mhurhangee/ep-ind-claims huggingface dataset:
An iridium complex compound represented by formula below: wherein in formula, Ir represents an iridium atom, L represents a bidentate ligand, in the case of a plurality of L's, the plurality of L's may be the same or different, ring Cy 1 represents an aromatic ring including carbon atoms C 1 and C 2, ring Cy 2 represents a heteroaromatic ring including a carbon atom C 3 and a nitrogen atom N 1, R 1 and R 2 each independently represent a hydrogen atom or a substituent, a and b represent maximum integer numbers of possible substituents on the ring Cy 1 and the ring Cy 2, respectively, m represents an integer of 1 to 3, n represents an integer of 0 to 2, m + n = 3, in the case of a plurality of R 1 's and/or a plurality of R 2 's, the plurality of R 1 's and/or the plurality of R 2 's may be the same or different, provided that at least one R 1 is represented by formula below: wherein in formula, * represents a position of bonding to the ring Cy 1, R 5 to R 11 each independently represent a hydrogen atom or a substituent, and R X1 and R X2 each independently represent an alkyl group or an aralkyl group, wherein the ring Cy 1 and (R 1)a in formula are represented by formula below: wherein in formula, * represents a bonding position, and R 1, R 5 to R 11, R X1, and R X2 are as defined in formula and formula. wherein in formula, Ir represents an iridium atom, L represents a bidentate ligand, in the case of a plurality of L's, the plurality of L's may be the same or different, ring Cy 1 represents an aromatic ring including carbon atoms C 1 and C 2, ring Cy 2 represents a heteroaromatic ring including a carbon atom C 3 and a nitrogen atom N 1, R 1 and R 2 each independently represent a hydrogen atom or a substituent, a and b represent maximum integer numbers of possible substituents on the ring Cy 1 and the ring Cy 2, respectively, m represents an integer of 1 to 3, n represents an integer of 0 to 2, m + n = 3, in the case of a plurality of R 1 's and/or a plurality of R 2 's, the plurality of R 1 's and/or the plurality of R 2 's may be the same or different, provided that at least one R 1 is represented by formula below: wherein in formula, * represents a position of bonding to the ring Cy 1, R 5 to R 11 each independently represent a hydrogen atom or a substituent, and R X1 and R X2 each independently represent an alkyl group or an aralkyl group, wherein the ring Cy 1 and (R 1)a in formula are represented by formula below: wherein in formula, * represents a bonding position, and R 1, R 5 to R 11, R X1, and R X2 are as defined in formula and formula.
Tank for a liquid-cooled transformer or inductor, comprising: a) an outer tank casing with a bottom part; b) an inner tank casing enclosed by the outer tank casing at a distance, wherein the outer and the inner tank casing (2, 5) are formed from metal; c) a plastic or polymer material, which is incorporated in an intermediate space, bounded by the inner surface of the outer tank casing and the inner surface of the inner tank casing and at least partially fills this intermediate space, wherein, after curing, the plastic or polymer material is connected to the inner surfaces (13, 14) in a fixed manner by adhesion, characterised in that the inner tank casing or the outer tank casing has closable openings for the injection of the plastic or polymer material. a) an outer tank casing with a bottom part; b) an inner tank casing enclosed by the outer tank casing at a distance, wherein the outer and the inner tank casing (2, 5) are formed from metal; c) a plastic or polymer material, which is incorporated in an intermediate space, bounded by the inner surface of the outer tank casing and the inner surface of the inner tank casing and at least partially fills this intermediate space, wherein, after curing, the plastic or polymer material is connected to the inner surfaces (13, 14) in a fixed manner by adhesion, characterised in that the inner tank casing or the outer tank casing has closable openings for the injection of the plastic or polymer material.
