mhurhangee/ep-ind-claims huggingface dataset:
A start-stop tissue paper rewinding machine for unwinding primary reels (BP; BP2) of a tissue paper web material (N; N2) and rewinding said web material in secondary reels through successive winding cycles spaced by stops for replacement of the secondary reels with new winding cores; wherein the machine comprises: a winding station with winding members (5, 7) operated by at least one winding motor (8.1, 8.2); at least two unwinders (31.1, 31.2), each unwinder comprising at least a respective unwinding member (35.1, 35.2) operated by at least one respective unwinding motor (38.1, 38.2); for each unwinder, at least one respective guide roller (43.1, 43.2) along a feed path of the web material (N, N2) unwound from the respective unwinder; at least one respective load sensor (42.1, 42.2) associated with each guide roller (43.1, 43.2), the sensor being adapted to detect a parameter proportional to the tension of the respective web material (N; N2) guided around the guide roller (43.1, 43.2); and a control unit, adapted to modulate a difference in speed between the winding members (5, 7) and the unwinding member (35.1, 35.2) of each unwinder as a function of a signal from the respective load sensor (42.1, 42.2). a winding station with winding members (5, 7) operated by at least one winding motor (8.1, 8.2); at least two unwinders (31.1, 31.2), each unwinder comprising at least a respective unwinding member (35.1, 35.2) operated by at least one respective unwinding motor (38.1, 38.2); for each unwinder, at least one respective guide roller (43.1, 43.2) along a feed path of the web material (N, N2) unwound from the respective unwinder; at least one respective load sensor (42.1, 42.2) associated with each guide roller (43.1, 43.2), the sensor being adapted to detect a parameter proportional to the tension of the respective web material (N; N2) guided around the guide roller (43.1, 43.2); and a control unit, adapted to modulate a difference in speed between the winding members (5, 7) and the unwinding member (35.1, 35.2) of each unwinder as a function of a signal from the respective load sensor (42.1, 42.2).
A condensed core architecture system for routing packets between access routers, comprising: at least one ingress device, each ingress device configured to receive packets from one or more access routers, determine a destination address associated with each received packet, and map each received packet to a tunnel terminating at an access router associated with the destination address; at least one egress device, each egress device configured to convey toward the one or more access routers packets received at the egress device via paths supported by the egress device; and a plurality of geographically proximate core transport switches, each core transport switch configured for selectively switching data between the at least one ingress device and the at least one egress device, wherein the condensed core architecture system includes the plurality of core transport switches, the at least one ingress device, and the at least one egress device located proximate to each other to form a local connections region of short-range links interconnecting the plurality of core transport switches with the at least one ingress device and the at least one egress device; wherein an IP header of each packet that arrives at an ingress device performing one or more functions associated with an ingress router is inspected only by the ingress router. at least one ingress device, each ingress device configured to receive packets from one or more access routers, determine a destination address associated with each received packet, and map each received packet to a tunnel terminating at an access router associated with the destination address; at least one egress device, each egress device configured to convey toward the one or more access routers packets received at the egress device via paths supported by the egress device; and a plurality of geographically proximate core transport switches, each core transport switch configured for selectively switching data between the at least one ingress device and the at least one egress device, wherein the condensed core architecture system includes the plurality of core transport switches, the at least one ingress device, and the at least one egress device located proximate to each other to form a local connections region of short-range links interconnecting the plurality of core transport switches with the at least one ingress device and the at least one egress device; wherein an IP header of each packet that arrives at an ingress device performing one or more functions associated with an ingress router is inspected only by the ingress router.
A vehicle control device for controlling a vehicle with an engine, comprising: target drive force calculation means configured to calculate a target drive force based on a driving state of the vehicle (100, 101); vehicle speed detection means configured to detect a vehicle speed of the vehicle (100, 101); air density calculation means configured to calculate an air density; target engine output calculation means configured to calculate a target engine output based on the target drive force, the vehicle speed and the air density; and target engine torque calculation means configured to calculate a target engine torque based on the target engine output and the air density, characterized in that the target engine output calculation means is configured to set a smaller target engine output when the air density is low than when the air density is high; and the target engine torque calculation means is configured to set a larger target engine torque when the air density is low than when the air density is high. target drive force calculation means configured to calculate a target drive force based on a driving state of the vehicle (100, 101); vehicle speed detection means configured to detect a vehicle speed of the vehicle (100, 101); air density calculation means configured to calculate an air density; target engine output calculation means configured to calculate a target engine output based on the target drive force, the vehicle speed and the air density; and target engine torque calculation means configured to calculate a target engine torque based on the target engine output and the air density, characterized in that the target engine output calculation means is configured to set a smaller target engine output when the air density is low than when the air density is high; and the target engine torque calculation means is configured to set a larger target engine torque when the air density is low than when the air density is high.
