mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method of a magnetic element, comprising the steps of: sandwiching and holding at least one of a terminal unit and a coil terminal-end of a coil between a tubular-shaped upper-side die and a tubular-shaped lower-side die, while the coil is positioned in a tubular-shaped portion constituted by the upper-side die and the lower-side die; filling a magnetic material in the tubular-shaped portion after the step of sandwiching and holding; and pressure-molding a core, whose outside surface follows the inner walls (101a,102a) of the upper-side die and the lower-side die, by pressurizing the magnetic material, which was filled in the step of filling, using an upper-side punch from the upper side and also by using a lower-side punch from the lower side, wherein at least one portion of the inner wall of the upper-side die and at least one portion of the inner wall of the lower-side die are spaced by respective different distances from the center of the tubular-shaped portion and, due to the difference in said respective distances, a step is formed in the tubular-shaped portion at a position where said at least one of the terminal unit and the coil terminal-end is sandwiched, and in the step of pressure-molding, there is formed, by transcription of the step in the tubular-shaped portion, a core concave-portion (211,212) comprising a step on the outside surface of the core, with at least one of the terminal unit and the coil terminal-end as a boundary. sandwiching and holding at least one of a terminal unit and a coil terminal-end of a coil between a tubular-shaped upper-side die and a tubular-shaped lower-side die, while the coil is positioned in a tubular-shaped portion constituted by the upper-side die and the lower-side die; filling a magnetic material in the tubular-shaped portion after the step of sandwiching and holding; and pressure-molding a core, whose outside surface follows the inner walls (101a,102a) of the upper-side die and the lower-side die, by pressurizing the magnetic material, which was filled in the step of filling, using an upper-side punch from the upper side and also by using a lower-side punch from the lower side, wherein at least one portion of the inner wall of the upper-side die and at least one portion of the inner wall of the lower-side die are spaced by respective different distances from the center of the tubular-shaped portion and, due to the difference in said respective distances, a step is formed in the tubular-shaped portion at a position where said at least one of the terminal unit and the coil terminal-end is sandwiched, and in the step of pressure-molding, there is formed, by transcription of the step in the tubular-shaped portion, a core concave-portion (211,212) comprising a step on the outside surface of the core, with at least one of the terminal unit and the coil terminal-end as a boundary.
A rubber composition comprising a branched conjugated diene copolymer as a rubber component, in which a half width at half maximum of a viscoelasticity tanδ defined by the following equation is 40 or less; Half width at half maximum = Higher temperature at half height of tanδ peak − Tanδ peak temperature; wherein the half width at half maximum of a viscoelasticity tanδ is determined in accordance with the description, wherein the branched conjugated diene copolymer is composed of monomer components comprising a branched conjugated diene compound represented by a general formula: wherein R 1 represents an aliphatic hydrocarbon group having 6 to 11 carbon atoms, and an aromatic vinyl compound represented by a general formula: wherein R 2 represents an aromatic hydrocarbon group having 6 to 10 carbon atoms, and R 5 represents a hydrogen atom or an alkyl group having 1 to 3 carbon atoms, wherein the monomer components further comprise a conjugated diene compound represented by a general formula: wherein R 3 and R 4 are the same or different, and each represents a hydrogen atom, an aliphatic hydrocarbon group having 1 to 3 carbon atoms, or a halogen atom, wherein a copolymerization ratio (m) of the aromatic vinyl compound is 45% by mass or more, the branched conjugated diene copolymer having a weight-average molecular weight of 500000 or more, as determined using gel permeation chromatography and converted based on standard polystyrene; the branched conjugated diene copolymer having a glass transition temperature of -25°C or more, as determined using a differential scanning calorimeter at a heat-up rate of 10°C/min from an initial temperature of - 150°C to a final temperature of 150°C.
