mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing radioactive waste stored in a container by means of pyrolysis to be carried out in a reaction chamber , comprising the method steps of: - separating the container into at least two container parts , - introducing the container parts into the reaction chamber, in which a steamcontaining atmosphere is set to a temperature T where T ≥ 200°C, wherein a container part is positioned on a receptacle comprising perforations by its separation surface and is introduced into the reaction chamber , - carrying out the pyrolysis, - removing gases (exhaust gas) from the reaction chamber, - removing the receptacle from the reaction chamber, wherein, in addition, at least one method step from the following group is carried out: - introducing oxygen and/or CO 2 into the reaction chamber during the pyrolysis in an under-stoichiometric or maximum stoichiometric quantity, - adjusting steam or CO 2 to be introduced into the reaction chamber on the basis of oxidizable substance in the exhaust gas, - adjusting oxygen and/or CO 2 to be introduced into the reaction chamber on the basis of oxidizable substance in the exhaust gas, - stopping the pyrolysis on the basis of oxidizable substance present in the exhaust gas, - introducing steam and/or oxygen and/or CO 2 into the radioactive waste or in the region thereof in a targeted manner, - conducting steam and/or oxygen and/or CO 2 within the reaction chamber in a targeted manner. - separating the container into at least two container parts , - introducing the container parts into the reaction chamber, in which a steamcontaining atmosphere is set to a temperature T where T ≥ 200°C, wherein a container part is positioned on a receptacle comprising perforations by its separation surface and is introduced into the reaction chamber , - carrying out the pyrolysis, - removing gases (exhaust gas) from the reaction chamber, - removing the receptacle from the reaction chamber, - introducing oxygen and/or CO 2 into the reaction chamber during the pyrolysis in an under-stoichiometric or maximum stoichiometric quantity, - adjusting steam or CO 2 to be introduced into the reaction chamber on the basis of oxidizable substance in the exhaust gas, - adjusting oxygen and/or CO 2 to be introduced into the reaction chamber on the basis of oxidizable substance in the exhaust gas, - stopping the pyrolysis on the basis of oxidizable substance present in the exhaust gas, - introducing steam and/or oxygen and/or CO 2 into the radioactive waste or in the region thereof in a targeted manner, - conducting steam and/or oxygen and/or CO 2 within the reaction chamber in a targeted manner.
A lubricating oil composition comprising: greater than 50 wt.% of a base oil of lubricating viscosity, based on a total weight of the lubricating oil composition; one or more overbased calcium sulfonate detergents having a total base number of greater than 225 mg KOH/g, measured by the method of ASTM D-2896; one or more overbased calcium phenate detergents having a total base number of greater than 170 mg KOH/g, measured by the method of ASTM D-2896; and one or more overbased magnesium-containing detergents; and wherein a ratio of the amount of calcium in ppm by weight, based on the total weight of the lubricating oil composition to a total base number of the lubricating oil composition measured by the method of ASTM D-2896, is 50 to 165; a ratio of magnesium in ppm by weight, based on a total weight of the lubricating oil composition, to total soap content in wt.%, based on a total weight of the lubricating oil composition, is in the range of greater than 700 to 2500; an amount of boron in the lubricating oil composition is up to 75 ppm by weight, based on the total weight of the lubricating oil composition; and an amount of molybdenum in the lubricating oil composition is from 10 to 150 ppm by weight, based on the total weight of the lubricating oil composition. greater than 50 wt.% of a base oil of lubricating viscosity, based on a total weight of the lubricating oil composition; one or more overbased calcium sulfonate detergents having a total base number of greater than 225 mg KOH/g, measured by the method of ASTM D-2896; one or more overbased calcium phenate detergents having a total base number of greater than 170 mg KOH/g, measured by the method of ASTM D-2896; and one or more overbased magnesium-containing detergents; and wherein a ratio of the amount of calcium in ppm by weight, based on the total weight of the lubricating oil composition to a total base number of the lubricating oil composition measured by the method of ASTM D-2896, is 50 to 165; a ratio of magnesium in ppm by weight, based on a total weight of the lubricating oil composition, to total soap content in wt.%, based on a total weight of the lubricating oil composition, is in the range of greater than 700 to 2500; an amount of boron in the lubricating oil composition is up to 75 ppm by weight, based on the total weight of the lubricating oil composition; and an amount of molybdenum in the lubricating oil composition is from 10 to 150 ppm by weight, based on the total weight of the lubricating oil composition.
