mhurhangee/ep-ind-claims huggingface dataset:
A method in a radio network node, for wireless communication with a user equipment in a wireless communication system in antenna streams, wherein the radio network node comprises a plurality of antenna elements (210-1, 210-2,..., 210-n), forming a multiple antenna array which is configured for massive Multiple Input Multiple Output, MIMO, transmission, the method comprising: beamforming a signal to be transmitted to the user equipment by splitting and phase shifting said signal; detecting a peak of power of one beamformed signal, exceeding a threshold value; manipulating said signal until the peak of power of the signal is lower than said threshold value; and transmitting said signal, to be received by the user equipment; wherein the manipulation of the signal comprises: further phase shifting said signal until the peak of power of the signal is lower than said threshold value; estimating power loss and phase error on the further phase shifted signal, as perceived by the user equipment; and compensating said signal for the further phase shift, based on the estimated power loss and phase error. beamforming a signal to be transmitted to the user equipment by splitting and phase shifting said signal; detecting a peak of power of one beamformed signal, exceeding a threshold value; manipulating said signal until the peak of power of the signal is lower than said threshold value; and transmitting said signal, to be received by the user equipment; wherein the manipulation of the signal comprises: further phase shifting said signal until the peak of power of the signal is lower than said threshold value; estimating power loss and phase error on the further phase shifted signal, as perceived by the user equipment; and compensating said signal for the further phase shift, based on the estimated power loss and phase error. further phase shifting said signal until the peak of power of the signal is lower than said threshold value; estimating power loss and phase error on the further phase shifted signal, as perceived by the user equipment; and compensating said signal for the further phase shift, based on the estimated power loss and phase error.
Method for ironing laundry items, wherein at least one ironer smooths out the laundry items and, in the process, definitively dries them in that, as they pass through the at least one ironer, the laundry items are transported along a heatable ironing surface (14, 27) of the at least one ironer, characterized in that laundry items of different types are ironed in an unsorted state, in any desired order, by the ironers or the respective ironer being heated such that the ironing surface (14, 27) or ironing surfaces (14, 27) thereof are at any ironing temperature which corresponds to, or lies below, the ironing temperature of the most delicate laundry items to be ironed, by the ironing temperature being reduced at least to the maximum admissible temperature for the most delicate laundry items, wherein the ironer or the ironers together has or have an ironing path (16, 33) which the laundry items cover as they pass through the ironer or the ironers and which, with the ironing temperature adapted and/or reduced, is sufficient in order also for less delicate laundry items and laundry items which allow a relatively high ironing temperature to be satisfactorily smoothed out and dried and/or, for the purpose of compensating for the ironing temperature which is reduced for adaptation to delicate laundry items, the ironing speed is reduced such that the energy supply which is necessary for sufficiently smoothing out and drying non-delicate laundry items corresponds to the energy used for ironing non-delicate laundry items at maximum ironing temperature.
A mutant Family A DNA polymerase comprising a polypeptide sequence, said polypeptide sequence comprising SEQ ID NO:12 or SEQ ID NO:14, wherein said mutant Family A DNA polymerase forms ternary complexes with primed template nucleic acid molecules and cognate nucleotides, and wherein said mutant Family A DNA polymerase is substantially incapable of magnesium-catalyzed phosphodiester bond formation.
A container-type data center (20; 50), comprising a container, at least three rows of cabinets (201, 202, 203, 204; 501, 502, 503, 504), and data processing devices, wherein the data processing devices are disposed in the cabinets, the at least three rows of the cabinets are disposed in parallel and perpendicular to a long edge (21; 51) of the container, two neighboring rows of the cabinets of the at least three rows of the cabinets are back-against-back disposed or disposed at intervals, and when the two neighboring rows of the cabinets are disposed at intervals, a maintenance channel is formed from the space between the two neighboring rows of the cabinets; characterised in that the at least three rows of the cabinets are arranged from one long edge of the container to the other long edge, two ends of the maintenance channel are the long edges of the container, and the container-type data center comprises an openable or removable partition door (205,206,207; 506, 507) on the long edge of one end or two ends.
Flipper having a foldable flipper blade, whereby the front part of the flipper blade can be folded downward and rearward by 180 degrees as far as the underside of the rear part of the flipper blade and can be fixed to the underside of the rear part, wherein a locking device is provided on the upper side of the flipper blade for folding down and re-arresting after the front part of the flipper blade has been folded forward, characterized in that the locking device has a pull cable for unlocking and elastic elements for locking.
