mhurhangee/ep-ind-claims huggingface dataset:
A laser amplifier device comprising: a pump light source (2; 22) comprising one or more lamps configured to emit light; and a slab crystal (1; 21) having a front face, a back face, and four sides such that said back face and top and bottom sides are configured to reflect a laser beam internally within said crystal (1; 21), said crystal (1;21) being configured to absorb energy obtained from said emitted light, wherein the slab crystal (1; 21) is configured to receive an externally generated input laser beam (16; 17) in the front face of the crystal (1; 21), with the crystal (1; 21) configured such that the laser beam is reflected within the crystal (1; 21) more than two times while being amplified by the crystal (1; 21) using said absorbed light energy, and wherein the input laser beam (16; 17) is thereby converted by the crystal (1; 21) into an amplified laser beam emitted from an end not including the back face, wherein the laser amplifier device further comprises a filter material provided between said slab crystal and said pump light source, said filter material being configured to convert light energy emitted by the pump light source at a first frequency band into light energy at a converted frequency band that is absorbed by the slab crystal, and to be transparent to light emitted by the pump light source at a second frequency band. a pump light source (2; 22) comprising one or more lamps configured to emit light; and a slab crystal (1; 21) having a front face, a back face, and four sides such that said back face and top and bottom sides are configured to reflect a laser beam internally within said crystal (1; 21), said crystal (1;21) being configured to absorb energy obtained from said emitted light, wherein the slab crystal (1; 21) is configured to receive an externally generated input laser beam (16; 17) in the front face of the crystal (1; 21), with the crystal (1; 21) configured such that the laser beam is reflected within the crystal (1; 21) more than two times while being amplified by the crystal (1; 21) using said absorbed light energy, and wherein the input laser beam (16; 17) is thereby converted by the crystal (1; 21) into an amplified laser beam emitted from an end not including the back face, wherein the laser amplifier device further comprises a filter material provided between said slab crystal and said pump light source, said filter material being configured to convert light energy emitted by the pump light source at a first frequency band into light energy at a converted frequency band that is absorbed by the slab crystal, and to be transparent to light emitted by the pump light source at a second frequency band.
A picture encoding apparatus comprising a processing circuitry configured to: hierarchically partition a block of picture data into sub-blocks; characterized in that the processing circuitry is further configured to determine that a sub-block being encoded belongs to an unequally-sized partitioned block; prepare a list of neighboring blocks for a sub-block of the unequally-sized partitioned block based on a size of the sub-block of the unequally-sized partitioned block and a partitioning type of at least one neighboring block of the unequally-sized partitioned block; and derive a context model that is used to encode split information of the sub-block of the unequally-sized partitioned block into a bit stream based on the prepared list of neighboring blocks, wherein the sub-block of the unequally-sized partitioned block is one of a smaller sub-block of the unequally-sized partitioned block and a larger sub-block of the unequally-sized partitioned block; and wherein if the sub-block being encoded is a larger sub-block of the unequally-sized partitioned block, the processing circuitry is further configured to: include a neighboring block of the unequally-sized partitioned block in the list of neighboring blocks of the larger sub-block; and omit a smaller sub-block of the unequally-sized partitioned block from the list of neighboring blocks of the larger sub-block. hierarchically partition a block of picture data into sub-blocks; characterized in that the processing circuitry is further configured to determine that a sub-block being encoded belongs to an unequally-sized partitioned block; prepare a list of neighboring blocks for a sub-block of the unequally-sized partitioned block based on a size of the sub-block of the unequally-sized partitioned block and a partitioning type of at least one neighboring block of the unequally-sized partitioned block; and derive a context model that is used to encode split information of the sub-block of the unequally-sized partitioned block into a bit stream based on the prepared list of neighboring blocks, wherein the sub-block of the unequally-sized partitioned block is one of a smaller sub-block of the unequally-sized partitioned block and a larger sub-block of the unequally-sized partitioned block; and wherein if the sub-block being encoded is a larger sub-block of the unequally-sized partitioned block, the processing circuitry is further configured to: include a neighboring block of the unequally-sized partitioned block in the list of neighboring blocks of the larger sub-block; and omit a smaller sub-block of the unequally-sized partitioned block from the list of neighboring blocks of the larger sub-block. include a neighboring block of the unequally-sized partitioned block in the list of neighboring blocks of the larger sub-block; and omit a smaller sub-block of the unequally-sized partitioned block from the list of neighboring blocks of the larger sub-block.
