mhurhangee/patent-ind-claim-en huggingface dataset:
An arc welding control method for controlling arc welding, the arc welding forming a plurality of scaly beads continuously arranged on a base material in a welding cycle (C, T4) , the welding cycle (C, T4) being a sum of an arc ON period (A, Ts+Tp, T1) and an arc OFF period (B, Tn, T3) , the arc ON period (A, Ts+Tp, T1) being a period during which a welding current (I) flows to a welding wire , the arc OFF period (B, Tn, T3) being a period after the arc ON period (A, Ts+Tp, T1) and during which the welding current (I) does not flow to the welding wire , the arc welding control method comprising: an initial condition setting step of setting an initial value of a welding condition for arc-welding the base material ; and a scaly bead formation step of forming the plurality of scaly beads in a predetermined welding section of the base material while continuously moving a torch holding the welding wire in the predetermined welding section of the base material at a predetermined welding speed (Vw) , wherein the welding condition includes the arc ON period (A, Ts+Tp, T1) , the arc OFF period (B, Tn, T3) , and a plurality of welding parameters, the plurality of welding parameters including at least one of the welding current (I) , the welding speed (Vw) , and an interval (G) between adjacent scaly beads among the scaly beads, and the arc welding control method further includes a welding condition change step of, before the scaly bead formation step, determining whether to change the initial value based on a predetermined finish condition for the scaly beads, and when a result of the determining is affirmative, changing at least one of the plurality of welding parameters so as to satisfy the predetermined finish condition. an initial condition setting step of setting an initial value of a welding condition for arc-welding the base material ; and a scaly bead formation step of forming the plurality of scaly beads in a predetermined welding section of the base material while continuously moving a torch holding the welding wire in the predetermined welding section of the base material at a predetermined welding speed (Vw) , wherein the welding condition includes the arc ON period (A, Ts+Tp, T1) , the arc OFF period (B, Tn, T3) , and a plurality of welding parameters, the plurality of welding parameters including at least one of the welding current (I) , the welding speed (Vw) , and an interval (G) between adjacent scaly beads among the scaly beads, and the arc welding control method further includes a welding condition change step of, before the scaly bead formation step, determining whether to change the initial value based on a predetermined finish condition for the scaly beads, and when a result of the determining is affirmative, changing at least one of the plurality of welding parameters so as to satisfy the predetermined finish condition.
A banknote handling device comprising: an upper assembly , a lower assembly configured to include plurality of storage/feeding units , each of the storage/feeding units capable of storing banknotes for each denomination and feeding out the stored banknotes; a transporting unit configured to transports the banknotes between the storage/feeding units ; a memory unit configured to store information on a position of a regulating member corresponding to each denomination of the banknotes; and a controlling unit configured to control the storage/feeding units and the transporting unit for performing the stock reconciliation process in which the banknotes are fed out from a first storage/feeding unit of the plurality of storage/feeding units and sent to a second storage/feeding unit of the plurality of storage/feeding units by the transporting unit , then the banknotes are returned to the first storage/feeding unit from the second storage/feeding unit by the transporting unit ; characterized in that the regulating member is configured to regulate a position of the banknotes stored in the second storage/feeding unit after being sent from the transporting unit , and a driving member configured to move the regulating member are provided in the second storage/feeding unit , and the controlling unit is configured to control the driving member to move the regulating member to the position stored in the memory unit corresponding to the denomination of the banknotes on which the stock reconciliation process is performed. an upper assembly , a lower assembly configured to include plurality of storage/feeding units , each of the storage/feeding units capable of storing banknotes for each denomination and feeding out the stored banknotes; a transporting unit configured to transports the banknotes between the storage/feeding units ; a memory unit configured to store information on a position of a regulating member corresponding to each denomination of the banknotes; and a controlling unit configured to control the storage/feeding units and the transporting unit for performing the stock reconciliation process in which the banknotes are fed out from a first storage/feeding unit of the plurality of storage/feeding units and sent to a second storage/feeding unit of the plurality of storage/feeding units by the transporting unit , then the banknotes are returned to the first storage/feeding unit from the second storage/feeding unit by the transporting unit ; characterized in that the regulating member is configured to regulate a position of the banknotes stored in the second storage/feeding unit after being sent from the transporting unit , and a driving member configured to move the regulating member are provided in the second storage/feeding unit , and the controlling unit is configured to control the driving member to move the regulating member to the position stored in the memory unit corresponding to the denomination of the banknotes on which the stock reconciliation process is performed.
