mhurhangee/patent-ind-claim-en huggingface dataset:
Solid-Liquid-Solid hydrometallurgical method for the solubilization of metals from minerals and/or concentrates of sulfide minerals of primary and/or secondary origin containing them, CHARACTERIZED in that said method comprises the following sequential and/or overlapped steps: I. Wetting, wherein the mineral or concentrate is wetted by the addition of water or water-acid and hydrated and/or non-hydrated chloride salts; II. Drying and Oversaturation, wherein the wetted mineral is dried by vaporization and/or evaporation, which may be carried out both in the heap as in the conveyor belt, generating oversaturation conditions, crystallization and recrystallization of salts, thus enhancing chemical and physical weathering, and haloclasty on the mineral or concentrate, and III . Washing and Re-wetting, wherein an acidulated solution with or without chlorine is added to remove the target metal species precipitated in the second step of the process, also allowing to re-wet the mineral or concentrate in order to restore the optimal concentration of chloride and moisture to the bed, wherein if the method is in continuous regime, the mineral or concentrate in step I is contacted with recirculating solutions of the same process that may contain chloride, iron and copper ions, in an unsaturated environment, and wherein the three steps are carried out independently of the REDOX potential of the medium. I. Wetting, wherein the mineral or concentrate is wetted by the addition of water or water-acid and hydrated and/or non-hydrated chloride salts; II. Drying and Oversaturation, wherein the wetted mineral is dried by vaporization and/or evaporation, which may be carried out both in the heap as in the conveyor belt, generating oversaturation conditions, crystallization and recrystallization of salts, thus enhancing chemical and physical weathering, and haloclasty on the mineral or concentrate, and III . Washing and Re-wetting, wherein an acidulated solution with or without chlorine is added to remove the target metal species precipitated in the second step of the process, also allowing to re-wet the mineral or concentrate in order to restore the optimal concentration of chloride and moisture to the bed, wherein if the method is in continuous regime, the mineral or concentrate in step I is contacted with recirculating solutions of the same process that may contain chloride, iron and copper ions, in an unsaturated environment, and wherein the three steps are carried out independently of the REDOX potential of the medium.
Arrangement for optimizing a weaving process comprising a control device , a number of weft insertion channel elements , each weft insertion channel element being allocated in the control device to one weft insertion channel, and a bobbin rack with a number of platforms each having a weft thread property identifying sensor , wherein weft threads of bobbins placed on at least some of the platforms are fed to at least some of the weft insertion channel elements , and wherein the control device is arranged to drive at least one of the number of weft insertion channel elements for drawing off the at least one weft thread fed to said weft insertion channel element from the associated bobbin placed on a platform , characterized in that at least at some of the platforms a weft thread movement detector arranged for detecting a weft thread movement is provided, and in that the control device is further arranged to determine the platform of the bobbin from which the at least one weft thread is drawn off by evaluating detector signals of the weft thread movement detectors provided at the platforms , and to identify at least one weft thread property of the at least one weft thread fed to the weft insertion channel element by evaluating a sensor signal of the weft thread property identifying sensor provided at the determined platform .
A compound represented by Formula (I): wherein R 1 is a methyl group or an ethyl group; R 2 , R 3 , R 4 , R 5 , and R 6 are each independently a hydrogen atom, a linear or branched alkyl or alkenyl group from 1 to 5 carbons, an alkoxy group, a hydroxyl group, a substituted or unsubstituted phenyl group, or where R 3 and R 4 together are selected from a group consisting of -OCH 2 O-, -OCH 2 CH 2 -, -OCH 2 CH 2 O-, or -OCH 2 CH 2 CH 2 -; X is a group containing one to five linear or branched carbon atoms; and Y is represented by an oxygen atom; provided that the compound is not 2-Phenoxyethyl-2-(4-hydroxy-3-methoxyphenyl) acetate. R 1 is a methyl group or an ethyl group; R 2 , R 3 , R 4 , R 5 , and R 6 are each independently a hydrogen atom, a linear or branched alkyl or alkenyl group from 1 to 5 carbons, an alkoxy group, a hydroxyl group, a substituted or unsubstituted phenyl group, or where R 3 and R 4 together are selected from a group consisting of -OCH 2 O-, -OCH 2 CH 2 -, -OCH 2 CH 2 O-, or -OCH 2 CH 2 CH 2 -; X is a group containing one to five linear or branched carbon atoms; and Y is represented by an oxygen atom; provided that the compound is not 2-Phenoxyethyl-2-(4-hydroxy-3-methoxyphenyl) acetate.
