mhurhangee/ep-ind-claims huggingface dataset:
An atomizer, comprising: a housing; a liquid chamber defined in the housing, the liquid chamber being configured for storing tobacco liquid; a heating assembly in the housing, the heating assembly including a liquid conducting body and a heating element, the liquid conducting body being configured for absorbing the tobacco liquid from the liquid chamber, the heating element being in contact with the liquid conducting body, the heating element being configured for heating the tobacco liquid to form aerosol; an air passage allowing the aerosol to flow out of the atomizer; and two electrodes (131, 132) arranged at one end of the housing, the two electrodes (131, 132) being electrically connected to two opposite ends of the heating element; wherein the atomizer further comprises a temperature sensor configured for sensing a temperature of the heating assembly; characterized in that the liquid conducting body defines a through hole extending axially, and the temperature sensor is arranged in a middle of the through hole. a housing; a liquid chamber defined in the housing, the liquid chamber being configured for storing tobacco liquid; a heating assembly in the housing, the heating assembly including a liquid conducting body and a heating element, the liquid conducting body being configured for absorbing the tobacco liquid from the liquid chamber, the heating element being in contact with the liquid conducting body, the heating element being configured for heating the tobacco liquid to form aerosol; an air passage allowing the aerosol to flow out of the atomizer; and two electrodes (131, 132) arranged at one end of the housing, the two electrodes (131, 132) being electrically connected to two opposite ends of the heating element; wherein the atomizer further comprises a temperature sensor configured for sensing a temperature of the heating assembly; characterized in that the liquid conducting body defines a through hole extending axially, and the temperature sensor is arranged in a middle of the through hole.
A sports car comprising a cockpit provided with a windscreen that delimits the cockpit, the windscreen being supported by a peripheral frame of high-resistance material comprising an upper crossbeam at the top, a lower crossbeam at the bottom and a pair of front side uprights connecting said upper and lower crossbeams (TVS, TV), the windscreen comprising a front central upright arranged between said pair of front side uprights to connect said upper and lower crossbeams (TVS, TV); the sports car being characterized in that it further comprises a conditioning system comprising a conditioning device for treating environmental air, a first inner channel (Cout) for delivering conditioned air generated by said conditioning device to the vehicle cockpit, the car comprising a roof in which said first inner channel (Cout) is at least partially integrated and wherein said front central upright and said first inner channel (Cout) define a single component for reinforcing said cockpit.
A catheter for selective cutting within blood vessels, wherein said catheter comprises: a pulsed laser coupled to a plurality of optical fibers, such that a flux of energy is emitted from said fibers, and an inner tube and an outer tube acting as boundaries to said plurality of fibers, each of said tubes having a blunt distal edge in the same axial plane as the output end of said plurality of fibers, such that when a distal force is applied to said catheter, said blunt distal edges push through atheromatous material in said blood vessel in the region where said flux of energy is emitted from said fibers; wherein the wavelength of said pulsed laser is between 320 nm and 420 nm; the catheter being characterised in that: the ratio of the total core area from which said flux of energy is emitted to the total distal tip area of said catheter is in the range of 25%-50%, and an effective wall thickness of said catheter is in the range of 200μm-400 μm. the ratio of the total core area from which said flux of energy is emitted to the total distal tip area of said catheter is in the range of 25%-50%, and an effective wall thickness of said catheter is in the range of 200μm-400 μm.
A melting kneading devolatilizing extruder, comprising: two screws that are rotatably inserted into a cylinder capable of being heated and cooled, wherein each screw comprises, sequentially from an upstream side that is a supply side for a resin raw material, an upstream seal portion allowing the resin raw material to be supplied thereto from the outside and allowing the resin raw material to be filled thereinto; a devolatilization region where the resin raw material is devolatilized; and a downstream seal portion allowing the resin raw material to be filled thereinto, wherein the devolatilization region comprises a surface renewal region, which allows the resin raw material to be kneaded therein, and which allows an inner part of the resin raw material that is not exposed to ambient air to be exposed to ambient air, is provided, wherein the surface renewal region comprises at least one surface renewable screw segment, each of which includes a plurality of discs characterized in that the discs are arrayed such that a phase angle E, which is a deviation angle between the discs around an axis of the screw, is 0°<E<90°, the surface renewable screw segment comprises a void portion between the discs so that the discs are arranged at intervals in a direction of the axis of the screw, the void portion is a ring-shaped member and an external diameter of the void portion is equal to or less than the short diameter (d) of the discs. two screws that are rotatably inserted into a cylinder capable of being heated and cooled, wherein each screw comprises, sequentially from an upstream side that is a supply side for a resin raw material, an upstream seal portion allowing the resin raw material to be supplied thereto from the outside and allowing the resin raw material to be filled thereinto; a devolatilization region where the resin raw material is devolatilized; and a downstream seal portion allowing the resin raw material to be filled thereinto, wherein the devolatilization region comprises a surface renewal region, which allows the resin raw material to be kneaded therein, and which allows an inner part of the resin raw material that is not exposed to ambient air to be exposed to ambient air, is provided, wherein the surface renewal region comprises at least one surface renewable screw segment, each of which includes a plurality of discs characterized in that the discs are arrayed such that a phase angle E, which is a deviation angle between the discs around an axis of the screw, is 0°<E<90°, the surface renewable screw segment comprises a void portion between the discs so that the discs are arranged at intervals in a direction of the axis of the screw, the void portion is a ring-shaped member and an external diameter of the void portion is equal to or less than the short diameter (d) of the discs.
