mhurhangee/ep-ind-claims huggingface dataset:
A process for producing tyres for vehicle wheels, comprising: - transferring a first forming drum (110; 25) in an initial attitude, horizontal or vertical, respectively, to an oblique rotation member arranged at a service station (S2; S2') and having a rotation axis tilted by 45° with respect to a substantially horizontal direction; - driving said first forming drum (110; 25) in rotation about said rotation axis by said oblique rotation member until said first forming drum (110; 25) takes a final attitude, vertical or horizontal, respectively; - picking up said first forming drum (110; 25) in said final attitude from said oblique rotation member; - before transferring said first forming drum (110; 25) to said oblique rotation member or after having picked up said first forming drum (110; 25) from said oblique rotation member, carrying out on said first forming drum (110; 25) at least one building activity of at least part of a first structural component (3; 8') of tyre while said first forming drum (110; 25) is in horizontal attitude. - transferring a first forming drum (110; 25) in an initial attitude, horizontal or vertical, respectively, to an oblique rotation member arranged at a service station (S2; S2') and having a rotation axis tilted by 45° with respect to a substantially horizontal direction; - driving said first forming drum (110; 25) in rotation about said rotation axis by said oblique rotation member until said first forming drum (110; 25) takes a final attitude, vertical or horizontal, respectively; - picking up said first forming drum (110; 25) in said final attitude from said oblique rotation member; - before transferring said first forming drum (110; 25) to said oblique rotation member or after having picked up said first forming drum (110; 25) from said oblique rotation member, carrying out on said first forming drum (110; 25) at least one building activity of at least part of a first structural component (3; 8') of tyre while said first forming drum (110; 25) is in horizontal attitude.
Elongate body for a vehicle system of a vehicle, wherein the body features at least one cursor band for an inductive linear path sensor, wherein the at least one cursor band extends in the direction of a longitudinal extension of the body, wherein the at least one cursor band is designed with several electrically conductive cursor pads to inductively couple at least one excitation coil with at least one sensor coil of a stator of the linear path sensor and with non-coupling sections that are less conductive or non-conductive in relation to the cursor pad, wherein the cursor pads are each arranged at a distance to each other by the non-coupling sections in the direction of the longitudinal extension, and wherein the cursor pads of the cursor band are formed at the body, wherein the cursor pads are designed as elevations of the body or on elevations of the body which are raised in relation to the non-coupling sections and wherein one cross-section of the elevations features a mushroom shape, wherein the mushroom shape essentially represents a T-shape wherein one stem of the mushroom shape extends away from the body.
A vegetation cutting device comprising: a housing; a motor mounted in the housing having a rotatable drive shaft; a gearing system comprising a rotatable output shaft, the gearing system adapted to be driven by the drive shaft; a rotatable cutting head mounted on the output shaft and including a cutting line; characterised in that a rotation sensor module mounted in the housing and configured to detect the rotational speed of the motor and configured to output a rotational speed signal; and further characterised by a control module configured to determine the rotational speed of the cutting head based on the (i) rotational speed signal and (ii) a predetermined ratio of the gearing system between the drive shaft and the output shaft and configured to control the speed of the motor in response to the determined rotational speed of the cutting head. a housing; a motor mounted in the housing having a rotatable drive shaft; a gearing system comprising a rotatable output shaft, the gearing system adapted to be driven by the drive shaft; a rotatable cutting head mounted on the output shaft and including a cutting line; characterised in that a rotation sensor module mounted in the housing and configured to detect the rotational speed of the motor and configured to output a rotational speed signal; and further characterised by a control module configured to determine the rotational speed of the cutting head based on the (i) rotational speed signal and (ii) a predetermined ratio of the gearing system between the drive shaft and the output shaft and configured to control the speed of the motor in response to the determined rotational speed of the cutting head.
Air deflecting device for an open passenger car, comprising an intrinsically rigid lamellar air deflecting element, which can be adjusted with respect to a windscreen frame between a retracted position and at least one air deflecting position and on the underside of which as viewed with the air deflecting element in an air deflecting position several interference bodies are arranged, characterised in that the interference bodies are arranged in the region as viewed in the installed state of the air deflecting device and during forward travel of the motor vehicle of the rear marginal edge of the air deflecting element or extend up to or close to the rear marginal edge, where the part-airflow flowing between the air deflecting element and the windscreen frame breaks off from the air deflecting element.
