mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented finite volume method for conducting a stress calculation adapted for modeling a set of stresses and displacements in a reservoir, comprising: (a) building a reservoir model of a reservoir over a region of interest based on a plurality of well log output records and seismic data by applying a workstation processor to grid the region of interest to form a grid, the grid being comprised of one or more cells and having nodes, each cell having a cell center, wherein the grid is stored in a storage medium; (b) interpolating unknown rock displacements in the region of interest from cell centers to grid nodes; (c) integrating, using the cell centers and grid nodes, over each cell to form a discrete system of equations concerning the reservoir, wherein the discrete system of equations is stored in the storage medium, the discrete system of equations relating to linear elasticity; and (d) using the stored discrete system of equations to model stresses and displacements in the reservoir. (a) building a reservoir model of a reservoir over a region of interest based on a plurality of well log output records and seismic data by applying a workstation processor to grid the region of interest to form a grid, the grid being comprised of one or more cells and having nodes, each cell having a cell center, wherein the grid is stored in a storage medium; (b) interpolating unknown rock displacements in the region of interest from cell centers to grid nodes; (c) integrating, using the cell centers and grid nodes, over each cell to form a discrete system of equations concerning the reservoir, wherein the discrete system of equations is stored in the storage medium, the discrete system of equations relating to linear elasticity; and (d) using the stored discrete system of equations to model stresses and displacements in the reservoir.
A tape material for manufacturing an ignition plug electrode, the tape material being used for forming electrode chips, in which a base metal layer and a precious metal layer are cladded, on a bonded region set on an electrode base material of an ignition plug, the electrode chips being continuously connected, wherein the tape material being in the form of a long tape in which the base metal layer that is suitable for being in contact with the bonded region is cladded with the precious metal layer that is in contact with the base metal layer, the base metal layer of the tape material has a width substantially equal to one of the longitudinal width, lateral width and diameter of the bonded region, characterized in that at least one projection is formed on a surface of the base metal layer on the bonded region side in the cross-section shape of the tape material, the projection being in the form of a line.
A method for the heat treatment of wood, comprising, in order: - a step for producing hot gases and fumes using a gas generator using biomass, - a step for treating fumes consisting of dehydrating and removing dust from the fumes by implementing specific means, said step being carried out using a device comprising a cooling chamber for the gases making it possible to dehydrate said gases, said cooling chamber being extended by a first collection chamber for condensates derived from the dehydration of the fumes, said collection chamber being situated below the cooling chamber and being topped by at least one outlet tube (20, 21), the diameter of which is dimensioned to slow the gases, and to allow the sedimentation of the dusts, - a step for conveying gases toward a furnace, - a step for heating wood in the furnace using said gases, - a step for extraction of the vapors, characterized in that each outlet tube (20, 21) has a diameter larger than or equal to 200 mm so as to cause the speed of the gases to drop to a value below or equal to 3 m/s. - a step for producing hot gases and fumes using a gas generator using biomass, - a step for treating fumes consisting of dehydrating and removing dust from the fumes by implementing specific means, said step being carried out using a device comprising a cooling chamber for the gases making it possible to dehydrate said gases, said cooling chamber being extended by a first collection chamber for condensates derived from the dehydration of the fumes, said collection chamber being situated below the cooling chamber and being topped by at least one outlet tube (20, 21), the diameter of which is dimensioned to slow the gases, and to allow the sedimentation of the dusts, - a step for conveying gases toward a furnace, - a step for heating wood in the furnace using said gases, - a step for extraction of the vapors,
Furniture panel with - a base board, which is preferably in the form of a wood particleboard, HDF or MDF board, and - a polymeric laminate applied to the base board and preferably having a plurality of layers (3, 4, 5), - wherein at least the uppermost layer of the polymeric laminate which is remote from the base board is made transparent or translucent, - wherein the polymeric laminate comprises at least one profile element (14, 14') spaced apart from the edges of the base board which serves for visually configuring the furniture panel, characterised in that the profile element (14, 14') is arranged spaced apart from the laminate by way of at least one groove. - a base board, which is preferably in the form of a wood particleboard, HDF or MDF board, and - a polymeric laminate applied to the base board and preferably having a plurality of layers (3, 4, 5), - wherein at least the uppermost layer of the polymeric laminate which is remote from the base board is made transparent or translucent, - wherein the polymeric laminate comprises at least one profile element (14, 14') spaced apart from the edges of the base board which serves for visually configuring the furniture panel,
