mhurhangee/ep-ind-claims huggingface dataset:
An electronic cigarette device comprising a vapor flow channel (105; 205; 305; 405) arranged to guide a generated vapor to a mouthpiece opening (118; 218; 318; 418), and a sensor (150; 250; 350; 450) arranged in the vapor flow channel to determine a temperature in the vapor flow channel at a position physically displaced from an atomizer (194; 294; 394; 494), and wherein the electronic cigarette device further comprises one or more processors; characterised in that the one or more processors are configured to: retrieve data from the sensor, the data comprising a measured temperature data set, wherein the measured temperature data set comprises one or more temperature measurements as a function of time; compare the measured temperature data set with predetermined temperature data, wherein the predetermined temperature data is indicative of the temperature of the vapor in the vapor flow channel of the electronic cigarette device at different fluid transfer element saturation levels; and determine and perform a further action based upon the comparison. retrieve data from the sensor, the data comprising a measured temperature data set, wherein the measured temperature data set comprises one or more temperature measurements as a function of time; compare the measured temperature data set with predetermined temperature data, wherein the predetermined temperature data is indicative of the temperature of the vapor in the vapor flow channel of the electronic cigarette device at different fluid transfer element saturation levels; and determine and perform a further action based upon the comparison.
Method for recovering metal and nonmetal elements from electronic scrap comprising one or more metal and one or more organic compounds, said method comprising: - a first phase of making the compounds of said electronic scrap electrically conductive in their entire volume without any metal losses, said first phase comprising the steps of: - placing said electronic scrap in an enclosure of a reactor, wherein said enclosure forms a Faraday cage; - introducing steam comprising reactive metal salts and heavy and/or semi heavy water within said enclosure; - applying micro-wave radiations within said enclosure in order to create low pressure plasma around said electronic scrap for disintegrating the organic compounds of said electronic scrap; - a second phase of separating metal and nonmetal elements from the compounds of said electronic scrap, said second phase comprising the steps of: - placing compounds of said electronic scrap processed in the first phase in an enclosure of a reactor, - introducing an electrolyte bath into said enclosure; - applying electrical voltage to an anode and a cathode located within said enclosure and applying micro-wave radiations within said enclosure. - a first phase of making the compounds of said electronic scrap electrically conductive in their entire volume without any metal losses, said first phase comprising the steps of: - placing said electronic scrap in an enclosure of a reactor, wherein said enclosure forms a Faraday cage; - introducing steam comprising reactive metal salts and heavy and/or semi heavy water within said enclosure; - applying micro-wave radiations within said enclosure in order to create low pressure plasma around said electronic scrap for disintegrating the organic compounds of said electronic scrap; - placing said electronic scrap in an enclosure of a reactor, wherein said enclosure forms a Faraday cage; - introducing steam comprising reactive metal salts and heavy and/or semi heavy water within said enclosure; - applying micro-wave radiations within said enclosure in order to create low pressure plasma around said electronic scrap for disintegrating the organic compounds of said electronic scrap; - a second phase of separating metal and nonmetal elements from the compounds of said electronic scrap, said second phase comprising the steps of: - placing compounds of said electronic scrap processed in the first phase in an enclosure of a reactor, - introducing an electrolyte bath into said enclosure; - applying electrical voltage to an anode and a cathode located within said enclosure and applying micro-wave radiations within said enclosure. - placing compounds of said electronic scrap processed in the first phase in an enclosure of a reactor, - introducing an electrolyte bath into said enclosure; - applying electrical voltage to an anode and a cathode located within said enclosure and applying micro-wave radiations within said enclosure.
