mhurhangee/ep-ind-claims huggingface dataset:
Cooling body for producing a ring cooler, formed from a tubular main body on whose outer circumferential surface a multiplicity of outwardly narrowing cooling projections (2, 2a, 2b) are integrally formed, wherein the outer circumferential surface provided with the cooling projections (2, 2a, 2b) is divided into at least three segments (S1, S2, S3, S4) in a circumferential direction, each of which segments is delimited by two surfaces, wherein the two surfaces are two axial planes (A1, A2, A3, A4) which intersect along the cylinder axis, wherein the two axial planes (A1, A2, A3, A4) form a first angle α of at most 120°, and an axial central plane (W1, W2, W3, W4) extends through an angular bisector of the two axial planes (A1, A2, A3, A4), characterized in that first cooling projections in the region of the axial central plane (W1, W2, W3, W4) are of substantially symmetrical design, and second cooling projections in the vicinity of the axial planes (A1, A2, A3, A4) are of asymmetrical design, and in that all the cooling projections of each segment (S1, S2, S3, S4) extend from the outer circumferential surface in a single direction of extent (E1, E2, E3, E4). wherein the outer circumferential surface provided with the cooling projections (2, 2a, 2b) is divided into at least three segments (S1, S2, S3, S4) in a circumferential direction, each of which segments is delimited by two surfaces, wherein the two surfaces are two axial planes (A1, A2, A3, A4) which intersect along the cylinder axis, wherein the two axial planes (A1, A2, A3, A4) form a first angle α of at most 120°, and an axial central plane (W1, W2, W3, W4) extends through an angular bisector of the two axial planes (A1, A2, A3, A4), characterized in that first cooling projections in the region of the axial central plane (W1, W2, W3, W4) are of substantially symmetrical design, and second cooling projections in the vicinity of the axial planes (A1, A2, A3, A4) are of asymmetrical design, and in that all the cooling projections of each segment (S1, S2, S3, S4) extend from the outer circumferential surface in a single direction of extent (E1, E2, E3, E4).
Use of a probiotic bacterial strain in the manufacture of a medicament or nutritional composition in humans or animals suffering from poor quality sleep and/or insomnia, for decreasing the time of active sleep and increasing the time of quiet sleep (NREM), wherein REM is duration of active sleep (in minutes), and NREM is the duration of quiet sleep (in minutes), and wherein said probiotic bacterial strain comprises Lactobacillus reuteri DSM 17938 or Bifidobacterium longum NCC3001 / ATCC BAA-999.
A disposable diaper comprising: a front waistline region, a rear waistline region, a crotch region positioned between the front waistline region and the rear waistline region; a product longitudinal direction from the front waistline region towards the rear waistline region, and a product widthwise direction perpendicular to the product longitudinal direction; a skin-surface-side sheet arranged at a skin-contact surface-side of a wearer; a non-skin surface-side sheet arranged at a non-skin-contact surface-side of the skin-surface-side sheet; an absorber arranged between the skin-surface-side sheet and the non-skin surface-side sheet, running across the crotch region, and extending from the crotch region to the front waistline region and/or the rear waistline region; a waistline retaining unit holding the disposable diaper onto the body of the wearer in the front waistline region and the rear waistline region; and leg stretching units arranged along leg hole openings provided on an outer side in the product widthwise direction from the absorber and expandable and contractable along the product longitudinal direction, wherein the leg stretching units are arranged between the skin-surface-side sheet and the non-skin surface-side sheet, and are arranged on the inner side in the product longitudinal direction from diaper ends (10F, 10R) that configure the outer circumference of the disposable diaper or the inner side in the product widthwise direction from the diaper ends in a plan view, a part of the waistline retaining unit is arranged in at least one of a first region on an outer side in the product longitudinal direction from the ends of the leg stretching units in the product longitudinal direction, and a second region on an outer side in the product widthwise direction from the ends of the leg stretching units in the product longitudinal direction, and a joint region where the skin-surface-side sheet and the non-skin surface-side sheet are joined is provided along the diaper ends (10F, 10R, 10W) in the first region and/or the second region, a first pattern of an adhesive is arranged with leaving an interval, on the skin-surface-side sheet of the first region and the second region, a second pattern of an adhesive is arranged with leaving an interval, on the non-skin surface-side sheet of the first region and the second region, and the first pattern is different from the second pattern.
