mhurhangee/ep-ind-claims huggingface dataset:
A tire for a two-wheeled vehicle, comprising a tread portion formed in an annular shape, wherein: a plurality of blocks (11C, 11M, 11S) are formed on the tread portion; when the tread portion is divided in the tire width direction into three portions of a tread center portion including the tire equator and a pair of tread shoulder portions including tread edges, a plurality of protrusions (21, 22) are provided on groove bottom surfaces in the tread center portion; and an aspect ratio H/D of each of the protrusions (21, 22) defined by a maximum width D of a plane at which the protrusion (21, 22) contacts the groove bottom surface and a height H of the protrusion (21, 22) relative to the groove bottom surface is 0.2 or more and 1.0 or less, wherein each of the protrusions (21, 22) has a shape of a spherical segment lacking a part of a sphere. a plurality of blocks (11C, 11M, 11S) are formed on the tread portion; when the tread portion is divided in the tire width direction into three portions of a tread center portion including the tire equator and a pair of tread shoulder portions including tread edges, a plurality of protrusions (21, 22) are provided on groove bottom surfaces in the tread center portion; and an aspect ratio H/D of each of the protrusions (21, 22) defined by a maximum width D of a plane at which the protrusion (21, 22) contacts the groove bottom surface and a height H of the protrusion (21, 22) relative to the groove bottom surface is 0.2 or more and 1.0 or less, wherein each of the protrusions (21, 22) has a shape of a spherical segment lacking a part of a sphere.
A method for synthesizing nitrogen-containing compounds, the method comprising: introducing a fuel stream comprising a reformable fuel into an anode of a molten carbonate fuel cell, an internal reforming element associated with the anode, or a combination thereof; introducing a cathode inlet stream comprising CO2 and 02 into a cathode of the fuel cell; generating electricity within the molten carbonate fuel cell; generating an anode exhaust comprising H2 and CO2; separating CO2 from at least a portion of the anode exhaust to produce a CO2-rich stream having a CO2 content greater than a CO2 content of the anode exhaust and a CO2-depleted gas stream having an H2 content greater than an H2 content of the anode exhaust; and using at least a portion of the CO2-depleted gas stream in an ammonia synthesis process and/or using at least a portion of the CO2-rich stream in a second synthesis process for forming an organic nitrogen-containing compound, in particular urea, wherein the CO2 utilization in the cathode of the full cell is at least 60%.
A water-proofing anti-sticking ink for sterilization monitoring indicator tapes, characterized by comprising a mesoporous nanomaterial, an oil-based binder, an oil-based diluent and a defoamer, wherein the solid content of the mesoporous nanomaterial accounts for 10-20% by mass, the oil-based binder accounts for 20-40% by mass, the oil-based diluent accounts for 50-60% by mass, and the defoamer accounts for 1-5% by mass.
A binocular having two tubes (2, 3) which for focusing comprise axially displaceable focusing means, and having a joint focusing device, wherein the focusing device comprises a housing and a rotary knob, and the rotary knob is axially displaceable on the housing, wherein the rotary knob is rotatably coupled to a focusing gear in a focusing position and the rotary knob is rotatably coupled to a diopter gear in a diopter balancing position, wherein the rotary knob comprises a locking mechanism for holding the rotary knob in the focusing position, characterized in that in order to produce a coupling of the rotary knob to the diopter gear, a switching hub is formed which is adjustable in the axial direction on a spline shaft of the rotary knob and is rotationally coupled to the spline shaft, - wherein the locking mechanism comprises a holding element and, in a locked position, the switching hub is positively fixed relative to the spline shaft by the holding element and thus axial displacement of the switching hub on the spline shaft is prevented, - and wherein the rotary knob is formed with an operating element and the locking mechanism can be activated and deactivated by the operating element. - wherein the locking mechanism comprises a holding element and, in a locked position, the switching hub is positively fixed relative to the spline shaft by the holding element and thus axial displacement of the switching hub on the spline shaft is prevented, - and wherein the rotary knob is formed with an operating element and the locking mechanism can be activated and deactivated by the operating element.
