mhurhangee/patent-ind-claim-en huggingface dataset:
The fire extinguishing equipment with fire nozzle embodied in the form of a gas-dynamic nozzle , connected to a mixing chamber with inlets for the supply of a compressed gaseous working medium and a supply of a pressurized liquid, in which a chamber for the formation of a two-phase bubble-structured stream is arranged, wherein the fire extinguishing equipment is equipped with a water pump and a compressor , characterized in that the mixing chamber for the formation of a high-speed two-phase dispersive stream of a bubble structure is made in the form of a block of mixers between the front partition and rear partitions , in between which pipe mixers are located, the rear partition is located in the chamber with an option of separating the inlets for the supply of compressed air and inlet for the supply of pressurized liquid, the inlet for the supply of compressed air is situated between the partitions , and inlet orifice of each mixer has a confusor connected to a chamber for the supply of water, the pipe mixers are fitted from the side of the rear partition with side orifices and the opposite sides of the mixers are equipped with diffusors , outlet ends of the diffusors with gaps are located in the orifices of the front partition , and for the entered total flow Pw [l/s] of pressurized water Pw [l/s] from the pressurized water pump the required number of mixers is defined so that as the flow Pw [l/s] of pressurized water Pw [l/s]: through one mixer was 1.9 to 2.1 l/s and the flow Pa [l/s] of compressed air from the compressor Pa [l/s] x through one mixer was 28 to 40 l/s. the mixing chamber for the formation of a high-speed two-phase dispersive stream of a bubble structure is made in the form of a block of mixers between the front partition and rear partitions , in between which pipe mixers are located, the rear partition is located in the chamber with an option of separating the inlets for the supply of compressed air and inlet for the supply of pressurized liquid, the inlet for the supply of compressed air is situated between the partitions , and inlet orifice of each mixer has a confusor connected to a chamber for the supply of water, the pipe mixers are fitted from the side of the rear partition with side orifices and the opposite sides of the mixers are equipped with diffusors , outlet ends of the diffusors with gaps are located in the orifices of the front partition , and for the entered total flow Pw [l/s] of pressurized water Pw [l/s] from the pressurized water pump the required number of mixers is defined so that as the flow Pw [l/s] of pressurized water Pw [l/s]: through one mixer was 1.9 to 2.1 l/s and the flow Pa [l/s] of compressed air from the compressor Pa [l/s] x through one mixer was 28 to 40 l/s.
A method for storing data, comprising: receiving a storage request carrying target data, wherein the target data comprises at least one data stripe, each data stripe comprising a plurality of data blocks; determining , among a plurality of preset storage device groupings without overlapping storage devices, a target storage device grouping for storing the target data; and storing , for each data stripe, the plurality of data blocks in the data stripe into different storage devices in the target storage device grouping respectively; wherein the plurality of preset storage device groupings are obtained by taking all storage devices having the same slot number in each storage server into a respective storage device grouping, and wherein each storage server has a plurality of slots where the storage devices are installed, and wherein each storage server contains more than one storage device. receiving a storage request carrying target data, wherein the target data comprises at least one data stripe, each data stripe comprising a plurality of data blocks; determining , among a plurality of preset storage device groupings without overlapping storage devices, a target storage device grouping for storing the target data; and storing , for each data stripe, the plurality of data blocks in the data stripe into different storage devices in the target storage device grouping respectively; wherein the plurality of preset storage device groupings are obtained by taking all storage devices having the same slot number in each storage server into a respective storage device grouping, and wherein each storage server has a plurality of slots where the storage devices are installed, and wherein each storage server contains more than one storage device.
Tent for fastening onto a stand-up paddleboard , the tent having a supporting structure , which is formed of at least two inflatable arches , and at least one tent fabric, which forms the enclosure of the tent , wherein the enclosure is fastened to the arches , characterized in that , on their underside, the arches are connected to one another in the longitudinal direction on both sides by a respective side tube .
