mhurhangee/ep-ind-claims huggingface dataset:
A film structure with generation of visible light by means of LED technology, comprising: - a carrier film, - an LED chip for generating UV light, the LED chip being arranged on a first portion of the carrier film and having a light outlet surface for irradiating the UV light, - a color reaction layer for converting the UV light into the visible light, the color reaction layer being arranged on a second portion of the carrier film by means of printing technology, - a spacer layer arranged between the first and second portions (11, 12) of the carrier film, - the carrier film being folded over in such a way that the second portion of the carrier film is arranged above the first portion of the carrier film and the color reaction layer is arranged above the LED chip or so as to be laterally offset with respect to the LED chip, characterized in that the spacer layer has a recessed area so that light is incident on the color reaction layer in case of light emission from the light outlet surface of the LED chip. - a carrier film, - an LED chip for generating UV light, the LED chip being arranged on a first portion of the carrier film and having a light outlet surface for irradiating the UV light, - a color reaction layer for converting the UV light into the visible light, the color reaction layer being arranged on a second portion of the carrier film by means of printing technology, - a spacer layer arranged between the first and second portions (11, 12) of the carrier film, - the carrier film being folded over in such a way that the second portion of the carrier film is arranged above the first portion of the carrier film and the color reaction layer is arranged above the LED chip or so as to be laterally offset with respect to the LED chip,
Releasable cap suitable for application on a neck of a bottle for closing the bottle, wherein the cap is manufactured from cork or wood, or a combination thereof and is formed by a cork functioning as seal, wherein the cap is substantially disc-like and has an upper side, an underside and a side surface running obliquely from upper side to underside, wherein the oblique side surface is arranged co-act with the inner wall of the neck of the bottle for the purpose of clampingly closing bottle, wherein the cap is provided with at least one battery and light source coupled thereto for the purpose of emitting light downward into the bottle, wherein the cap comprises a switch for activating and deactivating the light source, characterized in that the light source is arranged in the cork, on the underside thereof, wherein the at least one lamp is arranged countersunk in the cap, wherein the cap is provided on the underside with a recess in which the light source and the battery are held, wherein the light source and other components, do not protrude beyond the plane of the underside of the cap, wherein the switch comprises a push button extending outward in upward direction relative to the cap, and wherein the cap is provided with a passage for the push button extending from the recess to the upper side of the cap.
A lattice apron for a condensing device of a spinning machine, comprising a mesh of intersecting filaments and comprising open areas between the filaments at least in a fiber transport region of the lattice apron, in order to allow a suction air flow to act on a fiber bundle being displaced thereon and that the lattice apron comprises a top side and a bottom side, characterized in that - the surface of the mesh, which is provided for contacting the fiber bundle comprises at least in the fiber transport region filaments with a leveled cross-section at the intersection points, so that flattened cross-sections are present and - the filaments comprise rounded edges at the leveled cross-section and - the open areas comprise rounded edges, in order to enable easier displacement of the fiber bundle on the surface of the lattice apron in contrast to non-leveled intersection points and non-rounded filaments or open areas and - that - the leveled intersection points and rounded edges of the filaments and - the rounded edges of the open areas are provided on the top side or on the top and bottom side of the lattice apron. - the surface of the mesh, which is provided for contacting the fiber bundle comprises at least in the fiber transport region filaments with a leveled cross-section at the intersection points, so that flattened cross-sections are present and - the filaments comprise rounded edges at the leveled cross-section and - the open areas comprise rounded edges, in order to enable easier displacement of the fiber bundle on the surface of the lattice apron in contrast to non-leveled intersection points and non-rounded filaments or open areas and - the filaments comprise rounded edges at the leveled cross-section and - the open areas comprise rounded edges, in order to enable easier displacement of the fiber bundle on the surface of the lattice apron in contrast to non-leveled intersection points and non-rounded filaments or open areas - that - the leveled intersection points and rounded edges of the filaments and - the rounded edges of the open areas are provided on the top side or on the top and bottom side of the lattice apron. - the leveled intersection points and rounded edges of the filaments and - the rounded edges of the open areas are provided on the top side or on the top and bottom side of the lattice apron.
