mhurhangee/ep-ind-claims huggingface dataset:
A ventilation control system for a cabin of a vehicle, said system comprising: - a unit capable of providing an air flow directed towards the cabin; - at least a first, second and third air circuits (11, 12, 13), each air circuit being capable of directing an air sub flow (F1, F2, F3) - forming at least part of the air flow - towards the cabin through at least one opening (17, 18, 19), the openings of the first, second and third air circuits being located respectively in a distinct first, second and third distribution areas (21, 22, 23) in the cabin; - a distribution input device which comprises for each air circuit (11, 12, 13) a dedicated control member (33, 34, 35) to allow the user to manually select the rate (Q1, Q2, Q3) of the air sub flow (F1, F2, F3) in said air circuit (11, 12, 13); - an electronic control unit which is connected to the distribution input device and which is capable of controlling the rates (Q1, Q2, Q3) of the air sub flows (F1, F2, F3) according to the rate (Q1, Q2, Q3) of the air sub flow (F1, F2, F3) manually selected for one air circuit (11, 12, 13), characterized in that the distribution input device comprises only one dedicated control member (33, 34, 35) for each air circuit and the manual actuations of each dedicated control member (33, 34, 35) can only cause one-way variations of the sub-flow rate (Q1, Q2, Q3) in the corresponding air circuit (11, 12, 13).such that rates (Q1, Q2, Q3) in other air circuits (11, 12, 13) are then automatically adjusted in such a way that the sum of all air sub flow rates (Q1, Q2, Q3) remains substantially constant. - a unit capable of providing an air flow directed towards the cabin; - at least a first, second and third air circuits (11, 12, 13), each air circuit being capable of directing an air sub flow (F1, F2, F3) - forming at least part of the air flow - towards the cabin through at least one opening (17, 18, 19), the openings of the first, second and third air circuits being located respectively in a distinct first, second and third distribution areas (21, 22, 23) in the cabin; - a distribution input device which comprises for each air circuit (11, 12, 13) a dedicated control member (33, 34, 35) to allow the user to manually select the rate (Q1, Q2, Q3) of the air sub flow (F1, F2, F3) in said air circuit (11, 12, 13); - an electronic control unit which is connected to the distribution input device and which is capable of controlling the rates (Q1, Q2, Q3) of the air sub flows (F1, F2, F3) according to the rate (Q1, Q2, Q3) of the air sub flow (F1, F2, F3) manually selected for one air circuit (11, 12, 13),
An ultrasound probe, comprising: a housing); a first one-dimensional ultrasound transducer array and a second one-dimensional ultrasound transducer array contained in the housing, the first one-dimensional ultrasound transducer array and the second one-dimensional ultrasound transducer array being oriented in a first direction (168-5, 170-5), the second one-dimensional ultrasound transducer array being arranged in parallel with the first one-dimensional ultrasound transducer array; a first electromechanical drive contained within the housing, the first electromechanical drive configured to move the first one-dimensional ultrasound transducer array in a transverse direction perpendicular to the first direction (168-5, 170-5) to define a first sweep pattern; a second electromechanical drive contained within the housing, the second electromechanical drive configured to move the second one-dimensional ultrasound transducer array in a transverse direction perpendicular to the first direction (168-5, 170-5) to define a second sweep pattern; and an electronic control circuit electrically coupled to the first electromechanical drive and to the second electromechanical drive, the electronic control circuit configured to provide first control signals to each of the first electromechanical drive and the second electromechanical drive to generate a first composite sweep pattern of the first one-dimensional ultrasound transducer array and the second one-dimensional ultrasound transducer array as a combination of the first sweep pattern and the second sweep pattern. a housing); a first one-dimensional ultrasound transducer array and a second one-dimensional ultrasound transducer array contained in the housing, the first one-dimensional ultrasound transducer array and the second one-dimensional ultrasound transducer array being oriented in a first direction (168-5, 170-5), the second one-dimensional ultrasound transducer array being arranged in parallel with the first one-dimensional ultrasound transducer array; a first electromechanical drive contained within the housing, the first electromechanical drive configured to move the first one-dimensional ultrasound transducer array in a transverse direction perpendicular to the first direction (168-5, 170-5) to define a first sweep pattern; a second electromechanical drive contained within the housing, the second electromechanical drive configured to move the second one-dimensional ultrasound transducer array in a transverse direction perpendicular to the first direction (168-5, 170-5) to define a second sweep pattern; and an electronic control circuit electrically coupled to the first electromechanical drive and to the second electromechanical drive, the electronic control circuit configured to provide first control signals to each of the first electromechanical drive and the second electromechanical drive to generate a first composite sweep pattern of the first one-dimensional ultrasound transducer array and the second one-dimensional ultrasound transducer array as a combination of the first sweep pattern and the second sweep pattern.