A method, comprising: performing, at one or more computing devices: determining, by a job scheduler, that a set of resources activated on behalf of a client (C1, C2) is insufficient to execute a plurality of jobs (154, 290) of the client; preparing, by a job scheduler, a multi-dimensional statistical representation (312A, 330) of resource requirements corresponding to at least a subset of the plurality of jobs (154, 290) in response to determining that the set of resources activated on behalf of the client is insufficient to execute the plurality of jobs, wherein a first dimension of the statistical representation corresponds to a statistical distribution of processing requirements of the plurality of jobs, and wherein a second dimension of the statistical representation corresponds to a statistical distribution of memory requirements of the plurality of jobs; determining, at a resource controller, based at least in part on a constraint indicated by the client (C1, C2), and based at least in part on the multi-dimensional statistical representation, that one or more resources are to be activated for the plurality of jobs; and causing, by the resource controller, an activation of the one or more resources. determining, by a job scheduler, that a set of resources activated on behalf of a client (C1, C2) is insufficient to execute a plurality of jobs (154, 290) of the client; preparing, by a job scheduler, a multi-dimensional statistical representation (312A, 330) of resource requirements corresponding to at least a subset of the plurality of jobs (154, 290) in response to determining that the set of resources activated on behalf of the client is insufficient to execute the plurality of jobs, wherein a first dimension of the statistical representation corresponds to a statistical distribution of processing requirements of the plurality of jobs, and wherein a second dimension of the statistical representation corresponds to a statistical distribution of memory requirements of the plurality of jobs; determining, at a resource controller, based at least in part on a constraint indicated by the client (C1, C2), and based at least in part on the multi-dimensional statistical representation, that one or more resources are to be activated for the plurality of jobs; and causing, by the resource controller, an activation of the one or more resources.
A seed-firming wheel to be used in an agricultural sowing machine and/or single-grain sowing machine with a sowing coulter or an implement that makes seed furrows, as well as with tubes and/or pipes that convey seeds to the seed furrows, and with a seed-firming wheel arranged downstream thereto; wherein the seed-firming wheel has a wheel rim that accommodates a bearing, with a disc-type or a cavity-forming rim disc that is manufactured from an elastic or, as the case may be, from a flexible material connecting to said wheel rim; wherein a largely dimensionally stable ring element is attached to the circumference of the rim disc; wherein the circumference of the ring element forms the tread of the seed-firming wheel; wherein the rim disc is formed from rubber material and/or synthetic material; characterised in that the ring element is formed from a metallic material.
A pressure and/or flow regulating valve for regulating pressures within a portion of an irrigation system, wherein the valve is arranged to also shut off downstream flow into the portion of the irrigation system in response to an incoming command arriving via an incoming port into the valve, wherein the regulating valve comprising a flow stem movable in upstream and downstream directions in order to regulate the pressure downstream of the valve, wherein upstream and downstream movements of the flow stem change a passage formed between the flow stem and a plug member of the regulating valve, wherein increase and decrease of the passage affects increase and decrease in pressure downstream of the valve, respectively and wherein the incoming command is arranged to bias the plug member from a home state to an operative state where it shuts off the downstream flow. wherein the regulating valve comprising a flow stem movable in upstream and downstream directions in order to regulate the pressure downstream of the valve, wherein upstream and downstream movements of the flow stem change a passage formed between the flow stem and a plug member of the regulating valve, wherein increase and decrease of the passage affects increase and decrease in pressure downstream of the valve, respectively and wherein the incoming command is arranged to bias the plug member from a home state to an operative state where it shuts off the downstream flow.
A device (14A, 14B) for securing a structure foot for its disassembly by cutting, comprising: - a lower portion (16A, 18A, 16B, 18B) provided with means for fastening to the structure foot below a cutting area of the structure foot; and - an upper portion (22A, 22B) provided with means for fastening to the structure foot above the cutting area; wherein these two portions are two separate pieces and: - one of the lower and upper portions (16A, 18A, 16B, 18B, 22A, 22B) is integral with a hinge link arm (18A, 18B) by fastening an end of the hinge link arm to that lower or upper portion; and - the other of the lower and upper portions (16A, 18A, 16B, 18B, 22A, 22B) is integral with a receiving ring (22A, 22B) of the hinge link arm, the hinge link arm and the receiving ring being shaped for sliding insertion and disengagement of the hinge link arm into the receiving ring. - a lower portion (16A, 18A, 16B, 18B) provided with means for fastening to the structure foot below a cutting area of the structure foot; and - an upper portion (22A, 22B) provided with means for fastening to the structure foot above the cutting area; wherein these two portions are two separate pieces and: - one of the lower and upper portions (16A, 18A, 16B, 18B, 22A, 22B) is integral with a hinge link arm (18A, 18B) by fastening an end of the hinge link arm to that lower or upper portion; and - the other of the lower and upper portions (16A, 18A, 16B, 18B, 22A, 22B) is integral with a receiving ring (22A, 22B) of the hinge link arm, - one of the lower and upper portions (16A, 18A, 16B, 18B, 22A, 22B) is integral with a hinge link arm (18A, 18B) by fastening an end of the hinge link arm to that lower or upper portion; and - the other of the lower and upper portions (16A, 18A, 16B, 18B, 22A, 22B) is integral with a receiving ring (22A, 22B) of the hinge link arm, the hinge link arm and the receiving ring being shaped for sliding insertion and disengagement of the hinge link arm into the receiving ring.