A method for producing metal halides or metal oxyhalides from metal/oxygen compounds or metals, in which in a first reaction stage at least one halogenation reagent which is gaseous under the conditions prevailing in the first reaction stage is produced which, in a second reaction stage which is locally separated from the first reaction stage, is caused to react with the metal/oxygen compounds or metal, wherein the metal/oxygen compounds or metal are converted into the metal halide or metal oxyhalide and the metal halide or metal oxyhalide produced is then discharged from the second reaction stage in a gaseous aggregate state and is converted from the gaseous into the liquid or solid aggregate state or undergoes the reverse reaction of its formation, wherein the second reaction stage succeeds the first reaction stage and the at least one halogenation reagent produced in the first reaction stage is conveyed into the second reaction stage by means of a gas stream, characterised in that the gaseous halogenation reagent in the first reaction stage is produced from a solid or liquid compound by dissociation, evaporation or sublimation, with the a) solid compound being selected from the group consisting of ammonium chloride, ammonium bromide, ammonium iodide, AlCl 3 · 6 H 2 O, FeCl 3 · 6 H 2 O, FeCl 2 · 6 H 2 O, MgCl 2 · 6 H 2 O and also mixtures or combinations thereof, and/or b) liquid compound being selected from the group consisting of compounds which can be converted into the halogenation reagent by evaporation. a) solid compound being selected from the group consisting of ammonium chloride, ammonium bromide, ammonium iodide, AlCl 3 · 6 H 2 O, FeCl 3 · 6 H 2 O, FeCl 2 · 6 H 2 O, MgCl 2 · 6 H 2 O and also mixtures or combinations thereof, and/or b) liquid compound being selected from the group consisting of compounds which can be converted into the halogenation reagent by evaporation.
A controller that is configured to control behavior of a motorcycle, the controller comprising: an acquisition section that is configured to acquire trigger information generated in accordance with peripheral environment of the motorcycle; and an execution section that is configured to initiate a control mode in response to the trigger information, the control mode causing the motorcycle to take automatic emergency deceleration action, wherein the acquisition section is configured to acquire a lean angle of the motorcycle, the execution section includes a control section, and in the control mode, the control section controls the automatic emergency deceleration that is deceleration of the motorcycle generated by the automatic emergency deceleration action in accordance with the lean angle, wherein in the control mode, in the case where the lean angle exceeds a lean angle reference value, the automatic emergency deceleration action is prohibited; and in the control mode, in the case where the lean angle that is acquired during prohibition of the automatic emergency deceleration action falls below the lean angle reference value, the automatic emergency deceleration action is permitted, wherein in the case where the control mode continues, the control section switches between a state where the automatic emergency deceleration action is permitted and a state where the automatic emergency deceleration action is prohibited in accordance with the lean angle. an acquisition section that is configured to acquire trigger information generated in accordance with peripheral environment of the motorcycle; and an execution section that is configured to initiate a control mode in response to the trigger information, the control mode causing the motorcycle to take automatic emergency deceleration action, wherein the acquisition section is configured to acquire a lean angle of the motorcycle, the execution section includes a control section, and in the control mode, the control section controls the automatic emergency deceleration that is deceleration of the motorcycle generated by the automatic emergency deceleration action in accordance with the lean angle, wherein in the control mode, in the case where the lean angle exceeds a lean angle reference value, the automatic emergency deceleration action is prohibited; and in the control mode, in the case where the lean angle that is acquired during prohibition of the automatic emergency deceleration action falls below the lean angle reference value, the automatic emergency deceleration action is permitted, wherein in the case where the control mode continues, the control section switches between a state where the automatic emergency deceleration action is permitted and a state where the automatic emergency deceleration action is prohibited in accordance with the lean angle.
An absorbent article in which an absorbent body is interposed between a liquid permeable surface sheet and a liquid impermeable back sheet, wherein the absorbent body comprises: a widthwise center portion which extends along a longitudinal direction and includes a portion corresponding to a body fluid excretion part of a wearer and a portion corresponding to an intergluteal cleft of the wearer, side regions on both sides of the portion corresponding to a body fluid excretion part, a front region on a front side of the portion corresponding to the body fluid excretion part, and a rear region on a rear side of the portion corresponding to the body fluid excretion part, multiple compressed parts are formed in regions other than the widthwise center portion of the absorbent body, characterized in that the compressed parts comprise dot-like compressed parts (25, 28) and oval compressed parts in a rhombic grid pattern, the oval compressed parts being adjacent to each other in a cross direction centering around one of the dot-like compressed parts, and another one of the dot-like compressed parts being at a center of the rhombic grid pattern, and each of the dot-like compressed parts formed in the side regions has a larger area than each of the dot-like compressed parts formed in the front and rear regions (23, 24), and is formed to have a long oval shape in a longitudinal direction of the absorbent article. a widthwise center portion which extends along a longitudinal direction and includes a portion corresponding to a body fluid excretion part of a wearer and a portion corresponding to an intergluteal cleft of the wearer, side regions on both sides of the portion corresponding to a body fluid excretion part, a front region on a front side of the portion corresponding to the body fluid excretion part, and a rear region on a rear side of the portion corresponding to the body fluid excretion part, multiple compressed parts are formed in regions other than the widthwise center portion of the absorbent body, characterized in that the compressed parts comprise dot-like compressed parts (25, 28) and oval compressed parts in a rhombic grid pattern, the oval compressed parts being adjacent to each other in a cross direction centering around one of the dot-like compressed parts, and another one of the dot-like compressed parts being at a center of the rhombic grid pattern, and each of the dot-like compressed parts formed in the side regions has a larger area than each of the dot-like compressed parts formed in the front and rear regions (23, 24), and is formed to have a long oval shape in a longitudinal direction of the absorbent article.