A gripping member (101, 201, 301) attachable to a work tool, the gripping member (101, 201, 301) comprising: atop surface; a bottom surface; a first gripping edge extending between the top surface and the bottom surface and having a length; characterised by an overbite block (105, 205a, 205b, 305, 405) that is located proximate a middle portion of the length of the first gripping edge proximate to the first gripping edge, the overbite block having a depth that is less than the gripping edge width of the gripping edge such that the overbite block is slighting inboard from a leading edge of the gripping edge. atop surface; a bottom surface; a first gripping edge extending between the top surface and the bottom surface and having a length; characterised by an overbite block (105, 205a, 205b, 305, 405) that is located proximate a middle portion of the length of the first gripping edge proximate to the first gripping edge, the overbite block having a depth that is less than the gripping edge width of the gripping edge such that the overbite block is slighting inboard from a leading edge of the gripping edge.
A container system comprising: a cold tray removably mounted within a container system interior such that the cold tray divides the container interior into an upper portion and a lower portion; and a refrigerant mounted to a cold tray housing; the cold tray including a fan module having upper and lower circulation fans (142, 152) configured to draw air from the container interior into the cold tray housing such that the air passes over the refrigerant and is discharged back into the container interior, the upper fan being arranged to direct air in a generally upward direction toward the upper portion to form an upper airflow circuit and the lower fan being arranged to direct air in a generally downward direction into the lower portion to form a lower airflow circuit; the upper and lower fans being configured to be operated to provide differential amounts and/or temperatures of cooled air into the respective upper and lower portions (52, 54) wherein one of the upper and lower fans being arranged to be operated on a more frequent basis and/or for extended durations such that a relatively greater amount of cooled air is circulated into the respective upper or lower airflow circuit as compared to the amount of cooled air that is circulated into the other respective lower or upper airflow circuit, respectively. a cold tray removably mounted within a container system interior such that the cold tray divides the container interior into an upper portion and a lower portion; and a refrigerant mounted to a cold tray housing; the cold tray including a fan module having upper and lower circulation fans (142, 152) configured to draw air from the container interior into the cold tray housing such that the air passes over the refrigerant and is discharged back into the container interior, the upper fan being arranged to direct air in a generally upward direction toward the upper portion to form an upper airflow circuit and the lower fan being arranged to direct air in a generally downward direction into the lower portion to form a lower airflow circuit; the upper and lower fans being configured to be operated to provide differential amounts and/or temperatures of cooled air into the respective upper and lower portions (52, 54) wherein one of the upper and lower fans being arranged to be operated on a more frequent basis and/or for extended durations such that a relatively greater amount of cooled air is circulated into the respective upper or lower airflow circuit as compared to the amount of cooled air that is circulated into the other respective lower or upper airflow circuit, respectively.
A power compartment, comprising: a compartment; an engine, arranged in the compartment and having a cooling liquid flow path for cooling liquid to circulate; a radiator, arranged in the compartment and communicating with the cooling liquid flow path of the engine; a ventilation port, arranged on the compartment to introduce air for exchanging heat with the radiator or discharge the air which has exchanged heat with the radiator; characterized in that it further comprises a noise-reducing unit, arranged on the ventilation port and comprising a first grille, a second grille and a first elastic part, wherein the first grille and the second grille are stacked along a thickness direction of a wall of the compartment, a distance between the second grille and the first grille is adjustable, the first elastic part configured to push the first grille towards the second grille, the first grille comprises a plurality of first air ports arranged in parallel and a first solid part located between the two adjacent first air ports, the second grille comprises a plurality of second air ports arranged in parallel and a second solid part located between the two adjacent second air ports, and a projection of each second air opening in a plane vertical to a thickness direction partially or all overlaps a projection of the first solid part in the plane, so that air from each second air opening drives the first grille away from the second grille. a compartment; an engine, arranged in the compartment and having a cooling liquid flow path for cooling liquid to circulate; a radiator, arranged in the compartment and communicating with the cooling liquid flow path of the engine; a ventilation port, arranged on the compartment to introduce air for exchanging heat with the radiator or discharge the air which has exchanged heat with the radiator; characterized in that it further comprises a noise-reducing unit, arranged on the ventilation port and comprising a first grille, a second grille and a first elastic part, wherein the first grille and the second grille are stacked along a thickness direction of a wall of the compartment, a distance between the second grille and the first grille is adjustable, the first elastic part configured to push the first grille towards the second grille, the first grille comprises a plurality of first air ports arranged in parallel and a first solid part located between the two adjacent first air ports, the second grille comprises a plurality of second air ports arranged in parallel and a second solid part located between the two adjacent second air ports, and a projection of each second air opening in a plane vertical to a thickness direction partially or all overlaps a projection of the first solid part in the plane, so that air from each second air opening drives the first grille away from the second grille.
