mhurhangee/patent-ind-claim-en huggingface dataset:
A machine tool comprising: a plurality of modules (M1, M2, M3, M4) each including a workpiece holder that holds a workpiece and an operation part holder that holds an operation part for performing a predetermined operation to the workpiece held by the workpiece holder , the workpiece holder and the operation part holder being integrally provided; and a bed on which each of the modules (M1, M2, M3, M4) is installed, wherein the modules include two modules (M2, M4) arranged in parallel and opposite fixed modules (M1, M3) disposed to face the two modules, the machine tool being able to process a workpiece while being transferred among predetermined modules, the modules (M2, M4) arranged in parallel are provided as movable modules to be movable in an arrangement direction, a recess is provided next to the opposite module (M1, M3), the recess being formed by cutting out the bed with the bed having an approximate L-shape in a planar view, with one fixed module (M3) being arranged along the outer circumference edge of the bed on the recess side to abut on the recess and the other fixed module (M1) being arranged along the outer circumference edge of the bed on the opposite side of the recess across the fixed module (M3), the movable modules (M2, M4) are movable to be aligned with the opposite modules, respectively, and at least one of the movable modules (M2, M4) is provided to be movable in an opposite position of the recess . a plurality of modules (M1, M2, M3, M4) each including a workpiece holder that holds a workpiece and an operation part holder that holds an operation part for performing a predetermined operation to the workpiece held by the workpiece holder , the workpiece holder and the operation part holder being integrally provided; and a bed on which each of the modules (M1, M2, M3, M4) is installed, wherein the modules include two modules (M2, M4) arranged in parallel and opposite fixed modules (M1, M3) disposed to face the two modules, the machine tool being able to process a workpiece while being transferred among predetermined modules, the modules (M2, M4) arranged in parallel are provided as movable modules to be movable in an arrangement direction, a recess is provided next to the opposite module (M1, M3), the recess being formed by cutting out the bed with the bed having an approximate L-shape in a planar view, with one fixed module (M3) being arranged along the outer circumference edge of the bed on the recess side to abut on the recess and the other fixed module (M1) being arranged along the outer circumference edge of the bed on the opposite side of the recess across the fixed module (M3), the movable modules (M2, M4) are movable to be aligned with the opposite modules, respectively, and at least one of the movable modules (M2, M4) is provided to be movable in an opposite position of the recess .
A fuel cap apparatus, comprising: - a fuel cap (126; 436) having a body , the body having a surface ; and - a membrane ; wherein - the surface has • a central aperture defining a central longitudinal axis of the body , the body being integrally formed as a unitary piece having a first side and a second side ; and • one or more openings in addition to the central aperture extending through the surface between the first side and the second side; - the membrane being positioned in the one or more openings (218; 450) of the body to form a passageway therethrough, the membrane being coated with a material to substantially prevent flow of liquid and permit flow of gas through the passageway . - a fuel cap (126; 436) having a body , the body having a surface ; and - a membrane ; wherein - the surface has • a central aperture defining a central longitudinal axis of the body , the body being integrally formed as a unitary piece having a first side and a second side ; and • one or more openings in addition to the central aperture extending through the surface between the first side and the second side; • a central aperture defining a central longitudinal axis of the body , the body being integrally formed as a unitary piece having a first side and a second side ; and • one or more openings in addition to the central aperture extending through the surface between the first side and the second side; - the membrane being positioned in the one or more openings (218; 450) of the body to form a passageway therethrough, the membrane being coated with a material to substantially prevent flow of liquid and permit flow of gas through the passageway .
System for digitizing the sound detected by a stethoscope equipped with replaceable and interchangeable eartips and a tube, and for sending the digitised sound to an electronic instrument, comprising: - a transducer-loudspeaker assembly suitable for placement at one end of the stethoscope and composed of a loudspeaker and a transducer, said transducer being configured to digitize the sound detected by of the stethoscope ; and - a body configured to receive the digitized sound from the transducer and to amplify, filter and send it to the loudspeaker, said loudspeaker being configured to reproduce the sound processed by the body ; characterized in that the transducer-loudspeaker assembly is suitable for direct connection to the tube of the stethoscope so as to turn into a substitute electronic eartip . - a transducer-loudspeaker assembly suitable for placement at one end of the stethoscope and composed of a loudspeaker and a transducer, said transducer being configured to digitize the sound detected by of the stethoscope ; and - a body configured to receive the digitized sound from the transducer and to amplify, filter and send it to the loudspeaker, said loudspeaker being configured to reproduce the sound processed by the body ;
Header for a heat exchanger , the header comprising at least one header plate and a cover which together delimit an internal space , and at least one partition which divides the internal space into two sections , the header comprising an internal face bounding the internal space and an external face oriented towards the outside of the header , the internal face comprising at least one recess for receiving the partition , characterized in that the internal face comprises at least one cavity and a projection , the projection being interposed between the cavity and the recess for receiving the partition , and in that the projection forms a means for holding the partition in position along a partition plane (P2) which is orthogonal to a longitudinal direction of extent (A1) of the header .