A human serum albumin comprising a non-naturally encoded amino acid at position 34 of SEQ ID NO: 1, wherein the non-naturally encoded amino acid is para-acetyl-phenylalanine.
A method for planning a path of a vehicle having a work tool, the method comprising: determining an actual path through a work area; modifying the actual path with a margin to determine a modified path plan through the work area; and passing the work tool through the work area with the vehicle along the modified path plan, characterized in that the margin is based, at least partially, on (a) data received by one or more in situ sensors sensing an in situ environmental factor, and/or (b) one or more a priori environmental factors stored in a data storage device. determining an actual path through a work area; modifying the actual path with a margin to determine a modified path plan through the work area; and passing the work tool through the work area with the vehicle along the modified path plan, characterized in that the margin is based, at least partially, on (a) data received by one or more in situ sensors sensing an in situ environmental factor, and/or (b) one or more a priori environmental factors stored in a data storage device.
A lighting device comprising: a light emitting module including a substrate and a plurality of light emitting devices disposed on the substrate; a member disposed on the light emitting module, the member comprising: a base having a holes configured to receive the light emitting device; and a projection (324, 324', 324", 324"') configured to reflect light from the light emitting devices, a cover surrounding the light emitting module and the member; and a heat sink including a flat surface on which the light emitting module is disposed, and coupled to the cover, wherein the member comprises a predetermined inclined surface (327, 327', 327") coupled to an outer circumference of the base, characterized in that the projection (324, 324', 324", 324"') is disposed between two light emitting devices among the plurality of the light emitting devices, the two light emitting devices being symmetrically arranged with respect to a central axis of the base, and in that the cover has a rear light distribution characteristic. a light emitting module including a substrate and a plurality of light emitting devices disposed on the substrate; a member disposed on the light emitting module, the member comprising: a base having a holes configured to receive the light emitting device; and a projection (324, 324', 324", 324"') configured to reflect light from the light emitting devices, a base having a holes configured to receive the light emitting device; and a projection (324, 324', 324", 324"') configured to reflect light from the light emitting devices, a cover surrounding the light emitting module and the member; and a heat sink including a flat surface on which the light emitting module is disposed, and coupled to the cover, wherein the member comprises a predetermined inclined surface (327, 327', 327") coupled to an outer circumference of the base, characterized in that the projection (324, 324', 324", 324"') is disposed between two light emitting devices among the plurality of the light emitting devices, the two light emitting devices being symmetrically arranged with respect to a central axis of the base, and in that the cover has a rear light distribution characteristic.
An ultrasound system, comprising: an ultrasound data acquisition unit configured to transmit ultrasound signals to an object based on a predetermined ensemble number and receive ultrasound echoes reflected from the object; a storage unit configured to store a plurality of RF data sets acquired based on the ultrasound echoes from the object; and a processor configured to set a processing ensemble number to be less than the predetermined ensemble number selectively extract a subset of the plurality of RF data sets necessary for forming a target ultrasound image from the plurality of RF data sets stored in the storage unit based on the processing ensemble number, and form the target ultrasound image by using the extracted subset of the plurality of RF data sets, wherein the target ultrasound image includes at least one of a spectral Doppler image, a color Doppler image, and a vector Doppler image. an ultrasound data acquisition unit configured to transmit ultrasound signals to an object based on a predetermined ensemble number and receive ultrasound echoes reflected from the object; a storage unit configured to store a plurality of RF data sets acquired based on the ultrasound echoes from the object; and a processor configured to set a processing ensemble number to be less than the predetermined ensemble number selectively extract a subset of the plurality of RF data sets necessary for forming a target ultrasound image from the plurality of RF data sets stored in the storage unit based on the processing ensemble number, and form the target ultrasound image by using the extracted subset of the plurality of RF data sets, wherein the target ultrasound image includes at least one of a spectral Doppler image, a color Doppler image, and a vector Doppler image.
