mhurhangee/ep-ind-claims huggingface dataset:
A dry cleaning device comprising: a cleaning tank having cleaning medium present in the cleaning tank; a circulation-air generating unit for generating high-velocity circulation air inside the cleaning tank for causing cleaning medium present in the cleaning tank to flow up; a cleaning-medium accelerating unit for accelerating the cleaning medium that has been caused to flow in the cleaning tank so that the cleaning medium collides with a cleaning target object thereby separating particles sticking onto the cleaning target object; and a cleaning-medium recycle unit for sucking the particles separated from the cleaning target object and for recycling the cleaning medium; characterized in that the cleaning medium is a flexible flaked-shaped cleaning medium having an area in a range between 1 mm 2 and 1000 mm 2, and a thickness in a range between 1 μm and 500 μm. \ a cleaning tank having cleaning medium present in the cleaning tank; a circulation-air generating unit for generating high-velocity circulation air inside the cleaning tank for causing cleaning medium present in the cleaning tank to flow up; a cleaning-medium accelerating unit for accelerating the cleaning medium that has been caused to flow in the cleaning tank so that the cleaning medium collides with a cleaning target object thereby separating particles sticking onto the cleaning target object; and a cleaning-medium recycle unit for sucking the particles separated from the cleaning target object and for recycling the cleaning medium;
A method of mounting flow-altering devices on a wind turbine blade, the flow-altering devices being of the type having a base comprising an inner side for attaching onto a surface of the wind turbine blade, and an outer side with one or more flow-altering device parts protruding from the base, the method comprising - providing a mounting device with a mounting panel supporting one or more flow-altering devices, the one or more flow-altering devices including a first flow-altering device; - arranging the mounting panel on an area of application on the surface of the wind turbine blade with an adhesive material between the inner side of the first flow-altering device and the surface of the wind turbine blade, and with a seal between the mounting panel and the surface to form a cavity between the mounting panel and the surface of the wind turbine blade; - applying a negative pressure in the cavity; - releasing the negative pressure in the cavity; and - removing the mounting panel from the area of application on the surface of the wind turbine blade. - providing a mounting device with a mounting panel supporting one or more flow-altering devices, the one or more flow-altering devices including a first flow-altering device; - arranging the mounting panel on an area of application on the surface of the wind turbine blade with an adhesive material between the inner side of the first flow-altering device and the surface of the wind turbine blade, and with a seal between the mounting panel and the surface to form a cavity between the mounting panel and the surface of the wind turbine blade; - applying a negative pressure in the cavity; - releasing the negative pressure in the cavity; and - removing the mounting panel from the area of application on the surface of the wind turbine blade.
An air-conditioning apparatus capable of cooling and heating mixed operation and configured such that at least one heat-source-side unit including a compressor, a four-way switching valve, and an outdoor heat exchanger is connected to a plurality of load-side units each including an expansion device, an indoor heat exchanger and a temperature sensor (18, 24) for detecting an evaporation temperature, the plurality of load-side units being connected to the heat-source-side unit in parallel, the air-conditioning apparatus comprising: an opening and closing valve mounted in the heat-source-side unit to adjust a flow of refrigerant from the load-side units to the outdoor heat exchanger; a heat-source-side expansion device mounted in the heat-source-side unit and provided in parallel with the opening and closing valve; and a controller configured to control at least opening and closing of the opening and closing valve and an opening degree of the heat-source-side expansion device, wherein the controller is configured to control the opening degree of the heat-source-side expansion device according to an evaporating temperature of the load-side unit requesting cooling so as to adjust the evaporating temperature to be within a predetermined range, characterized in that the controller is configured to in a heating main operation mode in which a heating load is dominant in the cooling and heating mixed operation with the plurality of load-side units and under a condition where an evaporation temperature of the load-side unit that is performing a cooling operation decreases to be lower than or equal to a predetermined temperature, close the opening and closing valve. an opening and closing valve mounted in the heat-source-side unit to adjust a flow of refrigerant from the load-side units to the outdoor heat exchanger; a heat-source-side expansion device mounted in the heat-source-side unit and provided in parallel with the opening and closing valve; and a controller configured to control at least opening and closing of the opening and closing valve and an opening degree of the heat-source-side expansion device, wherein the controller is configured to control the opening degree of the heat-source-side expansion device according to an evaporating temperature of the load-side unit requesting cooling so as to adjust the evaporating temperature to be within a predetermined range, characterized in that the controller is configured to in a heating main operation mode in which a heating load is dominant in the cooling and heating mixed operation with the plurality of load-side units and under a condition where an evaporation temperature of the load-side unit that is performing a cooling operation decreases to be lower than or equal to a predetermined temperature, close the opening and closing valve.
