mhurhangee/ep-ind-claims huggingface dataset:
A flavor generation system, comprising: a power source unit that includes a power source that is electrically connected to or connectable to a load for atomizing an aerosol source or heating a flavor source, and a first controller; and a charging unit that includes a second controller and that is capable of charging the power source, wherein the power source unit further includes a first temperature sensor capable of outputting a detected value or an estimated value of a temperature of the power source, wherein the first controller is configured to control a charging speed of the power source based on an output value of the first temperature sensor, wherein the charging unit further includes a conversion unit that is capable of converting a voltage or a current of input electric power and outputting the converted voltage or current, and a second temperature sensor, characterised in that the conversion unit is configured to be capable of performing a first charging mode, and a second charging mode in which a value of electric power or a current per unit time that can be output by the conversion unit is greater than that in the first charging mode, and in that the second controller is configured to cause the conversion unit to perform the second charging mode in a case where the output value of the second temperature sensor is equal to or higher than a threshold, and cause the conversion unit to perform the first charging mode in a case where the output value of the second temperature sensor is lower than the threshold. a power source unit that includes a power source that is electrically connected to or connectable to a load for atomizing an aerosol source or heating a flavor source, and a first controller; and a charging unit that includes a second controller and that is capable of charging the power source, wherein the power source unit further includes a first temperature sensor capable of outputting a detected value or an estimated value of a temperature of the power source, wherein the first controller is configured to control a charging speed of the power source based on an output value of the first temperature sensor, wherein the charging unit further includes a conversion unit that is capable of converting a voltage or a current of input electric power and outputting the converted voltage or current, and a second temperature sensor, characterised in that the conversion unit is configured to be capable of performing a first charging mode, and a second charging mode in which a value of electric power or a current per unit time that can be output by the conversion unit is greater than that in the first charging mode, and in that the second controller is configured to cause the conversion unit to perform the second charging mode in a case where the output value of the second temperature sensor is equal to or higher than a threshold, and cause the conversion unit to perform the first charging mode in a case where the output value of the second temperature sensor is lower than the threshold.
Vehicle lighting device comprising at least one light emitting or LED light source and an elongate light guide, a proximal end of which is situated on a line of propagation of the light issuing from the light source, the light guide comprises: - a part transmitting light, made from a transparent material that extends over the entire length of the light guide; - an elongate diffusing portion extending in the direction of extension of the light guide over only part of the length of the light guide and suitable for diffusing, through a lateral light-exit face, at least 10% of the total light issuing from the light guide; - from its proximal end, a rectilinear region consisting solely of the light-transmission part and, beyond the rectilinear part and in the direction of its distal end, a curved region, the diffusing portion being situated between the rectilinear part and the distal end and extending at least partly in the curved region, - a distal end formed by the light-transmission part and having a planar end face forming a non-flat obtuse angle (α) different from a right angle with the mean fibre (Fi) of the light guide; characterised in that the lighting device comprises a housing inside which the light source and the light guide are situated and which is closed by an at least partly transparent and/or translucent front face to allow diffusion to the outside of the light beam issuing from the light guide, and inside the housing, a mask support that delimits in the housing a chamber receiving the light source, which is substantially light-tight and comprises a through tunnel suitable for receiving the proximal end of the light guide and support said light guide. - a part transmitting light, made from a transparent material that extends over the entire length of the light guide; - an elongate diffusing portion extending in the direction of extension of the light guide over only part of the length of the light guide and suitable for diffusing, through a lateral light-exit face, at least 10% of the total light issuing from the light guide; - from its proximal end, a rectilinear region consisting solely of the light-transmission part and, beyond the rectilinear part and in the direction of its distal end, a curved region, the diffusing portion being situated between the rectilinear part and the distal end and extending at least partly in the curved region, - a distal end formed by the light-transmission part and having a planar end face forming a non-flat obtuse angle (α) different from a right angle with the mean fibre (Fi) of the light guide; characterised in that the lighting device comprises a housing inside which the light source and the light guide are situated and which is closed by an at least partly transparent and/or translucent front face to allow diffusion to the outside of the light beam issuing from the light guide, and inside the housing, a mask support that delimits in the housing a chamber receiving the light source, which is substantially light-tight and comprises a through tunnel suitable for receiving the proximal end of the light guide and support said light guide.
