mhurhangee/ep-ind-claims huggingface dataset:
Electrical socket comprising a cylindrical wall that delimits a well, with at least two side posts provided facing one another, extending in projection from an internal face of this cylindrical wall parallel to the longitudinal axis thereof, and a flap that closes the section of the well and is mobile in translation with respect to said cylindrical wall along the longitudinal axis, characterized in that said side posts are mounted so as to be mobile in translation on said cylindrical wall, and in that each side post comprises a first means for driving towards the rear of the electrical socket, said first rearward driving means being designed to cooperate with a first complementary driving means of the flap, and a second means for driving towards the front of the electrical socket, said second frontward driving means being designed to cooperate with a second complementary driving means of said flap, such that each side post is moved together with the flap.
A near-field electromagnetic wave absorber formed by adhering pluralities of electromagnetic-wave-absorbing films (100a, 100b) each having a thin metal film (11a, 11b) having a thickness of 0.01-1 μm and formed on a surface of a plastic film (10a, 10b), (a) said near-field electromagnetic wave absorber comprising a first electromagnetic-wave-absorbing film provided with a first thin metal film comprising a thin magnetic metal film layer and a thin conductive metal film layer, and a second electromagnetic-wave-absorbing film provided with a second thin metal film comprising a thin magnetic metal film layer and a thin conductive metal film layer; (b) a large number of parallel, intermittent linear scratches being formed in plural directions with irregular widths and irregular intervals on each of said first and second thin metal films (11a, 11b); and (c) the crossing angle of the linear scratches formed on said first thin metal film being different from the crossing angle of the linear scratches formed on said second thin metal film; characterized in that (d) said first and second electromagnetic-wave-absorbing films (100a, 100b) are adhered, such that said first and second thin metal films (11a, 11b) are facing each other via an adhesive layer, said adhesive layer having a thickness of 5 μm or less, such that the facing thin metal films (11a, 11b) are electromagnetically coupled via the adhesive layer. (a) said near-field electromagnetic wave absorber comprising a first electromagnetic-wave-absorbing film provided with a first thin metal film comprising a thin magnetic metal film layer and a thin conductive metal film layer, and a second electromagnetic-wave-absorbing film provided with a second thin metal film comprising a thin magnetic metal film layer and a thin conductive metal film layer; (b) a large number of parallel, intermittent linear scratches being formed in plural directions with irregular widths and irregular intervals on each of said first and second thin metal films (11a, 11b); and (c) the crossing angle of the linear scratches formed on said first thin metal film being different from the crossing angle of the linear scratches formed on said second thin metal film; characterized in that (d) said first and second electromagnetic-wave-absorbing films (100a, 100b) are adhered, such that said first and second thin metal films (11a, 11b) are facing each other via an adhesive layer, said adhesive layer having a thickness of 5 μm or less, such that the facing thin metal films (11a, 11b) are electromagnetically coupled via the adhesive layer.
