mhurhangee/ep-ind-claims huggingface dataset:
An atomizer of an aerosol generating device, characterized in comprising: a shell, inside which a liquid storage chamber configured for storing an atomized liquid is formed, wherein the liquid storage chamber comprises an outlet, an aerosol channel extending along the longitudinal direction of the shell is formed inside the shell, the aerosol channel comprises an inlet and an air outlet, and the air outlet is located on one end of the shell; an atomizing core, which is accommodated in the shell, wherein the outlet of the liquid storage chamber is communicated with a liquid absorption surface of the atomizing core, an atomizing surface of the atomizing core is communicated with the aerosol channel, and the atomizing core comprises an organic porous material which is, at least in part, made of a melamine resin porous material; a fixing element, which is configured for fixing the atomizing core and the shell; a heating body, which is in contact with or adjacent to the atomizing surface; and an electrode (10, 11), which is configured for connecting to the heating body and enabling the heating body to receive an electric power. a shell, inside which a liquid storage chamber configured for storing an atomized liquid is formed, wherein the liquid storage chamber comprises an outlet, an aerosol channel extending along the longitudinal direction of the shell is formed inside the shell, the aerosol channel comprises an inlet and an air outlet, and the air outlet is located on one end of the shell; an atomizing core, which is accommodated in the shell, wherein the outlet of the liquid storage chamber is communicated with a liquid absorption surface of the atomizing core, an atomizing surface of the atomizing core is communicated with the aerosol channel, and the atomizing core comprises an organic porous material which is, at least in part, made of a melamine resin porous material; a fixing element, which is configured for fixing the atomizing core and the shell; a heating body, which is in contact with or adjacent to the atomizing surface; and an electrode (10, 11), which is configured for connecting to the heating body and enabling the heating body to receive an electric power.
A dry powder inhaler comprising a body that is substantially cylindrical and that defines a dispersion chamber, said body including, on its cylindrical wall, a mouthpiece that defines a dispenser orifice, said body being provided, at its first axial end portion, with a knurled wheel that is mounted to turn on said body, said knurled wheel including a loading opening for receiving a capsule containing a dose of dry powder, said body being provided, at its second axial end portion, with a stopper that is mounted in removable manner on said body, said body including at least one opening profile (312, 313) that is adapted to open a capsule inserted in said loading opening when said knurled wheel is turned relative to said body, the inhaler being characterized in that said knurled wheel includes a cap that is mounted in stationary manner on said body such that said knurled wheel also turns relative to said cap, said body including a central hollow sleeve that co-operates with a snap-fastener profile of a central pin of the cap for fastening said cap to said body, said central hollow sleeve being fastened to the cylindrical wall of the body via two spacers (312, 313) that form a capsule-opening profile, said capsule including a top capsule portion and a bottom capsule portion, said two capsule portions being located in the dispersion chamber during inhalation, said cap including a projecting profile that is adapted to expel the top capsule portion from the loading opening of the knurled wheel into the dispersion chamber after said capsule has been opened by said opening profile (312, 313) of the body.
A method for implementing indirect general packet radio service (GPRS) tunneling protocol firewall filtering, the method comprising: using a signaling message routing node to dynamically populate an indirect GTP core (GTP-C) firewall filtering database with international mobile subscriber identifiers (IMSIs) and visited public land mobile network identifiers (VPLMN IDs) extracted from mobility management signaling messages for updating locations of outbound roaming subscribers; receiving a credit control request-initial (CCR-I) message generated in response to a GTP-C message; extracting an IMSI and a VPLMN ID from the CCR-I message; accessing the indirect GTP-C firewall filtering database using the IMSI extracted from the CCR-I message; determining that a record corresponding to the IMSI is present in the indirect GTP-C firewall filtering database; determining that a VPLMN ID in the record does not match the VPLMN ID extracted from the CCR-I message; and in response to determining that the VPLMN ID in the record does not match the VPLMN ID extracted from the CCR-I message, rejecting the CCR-I message. using a signaling message routing node to dynamically populate an indirect GTP core (GTP-C) firewall filtering database with international mobile subscriber identifiers (IMSIs) and visited public land mobile network identifiers (VPLMN IDs) extracted from mobility management signaling messages for updating locations of outbound roaming subscribers; receiving a credit control request-initial (CCR-I) message generated in response to a GTP-C message; extracting an IMSI and a VPLMN ID from the CCR-I message; accessing the indirect GTP-C firewall filtering database using the IMSI extracted from the CCR-I message; determining that a record corresponding to the IMSI is present in the indirect GTP-C firewall filtering database; determining that a VPLMN ID in the record does not match the VPLMN ID extracted from the CCR-I message; and in response to determining that the VPLMN ID in the record does not match the VPLMN ID extracted from the CCR-I message, rejecting the CCR-I message.
