mhurhangee/ep-ind-claims huggingface dataset:
A swell or wave energy conversion system comprising an array of water compression columns, each column having: - a lower end adapted to be immersed in a volume of water under the action of the swell, the lower end having an opening for receiving water from the volume of water in the column, so as to form a chamber comprising a gas in an upper part of the column, - a first check valve in fluid communication from said column to an hyperbaric chamber common to the columns of the array, - a second check valve in fluid communication from an hypobaric chamber common to the columns of the array to said column, in which the hyperbaric chamber and the hypobaric chamber are fluidly connected by a turbine, in which the columns of the array are arranged contiguously, and in that the array extends in at least two non-parallel directions where the first check valves of the columns of the system are arranged in first rows, and the second check valves of the columns of the system are arranged in second rows, wherein each first row is arranged at a first portion of the hyperbaric chamber and each second row is arranged at a second portion of the hypobaric chamber, the first portions and second portions being arranged alternately above the columns, characterised in that each first portion, respectively second portion, has an increasing, respectively decreasing, cross-section in the direction of gas flow. - a lower end adapted to be immersed in a volume of water under the action of the swell, the lower end having an opening for receiving water from the volume of water in the column, so as to form a chamber comprising a gas in an upper part of the column, - a first check valve in fluid communication from said column to an hyperbaric chamber common to the columns of the array, - a second check valve in fluid communication from an hypobaric chamber common to the columns of the array to said column, in which the hyperbaric chamber and the hypobaric chamber are fluidly connected by a turbine, in which the columns of the array are arranged contiguously, and in that the array extends in at least two non-parallel directions where the first check valves of the columns of the system are arranged in first rows, and the second check valves of the columns of the system are arranged in second rows, wherein each first row is arranged at a first portion of the hyperbaric chamber and each second row is arranged at a second portion of the hypobaric chamber, the first portions and second portions being arranged alternately above the columns, characterised in that each first portion, respectively second portion, has an increasing, respectively decreasing, cross-section in the direction of gas flow.
A method of producing tyres, comprising: - producing a plurality of structural elements of said tyres, in which at least one structural element of said plurality of structural elements comprises at least one eiastomeric compound; wherein the production of said at least one structural element comprises: - producing at least one elastomeric compound comprising at least one elastomeric polymer and at least one reinforcing filler in at least one first mixer; - setting work parameters of a second mixer; - reducing said elastomeric compound into small pieces of controlled sizes and continuously feeding the second mixer with said small pieces, which will continuously process them; - detecting at least one magnitude value (L, C) representative of the filling degree of said mixing extruder, characterized in that - the first mixer is a discontinuous mixer; - the second mixer is a mixing extruder, the mixing extruder being of the two-screw type or of the multi-screw ring-shaped type; - the detected magnitude is -- the torque of the screws of the mixing extruder and/or -- the filling level of an inlet hopper of the mixing extruder and in that the method further comprises; adjusting the speed for reducing the elastomeric compound into small pieces so as to maintain one of the detected magnitude values (L, C) in the preset neighbourhood of a predetermined value. - producing a plurality of structural elements of said tyres, in which at least one structural element of said plurality of structural elements comprises at least one eiastomeric compound; - producing at least one elastomeric compound comprising at least one elastomeric polymer and at least one reinforcing filler in at least one first mixer; - setting work parameters of a second mixer; - reducing said elastomeric compound into small pieces of controlled sizes and continuously feeding the second mixer with said small pieces, - detecting at least one magnitude value (L, C) representative of the filling degree of said mixing extruder, - the first mixer is a discontinuous mixer; - the second mixer is a mixing extruder, the mixing extruder being of the two-screw type or of the multi-screw ring-shaped type; - the detected magnitude is -- the torque of the screws of the mixing extruder and/or -- the filling level of an inlet hopper of the mixing extruder -- the torque of the screws of the mixing extruder and/or -- the filling level of an inlet hopper of the mixing extruder
A non-pneumatic tire comprising: an attachment body to be attached to an axle; a ring member including an inner cylinder externally covering the attachment body and an outer cylinder surrounding the inner cylinder from a tire radial outer side; a plurality of connecting members arranged along a tire circumferential direction between the inner cylinder and the outer cylinder and connecting the inner cylinder and the outer cylinder to each other; and a tread member made of vulcanized rubber and located on the tire radial outer side of the outer cylinder of the ring member; wherein the ring member and the connecting members form a framework member and are made of a resin material; the non-pneumatic tire being characterised in that the resin material is made of a resin composition including 60 mass% or more of a polyamide resin formed by polymerizing an aliphatic diamine having 6 to 20 carbon atoms and an aliphatic dicarboxylic acid having 10 to 20 carbon atoms. an attachment body to be attached to an axle; a ring member including an inner cylinder externally covering the attachment body and an outer cylinder surrounding the inner cylinder from a tire radial outer side; a plurality of connecting members arranged along a tire circumferential direction between the inner cylinder and the outer cylinder and connecting the inner cylinder and the outer cylinder to each other; and a tread member made of vulcanized rubber and located on the tire radial outer side of the outer cylinder of the ring member; wherein the ring member and the connecting members form a framework member and are made of a resin material; the non-pneumatic tire being characterised in that the resin material is made of a resin composition including 60 mass% or more of a polyamide resin formed by polymerizing an aliphatic diamine having 6 to 20 carbon atoms and an aliphatic dicarboxylic acid having 10 to 20 carbon atoms.