An apparatus (100, 300, 400) for removing a material from a body lumen, the apparatus comprising: an elongate inversion support comprising a catheter (107, 207, 307, 407, 507) having a circumference, a distal end (113, 308, 408, 508), and a distal end opening; and a knitted tube (103, 203, 305, 405, 505) that extends distally in an un-inverted configuration along an outer surface of the catheter (107, 207, 307, 407, 507), inverts into the distal end opening of the catheter, and extends proximally within the catheter (107, 307, 407, 507) in an inverted configuration, wherein the knitted tube (103, 203, 305, 405, 505) is configured to invert by rolling into the distal end opening of the catheter (107, 207, 307, 407, 507) when a first end of the knitted tube (103, 203, 305, 405, 505) is pulled proximally within the catheter (107, 207, 307, 407, 507), characterized in that the knitted tube (103, 203, 305, 405, 505) has a length of 20 cm or greater and comprises a filament knitted into N loops per turn, the filament having a filament diameter D filament, and in that the knitted tube (103, 203, 305, 405, 505) has a choke ratio, N 2 × D filament C cath, greater than 2.9, where C cath is the catheter circumference. an elongate inversion support comprising a catheter (107, 207, 307, 407, 507) having a circumference, a distal end (113, 308, 408, 508), and a distal end opening; and a knitted tube (103, 203, 305, 405, 505) that extends distally in an un-inverted configuration along an outer surface of the catheter (107, 207, 307, 407, 507), inverts into the distal end opening of the catheter, and extends proximally within the catheter (107, 307, 407, 507) in an inverted configuration, wherein the knitted tube (103, 203, 305, 405, 505) is configured to invert by rolling into the distal end opening of the catheter (107, 207, 307, 407, 507) when a first end of the knitted tube (103, 203, 305, 405, 505) is pulled proximally within the catheter (107, 207, 307, 407, 507), characterized in that the knitted tube (103, 203, 305, 405, 505) has a length of 20 cm or greater and comprises a filament knitted into N loops per turn, the filament having a filament diameter D filament, and in that the knitted tube (103, 203, 305, 405, 505) has a choke ratio, N 2 × D filament C cath, greater than 2.9, where C cath is the catheter circumference.
A near-eye display device comprising: a right display projector and a left display projector; a right expansion optic configured to receive a right display image from the right display projector and to release an expanded form of the right display image; a left expansion optic configured to receive a left display image from the left display projector and to release an expanded form of the left display image; a right inertial measurement unit IMU fixedly coupled to the right display projector, and a left IMU fixedly coupled to the left display projector; a plurality of angle-sensitive pixel ASP elements each responsive to an angle of light of a display image received into the right or left expansion optic; and a computer configured to: receive (88, 92) output from each of the right IMU, the left IMU and the plurality of ASP elements, and render display data for the right and left display projectors based in part on the output from each of the right IMU, the left IMU and the plurality of ASP elements, thereby providing predefined stereo disparity between the expanded forms of the right and left display images. a right display projector and a left display projector; a right expansion optic configured to receive a right display image from the right display projector and to release an expanded form of the right display image; a left expansion optic configured to receive a left display image from the left display projector and to release an expanded form of the left display image; a right inertial measurement unit IMU fixedly coupled to the right display projector, and a left IMU fixedly coupled to the left display projector; a plurality of angle-sensitive pixel ASP elements each responsive to an angle of light of a display image received into the right or left expansion optic; and a computer configured to: receive (88, 92) output from each of the right IMU, the left IMU and the plurality of ASP elements, and render display data for the right and left display projectors based in part on the output from each of the right IMU, the left IMU and the plurality of ASP elements, thereby providing predefined stereo disparity between the expanded forms of the right and left display images. receive (88, 92) output from each of the right IMU, the left IMU and the plurality of ASP elements, and render display data for the right and left display projectors based in part on the output from each of the right IMU, the left IMU and the plurality of ASP elements, thereby providing predefined stereo disparity between the expanded forms of the right and left display images.