A method for managing a plurality of base stations, the method comprises: receiving (401, 503), by a cell management device, type information of the plurality of base stations and at least one of location information of the plurality of base stations, location information of at least one terminal and uplink signal energy of the at least one terminal measured by the plurality of base stations; determining (407, 504), by the cell management device, a base station to be activated if a terminal is near the base station among the plurality of base stations based on the type information of the plurality of base stations and the at least one of the location information of the plurality of base stations, the location information of the at least one terminal and the information on uplink signal energy of the at least one terminal, wherein the base station is in an inactive state in which the base station provides no access service to terminals; and transmitting (408, 506), by the cell management device, a message for transitioning the base station from the inactive state to an active state to provide the access service to the terminals, wherein respective type information of respective base station among the plurality of base stations is related to a size of coverage of the respective base station. receiving (401, 503), by a cell management device, type information of the plurality of base stations and at least one of location information of the plurality of base stations, location information of at least one terminal and uplink signal energy of the at least one terminal measured by the plurality of base stations; determining (407, 504), by the cell management device, a base station to be activated if a terminal is near the base station among the plurality of base stations based on the type information of the plurality of base stations and the at least one of the location information of the plurality of base stations, the location information of the at least one terminal and the information on uplink signal energy of the at least one terminal, wherein the base station is in an inactive state in which the base station provides no access service to terminals; and transmitting (408, 506), by the cell management device, a message for transitioning the base station from the inactive state to an active state to provide the access service to the terminals, wherein respective type information of respective base station among the plurality of base stations is related to a size of coverage of the respective base station.
Device (20, 50) for odorising a gas stream in a gas line, comprising an injecting apparatus for injecting a liquid odorising agent (82, 102) into the gas stream flowing through the gas line, - wherein the injecting apparatus has a two-substance nozzle (36, 80, 100), - wherein the device (20, 50) has means for providing (38, 52) a nozzle gas stream (86, 106) for the operation of the two-substance nozzle (36, 80, 100), - wherein the means for providing (38, 52) the nozzle gas stream (86, 106) for the operation of the two-substance nozzle (36, 80, 100) comprise a nozzle supply line branching off from the gas line, through which a part of the gas stream flowing through the gas line is supplied as the nozzle gas stream (86, 106) to the two-substance nozzle (36, 80, 100), characterised in that - a gas pre-heater is integrated into the nozzle supply line, in particular with a vortex tube. - wherein the injecting apparatus has a two-substance nozzle (36, 80, 100), - wherein the device (20, 50) has means for providing (38, 52) a nozzle gas stream (86, 106) for the operation of the two-substance nozzle (36, 80, 100), - wherein the means for providing (38, 52) the nozzle gas stream (86, 106) for the operation of the two-substance nozzle (36, 80, 100) comprise a nozzle supply line branching off from the gas line, through which a part of the gas stream flowing through the gas line is supplied as the nozzle gas stream (86, 106) to the two-substance nozzle (36, 80, 100), characterised in that - a gas pre-heater is integrated into the nozzle supply line, in particular with a vortex tube.
A method for obtaining a product in the form of deep-frozen, dissolved-gas-rich granules, particles or beads from a liquid, semi-liquid or pasty matrix comprising the steps of gasifying the matrix by incorporating a gas, dispensing the matrix in the form of drops and cryogenizing the matrix drops by immersion in a cryogenic fluid, characterized in that the step of gasification of the matrix consists in dissolving in large quantities the gas generated by the evaporation of the cryogenic fluid in the matrix drops so that the product is at least saturated with said gas, the dissolution being carried out by increasing the number of gas molecules in a zone of high gas density, called a high molecular density zone, located above the surface of the cryogenic fluid and on the path of the matrix drops before their immersion in the fluid, said high molecular density zone being created by carrying out the gasification and cryogenization of the gasified drops within a closed chamber provided with a vent arranged to allow evacuation of the gas generated by the evaporation of the cryogenic fluid by natural convection and to keep the inside of the chamber at a pressure greater than or equal to atmospheric pressure.