A computerized system, comprising: a computer system having an input unit, a display unit, one or more processors and one or more non-transitory computer readable medium, the one or more processors executing image display and analysis software to cause the one or more processors to: receive an identification of a structure from the input unit, the structure having multiple sides and an outline; obtain data indicative of multiple geographic positions pertaining to an outline of a structure having multiple sides and structure height information; obtain characteristics of a camera mounted onto an unmanned aircraft; generate unmanned aircraft information including: flight path information configured to direct the unmanned aircraft to fly a flight path around the structure that is laterally and vertically offset from the geographic positions of the outline of the structure, the lateral and vertical offset being dependent upon the structure height information, an orientation of the camera relative to the unmanned aircraft, and the characteristics of the camera; and, store the unmanned aircraft information on the one or more non-transitory computer readable medium. receive an identification of a structure from the input unit, the structure having multiple sides and an outline; obtain data indicative of multiple geographic positions pertaining to an outline of a structure having multiple sides and structure height information; obtain characteristics of a camera mounted onto an unmanned aircraft; generate unmanned aircraft information including: flight path information configured to direct the unmanned aircraft to fly a flight path around the structure that is laterally and vertically offset from the geographic positions of the outline of the structure, the lateral and vertical offset being dependent upon the structure height information, an orientation of the camera relative to the unmanned aircraft, and the characteristics of the camera; and, store the unmanned aircraft information on the one or more non-transitory computer readable medium.
A shuttle handling assembly comprising: a base; and a plurality of docking stations (260a-c) extending from the base; characterized in that the shuttle handling assembly further comprises: a transfer arm rotatably supported from a carriage by first and second flanges (272, 273); and first and second drive shafts (258a-b) supported by the base and rotatably coupled thereto, wherein the first drive shaft passes through and freely rotates in a first opening in the first and second flanges (272, 273), and wherein the second drive shaft is threadedly engaged with at least one of the first and second flanges (272, 273) to drive the carriage along the first and second drive shafts (258a-b) by the rotation of the second drive shaft, wherein the docking stations (260a-c) have a plurality of fingers extending toward the first and second drive shafts (258a-b), and wherein the fingers are configured to support shuttles placed thereon, but spaced to allow the transfer arm to pass therethrough to engage the bottom ends of the supported shuttles. a base; and a plurality of docking stations (260a-c) extending from the base; characterized in that the shuttle handling assembly further comprises: a transfer arm rotatably supported from a carriage by first and second flanges (272, 273); and first and second drive shafts (258a-b) supported by the base and rotatably coupled thereto, wherein the first drive shaft passes through and freely rotates in a first opening in the first and second flanges (272, 273), and wherein the second drive shaft is threadedly engaged with at least one of the first and second flanges (272, 273) to drive the carriage along the first and second drive shafts (258a-b) by the rotation of the second drive shaft, wherein the docking stations (260a-c) have a plurality of fingers extending toward the first and second drive shafts (258a-b), and wherein the fingers are configured to support shuttles placed thereon, but spaced to allow the transfer arm to pass therethrough to engage the bottom ends of the supported shuttles. a transfer arm rotatably supported from a carriage by first and second flanges (272, 273); and first and second drive shafts (258a-b) supported by the base and rotatably coupled thereto, wherein the first drive shaft passes through and freely rotates in a first opening in the first and second flanges (272, 273), and wherein the second drive shaft is threadedly engaged with at least one of the first and second flanges (272, 273) to drive the carriage along the first and second drive shafts (258a-b) by the rotation of the second drive shaft, wherein the docking stations (260a-c) have a plurality of fingers extending toward the first and second drive shafts (258a-b), and wherein the fingers are configured to support shuttles placed thereon, but spaced to allow the transfer arm to pass therethrough to engage the bottom ends of the supported shuttles.