A dust collecting device comprising: a dust collecting case having a dust discharging port openable to discharge the collected dust; a discharge cover coupled to one side of the dust collecting case to open and close the dust discharging port; and a sealing member (230, 240, 250) provided to extend from an inner surface of the dust collecting case to a coupling surface of the dust collecting case while being in contact with the dust collecting case and thus to be sealed when the dust discharging port is closed, wherein the sealing member comprises a sealing portion (232, 233) provided to be in surface contact with the inner surface and the coupling surface; and a connection portion connected to the sealing portion (232, 233) and to vary a position of the sealing portion, wherein the sealing portion (232, 233) comprises: a first sealing portion configured to extend from the connection portion and provided to be in contact with an inner surface of the dust collecting case and thus to be sealed; and a second sealing portion configured to extend from one side of the first sealing portion and provided to be in contact with the coupling surface and thus to be sealed. a dust collecting case having a dust discharging port openable to discharge the collected dust; a discharge cover coupled to one side of the dust collecting case to open and close the dust discharging port; and a sealing member (230, 240, 250) provided to extend from an inner surface of the dust collecting case to a coupling surface of the dust collecting case while being in contact with the dust collecting case and thus to be sealed when the dust discharging port is closed, wherein the sealing member comprises a sealing portion (232, 233) provided to be in surface contact with the inner surface and the coupling surface; and a connection portion connected to the sealing portion (232, 233) and to vary a position of the sealing portion, wherein the sealing portion (232, 233) comprises: a first sealing portion configured to extend from the connection portion and provided to be in contact with an inner surface of the dust collecting case and thus to be sealed; and a second sealing portion configured to extend from one side of the first sealing portion and provided to be in contact with the coupling surface and thus to be sealed. a first sealing portion configured to extend from the connection portion and provided to be in contact with an inner surface of the dust collecting case and thus to be sealed; and a second sealing portion configured to extend from one side of the first sealing portion and provided to be in contact with the coupling surface and thus to be sealed.
A method of processing a flexographic printing blank to produce a relief image printing element capable of printing cleanly, the method comprising the steps of: a) providing a flexographic printing blank comprising: i) a support layer; ii) at least one photocurable layer disposed on the support layer, the at least one photocurable layer comprising a photocurable composition comprising: 1) at least one ethylenically unsaturated monomer; 2) at least one silicone monomer or oligomer; 3) at least one binder or oligomer; and 4) a photoinitiator; iii) a laser ablatable mask layer disposed on the at least one photocurable layer; b) laser ablating the laser ablatable mask layer to create an in situ negative in the laser ablatable mask layer; c) disposing a barrier layer on the laser ablatable mask layer; d) exposing the at least one photocurable layer to actinic radiation through the barrier layer and the laser ablatable mask layer to form an imaged and exposed flexographic printing blank; and e) developing the imaged and exposed flexographic printing blank to reveal the relief image therein, wherein the relief image comprises a plurality of relief printing dots; wherein the resulting flexographic relief image printing element is mountable in a printing press and is capable of printing cleanly and of resisting paper fibers, dust and ink during a print run when mounted in the printing press. a) providing a flexographic printing blank comprising: i) a support layer; ii) at least one photocurable layer disposed on the support layer, the at least one photocurable layer comprising a photocurable composition comprising: 1) at least one ethylenically unsaturated monomer; 2) at least one silicone monomer or oligomer; 3) at least one binder or oligomer; and 4) a photoinitiator; iii) a laser ablatable mask layer disposed on the at least one photocurable layer; i) a support layer; ii) at least one photocurable layer disposed on the support layer, the at least one photocurable layer comprising a photocurable composition comprising: 1) at least one ethylenically unsaturated monomer; 2) at least one silicone monomer or oligomer; 3) at least one binder or oligomer; and 4) a photoinitiator; 1) at least one ethylenically unsaturated monomer; 2) at least one silicone monomer or oligomer; 3) at least one binder or oligomer; and 4) a photoinitiator; iii) a laser ablatable mask layer disposed on the at least one photocurable layer; b) laser ablating the laser ablatable mask layer to create an in situ negative in the laser ablatable mask layer; c) disposing a barrier layer on the laser ablatable mask layer; d) exposing the at least one photocurable layer to actinic radiation through the barrier layer and the laser ablatable mask layer to form an imaged and exposed flexographic printing blank; and e) developing the imaged and exposed flexographic printing blank to reveal the relief image therein, wherein the relief image comprises a plurality of relief printing dots;
A fuel system for a gas turbine engine, the gas turbine engine comprising a combustor having a pilot fuel injector and a main fuel injector, the fuel system comprising: a first variable flow fuel pump configured to provide metered fuel flow to the pilot injector, and a second variable flow fuel pump configured to provide a metered fuel flow to the main injector; and first and second variable speed electric motors (154, 156) configured to drive respective first and second fuel pumps (150, 152); wherein each of the electric motors (154, 156) comprises a polyphase motor (154, 156) comprising a stator having concentrated windings, characterised in that each motor (154, 156) comprises at least first and second electrically isolated sets of polyphase stator windings (310, 312), the first and second stator windings (310, 312) of each electrical motor (154, 156) being configured to drive a common rotor, and each set of polyphase stator windings (310, 312) comprising three electrical phases. a first variable flow fuel pump configured to provide metered fuel flow to the pilot injector, and a second variable flow fuel pump configured to provide a metered fuel flow to the main injector; and first and second variable speed electric motors (154, 156) configured to drive respective first and second fuel pumps (150, 152); wherein each of the electric motors (154, 156) comprises a polyphase motor (154, 156) comprising a stator having concentrated windings, characterised in that each motor (154, 156) comprises at least first and second electrically isolated sets of polyphase stator windings (310, 312), the first and second stator windings (310, 312) of each electrical motor (154, 156) being configured to drive a common rotor, and each set of polyphase stator windings (310, 312) comprising three electrical phases.
