mhurhangee/ep-ind-claims huggingface dataset:
Suction lifting device for emptying a tank, having an emptying line which has an intake opening and an outlet opening, wherein - a ventilation opening, by means of which a gas or gas mixture can be fed to the emptying line, is arranged in a section of the emptying line positioned between the intake opening and the outlet opening, and - a closure device is provided, by means of which said feeding of the gas or the gas mixture can be prevented, a pressure sink is provided which is designed as a suction pipe of a Venturi nozzle, by means of which pressure sink a gas or a gas mixture can be extracted from the emptying line, characterized in that a pressure source is provided, by means of which the gas or gas mixture which can be fed to the emptying line can be fed as a compressed gas or gas mixture, wherein - a diverting device is provided, by means of which the compressed gas or gas mixture can be diverted to the suction pipe of the Venturi nozzle, and - the compressed gas or gas mixture can be fed to the emptying line by means of the suction pipe. - a ventilation opening, by means of which a gas or gas mixture can be fed to the emptying line, is arranged in a section of the emptying line positioned between the intake opening and the outlet opening, and - a closure device is provided, by means of which said feeding of the gas or the gas mixture can be prevented, a pressure sink is provided which is designed as a suction pipe of a Venturi nozzle, by means of which pressure sink a gas or a gas mixture can be extracted from the emptying line, characterized in that a pressure source is provided, by means of which the gas or gas mixture which can be fed to the emptying line can be fed as a compressed gas or gas mixture, wherein a pressure sink is provided which is designed as a suction pipe of a Venturi nozzle, by means of which pressure sink a gas or a gas mixture can be extracted from the emptying line, characterized in that a pressure source is provided, by means of which the gas or gas mixture which can be fed to the emptying line can be fed as a compressed gas or gas mixture, wherein - a diverting device is provided, by means of which the compressed gas or gas mixture can be diverted to the suction pipe of the Venturi nozzle, and - the compressed gas or gas mixture can be fed to the emptying line by means of the suction pipe.
A method of producing (+)-manool comprising: a. contacting geranylgeranyl diphosphate with an copalyl diphosphate synthase to form a (9S, 10S)-copalyl diphosphate wherein the CPP synthase comprises an amino acid sequence having at least 90%, 95%, 98%, 99% or 100% sequence identity to SEQ ID NO: 1 or SEQ ID NO: 2; and b. contacting the CPP with a sclareol synthase enzyme to form (+)-manool; and c. optionally isolating the (+)-manool. a. contacting geranylgeranyl diphosphate with an copalyl diphosphate synthase to form a (9S, 10S)-copalyl diphosphate wherein the CPP synthase comprises an amino acid sequence having at least 90%, 95%, 98%, 99% or 100% sequence identity to SEQ ID NO: 1 or SEQ ID NO: 2; and b. contacting the CPP with a sclareol synthase enzyme to form (+)-manool; and c. optionally isolating the (+)-manool.
A vapor processing system comprising: a vapor source for producing a vapor; an outlet conduit connected to the vapor source for carrying the vapor from the vapor source, wherein downstream of the vapor source the outlet conduit separates into a vapor bypass conduit and a vapor feed conduit; a first vapor control valve disposed in the bypass conduit; a first vacuum chamber connected to the bypass conduit, and disposed downstream of the first vapor control valve; a second vacuum chamber connected to the feed conduit; and a controller operatively coupled to the first vapor control valve and configured to modulate the flow of vapor to the first vacuum chamber so as to control the pressure and flow rate of vapor passing through the vapor feed conduit upon detection of variation in vapor flow conditions. a vapor source for producing a vapor; an outlet conduit connected to the vapor source for carrying the vapor from the vapor source, wherein downstream of the vapor source the outlet conduit separates into a vapor bypass conduit and a vapor feed conduit; a first vapor control valve disposed in the bypass conduit; a first vacuum chamber connected to the bypass conduit, and disposed downstream of the first vapor control valve; a second vacuum chamber connected to the feed conduit; and a controller operatively coupled to the first vapor control valve and configured to modulate the flow of vapor to the first vacuum chamber so as to control the pressure and flow rate of vapor passing through the vapor feed conduit upon detection of variation in vapor flow conditions.
An apparatus for monitoring one or more target objects in an environment external to a host vehicle by means of a radar sensor comprising a radar transmitter and a radar receiver; the apparatus being arranged to trigger at least one action responsive to detection of prescribed relative movement between the host vehicle and the one or more target objects; wherein the apparatus is arranged to determine a lateral offset value being a distance of the or each target object from an extended axis of the host vehicle and to over-ride triggering of the at least one action, such that triggering of the at least one action is not performed, in dependence on the lateral offset value; and wherein the apparatus is arranged to determine the lateral offset value of the or each target object in dependence on an output of the radar sensor.