An ink set for ink-jet printing comprising two or more kinds of water-based inks which are each constituted of a water-based ink comprising a pigment, a water-insoluble polymer, an organic solvent, a surfactant and water, in which: the organic solvent comprises at least a glycol ether (c-1) which has a viscosity of not less than 2.0 mPa•s and not more than 7.0 mPa•s as measured at 20°C and a vapor pressure of not less than 0.01 hPa and not more than 7.0 hPa as measured at 20°C, and a content of a glycol ether having a viscosity of not less than 6.0 mPa•s as measured at 20°C as a component of the glycol ether (c-1) in the water-based ink is not less than 0% by mass and not more than 5% by mass; the surfactant comprises a silicone-based surfactant (d-1), and a content of the silicone-based surfactant (d-1) in the water-based ink is not less than 0.005% by mass and not more than 0.3% by mass; a content of the organic solvent in the water-based ink is not less than 25% by mass and not more than 50% by mass; and a content of a high-boiling organic solvent having a boiling point of not lower than 250°C in the water-based ink is not more than 5% by mass, wherein the glycol ether (c-1) is at least one compound selected from the group consisting of ethylene glycol isopropyl ether, ethylene glycol propyl ether, diethylene glycol methyl ether, diethylene glycol isopropyl ether and diethylene glycol isobutyl ether, and the organic solvent further comprises an alkanediol having not less than 2 and not more than 6 carbon atoms.. the organic solvent comprises at least a glycol ether (c-1) which has a viscosity of not less than 2.0 mPa•s and not more than 7.0 mPa•s as measured at 20°C and a vapor pressure of not less than 0.01 hPa and not more than 7.0 hPa as measured at 20°C, and a content of a glycol ether having a viscosity of not less than 6.0 mPa•s as measured at 20°C as a component of the glycol ether (c-1) in the water-based ink is not less than 0% by mass and not more than 5% by mass; the surfactant comprises a silicone-based surfactant (d-1), and a content of the silicone-based surfactant (d-1) in the water-based ink is not less than 0.005% by mass and not more than 0.3% by mass; a content of the organic solvent in the water-based ink is not less than 25% by mass and not more than 50% by mass; and a content of a high-boiling organic solvent having a boiling point of not lower than 250°C in the water-based ink is not more than 5% by mass, wherein the glycol ether (c-1) is at least one compound selected from the group consisting of ethylene glycol isopropyl ether, ethylene glycol propyl ether, diethylene glycol methyl ether, diethylene glycol isopropyl ether and diethylene glycol isobutyl ether, and the organic solvent further comprises an alkanediol having not less than 2 and not more than 6 carbon atoms..
An aqueous composition comprising aqueous multistage emulsion copolymer compositions comprising (a) one or more dihydrazide compounds in a total amount of from 1 to 3 wt.%, based on the total weight of composition solids, and (b) of one or more aqueous multistage emulsion copolymers containing, as (i) a first stage, an emulsion copolymer having a glass transition temperature (Tg) via differential scanning calorimetry of from -50 to 30 °C, and containing, in copolymerized form, from 0.5 to 3.0 wt.% of one or more monoethylenically unsaturated phosphorous acid monomers and, from 0.75 to 5 wt.% of one or more keto group containing amide monomers, and, as (ii) a second stage, an emulsion copolymer having a DSC Tg of from 50 °C to 125 °C, wherein the Tg difference between the first stage and the second stage is from 45 °C to 150°C having a weight ratio of (i) the first stage to (ii) the second stage, based on copolymer solids, ranging from 50:50 to 90:10 or, all monomer wt.%s based on the total weight of monomers used to make the aqueous multistage emulsion copolymer, and, further wherein, the (ii) second stage of the aqueous multistage emulsion copolymer comprises, in copolymerized form, no more than 25 wt.% of the total monoethylenically unsaturated phosphorous acid monomers used to make the aqueous multistage emulsion copolymer, and no more than 50 wt.% of the total keto group containing amide monomers used to make the aqueous multistage emulsion copolymer and wherein (b) at least one of the one or more aqueous multistage emulsion copolymer comprises, in copolymerized form, at least 90 wt.% of the one or more monoethylenically unsaturated phosphorous acid monomers in the (i) first stage.
