mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a bearing seal comprising the steps of: feeding a steel coil of a preselected width into a ring rolling machine, cutting a divided length of the steel coil and rolling the length of steel coil into a closed coil ring having a butted joint, the butted joint of the closed coil ring is welded to form a welded steel coil ring, transferring the welded steel coil ring to a weld bead removal station, then transferring to a weld flattening machine wherein any weld bead at the butted joint between the two cut ends of the steel coil ring is flattened to form a flattened steel coil ring, transferring the flattened steel coil ring to a first pre-forming machine wherein a first profile is formed in the flattened steel coil ring to form a first profiled steel coil ring, transferring the first profiled steel coil ring to a second pre-forming machine wherein a second profile is formed in the first profiled steel coil ring to form a second profiled steel coil ring, characterised by transferring the second profiled steel coil ring to a third pre-forming machine wherein a third profile is formed in the second profiled steel coil ring to form a third profiled steel coil ring, and transferring the third profiled steel coil ring to a final forming machine wherein a final profile is formed in the third profiled steel coil ring to form a final profiled steel coil bearing seal, wherein the first profile formed in the flattened steel coil ring is formed at an angle of about 90°, and wherein the second profile formed in the first profiled steel coil ring is formed at an angle of about 90°. feeding a steel coil of a preselected width into a ring rolling machine, cutting a divided length of the steel coil and rolling the length of steel coil into a closed coil ring having a butted joint, the butted joint of the closed coil ring is welded to form a welded steel coil ring, transferring the welded steel coil ring to a weld bead removal station, then transferring to a weld flattening machine wherein any weld bead at the butted joint between the two cut ends of the steel coil ring is flattened to form a flattened steel coil ring, transferring the flattened steel coil ring to a first pre-forming machine wherein a first profile is formed in the flattened steel coil ring to form a first profiled steel coil ring, transferring the first profiled steel coil ring to a second pre-forming machine wherein a second profile is formed in the first profiled steel coil ring to form a second profiled steel coil ring, characterised by transferring the second profiled steel coil ring to a third pre-forming machine wherein a third profile is formed in the second profiled steel coil ring to form a third profiled steel coil ring, and transferring the third profiled steel coil ring to a final forming machine wherein a final profile is formed in the third profiled steel coil ring to form a final profiled steel coil bearing seal, wherein the first profile formed in the flattened steel coil ring is formed at an angle of about 90°, and wherein the second profile formed in the first profiled steel coil ring is formed at an angle of about 90°.
An automatic cooking device comprising: a light emitter configured to emit light of different wavelength bands; a photographing unit including an image sensor; a memory storing computer executable instructions; at least one processor configured to execute the computer executable instructions to control the light emitter and the photographing unit to obtain information about a kind of a food material by performing vision recognition based on a captured image of the food material, obtain characteristic information of the food material by performing spectroscopic analysis based on light reflected by emitting light of a wavelength band selected according to the information about the kind of the food material, and control a cooking process of the food material, based on the information about the kind of the food material and the characteristic information of the food material; and a cooker configured to operate according to the cooking process of the food material. a light emitter configured to emit light of different wavelength bands; a photographing unit including an image sensor; a memory storing computer executable instructions; at least one processor configured to execute the computer executable instructions to control the light emitter and the photographing unit to obtain information about a kind of a food material by performing vision recognition based on a captured image of the food material, obtain characteristic information of the food material by performing spectroscopic analysis based on light reflected by emitting light of a wavelength band selected according to the information about the kind of the food material, and control a cooking process of the food material, based on the information about the kind of the food material and the characteristic information of the food material; and a cooker configured to operate according to the cooking process of the food material.
A combined power take off and controller comprising: a power take off including a housing that is adapted to be supported on a housing of a source of rotational energy, an input mechanism (12,13,14) that extends through an opening provided in the housing and is adapted to be rotatably driven by the source of rotational energy whenever the source of rotational energy is operated, and an output mechanism that is rotatably driven by the input mechanism and that is adapted to be connected to a rotatably driven accessory; characterized by a controller that is responsive to one or more operating conditions of the power take off for detecting an abnormal situation and/or controlling the operation thereof in response to an abnormal situation. a power take off including a housing that is adapted to be supported on a housing of a source of rotational energy, an input mechanism (12,13,14) that extends through an opening provided in the housing and is adapted to be rotatably driven by the source of rotational energy whenever the source of rotational energy is operated, and an output mechanism that is rotatably driven by the input mechanism and that is adapted to be connected to a rotatably driven accessory; characterized by a controller that is responsive to one or more operating conditions of the power take off for detecting an abnormal situation and/or controlling the operation thereof in response to an abnormal situation.
