydrogen, C 1 -C 10 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; and at least one second monomer of the formula where R 5, R 6 and R 7 are each, independently of one another, hydrogen, C 1 -C 10 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; R 8 is C 1 -C 20 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; R 5, R 6 and R 7 are each, independently of one another, hydrogen, C 1 -C 10 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl; R 8 is C 1 -C 20 -alkyl, C 2 -C 10 -alkenyl, aryl or aralkyl;
A method for wireless communication by a User Equipment, LTE, comprising: performing a transmission of at least one code block of a control channel, the at least one code block including bits corresponding to an acknowledgement, ACK, Scheduling Request, SR, and Channel State Information, CSI, wherein each code block is polar encoded by assigning bit indices of the code block to bit channels in a particular order of reliabilities of the bit channels, wherein bit indices are assigned the most reliable bit channels in the order ACK bits, SR bits and CSI bits; detecting a trigger; and performing a retransmission, in response to the trigger, of at least a portion of each code block including the ACK bits, the SR bits and retransmitted CSI, wherein the portion is polar encoded by assigning bit indices the most reliable bit channels in the order ACK bits, SR bits and CSI bits, but the bit indices of the retransmitted CSI are assigned to the bit channels in the reverse order of reliabilities of the bit channels as compared to the polar encoding of the CSI in the transmission. performing a transmission of at least one code block of a control channel, the at least one code block including bits corresponding to an acknowledgement, ACK, Scheduling Request, SR, and Channel State Information, CSI, wherein each code block is polar encoded by assigning bit indices of the code block to bit channels in a particular order of reliabilities of the bit channels, wherein bit indices are assigned the most reliable bit channels in the order ACK bits, SR bits and CSI bits; detecting a trigger; and performing a retransmission, in response to the trigger, of at least a portion of each code block including the ACK bits, the SR bits and retransmitted CSI, wherein the portion is polar encoded by assigning bit indices the most reliable bit channels in the order ACK bits, SR bits and CSI bits, but the bit indices of the retransmitted CSI are assigned to the bit channels in the reverse order of reliabilities of the bit channels as compared to the polar encoding of the CSI in the transmission.
An engine device comprising: an intake valve configured to cause a main combustion chamber in a cylinder of an engine to take in air; an exhaust valve configured to cause the main combustion chamber to discharge combustion gas; a main fuel injection valve configured to jet and burn liquid fuel in the main combustion chamber; and a gas injector configured to mix gas fuel with the air taken in by the main combustion chamber, characterized in that a gas fuel pipe configured to supply the gas fuel to the gas injector and a liquid fuel pipe configured to supply the liquid fuel to the main fuel injection valve are disposed to be divided on both sides of a row of head covers arranged in a line, wherein an intake manifold configured to supply the air taken in by the main combustion chamber toward the intake valve extends in parallel to the row of head covers in a cylinder block, and the gas fuel pipe and the intake manifold are arranged on the same side of the row of head covers, and wherein an exhaust manifold configured to collect the combustion gas from the main combustion chamber extends in parallel to the row of head covers, and on the same side of the row of head covers, the exhaust manifold and the intake manifold are disposed to be divided above and below the gas fuel pipe.
A printed antenna assembly for the transmission of radio frequency signals, the printed antenna comprising: a planar printed circuit board having a first planar surface and a second planar surface, the first and second planar surfaces being parallel and spaced by a material thickness, the printed circuit board including a mounting section and an antenna section integrally formed with each other; an antenna driving circuit mounted to the first planar surface of the mounting section for generating the radio frequency signals to be transmitted by the printed antenna; a layer of electrically conductive material on the second planar surface of the mounting section of the printed circuit board, which forms a ground plane for the printed circuit board antenna and provides a first radiating element of a half-wavelength dipole antenna; a radiating strip formed on the antenna section of the printed circuit board and coupled to the ground plane and forming a second radiating element of the half-wavelength dipole antenna; and an impedance matching strip formed on the antenna section of the printed circuit board and coupled to the radiating strip, the impedance matching strip having a length selected to match the impedance of the antenna driving circuit, wherein the impedance matching strip and the radiation strip are formed on the second planar surface of the printed circuit board and contained entirely on the antenna section so as to be spaced from and not overlie any portion of the layer of electrically conductive material. a planar printed circuit board having a first planar surface and a second planar surface, the first and second planar surfaces being parallel and spaced by a material thickness, the printed circuit board including a mounting section and an antenna section integrally formed with each other; an antenna driving circuit mounted to the first planar surface of the mounting section for generating the radio frequency signals to be transmitted by the printed antenna; a layer of electrically conductive material on the second planar surface of the mounting section of the printed circuit board, which forms a ground plane for the printed circuit board antenna and provides a first radiating element of a half-wavelength dipole antenna; a radiating strip formed on the antenna section of the printed circuit board and coupled to the ground plane and forming a second radiating element of the half-wavelength dipole antenna; and
A printed output inspection unit (130, 150, 300) for a web printing system, comprising: a first L-inverter (200, 310) disposed in a first plane; a second L-inverter (200, 320) disposed in a second plane offset from the first plane in a direction orthogonal to the first plane; and a first inspection area between the first and second L-inverters to view a first side of a web substrate, the first inspection area extending in the direction orthogonal to the first plane. a first L-inverter (200, 310) disposed in a first plane; a second L-inverter (200, 320) disposed in a second plane offset from the first plane in a direction orthogonal to the first plane; and a first inspection area between the first and second L-inverters to view a first side of a web substrate, the first inspection area extending in the direction orthogonal to the first plane.
