mhurhangee/ep-ind-claims huggingface dataset:
An assistance system for allocating agricultural machines, wherein the assistance system comprises a database and a computer unit, wherein the database contains machine data for a plurality of machines and machine requirement plans for a plurality of agricultural enterprises, wherein the computer unit compares the machine data with the machine requirement plans, wherein the assistance system assigns at least one respective machine to a plurality of agricultural enterprises, so that the machine data for the assigned machines fulfil the machine requirement plans for the agricultural enterprises, wherein the assistance system temporarily assigns the machines to the agricultural enterprises for prespecified units of time. wherein the database contains machine data for a plurality of machines and machine requirement plans for a plurality of agricultural enterprises, wherein the computer unit compares the machine data with the machine requirement plans, wherein the assistance system assigns at least one respective machine to a plurality of agricultural enterprises, so that the machine data for the assigned machines fulfil the machine requirement plans for the agricultural enterprises, wherein the assistance system temporarily assigns the machines to the agricultural enterprises for prespecified units of time.
A panel for an active laminar flow control arrangement, comprising: a longitudinal wall (334,434); a sidewall (336,436) extending from the longitudinal wall (334,434); a ridge (332,432) intersecting the sidewall (336,436); a cavity (322,324,422,424) disposed in the panel and at least partially defined by the sidewall (336,436) and the longitudinal wall (334,434); and a division wall (328,428) disposed in the cavity (322,324,422,424) and extending from the longitudinal wall (334,434), wherein the division wall (328,428) divides the cavity (322,324,422,424) to at least partially define a first plenum (340a,440a) and a second plenum (340b,440b); characterised by a sealant (346,446) disposed on an end of the division wall (328,428) and configured to be compressed between the end of the division wall (328,428) and an outer skin; wherein the division wall (328,428) is T-shaped. a longitudinal wall (334,434); a sidewall (336,436) extending from the longitudinal wall (334,434); a ridge (332,432) intersecting the sidewall (336,436); a cavity (322,324,422,424) disposed in the panel and at least partially defined by the sidewall (336,436) and the longitudinal wall (334,434); and a division wall (328,428) disposed in the cavity (322,324,422,424) and extending from the longitudinal wall (334,434), wherein the division wall (328,428) divides the cavity (322,324,422,424) to at least partially define a first plenum (340a,440a) and a second plenum (340b,440b); characterised by a sealant (346,446) disposed on an end of the division wall (328,428) and configured to be compressed between the end of the division wall (328,428) and an outer skin; wherein the division wall (328,428) is T-shaped.
A method of determining efficacy of an antimicrobial treatment regimen in a subject, the method comprising: (i) assaying at least one initial biological sample with a pattern recognition receptor -based assay for the presence of microbe associated molecular patterns (MAMPs), wherein the initial biological sample has been collected from the subject before or during the course of the antimicrobial treatment which has been administered; (ii) assaying at least one subsequent biological sample with a pattern recognition receptor -based assay for the presence of microbe associated molecular patterns (MAMPs), wherein the subsequent biological sample has been collected after the initial sample and between 1 and 24 hours after the initiation of the antimicrobial treatment; (iii) comparing the subsequent detectable signal level of MAMPs obtained from (ii) to the initial detectable signal level of MAMPS obtained from (i) to determine the treatment related change in the detectable signal level; and (iv) identifying the antimicrobial treatment to be effective if a treatment related change in the detectable signal level is present; or identifying the antimicrobial treatment to be ineffective if the treatment related change in the detectable signal level is absent, wherein the MAMPs comprise components or motifs secreted or released by microbes or groups of microbes. (i) assaying at least one initial biological sample with a pattern recognition receptor -based assay for the presence of microbe associated molecular patterns (MAMPs), wherein the initial biological sample has been collected from the subject before or during the course of the antimicrobial treatment which has been administered; (ii) assaying at least one subsequent biological sample with a pattern recognition receptor -based assay for the presence of microbe associated molecular patterns (MAMPs), wherein the subsequent biological sample has been collected after the initial sample and between 1 and 24 hours after the initiation of the antimicrobial treatment; (iii) comparing the subsequent detectable signal level of MAMPs obtained from (ii) to the initial detectable signal level of MAMPS obtained from (i) to determine the treatment related change in the detectable signal level; and (iv) identifying the antimicrobial treatment to be effective if a treatment related change in the detectable signal level is present; or
A plug, comprising: a body having a first lateral surface and a second lateral surface which are opposite to each other; a plurality of pins arranged on the first lateral surface; and a pull portion arranged on the second lateral surface of the body, wherein the pull portion is unitarily connected to the body through a connecting portion, and, under the action of an external force, the pull portion can be turned over in a direction away from the first and second lateral surfaces (15,11), thereby tilting the pull portion relative to the second lateral surface; wherein, with no external force, the pull portion is parallel to the second lateral surface of the body and a space is formed between the pull portion and the second lateral surface of the body, characterized in that, at least part of a side wall of the connecting portion protrudes outside a side wall of the body, forming at least one protruding step at the side wall of the connecting portion for a finger to hold the plug. a body having a first lateral surface and a second lateral surface which are opposite to each other; a plurality of pins arranged on the first lateral surface; and a pull portion arranged on the second lateral surface of the body, wherein the pull portion is unitarily connected to the body through a connecting portion, and, under the action of an external force, the pull portion can be turned over in a direction away from the first and second lateral surfaces (15,11), thereby tilting the pull portion relative to the second lateral surface; wherein, with no external force, the pull portion is parallel to the second lateral surface of the body and a space is formed between the pull portion and the second lateral surface of the body, characterized in that, at least part of a side wall of the connecting portion protrudes outside a side wall of the body, forming at least one protruding step at the side wall of the connecting portion for a finger to hold the plug.