A transcritical vapor compression system comprising: a compression device to compress a refrigerant to a high pressure (P S); a heat rejecting heat exchanger for receiving refrigerant at a heat rejecting heat exchanger inlet temperature and discharging refrigerant at a lower refrigerant outlet temperature (T CO) and for receiving a cooling fluid at an entering temperature and discharging said fluid at a higher leaving temperature; an expansion device for reducing said refrigerant to a lower pressure; a heat accepting heat exchanger (16; 18) for heating and evaporating said refrigerant entering said heat accepting heat exchanger at an inlet pressure (P EI) and exiting said heat accepting heat exchanger at an outlet pressure (P EO); and a control to determine a desired high pressure (P I) of said refrigerant on the basis of one of said temperatures in combination with one of said pressures or a sensed condition indicative thereof; wherein said temperatures include the heat rejecting heat exchanger outlet temperature, and said pressures include the compressor discharge pressure; characterised in that the control uses a heat accepting heat exchanger inlet temperature (T EI) when determining the desired high pressure. a compression device to compress a refrigerant to a high pressure (P S); a heat rejecting heat exchanger for receiving refrigerant at a heat rejecting heat exchanger inlet temperature and discharging refrigerant at a lower refrigerant outlet temperature (T CO) and for receiving a cooling fluid at an entering temperature and discharging said fluid at a higher leaving temperature; an expansion device for reducing said refrigerant to a lower pressure; a heat accepting heat exchanger (16; 18) for heating and evaporating said refrigerant entering said heat accepting heat exchanger at an inlet pressure (P EI) and exiting said heat accepting heat exchanger at an outlet pressure (P EO); and a control to determine a desired high pressure (P I) of said refrigerant on the basis of one of said temperatures in combination with one of said pressures or a sensed condition indicative thereof; wherein said temperatures include the heat rejecting heat exchanger outlet temperature, and said pressures include the compressor discharge pressure; characterised in that the control uses a heat accepting heat exchanger inlet temperature (T EI) when determining the desired high pressure.
A method of assigning a transmission timing interval to a radic terminal (11, 12, 13, 14, 15, 16) in a radio network system including at least a radio network node (110, 120, 130, 140) and a radio terminal (11, 12, 13, 14, 15, 16) and employing a time division duplex method dividing a transmission time in an uplink transmission time interval and a downlink transmission time interval for transmission between the radio network node (110, 120, 130, 140) and the radio terminal (11, 12, 13, 14, 15, 16), comprising the following steps: determining a speed of movement of the radio terminal (11, 12, 13, 14, 15, 16) with respect to the radio network node (110, 120, 130, 140); grouping radio terminals (11, 12, 13, 14, 15, 16) based on the determined speed of movement into one of at least two groups; and assigning to the radio terminal (11, 12, 13, 14, 15, 16), based on the speed of movement, a transmission timing interval in the downlink or uplink transmission time interval, where the same transmission timing interval is applied for radio terminals (11, 12, 13, 14, 15, 16) within one group. determining a speed of movement of the radio terminal (11, 12, 13, 14, 15, 16) with respect to the radio network node (110, 120, 130, 140); grouping radio terminals (11, 12, 13, 14, 15, 16) based on the determined speed of movement into one of at least two groups; and assigning to the radio terminal (11, 12, 13, 14, 15, 16), based on the speed of movement, a transmission timing interval in the downlink or uplink transmission time interval, where the same transmission timing interval is applied for radio terminals (11, 12, 13, 14, 15, 16) within one group.
