mhurhangee/ep-ind-claims huggingface dataset:
Device for spraying a product, in particular a cosmetic product, makeup product or care product, said device comprising: - a container containing the product, and - a dispensing head comprising a body, and an endpiece, in particular a diffuser, attached to the body, the body and the endpiece being configured to allow the product to be sprayed through outlet orifices about a longitudinal axis of the endpiece, in at least two different directions, which are diametrically opposite, the dispensing head comprising at least first and second concentric chambers, through which the flow of product successively passes before emerging from the outlet orifices,, the outlet orifices leading directly to the outside, without an attached nozzle. - a container containing the product, and - a dispensing head comprising a body, and an endpiece, in particular a diffuser, attached to the body,
A valve drive comprising a casing including a first casing part and a second casing part which abuts on said first casing part in a contact region, and a piston associated with a piston pressure chamber and an operating medium duct which is in fluidic communication with said piston pressure chamber, wherein at least a first portion of said operating medium duct is arranged in said contact region between said first casing part and said second casing part, characterized in that, around said first portion of said operating medium duct, a preferably line-like sealing region is arranged, in which said first casing part and said second casing part are connected to each other in a fluid-tight and materially integral manner, in particular by a laser weld seam.
Method for ensuring road tracking up to a predefined lateral acceleration limit ( a lat,R 79) in a vehicle having an autonomous steering function arranged to selectively apply a steering wheel overlay torque ( T PA) to a normal steering assistance torque ( T a) in an electrical power assisted steering system of the vehicle, the method comprising: acquiring the predetermined lateral acceleration limit ( a lat,R 79); acquiring a signal representing a current lateral acceleration ( a lat) of the vehicle; comparing the predetermined lateral acceleration limit ( a lat,R 79) with the acquired current lateral acceleration signal ( a lat) to obtain a controller error (e); setting a torque limit ( T LIM) for the steering wheel overlay torque ( T PA), if the controller error (e) is equal to or greater than a predetermined first threshold, to the actual value of the steering wheel overlay torque ( T PA) as an initial value ( T LIM,init) for the torque limit ( T LIM); and subjecting the controller error (e) to a proportional-integral-derivative, PID, controller, which is arranged to provide the torque limit ( T LIM) for the steering wheel overlay torque ( T PA) after setting the torque limit ( T LIM) to the initial value ( T LIM,init). acquiring the predetermined lateral acceleration limit ( a lat,R 79); acquiring a signal representing a current lateral acceleration ( a lat) of the vehicle; comparing the predetermined lateral acceleration limit ( a lat,R 79) with the acquired current lateral acceleration signal ( a lat) to obtain a controller error (e); setting a torque limit ( T LIM) for the steering wheel overlay torque ( T PA), if the controller error (e) is equal to or greater than a predetermined first threshold, to the actual value of the steering wheel overlay torque ( T PA) as an initial value ( T LIM,init) for the torque limit ( T LIM); and subjecting the controller error (e) to a proportional-integral-derivative, PID, controller, which is arranged to provide the torque limit ( T LIM) for the steering wheel overlay torque ( T PA) after setting the torque limit ( T LIM) to the initial value ( T LIM,init).
An optical system comprising: a plurality of lens groups groups(groups G1, G2, G3, G4); at least one of the plurality of lens groups having an A lens that satisfies at least one of the following conditional expressions: 1.88900 < nA − 0.00250 νA − 4.27500 < nA − 0.3375 νA where nA denotes a refractive index of the A lens at d-line in which wavelength λ=587.6nm, and vA denotes an Abbe number of the A lens at d-line in which wavelength λ=587.6nm, wherein the plurality of lens groups include, in order from the most object side, a first lens group having negative refractive power, a second lens group having positive refractive power, and a third lens group having negative refractive power varying a focal length from a wide-angle end state to a telephoto end state is carried out by varying each distance between the plurality of lens groups, the A lens satisfies the following conditional expression: − 4.50 < fA / fG < − 0.10 where fA denotes a focal length of the A lens, and fG denotes a focal length of the lens group in which the A lens is included. a plurality of lens groups groups(groups G1, G2, G3, G4); at least one of the plurality of lens groups having an A lens that satisfies at least one of the following conditional expressions: 1.88900 < nA − 0.00250 νA − 4.27500 < nA − 0.3375 νA where nA denotes a refractive index of the A lens at d-line in which wavelength λ=587.6nm, and vA denotes an Abbe number of the A lens at d-line in which wavelength λ=587.6nm, wherein the plurality of lens groups include, in order from the most object side, a first lens group having negative refractive power, a second lens group having positive refractive power, and a third lens group having negative refractive power varying a focal length from a wide-angle end state to a telephoto end state is carried out by varying each distance between the plurality of lens groups, the A lens satisfies the following conditional expression: − 4.50 < fA / fG < − 0.10 where fA denotes a focal length of the A lens, and fG denotes a focal length of the lens group in which the A lens is included.
