mhurhangee/patent-ind-claim-en huggingface dataset:
Arrangement with a pipe , an external element and a pipe connecting device for securing the tube to the external element , with at least one adapter element and at least one securing element , wherein the adapter element serves as support at the pipe for the at least one securing element for securing the pipe to the external element , wherein mutually opposite ends of the adapter element are respectively supported in supports at walls of the pipe and wherein at least one end of the adapter element forms a device for positioning the securing element with respect to the external element in interaction with a support , characterised in that the supports are formed as cut-outs in the walls of the pipe , that a part of the device is formed from a length section of the adapter element with a cross-section departing from its original cross-sectional shape and that the length section engages in a cut-out of a wall of the pipe by a fitting cross-sectional shape differing from the original shape, that the adapter element is formed as a cylindrical, rectangular, square or polygonal pin, at one end of which a surface as part of the device for positioning the securing element is arranged, and that the adapter element is oriented in its angular position with respect to the pipe and thus also the securing element connected with the adapter element in such a way that the surface comes into contact with an associated surface in the first cut-out of the pipe .
An optical waveguide apparatus for conveying image-bearing light beams comprising: a waveguide having an input region and an output region , and having a first parallel planar surface and a second parallel planar surface that extend between the input region and the output region ; a first in-coupling diffractive optic at the first parallel planar surface operable to direct a first subset of image-bearing light beams into the waveguide to propagate as a first subset of in-coupled image-bearing light beams from the input region to the output region ; and a second in-coupling diffractive optic at the second parallel planar surface operable to direct a second subset of image-bearing light beams into the waveguide to propagate as a second subset of in-coupled image-bearing light beams from the input region to the output region ; characterised in that the first and second in-coupling diffractive optics are offset with respect to each other in a transverse direction to a direction from the input region to the output region . a waveguide having an input region and an output region , and having a first parallel planar surface and a second parallel planar surface that extend between the input region and the output region ; a first in-coupling diffractive optic at the first parallel planar surface operable to direct a first subset of image-bearing light beams into the waveguide to propagate as a first subset of in-coupled image-bearing light beams from the input region to the output region ; and a second in-coupling diffractive optic at the second parallel planar surface operable to direct a second subset of image-bearing light beams into the waveguide to propagate as a second subset of in-coupled image-bearing light beams from the input region to the output region ; characterised in that the first and second in-coupling diffractive optics are offset with respect to each other in a transverse direction to a direction from the input region to the output region . characterised in that the first and second in-coupling diffractive optics are offset with respect to each other in a transverse direction to a direction from the input region to the output region .
Pressure-limiting device designed to be installed in a system comprising a first line and a second line that can comprise pressurised oil and comprising a discharge and/or booster line , said device comprises a pressure selector in the form of a cage defining two seats and two pressure relief valves , characterised in that the device comprises a body comprising a casing that has a narrowing forming two seats of selector on either side of a passage designed to be connected to the discharge and/or booster line , in that the selector comprises a cage formed from a diabolo formed from a central cylinder mobile in the selector function thereof, with regards to the narrowing formed on the casing and provided on the two axial ends thereof with respective protusions protruding onto the inner surface thereof in order to define seats of pressure relief valves and on the outer surface thereof in order to define selector shutters, facing selector seats formed by the narrowing of the housing, in that each pressure relief valve comprises a shutter formed from a protrusion on the end of a rod facing a pressure relief valve seat formed on the protrusions of the selector cage, with the rods axially emerging on each end of the selector and each rod and the associated shutter thereof being urged towards a respective axial end of the device by a respective spring inserted on a rod , between a protrusion forming a shutter and a stop carried by the rods and in that the device further comprises at least one means for regulating (170, 172; 190, 192) a pressure relief valve, disposed on the outside of an axial end of the pressure selector in the form of a cage in order to allow for a regulation of the loading of the associated pressure relief valve.
A power plant including an apparatus for regasification of liquefied natural gas (LNG), the power plant comprising: two cascaded Brayton cycles comprising a topping open Brayton cycle and a bottoming closed Brayton cycle , wherein the bottoming closed Brayton cycle comprises: a compressor configured to pressurize a working fluid; a heat recovery system configured to recover heat from the topping open Brayton cycle and provide it to the working fluid; a turbine configured to generate work utilizing the working fluid; and a 4-stream heat exchanger configured to transfer heat from the working fluid to a first stage liquefied natural gas at a first pressure, a second stage liquefied natural gas at a second pressure and the compressed working fluid. a compressor configured to pressurize a working fluid; a heat recovery system configured to recover heat from the topping open Brayton cycle and provide it to the working fluid; a turbine configured to generate work utilizing the working fluid; and a 4-stream heat exchanger configured to transfer heat from the working fluid to a first stage liquefied natural gas at a first pressure, a second stage liquefied natural gas at a second pressure and the compressed working fluid.
