mhurhangee/ep-ind-claims huggingface dataset:
An optical network (4; 5; 6; 7; 8; 10; 11; 12; 13) intended to enable communication of data between data processing units (P 1...P 8), comprising: - a medium, - at least one beam (F, F') of several optical waveguides (G 1...G 12, G' 1...G' 10) extending over the medium, - for each beam (F, F'), interfaces (I 1...I 8, I' 1...I' 8) between the beam (F, F') and the processing units (P 1...P 8) respectively, each interface (I 1...I 8, I' 1...I' 8) comprising one or more communication units (C 11...C 48) with, respectively, one or more optical waveguides (G 1...G 12, G' 1...G' 10) of the beam (F, F') so as to enable the respective processing unit (P 1...P 8) to exchange data with said optical waveguide(s) (G 1...G 12, G' 1...G' 10), each communication unit (C 11...C 48) being capable of being a reader and/or a writer, wherein the beam (F, F') successively links the interfaces (I 1...I 8, I' 1...I' 8) in a closed loop oriented in a certain direction of rotation, and wherein the communication units (C 11...C 48) of each interface (I 1...I 8, I' 1...I' 8) are transversely arranged in ranks increasing from the periphery to the interior of the beam (F, F'), characterized in that first and second optical waveguides (G 1...G 12, G' 1...G' 10) start from different interfaces or end at different interfaces, in that the first optical waveguide (G 1...G 12, G' 1...G' 10) links two communication units (C 11...C 48) both readers and/or writers and of different and increasing ranks in respective first and second interfaces (I 1...I 8, I' 1...I' 8), and in that the second optical waveguide (G 1...G 12, G' 1...G' 10) passes through a communication unit (C 11...C 48) of the second interface (I 1...I 8, I' 1...I' 8) of lower rank than that of the communication unit (C 11...C 48) of this second interface (I 1...I 8, I' 1...I' 8) through which the first optical waveguide (G 1...G 12, G' 1...G' 10) passes. - a medium, - at least one beam (F, F') of several optical waveguides (G 1...G 12, G' 1...G' 10) extending over the medium, - for each beam (F, F'), interfaces (I 1...I 8, I' 1...I' 8) between the beam (F, F') and the processing units (P 1...P 8) respectively, each interface (I 1...I 8, I' 1...I' 8) comprising one or more communication units (C 11...C 48) with, respectively, one or more optical waveguides (G 1...G 12, G' 1...G' 10) of the beam (F, F') so as to enable the respective processing unit (P 1...P 8) to exchange data with said optical waveguide(s) (G 1...G 12, G' 1...G' 10), each communication unit (C 11...C 48) being capable of being a reader and/or a writer,
A docking station comprising: a main body providing a generally flat base and against which base a mobile device is adapted to lie, in use, and two adjustable clamp members (14,16) arranged to be capable of being moved towards and away from one another between open and closed positions, to squeeze and release from between them a mobile device to be docked in the station, wherein the clamp members (14,16) are adapted to be positioned in one of at least two orientations with respect to the base, in a first orientation the clamp members (14,16) moving between said open and closed positions in a first direction substantially parallel said base and a second orientation wherein the clamp members (14,16) move between said open and closed positions in a second direction substantially parallel said base and substantially perpendicular said first direction, characterized in that one clamp member is a rotate clamp member, has a clamp surface and is rotatably disposed with respect to the body so that it can rotate between two positions, in a first of which the clamp surface is parallel said second direction and in a second of which it is parallel said first direction. a main body providing a generally flat base and against which base a mobile device is adapted to lie, in use, and two adjustable clamp members (14,16) arranged to be capable of being moved towards and away from one another between open and closed positions, to squeeze and release from between them a mobile device to be docked in the station, wherein the clamp members (14,16) are adapted to be positioned in one of at least two orientations with respect to the base, in a first orientation the clamp members (14,16) moving between said open and closed positions in a first direction substantially parallel said base and a second orientation wherein the clamp members (14,16) move between said open and closed positions in a second direction substantially parallel said base and substantially perpendicular said first direction, characterized in that one clamp member is a rotate clamp member, has a clamp surface and is rotatably disposed with respect to the body so that it can rotate between two positions, in a first of which the clamp surface is parallel said second direction and in a second of which it is parallel said first direction.