A structure for assembling turbine blade seals, comprising: a turbine blade (100, 1340) comprising an airfoil (110, 1343), a platform (120, 1341), and a root (130, 1342); a turbine rotor disk (200, 1320) to which the root (130, 1342) of the turbine blade (100, 1340) is mounted; a seal plate mounted between the platform (120, 1341) and one side of the turbine rotor disk (200, 1320) to seal a cooling channel defined within the root (130, 1342) and the platform (120, 1341); and an insertion pin inserted through the turbine rotor disk (200, 1320) to fix the seal plate to the turbine rotor disk (200, 1320) by supporting the seal plate, wherein: the turbine rotor disk (200, 1320) has a mounting groove into which a radially inner end of the seal plate is inserted; and the seal plate has a jaw portion radially supported by a stepped portion of the mounting groove; characterized in that: the seal plate further comprises: an arc groove formed to prevent stress concentration on an inner, i.e. concave, corner between the jaw portion and a body plate, and a chamfer formed at another, i.e. convex, corner of the jaw portion; and/or the turbine rotor disk (200, 1320) further comprises: an arc groove formed at a concave corner of the stepped portion of the mounting groove, and a chamfer formed at a convex corner of the stepped portion of the mounting groove. a turbine blade (100, 1340) comprising an airfoil (110, 1343), a platform (120, 1341), and a root (130, 1342); a turbine rotor disk (200, 1320) to which the root (130, 1342) of the turbine blade (100, 1340) is mounted; a seal plate mounted between the platform (120, 1341) and one side of the turbine rotor disk (200, 1320) to seal a cooling channel defined within the root (130, 1342) and the platform (120, 1341); and an insertion pin inserted through the turbine rotor disk (200, 1320) to fix the seal plate to the turbine rotor disk (200, 1320) by supporting the seal plate, wherein: the turbine rotor disk (200, 1320) has a mounting groove into which a radially inner end of the seal plate is inserted; and the seal plate has a jaw portion radially supported by a stepped portion of the mounting groove; the turbine rotor disk (200, 1320) has a mounting groove into which a radially inner end of the seal plate is inserted; and the seal plate has a jaw portion radially supported by a stepped portion of the mounting groove; the seal plate further comprises: an arc groove formed to prevent stress concentration on an inner, i.e. concave, corner between the jaw portion and a body plate, and a chamfer formed at another, i.e. convex, corner of the jaw portion; and/or the turbine rotor disk (200, 1320) further comprises: an arc groove formed at a concave corner of the stepped portion of the mounting groove, and a chamfer formed at a convex corner of the stepped portion of the mounting groove.
An apparatus for wirelessly receiving power from a wireless power transmitter, the apparatus characterised by: an active switching rectifier operably connected to a coupler and configured to operate in a first bridge mode corresponding to a first duty cycle and a second bridge mode corresponding to a second duty cycle; and a controller configured to: adjust an input resistance of the active switching rectifier to a first value that provides a first wireless power transfer efficiency when the active switching rectifier operates in the first bridge mode, and adjust the input resistance of the active switching rectifier to a second value that provides a second wireless power transfer efficiency less than the first wireless power transfer efficiency while operating within one or more operating limitations when the active switching rectifier operates in the second bridge mode. an active switching rectifier operably connected to a coupler and configured to operate in a first bridge mode corresponding to a first duty cycle and a second bridge mode corresponding to a second duty cycle; and a controller configured to: adjust an input resistance of the active switching rectifier to a first value that provides a first wireless power transfer efficiency when the active switching rectifier operates in the first bridge mode, and adjust the input resistance of the active switching rectifier to a second value that provides a second wireless power transfer efficiency less than the first wireless power transfer efficiency while operating within one or more operating limitations when the active switching rectifier operates in the second bridge mode. adjust an input resistance of the active switching rectifier to a first value that provides a first wireless power transfer efficiency when the active switching rectifier operates in the first bridge mode, and adjust the input resistance of the active switching rectifier to a second value that provides a second wireless power transfer efficiency less than the first wireless power transfer efficiency while operating within one or more operating limitations when the active switching rectifier operates in the second bridge mode.
A medical device comprising a flexible visualization device sealed to, attached slidably to or otherwise combined with at least one of the following second devices: an oral airway comprising a tubal body with a central passageway, the tubal body being made of two half-cylinders (178, 180) which can rotate and convert the central passageway from completely enclosed into only partially enclosed and comprising a lateral opening, a supraglottic airway device, an endotracheal tube, a tubeless intubating device, a sliding endotracheal cuff device, a ventilator adaptive cap, a dilator, a tracheostomy device, a nasal trumpet, an esophageal stethoscope, a stylet (82, 284), a bougie, a speculum, a nasal cannula, a feeding tube, a suction tube, a suction catheter, and an endotracheal changing tube; and wherein the flexible visualization device comprises a camera tube with a distal end and proximal end, the distal end being sealed with a transparent material and a camera being placed inside of the camera tube through an opening at the proximal end, and wherein the camera is disposable or re-usable; wherein the camera is retractable from the camera tube on demand; and, wherein the second device has a proximal end and a distal end, wherein the camera tube is attached to the second device either internally or externally along the proximal-distal axis.
