mhurhangee/ep-ind-claims huggingface dataset:
A printer that performs printing on a long strip-shaped continuous paper, the printer comprising: a platen roller portion configured to feed the continuous paper; a printing head portion disposed movable to a closed position and an open position, the closed position opposing the platen roller portion, the open position being separated from the platen roller portion, the printing head portion configured to perform printing on the continuous paper; and a damper portion disposed on an upstream side of the printing head portion in a feed direction of the continuous paper, the damper portion being movable to a closed position abutting on the continuous paper and an open position separated from the continuous paper, the damper portion configured to reduce a stress applied to the continuous paper, characterized in that in a case of a transition from a state where the printing head portion is positioned on the open position separated from the platen roller portion and the damper portion is positioned on the open position separated from the continuous paper to a state where the printing head portion is positioned on the closed position opposing the platen roller portion and the damper portion is positioned on the closed position abutting on the continuous paper, the damper portion is configured to move to the closed position after the printing head portion moved to the closed position. a platen roller portion configured to feed the continuous paper; a printing head portion disposed movable to a closed position and an open position, the closed position opposing the platen roller portion, the open position being separated from the platen roller portion, the printing head portion configured to perform printing on the continuous paper; and a damper portion disposed on an upstream side of the printing head portion in a feed direction of the continuous paper, the damper portion being movable to a closed position abutting on the continuous paper and an open position separated from the continuous paper, the damper portion configured to reduce a stress applied to the continuous paper, characterized in that in a case of a transition from a state where the printing head portion is positioned on the open position separated from the platen roller portion and the damper portion is positioned on the open position separated from the continuous paper to a state where the printing head portion is positioned on the closed position opposing the platen roller portion and the damper portion is positioned on the closed position abutting on the continuous paper, the damper portion is configured to move to the closed position after the printing head portion moved to the closed position.
Assistance system for assisting the planning of an automation system, wherein the automation system is an electronic device and/or data processing device that is designed and configured so as to control a machine, a device and/or an installation, comprising - a configuration database comprising configuration datasets of automation systems, wherein a respective configuration dataset in each case comprises the configuration data of a predefined automation system, - a vectorization component for structuring and adjusting configuration datasets, wherein the vectorization component is designed and configured so as to convert the configuration datasets of the configuration database into vectorized configuration datasets, wherein the assistance system furthermore comprises an AI component that is designed and configured so as to process the vectorized configuration datasets using artificial intelligence and/or machine learning methods, wherein the processing of the vectorized configuration datasets by the AI component comprises using a neural network having a deep learning architecture, wherein the assistance system is designed and configured so as to execute a recommended operating state, in which - a draft configuration dataset is fed to the assistance system, - said draft configuration dataset is converted into a vectorized draft configuration dataset by way of the vectorization component, and - the assistance system determines a recommended configuration dataset from the configuration database therefrom using the neural network, and wherein, in relation to data of the draft configuration dataset, - respectively associated data of the recommended configuration dataset and/or - a deviation from respectively associated data of the recommended configuration dataset and/or - data from the recommended configuration dataset that supplement data of the draft configuration dataset are furthermore output by the assistance system. - a configuration database comprising configuration datasets of automation systems, wherein a respective configuration dataset in each case comprises the configuration data of a predefined automation system, - a vectorization component for structuring and adjusting configuration datasets, wherein the vectorization component is designed and configured so as to convert the configuration datasets of the configuration database into vectorized configuration datasets, - a draft configuration dataset is fed to the assistance system, - said draft configuration dataset is converted into a vectorized draft configuration dataset by way of the vectorization component, and - the assistance system determines a recommended configuration dataset from the configuration database therefrom using the neural network, - respectively associated data of the recommended configuration dataset and/or - a deviation from respectively associated data of the recommended configuration dataset and/or - data from the recommended configuration dataset that supplement data of the draft configuration dataset are furthermore output by the assistance system.
