mhurhangee/patent-ind-claim-en huggingface dataset:
A multicore fiber connection method of connecting multicore fibers , comprising: a matching step (S1) of causing end surfaces of the multicore fibers to match each other such that cores of one multicore fiber and cores of the other multicore fiber face each other with a predetermined gap interposed therebetween; a shaping step (S2) of shaping end surfaces to be connected of the multicore fibers by heating the end surfaces of the multicore fibers in a state in which the end surfaces match each other such that each of the end surfaces is curved in a convex shape and a portion intersecting the central axis of the multicore fibers is most protruding ; and a fusing step (S3) of moving the multicore fibers such that the shaped end surfaces come in contact with each other and fusing the shaped end surfaces to each other, wherein the multicore fibers satisfy 25 ≤ Y ≤ 50 where a distance from a center of a core located on the outer periphery side of the clad to a side surface of the clad is defined as Y μm, and the shaping step (S2) includes heating the end surfaces to satisfy 0 < X / Y ≤ 0.0054 Y + 0.268 where a distance in a longitudinal direction from a part of each multicore fiber located at an end in the longitudinal direction on each shaped end surface to a position at which the end surface and the side surface of the clad meet each other is defined as X μm, wherein a diameter of the clad is 140 μm or more and 230 μm or less. a matching step (S1) of causing end surfaces of the multicore fibers to match each other such that cores of one multicore fiber and cores of the other multicore fiber face each other with a predetermined gap interposed therebetween; a shaping step (S2) of shaping end surfaces to be connected of the multicore fibers by heating the end surfaces of the multicore fibers in a state in which the end surfaces match each other such that each of the end surfaces is curved in a convex shape and a portion intersecting the central axis of the multicore fibers is most protruding ; and a fusing step (S3) of moving the multicore fibers such that the shaped end surfaces come in contact with each other and fusing the shaped end surfaces to each other, wherein the multicore fibers satisfy 25 ≤ Y ≤ 50 where a distance from a center of a core located on the outer periphery side of the clad to a side surface of the clad is defined as Y μm, and the shaping step (S2) includes heating the end surfaces to satisfy 0 < X / Y ≤ 0.0054 Y + 0.268 where a distance in a longitudinal direction from a part of each multicore fiber located at an end in the longitudinal direction on each shaped end surface to a position at which the end surface and the side surface of the clad meet each other is defined as X μm, wherein a diameter of the clad is 140 μm or more and 230 μm or less.
Fan comprising a rotor , a stator and a bearing , wherein the fan comprises a labyrinth sealing disposed between the stator and the rotor , wherein a first surface forming the labyrinth sealing comprises a first groove for guiding air, wherein a second surface forming the labyrinth sealing comprises a second groove for guiding air, characterized in that the first surface and the second surface are arranged opposed to each other such that the surfaces are directed towards each other. comprising a rotor , a stator and a bearing , wherein the fan comprises a labyrinth sealing disposed between the stator and the rotor , wherein a first surface forming the labyrinth sealing comprises a first groove for guiding air, wherein a second surface forming the labyrinth sealing comprises a second groove for guiding air, characterized in that the first surface and the second surface are arranged opposed to each other such that the surfaces are directed towards each other.
A method of fabricating a device, wherein the device comprises a plurality of lengths of material (304; 404; 602a, 602b) and at least one junction joining (302; 402; 706; 806) two or more of the plurality of lengths of material, and wherein the method comprises: in a masking phase, forming a mask (102; 400; 700a, 700b; 800) on an underlying layer of the device, wherein the mask comprises a plurality of trenches (406; 502; 702; 802) exposing the underlying layer, each trench corresponding to one of said plurality of lengths of material, and wherein a respective section of each of at least two of said plurality of trenches either (a) narrows down, or (b) is separated by a discontinuity (408b; 704a, 704b; 804), at a position corresponding to the at least one junction; in a selective area growth phase, growing, by selective-area-growth, material in the plurality of trenches to form the plurality of lengths of material (304; 404; 602a, 602b) on the underlying layer; and joining the two or more of the plurality of lengths of material at the at least one junction (302; 402; 706; 806). in a masking phase, forming a mask (102; 400; 700a, 700b; 800) on an underlying layer of the device, wherein the mask comprises a plurality of trenches (406; 502; 702; 802) exposing the underlying layer, each trench corresponding to one of said plurality of lengths of material, and wherein a respective section of each of at least two of said plurality of trenches either (a) narrows down, or (b) is separated by a discontinuity (408b; 704a, 704b; 804), at a position corresponding to the at least one junction; in a selective area growth phase, growing, by selective-area-growth, material in the plurality of trenches to form the plurality of lengths of material (304; 404; 602a, 602b) on the underlying layer; and joining the two or more of the plurality of lengths of material at the at least one junction (302; 402; 706; 806).
