Vaporizer device with vaporizer cartridge

Abstract

This relates to a vaporizer device configured to connect with a vaporizer cartridge. [Solution] The cartridge 1320 includes a cartridge housing, a reservoir and wick housing located within the cartridge housing, a heating element, and a wicking element. The cartridge housing extends below the open top of the receptacle in the vaporizer device 100 when the cartridge is connected to the vaporizer device. The reservoir contains the vaporizable material. The heating element includes a heating portion located at least partially within the wick housing and a contact portion located at least partially outside the wick housing. The contact portion includes cartridge contacts that form an electrical connection with the receptacle contacts in the receptacle. The wicking element is located within the wick housing in close proximity to the heating portion of the heating element and draws the vaporizable material into the wick housing for vaporization by the heating element.

Description

[[TECHNICAL FIELD]]

[0001] CROSS-REFERENCE TO RELATED APPLICATIONS This application claims the benefit of U.S. Provisional Application entitled "HEATING ELEMENT" filed on October 9, 2019 Patent Application No. 62 / 913,135, U.S. Provisional Application entitled "RESERVOIR OV ERFLOW CONTROL WITH CONSTRICTION POINTS" filed on February 28, 2019, Application No. 62 / 812, 148, U.S. Provisional Application entitled "CARTRIDGE FOR A VAPORIZER DEVICE" filed on February 28, 2019 Application No. 62 / 812,161, U.S. Provisional Application entitled "CARTRIDGE FOR A VAPORIZER DEVICE" filed on October 14, 2019 Application No. 62 / 915,005 , U.S. Provisional Application entitled "VAPORIZER DEVICE" filed on November 4, 2019, Application No. 62 / 930,508, U.S. Provisional Application entitled "VAPORIZER DEVICE" filed on December 12, 2019 Application No. 62 / 947,496, and U.S. Provisional Application entitled "VAPORIZER DEVICE WITH VAPORIZER CARTRIDGE" filed on February 25, 2020 Application No. 62 / 9 81,498. The disclosures of the foregoing applications are incorporated herein by reference in their entireties. The disclosures of the foregoing applications are incorporated herein by reference in their entireties.

[0002] Technical Field The subject matter described herein relates generally to vaporizer devices, and more particularly, to a vaporizer cart vaporizer device configured to couple with a ridge.

[0003] Background Vaporizer devices, sometimes referred to as vaporizers, electronic vaporizer devices or e-vaporizer devices The chair is a device used by users of vaporization devices to create aerosols containing one or more active ingredients (for example) It can be used for supplying aerosols by inhaling vapor. For example, e-cigarettes and Sometimes called e-cigarettes, they are typically battery-powered and enhance the smoking experience. It can be used for simulation, but does not involve the combustion of tobacco or other substances. It is a type of vaporizer device.

[0004] When using vaporizer devices, users inhale an aerosol, commonly referred to as vapor. Furthermore, this aerosol can be used with liquids, solutions, solids, waxes, or certain vaporizer devices. Vaporizing vaporizable materials, which may be in any other form that may be suitable (generally) (This refers to the transfer of a liquid or solid into the gas phase, at least partially, by a heating element.) It can be generated. The vaporizable material used with the vaporizer is (for example, by the user) A cartridge containing a mouthpiece (for inhalation) (for example, a reservoir containing vaporizable material) It can be provided within a portion of the vaporizer that it houses.

[0005] To receive the inhalable aerosol generated by the vaporizer device, the user, In certain cases, by puffing, by pressing a button, or by some other means Other approaches can be used to operate the vaporizer device. The term "puff" (as used herein) refers to drawing a certain amount of air into a vaporizer device. This allows the inhalable aerosol to be mixed with the vaporized material and air. This refers to the inhalation by the user in a form that is generated.

[0006] A typical approach in which a vaporizer device generates an inhalable aerosol from a vaporizable material. The process involves heating the vaporizable material in a vaporization chamber (or heater chamber) to vaporize the vaporizable material. This process involves converting a material into a gas phase (or vapor phase). The vaporization chamber is generally a heat source. The vaporizable material is heated by (for example, conductive, convective, and / or radioactive) air. A mixture of gas and vaporized vaporizable material is produced for inhalation by the user of the vaporization device. This refers to the region and volume in a vaporizer device that form vapor.

[0007] In some embodiments of vaporizer devices, vaporizable material is transferred from a reservoir to a wicking element. It can be drawn into the vaporization chamber via a wick. Vaporization of vaporizable material Such draw-in into the chamber is, at least partially, directed towards the vaporization chamber. This can be due to the capillary action provided by the wick, which pulls the vaporizable material along the wick. However, as the vaporizable material is drawn out of the reservoir, the pressure inside the reservoir decreases. This creates a vacuum, which acts against capillary action. This vaporizes vaporizable materials. This may reduce the effectiveness of the wick that is pulled into the chamber, which may cause the user to feel uncomfortable. When puffing a vaporization device, etc., the vaporization device vaporizes the desired amount of vaporizable material. The effectiveness decreases. Furthermore, the vacuum created in the reservoir ultimately reduces the total vaporizable material. It is not possible to draw the vapor into the vaporization chamber, which results in the waste of vaporizable material. Therefore, improved vaporization devices are needed to improve or overcome these problems. A sieve and / or vaporization cartridge is desired.

[0008] As used herein consistent with the present subject matter, the term vaporizer device generally refers to an individual portable built-in device convenient for personal use. Typically, such a device is controlled by one or more switches, buttons, touch-sensitive devices or other user input functions on the vaporizer (generally sometimes referred to as control), but many devices that can wirelessly communicate with external controllers (e.g., smartphones, smart watches, other wearable electronic devices, etc.) have become available in recent years. In this context, control generally means turning the heater on and / or off, adjusting the minimum temperature and / or maximum temperature to which the heater is heated during operation, turning off, adjusting the minimum and / or maximum temperature to which the heater is heated during operation, adjusting the same, any of various games or other interactive functions accessible to a user on the device and / or other operations, but refers to the ability to affect one or more of various non-limiting operating parameters.

[0009] Various contents and different vaporizable materials comprising a part of such contents can be contained in a cartridge. Some vaporizable materials require, for example, a specific proportion of active ingredients due to formulation, for example, can have a lower proportion of active ingredients per total volume of the vaporizable material . Accordingly, in order for a user to achieve a desired effect, a large amount of vaporizable material (e.g., compared to the total volume of vaporizable material that can be stored in the cartridge) may need to be vaporized. may need to be vaporized.

[0010] SUMMARY In certain aspects of the present subject matter, a particularly susceptible component of an electronic vaporizer device Problems associated with the presence of liquid vaporizable material in or near the cartridge are addressed herein by including one or more of the features described or through equivalent / homogeneous approaches understood by those skilled in the art. In one aspect, a cartridge for a vaporizer device is provided. The cartridge comprises a cartridge housing configured to extend below the open top of a receptacle in the vaporizer device when the cartridge is coupled to the vaporizer device,[[$END]] a reservoir disposed within the cartridge housing and configured to contain a vaporizable material,[[$END]] a wick housing disposed within the cartridge housing, and a heating element comprising a heating portion disposed at least partially within the wick housing and a contact portion disposed at least partially outside the wick housing, the contact portion comprising one or more cartridge contacts configured to form an electrical connection with one or more receptacle contacts in the receptacle of the vaporizer device, and a wicking element disposed in proximity to the heating portion of the heating element within the wick housing, the wicking element configured to draw the vaporizable material from the reservoir into the wick housing for vaporization by the heating element. The cartridge may comprise the above components.

[0011] In some variations, one or more of the features disclosed herein including the following features can optionally be included in any feasible combination. The contact portion may further be configured to form a mechanical connection with the receptacle of the vaporizer device. The mechanical connection may secure the cartridge within the receptacle of the vaporizer device.

[0012] In some variations, the receiving port has a smaller cross-sectional dimension than the second part of the main body of the vaporizer device. The cartridge may be the first part of the main body of a vaporizer device having a law. When connected to the chair, the cartridge housing and the second part of the main body of the vaporizer device A recessed area may be formed between the two.

[0013] In some variants, the receptacle is located when the cartridge is connected to the vaporizer device. One or more slots at the bottom of the wick housing and one or more fluid connections It may include an air inlet. One or more slots allow air entering one or more air inlets to flow through them. It may be configured to allow further entry into the lock housing. One or more empty The air inlets may be located in the recessed area. One or more air inlets are approximately 0.6 mm in diameter. It may have a diameter between - and 1.0 mm.

[0014] In some variants, the interior of each of the one or more slots is the bottom of the wick housing. The shape is formed by the internal dimensions of one or more slots that are smaller than the dimensions of one or more slots in the section. It may include at least one stepped portion, the meniscus being shaped This prevents vaporizable material from leaking out of one or more slots within the wick housing. It may provide a point of constriction to stop. One or more slots at the bottom of the wick housing The dimensions of the piece may be approximately 1.2 mm in length and 0.5 mm in width. The inner dimensions of the above slots were approximately 1 mm in length and 0.3 mm in width. That's fine.

[0015] In some modified forms, the heating portion of the heating element and the contact portion of the heating element are made of a folded substrate material. It may be formed by folding. The substrate material is used to form the heating portion of the heating element. The substrate material may be cut to include one or more comb teeth (tines). The substrate material is further heated It may be cut to include one or more legs for forming the contact points of the elements.

[0016] In some variants, the contact portion of the heating element comprises at least a first joint and a second joint. Each of the one or more legs is folded to form a joint and a third joint. The first joint may be formed by the second joint and the third joint. It may be positioned between the int. The second joint is at the end of one or more legs. It may be positioned between the end and the first joint.

[0017] In some variations, one or more cartridge contacts are located at the second joint. It is OK. The heating element is located outside the wick housing, and between the first joint and the third joint. The first mechanical connection between the wick and one or more parts of each leg, It may be fixed to the housing. The cartridge is connected to the second joint and the vaporizer device. It is fixed to the receptacle of the vaporizer device by a second mechanical connection between it and the receptacle. stomach.

[0018] In some variations, one or more cartridge contacts are located at the first joint. It is fine to leave it there. The heating element is located outside the wick housing and between the tip and the second joint. A first mechanical connection between a part of each of one or more legs connects to the wick housing. It may be fixed in place. The cartridge is between the first joint and the receptacle of the vaporizer device. The vaporizer device may be fixed to the receiving port by a second mechanical connection in between.

[0019] In some variants, the reservoir may include a storage chamber and a collector. The container is configured to hold a volume of vaporizable material in fluid contact with the storage chamber. It may include a buff channel. One or more microflows along the length of the overflow channel. Body mechanisms may be arranged. One or more microfluidic mechanisms each provide a point of constriction. It is structured in such a way that at the point of constriction, a meniscus is formed, and the air that enters the reservoir overflows The passage of vaporizable material within the low channel may be prevented.

[0020] In some variations, the cartridge housing contains a heating element that vaporizes the vaporizable material. The collector may include an air passage leading to an outlet for aerosols formed by the air. It may include a central tunnel that communicates with the airflow passage and the fluid. The bottom surface of the collector is for vaporizable material. A flow controller configured to mix aerosols generated by a heating element that vaporizes them. It may include trollas.

[0021] In some variants, the inner surface of the air passage extends from the outlet to the wicking element. It may contain more than one channel. One or more channels are formed by aerosols. Collect the condensed material and direct at least a portion of the collected condensed material toward the wicking element. It's fine if it's structured like that.

[0022] In some variants, the flow controller uses the first channel and the second channel. It may be included. The first channel may be offset from the second channel. The first inner surface of the channel is tilted in a different direction from the second inner surface of the second channel, and the first The first column of aerosols entering the central tunnel through the channel passes through the second channel. The aerosol entering the central tunnel can be directed in a different direction from the second column.

[0023] In some variants, the bottom surface of the controller further includes one or more wick interfaces. Good. One or more wick interfaces are in fluid communication with one or more wick feeds in the collector. It is acceptable to have one or more wick feeds placed within a wick housing. The locking element is designed to deliver at least a portion of the vaporizable material contained within the storage chamber. It may be structured as follows.

[0024] In some variants, the wick housing connects the cartridge to the vaporizer device. When installed, it may be at least partially located within the receptacle of the vaporizer device. A flange is positioned at least partially around the upper perimeter of the lock housing. It may extend over at least a portion of the rim of the cartridge slot.

[0025] In another embodiment, a vaporizer device is provided. The vaporizer cartridge is a vaporizer device A receptacle comprising the first part of the main body, including one or more receptacle contacts, and a vaporizable material When the cartridge containing the material is connected to the vaporizer device, the cartridge's wit It is configured to receive the cartridge housing, and the cartridge housing is the cartridge When the dagger is connected to the vaporizer device, it extends below the open top of the receiving port. One or more receptacle contacts provide contact points for heating elements within the cartridge. It is configured to form an electrical connection with the wick contact, and the contact portion is wicked The receiving port and the body of the vaporizer device are located at least partially on the outside of the wug. A power supply at least partially located within the second part, and a cartridge vaporizer device When connected, it controls the discharge of current from the power supply to the heating element contained in the cartridge. A controller configured such that the heating part of the heating element is located within the wick housing. At least one vaporizable material filling the wicking element located in close proximity to the minute It includes a controller that discharges an electric current to a heating element in order to vaporize a portion of it.

[0026] In some variations, one or more features disclosed herein, including the following features, may be used in certain cases. This allows for inclusion in any feasible combination. The receiving end is further heated It is configured to form a mechanical connection with the contact point of the element, and through this mechanical connection, The cartridge is fixed inside the receptacle of the ionizer device.

[0027] In some variants, the first part of the main body of the vaporizer device is the main body of the vaporizer device The second part may have a smaller cross-sectional dimension. The cartridge is connected to the vaporizer device. When this happens, a recessed area is formed between the second part of the main body of the vaporizer device and the cartridge housing. A zone can be formed.

[0028] In some variants, the receptacle is located when the cartridge is connected to the vaporizer device. One or more slots at the bottom of the wick housing and one or more fluid connections It may include an air inlet. One or more slots allow air entering one or more air inlets to flow through them. It may be configured to allow further entry into the lock housing. One or more empty The air inlets may be located in the recessed areas. One or more air inlets are approximately 0.6 mm apart. It may have a diameter between Tor and 1.0 mm.

[0029] In some variants, the receiving port has a top rim on the body of the vaporizer device. Distributed within the first part of the body of the vaporizer device so as to be substantially flush with the top rim of the portion. It's okay to leave it there.

[0030] In some variants, the inlet is at least partially around the top of the wick housing. The positioned flange is located on the top rim of the cartridge receptacle and / or the vaporizer device. The wick housing extends over at least a portion of the top rim of the first part of the main body. It may be configured to receive a portion of the g. The depth of the receiving opening is approximately 4.5 millimeters. That's fine.

[0031] Details of one or more variations of the subject matter described herein are provided in the attached drawings and the following description. This will be explained in detail. Other features and benefits of the subject matter described herein will be explained in this description and in the figures. This should be clear from the surface and the claims.

[0032] The accompanying drawings incorporated into and forming part of this specification are disclosed herein. This describes a specific aspect of the subject matter, and together with its explanation, it relates to the disclosed implementation. This is helpful in explaining the principle of gripping. [Brief explanation of the drawing]

[0033] [Figure 1] This block diagram shows an example of a vaporizer that matches the implementation of the subject matter. [Figure 2A] This is a planar cross-sectional view of an example of a cartridge having a storage chamber and overflow volume consistent with the implementation of this subject. [Figure 2B] This is a plan cross-sectional view of an example of a cartridge having a storage chamber and overflow volume consistent with the implementation of the subject matter. [Figure 3A] This is a perspective view of a cartridge having an example connector consistent with the implementation of the subject matter. [Figure 3B] This is a perspective view of a cartridge with a connector, another example consistent with the implementation of the subject matter. [Figure 3C] This is a plan cross-sectional view of a cartridge having an example connector consistent with the implementation of the subject matter. [Figure 3D] This is a plan cross-sectional view of a cartridge having a connector, which is another example consistent with the implementation of the subject of this paper. [Figure 3E] This is a perspective cross-sectional view of a cartridge having an example connector consistent with the implementation of the subject matter. [Figure 3F] This is a plan view of a cartridge having an example connector consistent with the implementation of this subject. [Figure 4A] This is a perspective view of a closed cartridge example that matches the implementation of this subject. [Figure 4B] This is an exploded perspective view of an example cartridge that matches the implementation form of this subject. [Figure 4C] This is another closed perspective view of an example of a cartridge that matches the implementation of this subject. [Figure 4D] This is a side view of a closed cartridge, an example of a cartridge that matches the implementation of this subject. [Figure 5A] This is a closed side view of an example of a collector that matches the implementation of this subject. [Figure 5B] This is a side view of a cartridge including a collector, which is consistent with the implementation of the subject matter. [Figure 5C] These are perspective and side-plan views of an example collector consistent with the implementation of this subject. [Figure 5D] These are perspective and side-plan views of an example collector consistent with the implementation of this subject. [Figure 5E] These are perspective and side-plan views of an example collector consistent with the implementation of this subject. [Figure 5F] This is a side view of an example of a collector that matches the implementation form of this subject. [Figure 5G] This is a front view of an example of a collector that matches the implementation of the subject matter. [Figure 5H] This is a perspective view of some examples of collectors that are consistent with the implementation of this subject. [Figure 5I] This is a top perspective view of an example of a collector that matches the implementation of this subject. [Figure 5J] This is a side perspective view of a part of an example of a collector that matches the implementation of this subject. [Figure 5K] This is a top perspective view of some examples of collectors that are consistent with the implementation of this subject. [Figure 5L] This figure shows an example of a fluid flow management mechanism in a collector that matches the implementation of this subject. [Figure 5M] This figure shows an example of a fluid flow management mechanism in a collector that matches the implementation of this subject. [Figure 5N] This figure shows an example of a fluid flow management mechanism in a collector that matches the implementation of this subject. [Figure 6A] This is a side view of an example of a collector that matches the implementation form of this subject. [Figure 6B] This is a side view of another example of a collector that matches the implementation of the subject matter. [Figure 7] These are perspective views, front views, side views, and exploded views of an example cartridge that matches the implementation form of this subject. [Figure 8A] These are perspective, front, side, bottom, and top views of an example of a collector consistent with the implementation of this subject. [Figure 8B] These are perspective and cross-sectional views of an example of a collector consistent with the implementation of this subject. [Figure 8C] These are perspective and cross-sectional views of an example of a collector consistent with the implementation of this subject. [Figure 8D] This is a top plan view of an example of a wick-feed mechanism that matches the implementation form of this subject. [Figure 8E] This is a top plan view of an example of a wick-feed mechanism that matches the implementation form of this subject. [Figure 8F] This is a top plan view of an example of a wick-feed mechanism that matches the implementation form of this subject. [Figure 9A] This is a perspective view of an example cartridge that matches the implementation of the subject matter. [Figure 9B] This is a front view of an example cartridge that matches the implementation form of this subject. [Figure 9C] This is a side view of an example of a cartridge that matches the implementation form of this subject. [Figure 10A] This is a front view of a cartridge having an example of a condensate recycling system consistent with the implementation of this subject. [Figure 10B] This is a top view of a cartridge with an example of a condensate recycling system consistent with the implementation of this subject. [Figure 10C] This is a bottom view of a cartridge with an example of a condensate recycling system consistent with the implementation of this subject. [Figure 10D] This is another front view of a cartridge having an example of a condensate recycling system consistent with the implementation of this subject. [Figure 10E] This is another top view of a cartridge having an example of a condensate recycling system consistent with the implementation of this subject. [Figure 11A] This is a front view of a cartridge having an external airflow path, which is consistent with the implementation of the subject matter. [Figure 11B] This is a front view of a cartridge having an external airflow path, which is consistent with the implementation of the subject matter. [Figure 12A] These are perspective views, top views, bottom views, and various side views of an example of a wick housing consistent with the implementation of this subject. [Figure 12B] This is a perspective view of an example of a collector and wick housing consistent with the implementation of this subject. [Figure 13A]This is an exploded perspective view of an example cartridge that matches the implementation form of this subject. [Figure 13B] This is an upper perspective view of an example of a cartridge that matches the implementation form of this subject. [Figure 13C] This is a bottom perspective view of an example of a cartridge that matches the implementation form of this subject. [Figure 14] This is a schematic diagram of a heating element for use in a vaporizer device that matches the implementation of this subject. [Figure 15] This is a schematic diagram of a heating element for use in a vaporizer device that matches the implementation of this subject. [Figure 16] This is a schematic diagram of a heating element for use in a vaporizer device that matches the implementation of this subject. [Figure 17] This is a schematic diagram of a heating element placed inside a vaporizer cartridge for use in a vaporizer device consistent with the implementation of this subject. [Figure 18A] This is a perspective view of the heating element in a form consistent with the implementation of this subject. [Figure 18B] This is a side view of the heating element, consistent with the implementation of the subject matter. [Figure 18C] This is a front view of the heating element, consistent with the implementation of the subject matter. [Figure 18D] This is a perspective view of the heating element and wicking element in accordance with the implementation of this subject. [Figure 18E] This is a bottom perspective view of the wick housing, including the heating element, which matches the implementation of the subject matter. [Figure 19] This is a perspective view of a curved heating element, consistent with the implementation form of this subject. [Figure 20] This is a side view of a curved heating element, consistent with the actual implementation of this subject. [Figure 21] This is a top view of a curved heating element, consistent with the actual implementation of this subject. [Figure 22] This is a front view of a curved heating element, consistent with the actual implementation of this subject. [Figure 23] This is a perspective view of a non-curved heating element, consistent with the implementation form of this subject. [Figure 24] This is a top view of a non-curved heating element, consistent with the actual implementation of this subject. [Figure 25A] This is a perspective view of a curved heating element, consistent with the implementation form of this subject. [Figure 25B] This is a perspective view of a curved heating element, consistent with the implementation form of this subject. [Figure 26] This is a side view of a curved heating element, consistent with the actual implementation of this subject. [Figure 27] This is a top view of a curved heating element, consistent with the actual implementation of this subject. [Figure 28] This is a front view of a curved heating element, consistent with the actual implementation of this subject. [Figure 29A] This is a perspective view of a non-curved heating element, consistent with the implementation form of this subject. [Figure 29B] This is a perspective view of a non-curved heating element, consistent with the implementation form of this subject. [Figure 30A] This is a top view of a non-curved heating element, consistent with the actual implementation of this subject. [Figure 30B] This is a top view of a non-curved heating element, consistent with the actual implementation of this subject. [Figure 31] This is a top perspective view of an atomizer assembly that matches the implementation of the subject matter. [Figure 32] This is a bottom perspective view of the atomizer assembly, consistent with the implementation of the subject matter. [Figure 33] This is an exploded perspective view of the atomizer assembly, consistent with the implementation of the subject matter. [Figure 34A] This is a side cross-sectional view of an atomizer assembly consistent with the implementation of the subject matter. [Figure 34B] This is another side cross-sectional view of the atomizer assembly, consistent with the implementation of the subject matter. [Figure 35] This is a schematic diagram showing an example of a heating element that matches the implementation of the subject matter. [Figure 36] This is a perspective view of a curved heating element, consistent with the implementation form of this subject. [Figure 37]This is a side view of a curved heating element, consistent with the actual implementation of this subject. [Figure 38] This is a perspective view of a curved heating element, consistent with the implementation form of this subject. [Figure 39] This is a side view of a curved heating element, consistent with the actual implementation of this subject. [Figure 40] This is a top view of a substrate material equipped with a heating element that matches the implementation form of the subject matter. [Figure 41] This is a top view of a non-curved heating element, consistent with the actual implementation of this subject. [Figure 42A] This is a top perspective view of an atomizer assembly that matches the implementation of the subject matter. [Figure 42B] This is a magnified view of a portion of the wick housing of an atomizer assembly, consistent with the implementation of the subject matter. [Figure 43] This is a bottom perspective view of the atomizer assembly, consistent with the implementation of the subject matter. [Figure 44] This is an exploded perspective view of the atomizer assembly, consistent with the implementation of the subject matter. [Figure 45A] This is a side cross-sectional view of an example of a condensate recycling system consistent with the implementation of this subject. [Figure 45B] This is a first perspective view of an example of a condensate recycling system consistent with the implementation of this subject. [Figure 45C] This is a second perspective view of an example of a condensate recycling system consistent with the implementation of this subject. [Figure 46] This is an exploded view of a vaporizer device that matches the implementation form of this subject. [Figure 47A] This figure shows an example of a receiving contact that matches the implementation form of this subject. [Figure 47B] This figure shows another example of a receptacle contact that matches the implementation of the subject matter. [Figure 47C] This figure shows another example of a receptacle contact that matches the implementation of the subject matter. [Figure 47D] This is a perspective view of an example of a cartridge receptacle that matches the implementation of the subject matter. [Figure 47E]This is a top perspective view of the vaporizer body, including a cartridge receptacle, as an example of a realization of the subject matter. [Figure 48A] This is a side cross-section of a cartridge positioned within a cartridge receptacle, consistent with the actual implementation of this subject. [Figure 48B] This is another side cross-section of a cartridge positioned within a cartridge receptacle, consistent with the implementation of the subject matter. [Figure 48C] This is a side view of the vaporizer cartridge connected to the vaporizer body, which matches the implementation form of the subject of this paper. [Figure 48D] This is another side view of the vaporizer cartridge connected to the vaporizer body, which matches the implementation form of the subject of this work. [Figure 48E] This is another side view of the vaporizer cartridge connected to the vaporizer body, which matches the implementation form of the subject of this work. [Figure 48F] This figure shows a heat map illustrating the distribution of air pressure and airflow velocity around an air inlet, consistent with the implementation of this subject. [Figure 49A] This is a top perspective view of an example of a vaporizer body shell that matches the implementation form of this subject. [Figure 49B] This is a cross-sectional view of an example of an assembled vaporizer body shell, consistent with the implementation of this subject. [Figure 50A] This is a cross-sectional view of the wick housing, consistent with the implementation form of the subject matter. [Figure 50B] This is another cross-sectional view of the wick housing, consistent with the implementation of the subject matter. [Figure 51A] This is a perspective view of another example of a heating element consistent with the implementation of this subject. [Figure 51B] This is a side view of another example of a heating element consistent with the implementation of the subject matter. [Figure 51C] This is a front view of another example of a heating element consistent with the implementation of the subject matter. [Figure 51D] This is a top view of another example of a heating element that matches the implementation of the subject matter. [Figure 52A] This is a bottom view of an example of a collector that matches the implementation form of this subject. [Figure 52B] This is a cross-sectional view of an example of a collector consistent with the implementation of this subject. [Figure 52C] This is another orthogonal cross-section of an example of a collector consistent with the implementation of this subject. [Figure 52D] This is a side cross-sectional view of an example of a collector consistent with the implementation of this subject. [Figure 52E] This is a perspective view of an example of a collector that matches the implementation of this subject. [Figure 52F] This figure shows examples of laminar and turbulent flow that are consistent with the realization of this subject. [Figure 53] This figure shows a resistance measurement of a heating element, which is consistent with the implementation of this subject.