A test method for checking the anti-pinching function of a motorized window lifter device of a motor vehicle, the method comprising the following steps: - controlling said motorized window lifter device to move a glass along a movement direction (A) towards a closed position, in which said glass completely closes a window of said motor vehicle, said window lifter device being adapted to automatically reverse the translation direction when the movement of said glass is hindered before it reaches said closed position; - hindering the translation of said glass towards said closed position by means of a test obstacle ; and - measuring by means of a sensor device an impact force exerted on said test obstacle at the moment of the reversing of the translation direction; wherein said sensor device is fastened to said glass and said test obstacle comprises an abutment element , which is arranged in a fixed position and is aligned with respect to said sensor device along an impact direction (D) parallel to said direction of movement (A) such to be impacted by said sensor device during the translation of said glass towards said closed position; characterized in that said sensor device is arranged completely out of the path followed by said glass in said window . - controlling said motorized window lifter device to move a glass along a movement direction (A) towards a closed position, in which said glass completely closes a window of said motor vehicle, said window lifter device being adapted to automatically reverse the translation direction when the movement of said glass is hindered before it reaches said closed position; - hindering the translation of said glass towards said closed position by means of a test obstacle ; and - measuring by means of a sensor device an impact force exerted on said test obstacle at the moment of the reversing of the translation direction; wherein said sensor device is fastened to said glass and said test obstacle comprises an abutment element , which is arranged in a fixed position and is aligned with respect to said sensor device along an impact direction (D) parallel to said direction of movement (A) such to be impacted by said sensor device during the translation of said glass towards said closed position;
A method for printing a plurality of print jobs on a flat bed printer , wherein each print job specifies an image receiving area with a given shape and given dimensions where an image is to be printed on a recording medium , and wherein each of the print jobs comprises a number of sub-jobs specifying image layers to be printed on top of each other in a predetermined print order, with print settings being individually assigned to each sub-job , characterized by the steps of: a) grouping the sub-jobs by their print settings; b) labeling the sub-jobs preliminarily with scan numbers which preserve the print order in each print job in the sense that the scan number of a sub-job is larger than the scan number of the sub-job that belongs to the same print job and precedes in the print order, c) nesting the image receiving areas of the print jobs on a flat bed of the printer ; and d) printing the sub-jobs group by group, with sub-jobs of the same group and from different print jobs being printed in common steps of scanning the flat bed , the scanning steps being performed in a scan order indicated by the scan numbers . a) grouping the sub-jobs by their print settings; b) labeling the sub-jobs preliminarily with scan numbers which preserve the print order in each print job in the sense that the scan number of a sub-job is larger than the scan number of the sub-job that belongs to the same print job and precedes in the print order, c) nesting the image receiving areas of the print jobs on a flat bed of the printer ; and d) printing the sub-jobs group by group, with sub-jobs of the same group and from different print jobs being printed in common steps of scanning the flat bed , the scanning steps being performed in a scan order indicated by the scan numbers .
Commercial vehicle structure having a loading floor which can be supported on the ground via a chassis and which has at its side edges a respective boundary provided with fastening receptacles , and a respective fastening rail which is displaced at a distance from the lateral boundary inwards towards the loading floor centre longitudinal axis, wherein at least one coil trough is provided between the fastening rails in the loading floor for receiving coils , slit strips (6.1) and similar load goods and wherein at least one supporting beam extending transversely to the longitudinal centre axis of the loading floor can be fixed to the fastening rails in a positionally variable manner for supporting the load goods (6, 6.1), in which at least one receptacle is provided for the arrangement of an insertion tongue which supports the load goods (6, 6.1) at a front surface, and having at least one flexible clamping means for the load goods (6, 6.1), which can be fixed to the lateral boundaries of the loading floor , wherein the fastening rails are formed as grid rails having grid receptacles arranged at a distance from one another, in which a supporting beam provided with fastening projections (12.1) can be locked in a positionally variable manner, characterised in that an insertion tongue of the supporting beam is supported by a supporting strut which, at one end, can be locked in one of the grid rails with the insertion tongue displaced towards the front, when viewed in the driving direction of the commercial vehicle, and at the other end with a positional spacing from the supporting beam , wherein the supporting beam can be fastened in the grid rails by fixing bolts and a fixing bolt is provided with a fixing ring (12.2) for preventing the supporting beam from unscrewing from the grid rail .
