mhurhangee/ep-ind-claims huggingface dataset:
A light emitting diode, having an N-type semiconductor layer, a P-type semiconductor layer and an active layer interposed between the N-type and P-type semiconductor layers, wherein the P-type semiconductor layer has a laminated structure comprising: a P-type clad layer positioned on the active layer; a hole injection layer positioned on the P-type clad layer; a P-type contact layer positioned on the hole injection layer, a lower undoped layer interposed between the P-type clad layer and the hole injection layer; and an upper undoped layer interposed between the hole injection layer and the P-type contact layer, characterized in that a band gap of the P-type clad layer is wider than that of the hole injection layer, a band gap of the hole injection layer is equal to that of the P-type contact layer, and the band gap of the hole injection layer is also equal to those of the lower and upper undoped layers (30, 32). a P-type clad layer positioned on the active layer; a hole injection layer positioned on the P-type clad layer; a P-type contact layer positioned on the hole injection layer, a lower undoped layer interposed between the P-type clad layer and the hole injection layer; and an upper undoped layer interposed between the hole injection layer and the P-type contact layer, characterized in that a band gap of the P-type clad layer is wider than that of the hole injection layer, a band gap of the hole injection layer is equal to that of the P-type contact layer, and the band gap of the hole injection layer is also equal to those of the lower and upper undoped layers (30, 32).
A humidifier comprising: a main body having a discharge part; a base on which the main body is seated on, the base having a suction part (124, 128) through which air is suctioned; a tray seated on the base to store water; and a disk assembly seated on the tray to humidify the air suctioned through the suction part (124, 128), wherein the main body covers the tray, and characterised in that the suction part (124, 128) is disposed lower than a shaft for rotating the disk assembly. a main body having a discharge part; a base on which the main body is seated on, the base having a suction part (124, 128) through which air is suctioned; a tray seated on the base to store water; and a disk assembly seated on the tray to humidify the air suctioned through the suction part (124, 128), wherein the main body covers the tray, and characterised in that the suction part (124, 128) is disposed lower than a shaft for rotating the disk assembly.
A tissue ablation device for treating atrial arrhythmia through ablation at an ostium of a pulmonary vein, the device comprising: a catheter body, wherein said catheter body has a proximal portion and a distal portion, wherein said proximal and distal portions define a longitudinal axis; and at least one deployable umbrella body attached to the distal portion of the catheter body, wherein the umbrella body comprises: a plurality of radial splines, each of said splines having a distal end and a hinged end, wherein said hinged end is attached to said catheter body; at least one circumferential loop or loop segment attached to the plurality of splines at the distal ends of the splines; at least one ablation element associated with the at least one circumferential loop or loop segment; characterised in that the hinged ends of the splines are positioned within the pulmonary vein when the at least one circumferential loop or loop segment engages target tissue at the ostium of the pulmonary vein. a catheter body, wherein said catheter body has a proximal portion and a distal portion, wherein said proximal and distal portions define a longitudinal axis; and at least one deployable umbrella body attached to the distal portion of the catheter body, wherein the umbrella body comprises: a plurality of radial splines, each of said splines having a distal end and a hinged end, wherein said hinged end is attached to said catheter body; at least one circumferential loop or loop segment attached to the plurality of splines at the distal ends of the splines; at least one ablation element associated with the at least one circumferential loop or loop segment; characterised in that the hinged ends of the splines are positioned within the pulmonary vein when the at least one circumferential loop or loop segment engages target tissue at the ostium of the pulmonary vein. a plurality of radial splines, each of said splines having a distal end and a hinged end, wherein said hinged end is attached to said catheter body; at least one circumferential loop or loop segment attached to the plurality of splines at the distal ends of the splines; at least one ablation element associated with the at least one circumferential loop or loop segment; characterised in that the hinged ends of the splines are positioned within the pulmonary vein when the at least one circumferential loop or loop segment engages target tissue at the ostium of the pulmonary vein.
A milling cutting insert having a substantially triangular shape, the cutting insert comprising: a top side an underside circumferential side surfaces extending between the top side and the underside, cutting edges being formed at the transition of the circumferential side surfaces to the top side and / or the underside, wherein on circumferential side surfaces two discrete planar abutment surfaces (61, 62) are formed for positioning the cutting insert in a tool holder, wherein the two discrete planar abutment surfaces (61, 62) are inclined with respect to each other at an outer angle of between 190° and 220° and wherein the abutment surfaces (61, 62) are spaced from each other with respect to the circumferential direction of the cutting insert, characterised in that the discrete planar abutment surfaces (61, 62) protrude from the side surfaces and are substantially perpendicular to the top side and wherein the cutting edges between cutting corners are convexly curved. a top side an underside circumferential side surfaces extending between the top side and the underside, cutting edges being formed at the transition of the circumferential side surfaces to the top side and / or the underside, wherein on circumferential side surfaces two discrete planar abutment surfaces (61, 62) are formed for positioning the cutting insert in a tool holder, wherein the two discrete planar abutment surfaces (61, 62) are inclined with respect to each other at an outer angle of between 190° and 220° and wherein the abutment surfaces (61, 62) are spaced from each other with respect to the circumferential direction of the cutting insert, characterised in that the discrete planar abutment surfaces (61, 62) protrude from the side surfaces and are substantially perpendicular to the top side and wherein the cutting edges between cutting corners are convexly curved.