Method for the fluorination of plastics, in which the plastic articles to be fluorinated are introduced into the non evacuable reaction chamber of an apparatus for the fluorination of plastics and subjected to a gas-phase fluorination, using a fluorine-containing gas mixture of pre-determined composition comprising fluorine gas or a fluorinating agent and one or more inert gases in which the gas-phase fluorination is carried out at atmospheric pressure in the reaction chamber, and characterized the following way : - a flushing using an inert flushing gas is carried out before the gas-phase fluorination, for complete or partial removal of atmospheric oxygen from the reaction chamber, flushing being effected at atmospheric pressure in the reaction chamber; - and the compositions of the amounts flowing away from the chamber are analytically monitored, and the analytical values obtained this way are used to control the metering and flushing times at pre-determined flow rates of the gas mixture metered in and of the inert flushing gas; and in that: the apparatus for the fluorination of plastics, comprises said non evacuable reaction chamber (1; 10; 17) and a cover, and on an entrance side, metering valves V0, V1, V2 for air, inert gas and gas mixture comprising fluorine and one or more inert gases, and comprises a release valve V3 and a flow-through/shut-off valve V4 being arranged in an exhaust gas line of the reaction chamber , a rotating drum having a perforated circumferential drum surface being arranged in the reaction chamber . - a flushing using an inert flushing gas is carried out before the gas-phase fluorination, for complete or partial removal of atmospheric oxygen from the reaction chamber, flushing being effected at atmospheric pressure in the reaction chamber; - and the compositions of the amounts flowing away from the chamber are analytically monitored, and the analytical values obtained this way are used to control the metering and flushing times at pre-determined flow rates of the gas mixture metered in and of the inert flushing gas;
A method of forming a composite product, the method comprising: providing a layer comprising a sheet-form moulding material; providing a substrate; applying the layer of sheet-form material onto a surface of the substrate; and pressing the sheet-form material to the substrate, wherein the substrate comprises a crushable material including a substantially open-celled structure such that gas and/or vapour can be displaced from the pressing region through a part of the substrate and a portion of the sheet-form material flows into the surface of the substrate during the pressing step; and wherein the crushable material of the substrate is such that, during the application of pressure step, a surface of the substrate is moulded. providing a layer comprising a sheet-form moulding material; providing a substrate; applying the layer of sheet-form material onto a surface of the substrate; and pressing the sheet-form material to the substrate, wherein the substrate comprises a crushable material including a substantially open-celled structure such that gas and/or vapour can be displaced from the pressing region through a part of the substrate and a portion of the sheet-form material flows into the surface of the substrate during the pressing step; and wherein the crushable material of the substrate is such that, during the application of pressure step, a surface of the substrate is moulded.
Apparatus for transferring conductive patterns to a substrate , comprising a module configured to transfer a pattern of sinterable material to said substrate and an optical module to perform a sintering of the transferred pattern , characterized in that said apparatus comprises one or more self-propelled pattern transferring units comprising a module configured to move said self propelled unit over said substrate under the control of movement instructions associated to a motor , said self propelled unit comprising said module configured to transfer a pattern of sinterable material (CI) to said substrate obtaining a transferred pattern and comprising also said optical module to perform a sintering of the transferred pattern on said substrate obtaining a sintered pattern . comprising a module configured to transfer a pattern of sinterable material to said substrate and an optical module to perform a sintering of the transferred pattern , characterized in that said apparatus comprises one or more self-propelled pattern transferring units comprising a module configured to move said self propelled unit over said substrate under the control of movement instructions associated to a motor , said self propelled unit comprising said module configured to transfer a pattern of sinterable material (CI) to said substrate obtaining a transferred pattern and comprising also said optical module to perform a sintering of the transferred pattern on said substrate obtaining a sintered pattern .
