mhurhangee/ep-ind-claims huggingface dataset:
Device for splitting a chemical compound, comprising a temperature control device, two separate gas chambers (6, 7), and an element comprising pyroelectric material, wherein the element comprising the pyroelectric material has at least two surfaces (10, 11) with differently polarized charges, which are at least partially in contact with the chemical compound to be split and of which at least two of the surfaces (10, 11) are respectively facing one of the separate gas chambers (6, 7), and the gases (12, 13) produced on the surfaces (10, 11) separately reach the gas chamber associated with the respective surface (10, 11).
A golf club head, comprising: a face plate formed from metal; a crown formed from fiber reinforced plastic attached to the face plate, wherein the crown includes a low rigidity portion extending from a vicinity of the face plate toward a rearmost portion of the golf club head, wherein the low rigidity portion has a width that becomes gradually narrower as it extends from the vicinity of the face plate toward the rearmost portion, wherein the low rigidity portion is formed between a first high rigidity portion located adjacent a first side of the low rigidity portion and a second high rigidity portion located adjacent a second side of the low rigidity portion, wherein the low rigidity portion has a lower rigidity than the first high rigidity portion and the second high rigidity portion, and wherein the first and second high rigidity portions have higher rigidities than other portions of the crown; a sole formed from fiber reinforced plastic attached to the face plate and the crown; and a weighted member provided inside a space defined by the crown, sole, and face plate, wherein the weighted member is provided at the rearmost portion of the golf club head; wherein a deformation wave generated in the crown when the golf club head strikes a ball is transmitted along the low rigidity portion to the weighted member and along the low rigidity portion back towards the face plate from the weighted member. a face plate formed from metal; a crown formed from fiber reinforced plastic attached to the face plate, wherein the crown includes a low rigidity portion extending from a vicinity of the face plate toward a rearmost portion of the golf club head, wherein the low rigidity portion has a width that becomes gradually narrower as it extends from the vicinity of the face plate toward the rearmost portion, wherein the low rigidity portion is formed between a first high rigidity portion located adjacent a first side of the low rigidity portion and a second high rigidity portion located adjacent a second side of the low rigidity portion, wherein the low rigidity portion has a lower rigidity than the first high rigidity portion and the second high rigidity portion, and wherein the first and second high rigidity portions have higher rigidities than other portions of the crown; a sole formed from fiber reinforced plastic attached to the face plate and the crown; and a weighted member provided inside a space defined by the crown, sole, and face plate, wherein the weighted member is provided at the rearmost portion of the golf club head;
A passenger seat assembly comprising: a seat back, a monitor assembly comprising a support pin characterized in that the passenger seat assembly further comprises an impact bracket according to any of the claims 6 to 11, the impact bracket being supported on the seat back. a seat back, a monitor assembly comprising a support pin
A process for converting polysaccharides to a platform chemical, said process comprising the steps of: a) dissolving polysaccharides in an inorganic molten salt hydrate; b) converting the dissolved polysaccharides to monosaccharides; c) converting the monosaccharides to platform chemicals, said conversion comprising hydrogenation to form a polyol, said platform chemicals being easily separable from the inorganic molten salt hydrate; d) separating the platform chemicals from the inorganic molten salt hydrate. a) dissolving polysaccharides in an inorganic molten salt hydrate; b) converting the dissolved polysaccharides to monosaccharides; c) converting the monosaccharides to platform chemicals, said conversion comprising hydrogenation to form a polyol, said platform chemicals being easily separable from the inorganic molten salt hydrate; d) separating the platform chemicals from the inorganic molten salt hydrate.
A method for obtaining secoiridoids of type wherein X = and R1 = H or COOCH 3, R2 = CH 2 or according to which: plant material from the species Olea europaea L, including all subspecies and cultivars, is brought into contact with a solvent at a ratio ranging from 1: 1 to 1:20 at a temperature of 15-40°C, left in contact for a time period ranging from 30 minutes to 12 hours, to activate at said temperature a reaction of an enzyme with oleuropein, said enzyme and oleuropein present in said plant material, and generate a mixture. X = and R1 = H or COOCH 3, R2 = CH 2 or according to which: plant material from the species Olea europaea L, including all subspecies and cultivars, is brought into contact with a solvent at a ratio ranging from 1: 1 to 1:20 at a temperature of 15-40°C, left in contact for a time period ranging from 30 minutes to 12 hours, to activate at said temperature a reaction of an enzyme with oleuropein, said enzyme and oleuropein present in said plant material, and generate a mixture.
