mhurhangee/patent-ind-claim-en huggingface dataset:
Heating device, comprising a burner , an ash chamber , a collecting chamber for fly ash, a first screw conveyor and a second screw conveyor , wherein the burner can be charged with particulate fuel, in particular pellets, and wherein the burner is arranged in the region of the ash chamber , wherein the collecting chamber is arranged separated from the adjacent ash chamber by a partition wall , wherein the first screw conveyor is arranged in the ash chamber and the second screw conveyor is arranged in the collecting chamber , wherein the first screw conveyor and the second screw conveyor have a common screw shaft , and wherein the partition wall has a feed-through opening for the screw shaft , wherein the heating device has a sealing flap for closing, in particular directly, the feed-through opening , characterized in that the sealing flap has at least one recess which is peripherally open and can be opened by means of conveyed ash, in that the screw shaft has a bearing in the region of the feed-through opening , and in that the peripherally open recess cooperates with the bearing of the screw shaft in a position of the sealing flap which closes the feed-through opening , such that the sealing flap , in its closed position, closes the feed-through opening which is arranged around the bearing of the screw shaft .
A precleaner for use in an air intake system, said precleaner comprising: a cyclone defining a volume , said cyclone comprising an inlet and an outlet , said inlet and said outlet arranged to generate a vortex within said volume when the air pressure at said outlet is lower than the air pressure at said inlet , said cyclone further comprising an aperture , and said precleaner further comprising a blocking member arranged to move and concomitantly occlude said aperture when the air pressure at said outlet is lower than the air pressure at said aperture ; characterised in that said blocking member is held proximate said aperture by a cage which surrounds said aperture ; and said blocking member and said cage are located outside said volume of said cyclone . a cyclone defining a volume , said cyclone comprising an inlet and an outlet , said inlet and said outlet arranged to generate a vortex within said volume when the air pressure at said outlet is lower than the air pressure at said inlet , said cyclone further comprising an aperture , and said precleaner further comprising a blocking member arranged to move and concomitantly occlude said aperture when the air pressure at said outlet is lower than the air pressure at said aperture ; characterised in that said blocking member is held proximate said aperture by a cage which surrounds said aperture ; and said blocking member and said cage are located outside said volume of said cyclone .
A magnetic drum comprising: a plurality of magnets mounted along a circumferential direction on a holder , the magnets are disposed such that magnetic pole surfaces face each other along the circumferential direction on the holder , the magnets are engaged with the holder so as not to move in the circumferential direction and toward an outside, the magnet and the holder are locked together by fitting of a recessed portion and a protrusion portion to each other, the recessed portion is a groove, and the groove is formed along a direction intersecting the circumferential direction of the holder , and a direction in which the groove intersects with the circumferential direction of the holder is an axial direction of the holder , characterized in that said recessed portion and said protrusion portion are configured so that the direction in which the magnet is inserted into the holder is the axial direction of the holder . a plurality of magnets mounted along a circumferential direction on a holder , the magnets are disposed such that magnetic pole surfaces face each other along the circumferential direction on the holder , the magnets are engaged with the holder so as not to move in the circumferential direction and toward an outside, the magnet and the holder are locked together by fitting of a recessed portion and a protrusion portion to each other, the recessed portion is a groove, and the groove is formed along a direction intersecting the circumferential direction of the holder , and a direction in which the groove intersects with the circumferential direction of the holder is an axial direction of the holder , characterized in that said recessed portion and said protrusion portion are configured so that the direction in which the magnet is inserted into the holder is the axial direction of the holder .
A computer-implemented method for operating an autonomous vehicle, comprising: identifying a driving scenario of an autonomous vehicle for a next movement, wherein the driving scenario is represented by a set of one or more predetermined parameters; and calculating a first next movement of the autonomous vehicle using a physical model corresponding to the driving scenario; characterized in that the method further comprises applying a sideslip predictive model to the set of predetermined parameters to predict a sideslip of the autonomous vehicle given the driving scenario; determining a second next movement of the autonomous vehicle based on the first next movement and the predicted sideslip of the autonomous vehicle, generating planning and control data based on the second next movement; and controlling and driving the autonomous vehicle based on the planning and control data. identifying a driving scenario of an autonomous vehicle for a next movement, wherein the driving scenario is represented by a set of one or more predetermined parameters; and calculating a first next movement of the autonomous vehicle using a physical model corresponding to the driving scenario; characterized in that the method further comprises applying a sideslip predictive model to the set of predetermined parameters to predict a sideslip of the autonomous vehicle given the driving scenario; determining a second next movement of the autonomous vehicle based on the first next movement and the predicted sideslip of the autonomous vehicle, generating planning and control data based on the second next movement; and controlling and driving the autonomous vehicle based on the planning and control data.
