mhurhangee/patent-ind-claim-en huggingface dataset:
Control method of an actuator of an arm of an agricultural or work vehicle subject to a load, in which the arm (B) comprises at least one element (AR, TL) directly or indirectly hinged to a vehicle frame (F) and a double action actuator (A1, A2) comprising a lifting chamber (CH1) and a lowering chamber (CH2) opposite the lifting chamber and a directional valve (V1, V2), arranged to connect - the lifting chamber with a recovery tank (T) of hydraulic oil e - the lowering chamber with a source of hydraulic oil (P), in a first operating configuration of lowering the arm and vice versa in a second operating configuration of lifting the arm and a third stop configuration of the arm in which both chambers are closed and disconnected from the reservoir and the source of hydraulic oil, the method, in dynamic conditions of lowering of the arm, including - a first step (ST1) of calculating a flow value of hydraulic oil directed to the lowering chamber (CH2) from the directional valve and a corresponding first flow value (F1) of hydraulic oil destined to be discharged from the lifting chamber (CH1 ), - a second step (ST2) of detecting a second flow value (F2) of hydraulic oil actually discharged from the lifting chamber due to the load and - a third step (ST3) of adjusting the directional valve (V1, V2) so as to force said second value to equate the first flow value, when the second value exceeds the first (CK = Yes) . - the lifting chamber with a recovery tank (T) of hydraulic oil e - the lowering chamber with a source of hydraulic oil (P), in a first operating configuration of lowering the arm and vice versa in a second operating configuration of lifting the arm and a third stop configuration of the arm in which both chambers are closed and disconnected from the reservoir and the source of hydraulic oil, the method, in dynamic conditions of lowering of the arm, including in a first operating configuration of lowering the arm and vice versa in a second operating configuration of lifting the arm and a third stop configuration of the arm in which both chambers are closed and disconnected from the reservoir and the source of hydraulic oil, the method, in dynamic conditions of lowering of the arm, including - a first step (ST1) of calculating a flow value of hydraulic oil directed to the lowering chamber (CH2) from the directional valve and a corresponding first flow value (F1) of hydraulic oil destined to be discharged from the lifting chamber (CH1 ), - a second step (ST2) of detecting a second flow value (F2) of hydraulic oil actually discharged from the lifting chamber due to the load and - a third step (ST3) of adjusting the directional valve (V1, V2) so as to force said second value to equate the first flow value, when the second value exceeds the first (CK = Yes) .
A welding apparatus for welding first and second sheets of material together, the apparatus comprising: a seal die made of a conductive material configured to impart thermal-mechanical energy to the first and second sheets of material, wherein the seal die includes: a bottom surface configured to contact the first sheet of material , an inner edge , and a chamfer extending between the bottom surface and the inner edge, wherein the chamfer has an orientation angle with respect to the bottom surface; a support surface configured to support the second sheet of material; a control unit programmed to cause the seal die to be directed towards the support surface such that the seal die compresses the first and second sheets of material together between the seal die and the support surface; and a power source adapted to provide energy to the seal die such that the seal die imparts thermal energy welding the first and second sheets of material together. characterized in that the chamfer is a straight chamfer and the seal die further includes: a first blend radius extending between the straight chamfer and the bottom surface and a second blend radius extending between the straight chamfer and the inner edge. a seal die made of a conductive material configured to impart thermal-mechanical energy to the first and second sheets of material, wherein the seal die includes: a bottom surface configured to contact the first sheet of material , an inner edge , and a chamfer extending between the bottom surface and the inner edge, wherein the chamfer has an orientation angle with respect to the bottom surface; a bottom surface configured to contact the first sheet of material , an inner edge , and a chamfer extending between the bottom surface and the inner edge, wherein the chamfer has an orientation angle with respect to the bottom surface; a support surface configured to support the second sheet of material; a control unit programmed to cause the seal die to be directed towards the support surface such that the seal die compresses the first and second sheets of material together between the seal die and the support surface; and a power source adapted to provide energy to the seal die such that the seal die imparts thermal energy welding the first and second sheets of material together. characterized in that the chamfer is a straight chamfer and the seal die further includes: a first blend radius extending between the straight chamfer and the bottom surface and a second blend radius extending between the straight chamfer and the inner edge.
