mhurhangee/ep-ind-claims huggingface dataset:
A cartomizer assembly of an electronic cigarette configured to connect with a battery portion of the electronic cigarette, the cartomizer assembly formed from automated assembly compatible parts, the cartomizer assembly comprising: a container assembly including a container and a heater coil, the heater coil surrounding a wick in an airflow space of the container, the entire coil of the heater coil located inside the container and the heater coil configured to heat liquid on the wick to generate a vapor; a liquid storage space in liquid communication with the wick; an outer post; and an inner post disposed in the outer post, the container being on the inner post, and the inner post and outer post supporting conductors (308, 501) electrically connected to heater coil leads of the heater coil that are held in location notches of the container, the conductors configured to electrically connect the heater coil leads with leads of a battery of the battery portion, the conductors isolated from the liquid storage space of the cartomizer assembly, and the heater, the wick, and the container are shaped such that the heater and wick can be dropped into the container during automated assembly thereof and directed to and located at a desired location in the container. a container assembly including a container and a heater coil, the heater coil surrounding a wick in an airflow space of the container, the entire coil of the heater coil located inside the container and the heater coil configured to heat liquid on the wick to generate a vapor; a liquid storage space in liquid communication with the wick; an outer post; and an inner post disposed in the outer post, the container being on the inner post, and the inner post and outer post supporting conductors (308, 501) electrically connected to heater coil leads of the heater coil that are held in location notches of the container, the conductors configured to electrically connect the heater coil leads with leads of a battery of the battery portion, the conductors isolated from the liquid storage space of the cartomizer assembly, and the heater, the wick, and the container are shaped such that the heater and wick can be dropped into the container during automated assembly thereof and directed to and located at a desired location in the container.
Connection arrangement for connection of an electrical conductor, comprising - a current bar, - a clamping spring which has a holding limb and a clamping limb, wherein the clamping limb can be moved to a clamping position and to an open position, - a conductor connection area formed between a portion of the current bar and the clamping limb of the clamping spring, - a displaceably arranged guide element which is operatively connected to the clamping limb of the clamping spring, wherein the clamping limb can be held in the open position by means of the guide element, and - a pivotably mounted actuating element, by means of which the guide element can be displaced for moving the clamping limb of the clamping spring from the clamping position to the open position, wherein the clamping spring is arranged between the portion of the current bar and the actuating element, - wherein the guide element has a sliding surface along which the actuating element can be guided during a pivoting movement of the actuating element, characterized in that the guide element has two longitudinal side walls (120a, 120b) and two end walls (123a, 123b) arranged at a right angle to the two longitudinal side walls (120a, 120b), wherein the sliding surface is arranged on one of the two end walls (123a, 123b) of the guide element, and wherein the two longitudinal side walls (120a, 120b) of the guide element are so long in the insertion direction of the conductor that the two longitudinal side walls (120a, 120b) delimit the conductor connection area on a first side and a second side situated opposite the first side. - a current bar, - a clamping spring which has a holding limb and a clamping limb, wherein the clamping limb can be moved to a clamping position and to an open position, - a conductor connection area formed between a portion of the current bar and the clamping limb of the clamping spring, - a displaceably arranged guide element which is operatively connected to the clamping limb of the clamping spring, wherein the clamping limb can be held in the open position by means of the guide element, and - a pivotably mounted actuating element, by means of which the guide element can be displaced for moving the clamping limb of the clamping spring from the clamping position to the open position, wherein the clamping spring is arranged between the portion of the current bar and the actuating element, - wherein the guide element has a sliding surface along which the actuating element can be guided during a pivoting movement of the actuating element,
A Transparent Interconnection of Lots of Links, TRILL, Intermediate System to Intermediate System, ISIS-based route calculation method, comprising: acquiring, by a route calculation unit, a Link State Protocol Data Unit, LSP, packet from each Routing Bridge, RB, in a network; and calculating, by the route calculation unit, a routing table of each RB according to the LSP packet acquired from each RB, and sending, by the route calculation unit, the routing table to each RB for which the routing table was calculated; wherein the LSP packet comprises: a neighbour Type, Length, Value, TLV, 22 of the RB from which the LSP packet is acquired, wherein the neighbour TLV22 of the RB contains one or more neighbour items, each neighbour item containing next-hop information needed by a current neighbour; wherein the route calculation unit is located on a part of RBs in all RBs of the network; or, the route calculation unit is located in a preset route calculation device. acquiring, by a route calculation unit, a Link State Protocol Data Unit, LSP, packet from each Routing Bridge, RB, in a network; and calculating, by the route calculation unit, a routing table of each RB according to the LSP packet acquired from each RB, and sending, by the route calculation unit, the routing table to each RB for which the routing table was calculated; wherein the LSP packet comprises: a neighbour Type, Length, Value, TLV, 22 of the RB from which the LSP packet is acquired, wherein the neighbour TLV22 of the RB contains one or more neighbour items, each neighbour item containing next-hop information needed by a current neighbour; wherein the route calculation unit is located on a part of RBs in all RBs of the network; or, the route calculation unit is located in a preset route calculation device.