A cutting head (1, 30, 50, 70, 90) for a device for cutting hair, comprising: an optical system (3, 33, 38, 54, 74, 79, 93) configured to direct a laser beam (7, 34, 39, 55, 75, 80, 94) having a fast axis and a slow axis across a cutting zone (8, 43, 58, 84, 97) in the cutting head, the optical system comprising a focus lens (6, 36, 41, 57, 77, 82, 96) configured to form a first focal point (11, 45a, 45b, 60, 86a, 86b, 99) of the laser beam in the cutting zone, characterised by further comprising a focusing element (15, 31, 51, 71, 72, 91) configured to form a second focal point (16, 46a, 46b, 61, 87a, 87b, 99) of the laser beam in the cutting zone. an optical system (3, 33, 38, 54, 74, 79, 93) configured to direct a laser beam (7, 34, 39, 55, 75, 80, 94) having a fast axis and a slow axis across a cutting zone (8, 43, 58, 84, 97) in the cutting head, the optical system comprising a focus lens (6, 36, 41, 57, 77, 82, 96) configured to form a first focal point (11, 45a, 45b, 60, 86a, 86b, 99) of the laser beam in the cutting zone, characterised by further comprising a focusing element (15, 31, 51, 71, 72, 91) configured to form a second focal point (16, 46a, 46b, 61, 87a, 87b, 99) of the laser beam in the cutting zone.
Curb for a flat-roof window, having a first side, a second side, and a shell portion that connects the first side to the second side, the internal faces of said shell portion enclosing a through opening that extends along an axial direction from the first side to the second side, wherein the first side is to be attached to a building opening, and a frame element which supports a glazing is to be disposed on the second side in order to close the through opening; and wherein at least some of the internal faces of the shell portion are outwardly inclined in the direction from the first side towards the second side; characterized in that at least some of the external faces of the shell portion are inwardly inclined in the direction from the second side towards the first side, and a motor of a drive device for moving the frame element in order to pivot and/or to lift the frame element for opening the through opening, and optionally a part of a gear assembly, is/are disposed in the shell portion of the curb. wherein the first side is to be attached to a building opening, and a frame element which supports a glazing is to be disposed on the second side in order to close the through opening; and wherein at least some of the internal faces of the shell portion are outwardly inclined in the direction from the first side towards the second side;
A combined steering and drag reduction device intended for a missile comprising a base and an upper part which are arranged in succession along a main axis of navigation of the missile, characterized in that the device comprises a pressurized-gas generator and at least one lateral thruster comprising: - at least one nozzle (38a, 38b), configured to deliver a thrust, by expanding gas transmitted by the generator, oriented along an axis substantially perpendicular to the main axis, - at least one stabilizing chamber configured to expand the gas transmitted by the generator and expel it through an outlet section of the base substantially perpendicular to the main axis. - at least one nozzle (38a, 38b), configured to deliver a thrust, by expanding gas transmitted by the generator, oriented along an axis substantially perpendicular to the main axis, - at least one stabilizing chamber configured to expand the gas transmitted by the generator and expel it through an outlet section of the base substantially perpendicular to the main axis.
Connection system for connecting a pipe to a main pipe, a shaft, or the like, at a transverse opening, the connection system being connectable to the main pipe or the shaft for this purpose, comprising a hollow-stopper-shaped, at least partly soft installation insert, the outer side of which is adapted to the transverse opening and the inner side of which has a conical screw region, the installation insert having a widened end portion having at least one angled tab, which portion can be pushed partly through the transverse opening in the main pipe or shaft with the tab at the front, and an outer bearing surface of the installation insert, in a connection state in which the connection system is connected to the main pipe or shaft, being at least partly in contact with a main pipe inner surface, which adjoins and surrounds the transverse opening, and a relatively harder connecting piece, which has an engagement end, a conical centre part having an external thread, and a drive end, at least one bearing element being arranged on the end portion of the installation insert opposite the widened end portion and at least one fixing element being arranged on the end of the bearing surface of the installation insert opposite the widened end portion, the bearing element protruding outwards away from the end portion and being curved towards the widened end portion, characterised in that one such bearing element in the form of a lip protruding outwards away from the end portion of the installation insert is located between two fixing elements in each case, which lip is curved towards the widened end portion. a hollow-stopper-shaped, at least partly soft installation insert, the outer side of which is adapted to the transverse opening and the inner side of which has a conical screw region, the installation insert having a widened end portion having at least one angled tab, which portion can be pushed partly through the transverse opening in the main pipe or shaft with the tab at the front, and an outer bearing surface of the installation insert, in a connection state in which the connection system is connected to the main pipe or shaft, being at least partly in contact with a main pipe inner surface, which adjoins and surrounds the transverse opening, and a relatively harder connecting piece, which has an engagement end, a conical centre part having an external thread, and a drive end, at least one bearing element being arranged on the end portion of the installation insert opposite the widened end portion and at least one fixing element being arranged on the end of the bearing surface of the installation insert opposite the widened end portion, the bearing element protruding outwards away from the end portion and being curved towards the widened end portion, characterised in that one such bearing element in the form of a lip protruding outwards away from the end portion of the installation insert is located between two fixing elements in each case, which lip is curved towards the widened end portion.