An electrode comprising an electrically conductive substrate of which at least one part of the surface is covered with a copper metal deposit, the surface of said deposit being in an oxidised, sulphurised, selenised and/or tellurised form and the deposit having a specific surface area greater than or equal to 1m 2 /g, the electrode being obtainable by a preparation process comprising the following successive steps: (i) electrodeposition of copper on at least one part of the surface of an electrically conductive support in order to form a metallic deposit of said copper on said at least one part of the surface of the electrically conductive substrate, and (ii) oxidation, sulphurisation, selenisation and/or tellurisation of the surface of the metal deposit, wherein step (i) is carried out according to the following successive steps: (a) at least partial immersion of the electrically conductive substrate in an acidic aqueous solution containing ions of the copper to be deposited, and (b) application of a current between the electrically conductive substrate and a second electrode. the electrode being obtainable by a preparation process comprising the following successive steps: (i) electrodeposition of copper on at least one part of the surface of an electrically conductive support in order to form a metallic deposit of said copper on said at least one part of the surface of the electrically conductive substrate, and (ii) oxidation, sulphurisation, selenisation and/or tellurisation of the surface of the metal deposit, (i) electrodeposition of copper on at least one part of the surface of an electrically conductive support in order to form a metallic deposit of said copper on said at least one part of the surface of the electrically conductive substrate, and (ii) oxidation, sulphurisation, selenisation and/or tellurisation of the surface of the metal deposit, wherein step (i) is carried out according to the following successive steps: (a) at least partial immersion of the electrically conductive substrate in an acidic aqueous solution containing ions of the copper to be deposited, and (b) application of a current between the electrically conductive substrate and a second electrode. (a) at least partial immersion of the electrically conductive substrate in an acidic aqueous solution containing ions of the copper to be deposited, and (b) application of a current between the electrically conductive substrate and a second electrode.
A method for preparing an acrylic acid, the method comprising: dehydrating a lactic acid aqueous solution in a reaction unit to prepare a reaction product stream; passing the reaction product stream through a cooling unit and a refining unit sequentially and supplying a discharge stream from the refining unit to an acrylic acid separation column; and separating an unreacted lactic acid as a side discharge stream and separating the acrylic acid as an upper discharge stream in the acrylic acid separation column. dehydrating a lactic acid aqueous solution in a reaction unit to prepare a reaction product stream; passing the reaction product stream through a cooling unit and a refining unit sequentially and supplying a discharge stream from the refining unit to an acrylic acid separation column; and separating an unreacted lactic acid as a side discharge stream and separating the acrylic acid as an upper discharge stream in the acrylic acid separation column.
An illumination device comprising: a housing (50, 60); a power supply unit inserted in the housing (50, 60); a heat sink (54, 64) coupled to the housing (50, 60); and a light source unit (55, 65) formed on the heat sink (54, 64), wherein the heat sink (54, 64) comprises: at least one heat dissipation pin (541, 641) extending towards an outer surface of the housing; characterized in that the illumination device further comprises a first vent hole (510, 610) downwardly formed from an upper surface of the heat sink (54, 64) and passing through the heat sink (54, 64); and second vent holes (512, 612) formed between the heat dissipation pins (541, 641), wherein the first vent hole (510, 610) and the second vent holes (512, 612) are connected to each other. a housing (50, 60); a power supply unit inserted in the housing (50, 60); a heat sink (54, 64) coupled to the housing (50, 60); and a light source unit (55, 65) formed on the heat sink (54, 64), wherein the heat sink (54, 64) comprises: at least one heat dissipation pin (541, 641) extending towards an outer surface of the housing; characterized in that the illumination device further comprises a first vent hole (510, 610) downwardly formed from an upper surface of the heat sink (54, 64) and passing through the heat sink (54, 64); and second vent holes (512, 612) formed between the heat dissipation pins (541, 641), wherein the first vent hole (510, 610) and the second vent holes (512, 612) are connected to each other. at least one heat dissipation pin (541, 641) extending towards an outer surface of the housing; characterized in that the illumination device further comprises a first vent hole (510, 610) downwardly formed from an upper surface of the heat sink (54, 64) and passing through the heat sink (54, 64); and second vent holes (512, 612) formed between the heat dissipation pins (541, 641), wherein the first vent hole (510, 610) and the second vent holes (512, 612) are connected to each other.