Bath with two side walls (2, 3) extending in the longitudinal direction of the bath and with at least one, in particular U-shaped, access opening arranged in the area of one side wall of the bath and with a door closing off this side wall in the usage position, wherein for opening, the door can be pivoted into the bath through a pivot angle about a pivot mounting located next to the access opening on the bath and a seal is provided between the door and the bath body, characterized in that the pivot angle of the door is at least a right angle, that the door width is less than the width of the bath and an upper door limiting member is longer than the internal width of the bath and that the area or recess of the opposite edge of the bath which is overlapped by the free end of the door limiting member when the door is open contacts and/or supports the underside of that part of the door limiting member which overlaps it.
Method of reconstructing the volume of an object from a sequence of section images of said object, said sections corresponding to different positions and/or orientations of an acquisition plane relative to the object, said positions and/or orientations being subject to uncertainties, the method comprising: a) selecting a finite base of functions on which the volume for reconstruction can be decomposed; b) selecting a first quantification function for quantizing the difference between the real position and/or orientation of each section relative to said object and its nominal position and/or orientation; c) selecting a second quantification function for quantizing the spatial coherence of the reconstructed volume; d) selecting a third quantification function for quantizing the difference between the section images of the object and the corresponding sections of the reconstructed volume; e) selecting an overall cost function, of value that depends on the values of said first, second, and third quantizing functions; and f) jointly estimating the real positions and/or orientations of the section, together with the coefficient for decomposing the image of the object on said function base, by minimizing said overall cost function. a) selecting a finite base of functions on which the volume for reconstruction can be decomposed; b) selecting a first quantification function for quantizing the difference between the real position and/or orientation of each section relative to said object and its nominal position and/or orientation; c) selecting a second quantification function for quantizing the spatial coherence of the reconstructed volume; d) selecting a third quantification function for quantizing the difference between the section images of the object and the corresponding sections of the reconstructed volume; e) selecting an overall cost function, of value that depends on the values of said first, second, and third quantizing functions; and f) jointly estimating the real positions and/or orientations of the section, together with the coefficient for decomposing the image of the object on said function base, by minimizing said overall cost function.
A method for identifying a subscriber station by a base station in a wireless network, the method comprising: when a new connection for a subscriber station is being established, determining whether a station identifier, STID, of the subscriber station is shared amongst multiple subscriber stations; during connection establishment, assigning different bandwidth request, BR, indexes to the multiple subscriber stations if the multiple subscriber stations share the STID, the multiple subscriber stations sharing the STID being identified by the assigned different BR indexes respectively; determining (604, 804) whether the STID received in a quick access message is assigned to multiple subscriber stations; and identifying (608, 808) the subscriber station based on STID validity information and the STID received in the quick access message if the received STID is assigned to multiple subscriber stations, wherein the quick access message comprises the STID validity information indicating a time interval in which the STID in the quick access message is valid. when a new connection for a subscriber station is being established, determining whether a station identifier, STID, of the subscriber station is shared amongst multiple subscriber stations; during connection establishment, assigning different bandwidth request, BR, indexes to the multiple subscriber stations if the multiple subscriber stations share the STID, the multiple subscriber stations sharing the STID being identified by the assigned different BR indexes respectively; determining (604, 804) whether the STID received in a quick access message is assigned to multiple subscriber stations; and identifying (608, 808) the subscriber station based on STID validity information and the STID received in the quick access message if the received STID is assigned to multiple subscriber stations, wherein the quick access message comprises the STID validity information indicating a time interval in which the STID in the quick access message is valid.
Rolled steel sheet having a density of 7.3 or lower and composition, with contents expressed by weight, comprising: 0.10 ≤ C ≤ 0.30 % and optionally one or more elements selected from among: Si ≤ 2.0 % Ti ≤ 0.2 % V ≤ 0.6 % Nb ≤ 0.3 % Nb ≤ 0.3 % the remainder of the composition being composed of iron and inevitable processing impurities, provided that Mn Al > 1.0, the microstructure of the sheet being formed of ferrite, austenite and up to 5 % surface density of Kappa precipitates.