A supporting member to support cabling , which comprises: - at least one cable ; - a first and a second connector electrically connected to each other through said cable ; - an attachment portion having the shape and size such as to be connected, in use, to said first connector ; - an arm comprising a first and a second end portion opposite to each other; said first end portion being fixed with respect to said attachment portion ; and - retention means to keep said cable coupled to said arm ; characterized in that the arm is elastically flexible so as to enable a distancing of said second end portion from said attachment portion . - at least one cable ; - a first and a second connector electrically connected to each other through said cable ; - an attachment portion having the shape and size such as to be connected, in use, to said first connector ; - an arm comprising a first and a second end portion opposite to each other; said first end portion being fixed with respect to said attachment portion ; and - retention means to keep said cable coupled to said arm ; characterized in that the arm is elastically flexible so as to enable a distancing of said second end portion from said attachment portion .
A composition for forming α gel comprising: polyoxyethylene dialkyl ester and/or polyoxyethylene dialkyl ether represented by the following formula (I), polyoxyethylene alkyl ester and/or polyoxyethylene alkyl ether represented by the following formula (II), and polyoxyethylene sterol ether represented by the following formula (III): wherein in the formula (I), R1 and R2 each represent a straight-chain aliphatic acid residue or a straight-chain aliphatic alcohol residue having 16 to 24 carbon atoms, and n represents an integer of 4 to 15, in the formula (II), R represents a straight-chain aliphatic acid residue or a straight-chain aliphatic alcohol residue having 16 to 24 carbon atoms, and n represents an integer of 8 to 30,: and in the formula (III), R3 represents a cholesterol and/or phytosterol residue, and n represents an integer of 5 to 30, wherein water is blendec in the composition polyoxyethylene dialkyl ester and/or polyoxyethylene dialkyl ether represented by the following formula (I), polyoxyethylene alkyl ester and/or polyoxyethylene alkyl ether represented by the following formula (II), and polyoxyethylene sterol ether represented by the following formula (III): wherein in the formula (I), R1 and R2 each represent a straight-chain aliphatic acid residue or a straight-chain aliphatic alcohol residue having 16 to 24 carbon atoms, and n represents an integer of 4 to 15, in the formula (II), R represents a straight-chain aliphatic acid residue or a straight-chain aliphatic alcohol residue having 16 to 24 carbon atoms, and n represents an integer of 8 to 30,: and in the formula (III), R3 represents a cholesterol and/or phytosterol residue, and n represents an integer of 5 to 30, wherein water is blendec in the composition
Goods display stand comprising a rear wall with side walls hinged thereto on both sides, wherein the side walls are formed with an outer layer and an inner layer at least in a region adjoining vertical outer edges , at least one goods carrier , comprising a bottom and a front wall formed in multiple layers, the bottom extending between the rear wall and the side walls , characterized in that a fixing tab is punched out of each side wall and extends over a section of the outer layer and a section of the inner layer , the free end being punched out of the inner layer and the fixed end being pivotably hinged to the outer layer of the side wall , wherein the fixed end and the free end are connected to one another via a bending line arranged parallel to the vertical outer edge in the region of the outer layer and can be bent relative to one another, wherein, in the use state, at least the part punched out of the inner layer is inserted into the front wall of the goods display stand . a rear wall with side walls hinged thereto on both sides, wherein the side walls are formed with an outer layer and an inner layer at least in a region adjoining vertical outer edges , at least one goods carrier , comprising a bottom and a front wall formed in multiple layers, the bottom extending between the rear wall and the side walls , characterized in that a fixing tab is punched out of each side wall and extends over a section of the outer layer and a section of the inner layer , the free end being punched out of the inner layer and the fixed end being pivotably hinged to the outer layer of the side wall , wherein the fixed end and the free end are connected to one another via a bending line arranged parallel to the vertical outer edge in the region of the outer layer and can be bent relative to one another, wherein, in the use state, at least the part punched out of the inner layer is inserted into the front wall of the goods display stand .