A plasma source, particularly for disinfection of wounds, comprising: a) an ionization chamber having an inlet for introducing a gas into the ionization chamber and further having an outlet for dispensing the ionized gas onto an object, b) several ionization electrodes being disposed within the ionization chamber for ionizing the gas, c) the value of the ratio of the electrode-electrode distance (d EE) on the one hand and the electrode-wall distance (d EW) on the other hand is comprised between 1.8 and 2.2, characterized in that the outlet of the ionization chamber is covered by a mesh. a) an ionization chamber having an inlet for introducing a gas into the ionization chamber and further having an outlet for dispensing the ionized gas onto an object, b) several ionization electrodes being disposed within the ionization chamber for ionizing the gas, c) the value of the ratio of the electrode-electrode distance (d EE) on the one hand and the electrode-wall distance (d EW) on the other hand is comprised between 1.8 and 2.2, characterized in that the outlet of the ionization chamber is covered by a mesh.
A slave cell which is established by a user equipment being connected to an anchor base station of a mobile telecommunications system, the mobile telecommunications system comprising the anchor base station, the anchor base station including circuitry configured to broadcast slave cell specific system information being specific for the slave cell, the anchor base station being configured to communicate with the user equipment and at least one further slave cell (5', 6'), the at least one further slave cell (5', 6') being configured to communicate with at least one further user equipment (5b', 6b') and the anchor base station, the slave cell comprising circuitry being configured to: broadcast the slave cell specific system information being specific for the slave cell, wherein the communication in the mobile telecommunications system is distributed at least over a control plane and a user plane, wherein signaling is communicated over the control plane and user data are communicated over the user plane, and wherein the circuitry of the slave cell is further configured to broadcast system information including the slave cell specific system information over the user plane, wherein the at least one anchor cell is a control plane cell and the slave cells are user plane cells. broadcast the slave cell specific system information being specific for the slave cell, wherein the communication in the mobile telecommunications system is distributed at least over a control plane and a user plane, wherein signaling is communicated over the control plane and user data are communicated over the user plane, and wherein the circuitry of the slave cell is further configured to broadcast system information including the slave cell specific system information over the user plane, wherein the at least one anchor cell is a control plane cell and the slave cells are user plane cells.
Refillable bottle for dispensing a fluid product, comprising a body in which a container intended for packaging said product is formed, said bottle comprising a device for dispensing said packaged product that is mounted in a sealed manner on said body, said bottle being provided with a valve for filling the container, which valve is arranged to allow a product source to be brought into communication with said container to refill said container, said valve comprising a passage for communication between said source and said container, said passage having a seat provided with a check valve that is movable relative to said seat between a sealed closed position and an open position of said passage, said bottle being characterised in that it comprises a device for locking the check valve in the closed position, said device for locking the check valve being arranged to be deactivated by leaving said check valve in the closed position to release the subsequent movement of said check valve into the open position.
A computer-implemented medical method for outputting, by an augmented reality device having a distance measurement unit and a display, augmentation information relating to positional tracking by a medical position tracking system, the method comprising executing, on at least one processor of at least one computer, the following steps: a) a viewing direction of the augmented reality device is positionally registered (S11; S25; S34; S43; S55) with a tracking coordinate system associated with the position tracking system to generate an augmented reality device registration; b) object position information is acquired (S12; S24; S33; S42; S54) which describes a position of a physical object in the tracking coordinate system; c) object presence information defining a presence of the object in a real image on the display of the augmented reality device is determined based on the augmented reality device registration and the object position information; d) augmentation information is determined based on the object presence information and output (S14; S28) by the augmented reality device, wherein the augmentation information describes at least one visual indication represented by a coloured encoding describing an accuracy of the positional tracking by the position tracking system and describes a tracking volume of the position tracking system by defining a visual rendering of the tracking volume in the real image, wherein the position of the physical object in the tracking coordinate system is transformed from the tracking coordinate system to the coordinate system used for displaying the augmentation information on the display of the augmented reality device. a) a viewing direction of the augmented reality device is positionally registered (S11; S25; S34; S43; S55) with a tracking coordinate system associated with the position tracking system to generate an augmented reality device registration; b) object position information is acquired (S12; S24; S33; S42; S54) which describes a position of a physical object in the tracking coordinate system; c) object presence information defining a presence of the object in a real image on the display of the augmented reality device is determined based on the augmented reality device registration and the object position information; d) augmentation information is determined based on the object presence information and output (S14; S28) by the augmented reality device, wherein the augmentation information describes at least one visual indication represented by a coloured encoding describing an accuracy of the positional tracking by the position tracking system and describes a tracking volume of the position tracking system by defining a visual rendering of the tracking volume in the real image,