An automotive air-conditioning system comprising: • an electronic control unit programmed to store different user-selectable operating profiles for the air-conditioning system, each of which is defined by corresponding air temperature, air flow rate and air distribution in the passenger compartment; and • a human-machine interface configured to allow a user to select one of the stored operating profiles; wherein the electronic control unit is further programmed to automatically control the air-conditioning system operation based on the selected operating profile; wherein the stored operating profiles comprise: • one or more factory operating profiles, and • one or more user operating profiles, each associated to a corresponding user; wherein the factory operating profiles comprise: • an automatic operating profile; and • non-modifiable operating profiles; wherein, in response to the selection of the automatic operating profile, the electronic control unit is further programmed to determine comfort air-conditioning conditions in the passenger compartment based on physical quantities comprising one or more among internal air temperature, outside air temperature, air vent air temperature, internal air humidity and solar radiation, and to control the operation of the air-conditioning system accordingly; wherein the human-machine interface is further configured to allow a user to select a user operating profile category and, within the category, one of the user operating profiles; characterized in that the human-machine interface comprises: • a selection knob configured to assume different selection positions, wherein a selection position is associated with the user operating profile category, a selection position is associated with the automatic operating profile, and other selection positions are associated with corresponding non-modifiable operating profiles; and • selection and activation buttons and/or a voice recognition system to select a user operating profile within the user operating profile category. • an electronic control unit programmed to store different user-selectable operating profiles for the air-conditioning system, each of which is defined by corresponding air temperature, air flow rate and air distribution in the passenger compartment; and • a human-machine interface configured to allow a user to select one of the stored operating profiles; • one or more factory operating profiles, and • one or more user operating profiles, each associated to a corresponding user; • an automatic operating profile; and • non-modifiable operating profiles; • a selection knob configured to assume different selection positions, wherein a selection position is associated with the user operating profile category, a selection position is associated with the automatic operating profile, and other selection positions are associated with corresponding non-modifiable operating profiles; and • selection and activation buttons and/or a voice recognition system to select a user operating profile within the user operating profile category.
Method for determining the speed of a vehicle, objects (310, 320, 330, 340, 350, 360) in the environment of the vehicle being detected and their relative speeds with respect to the vehicle being measured, and the speed of the vehicle being determined using the relative speeds (311, 321, 331, 341, 351, 361) of the objects (310, 320, 330, 340, 350, 360), characterized in that an individual probability of the object being a stationary object is determined for each of the detected objects (310, 320, 330, 340, 350, 360), only those objects (310, 320, 330, 340, 350, 360) with the highest probability being taken into account when determining the speed of the vehicle.
Packaging bag having the general shape of an envelope comprising a rear face, a front face, an upper gusset and a flap, the said upper gusset, the flap and the front face being integral, the front face being provided with a dispensing opening which can be closed by the said flap, characterized in that the upper edges (4a, 6a) of the rear and front faces are sealed on the inner layer of an upper gusset, and in that the upper edge of the front face has at least one cutout through which at least a part of the inner layer of the upper edge of the flap is sealed on a part of the inner layer of the upper gusset.