Device for producing strip wound tube products (WSP) that can be used as conduit element in motor vehicles, comprising: - a winding machine for winding a strip into a strip wound tube (WS); - a finishing machine for separating sections (WSP) of said strip wound tube (WS); - a force decoupling unit for absorbing axial forces from the strip wound tube (WS), which are introduced into the strip wound tube by the winding machine and by the finishing machine , characterized in that the force decoupling unit has at least one contact element , which - is in axial direction in form-fitting contact with the strip wound tube (WS), or - is in frictional contact with the strip wound tube (WS) so that an axial movement of the strip wound tube relative to the contact element causes a friction force in axial direction that inhibits the movement. - a winding machine for winding a strip into a strip wound tube (WS); - a finishing machine for separating sections (WSP) of said strip wound tube (WS); - a force decoupling unit for absorbing axial forces from the strip wound tube (WS), which are introduced into the strip wound tube by the winding machine and by the finishing machine , characterized in that the force decoupling unit has at least one contact element , which - is in axial direction in form-fitting contact with the strip wound tube (WS), or - is in frictional contact with the strip wound tube (WS) so that an axial movement of the strip wound tube relative to the contact element causes a friction force in axial direction that inhibits the movement.
An electronic assembly comprising: a semiconductor device having conductive pads on the semiconductor device first side and a metallic region on the semiconductor device second side opposite the first side, the conductive pads comprising at least one oversized conductive pad among the conductive pads, the at least one oversized conductive pad comprising an output terminal for alternating current; a substrate comprising a dielectric layer and a conductive traces for providing separate terminals that are electrically and mechanically connected to the conductive pads; a first heat sink comprising a metallic first component having a mating side , a portion of the mating side directly bonded with the metallic region of the semiconductor device and having an opposite side opposite the mating side; and a circuit board having an opening , the semiconductor device and the substrate extending at or outward toward the circuit board first side , the circuit board second side opposite the circuit board first side, a plurality of board conductive pads being on the board first side of the circuit board to align with corresponding terminals of the substrate for electrical connection therewith. a semiconductor device having conductive pads on the semiconductor device first side and a metallic region on the semiconductor device second side opposite the first side, the conductive pads comprising at least one oversized conductive pad among the conductive pads, the at least one oversized conductive pad comprising an output terminal for alternating current; a substrate comprising a dielectric layer and a conductive traces for providing separate terminals that are electrically and mechanically connected to the conductive pads; a first heat sink comprising a metallic first component having a mating side , a portion of the mating side directly bonded with the metallic region of the semiconductor device and having an opposite side opposite the mating side; and a circuit board having an opening , the semiconductor device and the substrate extending at or outward toward the circuit board first side , the circuit board second side opposite the circuit board first side, a plurality of board conductive pads being on the board first side of the circuit board to align with corresponding terminals of the substrate for electrical connection therewith.
A semiconductor solar cell device , wherein the solar cell is an indium-phosphide-based dual-junction solar cell that comprises: a first photovoltaic cell including a first emitter and base , wherein said first emitter and base is a material layer selected from group consisting of: indium gallium arsenide phosphide, GaInPAs, aluminum arsenide antimonide, AlAsSb, aluminum gallium arsenide antimonide, AlGaAsSb, aluminum indium arsenide, AlInAs, indium phosphide, InP, aluminum gallium indium arsenide, AlGaInAs, gallium indium arsenide, GaInAs, or gallium arsenide antimonide, GaAsSb; a second photovoltaic cell including a second emitter and base , wherein said second emitter and base has a lower bandgap than the bandgap of said first emitter and base , wherein said second emitter and base is a material layer selected from group consisting of: gallium indium arsenide, GaInAs, gallium arsenide antimonide, GaAsSb, aluminum gallium arsenide antimonide, AlGaAsSb, aluminum gallium indium arsenide, AlGaInAs, gallium indium phosphide arsenide, GaInPAs, and their alloys having an InP lattice constant, and, a tunnel junction located between the first and second photovoltaic cells and the tunnel junction comprising an n-doped tunnel layer , wherein the n-doped tunnel layer is constructed of aluminum indium phosphide arsenide, AlInPAs; and a p-doped tunnel layer , wherein the p-doped tunnel layer is constructed of aluminum gallium arsenide antimonide, AlGaAsSb. a