A brake, comprising: a frame part; an armature part movably mounted on the frame part; an air gap between frame part and armature part counterfaces (8, 9) disposed facing towards each other; wherein the brake additionally comprises a planar, elastically bendable damping plate fitted in the air gap and adapted to resist bending with a damping force (Fd) damping the brake noise; characterized in that at least one of the aforesaid counterfaces (8, 9) is non-planar to bend the damping plate. a frame part; an armature part movably mounted on the frame part; an air gap between frame part and armature part counterfaces (8, 9) disposed facing towards each other; wherein the brake additionally comprises a planar, elastically bendable damping plate fitted in the air gap and adapted to resist bending with a damping force (Fd) damping the brake noise; characterized in that at least one of the aforesaid counterfaces (8, 9) is non-planar to bend the damping plate.
Method for manufacturing a motor vehicle interior equipment structure, comprising the following steps: - providing a base layer having a first face and a second face; - arranging the second face against a first wall of a mould for shaping the structure; - fixing at least one precut supplementary element (16A to 16D) to one of the first face and the second face, the or each supplementary element (16A to 16D) having an extent which is less than the extent of said face (22, 24); characterised in that the method comprises a step of grasping the precut supplementary element (16A to 16D) and then a step of wedging the precut supplementary element (16A to 16D) in front of a positioning stop (52A to 52E) having a shape substantially complementary to at least one edge of the supplementary element (16A to 16D), the positioning stop (52A to 52E) projecting relative to the first wall away from the periphery of the first wall. - providing a base layer having a first face and a second face; - arranging the second face against a first wall of a mould for shaping the structure; - fixing at least one precut supplementary element (16A to 16D) to one of the first face and the second face, the or each supplementary element (16A to 16D) having an extent which is less than the extent of said face (22, 24);
Compositions based on thermoplastic halogenated polymers, the said compositions being characterized by an R MFI value of between 1.1 and 6, the R MFI value being the ratio of the MFI 8/2 to the MFI 0.3/1 obtained by measuring, at the same temperature, according to the ASTM D1238 standard, the MFI 8/2 being obtained with a cylindrical die having a height of 8 ± 0.0025 mm, a diameter of 2.095 ± 0.003 mm, and the MFI 0.3/1 being obtained with a conical die, characterized by a cone angle of 60° ± 0.5°, an outside diameter of 9.48 mm, an inside diameter of 1.0 ± 0.025 mm, a total height of 2.55 ± 0.025 mm and a height of the cylindrical section of 0.3 ± 0.025 mm.
An array (210, 212) of electrodes, comprising: a plurality of electrodes (301-304; 401-404; 501-504), each electrode extending along a first direction X, and periodically arrayed along a second direction Y perpendicular to X at a pitch p e; wherein each electrode comprises a continuous periodic metal mesh (310; 410; 510) having a square unit cell of edge length p m, the square unit cell having axes displaced by an oblique angle θ from X and Y; wherein θ = arctan ( a / b) and p m = n*p e /( m* sqrt( a 2 + b 2)); and a, b, m, and n are positive integers. a plurality of electrodes (301-304; 401-404; 501-504), each electrode extending along a first direction X, and periodically arrayed along a second direction Y perpendicular to X at a pitch p e; wherein each electrode comprises a continuous periodic metal mesh (310; 410; 510) having a square unit cell of edge length p m, the square unit cell having axes displaced by an oblique angle θ from X and Y; wherein θ = arctan ( a / b) and p m = n*p e /( m* sqrt( a 2 + b 2)); and a, b, m, and n are positive integers.
A turboshaft engine with free turbine comprising on the one hand a gas generator comprising at least one compressor supplied with air, a combustion chamber receiving the compressed air leaving said compressor, and at least one generator turbine connected mechanically to said compressor by a drive shaft and driven by the gases arising from fuel combustion carried out in said combustion chamber, and further comprising a free turbine supplied with the gases arising from said combustion after passage thereof through said generator turbine and which drives a power shaft oriented non-coaxially with the drive shaft of the gas generator and supplying turboshaft engine power via a reduction gearbox, characterized in that the generator turbine is of the axial type and in that the combustion chamber is a substantially cylindrical or frustoconical chamber, coaxial with the axis of the generator turbine and comprising a single injector, in which the power shaft is oriented parallel to said drive shaft, and in which the reduction gearbox is associated with an accessories gearbox, the two being positioned in the longitudinal direction substantially on a level with the air inlet of the compressor.