A tubular linear switched reluctance machine comprising: a translator having a non-magnetic material body and ring segments of magnetic material axially separated from each other and provided on the body, which ring segments are distributed along the axial direction (z) of the body, and a stator arranged to electromagnetically interact with the translator, characterised in that the stator has a plurality of coaxially arranged annular modules, and a respective annular non-magnetic spacer arranged between each pair of subsequently arranged modules. wherein each module has a stator pole pitch width (τ stator) in the axial direction (z) and the axial distance between the midpoints of any pair of adjacent ring segments defines a translator pole pitch width (τ translator), wherein the stator pole pitch width (τ stator) differs from the translator pole pitch width (τ translator), wherein each module has two teeth axially separated by a circumferential channel, wherein the stator pole pitch width (τ stator) is defined by the axial distance between the midpoints of each pair of adjacent teeth of a module, and wherein the stator pole pitch width (τ stator) is smaller than the translator pole pitch width (τ translator). a translator having a non-magnetic material body and ring segments of magnetic material axially separated from each other and provided on the body, which ring segments are distributed along the axial direction (z) of the body, and a stator arranged to electromagnetically interact with the translator, characterised in that the stator has a plurality of coaxially arranged annular modules, and a respective annular non-magnetic spacer arranged between each pair of subsequently arranged modules. wherein each module has a stator pole pitch width (τ stator) in the axial direction (z) and the axial distance between the midpoints of any pair of adjacent ring segments defines a translator pole pitch width (τ translator), wherein the stator pole pitch width (τ stator) differs from the translator pole pitch width (τ translator), wherein each module has two teeth axially separated by a circumferential channel, wherein the stator pole pitch width (τ stator) is defined by the axial distance between the midpoints of each pair of adjacent teeth of a module, and wherein the stator pole pitch width (τ stator) is smaller than the translator pole pitch width (τ translator).
A camera arrangement for a motor vehicle for surveillance of at least a part of a surrounding of the motor vehicle, the camera arrangement comprising one camera (09, 15) and one door handle, the camera (09, 15) capturing real time images of an area under surveillance, with the camera (09, 15) being arranged in said door handle, characterized in that the door handle is arranged in at least one door of the motor vehicle on the driver or passenger side for surveillance of at least a part of a surrounding located laterally next to the motor vehicle with respect to the driving direction of the moor vehicle and comprising one lighting unit for at least temporary illuminating at least a part of the surrounding surveyed by the camera (09, 15),with the lighting unit also being arranged in the door handle that accommodates the camera such that a light exit face of the lighting unit encircles the camera (09, 15).
A dental implant system, comprising: a porous metal body sized and shaped for implantation into at least one of a mandible and a maxilla, the porous metal body having an insert bore (12, 12') extending from a superior surface of the porous metal body to an inferior surface of the porous metal body, wherein the porous metal body is a highly porous biomaterial with a porosity of between 55 percent and 90 percent; characterised in that the inferior surface of the porous metal body includes a counterbore (14, 14') positioned at an inferior end of the insert bore (12, 12'); the dental implant system further comprising a solid metal insert (20, 20') having a shaft (22, 22'), a shoulder (24, 24'), and a threaded bore (26, 26') sized to threadably attach to a dental implant (50, 50'), the shaft (22, 22') configured to be received within the insert bore (12, 12') formed in the porous metal body and the shoulder (24, 24') configured to be received within the counterbore (14, 14') formed in the porous metal body; and a dental implant (50, 50') having a threaded implant portion (54, 54') configured to be received within and threadably engage the threaded bore (26, 26') of the solid metal insert. a porous metal body sized and shaped for implantation into at least one of a mandible and a maxilla, the porous metal body having an insert bore (12, 12') extending from a superior surface of the porous metal body to an inferior surface of the porous metal body, wherein the porous metal body is a highly porous biomaterial with a porosity of between 55 percent and 90 percent; characterised in that the inferior surface of the porous metal body includes a counterbore (14, 14') positioned at an inferior end of the insert bore (12, 12'); the dental implant system further comprising a solid metal insert (20, 20') having a shaft (22, 22'), a shoulder (24, 24'), and a threaded bore (26, 26') sized to threadably attach to a dental implant (50, 50'), the shaft (22, 22') configured to be received within the insert bore (12, 12') formed in the porous metal body and the shoulder (24, 24') configured to be received within the counterbore (14, 14') formed in the porous metal body; and a dental implant (50, 50') having a threaded implant portion (54, 54') configured to be received within and threadably engage the threaded bore (26, 26') of the solid metal insert.
Cooling device for a room with an outer wall in which a window is arranged, including - a heat-insulating window covering configured to be mounted on the outer wall and to close a window opening airtight; - at least one cooling element (36; 52) which is arranged in the sealed window opening and which is configured to cool air from the room by circulating indoor air. - a heat-insulating window covering configured to be mounted on the outer wall and to close a window opening airtight; - at least one cooling element (36; 52) which is arranged in the sealed window opening and which is configured to cool air from the room by circulating indoor air.