A method comprising: (a) providing a treatment fluid comprising a plurality of degradable diverting agents, each comprising at least one degradable fatty alcohol selected from the group consisting of: a montanyl alcohol, a tert-butylhydroquinone, a cholesterol, a benzoin, a borneol, an exo-norborneol, a glyceraldehyde triphenylmethanol, a camphor, a cholecalciferol, a ricinoleyl alcohol, a 1-Heptacosanol, a 1-Tetratriacontanol, a 1-Dotriacontanol, a 1-Hentriacontanol, a 1-Tricontanol, a 1-Nonacosanol, a 1-Octasanol, a 1-Hexacosanol, a 1,14-Tetradecanediol, a 1,16-Hexadecanediol, a 1,17-Heptadecanediol, a 1,18-Octadecanediol, a 1,19-Nonadecanediol, a 1,20-Eicosanediol, a 1,21-Heneicosanediol, a 1,22-Docosanediol, and any combination thereof; and (b) introducing the treatment fluid into a subterranean formation during a subterranean operation via a well bore. (a) providing a treatment fluid comprising a plurality of degradable diverting agents, each comprising at least one degradable fatty alcohol selected from the group consisting of: a montanyl alcohol, a tert-butylhydroquinone, a cholesterol, a benzoin, a borneol, an exo-norborneol, a glyceraldehyde triphenylmethanol, a camphor, a cholecalciferol, a ricinoleyl alcohol, a 1-Heptacosanol, a 1-Tetratriacontanol, a 1-Dotriacontanol, a 1-Hentriacontanol, a 1-Tricontanol, a 1-Nonacosanol, a 1-Octasanol, a 1-Hexacosanol, a 1,14-Tetradecanediol, a 1,16-Hexadecanediol, a 1,17-Heptadecanediol, a 1,18-Octadecanediol, a 1,19-Nonadecanediol, a 1,20-Eicosanediol, a 1,21-Heneicosanediol, a 1,22-Docosanediol, and any combination thereof; and (b) introducing the treatment fluid into a subterranean formation during a subterranean operation via a well bore.
A toothbrush with a head part having a cleaning structure that in particular comprises bristles, with a handle part and with a neck part, wherein a cavity with at least one outlet opening for an active substance is located in the head part, the head part has at least one hard component and at least one soft component and pliable elements produced from the soft component are arranged in direct proximity to the outlet opening, said pliable elements increasing the surface in the proximity to the outlet opening, characterized in that the head part has, on the rear face of the brush head part, a half with a saucer-shaped depression, which upon connection to a support plate forms the cavity, the support plate has at least one opening which is closed with the soft component to form a membrane and pliable elements, the outlet opening is formed in the soft component and the support plate is provided with bristles.
A machine for the separative machining of a plate-shaped workpiece by means of a processing beam, said machine having: a first movement unit for moving the workpiece in a first direction; a second movement unit for moving a machining head, which aligns the processing beam onto the workpiece, in a second direction which is perpendicular to the first direction; and two workpiece-bearing faces (4, 5) for bearing the workpiece, a gap which extends along the second direction being formed between the former, characterized in that at least two support slides (13a, 13b), which are displaceable in the second direction in a mutually independent manner and which each have a bearing face (14a, 14b) for supporting the workpiece borne on the workpiece-bearing faces (4, 5) and for supporting workpiece parts which are cut in the course of separative machining, are disposed within the gap. a first movement unit for moving the workpiece in a first direction; a second movement unit for moving a machining head, which aligns the processing beam onto the workpiece, in a second direction which is perpendicular to the first direction; and two workpiece-bearing faces (4, 5) for bearing the workpiece, a gap which extends along the second direction being formed between the former, characterized in that at least two support slides (13a, 13b), which are displaceable in the second direction in a mutually independent manner and which each have a bearing face (14a, 14b) for supporting the workpiece borne on the workpiece-bearing faces (4, 5) and for supporting workpiece parts which are cut in the course of separative machining, are disposed within the gap.
A security detection system, comprising one or more detection devices, each of said one or more detection devices comprising a first ray emitter, a ray receiver (6, 7, 8), and a movable frame, wherein the first ray emitter comprises a first ray source for generating first detection rays and is provided at a bottom portion of the movable frame, so that the first detection rays penetrate through a detected object from the bottom up; the ray receiver (6, 7, 8) comprises a ray detector provided on the movable frame, for correspondingly receiving the first detection rays having penetrated through the detected object; and the movable frame is configured to carry the first ray emitter and the ray receiver (6, 7, 8) to synchronously move from one end of the detected object to the other end thereof, characterized in that the first ray emitter is configured to move across the detected object at a central position on a bottom side of the detected object.
