mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly including a structure of a motor vehicle and a shock absorbing system, said shock absorbing system including a support part of a bumper, at least one shock absorbing beam mounted on the structure of a vehicle, a bumper skin covering the beam and the support part , said support part including a base having means for attachment to an element of the structure of a motor vehicle, the part including at least one reinforcing element connected to the base by one of its ends and dimensioned so as to extend up to placing its other end, designated terminal, above the shock absorbing beam , the reinforcing element being present in the form of a profile and including at the level of its terminal end a face forming a surface substantially parallel to the base and intended to cooperate with the bumper skin for the purpose of the deformation of said reinforcing element , characterized in that said face of the terminal end has a height lower than the height presented by the reinforcing element at the level of its end which is connected to the base.
A vane for use in a turbine assembly, the vane comprising: an airfoil ; a vane platform defining a platform cavity configured to be cooled by a platform flow; a platform-fed through cavity defined in the airfoil and in fluid communication with the platform cavity and configured to be cooled by a first portion of the platform flow; a direct-fed through cavity defined in the airfoil and configured to be cooled by a through flow, wherein the direct-fed through cavity and the platform-fed through cavity meet at an outlet ; and a platform-fed serpentine cavity defined in the airfoil and separated from the platform-fed through cavity by a divider , wherein the platform-fed serpentine cavity is in fluid communication with the platform cavity and is configured to be cooled by a second portion of the platform flow. an airfoil ; a vane platform defining a platform cavity configured to be cooled by a platform flow; a platform-fed through cavity defined in the airfoil and in fluid communication with the platform cavity and configured to be cooled by a first portion of the platform flow; a direct-fed through cavity defined in the airfoil and configured to be cooled by a through flow, wherein the direct-fed through cavity and the platform-fed through cavity meet at an outlet ; and a platform-fed serpentine cavity defined in the airfoil and separated from the platform-fed through cavity by a divider , wherein the platform-fed serpentine cavity is in fluid communication with the platform cavity and is configured to be cooled by a second portion of the platform flow.
Method for regulating the speed of an electric motor for driving a constituent compressor of an air-conditioning circuit of a motor vehicle, the motor being supplied with electrical energy by an electrical energy reserve of the vehicle of which the use is regulated by a management unit , the implementation of the motor being regulated as a function of control commands generated by a control module according to the needs of the vehicle, the method comprising the following operations: -) monitoring by the management unit of the voltage (T) and/or of the current provided by the electrical energy reserve with regard to a nominal voltage threshold (SN), and in the event of detection by the management unit of a drop in voltage and/or current, -) generation by the management unit of an initial setpoint relating to an authorized consumption of electrical energy by the motor and deduction of a maximum authorized speed of the motor from the initial setpoint, the speed at which the compressor is driven by the motor is then reduced so as to limit its consumption of electrical energy, characterized in that the method comprises the following operations: -) monitoring by a control means of a state of overloading (E) of the compressor , and in the event of overloading of the compressor generation by the control means of at least one corrected setpoint (C1, C2) relating to a speed (V) of the motor preventing a state of overloading (E) of the compressor , -) in accordance with a given initial setpoint and with prevention of a state of overloading (E) of the compressor , the corrected setpoint (C2) varies according to the control commands in a range of speeds (P) . -) monitoring by the management unit of the voltage (T) and/or of the current provided by the electrical energy reserve with regard to a nominal voltage threshold (SN), and in the event of detection by the management unit of a drop in voltage and/or current, -) generation by the management unit of an initial setpoint relating to an authorized consumption of electrical energy by the motor and deduction of a maximum authorized speed of the motor from the initial setpoint, the speed at which the compressor is driven by the motor is then reduced so as to limit its consumption of electrical energy, characterized in that the method comprises the following operations: -) monitoring by a control means of a state of overloading (E) of the compressor , and in the event of overloading of the compressor generation by the control means of at least one corrected setpoint (C1, C2) relating to a speed (V) of the motor preventing a state of overloading (E) of the compressor , -) in accordance with a given initial setpoint and with prevention of a state of overloading (E) of the compressor , the corrected setpoint (C2) varies according to the control commands in a range of speeds (P) .
A vaccine composition comprising a cationic lipid and a therapeutic factor, wherein the therapeutic factor is GM-CSF, for use in treating or preventing cancer by reducing a myeloid-derived suppressor cell (MDSC) population in a mammal.