[0034] When implemented, similar reference numerals indicate similar structures, features, or elements.

[0035] Detailed explanation The realization of this subject relates to a device for vaporizing one or more materials for inhalation by the user. Includes S. The term "vaporizer" used generally in the following explanation refers to vaporizer devices. It refers to a chair. Examples of vaporizers that match the realization of this subject include electronic vaporizers, e-cigarettes, and e-tap This includes boxes, etc. Such vaporizers are generally used to provide an inhalable dose of material. It is a portable device for heating vaporizable materials.

[0036] The vaporizable material used with the vaporizer may, in some cases, be in a cartridge (e.g., reservoir). It can be provided in a part of a vaporizer that contains vaporizable material in a bar or other container, The cartridge may be refillable when empty, or it may contain the same or a different type of refill. Disposable for new cartridges containing additional vaporizable materials. Vaporizer This includes vaporizers that use cartridges, vaporizers without cartridges, or those with cartridges. It can be a multi-purpose vaporizer that can be used with or without. For example, a multi-purpose vaporizer can vaporize The vaporizable material is directly received into the heating chamber, and a volume of vaporizable material is contained at least partially. A cartridge or other replaceable device having a reservoir or similar volume for this purpose. It may also include a heating chamber (e.g., an oven) configured to receive heat.

[0037] In various realizations, the vaporizer contains a liquid vaporizable material (e.g., an active ingredient and / or or a carrier solution or vaporizable material in which an inert component is suspended or retained in the solution. It is configured to be used with a vaporizable material (in its own net liquid form) or in solid form. It is acceptable. A solid vaporizable material is (for example, a part of a plant material) a vaporizable material is used by the user. (To be released for inhalation, leaving behind waste) Some plant material can be vaporized. It may include plant materials released as material, or, in some cases, all of the solid materials. The solid form of the vaporizable material itself (for example, It may be a "wax". Liquid vaporizable materials can also be completely vaporized. or including a portion of the liquid material remaining after all of the material suitable for aspiration has been consumed. It is possible.

[0038] In some embodiments, liquid gas from the vaporizer cartridge and / or other parts of the vaporizer Leakage of chemical materials may occur. Furthermore, the consistency of the manufacturing quality of the vaporizer heating element is... This can be particularly important during scaled and / or automated manufacturing processes. Furthermore, using a vaporizer may shorten the battery's operating time, and the operating time at low temperatures may also be affected. This may shorten the battery life, accelerate battery degradation over time, and affect battery performance. This may be done in conjunction with certain power requirements, which could have an impact.

[0039] Furthermore, the implementation of this subject can also provide advantages and benefits regarding these issues. For example, in this specification, various methods for controlling airflow and vaporized material flow The mechanism is described. This provides advantages and improvements over existing approaches. This allows for the introduction of additional benefits as described herein. The vaporizer devices and / or cartridges described in the specification are vaporizer devices and / or includes one or more mechanisms that control and improve the airflow within the cartridge, thereby Leakage of liquid vaporizable material, or accumulation along one or more internal channels and outlets. Without introducing additional mechanisms that could lead to condensate buildup, the vaporizer device This improves the efficiency and effectiveness of vaporizing liquid vaporizable materials.

[0040] For example, the heating element can be punched out from a sheet of material, and the wicking element is minimal. It can be bent to match at least some of the shapes. The configuration of the heating element is more consistent. This may enable the manufacture of heating elements with improved quality, and also allow for multiple con Tolerances that may occur during the manufacturing process when assembling heating elements with components. This may help reduce the problem of reduced tolerances in the manufacturing of heating elements. Due to the improved consistency of the potential outcomes, the heating element is, This may improve the accuracy of measurements obtained from heating elements (e.g., resistance, current, temperature, etc.). It is not possible. A stamped heating element is preferable to help minimize heat loss. In some cases, the heating element may behave as expected to heat to the appropriate temperature. It helps to make that certain.

[0041] To illustrate further, Figure 1 shows a block diagram illustrating an example of a vaporizer 100. As described above, the vaporizer 100 is powered by a power source 112 (for example, a non-rechargeable primary battery, rechargeable (Possible secondary batteries, fuel cells, etc.) and controller 104 (for example, capable of executing logic) It may include a processor, circuit mechanism, etc. The controller 104 is a vaporizable material in condensed form (e.g., solid, liquid, solution, suspension, or at least partially untreated plant material) To control the supply of heat to the atomizer 141 for converting (part of, etc.) into the gas phase. It may be configured as follows. For example, the controller 104 receives power from the power supply 112 to the atomizer 141 By controlling the discharge of current to at least the amount of heat supplied to the atomizer 141, the heat supply to the atomizer 141 is controlled. It is possible. The controller 104 is one or more that match a specific implementation of this subject. It may be part of a printed circuit board (PCB).

[0042] After converting the vaporizable material to the gas phase, and considering the type of vaporizer and the physical properties of the vaporizable material... Depending on the chemical properties and / or other factors, at least a portion of the vapor-vaporable material Condensing, particulate matter exists in at least partial local equilibrium with the gas phase as part of an aerosol. It is possible to form a vaporizable material (e.g., particulate matter) in the condensed phase. The vaporizable material is in at least partially local equilibrium with the vaporizer 100 until a predetermined puff is reached. Or, for the purpose of intake, a portion or all of the inhalable dose provided by the vaporizer 100 It can be formed. For example, ambient temperature, relative humidity, chemical substances, (inside the vaporizer and human (or in both the airways of other animals) Flow conditions in the airflow path, gas phase or aerozo Factors such as mixing of vaporizable material in the aerosol phase with other airflows can cause one or more physical phases of the aerosol to form. Because it may affect the lameter, the aerosol generated by the vaporizer 100 The interaction of vaporizable materials between the gas phase and the condensed phase can be complex and dynamic. Please understand this. Some vaporizers, in particular, are designed to deliver more volatile vaporizable materials. For the vessel, the inhalable dose can mainly exist in the gas phase (i.e., the condensed phase). Particle formation can be very limited.

[0043] The vaporizer 100 is used to vaporize liquid vaporizable material (e.g., net liquid, suspension, solution, mixture, etc.). To enable use with [the device], atomizer 141 generates fluid motion through capillary pressure. Wicking elements formed from one or more materials that can be used to produce odors (as specified herein) It can include a wicking element (also called a wick). The wicking element is a heating element (Figure 1). A certain amount of liquid vaporizable material is transported to a part of the atomizer 141, which includes (not shown). This is possible. The wicking element generally draws liquid vaporizable material from the reservoir. It is configured to release. The reservoir is configured to contain a liquid vaporizable material. It is contained (and can be stored when in use), and the heat generated by the heating element causes it to vaporize into a liquid. Possible materials can be vaporized. Also, the wicking element can, in some cases, allow air to escape. It can enter a reservoir and replace the volume of the extracted liquid. In other words, capillary action is necessary for vaporization of liquids due to a heating element (described below). The material may be drawn into the wicking element, and air is part of the substance of this subject. In its current form, the water returns to the reservoir via the wick, and the pressure within the reservoir is reduced at least partially. To equalize the pressure. Another approach to equalize the pressure is to return air to the reservoir, as follows: This falls within the scope of this subject, as will be examined in detail.

[0044] The heating element may be one or more of the following: a conductive heater, a radiant heater, and a convection heater. or may include it. One type of heating element is a resistance heating element, and this A resistive heating element generates heat when an electric current passes through one or more resistive segments of the heating element. Materials configured to dissipate electricity (e.g., metals or alloys, e.g., nickel) -Made of (chromium alloy or nonmetallic resistors) or may include at least In some realizations of this subject, the atomizer includes a resistance coil or other heating element. It can include a heating element. The heating element can be wrapped around the wicking element. , either placed within the wicking element or integrated with the bulk shape of the wicking element They are either press-fitted and come into thermal contact with the wicking element, or they transfer heat to the wicking element. In other configurations, the liquid vaporizable is drawn from the reservoir by the wicking element. The material may condense (e.g., aerosomal) into a gaseous phase for subsequent inhalation by the user. This causes vaporization in the particle or droplet phase. As will be further discussed below, other viruses A configuration including a heating element, heating element, and / or atomizer assembly is also possible.

[0045] Alternatively and / or additionally, the vaporizer 100 may, for example, provide a solid-phase vaporizable material (e.g. Plant materials containing wax or other vaporizable materials (for example, tobacco leaves and / or By heating a non-liquid vaporizable material such as tobacco leaves, an inhalable dose of the gas phase is produced. It may be configured to produce a vaporizable material of the aerosol phase. In other words, one or more heating elements are placed in an oven or other heating device where a non-liquid vaporizable material is placed. It may be part of the wall of the thermal chamber, or it may be integrated with this wall in some way. Alternatively, the wall may be in thermal contact with the heating element. Alternatively, one or more heating elements may be used. Then, the air passing through or having passed through the non-liquid vaporizable material is heated, and the non-liquid gas The material can be heated by convection. In another example, the direct conduction heating of plant materials. This occurs from within the mass of plant material (in contrast to conduction from, for example, the inside of an oven wall). To that end, one or more resistive heating elements can be positioned in close contact with the plant material. ru.

[0046] The heating element is the user puff at the vaporizer mouthpiece 130 (e.g., inhalation, drawing in, etc.). ) may be activated in association with (for example, it may be part of the vaporizer body considered below) The controller receives current from the power supply, and the vaporizer cart is considered as an option below. (The air is passed to a circuit that includes a resistive heating element, which is considered part of the ridge.) User puffs allow air to enter. Air flows from the mouth, through the atomizer (e.g., wicking element and heating element), and through the airflow path. Along the way, optionally through one or more condensation regions or chambers, the mouthpiece This causes the air to flow to the air outlet. The incoming air passing along the airflow path is the atomizer It passes through there, where the vaporizable material in the gas phase is taken into the air. As mentioned above, The vaporizable material in the gas phase condenses as it passes through the rest of the airflow path, aero A vaporizable material in sol form is inhaled in an inhalable dose and released from an air outlet (for example, by the user). The mouthpiece 130 can be sent inside for insertion.

[0047] The heating element detects puffs and / or determines when a puff is imminent. It can be activated accordingly. For example, puff detection can be performed based on one or more signals. It is possible to do so. The signal is, for example, from one or more pressure sensors (e.g., air pressure relative to ambient pressure). A motion sensor (configured to measure pressure along the airflow path, changes in absolute pressure, etc.) S, flow sensor, capacity sensor (for example, to detect contact between the user's lips and the vaporizer 100) One or more sensors 113 included in the vaporizer 100 (which is configured to produce Alternatively and / or additionally, one or more input devices included in the vaporizer 100 A user interacts with chair 116 (for example, a button on vaporizer 100 or other tactile control device). In response to detection of a vaporizer, reception of signals from a computer device communicating with the vaporizer 100, etc. This allows for the detection of a puff (or an impending puff), including the determination of an impending puff. It should be understood that puff detection can be performed using various techniques.

[0048] In some implementations of this subject, the vaporizer 100 is a computer device that communicates with the vaporizer. To a (or, depending on the case, two or more) device (for example, via wireless or wired connection) The controller 10 may be configured to connect. 4 may include communication hardware 105. Also, controller 104 may include memory It may include R108. The computer device also includes a vaporizer system including vaporizer 100. It may be a component of the system, and wireless communication with the communication hardware 105 of the vaporizer 100 It may include its own communication hardware that can establish a communication channel. For example, a computer device used as part of a vaporization system uses software. A user interface to enable the device user to interact with the vaporizer. General-purpose computer devices that generate faces (e.g., smartphones, tablets, etc.) (Consumer computers, some other portable devices, such as smartwatches, etc.) It may include being used as part of a vaporizer system in other realizations of this subject. Such devices include one or more physical or soft (e.g., a screen or Configurable on other display devices, including touch-sensitive screens or mice. User interaction with certain other input devices such as interfaces, trackballs, and cursor buttons. Remote control with interface control (selectable via) Alternatively, it may be a dedicated hardware piece such as another wireless or wired device. The vaporizer is a mechanism or device with one or more outputs 117 for providing information to the user. It can include.

[0049] The computer device that is part of the vaporization system defined above has one or more functions For example, dose control (e.g., dose monitoring, dose setting, dose limiting, user tracking, etc.), settings Session control (e.g., session monitoring, session configuration, session restrictions, user tracking) (etc.), control of nicotine delivery (e.g., switching between nicotine and non-nicotine vaporizable materials) (Replacement, adjustment of the amount of nicotine supplied, etc.), acquisition of location information (for example, the location of other users, Location of retailers / commercial venues, areas where e-cigarettes can be smoked, relative or absolute location of the vaporizer itself. (Location, etc.), personalization of vaporizers (e.g., naming of vaporizers, protecting vaporizers) Lock / password, adjustment of one or more parental controls, vaporizer and user glue (Association with the product, registering with the manufacturer or warranty and maintenance organization, etc.), other users Participating in social activities (e.g., games, social media communication, one or more groups) It can be used for any of the following (such as interacting with a loop). "Sessioning", The terms "session," "vaporizer session," or "steam session" are general terms. It is used to refer to the period of time spent using the vaporizer. The period can be expressed in terms of hours, number of doses, or vaporization time. This may include the amount of transformable material, etc.

[0050] Examples of computer devices providing signals related to the activation of heating elements or various control Other computer devices connected to the vaporizer 100 to perform other functions In this example, a computer device executes one or more computer instruction sets to enable the user It can provide the interface and underlying data processing. For example, The computer device detects user interaction with one or more user interface elements. Then, the computer device sends a signal to the vaporizer 100, and the heating element generates vapor / aerosol This causes the vaporizer to operate at any of the full operating temperatures required to produce an inhalable dose. Other functions include user input on a computer device that communicates with the vaporizer 100. It can be controlled through interaction with the interface.

[0051] The temperature of the vaporizer heating element is determined by the amount of power supplied to the heating element and / or the power supplied. The duty cycle, heat conduction to other components of the electronic vaporizer and / or the environment, Latent heat loss due to vaporization of vaporizable material from the locking element and / or the entire atomizer. Furthermore, airflow (for example, when a user inhales with an electronic vaporizer, heating element or atomizer) It can be determined by many factors, including convective heat loss due to air moving across the entire system. As mentioned above, ensure that the heating element is properly activated, or that the heating element is brought to the desired temperature. In order to heat, the vaporizer 100 receives a signal from a pressure sensor in some realizations of this subject. It can be used to determine the point in time when the user is inhaling. The pressure sensor measures the airflow. It can be placed within the road and / or (e.g., by a passage or other route) through the air An inlet for the device to enter, and for the user to inhale the generated vapors and / or aerosols. It can be connected to an airflow path that connects to an outlet. As a result, the pressure sensor can detect air As the vaporizer device passes from the air inlet to the air outlet, it also undergoes pressure changes. In some realizations of the subject, the heating element is, for example, a pressure that detects pressure changes in the airflow path. For example, by using a force sensor to automatically detect the puff, the system can be activated in association with the user's puff. It is possible.

[0052] Typically, the pressure sensor (and any other sensor 113) is connected to the controller 104 ( For example, placed on or connected to a printed circuit board assembly or other type of circuit board. to connect (for example, physically or via wireless connection, electrically or electronically) (Can be connected). To perform accurate measurements of vaporizer 100 and maintain durability, The elastic seal 150 may separate the airflow path from other components of the vaporizer 100. A seal 150, which may be a gasket, is present over the connection point of the pressure sensor to the internal circuit of the vaporizer. The pressure sensor is positioned so as to be isolated from a portion of the pressure sensor that is exposed to the airflow path, at least part of the pressure sensor It may be configured to enclose in sections. In the example of a cartridge-type vaporizer, seal 15 0 causes a gap between the vaporizer body 110 and the vaporizer cartridge 1320 (not shown in Figure 1). Separating one or more of the electrical connections from one or more other parts of the vaporizer body 110 It is also possible. Such arrangement of the seal 150 in the vaporizer 100 is due to environmental factors, for example, A vaporizer is generated by the interaction of water in the vapor phase or liquid phase with other fluids such as vaporizable materials. To mitigate potentially destructive effects on components and / or to be designed within the vaporizer This can help reduce air leakage from the airflow path. Undesirable passage and / or contact of air, liquid, or other fluids may result in various undesirable conditions. This could have adverse effects, such as causing changes in pressure readings and / or vaporization. Undesirable materials such as moisture and vaporizable materials may accumulate inside the container's components. In total, these factors result in insufficient pressure signals, causing the pressure sensor or other components to malfunction. It may deteriorate and / or shorten the lifespan of the vaporizer. Also, seal 150 Due to leakage, it may contain materials that would be undesirable for inhalation, or this material There is a risk that the user may inhale air that has passed through the constructed vaporization device. be.

[0053] The vaporizer 100 may be a cartridge-type vaporizer, as described. Therefore Figure 1 shows a controller 104, a power supply 112 (e.g., a battery), and one or more sensors 1. 13. In addition to one or more charging contacts 124 and seals 150, one or more different mountings A minimum number of vaporizer cartridges 1320 for connecting to the vaporizer body 110 via the structure A vaporizer including a cartridge receptacle 118 configured to accept a portion of it This shows a vaporizer body 110 of 100. In some examples, the vaporizer cartridge 1320 is a reservoir 140 for containing liquid vaporizable material and a device for supplying an inhalable dose to the user. It may include a mouthpiece 130 for use with a wicking element and The atomizer 141, which includes a heating element, is at least partially contained within the vaporizer cartridge 1320. It can be arranged. Depending on the case, the heating element and / or wicking element may vaporize When the cartridge 1320 is fully connected to the vaporizer body 110, the cartridge receiver The wall surrounding mouth 118 contains all or less of the heating element and / or wicking element. It may also be placed inside the vaporizer cartridge 1320 so as to enclose a part of it. In the current configuration, the vaporizer cartridge is inserted into the cartridge receptacle 118 of the vaporizer body 110. The ridge 1320 portion may be located inside another portion of the vaporizer cartridge 1320. For example, the insertable portion of the vaporizer cartridge 1320 is, for example, vaporizer cartridge 1 It may be at least partially surrounded by some other parts, such as the outer shell of 320.

[0054] Alternatively, at least a portion of the atomizer 141 (e.g., wicking element and additive One or both of the thermal elements can be placed inside the vaporizer body 110 of the vaporizer 100. In the embodiment where it is part of the vaporizer body 110, it is part of the atomizer 141 (for example, The vaporizer 100 includes a heating element and / or wicking element, and the vaporizer cartridge 13 Liquid vaporizable from reservoir 140 inside 20 to atomizer part contained in vaporizer body 110 It may be configured to deliver the necessary materials.

[0055] As mentioned above, vaporizable material 102 is taken from reservoir 140 (for example, Witch By extracting the capillary flow (through the King element), the ambient air in reservoir 140 is removed. A vacuum of at least partial pressure (for example, emptied by the consumption of a liquid vaporizable material) A vacuum may occur in part of the reservoir. Such a vacuum can cause wicking. This can interfere with the capillary action provided by the element. In some cases, this reduced pressure can interfere with the liquid. The effectiveness of the wicking element in extracting the vaporizable material 102 is reduced if it is too large. This can be the case, and therefore, for example, when the user performs puffing with the vaporizer 100 The effectiveness of the vaporizer 100 in vaporizing a desired amount of vaporizable material 102 is reduced. In extreme cases, if a vacuum is created in the reservoir 140, vaporizable material will be released from the reservoir 140. It becomes impossible to extract all of 102, and as a result, the use of vaporizable material 102 This can sometimes result in an incomplete process. To mitigate this problem, the pressure inside reservoir 140 is adjusted to the ambient pressure. Make it at least partially equal to the force (for example, the ambient air pressure outside reservoir 140). (In some cases, to make them perfectly equal) (vaporizer cartridge 13 Vaporizer reservoir 1 (regardless of the location of reservoir 140 inside or elsewhere in the vaporizer) In relation to 40, one or more ventilation mechanisms may be included.

[0056] In some cases, by enabling pressure equalization within reservoir 140, the liquid vaporization The efficiency of delivering the available material to the atomizer 141 is improved, but otherwise the reservoir 140 The empty void volume (for example, the empty void volume due to the use of the liquid vaporizable material 1302) This can be done by filling the space between the parts with air. This will be discussed in more detail below. In this way, the air-filled void volume is subsequently subjected to pressure changes relative to the surrounding air. This can occur, and due to this change, under certain conditions, from reservoir 140, ultimately , other parts of the vaporizer housing the vaporizer cartridge 1320 and / or reservoir 140 This may cause leakage of liquid vaporizable material 1302 from the vaporizer. For example, vaporizer cartridge The pressure inside the tridge 1320 is at least a portion of the vaporizable material 1302 in the reservoir 140. A negative pressure event high enough to move the cartridge 1320 is due to various environmental factors, for example, Changes in ambient temperature, altitude, and / or volume may trigger this phenomenon. The implementation involves eliminating or at least minimizing the leakage of the vaporizable material 1302. It is possible.

[0057] Figures 2A and 2B show an example of a vaporizer cartridge 1320 consistent with the implementation of this subject. A cross-sectional view is shown. As shown in Figures 2A and 2B, cartridge 1320 is a mouthpiece. A mouthpiece area 1330 and a reservoir 134 containing vaporizable material 1302 It can include 0 and an atomizer (not shown individually). The atomizer is Wiki Vaporization drawn from or stored in the wicking element 1362 For the purpose of vaporizing the possible material 1302, the wicking element 1362 is placed on the heating element 1350. Depending on the implementation, the heating element 1350 and The wicking element 1362 may be included together or separately.

[0058] In one embodiment, the contact 1326 connects the heating element 1350 to the power supply (for example, shown in Figure 1). It may be included to provide an electrical connection between the power supply 112 and the reservoir 13. The air passage 1338 that passes through or is defined on the side of 40 is wicking required Cartridge housing element 1362 (for example, the wick housing is not shown separately) The area within the ridge 1320 is connected to the opening leading to the mouthpiece or mouthpiece area 1330. Connected, the vaporized vaporizable material 1302 moves from the heating element 1350 region to the mouthpiece region. It can provide a route to travel to 1330.