An installation tool for a wire thread insert having a cylindrical coil with a plurality of helically wound windings of a wire, in which a first winding comprises a driving tang with moving notch protruding into an interior of the coil via a bending portion, wherein the installation tool comprises the following features: a. a rotatable mounting spindle with a driving end for rotating the mounting spindle and a functional end (70; 70') for installation of the wire thread insert, wherein b. the functional end comprises at least one turn which is reduced in length in circumferential direction and which has a driving edge at a first end for engagement into a moving notch of the wire thread insert and a bend-up-shoulder at a second end for bending the driving tang of the wire thread insert radially outwardly. a. a rotatable mounting spindle with a driving end for rotating the mounting spindle and a functional end (70; 70') for installation of the wire thread insert, wherein b. the functional end comprises at least one turn which is reduced in length in circumferential direction and which has a driving edge at a first end for engagement into a moving notch of the wire thread insert and a bend-up-shoulder at a second end for bending the driving tang of the wire thread insert radially outwardly.
A resilient unit, comprising an array of first springs located in discrete pockets formed between superposed sheets (222a, 222b) of material joined at least at positions between the springs, wherein inside at least some of the first springs are located second, inner, non-pocketed springs which are taller/longer than the first springs.
A method of producing an aged, dry hopped beer by drawing out flavor of hops and infuse the extracted flavor into the beer, the method comprising the steps of: (a) obtaining a volume of the beer to be aged and dry hopped; (b) obtaining a controlled cavitation reactor comprising a cylindrical housing having an internally mounted cylindrical rotor having cavitation-inducing structures formed in an outer peripheral surface of the rotor, wherein a cavitation zone is defined between the outer peripheral surface of the rotor and the inner peripheral surface of the housing, and wherein radial bores in or on the outer peripheral surface of the rotor are used as the cavitation-inducing structures; (c) subjecting the beer to cavitation within the cavitation zone of the controlled cavitation reactor by flowing the beer through the cavitation zone of the controlled cavitation reactor while rotating the rotor within the housing by an electric motor at a rate sufficient to induce cavitation events in the beer as the beer moves through the cavitation zone; and (d) entraining hops in the flow of the beer in such a way that the hops move through the cavitation zone with the beer and are subjected to cavitation-induced shock waves and pressure variations in the beer within the cavitation zone to extract flavor therefrom and infuse the flavor into the beer. (a) obtaining a volume of the beer to be aged and dry hopped; (b) obtaining a controlled cavitation reactor comprising a cylindrical housing having an internally mounted cylindrical rotor having cavitation-inducing structures formed in an outer peripheral surface of the rotor, wherein a cavitation zone is defined between the outer peripheral surface of the rotor and the inner peripheral surface of the housing, and wherein radial bores in or on the outer peripheral surface of the rotor are used as the cavitation-inducing structures; (c) subjecting the beer to cavitation within the cavitation zone of the controlled cavitation reactor by flowing the beer through the cavitation zone of the controlled cavitation reactor while rotating the rotor within the housing by an electric motor at a rate sufficient to induce cavitation events in the beer as the beer moves through the cavitation zone; and (d) entraining hops in the flow of the beer in such a way that the hops move through the cavitation zone with the beer and are subjected to cavitation-induced shock waves and pressure variations in the beer within the cavitation zone to extract flavor therefrom and infuse the flavor into the beer.
A heat-insulated composite profile for frames of windows, doors, facade elements or the like, comprising inside and outside frame profiles of metal and at least one insulating bar which connects the frame profiles together and which is provided at its edge with connecting rails for connection to the frame profiles, wherein the insulating bar is provided in the region between the connecting rails with raised portions and/or depressions, characterised in that the raised portions or depressions are supported on contact flanks.