A fan unit connectable to a predetermined unit through a duct, the fan unit comprising: a fan with a variable rotation speed; a casing that has an intake port and a blow-out port and houses the fan ; a first acquisition unit that acquires a rotation speed (Nx) of a fan motor that drives the fan ; a second acquisition unit that acquires a volume of air (Qx) or a wind speed (Vx) of the fan ; and a control unit configured to controls the rotation speed of the fan motor , characterized in that the control unit is configured to determine whether or not a backflow in which air in the casing flows from the blow-out port toward the intake port occurs on a basis of the rotation speed (Nx) and the volume of air (Qx) or the wind speed (Vx), or on the basis of front-rear differential pressure (ΔPx) that is a difference in air pressure between the intake port and the blow-out port of the casing . a fan with a variable rotation speed; a casing that has an intake port and a blow-out port and houses the fan ; a first acquisition unit that acquires a rotation speed (Nx) of a fan motor that drives the fan ; a second acquisition unit that acquires a volume of air (Qx) or a wind speed (Vx) of the fan ; and a control unit configured to controls the rotation speed of the fan motor , characterized in that the control unit is configured to determine whether or not a backflow in which air in the casing flows from the blow-out port toward the intake port occurs on a basis of the rotation speed (Nx) and the volume of air (Qx) or the wind speed (Vx), or on the basis of front-rear differential pressure (ΔPx) that is a difference in air pressure between the intake port and the blow-out port of the casing .
Decoration apparatus for decorating a web of labeling material comprising: - conveying means for advancing the web of labeling material between a first station and a second station ; - an activation unit adapted to apply an electromagnetic activation energy at a activation station onto the web of labeling material for selectively activating photoactivatable pigments present in the web of labeling material ; the activation station being arranged between the first station and the second station ; wherein the decoration apparatus comprises a temperature-conditioning unit ; - wherein at least a portion of the temperature-conditioning unit is arranged between the first station and the second station ; characterized in that : - the activation unit comprises at least one laser assembly adapted to direct at the activation station , in use, a laser irradiation onto the advancing web of labeling material ; - the temperature-conditioning unit is adapted to actively cool and heat the web of labeling material , the temperature-conditioning unit being adapted to, in use, cool and heat the web of labeling material prior, during and/or after selective activation of the activatable pigments . - conveying means for advancing the web of labeling material between a first station and a second station ; - an activation unit adapted to apply an electromagnetic activation energy at a activation station onto the web of labeling material for selectively activating photoactivatable pigments present in the web of labeling material ; the activation station being arranged between the first station and the second station ; wherein the decoration apparatus comprises a temperature-conditioning unit ; - wherein at least a portion of the temperature-conditioning unit is arranged between the first station and the second station ; - the activation unit comprises at least one laser assembly adapted to direct at the activation station , in use, a laser irradiation onto the advancing web of labeling material ; - the temperature-conditioning unit is adapted to actively cool and heat the web of labeling material , the temperature-conditioning unit being adapted to, in use, cool and heat the web of labeling material prior, during and/or after selective activation of the activatable pigments .