An electrically heated aerosol-generating device (100, 1100) for use with a consumable cartridge comprising a storage portion containing an aerosol-forming substrate, the storage portion having a fluid permeable internal surface surrounding an open-ended passage extending through the cartridge, the device comprising: a housing having a cavity for receiving at least a portion of the cartridge; a heater assembly (300, 600, 700, 800) positioned in the cavity, the heater assembly comprising: an elongate support member (302, 802) connected to the housing and arranged to extend into the open-ended passage of a cartridge inserted in the cavity; and a plurality of electric heaters (400, 900) fixed to and spaced along the length of the elongate support member, the plurality of electric heaters each having at least one heating element (404, 904) for heating the aerosol forming substrate of a cartridge received into the cavity; a power supply connected to the heater assembly; and electric circuitry connected to the power supply and to the heater assembly, wherein the electric circuitry is configured to measure one or more electrical parameters of the plurality of electric heaters and to calculate an estimated remaining amount of aerosol forming substrate in the cartridge or an estimated distribution of aerosol forming substrate in the cartridge, based on the measured electrical parameters. a housing having a cavity for receiving at least a portion of the cartridge; a heater assembly (300, 600, 700, 800) positioned in the cavity, the heater assembly comprising: an elongate support member (302, 802) connected to the housing and arranged to extend into the open-ended passage of a cartridge inserted in the cavity; and a plurality of electric heaters (400, 900) fixed to and spaced along the length of the elongate support member, the plurality of electric heaters each having at least one heating element (404, 904) for heating the aerosol forming substrate of a cartridge received into the cavity; an elongate support member (302, 802) connected to the housing and arranged to extend into the open-ended passage of a cartridge inserted in the cavity; and a plurality of electric heaters (400, 900) fixed to and spaced along the length of the elongate support member, the plurality of electric heaters each having at least one heating element (404, 904) for heating the aerosol forming substrate of a cartridge received into the cavity; a power supply connected to the heater assembly; and electric circuitry connected to the power supply and to the heater assembly, wherein the electric circuitry is configured to measure one or more electrical parameters of the plurality of electric heaters and to calculate an estimated remaining amount of aerosol forming substrate in the cartridge or an estimated distribution of aerosol forming substrate in the cartridge, based on the measured electrical parameters.
An integrated circuit, IC, package, comprising: a processing system and a programmable IC disposed on a substrate, the processing system coupled to the programmable IC through interconnect of the substrate; and a package interface; the processing system including components coupled to a ring interconnect, the ring interconnect comprising a first sub-ring and a second sub-ring coupled by a ring-to-ring connector, the components including a processor and an interface controller; and the programmable IC including: an interface endpoint coupled to the interface controller through the interconnect; at least one peripheral (110, 230) and other circuitry, the at least one peripheral (110, 230) coupled to the interface endpoint and configured for communication with the second sub-ring of the ring interconnect of the processing system through the interface endpoint and the interface controller, the at least one peripheral (110, 230) including: an interface coupled to the package interface, and hardened circuits being functional without first loading a configuration bitstream into the programmable IC; and the other circuitry including: programmed circuitry configured in programmable logic of the programmable IC. a processing system and a programmable IC disposed on a substrate, the processing system coupled to the programmable IC through interconnect of the substrate; and a package interface; the processing system including components coupled to a ring interconnect, the ring interconnect comprising a first sub-ring and a second sub-ring coupled by a ring-to-ring connector, the components including a processor and an interface controller; and the programmable IC including: an interface endpoint coupled to the interface controller through the interconnect; at least one peripheral (110, 230) and other circuitry, the at least one peripheral (110, 230) coupled to the interface endpoint and configured for communication with the second sub-ring of the ring interconnect of the processing system through the interface endpoint and the interface controller, the at least one peripheral (110, 230) including: an interface coupled to the package interface, and hardened circuits being functional without first loading a configuration bitstream into the programmable IC; and an interface coupled to the package interface, and hardened circuits being functional without first loading a configuration bitstream into the programmable IC; and the other circuitry including: programmed circuitry configured in programmable logic of the programmable IC.