[0059] As provided above, the wicking element 1362 has one or more electrical contacts (e.g., , an atomizer or heating element 1350 (for example, a resistive heating element) connected to plate 1326) It can be connected to a heating element or coil. Heating element 1350 (and / or 1 Other heating elements described herein in accordance with one or more embodiments include various shapes and / Alternatively, it may have a configuration with one or more heating elements, as provided in more detail below. It may include element 1350, 1350 or a mechanism thereof.

[0060] According to one or more exemplary realizations, the heating element 1350 of the cartridge 1320 is It can be made from a sheet of material (e.g., by die-cutting), and the wicking element 13 The wicking element 1362 is crimped around at least a portion of 62 or receives wicking element 1362. To provide a pre-formed element configured to either bend or otherwise Yes, it is possible. For example, the wicking element 1362 may be pushed into the heating element 1350. Alternatively and / or additionally, the heating element 1350 is held under tension, and It may be pulled onto locking element 1362.

[0061] The heating element 1350 is such that at least two or three of the heating elements 1350 are The wicking element 1362 can be bent to secure it between the two parts. The heating element 1350 matches the shape of at least a portion of the wicking element 1362. It can be bent. The configuration of the heating element 1350 is more consistent. This enables the production of improved quality. Consistency is especially important during scaled and / or automated manufacturing processes. For example, a heating element 1350 relating to one or more realization forms may have multiple components When assembling the heating element 1350 having the following tolerances that may occur during the manufacturing process It may help reduce the problem.

[0062] Furthermore, the following applies to embodiments that include heating elements formed from crimped metal. As will be further considered, in order to improve the heating performance of the heating element 1350, 1350 can be plated entirely and / or selectively with one or more materials. Plating all or part of the thermal element 1350 helps minimize heat loss. In some cases, this occurs. Furthermore, the plating process concentrates heat on a portion of the heating element 1350, thereby... This helps to provide a heating element 1350 that heats more efficiently and further reduces heat loss. In some cases, selective plating guides the current supplied to the heating element 1350 to the appropriate position. This can be useful in some cases. Also, selective plating depends on the amount of plating material and / or heating element. It can also help reduce the costs associated with manufacturing the 1350.

[0063] As described above, in one embodiment, the heating element 1350 is a wicking element 1362 At least partially inside the heating element 1350 (for example, the heating portion of the heating element 1350) It is configured to receive at least a portion of the wicking element 1362 so that it can be positioned. It is acceptable for the wicking element 1362 to be near or adjacent to plate 1326. It may extend through a resistance heating element that contacts plate 1326. The housing encloses at least a portion of the heating element 1350 and directly protects the heating element 1350 from It can be indirectly connected to the air passage 1338. The vaporizable material 1302 is used in the Pulled by the wicking element 1362 through one or more passages connected to the bar 1340 It can be loaded. In one embodiment, the primary passage 1382 or the overflow channel 1 Using one or both of 104 (see Figure 5A), the vaporizable material 1302 is used At one or both ends of the wicking element 1362 or the wicking element 1362 It can be used to radially feed or deliver along the length.

[0064] As will be provided in more detail below, particularly with reference to FIGS. 2A to 2B, a vaporizer car tridge 1320, the exchange of air and liquid vaporizable material 130 2 entering and exiting the reservoir 1340 thereof can be advantageously controlled by an incorporated structure called a collector 1313 . The inclusion of the collector 1313 allows, for the total volume of liquid vaporizable material contained in the cartridge 1320 , which may correspond to the volume of the cartridge 1320 itself, the volumetric efficiency of the cartridge 1320 , defined as the volume of liquid vaporizable material that is ultimately converted into an inhalable aerosol , can also be improved.

[0065] According to some implementations, the cartridge 1320 has a reservoir 1340 that is at least partially defined by at least one wall configured to contain liquid vaporizable material 1302, which may optionally be a wall shared with the outer shell of the cartridge . The reservoir 1340 may include a storage chamber 1342 and an overflow volume 1344. The overflow volume 1344 may include or otherwise accommodate the collector 1313 in any manner. The storage chamber 1342 is capable of containing vaporizable material 1302, and the overflow volume 1344 is configured to collect and / or retain at least a portion of the vaporizable material 1302 when the vaporizable material 1302 in the storage chamber 1342 of the reservoir is moved into the overflow volume 1344 due to one or more factors. In some implementations of the present subject matter, the cartridg e may be configured as described above. The void in collector 1313 is pre-filled with vaporizable material 1302. The sea urchin can be initially filled with vaporizable material 1302.

[0066] In some exemplary embodiments, the volume size of the overflow volume 1344 is the storage channel. The volume of the contents in the container 1342 is such that the reservoir 1340 may be subjected to ambient pressure. The contents contained within the storage chamber 1342 when it expands due to the maximum expected change in pressure This is equal to, and approximately equal to, the increase in volume of the substance (e.g., vaporizable material 1302 and air). It may be configured to be larger than that.

[0067] Depending on changes in ambient pressure, temperature and / or other factors, cartridge 1320 will A change from a pressure state 1 to a pressure state 2 (for example, between the internal pressure of the reservoir and the ambient pressure). (A first relative pressure difference and a second relative pressure difference between the inside of the reservoir and the ambient pressure) can be received. For example, in the first pressure state, the pressure inside cartridge 1320 is It may be less than the external ambient pressure of 20. In contrast, in the second pressure state, the cartridge The pressure inside 1320 may exceed the ambient pressure. The cartridge 1320 is in equilibrium. In this case, the pressure inside cartridge 1320 is substantially equal to the ambient pressure outside cartridge 1320. It's fine if it's equal to the target.

[0068] In some embodiments, the overflow volume 1344 is an opening outside the cartridge 1320. It may have a reservoir and may be in communication with the reservoir storage chamber 1342. As a result, The overflow volume 1344 is for providing pressure equalization within cartridge 1320. It functions as an air channel and allows vaporizable material 1302 to enter the overflow volume 1344. For example, in response to fluctuations in the pressure difference between the storage chamber 1342 and the ambient pressure, the storage chamber (from 1342) can be collected and at least temporarily held and / or, In some cases, at least the vaporizable material 1302 collected in the overflow volume 1344 It is also possible to reverse some of the changes.

[0069] As used herein, "pressure difference" refers to the pressure inside cartridge 1320 and the pressure inside the cartridge. This may refer to the difference between the ambient pressure outside the Tridge 1320 and the vapor phase or aerozoic phase. To convert to the futile phase, vaporizable material 1302 is transferred from storage chamber 1342 to atomizer. By withdrawing, the volume of vaporizable material 1302 remaining in the storage chamber 1342 is reduced. This can reduce the amount of air stored and returned to the chamber 1342 (for example, cartridge There is a mechanism to increase the pressure inside the 1320 to achieve substantial equilibrium with the ambient pressure. In other cases, low pressure or vacuum may also occur within cartridge 1320. The vacuum is used to draw the additional amount of vaporizable material 1302 into the heating element 1350. It may interfere with the capillary action of element 1362.

[0070] Alternatively, the pressure inside cartridge 1320 is affected by various environmental factors, such as cartridge Due to changes in ambient temperature, altitude, and / or volume of the J1320, etc., the cartridge may rise. The external ambient pressure of the 1320 may exceed this internal pressure. This increase in internal pressure can, for example, cause cartridges. To achieve equilibrium between the pressure inside the 1320 and the ambient pressure outside the cartridge 1320 This may occur after air is returned into the storage chamber 1342. However, one or more sufficient changes in environmental factors may cause the pressure in the cartridge 1320 to initially achieve equilibrium between the pressure within the cartridge 1320 and ambient pressure, without additional air entering the cartridge 1320, the pressure can rise from a state lower than ambient pressure to a state higher than ambient pressure (e.g., transition from a first pressure state to a second pressure state). It should be understood that a negative pressure event resulting from a sufficient increase in pressure within the cartridge 1320 may cause at least a portion of the vaporizable material 1302 in the storage chamber 1342 to move. In order to collect and / or retain the moved vaporizable material 1302 within the cartridge 1320, if there is no mechanism for this, the moved vaporizable material 1302 may leak from the cartridge 1320.

[0071] Continuing to refer to FIGS. 2A and 2B, the reservoir 1340 may be implemented to include a first region and a second region separable from the first region, such that the volume of the reservoir 1 340 is divided into the storage chamber 1342 and an overflow volume 1344. The storage chamber 1342 may be configured to store the vaporizable material 1302, and may be further connected to the wicking element 1362 via one or more primary passages 1382. In some examples, the length of the primary passage 1382 may be very short (e.g., a through hole from the space that accommodates the wicking element 1362 or other components of the atomizer). In other examples, the primary passage 1382 may be part of a longer fluid path between the storage chamber 1342 and the wicking element 1362. The overflow volume 1344 is provided in further detail below In this way, in a second pressure state where the pressure inside the storage chamber 1342 is higher than the ambient pressure, storage One of the vaporizable material 1302 that can enter the overflow volume 1344 from chamber 1342 It may be configured to collect and, at least temporarily, hold more than one portion.

[0072] Under the first pressure condition, the vaporizable material 1302 is stored in the storage chamber 13 of the reservoir 1340. It can be stored in 42. As mentioned above, the first pressure state is, for example, cartridge 13 The external ambient pressure of 20 is approximately the same as or greater than the pressure inside cartridge 1320. It can exist in certain cases. In this first pressure state, the primary passage 1382 and O - The structural and functional properties of the vapor-free channel 1104 are such that the vaporizable material 1302 is primary Flow from storage chamber 1342 towards wicking element 1362 through passage 1382 It is such that it can be done by the capillary action of the wicking element 1362. This allows the vaporizable material 1302 to be drawn near the heating element 1350. The heat generated by 1350 acts on the vaporizable material 1302, causing the vaporizable material 1302 to It can be converted into a gas phase.

[0073] In one embodiment, under a first pressure state, the vaporizable material 1302 is collected by the collector 131 3. For example, it does not flow into the overflow channel 1104 of collector 1313 or It may flow in a limited amount. In contrast, cartridge 1320 is in the first pressure state. When the pressure transitions to the second pressure state, the vaporizable material 1302 is released from the storage chamber 1342. It can flow into the overflow volume 1344 of the reservoir 1340. Collector 1313 By collecting the vaporizable material 1302 that enters and holding it at least temporarily, the collection Ta 1313 is an undesirable (for example,) vaporizable material 1302 from reservoir 1340. It can obstruct or restrict (excessive) flow. As mentioned above, the second pressure state is If the ambient pressure outside cartridge 1320 is less than the pressure inside cartridge 1320 This pressure difference allows bubbles to expand into the storage chamber 1342. This can be generated and replace a portion of the vaporizable material 1302 in the storage chamber 1342. It can be obtained. The replaced portion of the vaporizable material 1302 is cartridge 132 Instead of leaving 0 and causing undesirable leakage, it is collected by collector 1313, It can be temporarily retained even without it.

[0074] Advantageously, the flow of vaporizable material 1302 is driven from the storage chamber 1342. The possible material 1302 is controlled by sending it to the overflow volume 1344 which is in a second pressure state. It can be controlled. For example, the collector 1313 in the overflow volume 1344 is liquid. The vaporizable material 1302 may exit the collector 1313, potentially causing undesirable leakage. Without allowing the liquid vaporizable material 1302 to reach the outlet of the collector 1313, storage At least one of the excess liquid vaporizable material 1302 that is pushed out from chamber 1342 Collect the parts (and all, for the sake of convenience) to accommodate them and hold them at least temporarily. It may include one or more capillary structures. In addition, collector 1313 is advantageous This occurs when the pressure in the storage chamber 1342 decreases and / or equals the ambient pressure. Sometimes, (for example, due to excess pressure in the storage chamber 1342 relative to the ambient pressure) The liquid vaporizable material pushed into the 1313 is reversibly drawn into the storage chamber 1342. It may also include a capillary structure that allows for rewinding. That is, collector 1313 The overflow channel 1104 fills and emptys the collector 1313 with air and It may have a microfluidic mechanism or properties that prevent the liquids from bypassing each other. In other words, vaporizable material enters and exits collector 1313 using a microfluidic mechanism. It is possible to manage the flow of 1302 (i.e., provide a flow reversal mechanism). In this process, these microfluidic mechanisms prevent or reduce leakage of the vaporizable material 1302. This allows for the removal of bubbles in the storage chamber 1342 and / or overflow volume 1344. It can be captured.

[0075] Depending on the implementation, the above-described microfluidic mechanism or characteristics are provided by the wicking element 1362. Size, shape, and surface coating of the primary passage 1382 and / or overflow channel 1104 This can be related to the covering, structural features and / or capillary properties. For example, collector 1 The overflow channel 1104 in 313 may, in some cases, allow air in the storage chamber 1342 to flow through. At least a portion of the molten material 1302 is moved from the storage chamber 1342 under a second pressure. During this state, a specific volume of vaporizable material 1302 overflows from the storage chamber 1342. A primary passage 13 leading to the wicking element 1362 allows passage within volume 1344. It may have different capillary properties than 82.

[0076] In one exemplary implementation, the collector allows the liquid to flow out of the collector 1313. The total resistance of TA 1313 is, for example, that the vaporizable material 1302 is mainly passed through the primary pressure state during the first pressure state. To allow flow towards wicking element 1362 via path 1382, It may be greater than the total resistance of the wicking element 1362.

[0077] The primary passage 1382 is for vaporizable material 1302 stored in reservoir 1340 A capillary pathway can be provided through or within the wicking element 1362. The tubular pathway (e.g., primary passage 1382) is formed by wicking or capillary action. This makes it possible to replace the vaporized vaporizable material 1302 within the locking element 1362. It may be large enough, but the excessive pressure within cartridge 1320 can cause vaporizable material 1 When at least a portion of 302 is moved from storage chamber 1342, the cartridge It may be small enough to prevent leakage of vaporizable material 1302 from J 1320. The wick housing or wicking element 1362 is treated to prevent leakage. For example, cartridge 1320 may leak through wicking element 1362 or To prevent evaporation, a coating can be applied after filling. For example, a thermal vaporizable coating (for example) Alternatively, any suitable coating (including wax or other materials) can be used.

[0078] When the user inhales from the mouthpiece area 1330 of cartridge 1320, the air , cartridge 1 through an inlet or opening that is in operational relationship with the wicking element 1362 It can flow within 320. The heating element 1350 is one or more (shown in Figure 1) It may be activated in response to a signal generated by the sensor 113. As described above, one or more The sensor 113 above is a pressure sensor, motion sensor, flow sensor, or, for example, an air passage 1 Puff and / or impending puff detection, including detection of changes in 338. It may include at least one of the other mechanisms. When the heating element 1350 is activated The heating element 1350 converts electrical energy or thermal energy through the plate 1326. The current flowing through another electrical resistance component of the heating element 1350 functions to convert the current through As a result, it may experience a temperature rise. The heating element 1350 is activated by power supply 112. Controller 1 (for example, shown in Figure 1) discharges current to the heating element 1350. It should be understood that 04 may include controlling power supply 112.

[0079] In one embodiment, the generated heat is drawn into a vaporizable material within the wicking element 1362. At least a portion of material 1302 is vaporized by conductive, convective, and / or radiative means. Due to the heat transfer properties, at least one of the vaporizable material 1302 within the wicking element 1362 It can be transmitted to the unit. Depending on the implementation, the air entering the cartridge 1320 is U On (or around) the heated elements within the ickening element 1362 and heating element 1350, It can flow through nearby areas, and vaporizable material 1302 vaporized into the air passage 1338. It can be peeled off. In this case, the vapor may condense, for example, a mouth pea. It may be delivered in aerosol form through the opening in region 1330.

[0080] Referring to Figure 2B, the storage chamber 1342 is located in the storage chamber 1342 relative to the atmosphere. The increased pressure drives the liquid vaporizable material 1302 out of the storage chamber 1342. The portion remains within the overflow volume 1344 without leaving the vaporizer cartridge 1320. In order to enable this, the air passage 1338 (i.e., overflow volume 1 It can be connected via 344 overflow channels 1104 as described herein. The implementation details relate to a vaporizer cartridge 1320 including a reservoir 1340, but are not fully described. This approach is also suitable for use in vaporizers that do not have separable cartridges, and the same usage It should be understood that this is the intended outcome.

[0081] Returning to the example, if the pressure inside the vaporizer cartridge 1320 is lower than the ambient pressure, then storage The air that can enter chamber 1342 increases the pressure inside vaporizer cartridge 1320. The pressure inside the vaporizer cartridge 1320 can be raised, and the pressure inside the vaporizer cartridge 132 The vaporizer cartridge 1320 is moved to a second pressure state that exceeds the external ambient pressure of 0. Alternatively and / or additionally, the vaporizer cartridge 1320 can be used at ambient temperature Changes in temperature, changes in ambient pressure (for example, due to changes in external conditions such as altitude and weather) Changes in the volume of the vaporizer cartridge 1320 (for example, vaporizer cartridge 1 Depending on whether 320 is compressed by an external force such as squeezing, it transitions to a second pressure state. This is possible. For example, in the case of a negative pressure event, the pressure inside the storage chamber 1342 rises, and the storage The air occupying the void space of chamber 1342 expands at least, thereby storing the chamber At least a portion of the liquid vaporizable material 1302 inside the container 1342 can be moved. The moved portion of the vaporizable material 1302 enters the overflow channel in the collector 1313. It is possible to travel through at least some parts of 1104. Overflow Channel The microfluidic mechanism of part 1104 involves transferring the liquid vaporizable material 1302 into the collector 1313. Along the length of the overflow channel 1104, the flow direction along that length is crossed Only the meniscus that completely covers the cross-sectional area of ​​the buff channel 1104 can be moved. .

[0082] In some implementations of this subject, the microfluidic mechanism is such that the wall of the overflow channel 1104 The composition of the material to be formed and the liquid vaporizable material 1302, 1302 is around the entire periphery of overflow channel 1104 It can contain a cross-sectional area small enough to preferentially wet 04. Liquid vaporizable material Examples of 1302 containing one or more of propylene glycol and vegetable glycerin And, the wetting properties of such liquids are advantageous in that the geometric shape of the second passage 1384 and - This is considered in combination with the material that forms the wall of the overflow channel 1104. Therefore, the sign of the pressure difference between the storage chamber 1340 and the ambient pressure (for example, positive, negative or (is equal to) and as the size changes, it exists within the overflow channel 1104 A meniscus is maintained between the liquid vaporizable material 1302 and the air coming in from the surrounding atmosphere. The storage chamber is held in place to prevent the vaporizable material 1302 and air from passing through each other. The pressure inside 1342 is sufficiently reduced relative to the ambient pressure, and to enable this, storage is used. If sufficient void volume exists within chamber 1342, the collector 1313 overflows The vaporizable material 1302 present within channel 1104 forms the main liquid-air meniscus. The gate between the overflow channel 1104 of recta 1313 and the storage chamber 1342 Alternatively, it may be drawn into the storage chamber 1342 to a sufficient extent to reach the port. At such a point, the pressure difference within the storage chamber 1342 relative to the ambient pressure, the gate or port If the surface tension is negative enough to overcome the tension that maintains the meniscus, the meniscus will Released from the gate or port wall, it forms one or more bubbles, and then a sufficient volume It is released into the storage chamber 1342, and is subject to ambient pressure inside the storage chamber 1342 The pressures become equal.

[0083] As discussed above, if something enters the storage chamber 1340 (or in some way does so) The air that came to exist inside (for example, in an airplane cabin or other high-altitude position) A decrease in ambient pressure that can occur, when a window of a moving vehicle is opened, or when a train or vehicle When exiting a tunnel or similar structure, or due to localized heating, the shape is distorted, thereby affecting the storage chamber 134 The contents of the storage chamber 1340 may be affected by mechanical pressure or other factors that reduce the volume of 0. If the internal pressure increases (due to an increase in internal pressure), the above process will occur. It can be reversed. The liquid passes through the gate or port over collector 1313. Vaporizable material 13 enters the flow channel 1104 and enters the overflow channel 1104. A meniscus forms at the leading edge of column 02, allowing air to bypass and vaporize material 1302. To prevent it from flowing against the flow.

[0084] By maintaining this meniscus due to the presence of the aforementioned microfluidic properties, the storage chamber When the increased pressure inside 1340 subsequently decreases, the column of vaporizable material 1302 stores It may be pulled back into chamber 1340, and in some cases the meniscus may be a gate or port. It may be pulled back until it reaches [a certain point]. Due to the pressure difference, the pressure in the storage chamber 1342 is [a certain point]. Then, when the ambient pressure is sufficiently favorable, the bubble shape described above is formed until the two pressures become equal. A formation process may occur. In this way, collector 1313 is subjected to ambient pressure. Under the transition conditions of higher storage chamber pressure, vaporized gas is pushed out of storage chamber 1342. The vaporizable material 1302 is accepted, while the overflow volume of this vaporizable material 1302 is small. At least some (and preferably all or most) of the subsequent feeding, for example, inhalable Storage chamber 1340 for supplying to heating element 1350 for conversion to aerosol It can function as a reversible overflow volume, allowing it to be returned to its original state.

[0085] Depending on the implementation, the storage chamber 1342 is accessed via the overflow channel 1104. It may or may not be connected to wicking element 1362. The overflow channel 1104 has a first end that is connected to the storage chamber 1342 and Implementation including a second end overflow channel 1104 connected to a locking element 1362 In this configuration, vaporizable material can exit the overflow channel 1104 at the second end. Any of the functional materials 1302 can further satisfy the wicking element 1362.

[0086] The storage chamber 1342 may be located near the mouthpiece area 1330. It can be placed closer to the end of the 1340. The overflow volume 1344 can be, for example, For example, between the storage chamber 1342 and the heating element 1350, the heating element 1350 is closer It can be positioned near the end of the reservoir 1340. Exemplary implementations shown in the drawings The form, with respect to the position of the various components disclosed herein, falls within the scope of the claimed subject matter. It should not be interpreted as limiting the scope. For example, the overflow volume 1344 It can be placed at the top, middle, or bottom of cartridge 1320. Reservoir 1 The position and arrangement of 342 are such that the storage chamber 1342 is carved according to one or more variations. Overflow so that it can be placed at the top, middle, or bottom of the 1320 - It can be adjusted relative to the position of volume 1344.

[0087] In one realized configuration, when the vaporizer cartridge 1320 is filled to its volume, a liquid vaporizable The volume of the material 1302 is the overflow volume 1344 of the internal volume of the storage chamber 1342. It may be equal to the sum of the two. The internal volume of the overflow volume is some exemplary. In this implementation, the overflow channel 1104 is connected to the storage chamber 1340 via a gate. or overflow channel 11 between the port and the exit of overflow channel 1104 It can correspond to the volume of 04. That is, the vaporizer cartridge 1320, collect The entire or at least a portion of the internal volume of TA 1313 is occupied by liquid vaporizable material 1302. To enable this, it can be initially filled with liquid vaporizable material 1302. In such an example, the necessary components for supplying to the user (e.g., wicking element 1362 and heating) A liquid vaporizable material 1302 can be delivered to the atomizer (including element 1350). Example For example, to send a portion of the vaporizable material 1302, store a portion of the vaporizable material 1302. It can be pulled out from the 1340, thereby preventing overflow of the collector 1313. Any vaporizable material 1302 present in channel 1104 is drawn back into storage chamber 1340. The meniscus is maintained by the microfluidic properties of the overflow channel 1104. Therefore, air cannot enter through the overflow channel 1104 (this prevents air from entering through the overflow channel 1104). Air flows over the vaporizable material 1302 present in the overflow channel 1104. This is to prevent the original volume of collector 1313 from being drawn into chamber 1340. A sufficient amount of vaporizable material 1302 to be inhaled (for example, vaporization and user inhalation) After being sent from the storage chamber 1340 to the atomizer, the operations discussed above are performed. For example, a portion of the vaporizable material 1302 is taken out of the storage chamber 1340. Sometimes, one or more bubbles are trapped between the secondary passage 1384 and the storage chamber 1340 gate or It is released from the port, and the pressure in the storage chamber 1340 (for example, relative to the ambient pressure) It can be made equal. The pressure in the storage chamber 1340 (for example, in a first pressure state) Air inflow, temperature changes, ambient pressure changes, and changes in the volume of vaporizer cartridge 1320. (due to, etc.) if the pressure rises above the ambient pressure, the liquid vaporizable material in the storage chamber 1340 As a portion of the material 1302 moves, the elevated pressure in the storage compartment will decrease until it is reduced. ...from the storage chamber 1340, overflowing through the gate or port in the overflow channel 1104 It becomes possible to move. When it decreases, overflow channel 1104 The liquid vaporizable material 1302 inside can be stored and drawn back into the chamber 1340.