A method performed by a network device for transmitting remaining minimum system information, RMSI, in a wireless network, wherein a number of synchronization signal SS/PBCH blocks constitute a SS burst set which is transmitted periodically with a first periodicity, the method comprises: broadcast a subset of minimum system information on a phycisal broadcast channel PBCH, wherein the RMSI is a remaining subset of the minimum system information and wherein the RMSI is carried in a physical downlink shared channel, PDSCH; determining whether or not a SS/PBCH block in the SS burst set configures the RMSI; determining whether the first periodicity is greater than a predefined value; and in response to that the SS/PBCH block configures the RMSI and the first periodicity is greater than the predefined value, transmitting one or more repeated RMSI within the first periodicity. broadcast a subset of minimum system information on a phycisal broadcast channel PBCH, wherein the RMSI is a remaining subset of the minimum system information and wherein the RMSI is carried in a physical downlink shared channel, PDSCH; determining whether or not a SS/PBCH block in the SS burst set configures the RMSI; determining whether the first periodicity is greater than a predefined value; and in response to that the SS/PBCH block configures the RMSI and the first periodicity is greater than the predefined value, transmitting one or more repeated RMSI within the first periodicity.
Method of operating a coolable furnace roller for transport of a strip or a slab through a furnace, comprising a support axle, which is mounted to be rotatable about an axis (a) and on which a number of support rings is arranged, wherein an insulation is arranged in the axial region between at least two support channels, wherein the insulation consists at least partly of a fibre material, in which the furnace roller is flowed through in its interior by a cooling medium in order to cool the furnace roller, characterised in that the method comprises the steps: a) measuring of the temperature (T inlet) of the cooling medium entering the furnace roller and measuring the temperature (T oulet) of the cooling medium leaving the furnace roller and forming the temperature difference (ΔT = T outlet - T inlet); b) measuring mass flow (ṁ) of the cooling medium flowing through the furnace roller; c) forming the product of temperature difference (ΔT) and mass flow (ṁ); d) observing the product of temperature difference (ΔT) and mass flow (ṁ) over time; and e) triggering a signal as soon as the value of the product of temperature difference (ΔT) and mass flow (m) exceeds a predetermined limit value. a) measuring of the temperature (T inlet) of the cooling medium entering the furnace roller and measuring the temperature (T oulet) of the cooling medium leaving the furnace roller and forming the temperature difference (ΔT = T outlet - T inlet); b) measuring mass flow (ṁ) of the cooling medium flowing through the furnace roller; c) forming the product of temperature difference (ΔT) and mass flow (ṁ); d) observing the product of temperature difference (ΔT) and mass flow (ṁ) over time; and e) triggering a signal as soon as the value of the product of temperature difference (ΔT) and mass flow (m) exceeds a predetermined limit value.
A method for obtaining optical interference effects on enamelled or non-enamelled ceramic or glass surfaces, or enamelled metal surfaces comprising the following steps: a) depositing an interphase comprising aluminosilicate particles with a refraction index less than or equal to 1.7 and with a laminar morphology where at least 90% of said particles have a particle size between 0.1 μm and 1 μm, in the form of a thin layer with a thickness comprised between 5-100 μm, on the surface to be treated by means of any conventional ceramic, glass or metal deposition technique, b) applying "ink-jet effect inks" comprising particles with a size between 10 nm and 1 μm and a refraction index greater than or equal to 1.8 by means of the digital ink-jet technique on the interphase deposited in the previous step, and c) subjecting the treated part to thermal treatment with a temperature comprised between 700 and 1300°C. a) depositing an interphase comprising aluminosilicate particles with a refraction index less than or equal to 1.7 and with a laminar morphology where at least 90% of said particles have a particle size between 0.1 μm and 1 μm, in the form of a thin layer with a thickness comprised between 5-100 μm, on the surface to be treated by means of any conventional ceramic, glass or metal deposition technique, b) applying "ink-jet effect inks" comprising particles with a size between 10 nm and 1 μm and a refraction index greater than or equal to 1.8 by means of the digital ink-jet technique on the interphase deposited in the previous step, and c) subjecting the treated part to thermal treatment with a temperature comprised between 700 and 1300°C.
