mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for forming plastic preforms into plastic containers, having a forming device which has a plurality of forming stations which each have a blow mould within which the plastic preforms can be formed into the plastic containers, wherein the forming stations each have a stretching rod for stretching the plastic preform in its longitudinal direction and an application device for applying the plastic container with a flowable medium and in particular compressed air, wherein the forming device has at least four pressure reservoirs for the flowable medium, which each have predetermined pressures (P1, Pi, P+, P2), wherein a pressure Pi is smaller than a pressure P+ and the pressure P+ is smaller than a pressure P2, and a valve block with at least five process valves (V1, Vi, V+, V2, V Ex), wherein the application device is suitable and intended to establish a fluid connection between the valve block and a mouth region of the plastic preform, to act upon the plastic preform with the pressurized flowable medium and the process valves (V1, Vi, V+, V2, V Ex) are suitable and intended to act upon the plastic preform with different pressures, wherein at least one process valve (V Ex) is suitable and intended to establish a connection between the plastic container and an environment, wherein at least one throttle (60, 62) is arranged between the pressure reservoir and the process valve, the flow rate of which throttle is determined by an adjustable throttle cross-section, characterised in that the throttle cross-section being adjustable in such a way that it is larger than 28 mm 2, preferably larger than 38 mm 2 and particularly preferably larger than 52 mm 2, wherein the at least one throttle (60,62) is adjustable between at least two, preferably at least four and particularly preferably at least five fixed positions, wherein the adjustment can preferably be generated by a rotatable cylinder with different through holes. at least one throttle (60, 62) is arranged between the pressure reservoir and the process valve, the flow rate of which throttle is determined by an adjustable throttle cross-section, characterised in that the throttle cross-section being adjustable in such a way that it is larger than 28 mm 2, preferably larger than 38 mm 2 and particularly preferably larger than 52 mm 2, wherein the at least one throttle (60,62) is adjustable between at least two, preferably at least four and particularly preferably at least five fixed positions, wherein the adjustment can preferably be generated by a rotatable cylinder with different through holes.
A method for preparing salts of 5-nitrotetrazolate comprising reacting aqueous solutions of 5-aminotetrazole and an acid as a first reactant stream, and a nitrite as a second reactant stream in a continuous flow system at an elevated temperature in a range of approximately 50°C to 100°C, characterised in that the continuous flow system comprises a heated zone that is held at the elevated temperature, the heated zone comprising a preheat zone (20,22) for each reactant stream (12,14), a mixing zone that combines the first reactant stream and the second reactant stream into a reactant mixture, and a reaction zone that is configured to retain the reactant mixture in the heated zone until the reaction is complete.
Method for operating an inkjet printer in such a way that image files of a predetermined color depth of b bpc (bits per color), b c N, can be printed out therewith, wherein, if applicable, the color depth signals specified in an image file are converted from the color system F 1, F 2, F 3 applied there, for example Red, Green, Blue, into color depth signals of the available printing inks D 1, D 2, D 3, etc., for example Cyan, Magenta, Yellow, as well as, if applicable, Black and/or other colors, so that the resolution used for color depth of b bpc is surviving in the color depth signal referring to the printing colors D μ, wherein for one or several, in particular all printing colors D μ, in each case at least two inks T h,μ, T d,μ of the same color D μ, but of varying color intensity are used, namely at least one lighter ink T h,μ of a lighter color intensity J h,μ > 0, or even a colorless, brightening ink T f,μ of a brightening, virtual color intensity J f,μ < 0 and at least one darker ink T d,μ of a darker color intensity J d,μ, where the following applies: J d, μ − n * J h, μ = 0 or: J d, μ + n * J f, μ = 0 with n ≥ 2; and μ = 1, 2, 3...; and wherein on the area assigned to one pixel, several drops of the same ink T d,μ, T h,μ, T f,μ can be printed, namely maximal (n - 1) ink drops of the lighter or colorless ink T h,μ, T f,μ, and maximal (m - 1) ink drops of the darker ink T d,μ so that m brightness levels, namely 0... (m * J d,μ), can be accomplished with the darker ink T d,μ, and n brightness levels, namely 0... (n * J h,μ), can be accomplishe with the lighter ink T h,μ, from what altogether (n * m) different brightness levels are resulting, namely 0... [(m - 1) * J d,μ + (n - 1) * J h,μ)], characterized in that n N, n = 2 x, so that the following applies: J d, μ − 2 x * J h, μ = 0 or: J d, μ + 2 x * J f, μ = 0 where x N, x can be > 2, for example 2, 3 or 4; then 2 x is in these cases 2 2 = 4, or 2 3 = 8, or 2 4 = 16, and wherein the control signals for a printing unit E h,μ for a lighter or colorless ink T h,μ are derived from the x lower value bits of the color depth signal referenced to the used print colors D μ in such a way, that a number of drops of the lighter or colorless ink T h,μ, T f,μ, which is dependent on the value of the binary number in the x lower value bits, are shot at short intervals in succession, and wherein the control signals for a printing unit E d,μ for the darker ink T d,μ are derived from not more than (b - x) higher value bits of the color depth signal referenced to the print colors D μ, while a number of drops of the darker ink T d,μ corresponding to the binary number in the not more than (b - x) higher value bits are shot at short intervals in succession, however time-delayed by a time interval +τ, -τ corresponding to the physical distance +d, -d of both printing units E h,μ E d,μ in transport direction of the substrate so that the ink drops of the same ink T d,μ, T h,μ, T f,μ respectively of the same printing color D μ are printed immediately on top of one another.