A holder device for a prosthetic heart valve, comprising: one or more retaining members configured to secure a prosthetic heart valve to the holder device when the prosthetic heart valve is in a radially expanded configuration and configured to release the prosthetic heart valve from the holder device when the prosthetic heart valve is compressed with a crimping device from the radially expanded configuration to a radially compressed configuration, characterized in that the holder device comprises a first portion and a second portion, and in that the one or more retaining members extend distally from the second portion and are axially moveable relative to a distal face of the first portion along a central axis. one or more retaining members configured to secure a prosthetic heart valve to the holder device when the prosthetic heart valve is in a radially expanded configuration and configured to release the prosthetic heart valve from the holder device when the prosthetic heart valve is compressed with a crimping device from the radially expanded configuration to a radially compressed configuration, characterized in that the holder device comprises a first portion and a second portion, and in that the one or more retaining members extend distally from the second portion and are axially moveable relative to a distal face of the first portion along a central axis.
Sulfur-crosslinkable rubber mixture, in particular for the tread of pneumatic vehicle tyres, containing - 20-100 phr (parts by weight based on 100 parts by weight of the total rubbers in the mixture) of at least one functionalized styrene-butadiene copolymer A, wherein the functionalized styrene-butadiene copolymer A is at least partially functionalized at one chain end by reaction with at least one polyorganosiloxane and at least one alkylaminosilane, and wherein the functionalized styrene-butadiene copolymer A is functionalized at the other chain end with a polyisoprene group containing isoprene and styrene units, wherein the isoprene proportion in the polyisoprene group is more than 90% by weight, - up to 80 phr of at least one further diene rubber, - 5 to 150 phr of at least one resin based on isopropenylbenzene and - 40-350 phr of at least one filler. - 20-100 phr (parts by weight based on 100 parts by weight of the total rubbers in the mixture) of at least one functionalized styrene-butadiene copolymer A, wherein the functionalized styrene-butadiene copolymer A is at least partially functionalized at one chain end by reaction with at least one polyorganosiloxane and at least one alkylaminosilane, and wherein the functionalized styrene-butadiene copolymer A is functionalized at the other chain end with a polyisoprene group containing isoprene and styrene units, wherein the isoprene proportion in the polyisoprene group is more than 90% by weight, wherein the functionalized styrene-butadiene copolymer A is at least partially functionalized at one chain end by reaction with at least one polyorganosiloxane and at least one alkylaminosilane, and wherein the functionalized styrene-butadiene copolymer A is functionalized at the other chain end with a polyisoprene group containing isoprene and styrene units, wherein the isoprene proportion in the polyisoprene group is more than 90% by weight, - up to 80 phr of at least one further diene rubber, - 5 to 150 phr of at least one resin based on isopropenylbenzene and - 40-350 phr of at least one filler.
A formulation comprising: (a) a crystalline 3-(2-(5-chloro-1H-pyrrolo[2,3-b]pyridin-3-yl)-5-fluoro-7H-pyrrolo[2,3-d]pyrimidin-7-yl)bicyclo[2.2.2]octane-2-carboxylic acid (Compound 1) or a pharmaceutically acceptable salt thereof having an x-ray powder diffraction (XRPD) pattern exhibiting 2θ values of 5.6, 6.8, 8.4, 10.1, 10.6, 11.3, 15.1, 15.8, 18.0, 18.5, 19.1, 20.4, and 20.9, ± 0.2° (designated "Form B"), wherein the crystalline Compound 1 Form B or salt thereof is present as a micronized crystal form; and (b) a filler, wherein the formulation is adapted as an inhalable formulation. (a) a crystalline 3-(2-(5-chloro-1H-pyrrolo[2,3-b]pyridin-3-yl)-5-fluoro-7H-pyrrolo[2,3-d]pyrimidin-7-yl)bicyclo[2.2.2]octane-2-carboxylic acid (Compound 1) or a pharmaceutically acceptable salt thereof having an x-ray powder diffraction (XRPD) pattern exhibiting 2θ values of 5.6, 6.8, 8.4, 10.1, 10.6, 11.3, 15.1, 15.8, 18.0, 18.5, 19.1, 20.4, and 20.9, ± 0.2° (designated "Form B"), wherein the crystalline Compound 1 Form B or salt thereof is present as a micronized crystal form; and (b) a filler,
An electronic cigarette, comprising: a housing having an airflow channel formed therein; a liquid reservoir received in the housing and configured to provide liquid to an atomizing assembly; and the atomizing assembly received in the housing, wherein the atomizing assembly comprises a heating tube capable of absorbing liquid, the heating tube defines a plurality of micropores on a wall thereof and penetrating the wall, a surface of the heating tube is partially exposed to air in the airflow channel, characterized in that the heating tube is a mixed woven tube composed of flexible heating strips and heating resistant fibers, wherein the flexible heating strips are mixed with the heating resistant fibers. a housing having an airflow channel formed therein; a liquid reservoir received in the housing and configured to provide liquid to an atomizing assembly; and the atomizing assembly received in the housing, wherein the atomizing assembly comprises a heating tube capable of absorbing liquid, the heating tube defines a plurality of micropores on a wall thereof and penetrating the wall, a surface of the heating tube is partially exposed to air in the airflow channel, characterized in that the heating tube is a mixed woven tube composed of flexible heating strips and heating resistant fibers, wherein the flexible heating strips are mixed with the heating resistant fibers.