A liquid composition for stabilizing an analyte in intact nucleated cells of a whole-blood sample ex-vivo, the composition comprising an amount of whole blood and an aqueous solution, the solution comprising an anticoagulant, a phosphate salt, a cell-metabolizable sugar, adenine, and an antioxidant, wherein the antioxidant comprises a mitochondria-targeted antioxidant selected from the group consisting of SkQ1, MitoQ, SS-31, and wherein the concentration of the antioxidant in the composition is selected from the group consisting of 50 nM - 200 μM SkQ1, 50 nM - 250 nM MitoQ, and 500 nM - 10 μM SS-31.
An electric power tool, comprising: a casing having an elongated tubular-shape; a motor accommodated in the casing; a chuck installed at a front end of the casing to removably hold a tip tool and configured to be rotationally driven by the motor; a grip body installed at a rear end of the casing; a manipulation part provided to be exposed through an outer circumferential surface of the casing near the rear end of the casing and configured to be manipulated by a user; and a control unit (11 b) configured to control and drive the motor based on a manipulation of the manipulation part, characterized in that the manipulation part is configured to be pushed toward the front end of the casing or pulled toward the rear end of the casing by the user to change a position of the manipulation part from a neutral position thereof, and wherein the control unit controls the motor such that a rotation direction of the motor when the manipulation part is pushed toward the front end of the casing from the neutral position becomes opposite to a rotation direction of the motor when the manipulation part is pulled toward the rear end of the casing from the neutral position. a casing having an elongated tubular-shape; a motor accommodated in the casing; a chuck installed at a front end of the casing to removably hold a tip tool and configured to be rotationally driven by the motor; a grip body installed at a rear end of the casing; a manipulation part provided to be exposed through an outer circumferential surface of the casing near the rear end of the casing and configured to be manipulated by a user; and a control unit (11 b) configured to control and drive the motor based on a manipulation of the manipulation part, characterized in that the manipulation part is configured to be pushed toward the front end of the casing or pulled toward the rear end of the casing by the user to change a position of the manipulation part from a neutral position thereof, and wherein the control unit controls the motor such that a rotation direction of the motor when the manipulation part is pushed toward the front end of the casing from the neutral position becomes opposite to a rotation direction of the motor when the manipulation part is pulled toward the rear end of the casing from the neutral position.
A device for performing an assay on an analyte in a sample comprising: a radiation source adapted to generate a series of pulses of electromagnetic radiation; a transducer having a pyroelectric or piezoelectric element and electrodes which is capable of transducing energy generated by non-radiative decay into an electrical signal; a detector which is capable of detecting the electrical signal generated by the transducer; a first reagent proximal to the transducer, the first reagent having a binding site which is capable of binding a labelled reagent proportionally to the concentration of the analyte in the sample, which labelled reagent being capable of absorbing the electromagnetic radiation generated by the radiation source to generate energy by non-radiative decay; a second reagent proximal to the transducer, the second reagent having a lower affinity for the labelled reagent under the conditions of the assay than the first reagent; and a third reagent proximal to the transducer, the third reagent having a binding site which is capable of binding the labelled reagent, wherein the third reagent has an affinity for the labelled reagent which is less influenced than the first reagent by the concentration of the analyte or the complex or derivative of the analyte. a radiation source adapted to generate a series of pulses of electromagnetic radiation; a transducer having a pyroelectric or piezoelectric element and electrodes which is capable of transducing energy generated by non-radiative decay into an electrical signal; a detector which is capable of detecting the electrical signal generated by the transducer; a first reagent proximal to the transducer, the first reagent having a binding site which is capable of binding a labelled reagent proportionally to the concentration of the analyte in the sample, which labelled reagent being capable of absorbing the electromagnetic radiation generated by the radiation source to generate energy by non-radiative decay; a second reagent proximal to the transducer, the second reagent having a lower affinity for the labelled reagent under the conditions of the assay than the first reagent; and a third reagent proximal to the transducer, the third reagent having a binding site which is capable of binding the labelled reagent, wherein the third reagent has an affinity for the labelled reagent which is less influenced than the first reagent by the concentration of the analyte or the complex or derivative of the analyte.