An optical system for a microlithographic projection exposure apparatus for operation in the EUV, comprising • at least one polarization-influencing arrangement (124, 224, 324, 424, 524, 624, 724) having at least one first and one second double reflection surface unit (128, 228, 328, 428, 528, 728); • wherein the at least two double reflection surface units each have a first reflection surface (128.1, 228.1, 328.1, 428.1, 528.1) and a second reflection surface (128.2, 228.2, 328.2, 428.2, 528.2); • wherein within the same double reflection surface unit, in each case the first reflection surface and the second reflection surface are arranged directly adjacent at a distance d1 and at an angle of 0°±10° relative to one another; • wherein the first reflection surface of the first double reflection surface unit and the second reflection surface of the second double reflection surface unit are arranged directly adjacent at a distance d2 and at an angle of 0°±10° relative to one another; • wherein during operation of the optical system, light (125, 225, 325, 425, 525) incident on the first reflection surfaces forms an angle of 43°±10° with the first reflection surfaces; and • wherein during operation of the optical system, light incident on the first reflection surface of the first double reflection surface unit is reflected toward the second reflection surface of the second double reflection surface unit; and • wherein the following holds true: d2 > 5 * d1. • at least one polarization-influencing arrangement (124, 224, 324, 424, 524, 624, 724) having at least one first and one second double reflection surface unit (128, 228, 328, 428, 528, 728); • wherein the at least two double reflection surface units each have a first reflection surface (128.1, 228.1, 328.1, 428.1, 528.1) and a second reflection surface (128.2, 228.2, 328.2, 428.2, 528.2); • wherein within the same double reflection surface unit, in each case the first reflection surface and the second reflection surface are arranged directly adjacent at a distance d1 and at an angle of 0°±10° relative to one another; • wherein the first reflection surface of the first double reflection surface unit and the second reflection surface of the second double reflection surface unit are arranged directly adjacent at a distance d2 and at an angle of 0°±10° relative to one another; • wherein during operation of the optical system, light (125, 225, 325, 425, 525) incident on the first reflection surfaces forms an angle of 43°±10° with the first reflection surfaces; and • wherein during operation of the optical system, light incident on the first reflection surface of the first double reflection surface unit is reflected toward the second reflection surface of the second double reflection surface unit; and • wherein the following holds true: d2 > 5 * d1.
Gas burner for cooktops, of the type comprising at least one outer annular flame spreader, having a respective annular distribution chamber of the mixture, at least one first fluidic inlet for the fuel gas, at least one first axial venturi mixer (3 a), configured to receive as an input said gas from said first fluidic inlet and primary air from a first atmospheric air inlet, said at least one annular distribution chamber being fluidically connected to said first venturi mixer through a partition chamber of the fuel mixture leaving said first venturi mixer, said partition chamber being fluidically connected to at least two fluidic passages (71, 72) connecting said first venturi mixer to two regions of said annular distribution chamber of the outer annular flame spreader which are oppositely arranged with respect to said first venturi mixer, and at least one ignition device to light said mixture that leaves said outer flame spreader, and wherein, considering a plan view of the burner in use condition, said outer annular flame spreader defines a geometric figure having a centroid, and wherein an axis orthogonal to said plan view and passing through said centroid is outside the first venturi mixer, said gas burner being characterized in that it comprises at least one second fluidic gas inlet, said first fluidic inlet being fluidically connected to said first venturi mixer, and the second fluidic gas inlet being connected to a second venturi mixer, said second venturi mixer being arranged outside said axis, so as to surround it.
A method, comprising: • reporting at least a first set of user equipment location information and at least a second set of user equipment location information from a user equipment to at least one network node for broadcast bearer management, wherein the first set of user equipment location information comprises a serving cell identity of the user equipment, and • wherein the second set of user equipment location information comprises at least one identity of at least one network service area for media broadcasting, said identity of the network service area comprising a multimedia broadcast/multicast service (MBMS) service area identity and/or a tracking area identity, and • wherein the reporting comprises reporting from the user equipment to a group communication service application server for executing the broadcast bearer management which comprises a mapping from the first set of user equipment location information to the second set of user equipment location information, wherein the broadcast bearer management is based on the mapping. • reporting at least a first set of user equipment location information and at least a second set of user equipment location information from a user equipment to at least one network node for broadcast bearer management, wherein the first set of user equipment location information comprises a serving cell identity of the user equipment, and • wherein the second set of user equipment location information comprises at least one identity of at least one network service area for media broadcasting, said identity of the network service area comprising a multimedia broadcast/multicast service (MBMS) service area identity and/or a tracking area identity, and • wherein the reporting comprises reporting from the user equipment to a group communication service application server for executing the broadcast bearer management which comprises a mapping from the first set of user equipment location information to the second set of user equipment location information, wherein the broadcast bearer management is based on the mapping.