A pharmaceutical composition for use in preventing or treating a neurodegenerative disease or depression, comprising the compound of the Chemical Formula 1 or a pharmaceutically acceptable salt thereof as an active ingredient: wherein R 1 is hydrogen or an acetyl group.
A method for accessing a network hotspot device by an unconfigured device, in which the network hotspot device creates a first hotspot and a second hotspot of one or more network hotspot devices, wherein the first hotspot is a hotspot that does not have Internet accessing capability, and the second hotspot is a hotspot capable of accessing the Internet, the method comprising: reporting, by the unconfigured device, its own device information to the one or more network hotspot devices through the first hotspot of the one or more network hotspot devices; sending, by the one or more network hotspot devices, the device information to a server; sending, by one or more user terminals corresponding to the one or more network hotspot devices, a configuration request for the unconfigured device to the server, wherein a user terminal corresponding to a network hotspot device is a user terminal connected to a hotspot of the network hotspot device; setting, by the server, a user terminal of which the configuration request is first received by the server as a target user terminal and sending a configuration response message to the target user terminal; and initiating, by the target user terminal, an access process of the unconfigured device for the second hotspot of a target network hotspot device after receiving the configuration response message, wherein the target network hotspot device is a network hotspot device having a hotspot to which the target user terminal is connected. reporting, by the unconfigured device, its own device information to the one or more network hotspot devices through the first hotspot of the one or more network hotspot devices; sending, by the one or more network hotspot devices, the device information to a server; sending, by one or more user terminals corresponding to the one or more network hotspot devices, a configuration request for the unconfigured device to the server, wherein a user terminal corresponding to a network hotspot device is a user terminal connected to a hotspot of the network hotspot device; setting, by the server, a user terminal of which the configuration request is first received by the server as a target user terminal and sending a configuration response message to the target user terminal; and initiating, by the target user terminal, an access process of the unconfigured device for the second hotspot of a target network hotspot device after receiving the configuration response message, wherein the target network hotspot device is a network hotspot device having a hotspot to which the target user terminal is connected.
A safety catheter assembly comprising: a catheter hub comprising a housing comprising an exterior surface and an interior surface defining an interior cavity ; a catheter tube attached to the catheter hub and extending distally of the catheter hub; a needle hub comprising a housing comprising an exterior surface and an interior surface defining an interior cavity; a needle having a needle tip attached to the needle hub and projecting distally of the needle hub and into the catheter tube ; a valve comprising a top surface, a skirt depending therefrom, and an opening on the top surface having the needle projecting therethrough; a valve opener for opening the valve and positioned in the interior cavity of the catheter hub proximal of the valve ; wherein the valve opener comprises two proximally extending legs having a gap there between, the valve opener being sized and shaped to be pushed distally towards the valve to transfer a force imparted by an IV-set Luer connector to the valve ; characterized in that a third housing for accommodating a tip protector is incorporated. a catheter hub comprising a housing comprising an exterior surface and an interior surface defining an interior cavity ; a catheter tube attached to the catheter hub and extending distally of the catheter hub; a needle hub comprising a housing comprising an exterior surface and an interior surface defining an interior cavity; a needle having a needle tip attached to the needle hub and projecting distally of the needle hub and into the catheter tube ; a valve comprising a top surface, a skirt depending therefrom, and an opening on the top surface having the needle projecting therethrough; a valve opener for opening the valve and positioned in the interior cavity of the catheter hub proximal of the valve ; wherein the valve opener comprises two proximally extending legs having a gap there between, the valve opener being sized and shaped to be pushed distally towards the valve to transfer a force imparted by an IV-set Luer connector to the valve ; characterized in that a third housing for accommodating a tip protector is incorporated.