A method of preparing acetylene (C 2 H 2), the method at least comprising the steps of: a) providing a methane-containing stream; b) subjecting the methane-containing stream provided in step a) to non-catalytic pyrolysis, thereby obtaining carbon and hydrogen; c) reacting the carbon obtained in step b) with CaO, thereby obtaining CaC 2 and CO; d) reacting the CaC 2 obtained in step c) with H 2 O, thereby obtaining acetylene (C 2 H 2) and Ca 2; e) decomposing the Ca 2 obtained in step d), thereby obtaining CaO and H 2 O; f) using the CaO as obtained in step e) in the reaction of step c). a) providing a methane-containing stream; b) subjecting the methane-containing stream provided in step a) to non-catalytic pyrolysis, thereby obtaining carbon and hydrogen; c) reacting the carbon obtained in step b) with CaO, thereby obtaining CaC 2 and CO; d) reacting the CaC 2 obtained in step c) with H 2 O, thereby obtaining acetylene (C 2 H 2) and Ca 2; e) decomposing the Ca 2 obtained in step d), thereby obtaining CaO and H 2 O; f) using the CaO as obtained in step e) in the reaction of step c).
A method for producing a sliding board, the method comprising: bonding one or more solid components with one or more enhanced structural sections to produce a core layer, a first enhanced structural section of the one or more enhanced structural sections including a corrugated medium, the corrugated medium comprising a plurality of flutes extending laterally across a width of the core layer; extending the core layer between a first layer and a second layer; and moving one or more of the first layer or the second layer toward the core layer. bonding one or more solid components with one or more enhanced structural sections to produce a core layer, a first enhanced structural section of the one or more enhanced structural sections including a corrugated medium, the corrugated medium comprising a plurality of flutes extending laterally across a width of the core layer; extending the core layer between a first layer and a second layer; and moving one or more of the first layer or the second layer toward the core layer.
A process for manufacturing a composition comprising cellulose pulp fibers and thermoplastic fibers wherein said process comprises the step of: a) mixing a refined pulp suspension with a water suspension of non-refined thermoplastic fibers. a) mixing a refined pulp suspension with a water suspension of non-refined thermoplastic fibers.
A computer implemented method (200, 204) for determining a footprint of a structure, comprising the steps of: identifying (208, 258) edges (108, 110) of facets of a structure by analyzing one or more electronic files stored in one or more non-transitory memories, the one or more electronic files being indicative of multiple geo-referenced oblique images, wherein said multiple geo-referenced oblique images have been obtained using oblique aerial imagery or oblique terrestrial imagery; determining three-dimensional information of the edges including position, orientation and relative lengths of the edges using the multiple geo-referenced oblique images, wherein the multiple geo-referenced oblique images include geo-referenced images from each cardinal direction and show all the facets of the structure; determining a ground location of each facet of the structure; determining (273, 274, 275, 276, 277), automatically, at least one line segment of a portion of a footprint of the structure at a base of the structure utilizing at least one of the relative position and orientation of the edges, by determining a horizontal line extending the entire length between two vertical edges of a facet at the base of the structure or extending the entire length between two vertical edges of a facet and parallel to a horizontal edge of a roof of the structure, if a lowest horizontal line is not at the base of the structure; and forming a footprint of the structure using the at least one line segment. identifying (208, 258) edges (108, 110) of facets of a structure by analyzing one or more electronic files stored in one or more non-transitory memories, the one or more electronic files being indicative of multiple geo-referenced oblique images, wherein said multiple geo-referenced oblique images have been obtained using oblique aerial imagery or oblique terrestrial imagery; determining three-dimensional information of the edges including position, orientation and relative lengths of the edges using the multiple geo-referenced oblique images, wherein the multiple geo-referenced oblique images include geo-referenced images from each cardinal direction and show all the facets of the structure; determining a ground location of each facet of the structure; determining (273, 274, 275, 276, 277), automatically, at least one line segment of a portion of a footprint of the structure at a base of the structure utilizing at least one of the relative position and orientation of the edges, by determining a horizontal line extending the entire length between two vertical edges of a facet at the base of the structure or extending the entire length between two vertical edges of a facet and parallel to a horizontal edge of a roof of the structure, if a lowest horizontal line is not at the base of the structure; and forming a footprint of the structure using the at least one line segment.