A resin comprising a structural unit derived from a compound represented by formula (I) and a structural unit having an acid-labile group: wherein, in formula (I), R 1 represents a saturated hydrocarbon group having 1 to 24 carbon atoms which may have a substituent or an aromatic hydrocarbon group having 6 to 24 carbon atoms which may have a substituent, and a methylene group included in the saturated hydrocarbon group may be substituted with an oxygen atom or a carbonyl group, R 2 represents an alkyl group having 1 to 6 carbon atoms which may have a halogen atom, a hydrogen atom or a halogen atom, Ar represents an aromatic hydrocarbon group having 6 to 24 carbon atoms which may have a substituent, and L 1 represents a group represented by any one of formula (X 1 -1) to formula (X 1 -8): wherein, in formula (X1-5) to formula (X1-8), L 11 , L 13 , L 15 and L 17 each independently represent an alkanediyl group having 1 to 6 carbon atoms, L 12 , L 14 , L 16 and L 18 each independently represent -O-, -CO-, -CO-O-, -O-CO- or -O-CO-O, and ∗ and ∗∗ are bonds, and ∗∗ represents a bond to an iodine atom. R 1 represents a saturated hydrocarbon group having 1 to 24 carbon atoms which may have a substituent or an aromatic hydrocarbon group having 6 to 24 carbon atoms which may have a substituent, and a methylene group included in the saturated hydrocarbon group may be substituted with an oxygen atom or a carbonyl group, R 2 represents an alkyl group having 1 to 6 carbon atoms which may have a halogen atom, a hydrogen atom or a halogen atom, Ar represents an aromatic hydrocarbon group having 6 to 24 carbon atoms which may have a substituent, and L 1 represents a group represented by any one of formula (X 1 -1) to formula (X 1 -8): wherein, in formula (X1-5) to formula (X1-8), L 11 , L 13 , L 15 and L 17 each independently represent an alkanediyl group having 1 to 6 carbon atoms, L 12 , L 14 , L 16 and L 18 each independently represent -O-, -CO-, -CO-O-, -O-CO- or -O-CO-O, and ∗ and ∗∗ are bonds, and ∗∗ represents a bond to an iodine atom. L 11 , L 13 , L 15 and L 17 each independently represent an alkanediyl group having 1 to 6 carbon atoms, L 12 , L 14 , L 16 and L 18 each independently represent -O-, -CO-, -CO-O-, -O-CO- or -O-CO-O, and ∗ and ∗∗ are bonds, and ∗∗ represents a bond to an iodine atom.
A method for controlling a dew point in a reducing furnace which is at least a radiant tube-type and which is provided in continuous hot-dip galvanizing equipment, the method comprising steps of: applying annealing and hot-dip galvanizing treatment to a steel sheet having an Si content of 0.1% by mass or more in the continuous hot-dip galvanizing equipment; and supplying a gas into the reducing furnace in the applying to control the dew point in the reducing furnace to -20°C to 0°C, by using a mixed gas of a dry gas and a humidified gas by a humidifying device having a water vapor permeable membrane as the gas to be supplied into the reducing furnace; wherein supplying the gas into the reducing furnace to control the dew point in the reducing furnace comprises: measuring the dew point of the gas to be supplied into the reducing furnace ; measuring the dew point of the gas inside the reducing furnace in an upper portion, lower portion and middle portion in the height direction of the reducing furnace ; and controlling the supply gas dew point and flow rate, in response to the measured results, to control the dew point in the upper portion, lower portion and middle portion of the reducing furnace to -20°C to 0°C. applying annealing and hot-dip galvanizing treatment to a steel sheet having an Si content of 0.1% by mass or more in the continuous hot-dip galvanizing equipment; and supplying a gas into the reducing furnace in the applying to control the dew point in the reducing furnace to -20°C to 0°C, by using a mixed gas of a dry gas and a humidified gas by a humidifying device having a water vapor permeable membrane as the gas to be supplied into the reducing furnace; wherein supplying the gas into the reducing furnace to control the dew point in the reducing furnace comprises: measuring the dew point of the gas to be supplied into the reducing furnace ; measuring the dew point of the gas inside the reducing furnace in an upper portion, lower portion and middle portion in the height direction of the reducing furnace ; and controlling the supply gas dew point and flow rate, in response to the measured results, to control the dew point in the upper portion, lower portion and middle portion of the reducing furnace to -20°C to 0°C. measuring the dew point of the gas to be supplied into the reducing furnace ; measuring the dew point of the gas inside the reducing furnace in an upper portion, lower portion and middle portion in the height direction of the reducing furnace ; and controlling the supply gas dew point and flow rate, in response to the measured results, to control the dew point in the upper portion, lower portion and middle portion of the reducing furnace to -20°C to 0°C.