A corner seismic isolator for the seismic protection of buildings, both new and already built, comprising at least one resistant element in the form of a frame (F) with a brick partition (P) inside, the isolator consisting of a single monobloc part formed from a material more flexible than the frame (F) and than the bricks of the partition (P), comprising two arms arranged at a right angle, one to be situated between the frame (F) and the partition (P) in a vertical direction and the other to be situated between the frame (F) and the partition (P) in a horizontal direction, the thickness of which in the direction perpendicular to the plane of the partition (P) is between 0.5 to 1.5 times the thickness of the bricks in the partition (P), with the width of the arms being equal to or greater than one third of the height of a single brick in the partition (P) and the length thereof equal to or greater than three times the width of the arm itself , with the length thereof, in turn, being smaller than the corresponding dimension of the partition, wherein the vertical arm has a length of between 0.1 and 0.5 times the height of the partition and the horizontal arm a length of between 0.1 and 0.5 times the length of the partition, wherein the corner seismic isolator further comprises at least one insert , which has one end embedded in the part , this end having a length less than or equal to four fifths of the width of the arm itself , and the other end protruding from one of the surfaces of the isolator perpendicular to the plane of the partition (P); each arm comprising at least one insert perpendicular to the longitudinal direction of the corresponding arm , characterized in that one of every two consecutive perpendicular inserts comprising one end protruding through the surface that is in contact with the frame (F) and the inserts alternating with the previous ones comprise one end protruding through the surface that is in contact with the partition (P).
A saddle-type vehicle comprising: a power unit swingably supported on a vehicle body frame ; a rear wheel as a drive wheel integrated with the power unit ; and a fuel pump disposed above the rear wheel and below a fuel tank , wherein the fuel pump is supported on the vehicle body frame through the fuel tank , characterized in that the fuel pump is clamped and fixed to a clamp portion of a stay so that the fuel pump is supported by the stay , the stay includes an upwardly/downwardly extending portion that is attached to a bottom surface of the fuel tank and that extends downwardly from the bottom surface side, and the clamp portion that is attached to a lower end of the upwardly/downwardly extending portion , the fuel pump is disposed so as an upper end portion of a most upwardly projecting cap member in the fuel pump is spaced downwardly by a predetermined distance (L) from the bottom surface of the fuel tank in fornt view, the fuel pump is connected to a fuel joint arranged in a direction orthogonal to the longitudinal direction and the fuel joint is provided at an end portion of a fuel pipe extending to a fuel injection valve and is interposed between the fuel pump and the fuel tank , and the fuel joint includes a joint body portion connected to the pump discharge port , and a pipe connection portion bent outwardly in a vehicle width direction at a right angle to the joint body portion and connected to the fuel pipe . a power unit swingably supported on a vehicle body frame ; a rear wheel as a drive wheel integrated with the power unit ; and a fuel pump disposed above the rear wheel and below a fuel tank , wherein the fuel pump is supported on the vehicle body frame through the fuel tank , characterized in that the fuel pump is clamped and fixed to a clamp portion of a stay so that the fuel pump is supported by the stay , the stay includes an upwardly/downwardly extending portion that is attached to a bottom surface of the fuel tank and that extends downwardly from the bottom surface side, and the clamp portion that is attached to a lower end of the upwardly/downwardly extending portion , the fuel pump is disposed so as an upper end portion of a most upwardly projecting cap member in the fuel pump is spaced downwardly by a predetermined distance (L) from the bottom surface of the fuel tank in fornt view, the fuel pump is connected to a fuel joint arranged in a direction orthogonal to the longitudinal direction and the fuel joint is provided at an end portion of a fuel pipe extending to a fuel injection valve and is interposed between the fuel pump and the fuel tank , and the fuel joint includes a joint body portion connected to the pump discharge port , and a pipe connection portion bent outwardly in a vehicle width direction at a right angle to the joint body portion and connected to the fuel pipe .
A method for potentiating activity of a glutamine synthetase (GS) inhibitor herbicide in a plant comprising: (a) topically applying to a surface of the plant a composition comprising a double-stranded RNA (dsRNA) and a transfer agent, wherein the dsRNA is identical or complementary to at least 18 contiguous nucleotides of an RNA sequence of a GS gene sequence selected from the group consisting of SEQ ID NOs: 1-4, 6, 7, 9, 10, 14, 16, 17, 20, 21, 23, 27-49, 51-389, 392-529, 532-593, 596-689, 692-785, 790-859, 862-877, 880-991, 996-1069, 1072-1215, 1218-1241, 1244-1263, 1266-1297, and 1300-2056; and the transfer agent conditions the surface of the plant for permeation by the dsRNA; (b) providing a suitable period of time for the dsRNA to permeate the interior of the plant and induce suppression of a GS gene, and (c) topically applying the GS inhibitor herbicide to the surface of the plant, wherein the activity of the GS inhibitor herbicide in the plant is increased relative to a control plant not pre-treated with the composition. (a) topically applying to a surface of the plant a composition comprising a double-stranded RNA (dsRNA) and a transfer agent, wherein the dsRNA is identical or complementary to at least 18 contiguous nucleotides of an RNA sequence of a GS gene sequence selected from the group consisting of SEQ ID NOs: 1-4, 6, 7, 9, 10, 14, 16, 17, 20, 21, 23, 27-49, 51-389, 392-529, 532-593, 596-689, 692-785, 790-859, 862-877, 880-991, 996-1069, 1072-1215, 1218-1241, 1244-1263, 1266-1297, and 1300-2056; and the transfer agent conditions the surface of the plant for permeation by the dsRNA; (b) providing a suitable period of time for the dsRNA to permeate the interior of the plant and induce suppression of a GS gene, and (c) topically applying the GS inhibitor herbicide to the surface of the plant, wherein the activity of the GS inhibitor herbicide in the plant is increased relative to a control plant not pre-treated with the composition.