A tape device comprising: a strip of tape having supply tape and take up tape; a spool portion; a supply spool for winding the supply tape, the supply spool is disposed at the spool portion; a take up spool for winding the take up tape, the take up spool portion is disposed at the spool portion; an applicator tip, the supply tape travels from the supply spool to the applicator tip, and the take up tape travels from the applicator tip to the take up spool; and a spool mechanism for allowing the supply and the take up spools (40 & 50) to rotate such that the tape travels from the supply spool, around the applicator tip, and to the take up spool, characterized in that the tape device further comprises a tape guiding mechanism for guiding the tape, and for preventing tape loosening; the tape guiding mechanism comprising: an application portion having an applicator head, the application portion is formed in a substantially flat shape occupying a single plane, and the tape travels around the application portion substantially on the single plane; a slit for allowing the supply tape to pass through, the slit is formed at a rear portion of the application portion; a slant connected to the rear end of the application portion, the slant bends downwards from the rear portion of the application portion to the spool portion and the slant causes the spool portion to locate the spools (40 & 50) in such a manner that the single plane of the application portion is substantially aligned with the plane between the spools (40 & 50). a strip of tape having supply tape and take up tape; a spool portion; a supply spool for winding the supply tape, the supply spool is disposed at the spool portion; a take up spool for winding the take up tape, the take up spool portion is disposed at the spool portion; an applicator tip, the supply tape travels from the supply spool to the applicator tip, and the take up tape travels from the applicator tip to the take up spool; and a spool mechanism for allowing the supply and the take up spools (40 & 50) to rotate such that the tape travels from the supply spool, around the applicator tip, and to the take up spool, an application portion having an applicator head, the application portion is formed in a substantially flat shape occupying a single plane, and the tape travels around the application portion substantially on the single plane; a slit for allowing the supply tape to pass through, the slit is formed at a rear portion of the application portion; a slant connected to the rear end of the application portion, the slant bends downwards from the rear portion of the application portion to the spool portion and the slant causes the spool portion to locate the spools (40 & 50) in such a manner that the single plane of the application portion is substantially aligned with the plane between the spools (40 & 50).
A method for providing a haptic effect from a portable terminal, the method comprising: in response to a first touch input on a shortcut icon displayed on a touch screen, executing an application; displaying an application screen of the application on the touch screen; when a local haptic environment setting is selected in an environment setting displayed on the application screen, displaying a local haptic environment setting screen, wherein the local haptic environment setting screen displays a representative image of the application in a size-reduced form and a local haptic environment setting menu including a region selection menu option for the user's designation of a local haptic region, a setting menu option for completion of a selection of the local haptic region, and a complete menu option for completing the local haptic environment setting; setting the selected area in the reduced representative image as a local haptic area, after the region selection menu is selected in the environment setting menu; setting the selected haptic pattern as the haptic pattern in the set local haptic area, after the setting menu is selected in the environment setting menu; when the complete menu option is selected, returning to an application mode from a local haptic environment setting mode; displaying an application screen of the application on the touch screen; detecting a second touch input in the local haptic region; and providing a haptic effect corresponding to the local haptic region in response to the second touch input. in response to a first touch input on a shortcut icon displayed on a touch screen, executing an application; displaying an application screen of the application on the touch screen; when a local haptic environment setting is selected in an environment setting displayed on the application screen, displaying a local haptic environment setting screen, wherein the local haptic environment setting screen displays a representative image of the application in a size-reduced form and a local haptic environment setting menu including a region selection menu option for the user's designation of a local haptic region, a setting menu option for completion of a selection of the local haptic region, and a complete menu option for completing the local haptic environment setting; setting the selected area in the reduced representative image as a local haptic area, after the region selection menu is selected in the environment setting menu; setting the selected haptic pattern as the haptic pattern in the set local haptic area, after the setting menu is selected in the environment setting menu; when the complete menu option is selected, returning to an application mode from a local haptic environment setting mode; displaying an application screen of the application on the touch screen; detecting a second touch input in the local haptic region; and providing a haptic effect corresponding to the local haptic region in response to the second touch input.
Hydrophilic powders or hydrophilic manufactured articles of E/CTFE and/or E/TFE thermoprocessable polymers, and/or of CTFE thermoprocessable polymers containing monomeric units deriving from at least one of the following monomers: - acrylic monomers of formula: CH 2 =CH-CO-O-R 2 wherein R 2 is a linear or branched C 1 -C 20 alkyl, or a cycloalkyl, optionally containing heteroatoms and/or chlorine atoms, - vinyl monomers of the carboxylic acid having formula: CH 2 =CH-O-CO-R 2 wherein R 2 is as above; wherein on the surface of the powder or of the manufactured article, one or more of the following units are present: -C(COOH)H-CH 2 -; -C(COOM)H-CH 2 -; -C(OCOOH)H-CH 2 -; -C(OCOOM)H-CH 2 -; with M = alkaline ion. - acrylic monomers of formula: CH 2 =CH-CO-O-R 2 wherein R 2 is a linear or branched C 1 -C 20 alkyl, or a cycloalkyl, optionally containing heteroatoms and/or chlorine atoms, - vinyl monomers of the carboxylic acid having formula: CH 2 =CH-O-CO-R 2 wherein R 2 is as above; wherein on the surface of the powder or of the manufactured article, one or more of the following units are present: -C(COOH)H-CH 2 -; -C(COOM)H-CH 2 -; -C(OCOOH)H-CH 2 -; -C(OCOOM)H-CH 2 -; with M = alkaline ion. -C(COOH)H-CH 2 -; -C(COOM)H-CH 2 -; -C(OCOOH)H-CH 2 -; -C(OCOOM)H-CH 2 -;
Process for molding and filling of containers made of plastic, in which preforms are reshaped into containers in hollow molds by means of at least partial introduction of an incompressible molding fluid under overpressure, and in which the containers in the hollow molds are filled with a product by replacing the molding fluid by the product or partially replacing the molding fluid by at least one component of the product, whereby an internal negative pressure is created in the container for the filling process of the product or the product component.