A construction machine comprising: a diesel engine; a plurality of driven bodies (13, 14, 15) actuated by motive power of the engine; operating levers (28, 29) for issuing an operating command to each of the driven bodies; target speed command means for issuing a command which specifies a target speed for the engine; and an exhaust gas cleaning system comprising: a filter disposed in an exhaust system of the engine in order to trap any particulate matter included in exhaust gases; a regenerating device (33, 39) configured to regenerate said filter by burning off the particulate matter deposited therein; and operational sensing means (35, 40) for sensing via pilot pressures whether the operating levers (28, 29) are in a neutral state; characterized in further comprising a regeneration control device configured to activate said regenerating device (33, 39) when the neutral state of the operating levers (28, 29) is sensed by said operational sensing means (35, 40), the neutral state continues for a predetermined time (Ta), and the target speed specified by the command issued from the target speed command means is higher than a predetermined speed (Na) suitable for regeneration. a diesel engine; a plurality of driven bodies (13, 14, 15) actuated by motive power of the engine; operating levers (28, 29) for issuing an operating command to each of the driven bodies; target speed command means for issuing a command which specifies a target speed for the engine; and an exhaust gas cleaning system comprising: a filter disposed in an exhaust system of the engine in order to trap any particulate matter included in exhaust gases; a regenerating device (33, 39) configured to regenerate said filter by burning off the particulate matter deposited therein; and operational sensing means (35, 40) for sensing via pilot pressures whether the operating levers (28, 29) are in a neutral state; characterized in further comprising a regeneration control device configured to activate said regenerating device (33, 39) when the neutral state of the operating levers (28, 29) is sensed by said operational sensing means (35, 40), the neutral state continues for a predetermined time (Ta), and the target speed specified by the command issued from the target speed command means is higher than a predetermined speed (Na) suitable for regeneration. a filter disposed in an exhaust system of the engine in order to trap any particulate matter included in exhaust gases; a regenerating device (33, 39) configured to regenerate said filter by burning off the particulate matter deposited therein; and operational sensing means (35, 40) for sensing via pilot pressures whether the operating levers (28, 29) are in a neutral state; characterized in further comprising a regeneration control device configured to activate said regenerating device (33, 39) when the neutral state of the operating levers (28, 29) is sensed by said operational sensing means (35, 40), the neutral state continues for a predetermined time (Ta), and the target speed specified by the command issued from the target speed command means is higher than a predetermined speed (Na) suitable for regeneration.
A housing device which houses a storage battery (102, 10) including a first connector (104, 12), the housing device comprising a storage battery holding part (110, 330) which holds the storage battery (102, 10); characterized in that the housing device comprises a drive part (120, 350) capable of (i) moving a second connector (106, 340) that is to be connected to the first connector (104, 12) of the storage battery (102, 10) toward the first connector (104, 12) and/or (ii) moving a second connector (106, 340) that has been connected to the first connector (104, 12) of the storage battery (102, 10) in a direction away from the first connector (104, 12). a storage battery holding part (110, 330) which holds the storage battery (102, 10); characterized in that the housing device comprises a drive part (120, 350) capable of (i) moving a second connector (106, 340) that is to be connected to the first connector (104, 12) of the storage battery (102, 10) toward the first connector (104, 12) and/or (ii) moving a second connector (106, 340) that has been connected to the first connector (104, 12) of the storage battery (102, 10) in a direction away from the first connector (104, 12).
A method, comprising: acquiring a sample image of a crystalline sample; selecting multiple crystals in the sample image; determining coordinates of the multiple selected crystals; directing an electron beam towards each of the multiple selected crystals, wherein at a location of each selected crystal, adjusting the electron beam to acquire multiple diffraction patterns of the selected crystal at different incident angles, characterized in that the selected crystal is not rotated by a sample holder while the electron beam is directed towards the selected crystal; and extracting crystallographic information from the multiple diffraction patterns. acquiring a sample image of a crystalline sample; selecting multiple crystals in the sample image; determining coordinates of the multiple selected crystals; directing an electron beam towards each of the multiple selected crystals, wherein at a location of each selected crystal, adjusting the electron beam to acquire multiple diffraction patterns of the selected crystal at different incident angles, characterized in that the selected crystal is not rotated by a sample holder while the electron beam is directed towards the selected crystal; and extracting crystallographic information from the multiple diffraction patterns.
Polymer composition having improved color stability and comprising: a) thermoplastic polymer in a proportion which together with the other components adds up to 100% by weight, b) at least one colorant based on anthraquinone and having at least one free hydroxyl function in a proportion of from 0.000001% by weight to 1.000000% by weight, c) at least one stabilizer based on phosphate and having the following structure where R21 to R23 are H or identical or different linear, branched or cyclic alkyl radicals, where c) is present in a proportion of from 0.00005 to 0.05000% by weight. a) thermoplastic polymer in a proportion which together with the other components adds up to 100% by weight, b) at least one colorant based on anthraquinone and having at least one free hydroxyl function in a proportion of from 0.000001% by weight to 1.000000% by weight, c) at least one stabilizer based on phosphate and having the following structure where R21 to R23 are H or identical or different linear, branched or cyclic alkyl radicals, where c) is present in a proportion of from 0.00005 to 0.05000% by weight.