A radiographic imaging method, comprising the steps of: irradiating radiation from a predetermined first imaging direction; detecting the radiation irradiated from the first imaging direction by a radiation detector having a converting layer for converting the radiation into electric charges and a plurality of pixel electrodes (102a, 102b) for collecting the converted electric charges; irradiating radiation from a second imaging direction which is different from the first imaging direction; and detecting the radiation irradiated from the second imaging direction by the radiation detector; characterized by controlling at least one of the first and the second imaging directions to form a predetermined angle with respect to a direction that is orthogonal to a detector plane of the radiation detector; wherein a thickness d of the converting layer, a size p of the pixel and the predetermined angle θ satisfy the following formula. d ⋅ tanθ < k ⋅ p k is a constant of 1 or less irradiating radiation from a predetermined first imaging direction; detecting the radiation irradiated from the first imaging direction by a radiation detector having a converting layer for converting the radiation into electric charges and a plurality of pixel electrodes (102a, 102b) for collecting the converted electric charges; irradiating radiation from a second imaging direction which is different from the first imaging direction; and detecting the radiation irradiated from the second imaging direction by the radiation detector; characterized by controlling at least one of the first and the second imaging directions to form a predetermined angle with respect to a direction that is orthogonal to a detector plane of the radiation detector; wherein a thickness d of the converting layer, a size p of the pixel and the predetermined angle θ satisfy the following formula. d ⋅ tanθ < k ⋅ p k is a constant of 1 or less
An apparatus for manufacturing the ends of electric cables, comprising a section for injection moulding on at least one of said ends, a first section comprising first means for applying electrical connection elements to said at least one end of the cable and optionally a second section comprising second means for applying further electrical connection elements to the remaining end of the cable, and a further section comprising means for testing said cable prior to its output from the apparatus, wherein the apparatus comprises retaining means for retaining in a preset position both ends of the cable in all of said manufacturing sections and means for moving said ends from the retaining means of one section to the retaining means of the next section, and said moulding section comprises a plurality of moulds and an injector for each mould, said moulds and said corresponding injectors being mounted on a platform with which they are rotatable.
A photodetecting device comprising: an integrating sphere for observing light to be measured generated according to irradiation of a sample with excitation light; a sample holder to be removably attached to the integrating sphere; and a cell held by the sample holder, wherein the integrating sphere has an excitation light introducing hole being configured to introduce the excitation light and a sample introducing hole being configured to introduce a cell held by the sample holder; the cell is made from glass and is configured to accommodate a solution sample as the sample, and consists of a prismatic part including an entrance surface through which the excitation light enters the cell, and a branch tube connected to the prismatic part, the sample holder is locked to the sample introducing hole and comprises positioning means for disposing the cell, so that the entrance surface of the cell through which the excitation light enters the cell, is inclined relative to a surface perpendicular to the optical axis of the excitation light, characterised by the sample holder having a first part which includes a first holding part having a first recessed portion with a semi-circular sectional shape, and a second part which includes a second holding part having a second recessed portion with a semi-circular sectional shape; wherein when the first part and the second part are fitted to each other, a cylindrical hole is formed by the juxtaposition of the first and second recessed portions (624, 644), the cylindrical hole receiving, in use the branch tube of the cell; the first and second recessed portions (624, 644) of the respective first and second holding parts (621, 641) each further comprising a buffering member for gripping the branch tube in order to suppress the cell from being damaged and to suppress sliding of the cell and being formed at a portion of the same first and second recessed portions (624, 644) which comes into contact with the branch tube of the cell when that branch tube is sandwiched between the first and second recessed portions (624, 644) that form the cylindrical hole. the sample holder further comprising
A fiber optic connector, comprising: a body including two opposing sidewalls; a first fiber ferrule that extends in a length direction of the body from a module-side end of the body; and a second fiber ferrule that extends in the length direction of the body from the module-side end of the body, the second fiber ferrule spaced apart from the first fiber ferrule in a width direction of the body; wherein a maximum width in the width direction of a portion of the body configured to be received in a port of an optoelectronic communication module is less than half a width of a fiber-side end of the optoelectronic communication module; wherein the body comprises two raised keys included in the two opposing sidewalls, each of the two raised keys running a length of a corresponding one of the two opposing sidewalls adjacent to a corresponding one of the first fiber ferrule and the second fiber ferrule, the two raised keys extending opposite each other from the two opposing sidewalls, the two raised keys forming sidewall extensions to accommodate two coil springs disposed within the body, wherein a first coil spring of the two coil springs is coaxial with the first fiber ferrule and a second coil spring of the two coil springs is coaxial with the second fiber ferrule; and characterized in that the maximum width of the portion of the body is a distance between outer surfaces of the two raised keys. a body including two opposing sidewalls; a first fiber ferrule that extends in a length direction of the body from a module-side end of the body; and a second fiber ferrule that extends in the length direction of the body from the module-side end of the body, the second fiber ferrule spaced apart from the first fiber ferrule in a width direction of the body; wherein a maximum width in the width direction of a portion of the body configured to be received in a port of an optoelectronic communication module is less than half a width of a fiber-side end of the optoelectronic communication module; wherein the body comprises two raised keys included in the two opposing sidewalls, each of the two raised keys running a length of a corresponding one of the two opposing sidewalls adjacent to a corresponding one of the first fiber ferrule and the second fiber ferrule, the two raised keys extending opposite each other from the two opposing sidewalls, the two raised keys forming sidewall extensions to accommodate two coil springs disposed within the body, wherein a first coil spring of the two coil springs is coaxial with the first fiber ferrule and a second coil spring of the two coil springs is coaxial with the second fiber ferrule; and characterized in that the maximum width of the portion of the body is a distance between outer surfaces of the two raised keys.
