mhurhangee/ep-ind-claims huggingface dataset:
A device capable of being implanted into the body of a subject to form an implant capable of replacing and/or increasing a soft tissue volume, said device being of the type comprising a three-dimensional framework which defines a space internal to said framework, characterised in that said framework is bio-resorbable, in that it comprises two side openings forming a transverse passage for inserting a vascular pedicle and in that it further comprises at least two bio-resorbable textile sheets (31; 61) capable of being stacked one upon the other into said space internal to said framework.
A system for displaying on a screen a digital geometry data of an object in the form of a synthesis image, by means of an application module comprising a user interface, said application module delivering, from said digital geometry data, a model of said object formed by a stream of picture elements to a means for calculating a three-dimensional image which can be displayed on said screen, characterized in that said system comprises at least means for filtering said stream of picture elements, installed at an input of said means for calculating a three-dimensional image and comprising: - means for discriminating, in said stream of picture elements, elementary images each constituting at least one part of the image to display; characterized in that the system further comprises: - means for coding each successive elementary image according to an index value representing the content of said elementary image, obtained by application of a hashing function to at least each successive elementary image, said index values being delivered to said means for calculating a three-dimensional image. - means for discriminating, in said stream of picture elements, elementary images each constituting at least one part of the image to display; - means for coding each successive elementary image according to an index value representing the content of said elementary image, obtained by application of a hashing function to at least each successive elementary image, said index values being delivered to said means for calculating a three-dimensional image.
A module for sealing an interface (702; 704) between compartments (706, 708) of a pressurized cabin of an aircraft, the module comprising: a frame providing at least one opening surrounded by attachment surfaces (110, 112, 114, 116), the frame being connectable to a supporting structure of the aircraft; a sheet attached to the attachment surfaces (110, 112, 114, 116) of the frame for sealing the at least one opening; and a rigid structure attached to the sheet within the frame without contacting the frame so that a displacement of the rigid structure relative to the frame induces tensile stress in the sheet between the frame and the rigid structure, characterized in that the rigid structure includes at least one protrusion which extends in a first direction, wherein each of the at least one protrusion protrudes towards one of the attachment surfaces (110, 112, 114, 116) of the frame without contacting the frame, and wherein the attachment surface towards which the at least one protrusion protrudes extends in a second direction perpendicular to the first direction, and the sheet is configured to rupture due to the induced tensile stress, when a pressure difference between the compartments (706, 708) acts on the module and exceeds a predefined critical value. a frame providing at least one opening surrounded by attachment surfaces (110, 112, 114, 116), the frame being connectable to a supporting structure of the aircraft; a sheet attached to the attachment surfaces (110, 112, 114, 116) of the frame for sealing the at least one opening; and a rigid structure attached to the sheet within the frame without contacting the frame so that a displacement of the rigid structure relative to the frame induces tensile stress in the sheet between the frame and the rigid structure, characterized in that the rigid structure includes at least one protrusion which extends in a first direction, wherein each of the at least one protrusion protrudes towards one of the attachment surfaces (110, 112, 114, 116) of the frame without contacting the frame, and wherein the attachment surface towards which the at least one protrusion protrudes extends in a second direction perpendicular to the first direction, and wherein each of the at least one protrusion protrudes towards one of the attachment surfaces (110, 112, 114, 116) of the frame without contacting the frame, and wherein the attachment surface towards which the at least one protrusion protrudes extends in a second direction perpendicular to the first direction, the sheet is configured to rupture due to the induced tensile stress, when a pressure difference between the compartments (706, 708) acts on the module and exceeds a predefined critical value.
An active noise control system comprising: a first active noise control sub-system (310, 311, 313) for generating anti-noise that is configured to reduce or cancel noise occurring at a listening position, and a second active noise control sub-system (304, 305, 307) for generating anti-noise that is configured to reduce or cancel noise occurring at a listening position; the first active noise control sub-system (310, 311, 313) has a higher robustness than the second active noise control sub-system (304, 305, 307); a stability controller that evaluates the stability of the second sub-system (304, 305, 307) and switches the second sub-system (304, 305, 307) off or restricts the operation of the second sub-system (304, 305, 307) to lower frequencies when an instability condition of the second sub-system (304, 305, 307) is detected; a seat (108-111, 405, 605) with a headrest; and at least one loudspeaker disposed in the headrest and radiating the anti-noise; wherein the first sub-system (310, 311, 313) being connected upstream of the at least one loudspeaker disposed in the headrest. a first active noise control sub-system (310, 311, 313) for generating anti-noise that is configured to reduce or cancel noise occurring at a listening position, and a second active noise control sub-system (304, 305, 307) for generating anti-noise that is configured to reduce or cancel noise occurring at a listening position; the first active noise control sub-system (310, 311, 313) has a higher robustness than the second active noise control sub-system (304, 305, 307); a stability controller that evaluates the stability of the second sub-system (304, 305, 307) and switches the second sub-system (304, 305, 307) off or restricts the operation of the second sub-system (304, 305, 307) to lower frequencies when an instability condition of the second sub-system (304, 305, 307) is detected; a seat (108-111, 405, 605) with a headrest; and at least one loudspeaker disposed in the headrest and radiating the anti-noise; wherein the first sub-system (310, 311, 313) being connected upstream of the at least one loudspeaker disposed in the headrest.