[0088] In certain embodiments, the overflow volume 1344 is approximately the volume of the storage chamber 1342. A certain percentage of vaporizable material 13, including up to 100%, is stored in the storage chamber 1342. It can be made large enough to accommodate 02. In one embodiment, collector 131 3 is at least 6 of the volume of vaporizable material 1302 that can be stored in the storage chamber 1342. It may be configured to accommodate %~25%. Other ranges may also be included within the scope of this subject. be.

[0089] The structure of collector 1313 is such that the overflow portion of vaporizable material 1302 is controlled. By law (for example, by capillary pressure), at least temporarily accepted within the overflow volume 1314 It is made possible to be contained or stored. Thereafter, the vaporizable material 1302 Leakage from cartridge 1320 or excessive filling of wicking element 1362 To prevent this, the overflow capacity is designed to have different shapes and different characteristics. It may be composed, constructed, molded, manufactured or arranged within stack 1344. The above explanation, which refers to overflow channel 1104, is a single such overflow channel It should be understood that this is not intended to be limited to Nell 1104. One or in one case More than two overflow channels 1104, one or more gates or ports It may be connected to the storage chamber 1340 via a terminal. This means that a single gate or port connects to two or more overflow channels 1104. This is possible, or a single overflow channel 1104 can have two or more overflow channels It can be divided into Nell 1104, which can provide additional overflow volume or other advantages. Cut.

[0090] In some implementations of this subject, the air vent 1318 ultimately leads to cartridge 13 20 An overflow volume 1344 is connected to an air passage 1338 that leads to the ambient air environment outside. This air vent 1318 can, for example, be connected to the overflow channel 1104. The second chamber is filled with a portion of the vaporizable material 1302 that has moved from the storage chamber 1342. During the pressure conditions, air that may have formed or been trapped within collector 1313 may also This allows a path for air bubbles to escape through the air vent 1318.

[0091] According to some embodiments, the air vent 1318 is used to prevent overflow of vaporizable material 1302. As the fluid returns from the overflow volume 1344 to the storage chamber 1342, a second pressure state occurs. While returning to equilibrium, it functions as a reverse vent, equalizing the pressure within cartridge 1320. This can be provided. In this embodiment, the ambient pressure is the internal pressure within the cartridge 1320. When the force is exceeded, the surrounding air flows through the air vent 1318 to the overflow channel 1104. The vaporizable material 1302 flows inward and is temporarily stored in the overflow volume 1344, then reverses direction. This can be effectively used to return the fluid to the storage chamber 1342 in that direction.

[0092] In one or more embodiments, under the first pressure condition, the overflow channel 1104 , may be at least partially occupied by air. In the second pressure state, vaporizable material 13 02 is, for example, at the interface between the storage chamber 1342 and the overflow volume 1344. It is possible to enter the overflow channel 1104 through a certain opening (i.e., a vent). As a result, the air in the overflow channel 1104 (for example, incoming vaporizable air) It is replaced by the material 1302 and can exit through the air vent 1318. In some implementations, the air vent 1318 allows air to exit from the overflow volume 1344. This makes it possible for the vaporizable material 1302 to flow through the overflow channel 1104 with air. Control valves (e.g., selective permeable membrane, microfluidic gate, etc.) to prevent it from entering passage 1338 and It may function as or include it. As previously mentioned, air vent 13 18, for example, is replaced by the excess pressure in the storage chamber 1342 when collector 1313 is replaced. The storage chamber 1342 is filled with vaporizable material 1302, and the pressure inside the storage chamber 1342 is equal to the ambient pressure. When the quality becomes equal, it becomes empty, allowing air to enter and exit collector 1313. It can function as an air exchange port, that is, the pressure inside cartridge 1320 However, there is a first pressure state when the pressure is lower than the ambient pressure, and a second pressure state when the pressure inside cartridge 1320 is lower than the ambient pressure. A second pressure state exceeding the force, where the pressure inside cartridge 1320 and the ambient pressure are substantially the same. In the case of equilibrium, and during the transition between the two states, the air vent 1318 allows air to enter the collector. It is possible to make it possible to enter and exit 1313.

[0093] Therefore, until the pressure inside cartridge 1320 stabilizes (for example, cartridge 1 (When the pressure within 320 is substantially equal to the ambient pressure or satisfies the specified equilibrium), Alternatively, the vaporizable material 1302 may be drawn into the atomizer for vaporization. (By this) until the vaporizable material 1302 is removed from the overflow volume 1344, It can be stored in the collector 1313. Therefore, as the ambient pressure changes, the collector By controlling the flow of vaporizable material 1302 inside and outside 1313, the overflow volume The level of vaporizable material 1302 within 1344 can be controlled. One or more implementations In this state, vaporizable material 130 is transferred from the storage chamber 1342 into the overflow volume 1344. The overflow of 2 depends on the changes detected in the environment (e.g., vaporizable material 1302) (When the pressure event that caused the overflow subsides or ends), reverse the process. It may be possible or reversible.

[0094] As described above, in some realizations of this subject, the pressure inside cartridge 1320 is ambient A state where the pressure is lower than the initial pressure (for example, transitioning from a second pressure state back to a first pressure state). When this happens, the flow of vaporizable material 1302 overflows the vaporizable material 1302. The flow reverses from the reservoir 1344 to the storage chamber 1342 of the reservoir 1340. There is a match. Therefore, depending on the implementation, the overflow volume 1344 is cartridge 1 Due to the high pressure in 320, at least a portion of the vaporizable material 1302 is stored in the storage chamber 1342. During the second pressure state in which the vaporizable material 1302 moves, the overflow portion is temporarily held. It may be configured to hold. Depending on the implementation, the pressure inside the cartridge 1320 During or after reversal to a first pressure state where the pressure is substantially below ambient pressure, the collector At least a portion of the overflow of the vaporizable material 1302 held within 1313 is stored It may be returned to chamber 1342.

[0095] In order to control the flow of vaporizable material 1302 within cartridge 1320, in addition to the subject matter In this implementation, collector 1313 may, depending on the circumstances, pass through overflow channel 1104. The overflow of the moving vaporizable material 1302 is collected permanently or semi-permanently. This involves using an absorbent or semi-absorbent material (e.g., a material with sponge-like properties) to hold it in place. It may include. In one exemplary embodiment in which the absorbent material is contained within the collector 1313, , vaporizable material 1302 returning from overflow volume 1344 into storage chamber 1342 Backflow is achieved without (or with little to no) absorbent material in collector 1313. Compared to the previous embodiment, it may be impractical or impossible. That is, absorption Due to the presence of a volatile or semi-absorbent material, vaporizable material is collected within the overflow volume 1344. Material 1302 is prevented, at least partially, from returning to storage chamber 1342. Therefore, the reversibility of the vaporizable material 1302 to the storage chamber 1342 and / or The reversible speed is achieved by including some density or volume of absorbent material within the collector 1313. This can be controlled by, or by controlling the texture of the absorbent material. In this case, due to these characteristics, either immediately or over a longer period of time This results in a higher or lower absorption rate.

[0096] Figures 3A to 3D show the space between the cartridge 1320 and the vaporizer body 110 of the vaporizer 100. Various design alternatives for connectors to form connections are shown. Figures 3A and 3B show, Perspective views of various connector examples are shown. On the other hand, Figures 3C to 3D show various connector examples. A plan view of an example is shown. The examples of connectors shown in Figures 3A to 3D are complementary male connectors. It may include a nut (e.g., a protrusion) and a female connector (e.g., a socket). 1. As shown in Figures 2A to 2B and 3A to 3D, one of the cartridges 1320 The end allows connection between the cartridge 1320 and the vaporizer body 110 of the vaporizer 100. It may include one or more connectors. For example, one end of cartridge 1320 may be a Electrical connection, mechanical connection and / or between the cartridge 1320 and the vaporizer body 110 One or more mechanical connectors, electrical connectors and fluid connectors configured to provide fluid coupling. Body connectors can be included. These connectors can be implemented in various configurations. I hope you understand that.

[0097] In one embodiment of this subject shown in Figures 1, 3A, and 3C, cartridge 1320 One end is connected to a female connector (for example, a cartridge receptacle 118) inside the vaporizer body 110. It may include a male connector 710 (e.g., a protrusion) configured to connect. In this example, when the cartridge 1320 is connected to the vaporizer body 110, the male connector The contact 1326 located on the 710 is the corresponding receptacle in the cartridge receptacle 118. It is possible to form an electrical connection with the contact 125. Furthermore, the contact on the male connector 710 1326 is, for example, a snap-lock type, with a receptacle contact 125 inside the cartridge receptacle. It mechanically engages with the cartridge 13 inside the cartridge receptacle 118 of the vaporizer body 110. 20 can be fixed. Alternatively, as shown in Figures 3B and 3D, cartridge 132 Another example shows one end of 0 containing a female connector 712. The female connector 712 is connected to the vaporizer body. A socket configured to receive the corresponding male connector (e.g., protrusion) on 110. This may be the case. In this exemplary implementation, the contact 1326 is located inside the female connector 712. It can be placed, and the electrical contacts in the male connector on the vaporizer body 110 with the corresponding contacts They may be configured to form connections and mechanical connections.

[0098] Figures 3E to 3F show a cart having the male connector 710 shown in Figures 3A and 3C. Further diagrams of the ridge 1320 are shown. Figure 3E shows a perspective cross-sectional view of an example of cartridge 1320. See the reference, cartridge 1320 has at least one heating element 13 Wick housing area configured to accommodate 50 and wicking elements 1362 It may include region 910. As shown in Figure 3E, wick housing region 910 This is positioned, at least partially, within the male connector 710 at one end of the cartridge 1320. This is possible. In this way, the male connector 710 connects to the cartridge of the vaporizer body 110. When inserted into the receiving opening 118, it includes a heating element 1350 and a wicking element 1362. The wick housing area 910 is at least partially within the cartridge receptacle 118. The cartridge receptacle 118 of the vaporizer body 110 is positioned for the heating element 1350. Additional insulation can be provided. Meanwhile, Figure 3F shows a top plan view of cartridge 1320. This is shown in particular in Figure 9B, where the male connector 710 is in the wick housing area 910 or This indicates that it may include one or more vent holes 920 located in its vicinity. The vent holes 920, for example, control condensation within the cartridge 1320. To help improve capillary action, etc., pinpoint steaming is applied to the wicking element 1362. It may be configured to provide gas discharge and / or airflow.

[0099] Figures 4A to 4D show examples of cartridge 1320 that are consistent with the implementation of this subject. As shown in Figures 4A to 4D, cartridge 1320 has a collector 1313 and a heating element. Includes 1350, wicking element 1362, contact 1326, and air passage 1338. This is possible. As mentioned above, the collector 1313 is the reservoir of the vaporizer cartridge 1320. The system is configured to control the exchange of air and vaporizable material 1302 entering and leaving the reservoir 1340. This is acceptable. The collector 1313 is placed inside the housing of the cartridge 1320. This is possible. In some realizations of this subject, the collector 1313 is connected to the cartridge 13 The 20 housings are configured, designed, and manufactured completely or partially independently. It may be manufactured or constructed. Furthermore, collector 1313 may be, for example, a storage channel. Ba 1342, air passage 1338, storage chamber 1342, heating element 1350, Wickey The other components of cartridge 1320, including the ring element 1362, are completely separate. These can be formed partially and independently.

[0100] For example, in one embodiment of this subject, the cartridge 1320 has a first end and a second It has a cartridge housing formed from a monolithic hollow structure with ends. This is possible. The first end (i.e., the first receiving end of the cartridge housing) The end of the part is configured to at least accept the collector 1313 into insertion. i. In one embodiment, the second end of the cartridge housing is an orifice or opening It can function as a mouthpiece having an orifice or opening. Opposite the receiving end of the cartridge housing that can insert and receive the TA1313 It can be located to the side. In some embodiments, for example, the body of cartridge 1320 and by the air passage 1338 which can extend through the collector 1313, An opening can be connected to the end of the cartridge. Other cartridge embodiments consistent with this disclosure For example, the atomizer, for instance, the wicking element 136 discussed elsewhere in this specification. The atomizer, including 2 and a heating element 1350, allows for the inhalation of liquid vaporizable material 1302. In some cases, the precursor is in an inhalable form from the atomizer through an orifice or opening. The air passage 1338 is designed to be released into the air passing through it toward the opening. It may be located adjacent to or at least partially within 1338.

[0101] In some implementations of this subject, collector 1313 is connected to the empty space entering and leaving reservoir 1340. One or more gates configured to control the flow of gas and vaporizable material 1320 It can have one or more channels. To further illustrate, Figure 5A shows the subject A side view of an example of collector 1313 that matches the implementation form is shown. An example of collector 1313 A side view of cartridge 1320, including the components shown in Figure 5B, is shown in Figures 5A to 5B. An example of collector 1313 is one gate 1102 and one overflow channel 1 104 can be included, but an alternative implementation of collector 1313 is an additional gate It may include a name and / or channel. Collector 1313 shown in Figures 5A and 5B. In this example, collector 1313 is in contact with reservoir storage chamber 1342 or fluid Gate 11 is connected to the opening that leads to the first part (e.g., the top) of collector 1313. 02 can be provided. Gate 1102 is connected to storage chamber 1342 and collector 13 With the overflow volume 1344 formed by the second part (e.g., the central part) of 13 A fluid connection can be provided in between.

[0102] In some implementations of this subject, the second part of collector 1313 is the overflow channel It can have a ribbed or multi-fin shaped structure that forms part 1104. - The airflow channel 1104 is directed away from the gate 1102 towards the air exchange port 1106. In the direction of this, it may be spiral, tapering, and / or inclined. Figure 5A~ As shown in Figure 5B, the overflow channel 1104 has an overflow volume of 1344 At least a portion of the vaporizable material 1302 collected inside is directed towards the air exchange port 1106. It is fine if it is configured to move in this way. Vaporizable material 1 from storage chamber 1342 302 can enter the overflow volume 1344 through gate 1102. Air The replacement port 1106 is connected to the mouthpiece by an air path or airflow channel surrounding it. It may be connected to air. This air path or airflow channel is explicitly shown in Figures 5A and 5B. It is not shown.

[0103] As shown in Figure 6A, in some realizations of this subject, collector 1313 is a collector After the 1313 is inserted into the receiving cavity or opening in the storage chamber 1342, To create a surface suitable for welding the recta 1313 to the inner wall of the chamber 1342 It is configured to include a flat rib 2102 extending around the lower part of the collector 1313. It is OK. Use the full-circumference welding or tack welding option to store the collector 1313. It can be securely fixed within the receiving cavity or opening in the 1342. Specifically, is it possible to establish friction-resistant and leak-resistant joints without using welding techniques? Alternatively, or in addition to the above-mentioned joining techniques, use an adhesive material. It is possible.

[0104] Referring to Figure 6B, the seal bead profile 2104 is rapidly turn injection molded. This defines the overflow channel 1104 so that it can support the process. The spiral ribs around the kuta 1313 stylize the seal bead profile 2104. It is possible. The geometric shape of the seal bead profile 2104 is collector 1313 The material is stored in a friction-resistant manner and inserted into the receiving cavity or opening within the chamber 1342. It can be devised in various forms so that this can be done. In this case, vaporizable material 130 2. Along the seal bead profile 2104, there is no leakage and no overflow. It can flow through channel 1104.

[0105] In some implementations of this subject, collector 1313 is connected to the airflow channel of the mouthpiece. Central tunnel 1 can be configured to function as a channel (for example, as shown in Figure 5D). It can include 100. Volume in the overflow channel 1104 of collector 1313. It is connected to ambient air via the air exchange port 1106, and also via the gate 1102 The airflow channel is connected to the volume inside the storage chamber 1342, and the air exchange port 1 is connected to it. It can be connected to 106. In this way, according to some implementations of this subject, The flow of liquid and air between the overflow volume 1344 and the storage chamber 1342 is mainly controlled. The gate 1102 can be used as a control fluid valve for control. For example, - Air and vaporizable between the airflow volume 1344 and the air path leading to the mouthpiece The air exchange port 1106 can be used to control the flow of material 1302. - The overflow channel 1104 is positioned diagonally and vertically relative to the elongated body of the cartridge 1320. It should be understood that it can be straight or horizontal.

[0106] The vaporizable material 1302 is released at the gate 1102 when the cartridge 1320 is filled. It can have at least an initial interface with collector 1313 through this. The initial interface between the morphogenic material 1302 and the gate 1102 is, for example, an overflow channel This prevents the air trapped in the 1104 from entering the storage chamber 1342. Therefore. Furthermore, such an interface allows the vaporizable material 1302 and overflow to interact. Capillary interactions can be initiated between the wall of Nell 1104. As a result, a limited amount The vaporizable material 1302 enters and exits the overflow volume 1344. The flow in channel 2 enters the overflow channel 1104 without disrupting the negligible equilibrium state. This is possible. Capillary action between the wall of the overflow channel 1104 and the vaporizable material 1302. Through use (or interaction), the aforementioned equilibrium state can be maintained. On the other hand, storage When the pressure inside the 1342 is approximately equal to the ambient pressure, the cartridge 1320 is first It is under pressure.

[0107] The equilibrium state between the vaporizable material 1302 and the wall of the overflow channel 1104 and further Capillary interactions occur along the length of the channel, affecting the volume of the overflow channel 1104. The specifications may be established or configured by adapting or adjusting the specifications. As further details are provided, the diameter of the overflow channel 1104 (overflow Overflow channel, including an implementation of this subject in which channel 1104 does not have a circular cross-section (as used herein to generally refer to the measure of the size of the cross-sectional area of ​​1104) pressure Depending on the change, the forward and reverse flow of the vaporizable material 1302 entering and leaving the collector 1313 is controlled. It enables capillary interactions strong enough to provide, and furthermore, the size of the overflow channel It allows for the entire volume, while still maintaining the gate point for meniscus formation. This makes it possible to prevent air from flowing past the liquid in the overflow channel 1104. Alternatively, it can be limited to predetermined intervals or points or over the entire length of the channel. Cut.

[0108] The surface tension caused by adhesion within the vaporizable material 1302 and the vaporizable material 130 The combination of 2 and the wetting force between the wall of the overflow channel 1104 is the overflow In the dimension across the flow axis within channel 1104, the straight of the overflow channel 1104 The diameter (or cross-sectional area) is the shape of the meniscus that separates the liquid vaporizable material 1302 from the air. It can function to cause formation. This meniscus is the vaporization of air and liquid. Possible materials 1302 can be prevented from passing through each other. The meniscus has a unique curve. It should be understood that it has a ratio. Therefore, referring to dimensions that cross the direction of flow is empty. This means that the gas-liquid interface is planar in this dimension or any other dimension. That was not the intention.

[0109] As shown in Figures 2B and 5B, the air drawn into the wicking element 1362 At least a portion of the vaporizable material 1302 is vaporized by the heat generated by the heating element 1350. The wicking element 1362 can be heated or heated to the heating element 1350 so that it can be heated or heated to the heating element 1350. It can be mechanically connected. On the other hand, the air exchange port 1106 is an overflow channel Allows the flow of air (and / or other gases) from the 1104, while overflow It is configured to prevent the flow of vaporizable material 1302 from the low channel 1104. That's fine.

[0110] Referring again to Figures 5A and 5B, we can see the forward flow of the vaporizable material 1302 in the collector 1313. Alternatively, backflow can be controlled by implementing an appropriate structure (e.g., a microchannel configuration). For example, (enhance or reduce), vaporizable material 1302 and overflow channel 110 It is possible to introduce and / or utilize the capillary properties that may exist between the retaining wall of 4. It can do things like length, diameter, inner texture (e.g., rough vs. smooth), constriction point, and chatter. Directional tapering, narrowing, or construction or coating of the surface of gate 1102 of the flannel structure Materials used, related to the overflow channel 1104 or air exchange port 1106 The cause is that the liquid is drawn into the overflow channel 1104 by capillary action. The speed at which it moves through the overflow channel 1104 or to the cartridge 1320 It may have a positive or negative impact on other influences it uses.

[0111] Depending on the implementation, one or more of the above factors are used in the overflow channel 1104 The replacement of vaporizable material 1302 inside is controlled so that vaporizable material 1302 is in the collector 13 As the data is collected within the 13-channel structure, a desired degree of reversibility can be introduced. Therefore, in some embodiments, vaporizable material 1302 to collector 1313 The flow is controlled by selectively controlling the various factors mentioned above, and by cartridge 132 Depending on the change in pressure conditions inside and outside of zero, it may be completely reversible or semi-reversible.

[0112] As shown in Figures 5A to 5B and Figures 11A to 11B, in one or more embodiments The collector 1313 is formed and constructed to have a single-channel, single-vent structure. Alternatively, it may be configured as follows. In such an embodiment, the overflow channel 1104 is The gate 1102 can be placed closer to the wicking element 1362 in some cases. Continuous passage, tube, channel or other structure for connecting to air exchange port 1106 This may be the case. Therefore, in such embodiments, the vaporizable material 1302 is a gate From 1102, through individually configured channels, it is possible to enter and exit collector 1313. Yes, it is possible. In this case, the vaporizable material 1302 is filled with the overflow volume 1344. When discharged, it flows in the first direction; when the overflow volume 1344 is being discharged, it flows in the second direction. It flows in the opposite direction.

[0113] Maintaining equilibrium and / or vaporizable material 130 into overflow channel 1104 To help control the flow of 2, overflow channel 1104, gate 110 The shape and structural configuration of the 2 and / or air exchange port 1106, overflow channel The flow rate of vaporizable material 1302 within 1104 is adapted to balance under different pressure conditions. It can be modified or corrected. In the implementation of this subject, for example, an overflow channel 1104 is the cross-sectional dimensions (e.g., diameter, area, etc.) of the overflow channel 1104. It gets smaller towards 1102, while the cross-sectional dimensions of the overflow channel 1104 ( For example, the diameter, area, etc., will increase towards the air exchange port 1106, tapering towards the end. It is acceptable to be so. That is, the cross-sectional dimensions of the overflow channel 1104 are the overflow Channel 1104 is smallest at gate 1102 connected to storage chamber 1342. Often, on the other hand, the cross-sectional dimensions of the overflow channel 1104 are, 104 is connected to the surrounding environment outside cartridge 1320 via air exchange port 1106. It may be the maximum. The tapering of the overflow channel 1104 may be continuous or discontinuous. I hope you understand that this is acceptable. Alternatively and / or additionally, one or more points of constriction can be over It can be positioned along the length of the flow channel 1104.

[0114] The cross-sectional dimensions of the overflow channel 1104 are minimized. The non-tapered end is where the vaporized vaporizable material 1302 enters the mouthpiece (for example, airflow Airflow channel to the air vent 1318 shown in Figure 2A, which is connected to passage 1338. It can be connected to. Furthermore, the non-tapered end of the overflow channel 1104 is At least a portion of the vaporizable material 1302 coming out of the overflow channel 1104 is Near the wick housing 1315, so that the locking element 1362 can be satisfied. This can also connect to the following areas (see, for example, Figure 7).

[0115] The tapered structure of the overflow channel 1104 allows air to reach the collector 1313 as needed. The restrictions on the flow of the molten material 1302 can be reduced or increased. For example, In this implementation, the overflow channel 1104 tapers towards the gate 1102. In this state, the favorable capillary pressure that leads to reverse flow is reduced due to the tapering, resulting in overflow. When a substance is drawn into channel 1104, and as a result the pressure state changes (for example, a negative pressure event), When the discharge is eliminated or has subsided, the direction of flow of the vaporizable material 1302 is determined by the collector 13 Exiting from 13, enters the storage chamber 1342. In particular, the over, which has a smaller opening By realizing the flow channel 1104, the vaporizable material 1302 enters the collector 131 This prevents the flow from freely within 3. That is, the flow towards gate 1102 The tapering of the overflow channel 1104 allows vaporizable material within the overflow channel 1104 to be vaporized. 1302 flows out of gate 1102 (for example, back into storage chamber 1342) This facilitates the flow of energy through gate 1102 into the overflow channel 1104 (for example, the storage channel The flow of vaporizable material 1302 (from 1342) can be obstructed. Meanwhile, air exchange In the direction toward port 1106, there is a taper for the overflow channel 1104. Due to this configuration, the pressure rise in cartridge 1320 causes air to leak from storage chamber 1342. At least a portion of the molten material 1302 is a narrower sector of the overflow channel 1104 From the overflow channel 1104 to the larger volume section of collector 131 During the second pressure state flowing within 3, the efficient vaporization of the vaporizable material 1302 in collector 1313 A substantial reserve will be provided.