A linear ionizing bar (10', 10") for delivering charged carriers to a charge neutralization target comprising: at least one axis-defining linear wire ion emitter configured to establish an ion cloud of charge carriers along the length thereof in response to receipt of an ionizing voltage thereto, the ion cloud having a plasma region with an outer peripheral boundary; at least a reference electrode (32a, 32b) configured to present a non-ionizing electric field within the ion cloud in response to receipt of a non-ionizing voltage, the non-ionizing electric field urging charge carriers to leave the plasma region; a gas flow manifold (24, 24') configured to receive gas from a source and that has a plurality of manifold apertures with a plurality of inserts (290, 292, 293, 294, 295, 296, 298) received within the manifold apertures, at least some of the inserts (290, 292, 293, 295, 296, 298) having at least one nozzle aperture through which the gas may exit the manifold (24, 24') to thereby direct ions away from the linear ion emitter and toward the charge neutralization target characterized by at least some of the inserts are removable or rotatable such that the ionized gas flow pattern is reconfigurable. at least one axis-defining linear wire ion emitter configured to establish an ion cloud of charge carriers along the length thereof in response to receipt of an ionizing voltage thereto, the ion cloud having a plasma region with an outer peripheral boundary; at least a reference electrode (32a, 32b) configured to present a non-ionizing electric field within the ion cloud in response to receipt of a non-ionizing voltage, the non-ionizing electric field urging charge carriers to leave the plasma region; a gas flow manifold (24, 24') configured to receive gas from a source and that has a plurality of manifold apertures with a plurality of inserts (290, 292, 293, 294, 295, 296, 298) received within the manifold apertures, at least some of the inserts (290, 292, 293, 295, 296, 298) having at least one nozzle aperture through which the gas may exit the manifold (24, 24') to thereby direct ions away from the linear ion emitter and toward the charge neutralization target characterized by at least some of the inserts are removable or rotatable such that the ionized gas flow pattern is reconfigurable.
A method for manufacturing a semiconductor light source comprising a substrate, a layer sequence arranged above the substrate comprising a light-emitting layer and an upper boundary layer arranged above the light-emitting layer, a horizontal alignment mark and vertical contact areas, comprising: patterning the layer sequence in order to simultaneously form a light-emitting stripe for defining the semiconductor light source, and an alignment stripe extending in parallel thereto; applying a cover layer onto the patterned layer sequence; characterized by: simultaneously removing a first part of the cover layer in order to expose the alignment stripe as horizontal alignment mark, and second parts of the cover layer to expose, on both sides of the light-emitting stripe, regions of the layer sequence that are spaced apart from a light-entrance edge or a light-exit edge of the semiconductor light source, as vertical contact areas. patterning the layer sequence in order to simultaneously form a light-emitting stripe for defining the semiconductor light source, and an alignment stripe extending in parallel thereto; applying a cover layer onto the patterned layer sequence; characterized by: simultaneously removing a first part of the cover layer in order to expose the alignment stripe as horizontal alignment mark, and second parts of the cover layer to expose, on both sides of the light-emitting stripe, regions of the layer sequence that are spaced apart from a light-entrance edge or a light-exit edge of the semiconductor light source, as vertical contact areas.