Commercial vehicle with a diesel engine, of the type comprising a lower vehicle structure defining a vehicle floor and, to the side, a running board providing access to a front seat or to the cargo space of the vehicle, the lower structure supporting beneath the floor a diesel oil tank fitted with a filler pipe opening out at the side of the vehicle, at the rear or at the front of the running board, the vehicle moreover comprising a urea tank fitted with a filler pipe, characterized in that the urea tank is housed in the immediate vicinity of the diesel oil tank and in that its filler pipe opens out in a front wall of the running board.
Process for the production of a dental restoration, in which an oxide ceramic material (a) is subjected to a first heat treatment, (b) is subjected to a second heat treatment and (c) is cooled, wherein the heat treatment in step (a) is effected at lower pressure than the heat treatment in step (b) and the heat treatment in step (b) is effected in an oxygen-containing atmosphere and characterized in that the heat treatment in step (a) is effected at a pressure of less than 200 mbar and/or in step (b) the oxide ceramic material in a step is optionally further heated and in a step is held and sintered at a temperature in the range of from 1100 to 1600°C. (a) is subjected to a first heat treatment, (b) is subjected to a second heat treatment and (c) is cooled, wherein the heat treatment in step (a) is effected at lower pressure than the heat treatment in step (b) and the heat treatment in step (b) is effected in an oxygen-containing atmosphere and characterized in that the heat treatment in step (a) is effected at a pressure of less than 200 mbar and/or in step (b) the oxide ceramic material in a step is optionally further heated and in a step is held and sintered at a temperature in the range of from 1100 to 1600°C. wherein the heat treatment in step (a) is effected at lower pressure than the heat treatment in step (b) and the heat treatment in step (b) is effected in an oxygen-containing atmosphere and characterized in that the heat treatment in step (a) is effected at a pressure of less than 200 mbar and/or in step (b) the oxide ceramic material in a step is optionally further heated and in a step is held and sintered at a temperature in the range of from 1100 to 1600°C.
An optoelectronic sensor comprising a light transmitter for transmitting a beam of light rays into a monitored zone; a light receiver for generating a received signal from the beam of light rays remitted by the objects in the monitored zone; a deflection unit (22, 122, 222, 322) which is rotatable about an axis of rotation and which has a concave first reflection surface for beam shaping and for deflecting the remitted beam of light rays, and an evaluation unit which is configured to acquire information on the objects in the monitored zone from the received signal, wherein the rotatable deflection unit (22, 122, 222, 322) has a second reflection surface for deflecting the beam of light rays deflected by the first reflection surface to the light receiver, characterised in that the deflection unit (22, 122, 222, 322) comprises a monolithic body, with the first reflection surface comprising a first wall of the body and the second reflection surface comprising a second wall of the body disposed opposite the first wall; in that the body is transparent and is shaped such that the remitted beam of light rays extends at least between the first and second reflection surfaces (26, 28) in the interior of the body; and in that the first and second reflection surfaces (26, 28) are formed by a respective inner wall of the body.
A micro-organism comprising a nucleic acid encoding an antigen for use in the treatment or prevention of type I diabetes in a human subject in need thereof, wherein said micro-organism is a Lactococcus sp. bacterium, said antigen is a beta cell autoantigen which antigen is constitutively expressed and secreted by said micro-organism, and said micro-organism is to be administered via mucosal delivery, and said human subject has established hypersensitivity to said antigen.