A method for producing a convolute paper core of a desired width and thickness, comprising: unwinding paper from a paper roll, thereby creating unwound paper ; conveying said unwound paper to a cutting position in a feeding direction; cutting said unwound paper , thereby creating a paper sheet having a length L; conveying said paper sheet from said cutting position to a mandrel in a winding direction, wherein said winding direction is perpendicular to said feeding direction; adhesively and convolutely winding said paper sheet on said mandrel so as to produce a paper core , so that a width W of said paper core is equal to said length L; and repeating the steps of unwinding, conveying, cutting, conveying and adhesively and convolutely winding a plurality of paper sheets until said paper core has the desired thickness, wherein a subsequent paper sheet is conveyed to said mandrel and placed adjacent to or in contact with a preceding paper sheet before said preceding paper sheet is completely wound by said mandrel so as to form a sheet with a uniform thickness comprising both of the individual sheets. unwinding paper from a paper roll, thereby creating unwound paper ; conveying said unwound paper to a cutting position in a feeding direction; cutting said unwound paper , thereby creating a paper sheet having a length L; conveying said paper sheet from said cutting position to a mandrel in a winding direction, wherein said winding direction is perpendicular to said feeding direction; adhesively and convolutely winding said paper sheet on said mandrel so as to produce a paper core , so that a width W of said paper core is equal to said length L; and repeating the steps of unwinding, conveying, cutting, conveying and adhesively and convolutely winding a plurality of paper sheets until said paper core has the desired thickness, wherein a subsequent paper sheet is conveyed to said mandrel and placed adjacent to or in contact with a preceding paper sheet before said preceding paper sheet is completely wound by said mandrel so as to form a sheet with a uniform thickness comprising both of the individual sheets.
A method including: limiting a rate of injections of computing requests into a distributed computing cluster according to a second parameter specifying the rate of injection of computing requests, wherein the distributed computing system includes: a plurality of computing nodes interconnected by an interconnect network over which the computing nodes of the plurality of computing nodes communicate with each other by passing messages, each of at least some of the computing nodes being configured with a first parameter governing transmissions of messages by the computing node over the interconnect network, wherein the first parameter includes a delay parameter governing a minimum time interval between transmission of messages by the computing node over the interconnect network; accumulating, at the at least some computing nodes, messages for transmission as a group of messages according to the first parameter, wherein the at least some computing nodes are configured to accumulate messages for transmission as a group of messages during the minimum time interval; receiving, at a controller , at least one predetermined service level requirement, and controlling, using the controller, a value of the second parameter and a value of the first parameter based on a processing latency of the distributed computing cluster and a rate of output of the distributed computing cluster to control a computational throughput of the distributed computing cluster while complying with the at least one service level requirement. limiting a rate of injections of computing requests into a distributed computing cluster according to a second parameter specifying the rate of injection of computing requests, wherein the distributed computing system includes: a plurality of computing nodes interconnected by an interconnect network over which the computing nodes of the plurality of computing nodes communicate with each other by passing messages, each of at least some of the computing nodes being configured with a first parameter governing transmissions of messages by the computing node over the interconnect network, wherein the first parameter includes a delay parameter governing a minimum time interval between transmission of messages by the computing node over the interconnect network; accumulating, at the at least some computing nodes, messages for transmission as a group of messages according to the first parameter, wherein the at least some computing nodes are configured to accumulate messages for transmission as a group of messages during the minimum time interval; receiving, at a controller , at least one predetermined service level requirement, and controlling, using the controller, a value of the second parameter and a value of the first parameter based on a processing latency of the distributed computing cluster and a rate of output of the distributed computing cluster to control a computational throughput of the distributed computing cluster while complying with the at least one service level requirement.
A working machine comprising: a working unit configured to perform a work; a battery ; a control unit ; and an operation unit configured to accept an operation of controlling an operating state of the working unit , wherein the control unit changes the operation mode based on the operation input to the operation unit and the operation unit includes a first operator and a second operator , wherein the working unit is set in the operating state when a user operates the second operator while operating the first operator , characterized in that , the control unit has, as operation modes, a normal mode in which the working unit is operable based on power of the battery , and a power saving mode in which the working unit is made inoperable by limiting some of functions, as compared with the normal mode, and power consumption of the battery by the control unit is suppressed, as compared with the normal mode, the control unit is set in the normal mode when the user operates the first operator , the control unit is set in the power saving mode when the user releases the operation of the first operator , and the control unit is set in a stop state in which all the functions are limited, when a remaining amount of the battery becomes smaller than a reference value. a working unit configured to perform a work; a battery ; a control unit ; and an operation unit configured to accept an operation of controlling an operating state of the working unit , wherein the control unit changes the operation mode based on the operation input to the operation unit and the operation unit includes a first operator and a second operator , wherein the working unit is set in the operating state when a user operates the second operator while operating the first operator , characterized in that , the control unit has, as operation modes, a normal mode in which the working unit is operable based on power of the battery , and a power saving mode in which the working unit is made inoperable by limiting some of functions, as compared with the normal mode, and power consumption of the battery by the control unit is suppressed, as compared with the normal mode, the control unit is set in the normal mode when the user operates the first operator , the control unit is set in the power saving mode when the user releases the operation of the first operator , and the control unit is set in a stop state in which all the functions are limited, when a remaining amount of the battery becomes smaller than a reference value.