A linear illumination device, comprising a side-emitting transparent light guide made of glass, which is held in a profile in a form-fitting manner by means of a mounting element, characterised in that the mounting element has wings projecting laterally beyond the light guide, wherein the light guide is recessed relative to the adjoining profile.
A method for forming a hole within a ceramic matrix composite component, the method comprising: forming a first core portion for a ceramic matrix composite component; embedding a hollow member into the first core portion at a desired location; wrapping the first core portion with a first ceramic matrix composite material; inserting a rod through the hollow member and into the first core portion; removing the hollow member; assembling a second core portion to the first core portion such that the rod extends into the second core portion; and wrapping the first core portion and the second core portion with a second ceramic matrix composite material. forming a first core portion for a ceramic matrix composite component; embedding a hollow member into the first core portion at a desired location; wrapping the first core portion with a first ceramic matrix composite material; inserting a rod through the hollow member and into the first core portion; removing the hollow member; assembling a second core portion to the first core portion such that the rod extends into the second core portion; and wrapping the first core portion and the second core portion with a second ceramic matrix composite material.
A system for chopping and spreading residue in an agricultural combine comprising: a chopper disposed in a crop residue flow path to receive crop residue from a threshing and separating mechanism, the chopper having a rotational axis that extends horizontally and transversely to a harvesting direction of travel; a residue accelerator disposed downstream of the chopper to receive chopped residue from the chopper and to accelerate the chopped residue; a residue spreader disposed downstream of the residue accelerator to spread the chopped residue accelerated by the residue accelerator; wherein the residue accelerator further comprises an elongate drum having a rotating axis that is disposed horizontally and transversely to the harvesting direction of travel of the agricultural combine, a plurality of rings extending about the elongate drum and fixed to the elongate drum, and a plurality of vanes extending between and fixed to each adjacent pair of rings, characterized in that a vane extension is removably fixed to each of the plurality of vanes, that each of the plurality of rings has a plurality of extensions extending outwardly from a central region of each said ring, the extensions defining, on their front face with respect to the rotation direction of the elongate drum, an elongate slot extending radially outwardly from the outer surface of the elongate drum, and that the plurality of vanes extending between and fixed to each adjacent pair of rings is welded to one of the elongate slots. a chopper disposed in a crop residue flow path to receive crop residue from a threshing and separating mechanism, the chopper having a rotational axis that extends horizontally and transversely to a harvesting direction of travel; a residue accelerator disposed downstream of the chopper to receive chopped residue from the chopper and to accelerate the chopped residue; a residue spreader disposed downstream of the residue accelerator to spread the chopped residue accelerated by the residue accelerator; wherein the residue accelerator further comprises an elongate drum having a rotating axis that is disposed horizontally and transversely to the harvesting direction of travel of the agricultural combine, a plurality of rings extending about the elongate drum and fixed to the elongate drum, and a plurality of vanes extending between and fixed to each adjacent pair of rings, characterized in that a vane extension is removably fixed to each of the plurality of vanes, that each of the plurality of rings has a plurality of extensions extending outwardly from a central region of each said ring, the extensions defining, on their front face with respect to the rotation direction of the elongate drum, an elongate slot extending radially outwardly from the outer surface of the elongate drum, and that the plurality of vanes extending between and fixed to each adjacent pair of rings is welded to one of the elongate slots.
A computing device, comprising: an enclosure that houses an electrical component; and an antenna communicatively coupled to the electrical component, the antenna enabling wireless communication with a component of the computing device, characterized in that the computing device comprises: a latch assembly disposed on the enclosure, the latch assembly to facilitate coupling the enclosure to a rack; wherein the latch assembly comprises the antenna. an enclosure that houses an electrical component; and an antenna communicatively coupled to the electrical component, the antenna enabling wireless communication with a component of the computing device, characterized in that the computing device comprises: a latch assembly disposed on the enclosure, the latch assembly to facilitate coupling the enclosure to a rack; wherein the latch assembly comprises the antenna. a latch assembly disposed on the enclosure, the latch assembly to facilitate coupling the enclosure to a rack; wherein the latch assembly comprises the antenna.