A front wheel vehicle suspension system, comprising: a frame structure including a two legged fork, a wheel structure including wheel structure beams (300a,b) positioned posterior to the two legged fork on both lateral sides of a front wheel, at least two flexible members (101a,b, 102a,b) arranged in a non-planar way with a distance there between located on each lateral side of the wheel, wherein each of the wheel structure beams further comprise an anteriorly located hub mount for receiving one or more rigid connections so as to rigidly connect the wheel structure beams to the hub of the front wheel, wherein said at least two flexible members (101a,b, 102a,b) are located on each lateral side of the wheel and are rigidly mounted to said two legged fork of said frame structure and said wheel structure beams (300a,b), the arrangement of said flexible members (101a,b, 102a,b) being such that a guided suspension is provided that is resistive against forces other than those in the intended direction of the suspension movement. a frame structure including a two legged fork, a wheel structure including wheel structure beams (300a,b) positioned posterior to the two legged fork on both lateral sides of a front wheel, at least two flexible members (101a,b, 102a,b) arranged in a non-planar way with a distance there between located on each lateral side of the wheel, wherein each of the wheel structure beams further comprise an anteriorly located hub mount for receiving one or more rigid connections so as to rigidly connect the wheel structure beams to the hub of the front wheel, wherein said at least two flexible members (101a,b, 102a,b) are located on each lateral side of the wheel and are rigidly mounted to said two legged fork of said frame structure and said wheel structure beams (300a,b), the arrangement of said flexible members (101a,b, 102a,b) being such that a guided suspension is provided that is resistive against forces other than those in the intended direction of the suspension movement.
An aluminum alloy, comprising: 4.0 to 10.0 weight % silicon (Si), 0.1 to 4.0 weight % magnesium (Mg), 0.1 to 1.0 weight % chromium (Cr), 0.05 to 1.0 weight % zinc (Zn), 0.05 to 1.0 weight % manganese (Mn), 0.01 to 1.0 weight % titanium (Ti), 0.001 to 0.5 weight % tin (Sn), 0.01 to 1 weight % zirconium (Zr), and balance aluminum and impurities, wherein at least one impurity included in the aluminum alloy is identified during a melting process through an ingredient analysis of each element included in the aluminum alloy, wherein the at least one impurity is at least one of copper (Cu), nickel (Ni), or iron (Fe), wherein the copper (Cu) or nickel (Ni) is adjusted to be equal to or less than 0.05 weight% of the aluminum alloy, and wherein the iron (Fe) is adjusted to be equal to or less than 0.3 weight% of the aluminum alloy. 4.0 to 10.0 weight % silicon (Si), 0.1 to 4.0 weight % magnesium (Mg), 0.1 to 1.0 weight % chromium (Cr), 0.05 to 1.0 weight % zinc (Zn), 0.05 to 1.0 weight % manganese (Mn), 0.01 to 1.0 weight % titanium (Ti), 0.001 to 0.5 weight % tin (Sn), 0.01 to 1 weight % zirconium (Zr), and balance aluminum and impurities, wherein at least one impurity included in the aluminum alloy is identified during a melting process through an ingredient analysis of each element included in the aluminum alloy, wherein the at least one impurity is at least one of copper (Cu), nickel (Ni), or iron (Fe), wherein the copper (Cu) or nickel (Ni) is adjusted to be equal to or less than 0.05 weight% of the aluminum alloy, and wherein the iron (Fe) is adjusted to be equal to or less than 0.3 weight% of the aluminum alloy.