A polyolefin-based hot melt adhesive composition comprising: - 20 to 80 wt.-% of at least one polyolefin polymer, - 2 to 20 wt.-% of at least one hydrocarbon wax, and - optionally an antioxidant, wherein the hydrocarbon wax - has a congealing point measured according to ASTM D 938 in a range of 75 to 110° C, - has a heat of fusion determined with differential scanning calorimetry of 200 to 235 J/g; and - is a synthetic Fischer-Tropsch wax. comprising: - 20 to 80 wt.-% of at least one polyolefin polymer, - 2 to 20 wt.-% of at least one hydrocarbon wax, and - optionally an antioxidant, - 20 to 80 wt.-% of at least one polyolefin polymer, - 2 to 20 wt.-% of at least one hydrocarbon wax, and - optionally an antioxidant, wherein the hydrocarbon wax - has a congealing point measured according to ASTM D 938 in a range of 75 to 110° C, - has a heat of fusion determined with differential scanning calorimetry of 200 to 235 J/g; and - is a synthetic Fischer-Tropsch wax. - has a congealing point measured according to ASTM D 938 in a range of 75 to 110° C, - has a heat of fusion determined with differential scanning calorimetry of 200 to 235 J/g; and - is a synthetic Fischer-Tropsch wax.
A flow responsiveness enhancer for improved time responsiveness of a blowout preventer, comprising: at least one section; and a shared pressure line coupled to the at least one section; wherein the at least one section includes: a pair of input ports (A, B); a pair of output ports (A', B'); a first valve system that controls flow from one port of the pair of input ports into the shared pressure line; and a second valve system that controls flow from the shared pressure line into one port of the pair of output ports; and wherein the at least one section is a first section, and further comprising a second section coupled to the shared pressure line, wherein the second section includes: another pair of input ports; another pair of output ports; a third valve system that controls flow from one port of the other pair of input ports into the shared pressure line; and a fourth valve system that controls flow from the shared pressure line into one port of the other pair of output ports. at least one section; and a shared pressure line coupled to the at least one section; wherein the at least one section includes: a pair of input ports (A, B); a pair of output ports (A', B'); a first valve system that controls flow from one port of the pair of input ports into the shared pressure line; and a second valve system that controls flow from the shared pressure line into one port of the pair of output ports; and a pair of input ports (A, B); a pair of output ports (A', B'); a first valve system that controls flow from one port of the pair of input ports into the shared pressure line; and a second valve system that controls flow from the shared pressure line into one port of the pair of output ports; and wherein the at least one section is a first section, and further comprising a second section coupled to the shared pressure line, wherein the second section includes: another pair of input ports; another pair of output ports; a third valve system that controls flow from one port of the other pair of input ports into the shared pressure line; and a fourth valve system that controls flow from the shared pressure line into one port of the other pair of output ports. another pair of input ports; another pair of output ports; a third valve system that controls flow from one port of the other pair of input ports into the shared pressure line; and a fourth valve system that controls flow from the shared pressure line into one port of the other pair of output ports.
A standalone Internet of things IoT gateway comprising: a connection mode determination unit which determines one of a first connection mode and a second connection mode; a first service performing unit which transmits status messages obtained from one or more IoT devices to a smart device of a user through a router or receives control commands for the IoT devices from the smart device of the user through the router and transmits the received control commands to the IoT devices when the first connection mode is determined as a connection mode; and a second service performing unit which transmits the status messages obtained from the IoT devices to a management server through the router or receives the control commands for the IoT devices from the management server through the router and transmits the received control commands to the IoT devices when the second connection mode is determined as the connection mode. a connection mode determination unit which determines one of a first connection mode and a second connection mode; a first service performing unit which transmits status messages obtained from one or more IoT devices to a smart device of a user through a router or receives control commands for the IoT devices from the smart device of the user through the router and transmits the received control commands to the IoT devices when the first connection mode is determined as a connection mode; and a second service performing unit which transmits the status messages obtained from the IoT devices to a management server through the router or receives the control commands for the IoT devices from the management server through the router and transmits the received control commands to the IoT devices when the second connection mode is determined as the connection mode.
A method of manufacturing a positive electrode mixture for all-solid-state batteries, the method comprising: a) mixing a positive electrode active material and a solid electrolyte with each other in a dry state; b) adding an additional solid electrolyte to the mixture of step a) and performing mixing in a wet state; and c) adding a conductive agent to the mixture of step b) and performing mixing in a wet state. a) mixing a positive electrode active material and a solid electrolyte with each other in a dry state; b) adding an additional solid electrolyte to the mixture of step a) and performing mixing in a wet state; and c) adding a conductive agent to the mixture of step b) and performing mixing in a wet state.