A detecting arrangement for a teat cleaning device including a teat cleaning cup (17; 17'), in which teats of milking animals are contained during cleaning thereof, characterized in that said detecting arrangement comprises: - a measuring device (19; 41, 42) provided for automatically measuring a teat related parameter in or adjacent to said teat cleaning cup during or before removal of the teat cleaning cup from the teat at completion of a teat cleaning process; and - a processing device operatively connected to the measuring device and provided for automatically comparing the measured teat related parameter with a reference value and for automatically determining whether the teat of the milking animal has been contained in the teat cleaning cup unfolded during the teat cleaning process based on said comparison. - a measuring device (19; 41, 42) provided for automatically measuring a teat related parameter in or adjacent to said teat cleaning cup during or before removal of the teat cleaning cup from the teat at completion of a teat cleaning process; and - a processing device operatively connected to the measuring device and provided for automatically comparing the measured teat related parameter with a reference value and for automatically determining whether the teat of the milking animal has been contained in the teat cleaning cup unfolded during the teat cleaning process based on said comparison.
A base station (e2NB) for a radiocommunications network comprising an assembly of base stations and of first user terminals, said base station comprising: - a radio interface module adapted for emitting and receiving radiofrequency data; and - a control block (eNB 1) adapted for establishing a communication link and communicating over said link with at least one first user terminal according to a radio protocol comprising a radio protocol section specific to the base stations and a radio protocol section specific to the user terminals, by using said radio interface module, said base station being characterized in that it further comprises a management unit adapted for generating a plurality of second user terminals (vUEs), said second user terminals generated being virtual user terminals adapted for communicating according to said radio protocol with neighboring base stations of said base station, by using said radio interface module. - a radio interface module adapted for emitting and receiving radiofrequency data; and - a control block (eNB 1) adapted for establishing a communication link and communicating over said link with at least one first user terminal according to a radio protocol comprising a radio protocol section specific to the base stations and a radio protocol section specific to the user terminals, by using said radio interface module,
A method of operating a turbine unit (2, 22, 32) having a compressor (2a, 22a, 32a) for compression of inlet air, a combustor (2b, 22b, 32b) for combustion of a fuel with the compressed inlet air to form an exhaust gas, and a turbine (2c, 22c, 32c) for expansion of the exhaust gas, comprising recirculating at least a first portion of the exhaust gas originating from the turbine (2c, 22c, 32c) and mixing the recirculated exhaust gas with ambient air before feeding the mixture as inlet air to the compressor (2a, 22a, 32a), wherein the recirculated exhaust gas is contacted with a first cooling and absorption liquid in a first packed bed (4a, 24a, 34a), so that the temperature of the recirculated exhaust gas is lowered and contaminants are removed from the recirculated exhaust gas, characterised in that an SO 3 binding reagent is added to the exhaust gas originating from the turbine (2c, 22c, 32c) before the recirculated exhaust gas is contacted with the first cooling and absorption liquid.
A composite comprising a metal molded body and an adhesive layer, wherein the metal molded body has a porous structure section formed in a surface layer part; the adhesive layer is formed in a portion that includes the porous structure section; and an average of a maximum elevation difference in the porous structure section of the metal molded body measured according to the method described below is in a range from 30 to 200 μm, and a range of the maximum elevation difference used as a basis for calculating the average maximum elevation difference is within ±40% when the average maximum elevation difference is defined as a reference, method for measuring the average maximum elevation difference: a length range of 500 μm is randomly selected at a maximum of ten locations in a surface area region of 20 mm × 20 mm (if less than 20 mm × 20 mm, then the total surface area region) of the porous structure section of the metal molded body, the maximum elevation difference of pores of a porous structure within the length range of 500 μm at the maximum of ten locations is measured from a cross-sectional SEM image, and an average value of the maximum elevation differences is determined. the metal molded body has a porous structure section formed in a surface layer part; the adhesive layer is formed in a portion that includes the porous structure section; and an average of a maximum elevation difference in the porous structure section of the metal molded body measured according to the method described below is in a range from 30 to 200 μm, and a range of the maximum elevation difference used as a basis for calculating the average maximum elevation difference is within ±40% when the average maximum elevation difference is defined as a reference, method for measuring the average maximum elevation difference: a length range of 500 μm is randomly selected at a maximum of ten locations in a surface area region of 20 mm × 20 mm (if less than 20 mm × 20 mm, then the total surface area region) of the porous structure section of the metal molded body, the maximum elevation difference of pores of a porous structure within the length range of 500 μm at the maximum of ten locations is measured from a cross-sectional SEM image, and an average value of the maximum elevation differences is determined.