[0116] Therefore, the dimensions (e.g., diameter) and shape of collector 1313 are determined by gate 1102. The flow of vaporizable material 1302 into the overflow channel 1104 through the overflow channel 1104 at a desired speed It can be implemented in a controlled manner. For example, during the second pressure state, collector 13 The dimensions and shape of the 13 are (for example, storing at least a portion of the vaporizable material 1302) Vaporizable material 1 (due to excess pressure in cartridge 1320 moving from 1342) 302 is too free within collector 1313 (for example, exceeding a certain flow rate or threshold) ) prevents flow, while (for example, the pressure and cartridge within cartridge 1320 Storage chamber 1342 (when the ambient pressure outside the 1320 reaches substantial equilibrium) It may be configured to be advantageous for backflow to the vent 1318 and - Overflow channel 1104 in collector 1313 which constitutes overflow volume 1344 Due to the combination of interactions between and the air exchange port 1106, various environmental factors Proper ventilation and overflow channel 1104 for air bubbles that may be introduced into the cartridge It should be noted that this can provide a controlled flow of vaporizable material 1302 entering and exiting. I want to.

[0117] Referring again to Figure 5B, part of cartridge 1320, including storage chamber 1342, a mouthpiece that can be used by the user to inhale the vaporized vaporizable material 1302. It may also be configured to include a s. The air passage 1338 is connected to the storage chamber 1342. It extends through the structure, thereby allowing connection of the vaporization chamber. Depending on the implementation, The air passage 1338 allows, for example, the passage of vaporized vaporizable material 1302. A straw-shaped structure or hollow cylinder that forms a channel within the storage chamber 1342. Yes, that's fine. The air passage can have a circular or at least substantially circular cross-sectional shape. However, other cross-sectional shapes for air passages should be understood to be within the scope of this disclosure.

[0118] A storage chamber 1342 from which the user can inhale the vaporized vaporizable material 1302. Connecting the first end of the air passage 1338 to the opening at the end of the first mouthpiece. This is possible. As provided in further detail herein, the first end of collector 1313 The opening can receive the second end (opposite the first end) of the air passage 1338. Depending on the implementation, the second end of the air passage 1338 passes through the collector 1313. It extends and connects to a wick housing capable of accommodating the wicking element 1362. It can extend completely or partially through the receptive cavity.

[0119] In some implementations of this subject, the air passage 1338 stores cha A monolithic molded mouthpiece including a storage chamber 1342, extending through the mouthpiece 1342. It may be an integrated part of the -. In other configurations, the air passage 1338 is a storage chamber 13 42 may be an independent structure that can be separately inserted within it. In some configurations, the air passage 133 8, for example, extends inward from the opening of the mouthpiece portion, collector 1313 Alternatively, it may be a structurally extended portion of the main body of the cartridge 1320.

[0120] While not limited to, the mouthpiece (and the air passage 13 inside the mouthpiece) 38) To connect to the air exchange port 1106 in the collector 1313, various different A structural configuration may be possible, including a storage chamber 1342, as provided herein. A cartridge that can and / or function as a storage chamber 1342 The collector 1313 can be inserted into the body of 1320. In some embodiments, The air passage 1338 is an internal sleeve that is an integrated part of the Norisic cartridge body. It can be constructed so that the opening at the first end of collector 1313 becomes an air passage. The first end of the sleeve structure forming 1338 can be received. The mouthpiece is It may be a single-barrel mouthpiece as shown in Figure 5B, or a multi-barrel mouthpiece. Please understand that this can be a double-barrel mouthpiece, for example. In the Uspiece, multiple air circulation systems are used to deliver high volumes of vaporized vaporizable material 1302. A road has been established.

[0121] As described above, collector 1313 is collector 1313 (for example, overflow volume Various methods for controlling the forward and reverse flow of vaporizable material 1302 entering and exiting 1344) A mechanism may be included. Some of these factors are described herein as gate 1102 and This may include configuring the capillary drive of a fluid vent called Gate 1102 The tube drive can be smaller than, for example, the capillary drive of the wicking element 1362. On the other hand, the flow resistance of collector 1313 is greater than the flow resistance of wicking element 1362. It is possible. The overflow channel 1104 is accessed through the overflow channel 1104. To control the flow rate of the vaporizable material 1302, a smooth and / or wavy inner surface is provided. It is possible. As mentioned above, the overflow channel 1104 is suitable for capillary interaction. Provides a supply and force to the overflow volume 1 through gate 1102 during the first pressure state. The flow rate into 344 is restricted, and during the second pressure state, overflow occurs through gate 1102. - To facilitate the backflow out of volume 1344, it is sloped and / or tapered. It's fine to leave it there.

[0122] Further modifications to the shape and structure of the collector 1313 components are made to the collector To further adjust or fine-tune the flow of vaporizable material 1302 into and out of 1313 It could be useful. For example, the smoothly curved spiral channel shown in Figures 5A to 5H. In the configuration (i.e., in contrast to channels with sharp turns or edges), additional mechanisms, For example, overflow one or more vents, channels, openings and / or shrinkage structures It is possible to include the collector 1313 at predetermined intervals along the channel 1104. As further details provided in the specification, such additional mechanisms, structures and / or components The process is, for example, along the overflow channel 1104 or through the gate 1102. This can help provide a higher level of flow control for vaporizable material 1302. Cut.

[0123] For example, as shown in Figures 5A to 5E, a fully or partially inclined spiral surface The overflow channel 1104 is implemented along the inside of the collector 1313. - One or more sides of the internal volume of channel 1104 can be defined. As a result, air The vaporizable material 1302 passes through the overflow channel 1104. When it enters the overflow channel 1104, it flows freely due to capillary pressure (or gravity). The central tunnel 1100 may traverse the length of the collector 1313. At the first end, the central tunnel 1100 passing through collector 1313 is a wicking element 1362 and the heating element 1350 are located in the wick housing 1315 (for example) (See Figure 7) It can interact with or connect to the second end. So, the central tunnel 1100 allows air to circulate within the mouthpiece portion of the cartridge 1320. It interacts with and connects to one end of the duct or tube that forms path 1338. or can accept this. The first end of the air passage 1338 is (for example, inserted (This allows connection to the second end of the central tunnel 1100.) Air passage 133 The second end of 8 may include an opening or orifice formed in the mouthpiece area. can.

[0124] According to one or more embodiments, a heating element 1350 heats the vaporizable material 1302. The vaporized vaporizable material 1302 generated is then transported to the central tunnel 11 in the collector 1313. Entering through the first end of 00, passing through the central tunnel 1100, and further on, the central tunnel It can exit the second end of 1100 and enter the first end of the air passage 1338. Then, the vaporized vaporizable material 1302 moves through the air passage 1338, and air circulation It can exit through the mouthpiece opening formed at the second end of road 1338.

[0125] In some implementations of this subject, gate 1102 is used to control overflow in collector 1313. The flow of vaporizable material 1302 entering and exiting channel 1104 can be controlled. The air exchange port 1106 is connected to ambient air, as will be provided in more detail herein. The flow entering and leaving the overflow channel 1104 is controlled via the path, and collector 1 Next, adjust the air pressure in the storage chamber 1342 of cartridge 1320. This is possible. In certain embodiments, the air exchange port 1106 is located above the collector 1313. The vaporizable material 1302 present in the flow channel 1104 (for example, in a cartridge (By moving due to excessive pressure within 1320) exits from overflow channel 1104 It is configured to prevent leakage into the air passage (for example, the central tunnel 1100). It's fine to do that.

[0126] The air exchange port 1106 contains vaporizable material 1302, which is housed in a wicking element 1362. It may be configured to output towards a path leading to the area being treated. This implementation is When the vaporizable material 1302 moves from the storage chamber 1342, it passes through the mouthpiece. To avoid leakage of vaporizable material 1302 into the air passage (e.g., the central tunnel 1100) It can be useful for removing gaseous material. In some implementations, the air exchange port 1106 is used for gaseous material Allows the entry and exit of material (e.g., bubbles), but vaporizable material 1302 is connected to the air exchange port 1 It may have a membrane that prevents the material from passing through 106 to enter and exit the collector 1313.

[0127] Referring to Figures 5C to 5H, the gate 1102 is used to access the collector 1313. The flow rate of the vaporizable material 1302 is controlled by the volumetric pressure (Vo) within the overflow channel 1104. It can be directly associated with the lumetric pressure. Therefore, passing through gate 1102 The flow rate entering and leaving collector 1313 is equal to the hydraulic diameter of overflow channel 1104 ( It can be controlled by manipulating the cross-sectional area. As a result, overflow can be controlled. To reduce the total volume of Nell 1104 (for example, by introducing uniform or multiple constriction points) (by any of the above) the pressure in the overflow channel 1104 increases, The flow rate to the recta 1313 can be adjusted. Therefore, at least one implementation is possible. In this state, the hydraulic diameter (or cross-sectional area) of the overflow channel 1104 is determined by the overflow channel Along the length of the spiral path of channel 1104, uniformly or one or more constriction points 1111a To reduce in size by introducing any of the following (e.g., narrowing, tightening, stenosis, or restricting) (This can be limited.) For example, in the example of collector 1313 shown in Figures 5C to 5E, The overflow channel 1104 is located between the gate 1102 and the air exchange port 1106. - Various constriction points 1111a and 1 are located along the length of the overflow channel 1104 It may include multiple downward-sloping helices having 111b. Overflow channel 11 The amount of spiral within 04 and the amount of narrowing along the length of the overflow channel 1104 Furthermore, the volumetric pressure inside collector 1313 can be determined. The volumetric pressure is determined by the configuration of the constriction points located along the length of the overflow channel 1104. It can be determined more definitively.

[0128] For example, as shown in Figure 5C, the constriction point 1111a is connected to the overflow channel 110 Bumps, raised edges, and protrusions extending from the inner surface of 4 (i.e., the blade of collector 1313) It can be formed by a bump or a constriction point. The shape of the constriction point 1111a is a bump, a fin Narrowing of the cross-sectional area across the flow direction within the nucleus, protrusions, fins, edges, or overflow channels. It can be defined as any other shape. In the example shown in Figure 5C, the constriction point 11 11a is, for example, a shark in which the distal end of the constriction point 1111a tapers towards the edge. The shape of the fin is acceptable. Furthermore, as shown in Figure 5C, the pointed edge of the shark fin shape Alternatively, the cantilever edge can be rounded, but the cantilever edge should not be sharp to the end. It can also be tapered. A narrow section is positioned along the length of the overflow channel 1104. The shape, size, relative position, and total number of constrictions are, for example, within the overflow channel 1104. A meniscus is formed (for example, separating the liquid vaporizable material 1302 from the air) By fine-tuning the trend, the liquid vaporizable liquid entering and leaving the overflow channel 1104 can be controlled. The input and output of the functional material 1302 can be further controlled by adjustment.

[0129] For example, maintaining the inflow into the overflow channel 1104 at a faster rate than the outflow. Alternatively, if desired, a flat surface facing the outflow and a rounded surface facing the inflow Many have resistance to the outward flow of liquid (for example, away from the storage chamber 1340). This facilitates the formation and retention of the scus, while the meniscus is located in the storage compartment 1340 at the constriction point. The constriction point can be shaped to make it easier to collapse from the side returning in the direction of travel. Therefore, a series of such constrictions prevents liquid from flowing outward from the storage compartment into the storage compartment. The return flow is facilitated by microfluidics, functioning as a kind of "hydraulic ratchet" system. Yes, it is possible. This effect is that the meniscus collapses from the storage chamber side of the constriction point rather than from the opposite side. This can be achieved, at least partially, through relative tendencies.

[0130] Referring again to Figure 5C, in one exemplary implementation, the overflow channel 1104 In addition to (or instead of) constrictions extending from the floor or ceiling, there are several constrictions, It can extend from the inner wall of the overflow channel 1104. This is clearly shown in Figure 5F. As shown, the constriction point is the same constriction point 1111 as the inner wall of the overflow channel 1104. It can extend at a. In this case, two additional constriction points are overflowing. Extending from the floor and ceiling of Nell 1104, it forms a C-shaped constriction point 1111a. Figure 5D And according to the exemplary implementation shown in Figure 5F, compared to the implementation in Figure 5C, the over The microfluidic properties of the flow channel 1104 are more effectively tuned to the storage chamber 1340. This can facilitate the liquid flow to retreat toward the overflow channel 110. The hydraulic diameter of 4 is further narrowed at the constriction point 1111a shown in Figures 5D and 5F. This is because it becomes thinner.

[0131] The constrictions formed along the overflow channel 1104 vary in shape, size, frequency, and It does not need to be uniform in terms of symmetry. That is, depending on the realization, overflow Different constriction points 1 of different sizes, designs, shapes, positions or frequencies along channel 1104 111a or 1111b can be achieved. For example, the constriction point 1111a or The shape of 1111b may be similar to the shape of the letter C having a round inner diameter. Some implementations In this configuration, instead of forming the inner diameter as a rounded C shape, the inner wall of the constriction point is as shown in Figure 5F. Furthermore, it may have corners (for example, sharp corners) as shown in Figure 5G.

[0132] In some cases, the overflow channel 1104 is at the first level, overflow - It may have a constriction point extending from the ceiling of channel 1104, while the second level In this case, the point of stenosis may extend from the floor of the overflow channel 1104. At level 3, the constriction point can extend, for example, from the inner wall. Overflow This helps to control the microfluidic effects on the flow in two directions within channel 1104. Therefore, the number and shape of the constrictions may be adjusted or changed, or a different order may be used. Alternatively, by placing constriction points at the level, the above implementation can be substituted. This involves, for example, one or more (or all) levels of collector 1313 at the constriction point 1111a. This can be achieved on the side or width.

[0133] Referring to Figures 5E to 5G, the longer length of the overflow channel 1104... In addition to defining the constriction point 1111a along the wider side of collector 1313, Define one or more extra constriction points 1111b along the narrower side of collector 1313. This can be achieved. Thus, according to the exemplary implementation shown in Figures 5E to 5G, Compared to the implementation in 5D, in the desired direction in the overflow channel 1104 This can improve the regulation of resistance to or promotion of meniscus shedding. The overall hydraulic diameter (or flow volume) of the overflow channel 1104 is slightly narrower than the other channel. This is because the addition of constriction point 1111b will cause further narrowing.

[0134] Referring to Figure 5H, in some implementations of this subject, gate 1102 is a constriction point Similar to 1111a or 1111b, a flatter tapered edge, rim, or flange It may be configured to include an opening or opening configuration having a direction. For example, gate 1 The rim of the 102 opening is flat on one side (for example, the side facing the storage chamber 1342). And, it is shaped to be rounded on the other side (for example, the side away from the storage chamber 1342) It is fine. In this configuration, from storage chamber 1340 to storage chamber 1340 over Microfluidic forces promote the flow back toward the flow side, on the non-round side compared to the rounder side. This will be improved because meniscus separation will become easier.

[0135] Therefore, the implementation and modification of the structure or configuration of the constriction point and gate 1102 Depending on the morphology, the resistance to the flow of vaporizable material 1302 from collector 1313 is The flow of vaporizable material 1302 into collector 1313 and toward storage chamber 1340 The resistance to may be higher than the resistance to the . In certain implementations, gate 1102 stores a char. The rhubarb 1342 communicates with the overflow channel 1104 within the overflow volume 1344. The medium is configured to maintain a liquid seal such that a layer of vaporizable material 1302 is present. The presence of a liquid seal is due to the storage chamber 1342 and the overflow volume 1344. Maintain pressure equilibrium between them and a sufficient level of vacuum (e.g., partial) in the storage chamber 1342. By promoting a vacuum, the vaporizable material 1302 is completely discharged into the overflow volume 1344. This prevents the wicking element 1362 from losing its full filling capacity. It can be helpful in that regard.

[0136] In one or more exemplary implementations, a single passage or channel within collector 1313 is The two vents may be connected to the storage chamber 1342. This ensures that the liquid seal is maintained regardless of the position of cartridge 1320. The formation of the liquid seal at gate 1102 occurs when cartridge 1320 is at an angle to the horizontal. When held in place or when cartridge 1320 is positioned downwards relative to the mouthpiece Even in this case, it prevents the air in the collector 1313 from entering the storage chamber 1342. This can be useful. This is because when bubbles from collector 1313 enter the reservoir, storage The pressure inside chamber 1342 equalizes with the ambient pressure. A partial vacuum in chamber 1342 (for example, when vaporizable material 1302 is wicked) (formed as a result of being discharged through 368) ambient air is stored in chamber 1342 If it flows inward, it will be offset.

[0137] In some scenarios, the empty space in the storage chamber 1342 (i.e., vaporizable material 1) When the headspace (above 302) contacts gate 1102, the headspace vacuum is maintained. In some cases, this does not occur. As a result, as previously described, the gate 1102 was established. The liquid seal may be destroyed. This action causes collector 1313 to be ejected and head As the space comes into contact with gate 1102, gate 1102 maintains the fluid film. This may be because it is not possible to do so, which can lead to a loss of partial headspace vacuum.

[0138] In certain embodiments, the headspace within the storage chamber 1342 has ambient pressure. Also, a still water offset is often used between the gate 1102 and the atomizer in the cartridge 1320. If a hydrostatic offset exists, the contents of the storage chamber 1342 will be inside the atomizer. This discharge may result in the wick box overflowing and leaking. To avoid this, one or more embodiments have a static water offset between the gate 1102 and the atomizer. Remove the spit and the gate 1102 is functional when the storage chamber 1342 is almost completely empty. It can be achieved to maintain it.

[0139] Figures 5I to 5K show the maze-shaped structure 1190. The maze-shaped structure 1190 is gate 11 It may be constructed around 02, and the overflow within gate 1102 and collector 1313 A high-drive connection is established between the channel 1104 and the gate 1102 to maintain the liquid seal. It holds. In the example shown in Figure 5J, the liquid in gate 1102 according to one or more realization forms. As a means to further improve the maintenance of the body seal, a moat-shaped structure 1190 is included. It is possible.

[0140] Figures 5L to 5N show various diagrams of gate 1102 that correspond to the implementation of this subject. As shown, the overflow channel 1104 in collector 1313 is, for example, V-shaped Gate 1102 is connected to at least two (and preferably three) storage chambers 1342. Through a V-shaped or horn-shaped controlled fluid gate 1102 that includes an opening of ( ), It may be connected to the storage chamber 1342, as further details provided herein. The liquid seal is applied to the gate, regardless of whether cartridge 1320 is oriented vertically or horizontally. It may be maintained at 1102.

[0141] As shown in Figure 5L, on the first side of the vent, there is an overflow channel 1104 and a gate A venting pathway can be maintained between this venting pathway and the venting pathway. The foam can escape into the reservoir through the overflow channel 1104 in the collector. On the second side, one or more high-drive channels connected to the reservoir are enabled for pinch-off. Promotes pinch-off at point 1122, and air flows from overflow channel 1104 to the reservoir. Early aeration of the foam and air or vaporizable air from the reservoir to the overflow channel 1104. A liquid seal can be maintained to prevent the undesirable ingress of material 1302.

[0142] Depending on the implementation, the high-drive channel shown as an example on the right side of Figure 5L is preferably, The capillary pressure exerted by the liquid vaporizable material 1302 in the cartridge reservoir It remains sealed. A low drive channel is formed on the opposite side (i.e., Figure 5L) The channel shown on the left has relatively low capillary drive compared to the high-drive channel, but Under pressure condition 1, the liquid seal is in both the high-drive channel and the low-drive channel. It may be configured to still have sufficient capillary drive so that it can be maintained.

[0143] Therefore, the first pressure state (for example, when the pressure inside the reservoir is approximately equal to or greater than the ambient air pressure) In some cases, the liquid seal is maintained in both the low-drive and high-drive channels. This prevents air bubbles from flowing into the reservoir. Conversely, a second pressure state (for example, inside the reservoir) (When the pressure in the section is lower than the ambient air pressure) the overflow channel 1104 is formed Bubbles that have entered (for example, through the air exchange port 1106), or more generally, The leading edge meniscus of the liquid vaporizable material-air interface is controlled by a fluid gate 1102. It can move towards it. The meniscus and the low drive channel of vent 1104 When the air reaches the pinch-off point 1122 located between the high-drive channel, the air is directed towards the high-drive channel. Due to the higher capillary resistance present within the channel, one or more low-drive channels are preferentially routed. It can be done.

[0144] When the air bubble passes through the low-drive channel portion of gate 1102, the air bubble enters the reservoir. The pressure inside the reservoir becomes equal to the pressure of the surrounding air. In this way, controlled flow The air exchange port 1106, combined with the body gate 1102, brings the equilibrium pressure state to the reservoir. Until an agreement is reached between the bar and the ambient air, the ambient air enters through the overflow channel 1104. This allows air to pass through the reservoir. As mentioned earlier, this process This can be called reservoir ventilation. Once an equilibrium pressure state is established (for example, a second pressure) (Transition from a force state back to a first pressure state), liquid vaporizable material 1 stored in the reservoir Liquid is present in both the high-drive channel and the low-drive channel supplied by 302. Then, the liquid seal is re-established at the pinch-off point 1122.

[0145] In some implementations, tapered channels are used to increase the drive toward the controlled vents. It is possible to design a Nell. Considering the pinch-off of the two meniscuses during forward movement, The reservoir tank walls and the bottom of the channels are well configured to continue providing drive. On the other hand, the sidewalls are configured to provide a pinch-off position for the meniscus. In one configuration, the net drive of the meniscus during forward motion is equal to the net drive of the meniscus during reverse motion. To prevent exceeding this limit, the system is maintained in a statically stable state.

[0146] Returning to Figures 4C-4D and 5B, in a specific variation, collector 1313 stores The chamber 1342 may be configured to be insertably received by the receiving end. The end of the collector 1313 opposite to the end received by the storage chamber 1342 is, It may be configured to receive a icking element 1362. For example, a fork shape The constriction point may be formed to firmly receive the wicking element 1362. To further secure the wicking element 1362 to the fixed position between the constriction points, use a wick housing. 1315 can be used. Also, this configuration allows the wicking element 1362 to be used Filling can effectively cause swelling and help prevent weakening.

[0147] Referring to Figures 5C to 5E, depending on the implementation, it moves through collector 1313. One or more additional ducts, channels, tubes, or cavities are placed in the storage chamber 134. The vaporizable material 1302 stored inside 2 is supplied to the wicking element 1362 via a designated pathway. It can be constructed or configured as such. In the configuration, the wick feed duct, tube, or cavity (i.e., wick Feed 1368) can extend almost parallel to the central tunnel 1100. In one configuration, for example, independently or depending on the case, one or more other wickf In relation to the wick replacement section including the cord, 1 extends diagonally along the length of the collector 1313 There can be more than one wickfeed.

[0148] In certain embodiments, the exchange of supply paths that may intersect with each other can be performed by Wickhowe Multiple interactive links in a multilink configuration can be used to bring about a sizing area. The wick feed can be connected. This configuration allows for, for example, the formation of bubbles or other This type of blockage obstructed one or more supply paths within the wick feed replacement section. Sometimes, this can help prevent complete blockage of the wick feeding mechanism. This is achieved by instrumenting multiple supply paths, which can be used for some of the paths or specific paths within the wick feed replacement section. Even if the pathway is completely or partially blocked or obstructed, vaporizable material 1302 has one or more paths (or different but open paths) towards the wick housing area This allows for safe movement through intersections (towards roads).

[0149] Depending on the implementation, the wick supply path may have, for example, a circular or multifaceted cross-diameter shape. It may be formed into a tubular shape. For example, the hollow cross section of a wick feed is three It may be a polygon, rectangle, pentagon, or any other suitable geometric shape. One or more elements In the construction configuration, the periphery of the wick feed cross-section is, for example, a cross-shaped central intersection where the arms extend. The cross-shaped arms have a narrower width relative to the diameter of the gap, resulting in a hollow cross shape. It may be so. More generally, a wick feed channel (in this specification, the first A channel (also called a wick feed) forms when an air bubble blocks the rest of the cross-sectional area of ​​the wick feed. , at least one irregularity that provides an alternative path for the liquid vaporizable material to flow (e.g. For example, it can have a cross-sectional shape with protrusions, side channels, etc. The cross shape in this example The cross-section shown is an example of such a structure, but those skilled in the art will know that other shapes are also consistent with this disclosure. It should be understood that this is intended and feasible.

[0150] By realizing a cross-shaped duct or tube formed through the wick feed path, The problem of clogging can be overcome. The cross-shaped tube has five separate pathways (for example) , a central path formed in the center of the cross shape and four formed in the hollow arms of the cross shape This is because it can essentially be considered to include additional routes. In this form of implementation, For example, blockage of the supply tube by air bubbles is formed in the central part of the cross-shaped tube, and the secondary diameter The possibility of leaving the flow in the path (i.e., the path through the arms of the cross-shaped tube) It is possible.