Aircraft equipped with a wing extending longitudinally from an aerodynamic edge known as "trailing edge " to an aerodynamic edge known as "leading edge ", said aircraft being provided with a hoisting device, said hoisting device being provided with a lifting device which comprises a storage drum, said hoisting device being provided with a suspension member which extends from a first end to a second free end projecting from said lifting device, said lifting device comprising a drive member for winding said suspension member around the storage drum and unwinding said suspension member from the storage drum, said lifting device being surrounded at least in part by a cowling of said wing, said lifting device being arranged in an interior space of the wing in a position known as "aerodynamic position ", characterised in that said hoisting device comprises a moving arm supported by a hinge, said hinge providing the moving arm with at least one rotational degree of freedom about an axis of rotation (AXROT) with respect to the wing, said lifting device being supported by said moving arm, said moving arm and said cowling being jointly movable between the aerodynamic position and a position known as "offset position ".
A screw-driven handle for a fiducial deployment system comprising: a fiducial deployment needle (1714, 1814) extending distally from the screw-driven handle and retaining for distal deployment, in a controlled serial manner, a plurality of fiducials, where the fiducial deployment needle includes a single lumen, and where the screw-driven handle comprises: an advancement mechanism for said fiducial deployment system, the advancement mechanism comprising: an elongate handle member (1704, 1804) defining a central longitudinal axis and handle lumen; an elongate rotatable housing member (1706, 1806) that encloses a portion of the handle member and defining an inner wall having helical housing threads; a screw member (1720, 1820) disposed in the elongate rotatable housing member and defining an outer wall having helical screw threads; and a stylet (1760, 1860) disposed longitudinally through the deployment needle, extending proximally through the handle lumen and at least a portion of the elongate rotatable housing member, wherein the stylet is affixed to the screw member; characterized by further comprising: a guide bar (1722, 1822), attached to the screw member wherein the guide bar (1722, 1822) and the stylet (1760, 1860) are longitudinally slidable with respect to the elongate handle member (1704, 1804). an advancement mechanism for said fiducial deployment system, the advancement mechanism comprising: an elongate handle member (1704, 1804) defining a central longitudinal axis and handle lumen; an elongate rotatable housing member (1706, 1806) that encloses a portion of the handle member and defining an inner wall having helical housing threads; a screw member (1720, 1820) disposed in the elongate rotatable housing member and defining an outer wall having helical screw threads; and a stylet (1760, 1860) disposed longitudinally through the deployment needle, extending proximally through the handle lumen and at least a portion of the elongate rotatable housing member, an elongate handle member (1704, 1804) defining a central longitudinal axis and handle lumen; an elongate rotatable housing member (1706, 1806) that encloses a portion of the handle member and defining an inner wall having helical housing threads; a screw member (1720, 1820) disposed in the elongate rotatable housing member and defining an outer wall having helical screw threads; and a stylet (1760, 1860) disposed longitudinally through the deployment needle, extending proximally through the handle lumen and at least a portion of the elongate rotatable housing member, wherein the stylet is affixed to the screw member;
Vehicle seat (100; 200; 300), in particular a motor-vehicle seat, having a seat part (102; 202; 302), having a backrest (104; 304), having a kinematics mechanism (110; 210; 310) for transferring the vehicle seat (100; 200; 300) from a use position, in which the vehicle seat is suitable for transporting people, into a not-in-use position, and back again, and having a locking device, in particular a lock (120; 320), for locking the kinematics mechanism (110; 210; 310) in the use position, wherein, when the locking device has been unlocked, the vehicle seat (100; 200; 300) can be transferred out of the use position into the access position, wherein the kinematics mechanism (110; 210; 310), for transferring the vehicle seat (100; 200; 300) out of the use position into the not-in-use position, can be coupled to a drive device (130; 230; 330) by a coupling device (150; 250; 350), characterized in that the coupling device (150; 250; 350) has an unlocking swing arm (172; 272; 372) for at least indirectly unlocking the locking device, wherein, in the use position of the vehicle seat (100; 200; 300), activation of the drive device (130; 230; 330) first of all causes the unlocking swing arm (172; 272; 372) to pivot, so that the locking device is unlocked, and it is only following the pivoting movement of the unlocking swing arm (172; 272; 372) that the kinematics mechanism (110; 210; 310) can be driven by the drive device (130; 230; 330) for the purpose of transferring the vehicle seat (100; 200; 300) into the not-in-use position.