A nitrile group-containing highly saturated copolymer rubber composition containing a nitrile group-containing highly saturated copolymer rubber having a Mooney viscosity [ML 1+4, 100°C] of 50 to 200, a nitrile group-containing highly saturated copolymer rubber having a Mooney viscosity [ML 1+4, 100°C] of 10 to 40, and staple fibers having an average fiber length of 0.1 to 12 mm, wherein a content of the nitrile group-containing highly saturated copolymer rubber is 5 to 75 wt% with respect to 100 wt% of the total of the nitrile group-containing highly saturated copolymer rubber and the nitrile group-containing highly saturated copolymer rubber, said nitrile group-containing highly saturated copolymer rubber and said nitrile group-containing highly saturated copolymer rubber both have iodine values of 120 or less, and the rubber composition contains said staple fibers in 0.1 to 50 parts by weight with respect to 100 parts by weight of the total of said nitrile group-containing highly saturated copolymer rubber and said nitrile group-containing highly saturated copolymer rubber. a content of the nitrile group-containing highly saturated copolymer rubber is 5 to 75 wt% with respect to 100 wt% of the total of the nitrile group-containing highly saturated copolymer rubber and the nitrile group-containing highly saturated copolymer rubber, said nitrile group-containing highly saturated copolymer rubber and said nitrile group-containing highly saturated copolymer rubber both have iodine values of 120 or less, and the rubber composition contains said staple fibers in 0.1 to 50 parts by weight with respect to 100 parts by weight of the total of said nitrile group-containing highly saturated copolymer rubber and said nitrile group-containing highly saturated copolymer rubber.
An electronic device comprising: a housing, said housing comprising: a plurality of metallic material portions (M, M1, M2, M3) formed from at least one metallic member, said metallic portions (M, M1, M2, M3) disposed on an outer side of a side wall of the housing, and separated from each other by a gap (G, 411a); and a synthetic resin material portion (R, 413a), the synthetic resin joined and injection molded to at least a part of the at least one metallic material portion (M, M1, M2, M3) to fill the gap (G, 411a); and wherein a sealing resin is further disposed between an inner joint portion of the metallic material portions (M, M1, M2, M3) and the synthetic resin material portion and the plurality of metallic material portions are mechanically connected to each other through the synthetic resin material portion and at least one of the plurality of metallic material portions is configured to form an antenna module. a housing, said housing comprising: a plurality of metallic material portions (M, M1, M2, M3) formed from at least one metallic member, said metallic portions (M, M1, M2, M3) disposed on an outer side of a side wall of the housing, and separated from each other by a gap (G, 411a); and a synthetic resin material portion (R, 413a), the synthetic resin joined and injection molded to at least a part of the at least one metallic material portion (M, M1, M2, M3) to fill the gap (G, 411a); and wherein a sealing resin is further disposed between an inner joint portion of the metallic material portions (M, M1, M2, M3) and the synthetic resin material portion and the plurality of metallic material portions are mechanically connected to each other through the synthetic resin material portion and at least one of the plurality of metallic material portions is configured to form an antenna module.
A device for generating a hologram using a hologram master, comprising: an optical system, the optical system, along an optical axis, comprising at least one laser radiation source, a diffractive optical element and a master holder, the master holder being configured to allow a holographic recording material to be exposed and the hologram master to be arranged therein or thereon; and the diffractive optical element being designed so as to change and adjust the shape and the intensity of laser radiation emitted by the laser radiation source and transmitted by the diffractive optical element with respect to a focal plane of the diffractive optical element, and to map the laser radiation on an irradiation plane in a beam path of the optical system, and thereby irradiate a first exposure area, which corresponds to an area of the holographic recording material to be exposed for generating the hologram, the diffractive optical element furthermore being designed so as to change and adjust the shape and the intensity of the laser radiation emitted by the laser radiation source and transmitted by the diffractive optical element with respect to the focal plane, and to map the laser radiation on at least one further irradiation plane in the beam path of the optical system, and thereby irradiate at least one further exposure area, which is spatially separated from the first exposure area, on the holographic recording material and which corresponds to a further area of the holographic recording material to be exposed for generating a further hologram. an optical system, the optical system, along an optical axis, comprising at least one laser radiation source, a diffractive optical element and a master holder, the master holder being configured to allow a holographic recording material to be exposed and the hologram master to be arranged therein or thereon; and the diffractive optical element being designed so as to change and adjust the shape and the intensity of laser radiation emitted by the laser radiation source and transmitted by the diffractive optical element with respect to a focal plane of the diffractive optical element, and to map the laser radiation on an irradiation plane in a beam path of the optical system, and thereby irradiate a first exposure area, which corresponds to an area of the holographic recording material to be exposed for generating the hologram, the diffractive optical element furthermore being designed so as to change and adjust the shape and the intensity of the laser radiation emitted by the laser radiation source and transmitted by the diffractive optical element with respect to the focal plane, and to map the laser radiation on at least one further irradiation plane in the beam path of the optical system, and thereby irradiate at least one further exposure area, which is spatially separated from the first exposure area, on the holographic recording material and which corresponds to a further area of the holographic recording material to be exposed for generating a further hologram.