Header comprising multiple row elements along the width of the header, the multiple row elements being connected to a frame which is segmented into two peripheral segments (15, 16) and two central segments (13, 14), each peripheral segment being connected to an adjacent one of the central segments via a respective distal pivot (17, 18) and the central segments being interconnected via a central pivot, wherein the distal pivots are arranged to allow a distal rotation of the peripheral segments (15, 16) with respect to the central segments (13, 14), and characterized in that the central pivot are arranged to allow a central rotation of the central segments (13, 14) with respect to each other, such that the segments are movable with respect to each other between a folded state and an operating state.
A developing device being arranged to be attachable/detachable to/from a main body of an image forming apparatus, the developing device comprising: a first frame that supports a photosensitive member; a second frame that supports a developing roller; and a connecting bracket characterized in that the connecting bracket is integrally formed by a plastic molding process so to include a fixed supporter to couple to a side portion of the first frame, a flexible supporter to couple to a side portion of the second frame, and an elastic arm to connect the fixed supporter and the flexible supporter to each other to provide an elastic force and elastically bias the developing roller toward the photosensitive member.
A handheld device for a bone implant fixation procedure, the device comprising: a handle; an awl-tap member releasably coupled to the handle and rotatably coupled to the handle via a ratchet assembly, the awl-tap member comprising an electrically conductive body including a distal tip at a distal end thereof for penetrating bone, and an externally threaded tapping portion adjacent to the distal tip configured to cut a thread on the inside surface of a hole created by the distal tip upon rotation of the awl-tap member, wherein the awl-tap member is configured to deliver electrical current to the bone for neuromonitoring and neurostimulation; a depth sleeve member operably associated with the handle and configured to move relative thereto, the depth sleeve member comprising an elongate body including a lumen extending therethrough, wherein at least a portion of the awl-tap member is received within the lumen when the awl-tap member is coupled to the handle and wherein the depth sleeve member and awl-tap member are configured to move independent of one another; and a sensor (536, 538) operably associated with the depth sleeve member and configured to detect movement of the depth sleeve member relative to the awl-tap member and to generate an electronic signal indicative of a depth of a hole created by the awl-tap member based on the detected movement. a handle; an awl-tap member releasably coupled to the handle and rotatably coupled to the handle via a ratchet assembly, the awl-tap member comprising an electrically conductive body including a distal tip at a distal end thereof for penetrating bone, and an externally threaded tapping portion adjacent to the distal tip configured to cut a thread on the inside surface of a hole created by the distal tip upon rotation of the awl-tap member, wherein the awl-tap member is configured to deliver electrical current to the bone for neuromonitoring and neurostimulation; a depth sleeve member operably associated with the handle and configured to move relative thereto, the depth sleeve member comprising an elongate body including a lumen extending therethrough, wherein at least a portion of the awl-tap member is received within the lumen when the awl-tap member is coupled to the handle and wherein the depth sleeve member and awl-tap member are configured to move independent of one another; and a sensor (536, 538) operably associated with the depth sleeve member and configured to detect movement of the depth sleeve member relative to the awl-tap member and to generate an electronic signal indicative of a depth of a hole created by the awl-tap member based on the detected movement.