A device for non-invasively determining existence of a gas component of interest inside a space of a glass unit, wherein the device comprises a detecting unit and a calibration unit, wherein said detecting unit comprises a laser beam emitting means for emitting a laser beam towards said space and detecting means for detecting reflections of said emitted laser beams reflected from said space, characterized in that - the calibration unit comprises at least a calibration chamber having same gas component as of interest inside the space of the glass unit and to be determined, and a reflector, - the laser beam emitting means and detecting means are arranged so to emit and receive beams in an angle so that the focus of the laser spot locates between said laser emitting means and detecting means and outside the line connecting said laser emitting means and detecting means at the same position in relation to said detecting unit during the measuring process, wherein - said detecting unit and said calibration unit are configured to be moved in relation to each other for a calibration purpose so that said laser beam travels through said chamber and the focus spot hits the reflector of the calibration unit, whereupon the detecting means is focused essentially to said focus spot and configured to image said reflected beam, - said detecting unit is configured to be moved towards and/or away said space for a determining purpose of the existence of the interest gas component so that said focus spot sequentially hits the surfaces or interfaces of the said space, and - the device comprises a housing encapsulating said detecting unit and calibration unit, said housing comprising shielding gas being inert for the laser wavelength and emptied essentially from the gas to be measured. - the calibration unit comprises at least a calibration chamber having same gas component as of interest inside the space of the glass unit and to be determined, and a reflector, - the laser beam emitting means and detecting means are arranged so to emit and receive beams in an angle so that the focus of the laser spot locates between said laser emitting means and detecting means and outside the line connecting said laser emitting means and detecting means at the same position in relation to said detecting unit during the measuring process, - said detecting unit and said calibration unit are configured to be moved in relation to each other for a calibration purpose so that said laser beam travels through said chamber and the focus spot hits the reflector of the calibration unit, whereupon the detecting means is focused essentially to said focus spot and configured to image said reflected beam, - said detecting unit is configured to be moved towards and/or away said space for a determining purpose of the existence of the interest gas component so that said focus spot sequentially hits the surfaces or interfaces of the said space, and - the device comprises a housing encapsulating said detecting unit and calibration unit, said housing comprising shielding gas being inert for the laser wavelength and emptied essentially from the gas to be measured.
Fastening tab for a construction element, preferably a beam, a panel or slab, that is adjustable vertically and relative to the horizontal, that can be screwed to a support with inner thread, preferably a foundation screw, successively comprising: - a fastening screw comprising a beveled head and a threaded shank; - a metal plate pierced with a beveled opening that can accommodate said fastening screw and comprises fastening means to the construction element; - a perforated flexible joint; - characterized by a screw comprising a machined beveled head with an inner thread corresponding to that of said fastening screw; such that the position of the screw relative to the support, obtained by screwing/unscrewing, allows vertical adjustment of the metal plate; or by the fastening screw, the beveled aperture of the metal plate and the flexible joint cooperate to allow angular adjustment of the metal plate relative to the horizontal plane. - a fastening screw comprising a beveled head and a threaded shank; - a metal plate pierced with a beveled opening that can accommodate said fastening screw and comprises fastening means to the construction element; - a perforated flexible joint; - characterized by a screw comprising a machined beveled head with an inner thread corresponding to that of said fastening screw; such that the position of the screw relative to the support, obtained by screwing/unscrewing, allows vertical adjustment of the metal plate;
A reticle, comprising: a) a primary horizontal cross-hair; b) a primary vertical cross-hair that intersects said primary horizontal cross-hair; c) two or more range markings along the primary vertical cross-hair below the intersection of the primary horizontal cross-hair and the primary vertical cross-hair; d) two or more wind markings to the left and to the right of the primary vertical cross-hair below the intersection of the primary horizontal cross-hair and the primary vertical cross-hair; e) two or more simultaneously visible secondary horizontal cross-hairs at predetermined distances on said primary vertical cross-hair; and f) two or more simultaneously visible secondary vertical cross-hairs at predetermined distances on said simultaneously visible secondary horizontal cross-hairs, wherein an intersection of at least one of said two or more simultaneously visible secondary vertical cross-hairs and at least one of said two or more simultaneously visible straight line secondary horizontal cross-hairs provides