A computer implemented method of producing a mesh implant having a compartment to enclose a bone material within the mesh implant, the method comprising: generating a 3D digital model of the mesh implant having the compartment, the 3D digital model including a virtual volume of the compartment to enclose the bone material therein and a virtual depth, thickness and volume of the mesh implant; generating a 3D digital model of a covering configured for closing the compartment of the mesh implant, the 3D digital model including a virtual volume of the covering for closing the compartment of the mesh implant and a virtual depth and thickness of the covering for closing the compartment of the mesh implant; instructing a 3D printer coupled to a computer to generate the mesh implant based on the 3D digital model of the mesh implant; filling the compartment of the mesh implant with an amount of the bone material; and instructing the 3D printer to generate the covering based on the 3D digital model of the covering for enclosing the bone material within the compartment of the mesh implant. generating a 3D digital model of the mesh implant having the compartment, the 3D digital model including a virtual volume of the compartment to enclose the bone material therein and a virtual depth, thickness and volume of the mesh implant; generating a 3D digital model of a covering configured for closing the compartment of the mesh implant, the 3D digital model including a virtual volume of the covering for closing the compartment of the mesh implant and a virtual depth and thickness of the covering for closing the compartment of the mesh implant; instructing a 3D printer coupled to a computer to generate the mesh implant based on the 3D digital model of the mesh implant; filling the compartment of the mesh implant with an amount of the bone material; and instructing the 3D printer to generate the covering based on the 3D digital model of the covering for enclosing the bone material within the compartment of the mesh implant.
A power tool comprising a housing composed of two divisional housings (30L, 30R; 50R; 60L) to be combined together, and two receptacle blocks (35A, 35C; 55C; 65A) provided on inner surfaces of the two divisional housings (30L, 30R; 50R; 60L), respectively, and configured to protrude opposite to each other from the inner surface of the two divisional housings (30L, 30R; 50R; 60L) to surround an electric component (41, 42) and to hold the electric component (41, 42) in place when the two divisional housings (30L, 30R; 50R, 60L) are combined together into the housing, characterized in that a seal layer (36B, 36D; 66) of an elastic material is formed integrally with one or each of the two receptacle blocks (35A, 35C; 55C; 65A), wherein the seal layer (36B; 66) formed on a first receptacle block (35A; 65A) is pressed against a second receptacle block or another seal layer formed on the second receptacle block to provide sealing between opposed surfaces of the two receptacle blocks (35A, 35C; 55C; 65A) when the two divisional housings (30L, 30R; 50R; 60L) are combined together, and to form an electric component holding space for the electric component (41, 42) to be enclosed therein.
A hand-held, multi-functional sighting device for the magnified viewing of a distant object from which object rays emanate, comprising - a direct vision optics with a single objective for collecting and collimating object rays, - at least one image inversion system (7, 8, 9, 28) which has a plurality of reflective surfaces for collected object rays, and - a left eyepiece and a right eyepiece for projecting a left-eye beam of visual field rays and a right-eye beam of visual field rays, respectively, in which the two eyepieces (3, 4) are linearly displaceable relative to one another, - a display from which display rays emanate, - a distance sensor having a line of sight with which rays towards the distant object are emittable, and wherein rays collected by the objective and reflected by the distant object being capable of being output to the distance sensor via a wavelength-selective reflective surface, - direction sensors for determining the azimuthal and optionally zenithal orientation of the line of sight, wherein an optical component (7, 8, 9, 10, 11) having a physical beam splitter surface is designed and arranged in such a way that at the physical beam splitter surface firstly a beam of collected collimated object rays and a beam of collimated display rays being capable of being superimposed one on the other and secondly being capable of being split into the left-eye and the right-eye beam of visual field rays. - a direct vision optics with a single objective for collecting and collimating object rays, - at least one image inversion system (7, 8, 9, 28) which has a plurality of reflective surfaces for collected object rays, and - a left eyepiece and a right eyepiece for projecting a left-eye beam of visual field rays and a right-eye beam of visual field rays, respectively, in which the two eyepieces (3, 4) are linearly displaceable relative to one another, - a display from which display rays emanate, - a distance sensor having a line of sight with which rays towards the distant object are emittable, and wherein rays collected by the objective and reflected by the distant object being capable of being output to the distance sensor via a wavelength-selective reflective surface, - direction sensors for determining the azimuthal and optionally zenithal orientation of the line of sight,