first photovoltaic cell including a first emitter and base , wherein said first emitter and base is a material layer selected from group consisting of: indium gallium arsenide phosphide, GaInPAs, aluminum arsenide antimonide, AlAsSb, aluminum gallium arsenide antimonide, AlGaAsSb, aluminum indium arsenide, AlInAs, indium phosphide, InP, aluminum gallium indium arsenide, AlGaInAs, gallium indium arsenide, GaInAs, or gallium arsenide antimonide, GaAsSb; a second photovoltaic cell including a second emitter and base , wherein said second emitter and base has a lower bandgap than the bandgap of said first emitter and base , wherein said second emitter and base is a material layer selected from group consisting of: gallium indium arsenide, GaInAs, gallium arsenide antimonide, GaAsSb, aluminum gallium arsenide antimonide, AlGaAsSb, aluminum gallium indium arsenide, AlGaInAs, gallium indium phosphide arsenide, GaInPAs, and their alloys having an InP lattice constant, and, a tunnel junction located between the first and second photovoltaic cells and the tunnel junction comprising an n-doped tunnel layer , wherein the n-doped tunnel layer is constructed of aluminum indium phosphide arsenide, AlInPAs; and a p-doped tunnel layer , wherein the p-doped tunnel layer is constructed of aluminum gallium arsenide antimonide, AlGaAsSb. an n-doped tunnel layer , wherein the n-doped tunnel layer is constructed of aluminum indium phosphide arsenide, AlInPAs; and a p-doped tunnel layer , wherein the p-doped tunnel layer is constructed of aluminum gallium arsenide antimonide, AlGaAsSb.
A method of transferring an RFID inlay , comprising: securing an RFID inlay to a first substrate with a first adhesive ; providing a second substrate with a second adhesive and a liner ; separating the liner from the second substrate to expose the second adhesive ; bringing the RFID inlay into the vicinity of, and securing the RFID inlay to, the second substrate using the second adhesive ; dissociating the RFID inlay from the first substrate ; and securing the liner to the RFID inlay after the RFID inlay is dissociated from the first substrate , to position the RFID inlay between the second substrate and the liner . securing an RFID inlay to a first substrate with a first adhesive ; providing a second substrate with a second adhesive and a liner ; separating the liner from the second substrate to expose the second adhesive ; bringing the RFID inlay into the vicinity of, and securing the RFID inlay to, the second substrate using the second adhesive ; dissociating the RFID inlay from the first substrate ; and securing the liner to the RFID inlay after the RFID inlay is dissociated from the first substrate , to position the RFID inlay between the second substrate and the liner .
A method for improved multimedia content delivery to end user equipments in a content delivery network comprising several servers, the method - A first server receiving a first message from an end user equipment, the message including a Universal Resource Locator, URL, including a first domain name; - After receiving said first message, the first server determining if said first domain name includes an identifier of a server of the content delivery network, called anchor identifier and if not the first server sending back to the end user equipment a redirection message comprising a URL and including a second domain name in the URL, said second domain name being the result of adding to the first domain name an anchor identifier identifying the first server; the method being characterized by : wherein, when a Domain Name system, DNS, device of the content delivery network receives a domain name resolution request for a domain name including said anchor identifier, the DNS device sends back a message answering to the domain name resolution request, including the Internet Protocol, IP, address of the first server regardless the congestion level of said server, as long as the first server is available. - A first server receiving a first message from an end user equipment, the message including a Universal Resource Locator, URL, including a first domain name; - After receiving said first message, the first server determining if said first domain name includes an identifier of a server of the content delivery network, called anchor identifier and if not the first server sending back to the end user equipment a redirection message comprising a URL and including a second domain name in the URL, said second domain name being the result of adding to the first domain name an anchor identifier identifying the first server;
A vibration apparatus , comprising a motor , a deceleration gear set and a rotating body, wherein the motor is fixed to a supporting shaft of the rotating body, the rotating body is configured to be rotatable around the supporting shaft , wherein an output shaft of the motor drives a driving gear of the deceleration gear set , so as to drive the rotating body to rotate around the supporting shaft after being decelerated through the deceleration gear set , wherein the rotating body is an eccentric ball provided with two flattened ends and an eccentric block , and faces of the flattened ends are parallel to the rotating direction of the rotating body, and the motor and the deceleration gear set are both arranged in a cavity defined in the rotating body.