A method of additive manufacturing comprising, (i) providing a multi-functional Michael donor, rheological modifier, a multi-functional Michael acceptor, and a catalyst, (ii) mixing the multi-functional Michael donor, the rheological modifier, the multifunctional Michael acceptor, and the catalyst to form a mixture, (iii) dispensing the mixture through a nozzle to form an extrudate deposited on a base, (iv) moving the base, nozzle or combination thereof while dispensing the mixture so that there is horizontal displacement between the base and nozzle in a predetermined pattern to form an initial layer of the extrudate on the base, and (v) repeating steps (ii) and (iv) to form a successive layer of the extrudate adhered on the initial layer to form an additive manufactured part. (i) providing a multi-functional Michael donor, rheological modifier, a multi-functional Michael acceptor, and a catalyst, (ii) mixing the multi-functional Michael donor, the rheological modifier, the multifunctional Michael acceptor, and the catalyst to form a mixture, (iii) dispensing the mixture through a nozzle to form an extrudate deposited on a base, (iv) moving the base, nozzle or combination thereof while dispensing the mixture so that there is horizontal displacement between the base and nozzle in a predetermined pattern to form an initial layer of the extrudate on the base, and (v) repeating steps (ii) and (iv) to form a successive layer of the extrudate adhered on the initial layer to form an additive manufactured part.
A method, comprising: receiving, by image processing circuitry (124; 602) configured to compress color image data, color image data representing a color image from an imaging system having chromatic aberration, the color image including a first, green, color channel and a second color channel that is a red or blue color channel, the first color channel forming a first image (310) and the second color channel forming a second image (310, 310), the chromatic aberration of the imaging system producing a separation between an edge of the first image (310) and an edge of the second image (310, 310) and being represented as vector displacements between the edge of the first image (310) and the edge of the second image (310, 310), the vector displacements being weighted according to proximity to the edge of the second image (310, 310); performing, by the image processing circuitry (124; 602), a chromatic aberration correction operation on the color image data to produce corrected color image data representing a corrected color image, the chromatic aberration correction operation being based on the chromatic aberration of the imaging system, the corrected color image having a reduced separation between the edge of the first image (310) and the edge of the second image (310, 310) represented by the weighted vector displacements; and performing, by the image processing circuitry (124; 602), an image compression operation on the corrected color image data to produce compressed color image data, the compressed color image data having fewer bits of information than the corrected color image data. receiving, by image processing circuitry (124; 602) configured to compress color image data, color image data representing a color image from an imaging system having chromatic aberration, the color image including a first, green, color channel and a second color channel that is a red or blue color channel, the first color channel forming a first image (310) and the second color channel forming a second image (310, 310), the chromatic aberration of the imaging system producing a separation between an edge of the first image (310) and an edge of the second image (310, 310) and being represented as vector displacements between the edge of the first image (310) and the edge of the second image (310, 310), the vector displacements being weighted according to proximity to the edge of the second image (310, 310); performing, by the image processing circuitry (124; 602), a chromatic aberration correction operation on the color image data to produce corrected color image data representing a corrected color image, the chromatic aberration correction operation being based on the chromatic aberration of the imaging system, the corrected color image having a reduced separation between the edge of the first image (310) and the edge of the second image (310, 310) represented by the weighted vector displacements; and performing, by the image processing circuitry (124; 602), an image compression operation on the corrected color image data to produce compressed color image data, the compressed color image data having fewer bits of information than the corrected color image data.
A flow battery reservoir, comprising: a reservoir housing; an electrolyte inlet configured to provide an electrolyte mixture comprising a liquid metal-halide electrolyte solution and a complexed halogen phase at or toward a stagnant zone in a lower portion of the reservoir; and an electrolyte outlet configured to outlet the liquid metal-halide electrolyte solution from the reservoir, wherein the electrolyte outlet is positioned such that in use the liquid metal-halide solution flows upward against the force of gravity to reach the electrolyte outlet while the complexed halogen phase settles in the stagnant zone. a reservoir housing; an electrolyte inlet configured to provide an electrolyte mixture comprising a liquid metal-halide electrolyte solution and a complexed halogen phase at or toward a stagnant zone in a lower portion of the reservoir; and an electrolyte outlet configured to outlet the liquid metal-halide electrolyte solution from the reservoir, wherein the electrolyte outlet is positioned such that in use the liquid metal-halide solution flows upward against the force of gravity to reach the electrolyte outlet while the complexed halogen phase settles in the stagnant zone.