A computer-implemented method for abstracting a wireless interface protocol to an Ethernet protocol in a controller , the method comprising: detecting, with a wireless network interface of the controller, access by a wireless device (110-112) using the wireless interface protocol, the wireless device (110-112) identified by a wireless device identifier, ID; creating a virtual Ethernet interface (122-124) having an associated Ethernet interface ID; associating the wireless device ID with the Ethernet interface ID in a table in memory of the controller; receiving a payload from the wireless device (110-112) over the wireless interface protocol; transmitting the payload to the virtual Ethernet interface (122-124) using the Ethernet protocol, and transmitting the payload from the virtual Ethernet interface (122-124) to an application plugin (142-144) of an application layer by storing the payload in shared memory (132-134), shared between the virtual Ethernet interface (122-124) and the application plugin; receiving, by the application plugin (142-144), the payload from a raw socket of the virtual Ethernet interface (142-144). detecting, with a wireless network interface of the controller, access by a wireless device (110-112) using the wireless interface protocol, the wireless device (110-112) identified by a wireless device identifier, ID; creating a virtual Ethernet interface (122-124) having an associated Ethernet interface ID; associating the wireless device ID with the Ethernet interface ID in a table in memory of the controller; receiving a payload from the wireless device (110-112) over the wireless interface protocol; transmitting the payload to the virtual Ethernet interface (122-124) using the Ethernet protocol, and transmitting the payload from the virtual Ethernet interface (122-124) to an application plugin (142-144) of an application layer by storing the payload in shared memory (132-134), shared between the virtual Ethernet interface (122-124) and the application plugin; receiving, by the application plugin (142-144), the payload from a raw socket of the virtual Ethernet interface (142-144).
A personal lanyard monitoring system comprising: a lanyard device comprising: - a flexible neck cord ; - at least one strain sensor arranged for sensing strain in the flexible neck cord; and a communication unit for wirelessly transmitting data derived from the sensed strain; and a communicator remote from the lanyard device, wherein the communicator comprises a receiving unit for wirelessly receiving data from the communication unit of the lanyard device; wherein at least one of the lanyard device and the communicator comprises: - a position recognition unit configured for - comparing strain data obtained from the at least one strain sensor to pre-determined strain data; and - recognizing a position of the flexible neck cord in dependence on a result of the comparison. a lanyard device comprising: - a flexible neck cord ; - at least one strain sensor arranged for sensing strain in the flexible neck cord; and - a flexible neck cord ; - at least one strain sensor arranged for sensing strain in the flexible neck cord; and a communication unit for wirelessly transmitting data derived from the sensed strain; and a communicator remote from the lanyard device, wherein the communicator comprises a receiving unit for wirelessly receiving data from the communication unit of the lanyard device; wherein at least one of the lanyard device and the communicator comprises: - a position recognition unit configured for - comparing strain data obtained from the at least one strain sensor to pre-determined strain data; and - recognizing a position of the flexible neck cord in dependence on a result of the comparison. - a position recognition unit configured for - comparing strain data obtained from the at least one strain sensor to pre-determined strain data; and - recognizing a position of the flexible neck cord in dependence on a result of the comparison. - comparing strain data obtained from the at least one strain sensor to pre-determined strain data; and - recognizing a position of the flexible neck cord in dependence on a result of the comparison.
A bed having a frame comprising at least two frame parts, which are held on one another via a connection fitting , said connection fitting comprising at least one tube , into which a connection strip is inserted, which is arranged with clearance in some regions at least in the vertical direction in the at least one tube , wherein the connection strip is fixed via at least one clamping element inside the tube and the inclination of the longitudinal axis of the tube and the longitudinal axis of the connection strip is adjustable via at least one adjustment element .
Forging method, in particular lightweight construction alloy forging method, wherein in at least one method step a cooling of a forging component is effected in a forging tool , in particular in a forming, punching and/or calibration tool, wherein in at least one method step at least a maximum press force and/or a press piston position of a forging press are/is changed depending on a cooling of the forging component in the forging tool , characterised in that during a cooling of the forging component in the forging tool, depending on a shrinkage parameter of the forging component on account of a cooling of the forging component, at least one forging tool part, in particular at least one die half of the forging tool realized as a die, is moved closer to the forging component and/or a press force which acts onto the forging component arranged in the forging tool is increased.