A hydrostatic drive system comprising: a first hydraulic drive unit wherein the first hydraulic drive unit is a variable displacement type of hydraulic drive unit comprising a first displacement control for controlling the displacement of the first hydraulic drive unit ; a second hydraulic drive unit ; a first drive shaft connected to the first hydraulic drive unit ; a second drive shaft connected to the second hydraulic drive unit ; a first fluid line fluidly connecting the first hydraulic drive unit to the second hydraulic drive unit ; characterized in that the hydrostatic drive system further comprises a variable damping device connected to the first fluid line and fluidly connected to the first and second hydraulic drive units , wherein the variable damping device comprises at least one variable element providing for variation in the attenuation frequency of the variable damping device ; and a first linkage apparatus between the first displacement control of the first hydraulic drive unit and the variable element of the variable damping device and operable to control the variable element in accordance with the displacement of the first displacement control . a first hydraulic drive unit wherein the first hydraulic drive unit is a variable displacement type of hydraulic drive unit comprising a first displacement control for controlling the displacement of the first hydraulic drive unit ; a second hydraulic drive unit ; a first drive shaft connected to the first hydraulic drive unit ; a second drive shaft connected to the second hydraulic drive unit ; a first fluid line fluidly connecting the first hydraulic drive unit to the second hydraulic drive unit ; characterized in that the hydrostatic drive system further comprises a variable damping device connected to the first fluid line and fluidly connected to the first and second hydraulic drive units , wherein the variable damping device comprises at least one variable element providing for variation in the attenuation frequency of the variable damping device ; and a first linkage apparatus between the first displacement control of the first hydraulic drive unit and the variable element of the variable damping device and operable to control the variable element in accordance with the displacement of the first displacement control .
A thermal transfer printer comprising: a thermal head including a plurality of heating elements and causing the heating elements to generate heat and transfer ink onto a sheet to print an image on the sheet ; a storage unit for storing a first correspondence between a heating element in the thermal head and a correction amount of energy applied to the heating element , and a second correspondence between a density of an image to be printed and an adjustment coefficient of the correction amount, the first correspondence being generated from a density distribution of a test image printed based on image data of a single tone; and a control unit for correcting energy applied to each of the heating elements by an amount obtained by multiplying the correction amount for the heating element obtained from the first correspondence by the adjustment coefficient obtained from the second correspondence according to a density of an image to be newly printed, and characterized in that the thermal head is configured to print an image at one of a plurality of print speeds, the storage unit is configured to store the first correspondence and the second correspondence for each of the print speeds, and the control unit is configured to correct the energy by referring to the first correspondence and the second correspondence according to a print speed of the thermal head . a thermal head including a plurality of heating elements and causing the heating elements to generate heat and transfer ink onto a sheet to print an image on the sheet ; a storage unit for storing a first correspondence between a heating element in the thermal head and a correction amount of energy applied to the heating element , and a second correspondence between a density of an image to be printed and an adjustment coefficient of the correction amount, the first correspondence being generated from a density distribution of a test image printed based on image data of a single tone; and a control unit for correcting energy applied to each of the heating elements by an amount obtained by multiplying the correction amount for the heating element obtained from the first correspondence by the adjustment coefficient obtained from the second correspondence according to a density of an image to be newly printed, and characterized in that the thermal head is configured to print an image at one of a plurality of print speeds, the storage unit is configured to store the first correspondence and the second correspondence for each of the print speeds, and the control unit is configured to correct the energy by referring to the first correspondence and the second correspondence according to a print speed of the thermal head .
Transmission system between an input shaft and an output shaft consisting of a driving ferromagnetic portion 2, a driven ferromagnetic portion 1 and an intermediate ferromagnetic portion 3, these three portions 1, 2, 3 being movable with respect to one another, - one of said portions 1 having N pairs of magnetic poles interacting with a second of said portions 3 having M ferromagnetic parts, where M≠N, - said second portion 3 interacting with a third of said portions 2 having P pairs of poles, and in that - at least one portion of said parts comprising a permanent magnet, - and at least one portion of said parts being made up of a polar tooth bearing an electrical coil, characterised in that said system additionally includes a means for detecting forces applied between said input shaft and said output shaft that is made up of a means for measuring the electromotive force flowing through at least one of said coils, and a means for controlling the supply of power to said electrical coils in order to control the magnetic power delivered by said permanent magnets and the polar teeth excited by electrical coils, according to a setpoint value and to the signal provided by said force detection means. - one of said portions 1 having N pairs of magnetic poles interacting with a second of said portions 3 having M ferromagnetic parts, where M≠N, - said second portion 3 interacting with a third of said portions 2 having P pairs of poles, and in that - at least one portion of said parts comprising a permanent magnet, - and at least one portion of said parts being made up of a polar tooth bearing an electrical coil,