An automatic backup pin arrangement system for a component mounting machine configured to automatically arrange backup pins at positions designated in a production job, the backup pins being capable of holding a circuit board , on which a component is mounted, from below, wherein a position of each of the backup pins is designated at a position relative to the circuit board , an XY-robot performing a component mounting operation and an automatic backup pin arrangement operation is mounted on each of multiple component mounting machines , and a control device is configured to control an operation of each of the multiple component mounting machines , characterized in that an arrangement of the backup pins designated in the production job is used in common by the multiple component mounting machines arranged along a conveyance path of the circuit board , and the control device is further configured to determine whether a designated position of a backup pin is a position where the backup pin cannot be automatically arranged in the arrangement of the backup pins designated in the production job, and when the designated position of the backup pin is a position where the backup pin cannot be automatically arranged, the control device is configured to exclude the backup pin at the position from the arrangement of the backup pins designated in the production job and the excluded backup pin is not to be automatically arranged, and to automatically arrange only other backup pins at the positions designated in the production job. a position of each of the backup pins is designated at a position relative to the circuit board , an XY-robot performing a component mounting operation and an automatic backup pin arrangement operation is mounted on each of multiple component mounting machines , and a control device is configured to control an operation of each of the multiple component mounting machines , characterized in that an arrangement of the backup pins designated in the production job is used in common by the multiple component mounting machines arranged along a conveyance path of the circuit board , and the control device is further configured to determine whether a designated position of a backup pin is a position where the backup pin cannot be automatically arranged in the arrangement of the backup pins designated in the production job, and when the designated position of the backup pin is a position where the backup pin cannot be automatically arranged, the control device is configured to exclude the backup pin at the position from the arrangement of the backup pins designated in the production job and the excluded backup pin is not to be automatically arranged, and to automatically arrange only other backup pins at the positions designated in the production job.
A fluid measurement system , comprising: a Coriolis flowmeter comprising: a meter electronics comprising a processing system and a storage system ; a sensor assembly comprising conduits , wherein the sensor assembly is in communication with meter electronics ; a plurality of pickoffs affixed to the conduits , wherein the plurality of pickoffs is in communication with the meter electronics ; and a driver affixed to the conduits , wherein the driver is in communication with the meter electronics ; wherein the meter electronics is configured to measure a fluid flow of a process fluid under acceleration through the sensor assembly , and characterized in that the fluid measurement system comprises: a gyroscopic sensor in communication with the meter electronics ; and at least one actuator coupled to the Coriolis flowmeter . a meter electronics comprising a processing system and a storage system ; a sensor assembly comprising conduits , wherein the sensor assembly is in communication with meter electronics ; a plurality of pickoffs affixed to the conduits , wherein the plurality of pickoffs is in communication with the meter electronics ; and a driver affixed to the conduits , wherein the driver is in communication with the meter electronics ; wherein the meter electronics is configured to measure a fluid flow of a process fluid under acceleration through the sensor assembly , and characterized in that the fluid measurement system comprises: a gyroscopic sensor in communication with the meter electronics ; and at least one actuator coupled to the Coriolis flowmeter . a gyroscopic sensor in communication with the meter electronics ; and at least one actuator coupled to the Coriolis flowmeter .
Mobile harbor crane with an undercarriage and a running gear attached thereto with a support device , an upper carriage with a tower extending in the vertical direction, a slewing gear (d) connecting the upper carriage to the undercarriage , a jib , a luffing gear (w) connecting the jib to the upper carriage , and a hoisting gear (h), wherein the mobile harbor crane has an on-board energy supply system for supplying drives of the running gear , the support device , the slewing gear (d), the luffing gear (w) and the hoisting gear (h) with electrical energy, wherein in normal operation of the mobile harbor crane the drives are supplied with the required electrical energy from a primary energy source (13; 14), the electrical energy being transmitted via an on-board crane power grid provided in the on-board power supply system , characterized in that the on-board power supply system has a long-term energy store for an auxiliary operation and/or an emergency operation I and/or an emergency operation II of the mobile harbor crane in order to supply at least some of the drives (6; 8; d; w; h) via the on-board crane power grid through the long-term energy store instead of through the primary energy source (13; 14), wherein the on-board energy supply system comprises a control system which, in auxiliary operation, permits the drives of the running gear , the support device , the slewing gear (d), the luffing gear (w) and the hoisting gear (h) to be supplied solely with electrical energy by the long-term energy store and/or, in emergency operation I, mandatorily assigns to the long-term energy store the sole supply of electrical energy to the drives of the running gear , the support device , the slewing gear (d), the luffing gear (w) and the hoisting gear (h) and/or, in emergency operation II, mandatorily assigns to the long-term energy store the supply of electrical energy to the drive of the running gear and/or the drive of the lifting gear (h) and preferably limits it to this, wherein the control system in emergency operation II also permits discharging of the long-term energy store below the predetermined lower charging threshold.
Method for displaying the external environment of an aeroplane , which consists in replacing a window of the aeroplane with at least one aperture produced in at least one door of the aeroplane, in mechanically coupling a lens of a camera (1; 1a, 1b; 1A, 1B) for transmitting a video signal in this aperture , such that the lens directly picks up the light originating from said environment of the aeroplane , in previously illuminating this environment zonally with a directional radiation in at least one range of radiation chosen as a function of the lighting parameters, said lighting parameters comprising conditions of visibility of the environment, weather conditions of this environment, safety zones around the aeroplane and the specific state of orientation of the aeroplane, and in transmitting the video signal supplied by the camera or cameras (1; 1a, 1b; 1A, 1B) to at least one display screen to provide multiple information from this signal, the multiple information relating to the state of operation of the equipment of the aeroplane and to the display of safety zones (91; ΔA, ΔB) around the aeroplane for which the lighting is adjusted as a function of said lighting parameters.