A method, performed by a wireless device, of reporting transmission power information to a network node in a wireless communication network, the method comprising: selecting which of two or more mapping tables for PH or Pcmax, to employ in response to a carrier frequency or carrier frequency range associated with said network node; communicating the selection of mapping tables for PH or Pcmax, with the network; and transmitting to the network a power headroom report, PHR, comprising at least one of a PH or Pcmax index based on the selected PH or Pcmax mapping table, respectively. selecting which of two or more mapping tables for PH or Pcmax, to employ in response to a carrier frequency or carrier frequency range associated with said network node; communicating the selection of mapping tables for PH or Pcmax, with the network; and transmitting to the network a power headroom report, PHR, comprising at least one of a PH or Pcmax index based on the selected PH or Pcmax mapping table, respectively.
Oil-in-water nanoemulsion composition comprising: - from 50% to 90% by weight of aqueous phase, - from 9.5% to 49.5% by weight of lipid phase in the form of nanodroplets comprising: - an oil and - magnetic particles (p) based on an iron compound, said magnetic particles (p) being covered with one or more C8-C22 fatty acids, - from 0.38% to 4.95% by weight of a mixture of surfactants at the interface between the aqueous and lipid phases, the mixture of surfactants: - comprising at least one amphiphilic lipid and at least one amphiphilic targeting ligand, and - representing from 4% to 10% by weight relative to the oil of the lipid phase, characterized in that the oil of the lipid phase comprises at least 70% of glycerides of C6-C18 saturated fatty acids and in that the composition comprises more than 100 mmol of iron per liter of composition. - from 50% to 90% by weight of aqueous phase, - from 9.5% to 49.5% by weight of lipid phase in the form of nanodroplets comprising: - an oil and - magnetic particles (p) based on an iron compound, said magnetic particles (p) being covered with one or more C8-C22 fatty acids, - an oil and - magnetic particles (p) based on an iron compound, said magnetic particles (p) being covered with one or more C8-C22 fatty acids, - from 0.38% to 4.95% by weight of a mixture of surfactants at the interface between the aqueous and lipid phases, the mixture of surfactants: - comprising at least one amphiphilic lipid and at least one amphiphilic targeting ligand, and - representing from 4% to 10% by weight relative to the oil of the lipid phase, characterized in that the oil of the lipid phase comprises at least 70% of glycerides of C6-C18 saturated fatty acids and in that the composition comprises more than 100 mmol of iron per liter of composition. - comprising at least one amphiphilic lipid and at least one amphiphilic targeting ligand, and - representing from 4% to 10% by weight relative to the oil of the lipid phase,
A vehicle braking force control device comprising braking force control means for shifting to a drive state enabled using an auxiliary power source when a main power source fails, and limiting current outputted to an electric actuator of a braking device for producing braking hydraulic pressure when a transition is made to the drive state enabled using the auxiliary power source, the vehicle braking force control device characterized in that: the braking force control means includes two current limit values used during actuation of the electric actuator by the auxiliary power source, the current limit values being a first current limit value for ensuring increased-braking-hydraulic-pressure characteristics, and a second current limit value for ensuring a necessary minimum braking hydraulic pressure, the second current limit value being less than the first current limit value; and the braking force control means imposes a limit in the form of the first current limit value immediately after the transition to the drive state enabled using the auxiliary power source until the braking hydraulic pressure reaches the necessary minimum braking hydraulic pressure, and shifts the limiting from the first current limit value to the second current limit value after the braking hydraulic pressure has reached the necessary minimum braking hydraulic pressure. the braking force control means includes two current limit values used during actuation of the electric actuator by the auxiliary power source, the current limit values being a first current limit value for ensuring increased-braking-hydraulic-pressure characteristics, and a second current limit value for ensuring a necessary minimum braking hydraulic pressure, the second current limit value being less than the first current limit value; and the braking force control means imposes a limit in the form of the first current limit value immediately after the transition to the drive state enabled using the auxiliary power source until the braking hydraulic pressure reaches the necessary minimum braking hydraulic pressure, and shifts the limiting from the first current limit value to the second current limit value after the braking hydraulic pressure has reached the necessary minimum braking hydraulic pressure.