A secondary battery separator including: a porous base material; and a porous layer stacked on at least one surface of the porous base material, the porous layer having a thickness of 0.10 μm or more and less than 2.5 μm, and organic resin fine particles having an average particle size of 0.02 μm or more and less than 0.40 μm, characterized in that the porous layer stacked on at least one surface of the porous base material contains the organic resin fine particles containing a fluororesin, the fluororesin having a weight average molecular weight of 600,000 or more and 1,500,000 or less.
An accessory for an inhaler for dispensing doses of medicament which has a housing including a mouthpiece from which the medicament is dispensed, the accessory comprising: (a) a jacket which attaches to the housing; (b) a cap for the mouthpiece; (c) and a plurality of elastomeric straps which connect the jacket to the cap; wherein one end of each strap is secured to the jacket and the other end of each strap is secured to the cap. (a) a jacket which attaches to the housing; (b) a cap for the mouthpiece; (c) and a plurality of elastomeric straps which connect the jacket to the cap;
An immunogenic composition comprising at least one glycoconjugate from S. pneumoniae serotype 9V and further comprising glycoconjugates from S. pneumoniae serotypes 1, 3, 4, 5, 6A, 6B, 7F, 14, 18C, 19A, 19F and 23F, wherein said glycoconjugates are individually conjugated to CRM 197 , wherein said composition comprises from 0.1 mg/mL to 1 mg/mL of elemental aluminum in the form of aluminum phosphate as adjuvant and wherein said composition does not comprise capsular saccharides from S. pneumoniae serotypes 9N, 9A and 9L, for use in a method to prevent serotypes 9N S. pneumoniae infection in a human subject,.
A system for monitoring one or more radioactive nuclides present in a stack flow inside a duct , comprising: a first detector having a predetermined first sensitivity to gamma radiation; a second detector having a predetermined second sensitivity to gamma radiation and a predetermined sensitivity to beta particles produced by the one or more radioactive nuclides; a flow meter for measuring a flow rate of the stack flow; and an electronic signal processor for receiving signals from said first detector, said second detector, and said flow meter; the electronic signal processor comprises energy window discrimination and being configured to identify one or more nuclide species present in the stack flow, and to calculate a background-corrected value of radiation activity concentration for each of the identified nuclide species, said system being characterized in that said background-corrected value depends upon a ratio (R) between the first and second sensitivities to gamma radiation. a first detector having a predetermined first sensitivity to gamma radiation; a second detector having a predetermined second sensitivity to gamma radiation and a predetermined sensitivity to beta particles produced by the one or more radioactive nuclides; a flow meter for measuring a flow rate of the stack flow; and an electronic signal processor for receiving signals from said first detector, said second detector, and said flow meter; the electronic signal processor comprises energy window discrimination and being configured to identify one or more nuclide species present in the stack flow, and to calculate a background-corrected value of radiation activity concentration for each of the identified nuclide species, said system being characterized in that said background-corrected value depends upon a ratio (R) between the first and second sensitivities to gamma radiation.
A mobile terminal, comprising: a wireless communication unit configured to provide wireless communication; a display unit including a touch sensor and a fingerprint recognition sensor overlapped with the touch sensor ; and a controller configured to: sense fingerprint information of a finger which has applied a touch input using the fingerprint recognition sensor , the touch input applied at least twice within a reference time, the touch input including a first touch input and a second touch input different from the first touch input, and the first touch input and the second touch input are applied to respective regions of the display unit, and wherein the controller is further configured to: extract, from the touch sensor , touch information of the first touch input, wherein the touch information is related to the touch region where the first touch input has been applied on the display unit , sense fingerprint information of a finger which has applied the second touch input using the fingerprint recognition sensor , and perform fingerprint authentication with respect to the sensed fingerprint information of the finger which has applied the second touch input using the touch information related to the touch region of the first touch input extracted from the touch sensor . a wireless communication unit configured to provide wireless communication; a display unit including a touch sensor and a fingerprint recognition sensor overlapped with the touch sensor ; and a controller configured to: sense fingerprint information of a finger which has applied a touch input using the fingerprint recognition sensor , the touch input applied at least twice within a reference time, the touch input including a first touch input and a second touch input different from the first touch input, and the first touch input and the second touch input are applied to respective regions of the display unit, and wherein the controller is further configured to: extract, from the touch sensor , touch information of the first touch input, wherein the touch information is related to the touch region where the first touch input has been applied on the display unit , sense fingerprint information of a finger which has applied the second touch input using the fingerprint recognition sensor , and perform fingerprint authentication with respect to the sensed fingerprint information of the finger which has applied the second touch input using the touch information related to the touch region of the first touch input extracted from the touch sensor . extract, from the touch sensor , touch information of the first touch input, wherein the touch information is related to the touch region where the first touch input has been applied on the display unit , sense fingerprint information of a finger which has applied the second touch input using the fingerprint recognition sensor , and perform fingerprint authentication with respect to the sensed fingerprint information of the finger which has applied the second touch input using the touch information related to the touch region of the first touch input extracted from the touch sensor .