Treatment unit comprising: - a clarifier tank configured to contain waste water, and provided with a bottom portion in which a through aperture is made; - an accumulation container disposed below said tank and connected to said through aperture, said accumulation container being configured to receive and contain the solid portion decanted from said waste water coming from said tank, and provided with a discharge aperture to allow the discharge of said solid portion; - a first closing device associated with said through aperture of said tank and configured to selectively separate said tank from said accumulation container; and - a second closing device associated with the discharge aperture of said accumulation container and configured to allow the selective discharge of said solid portion, wherein said discharge aperture has a cross section size equal to, or greater than, the maximum cross section size of said accumulation container, wherein said accumulation container defines an accumulation compartment, for said solid portion, characterized in that said accumulation compartment has a conical cross section shape with a taper that opens toward said discharge aperture, and in that said discharge aperture is made in correspondence with the bottom of said accumulation container. - a clarifier tank configured to contain waste water, and provided with a bottom portion in which a through aperture is made; - an accumulation container disposed below said tank and connected to said through aperture, said accumulation container being configured to receive and contain the solid portion decanted from said waste water coming from said tank, and provided with a discharge aperture to allow the discharge of said solid portion; - a first closing device associated with said through aperture of said tank and configured to selectively separate said tank from said accumulation container; and - a second closing device associated with the discharge aperture of said accumulation container and configured to allow the selective discharge of said solid portion, wherein said discharge aperture has a cross section size equal to, or greater than, the maximum cross section size of said accumulation container, wherein said accumulation container defines an accumulation compartment, for said solid portion, characterized in that said accumulation compartment has a conical cross section shape with a taper that opens toward said discharge aperture, and in that said discharge aperture is made in correspondence with the bottom of said accumulation container.
A method of manufacturing a dental post, comprising the steps of: (i) overjacketing extrusion of at least one thermoplastic material over at least one filament or yarn, such that the thermoplastic material, in cross-section, enwraps the at least one filament or yarn; (ii) solidifying the extruded product of step (i); (iii) equipping the solidified extruded product of step (ii) with a surface texture, such that the thermoplastic wrapping is not modified in a way as to expose or damage the at least one filament or yarn. (i) overjacketing extrusion of at least one thermoplastic material over at least one filament or yarn, such that the thermoplastic material, in cross-section, enwraps the at least one filament or yarn; (ii) solidifying the extruded product of step (i); (iii) equipping the solidified extruded product of step (ii) with a surface texture, such that the thermoplastic wrapping is not modified in a way as to expose or damage the at least one filament or yarn.
Biostimulant, characterized in that it comprises an extract obtained by aqueous extraction from at least one part of Rocket plants, for example of the genera Eruca (Eruca sativa, Eruca vesicaria, etc), Diplotaxis (Diplotaxis erucoides, Diplotaxis tenuifolia, Diplotaxis muralis, etc), Bunias (Bunias erucago, Bunias orientalis, etc), Erucastrum (Erucastrum nasturtiifolium, Erucastrum incanum, etc) or Cakile, in order to promote plant growth or root growth.
A computer-implemented method of automatically locating a portion of interest in image or matrix data derived from an item under consideration, which method comprises: identifying parts of the image or matrix data that satisfy a preset threshold as objects which are possibly parts of the portion of the interest; applying at least one preselected filter to the data corresponding to the objects to find a set of objects consisting of the objects most likely to be part of the portion of interest; sorting the objects of the set into clusters according to a predefined criterion; and using a known characteristic of the portion of interest to identify which one of the clusters corresponds to the portion of interest; wherein: the portion of interest is a layer or boundary representing or forming part of the item; the preselected filter filters out objects having a major axis in a direction perpendicular to an expected orientation of the layer or boundary; and the predefined criterion for sorting objects of the set into clusters is position in the direction perpendicular to the expected orientation of the layer or boundary. identifying parts of the image or matrix data that satisfy a preset threshold as objects which are possibly parts of the portion of the interest; applying at least one preselected filter to the data corresponding to the objects to find a set of objects consisting of the objects most likely to be part of the portion of interest; sorting the objects of the set into clusters according to a predefined criterion; and using a known characteristic of the portion of interest to identify which one of the clusters corresponds to the portion of interest; wherein: the portion of interest is a layer or boundary representing or forming part of the item; the preselected filter filters out objects having a major axis in a direction perpendicular to an expected orientation of the layer or boundary; and the predefined criterion for sorting objects of the set into clusters is position in the direction perpendicular to the expected orientation of the layer or boundary. the portion of interest is a layer or boundary representing or forming part of the item; the preselected filter filters out objects having a major axis in a direction perpendicular to an expected orientation of the layer or boundary; and the predefined criterion for sorting objects of the set into clusters is position in the direction perpendicular to the expected orientation of the layer or boundary.