A reducing agent system for motor vehicles comprising a reducing agent tank and a heating device with a heater for heating the reducing agent tank, wherein the heater has an electric heating element which is arranged outside of the reducing agent tank, and wherein the reducing agent tank has a pipe system which allows heating fluid heated in the heater to flow through it and which, together with the heating device, forms an autonomous heating fluid circuit that is separate from an engine cooling circuit of the vehicle, characterized in that the heater is connected to the pipe system via pipes (6, 7).
A device for treating subcutaneous lipid-rich cells of a subject, comprising: a rigid portion including a thermal conductor having an inside surface and an outside surface positioned opposite the inside surface; and a flexible portion having an inner surface defining an interior cavity into which a vacuum is capable of being drawn to draw the subject's tissue into the interior cavity, an outer surface positioned opposite the inner surface, and a cutout extending between the inner and outer surfaces (102; 104); and wherein the thermal conductor is positioned in the cutout, and wherein the flexible and rigid portions (100; 200) define a body, wherein the body has - an interior surface including the inside surface of the thermal conductor of the rigid portion and the inner surface of the flexible portion; and an exterior surface including the outside surface of the thermal conductor of the rigid portion and the outer surface of the flexible portion. a rigid portion including a thermal conductor having an inside surface and an outside surface positioned opposite the inside surface; and a flexible portion having an inner surface defining an interior cavity into which a vacuum is capable of being drawn to draw the subject's tissue into the interior cavity, an outer surface positioned opposite the inner surface, and a cutout extending between the inner and outer surfaces (102; 104); and wherein the thermal conductor is positioned in the cutout, and wherein the flexible and rigid portions (100; 200) define a body, wherein the body has - an interior surface including the inside surface of the thermal conductor of the rigid portion and the inner surface of the flexible portion; and an exterior surface including the outside surface of the thermal conductor of the rigid portion and the outer surface of the flexible portion. an interior surface including the inside surface of the thermal conductor of the rigid portion and the inner surface of the flexible portion; and an exterior surface including the outside surface of the thermal conductor of the rigid portion and the outer surface of the flexible portion.
A light head (100, 200, 300, 400) for use in relining a pipe comprising: a proximal end cap (104, 204, 304, 404) with an air inlet (180, 280, 380, 480); a distal end cap (108, 208, 308, 408); at least one body (112, 212, 312, 412) between the proximal end cap (104, 204, 304, 404) and the distal end cap (108, 208, 308, 408); the body (112, 212, 312, 412) having a longitudinal hole (116, 216, 316, 416) extending from the proximal end cap (104, 204, 304, 404) through the centre of the body (112, 212, 312, 412) towards the distal end cap (108, 208, 308, 408) and at least one air channel (120, 220, 320, 420) extending radially from the longitudinal hole (116, 216, 316, 416) to a radial air outlet (124, 224, 324, 424); the longitudinal hole (116, 216, 316, 416) being configured to receive air from the air inlet (180, 280, 380, 480) such that in use air from the air inlet (180, 280, 380, 480) passes through the body (112, 212, 312, 412) and exits at the radial air outlet (124, 224, 324, 424); the body (112, 212, 312, 412) supporting at least one light emitting diode (140, 240, 340, 440) on the periphery of the body (112, 212, 312, 412) in order to emit light radially from the light head (100, 200, 300, 400) towards the pipe. a proximal end cap (104, 204, 304, 404) with an air inlet (180, 280, 380, 480); a distal end cap (108, 208, 308, 408); at least one body (112, 212, 312, 412) between the proximal end cap (104, 204, 304, 404) and the distal end cap (108, 208, 308, 408); the body (112, 212, 312, 412) having a longitudinal hole (116, 216, 316, 416) extending from the proximal end cap (104, 204, 304, 404) through the centre of the body (112, 212, 312, 412) towards the distal end cap (108, 208, 308, 408) and at least one air channel (120, 220, 320, 420) extending radially from the longitudinal hole (116, 216, 316, 416) to a radial air outlet (124, 224, 324, 424); the longitudinal hole (116, 216, 316, 416) being configured to receive air from the air inlet (180, 280, 380, 480) such that in use air from the air inlet (180, 280, 380, 480) passes through the body (112, 212, 312, 412) and exits at the radial air outlet (124, 224, 324, 424); the body (112, 212, 312, 412) supporting at least one light emitting diode (140, 240, 340, 440) on the periphery of the body (112, 212, 312, 412) in order to emit light radially from the light head (100, 200, 300, 400) towards the pipe.