Method for charging an energy store in a motor vehicle by means of inductive energy transmission from an energy transmission unit, which can be anchored in a stationary manner to a ground accessible to vehicles and which is a part of an inductive charging station, to the motor vehicle, wherein a communication channel is built up between the inductive charging station and the motor vehicle to prepare and/or perform the charging of the energy store, wherein the inductive charging station provides a light signal not transmitted via the communication channel for perception by a driver of the motor vehicle to signal the readiness for charging the energy store of the motor vehicle, characterised in that the light signal is at least partially sent out by the energy transmission unit.
Method of generating a gas comprising both oxygen and nitric oxide, said method comprising the steps of: guiding an oxygen comprising gas to a primary side of a dense membrane, wherein the dense membrane is permeable for oxygen but non-permeable for other gases, heating the membrane to a temperature at which it is permeable for oxygen, creating a pressure difference between the primary side of the membrane and a secondary side of the membrane, wherein a stream of oxygen is generated at the secondary side of the membrane and a stream of oxygen depleted gas is generated at the primary side of the membrane,wherein said method further comprises the steps of providing a flow of nitrous oxide comprising gas, heating the nitrous oxide comprising gas to a temperature at which nitric oxide is generated, thereby using heat generated in the process of operating the membrane, wherein the flow of nitrous oxide comprising gas is guided into one of the stream of oxygen and the stream of oxygen depleted gas and wherein the flow of nitrous oxide comprising gas is guided into a primary membrane chamber being located at the primary side of the membrane or into a secondary membrane chamber being located at the secondary side of the membrane for forming a nitric oxide comprising gas. guiding an oxygen comprising gas to a primary side of a dense membrane, wherein the dense membrane is permeable for oxygen but non-permeable for other gases, heating the membrane to a temperature at which it is permeable for oxygen, creating a pressure difference between the primary side of the membrane and a secondary side of the membrane, wherein a stream of oxygen is generated at the secondary side of the membrane and a stream of oxygen depleted gas is generated at the primary side of the membrane,wherein said method further comprises the steps of providing a flow of nitrous oxide comprising gas, heating the nitrous oxide comprising gas to a temperature at which nitric oxide is generated, thereby using heat generated in the process of operating the membrane, wherein the flow of nitrous oxide comprising gas is guided into one of the stream of oxygen and the stream of oxygen depleted gas and wherein the flow of nitrous oxide comprising gas is guided into a primary membrane chamber being located at the primary side of the membrane or into a secondary membrane chamber being located at the secondary side of the membrane for forming a nitric oxide comprising gas.
A light guide device (302, 510, 520, 540, 550) comprising: a light guide (100, 310, 380, 400), the light guide comprising a light-input end (108, 308, 385, 408) and an opposing end (106, 303, 381, 406), parallel opposing left and right sides (102, 104, 304, 307, 382, 385, 402, 404) joined to the light-input end (108, 308, 385, 408) and the opposing end (106, 303, 381, 406), opposing front and back surfaces (110, 111, 377, 379, 410) joined to the light-input end (108, 308, 385, 408) and the opposing end (106, 303,406,381), characterized in that the light guide further comprises a birefringent film (164, 166, 305, 306, 383, 384, 412, 414) on the opposing left and right sides (102, 104,304, 307, 382, 385, 402, 404), wherein the birefringent film (164, 166, 305, 306, 383, 384, 412, 414) switches a polarization of incident light; and input components (260, 360) at the light-input end (108, 308, 385, 408), wherein the input components (260, 360) provide light with a first polarization to the light-input end (108, 308, 385, 408) and light with a second polarization, orthogonal to the first polarization, to the light-input end (108, 308, 385, 408). a light guide (100, 310, 380, 400), the light guide comprising a light-input end (108, 308, 385, 408) and an opposing end (106, 303, 381, 406), parallel opposing left and right sides (102, 104, 304, 307, 382, 385, 402, 404) joined to the light-input end (108, 308, 385, 408) and the opposing end (106, 303, 381, 406), opposing front and back surfaces (110, 111, 377, 379, 410) joined to the light-input end (108, 308, 385, 408) and the opposing end (106, 303,406,381), characterized in that the light guide further comprises a birefringent film (164, 166, 305, 306, 383, 384, 412, 414) on the opposing left and right sides (102, 104,304, 307, 382, 385, 402, 404), wherein the birefringent film (164, 166, 305, 306, 383, 384, 412, 414) switches a polarization of incident light; and input components (260, 360) at the light-input end (108, 308, 385, 408), wherein the input components (260, 360) provide light with a first polarization to the light-input end (108, 308, 385, 408) and light with a second polarization, orthogonal to the first polarization, to the light-input end (108, 308, 385, 408).