An apparatus for separating and recovering the components of an alloy, particularly a noble alloy, comprising a high vacuum chamber housing at least one crucible for the alloy to be separated; at least one heating element arranged, during use, around said crucible; at least one condensation device (12, 12a), which faces, during use, an upper mouth of said crucible; said apparatus being characterized in that said condensation device (12, 12a) comprises at least one cold element and at least one deflector that diverts the flow of the aeriform substances derived from the melting and evaporation of said alloy toward said cold element, wherein said deflector can move along the axis of symmetry of said cold element, so as to be able to vary, during use, its distance from said upper mouth of said crucible, said deflector being adapted to project at least partially inside said upper mouth of said crucible.
A heteroleptic iridium compound Ir n 3-n having the formula: wherein n = 1 or 2; wherein is LI; wherein is L2; wherein R 1, R 2, R 3, R 4, and R 5 may represent mono, di, tri, or tetra substitutions; and wherein R 1, R 2, R 3, R 4, and R 5 are each independently selected from the group consisting of hydrogen, alkyl, heteroalkyl, aryl, substituted aryl, heteroaryl, and substituted heteroaryl. wherein n = 1 or 2; wherein is LI; wherein is L2; wherein R 1, R 2, R 3, R 4, and R 5 may represent mono, di, tri, or tetra substitutions; and wherein R 1, R 2, R 3, R 4, and R 5 are each independently selected from the group consisting of hydrogen, alkyl, heteroalkyl, aryl, substituted aryl, heteroaryl, and substituted heteroaryl.
A method for calibrating a gyroscope of an oral care device, the method comprising the steps of: scheduling a data acquisition scheme comprising a plurality of time points at two or more different temperatures; obtaining sensor data by the gyroscope at each of the plurality of time points; determining whether the oral care device was experiencing motion at any of the plurality of time points and, if so, discarding those time points from further analysis; determining a calibration model using the obtained sensor data; generating, based on the obtained sensor data and the determined calibration model, one or more parameters of the calibration model; and calibrating, using the calibration model and the one or more parameters, gyroscope data obtained during a cleaning session. scheduling a data acquisition scheme comprising a plurality of time points at two or more different temperatures; obtaining sensor data by the gyroscope at each of the plurality of time points; determining whether the oral care device was experiencing motion at any of the plurality of time points and, if so, discarding those time points from further analysis; determining a calibration model using the obtained sensor data; generating, based on the obtained sensor data and the determined calibration model, one or more parameters of the calibration model; and calibrating, using the calibration model and the one or more parameters, gyroscope data obtained during a cleaning session.
An optical fiber connector fixed mount, comprising a tray, a mounting member and a positioning mechanism, wherein the tray is configured to be capable of connecting to a single board in a communication device, the mounting member pivots on the tray and is configured to load an optical fiber connector, the mounting member is configured to mount the optical fiber connector, the mounting member rotates relative to the tray so as to change a direction of an optical output port of the optical fiber connector, and the positioning mechanism is located between the mounting member and the tray and the positioning mechanism cooperates with the mounting member and the tray in order to implement positioning between the mounting member and the tray, which is configured to position the mounting member in different positions; wherein the positioning mechanism comprises an elastic element and a jacking element, the tray is provided with a receiving groove to limit positions of the elastic element and the jacking element, the mounting member comprises at least two positioning grooves, the mounting member pivots on the tray on a pivot, the at least two positioning grooves are located on a same circumference with the pivot as a center of circle, in a process of the mounting member rotating relative to the tray, the jacking element is pushed against the mounting member due to an action of elastic force of the elastic element, and the positioning between the mounting member and the tray is implemented through a fit between the jacking element and one of the at least two positioning grooves; wherein the mounting member comprises a second arc-shaped surface, and the at least two positioning grooves are formed on the second arc-shaped surface; characterised in that: the tray comprises a first arc-shaped surface, the receiving groove is formed on the first arc-shaped surface, and the first arc-shaped surface abuts on the second arc-shaped surface.