A method of mirroring updates to a nonvolatile memory of a computer system having one or more processors (103, 701, 702), volatile memory and a processor cache (104, 741, 742), the method comprising: writing contents of the processor cache into the nonvolatile memory; and transmitting at least the contents of the processor cache that have been written into the nonvolatile memory to a remote computer system characterized in that said contents are data cached in cache lines of the processor cache and in that the method further comprises: determining that an instruction to flush the processor cache into the nonvolatile memory has been issued; and said writing is in response to the issuance of the flush instruction and includes writing data cached in the cache lines into the volatile memory at corresponding memory addresses of the nonvolatile memory stored in the cache lines. writing contents of the processor cache into the nonvolatile memory; and transmitting at least the contents of the processor cache that have been written into the nonvolatile memory to a remote computer system characterized in that said contents are data cached in cache lines of the processor cache and in that the method further comprises: determining that an instruction to flush the processor cache into the nonvolatile memory has been issued; and said writing is in response to the issuance of the flush instruction and includes writing data cached in the cache lines into the volatile memory at corresponding memory addresses of the nonvolatile memory stored in the cache lines. determining that an instruction to flush the processor cache into the nonvolatile memory has been issued; and said writing is in response to the issuance of the flush instruction and includes writing data cached in the cache lines into the volatile memory at corresponding memory addresses of the nonvolatile memory stored in the cache lines.
A device for generating excited and/or ionized particles in a plasma from a process gas, comprising: a generator for generating an electromagnetic wave; a waveguide; and a gas discharge chamber with a gas discharge space in which the excited and/or ionized particles are formed, and with a dielectric in which the gas discharge space is formed, the gas discharge chamber being arranged inside the waveguide, the dielectric forming an end base from which side walls extend so as to form the gas discharge space, and the electromagnetic wave being able to be coupled into the end base, characterized in that the device comprises a coaxial conductor, and that the coaxial conductor is arranged so it is at least partially embedded in the dielectric and at its end comprises a coupling pin or a coupling coil which is arranged so it is embedded in the dielectric, and that the electromagnetic wave can be coupled into the end base by means of the coupling pin or the coupling coil of the coaxial conductor. a generator for generating an electromagnetic wave; a waveguide; and a gas discharge chamber with a gas discharge space in which the excited and/or ionized particles are formed, and with a dielectric in which the gas discharge space is formed, the gas discharge chamber being arranged inside the waveguide, the dielectric forming an end base from which side walls extend so as to form the gas discharge space, and the electromagnetic wave being able to be coupled into the end base, characterized in that the device comprises a coaxial conductor, and that the coaxial conductor is arranged so it is at least partially embedded in the dielectric and at its end comprises a coupling pin or a coupling coil which is arranged so it is embedded in the dielectric, and that the electromagnetic wave can be coupled into the end base by means of the coupling pin or the coupling coil of the coaxial conductor.
A composition for preparing an article, preform or container comprising: a) 80-98.5 parts by weight of a base polyester; b) 0.5-20 parts by weight of a copolyester-ether, wherein the copolyester-ether comprises one or more polyester segments and one or more polyether segments, wherein the one or more polyether segments are present in an amount of 5 to 95 wt.-% of the copolyester-ether; c) a transition metal-based oxidation catalyst; and d) a monomeric, oligomeric or polymeric hindered amine light stabilizer (HALS) in an amount of 15 - 10,000 ppm, on basis of the weight of the stabilizer in the total composition, wherein the HALS is represented by the formula or a mixture of compounds of formula, wherein each R 1 independently represents C 1 -C 4 alkyl, R 2 represents H, C 1 -C 4 alkyl, OH, O-C 1 -C 4 alkyl, or a further part of an oligomeric or polymeric HALS, and R 3 represents a further part of a monomeric, oligomeric or polymeric HALS. a) 80-98.5 parts by weight of a base polyester; b) 0.5-20 parts by weight of a copolyester-ether, wherein the copolyester-ether comprises one or more polyester segments and one or more polyether segments, wherein the one or more polyether segments are present in an amount of 5 to 95 wt.-% of the copolyester-ether; c) a transition metal-based oxidation catalyst; and d) a monomeric, oligomeric or polymeric hindered amine light stabilizer (HALS) in an amount of 15 - 10,000 ppm, on basis of the weight of the stabilizer in the total composition, wherein the HALS is represented by the formula or a mixture of compounds of formula, wherein each R 1 independently represents C 1 -C 4 alkyl, R 2 represents H, C 1 -C 4 alkyl, OH, O-C 1 -C 4 alkyl, or a further part of an oligomeric or polymeric HALS, and R 3 represents a further part of a monomeric, oligomeric or polymeric HALS.