An optical frequency control device comprising: a light source to emit light; a sawtooth wave controller to generate a sawtooth wave; a frequency controller (4, 4b) to control a frequency of the sawtooth wave generated by the sawtooth wave controller; an optical phase modulator driven by the sawtooth wave generated by the sawtooth wave controller to carry out phase modulation of the light emitted by the light source, characterized in that the optical frequency control device further comprises an optical split coupler to split part of the light phase-modulated by the optical phase modulator; and an optical filter to converts frequency variation of the light split by the optical split coupler tointensity variation, wherein the sawtooth wave controller generates the sawtooth wave in a manner as to keep constant the intensity variation, which is converted by the optical filter. a light source to emit light; a sawtooth wave controller to generate a sawtooth wave; a frequency controller (4, 4b) to control a frequency of the sawtooth wave generated by the sawtooth wave controller; an optical phase modulator driven by the sawtooth wave generated by the sawtooth wave controller to carry out phase modulation of the light emitted by the light source, characterized in that the optical frequency control device further comprises an optical split coupler to split part of the light phase-modulated by the optical phase modulator; and an optical filter to converts frequency variation of the light split by the optical split coupler tointensity variation, wherein the sawtooth wave controller generates the sawtooth wave in a manner as to keep constant the intensity variation, which is converted by the optical filter.
A vacuum grip for an end effector, comprising: at least one vacuum draw eyelet connectively associated with a vacuum at a base portion thereof, and having a larger cross-sectional circumference at a topmost portion thereof than at the base portion; characterized in that the vacuum grip further comprises an extending cup foam portion including a receiving portion suitable for receiving therewithin the larger cross-sectional circumference of the topmost portion; and a wire clip comprising two legs inserted along a cross-sectional plane of the extending cup foam portion, the two legs being suitable to compress the receiving portion into frictional contact at two tangent points on a second cross-sectional circumference of the vacuum draw eyelet below the larger cross-sectional circumference. at least one vacuum draw eyelet connectively associated with a vacuum at a base portion thereof, and having a larger cross-sectional circumference at a topmost portion thereof than at the base portion; characterized in that the vacuum grip further comprises an extending cup foam portion including a receiving portion suitable for receiving therewithin the larger cross-sectional circumference of the topmost portion; and a wire clip comprising two legs inserted along a cross-sectional plane of the extending cup foam portion, the two legs being suitable to compress the receiving portion into frictional contact at two tangent points on a second cross-sectional circumference of the vacuum draw eyelet below the larger cross-sectional circumference.
A baler with a bale pressing chamber for agricultural stalk materials, which is connected with a wrapping device comprising a swivelable wrapping table for the wrapping of a bale with foil via at least one frame carried by a chassis, wherein between the baler and the wrapping device at least one actively driven bale transfer device for the transfer of the finished bale from the bale pressing chamber to the wrapping table of the wrapping device is present, wherein the operational sequence of the transfer of the bale from the bale pressing chamber to the wrapping device is controlled as a function of the inclination of the baler and/or the wrapping device to the plane, wherein the control of operational sequence is performed manually and/or automatically by means of a control device, wherein the control device is connected with an inclination sensor, characterized in that t the inclination sensor generates a sensor value from the inclination of the baler and/or the wrapping device, as a function of which the swivelling of the wrapping table is performed.
Device for storing at least one set of orthodontic pliers, said device being of the type comprising a case, consisting of a material which is impenetrable to light, said case including at least one storage housing capable of receiving a set of pliers, said storage housing opening out at the surface of said case at an insertion opening, said storage housing comprising means for holding a set of orthodontic pliers, said storage housing including an inner surface, characterised in that said case includes a flap, which is mounted such that it can move rotatably between a closing position, in which said flap cooperates with said inner surface of said storage housing to form said insertion opening and said storage housing, and an opening position in which said flap is at a distance from said inner surface of said storage housing and makes it possible to access the latter and in that said holding means include a narrowing formed in said storage housing or at said insertion opening, by the cooperation of said inner surface of said storage housing and of said flap, in said closing position of the latter.