A drafting device for a spinning machine comprising: apron pairs , each apron pair being arranged in correspondence with a respective fiber feed portion; a front roller shared by the apron pairs ; and a speed change controller configured to change speeds of the apron pairs in accordance with predetermined conditions, characterized in that the speed change controller is configured so that when any one of the fiber feed portions starts feeding fibers, the speed change controller outputs a drive instruction to a first apron pair of the apron pairs that corresponds to the fiber feed portion that starts feeding fibers, to drive the first apron pair at a lower speed than a speed for normal spinning during a predetermined period from a point of time that precedes a predetermined switch time by the predetermined period and subsequently to shift the first apron pair to the speed for normal spinning. apron pairs , each apron pair being arranged in correspondence with a respective fiber feed portion; a front roller shared by the apron pairs ; and a speed change controller configured to change speeds of the apron pairs in accordance with predetermined conditions, characterized in that the speed change controller is configured so that when any one of the fiber feed portions starts feeding fibers, the speed change controller outputs a drive instruction to a first apron pair of the apron pairs that corresponds to the fiber feed portion that starts feeding fibers, to drive the first apron pair at a lower speed than a speed for normal spinning during a predetermined period from a point of time that precedes a predetermined switch time by the predetermined period and subsequently to shift the first apron pair to the speed for normal spinning.
A method for reducing NOx emissions in a gas turbine in which a flow of primary air and a flow of fuel are fed into an air fuel mixer equipped at least by a dual annular counter rotating swirler having inner and outer annular chambers , said primary air flow being fed into the inner and outer annular chambers , wherein the method comprises the step of centripetally injecting the flow of fuel only into the inner annular chamber of the swirler via an injection point located in the inner annular chamber adjacent to the outer annular chamber and the outer chamber is deprived of any fuel injecting element.
An image forming apparatus , comprising: a plurality of image forming units each including an image holding member and configured to form an image that is to be transferred to a recording medium on the image holding member using a dry toner, the number of the plurality of image forming units being at least five; a plurality of developing devices each of which is provided in one of the image forming units of the plurality of image forming units and supplied with the dry toner and a dry carrier, each of the plurality of developing devices including a dry toner adhering unit that has a length equal to or longer than a length of a long side of an A3 size and to which the dry toner adheres, the dry toner adhering unit being configured to cause the dry toner adhering to the dry toner adhering unit to adhere to the image holding member ; and a carrier supply mechanism configured to supply the dry carrier to the plurality of developing devices , wherein the image forming apparatus is configured such that a value obtained by multiplying a sum of a supply amount per unit time when the dry carrier is supplied to each of the plurality of developing devices and a discharge amount per unit time when the dry carrier is discharged from each of the plurality of developing devices by the number of the image forming units is smaller than a value obtained by multiplying an amount of the dry toner consumed per unit time when the image is formed by each of the image forming units by the number of the image forming units . a plurality of image forming units each including an image holding member and configured to form an image that is to be transferred to a recording medium on the image holding member using a dry toner, the number of the plurality of image forming units being at least five; a plurality of developing devices each of which is provided in one of the image forming units of the plurality of image forming units and supplied with the dry toner and a dry carrier, each of the plurality of developing devices including a dry toner adhering unit that has a length equal to or longer than a length of a long side of an A3 size and to which the dry toner adheres, the dry toner adhering unit being configured to cause the dry toner adhering to the dry toner adhering unit to adhere to the image holding member ; and a carrier supply mechanism configured to supply the dry carrier to the plurality of developing devices , wherein the image forming apparatus is configured such that a value obtained by multiplying a sum of a supply amount per unit time when the dry carrier is supplied to each of the plurality of developing devices and a discharge amount per unit time when the dry carrier is discharged from each of the plurality of developing devices by the number of the image forming units is smaller than a value obtained by multiplying an amount of the dry toner consumed per unit time when the image is formed by each of the image forming units by the number of the image forming units .