A zirconium alloy that is resistant to shadow corrosion for a boiling water nuclear reactor fuel assembly component, the alloy being characterized in that: · its composition in percentages by weight is as follows: · Nb = 0.4% - 4.5% · Sn = 0.20% - 1.7% · Fe = 0.05% - 0.45% · Fe + Cr + Ni + V = 0.05% - 0.45%, with Nb ≤ 9 × [0.5 - (Fe + Cr + Ni + V)] · S = traces - 400 ppm · C = traces - 200 ppm · Si = traces - 120 ppm · 0 = 600 ppm - 1800 ppm · the balance being Zr and impurities from processing; · in that, during fabrication, after its last hot deformation, it is subjected to one or more heat treatments at a temperature lying in the range 450°C to 610°C for a total duration of at least 4 h, with at least one cold rolling operation with a rolling ratio of at least 25%, no heat treatment subsequent to the hot deformation exceeding 610°C; and · in that a final heat treatment operation is performed at a temperature lying in the range 450°C to 610°C for a duration lying in the range 1 minute to 20 hours. · its composition in percentages by weight is as follows: · Nb = 0.4% - 4.5% · Sn = 0.20% - 1.7% · Fe = 0.05% - 0.45% · Fe + Cr + Ni + V = 0.05% - 0.45%, with Nb ≤ 9 × [0.5 - (Fe + Cr + Ni + V)] · S = traces - 400 ppm · C = traces - 200 ppm · Si = traces - 120 ppm · 0 = 600 ppm - 1800 ppm · the balance being Zr and impurities from processing; · in that, during fabrication, after its last hot deformation, it is subjected to one or more heat treatments at a temperature lying in the range 450°C to 610°C for a total duration of at least 4 h, with at least one cold rolling operation with a rolling ratio of at least 25%, no heat treatment subsequent to the hot deformation exceeding 610°C; and · in that a final heat treatment operation is performed at a temperature lying in the range 450°C to 610°C for a duration lying in the range 1 minute to 20 hours.
A system for providing operable coupling between a steering apparatus of a riding yard maintenance vehicle and front or rear wheels of the riding yard maintenance vehicle, the system comprising: a flexible elongate member configured for translating forces between components attached thereto responsive to movement of one portion thereof wrapped around a portion of the steering shaft operably coupled to the steering apparatus, the flexible elongate member terminating at respective ends thereof at corresponding ones of a first shaped cam and a second shaped cam each of which is operably coupled to respective ones of a first axle rod and a second axle rod, the first and second axle rods (92, 94) being rotatably connected to respective ones of the front or rear wheels, the first and second shaped cams (134, 136) causing movement of the front or rear wheels based on movement of the flexible elongate member responsive to rotation of the steering shaft; and at least one set of guide pulleys (122, 124, 130, 140) receiving respective different portions of the flexible elongate member to guide the flexible elongate member to respective ones of the first and second shaped cams (134, 136) characterized in that the first and second shaped cams (134, 136) are each substantially triangular shaped cams having a relatively shorter base portion and two longer leg portions, a rear most one of the two longer leg portions being configured to receive the flexible elongate member from the at least one set of guide pulleys (122, 124, 130, 140). a flexible elongate member configured for translating forces between components attached thereto responsive to movement of one portion thereof wrapped around a portion of the steering shaft operably coupled to the steering apparatus, the flexible elongate member terminating at respective ends thereof at corresponding ones of a first shaped cam and a second shaped cam each of which is operably coupled to respective ones of a first axle rod and a second axle rod, the first and second axle rods (92, 94) being rotatably connected to respective ones of the front or rear wheels, the first and second shaped cams (134, 136) causing movement of the front or rear wheels based on movement of the flexible elongate member responsive to rotation of the steering shaft; and at least one set of guide pulleys (122, 124, 130, 140) receiving respective different portions of the flexible elongate member to guide the flexible elongate member to respective ones of the first and second shaped cams (134, 136)
A wireless transmit/receive unit (WTRU) configured to perform a 2-step random access channel (RACH) procedure, the WTRU comprising: a transceiver; and a processor, wherein: the processor is configured to select a random access preamble having a preamble index; the processor is further configured to determine a scrambling sequence for a physical uplink shared channel (PUSCH) transmission, wherein the scrambling sequence is based on a random access - radio network temporary identifier (RA-RNTI) and the preamble index; and the transceiver is configured to send a message to a network node, wherein the message comprises the selected random access preamble and the PUSCH transmission, wherein the PUSCH transmission is scrambled with the determined scrambling sequence that is based on the RA-RNTI and the preamble index. a transceiver; and a processor, wherein: the processor is configured to select a random access preamble having a preamble index; the processor is further configured to determine a scrambling sequence for a physical uplink shared channel (PUSCH) transmission, wherein the scrambling sequence is based on a random access - radio network temporary identifier (RA-RNTI) and the preamble index; and the transceiver is configured to send a message to a network node, wherein the message comprises the selected random access preamble and the PUSCH transmission, wherein the PUSCH transmission is scrambled with the determined scrambling sequence that is based on the RA-RNTI and the preamble index. the processor is configured to select a random access preamble having a preamble index; the processor is further configured to determine a scrambling sequence for a physical uplink shared channel (PUSCH) transmission, wherein the scrambling sequence is based on a random access - radio network temporary identifier (RA-RNTI) and the preamble index; and the transceiver is configured to send a message to a network node, wherein the message comprises the selected random access preamble and the PUSCH transmission, wherein the PUSCH transmission is scrambled with the determined scrambling sequence that is based on the RA-RNTI and the preamble index.