[0151] According to one or more embodiments, the wick feed path is used to feed the vaporizable material 1302. It should be wide enough to allow free movement towards the wick along the path. i. In some embodiments, the flow through the wick feed is directed to a specific part of the wick feed. By adjusting the relative diameter of minutes, vaporizable material 1302 moves through the wick feed path. It can be enhanced or adapted by forcing capillary tension or pressure on it. In other words, depending on the shape and other structural or material factors, some wick feed paths The vaporizable material 130 is directed toward the wick housing portion, depending on gravity or capillary force. This can trigger a movement of 2.

[0152] For example, in the implementation of a cross-shaped tube, the feed path passes through the arms of the cross-shaped tube. It is configured to supply the wick by capillary pressure instead of relying on gravity. Good. In this form of implementation, the central part of the cross-shaped tube is, for example, affected by gravity. It can supply the buck, while vaporizable material 1302 in the arms of the cross-shaped tube The flow can be supported by capillary pressure. The cruciate tube disclosed herein is Please note that the purpose is to provide exemplary embodiments.

[0153] The cross-shaped cross-section of the wickfeed path represents multiple possibilities that coincide with the realization of this subject. It should be understood that this refers only to a certain configuration. That is, it is realized in this exemplary embodiment. The concept and functionality are applied to wick feed paths with different cross-sectional shapes (for example, wick feed paths). A hollow structure with two or more arms extending from a central tunnel that runs along the Qufeed route. It can be expanded into a tube having a star-shaped cross-section. General consistent with this aspect of the subject The mechanism involves the material forming the wick feed path and the liquid vaporizable material used. Regarding the wetting angle, the preference is for, for example, that the air bubble can completely occupy the entire cross-section. It has no cross-sectional shape. One or more protruding shapes in the cross-section around any such bubble. (For example, in the portion of the wick feed path that forms a protruding part of the cross-section) continuous liquid The size is determined so that a meniscus is formed across the protruding shape in order to maintain the flow path. Therefore.

[0154] Referring again to Figure 5C, an exemplary collector 1313 structure is shown. Two wick feeds 1368 are positioned on two opposing sides of the central tunnel 1100. As a result, vaporizable material 1302 enters these feeds and is used for the wick. The sizing flows directly toward the cavity region at the other end of collector 1313. It is possible.

[0155] The wick feeding mechanism has at least one wick feeding diameter in collector 1313 The path can be formed as a hollow tube with a multifaceted cross diameter, passing through collector 1313. It can be formed by a wick feed. For example, the hollow cross-shaped cross of a wick feed is a plus sign (for example) In the cross-sectional view above, it may have the shape of a hollow cross-shaped wick feed. As a result, the cross-shaped arm has a relationship with the diameter of the central intersection of the cross shape to which the arm extends. , having a narrower width.

[0156] Such central placement of bubbles ultimately leads to the central pathway being blocked by the bubbles. However, the secondary pathway remains open to the flow of vaporizable material 1302 (i.e., cross It will leave a path through the arm of the tube. It will trap or trap air bubbles. With regard to preventing air bubbles from completely clogging the wick feed passage, the above disclosure A wick feed passage structure that can achieve the same or similar purpose as the one described above. Other implementations are possible.

[0157] If additional vents are available, a relatively large aggregate volume of vaporizable material 130 Since 2 can be replaced, depending on the implementation, the structure of collector 1313 can be further modified. By adding more vents, faster flow rates are possible. Therefore, explicitly Although not shown, embodiments having three or more vents (e.g., triple-vent implementation) The quadruple vent implementation configurations, etc., are also within the scope of the disclosed subject matter.

[0158] Figure 8A shows a perspective view and a front view of an exemplary collector 1313 that matches the implementation form of this subject. Side view, bottom view, and top view are shown. In the example of collector 1313 shown in Figure 8A, the gauge T1102 may be V-shaped. Collector 1313 is an additional component (for example) (For example, wicking element 1362, heating element 1350, and wick housing 1315) It can also be fitted into the hollow cavity within cartridge 1320. The wicking element 1362 is located around the second end of the collector 1313 and the periphery of the wicking element 1362. It can be placed between the heating element 1350 wrapped around it. During assembly, the collection The 1313, wicking element 1362, and heating element 1350 are fitted together, Covered by the wick housing 1315, and then the cavity in the cartridge 1320 It can be inserted inside.

[0159] The wick housing 1315, along with the other listed components, is a mouthpiece. And inserted into the opposite end of cartridge 1320, a method of pressure sealing or pressure fitting These components can then be held inside. The seals of the wick housing 1315 and collector 1313 inside the inner wall of the sleeve The mating prevents leakage of vaporizable material 1302 held in the reservoir of cartridge 1320. It is desirable to be sufficiently sealed to prevent this. In some embodiments, the wick housing 1 Between 315 and collector 1313 and between the inner wall of the receiving sleeve of cartridge 1320 The pressure seals in between also prevent users from manually disassembling the components with their bare hands. It will be sealed tightly.

[0160] Referring to Figures 8B to 8C, in some implementations of this subject, the wicking element 1362 is located along its length (for example, directly below Wickfeed 1368). At a specific position (towards the distal end in the longitudinal direction of the wicking element 1362) the compression rib 1110 More constrained or compressed, for example, vaporization toward the end of the wicking element 1362 This helps prevent leakage by maintaining a higher filling area of ​​possible material 1302. This is possible. As a result, the central part of the wicking element 1362 remains drier. Yes, and there is a tendency for less leakage. Furthermore, the use of compression ribs 1110 allows for better absorption of the atomizer. To prevent leakage, the wicking element 1362 is further placed inside the atomizer housing. It can be pushed in.

[0161] Figures 8D to 8F show the wick that can be formed or constituted by collector 1313. An example of a feed mechanism is shown in the upper plan view. In the example shown in Figure 8D, a small amount of the collector 1313 At least one wick feed 1368 pathway is formed as a multifaceted cross-diameter hollow tube. It can be shaped. For example, the hollow cross-section of the wickfeed 1368 path is The shape is a plus sign (for example, a hollow cross-shaped wick feed when viewed from a cross-sectional view above). That's fine. As a result, the cross-shaped arm has a diameter at the central intersection of the cross where the arm extends and In this relationship, it has a narrower width. On the other hand, in the example shown in Figure 8E, Wickfee A duct or tube having a cross-shaped diameter formed by the 1368 route, The problem of blockage can be overcome. The tube has a cross-shaped diameter and five separate Paths (for example, a central path formed in the center of a cross shape and a hollow arm of a cross shape) This is because it can be considered to include four additional routes. This is because blockage of the supply tube by air bubbles (for example, air bubbles) occurs in the cross-shaped tube shown in Figure 8E. It may form in the central part of the bubble. Such a central placement of bubbles ultimately Even if the central path is blocked by bubbles, the flow of vaporizable material 1302 In contrast, the secondary path (i.e., the path through the arms of the cross-shaped tube) remains open. It is likely.

[0162] Referring to Figure 8F, is the wick feedback mechanism capable of capturing bubbles? Alternatively, to prevent trapped air bubbles from completely clogging the wick feed 1368 pathway. It is possible, and a wickfeed 1368 pathway structure may also be used. As illustrated in Figure 8F. As shown above, if a bubble is trapped in the central region of the wick feed 1368 pathway, one or more The constriction points 1368a and / or 1368b of the droplet shape (for example, between which wickf Vaporize one or more isolated nipples (similar in shape to those having a path 1368) The wick feed that can be stored in chamber 1342 flows into collector 1313 from the storage chamber 1302. It can be formed at the end of the 1368 pathway and through the wick feed 1368 pathway. The vaporizable material 1302 can be used to guide it. In this way, the vaporizable material The 1302 can direct a moderately controllable and consistent flow towards the wick, This prevents a scenario in which the container is not sufficiently filled with vaporizable material 1302. .

[0163] Figure 7 shows a perspective view, front view, and side view of an example of cartridge 1320 that matches the implementation form of this subject. A top view and an exploded view are shown. As shown, cartridge 1320 is framed by a sleeve. Mouthpiece-lisser molded into the form of a sleeve having a defined air passage 1338 A combination of parts may be included. The area within cartridge 1320 is the collector 131 3. Wicking element 1362, heating element 1350, and wick housing 1315 It accommodates the first end opening of collector 1313, which is the air passage 1 inside the mouthpiece. 338 connects to the vaporized vaporizable material 1302, and the user is able to move it from the heating element 1350 region. It provides a pathway for movement to the inhaled mouthpiece.

[0164] Figures 9A to 9C show perspective views of an example of cartridge 1320 that matches the implementation of the subject matter. Front and side views are shown. Referring to Figures 9A to 9C, the cartridge 132 is shown. 0 consists of collector 1313, heating element 1350, and cartridge component. A lid designed to hold the cartridge components in place when inserted into the main body of the ridge. It can be assembled from multiple components, including the wick housing 1315. In one embodiment, one end of the collector 1313 is in contact with the wick housing 1313, Laser welding can be performed at the circumferential contact point located at that point. Collector 1 Laser welding between 313 and the heating chamber 1315 allows the atomizer to be placed in the heating chamber. This prevents the liquid vaporizable material 1302 in the collector 1313 from flowing into the chamber 1315. It can be stopped.

[0165] By vaporizing vaporizable materials into aerosols, one or more internal cells of some vaporizers can be used. This brings about the collection of condensate along the channel and outlet (for example, along the mouthpiece). This can happen. For example, such condensates can be drawn out of the reservoir and formed into aerosols. Furthermore, it can contain vaporizable material that has condensed into a condensate before exiting the vaporizer. Vaporizable materials that avoid the vaporization process have one or more internal channels and / or air It can also accumulate along the exit. This can cause it to exit the mouthpiece and enter the user's mouth. This results in the accumulation of condensed material and / or vaporizable material that did not vaporize, thereby affecting the user If you have had an unpleasant experience or the amount of inhalable aerosol available in some way has decreased This could result in both of the following: Furthermore, the accumulation and loss of condensates may ultimately lead to In other words, it is not possible to draw all vaporizable material from the reservoir into the vaporization chamber, This could lead to the waste of vaporizable materials. For example, vaporizable material particles When the child accumulates in the internal channel of the air tube downstream of the vaporization chamber, the airflow passage Because the effective cross-sectional area is reduced, the airflow rate increases, and as a result, the accumulated fluid is subjected to resistance. In addition, as a result, there is a possibility of fluid passing from the internal channel through the mouthpiece outlet. It is amplified. Therefore, in some realizations of this subject, the vaporizer cartridge 1320 For example, the condensate collector 3201 and the wicking element 13 from the mouthpiece opening. Condensate recycling channels 3204 (e.g., microfluidic channels) extending up to 62 This may include a condensate recycling system. For further illustration, see Figure 10A. Figure 10E shows a car containing an example of a condensate recycling system consistent with the implementation of this subject. Various diagrams of Tridge 1320 are shown.

[0166] Referring to Figures 10A to 10E, the condensate collector 3201 is cooled within the mouthpiece. Then, it acts on the vaporized vaporizable material 1302, which can be turned into liquid droplets, to collect condensed droplets. It can be sent to the condensate recycler channel 3204. Condensate recycler channel 3204 collects condensates and large vapor droplets, returns them to the wick, and allows the user to use a mouthpiece. While puffing or inhaling, the liquid vaporizable material formed inside the mouthpiece This prevents the condensate from accumulating in the user's mouth. The condensate recycler channel 3204 is finely processed. By implementing it as a small fluid channel, it can capture any liquid droplet condensate, thereby controlling the liquid This eliminates direct inhalation of vaporizable materials and avoids undesirable sensations or tastes in the user's mouth. It is possible.

[0167] Additional and / or alternative embodiments of the condensate recycler channel and / or One or more devices for controlling, collecting, and / or recycling condensates within a vaporizer device. Other mechanisms described above are explained and shown with respect to Figures 45A to 45C. For example, Figures 45A to 45C Figure 45C shows another example of the condensate recycling system 360 consistent with the implementation of this subject. The condensate recycling system 360 collects vaporizable material condensates for reuse. The system may be configured to return the condensed material directly to the wick. As shown in Figures 45A to 45C. As described above, the condensate recycling system 360 flows from the mouthpiece to the vaporization chamber 34 Includes an internally grooved air tube 334 that forms an air passage 338 extending toward 2. It is possible to collect any vaporizable material condensates and reuse them (by capillary action) (i) It may be configured to be returned directly to the wick.

[0168] One function of the groove is to trap vaporizable material condensates within this groove or by some other means. It may include being arranged in a groove, and wicking is required. The condensate in the groove is discharged into the wick by capillary action caused by the element. This can be achieved, at least partially, by use. If there is some kind of condensation inside the air tube If present, vaporizable material particles can be filled into the groove, but if the groove is not present... Rather, a wall of condensate is formed or constructed inside the air tube. The groove is wick and Once sufficiently filled to establish fluid communication, condensates are discharged through the groove and out of the groove, and gas It can be reused as a recyclable material. In some embodiments, the grooves are directed toward the wick. It can be tapered, narrowing towards the mouthpiece and widening towards the end. The tapering shape allows for greater capillary action at a narrower point, resulting in more condensates accumulating in the groove. Therefore, it can facilitate the movement of the fluid towards the vaporization chamber.

[0169] Figure 45A shows a cross-sectional view of the air tube 334. The air tube 334 is an air passage. 338 and one or more internal grooves whose hydraulic diameter decreases toward the vaporization chamber 342 The groove is designed to move a fluid (e.g., condensate) placed inside the groove from a first position to a second position by capillary action. It is sized and shaped to be transportable to position 2. The internal groove is an air tube groove. Includes 364 and chamber groove 365. Air tube groove 364 inside air tube 334 It can be positioned in the air tube groove 364 at the first end 362 of the air tube. The cross-section is larger than the cross-section of the air tube groove 364 at the second end 363 of the air tube. It can be tapered so that it can be used. The chamber groove 365 is for air chu It can be positioned close to the second end 363 of the tube and connected to the air tube groove 364. It can be done. The internal groove communicates with the wick and allows vaporization from the internal groove by the wick. This makes it possible to continuously discharge condensed material, thus preventing condensation in the air passage 338. It may be configured to prevent the accumulation of a film of material. The condensates are driven by the capillary action of the internal grooves. The fluid can preferentially enter the internal groove. Due to the capillary drive gradient within the internal groove, the fluid is whitish. Moving towards housing 346, the vaporizable material condensate refills the wick. It is recycled by doing so.

[0170] Figures 45B and 45C show the first end 362 of the air tube and the second end of the air tube. The diagram shows the internal view of the condensate recycling system 360 as seen from each of the two ends 363. Position the first end 362 of the air tube close to the mouthpiece and / or air outlet. The second end 363 of the air tube can be connected to the vaporization chamber 342 and / or The second end 3 of the air tube can be positioned in close proximity to the wick housing 346. 63 may be in fluid communication with the chamber groove 365 and / or wick. The air tube groove 364 may have a first diameter 366 and a second diameter 368. The second diameter 368 may be narrower than the first diameter 366.

[0171] As the effective cross-sectional area of ​​the airflow passage narrows, condensates accumulate within the airflow passage, or Alternatively, by any of the designs discussed herein, air moving through the air tube The flow rate increases, applying resistance to the accumulated fluid (e.g., condensate). The fluid is directed towards the user. The drag force that is drawn out (for example, in response to suction on the vaporizer) pushes the fluid towards the wick. When the force is greater than the capillary force pulling the fluid, the fluid will escape through the air outlet.

[0172] This problem is overcome, and condensates are separated from the mouthpiece outlet, and vaporization chamber 342 and / Alternatively, to facilitate the return to the wick, an air tube close to the vaporization chamber 342 The cross-section of groove 364 is narrower than the cross-section of the air tube groove 364 that is close to the mouthpiece. A tapered air passage is provided. Furthermore, each internal groove is located at the first end of the air tube. The width of the internal groove adjacent to 362 is equal to the width of the internal groove adjacent to the second end 363 of the air tube. It is narrowed in such a way that it can become wider. In this way, the narrowing passage allows air to flow through. The capillary drive of the groove 364 is increased, and the fluid movement of condensates toward the chamber groove 365 is promoted. Furthermore, the chamber groove 365 adjacent to the second end 363 of the air tube is The width of the chamber groove 365 adjacent to the air may be wider. That is, each groove channel is air In addition to the flow channel itself narrowing towards the wick end, the flow gradually slows down as it approaches the wick. It gets narrower and narrower.

[0173] To maximize the effectiveness of capillary action provided by the condensate recycling system design Furthermore, the cross-sectional size of the air tube can be considered in relation to the groove size. As the size of the groove decreases, capillary action can be increased, but as the groove size decreases, condensation occurs. There is a risk that material may overflow into the groove and clog the air tube. Therefore, the groove width should be approximately 0.1m. The range can be from m to approximately 0.8 mm.

[0174] In some embodiments, the geometric shape or number of grooves can be varied. For example, The groove does not necessarily have to have a hydraulic diameter that decreases toward the wick. In this embodiment, the performance of the capillary drive is improved by the hydraulic diameter decreasing toward the wick. It can be done. However, other embodiments can be considered. For example, internal grooves and Channels can have substantially linear structures, tapered structures, spiral structures and / or other structures. It can have a configuration.

[0175] Figures 11A and 11B show an example of an external airflow path consistent with the realization of this subject. The front and side views of the cartridge 1310 are shown. For example, as shown in Figures 11A and 11B. As described above, one or more gates, also called air inlets, are provided on the vaporizer body 110. This is possible when the user is holding the vaporizer 100 connected to the cartridge 1320. The width, height, and size are such that users will not unintentionally block individual air inlets. An air inlet can be placed within an air inlet channel having depth. In one embodiment, for example When the user's finger blocks the area of ​​the air inlet channel, the airflow through the air inlet channel... The air inlet channel structure can be made long enough so as not to significantly block or restrict it. Cut.

[0176] In some realizations of this subject, for example, the user may use their fingers, hands, and / or other body parts. This ensures that the air inlet within the air inlet channel cannot be completely covered or blocked. To achieve this, the geometric structure of the air inlet channel determines the shortest length, minimum depth, or longest length. It can provide at least one of the widths. For example, the length of the air inlet channel It can be made longer than the average human finger width, and the width and depth of the air inlet channel can be adjusted. When the finger of the person pressing against the top of the channel, the wrinkles in the skin that form are the air inlet channel It can be made so that it does not interface with the internal air inlet.

[0177] The air inlet channel has a rounded edge or one of the vaporizer body 110 It may be configured or formed in a shape that wraps around the above corners or regions. As a result, the air intake channel cannot be easily covered by the user's fingers or body parts. In some implementations of this subject, an optional cover is provided to protect the air inlet channel. This is possible. As a result, the user's finger can block or completely block the airflow to the air inlet channel. It cannot be limited to this. Alternatively and / or additionally, the air inlet channel vaporizes It can be placed at the interface between the cartridge 1320 and the vaporizer body 110. When the vaporizer cartridge 1320 is connected to the vaporizer body 110, the vaporizer cartridge A recessed area formed between the ridge 1320 and the vaporizer body 110, for example, a joint, a cavity An air inlet channel can be placed within a tee, groove, gap, etc. This recessed area is At least partially extending around the vaporizer cartridge 1320 and the vaporizer body 110 This is possible. As a result, the user's finger (or other body part) only touches a portion of the recessed area. It can be covered, and air still passes through the uncovered portion of the recessed area to the air inlet. You can enter the channel.

[0178] Figure 12A shows a perspective view of an example of a wick housing 1315 that matches the implementation of the subject matter. A top view, bottom view, and various side views are shown. As shown, one or more perforations, holes or Slot 596 is formed at the bottom of the wick housing 1315, allowing air to enter the wick housing Wick element 1 that flows into the sing 1315 and is placed inside the wick housing 1315 A sufficient number of slots can pass around and / or pass through 362. 596 can facilitate proper airflow through the wick housing 1315. The wick housing 1315 is placed near or around the wicking element 1362. In response to the heat generated by the heated element 1350, the wicking element 1362 absorbs This is necessary to provide proper and timely vaporization of the collected vaporizable material 1302. There are cases where this occurs.

[0179] Vaporizable material 1302 present within the wick housing 1315, for example, wicking The vaporizable material 1302 drawn into the element 1362 is in the wick housing 1315 To prevent leakage, for example, to prevent further leakage of vaporizable material 1302. To provide one or more constriction points where a meniscus may form, slot 596 Internal dimensions (e.g., cross-sectional area, diameter, width, length, etc.) can be arranged in a stepped pattern. To demonstrate this, Figures 50A and 50B show a wick housing that matches the implementation form of this subject. A cross-sectional view of 1315 is shown. As shown in Figures 50A and 50B, slot 596 is... The internal dimensions of lot 596 are smaller than the dimensions of slot 596 at the bottom of wick housing 1315. In the sense that it can be cut, it can be made into a stepped shape. As a result, slot 59 The interior of 6 shows at least one stepped section.

[0180] In some implementations of this subject, the slot 596 at the bottom of the wick housing 1315 The dimensions may be 1.0 to 1.4 millimeters in length and 0.3 to 0.7 millimeters in width. For example, slot 596 is located at the bottom of the wick housing 1315, with a length of 1.2 It can be 0.5 mm in width, but the inner dimensions of the slot are approximately 1 mm in length. The stepped interior can be shown with dimensions of 0.0 mm x 0.3 mm in width. This stepped section prevents the vaporizable material 1302 from flowing out further from the slot 596. It is possible to provide a constriction point where a meniscus can be formed for this purpose. In particular, slot 59 By maintaining an air-liquid interface within the stepped interior of 6, the liquid vaporizable material 1302 , break the bottom of the wick housing 1315, for example, the vaporizer cartridge 1320 At a location close to the connection point with the main body 110 of the carbide device (for example, the cartridge receiving port 118) This prevents contamination of the external environment, including the vaporizer body 110.

[0181] Figure 12B shows, for example, a connection that forms at least a portion of the cartridge 1320. A perspective view of the collector 1313 and wick housing 1315 is shown. As shown, wick housing 1315 (the wick housing portion of the cartridge) (including) can be realized to include one or more protruding members or tabs 4390. The tab 4390 is configured to extend from the upper end of the wick housing 1315. It fits well and, during assembly, mates with the receiving end of collector 1313. Tab 4390 is, for example If, then, one or more of the receiving notches in the bottom of the collector 1313 or in the receiving cavity 1390 It may contain one or more facets that correspond to or match the facet of. The cavity 1390 allows for the attachment of tab 4390, for example, for snap-fit ​​engagement. It may be configured to accept into. The snap-fit ​​configuration allows during assembly or assembly. After standing, it helps to hold both the collector 1313 and the wick housing 1315 together. It is possible.

[0182] In certain embodiments, the tab 4390 is positioned towards the wick housing 1315 during assembly. It can be used to direct vibrations. For example, in one embodiment, one or more vibrators Using a structure (for example, a vibrating bowl), various components of cartridge 1320 are controlled. It can be temporarily stored or divided into stages. According to some implementations, The B4390 is a mechanical gripper designed for easy engagement and precise automated assembly. This can help to orient the top of the wick housing 1315.

[0183] In some realizations of this subject, the collector 1313 is a vaporizer of the vaporized vaporizable material 1302. It includes one or more mechanisms configured to facilitate mixing within the air passage 1338. Yes, it is possible. As mentioned above, the central tunnel 1100 crosses collector 1313, and air The flow passage 1338 and the heating element 1350 and wicking element 1362 are arranged in the wicking A fluid connection can be formed between the wicker housing 1315 and the wicker housing. A heating element 1350 heats the vaporizable material 1302 that has been drawn into the king element 1362. The aerosol generated flows into the air passage 1338 for supply to the user. Previously, I moved from Wick Housing 1315 to Central Tunnel 1100 inside Collector 1313. It can move. The vaporized vaporizable material 1302 is in the central tunnel 1100 and air The mixture of vaporizable material 1302 that has vaporized as it moves through the airflow passage 1338 is facilitated. Therefore, the interface between the collector 1313 and the wick housing 1315 is used. The bottom surface of the rectangle 1313 is configured to guide the flow of the vaporized vaporizable material 1302. It may include one or more mechanisms.