an aiming point, characterized in that said reticle further comprises g) two or more mil lines of graduated length on said primary horizontal cross-hair; h) two or more mil lines of graduated length on said primary vertical cross-hair; and i) clusters of refined mils markings arranged in bird-flock shaped chevron patterns, comprised of five 0.1 mil increments, for measuring target and milling distances. a) a primary horizontal cross-hair; b) a primary vertical cross-hair that intersects said primary horizontal cross-hair; c) two or more range markings along the primary vertical cross-hair below the intersection of the primary horizontal cross-hair and the primary vertical cross-hair; d) two or more wind markings to the left and to the right of the primary vertical cross-hair below the intersection of the primary horizontal cross-hair and the primary vertical cross-hair; e) two or more simultaneously visible secondary horizontal cross-hairs at predetermined distances on said primary vertical cross-hair; and f) two or more simultaneously visible secondary vertical cross-hairs at predetermined distances on said simultaneously visible secondary horizontal cross-hairs, wherein an intersection of at least one of said two or more simultaneously visible secondary vertical cross-hairs and at least one of said two or more simultaneously visible straight line secondary horizontal cross-hairs provides an aiming point, characterized in that said reticle further comprises g) two or more mil lines of graduated length on said primary horizontal cross-hair; h) two or more mil lines of graduated length on said primary vertical cross-hair; and i) clusters of refined mils markings arranged in bird-flock shaped chevron patterns, comprised of five 0.1 mil increments, for measuring target and milling distances.
Fan system comprising an electric motor, wherein the electric motor has a rotor and the rotor is mounted so as to rotate about a motor shaft which has an end face, wherein a fan impeller is arranged in a rotationally fixed manner on the rotor, characterized in that a contact-making element is fastened to the fan impeller, which contact-making element is designed, in the mounted state, to bear against the end face of the motor shaft and the rotor in an electrical contact-making manner, wherein the contact-making element has a first and a second section (60, 62), wherein the first section is connected in a rotationally fixed manner to the rotor and the second section bears in a rotatable manner against the end face of the motor shaft, and wherein the fan impeller clamps the first section to the rotor in a rotationally fixed manner.
A system for facilitating unlocking a device connected locally to a client, utilizing a server located remotely from the client and the device, wherein the device comprises an interface, a system partition and a secure data partition, comprising: a stub driver configured to receive a secure application from the system partition of the device; and a proxy configured to send the secure application from the stub driver to the server over a network, configured to receive, at the client, at least one string descriptor request from the server over the network, wherein the at least one string descriptor request is associated with switching the interface of the device from a first interface type to a second interface type, and, after the interface of the device is switched to the second interface type, configured to receive, at the client, an unlocking command from the server over the network, wherein the stub driver is further configured to direct the at least one string descriptor request received by the proxy to the device, and to direct the unlocking command received by the proxy to the device, wherein the interface of the device is configured to unlock the secure data partition of the device if the interface accepts the unlocking command. a stub driver configured to receive a secure application from the system partition of the device; and a proxy configured to send the secure application from the stub driver to the server over a network, configured to receive, at the client, at least one string descriptor request from the server over the network, wherein the at least one string descriptor request is associated with switching the interface of the device from a first interface type to a second interface type, and, after the interface of the device is switched to the second interface type, configured to receive, at the client, an unlocking command from the server over the network, wherein the stub driver is further configured to direct the at least one string descriptor request received by the proxy to the device, and to direct the unlocking command received by the proxy to the device, wherein the interface of the device is configured to unlock the secure data partition of the device if the interface accepts the unlocking command.
A drying device for drying a wall structure, the device comprising an inflatable flexible mat comprising a floor engaging portion, a wall engaging portion, an outwardly facing portion that extends between an outer edge portion of the floor engaging portion and an upper edge portion of the wall engaging portion, characterised in that said floor engaging portion, said wall engaging portion and said outwardly facing portion are arranged such as to define, in use, a triangular cross section, and in that the floor engaging portion and the wall engaging portion are provided with a plurality of apertures for directing air from an air mover against a floor and a wall structure to be dried when the drying device is in use.