A client device, comprising: a hardware layer including at least a processor and a memory; a runtime environment which operates using the hardware layer, the runtime environment including an operating system; and an interactive multimedia content package including executable code and a plurality of graphical asset files, wherein the executable code in use executes using the runtime environment to provide an interactive virtual environment on the client device using the graphical asset files; characterised in that: the interactive multimedia content package further comprises a wrapper component including one or more dynamic linked libraries, DLLs, which provides an intermediate layer between the executable code and the runtime environment, and the wrapper component restricts functionality of the interactive multimedia content package to provide a demonstration or trial mode of the interactive virtual environment, by intercepting one or more system calls made by the executable code to the operating system, and selectively either transparently passing each system call through to the operating system to operate the hardware layer or else intervening in the system call to control activity in the hardware layer. a hardware layer including at least a processor and a memory; a runtime environment which operates using the hardware layer, the runtime environment including an operating system; and an interactive multimedia content package including executable code and a plurality of graphical asset files, wherein the executable code in use executes using the runtime environment to provide an interactive virtual environment on the client device using the graphical asset files; characterised in that: the interactive multimedia content package further comprises a wrapper component including one or more dynamic linked libraries, DLLs, which provides an intermediate layer between the executable code and the runtime environment, and the wrapper component restricts functionality of the interactive multimedia content package to provide a demonstration or trial mode of the interactive virtual environment, by intercepting one or more system calls made by the executable code to the operating system, and selectively either transparently passing each system call through to the operating system to operate the hardware layer or else intervening in the system call to control activity in the hardware layer. the interactive multimedia content package further comprises a wrapper component including one or more dynamic linked libraries, DLLs, which provides an intermediate layer between the executable code and the runtime environment, and the wrapper component restricts functionality of the interactive multimedia content package to provide a demonstration or trial mode of the interactive virtual environment, by intercepting one or more system calls made by the executable code to the operating system, and selectively either transparently passing each system call through to the operating system to operate the hardware layer or else intervening in the system call to control activity in the hardware layer.
Use of a moulded body consisting of a dimensionally stable, biologically degradable material, as a forming body with a pipe welding method, with which the forming body is inserted as a gas lock into the interior of the steel pipe for a temporary internal sealing of a flow area of a steel pipe to be welded, sealing the flow area of the steel pipe during said welding, and which is welded under shield gas with the inserted forming body in the interior of the sealed steel pipe, whilst a fluid is introduced into the interior of the pipe after welding and the forming body brought into contact with the fluid in the interior of the pipe and the forming body dissolved through contact with the fluid, wherein the forming body consists of a biologically degradable material, the main components of which are maize starch and/or maize grit and/or maize flakes, and which has a water solubility of ≥ 90% and upon dissolving in fully desalinated water results in a pH value of 6.6, and wherein the forming body has already been produced cylinder-shaped in its direct starting condition with a shape and size, guaranteeing adaptation to the interior of the steel pipe and safe sealing of the interior during welding, and comprises an edge area with a chamfer in the transition area between a facing side surface and a longitudinal side surface and is dimensionally stable, pressure stable and temperature stable in such a way that its shape does not change when a pressure and an increased temperature are applied, and can be pressed into the interior of the pipe by means of an elongated, cylinder-shaped, stamp-shaped insertion tool that presses upon a facing side surface of the forming body, and can be positioned in the desired location, wherein it lies spatially against the inner circumference surface of the steel pipe with its outer circumference surface. wherein the forming body consists of a biologically degradable material, the main components of which are maize starch and/or maize grit and/or maize flakes, and which has a water solubility of ≥ 90% and upon dissolving in fully desalinated water results in a pH value of 6.6, and wherein the forming body has already been produced cylinder-shaped in its direct starting condition with a shape and size, guaranteeing adaptation to the interior of the steel pipe and safe sealing of the interior during welding, and comprises an edge area with a chamfer in the transition area between a facing side surface and a longitudinal side surface and is dimensionally stable, pressure stable and temperature stable in such a way that its shape does not change when a pressure and an increased temperature are applied, and can be pressed into the interior of the pipe by means of an elongated, cylinder-shaped, stamp-shaped insertion tool that presses upon a facing side surface of the forming body, and can be positioned in the desired location, wherein it lies spatially against the inner circumference surface of the steel pipe with its outer circumference surface.
A method of fixing a clamp around a pipe, the method comprising: supporting the pipe between clamp parts (30, 32) that are disposed in mutual opposition about the pipe, in a cradle of part-circular cross-section, the cradle being one of the clamp parts (30, 32); engaging the pipe, when supported in the cradle, with at least one shell of part-circular cross-section, the or each shell being another of the clamp parts (30, 32); maintaining a gap within at least one interface between the clamp parts (30, 32); forming a weld in the or each gap, the or each weld being formed between a support of a shell and an outrigger of the cradle at a location offset laterally from a longitudinal axis of the pipe; and cooling and shrinking the or each weld to draw together, and to compress the pipe between, the clamp parts (30, 32). supporting the pipe between clamp parts (30, 32) that are disposed in mutual opposition about the pipe, in a cradle of part-circular cross-section, the cradle being one of the clamp parts (30, 32); engaging the pipe, when supported in the cradle, with at least one shell of part-circular cross-section, the or each shell being another of the clamp parts (30, 32); maintaining a gap within at least one interface between the clamp parts (30, 32); forming a weld in the or each gap, the or each weld being formed between a support of a shell and an outrigger of the cradle at a location offset laterally from a longitudinal axis of the pipe; and cooling and shrinking the or each weld to draw together, and to compress the pipe between, the clamp parts (30, 32).