A piezoelectric microbalance sensor comprising: i. a piezoelectric material having a process side suitable for contacting a liquid stream and a non-process side, at least a portion of the process side engaging a process side electrode, and at least a portion of the non-process side engaging a non-process side electrode; ii. a heater capable of heating the piezoelectric material from the non-process side, thereby enabling temperature control of the piezoelectric material; iii. a counter-electrode having a first surface suitable for contacting the liquid stream and facing the process side of the piezoelectric material, and a second opposing surface, the counter-electrode positioned within the piezoelectric microbalance sensor so as to allow flow of at least a portion of the liquid stream between the process side of the piezoelectric material and the first surface of the counter-electrode, wherein the counter-electrode is constructed of an electrically-conducting, corrosion-resistant material; and characterized by iv. a pressure-compensating spacer operably contacting the second opposing surface of the counter-electrode, the pressure-compensating spacer capable of compressing and expanding in response to variations in pressure such as would be created by the liquid stream passing through the piezoelectric microbalance sensor, wherein the pressure-compensating spacer is a bellows. i. a piezoelectric material having a process side suitable for contacting a liquid stream and a non-process side, at least a portion of the process side engaging a process side electrode, and at least a portion of the non-process side engaging a non-process side electrode; ii. a heater capable of heating the piezoelectric material from the non-process side, thereby enabling temperature control of the piezoelectric material; iii. a counter-electrode having a first surface suitable for contacting the liquid stream and facing the process side of the piezoelectric material, and a second opposing surface, the counter-electrode positioned within the piezoelectric microbalance sensor so as to allow flow of at least a portion of the liquid stream between the process side of the piezoelectric material and the first surface of the counter-electrode, wherein the counter-electrode is constructed of an electrically-conducting, corrosion-resistant material; and characterized by iv. a pressure-compensating spacer operably contacting the second opposing surface of the counter-electrode, the pressure-compensating spacer capable of compressing and expanding in response to variations in pressure such as would be created by the liquid stream passing through the piezoelectric microbalance sensor, wherein the pressure-compensating spacer is a bellows.
Planetary transmission, comprising a lubricant transfer apparatus between a first and a second planetary stage (20, 30), the lubricant transfer apparatus comprising an output component, arranged so as to corotate on a component of the second planetary stage, and a receiving component for lubricant, arranged so as to corotate on a component of the first planetary stage, and a lubricant channel which communicates with the lubricant transfer apparatus, characterized in that the lubricant channel runs over the entire axial extent of a tooth engagement region of a sun gear of the first planetary stage radially within a toothing system of the sun gear with at least one planetary gear of the first planetary stage.
A method for cleaning an inner wall of a tube which is received by a clamping device of a laser processing machine and processed by a laser beam, with at least one contour cut being introduced into the tube prior to an ultimate separation cut for accomplishing the separation of a tube section from the tube held by said clamping device, and with a cleaning step being performed in the course of which at least the inner wall of the tube, beginning from the free tube end and extending to the location where the separation cut is to be introduced for forming a workpiece, is being cleaned using a cleaning device, characterised in that the cleaning step is effected after the final contour cut has been accomplished, or in that the cleaning step is effected concurrently with the accomplishment of the at least one contour cut, in such a manner that the cleaning device is moved at a given distance from the contour cut such that the laser beam is prevented from impinging on the cleaning device.
A hot runner nozzle for injection molds comprising a nozzle pipe in which a passage channel for the passage of a plastic melt is formed, wherein the passage channel extends along a center axis from a rear side channel inlet side up to a front side nozzle tip and opens in at least one outlet channel in the nozzle tip through which the plastic melt can be driven, with a contact collar 16 for sealing contact with the injection mold being provided, characterized in that at least the nozzle pipe is manufactured by means of a generative production process as a single-part base member; and in that the nozzle pipe has an inner pipe member in which the passage channel is formed and with the nozzle pipe having an outer pipe member surrounding the inner pipe member so that a peripheral hollow space extends between the inner pipe member and the outer pipe member.