A strip assembly having: a profiled plastic strip including a latching recess for receiving a mounting rib of an air inlet panel, and further having a single-piece protective plastic strip which is mechanically releasably latchable in the latching recess, characterized in that a first and a second strip section (100a, 100b) are provided, and the profiled plastic strip is configured such that it extends only within the first strip section in one piece and continuously from the beginning to the end of first strip section, and that the protective plastic strip is configured such that it extends within both strip sections (100a, 100b) in one piece and continuously from the beginning of first strip section to the end of second strip section and is latched in the latching recess at least in some sections along the profiled plastic strip. a profiled plastic strip including a latching recess for receiving a mounting rib of an air inlet panel, and further having a single-piece protective plastic strip which is mechanically releasably latchable in the latching recess, characterized in that a first and a second strip section (100a, 100b) are provided, and the profiled plastic strip is configured such that it extends only within the first strip section in one piece and continuously from the beginning to the end of first strip section, and that the protective plastic strip is configured such that it extends within both strip sections (100a, 100b) in one piece and continuously from the beginning of first strip section to the end of second strip section and is latched in the latching recess at least in some sections along the profiled plastic strip.
A magnetic flux pad for generating magnetic flux to charge an electric vehicle, the pad comprising: at least three coils (2, 3, 3a) positioned such that the windings thereof are in substantially the same plane; a magnetically permeable material, wherein the at least three coils (2, 3, 3a) are magnetically associated with the permeable material; and a power supply operable to selectively conduct with two or more of the coils (2, 3, 3a) such that a magnetic field is produced by at least one of a plurality of pairs of the at least three coils (2, 3, 3a); wherein the power supply is operable in a plurality of modes comprising: single-phase modes, wherein two or more of the coils (2, 3, 3a) are energised in phase with each other; two-phase modes, wherein one or more of the coils (2, 3, 3a) are simultaneously energised out of phase with one or more other coils; and a multiphase mode, wherein three or more of the coils (2, 3, 3a) are simultaneously energised out of phase with each other. at least three coils (2, 3, 3a) positioned such that the windings thereof are in substantially the same plane; a magnetically permeable material, wherein the at least three coils (2, 3, 3a) are magnetically associated with the permeable material; and a power supply operable to selectively conduct with two or more of the coils (2, 3, 3a) such that a magnetic field is produced by at least one of a plurality of pairs of the at least three coils (2, 3, 3a); wherein the power supply is operable in a plurality of modes comprising: single-phase modes, wherein two or more of the coils (2, 3, 3a) are energised in phase with each other; two-phase modes, wherein one or more of the coils (2, 3, 3a) are simultaneously energised out of phase with one or more other coils; and a multiphase mode, wherein three or more of the coils (2, 3, 3a) are simultaneously energised out of phase with each other. single-phase modes, wherein two or more of the coils (2, 3, 3a) are energised in phase with each other; two-phase modes, wherein one or more of the coils (2, 3, 3a) are simultaneously energised out of phase with one or more other coils; and a multiphase mode, wherein three or more of the coils (2, 3, 3a) are simultaneously energised out of phase with each other.
An aqueous polymer-silicon oil hybrid composition in the form of an aqueous dispersion of finely divided polymer-silicon oil hybrid particles which comprise at least one water-insoluble polymer P made of ethylenically unsaturated monomers M, at least one surface-active substance and at least one non-polymerizable, non-polar silicon oil having at least one poly(dimethylsilyloxy)-group, where the silicon-oil is present in the polymer particles in an amount of 0.15 to 2 parts by weight, per 1 part by weight of polymer P, where the monomers M comprise at least 90 % by weight of at least one monoethylenically unsaturated monomer M1 having a water-solubility of at most 50 g/L at 20°C, wherein the at least one non-polymerizable, non-polar silicon oil is not chemically modified with polar groups and does not have a C=C double bond, and wherein the polymer P is obtainable by polymerizing an aqueous oil-in water emulsion by radical emulsion polymerization in the presence of at least one surface active agent, which is a surfactant, wherein the oil phase of the emulsion is a solution of the non-polymerizable, non-polar silicon oil having at least one poly(dimethylsilyloxy)-group in the ethylenically unsaturated monomers M forming the polymer P.
A method comprising: creating a light emitting device having a surface, which light emitting device is structured to emit light through a defined light emitting surface, wherein the defined light emitting surface is a portion of the surface of the device that is able to emit the light generated within the device, and wherein the defined light emitting surface does not include portions of the surface of the device that are unable to emit the light, in particular those portions of the surface of the device that are covered by a contact or another structure, identifying one or more select areas in the defined light emitting surface, and altering the defined light emitting surface to create a pattern of roughened surface areas corresponding to the select areas and unroughened surface areas. creating a light emitting device having a surface, which light emitting device is structured to emit light through a defined light emitting surface, wherein the defined light emitting surface is a portion of the surface of the device that is able to emit the light generated within the device, and wherein the defined light emitting surface does not include portions of the surface of the device that are unable to emit the light, in particular those portions of the surface of the device that are covered by a contact or another structure, identifying one or more select areas in the defined light emitting surface, and altering the defined light emitting surface to create a pattern of roughened surface areas corresponding to the select areas and unroughened surface areas.