A collagen matrix comprising particles of a biphasic calcium phosphate/hydroxyapatite (CAP/HAP) bone substitute material comprising a sintered CAP core and a closed epitactically grown layer of nanocrystalline HAP deposited on the external surface of the sintered CAP core, whereby the epitactically grown nanocrystals have the same size and morphology as human bone mineral, wherein the closed epitactically grown layer of nanocrystalline HAP deposited on the external surface of the sintered CAP core has a homogeneous coarse external surface comprising flat crystal platelets.
An axle unit comprising an axle tube and a suspension arm element, wherein the axle tube extends substantially along a tube axis, wherein the suspension arm element has a first joining region configured as a recess, wherein the suspension arm element is arranged with its first joining region adjacent to the axle tube and substantially transverse to the tube axis, wherein a weld portion between the suspension arm element and the axle tube can be produced in the first joining region, wherein the suspension arm element surrounds the axle tube with a suspension arm arc angle (φ) relative to the tube axis, wherein the suspension arm arc angle (φ) is less than 180°, wherein the axle tube and the suspension arm element are secured to each other exclusively in the first joining region, wherein the axle tube has a pressure half and a traction half, wherein the pressure half of the axle tube is the half which is situated substantially on the top side of the axle tube in relation to the spatial arrangement of the axle tube in its state fitted on the axle unit, characterized by the weld portion is provided exclusively in the pressure half of the axle tube.
A compound of formula I: wherein: R 1 is (C 1 -C 6)alkyl, hydroxy(C 1 -C 6)alkyl, aryl, aryl(C 1 -C 6)alkyl, heteroaryl selected from furanyl, thienyl, pyrrolyl, thiazoyl, imidazolyl, pyridyl, selenophenyl, or pyrazolyl, or heteroaryl(C 1 -C 6)alkyl, wherein each aryl or heteroaryl is optionally substituted with one or more groups selected from (C 1 -C 6)alkyl, (C 1 -C 6)alkoxy, (C 1 -C 6)alkylthio, halo, amino, nitro, cyano, trifluoromethyl, or hydroxy; and R 2 is hydrogen, heteroaryl, halo, or aryl that is optionally substituted with one or more groups selected from (C 1 -C 6)alkyl, (C 1 -C 6)alkoxy, (C 1 -C 6)alkylthio, halo, amino, nitro, cyano, trifluoromethyl, or hydroxy; or a salt thereof; provided that when R 1 is unsubstituted phenyl, R 2 is not hydrogen. R 1 is (C 1 -C 6)alkyl, hydroxy(C 1 -C 6)alkyl, aryl, aryl(C 1 -C 6)alkyl, heteroaryl selected from furanyl, thienyl, pyrrolyl, thiazoyl, imidazolyl, pyridyl, selenophenyl, or pyrazolyl, or heteroaryl(C 1 -C 6)alkyl, wherein each aryl or heteroaryl is optionally substituted with one or more groups selected from (C 1 -C 6)alkyl, (C 1 -C 6)alkoxy, (C 1 -C 6)alkylthio, halo, amino, nitro, cyano, trifluoromethyl, or hydroxy; and R 2 is hydrogen, heteroaryl, halo, or aryl that is optionally substituted with one or more groups selected from (C 1 -C 6)alkyl, (C 1 -C 6)alkoxy, (C 1 -C 6)alkylthio, halo, amino, nitro, cyano, trifluoromethyl, or hydroxy; or a salt thereof; provided that when R 1 is unsubstituted phenyl, R 2 is not hydrogen.