Method for managing licenses for soft IP on a partially reconfigurable hardware system, in particular an FPGA, characterised in that - a license manager is provided in the non-configurable part, HPS, of the hardware system, or accessible only for the non-configurable part of the hardware system, HPS, which license manager has exclusive access to a non-volatile memory in which license data comprising a time restriction of the useful life of at least one soft IP is stored, - before activating a particular soft IP , the license manager checks whether the useful life has expired, and - the license manager only releases use of the soft IP if the useful life has not yet expired, - the license data is changed using a key, which is stored in the non-volatile memory for license data , and - when the license data is changed, a new key is stored and the preceding key is deleted. - a license manager is provided in the non-configurable part, HPS, of the hardware system, or accessible only for the non-configurable part of the hardware system, HPS, which license manager has exclusive access to a non-volatile memory in which license data comprising a time restriction of the useful life of at least one soft IP is stored, - before activating a particular soft IP , the license manager checks whether the useful life has expired, and - the license manager only releases use of the soft IP if the useful life has not yet expired, - the license data is changed using a key, which is stored in the non-volatile memory for license data , and - when the license data is changed, a new key is stored and the preceding key is deleted.
A threaded joint for steel pipes, comprising: a tubular pin and a tubular box , the pin and the box being fastened by screwing the pin onto the box , the pin comprising, in order from a tubular body having the pin toward a free end thereof: a tapered male threaded portion ; and a lip portion including a sealing surface , the box comprising: a tapered female threaded portion ; and a recessed portion corresponding to the lip portion , the recessed portion including a sealing surface , wherein, the lip portion includes, in order from the male threaded portion toward the free end of the pin: a neck portion ; and a sealing head portion including the sealing surface , and the sealing surface is disposed on a region in the sealing head portion , the region having a maximum outside diameter (D 1 ) that is larger than an outside diameter of the neck portion (D 2 ) at a boundary between the neck portion and the male threaded portion , characterized in that : the tapered male threaded portion is a tapered male threaded portion with dovetail threads, the tapered female threaded portion is a tapered female threaded portion with dovetail threads corresponding to the male threaded portion of the pin, the neck portion has an outer peripheral surface , the outer peripheral surface being a cylindrical surface, and the sealing head portion has an outer peripheral surface , the outer peripheral surface including: a tapered surface that is adjacent to the outer peripheral surface of the neck portion and increases in diameter at an angle in a range of 5° to 20° with respect to the pipe axis (CL); a cylindrical surface that is adjacent to the tapered surface ; and the sealing surface , the sealing surface including a curved surface that is adjacent to the cylindrical surface and a tapered surface that decreases in diameter toward the free end of the pin . the tapered male threaded portion is a tapered male threaded portion with dovetail threads, the tapered female threaded portion is a tapered female threaded portion with dovetail threads corresponding to the male threaded portion of the pin, the neck portion has an outer peripheral surface , the outer peripheral surface being a cylindrical surface, and the sealing head portion has an outer peripheral surface , the outer peripheral surface including: a tapered surface that is adjacent to the outer peripheral surface of the neck portion and increases in diameter at an angle in a range of 5° to 20° with respect to the pipe axis (CL); a cylindrical surface that is adjacent to the tapered surface ; and the sealing surface , the sealing surface including a curved surface that is adjacent to the cylindrical surface and a tapered surface that decreases in diameter toward the free end of the pin .