Power-tool parting device, having at least one cutting strand (12a; 12c; 12d; 12e), and having at least one guide unit (14a; 14c; 14d; 14e) for guiding the cutting strand (12a; 12c; 12d; 12e), which, in combination with the cutting strand (12a; 12c; 12d; 12e), forms a closed system, and having at least one cutting-strand tensioning unit (16a; 16c; 16d; 16e), which is disposed on the guide unit (14a; 14c; 14d; 14e) and which is provided for compensating play and/or tolerance of the cutting strand (12a; 12c; 12d; 12e), characterized in that the cutting-strand tensioning unit (16a; 16c; 16d; 16e) comprises at least one cutting-strand holding element (18a; 18c; 18d; 18e), which is in the shape of a disc and which is provided to hold the cutting strand (12a; 12c; 12d; 12e) by means of a form-closed connection, by means of a face of the cutting-strand holding element (18a; 18c; 18d; 18e), in at least one coupling position, in which the cutting strand (12a; 12c; 12d; 12e) is connectable directly to a drive element of a portable power tool when the guide unit (14a; 14c; 14d; 14e) is coupled to a coupling device of the portable power tool, and therefore, after the power-tool parting device has been removed from a pretensioning device (80a, 80b, 80c), the cutting strand (12a; 12c; 12d; 12e) is to a large extent prevented from falling into a coupling recess (70a; 70c; 70d; 70e) of the cutting-strand tensioning unit (16a; 16c; 16d; 16e), by means of the cutting-strand holding elements (18a; 18c; 18d; 18e).
A progestogen compound having the structure of formula: where: R 3 and R 4 together form an α-CH 2 bridge between carbons 15 and 16 or a β-CH 2 bridge between carbons 15 and 16; and R 7 and R 8 together form an α-CH 2 bridge between carbons 1 and 2. R 3 and R 4 together form an α-CH 2 bridge between carbons 15 and 16 or a β-CH 2 bridge between carbons 15 and 16; and R 7 and R 8 together form an α-CH 2 bridge between carbons 1 and 2.
A method of estimating a frequency bias affecting a digital signal representative of a frame of symbols transmitted by a terminal to a station of a digital telecommunication system, said frequency bias corresponding to a difference between a supposed central frequency of a frequency spectrum of the digital signal and a real central frequency of said frequency spectrum, characterized in that it comprises the steps of: - generating the digital signal by sampling of an analog signal, representative of the frame of symbols, with a sampling period Te shorter than a predefined duration of each of the frame symbols, such that the digital signal comprises at least three samples per symbol, - estimating the frequency bias affecting the digital signal according to values calculated for Np pairs of samples selected so that several of said Np pairs necessarily belong to a same symbol of the frame, each value being representative of a phase difference between the samples of the considered pair of samples, the samples of each of the Np pairs being separated by a same non-zero number D of sampling periods. - generating the digital signal by sampling of an analog signal, representative of the frame of symbols, with a sampling period Te shorter than a predefined duration of each of the frame symbols, such that the digital signal comprises at least three samples per symbol, - estimating the frequency bias affecting the digital signal according to values calculated for Np pairs of samples selected so that several of said Np pairs necessarily belong to a same symbol of the frame, each value being representative of a phase difference between the samples of the considered pair of samples, the samples of each of the Np pairs being separated by a same non-zero number D of sampling periods.