A microduct tube winder for winding empty extruded plastic microduct tubes with an external diameter of approx. 2 to approx. 20 mm, having a spool, which can be rotated about an axis of rotation and has a core arranged between two radially protruding flanges, onto which core the tube can be wound, and having a tube guiding device, by means of which the tube is supplied to the spool, a first handover point being present on the tube guiding device, at which the tube loses contact with the tube guiding device in the operating state of the microduct tube winder, and a spool-assigned second handover point being present, at which the tube comes into contact with the core or a tube layer wound thereon, characterized in that the tube guiding device is mounted so as to be displaceable in a transverse plane of the spool and the spool is mounted so as to be displaceable in such a manner in the direction of the axis of rotation thereof, that a winding angle (α), that is to say the angle present in the three-dimensional space between the spool-side tube and the tube-guiding-device-side tube or the spool-side tube section and the tube-guiding-device-side tube section, wherein the winding angle (α) is formed between a horizontal plane and a blade of the tube guiding device and runs in the transverse plane, always remains unchanged at the second handover point in the operating state.
A wiper device for cleaning a vehicle window, with a wiper arm fastened in a torque-proof manner to a wiper shaft via an articulation piece, wherein the wiper arm is arranged pivotably on the articulation piece, with a wiper blade arranged on the wiper arm, and with a washing device for the wiper blade, which contains a feed for a washing fluid, wherein the feed runs in a partial region in the longitudinal axis of the wiper shaft and leads to the wiper blade in a direction running substantially perpendicularly to the longitudinal axis, wherein the feed comprises an outlet connecting piece preferably arranged on the articulation piece, oriented perpendicularly to the longitudinal axis of the wiper shaft, characterized in that the outlet connecting piece engages, in the operating position of the wiper blade, into a mount constructed on the wiper arm, and that the wiper arm is arranged in the articulation piece in a longitudinal guide perpendicularly to the longitudinal axis of the wiper shaft so as to be movable at least between two positions, a first position, in which the outlet connecting piece engages into the mount, and a second position, in which the outlet connecting piece is out of engagement with the mount.
Fuel cell arrangement (100, 200) having a fuel cell stack (130, 230) comprising a plurality of plate-shaped components stacked in a stacking direction (z), and at least one end plate, wherein the at least one end plate (110, 210) has a plurality of segments (111, 112) in the form of separate parts, and wherein the at least one end plate of the stack has at least one first segment, which terminates a first functional region of the stack, and at least one second segment, which terminates a second functional region of the stack, wherein the segments can be individually clamped, with the result that clamping over the at least one first segment causes a first force to be exerted on the first functional region of the fuel cell stack, and clamping over the at least one second segment causes a second force to be exerted on the second functional region of the fuel cell stack. and at least one end plate, wherein the at least one end plate (110, 210) has a plurality of segments (111, 112) in the form of separate parts, and wherein the at least one end plate of the stack has at least one first segment, which terminates a first functional region of the stack, and at least one second segment, which terminates a second functional region of the stack, wherein the segments can be individually clamped, with the result that clamping over the at least one first segment causes a first force to be exerted on the first functional region of the fuel cell stack, and clamping over the at least one second segment causes a second force to be exerted on the second functional region of the fuel cell stack.
A method of adding antioxidant to ultra high molecular weight polyethylene (UHMWPE), the method comprising: coating a porous solid material comprising a cold-sintered UHMWPE powder with a liquid composition comprising at least one antioxidant such that at least some of the liquid composition enters void space of the porous solid material, to provide an antioxidant-infused solid material; melt-consolidating the antioxidant-infused solid material, to provide a melt-consolidated material; irradiating the melt-consolidated material, to provide an irradiated melt-consolidated material; heating the irradiated melt-consolidated material in an environment comprising oxygen, wherein the heating is sufficient to melt at least part of the melt-consolidated material, to provide a heated material; and solidifying the heated material, to provide a melt-stabilized material; wherein the UHMWPE in a surface layer 0mm to 1mm deep of the melt-stabilized material has an oxidation index as measured according to the method described in the description that does not exceed 0.1. coating a porous solid material comprising a cold-sintered UHMWPE powder with a liquid composition comprising at least one antioxidant such that at least some of the liquid composition enters void space of the porous solid material, to provide an antioxidant-infused solid material; melt-consolidating the antioxidant-infused solid material, to provide a melt-consolidated material; irradiating the melt-consolidated material, to provide an irradiated melt-consolidated material; heating the irradiated melt-consolidated material in an environment comprising oxygen, wherein the heating is sufficient to melt at least part of the melt-consolidated material, to provide a heated material; and solidifying the heated material, to provide a melt-stabilized material; wherein the UHMWPE in a surface layer 0mm to 1mm deep of the melt-stabilized material has an oxidation index as measured according to the method described in the description that does not exceed 0.1.