A method of handling a slag pot or ladle comprising an inner wall and an outer wall, said method comprising the steps of a) collecting a slag in said slag pot or ladle of a pyro-metallurgical tool, b) transporting said slag pot or ladle from said pyro-metallurgical tool to a slag drop-off site, typically a landfill site, c) emptying said pot or ladle at said slag drop-off site, typically at the landfill site to dispose of the slag contained therein, d) spraying a mineral suspension onto said inner wall of said slag pot or ladle, prior to at least one step of said collection of said slag, so as to line said inner wall with a mineral layer, and e) putting into service of said slag pot or ladle lined with said mineral layer for the purpose of collecting slag a), characterised in that said mineral layer is a thin layer coated on the inner wall having a layer thickness of between 0.1 and 5 mm, preferably between 0.15 and 3 mm, more preferably between 0.2 and 2 mm, in particular between 0.5 and 1 mm, and in that said mineral suspension comprises an aqueous phase, a mineral phase and optionally additives, said mineral suspension having a carbohydrate content of between 0.2 and 3%, preferably between 0.4 and 2%, more preferably between 0.5 and 1.5%, even more advantageously between 0.5% and 1% by weight with respect to the total weight of said mineral suspension. a) collecting a slag in said slag pot or ladle of a pyro-metallurgical tool, b) transporting said slag pot or ladle from said pyro-metallurgical tool to a slag drop-off site, typically a landfill site, c) emptying said pot or ladle at said slag drop-off site, typically at the landfill site to dispose of the slag contained therein, d) spraying a mineral suspension onto said inner wall of said slag pot or ladle, prior to at least one step of said collection of said slag, so as to line said inner wall with a mineral layer, and e) putting into service of said slag pot or ladle lined with said mineral layer for the purpose of collecting slag a),
A socket for a hip joint endoprosthesis, wherein the socket has a porous implant surface for bonding to surrounding bone material, and wherein the socket is made from monolithic material, said material is a composite material and the composite material comprises a polymer as well as a reinforcement including a metal, a ceramic, a graphite or a second polymer of higher strength to adapt an elasticity modulus of the material to the values of a spongy bone material, characterized in that the socket is provided to form a sliding pairing with a natural or artificial joint ball via a ceramic inlay, and in that the implant surface is made from individual particles of titanium or calcium phosphate.
System for reducing load and frequency variations in the power distribution of a dynamically positioned vessel, the system comprising a consumer load control being connected to at least one power generator and at least one thruster, the consumer load control being adapted to monitor the available power in the system from said at least one power generator and the power consumption from said at least one thruster as well as other power consumers in the system, and a dynamic positioning unit monitoring the position of the vessel and including a thrust allocation logic calculating the required thruster capacity for maintaining a predetermined position, characterised in that the DP unit is adapted to define an acceptable window for variations in said position relative to the predetermined position and communicate this to said consumer load control, and said consumer load control is adapted to adjust the power provided to said thruster to compensate for load variations on other consumers in the power distribution in order to reduce total load variations depending on the available power and on the position of the vessel relative to said window defined by the dynamic positioning unit, said consumer load control being further adapted to communicate thruster load reduction to said thrust allocation logic, and the thrust allocation logic being adapted to convert the thruster load reduction to a feed forward force, said feed forward force being used for calculating the required thruster capacity.