A method for determining a refractive index profile of a transparent optical object having a cylindrical surface and a longitudinal cylinder axis, the method comprising: (a) scanning the cylindrical surface of the optical object at a first plurality of scanning locations by one or more optical beams impinging perpendicularly to the longitudinal cylinder axis, a pinhole aperture being located in a path of the one or more optical beams upstream of the cylindrical surface, wherein the pinhole aperture has a diameter of between about 50 micrometers and about 500 micrometers; (b) measuring a first deflection function of the optical object based on detection of the one or more optical beams after deflection by the optical object for each of the first plurality of scanning locations; (c) scanning the cylindrical surface of the optical object at a second plurality of scanning locations by one or more optical beams impinging perpendicularly to the longitudinal cylinder axis, the path of the one or more optical beams being free of the pinhole aperture; (d) measuring a second deflection function of the optical object based on detection of the one or more optical beams after deflection by the optical object for each of the second plurality of scanning locations; (e) merging at least a portion of the first deflection function with at least a portion of the second deflection function to obtain a composite deflection function; and (f) calculating the refractive index profile of the optical object using the composite deflection function. (a) scanning the cylindrical surface of the optical object at a first plurality of scanning locations by one or more optical beams impinging perpendicularly to the longitudinal cylinder axis, a pinhole aperture being located in a path of the one or more optical beams upstream of the cylindrical surface, wherein the pinhole aperture has a diameter of between about 50 micrometers and about 500 micrometers; (b) measuring a first deflection function of the optical object based on detection of the one or more optical beams after deflection by the optical object for each of the first plurality of scanning locations; (c) scanning the cylindrical surface of the optical object at a second plurality of scanning locations by one or more optical beams impinging perpendicularly to the longitudinal cylinder axis, the path of the one or more optical beams being free of the pinhole aperture; (d) measuring a second deflection function of the optical object based on detection of the one or more optical beams after deflection by the optical object for each of the second plurality of scanning locations; (e) merging at least a portion of the first deflection function with at least a portion of the second deflection function to obtain a composite deflection function; and (f) calculating the refractive index profile of the optical object using the composite deflection function.
An automated multi-module cell editing instrument comprising: a housing configured to house all or some of the modules; a receptacle configured to receive cells; one or more receptacles configured to receive nucleic acids; a transformation module configured to introduce the nucleic acids into the cells; a recovery module (110a, 110b) configured to receive cells from the transformation module and to allow the cells to recover after cell transformation in the transformation module; a nuclease-directed editing module configured to allow the introduced nucleic acids to edit nucleic acids in the cells; and a processor configured to operate the automated multi-module cell editing instrument based on user input and/or selection of a pre-programmed script; a robotic handling system for moving materials to or between modules; and comprising an automated liquid handling system to move liquids directly from one of the recovery module, transformation module, or nuclease-directed editing module to another of the recovery module, transformation module, or nuclease-directed editing module without user intervention. a housing configured to house all or some of the modules; a receptacle configured to receive cells; one or more receptacles configured to receive nucleic acids; a transformation module configured to introduce the nucleic acids into the cells; a recovery module (110a, 110b) configured to receive cells from the transformation module and to allow the cells to recover after cell transformation in the transformation module; a nuclease-directed editing module configured to allow the introduced nucleic acids to edit nucleic acids in the cells; and a processor configured to operate the automated multi-module cell editing instrument based on user input and/or selection of a pre-programmed script; a robotic handling system for moving materials to or between modules; and comprising an automated liquid handling system to move liquids directly from one of the recovery module, transformation module, or nuclease-directed editing module to another of the recovery module, transformation module, or nuclease-directed editing module without user intervention.