A method for preparing a graft copolymer, the method comprising: polymerizing a first conjugated diene-based polymer, a second conjugated diene-based polymer, an aromatic vinyl-based monomer and a vinyl cyan-based monomer, wherein particle size distribution of the first conjugated diene-based polymer is 0.346 to 0.404, and particle size distribution of the second conjugated diene-based polymer is 0.196 to 0.304, wherein the particle size distribution is measured using a dynamic light scattering method, and wherein the particle size distribution is calculated by the following equation Particle Size Distribution PSD = D 90 − D 10 / D 50 wherein D90, D10 and D50 are defined in the description in paragraphs,, and. polymerizing a first conjugated diene-based polymer, a second conjugated diene-based polymer, an aromatic vinyl-based monomer and a vinyl cyan-based monomer, wherein particle size distribution of the first conjugated diene-based polymer is 0.346 to 0.404, and particle size distribution of the second conjugated diene-based polymer is 0.196 to 0.304, wherein the particle size distribution is measured using a dynamic light scattering method, and wherein the particle size distribution is calculated by the following equation Particle Size Distribution PSD = D 90 − D 10 / D 50 wherein D90, D10 and D50 are defined in the description in paragraphs,, and.
A method of separating audio sources in audio content, the audio content including a plurality of channels, the method comprising: obtaining multiple data samples from multiple time-frequency tiles of the audio content; analyzing the data samples to generate multiple components in a plurality of iterations, wherein the multiple components are extracted by principal component analysis and each of the components indicates a direction with a variance of the data samples, and wherein analyzing the data samples comprises, in each of the plurality of iterations: weighting each of the data samples by a respective weight; analyzing the weighted data samples to generate multiple components; selecting a component from the multiple components; and determining, for the weighting of the data samples in a next iteration, the respective weight for each of the data samples based on the selected component; and determining a source direction of the audio content based on the selected component for separating an audio source from the audio content. obtaining multiple data samples from multiple time-frequency tiles of the audio content; analyzing the data samples to generate multiple components in a plurality of iterations, wherein the multiple components are extracted by principal component analysis and each of the components indicates a direction with a variance of the data samples, and wherein analyzing the data samples comprises, in each of the plurality of iterations: weighting each of the data samples by a respective weight; analyzing the weighted data samples to generate multiple components; selecting a component from the multiple components; and determining, for the weighting of the data samples in a next iteration, the respective weight for each of the data samples based on the selected component; and weighting each of the data samples by a respective weight; analyzing the weighted data samples to generate multiple components; selecting a component from the multiple components; and determining, for the weighting of the data samples in a next iteration, the respective weight for each of the data samples based on the selected component; and determining a source direction of the audio content based on the selected component for separating an audio source from the audio content.
Washing machine, in particular a dishwasher, of the type comprising a wash tub, a fluid supply duct connected to a hydraulic outlet located on a wall of said tub, and at least one upper rack adapted to slide in said tub and to be adjusted to two different height positions, to said upper rack being associated an upper hydraulic circuit which comprises: - a sprayer made of plastic material; - a tubular element comprising a first end and a second end; - connection means providing the hydraulic and mechanic connections between said first end of the tubular element and said sprayer, said connection means comprising a bush made of a plastic material which is different from the plastic material of which said sprayer is made; - a linking device at said second end adapted to engage into said hydraulic outlet, said linking device comprising fins adapted to be coupled to at least one rib being present on the hydraulic outlet and two inlets (61, 62) arranged vertically one on top of the other, in particular an upper inlet and a lower inlet, in order to allow the tubular element to be connected to the hydraulic outlet, wherein the hydraulic outlet comprises an open outlet hydraulically connected to the supply duct of the washing machine, a first and a second closed outlets located on opposite sides with respect to said open outlet, wherein the upper hydraulic circuit of the washing machine comprises compensation means which allow to compensate for any misalignment between the inlets (61, 62) of the linking device and the outlets (71, 72, 73) of the hydraulic outlet, and wherein said compensation means comprise at least one hooking element which provides a loose coupling to a wire of the rack, so that said upper hydraulic circuit is horizontally pivoted about an axis represented by the wire. - a sprayer made of plastic material; - a tubular element comprising a first end and a second end; - connection means providing the hydraulic and mechanic connections between said first end of the tubular element and said sprayer, said connection means comprising a bush made of a plastic material which is different from the plastic material of which said sprayer is made; - a linking device at said second end adapted to engage into said hydraulic outlet,