A method of communication, comprising: determining a period of time between a first reporting event associated with request-triggered reporting and a second reporting event associated with an event-triggered reporting ; comparing the period of time with a threshold; identifying redundant information associated with the request-triggered reporting and the event-triggered reporting ; and controlling a reporting operation according to a result of the comparison and the identification of the redundant information. determining a period of time between a first reporting event associated with request-triggered reporting and a second reporting event associated with an event-triggered reporting ; comparing the period of time with a threshold; identifying redundant information associated with the request-triggered reporting and the event-triggered reporting ; and controlling a reporting operation according to a result of the comparison and the identification of the redundant information.
A method for determining whether an object in a flow stream is a cell aggregate, the method comprising: detecting light from a sample comprising cells in a flow stream; generating frequency-encoded data of an object in the flow stream in an interrogation region to obtain spatial data comprising spatially encoded frequencies across the object; and determining whether the object in the flow stream is a cell aggregate based on the spatial data. detecting light from a sample comprising cells in a flow stream; generating frequency-encoded data of an object in the flow stream in an interrogation region to obtain spatial data comprising spatially encoded frequencies across the object; and determining whether the object in the flow stream is a cell aggregate based on the spatial data.
Safety end piece for road barriers, comprising: - a beam made of laminated wood, provided with a back end and a front end and supported in horizontal position above a track provided with a back end and a front end by means of a fixed supporting means associated with said back end of the track and a plurality of sliding support means along said track , which are capable of tightening points of the beam comprised between said back end and front end of the beam - a slider suitable for being inserted in said front end of the track , with the possibility of sliding freely, and provided with a box body (CS) with a mouth suitable for exactly receiving said front end of the beam ; wherein said box body (CS) is internally provided with a plurality of blades disposed behind said mouth , said blades being suitable for longitudinally cutting the beam , progressively reducing its length, when said slider is submitted to a force capable of moving it forward towards said back end of the track ; wherein, during the forward movement, said slider progressively interferes with said sliding support means of the beam , forcing said sliding support means to move backwards towards the back end of the track . - a beam made of laminated wood, provided with a back end and a front end and supported in horizontal position above a track provided with a back end and a front end by means of a fixed supporting means associated with said back end of the track and a plurality of sliding support means along said track , which are capable of tightening points of the beam comprised between said back end and front end of the beam - a slider suitable for being inserted in said front end of the track , with the possibility of sliding freely, and provided with a box body (CS) with a mouth suitable for exactly receiving said front end of the beam ; wherein said box body (CS) is internally provided with a plurality of blades disposed behind said mouth , said blades being suitable for longitudinally cutting the beam , progressively reducing its length, when said slider is submitted to a force capable of moving it forward towards said back end of the track ; wherein, during the forward movement, said slider progressively interferes with said sliding support means of the beam , forcing said sliding support means to move backwards towards the back end of the track .
A method of manufacturing a multilayer laminate, comprising or consisting of the steps: (i) providing a metal, polyethylene terephthalate, polyamide, polypropylene or polyamide substrate; (ii) applying an aqueous coating composition comprising at least one copolymer obtained by reacting at least one compound which is catechol or a derivative thereof with at least one polyethylenimine, onto the surface of the metal, polyethylene terephthalate, polypropylene or polyamide substrate; (iii) subsequently drying, preferably at 35 to 100 °C, more preferably at 50 to 90 °C, for up to 10 minutes, preferably for up to 1 minute, more preferably for up to 30 seconds, in order to obtain a coating layer; then (iv) applying a polyolefin melt or polyolefin film onto the coating layer; and (v) applying pressure in order to obtain the multilayer laminate. (i) providing a metal, polyethylene terephthalate, polyamide, polypropylene or polyamide substrate; (ii) applying an aqueous coating composition comprising at least one copolymer obtained by reacting at least one compound which is catechol or a derivative thereof with at least one polyethylenimine, onto the surface of the metal, polyethylene terephthalate, polypropylene or polyamide substrate; (iii) subsequently drying, preferably at 35 to 100 °C, more preferably at 50 to 90 °C, for up to 10 minutes, preferably for up to 1 minute, more preferably for up to 30 seconds, in order to obtain a coating layer; then (iv) applying a polyolefin melt or polyolefin film onto the coating layer; and (v) applying pressure in order to obtain the multilayer laminate.