An apparatus for decontaminating a region within an enclosure, said apparatus comprising: a conduit having a passageway therethrough, said passageway defining a path (10, 282, 284, 20) for a carrier gas, said conduit having a first end and a second end, each of said ends being connectable to an enclosure to define a closed-loop path (10, 282, 284, 20) that includes a region of said enclosure; a blower attached to said conduit for re-circulating a carrier gas into, through and out of said region of said enclosure; a nozzle for injecting a sterilant into said conduit; a space or gap defined in said conduit; a heating element operable to heat said carrier gas; a destroyer operable to destroy sterilant in said carrier gas; and a controller for operating said heating element and said nozzle; characterized by a plurality of tubular chambers (212A, 214A, 216A), each of said chamber (212A, 214A, 216A) having an opening therethrough and each of said chamber (212A, 214A, 216A) being selectively movable into and out of said gap, an opening in a chamber (212A, 214A, 216A) being aligned with said passageway in said conduit when said chamber (212A, 214A, 216A) is disposed in said gap, wherein said opening in said chamber (212A, 214A, 216A) is aligned with said passageway in said conduit; said heating element is disposed in one of said tubular chambers; said destroyer is disposed in another of said tubular chambers; and said controller for additionally controlling movement of said tubular chambers (212A, 214A, 216A) into and out of said gap. a conduit having a passageway therethrough, said passageway defining a path (10, 282, 284, 20) for a carrier gas, said conduit having a first end and a second end, each of said ends being connectable to an enclosure to define a closed-loop path (10, 282, 284, 20) that includes a region of said enclosure; a blower attached to said conduit for re-circulating a carrier gas into, through and out of said region of said enclosure; a nozzle for injecting a sterilant into said conduit; a space or gap defined in said conduit; a heating element operable to heat said carrier gas; a destroyer operable to destroy sterilant in said carrier gas; and a controller for operating said heating element and said nozzle; a plurality of tubular chambers (212A, 214A, 216A), each of said chamber (212A, 214A, 216A) having an opening therethrough and each of said chamber (212A, 214A, 216A) being selectively movable into and out of said gap, an opening in a chamber (212A, 214A, 216A) being aligned with said passageway in said conduit when said chamber (212A, 214A, 216A) is disposed in said gap, wherein said opening in said chamber (212A, 214A, 216A) is aligned with said passageway in said conduit; said heating element is disposed in one of said tubular chambers; said destroyer is disposed in another of said tubular chambers; and said controller for additionally controlling movement of said tubular chambers (212A, 214A, 216A) into and out of said gap.
Casing for holding a fluid, such as coolant, for a heat exchanger, in particular, for motor vehicles, with two side walls (22, 24 or 22a, 24a), two end walls (26, 28 or 26a, 28a), a cover (18 or 18a), and a base (20 or 20a) arranged opposite the cover (18 or 18a), in which one or more openings are provided for holding tubes, in particular, connecting tubes, such as flat tubes, wherein the casing is made from only one shaped, in particular, folded moulded part, wherein the shaped moulded part, in particular, punched sheet metal, forms the two side walls (22, 24 or 22a, 24a), the two end walls (26, 28 or 26a, 28a), the cover (18 or 18a) and the base (20 or 20a), characterised in that the cover (18 or 18a) has a bulge that is adapted to the profile of the side walls (22, 24 or 22a, 24a) and to an indentation in the side walls (22, 24 or 22a, 24a).
A method for transmitting control signaling, applied in an enhanced communication system of a long term evolution standard, comprising: a base station transmitting enhanced physical downlink control signaling dedicated to an enhanced system to an enhanced terminal on M downlink subframes in a radio frame, wherein M is an integer greater than or equal to 1 and less than N, and N is a number of the downlink subframes included in the radio frame; the base station notifying the enhanced terminal whether to transmit one or more of the following information in the radio frame through signaling: the enhanced physical downlink control signaling and physical downlink control signaling; wherein the enhanced terminal is a terminal capable of decoding the physical downlink control signaling and the enhanced physical downlink control signaling; wherein orthogonal frequency division multiplexing, OFDM, symbols used by the base station for transmitting the enhanced physical downlink control signaling on the M subframes are different from OFDM symbols used by the base station for transmitting the physical downlink control signaling. a base station transmitting enhanced physical downlink control signaling dedicated to an enhanced system to an enhanced terminal on M downlink subframes in a radio frame, wherein M is an integer greater than or equal to 1 and less than N, and N is a number of the downlink subframes included in the radio frame; the base station notifying the enhanced terminal whether to transmit one or more of the following information in the radio frame through signaling: the enhanced physical downlink control signaling and physical downlink control signaling; wherein the enhanced terminal is a terminal capable of decoding the physical downlink control signaling and the enhanced physical downlink control signaling; wherein orthogonal frequency division multiplexing, OFDM, symbols used by the base station for transmitting the enhanced physical downlink control signaling on the M subframes are different from OFDM symbols used by the base station for transmitting the physical downlink control signaling.