A gas flow control device for a gas stove, characterized by comprising: a drive device, a valve body and a piston portion; wherein the valve body comprises an inner cavity, a gas inlet, and at least one gas outlet, and the gas inlet and the gas outlet are separately in communication with the inner cavity; the piston portion is placed in the inner cavity; the drive device is used to control a position of the piston portion in the inner cavity, so as to control whether the gas outlet is in communication with gas in the inner cavity and/or to control a degree at which the gas outlet is in communication with the gas in the inner cavity, characterised in that the gas outlet comprises at least two first gas outlets and at least two second gas outlets; the first gas outlets together supply gas to an inner-ring fire cover; the second gas outlets together supply gas to an outer-ring fire cover; wherein the gas flow control device further includes a first gas gathering member, a second gas gathering member and a gas gathering upper cover provided with a first gas gathering cavity and a second gas gathering cavity, wherein the first gas gathering cavity is used to gather the gas that flows out from the first gas outlets, and further deliver the gas to the first gas gathering member which supplies the gas to the inner-ring fire cover, wherein the second gas gathering cavity is used to gather the gas that flows out from the second gas outlets, and further deliver the gas to the second gas gathering member which supplies the gas to the outer-ring fire cover. a drive device, a valve body and a piston portion; wherein the valve body comprises an inner cavity, a gas inlet, and at least one gas outlet, and the gas inlet and the gas outlet are separately in communication with the inner cavity; the piston portion is placed in the inner cavity; the drive device is used to control a position of the piston portion in the inner cavity, so as to control whether the gas outlet is in communication with gas in the inner cavity and/or to control a degree at which the gas outlet is in communication with the gas in the inner cavity, characterised in that the gas outlet comprises at least two first gas outlets and at least two second gas outlets; the first gas outlets together supply gas to an inner-ring fire cover; the second gas outlets together supply gas to an outer-ring fire cover; wherein the gas flow control device further includes a first gas gathering member, a second gas gathering member and a gas gathering upper cover provided with a first gas gathering cavity and a second gas gathering cavity, wherein the first gas gathering cavity is used to gather the gas that flows out from the first gas outlets, and further deliver the gas to the first gas gathering member which supplies the gas to the inner-ring fire cover, wherein the second gas gathering cavity is used to gather the gas that flows out from the second gas outlets, and further deliver the gas to the second gas gathering member which supplies the gas to the outer-ring fire cover.
A liquid detergent composition comprising: a surfactant [hereinafter, referred to as component] in an amount of 40 to 80% by mass; a polymer compound described below [hereinafter, referred to as component] in an amount of 0.3 to 8 % by mass; and water, wherein component comprises a nonionic surfactant [hereinafter, referred to as component] represented by formula in an amount of 30 to 70 % by mass of the composition; and an anionic surfactant [hereinafter, referred to as component] wherein the total content of components and, +, is 40 to 80% by mass, and a mass ratio of components to, /, is 25/75 to 90/10: component: a nonionic surfactant represented by formula R 1 O-(C 2 H 4 O) m /(A'O) n H wherein, R 1 represents a hydrocarbon group having 8 to 22 carbon atoms; A'O represents an oxyalkylene group having 3 to 5 carbon atoms; m and n each represent an average addition mole number, m is a number of 16 to 30 and n is a number of 1 to 5; "/" defines that C 2 H 4 O group and A'O group are linked either randomly or in blocks of the respective groups; component: a polymer compound having a polyether chain moiety (i) composed of polymerization units derived from an epoxide having 2 to 5 carbon atoms and a polymer chain moiety (ii) composed of polymerization units derived from one or more unsaturated carboxylic acid monomers selected from the group consisting of acrylic acid, methacrylic acid and maleic acid, the polymer compound having a graft structure wherein one of the chain moieties (i) and (ii) is the main chain and the other is a side chain; and wherein the composition further comprises, as component, a water-miscible organic solvent in an amount of 5 to 40% by mass and, as component, an alkaline agent in an amount of 0.5 to 8% by mass. component: a nonionic surfactant represented by formula R 1 O-(C 2 H 4 O) m /(A'O) n H wherein, R 1 represents a hydrocarbon group having 8 to 22 carbon atoms; A'O represents an oxyalkylene group having 3 to 5 carbon atoms; m and n each represent an average addition mole number, m is a number of 16 to 30 and n is a number of 1 to 5; "/" defines that C 2 H 4 O group and A'O group are linked either randomly or in blocks of the respective groups; component: a polymer compound having a polyether chain moiety (i) composed of polymerization units derived from an epoxide having 2 to 5 carbon atoms and a polymer chain moiety (ii) composed of polymerization units derived from one or more unsaturated carboxylic acid monomers selected from the group consisting of acrylic acid, methacrylic acid and maleic acid, the polymer compound having a graft structure wherein one of the chain moieties (i) and (ii) is the main chain and the other is a side chain;