A three-dimensional powder bed fusion additive manufacturing (PBF-AM) method comprising: a squeegeeing step of supplying, by a powder supply unit, a powder sample onto a base plate to stack powder layers; a main melting step of irradiating, by a beam generation unit, a powder bed which is a top layer of the powder layers with an electron beam to melt a two-dimensional shape area, which is a single layer obtained by slicing a shaping model; and a shaping surface checking step of detecting, by a detection unit, backscattered electron that is generated when the area melted in the main melting step is irradiated with an electron beam generated by the beam generation unit, and determining whether a melting state is normal or not based on the backscattered electron that has been detected, wherein when it is determined that the melting state is not normal in the shaping surface checking step, a re-melting step of re-irradiating the area melted in the main melting step with the electron beam generated by the beam generation unit is performed, wherein the detection unit includes a plurality of detectors, and in the shaping surface checking step, any irregularities on the area that has been melted are recognized from a difference between signals corresponding to backscattered electrons detected by the individual detectors, and it is determined that the melting state is not normal when the irregularities are created on the area that has been melted, characterized in that an aperture member limits backscattered electrons incident on the detection unit. a squeegeeing step of supplying, by a powder supply unit, a powder sample onto a base plate to stack powder layers; a main melting step of irradiating, by a beam generation unit, a powder bed which is a top layer of the powder layers with an electron beam to melt a two-dimensional shape area, which is a single layer obtained by slicing a shaping model; and a shaping surface checking step of detecting, by a detection unit, backscattered electron that is generated when the area melted in the main melting step is irradiated with an electron beam generated by the beam generation unit, and determining whether a melting state is normal or not based on the backscattered electron that has been detected, wherein when it is determined that the melting state is not normal in the shaping surface checking step, a re-melting step of re-irradiating the area melted in the main melting step with the electron beam generated by the beam generation unit is performed, wherein the detection unit includes a plurality of detectors, and in the shaping surface checking step, any irregularities on the area that has been melted are recognized from a difference between signals corresponding to backscattered electrons detected by the individual detectors, and it is determined that the melting state is not normal when the irregularities are created on the area that has been melted, characterized in that an aperture member limits backscattered electrons incident on the detection unit.
A pharmaceutical tablet comprising: a) An amount of 3'-[ -[1-(3,4-dimethylphenyl)-1,5-dihydro-3-methyl-5-oxo-4H-pyrazol-4-ylidene]hydrazino]-2'-hydroxy-[1,1'-biphenyl]-3-carboxylic acid bis-(monoethanolamine) selected from about 5 to about 200 mg wherein, the tablet comprises b) From about 2% to about 65% eltrombopag olamine; c) From about 25% to about 89% of one or more diluents selected from the group consisting of microcrystalline cellulose, powdered cellulose, pregelantinized starch, starch, lactitol, mannitol, sorbitol, maltodextrin; d) Up to about 8% binder; e) Up to about 2% of lubricant; and f) From 4% to about 12% of disintegrant. a) An amount of 3'-[ -[1-(3,4-dimethylphenyl)-1,5-dihydro-3-methyl-5-oxo-4H-pyrazol-4-ylidene]hydrazino]-2'-hydroxy-[1,1'-biphenyl]-3-carboxylic acid bis-(monoethanolamine) selected from about 5 to about 200 mg wherein, the tablet comprises b) From about 2% to about 65% eltrombopag olamine; c) From about 25% to about 89% of one or more diluents selected from the group consisting of microcrystalline cellulose, powdered cellulose, pregelantinized starch, starch, lactitol, mannitol, sorbitol, maltodextrin; d) Up to about 8% binder; e) Up to about 2% of lubricant; and f) From 4% to about 12% of disintegrant.