A heat recovery steam generator, comprising: a gas inlet for receiving a flow of exhaust gas from a gas turbine; a gas outlet opposite the gas inlet; and at least one heat exchanger intermediate the gas inlet and the gas outlet, the heat exchanger having a plurality of heat transfer surfaces configured to transfer heat from the exhaust gas to a fluid within the heat exchanger; wherein a circulation of the fluid through said at least one heat exchanger of the heat recovery steam generator defines a water/steam cycle; characterized in a valve associated with the heat exchanger and the water/steam cycle and configured to regulate a flow of the fluid through the heat exchanger; wherein the valve is controllable to any position between an open position and a closed position to decrease the flow of the fluid through the heat exchanger in order to effect an increase in a temperature of the heat transfer surfaces of the heat exchanger to clean the heat transfer surfaces. a gas inlet for receiving a flow of exhaust gas from a gas turbine; a gas outlet opposite the gas inlet; and at least one heat exchanger intermediate the gas inlet and the gas outlet, the heat exchanger having a plurality of heat transfer surfaces configured to transfer heat from the exhaust gas to a fluid within the heat exchanger; wherein a circulation of the fluid through said at least one heat exchanger of the heat recovery steam generator defines a water/steam cycle; characterized in a valve associated with the heat exchanger and the water/steam cycle and configured to regulate a flow of the fluid through the heat exchanger; wherein the valve is controllable to any position between an open position and a closed position to decrease the flow of the fluid through the heat exchanger in order to effect an increase in a temperature of the heat transfer surfaces of the heat exchanger to clean the heat transfer surfaces.
An energy supply unit for supplying a load with electrical energy from an energy source, particularly an electrical grid, comprising - a power supply connector for electrically connecting the energy source, - a load connector for electrically connecting the load to be supplied, - a primary power converter comprising a converter for converting and transmitting the energy from the power supply connector to the load connector and an auxiliary circuit part for detecting at least one operating parameter of the primary power converter and/or for controlling the converter, wherein the auxiliary circuit part has a primary-side energy supply which is provided by a primary-side converter voltage that is supplied to the converter, - at least one secondary power converter, connected to the power supply connector in parallel to the primary power converter, for providing auxiliary energy on the secondary-side, and - a control unit, which is electrically supplied with the auxiliary energy provided by the secondary power converter and which is electrically connected via an information path to the auxiliary circuit part in an information-transmitting manner, in order to control the primary power converter depending on the transmitted information, wherein the control unit is configured, in an energy transmission mode of the energy supply unit, to cause an electrically effective connection of the converter to the power supply connector and also to provide the primary-side energy supply to the auxiliary circuit part and, in a standby mode of the energy supply unit, having reduced-consumption compared to the energy transmission mode, to cause an electrically effective disconnection of the converter from the power supply connector and also to interrupt the primary-side energy supply of the auxiliary circuit part. - a power supply connector for electrically connecting the energy source, - a load connector for electrically connecting the load to be supplied, - a primary power converter comprising a converter for converting and transmitting the energy from the power supply connector to the load connector and an auxiliary circuit part for detecting at least one operating parameter of the primary power converter and/or for controlling the converter, wherein the auxiliary circuit part has a primary-side energy supply which is provided by a primary-side converter voltage that is supplied to the converter, - at least one secondary power converter, connected to the power supply connector in parallel to the primary power converter, for providing auxiliary energy on the secondary-side, and - a control unit, which is electrically supplied with the auxiliary energy provided by the secondary power converter and which is electrically connected via an information path to the auxiliary circuit part in an information-transmitting manner, in order to control the primary power converter depending on the transmitted information,
A method for welding a plastic housing comprising two housing parts (1,2) along a circumferential edge of both housing parts, wherein an electronic printed circuit board is arranged in the housing, characterized in that a) the plastic melt (2.4) produced along the circumferential edge of both housing parts during welding reaches a peripheral zone of the printed circuit board, and b) the printed circuit board is fixed in the housing after cool-down, wherein c) the housing parts (1,2) are pressed against each other during welding, and d) an excess dimension is provided in the welding area between the housing parts (1,2) prior to welding, and e) welding is not finished until a predefined counteracting force is reached or a predefined pressing path of the housing parts (1,2) to each other has been covered. a) the plastic melt (2.4) produced along the circumferential edge of both housing parts during welding reaches a peripheral zone of the printed circuit board, and b) the printed circuit board is fixed in the housing after cool-down, wherein c) the housing parts (1,2) are pressed against each other during welding, and d) an excess dimension is provided in the welding area between the housing parts (1,2) prior to welding, and e) welding is not finished until a predefined counteracting force is reached or a predefined pressing path of the housing parts (1,2) to each other has been covered.