Double acting hydraulic pressure intensifier comprising a housing, a first piston arrangement having a first high pressure piston in a first high pressure chamber in the housing and a first low pressure piston in a first low pressure chamber of the housing, a second piston arrangement, having a second high pressure piston in a second high pressure chamber in the housing and a second low pressure piston in a second low pressure chamber in the housing, and a switching valve having a valve element, and being located between the first piston arrangement and the second piston arrangement, characterized in that the valve element has at least over a part of its length an outer diameter which is equal to an outer diameter of at least one of the low pressure pistons (9, 12).
A method for installing a subsea structure at a target installation site in an underwater location, the method comprising connecting at least one pre-installed mooring line anchored to the seabed to the structure, connecting at least one leading line to the structure, and towing the structure via the leading line from a deployment position spaced laterally away from a target installation site to an installation position above the target installation site, and moving the structure both vertically and horizontally through the water between the deployment and installation positions, including controlling the descent of the structure to the target installation site by adjusting at least one of the tension and the length of the leading line between the structure and the lead towing vessel, and the method includes applying sufficient tension to the leading line to maintain a horizontal component of movement of the structure during descent, and maintaining tension in the mooring lines to resist changes in the orientation of the structure during the descent.
Elongated smoking article extending in a longitudinal direction, comprising: a cylindrical smoking body with a combustible material surrounded by a wrapping paper; a filter element configured to reduce substances from combustion gases drawn through the filter element from the burning smoking body; and a tipping paper circumscribing the smoking body and the filter element and being attached to external surfaces (13, 21) of the smoking body and the filter element, wherein a flavoring is disposed in or on the tipping paper with a distribution that varies in a circumferential direction of the tipping paper, wherein the amount and/or type of flavoring contacting a smoker's lips depends on a rotational state of the elongated smoking article with respect to the circumferential direction wherein the filter element has a circular cross section and the tipping paper has a circular ring cross section, and wherein the flavoring is disposed within a first section of the tipping paper, the first section of the tipping paper being disposed on a first circle sector of the filter element extending in the longitudinal direction of the elongated smoking article. a cylindrical smoking body with a combustible material surrounded by a wrapping paper; a filter element configured to reduce substances from combustion gases drawn through the filter element from the burning smoking body; and a tipping paper circumscribing the smoking body and the filter element and being attached to external surfaces (13, 21) of the smoking body and the filter element, wherein a flavoring is disposed in or on the tipping paper with a distribution that varies in a circumferential direction of the tipping paper, wherein the amount and/or type of flavoring contacting a smoker's lips depends on a rotational state of the elongated smoking article with respect to the circumferential direction wherein the filter element has a circular cross section and the tipping paper has a circular ring cross section, and wherein the flavoring is disposed within a first section of the tipping paper, the first section of the tipping paper being disposed on a first circle sector of the filter element extending in the longitudinal direction of the elongated smoking article.
A panel (500A,500B) having an exterior face thereof adapted for attachment to a support frame and an interior face thereof adapted for defining a boundary of a compartment, the panel comprising: a core (528A,528B) encapsulated within a panel frame, the core having first and second faces thereof, and a periphery thereof, the panel frame including first and second skins attached to the first and second faces of the core; one or more closeouts disposed between the skins about the periphery of the core, with the one or more closeouts being attached to the first and second skins; a heating element (504A,504B) adjacent the interior face of the panel, the heating element including carbon fiber material extending between and electrically coupling two opposed electrical buses (512A,512B); and an electrical wire (520A,520B) coupled to each of the electrical buses of the heating element for introducing a voltage across the heating element; the panel being characterised in that the panel frame is of reinforced phenolic material; the heating element is embedded into the first skin of the panel, and integrally joined thereto by the reinforced phenolic material; and either; each of the electrical wires terminates at a corresponding electrically-conductive terminal block, each of the terminal blocks being received in a corresponding recessed pocket in the one or more closeouts, wherein a terminal post is positioned in each of the terminal blocks and extends outwardly from the panel for connecting the heating element to a voltage source, and where the one or more closeouts having the recessed pockets may be machineable phenolic blocks; or the panel comprises a pair of hollow fittings coupled to the exterior face of the panel, each of the hollow fittings providing a conduit through which a corresponding one of the electrical wires passes and extends away from the exterior face for connection to a voltage source. a core (528A,528B) encapsulated within a panel frame, the core having first and second faces thereof, and a periphery thereof, the panel frame including first and second skins attached to the first and second faces of the core; one or more closeouts disposed between the skins about the periphery of the core, with the one or more closeouts being attached to the first and second skins; a heating element (504A,504B) adjacent the interior face of the panel, the heating element including carbon fiber material extending between and electrically coupling two opposed electrical buses (512A,512B); and an electrical wire (520A,520B) coupled to each of the electrical buses of the heating element for introducing a voltage across the heating element;
A method for producing electricity, the method comprising: introducing a fuel stream comprising a reformable fuel into an anode of a molten carbonate fuel cell, an internal reforming element associated with the anode, or a combination thereof; introducing a cathode inlet stream comprising CO 2 and O 2 into a cathode of the molten carbonate fuel cell; generating electricity within the molten carbonate fuel cell, the molten carbonate fuel cell being operated at a fuel utilization of 60% or less; generating an anode exhaust comprising H 2, CO, and CO 2; separating, from at least a portion of the anode exhaust, a first H 2 -rich gas stream comprising at least 80 vol%, or at least 90% H 2; and combusting at least a portion of the first H 2 -rich gas stream to produce electricity.