A transport system comprising: a management server ; an automated guided vehicle, AGV, that is configured to travel from a home of a user (17 a to 17d) to a nearest location (14 to 16) and is configured to pick up a product purchased by the user through a user terminal in an e-commerce transaction, the AGV having an accommodation part that is configured to accommodate the product at the nearest location; and the user terminal is configured to instruct the AGV to transport the product, wherein the user terminal is provided with an instruction interface, the instruction interface is configured to issue an instruction to pick up the product using the AGV as a pickup method in a case in which the product is purchased through the user terminal in the e-commerce transaction with the management server, and the transport system is configured to control the AGV, based on control by the management server according to the instruction issued through the instruction interface, to travel from the home of the user (17a to 17d) to the nearest location (14 to 16) and to execute pick up of the product; and wherein a plurality of takeoff/landing platforms (106a to 106c), each with a two-dimensional code, letters or numerals are installed at the nearest location (14 to 16) and the AGV comprises a built-in camera to read the two-dimensional code, the letters or the numerals to confirm a designated takeoff/landing platform. a management server ; an automated guided vehicle, AGV, that is configured to travel from a home of a user (17 a to 17d) to a nearest location (14 to 16) and is configured to pick up a product purchased by the user through a user terminal in an e-commerce transaction, the AGV having an accommodation part that is configured to accommodate the product at the nearest location; and the user terminal is configured to instruct the AGV to transport the product, wherein the user terminal is provided with an instruction interface, the instruction interface is configured to issue an instruction to pick up the product using the AGV as a pickup method in a case in which the product is purchased through the user terminal in the e-commerce transaction with the management server, and the transport system is configured to control the AGV, based on control by the management server according to the instruction issued through the instruction interface, to travel from the home of the user (17a to 17d) to the nearest location (14 to 16) and to execute pick up of the product; and wherein a plurality of takeoff/landing platforms (106a to 106c), each with a two-dimensional code, letters or numerals are installed at the nearest location (14 to 16) and the AGV comprises a built-in camera to read the two-dimensional code, the letters or the numerals to confirm a designated takeoff/landing platform.
A printable paper for being printed by inkjet printing and forming a decorative paper , comprising a base paper layer being at least partially impregnated with a polymeric binder, said polymeric binder being acrylic or polyurethane based and being substantially free from formaldehyde, and an ink receiver coating provided on at least a surface of said base paper layer , said ink receiver coating comprising at least a binder, comprising polyvinyl alcohol, acrylic based resin, polyurethane-based resin or a combination thereof and a flocculant comprising a cationic metal salt, and in that said cationic metal salt is provided in an amount of at least 20% weight on the total dry weight of the ink receiver coating, preferably in an amount between 20 and 80% weight.
A magnetic stirring arrangement for a glass furnace with a melting tank for containing a glass melt , the magnetic stirring arrangement comprising: an electrically conductive stirring body to be immersed in the glass melt; and a magnetic actuator configured to generate a time-varying magnetic field suitable for moving the stirring body, wherein the stirring body has a substantially ellipsoidal shape with a minor diameter of at least 0.175 m and major diameter of at least 0.25 m and/or the magnetic flux density is at least 0.1 T where it reaches the stirring body. an electrically conductive stirring body to be immersed in the glass melt; and a magnetic actuator configured to generate a time-varying magnetic field suitable for moving the stirring body, wherein the stirring body has a substantially ellipsoidal shape with a minor diameter of at least 0.175 m and major diameter of at least 0.25 m and/or the magnetic flux density is at least 0.1 T where it reaches the stirring body.