A specimen transport apparatus comprising: a specimen holder that holds a specimen container and that is provided with a transport magnetic body and a positioning magnetic body; and a plurality of electromagnets (310~330) that are arranged under a transport surface to transport the specimen holder by attracting or repelling the transport magnetic body, characterized in that a specimen identifier is attached to the specimen container, and the specimen holder has a horizontal cross section that is circular, and the transport magnetic body has a higher magnetic flux density than the positioning magnetic body and a magnetic flux center of the transport magnetic body is eccentric with respect to a central axis of the specimen container held by the specimen holder whereas a magnetic flux center of the positioning magnetic body is located at a position of the central axis of the specimen container held by the specimen holder, wherein the specimen transport apparatus is configured to rotate the specimen holder while attracting the positioning magnetic body with a first electromagnet located directly under the positioning magnetic body, of the plurality of the electromagnets, by sequentially attracting or repelling the transport magnetic body with second electromagnets (311~318) located around the first electromagnet. a specimen holder that holds a specimen container and that is provided with a transport magnetic body and a positioning magnetic body; and a plurality of electromagnets (310~330) that are arranged under a transport surface to transport the specimen holder by attracting or repelling the transport magnetic body, characterized in that a specimen identifier is attached to the specimen container, and the specimen holder has a horizontal cross section that is circular, and the transport magnetic body has a higher magnetic flux density than the positioning magnetic body and a magnetic flux center of the transport magnetic body is eccentric with respect to a central axis of the specimen container held by the specimen holder whereas a magnetic flux center of the positioning magnetic body is located at a position of the central axis of the specimen container held by the specimen holder, wherein the specimen transport apparatus is configured to rotate the specimen holder while attracting the positioning magnetic body with a first electromagnet located directly under the positioning magnetic body, of the plurality of the electromagnets, by sequentially attracting or repelling the transport magnetic body with second electromagnets (311~318) located around the first electromagnet.
A catheter comprising: a catheter shaft which includes an inner layer and a braid provided on an outer periphery of the inner layer and including first wires and second wires, wherein the first wires and second wires are woven together in a mesh-pattern, and a tip provided on a distal end of the catheter shaft, characterized in that a bulging portion (27, 37, 47) is provided at distal ends of the first wires and/or at distal ends of the second wires; and the tip covers the bulging portion (27, 37, 47), wherein the bulging portion (27, 37,47) functions as an anchor on the tip, reducing the risk that the tip will be pulled off from the catheter shaft. a catheter shaft which includes an inner layer and a braid provided on an outer periphery of the inner layer and including first wires and second wires, wherein the first wires and second wires are woven together in a mesh-pattern, and a tip provided on a distal end of the catheter shaft, characterized in that a bulging portion (27, 37, 47) is provided at distal ends of the first wires and/or at distal ends of the second wires; and the tip covers the bulging portion (27, 37, 47), wherein the bulging portion (27, 37,47) functions as an anchor on the tip, reducing the risk that the tip will be pulled off from the catheter shaft.
An apparatus for use by a distributed unit, DU, of a radio access node configured to operate in a scenario where the DU is one of multiple DUs serving links to a multi-connected entity, the apparatus comprising at least one processor and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus at least to perform: acquiring a first DU radio resource configuration for the DU; acquiring a first mobile termination, MT, configuration used for a first link corresponding to a first link of a multi-connectivity link of the multi-connected entity, wherein the first link is served by the DU; acquiring a multiplexing configuration between the first link and a second link of the multi-connectivity link, said second link being served by another DU; and determining availability of at least one radio resource for the multi-connectivity link based on the first DU radio resource configuration, the first mobile termination, MT, configuration, and the multiplexing configuration; and performing scheduling for the first link based on the determined availability of the at least one radio resource. acquiring a first DU radio resource configuration for the DU; acquiring a first mobile termination, MT, configuration used for a first link corresponding to a first link of a multi-connectivity link of the multi-connected entity, wherein the first link is served by the DU; acquiring a multiplexing configuration between the first link and a second link of the multi-connectivity link, said second link being served by another DU; and determining availability of at least one radio resource for the multi-connectivity link based on the first DU radio resource configuration, the first mobile termination, MT, configuration, and the multiplexing configuration; and performing scheduling for the first link based on the determined availability of the at least one radio resource.