[0184] To further illustrate, Figures 52A to 52E show an example of a form consistent with the realization of this subject. The collector 1313, which has a low controller 5220, is shown. See Figures 52A to 52E. Then, the collector 1313 can include the flow controller 5220 on its bottom surface. The bottom of collector 1313 secures collector 1313 to wick housing 1315. It may further include one or more coupling mechanisms for fixing. The coupling mechanism may be, for example, the first Includes a coupling mechanism 5210a and a second coupling mechanism 5210b. a and the second coupling mechanism 5210b are connected to the corresponding female connector in the wick housing 1315. A male connector configured to be inserted into a connector (e.g., a socket) and to engage with it by friction. It may be a collector (for example, a fork). Collector 131 shown in Figures 52A to 52E In example 3, the bottom surface of collector 1313 is, for example, the first wick interface 5230a and It may further include one or more wick interfaces, including a second wick interface 5230b. The first wick interface 5230a and the second wick interface 5230b are wick interfaces It can be connected to code 1368. For example, the end of the first wick feed 1368a The first wick interface 5230a is positioned between the part and the wick housing 1315. This is possible, while the end of the second wick feed 1368b and the wick housing 1315 A second wick interface 5230b can be placed between them. 230a and the second wick interface 5230b each provide the wick feed 1368 At least a portion of the vaporizable material 1302 that flows through is placed inside the wick housing 1315. Configured to function as a conduit for sending to the placed wicking element 1360. It's fine to do that.

[0185] Referring again to Figures 52A to 52E, the flow controller 5220 is located in the central tunnel. 1100 can be fluidly connected, and then the central tunnel 1100 is connected to the air passage 133 It is in fluid communication with 8. In some implementations of this subject, the flow controller 5220 is Vaporized vaporizable material 13 in the central tunnel 1100 and / or air passage 1338 The system is configured to guide the flow of vaporized vaporizable material 1302 in a manner that promotes mixing of 02. It is acceptable to leave it. The mixture of vaporized vaporizable material 1302 is, for example, supplied to the user. Various methods, including regulating the temperature and / or distribution of vaporized particulate matter in an allosol. There are times when this is desirable.

[0186] In some implementations of this subject, the flow controller 5220, for example, the first channel It may include one or more channels, including channel 5225a and a second channel 5225b. In the example of collector 1313 shown in Figures 52A to 52E, the central tunnel 1100 The first opening of the first channel 5225a leads to the second channel leading to the central tunnel 1100. The first Chi is offset at least partially from the second opening of Ru 5226b The relative positions of channel 5225a and the second channel 5225b are offset (or staggered). It can be made into this state. Furthermore, the first channel 5225a and the second channel 52 25b can, for example, be tapered to form a separate funnel-like structure. Furthermore, the cross-sectional dimensions of the first channel 5225a and the second channel 5225b are as follows: Channel 1 5225a and Channel 2 5225b are in contact with the central tunnel 1100. It can taper towards the end. For example, the first channel 5225a The second channel 5225b extends approximately 2.25 millimeters in height, ( (At the bottom of collector 1313) 2.62 mm x 5.85 mm It can be tapered down to 0.35 mm x 0.70 mm. The inner walls of the first channel 5225a and the second channel 5225b are located within the central tunnel. It can be inclined toward the center of 1100. Therefore, the first channel 52 25a and the second channel 5225b are respectively connected to the wick housing 1315. From the vaporized vaporizable material 1302 that enters the low controller 5220, the vaporized vaporizable A separate column of material 1302 can be formed.

[0187] Furthermore, each column of the vaporized vaporizable material 1302 is connected to the first channel 5225a and Furthermore, the inclined internal contour of the second channel 5225b causes the flow to be offset in a different direction. This is possible. For example, instead of moving straight towards the air passage 1338, vaporization The column of vaporizable material 1302 is connected to the central tunnel 1100 and the air passage 1338. It can be guided towards the wall. In other words, the flow controller 5220 can guide the vaporized air The vaporizable material 1302 may be configured to interrupt the laminar flow. In laminar flow, vaporization Each layer of vaporizable material 1302 moves at its own speed and its own temperature It possesses and moves independently without any separation or mixing between layers. Vaporization in laminar flow The lateral mixing between the layers of the vaporizable material 1302 is minimized (e.g., by diffusion mixing). And it may be slow. Therefore, the portion introduced by the flow controller 5220 If there is no interruption, the vaporized vaporizable material 1302 will be supplied to the user via the air passage 1 It may not receive sufficient mixing before reaching 338.

[0188] In contrast, the first channel 5225a and the second channel 5225b are used for vaporized gas Because it is configured to offset the flow of the molten material 1302, flow control The vaporized vaporizable material 13 passes through the flow controller 5220 via the flow controller 5220. Turbulence can be introduced into 02. For example, the flow direction of the vaporized vaporizable material 1302 By offsetting, each column of vaporized vaporizable material 1302 is directed to the central tunnel. The walls of the 1100 and air passage 1338, as well as the columns themselves, can interact with each other. These interactions involve vaporized materials moving at different speeds and at different temperatures. This splits the layer of material 1302 and promotes the mixing of the vaporized layer of vaporizable material 1302. It is possible.

[0189] To further illustrate, Figure 52F shows the central tunnel 1100 and the air passage 1338 Examples of laminar and turbulent flow through the material are shown. On the left side of Figure 52F, vaporized vaporizable material 13 Column 02 is a column of vaporized vaporizable material 1302 in the central tunnel 1100 and It remains separated as it moves through the air passage 1338. Therefore, it vaporizes. The vaporizable material 1302 maintains a substantially laminar flow, and in this case, the vaporized vaporizable material 1 Minimal mixing occurs between layers 302. In contrast, on the right side of Figure 52F, flow control The 5220 offsets the flow direction of the column of the vaporized vaporizable material 1302. Turbulence, including that caused by this, is introduced into the vaporized vaporizable material 1302. The column of vaporized vaporizable material 1302 is located in the central tunnel 1100 and the air passage 1 The walls and columns of 338 interact with each other. As mentioned above, vaporized vaporizable material The turbulence of 1302 can facilitate the mixing of different layers of vaporized vaporizable material 1302. As a result, the aerosol supplied to the user has a temperature of vaporized fine particles. It can exhibit greater uniformity in its distribution.

[0190] As described above, the vaporizer cartridge 1320 that matches the implementation form of this subject is one or more The above heating element may include, for example, heating element 1350. Partial implementation of this subject According to the configuration, the heating element 1350 preferably accepts the wicking element 1362. molded and / or at least partially crimped around the wicking element 1362 It may be pressed against or the heating element 1350. The configuration is to secure the wick element 1362 between at least two or three parts of 0. It can be bent in such a way. The heating element 1350 is a small portion of the wicking element 1362. Even without it, it can be bent to match some of the shapes. The heating element 1350 is typical It can be manufactured more easily than other heating elements. The heating element consistent with the realization of this subject is The heating element may be made of a conductive metal suitable for resistance heating, and in some realizations, the heating element is heated To enable more efficient heating of the elements (and by extension, the vaporizable materials), another material Selective plating may be included.

[0191] Figure 13A shows an exploded view of an example vaporizer cartridge 1320, and Figure 13B shows the vaporizer Figure 13C shows a perspective view of an embodiment of cartridge 1320, and vaporizer cartridge 13 The bottom perspective views of 20 examples are shown. As shown in Figures 44A to 44C, the vaporizer cartridge 1320 is Collector 1313, Wick Housing 1315, (Wick Housing It is configured to accommodate a heating element 1350 (at least partially located within 1315). It can include a housing 160. In some realizations of this subject, the wick The wicking element 1315, heating element 1350, and wicking element 1362 are shown in Figure 1. A modified atomizer assembly 141 can be formed.

[0192] As will be described in more detail below, at least a portion of the heating element 1350 is housed in It is positioned between the 160 and the wick housing 1315 and connected to a part of the vaporizer body 110. Expose it so that it can be electrically connected to the receiving contact 125. The 1315 can include four sides. For example, the wick housing 1315 It can have two opposite short sides and two opposite long sides. Each of the longer sides may contain at least one (or more) recesses. Along the long side of the wick housing 1315 and along the long and short sides of the wick housing 1315 The recess can be positioned adjacent to each intersection between them. In order to fix it to the vaporizer body 110 inside the cartridge receptacle 118, on top of the vaporizer body 110 It can be molded to be detachably connected to a corresponding mechanism (e.g., a spring). Depending on the part, mechanically securely connects the vaporizer cartridge 1320 to the vaporizer body 110. A fixed fixing means is provided.

[0193] In some implementations, the wick housing 1315 is located on the vaporizer, corresponding to the wick housing 1315. It also includes an identification chip 174 which may be configured to communicate with a reader. For example, On the short side of the wick housing 1315, glued to the wick housing 1315 and Alternatively, the identification chip 174 can be attached by some means. Wick housing 1315 additionally includes a chip recess configured to receive an identification chip 174 or Alternatively, the chip recess may be surrounded by two, four or more walls. Obtain the chip recess so that the identification chip 174 can be secured to the wick housing 1315. It can be molded.

[0194] Figures 14 to 17 show schematic diagrams of the heating element 1350 that are consistent with the implementation of this subject. For example, Figure 14 shows a schematic diagram of the heating element 1350 in an unfolded position. As shown, in the unfolded position, the heating element 1350 forms a planar heating element. To accomplish this, first, the heating element 1350 can be formed from the substrate material. Next, the substrate This includes processes such as punching, laser cutting, photoetching, and chemical etching of materials. However, these are not limited to various mechanical processes that cut the material into the appropriate shape and / Alternatively, it is punched out.

[0195] The substrate material may be a conductive metal suitable for resistive heating. In some realizations, heating Element 1350 includes nickel-chromium alloys, nickel alloys, stainless steel, etc. As considered, the heating element 1350 is positioned at one or more locations on the substrate material (heating element 1350 To increase or limit the resistivity of the heating element in all or part of the heating element. Or, in order to modify in some way, to coat one or more locations on the surface of the substrate material. It can be plated by this method.

[0196] The heating element 1350 has one or more comb teeth 502 located in the heating portion 504 (for example, heating A segment) and one or more connecting parts or legs 506 located in the transition area 508 (for example) (for example, one, two or more) and one or more legs 50 located in the electrical contact area 510 6 Includes cartridge contacts 124 formed at each end. Comb teeth 502, legs 50 6 and the cartridge contact 124 can be formed integrally. For example, comb teeth 50 2. The legs 506 and cartridge contact 124 are punched out from the substrate material and / or form part of the cut heating element 1350. In some realizations, heating element 1 350 also includes a heat shield 518 extending from one or more leg sections 506, and comb teeth 50 2. The leg portion 506 and the cartridge contact 124 can be formed integrally.

[0197] In some realizations, at least a portion of the heating portion 504 of the heating element 1350 is a vaporizer The vaporizable vapor drawn into the wicking element from the reservoir 1340 of cartridge 1320. It is configured to interface with the heating material. Heating portion 504 of heating element 1350 Then, shape, size, and / or process in some way to produce the desired resistance. For example, the comb teeth 502 located within the heating portion 504 can be adjusted to the resistance of the comb teeth 502. The resistance is equal to an appropriate amount of resistance that affects localized heating within the heated portion 504, Designed to heat vaporizable materials from the icking element more efficiently and effectively. This is possible. The comb teeth 502 are arranged in series and / or parallel to provide the desired amount of resistance. , forming a thin heating segment or trace.

[0198] The comb teeth 502 (e.g., traces) can include various shapes, sizes, and configurations. In some configurations, one or more comb teeth 502 are absorbed by the vaporizable material from the wicking element. They are released and spaced apart to allow them to vaporize at the side edges of each comb tooth 502. It can be arranged. Among the other characteristics of the comb teeth 502, the shape, length, width, composition, etc. can be added. Aerosols are generated by vaporizing a vaporizable material from within the heated portion of the thermal element 1350. It can be optimized to maximize efficiency and electrical efficiency. (Comb teeth 50) Among the other characteristics of 2, the shape, length, width, composition, etc., of the comb teeth 502 (or one of the comb teeth 502) In addition, to distribute heat evenly over the length of the heating section (for example, the heating section 504), Alternatively, it can be optimized. For example, the width of the comb teeth 502 is the width of the heating element 1350. To control the temperature profile over at least the heated portion 504, the length of the comb teeth 502 It may be uniform or variable along the heating element. In some examples, the length of the comb teeth 502 is determined by the heating element To achieve the desired resistance along at least a portion of 1350, for example, along the heating portion 504 It can be controlled as shown in Figures 45 to 48, the comb teeth 502 are each the same They have the same size and shape. For example, the comb teeth 502 are roughly aligned and have a roughly rectangular shape. Outer edge 503 having a shape, for example, a flat or square outer edge 503 or a rounded outer edge Includes 503. In some implementations, one or more comb teeth 502 are not aligned. It may include one / or different sizes or shapes of outer edges 503. In this implementation, the comb teeth 502 can be arranged at equal intervals or adjacent to each other. The comb teeth 502 can have a variable spacing. The specific geometric shape of the comb teeth 502 Preferably, a specific local resistance is created for heating the heating portion 504, and a vaporizable material is provided. Select to maximize the performance of the heating element 1350 for heating and generating aerosols. You can choose.

[0199] The heating element 1350 has a wider and / or thicker geometric shape relative to the comb teeth 502. It may include parts of different shapes and / or compositions. These parts may be electrical contacts A region and / or a more conductive portion can be formed, and / or heating element 1 It may include a mechanism for mounting the 350 inside the vaporizer cartridge. Heating element 1 The legs 506 of 350 extend from the ends of each outermost comb tooth 502A. The legs 506 are typical This includes a portion of the heating element 1350 having a width and / or thickness wider than the width of each comb tooth 502. This forms the shape. However, in some realizations, the leg portion 506 is the same width as each comb tooth 502. or it has a narrower width and / or thickness. The leg portion 506 holds the heating element 1350 Connect to the wick housing 1315 or another part of the vaporizer cartridge 1320. As a result, the heating element 1350 is at least partially or completely heated by the housing 160. The legs 506 ensure that the heating element 1350 is mechanically stabilized during and after manufacturing. The rigidity is provided to facilitate heating. In addition, the leg portion 506 heats the cartridge contact 124. The leg portion 506 is connected to the comb teeth 502 located in portion 504. The leg portion 506 is connected to the heating element 1350 when heated It is formed and sized so as to maintain the electrical requirements of part 504. (As shown in Figure 18) As shown, the leg portion 506 is assembled with the heating element 1350 and the vaporizer cartridge 1320. When this is done, the heating portion 504 is placed at an interval from the end of the vaporizer cartridge 1320. The legs 506 are positioned so that the vaporizable material 1302 is heated from the heating element 504. A capillary mechanism configured to restrict and / or prevent flow to other parts of 1350 It can also include.

[0200] In some implementations, one or more legs 506 include one or more positioning mechanisms 516. The positioning mechanism 516 is positioned relative to other (e.g., adjacent) components of the vaporizer cartridge 1320. By interfacing with the component, during and / or after assembly, It can be used to position the heating element 1350 or a part thereof relative to itself. In the implemented form of the part, the positioning mechanism 516 cuts and / or punches the substrate material. Then, in order to form the heating element 1350 or to post-process the heating element 1350, the substrate material It can be used during or after manufacturing to properly position materials. Positioning mechanism Shear 516 before crimping or bending heating element 1350 in any way and / or It can be cut.

[0201] In some implementations, the heating element 1350 includes one or more heat shields 518. The leg portion 518 forms part of the heating element 1350 that extends laterally from the leg portion 506. When folded and / or crimped, the heat shield 518 is in the same plane as the comb teeth 502. It is positioned offset in the first direction and / or in the second direction opposite to the first direction. When the heating element 1350 is assembled into the vaporizer cartridge 1320, the heat shield 5 18 is the comb teeth 502 (and heating portion 504) and the body of the vaporizer cartridge 1320 (e.g. For example, it is configured to be placed between the plastic body and the heat shield 518. This helps to insulate the heating element 504 from the main body of the vaporizer cartridge 1320. Yes, it is possible. The heat shield 518 protects the heating portion 50 of the vaporizer cartridge 1320 from the main body. To minimize the effects of heat emitted from 4, the structural design of the vaporizer cartridge 1320 body Helps protect integrity and prevent melting or other deformation of the vaporizer cartridge 1320. Furthermore, the heat shield 518 retains heat within the heating portion 504, thereby reducing the heat of the heating portion This helps maintain a consistent temperature in 504, thereby while vaporization is occurring. Heat loss can be prevented or limited. In some implementations, the vaporizer cartridge The 1320 may also include a heat shield 518A separate from the heating element 1350 or It can be included as an alternative.

[0202] As described above, the heating element 1350 has at least two that form the ends of each leg portion 506 This includes the cartridge contact 124. For example, as shown in Figures 14 to 17, The fold contact 124 forms a portion of the leg 506 that is folded along the fold line 507. This is possible. The cartridge contact 124 can be folded at an angle of approximately 90 degrees relative to the leg 506. This is possible. In some implementations, the cartridge contact 124 is connected to the leg portion 506, and The angle, for example, about 15 degrees, 25 degrees, 35 degrees, 45 degrees, 55 degrees, 65 degrees, 75 degrees or so It can be folded at other angles in between. The cartridge contact 124 is realized in Depending on the state, fold it toward the heating portion 504 or away from the heating portion 504. It is possible to connect the cartridge contact 124 to, for example, at least one leg 506 Along the length, it can be formed on another part of the heating element 1350. Point 124 will be exposed to the environment when assembled inside the vaporizer cartridge 1320. It is composed of sea urchin.

[0203] Cartridge contact 124 is a conductive pin, tab, post, receiving hole or pin or post Surfaces or other contact configurations can be formed for the cartridge. The cartridge contact 124 on the vaporizer cartridge and the vaporizer body 110 To create better physical and electrical contact between the upper receiving contact 125 , may include a spring or other biasing mechanism. In some implementations, cartridge contacts 124 is intended to clean the connection between the cartridge contact 124 and other contacts or the power supply. Includes a wiping contact configured as follows. For example, the wiping contact is two parallel but It will include offset projections (bosses). These projections are parallel to the insertion direction. They engage with each other by friction in a perpendicular direction and slide against each other.

[0204] The cartridge contact 124 is located near the base of the cartridge receptacle of the vaporizer 100. It is configured to interface with the receiving contact 125. As a result, the vaporizer car When the cartridge 1320 is inserted into the cartridge receptacle 118 and connected to it, Cartridge contact 124 and receptacle contact 125 are electrically connected. 24 is electrically connected to the power supply 112 of the vaporizer device (for example, via the receiving contact 125, etc.). It can communicate with the heating element 1. It becomes possible to send current to a resistive heating element to heat at least a portion of 350, for example For example, the temperature of a resistive heating element is determined based on the heat coefficient of the resistivity of the resistive heating element, and / or To measure the resistance of a resistive heating element for use in control, the resistive heating element or Identify the cartridge based on one or more electrical characteristics of other circuits in the vaporizer cartridge. It can be used for additional functions such as the following: As will be explained in more detail, for example, conductive plating, surface treatment and / or deposition materials To process using a material to provide improved electrical properties (e.g., contact resistance). It is possible.

[0205] In some realization forms, the heating element 1350 is made into a desired three-dimensional shape. To shape it, it can be processed by a series of crimping and / or bending operations. For example The heating element 1350 was operated to receive around the wicking element 1362. It is crimped around the wicking element 1362, and at least two of the heating element 1350 Between parts (for example, nearly parallel parts) (for example, between opposing parts of the heating part 504) The locking element can be fixed. To crimp the heating element 1350, the heating element 1 350 can be bent toward each other along the fold line 520. Heating element 1350 By folding along the fold line 520, the fold line 520 and the comb teeth 5 The region between the lateral comb teeth portion 526 is defined by the region between the outer edge 503 of 02. A defined platform comb tooth portion 524 is formed. 24 is configured to contact one end of the wicking element 1362. Lateral comb teeth Part 526 is configured to contact both sides of the wicking element 1362. The wicking element 1362 is formed by the formed comb teeth portion 524 and the lateral comb teeth portion 526. To accept and / or to match the shape of at least a portion of the wicking element 1362 A molded pocket is formed. This pocket allows the wicking element 1362 The heating element 1350 can be fixed and held in place within the pocket. The form comb portion 524 and the lateral comb portion 526 are wicked with the heating element 1350. In order to provide multidimensional contact with element 1362, the wicking element 1362 is in contact with The multidimensional contact between the heating element 1350 and the wicking element 1362 causes vaporization. The vaporizer cartridge 1320 should be transferred from the reservoir 1340 to the heating section 504 (whistle (via King element 1362) provides a more efficient and / or faster transfer of vaporizable materials. It will be served.

[0206] In some implementations, a portion of the leg portion 506 of the heating element 1350 is folded along the fold line 522. They can also be bent so that they move away from each other. A portion of the leg 506 of the heating element 1350 is folded along the fold line. By folding them apart from each other along 522, in the first direction and / or the first In a second direction opposite to the first direction (for example, within the same plane), the heating portion 50 of the heating element 1350 The leg portion 506 is located away from 4 (and the comb teeth 502). Therefore, heating element 1 By folding a portion of the leg portion 506 of 350 along the fold line 522 so that they are separated from each other, The heating element 504 is separated from the main body of the vaporizer cartridge 1320. Figure 15 shows Folded along fold lines 520 and 522 around the icking element 1362 A schematic diagram of the heating element 1350 is shown. As shown in Figure 15, the wicking element is heated A pocket is formed by folding element 1350 along fold lines 520 and 522. It is placed inside the box.

[0207] In some realizations of this subject, the heating element 1350 is bent along the fold line 523. It is also possible to connect the cartridge contacts 124 toward each other along the fold line 523. It can be bent (to move in and out of the paper shown in Figure 16). Cartridge contact 12 The contact portion of the heating element 1350, including 4, is such that the cartridge contact 124 is exposed to the external environment. At least a portion of the wick housing 1315 so as to be able to engage with the receiving contact 125 It can be placed on the outside. On the other hand, the heating portion of the heating element 1350 is at least a portion It can be placed within the wick housing 1350.

[0208] When the heating element 1350 is assembled inside the vaporizer cartridge 1320 during use When the user puffs on the mouthpiece 130 of the vaporizer cartridge 1320, the air is released. It flows into the vaporizer cartridge along the air path. In relation to the user's puff, the heating element 1350, for example, automatically detects the puff using a pressure sensor, and the user presses a button. The detection below detects motion sensors, flow sensors, capacitive lip sensors and / or air It is placed in the vaporizer 100 and, in order to move it at least along the air path, the user puffs it. It is possible to detect whether the person is present, attempting to puff, or inhaling in some way. It can be activated by a signal generated from another approach. Heating element 135 When 0 is activated, the heating element 135 is transmitted from the vaporizer device to the cartridge contact 124. It can supply power to 0.

[0209] When the heating element 1350 is activated, the current that flows through the heating element 1350 generates heat. This causes a temperature rise. This heat is then conducted so that at least some of the vaporizable material vaporizes. Heat is transferred to a certain amount of vaporizable material by thermal, convective, and / or radiative heat transfer. Heat transfer was maintained by the vaporizable material and / or heating element 1350 in the reservoir. This can occur with respect to vaporizable material drawn into the wicking element 1362. Partial realization In terms of form, the vaporizable material is arranged along one or more edges of the comb teeth 502, as mentioned above. This allows it to be vaporized. The air entering the vaporizer device crosses the heating element 1350. It flows along the air path and strips off the vaporizable material that has vaporized from the heating element 1350. The vaporizable material can be condensed by cooling, pressure changes, etc., and as a result, the vaporizable material The material is released from the mouthpiece 130 as an aerosol for inhalation by the user.

[0210] As mentioned above, the heating element 1350 can be made of various materials, such as nichrome, stainless steel. Alternatively, it may be made of other resistance heating materials. A combination of two or more materials is used for heating element 1. It can be included in 350, and such combinations include two or more elements across the entire heating element. Both a homogeneous distribution of materials or other configurations in which the relative amounts of two or more materials are spatially heterogeneous. This can include the following: For example, the comb teeth 502 are more resistant, and thereby the comb teeth or it has a part that is designed to be hotter than other sections of the heating element 1350. This is possible. In some implementations, at least the comb teeth 5 (for example, in the heated portion 504) 02 may include materials having high conductivity and heat resistance.

[0211] The heating element 1350 can be plated entirely or selectively with one or more materials. Yes, it is possible. The heating element 1350 is made of a thermally and / or electrically conductive material, for example, ste Because it is made of stainless steel, nichrome or other thermally and / or electrically conductive alloys, The heating element 1350 is connected to the cartridge contact 124 and the heating portion 504 of the heating element 1350. Electrical or thermal losses may occur in the path between the comb teeth 502 and the heat. To help reduce losses and / or electrical losses, the heating element 1350 is less In order to reduce the resistance in the electrical path leading to the heating portion 504, one or more Depending on the material, plating can be performed. In some realizations consistent with this subject, the heating portion 5 04 (for example, comb teeth 502) remain unplated, and the legs 506 and / or At least a portion of the cartridge contact 124 has resistance in those parts (e.g., bulk resistance) It is plated with a plating material that reduces one or both of the anti- and contact resistance. It is beneficial.