A zirconia sintered body, comprising: partially-stabilized zirconia in which yttrium oxide is included from 2mol% to 5mol%; and silicon dioxide, wherein: the zirconia sintered body comprises partially-stabilized zirconia as a matrix phase; the zirconia sintered body includes phosphorus; the phosphorus element is included from 4×10 -4 mol to 4×10 -2 mol relative to 1mol of zirconium oxide; the silicon dioxide is included from 0.05mass% to 1mass% to the partially-stabilized zirconia particles; and a sintered surface of the zirconia sintered body includes more cubic crystals than an interior of the zirconia sintered body. partially-stabilized zirconia in which yttrium oxide is included from 2mol% to 5mol%; and silicon dioxide, wherein: the zirconia sintered body comprises partially-stabilized zirconia as a matrix phase; the zirconia sintered body includes phosphorus; the phosphorus element is included from 4×10 -4 mol to 4×10 -2 mol relative to 1mol of zirconium oxide; the silicon dioxide is included from 0.05mass% to 1mass% to the partially-stabilized zirconia particles; and the zirconia sintered body comprises partially-stabilized zirconia as a matrix phase; the zirconia sintered body includes phosphorus; the phosphorus element is included from 4×10 -4 mol to 4×10 -2 mol relative to 1mol of zirconium oxide; the silicon dioxide is included from 0.05mass% to 1mass% to the partially-stabilized zirconia particles; and
Single-chip computer - which comprises at least one first processor core and at least one second processor core which are produced on a shared chip and which are coupled to one another via a processor interface for the purpose of transferring data from the at least one first processor core to the at least one second processor core and/or for the purpose of transferring data from the at least one second processor core to the at least one first processor core, - which comprises a shared memory interface for the at least one first processor core and the at least one second processor core, and data can be read from and/or stored in a shared data memory via the shared memory interface, and - which comprises an encryption and decryption unit (KRYPT) which is associated with the at least one second processor core and which is designed and arranged between the at least one second processor core and the memory interface such that the data which can be interchanged between the at least one second processor core and the data memory can be encrypted and decrypted by the encryption and decryption unit (KRYPT), - wherein the memory interface is coupled to the at least one first processor core via a first buffer store - and wherein the memory interface is coupled to the at least one second processor core via the encryption and decryption unit (KRYPT) and a second buffer store. - which comprises at least one first processor core and at least one second processor core which are produced on a shared chip and which are coupled to one another via a processor interface for the purpose of transferring data from the at least one first processor core to the at least one second processor core and/or for the purpose of transferring data from the at least one second processor core to the at least one first processor core, - which comprises a shared memory interface for the at least one first processor core and the at least one second processor core, and data can be read from and/or stored in a shared data memory via the shared memory interface, and - which comprises an encryption and decryption unit (KRYPT) which is associated with the at least one second processor core and which is designed and arranged between the at least one second processor core and the memory interface such that the data which can be interchanged between the at least one second processor core and the data memory can be encrypted and decrypted by the encryption and decryption unit (KRYPT), - wherein the memory interface is coupled to the at least one first processor core via a first buffer store - and wherein the memory interface is coupled to the at least one second processor core via the encryption and decryption unit (KRYPT) and a second buffer store.
A method for locating a service of a particular type provided by a service provider (104, 122), said method comprising: performing a reverse domain name server, DNS, search using an IP address of an end user device which has requested said particular type of service; and retrieving at least one entry associated with said service from a DNS (106, 124) based on said reverse DNS search, characterized in that said at least one entry is at least one Uniform Resource Locator, URL, which points toward a service provider of said service of said particular type wherein said particular type of service is a payment service, said service provider is one of an operator and a payment provider and wherein said at least one URL points toward at least one billing gateway with which said one of said operator and said payment provider can interact to accept payments. performing a reverse domain name server, DNS, search using an IP address of an end user device which has requested said particular type of service; and retrieving at least one entry associated with said service from a DNS (106, 124) based on said reverse DNS search, characterized in that said at least one entry is at least one Uniform Resource Locator, URL, which points toward a service provider of said service of said particular type wherein said particular type of service is a payment service, said service provider is one of an operator and a payment provider and wherein said at least one URL points toward at least one billing gateway with which said one of said operator and said payment provider can interact to accept payments.
A method for improving the productivity of grinding plants, the method comprising the steps of: - reaching the optimum wear geometry of the grinding units by conventional operation of the grinding plant, the optimum wear geometry being present when the specific energy requirement of the grinding plant reaches a minimum at a prespecified throughput, and - preserving the optimal wear geometry, wherein the energy requirement is continuously measured and recorded during the grinding method to verify when the optimal wear geometry is reached, and the optimal wear geometry is preserved by applying a thin wear protection layer to the surface of the grinding units (1, 2). - reaching the optimum wear geometry of the grinding units by conventional operation of the grinding plant, the optimum wear geometry being present when the specific energy requirement of the grinding plant reaches a minimum at a prespecified throughput, and - preserving the optimal wear geometry,