A catheter-based delivery device comprising: a sheath configured to transfer a rotational force from a proximal end to a distal end thereof, the sheath including a distal segment having a tubular body with a plurality of ribs and slots defined therein from a proximal end to a distal end of the distal segment to provide flexibility to the distal segment , the distal segment further having at least one spine that extends in a helical or spiral path about the tubular body from the proximal end to the distal end of the distal segment , wherein the at least one spine has a width that is non-uniform along a length thereof for providing a torsional stiffness that decreases from the proximal end to the distal end of the distal segment , and wherein the torsional stiffness of the distal segment permits a rotational force to be transferred from the proximal end to the distal end thereof without the distal segment twisting relative to a remainder of the sheath . a sheath configured to transfer a rotational force from a proximal end to a distal end thereof, the sheath including a distal segment having a tubular body with a plurality of ribs and slots defined therein from a proximal end to a distal end of the distal segment to provide flexibility to the distal segment , the distal segment further having at least one spine that extends in a helical or spiral path about the tubular body from the proximal end to the distal end of the distal segment , wherein the at least one spine has a width that is non-uniform along a length thereof for providing a torsional stiffness that decreases from the proximal end to the distal end of the distal segment , and wherein the torsional stiffness of the distal segment permits a rotational force to be transferred from the proximal end to the distal end thereof without the distal segment twisting relative to a remainder of the sheath .
A regions identifying apparatus for identifying regions in an image showing a brain, wherein the regions identifying apparatus (1; 101) comprises: - an image providing unit (5; 105) configured to provide a three-dimensional image showing a brain of a living being, - a model providing unit configured to provide a three-dimensional model of a head of a living being, wherein the three-dimensional model includes Alberta Stroke Program Early CT Score regions, ASPECTS regions, (34...37) of a brain, wherein the three-dimensional model comprises a triangulated mesh representing at least the boundaries of different ASPECTS regions, - a regions identifying unit configured to identify ASPECTS regions in the three-dimensional image by applying the three-dimensional model to the three-dimensional image. - an image providing unit (5; 105) configured to provide a three-dimensional image showing a brain of a living being, - a model providing unit configured to provide a three-dimensional model of a head of a living being, wherein the three-dimensional model includes Alberta Stroke Program Early CT Score regions, ASPECTS regions, (34...37) of a brain, wherein the three-dimensional model comprises a triangulated mesh representing at least the boundaries of different ASPECTS regions, - a regions identifying unit configured to identify ASPECTS regions in the three-dimensional image by applying the three-dimensional model to the three-dimensional image.
A vane for guiding and stabilizing the flight of an arrow through the air after being released from a bow or crossbow provided with a string, the string of which bow or crossbow, at the time of release, is in engagement with the rear end of the arrow, said vane being made from a polymer material of elastomeric type and having an elongated and substantially planar body comprising: a foot having a sufficient transversal width to provide a base for mounting of the vane on the arrow shaft, such that said elongated body has its longitudinal extension in the axial direction of the arrow shaft; a plurality of outer vane portions extending radially in the plane of said elongated body; an inner vane portion connecting the foot and said outer vane portions; and valleys , wherein, between two neighbouring outer vane portions , a valley , having a rounded shape at the bottom thereof, is formed by said two outer vane portions and the inner vane portion, characterized in that the valleys are deep rounded valleys wherein the bottom of the deepest valleys is located at a height (H DB ) of 17-30% of the total height (H F ) of the vane. a foot having a sufficient transversal width to provide a base for mounting of the vane on the arrow shaft, such that said elongated body has its longitudinal extension in the axial direction of the arrow shaft; a plurality of outer vane portions extending radially in the plane of said elongated body; an inner vane portion connecting the foot and said outer vane portions; and valleys , wherein, between two neighbouring outer vane portions , a valley , having a rounded shape at the bottom thereof, is formed by said two outer vane portions and the inner vane portion, characterized in that the valleys are deep rounded valleys wherein the bottom of the deepest valleys is located at a height (H DB ) of 17-30% of the total height (H F ) of the vane.