Projectile comprising a composite material comprising a metal powder and a polymer matrix, wherein the metal powder is selected from the group consisting of titanium, magnesium, aluminum, zirconium or any mixtures thereof, wherein the composite material consists of at least 50 percent by volume of the metal powder, and wherein a thermoplastic is used as polymer matrix, characterized in that the metal powder is embedded in the polymer matrix.
A printing fluid supply connector (100, 200) comprising: a first connector (101, 201, 401) and a second connector (102, 202, 402), wherein each of the first and second connectors is to fluidly connect to a respective replaceable reservoir of the same type of printing fluid; an outlet to fluidly connect to a printer; and a selector to selectively fluidly connect one of the first and second connectors to the outlet in response to an electrical control signal; wherein, the first connector (101, 201, 401) comprises a first interface to communicate with a reservoir of printing fluid connected to the first connector (101, 201, 401) and the second connector (102, 202, 402) comprises a second interface to communicate with a reservoir of printing fluid connected to the second connector (201, 202, 402) and a signal path provides communication between the first and second interfaces and the printer; and wherein, each of the first and second connectors is to connect to respective reservoirs of printing fluid that are located external to a housing of the printer. a first connector (101, 201, 401) and a second connector (102, 202, 402), wherein each of the first and second connectors is to fluidly connect to a respective replaceable reservoir of the same type of printing fluid; an outlet to fluidly connect to a printer; and a selector to selectively fluidly connect one of the first and second connectors to the outlet in response to an electrical control signal; wherein, the first connector (101, 201, 401) comprises a first interface to communicate with a reservoir of printing fluid connected to the first connector (101, 201, 401) and the second connector (102, 202, 402) comprises a second interface to communicate with a reservoir of printing fluid connected to the second connector (201, 202, 402) and a signal path provides communication between the first and second interfaces and the printer; and wherein, each of the first and second connectors is to connect to respective reservoirs of printing fluid that are located external to a housing of the printer.
A connecting device comprising two hybrid electrical cables (1A, 1B) each including first conducting wires (2A, 2B) made from a first metal stranded in the central zone of the cable and second conducting wires (3A, 3B) made from a second metal with a hardness greater than that of the first metal, wound on and outside this central zone, said second conducting wires (3A, 3B) of said cables being connected by an outer conducting sleeve (6, 6'), characterized in that said first central wires (2A, 2B) of the cables are connected by a weld made up of said first metal and connecting their end, this weld and this end being covered by a metal tube with a hardness greater than or equal to that of said second wires (3A, 3B), at least partially in line with said sleeve (6, 6'), the end of said second wires (3A, 3B) being reconstituted on said first wires (2A, 2B) and on said tube below said outer conducting sleeve (6, 6'), said second wires (3A, 3B) at least partially covering said tube.
A communication device comprising: a wireless interface to receive a wireless communication from another communication device; and map extraction logic to identify that the wireless communication includes map information advertised by the other communication device, the map information representing at least a portion of a map describing a geographic region, wherein the map information is provided to the communication device independent of any request for the map information being sent from the communication device to the other communication device in a data session or a voice session; and mapper logic coupled to the map extraction logic, the mapper logic to generate a representation of the map based on the map information characterized in that: the wireless communication includes a beacon frame comprising the map information to facilitate discovery of the other communication device. a wireless interface to receive a wireless communication from another communication device; and map extraction logic to identify that the wireless communication includes map information advertised by the other communication device, the map information representing at least a portion of a map describing a geographic region, wherein the map information is provided to the communication device independent of any request for the map information being sent from the communication device to the other communication device in a data session or a voice session; and mapper logic coupled to the map extraction logic, the mapper logic to generate a representation of the map based on the map information characterized in that: the wireless communication includes a beacon frame comprising the map information to facilitate discovery of the other communication device. the wireless communication includes a beacon frame comprising the map information to facilitate discovery of the other communication device.