Spinning unit of an air jet spinning machine - with a spinning nozzle, which serves the purpose of producing a yarn from a fiber composite fed to the spinning nozzle, - whereas the spinning nozzle features an inlet for the fiber composite, - a fiber guide element provided with an inlet opening forming the specified inlet - an internal vortex chamber, - air nozzles for generating a vortex air flow that are arranged in a vortex chamber wall surrounding the vortex chamber, - a yarn formation element protruding into the vortex chamber - a draw-off channel arranged within the yarn formation element; along with - an outlet for the yarn produced inside the vortex chamber, - whereas the spinning unit is allocated with an additive supply, which is designed to provide the spinning nozzle with an additive independent of compressed air flowing in through the air nozzles of the spinning nozzle. - whereas the additive supply includes at least one top frame fixed on the spinning nozzle, through which the additive provided by an additive supply line of the additive supply is able to be fed to the spinning nozzle. characterized in that the top frame features at least one channel with a channel inlet that is in fluid connection with the additive supply line and a channel outlet that is in fluid connection with the spinning nozzle, whereas the channel outlet is arranged in the area of the inlet of the spinning nozzle such, that the additive leaving the top frame through the channel outlet may be applied directly to the fiber composite coming into the spinning nozzle. - with a spinning nozzle, which serves the purpose of producing a yarn from a fiber composite fed to the spinning nozzle, - whereas the spinning nozzle features an inlet for the fiber composite, - a fiber guide element provided with an inlet opening forming the specified inlet - an internal vortex chamber, - air nozzles for generating a vortex air flow that are arranged in a vortex chamber wall surrounding the vortex chamber, - a yarn formation element protruding into the vortex chamber - a draw-off channel arranged within the yarn formation element; along with - an outlet for the yarn produced inside the vortex chamber, - whereas the spinning unit is allocated with an additive supply, which is designed to provide the spinning nozzle with an additive independent of compressed air flowing in through the air nozzles of the spinning nozzle. - whereas the additive supply includes at least one top frame fixed on the spinning nozzle, through which the additive provided by an additive supply line of the additive supply is able to be fed to the spinning nozzle.
A laser-induced dispensing system, comprising: a cartridge assembly having a supply reel for supplying a foil having a light transmissive layer wound around the supply reel, and a take-up reel for taking up the foil; a coating device for coating the foil by a donor material during a motion of the foil; an irradiation head having optics configured for focusing a laser beam; and a controller for controlling (i) the cartridge assembly to establish the motion of the foil, and (ii) the optics to focus the laser beam onto the foil at a location downstream of an outlet of the coating device so as to release droplets of the donor material from the foil, characterized in that the foil further comprises a sacrificial protective layer above the light transmissive layer, and wherein the cartridge assembly further comprises a lift off reel for lifting off the sacrificial protective layer during the supply of the foil. a cartridge assembly having a supply reel for supplying a foil having a light transmissive layer wound around the supply reel, and a take-up reel for taking up the foil; a coating device for coating the foil by a donor material during a motion of the foil; an irradiation head having optics configured for focusing a laser beam; and a controller for controlling (i) the cartridge assembly to establish the motion of the foil, and (ii) the optics to focus the laser beam onto the foil at a location downstream of an outlet of the coating device so as to release droplets of the donor material from the foil, characterized in that the foil further comprises a sacrificial protective layer above the light transmissive layer, and wherein the cartridge assembly further comprises a lift off reel for lifting off the sacrificial protective layer during the supply of the foil.
A platform for a fan rotor of an aircraft turbomachine, this platform being configured to be secured to a fan disk between two adjacent fan vanes, the platform comprising a longitudinal wall defining an aerodynamic external face, said wall comprising a honeycomb structure interposed between two skins (7; 8) made of composite material, respectively internal and external, the external skin defining said aerodynamic external face, characterised in that the external skin comprises a three-dimensional woven structure and the internal skin comprises a stratified structure, wherein the external skin has a thickness greater than that of the internal skin.
A personal care composition comprising: (a) an antioxidant compound selected from the group consisting of: -N-(4-hydroxy-3-methoxybenzylidene)propan-2-amine oxide; -N-(4-hydroxy-3-methoxybenzylidene)-2-methylpropan-2-amine oxide; -N-(4-hydroxybenzylidene)propan-2-amine oxide; and -N-(2-hydroxybenzylidene)propan-2-amine oxide; and (b) a dermatologically acceptable carrier. (a) an antioxidant compound selected from the group consisting of: -N-(4-hydroxy-3-methoxybenzylidene)propan-2-amine oxide; -N-(4-hydroxy-3-methoxybenzylidene)-2-methylpropan-2-amine oxide; -N-(4-hydroxybenzylidene)propan-2-amine oxide; and -N-(2-hydroxybenzylidene)propan-2-amine oxide; and -N-(4-hydroxy-3-methoxybenzylidene)propan-2-amine oxide; -N-(4-hydroxy-3-methoxybenzylidene)-2-methylpropan-2-amine oxide; -N-(4-hydroxybenzylidene)propan-2-amine oxide; and -N-(2-hydroxybenzylidene)propan-2-amine oxide; and (b) a dermatologically acceptable carrier.