An autonomous cleaning machine comprising: a main body; a brush unit rotatably provided on the main body; a dust collection assembly including a dust container, a vacuum suction channel and a suction fan, and a brush cleaning unit contacting the brush unit, wherein the brush cleaning unit collects foreign substances wound on the brush unit at one portion of the brush unit, and removes the wound foreign substances from the brush unit, characterized in that the brush cleaning unit includes a plurality of first brush cleaning members contacting the brush unit to move foreign substances wound on the brush unit in a lengthwise direction of the brush unit to a central portion of same, and a plurality of second brush cleaning members contacting the brush unit to remove the foreign substances wound on the brush unit from the brush unit, wherein the second brush cleaning members are arranged adjacent to the dust collection assembly, and thus foreign substances removed from the brushes of the brush unit may easily move to the dust collection assembly by means of vacuum suction force. a main body; a brush unit rotatably provided on the main body; a dust collection assembly including a dust container, a vacuum suction channel and a suction fan, and a brush cleaning unit contacting the brush unit, wherein the brush cleaning unit collects foreign substances wound on the brush unit at one portion of the brush unit, and removes the wound foreign substances from the brush unit, characterized in that the brush cleaning unit includes a plurality of first brush cleaning members contacting the brush unit to move foreign substances wound on the brush unit in a lengthwise direction of the brush unit to a central portion of same, and a plurality of second brush cleaning members contacting the brush unit to remove the foreign substances wound on the brush unit from the brush unit, wherein the second brush cleaning members are arranged adjacent to the dust collection assembly, and thus foreign substances removed from the brushes of the brush unit may easily move to the dust collection assembly by means of vacuum suction force.
Method for operating a magnetic resonance tomography system having a control system for controlling an image recording, wherein the method has steps as follows: capturing, by means of the control system, a change in state of the magnetic resonance tomography system and assessing, by means of the control system, whether the change in state indicates an operating interruption; determining, by means of the control system, a plurality of possible energy-saving scenarios for an imminent interruption of the image recording as a function of the change in state; determining, by means of the control system, restart times for the possible energy-saving scenarios; outputting, by means of the control system, a selection possibility for a plurality of energy-saving scenarios, with information relating to the respective restart times, to a user; implementing, by means of the control system, an energy-saving scenario. capturing, by means of the control system, a change in state of the magnetic resonance tomography system and assessing, by means of the control system, whether the change in state indicates an operating interruption; determining, by means of the control system, a plurality of possible energy-saving scenarios for an imminent interruption of the image recording as a function of the change in state; determining, by means of the control system, restart times for the possible energy-saving scenarios; outputting, by means of the control system, a selection possibility for a plurality of energy-saving scenarios, with information relating to the respective restart times, to a user; implementing, by means of the control system, an energy-saving scenario.
A vane motor, comprising: a rotor body driven by compressed air with vane gaps for radially movable vanes, and a rotor shaft for rotatably bearing the rotor body relative to a motor bushing, wherein the rotor shaft is designed as a hollow shaft with a first lubricant reservoir in the interior, the first lubricant reservoir has a lubricant filling opening accessible from the outside of the vane motor, and the first lubricant reservoir is connected by at least one radial lubricant hole to at least one further lubricant reservoir arranged in a section of the rotor body between two vane gaps, and/or is connected to an outlet opening arranged in one of the vane gaps for supplying lubricant into the vane gap and wherein the first lubricant reservoir is provided to receive and to store lubricant, and is formed so that there is no continuous supply of lubricant while the vane motor is operating. a rotor body driven by compressed air with vane gaps for radially movable vanes, and a rotor shaft for rotatably bearing the rotor body relative to a motor bushing, wherein the rotor shaft is designed as a hollow shaft with a first lubricant reservoir in the interior, the first lubricant reservoir has a lubricant filling opening accessible from the outside of the vane motor, and the first lubricant reservoir is connected by at least one radial lubricant hole to at least one further lubricant reservoir arranged in a section of the rotor body between two vane gaps, and/or is connected to an outlet opening arranged in one of the vane gaps for supplying lubricant into the vane gap and wherein the first lubricant reservoir is provided to receive and to store lubricant, and is formed so that there is no continuous supply of lubricant while the vane motor is operating.
Sheet metal panel constituting a lining of the rear part of a body side of a vehicle and a rear wheel arch, said wheel arch having stiffening ribs, characterized in that these stiffening ribs extend radially over said wheel arch from the free end of the panel portion forming the wheel arch to the junction area of said wheel arch with the panel portion forming the lining, at least one rib extending, beyond said junction area, into the lining portion of the panel.