A diffusion and/or filtration device comprising a housing and end caps ; the housing comprising a tubular midsection ; and header sections at both ends of the tubular midsection having an inner diameter larger than the inner diameter of the tubular midsection ; wherein the wall strength of the header sections is greater than the wall strength of the tubular midsection ; and a plurality of elongated noses arranged on the inside surface of each of the header sections , the noses running parallel to the longitudinal axis of the housing and parallel to each other; the end caps having an inner surface which is axially symmetrical with regard to the longitudinal axis of the end cap and has an inner surface having the form of a funnel and comprising, in the direction of increasing diameter, a first section (I) taking the form of a cylinder or a truncated cone, a middle section (II) taking the form of a torus segment, and a third section (III) taking the form of a truncated cone, wherein the end cap comprises a circumferential planar sealing face sloping at an angle in the range of from 5° to 10° in radial direction, and wherein an upper rim of the header section of the housing slopes at the same angle as the circumferential planar sealing face of the end cap , the upper rim of the header section of the housing and the circumferential planar sealing face of the end cap contacting each other and forming a first tight seal; and an outer rim of the end cap being fused to the housing and providing a second tight seal.
A method comprising: dicing a wafer attached to a release layer disposed on a transparent carrier to form discrete components , the release layer comprising an adhesive layer and a dynamic releasing layer , the transparent carrier being transparent to a first and a second stimulus ; directing the first stimulus through the transparent carrier to expose the release layer to the first stimulus , an adhesion between the adhesive layer and the discrete components being reduced responsive to the first stimulus from a first adhesion level strong enough to allow for secure attachment of the wafer to the transparent carrier during dicing to a second adhesion level large enough to hold the discrete component in place but small enough to allow a subsequent transfer to a device substrate using the second stimulus; and directing the second stimulus in the form of laser light through the transparent carrier to expose the release layer to the second stimulus , the dynamic releasing layer responding by absorbing the energy incident thereon from the second stimulus , heating up and partially evaporating, and resulting in the formation of a blister , the blister mechanically pushing the discrete components to transfer them to a device substrate . dicing a wafer attached to a release layer disposed on a transparent carrier to form discrete components , the release layer comprising an adhesive layer and a dynamic releasing layer , the transparent carrier being transparent to a first and a second stimulus ; directing the first stimulus through the transparent carrier to expose the release layer to the first stimulus , an adhesion between the adhesive layer and the discrete components being reduced responsive to the first stimulus from a first adhesion level strong enough to allow for secure attachment of the wafer to the transparent carrier during dicing to a second adhesion level large enough to hold the discrete component in place but small enough to allow a subsequent transfer to a device substrate using the second stimulus; and directing the second stimulus in the form of laser light through the transparent carrier to expose the release layer to the second stimulus , the dynamic releasing layer responding by absorbing the energy incident thereon from the second stimulus , heating up and partially evaporating, and resulting in the formation of a blister , the blister mechanically pushing the discrete components to transfer them to a device substrate .
Inductive power transfer flux coupling apparatus, comprising: a first coil of at least one turn arranged in a first layer, the first coil configured to generate or receive a magnetic coupling flux in a flux coupling region , wherein the flux coupling region is on one side of the first coil; and a second coil of at least one turn provided on a side of the first coil opposite to the flux coupling region and at least part of the second coil being arranged in a second layer, the second coil configured to generate a magnetic flux opposing the flux produced from or received by the first coil , characterised in that : either option A: the second coil is shorted , or option B: the second coil is connected to the first coil but wound in the opposite direction to the first coil . a first coil of at least one turn arranged in a first layer, the first coil configured to generate or receive a magnetic coupling flux in a flux coupling region , wherein the flux coupling region is on one side of the first coil; and a second coil of at least one turn provided on a side of the first coil opposite to the flux coupling region and at least part of the second coil being arranged in a second layer, the second coil configured to generate a magnetic flux opposing the flux produced from or received by the first coil , characterised in that : either option A: the second coil is shorted , or option B: the second coil is connected to the first coil but wound in the opposite direction to the first coil . option A: the second coil is shorted , or option B: the second coil is connected to the first coil but wound in the opposite direction to the first coil .