A method for producing a package of products wrapped in a wrapping sheet, comprising the following steps: arranging a wrapping sheet on a plane; and positioning a group of products in front of the wrapping sheet; moving the group of products and the wrapping sheet towards each other, with a movement approximately orthogonal to the plane of the wrapping sheet, and wrapping lateral surfaces of the group of products in the wrapping sheet, leaving two opposite surfaces of the group of products free; the dimension of the wrapping sheet and the dimension of the group of products being such that flaps (L1, L2) of the wrapping sheet, wrapped around the group of products, protrude with respect to the group of products from each of said two opposite surfaces; folding said flaps (L1, L2) of the wrapping sheet against the two opposite surfaces of the group of products, thus completing wrapping of the group of products in the wrapping sheet; and supporting, by means of support members (41.1, 41.2), the flaps (L1, L2) of the wrapping sheet protruding from the group of products, during at least a part of the relative movement between the group of products and the wrapping sheet; characterized in that the support members comprise mechanical members (41.1, 41.2) adapted to support the wrapping sheet on the surface facing the group of products. arranging a wrapping sheet on a plane; and positioning a group of products in front of the wrapping sheet; moving the group of products and the wrapping sheet towards each other, with a movement approximately orthogonal to the plane of the wrapping sheet, and wrapping lateral surfaces of the group of products in the wrapping sheet, leaving two opposite surfaces of the group of products free; the dimension of the wrapping sheet and the dimension of the group of products being such that flaps (L1, L2) of the wrapping sheet, wrapped around the group of products, protrude with respect to the group of products from each of said two opposite surfaces; folding said flaps (L1, L2) of the wrapping sheet against the two opposite surfaces of the group of products, thus completing wrapping of the group of products in the wrapping sheet; and supporting, by means of support members (41.1, 41.2), the flaps (L1, L2) of the wrapping sheet protruding from the group of products, during at least a part of the relative movement between the group of products and the wrapping sheet;
A waveguide power divider device comprising: four two-port orthomode junctions arranged with their common waveguides extending in parallel, wherein the two ports of each orthomode junction extend in orthogonal directions; four E-plane T-junctions, wherein each T-junction couples two of the four orthomode junctions to each other via respective ones of their ports; a four-port turnstile junction, wherein waveguides of the four ports are bent to extend in parallel to an extension direction of the common waveguide of the turnstile junction; and four waveguide twists, wherein each waveguide twist couples a common waveguide of a respective one of the T-junctions to the waveguide of a respective one of the ports of the turnstile junction, with the broad walls of the common waveguide of the T-junction and of the waveguide of the port of the turnstile junction being orthogonal to each other, wherein the waveguide twists are arranged to interlock with each other. four two-port orthomode junctions arranged with their common waveguides extending in parallel, wherein the two ports of each orthomode junction extend in orthogonal directions; four E-plane T-junctions, wherein each T-junction couples two of the four orthomode junctions to each other via respective ones of their ports; a four-port turnstile junction, wherein waveguides of the four ports are bent to extend in parallel to an extension direction of the common waveguide of the turnstile junction; and four waveguide twists, wherein each waveguide twist couples a common waveguide of a respective one of the T-junctions to the waveguide of a respective one of the ports of the turnstile junction, with the broad walls of the common waveguide of the T-junction and of the waveguide of the port of the turnstile junction being orthogonal to each other, wherein the waveguide twists are arranged to interlock with each other.