An exhaust aftertreatment assembly comprising a structural component for receiving an internal combustion engine combustion gasses through an inlet, the inlet being integral with the said structural component, characterized by the structural component having an annular mounting surface integral with a bottom face of the structural component formed about a given axis, said structural component having internal flow passages (52, 54, 56, 82, 84) for directing flow of said combustion gasses from said inlet toward a direction substantially parallel with said given axis; a tubular shell structurally connected to said annular surface; and, at least one exhaust aftertreatment device positioned in and carried by said tubular shell, wherein the exhaust aftertreatment device is substantially supported by said structural component, wherein said structural component is a casting and said casting has multiple mounting bosses for providing a structural interconnection between the exhaust aftertreatment assembly and the frame of a vehicle with which the exhaust aftertreatment assembly is utilized.
Slipform paver system, having a slipform paver and at least one electric power supply unit, wherein the slipform paver has: - a plurality of components, each coupled to an electric drive unit (EA1, EA2, EA3, EA4), - a receiving unit, designed for receiving and fastening the at least one electric power supply unit, and - an electric connection unit, electrically coupled to the electric drive units (EA1, EA2, EA3, EA4) and designed for electrical coupling to the at least one electric power supply unit, wherein the at least one electric power supply unit is arrangeable or arranged on the receiving unit of the slipform paver and is fastenable or fastened to the electric power supply unit and is electrically couplable or coupled to the electric connection unit of the slipform paver, wherein the at least one electric power supply unit has: - an electric generator and a heat engine coupled to the electric generator in order to drive it, - an electrochemical energy storage unit, - a fuel cell unit and/or - a photovoltaic unit, wherein all the components of the at least one electric power supply unit are mechanically connected to each other, and wherein the at least one electric power supply unit has a carrier unit on and/or in which all the other components of the at least one electric power supply unit are arranged. - a plurality of components, each coupled to an electric drive unit (EA1, EA2, EA3, EA4), - a receiving unit, designed for receiving and fastening the at least one electric power supply unit, and - an electric connection unit, electrically coupled to the electric drive units (EA1, EA2, EA3, EA4) and designed for electrical coupling to the at least one electric power supply unit, wherein the at least one electric power supply unit is arrangeable or arranged on the receiving unit of the slipform paver and is fastenable or fastened to the electric power supply unit and is electrically couplable or coupled to the electric connection unit of the slipform paver, wherein the at least one electric power supply unit has: - an electric generator and a heat engine coupled to the electric generator in order to drive it, - an electrochemical energy storage unit, - a fuel cell unit and/or - a photovoltaic unit, - an electric generator and a heat engine coupled to the electric generator in order to drive it, - an electrochemical energy storage unit, - a fuel cell unit and/or - a photovoltaic unit, wherein all the components of the at least one electric power supply unit are mechanically connected to each other, and wherein the at least one electric power supply unit has a carrier unit on and/or in which all the other components of the at least one electric power supply unit are arranged.
A pharmaceutical composition comprising: a high purity diaminophenothiazinium compound of the following formula: wherein high purity is characterised by a purity of greater than 99% (weight/weight) and an elementals purity that is equal to or better than the European Pharmacopeia (EP5.4) limits, namely: (i) a chromium purity that is equal to or better than 100 μg/g; (ii) a copper purity that is equal to or better than 300 μg/g; (iii) an iron purity that is equal to or better than 200 μg/g; (iv) an aluminium purity that is equal or better than 100 μg/g; (v) a cadmium purity that is equal or better than 1 μg/g; (vi) a tin purity that is equal or better than 10 μg/g; (vii) a manganese purity that is equal or better than 10 μg/g; (viii) a mercury purity that is equal or better than 1 μg/g; (ix) a molybdenum purity that is equal or better than 10 μg/g; (x) a nickel purity that is equal or better than 10 μg/g; (xi) a lead purity that is equal or better than 10 μg/g; (xii) a zinc purity that is equal or better than 100 μg/g; and a pharmaceutically acceptable carrier, diluent or excipient. (i) a chromium purity that is equal to or better than 100 μg/g; (ii) a copper purity that is equal to or better than 300 μg/g; (iii) an iron purity that is equal to or better than 200 μg/g; (iv) an aluminium purity that is equal or better than 100 μg/g; (v) a cadmium purity that is equal or better than 1 μg/g; (vi) a tin purity that is equal or better than 10 μg/g; (vii) a manganese purity that is equal or better than 10 μg/g; (viii) a mercury purity that is equal or better than 1 μg/g; (ix) a molybdenum purity that is equal or better than 10 μg/g; (x) a nickel purity that is equal or better than 10 μg/g; (xi) a lead purity that is equal or better than 10 μg/g; (xii) a zinc purity that is equal or better than 100 μg/g;