A system for heat removal from server racks , comprising: a mixing chamber of a substantially rectangular frame, defined by: a first major surface configured to receive heat generated from the server racks , a second major surface configured to expel the heat to at least one heat removal cabinet ; impermeable top , bottom and lateral surfaces disposed adjacent to the major surfaces, thus forming an enclosure of the mixing chamber ; wherein: the mixing chamber comprises at least one divider configured to divide the mixing chamber into a plurality of partitions, wherein each partition of the plurality of partitions is configured to couple along the width and height of a server rack at the first major surface ; and wherein each partition of the plurality of partitions is configured to couple along the width and height of a heat removal cabinet at the second major surface; and wherein the at least one divider has a web structure for enabling heated air therethrough so that a volume of the heated air is mixed homogenously and a temperature of the heated air in the mixing chamber approaches equilibrium. a first major surface configured to receive heat generated from the server racks , a second major surface configured to expel the heat to at least one heat removal cabinet ; impermeable top , bottom and lateral surfaces disposed adjacent to the major surfaces, thus forming an enclosure of the mixing chamber ; wherein: the mixing chamber comprises at least one divider configured to divide the mixing chamber into a plurality of partitions, wherein each partition of the plurality of partitions is configured to couple along the width and height of a server rack at the first major surface ; and wherein each partition of the plurality of partitions is configured to couple along the width and height of a heat removal cabinet at the second major surface; and wherein the at least one divider has a web structure for enabling heated air therethrough so that a volume of the heated air is mixed homogenously and a temperature of the heated air in the mixing chamber approaches equilibrium. the mixing chamber comprises at least one divider configured to divide the mixing chamber into a plurality of partitions, wherein each partition of the plurality of partitions is configured to couple along the width and height of a server rack at the first major surface ; and wherein each partition of the plurality of partitions is configured to couple along the width and height of a heat removal cabinet at the second major surface; and wherein the at least one divider has a web structure for enabling heated air therethrough so that a volume of the heated air is mixed homogenously and a temperature of the heated air in the mixing chamber approaches equilibrium.
A plate-shaped cutting insert that is detachably mounted in a front end portion of a tool main body that is rotated around a central axis (C), the cutting insert comprising: a rake face; a flank surface; and a cutting edge that is formed along an intersection ridge between the rake face and the flank surface, characterised in that the cutting edge includes a bottom cutting edge that is positioned at a front end in a central axis direction and forms a convex arc shape, and an outer peripheral cutting edge that is aligned with a radial-direction outer end of the bottom cutting edge and forms a convex arc shape of which a curvature radius is larger than that of the bottom cutting edge , wherein an angle formed between a tangent line to a boundary point between the bottom cutting edge and the outer peripheral cutting edge and the central axis (C) is less than 45°, wherein a curvature radius R1 of the bottom cutting edge is 0.3 to 10 mm, wherein a ratio (R2/R1) of a curvature radius R2 of the outer peripheral cutting edge to the curvature radius R1 of the bottom cutting edge is 3.6 to 333, and wherein the cutting edge includes a linear edge that is positioned at a base end in the central axis direction and extends to be parallel to the central axis (C). a rake face; a flank surface; and a cutting edge that is formed along an intersection ridge between the rake face and the flank surface, characterised in that the cutting edge includes a bottom cutting edge that is positioned at a front end in a central axis direction and forms a convex arc shape, and an outer peripheral cutting edge that is aligned with a radial-direction outer end of the bottom cutting edge and forms a convex arc shape of which a curvature radius is larger than that of the bottom cutting edge , characterised in that the cutting edge includes a bottom cutting edge that is positioned at a front end in a central axis direction and forms a convex arc shape, and an outer peripheral cutting edge that is aligned with a radial-direction outer end of the bottom cutting edge and forms a convex arc shape of which a curvature radius is larger than that of the bottom cutting edge , wherein an angle formed between a tangent line to a boundary point between the bottom cutting edge and the outer peripheral cutting edge and the central axis (C) is less than 45°, wherein a curvature radius R1 of the bottom cutting edge is 0.3 to 10 mm, wherein a ratio (R2/R1) of a curvature radius R2 of the outer peripheral cutting edge to the curvature radius R1 of the bottom cutting edge is 3.6 to 333, and wherein the cutting edge includes a linear edge that is positioned at a base end in the central axis direction and extends to be parallel to the central axis (C).