A precision tile laying system comprising at least one knob and a threaded stem for use in an assembly for spacing and levelling tiles during their laying the threaded stem being adapted to be positioned at the crossing of two or more tiles, wherein said knob comprises at least one body provided with at least one top surface with a thickness in which at least one hole is formed, said hole comprising a threaded portion at least to engage with said threaded stem, characterized in that said threaded stem being treated with polishing and chroming to present a low surface roughness to allow less friction when screwing the knob hole with said threaded stem, so the knob self-screwing on said self-threaded stem to a base of the threaded stem getting in contact with the tiles.
A method of preparing a conjugated diene-based polymer comprising: firstly injecting a diene-based monomer to a first reactor to perform a polymerization reaction in a presence of a catalyst composition in a hydrocarbon solvent, and transporting a polymerization reaction product to a second reactor; and secondly injecting the diene-based monomer to a second reactor to perform a polymerization reaction in a presence of a hydrocarbon solvent and a catalyst composition, wherein injection amounts of the diene-based monomer satisfy the following Mathematical Formula 1: 2.7 ≤ x / y ≤ 6.0 in Mathematical Formula 1, x is a first injection amount (weight) of the diene-based monomer, and y is a second injection amount (weight) of the diene-based monomer, wherein the method is a continuous preparation method; and wherein the catalyst composition comprises a lanthanide rare earth element-containing compound, and at least one of an alkylating agent, a halide andor a conjugated diene-based monomer, and wherein the lanthanide rare earth element-containing compound comprises a neodymium compound represented by the following Formula 1: in Formula 1, R a is an alkyl group having 6 to 8 carbon atoms, and R b and R c are independently an alkyl group having 2 to 6 carbon atoms. firstly injecting a diene-based monomer to a first reactor to perform a polymerization reaction in a presence of a catalyst composition in a hydrocarbon solvent, and transporting a polymerization reaction product to a second reactor; and secondly injecting the diene-based monomer to a second reactor to perform a polymerization reaction in a presence of a hydrocarbon solvent and a catalyst composition, wherein injection amounts of the diene-based monomer satisfy the following Mathematical Formula 1: 2.7 ≤ x / y ≤ 6.0 in Mathematical Formula 1, x is a first injection amount (weight) of the diene-based monomer, and y is a second injection amount (weight) of the diene-based monomer, wherein the method is a continuous preparation method; and
A method of servicing a wellbore in a subterranean formation comprising: preparing an invert emulsion comprising an aqueous fluid, an oleaginous fluid, and an emulsifier composition, wherein the emulsifier composition comprises an emulsifier, a diluent, and a thinner, wherein the thinner comprises a fatty acid amide; and placing the invert emulsion in the wellbore. preparing an invert emulsion comprising an aqueous fluid, an oleaginous fluid, and an emulsifier composition, wherein the emulsifier composition comprises an emulsifier, a diluent, and a thinner, wherein the thinner comprises a fatty acid amide; and placing the invert emulsion in the wellbore.
Circuit arrangement for compensation of a DC component (I DC) in a transformer, wherein the transformer has a winding arrangement which can be connected by means of connecting lines to a power system for transporting electrical energy and has a neutral point connected to earth, comprising: - a transductor circuit which is arranged in a current path which connects a connection point situated on a node-free portion of the connection line to earth, - a control and regulation device which controls the transductor circuit by means of a control signal and to which is fed, on the input side, a signal provided by a detection device concerning the size and direction of the DC component (I DC) to be compensated. - a transductor circuit which is arranged in a current path which connects a connection point situated on a node-free portion of the connection line to earth, - a control and regulation device which controls the transductor circuit by means of a control signal and to which is fed, on the input side, a signal provided by a detection device concerning the size and direction of the DC component (I DC) to be compensated.