A method of operation of a MIMO transmitter in a cellular network supporting both legacy standard-compliant mobile terminals and next generation standard-compliant mobile terminals , wherein the legacy standard-compliant mobile terminals supports low-order MIMO and the next generation standard-compliant mobile terminals support high-order MIMO, the low-order MIMO having four or less antenna ports and the high-order MIMO having greater than four antenna ports, said method comprising: defining a matrix of resource blocks within an information channel of said cellular network, wherein each resource block corresponds to a region of subcarriers of a transmission timeslot at a given frequency subband; assigning a first set of cell-specific reference signals, CRSs, for said legacy standard-compliant mobile terminals to resource blocks at specific locations within said matrix to be transmitted by said MIMO transmitter, said specific locations being defined by said legacy standard; and assigning a second set of CRSs for said next-generation standard-compliant mobile terminals to other resource blocks within said matrix to be transmitted by said MIMO transmitter; and characterized in that , for all antenna ports or for ports greater than four, said second set of CRSs are configured to be periodically transmitted in a same subframe as primary synchronisation/secondary synchronisation channels of the information channel. defining a matrix of resource blocks within an information channel of said cellular network, wherein each resource block corresponds to a region of subcarriers of a transmission timeslot at a given frequency subband; assigning a first set of cell-specific reference signals, CRSs, for said legacy standard-compliant mobile terminals to resource blocks at specific locations within said matrix to be transmitted by said MIMO transmitter, said specific locations being defined by said legacy standard; and assigning a second set of CRSs for said next-generation standard-compliant mobile terminals to other resource blocks within said matrix to be transmitted by said MIMO transmitter; and characterized in that , for all antenna ports or for ports greater than four, said second set of CRSs are configured to be periodically transmitted in a same subframe as primary synchronisation/secondary synchronisation channels of the information channel.
Process for antireflective treatment in the visible region of a material made of sapphire, consisting of a bombardment with a beam of a mixture of mono- and multicharged ions of a gas which are produced by an electron cyclotron resonance (ECR) source, wherein: - the acceleration voltage is chosen within a range of between 10 and 100 kV; - an implanted dose of ions, expressed in ions/cm 2 , is chosen within a range of between 10 16 and 3 x 10 17 ions/cm 2 ; characterized in that a rate of displacement V D between the material made of sapphire and the beam, expressed in cm/s, is chosen within a range of between 0.1 cm/s and 5 cm/s, the rate of displacement V D is adjusted so that it is between 0.025 x (P/D) and 0.1 x (P/D), where P is the power of the beam, expressed in W (watts), D is the diameter of the beam, expressed in cm (centimetres); the adjustment being carried out while keeping the acceleration voltage, the implanted dose of ions, the beam diameter, the displacement amplitude of the beam and the advance amplitude of the beam constant. - the acceleration voltage is chosen within a range of between 10 and 100 kV; - an implanted dose of ions, expressed in ions/cm 2 , is chosen within a range of between 10 16 and 3 x 10 17 ions/cm 2 ; characterized in that
An organic light-emitting diode display , comprising: a substrate ; a mesh-shaped power supply distribution path formed of horizontally extending zigzag metal lines and vertically extending metal lines; a planarization layer (PLN2) which covers the mesh-shaped power supply distribution path ; an array of pixels each pixel being configured to receive a power supply voltage and each pixel having a light-emitting diode with an anode (AN), wherein the anodes are formed on an upper surface of the planarization layer (PLN2); wherein the anodes (AN) overlap the vertically extending metal lines and do not overlap the horizontally extending zigzag metal lines; wherein the upper surface of the planarization layer (PLN2) comprises sloped portions in areas over the vertically extending metal lines and under the anodes (AN), wherein each pixel has a positive power supply terminal and a ground power supply terminal and wherein the mesh-shaped power supply distribution path is a positive power supply distribution path coupled to the positive power supply terminals of the pixels . a substrate ; a mesh-shaped power supply distribution path formed of horizontally extending zigzag metal lines and vertically extending metal lines; a planarization layer (PLN2) which covers the mesh-shaped power supply distribution path ; an array of pixels each pixel being configured to receive a power supply voltage and each pixel having a light-emitting diode with an anode (AN), wherein the anodes are formed on an upper surface of the planarization layer (PLN2); wherein the anodes (AN) overlap the vertically extending metal lines and do not overlap the horizontally extending zigzag metal lines; wherein the upper surface of the planarization layer (PLN2) comprises sloped portions in areas over the vertically extending metal lines and under the anodes (AN), wherein each pixel has a positive power supply terminal and a ground power supply terminal and wherein the mesh-shaped power supply distribution path is a positive power supply distribution path coupled to the positive power supply terminals of the pixels .