A hinge assembly, comprising: a first mounting plate having a first female receptacle therein defining a first axis; a second mounting plate having a second female receptacle therein defining a second axis; a female friction hinge member having a recess defined therein, the recess extending perpendicular to the first axis and the second axis from an open first end to a closed second end, the female friction hinge member further having an elongated pin for mounting within the first female receptacle; and a male friction hinge member having an elongated pin for mounting within the second female receptacle, the male friction hinge member further including an elongated extension member extending perpendicular to the first axis and the second axis, the elongated extension member coordinatedly coupled within the recess of the female friction hinge member so that the female friction hinge member and male friction hinge member rotate in unison. a first mounting plate having a first female receptacle therein defining a first axis; a second mounting plate having a second female receptacle therein defining a second axis; a female friction hinge member having a recess defined therein, the recess extending perpendicular to the first axis and the second axis from an open first end to a closed second end, the female friction hinge member further having an elongated pin for mounting within the first female receptacle; and a male friction hinge member having an elongated pin for mounting within the second female receptacle, the male friction hinge member further including an elongated extension member extending perpendicular to the first axis and the second axis, the elongated extension member coordinatedly coupled within the recess of the female friction hinge member so that the female friction hinge member and male friction hinge member rotate in unison.
A process of cyclically producing hexamethylolmelamine, comprising: 1) adding water or mother liquid in a hydroxylation reaction kettle; 2) then adding formaldehyde aqueous solution in the reaction kettle and keeping content of formaldehyde in a range of 10%-25%; 3) stirring and heating the solution in the kettle to 40-80°C; 4) adding alkali in the reaction kettle, and pre-adjusting a pH value of the solution in the kettle between 8.5-9.5; 5) then adding melamine in the reaction kettle so that a molar ratio of melamine to formaldehyde is 1:6-15; 6) adding alkali again into the reaction kettle, and adjusting the pH value of the solution in the kettle between 8.5-10.0; 7) raising a temperature of the reaction solution in the kettle to 60-85 °C, and maintaining the temperature 1-4 hours; 8) introducing the solution in the kettle which has already cooled to below 40°C into a centrifuge for centrifugal separation to obtain hexamethylolmelamine wet material and the mother liquid; 9) delivering the hexamethylolmelamine wet material to a drying system for subsequent drying; 10) returning the mother liquid back to the reaction kettle; and repeating the above steps 2) to 10) for cyclic production, wherein the added formaldehyde aqueous solution is prepared in situ and its concentration is higher than 55%. 1) adding water or mother liquid in a hydroxylation reaction kettle; 2) then adding formaldehyde aqueous solution in the reaction kettle and keeping content of formaldehyde in a range of 10%-25%; 3) stirring and heating the solution in the kettle to 40-80°C; 4) adding alkali in the reaction kettle, and pre-adjusting a pH value of the solution in the kettle between 8.5-9.5; 5) then adding melamine in the reaction kettle so that a molar ratio of melamine to formaldehyde is 1:6-15; 6) adding alkali again into the reaction kettle, and adjusting the pH value of the solution in the kettle between 8.5-10.0; 7) raising a temperature of the reaction solution in the kettle to 60-85 °C, and maintaining the temperature 1-4 hours; 8) introducing the solution in the kettle which has already cooled to below 40°C into a centrifuge for centrifugal separation to obtain hexamethylolmelamine wet material and the mother liquid; 9) delivering the hexamethylolmelamine wet material to a drying system for subsequent drying; 10) returning the mother liquid back to the reaction kettle; and repeating the above steps 2) to 10) for cyclic production, wherein the added formaldehyde aqueous solution is prepared in situ and its concentration is higher than 55%.
Orthopaedic implant (30, 40, 100), comprising: 1.1 a base device (32, 42, 92, 112), having an elongated shape of a pin or of a bone screw; characterized by 1.2 a fixation material (34, 44, 94, 102), attached to the base device; 1.3 the fixation material has the shape of a thin band wrapped around the circumference of the base device; 1.4 the fixation material is configured such as to provide a minimally sufficient adhesive force to resist natural pull out acting on the base device after implantation but requiring a revisionary force which is greater than the adhesive force. 1.1 a base device (32, 42, 92, 112), having an elongated shape of a pin or of a bone screw; characterized by 1.2 a fixation material (34, 44, 94, 102), attached to the base device; 1.3 the fixation material has the shape of a thin band wrapped around the circumference of the base device; 1.4 the fixation material is configured such as to provide a minimally sufficient adhesive force to resist natural pull out acting on the base device after implantation but requiring a revisionary force which is greater than the adhesive force.