Abstract: Method for manufacturing an electrically operable heating body for an inhaler, wherein a semiconductor material is provided so as to be substantially planar, and a plurality of channels are incorporated into the semiconductor material substantially in the direction of the surface normal of the planar semiconductor material, such that a fluid can pass through the semiconductor material in the channels.

Abstract: A method for producing vaporizer units as a component of inhalers includes the steps: a) providing a flexible circuit board material with sites for individual vaporizer units, the material optionally prestructured with conductor paths and/or pre-punched areas predetermined in terms of position/course for each site; b) providing and placing a heating element which may be electrically connected to the conductor paths; and c) at least partial covering each site with a sealing material for the formation of a partial sheathing for each vaporizer unit. The sealing material is applied such that the sheathing covers an edge region of the heating element while keeping open a heating surface on an upper side of the circuit board material. At least the outer surfaces of the sheathing pointing away from the circuit board material form sealing surfaces. Vaporizer units, vaporizer assemblies, vaporizer cartridges and inhalers with such vaporizer units are also provided.

Abstract: A method for determining at least one parameter for vaporization in an inhaler comprising a vaporizer, based upon resistive heating, and an electronic control device is characterized in that the electronic control device is configured to carry out the following initialization procedure—in particular, after a replacement of a vaporizer cartridge in the inhaler: outputting an inhalation request to a user of the inhaler; in the case of a puff taken by the user following the inhalation request, operating the vaporizer with a comparatively to low vaporization capacity P, and recording a time measurement series of an electrical parameter of the vaporizer; determining a transition point ÜP between a region of low vaporization and a region of high vaporization in the recorded time measurement series; determining and storing at least one parameter associated with the initialization procedure.

Abstract: A vaporiser insert for an electronic cigarette product comprises at least one electrical vaporiser for vaporising fluid supplied to the vaporiser and for supplying the vaporised fluid to an airflow, a main part having a lateral face which surrounds an airflow duct through which the airflow can flow, at least one fluid opening for supplying vaporisable fluid from the outside into the vaporiser insert and to the vaporiser being arranged on the lateral face of the main part. The vaporiser insert comprises a support for retaining the vaporiser, and the support comprises a passage opening that corresponds to the fluid opening in order to supply fluid to the vaporiser.

Abstract: An arrangement for an inhaler comprises at least one electric evaporator for evaporating liquid supplied from the evaporator, and for adding the evaporated liquid to an air flow flowing through the inhaler to form an aerosol, and a flow rate measuring arrangement for measuring the volume and/or mass flow of the air flow flowing through the inhaler. The flow rate measuring arrangement comprises a heating device, a downstream temperature sensor arranged downstream of the heating device for measuring an air outlet temperature and an electronic control device, wherein the electronic control device is adapted to determine the volume and/or mass flow of the air flow flowing through the inhaler on the basis of a temperature difference between the air outlet temperature and an air inlet temperature of the air flow upstream of the heating device.

Abstract: The invention relates to a vaporisation device for an electronic inhaler, comprising a vaporiser having a thermally conductive substrate, wherein a plurality of continuous channels extend through the substrate from an inlet side to an outlet side of the substrate, and an electrical resistance heating element. The resistance heating element is arranged on one side of the substrate, consists of a material with higher electrical conductivity than the material of the substrate and has passage openings communicating with the channels of the substrate.

Abstract: An inhaler vaporizer cartridge includes a housing body with a flow channel, a liquid storage tank, and a vaporizer unit. The vaporizer unit has a wick member and heating member and is liquid-permeable such that liquid is conveyed from the tank through the vaporizer unit to the flow channel. The housing body has a cavity forming the tank and a wick member receiving chamber, and housing is divided by an intermediate wall and a flow channel section. An access opening from the receiving chamber to the flow channel is formed in the intermediate wall and covered by the heating member. Granular grains in the receiving chamber form the wick member and bear against the heating member. The grains form microchannels and are retained by a cover element. An access opening, covered with a liquid-permeable grid structure, establishes a liquid connection from the tank to receiving chamber in the intermediate wall.

Abstract: A vaporizer cartridge, as a component of an inhaler, has a hollow body with a continuous flow channel and a storage tank for storing liquid. The storage tank has at least one access opening to the flow channel and a vaporizer unit arranged in the region of the access opening and extending over the entire access opening. The vaporizer unit has a wick member and a heating member. The vaporizer unit is formed to be liquid-permeable such that liquid can be conveyed at least initially in a capillary manner out of the storage tank through the vaporizer unit in the direction of the flow channel. The wick member is formed from a plurality of granular grains which form microchannels as a result of their fill and/or formation. An inhaler is also provided.

Abstract: A vaporizer cartridge for an inhaler has a hollow body with a continuous flow channel and liquid storage tank. The tank has an access opening to the channel and a vaporizer unit extending over the entire access opening. The vaporizer unit has a wick member and a heating member. The vaporizer unit is liquid-permeable such that liquid is conveyed at least initially in a capillary manner from the storage tank through the vaporizer unit in the direction of the flow channel. The wick member is formed from a plurality of granular grains which, as a result of their fill and/or formation, form microchannels which establish a fluid connection between the storage tank and the flow channel, continuously from an entry side to an exit side of the wick member. An additional securing means is provided which is holds the granular wick member in position. A corresponding inhaler is also provided.

Abstract: A method for manufacturing a vaporizer assembly for an inhaler comprises the steps of providing a plurality of connection stations and performing at least one assembly step at each connection station to produce a vaporizer assembly at each connection station.