Set for joint construction of traffic areas that can be driven on and are made of concrete slabs (1, 2, 3) which can be produced on site, comprising end frames (6, 7, 36) for surrounding adjacent concrete slabs (1, 2, 3), which end frames each have a substantially vertical central leg (8, 41) that is specific for covering the vertical end faces of the concrete slabs (1, 2, 3) and transitions at the top into a horizontal upper end leg (9, 42, 43) and transitions at the bottom into a likewise horizontal lower base leg (10, 44, 45), the end frames (6, 7, 36) each being provided with a horizontal, lateral claw groove in the upper region of the central leg (8, 41) when in the installed state in the vicinity of the surface of the concrete slab (1, 2, 3) that can be driven on, the open sides of the claw grooves of adjacent concrete slabs (1, 2, 3) being opposite one another in the installed state at a distance from a joint width of a joint chamber provided between the concrete slabs (1, 2, 3), further comprising an expansion joint profile seal (21, 37) in the form of a hollow chamber profile, characterised by two anchoring lips protruding to the side in profile such that, in section, the expansion joint profile seal (21, 37) is designed to have an arrow-shaped tip such that pressing the tip from above into the joint chamber causes the anchoring lips to be compressed between two end frames (6, 7, 36) in the installed state such that said lips engage from the side in the claw grooves of said end frames such that the joint chamber is covered by the expansion joint profile seal (21, 37) in the installed state so as to be flush with the surface, which can be driven on, of the upper end leg (9, 42, 43) of the concrete slabs (1, 2, 3).
A transmission device that transmits or receives synchronous data used to perform synchronization of a clock through a transmission path having a variable transmission band, characterized by comprising: a transmission band acquiring unit configured to acquire a current transmission band in the transmission path; a calculating unit configured to calculate a time necessary until the synchronous data is received after the synchronous data is transmitted through the transmission path based on the transmission band, and add the calculated time and a staying time, Tt -Tr, of the synchronous data in its own device to delay information, Td, recorded in the synchronous data, thereby calculating new delay information, Tn; and a transmitting unit configured to write the new delay information, Tn, calculated by the calculating unit to the synchronous data, and transmit the synchronous data. a transmission band acquiring unit configured to acquire a current transmission band in the transmission path; a calculating unit configured to calculate a time necessary until the synchronous data is received after the synchronous data is transmitted through the transmission path based on the transmission band, and add the calculated time and a staying time, Tt -Tr, of the synchronous data in its own device to delay information, Td, recorded in the synchronous data, thereby calculating new delay information, Tn; and a transmitting unit configured to write the new delay information, Tn, calculated by the calculating unit to the synchronous data, and transmit the synchronous data.
A medical tube comprising: a first segment of the medical tube comprising: a first structure forming a conduit configured to transport a humidified gas; and a first heater wire circuit; a second segment of the medical tube comprising: a second structure forming a conduit configured to transport the humidified gas; and a second heater wire circuit; and an intermediate connector comprising a connection circuit that couples the first heater wire circuit to the second heater wire circuit, the intermediate connector coupled to a patient end of the first segment of the medical tube and a chamber end of the second segment of the medical tube to form a single conduit for the humidified gas, characterised in that: at least a portion of the intermediate connector is internal to the medical tube and shielded from environmental conditions, and the connection circuit is configured to provide power to the first heater wire circuit without providing power to the second heater wire circuit in a first mode, and the connection circuit is configured to provide power to both the first heater wire circuit and the second heater wire circuit in a second mode. a first segment of the medical tube comprising: a first structure forming a conduit configured to transport a humidified gas; and a first heater wire circuit; a first structure forming a conduit configured to transport a humidified gas; and a first heater wire circuit; a second segment of the medical tube comprising: a second structure forming a conduit configured to transport the humidified gas; and a second heater wire circuit; and a second structure forming a conduit configured to transport the humidified gas; and a second heater wire circuit; and an intermediate connector comprising a connection circuit that couples the first heater wire circuit to the second heater wire circuit, the intermediate connector coupled to a patient end of the first segment of the medical tube and a chamber end of the second segment of the medical tube to form a single conduit for the humidified gas, characterised in that: at least a portion of the intermediate connector is internal to the medical tube and shielded from environmental conditions, and the connection circuit is configured to provide power to the first heater wire circuit without providing power to the second heater wire circuit in a first mode, and the connection circuit is configured to provide power to both the first heater wire circuit and the second heater wire circuit in a second mode. at least a portion of the intermediate connector is internal to the medical tube and shielded from environmental conditions, and the connection circuit is configured to provide power to the first heater wire circuit without providing power to the second heater wire circuit in a first mode, and the connection circuit is configured to provide power to both the first heater wire circuit and the second heater wire circuit in a second mode.