A cell for manipulating and directing an acoustic wave, comprising: a hub and a plurality of spokes radiating from the hub, wherein each spoke has a plurality of junctures, the cell characterized by: - a plurality of fingers circumferentially distributed around the hub, wherein at least one finger of the plurality of fingers is connected at each juncture, wherein the plurality of fingers have a planar surface bounded by a plurality of edges (106, 110), the plurality of fingers being oriented to cause the acoustic wave to enter the plurality of fingers via at least one of the plurality of edges (106, 110) and travel along an axis that is parallel to the planar surface; wherein the cell is a metamaterial cell; the plurality of fingers form a plurality of concentric leaves; each of the plurality of fingers includes one or more enlarged portion; and each of the plurality of fingers is cantilevered from a juncture of the spoke. - a plurality of fingers circumferentially distributed around the hub, wherein at least one finger of the plurality of fingers is connected at each juncture, wherein the plurality of fingers have a planar surface bounded by a plurality of edges (106, 110), the plurality of fingers being oriented to cause the acoustic wave to enter the plurality of fingers via at least one of the plurality of edges (106, 110) and travel along an axis that is parallel to the planar surface; wherein the cell is a metamaterial cell; the plurality of fingers form a plurality of concentric leaves; each of the plurality of fingers includes one or more enlarged portion; and each of the plurality of fingers is cantilevered from a juncture of the spoke.
Additive printing method for printing a functional print pattern on a surface of a three-dimensional object, the method comprising the steps of: - providing a three-dimensional object on a planar surface; - providing a print head having a plurality of print nozzles (200A1-200An), the plurality of print nozzles (200A1-200An) defining at least one print nozzle plane, the print nozzle plane being non-parallel to the planar surface; - generating three-dimensional geometrical surface data of an exposed surface of the object on the planar surface; - generating two-dimensional geometrical surface data of the exposed surface of the object on the planar surface on the basis of the three-dimensional geometrical surface data; - determining an amount of printing fluid to be discharged at a discharge time from each of the plurality of print nozzles (200A1-200An); - generating a relative movement between the object and the print head (200A, 200B); and - printing a print pattern on at least one portion of the exposed surface of the object during the relative movement; wherein the step of generating the two-dimensional geometrical surface data includes the step of projecting the two-dimensional geometrical surface data into the print nozzle plane to correct distortions present in the two-dimensional geometrical surface data due to the print nozzle plane being non-parallel with the planar surface, thereby obtaining two-dimensional print nozzle plane data of the object. - providing a three-dimensional object on a planar surface; - providing a print head having a plurality of print nozzles (200A1-200An), the plurality of print nozzles (200A1-200An) defining at least one print nozzle plane, the print nozzle plane being non-parallel to the planar surface; - generating three-dimensional geometrical surface data of an exposed surface of the object on the planar surface; - generating two-dimensional geometrical surface data of the exposed surface of the object on the planar surface on the basis of the three-dimensional geometrical surface data; - determining an amount of printing fluid to be discharged at a discharge time from each of the plurality of print nozzles (200A1-200An); - generating a relative movement between the object and the print head (200A, 200B); and - printing a print pattern on at least one portion of the exposed surface of the object during the relative movement;
A method for determining preoperative estimation of postoperative intraocular lens position of an intraocular lens, comprising: an optical biometric machine that is configured to determine: an axial length of an eye which is a distance from an anterior surface of a cornea of the eye along an optical axis of the eye to an anterior surface of a retina of the eye within a fovea region of the eye, with the optical axis being a reference line along which light propagates through the eye; an Ante-Nucleus Distance of the eye, which is a distance from the anterior surface of cornea of the eye along the optical axis of the eye to an anterior surface of a natural lens nucleus of the eye; and a Retro-Nucleus Distance, which is a distance from the anterior surface of the natural lens nucleus of the eye to a posterior surface of a natural lens capsule of the eye; with an Estimated Anterior Pseudophakic Distance (EAPD) for position of the intraocular lens is calculated in accordance with: EAPD = W 1 + W 2 × AND + W 3 × RND + W 4 × AL, Where W 1, W 2, W 3, and W 4 are constant coefficients. an axial length of an eye which is a distance from an anterior surface of a cornea of the eye along an optical axis of the eye to an anterior surface of a retina of the eye within a fovea region of the eye, with the optical axis being a reference line along which light propagates through the eye; an Ante-Nucleus Distance of the eye, which is a distance from the anterior surface of cornea of the eye along the optical axis of the eye to an anterior surface of a natural lens nucleus of the eye; and a Retro-Nucleus Distance, which is a distance from the anterior surface of the natural lens nucleus of the eye to a posterior surface of a natural lens capsule of the eye; with an Estimated Anterior Pseudophakic Distance (EAPD) for position of the intraocular lens is calculated in accordance with: EAPD = W 1 + W 2 × AND + W 3 × RND + W 4 × AL, Where W 1, W 2, W 3, and W 4 are constant coefficients.