Method for manufacturing a board with different strength areas, characterised by the following method steps: - Providing a strain-hardened board made from a 5000 aluminium alloy, - Partial heating of the board in a first range to a temperature greater than 350°C and in a second range to a temperature between 150°C and 350°C, in less than 20s, - Transfer to a cooling mould and cooling in less than 20s to a temperature of 5°C to 40°C, - Setting a yield strength in a first range of less than 250MPa and greater than 120MPa and in a second range of less than 450MPa and greater than 200MPa, so that a flat board with different strength areas is produced, whereby the yield strength of the second area is less than the starting yield limit of the board and, at the same time, is at least 50MPa greater than the yield strength in the first area. - Providing a strain-hardened board made from a 5000 aluminium alloy, - Partial heating of the board in a first range to a temperature greater than 350°C and in a second range to a temperature between 150°C and 350°C, in less than 20s, - Transfer to a cooling mould and cooling in less than 20s to a temperature of 5°C to 40°C, - Setting a yield strength in a first range of less than 250MPa and greater than 120MPa and in a second range of less than 450MPa and greater than 200MPa, so that a flat board with different strength areas is produced, whereby the yield strength of the second area is less than the starting yield limit of the board and, at the same time, is at least 50MPa greater than the yield strength in the first area.
Adhesive composition comprising: A) from 5 to 40% by dry weight of a mixture of polychloroprenes dispersed in water, comprising: A1) at least one polychloroprene having a hardness greater than or equal to 80 Shore A, and A2) at least one polychloroprene having a hardness less than or equal to 60 Shore A, B) from 0.5 to 25% by dry weight of at least one self-crosslinkable agent of alkyd type, C) from 10 to 40% by dry weight of at least one mineral filler, D) from 0.05 to 3% by dry weight of at least one emulsifier, E) water. A) from 5 to 40% by dry weight of a mixture of polychloroprenes dispersed in water, comprising: A1) at least one polychloroprene having a hardness greater than or equal to 80 Shore A, and A2) at least one polychloroprene having a hardness less than or equal to 60 Shore A, A1) at least one polychloroprene having a hardness greater than or equal to 80 Shore A, and A2) at least one polychloroprene having a hardness less than or equal to 60 Shore A, B) from 0.5 to 25% by dry weight of at least one self-crosslinkable agent of alkyd type, C) from 10 to 40% by dry weight of at least one mineral filler, D) from 0.05 to 3% by dry weight of at least one emulsifier, E) water.
A device (1, 1') comprising a lower housing part (2, 2') and a filter, wherein the filter is tightly connected to the lower housing part (2, 2') by means of laser welding at least in a part of the edge region on the underside of the filter facing the lower housing part (2, 2'), and wherein the filter is designed as a filter membrane, which is reinforced on the underside by means of a reinforcing nonwoven, wherein the reinforcing nonwoven is meltable, wherein the reinforcing nonwoven of the filter membrane and the lower housing part (2, 2') are made of plastics that are incompatible for direct laser welding, wherein a high-melting nonwoven, which connects the filter membrane to a support edge of the lower housing part (2, 2'), is arranged between the meltable reinforcing nonwoven and the lower housing part (2, 2'), and wherein the lower housing part (2, 2') is designed to absorb laser light at least in a part of the support edge (9, 9') toward the filter membrane.
A continuous steel casting method, wherein, during continuous casting of steel, a gap between strand support rolls (8, 9) facing each other with a strand in a rectangular shape interposed therebetween is increased toward a downstream side in a casting direction to thereby bulge the strand having an unsolidified layer thereinside such that a thickness between long-side surfaces of the strand increases within the range of 0.1% or more and 10% or less of the thickness of the strand inside a mold, and wherein, when the long-side surfaces of the bulged strand are rolled by a plurality of guide rolls, a total rolling reduction and a reduction gradient satisfy formulas and below when a solid phase fraction in a central portion of the strand is within the range of 0.2 or more and less than 0.9, and the total rolling reduction and the reduction gradient satisfy formulas and below when the solid phase fraction in the central portion of the strand is within the range of 0.9 or more: 0.5 ≤ R t1 / D 0 ≤ 1.0, 0.5 ≤ R g1 ≤ 3.0, 0.2 ≤ R t2 / D 0 ≤ 1.0, 0.1 ≤ R g2 ≤ 1.5, where R t1: the total rolling reduction (mm) of the strand when the solid phase fraction is within the range of 0.2 or more and less than 0.9, D 0: the amount of bulging (mm) of the strand, R g1: the reduction gradient (mm/m) in the conveying direction of the strand when the solid phase fraction is within the range of 0.2 or more and less than 0.9, R t2: the total rolling reduction (mm) of the strand when the solid phase fraction is within the range of 0.9 or more, and R g2: the reduction gradient (mm/m) in the conveying direction of the strand when the solid phase fraction is within the range of 0.9 or more.