A system for displaying lung ventilation information, the system comprising: - an input for receiving multiple CT images of a lung, each CT image corresponding to one phase of at least two different phases in a respiratory cycle, - a processing unit being configured to: - compare CT images corresponding to different phases in the respiratory cycle for determining a deformation vector field for each phase, - generate, for each phase, a ventilation image based on the corresponding deformation vector field, - spatially align the ventilation images, and - generate, for at least one common position in each one of the aligned ventilation images, a function of a time course of a ventilation value for said common position, each ventilation value in the function being based on the deformation vector fields corresponding to the aligned ventilation images, characterized in that the processing unit is further configured to - fit a respiratory cycle model to the function, and - derive a local ventilation amplitude and/or local ventilation phase shift from the fitted respiratory cycle model. - an input for receiving multiple CT images of a lung, each CT image corresponding to one phase of at least two different phases in a respiratory cycle, - a processing unit being configured to: - compare CT images corresponding to different phases in the respiratory cycle for determining a deformation vector field for each phase, - generate, for each phase, a ventilation image based on the corresponding deformation vector field, - spatially align the ventilation images, and - generate, for at least one common position in each one of the aligned ventilation images, a function of a time course of a ventilation value for said common position, each ventilation value in the function being based on the deformation vector fields corresponding to the aligned ventilation images, characterized in that the processing unit is further configured to - fit a respiratory cycle model to the function, and - derive a local ventilation amplitude and/or local ventilation phase shift from the fitted respiratory cycle model.
An apparatus (100, 200) for processing of magnetic particles (MP, MP'), comprising: - a processing chamber (114, 214) with a binding region (116, 216) to which magnetic particles (MP') can bind or an accommodation space for such a processing chamber; - a magnetic field generator (153, 154, 253, 254) for generating a magnetic field in the processing chamber (114, 214); - a tilting unit (156, 256) for controllably changing the inclination of the processing chamber or the accommodation space thereby changing the inclination of the binding region (116, 216), wherein a control unit is provided for coordinating the inclination of the binding region (116, 216) and the generation of the magnetic field such that unbound magnetic particles separate from the binding region (116, 216) by gravitational forces (F g) and the magnetic field moves said separated magnetic particles further away from the binding region (116, 216). - a processing chamber (114, 214) with a binding region (116, 216) to which magnetic particles (MP') can bind or an accommodation space for such a processing chamber; - a magnetic field generator (153, 154, 253, 254) for generating a magnetic field in the processing chamber (114, 214); - a tilting unit (156, 256) for controllably changing the inclination of the processing chamber or the accommodation space thereby changing the inclination of the binding
A method of operating a node, comprising: under control of circuitry of the node configured to execute the method: identifying a particular multicast group to join, based on input from an application running on the node; configuring a multicast report, the multicast report including the particular multicast group indicated by the input; periodically refreshing the multicast report to include groups of interest to applications running on the node; overhearing multicast reports sent by nodes within transmission range of the node; and periodically transmitting the multicast reports according to a frequency of transmission that is based on a number of the overheard multicast reports that request to join multicast groups indicated by the periodically transmitted multicast report. under control of circuitry of the node configured to execute the method: identifying a particular multicast group to join, based on input from an application running on the node; configuring a multicast report, the multicast report including the particular multicast group indicated by the input; periodically refreshing the multicast report to include groups of interest to applications running on the node; overhearing multicast reports sent by nodes within transmission range of the node; and periodically transmitting the multicast reports according to a frequency of transmission that is based on a number of the overheard multicast reports that request to join multicast groups indicated by the periodically transmitted multicast report. identifying a particular multicast group to join, based on input from an application running on the node; configuring a multicast report, the multicast report including the particular multicast group indicated by the input; periodically refreshing the multicast report to include groups of interest to applications running on the node; overhearing multicast reports sent by nodes within transmission range of the node; and periodically transmitting the multicast reports according to a frequency of transmission that is based on a number of the overheard multicast reports that request to join multicast groups indicated by the periodically transmitted multicast report.
A template for a tufted curved surface comprising a substrate having an upper surface adapted to carry one or more tufts of bristles such as to project outwardly from the upper surface; wherein the substrate is shaped to be deformable between an expanded state in which the upper surface is substantially flat, and a collapsed state in which the upper surface is curved characterised in that the substrate comprises a plurality of radially extending limbs at least some of which are adapted to carry one or more of the tufts of bristles, shaped such that a free end of each limb is isolated from each adjacent free end when the substrate is in the expanded state, and abutting against each adjacent free end when in the collapsed state.
A method for monitoring a packet-based communication between a mobile radio and a base station in a radio communication system, the method comprising: testing an authenticity of a packet based on authentication data associated with the packet; removing packets carrying either data traffic, or control or management messages that fail the authenticity test from the packet-based communication; determining that a security condition has occurred when a number of failed packets for the packet-based communication exceeds a security threshold; and taking action to correct or reduce the security condition, characterized in that: the action includes requesting retransmission of one or more failed packets, in order to determine if a packet failed the authenticity test because of poor radio channel conditions or because of a security breach.