Assembly for producing electromagnetic strips of different heights, each strip having a hollow and straight main profile capable of being fastened to a first surface and equipped with at least one electrically supplied and controlled electromagnet and a second hollow and rectangular main profile capable of being fastened to a second surface and equipped with at least one counter plate said assembly characterised in that it comprises: - a first assembly to produce the main profile and comprising a plurality of first hollow and straight base profiles for at least one part of these latter, each of at least one electromagnet supplied by electrical power and/or electrical connection means (10, 11) providing the supply of the said electrical power, fixing means (7, 12) for attaching the base profiles to the first surface and first connecting means by socket joints incorporated in and/or co-operating with the free ends of the said first base profiles such that they can be connected together end to end and extending at least two base profiles one after the other, - a second assembly allowing to produce the second main profile and comprising a plurality of second hollow and straight base profiles for at least one part of these latter, each of at least one of the said counter plates, fixing means (12, 21) of the second base profiles and second connecting means by socket joints incorporated in and/or co-operating with the free ends of the said second base profiles such that they can be connected together end to end and extending at least two second base profiles one after the other. - a first assembly to produce the main profile and comprising a plurality of first hollow and straight base profiles for at least one part of these latter, each of at least one electromagnet supplied by electrical power and/or electrical connection means (10, 11) providing the supply of the said electrical power, fixing means (7, 12) for attaching the base profiles to the first surface and first connecting means by socket joints incorporated in and/or co-operating with the free ends of the said first base profiles such that they can be connected together end to end and extending at least two base profiles one after the other, - a second assembly allowing to produce the second main profile and comprising a plurality of second hollow and straight base profiles for at least one part of these latter, each of at least one of the said counter plates, fixing means (12, 21) of the second base profiles and second connecting means by socket joints incorporated in and/or co-operating with the free ends of the said second base profiles such that they can be connected together end to end and extending at least two second base profiles one after the other.
Wind turbine tower comprising at least one device for damping vibrations in said wind turbine tower, comprising a first element rotatably mounted around a rotational axis and a second element rotatably mounted around said rotational axis, a radius of a circle portion delimitating the first element with respect to the rotational axis being smaller than a radius of a circle portion delimitating the second element with respect to the rotational axis, the first element being called inner element, and the second element being called outer element, wherein the inner element and the outer element rotate with opposed directions around the rotational axis, and characterized in that: - the first element has a general shape such that a cross section of a given thickness, called first thickness, is delimited by an angular sector, called first angular sector, and a given height, called first height, - the second element has a general shape such that a cross section of a given thickness, called second thickness, is delimited by an angular sector, called second angular sector, and a given height, called second height, and - the inner element and the outer element are configured such that at least a plane perpendicular to the rotational axis intercepts both the center of mass of the inner element and the center of mass of the outer element. - the first element has a general shape such that a cross section of a given thickness, called first thickness, is delimited by an angular sector, called first angular sector, and a given height, called first height, - the second element has a general shape such that a cross section of a given thickness, called second thickness, is delimited by an angular sector, called second angular sector, and a given height, called second height, and - the inner element and the outer element are configured such that at least a plane perpendicular to the rotational axis intercepts both the center of mass of the inner element and the center of mass of the outer element.
A shaving assembly, comprising a supporting member; a cutting element extending in the first direction; a guard foil stretched and extending in the first direction and surrounding the cutting element, the guard foil including a bent part and a flat contact surface, wherein the bent part extends in the first direction for fixing the guard foil on the supporting member, and the flat contact surface is adapted to be in contact with skin; a protection element arranged at at least one end of the guard foil and including a curved surface exposed to the skin; wherein the protection element and the end of the guard foil are integrally formed; characterized in that the protection element includes a rounded surface transiting from the contact surface of the guard foil to a bottom surface of the guard foil, wherein the rounded surface has a rounding radius larger than or equal to a thickness of the guard foil.