Bulk amorphous alloy, characterised in that it is nickel-free, and in that it consists, in at%, of: - a base made of zirconium and/or hafnium, the content whereof constitutes the balance, with a total zirconium and hafnium content of greater than or equal to 52.0, and less than or equal to 62.0; - copper: greater than or equal to 16.0, and less than or equal to 28.0; - iron: greater than or equal to 0.5, and less than or equal to 10.0; - aluminium: greater than or equal to 7.0, and less than or equal to 13.0; - at least one first so-called (X) filler metal and one second so-called (X) filler metal, selected from the family consisting of Ti, V, Nb, Y, Cr, Mo, Co, Sn, Zn, P, Pd, Ag, Au, Pt, Ta, Ru, Rh, Ir, Os, and Hf when not included in said base, and Zrwhen not included in said base, with the cumulative atom percent of said at least two filler metals being greater than or equal to 6.0, and less than or equal to 10.0. - a base made of zirconium and/or hafnium, the content whereof constitutes the balance, with a total zirconium and hafnium content of greater than or equal to 52.0, and less than or equal to 62.0; - copper: greater than or equal to 16.0, and less than or equal to 28.0; - iron: greater than or equal to 0.5, and less than or equal to 10.0; - aluminium: greater than or equal to 7.0, and less than or equal to 13.0; - at least one first so-called (X) filler metal and one second so-called (X) filler metal, selected from the family consisting of Ti, V, Nb, Y, Cr, Mo, Co, Sn, Zn, P, Pd, Ag, Au, Pt, Ta, Ru, Rh, Ir, Os, and Hf when not included in said base, and Zrwhen not included in said base, with the cumulative atom percent of said at least two filler metals being greater than or equal to 6.0, and less than or equal to 10.0.
A method of decontaminating metal surfaces in a cooling system of a nuclear reactor, wherein the metal surfaces are coated with metal oxides including radioisotopes, and wherein the cooling system comprises one or more primary loops including at least one reactor coolant pump, and a residual heat removal system, the method comprises conducting a plurality of treatment cycles, with each of the treatment cycles comprising: a) an oxidation step wherein the metal oxides including radioisotopes are contacted with an aqueous solution of a permanganate oxidant; b) a decontamination step wherein the metal oxides subjected to the oxidation step are contacted with an aqueous solution of an organic acid selected from the group consisting of oxalic acid, formic acid, citric acid, tartaric acid, picolinic acid, gluconic acid, glyoxylic acid and mixtures thereof, so as to dissolve at least part of the metal oxides and the radioisotopes; and c) a cleaning step wherein at least the radioisotopes are immobilized on an ion exchange resin; wherein the oxidation step comprises at least one acidic oxidation step and at least one alkaline oxidation step carried out one after another in either the same or different treatment cycles, and wherein the plurality of treatment cycles comprises at least one treatment cycle including a high temperature oxidation step, wherein the permanganate oxidant solution is kept at a temperature of at least 100 °C and wherein the at least one reactor coolant pump is used to circulate and heat the oxidation solution inside the primary loop and the residual heat removal system is used to control the temperature of the oxidant solution during the high temperature oxidation step. a) an oxidation step wherein the metal oxides including radioisotopes are contacted with an aqueous solution of a permanganate oxidant; b) a decontamination step wherein the metal oxides subjected to the oxidation step are contacted with an aqueous solution of an organic acid selected from the group consisting of oxalic acid, formic acid, citric acid, tartaric acid, picolinic acid, gluconic acid, glyoxylic acid and mixtures thereof, so as to dissolve at least part of the metal oxides and the radioisotopes; and c) a cleaning step wherein at least the radioisotopes are immobilized on an ion exchange resin;