A method for a device, the method comprising: receiving (17;35) an invitation to participate in cooperative spectrum sensing; in response to the invitation, determining autonomously whether or not to participate in the cooperative spectrum sensing; and performing (21;45) spectrum sensing in case it is determined to participate in the cooperative spectrum sensing, the method being characterised in that the step of determining autonomously is based on a random procedure (37,39,41). receiving (17;35) an invitation to participate in cooperative spectrum sensing; in response to the invitation, determining autonomously whether or not to participate in the cooperative spectrum sensing; and performing (21;45) spectrum sensing in case it is determined to participate in the cooperative spectrum sensing, the method being characterised in that the step of determining autonomously is based on a random procedure (37,39,41).
A method for the wear-optimised operation of a soil working machine, in particular a road milling machine, a surface miner or the like, with adjustable machine parameters (18.1, 18.2, 18.3, 18.4) of a machine parameter set for controlling the machine, wherein, depending on at least one material property of the material to be removed, at least one target machine parameter (71.1, 71.2, 71.3, 71.4) for setting a wear-optimised operation is determined, characterised in that the at least one material property is determined during operation of the soil working machine depending on machine parameters (18.1, 18.2, 18.3, 18.4), at least one calculation unit and one memory unit are assigned to the processing device, the at least one material property combined with at least one job parameter and/or at least one default machine parameter (62.1, 62.2, 62.3, 62.4) is stored in the memory unit, characteristic fields or functional relationships are stored in the memory unit for determining the at least one target machine parameter (71.1, 71.2, 71.3, 71.4) from the at least one material property and from the at least one job parameter and/or from the at least one default machine parameter (62.1, 62.2, 62.3, 62.4), and the calculation unit determines the at least one target machine parameter (71.1, 71.2, 71.3, 71.4) with the aid of the characteristic fields or the functional relationships.
A foldable chisel comprising: a blade; a first handle rotatably coupled to the blade and forming a first channel adapted to receive a first side of the blade; a second handle rotatably coupled to the blade and forming a second channel adapted to receive a second side of the blade opposite the first side of the blade, the first handle and second handle rotatable between an open position in which the blade is substantially exposed and a closed position in which the blade is at least partially contained in the first channel and the second channel, characterised in that the first handle and the second handle comprise a rotatable coupling (122, 132) such that the first handle and the second handle rotate with one another in opposite directions between the closed position and the open position, and wherein the rotatable coupling comprises a rotation impeding mechanism configured to impede rotation of the first handle and the second handle from the closed position toward the open position. a blade; a first handle rotatably coupled to the blade and forming a first channel adapted to receive a first side of the blade; a second handle rotatably coupled to the blade and forming a second channel adapted to receive a second side of the blade opposite the first side of the blade, the first handle and second handle rotatable between an open position in which the blade is substantially exposed and a closed position in which the blade is at least partially contained in the first channel and the second channel, characterised in that the first handle and the second handle comprise a rotatable coupling (122, 132) such that the first handle and the second handle rotate with one another in opposite directions between the closed position and the open position, and wherein the rotatable coupling comprises a rotation impeding mechanism configured to impede rotation of the first handle and the second handle from the closed position toward the open position.
Sanitary flow element (1, 2, 30) which has a flow rate regulator unit having a carrier part which extends over the clear cross-section of a fluid line section and which carrier part has at least two mutually spaced-apart insertion openings in which in each case one flow rate regulator is arranged, wherein each flow rate regulator has a restrictor which is round on an outer circumferential side in cross-section, consists of elastic material and delimits a control gap between itself and a circumferential wall bounding the insertion opening, wherein the restrictors are subjected to compression in a flow direction under the pressure of the fluid flowing through, such that this compression causes a circumferential widening of the restrictors which narrows the control gap which determines the flow capacity of the flow rate regulators, characterised in that the restrictors of the flow rate regulators are formed in a conical, frustoconical or spherical manner.