A touch panel, comprising a base substrate (20; 120) and a touch electrode layer and a transparent thin film photovoltaic cell (50; 150; 250; 350; 450; 550; 650; 750; 850) that are disposed on the base substrate (20; 120), wherein the transparent thin film photovoltaic cell (50; 150; 250; 350; 450; 550; 650; 750; 850) includes an n-doped graphene layer (51; 151; 251; 351; 451; 551; 651; 751; 851) and a p-doped graphene layer (52; 152; 252; 352; 452; 552; 652; 752; 852); the touch electrode layer and the transparent thin film photovoltaic cell (50; 150; 250; 350; 450; 550; 650; 750; 850) are mutually superimposed and disposed on a same side of the base substrate (20; 120), and a transparent insulating layer (40; 140; 240; 340; 540; 640) is disposed between the touch electrode layer and the transparent thin film photovoltaic cell (50; 150; 250; 350; 450; 550; 650; 750; 850), or the touch electrode layer and the transparent thin film photovoltaic cell (50; 150; 250; 350; 450; 550; 650; 750; 850) are respectively disposed on either side of the base substrate (20; 120); characterized in that the touch panel further comprises a control circuit , a first electrode and a second electrode , wherein the n-doped graphene layer (51; 151; 251; 351; 451; 551; 651; 751; 851) and the p-doped graphene layer (52; 152; 252; 352; 452; 552; 652; 752; 852) are respectively connected to the control circuit through the first electrode and the second electrode .
A transmission relay device configured to relay communication between an outdoor unit and a plurality of indoor units (20A-20D) connected by refrigerant pipes , the transmission relay device comprising: a data storage unit configured to store an address of the outdoor unit , and addresses of the plurality of indoor units (20A-20D), and a relay processor , characterized by further comprising a virtual device setting unit configured to set a virtual indoor unit (VI) by unifying two or more of the plurality of indoor units (20A-20D); wherein the data storage unit is configured to store an address of the virtual indoor unit (VI); and the relay processor is configured to communicate as the virtual indoor unit (VI) with the outdoor unit and relay a signal transmitted from the outdoor unit to the plurality of indoor units (20A-20D), using the addresses stored in the data storage unit , wherein the virtual device setting unit includes a number-of-virtual-units setting unit configured to set the number of the virtual indoor units (20A-20D), and an operating capacity calculation unit configured to calculate virtual operating capacity of each of the virtual indoor units (20A-20D), of which a virtual number is set by the number-of-virtual-units setting unit , using the operating capacities of the indoor units (20A-20D) stored in the data storage unit , and the relay processor transmits the virtual operating capacities of the virtual indoor units (20A-20D) to the outdoor unit . a data storage unit configured to store an address of the outdoor unit , and addresses of the plurality of indoor units (20A-20D), and a relay processor , a virtual device setting unit configured to set a virtual indoor unit (VI) by unifying two or more of the plurality of indoor units (20A-20D); wherein the data storage unit is configured to store an address of the virtual indoor unit (VI); and the relay processor is configured to communicate as the virtual indoor unit (VI) with the outdoor unit and relay a signal transmitted from the outdoor unit to the plurality of indoor units (20A-20D), using the addresses stored in the data storage unit , a number-of-virtual-units setting unit configured to set the number of the virtual indoor units (20A-20D), and an operating capacity calculation unit configured to calculate virtual operating capacity of each of the virtual indoor units (20A-20D), of which a virtual number is set by the number-of-virtual-units setting unit , using the operating capacities of the indoor units (20A-20D) stored in the data storage unit , and
A cap comprising: an engagement portion configured to removably couple to and cover an injection port of an injection site ; and at least one information element on the cap positioned to be automatically sensed by at least one sensor of the injection site when the engagement portion is coupled to or is being coupled to the injection port, characterised in that , the cap includes a disinfectant to disinfect the injection site , and wherein the at least one information element encapsulates data characterizing a disinfection state of the injection port. an engagement portion configured to removably couple to and cover an injection port of an injection site ; and at least one information element on the cap positioned to be automatically sensed by at least one sensor of the injection site when the engagement portion is coupled to or is being coupled to the injection port, characterised in that , the cap includes a disinfectant to disinfect the injection site , and wherein the at least one information element encapsulates data characterizing a disinfection state of the injection port.