A profile assembly which forms the stationary part of a window or door frame, wherein the profile assembly comprises the following: - at least one outer profile; - at least one inner profile, wherein the at least one outer profile and the at least one inner profile are made of metal, in particular aluminum, are connected by at least one insulating bar (22, 23), and at least one of the two profiles (20, 21) comprises at least one hooking section, and - a center seal comprising a sealing region and a fixing region extending substantially perpendicular thereto, wherein the fixing region comprises at least one latching section able to be brought into engagement with the inner profile and the outer profile by being inserted and latched into the at least one hooking section such that the fixing region extends substantially along the at least one insulating bar (22, 23) in the connecting direction, wherein the sealing region comprises a sealing stop for a corresponding seal of a sash element, particularly a window sash or door wing, which interacts with the stationary part of the window or door frame, characterized in that a fixing means is further provided which fixes the at least one insulating bar (22, 23) to a counter-element, particularly a retaining profile extending in the longitudinal direction of the profile assembly, by penetrating the fixing region; and further that the center seal comprises a cover region, wherein the cover region can be brought from a mounted position into an operative position and vice versa, wherein the cover region at least partially covers the fixing region when in the operative position. - at least one outer profile; - at least one inner profile, wherein the at least one outer profile and the at least one inner profile are made of metal, in particular aluminum, are connected by at least one insulating bar (22, 23), and at least one of the two profiles (20, 21) comprises at least one hooking section, and - a center seal comprising a sealing region and a fixing region extending substantially perpendicular thereto,
A magnetic shape-memory alloy material with a Curie temperature and also a phase transition temperature from a martensitic into an austenitic phase, exhibiting Ni, Mn, Ga and also at least Co in the compound Ni a Mn b Ga c Co d Fe e Cu f, wherein a, b, c, d, e and f are indicated as an atomic % and satisfy the conditions 44 ≤ a ≤ 51; 19 ≤ b ≤ 30; 18 ≤ c ≤ 24; 0.1 ≤ d < 3; 0 ≤ e ≤ 14.9; 0 ≤ f ≤ 14.9; d + e + f ≤ 3; a + b + c + d + e + f = 100.
A bridge (500;600) for use with a scaffolding standard that comprises an elongate pipe to which there is secured at least one rosette of a kind that presents a plurality of apertures about the pipe at which a connection to said standard can be established by other scaffolding components, the bridge (500;600) capable of connection to said rosette at at least two said apertures, said bridge allowing a scaffolding component to be secured thereto to be positioned and supported by said bridge at a location not catered for by any aperture of said rosette, wherein said bridge is adapted and configured to allow a scaffolding component to be secured there to at a location not catered for by any aperture of said rosette by presenting a fastening region at a location different to any said aperture of said rosette, characterised in that the bridge (500;600) is a unitary item, in that said fastening region is a closed slot shaped aperture, the slot having an elongate direction that lies in a notional plane that is also parallel to the elongate direction of a standard, the notional plane not passing through the at least two apertures of the rosette with which the bridge (500;600) is engaged when in use, in that said bridge (500;600) comprises a bridging portion from which there are disposed two prongs (522,523) that are perpendicular to the bridging portion and that are spaced apart on either side of said notional plane in a manner to be presented to allow their registration at two apertures of said rosette, in that the prongs (522,523) project in a direction that is parallel to each other and in the same direction as each other, and in that the bridge portion defines a landing on which said scaffolding component can rest when engaged at the aperture of said bridge.
A computer-implemented method for determining the position of features of an eye in a tomography image, the method comprising: - determining characterizing points, in an additional image, of the optic disc of the eye; - determining position data relating to the optic disc in the additional image based on the determined characterizing points; and - identifying an optic disc in the tomography image, wherein the determined position data in the additional image that relates to the optic disc is used to restrict a search area in the tomography image where the optic disc is searched for to identify the optic disc; - detecting retinal layer borders in the tomography image; and - in the tomography image, converging the retinal layer borders except a layer border between a vitreous layer and an Retina Nerve Fiber layer to the place where a Retina Pigment Epithelium layer ends around the optic disc on both sides. - determining characterizing points, in an additional image, of the optic disc of the eye; - determining position data relating to the optic disc in the additional image based on the determined characterizing points; and - identifying an optic disc in the tomography image, wherein the determined position data in the additional image that relates to the optic disc is used to restrict a search area in the tomography image where the optic disc is searched for to identify the optic disc; - detecting retinal layer borders in the tomography image; and - in the tomography image, converging the retinal layer borders except a layer border between a vitreous layer and an Retina Nerve Fiber layer to the place where a Retina Pigment Epithelium layer ends around the optic disc on both sides.