A method comprising: receiving a 360-degree virtual reality, also referred to as 360VR, video frame; and reformatting the video frame, wherein the reformatted video frame comprises a plurality of cubic faces that each corresponds to a different face of a cube, wherein the received 360VR video frame is in a spherical format or in a cubic format , and when the received 360VR video frame is in the cubic format , a plurality of cubic faces of the received 360VR video frame are arranged in a first layout that has a first width, and the cubic faces of the reformatted video frames are arranged in a second layout that has a second width that is narrower than the first width , characterized by encoding the reformatted video frame by storing reference pixels at a line buffer and performing prediction based on reference pixels stored at the line buffer, wherein the width of the line buffer is based on the second width, characterized in that the second width of the second layout is a width of one cubic face or two cubic faces, and the plurality of cubic faces in the reformatted video frame are arranged in (i) a single column of six faces or (ii) two columns of three cubic faces each. receiving a 360-degree virtual reality, also referred to as 360VR, video frame; and reformatting the video frame, wherein the reformatted video frame comprises a plurality of cubic faces that each corresponds to a different face of a cube, wherein the received 360VR video frame is in a spherical format or in a cubic format , and when the received 360VR video frame is in the cubic format , a plurality of cubic faces of the received 360VR video frame are arranged in a first layout that has a first width, and the cubic faces of the reformatted video frames are arranged in a second layout that has a second width that is narrower than the first width , characterized by encoding the reformatted video frame by storing reference pixels at a line buffer and performing prediction based on reference pixels stored at the line buffer, wherein the width of the line buffer is based on the second width, characterized in that the second width of the second layout is a width of one cubic face or two cubic faces, and the plurality of cubic faces in the reformatted video frame are arranged in (i) a single column of six faces or (ii) two columns of three cubic faces each.
A display for a vehicle configured for showing visual content and producing a hologram, in addition to the visual content, the display comprising: a backlight unit ; an illumination frame defining an opening and positioned in front of and encircling the backlight unit in the opening and including one or more light elements positioned about a periphery of the illumination frame ; and a holographic layer positioned in the opening of the illumination frame , wherein the one or more light elements is/are configured to emit light through the holographic layer to produce the hologram. a backlight unit ; an illumination frame defining an opening and positioned in front of and encircling the backlight unit in the opening and including one or more light elements positioned about a periphery of the illumination frame ; and a holographic layer positioned in the opening of the illumination frame , wherein the one or more light elements is/are configured to emit light through the holographic layer to produce the hologram.
An agrochemical composition for foliage treatment comprising pyroxasulfone in the crystalline state and a masking material that masks the pyroxasulfone, wherein the pyroxasulfone is microencapsulated in the masking material such that phytotoxicity to a cultivated crop due to adhesion thereto when foliage spraying is performed is avoided, wherein the masking material is polyurea, wherein a ratio of the masking material to the pyroxasulfone is in the range of 0.1 to 50 parts by mass relative to 1 part by mass of the pyroxasulfone, wherein pyroxasulfone is microencapsulated by using a hydrophobic polyisocyanate selected from polymethylene polyphenyl polyisocyanate, 4,4'-diphenylmethane diisocyanate and a mixture of 4,4'-diphenylmethane diisocyanate and 2,6-tolylene diisocyanate, polyvinyl alcohol as a water-soluble polymer, water as an active hydrogen-containing compound, and phenyl xylyl ethane as a hydrophobic solvent, wherein pyroxasulfone is microencapsulated by being enclosed or included in the wall member of the masking material made of polyurea, and wherein a concentration K 24 is equal to or less than twice the solubility of pyroxasulfone in water and a concentration K 1 is equal to or less than 55% of the concentration K 24 wherein the concentrations K 1 and K 24 are obtained by measuring a concentration of pyroxasulfone in water 1 hour and 24 hours after a pre-determined amount of the agrochemical composition for foliage treatment is added to water at 20oC, respectively. wherein the pyroxasulfone is microencapsulated in the masking material such that phytotoxicity to a cultivated crop due to adhesion thereto when foliage spraying is performed is avoided, wherein the masking material is polyurea, wherein a ratio of the masking material to the pyroxasulfone is in the range of 0.1 to 50 parts by mass relative to 1 part by mass of the pyroxasulfone, wherein pyroxasulfone is microencapsulated by using a hydrophobic polyisocyanate selected from polymethylene polyphenyl polyisocyanate, 4,4'-diphenylmethane diisocyanate and a mixture of 4,4'-diphenylmethane diisocyanate and 2,6-tolylene diisocyanate, polyvinyl alcohol as a water-soluble polymer, water as an active hydrogen-containing compound, and phenyl xylyl ethane as a hydrophobic solvent, wherein pyroxasulfone is microencapsulated by being enclosed or included in the wall member of the masking material made of polyurea, and wherein a concentration K 24 is equal to or less than twice the solubility of pyroxasulfone in water and a concentration K 1 is equal to or less than 55% of the concentration K 24 wherein the concentrations K 1 and K 24 are obtained by measuring a concentration of pyroxasulfone in water 1 hour and 24 hours after a pre-determined amount of the agrochemical composition for foliage treatment is added to water at 20oC, respectively.