A shield cover (20; 44; 47; 50) for shielding wiring harness being formed by processing a conductive metal plate into U-shape in a cross section comprising: a side shield portion; a front shield portion connected to a first end of the side shield portion; a back portion (24; 45; 48; 51) connected to a second end of the side shield portion and opposed to the front shield portion; a connection (26, 27) connected to the conductive metal plate; a shield object member entry opening at the other end of the front shield portion and the other end of the back portion (24; 45; 48; 51), and opposed to the side shield portion; and a shield object member receiving space connected to the shield object member entry and formed between the front shield portion and the back portion (24; 45; 48; 51), wherein the shield cover is adopted to slidably cover wiring harness. a side shield portion; a front shield portion connected to a first end of the side shield portion; a back portion (24; 45; 48; 51) connected to a second end of the side shield portion and opposed to the front shield portion; a connection (26, 27) connected to the conductive metal plate; a shield object member entry opening at the other end of the front shield portion and the other end of the back portion (24; 45; 48; 51), and opposed to the side shield portion; and a shield object member receiving space connected to the shield object member entry and formed between the front shield portion and the back portion (24; 45; 48; 51), wherein the shield cover is adopted to slidably cover wiring harness.
Drive device of a motor vehicle, in particular of a utility vehicle, having an internal combustion engine; and having a gas turbine system for energy recovery, comprising a compressor, at least one heat exchanger (5, 6, 7, 8) and a gas turbine, wherein the gas turbine system is designed to compress a working fluid of the gas turbine system in the compressor, to supply heat of at least one waste-heat flow of the internal combustion engine to the compressed working fluid by way of the at least one heat exchanger, and to drive the gas turbine by way of the heated working fluid, characterized by at least four heat exchangers (5, 6, 7, 8) of the gas turbine system, comprising a first heat exchanger which is fluidically connected to a waste-heat flow of the engine cooling arrangement, a second heat exchanger which is fluidically connected to a waste-heat flow of an exhaust-gas recirculation arrangement, a third heat exchanger which is fluidically connected to a waste-heat flow of an exhaust-gas aftertreatment arrangement, and a fourth heat exchanger which is fluidically connected to a waste-heat flow of a cooling arrangement of the charge-air tract.
A process for the production of a polymer composition comprising an organopolysiloxane dispersed in a thermoplastic organic polymer, wherein in a first step thermoplastic organic polymer and organopolysiloxane are mixed at a temperature at which both the thermoplastic organic polymer and the organopolysiloxane are in liquid phases to form a masterbatch, and in a second step the masterbatch is mixed with further thermoplastic organic polymer to form a polymer composition having a lower concentration of organopolysiloxane than that in the masterbatch, characterised in that in the first step the thermoplastic organic polymer and the organopolysiloxane are mixed in the presence of an additive capable of inhibiting the thermo-radical degradation or cross-linking of the thermoplastic organic polymer.