A method of a user equipment, in the following also referred to as UE, capable of performing UE beamforming, the method comprising: receiving, by a UE, a first configuration or a first scheduling to request the UE to perform a first Uplink, in the following also referred to as UL, transmission on a first UE beam, wherein the first UL transmission is to be performed in a first time unit; and receiving, by the UE, a second configuration or a second scheduling to request the UE to perform a second UL transmission on a second UE beam, wherein the second UL transmission is to be performed in a second time unit; characterized by further comprising: performing, by the UE, the first UL transmission and the second UL transmission on the first UE beam if the second time unit is at least partially overlapped with the first time unit, wherein the second UL transmission on the first UE beam is performed on the same channel or the same signal as when the second UL transmission is performed on the second UE beam. receiving, by a UE, a first configuration or a first scheduling to request the UE to perform a first Uplink, in the following also referred to as UL, transmission on a first UE beam, wherein the first UL transmission is to be performed in a first time unit; and receiving, by the UE, a second configuration or a second scheduling to request the UE to perform a second UL transmission on a second UE beam, wherein the second UL transmission is to be performed in a second time unit; characterized by further comprising: performing, by the UE, the first UL transmission and the second UL transmission on the first UE beam if the second time unit is at least partially overlapped with the first time unit, wherein the second UL transmission on the first UE beam is performed on the same channel or the same signal as when the second UL transmission is performed on the second UE beam.
Method for treating a spent catalyst containing at least one refractory mineral oxide, one or more metals in the form of sulfide(s) chosen from the following metals: molybdenum, nickel, cobalt, tungsten, vanadium, as well as carbon compounds, this method comprising the following successive steps: a) in a smelting furnace of the rotary converter type, preparing a melt of cast iron in the melted state above which there is a layer of slag; then b) introducing into the furnace said spent catalyst and placing it in contact with the slag and the melt of cast iron in the melted state, while maintaining the furnace in rotation and while injecting an oxidizing gas containing oxygen into the furnace, above the mixture of catalyst, slag and cast iron, in such a way as to cause the combustion of the carbon and/or sulfur compounds which are released from the catalyst in contact with the slag and the liquid cast iron; then c) extracting from the furnace by sequential castings the slag formed in step b) in such a way as to on the one hand recover in the furnace a cast iron melt enriched with metal or metals, and on the other hand recover a slag containing the components of the catalyst other than metals, with the exception of vanadium which, when the spent catalyst contains vanadium, ends up in the slag. a) in a smelting furnace of the rotary converter type, preparing a melt of cast iron in the melted state above which there is a layer of slag; then b) introducing into the furnace said spent catalyst and placing it in contact with the slag and the melt of cast iron in the melted state, while maintaining the furnace in rotation and while injecting an oxidizing gas containing oxygen into the furnace, above the mixture of catalyst, slag and cast iron, in such a way as to cause the combustion of the carbon and/or sulfur compounds which are released from the catalyst in contact with the slag and the liquid cast iron; then c) extracting from the furnace by sequential castings the slag formed in step b) in such a way as to on the one hand recover in the furnace a cast iron melt enriched with metal or metals, and on the other hand recover a slag containing the components of the catalyst other than metals, with the exception of vanadium which, when the spent catalyst contains vanadium, ends up in the slag.
A drape attachment adapted for using with a surgical drape, said attachment comprising: - a separable multilayer film having at least one internal layer and an external layer, the internal layer having lower mechanical resistance than the external layer, such that the internal layer breaks or tears before the external layer during traction force exerted on the multilayer film in a direction normal to the direction of extension of said layers (22a, 22b), and - a layer of adhesive, fixed to the internal layer of the separable film, said layer of adhesive having greater resistance to peeling than the mechanical resistance of the internal layer of the separable film. - a separable multilayer film having at least one internal layer and an external layer, the internal layer having lower mechanical resistance than the external layer, such that the internal layer breaks or tears before the external layer during traction force exerted on the multilayer film in a direction normal to the direction of extension of said layers (22a, 22b), and - a layer of adhesive, fixed to the internal layer of the separable film, said layer of adhesive having greater resistance to peeling than the mechanical resistance of the internal layer of the separable film.
A self-stabilizing, full-moment-resistant, inner and outer, collar-form, elongate-upright-column/horizontal elongate-beam interconnect structure for use in a building, comprising an inner, collar-form column-attachable member possessing plural interconnection bearing faces (54, 56, 58, 60), and an outer, collar-form beam-end-attachable member possessing plural interconnection bearing faces (62, 64, 66, 68), characterized in that said inner and outer members (50, 52) are constructed for seated interconnection in a manner whereby said outer member circumsurrounds said inner member, and gravity causes their respective bearing faces (54, 56, 58, 60; 62, 64, 66, 68) to seat self-seekingly and complementarily relative to one another in confronting, bearing-face opposition, thereby to establish nominal, three-dimensional, positional and moment-resistant stability between the two members (50, 52) without the requirement for any other interconnecting structure.