A fuel cell stack comprising: cell modules comprising at least two layered fuel cell unit cells in which a membrane electrode assembly formed integrally with an electrically insulating frame 30 is sandwiched between a pair of separators 51, 52, bonding members 70 for joining outer circumferential sections of adjacent frames in the cell modules; an inter-cell module seal member 80 disposed between the cell modules and forming a seal between the cell modules; and supporting members 90 disposed between adjacent frames in the cell modules; projecting sections 32 being formed on both sides of the outer circumferential sections of the frame with respect to the layering direction, the bonding members being disposed between the projecting sections, and the supporting members being disposed between frame sections positioned further inward than the projecting sections; the supporting members 90 overlapping at least a part of a section of the inter-cell module seal member 80 that contacts the cell modules as viewed from above in the direction in which the cell modules are layered. cell modules comprising at least two layered fuel cell unit cells in which a membrane electrode assembly formed integrally with an electrically insulating frame 30 is sandwiched between a pair of separators 51, 52, bonding members 70 for joining outer circumferential sections of adjacent frames in the cell modules; an inter-cell module seal member 80 disposed between the cell modules and forming a seal between the cell modules; and supporting members 90 disposed between adjacent frames in the cell modules; projecting sections 32 being formed on both sides of the outer circumferential sections of the frame with respect to the layering direction, the bonding members being disposed between the projecting sections, and the supporting members being disposed between frame sections positioned further inward than the projecting sections; the supporting members 90 overlapping at least a part of a section of the inter-cell module seal member 80 that contacts the cell modules as viewed from above in the direction in which the cell modules are layered.
A hemostatic clamp, comprising a fixed mount, two clamping pieces and a ball head pull rod, the two clamping pieces being oppositely disposed at a front end of the fixed mount, the ball head pull rod comprising a pull rod and a ball head disposed at a front end of the pull rod, and the ball head pull rod being configured to drive opening and closing of the two clamping pieces, wherein a fixing pin respectively passes through sliding slots disposed in the middle of the two clamping pieces and limits the two clamping pieces; the fixing pin is configured to be slidable along the sliding slots, and the two clamping pieces are configured to rotate around the fixing pin; and rear ends of the two clamping pieces are respectively provided with a hemispherical shell-shaped connecting portion where the ball head pull rod is configured to drive opening and closing of the two clamping pieces as the ball head reciprocates in an up-down direction, enabling the rear ends of the two clamping pieces to open and close, characterised in that, the hemostatic clamp also comprise a plastic sleeve and a steel sleeve, the plastic sleeve and the steel sleeve being disposed on a lower portion of an inner cavity of the fixed mount, the plastic sleeve being disposed between the steel sleeve and an inner wall of the fixed mount; the ball head pull rod passing through the steel sleeve; and after the ball head pull rod is separated from the clamping pieces, by pulling the ball head pull rod rearward, the ball head driving the steel sleeve to slide out of the plastic sleeve.
Method of processing a surface for additive manufacturing comprising the steps of: - assembling a structure for a component by additive manufacturing out of a bed of a powdery base material, such that the structure is provided with an internal surface and the powdery base material covers at least a part of the internal surface, and - actuating the base material relatively to the structure such that the internal surface is mechanically processed by the base material, wherein the structure comprises a cavity being defined by the internal surface, wherein the base material is retained in the cavity, wherein, for this actuation, the cavity is closed and wherein, after this actuation, the base material is removed from the cavity, and, wherein the base material is firstly actuated at a first frequency and, after this first actuation of the base material, the base material is actuated at a second frequency being different from the first frequency, wherein the second frequency is chosen such that the base material is removed from the cavity. - assembling a structure for a component by additive manufacturing out of a bed of a powdery base material, such that the structure is provided with an internal surface and the powdery base material covers at least a part of the internal surface, and - actuating the base material relatively to the structure such that the internal surface is mechanically processed by the base material, wherein the structure comprises a cavity being defined by the internal surface, wherein the base material is retained in the cavity, wherein, for this actuation, the cavity is closed and wherein, after this actuation, the base material is removed from the cavity, and, wherein the base material is firstly actuated at a first frequency and, after this first actuation of the base material, the base material is actuated at a second frequency being different from the first frequency, wherein the second frequency is chosen such that the base material is removed from the cavity.