A variable pitch fan assembly for an aircraft turbofan gas turbine engine, the variable pitch fan assembly comprising: a plurality of variable pitch fan blades arranged to be circumscribed about the engine centerline axis , the variable pitch fan blades coupled to a drive shaft arranged to be centered about the engine centerline axis , each of the variable pitch fan blades arranged rotatable about a pitch axis (P) perpendicular to the engine centerline axis and having a blade turning lever connected thereto, one or more linear actuators arranged to be non rotatably mounted parallel to the engine centerline axis and operably linked to the fan blades for rotating the fan blades about the respective pitch axes (P), characterized by : the actuators connected to a spider ring through thrust bearings for transmission of axial displacement of non-rotatable actuator rods of the actuators for rotating the fan blades , and thrust transmitting spider arms extending away from the spider ring towards the blade roots and each one of the spider arms connected to one of the turning levers , further comprising each of the turning levers being connected and cammed to a respective one of the spider arms by a pin and slot joint . a plurality of variable pitch fan blades arranged to be circumscribed about the engine centerline axis , the variable pitch fan blades coupled to a drive shaft arranged to be centered about the engine centerline axis , each of the variable pitch fan blades arranged rotatable about a pitch axis (P) perpendicular to the engine centerline axis and having a blade turning lever connected thereto, one or more linear actuators arranged to be non rotatably mounted parallel to the engine centerline axis and operably linked to the fan blades for rotating the fan blades about the respective pitch axes (P), characterized by : the actuators connected to a spider ring through thrust bearings for transmission of axial displacement of non-rotatable actuator rods of the actuators for rotating the fan blades , and thrust transmitting spider arms extending away from the spider ring towards the blade roots and each one of the spider arms connected to one of the turning levers , the actuators connected to a spider ring through thrust bearings for transmission of axial displacement of non-rotatable actuator rods of the actuators for rotating the fan blades , and thrust transmitting spider arms extending away from the spider ring towards the blade roots and each one of the spider arms connected to one of the turning levers , further comprising each of the turning levers being connected and cammed to a respective one of the spider arms by a pin and slot joint .
Use of a natural huntite powder as a color enhancer for pigments, with possible additional functions, in cosmetic products for make-up, wherein said cosmetic products contain one or more pigments, and from 2% to 30% by weight of powdered huntite, and wherein the color of said cosmetic products, evaluated using a Konica Minolta CR-400 portable color meter and using the CIELAB coordinates (L* a* b*), is more intense than the color of cosmetic products having the same composition without huntite.
An implant for maintaining bone diastasis after osteotomy of the tibial crest during a tibial crest advancement intervention, the intervention comprising the steps of osteotomy of the tibial crest and the subsequent cranial advancement thereof to generate a space between the tibial metaphysis and the tibial crest, the implant comprising a separating body made of a biocompatible material, the separating body being suitable for insertion into said space and extending, with reference to an engagement configuration of said implant, along a longitudinal direction (X) between an upper portion and a lower portion , said separating body comprising: a main section having a plurality of openings disposed parallel to one another, each of them extending along a passage axis (P) disposed in a direction transverse to said longitudinal direction (X), with reference to the engagement configuration of said implant, said openings being suitable for promoting osteo-integration, and at least one reinforcement plate disposed in the upper portion and/or on lateral surfaces , transversely to said longitudinal direction (X); characterised in that in a cross section perpendicular to said passage axis (P), said openings have an elongate passageway with a greater dimension (D), which is disposed along said longitudinal direction (X). a main section having a plurality of openings disposed parallel to one another, each of them extending along a passage axis (P) disposed in a direction transverse to said longitudinal direction (X), with reference to the engagement configuration of said implant, said openings being suitable for promoting osteo-integration, and at least one reinforcement plate disposed in the upper portion and/or on lateral surfaces , transversely to said longitudinal direction (X); characterised in that in a cross section perpendicular to said passage axis (P), said openings have an elongate passageway with a greater dimension (D), which is disposed along said longitudinal direction (X).
A wiring substrate comprising: a plurality of conductive layers disposed on a substrate (SUB) and comprising a wiring and a conductive pattern; and at least one insulating layer disposed between adjacent ones of the plurality of conductive layers, wherein at least one of the plurality of conductive layers comprises: a first metal layer (ML1); a second metal layer (ML2) disposed on the first metal layer (ML1); and a third metal layer (ML3) disposed on the second metal layer (ML2), the second metal layer (ML2) comprises copper (Cu), the third metal layer (ML3) comprises a copper alloy, and a grain size of the third metal layer (ML3) is smaller than a grain size of the second metal layer (ML2). a plurality of conductive layers disposed on a substrate (SUB) and comprising a wiring and a conductive pattern; and at least one insulating layer disposed between adjacent ones of the plurality of conductive layers, wherein at least one of the plurality of conductive layers comprises: a first metal layer (ML1); a second metal layer (ML2) disposed on the first metal layer (ML1); and a third metal layer (ML3) disposed on the second metal layer (ML2), a first metal layer (ML1); a second metal layer (ML2) disposed on the first metal layer (ML1); and a third metal layer (ML3) disposed on the second metal layer (ML2), the second metal layer (ML2) comprises copper (Cu), the third metal layer (ML3) comprises a copper alloy, and a grain size of the third metal layer (ML3) is smaller than a grain size of the second metal layer (ML2).