A system for managing on-board diagnostics associated with an exhaust line for exhaust gases issued from an internal combustion engine, the exhaust line including - an oxidation catalyst DOC including an adsorbent material of nitrogen oxides; - a selective catalytic reduction element SCR downstream of the oxidation catalyst according to the direction of flow of the exhaust gases in the exhaust line; this system being characterized in that it includes - a first module configured to ∘ correlate at least one temperature value measured at a point of the exhaust line with at least one model or a table of prerecorded measurements; ∘ estimate, by comparison with at least one model or table of corresponding measurements, whether the measured temperature value is situated in a pre-identified temperature interval, this interval corresponding to a temperature interval of desorption of the adsorbent material of nitrogen oxides; - a second module configured to deactivate one or more on-board diagnostics, when the temperature value determined at a point of the exhaust line is estimated to be in the pre-identified temperature interval. - an oxidation catalyst DOC including an adsorbent material of nitrogen oxides; - a selective catalytic reduction element SCR downstream of the oxidation catalyst according to the direction of flow of the exhaust gases in the exhaust line; - a first module configured to ∘ correlate at least one temperature value measured at a point of the exhaust line with at least one model or a table of prerecorded measurements; ∘ estimate, by comparison with at least one model or table of corresponding measurements, whether the measured temperature value is situated in a pre-identified temperature interval, this interval corresponding to a temperature interval of desorption of the adsorbent material of nitrogen oxides; ∘ correlate at least one temperature value measured at a point of the exhaust line with at least one model or a table of prerecorded measurements; ∘ estimate, by comparison with at least one model or table of corresponding measurements, whether the measured temperature value is situated in a pre-identified temperature interval, this interval corresponding to a temperature interval of desorption of the adsorbent material of nitrogen oxides; - a second module configured to deactivate one or more on-board diagnostics, when the temperature value determined at a point of the exhaust line is estimated to be in the pre-identified temperature interval.
Stage light fixture comprising: a plurality of light sources configured to emit respective light beams along respective optical axes (O1, O2, O3,... On); a plurality of lenses, each of which is configured to modify the direction of the rays of the light beam of a respective light source; each lens being provided with an inlet face, which faces towards the respective light source, and with an emission face, opposite to the inlet face and characterized by its own emission area (A1, A2, A3) capable of emitting light rays; the lenses being shaped and arranged one next to the other so as to define a total emission area of the light beams having an emission outline; the plurality of lenses comprise at least two lenses having respective emission faces having different shape one from the other; the light fixture being characterized in that the plurality of lenses comprises at least a first assembly of lenses arranged one next to the other along a first path and a second assembly of lenses arranged one next to the other along a second path; wherein the first path is circular and the second path is circular, concentric to the first path and arranged inside the first path; at least one lens of the first assembly having an emission face having a shape different from the emission face of at least one lens of the second assembly; wherein the lenses of the plurality of lenses have a polygonal-shaped emission face. a plurality of light sources configured to emit respective light beams along respective optical axes (O1, O2, O3,... On); a plurality of lenses, each of which is configured to modify the direction of the rays of the light beam of a respective light source; each lens being provided with an inlet face, which faces towards the respective light source, and with an emission face, opposite to the inlet face and characterized by its own emission area (A1, A2, A3) capable of emitting light rays; the lenses being shaped and arranged one next to the other so as to define a total emission area of the light beams having an emission outline; the plurality of lenses comprise at least two lenses having respective emission faces having different shape one from the other; the light fixture being characterized in that the plurality of lenses comprises at least a first assembly of lenses arranged one next to the other along a first path and a second assembly of lenses arranged one next to the other along a second path; wherein the first path is circular and the second path is circular, concentric to the first path and arranged inside the first path; at least one lens of the first assembly having an emission face having a shape different from the emission face of at least one lens of the second assembly; wherein the lenses of the plurality of lenses have a polygonal-shaped emission face.