A method for determining structural characteristics of an object, the method comprising: illuminating, by a first laser, a surface region of an object with an incident light pulse, thereby causing the object to exhibit vibrations; illuminating, by a second laser, the surface region with an incident light beam, thereby generating responsive light that is indicative of the vibrations; detecting the responsive light and determining a difference between a characteristic of the responsive light and a reference characteristic that corresponds to the surface region; determining a position of the surface region within a three-dimensional space; and displaying the surface region such that the difference is indicated at the position of the surface region, wherein the vibrations comprise a first set of vibrations that are generated upon initial illumination of the surface region by the incident light pulse and a second set of vibrations that travel into the object from the surface region and are reflected back to the surface region, and wherein determining the difference between the characteristic of the responsive light and the reference characteristic comprises determining a difference between (i) a duration between detecting the responsive light indicative of the first set of vibrations and detecting the responsive light indicative of the second set of vibrations and (ii) a reference duration that corresponds to the surface region. illuminating, by a first laser, a surface region of an object with an incident light pulse, thereby causing the object to exhibit vibrations; illuminating, by a second laser, the surface region with an incident light beam, thereby generating responsive light that is indicative of the vibrations; detecting the responsive light and determining a difference between a characteristic of the responsive light and a reference characteristic that corresponds to the surface region; determining a position of the surface region within a three-dimensional space; and displaying the surface region such that the difference is indicated at the position of the surface region, wherein the vibrations comprise a first set of vibrations that are generated upon initial illumination of the surface region by the incident light pulse and a second set of vibrations that travel into the object from the surface region and are reflected back to the surface region, and wherein determining the difference between the characteristic of the responsive light and the reference characteristic comprises determining a difference between (i) a duration between detecting the responsive light indicative of the first set of vibrations and detecting the responsive light indicative of the second set of vibrations and (ii) a reference duration that corresponds to the surface region.
A telescope comprising at least one optical system and wavefront-analyzing means placed in the focal plane of said optical system, the optical system comprising focusing optics (M1, M2) and magnifying optics (M3, M4, M5, M6), the magnifying optics comprising a deformable mirror, the deformation of which is controllable, characterised in that the magnifying optics comprise a single aspherical concave mirror designed to correct the aberrations of the focusing optics and two plane mirrors (M3, M6), and in that the telescope comprises means for monitoring the deformable mirror, said monitoring means comprising a source placed in the vicinity of the intermediate focus so that the image of said source is focused by the magnifying optics on the wavefront-analyzing means placed in the focal plane of the telescope, the dark image of the source being aberrant due to the action of the aspherical concave mirror.
A method for coating a surface of a cell culture article, comprising: dissolving a polymer having a covalently attached polypeptide in an aqueous solution to produce a polymer solution, wherein the polymer is formed from monomers selected to form a linear polymer backbone, wherein the polymer is free of crosslinks, wherein the weight percentage of the polypeptide relative to the polymer conjugated to the polypeptide is sufficiently high to render the polymer conjugated to the polypeptide water soluble, wherein the aqueous solution is substantially free of organic solvents; disposing the polymer solution on the surface of the cell culture article to produce a coated article; and subjecting the coated article to sufficient heat or electromagnetic radiation to attach the polymer conjugated to a polypeptide to the surface of the cell culture article. dissolving a polymer having a covalently attached polypeptide in an aqueous solution to produce a polymer solution, wherein the polymer is formed from monomers selected to form a linear polymer backbone, wherein the polymer is free of crosslinks, wherein the weight percentage of the polypeptide relative to the polymer conjugated to the polypeptide is sufficiently high to render the polymer conjugated to the polypeptide water soluble, wherein the aqueous solution is substantially free of organic solvents; wherein the polymer is formed from monomers selected to form a linear polymer backbone, wherein the polymer is free of crosslinks, wherein the weight percentage of the polypeptide relative to the polymer conjugated to the polypeptide is sufficiently high to render the polymer conjugated to the polypeptide water soluble, wherein the aqueous solution is substantially free of organic solvents; disposing the polymer solution on the surface of the cell culture article to produce a coated article; and subjecting the coated article to sufficient heat or electromagnetic radiation to attach the polymer conjugated to a polypeptide to the surface of the cell culture article.