A crystalline form of -3-benzylidene-6-[(5-tert-butyl-1H-imidazol-4-yl)deuteromethylene]piperazine-2,5-dione as shown in Formula (I), wherein the crystalline form is selected from the group consisting of α-crystalline form, β-crystalline form, γ-crystalline form and δ-crystalline form, wherein, the following conditions have been used during the X-ray single crystal diffraction test: 1) radiation source : Cu-Kα radiation; 2) wavelength: 1.54178 Å; wherein the α-crystalline form has at least three X-ray powder diffraction characteristic peaks at 2θ diffraction angle of 8.415°±0.2°, 11.512°±0.2°, 14.824°±0.2°, 17.087°±0.2°, 17.278°±0.2°, 19.461°±0.2°, 21.350°±0.2°, 22.344°±0.2° or 27.621°±0.2°; the β-crystalline form has at least three X-ray powder diffraction characteristic peaks at 2θ diffraction angle of 7.629°±0.2°, 8.052°±0.2°, 12.967°±0.2°, 15.327°±0.2°, 16.195°±0.2°, 23.194°±0.2°, 23.760°±0.2°, 24.129°±0.2°, 24.419°±0.2°, 26.465°±0.2° or 29.213°±0.2°; the γ-crystalline form has at least three X-ray powder diffraction characteristic peaks at 2θ diffraction angle of 8.075°±0.2°, 12.986°±0.2°, 16.217°±0.2°, 19.709°±0.2° or 24.441°±0.2°; the δ-crystalline form has at least three X-ray powder diffraction characteristic peaks at 2θ diffraction angle of 8.075°±0.2°, 12.988°±0.2°, 16.201°±0.2°, 17.545°±0.2°, 19.084°±0.2°, 19.724°±0.2°, 23.710°±0.2°, 24.422°±0.2°, 26.485°±0.2° or 29.234°±0.2°; the following conditions have been used during the X-ray single crystal diffraction test: 1) radiation source : Cu-Kα radiation; 2) wavelength: 1.54178 Å; 1) radiation source : Cu-Kα radiation; 2) wavelength: 1.54178 Å; wherein the α-crystalline form has at least three X-ray powder diffraction characteristic peaks at 2θ diffraction angle of 8.415°±0.2°, 11.512°±0.2°, 14.824°±0.2°, 17.087°±0.2°, 17.278°±0.2°, 19.461°±0.2°, 21.350°±0.2°, 22.344°±0.2° or 27.621°±0.2°; the β-crystalline form has at least three X-ray powder diffraction characteristic peaks at 2θ diffraction angle of 7.629°±0.2°, 8.052°±0.2°, 12.967°±0.2°, 15.327°±0.2°, 16.195°±0.2°, 23.194°±0.2°, 23.760°±0.2°, 24.129°±0.2°, 24.419°±0.2°, 26.465°±0.2° or 29.213°±0.2°; the γ-crystalline form has at least three X-ray powder diffraction characteristic peaks at 2θ diffraction angle of 8.075°±0.2°, 12.986°±0.2°, 16.217°±0.2°, 19.709°±0.2° or 24.441°±0.2°; the δ-crystalline form has at least three X-ray powder diffraction characteristic peaks at 2θ diffraction angle of 8.075°±0.2°, 12.988°±0.2°, 16.201°±0.2°, 17.545°±0.2°, 19.084°±0.2°, 19.724°±0.2°, 23.710°±0.2°, 24.422°±0.2°, 26.485°±0.2° or 29.234°±0.2°;
Agricultural combine comprising a residue spreading system adapted for spreading residue onto a field, wherein the residue spreading system comprises a seed container and a seed dispensing system characterized in that the seed dispensing system is adapted to dispense seeds from the seed container into the residue so that, in operation, the residue spreading system spreads the dispensed seeds onto the field together with the residue.