A rechargeable battery pack , comprising: a plurality of cell modules connected to each other via bus bars , each cell module including a plurality unit cells with electrode terminals connected to the bus bars ; a plurality of spacers between the cell modules ; first and second plates coupled to opposite sides of the spacers , the first and second plates being configured to support the cell modules therebetween; and flow paths (P2) between the unit cells in a length direction of the unit cells , the flow paths (P2) being between side surfaces of the spacers and side surfaces of the unit cells , and being further partially set by sides of the bus bars , and characterized in that the bus bar includes: cell connection parts extended in a direction intersecting with the length direction and connecting the electrode terminals of the cell module in two rows; and module connection parts protruding toward one side of the cell connection part and intersecting the cell connection part to connect an adjacent cell connection part, wherein the cell connection part includes through-holes in spaces corresponding to spaces between the unit cells , wherein the bus bar includes retraction grooves defining spaces corresponding to spaces between two unit cells adjacent to each other. a plurality of cell modules connected to each other via bus bars , each cell module including a plurality unit cells with electrode terminals connected to the bus bars ; a plurality of spacers between the cell modules ; first and second plates coupled to opposite sides of the spacers , the first and second plates being configured to support the cell modules therebetween; and flow paths (P2) between the unit cells in a length direction of the unit cells , the flow paths (P2) being between side surfaces of the spacers and side surfaces of the unit cells , and being further partially set by sides of the bus bars , and characterized in that the bus bar includes: cell connection parts extended in a direction intersecting with the length direction and connecting the electrode terminals of the cell module in two rows; and module connection parts protruding toward one side of the cell connection part and intersecting the cell connection part to connect an adjacent cell connection part, cell connection parts extended in a direction intersecting with the length direction and connecting the electrode terminals of the cell module in two rows; and module connection parts protruding toward one side of the cell connection part and intersecting the cell connection part to connect an adjacent cell connection part,
A radial flow chromatography column comprising: a plurality of beads packed in the radial flow chromatography column, and interstitial channels formed between the beads, wherein the radial flow chromatography column has a bed length of 3 cm to 50 cm, wherein each bead comprises one or more pores, wherein each pore has a diameter of 250 Å to 5000 Å, wherein at least 80% of the plurality of beads have a diameter of 200 μm to 500 μm, wherein the beads have an average radius R of 100 μm to 250 μm; and wherein none of the beads have radius r < 0.225 R. a plurality of beads packed in the radial flow chromatography column, and interstitial channels formed between the beads, wherein the radial flow chromatography column has a bed length of 3 cm to 50 cm, wherein each bead comprises one or more pores, wherein each pore has a diameter of 250 Å to 5000 Å, wherein at least 80% of the plurality of beads have a diameter of 200 μm to 500 μm, wherein the beads have an average radius R of 100 μm to 250 μm; and wherein none of the beads have radius r < 0.225 R.