A curable resin composition comprising a polyol (A), a polyisocyanate (B), and polymer fine particles (C), wherein the polyol (A) comprises a polyester polyol (a2) as an essential component, and the amount of the polyester polyol (a2) is not less than 20 parts by mass per 100 parts by mass of the polyol(A), wherein the polymer fine particles (C) have a core-shell structure and the polymer fine particles (C) have one or more core layers selected from the group consisting of a diene rubber, a (meth)acrylate rubber, and an organosiloxane rubber, and wherein the polymer fine particles (C) have a shell layer graft-polymerized on the core layer, and the shell layer is polymerized with one or more monomers selected from the group consisting of an aromatic vinyl monomer, a vinyl cyanide monomer, and a (meth)acrylate monomer.
A method for generating a fluid saturation model for a subsurface region comprising: obtaining a model of the subsurface region; for each of a plurality of fluid types: flooding the subsurface region model with the fluid type to generate a flood model; and running a trial petrophysical inversion with the flood model to generate a trial petrophysical model, wherein each trial petrophysical model comprises values for at least one of porosity and volume of clay; searching each trial petrophysical model to identify one or more potential fluid contact regions; partitioning the flood models of the subsurface region at the one or more identified potential fluid contact regions; constructing the fluid saturation model from the partitions; running a petrophysical inversion of the fluid saturation model; identifying potential hydrocarbon-bearing formations in the subsurface region based on the petrophysical inversion of the fluid saturation model; and managing hydrocarbons based at least in part upon the constructed fluid saturation model, wherein managing hydrocarbons comprises causing a well to be drilled to prospect for hydrocarbons. obtaining a model of the subsurface region; for each of a plurality of fluid types: flooding the subsurface region model with the fluid type to generate a flood model; and running a trial petrophysical inversion with the flood model to generate a trial petrophysical model, wherein each trial petrophysical model comprises values for at least one of porosity and volume of clay; flooding the subsurface region model with the fluid type to generate a flood model; and running a trial petrophysical inversion with the flood model to generate a trial petrophysical model, wherein each trial petrophysical model comprises values for at least one of porosity and volume of clay; searching each trial petrophysical model to identify one or more potential fluid contact regions; partitioning the flood models of the subsurface region at the one or more identified potential fluid contact regions; constructing the fluid saturation model from the partitions; running a petrophysical inversion of the fluid saturation model; identifying potential hydrocarbon-bearing formations in the subsurface region based on the petrophysical inversion of the fluid saturation model; and managing hydrocarbons based at least in part upon the constructed fluid saturation model, wherein managing hydrocarbons comprises causing a well to be drilled to prospect for hydrocarbons.
A Raman spectroscopy apparatus comprising: a first illumination source configured for directing a collimated ilumination output into a tissue ; a Raman spectrograph configured for simultaneously detecting fingerprint (FP) and high wavenumber (HW) Raman spectra from illumination scattered by the tissue; and a computerized control and analysis module comprising at least one processing unit and a memory storing program instructions executable by the at least one processing unit for analyzing discrete spectral sub-intervals of the Raman spectra in FP and HW wavenumber ranges to identify a match with specific peaks in the detected Raman spectra of one or both wavenumber anges, characterized by further comprising: an additional illumination source configured for outputting additional illumination into the tissue while the first illumination source is directing collimated illumination into the tissue and a hot mirror filter configured for compensating for illumination interference between the collimated illumination output by the first illumination source and the additional illumination output by the additional illumination source . a first illumination source configured for directing a collimated ilumination output into a tissue ; a Raman spectrograph configured for simultaneously detecting fingerprint (FP) and high wavenumber (HW) Raman spectra from illumination scattered by the tissue; and a computerized control and analysis module comprising at least one processing unit and a memory storing program instructions executable by the at least one processing unit for analyzing discrete spectral sub-intervals of the Raman spectra in FP and HW wavenumber ranges to identify a match with specific peaks in the detected Raman spectra of one or both wavenumber anges, characterized by further comprising: an additional illumination source configured for outputting additional illumination into the tissue while the first illumination source is directing collimated illumination into the tissue and a hot mirror filter configured for compensating for illumination interference between the collimated illumination output by the first illumination source and the additional illumination output by the additional illumination source . an additional illumination source configured for outputting additional illumination into the tissue while the first illumination source is directing collimated illumination into the tissue and a hot mirror filter configured for compensating for illumination interference between the collimated illumination output by the first illumination source and the additional illumination output by the additional illumination source .