Method for validating at least one datum (300_1, 300_2, 300_3, 300_4) entered on a terminal, comprising the following steps: - detecting at least one contact on a touch entry mean of said terminal, said at least one contact defining: said at least one datum entered on said terminal; and a contact area (300zc, 400zc, 500zc) on said touch entry mean; - detecting, after said detection of at least one contact, at least one displacement movement of another contact on said touch entry mean, said at least one displacement movement defining an erasure area (300zeb, 300zec, 300zed, 300zee, 400ze, 500ze, 600ze) on said touch entry mean, characterised in that it further comprises the following step: - validating said at least one entered datum when the said erasure area covers at least partially said contact area. comprising the following steps: - detecting at least one contact on a touch entry mean of said terminal, said at least one contact defining: said at least one datum entered on said terminal; and a contact area (300zc, 400zc, 500zc) on said touch entry mean; - detecting, after said detection of at least one contact, at least one displacement movement of another contact on said touch entry mean, said at least one displacement movement defining an erasure area (300zeb, 300zec, 300zed, 300zee, 400ze, 500ze, 600ze) on said touch entry mean, - detecting at least one contact on a touch entry mean of said terminal, said at least one contact defining: said at least one datum entered on said terminal; and a contact area (300zc, 400zc, 500zc) on said touch entry mean; said at least one datum entered on said terminal; and a contact area (300zc, 400zc, 500zc) on said touch entry mean; - detecting, after said detection of at least one contact, at least one displacement movement of another contact on said touch entry mean, said at least one displacement movement defining an erasure area (300zeb, 300zec, 300zed, 300zee, 400ze, 500ze, 600ze) on said touch entry mean, characterised in that it further comprises the following step: - validating said at least one entered datum when the said erasure area covers at least partially said contact area. - validating said at least one entered datum when the said erasure area covers at least partially said contact area.
A liquid infusion process, comprising: placing a desired amount of an infusion material into a chamber at atmospheric pressure; placing a desired amount of liquid into said chamber; sealing said chamber from the surrounding atmosphere; and applying a plurality of reduced pressure cycles within said chamber, wherein at least one cycle comprises reducing pressure within said chamber to form at least a partial vacuum within said chamber and subsequently returning said chamber to about atmospheric pressure, characterized in that each cycle of the plurality of reduced pressure cycles alternates with placement of liquid into the chamber. placing a desired amount of an infusion material into a chamber at atmospheric pressure; placing a desired amount of liquid into said chamber; sealing said chamber from the surrounding atmosphere; and applying a plurality of reduced pressure cycles within said chamber, wherein at least one cycle comprises reducing pressure within said chamber to form at least a partial vacuum within said chamber and subsequently returning said chamber to about atmospheric pressure, characterized in that each cycle of the plurality of reduced pressure cycles alternates with placement of liquid into the chamber.
An unswitched F-type connector (1800A; 1900A; 2000A) with ingress reduction shielding and without moving parts, the connector comprising: an outer connector body (1802; 1902; 2002) and a coaxially arranged center pin (1810, 1910, 2010) that extends from one end of the body to an opposed end of the body; a connector female end for engaging a male coaxial cable connector; and a waveguide (1806; 1906; 2006) located in the female connector end, the waveguide in the form of a metallic disc with a central aperture (1406; 1946; 2046); wherein the waveguide central aperture has a diameter in the range 2.0 mm to 3.0 mm and, the waveguide is configured to shield connector body internals from ingress of radio frequency signals in the range of 10 to 100 megahertz; characterized by: the waveguide aperture being insulated by a first electrical insulator (1704; 1804; 1904; 2004) inserted within the waveguide aperture, the first electrical insulator having a through hole (1708, 1844, 1944, 2044) for receiving a center conductor of a coaxial cable; and the first electrical insulator having a radial thickness that provides a nominal radial clearance between the center conductor and the insulator of at least 0.19 mm. an outer connector body (1802; 1902; 2002) and a coaxially arranged center pin (1810, 1910, 2010) that extends from one end of the body to an opposed end of the body; a connector female end for engaging a male coaxial cable connector; and a waveguide (1806; 1906; 2006) located in the female connector end, the waveguide in the form of a metallic disc with a central aperture (1406; 1946; 2046); wherein the waveguide central aperture has a diameter in the range 2.0 mm to 3.0 mm and, the waveguide is configured to shield connector body internals from ingress of radio frequency signals in the range of 10 to 100 megahertz; characterized by: the waveguide aperture being insulated by a first electrical insulator (1704; 1804; 1904; 2004) inserted within the waveguide aperture, the first electrical insulator having a through hole (1708, 1844, 1944, 2044) for receiving a center conductor of a coaxial cable; and the first electrical insulator having a radial thickness that provides a nominal radial clearance between the center conductor and the insulator of at least 0.19 mm. the waveguide aperture being insulated by a first electrical insulator (1704; 1804; 1904; 2004) inserted within the waveguide aperture, the first electrical insulator having a through hole (1708, 1844, 1944, 2044) for receiving a center conductor of a coaxial cable; and the first electrical insulator having a radial thickness that provides a nominal radial clearance between the center conductor and the insulator of at least 0.19 mm.