A conveyor oven for cooking food, the conveyor oven comprising: a housing having an oven chamber in which the food is cooked; a conveyor moveable to convey the food within the oven chamber ; a burner assembly operable to emit a flame to heat air for convection cooking of food moving within the oven chamber on the conveyor , the burner assembly including a burner tube extending into a compartment in which the air for convection cooking is heated, the burner tube positioned to receive at least a portion of the flame emitted by the burner assembly , and a passive tube in the compartment positioned opposite the burner tube ; a first shelf positioned in the housing , and movable relative to the compartment ; a second shelf positioned in the housing , and movable relative to the compartment ; a first fan or a first motor coupled to the first shelf and movable with the first shelf relative to the compartment ; and a second fan or a second motor coupled to the second shelf and movable with the second shelf relative to the compartment ; wherein the first shelf and the second shelf are each spaced apart from the burner tube along a height of the housing ; and wherein the first shelf is slidably supported by the housing for movement to position the first fan and the first motor outside the compartment , the second shelf is slidably supported by the housing for movement to position the second fan and the second motor outside the compartment , and the first shelf is independently moveable relative to the second shelf . a housing having an oven chamber in which the food is cooked; a conveyor moveable to convey the food within the oven chamber ; a burner assembly operable to emit a flame to heat air for convection cooking of food moving within the oven chamber on the conveyor , the burner assembly including a burner tube extending into a compartment in which the air for convection cooking is heated, the burner tube positioned to receive at least a portion of the flame emitted by the burner assembly , and a passive tube in the compartment positioned opposite the burner tube ; a first shelf positioned in the housing , and movable relative to the compartment ; a second shelf positioned in the housing , and movable relative to the compartment ; a first fan or a first motor coupled to the first shelf and movable with the first shelf relative to the compartment ; and a second fan or a second motor coupled to the second shelf and movable with the second shelf relative to the compartment ; wherein the first shelf and the second shelf are each spaced apart from the burner tube along a height of the housing ; and wherein the first shelf is slidably supported by the housing for movement to position the first fan and the first motor outside the compartment , the second shelf is slidably supported by the housing for movement to position the second fan and the second motor outside the compartment , and the first shelf is independently moveable relative to the second shelf .
A computer vision method for detecting and modeling features of a structure in a plurality of images, comprising the steps of: receiving at a computer system a plurality of images, each of said images including a view of the structure; processing the plurality of images to identify a plurality of two-dimensional line segments in each image using a two-dimensional segment detection algorithm; characterized by : processing the plurality of two-dimensional line segments to generate a plurality of three-dimensional line segments using a triangulation algorithm; processing the plurality of three-dimensional line segments to detect a contour of the structure using a contour inference algorithm; processing intersections of directional planes originating from edges of the contour of the structure to infer interior roof lines from the structure; and generating a model of the roof of the structure using the detected contour and interior roof lines. receiving at a computer system a plurality of images, each of said images including a view of the structure; processing the plurality of images to identify a plurality of two-dimensional line segments in each image using a two-dimensional segment detection algorithm; characterized by : processing the plurality of two-dimensional line segments to generate a plurality of three-dimensional line segments using a triangulation algorithm; processing the plurality of three-dimensional line segments to detect a contour of the structure using a contour inference algorithm; processing intersections of directional planes originating from edges of the contour of the structure to infer interior roof lines from the structure; and generating a model of the roof of the structure using the detected contour and interior roof lines.
Method for the lithography-based generative production of a three-dimensional component, in which a beam emitted by an electromagnetic radiation source is focused by means of an optical imaging unit onto a focal point within a material and the focal point is displaced by means of a deflection unit arranged upstream of the optical imaging unit in the beam direction, as a result of which a volume element of the material located at the focal point is each successively solidified by means of multiphoton absorption, wherein the beam is divided by a beam splitter into a plurality of beams, each of which is successively focused on focal points within the material by means of the deflection unit and the optical imaging unit , characterized in that a number of acousto-optic modulator modules corresponding to the number of beams are provided, so that an acousto-optic modulator module which diffracts the beam is arranged in the beam path of each beam.
A centrifugal separator for separation of at least two components of a fluid mixture which are of different densities which fluid mixture comprises a flammable fluid, which centrifugal separator comprises a stationary frame , a drive member configured to rotate a rotating part in relation to the stationary frame, wherein the rotating part comprises a spindle and a centrifuge rotor enclosing a separation space, the centrifuge rotor being mounted to the spindle to rotate together with the spindle around an axis (X) of rotation, wherein the rotating part is supported by the stationary frame by at least one bearing device wherein the stationary frame surrounds said centrifuge rotor, thereby forming a rotor space between the stationary frame and the centrifuge rotor, and wherein the stationary frame comprises at least one first air inlet arranged to provide fluid communication into said rotor space and at least one first air outlet arranged to provide fluid communication out from said rotor space, wherein the at least one first air inlet and the at least one first air outlet are arranged in the stationary frame so as to provide a flow of air from the at least one first air inlet to and out through the at least one first air outlet upon rotation of said rotating part, and wherein the at least one first air inlet is arranged to be connected to a source of air and wherein the at least one first air outlet is arranged to allow outflow of air from said rotor space, characterized in that the centrifugal separator further comprises at least one sensor configured to detect a parameter related to the concentration of flammable gas in the air of said rotor space.