A method for providing an electrode, which method comprises: a) providing a substrate; b) providing a reagent ink comprising an active material, or precursor thereof, and a poly(alkylene carbonate) binder, wherein the active material comprises ruthenium; and c) contacting the reagent ink to the substrate by a pad printing process to provide the electrode. a) providing a substrate; b) providing a reagent ink comprising an active material, or precursor thereof, and a poly(alkylene carbonate) binder, wherein the active material comprises ruthenium; and c) contacting the reagent ink to the substrate by a pad printing process to provide the electrode.
A helicopter with a fuselage, at least two engines substantially inside said fuselage, an air intake for each of said two engines and at least two separate lateral air inlet ports for said at least two engines in said fuselage, said separate lateral air inlet ports being arranged on sides opposed to each other relative to an essentially vertical midplane of said fuselage and oriented with their respective cross section substantially parallel to a forward flight direction of the helicopter, wherein further at least one frontal air inlet port with a forward portion is provided separate from said lateral air inlet ports, said at least one frontal air inlet port being located on a gear cowling of the fuselage and being oriented with its cross section substantially perpendicular to a forward flight direction, characterised by a straight path for airflow through the at least one frontal air inlet port aligned with the longitudinal airflow and two further separate paths through said separate lateral air inlet ports are provided to each air intake for each engine from forward and both sideways.
Device for applying a viscous material, particularly an adhesive, to an edge of a component, along which the device is moved in a transport direction during application, having - a nozzle for the viscous material in or on a nozzle mounting (8, 15, 24), - a connecting element (6, 17, 22) via which the device can be connected to a handling apparatus, a handle or a cartridge, and - a connecting mechanism (16, 23) via which the nozzle mounting (8, 15, 24) is connected to the connecting element (6, 17, 22), - wherein the connecting mechanism (16, 23) is constructed such that it allows movement of the nozzle mounting (8, 15, 24) relative to the connecting element (6, 17, 22) in at least a first direction parallel to a surface normal on the edge, and has a spring mechanism (7, 18, 20), characterised in that a guide roller is attached to the nozzle or nozzle mounting in such manner that it can be placed on the edge and moved along the edge in order to apply the viscous material and thus ensures a defined position of the nozzle relative to the edge during the application, and the spring mechanism (7, 18, 20) is designed such that it presses the guide roller against the edge during application. - a nozzle for the viscous material in or on a nozzle mounting (8, 15, 24), - a connecting element (6, 17, 22) via which the device can be connected to a handling apparatus, a handle or a cartridge, and - a connecting mechanism (16, 23) via which the nozzle mounting (8, 15, 24) is connected to the connecting element (6, 17, 22), - wherein the connecting mechanism (16, 23) is constructed such that it allows movement of the nozzle mounting (8, 15, 24) relative to the connecting element (6, 17, 22) in at least a first direction parallel to a surface normal on the edge, and has a spring mechanism (7, 18, 20),
An operation control device for a gas turbine that drives a generator by rotating a turbine with combustion gas generated in a combustor by supplying the combustor with fuel and compressed air from a compressor provided with an inlet guide vane at a front stage, the operation control device for a gas turbine comprising: an IGV control flag generator configured to activate an IGV emergency fully-open flag when a system frequency drops to or below a predetermined threshold value and an output of the generator is in a high load band at or above a predetermined value, or when the system frequency drops to or below the predetermined threshold value and a degree of opening of the inlet guide vane is set to a predetermined standard fully-open degree of opening; an inlet guide vane degree-of-opening setting portion configured to, when the IGV emergency fully-open flag is active, set the degree of opening of the inlet guide vane to an emergency fully-open degree of opening, which is greater than the standard fully-open degree; a temperature controller configured to set a temperature adjustment setting by switching in accordance with the degree of opening of the inlet guide vane, and configured to generate an exhaust gas temperature setting value or a blade path temperature setting value for the turbine based on the temperature adjustment setting; and a fuel controller configured to control an amount of fuel to be supplied to the combustor based on the exhaust gas temperature setting value or the blade path temperature setting value; wherein the blade path temperature is an exhaust gas temperature immediately after the final stage of the turbine. an IGV control flag generator configured to activate an IGV emergency fully-open flag when a system frequency drops to or below a predetermined