Fuel system for an internal combustion engine, which fuel system comprises a first fuel tank, a second fuel tank, a main supply pump and a transfer pump, wherein a first electric engine is arranged to operate the main supply pump, and a second electric engine is arranged to operate the transfer pump, characterised in that the main supply pump and the transfer pump are reversible, and in that the fuel system comprises: i) a first flow circuit for the fuel, in which the fuel flows at the fuel system's normal operation, and in which the transfer pump is arranged to operate in a first direction and to supply fuel from the second fuel tank to the first fuel tank via a first fuel conduit, which is arranged in connection with the first fuel tank, and wherein the main supply pump is arranged to operate in a first direction and to supply fuel from the first fuel tank, through a second fuel conduit, to the internal combustion engine, ii) a second flow circuit for the fuel, in which the fuel flows at an operational disruption in the main supply pump, and in which the transfer pump is redirected and arranged to operate in a second direction and to supply fuel from the second fuel tank to the internal combustion engine, via a third fuel conduit, wherein the fuel flow bypasses the main supply pump, and iii) a third flow circuit for the fuel, in which the fuel flows at an operational disruption in the transfer pump, and in which the main supply pump is redirected and arranged to operate in a second direction and to supply fuel from the second fuel tank, via a fourth fuel conduit, to the internal combustion engine, wherein the fuel flow bypasses the transfer pump. i) a first flow circuit for the fuel, in which the fuel flows at the fuel system's normal operation, and in which the transfer pump is arranged to operate in a first direction and to supply fuel from the second fuel tank to the first fuel tank via a first fuel conduit, which is arranged in connection with the first fuel tank, and wherein the main supply pump is arranged to operate in a first direction and to supply fuel from the first fuel tank, through a second fuel conduit, to the internal combustion engine, ii) a second flow circuit for the fuel, in which the fuel flows at an operational disruption in the main supply pump, and in which the transfer pump is redirected and arranged to operate in a second direction and to supply fuel from the second fuel tank to the internal combustion engine, via a third fuel conduit, wherein the fuel flow bypasses the main supply pump, and iii) a third flow circuit for the fuel, in which the fuel flows at an operational disruption in the transfer pump, and in which the main supply pump is redirected and arranged to operate in a second direction and to supply fuel from the second fuel tank, via a fourth fuel conduit, to the internal combustion engine, wherein the fuel flow bypasses the transfer pump.
A method of generating in-focus images of measurement locations of a sample holder in a microscopy imaging system, wherein the imaging device includes image acquisition electronics, the method comprising: (a) positioning a camera array at a first distance from the sample holder; (b) acquiring a first image of a measurement location using an imaging device disposed on the camera array; (c) developing a candidate output image associated with the imaging device in accordance with the first image; (d) positioning the camera array at a second distance from the sample holder; and (e) acquiring a second image of the measurement location using the imaging device; characterized by further comprising: (f) updating a portion of the candidate output image with a portion of the second image in accordance with a selection criterion; (g) transmitting the updated candidate output image; (h) positioning a first filter in a light path between the measurement location and the imaging acquisition electronics, wherein the first filter is positioned in the light path when the first image is acquired; (i) positioning a second filter in the light path for interchanging the filters; and (j) acquiring a second image of the measurement location using the imaging device, wherein the second filter is positioned in the light path when the second image is acquired. (a) positioning a camera array at a first distance from the sample holder; (b) acquiring a first image of a measurement location using an imaging device disposed on the camera array; (c) developing a candidate output image associated with the imaging device in accordance with the first image; (d) positioning the camera array at a second distance from the sample holder; and (e) acquiring a second image of the measurement location using the imaging device; (f) updating a portion of the candidate output image with a portion of the second image in accordance with a selection criterion; (g) transmitting the updated candidate output image; (h) positioning a first filter in a light path between the measurement location and the imaging acquisition electronics, wherein the first filter is positioned in the light path when the first image is acquired; (i) positioning a second filter in the light path for interchanging the filters; and (j) acquiring a second image of the measurement location using the imaging device, wherein the second filter is positioned in the light path when the second image is acquired.