Abstract: A method of controlling vaporization of a vaporizer in an inhaler, wherein the vaporizer is heated by means of electric resistance heating, and wherein an electronic control device controls the current flow through the vaporizer, comprises the following steps: determining an initial point corresponding to the start of a draw by a consumer; taking measured values of the current applied to the vaporizer in time sequence from the initial point; determining a transition point between a range of low vaporization and a range of high vaporization in a time-dependent current measurement series corresponding to the measured values; determining a current value Iv corresponding to the transition point; setting a current interval [I1; I2] depending on the determined current value Iv; and controlling the current flow within the set current interval [I1; I2].

Abstract: A vaporizer device for an inhaler comprises at least one electric vaporizer for vaporizing liquid fed to the vaporizer, wherein the liquid is transported by capillary forces from an inlet side through at least one liquid channel to an outlet side, where vaporized liquid can be added to an air stream, a carrier retaining the vaporizer, and at least one electrical line electrically contacting the vaporizer. The electrical line comprises a planar contact area, and the vaporizer and the planar contact area of the electrical line are materially and electrically conductively bonded to each other.

Abstract: A method for controlling the temperature of a vaporizer for an inhaler, in particular an electronic cigarette product, comprising the steps of measuring the voltage applied to a heating element; measuring the current flowing through the heating element; determining the resistance of the heating element from the measured voltage and the measured current; controlling the temperature of the heating element by switching off the switching element in a controlled manner so that the current flow through the heating element is interrupted when the determined resistance exceeds or falls below a first critical threshold R_co.

Abstract: A vaporizer device for an inhaler, in particular for an electronic cigarette product, comprises an electrical vaporizer having one or more heating elements for vaporizing liquid supplied by the vaporizer. The vaporizer device is characterized in that a carrier is formed of a layer system with a polymer film and at least one metal film in contact with the polymer film in a planar manner, the polymer film comprises at least one fluid permeable opening, the metal film comprises at least one fluid permeable second opening communicating with the first opening, and the metal film forms the heating elements, wherein the heating elements are arranged delimiting the second opening.

Abstract: A method for producing vaporizer units as a component of inhalers includes the steps: a) providing a flexible circuit board material with sites for individual vaporizer units, the material optionally prestructured with conductor paths and/or pre-punched areas predetermined in terms of position/course for each site; b) providing and placing a heating element which may be electrically connected to the conductor paths; and c) at least partial covering each site with a sealing material for the formation of a partial sheathing for each vaporizer unit. The sealing material is applied such that the sheathing covers an edge region of the heating element while keeping open a heating surface on an upper side of the circuit board material. At least the outer surfaces of the sheathing pointing away from the circuit board material form sealing surfaces. Vaporizer units, vaporizer assemblies, vaporizer cartridges and inhalers with such vaporizer units are also provided.

Abstract: Method for manufacturing an electrically operable heating body for an inhaler, wherein a semiconductor material is provided so as to be substantially planar, and a plurality of channels are incorporated into the semiconductor material substantially in the direction of the surface normal of the planar semiconductor material, such that a fluid can pass through the semiconductor material in the channels.

Abstract: A vaporiser insert for an electronic cigarette product comprises at least one electrical vaporiser for vaporising fluid supplied to the vaporiser and for supplying the vaporised fluid to an airflow, a main part having a lateral face which surrounds an airflow duct through which the airflow can flow, at least one fluid opening for supplying vaporisable fluid from the outside into the vaporiser insert and to the vaporiser being arranged on the lateral face of the main part. The vaporiser insert comprises a support for retaining the vaporiser, and the support comprises a passage opening that corresponds to the fluid opening in order to supply fluid to the vaporiser.

Abstract: An arrangement for an inhaler comprises at least one electric evaporator for evaporating liquid supplied from the evaporator, and for adding the evaporated liquid to an air flow flowing through the inhaler to form an aerosol, and a flow rate measuring arrangement for measuring the volume and/or mass flow of the air flow flowing through the inhaler. The flow rate measuring arrangement comprises a heating device, a downstream temperature sensor arranged downstream of the heating device for measuring an air outlet temperature and an electronic control device, wherein the electronic control device is adapted to determine the volume and/or mass flow of the air flow flowing through the inhaler on the basis of a temperature difference between the air outlet temperature and an air inlet temperature of the air flow upstream of the heating device.

Abstract: A vaporiser insert for an inhaler comprises at least one electrical vaporiser for vaporising liquid fed to the vaporiser, and electrical contacts for making electrical contact with the vaporiser insert for supplying with electrical energy and/or for receiving control signals for the vaporiser. The vaporiser insert has a base part with opposingly arranged faces and a jacket side between the faces arranged around at least one flow channel through which vapour can flow, wherein at least one liquid opening for feeding vaporisable liquid from the outside into the vaporiser insert to the vaporiser is arranged on the jacket side of the base part.

Abstract: A vaporizer device for an inhaler, in particular for an electronic cigarette product, comprises an electrical vaporizer having one or more heating elements for vaporizing liquid supplied by the vaporizer. The vaporizer device is characterized in that a carrier is formed of a layer system with a polymer film and at least one metal film in contact with the polymer film in a planar manner, the polymer film comprises at least one fluid permeable opening, the metal film comprises at least one fluid permeable second opening communicating with the first opening, and the metal film forms the heating elements, wherein the heating elements are arranged delimiting the second opening.