threshold value and an output of the generator is in a high load band at or above a predetermined value, or when the system frequency drops to or below the predetermined threshold value and a degree of opening of the inlet guide vane is set to a predetermined standard fully-open degree of opening; an inlet guide vane degree-of-opening setting portion configured to, when the IGV emergency fully-open flag is active, set the degree of opening of the inlet guide vane to an emergency fully-open degree of opening, which is greater than the standard fully-open degree; a temperature controller configured to set a temperature adjustment setting by switching in accordance with the degree of opening of the inlet guide vane, and configured to generate an exhaust gas temperature setting value or a blade path temperature setting value for the turbine based on the temperature adjustment setting; and a fuel controller configured to control an amount of fuel to be supplied to the combustor based on the exhaust gas temperature setting value or the blade path temperature setting value; wherein
Air purification device for personalised air supply having a housing which has at least one air intake region for drawing air into the housing and at least one air blow-out region for blowing air out of the housing, wherein at least one fan wheel rotatable about a fan rotation axis and at least one intake air filter for filtering the air drawn in through the air intake region are arranged in the housing, wherein a purified blow-out air stream is blown out freely from the housing of the air purification device and can be directed individually against the body, and in particular against the face, of a user, wherein the housing of the air purification device has a disc-like design, and the air intake region and the air blow-out region are arranged in the same radial plane on the circumference of the housing, characterised in that the housing of the air purification device has a circular or oval or polygonal outer contour in a view from direction parallel to the fan rotation axis, in that the fan wheel draws the air into the fan wheel during operation of the air purification device at least in a direction parallel to the fan rotation axis and blows the purified blow-out air stream away from the fan wheel in at least one direction radially to the fan rotation axis, in that the fan rotation axis is arranged perpendicularly to the direction of the radial plane of the housing, and in that the fan wheel is arranged in an interior only partly surrounded by the intake air filter or several intake air filters, and seen in the plan view from direction parallel to the fan rotation axis, a blow-out space, in which the fan wheel blows in the air on the path towards the air blow-out region of the housing during operation, is arranged in a section remaining free of the intake air filter.
A 3D camera in accordance with the stereoscopic principle for detecting depth maps of a monitored zone which comprises at least two camera modules (14a-b) each having an image sensor (16a-b) in mutually offset perspectives for taking two-dimensional starting images, a stereoscopic unit which is configured for the application of a stereoscopic algorithm for generating a depth map (46, 50), in that mutually associated part zones are recognized in two two-dimensional images within a disparity zone taken from offset perspectives and their distance is calculated with reference to the disparity, wherein the disparity zone defines a search range of how far image elements in the two images may maximally be offset from one another, a pixel binning unit for generating a two-dimensional intermediate image of lower resolution by binning a respective plurality of pixels from a two-dimensional image, and a fusion unit which fuses at least a first depth map and a second depth map to form a common depth map, with at least the second depth map being generated from intermediate images, characterized in that the stereoscopic unit generates the first depth map for the far range with a disparity zone which is reduced with respect to a disparity zone necessary for the entire distance range of the 3D camera, and generates the second depth map with a matching disparity zone corresponding to near distances still to be covered.
A trailer for a tugger train comprising a front and a rear trailer portion (10, 12), which are interconnected via a gantry-like arch so as to form a receiving region for at least one inner cart, a lifting apparatus being provided on the front trailer portion and/or the rear trailer portion, the lifting apparatus having three lifting positions, in a first lifting position of which the inner cart is lifted in the trailer for transportation, in a second lifting position of which the inner cart can be pushed from any side into the receiving region up to an end stop, and in a third lifting position of which said inner cart can be pushed out of the receiving region from both sides, and at least one pair of end stops being provided in the receiving region, which end stops each form a lateral outer end stop for an inner cart pushed into the second lifting position, characterized in that one of a pair of end stops serves as an end stop for the fully pushed-in inner cart, whereas the second end stop is pressed down by the inner cart pushed into the receiving region.