A rotating electrical machine comprising: a housing having a first part providing an enclosure for a rotor therein and a second part providing an enclosure for a silencer therein; an air flow path passing from the first part of the housing to and through the silencer to an exhaust, the silencer comprising a part of the air flow path disposed adjacent at least one sound absorbing column, the at least one sound absorbing column comprising a first portion closest to the rotor having a first, porous, sound absorbing material therein and a second portion further from the rotor, the second portion having a microperforated panel adjacent to a downstream end of the first portion and a resonator cavity (29, 62, 120) downstream of the MPP, the air flow path extending along the axial length of the rotor and passing along the first portion, the MPP and then the resonator cavity (29, 62, 120) of the at least one sound absorbing column in a direction away from the rotor axis. a housing having a first part providing an enclosure for a rotor therein and a second part providing an enclosure for a silencer therein; an air flow path passing from the first part of the housing to and through the silencer to an exhaust, the silencer comprising a part of the air flow path disposed adjacent at least one sound absorbing column, the at least one sound absorbing column comprising a first portion closest to the rotor having a first, porous, sound absorbing material therein and a second portion further from the rotor, the second portion having a microperforated panel adjacent to a downstream end of the first portion and a resonator cavity (29, 62, 120) downstream of the MPP, the air flow path extending along the axial length of the rotor and passing along the first portion, the MPP and then the resonator cavity (29, 62, 120) of the at least one sound absorbing column in a direction away from the rotor axis.
Neural stem cells for use in a method of treating, by inducing angiogenesis, stroke or spinal cord injury, said method comprising: (a) culturing neural stem cells under a hypoxia condition by treating the neural stem cells with cobalt chloride (CoCl 2); and (b) injecting the cultured neural stem cells into a subject, wherein step (b) includes injecting vascular endothelial cells along with the neural stem cells into a subject, and wherein the cultured neural stem cells secrete monocyte chemoattractant protein-1 (MCP-1) or a growth-related oncogene (Gro). (a) culturing neural stem cells under a hypoxia condition by treating the neural stem cells with cobalt chloride (CoCl 2); and (b) injecting the cultured neural stem cells into a subject, wherein step (b) includes injecting vascular endothelial cells along with the neural stem cells into a subject, and wherein the cultured neural stem cells secrete monocyte chemoattractant protein-1 (MCP-1) or a growth-related oncogene (Gro).
A method for changing the brightness of an image, comprising: (a) calculating a level incremental rate, which denotes the degree of scaling three input color components of the image, the three components being red, green and blue, from an input color gamut of red, green and blue components into an output color gamut to which a fourth color component being white has been added in addition to the red, green and blue components; (b) scaling the three input color components using the level incremental rate and determining the results of the scaling as incremental values of the three input color components; (c) obtaining the fourth color component value using the incremental values; (d) obtaining output color components, the brightness of which are increased from those of the three input color components, using the fourth color component value and the incremental values; wherein the method comprises a further step before step (a) of and (e) determining a region to which the three input color components belong, in the input color gamut comprised of two or more regions and moving on to step (a); wherein in step (a), the level incremental rate is calculated according to the determined region, wherein in step (e), the three input color components are separately processed corresponding to the determined region in the input color gamut, each processing increasing the brightness of the input color components within a possible range defined by the output color gamut while maintaining a direction vector of the three input color components, and wherein in step (e), the input color gamut is divided into two or more regions based on a light quantity incremental rate, and the light quantity incremental rate denotes a ratio of an output light quantity of the fourth color component to an output light quantity of the first through third color components. (a) calculating a level incremental rate, which denotes the degree of scaling three input color components of the image, the three components being red, green and blue, from an input color gamut of red, green and blue components into an output color gamut to which a fourth color component being white has been added in addition to the red, green and blue components; (b) scaling the three input color components using the level incremental rate and determining the results of the scaling as incremental values of the three input color components; (c) obtaining the fourth color component value using the incremental values; (d) obtaining output color components, the brightness of which are increased from those of the three input color components, using the fourth color component value and the incremental values; wherein the method comprises a further step before step (a) of and (e) determining a region to which the three input color components belong, in the input color gamut comprised of two or more regions and moving on to step (a);