A coil unit which wirelessly transmits power from a transmission side to a power receiving side, comprising: a coil (Lr, Lt) with a winding wire (Wr, Wt) wound in a helical shape on a magnetic core, characterized in that the coil unit further comprises: a non-magnetic conductive plate (Sa, Sb) which is disposed in the axis direction of the coil (Lr, Lt); and a magnetic body (Fc), wherein the magnetic body (Fc) includes a first portion (F1C) which is positioned outside an outline of one side of the conductive plate (Sa, Sb) in an axis direction of the coil (Lr, Lt), and a second portion (F2C) which is positioned outside an outline of the other side of the conductive plate (Sa, Sb) in the axis direction of the coil (Lr, Lt), and wherein the first (F1C) and second (F2C) portions are positioned on a side of the conductive plate (Sa, Sb) opposite to a side facing the coil (Lr, Lt), wherein the magnetic body (Fc) further includes a third portion (F3C) which is positioned between the first portion (F1C) and the second portion (F2C), and wherein imaginary component values of permeability of the first (F1C) and second (F2C) portions are smaller than an imaginary component value of permeability of the third portion (F3C). a coil (Lr, Lt) with a winding wire (Wr, Wt) wound in a helical shape on a magnetic core, characterized in that the coil unit further comprises: a non-magnetic conductive plate (Sa, Sb) which is disposed in the axis direction of the coil (Lr, Lt); and a magnetic body (Fc), a non-magnetic conductive plate (Sa, Sb) which is disposed in the axis direction of the coil (Lr, Lt); and a magnetic body (Fc), wherein the magnetic body (Fc) includes a first portion (F1C) which is positioned outside an outline of one side of the conductive plate (Sa, Sb) in an axis direction of the coil (Lr, Lt), and a second portion (F2C) which is positioned outside an outline of the other side of the conductive plate (Sa, Sb) in the axis direction of the coil (Lr, Lt), and wherein the first (F1C) and second (F2C) portions are positioned on a side of the conductive plate (Sa, Sb) opposite to a side facing the coil (Lr, Lt), wherein the magnetic body (Fc) further includes a third portion (F3C) which is positioned between the first portion (F1C) and the second portion (F2C), and wherein imaginary component values of permeability of the first (F1C) and second (F2C) portions are smaller than an imaginary component value of permeability of the third portion (F3C).
A flow controlling device comprising a flow path wherein a fluid flows, a solenoid valve for adjusting the degree of opening of the flow path, a valve driving circuit for driving the solenoid valve, a flow rate measuring device for measuring a flow rate of the fluid that flows in the flow path, and a controlling device for applying instruction signals to the valve driving circuit so as to cause the flow rate to match a setting value, and which operates having received a power supply supplied from the outside, comprising: an analog inputting circuit for converting an inputted analog voltage value or analog electric current value, as a setting value, into a specific digital value or analog value, and transmitting said specific digital value or analog value; wherein the controlling device outputs a command signal based on the measured flow rate and the digital signal or analog signal transmitted from the analog inputting circuit; a signal transmitting device for isolating electrically the controlling device and the valve driving circuit and for transmitting the instruction signal from the controlling device to the valve driving circuit characterised in that the controlling device further comprises: an isolating power supply circuit (24, 25, 27) for isolating electrically the analog inputting circuit and the controlling device from the valve driving circuit, and for supplying power to the analog inputting circuit and to the controlling device; and a non-isolating power supply circuit for supplying power to the valve driving circuit. an analog inputting circuit for converting an inputted analog voltage value or analog electric current value, as a setting value, into a specific digital value or analog value, and transmitting said specific digital value or analog value; wherein the controlling device outputs a command signal based on the measured flow rate and the digital signal or analog signal transmitted from the analog inputting circuit; a signal transmitting device for isolating electrically the controlling device and the valve driving circuit and for transmitting the instruction signal from the controlling device to the valve driving circuit characterised in that the controlling device further comprises: an isolating power supply circuit (24, 25, 27) for isolating electrically the analog inputting circuit and the controlling device from the valve driving circuit, and for supplying power to the analog inputting circuit and to the controlling device; and a non-isolating power supply circuit for supplying power to the valve driving circuit. an isolating power supply circuit (24, 25, 27) for isolating electrically the analog inputting circuit and the controlling device from the valve driving circuit, and for supplying power to the analog inputting circuit and to the controlling device; and a non-isolating power supply circuit for supplying power to the valve driving circuit.