A rotation device for a bubble level of a measuring device (200, 201), in particular a spirit level, having a bubble level cage for receiving the bubble level and a gear for rotating the bubble level cage about a second axis of rotation (z 140), wherein - a first gear element of the gear is designed with a first axis of rotation (z 130) for receiving an input force and is in operative connection - with a second gear element of the gear, wherein the second gear element surrounds the bubble level cage coaxially in respect of the second axis of rotation (z 140), characterised in that the bubble level cage and the second gear element are stored rotatable relative to one another about the second axis of rotation (z 140). - a first gear element of the gear is designed with a first axis of rotation (z 130) for receiving an input force and is in operative connection - with a second gear element of the gear, wherein the second gear element surrounds the bubble level cage coaxially in respect of the second axis of rotation (z 140),
A method of detecting clathrate formation, the method comprising: monitoring a gas phase of interest, wherein the gas phase is a mixture of gases comprising at least one clathrate forming gas and the monitoring includes determining the concentration of at least one component of the mixture of gases; or determining a ratio of concentration between two components of the mixture, at least one of which is the said clathrate forming gas; and detecting a change in the determined concentration or in the determined ratio of concentration, relative to an earlier determination or relative to a pre-established base level concentration or base level range of concentration. monitoring a gas phase of interest, wherein the gas phase is a mixture of gases comprising at least one clathrate forming gas and the monitoring includes determining the concentration of at least one component of the mixture of gases; or determining a ratio of concentration between two components of the mixture, at least one of which is the said clathrate forming gas; and detecting a change in the determined concentration or in the determined ratio of concentration, relative to an earlier determination or relative to a pre-established base level concentration or base level range of concentration.
A module for supporting a railway track, the module including, laterally with respect to the central axis of the track, two support elements for the two rails of the track and, in the transverse space between the two support elements, a transverse connection means connecting them, the support element being intended to receive a sleeper (6, 7) of reinforced concrete including threaded rods and on which are laid anchoring saddles supporting the rail by bolting of pads on the threaded rods that pass vertically through the saddles, said module allowing grass seeding at the surface of the railway track, characterized in that the module is made of prefabricated single-piece reinforced concrete, and in that each support element is a bucket having the shape of a channel open upward and laterally at its two axial ends, along the axis of the rail of the track, and in that the transverse connection means includes at least two jambs separated axially and extended between the two buckets so that the transverse space includes at least one opening for communication between the two volumes defined above and below said module, and in that the bases of the two buckets and of the jambs of the module are in a same plane, and in that the two axial end faces of the two buckets at a same axial end of the module are vertical and in a same plane so that, when the modules are joined together in alignment, there is no substantial discontinuity between the lateral internal faces of the aligned bucket channels.
Trailer coupling for a motor vehicle, in particular a passenger car, for coupling a trailer to the motor vehicle, the trailer coupling comprising a coupling body support, which can be mounted on the motor vehicle, and a coupling body, which is located in a free end region of the coupling body support, is spherical on the outside and on which a towing coupling receptacle of a towing coupling of the trailer can be placed, the coupling body forming for the towing coupling receptacle a bearing body for the rotatable mounting of the latter, in particular for its multidirectional pivoting relative to the coupling body support, characterised in that it comprises an annular driver body, which is rotatably mounted on the coupling body, can be driven and rotated relative to the coupling body by the towing coupling receptacle and forms a part of a sensor arrangement for the detection of an angular position of the towing coupling relative to the coupling body support.
A superabsorbent-based suspension suitable for hydrostimulatory coating of seeds, comprising a superabsorbent in the form of a copolymer of acrylate and acrylamide, adhesives dispersed or dissolved in a solution and lubricant additives suitable for improving flow properties of seeds, wherein the suspension comprises the adhesives in the range of 1 to 10 wt. % of the suspension, characterized in that the adhesives are dispersed or dissolved in a solution of water and ethanol and/or of water and isopropanol, wherein the suspension comprises the superabsorbent in the range of 25 to 40 wt. % of the suspension, the dispersion or solution of the adhesives comprising water in the range of 0.1 to 8 wt. % of the suspension and ethanol and/or isopropanol in the range of 40 to 70 wt. % of the suspension, and further the lubricant additives in the range of 0.1 to 15 wt. % of the suspension, wherein the suspension further comprises an antistatic additive suitable for eliminating electric charge in the range of 0.1 to 5 wt. % of the suspension.