A method for tessellating patches of surfaces in a tile based three-dimensional computer graphics rendering system comprising the steps of; performing a geometry processing phase comprising: performing domain tessellation to generate domain points for a patch; performing domain shading using the generated domain points to produce position data for the tessellated primitives making up the patch; and deriving a per tile list of primitive indices for the tessellated primitives making up a patch using the position data; and performing a rasterization phase comprising, for each tile: re-performing domain tessellation to generate domain points and performing domain shading to produce position data for the tessellated primitives making up the patch indicated by the list of primitive indices for the tile; performing hidden surface removal on the tessellated primitives in the patch; re-performing domain tessellation to generate domain points for tessellated primitives which remain after hidden surface removal and performing domain shading to produce position data and vertex attribute data for the tessellated primitives which remain after hidden surface removal; and shading the tessellated primitives which remain after hidden surface removal for display. performing domain tessellation to generate domain points for a patch; performing domain shading using the generated domain points to produce position data for the tessellated primitives making up the patch; and deriving a per tile list of primitive indices for the tessellated primitives making up a patch using the position data; and re-performing domain tessellation to generate domain points and performing domain shading to produce position data for the tessellated primitives making up the patch indicated by the list of primitive indices for the tile; performing hidden surface removal on the tessellated primitives in the patch; re-performing domain tessellation to generate domain points for tessellated primitives which remain after hidden surface removal and performing domain shading to produce position data and vertex attribute data for the tessellated primitives which remain after hidden surface removal; and shading the tessellated primitives which remain after hidden surface removal for display.
A method comprising: supplying deuterium to a fusion reactor ; supplying 3 He to the fusion reactor conducting deuterium-deuterium (D-D) fusion reactions to produce reaction products comprising 3 He and tritium byproducts; conducting deuterium- 3 He (D- 3 He) reactions; pulsing the fusion reactor by sequentially energizing formation coils of the fusion reactor for simultaneously forming, accelerating and compressing filed reversed configuration plasmoids and for allowing access to reaction products which allows removal of tritium byproducts formed during the D-D fusion reactions; removing, responsive to the pulsing of the fusion reactor, at least some of the tritium byproducts from the fusion reactor produced in the D-D fusion reaction prior to a D-T fusion reaction; wherein the supplied 3 He is from the reaction products of the D-D fusion reactions and/or the decay of the removed tritium byproducts, and the method being characterised in that a quantity of deuterium and rate fusion reactions are selected such that the amount of the supplied 3 He to be produced through the reaction products of the D-D fusion reactions and/or the decay of tritium byproducts from said fusion reaction allows for a self-sustaining D- 3 He fuel cycle. supplying deuterium to a fusion reactor ; supplying 3 He to the fusion reactor conducting deuterium-deuterium (D-D) fusion reactions to produce reaction products comprising 3 He and tritium byproducts; conducting deuterium- 3 He (D- 3 He) reactions; pulsing the fusion reactor by sequentially energizing formation coils of the fusion reactor for simultaneously forming, accelerating and compressing filed reversed configuration plasmoids and for allowing access to reaction products which allows removal of tritium byproducts formed during the D-D fusion reactions; removing, responsive to the pulsing of the fusion reactor, at least some of the tritium byproducts from the fusion reactor produced in the D-D fusion reaction prior to a D-T fusion reaction; wherein the supplied 3 He is from the reaction products of the D-D fusion reactions and/or the decay of the removed tritium byproducts, and the method being characterised in that a quantity of deuterium and rate fusion reactions are selected such that the amount of the supplied 3 He to be produced through the reaction products of the D-D fusion reactions and/or the decay of tritium byproducts from said fusion reaction allows for a self-sustaining D- 3 He fuel cycle.
Arrangement for securing a functional position of a shroud plate of a rotor of a gas turbine, which shroud plate is arranged on an outer circumference of a rotor disc of the rotor, relative to a moving blade of the rotor arranged on the outer circumference of the rotor disc, wherein a channel portion of an annular cooling channel of the rotor is formed between the shroud plate located in its functional position and a side , facing the shroud plate , of a blade root of the moving blade , comprising - a guide portion , which may be formed by a thickened portion formed on the shroud plate , and a guide opening , which may be formed by a through-hole arranged on the shroud plate , wherein the guide portion at least partially surrounds the guide opening , - a securing bolt , the external diameter (d S ) of which corresponds to the diameter (d F ) of the guide opening , a securing device for securing a functional position of the securing bolt on the shroud plate and the moving blade , characterized by a web which is arranged in one piece on the moving blade on the side of the blade root facing the shroud plate , which extends radially relative to the rotor disc when the moving blade is arranged on the rotor disc, wherein the securing bolt comprising a longitudinal through-hole comprises at one end two cut-aways arranged diametrically relative to one another, open towards said end and of equal width, which cut-aways extend from said end of the securing bolt parallel to the longitudinal axis (L) of the securing bolt over part of the length of the securing bolt , wherein the width (b A ) of the cut-aways is greater than or equal to the width (b S ) of the web . - a guide portion , which may be formed by a thickened portion formed on the shroud plate , and a guide opening , which may be formed by a through-hole arranged on the shroud plate , wherein the guide portion at least partially surrounds the guide opening , - a securing bolt , the external diameter (d S ) of which corresponds to the diameter (d F ) of the guide opening , a securing device for securing a functional position of the securing bolt on the shroud plate and the moving blade ,