A network slice management method, wherein the method comprises: obtaining, by a first management unit, isolation-sharing requirement information of a network slice, wherein the obtaining, by a first management unit, isolation-sharing requirement information of the network slice comprises: receiving, by the first management unit, a service request message, wherein the service request message carries isolation-sharing requirement information of a service; or the service request message carries second indication information, the second indication information is used to obtain a service descriptor, and the service descriptor comprises the isolation-sharing requirement information of the service; and determining, by the first management unit, an isolation-sharing level of the network slice based on the isolation-sharing requirement information of the service, wherein the network slice is used to provide the service, wherein the isolation-sharing level of the network slice indicates different degrees of isolation of the network slice including sharing, exclusivity, isolation, application isolation, soft isolation and hard isolation; and sending, by the first management unit, a network slice management request message to a second management unit, wherein the network slice management request message carries the isolation-sharing level of the network slice, and the network slice management request message is used to instruct the second management unit to select, create, configure, or request, based on the isolation-sharing level of the network slice, to configure the network slice. receiving, by the first management unit, a service request message, wherein the service request message carries isolation-sharing requirement information of a service; or the service request message carries second indication information, the second indication information is used to obtain a service descriptor, and the service descriptor comprises the isolation-sharing requirement information of the service; and determining, by the first management unit, an isolation-sharing level of the network slice based on the isolation-sharing requirement information of the service, wherein the network slice is used to provide the service, wherein the isolation-sharing level of the network slice indicates different degrees of isolation of the network slice including sharing, exclusivity, isolation, application isolation, soft isolation and hard isolation; and sending, by the first management unit, a network slice management request message to a second management unit, wherein the network slice management request message carries the isolation-sharing level of the network slice, and the network slice management request message is used to instruct the second management unit to select, create, configure, or request, based on the isolation-sharing level of the network slice, to configure the network slice.
An apparatus (10A, 10B) for monitoring sag of movable objects (22A, 22B), especially the electric lines of an electric network, the apparatus (10A, 10B) being fastenable to the object (22A, 22B) to be monitored and comprising: - an acceleration sensor, - a data processing unit operationally connected to the acceleration sensor, and - communication means for wirelessly relaying data from the data processing unit to outside the apparatus (10A, 10B), - the acceleration sensor being arranged to recognize movement or change of movement of the apparatus (10A, 10B) and - the data processing unit being arranged to: ∘ derive a parameter describing the status of the object (22A, 22B) on the basis of the movement data obtained from the acceleration sensor, characterized in that the processing unit is further arranged to ∘ calculate a period of swing of the apparatus (10A, 10B) on the basis of the acceleration data measured by the acceleration sensor and to ∘ calculate the vertical deviation of the movable object (22A, 22B) according to a mathematical pendulum formula of the movable object (22A, 22B), which vertical deviation is comparable to the sag of the movable object (22A, 22B). - an acceleration sensor, - a data processing unit operationally connected to the acceleration sensor, and - communication means for wirelessly relaying data from the data processing unit to outside the apparatus (10A, 10B), - the acceleration sensor being arranged to recognize movement or change of movement of the apparatus (10A, 10B) and - the data processing unit being arranged to: ∘ derive a parameter describing the status of the object (22A, 22B) on the basis of the movement data obtained from the acceleration sensor, characterized in that the processing unit is further arranged to ∘ calculate a period of swing of the apparatus (10A, 10B) on the basis of the acceleration data measured by the acceleration sensor and to ∘ calculate the vertical deviation of the movable object (22A, 22B) according to a mathematical pendulum formula of the movable object (22A, 22B), which vertical deviation is comparable to the sag of the movable object (22A, 22B). ∘ derive a parameter describing the status of the object (22A, 22B) on the basis of the movement data obtained from the acceleration sensor, characterized in that the processing unit is further arranged to ∘ calculate a period of swing of the apparatus (10A, 10B) on the basis of the acceleration data measured by the acceleration sensor and to ∘ calculate the vertical deviation of the movable object (22A, 22B) according to a mathematical pendulum formula of the movable object (22A, 22B), which vertical deviation is comparable to the sag of the movable object (22A, 22B).
Electrical apparatus for generation, transmission, distribution and/or usage of electrical energy, the electrical apparatus comprising a housing enclosing an electrical apparatus interior space, at least a portion of said electrical apparatus interior space comprising at least one insulation space, in which an electrical component is arranged and which contains an insulation medium surrounding the electrical component, the insulation medium comprising an organofluorine compound and at least one further component in gaseous phase, the electrical apparatus further comprising a gas flow generating device designed to generate a flow of an initial gas mixture through an outlet opening arranged in the housing out of the insulation space, the initial gas mixture containing the organofluorine compound and at least one further component of the insulation medium, wherein downstream of the outlet opening a substance recovery device is arranged, the substance recovery device comprising a separator for separating the organofluorine compound from the at least one remaining component of the initial gas mixture, said separator being or comprising a liquefaction device adapted for liquefying and/or a solidification device adapted for solidifying the organofluorine compound.