[0212] For example, the heating element 1350 may include various parts plated with different materials. Yes, it is possible. In another example, the heating element 1350 can be plated with a layered material. By plating at least a portion of the heat element 1350, the current flowing to the heated portion 504 is reduced. By concentrating the electrical and / or thermal losses in the other parts of the heating element 1350, It helps to reduce the amount of heat. In some implementations, the cartridge contact 124 and the heating element 1350 Maintaining low resistance in the electrical path between the comb teeth 502, electrical loss in the electrical path and / or reduce heat loss and compensate for the voltage drop concentrated throughout the heated portion 504. desirable.

[0213] In some implementations, the cartridge contact 124 can be selectively plated. Measurements are performed by selectively plating the cartridge contact 124 with a specific material. Therefore, the contact resistance at the point where electrical contact occurs between the cartridge contact 124 and the receptacle contact. This can be minimized or eliminated. By providing low resistance to the cartridge contact 124. This provides more accurate voltage, current, and / or resistance measurements and readings. This allows for the precise determination of the current actual temperature of the heating portion 504 of the heating element 1350. This may be helpful in making a decision.

[0214] In some implementations, at least a portion of the cartridge contact 124 and / or the legs 5 At least a portion of 06 can be plated with one or more types of outer plating materials 550. For example, at least a portion of the cartridge contact 124 and / or a portion of the leg 506 At least a portion of it should be gold or another material that provides low contact resistance, such as platinum, palladium. It can be plated with zinc, silver, copper, etc.

[0215] In some implementations, to fix the low-resistance outer plating material to the heating element 1350, The surface of the thermal element 1350 can be plated with an adhering plating material. In this configuration, the plating material can be deposited onto the surface of the heating element 1350, and the outer surface The plating material can be deposited onto the attached plating material. Each of these can be used as the first and second The plating layer is defined as the outer plating material deposited on the outer plating material. When plating, it includes materials with adhesion properties. For example, the adhesion plating material may be nickel, zinc This may include aluminum, iron, and alloys thereof.

[0216] In some implementations, the surface of the heating element 1350 is coated with a plating material. Instead of plating the surface of 50, a non-plating primer is used, heating element It can be used as a primer for the outer plating material to be deposited on 1350. For example, The surface of the heating element 1350 is not coated by depositing an adhesive plating material, but rather by etching. It can be used as a primer.

[0217] In some implementations, all or part of the leg portion 506 and the cartridge contact 124 are Plating can be performed using an adhering plating material and / or an external plating material. Some examples So, the cartridge contact 124 is the remaining part of the cartridge contact 124 and / or additional The outer plating material has a greater thickness than the leg portion 506 of the heat element 1350. It can include at least some of the cartridge contacts 124 and / or the leg portion 506 is thicker than the comb teeth 502 and / or the heating portion 504 It can have that

[0218] In some implementations, a heating element 1350 is formed from a single substrate material, and the substrate material is plated. Instead, the heating element 1350 is heated (for example, by laser welding, diffusion treatment, etc.) It can be formed from various materials connected to each other. The heating elements 1350 connected to each other The materials of each part are designed to provide low resistance or no resistance at all in the cartridge contact 124. Not to provide and to the other parts of the heating element 1350, the comb teeth 502 or heating part 5 In 04, it can be selected to provide high resistance.

[0219] In some implementations, the heating element 1350 can be electroplated with silver ink. and / or one or more plating materials, for example, an adhesive plating material and an outer plating material It can be spray-coated.

[0220] As mentioned above, the heating element 1350 heats the heating portion 504 of the heating element 1350 To heat more efficiently and vaporize the vaporizable material 1302 more efficiently, various shapes It may include shape, size, and geometric form.

[0221] Figures 19 to 24 show another example of the heating element 1350 consistent with the implementation of this subject. As described above, the heating element 1350 has one or more comb teeth 502 located within the heating portion 504. And, one or more legs 506 extending from the comb teeth 502, and one or more legs at the end Each of the parts 506 can include a cartridge contact 124 formed as part of it. .

[0222] The comb teeth 502 are located in the pocket where the wicking element 1362 (e.g., a flat pad) is located. It can be folded and / or crimped to define the shape. The comb teeth 502 are plugged Includes platform comb portion 524 and lateral comb portion 526. 524 is configured to contact one side of the wicking element 1362. The comb-tooth portion 526 is configured to contact the other opposite side of the wicking element 1362. It is there. The platform comb teeth portion 524 and the lateral comb teeth portion 526 provide wicking. Receiving element 1362 and / or the shape of at least a portion of the wicking element 1362 It forms a pocket that is molded to match. This pocket allows the wicking element 1362 can be fixed and held in place within the pocket by the heating element 1350. .

[0223] In this example, the comb teeth 502 have various shapes and sizes and are the same or at different distances. They are arranged with space between them. For example, as shown, the lateral comb teeth 526 are each It includes at least four comb teeth 502. In the first pair 570 of adjacent comb teeth 502, Each of the contacting comb teeth 502 is located inside the platform comb tooth portion 524. From region 576 to the outer region 578 located near the outer edge 503, the distances are equal. They are placed and positioned. In the second pair 572 of adjacent comb teeth 502, the adjacent comb teeth 502 are They are arranged at intervals of various distances from the inner region 576 to the outer region 578. For example The adjacent comb teeth 502 of the second pair 572 are in the inner region 576 in the outer region 578. They are arranged with a large gap between them. These components are the comb teeth of the heating portion 504 This can help maintain a constant and uniform temperature along the length of the 502 teeth. By maintaining a constant temperature along the way, the maximum temperature is distributed throughout the entire heated section 504. Because it can be maintained uniformly, it is possible to provide a higher quality aerosol.

[0224] As described above, each leg portion 506 is connected to the corresponding receiving contact 125 of the vaporizer 100. Includes and / or can define cartridge contacts 124 configured to make contact In some implementations, each pair of legs 506 (and cartridge contacts 124) is single It can make contact with one receiving contact 125. In some realizations, the leg portion 506 is curved. A holding portion 180 is configured to be able to move and extends approximately away from the heating portion 504. The retaining portion 180 is located in the corresponding recess within the wick housing 1315. It is configured in such a way. The holding portion 180 forms the end of the leg portion 506. Holding portion 1 80 connects the heating element 1350 and the wicking element 1362 to the wick housing 131 Helps to secure to 5 (and vaporizer cartridge 1320). The retaining part 180 is retaining A tip portion extending from the end of the holding portion 180 toward the heating portion 504 of the heating element 1350 It can have 180A. With this configuration, the holding part is vaporizer cartridge 132 Cleaning another part of 0 or vaporizer cartridge 1320 The possibility of contact with the device is reduced.

[0225] The outer edge 503 of the comb teeth 502 in the heated portion 504 may include a tab 580. Tab 580 can contain one, two, three, four or more Tab 580s. Tab 580 extends outward from the outer edge 503 and away from the center of the heating element 1350. It can extend in such a way. For example, tab 580 can receive wicking element 1362 To that end, a heating element surrounds the internal volume defined at least by the lateral comb teeth portion 526. It can be positioned along the edge of 1350. Tab 580 is wicking element 136 It can extend outward from the internal volume of 2. Also, tab 580 is Pratt The form comb teeth portion 524 may extend away from the form comb portion 524. In some implementations The tabs 580, positioned on both sides of the internal volume of the wicking element 1362, are separated from each other. It can extend in such a way. This configuration is related to the internal volume of the wicking element 1362. It helps to widen the flowing opening, thereby when assembled with the heating element 1350. , the wicking element 1362 is caught, causing a tear and / or damage. Helps reduce the possibility of waxing. The material of wicking element 1362 makes wicking When the heating element 1362 is assembled with the heating element 1350 (for example, when placed inside it), (or when inserted), it is easily trapped, tears, and / or damaged in any way. There is a risk of damage. Between the wicking element 1362 and the outer edge 503 of the comb teeth 502. Contact with it may also cause damage to the heating element. The shape of tab 580 and / or Alternatively, by positioning, the wicking element 1362 is positioned in the pocket formed by the comb teeth 502. To make it easier to position within or in the (for example, the internal volume of the heating element 1350) This makes it possible to do so, thereby damaging the wicking element 1362 and / or the heating element. This can prevent or reduce the possibility of damage. Therefore, tab 58 0 is when the wicking element 1362 enters the heating element 1350, which is in thermal contact with the heating element 1 To reduce or prevent damage occurring to 350 and / or wicking element 1362 This is useful. Also, the shape of tab 580 minimizes its impact on the resistance of the heating portion 504. It is also useful for that.

[0226] In some implementations, at least a portion of the cartridge contact 124 and / or the legs 5 At least a portion of 06 is a contact resistor at the point where the heating element 1350 contacts the receiving contact 125. To reduce resistance, the material can be plated with one or more types of outer plating materials 550.

[0227] Figures 25A-25B, 26-28, 29A-29B, and 30A-30B Here, another example of the heating element 1350 consistent with the realization of this subject is shown. As shown, The heating element 1350 has one or more comb teeth 502 arranged within the heating portion 504, and the comb teeth 502 One or more legs 506 extending from and at the end and / or one or more legs 506 each This includes a cartridge contact 124 formed as part of it.

[0228] The comb teeth 502 are located in the pocket where the wicking element 1362 (e.g., a flat pad) is located. It can be folded and / or crimped to define the shape. The comb teeth 502 are plastic Includes platform comb portion 524 and lateral comb portion 526. The part 524 is configured to contact one side of the wicking element 1362. The comb-tooth portion 526 is configured to contact the other opposite side of the wicking element 1362. The platform comb portion 524 and the lateral comb portion 526 provide a wicking action. The shape of the wicking element 1362 and / or at least a part of the shape of the wicking element 1362 It forms a pocket that is shaped to match the wicking requirements. Element 1362 can be fixed and held in the pocket by the heating element 1350. ru.

[0229] In this example, the comb teeth 502 have the same shape and size and are spaced equally apart from each other. It is placed and positioned. Here, the comb teeth 502 are spaced apart by the platform comb tooth portion 524. The first lateral comb tooth portion 526A and the second lateral comb tooth portion 526B are spaced apart. The first and second lateral comb teeth portions 526A and 526B are each part of the platform. An internal region 576 located near the comb teeth portion 524 and an internal region located near the outer edge 503 It includes an external region 578. In the external region 578, the first lateral comb tooth portion 526A is The first lateral comb is positioned almost parallel to the two comb teeth 526A. The tooth portion 526A is positioned offset from the second comb tooth portion 526B, and the first and The lateral comb teeth 526A and 526B of part 2 are not parallel. This configuration is the comb of the heating part 504. It can help maintain a constant and uniform temperature along the length of tooth 502. Comb tooth 5 By maintaining a constant temperature along the length of 02, the maximum temperature is distributed throughout the heated portion 504. Because it can be maintained more uniformly across the surface, it can provide a higher quality aerosol. ru.

[0230] As described above, each leg portion 506 is connected to the corresponding receiving contact 125 of the vaporizer 100. Includes and / or can define cartridge contacts 124 configured to make contact In some implementations, each pair of legs 506 (and cartridge contacts 124) is single It can make contact with one receiving contact 125. In some realizations, the leg portion 506 is curved. A holding portion 180 is configured to be able to move and extends approximately away from the heating portion 504. The retaining portion 180 is located in the corresponding recess within the wick housing 1315. It is configured in such a way. The holding portion 180 forms the end of the leg portion 506. Holding portion 1 80 connects the heating element 1350 and the wicking element 1362 to the wick housing 131 Helps to secure to 5 (and vaporizer cartridge 1320). The retaining part 180 is retaining A tip portion extending from the end of the holding portion 180 toward the heating portion 504 of the heating element 1350 It can have 180A. With this configuration, the holding part is vaporizer cartridge 132 Cleaning another part of 0 or vaporizer cartridge 1320 The possibility of contact with the device is reduced.

[0231] The outer edge 503 of the comb teeth 502 in the heated portion 504 may include a tab 580. Tab 580 extends outward from the outer edge 503 and away from the center of the heating element 1350. Tab 580 can extend to the comb teeth 502 of the wicking element 1362. They may be molded in such a way that they can be more easily positioned within the formed pockets. This prevents the wicking element 1362 from being caught on the outer edge 503. This can be reduced. The shape of tab 580 minimizes its impact on the resistance of the heated portion 504. It helps to keep it under control.

[0232] In some implementations of this subject, at least a portion of the cartridge contact 124 and / or At least a portion of the leg portion 506 is at the point where the heating element 1350 contacts the receiving contact 125. To reduce contact resistance, plating is performed using one or more types of outer plating materials 550. can.

[0233] Referring to Figures 24 and 30A-30B, the geometric shape of the heating element 1350 is: When not folded, it may resemble the letter "H", and the heating portion 504 is the leg portion 506 It is positioned essentially across the center. The temperature of heating element 1350 is, for example, heating element 13 This may correspond to the resistance of the heating element 1350 across the 50 heating portion 504. The temperature of the heating element 1350 is determined based on the heat coefficient and resistance of the resistivity of the heating element 1350. It can be determined. Therefore, the temperature of the heating element 1350 can be determined. For example, measuring the resistance across the heating portion 504 of the heating element 1350. It can be determined and / or controlled by (for example, by controller 104) In some realizations of this subject, the geometric configuration of the heating element 1350 allows the heating element 1 It should be understood that it becomes possible to measure the resistance across the heated portion 504 of 350. That is, The resistance across the heating portion 504 is measured separately (for example, from other parts of the heating element 1350). This allows for precise measurement, thereby improving the accuracy of resistance measurement and the corresponding temperature measurement. It can be done.

[0234] To further illustrate, Figure 53 shows an example of a heating element 135 consistent with the implementation of the subject matter. The resistance measurement for 0 is shown. Referring to Figure 53, the heating portion 504 of the heating element 1350. The resistance across at least, for example, each tip portion 18 of the leg portion 506 of the heating element 1350 Measurement is performed by applying current from the first point 1a, located at 0A, to the second point 2b. This is possible. Current can flow from the first point 1a to the second point 2b, but not from the third point 2 Flow cannot occur between point a and the fourth point 1b.

[0235] The voltage drop between the first point 1a and the third point 2a is the voltage drop between the fifth point C and the sixth point D. This can accommodate the voltage drop between the fifth point C and the sixth point. As shown in Figure 53, Point D is located at each end of the heating portion 504 of the heating element 1350. Therefore, the fifth The voltage drop across point C and the sixth point D is across the heated portion 504 of the heating element 1350. It can handle voltage drops. Furthermore, the electrical current between the first point 1a and the third point 2a Measuring the pressure drop involves measuring the voltage drop across the fifth point C and the sixth point D. It can accommodate the following. The resistance R across the heating portion 504 of the heating element 1350 is as follows: This can be determined based on equation (1). This equation gives the resistance R across the heating portion 504. This relates to the voltage V and current I across the heating portion 504 of the heating element 1350. R=VI (1)

[0236] In some realizations of this subject, the tip portion 180A of the leg portion 506 of the heating element 1350 is located The first point 1a and the third point 2a are located at the cartridge receptacle 11 of the vaporizer body 110. 8 The cartridge contact 124 forms an electrical connection with the receiving contact 125 inside and at least part They can coincide partly. Therefore, due to the geometric configuration of the heating element 1350, Located outside the wick housing 1315, at least of the wick housing 1315 The tip of the leg 506 is more accessible than the partially inwardly positioned heating portion 504. Measure the voltage drop across 180A (for example, between the first point 1a and the third point 2a). This allows for independent measurement of the resistance across the heated portion 504 of the heating element 1350.

[0237] Figures 31 and 32 show the heating element 1350 assembled with the wick housing 1315. An example of the atomizer assembly 141 in its current state is shown in Figure 33, which is consistent with the implementation of this subject. The exploded view of the atomizer assembly 141 is shown. The wick housing 1315 is made of plastic. It may be made of polypropylene or the like. The wick housing 1315 has four recesses It includes part 592, which contains at least a portion of each of the legs 506 of the heating element 1350 It can be positioned and fixed. As shown, the wick housing 1315 is inside It also includes an opening 593 that provides access to the volume 594, and within the internal volume 594, heating is required At least the heating portion 504 and the wicking element 1362 of element 1350 are arranged.

[0238] Furthermore, the wick housing 1315 may include a separate heat shield 518A. The heat shield 518A is located between the wall of the wick housing 1315 and the heating element 1350. It is located within the internal volume 594 of the wick housing 1315. The heat shield 518A is The heating portion 504 of the heating element 1350 is at least partially surrounded, and the heating element 1350 is It is molded to be positioned at a distance from the side wall of the ick housing 1315. Heat seal D518A is the body and / or wick housing 1 of the vaporizer cartridge 1320. 315 can help insulate the heating portion 504. The heat shield 518A is The heat emitted from the heating element 504 is directed to the vaporizer cartridge 1320 and / or wick. Minimizing the impact on the housing 1315, the main body of the vaporizer cartridge 1320 and / or protect the structural integrity of the wick housing 1315 and the vaporizer cartridge To prevent melting or other deformation of the 1320 and / or wick housing 1315. This is useful. In addition, the heat shield 518A retains heat within the heated portion 504. This maintains a consistent temperature in the heated section 504, thereby preventing or controlling heat loss. It can also be useful for limiting things.

[0239] The heat shield 518A is part of the wick housing 1315 on the opposite side of the opening 593. For example, one or more slots formed in the base of the wick housing 1315 (for example, One, two, three, four, five, six or seven or more slots) aligning with 596 The above 590 slots (for example, 3 slots) are included at one end (see Figures 32 and 43). (See reference). One or more slots 590, 596 allow liquid gas in the heating section 504 to be released. This makes it possible to release the pressure generated by the flow of vaporizable materials and the vaporization of vaporizable materials. It does not affect the flow of the vaporizable material.

[0240] In some implementations, overflow occurs between the heating element 1350 (e.g., leg portion 506) and the wick. This may occur between the outer wall of the housing 1315 (or between parts of the heating element 1350). For example, a liquid vaporizable material is heated by the liquid pathway 599, as shown by the heating element 1 The capillary pressure between the 350 leg 506 and the outer wall of the wick housing 1315 accumulates This may occur. In such cases, liquid vaporizable material may be released from the reservoir and / or heating section 504. Sufficient capillary pressure can be present to draw out the material. To limit escape from the internal volume of the housing 1315 (or heating section 504) and / Or to help prevent heating, the wick housing 1315 and / or heating required Element 1350 may include a capillary mechanism that causes a rapid change in capillary pressure, thereby Furthermore, without using additional seals (e.g., airtight seals), liquid vaporizable materials can be used in this mechanism. A liquid barrier can be formed to prevent it from passing through. The capillary mechanism is Wickhowe Sharp tips, bends, curved surfaces or other features within the zing 1315 and / or heating element 1350 The capillary rupture area formed by the surface can be defined. Due to the capillary mechanism, the conductive element (For example, the heating element 1350) can be placed in both the wet and dry regions. It becomes Noh.

[0241] The capillary mechanism is positioned on the heating element 1350 and / or the wick housing 1315. It can and / or form part of it, causing abrupt changes in capillary pressure. To cause. For example, a capillary mechanism is another component of a heating element or vaporizer cartridge. Along the length, this causes a rapid change in capillary pressure between the heating element and the wick housing. It may include rubbed surfaces, bends, sharp tips, curved surfaces, inclined surfaces, or other surface mechanisms. The capillary mechanism prevents fluid from being drawn into the capillary channels. For example, capillaries formed between parts of the heating element, between the heating element and the wick housing, etc. Sufficient to widen the channel and reduce the capillary pressure within the capillary channel (e.g., capillary mechanism) (The heating element is placed at a distance from the wick housing.) Heating element and / or This may also include the protrusions or other parts of the wick housing. Therefore, the capillary mechanism Furthermore, the liquid is at least partially due to a rapid change and / or decrease in capillary pressure. Flow along the fluid pathway beyond the capillary mechanism is prevented or restricted. The size and / or shape (e.g., bends, sharp points, curved surfaces, inclined surfaces, protrusions, etc.) may be affected by heating. Capillary channels formed between materials such as elements and wick housings or between components. It may be a function of the wetting angle formed on the other walls of the flannel, and the heating element and / or wit The housing or other component material may be a function of and / or other special Among the properties, there are two components that define the capillary channel, for example, a heating element and / Alternatively, it may be a function of the size of the gap formed between the wick housings.

[0242] As an example, Figures 34A and 34B show a capillary mechanism 5 that causes a rapid change in capillary pressure. The wick housing 1315 has 98. The capillary mechanism 598 is a capillary mechanism 5 To prevent or limit the flow of liquid beyond 98 along the liquid path 599, and to allow the liquid to flow to the leg 506 Helps prevent buildup between the wick housing 1315 and the wick housing. The capillary mechanism 598 on the ring 1315 is a heating element 1350 (for example, a metal component) (etc.) to the wick housing 1315 (for example, plastic components, etc.) They are positioned with a gap between them so that they are separated, thereby increasing the capillary strength between the two components. This reduces [the amount of liquid]. Also, the capillary mechanism 598 shown in Figures 34A and 34B is designed to allow liquid to flow through the capillary mechanism. The end of the inclined surface of the wick housing restricts or prevents flow beyond structure 598. It also includes sharp edges.

[0243] As shown in Figure 34B, the legs 506 of the heating element 1350 are and / or angled inward toward the internal volume of the wick housing 1315 It is also possible that the inclined leg 506 allows the liquid to pass over the outer surface of the heating element 13. A capillary mechanism is formed that helps to restrict or prevent flow along the legs 506 of 50. It is possible.

[0244] As another example, the heating element 1350 is formed by one or more legs 506, and the legs 50 A capillary mechanism (for example, a blisters) is positioned at a distance from the heating portion 504 so as to separate 6. Bridge 585 can be included. Heat the bridge 585 along the fold lines 520, 522. It can be formed by folding element 1350. In some realizations, the brittle For example, the overflow of vaporizable material from the heating section 504 by capillary action. It helps to reduce or eliminate. For example, the exemplary additions shown in Figures 25A to 30B In some examples, such as the thermal element 1350, the bridge 585 prevents fluid leakage from the heated section 504. It includes an angled and / or curved section to help restrict movement.

[0245] As another example, the heating element 1350 has a sharp tip that causes a rapid change in capillary pressure. It may include a capillary mechanism 598 that defines the liquid vaporizable material, thereby allowing the capillary mechanism 5 It can prevent the flow from exceeding 98. The capillary mechanism 598 consists of the leg portion 506 and the heating portion It extends outward, away from the heating portion, by a distance longer than the distance between it and minute 504. The ends of bridge 585 can be formed. The ends of bridge 585 are liquid vaporizable Further to prevent the heating material from entering the leg portion 506 and / or exiting the heating portion 504 It may be a useful sharp edge, thereby reducing leakage and vaporization remaining in the heated section 504 The amount of available material can be increased.

[0246] Figures 35 to 37 show the changes in the heating element 1350 shown in Figures 19 to 24. In this deformation of the heating element 1350, the leg portion 506 of the heating element 1350 bends into the bending region 511. It includes a curved section. The curved section in the leg portion 506 can form a capillary mechanism 598, This helps prevent the liquid vaporizable material from flowing beyond the capillary mechanism 598. If a bend occurs, it can cause a sudden change in capillary pressure, which can lead to the vaporization of liquid. Helps to limit or prevent material from flowing beyond the bend, and / or the leg Helps limit or prevent accumulation between 506 and wick housing 1315. It can stand upright, and also restricts the outflow of liquid vaporizable material from the heated section 504. It can help prevent or stop it.

[0247] As shown in Figure 35, the leg portion 506 is, for example, connected to the first joint 534a, the second Forming one or more joints including joint 534b and a third joint 534c It can be bent in such a way. In the example of the heating element 1350 shown in Figures 35 to 37, The leg portion 506 is connected by the first joint 534a, the second joint 534b, and the third joint On the other hand, the second joint may be positioned between the to 534c and the front of the (leg portion 506). It can be bent so that it can be positioned between end 180a and the first joint 534a. Furthermore, the plating material 550 and the cartridge contact 124 are connected to the second joint 534. It can be positioned at b. By bending the leg portion 506 in this way, at least the leg portion A spring load can be applied to 506, and as a result, the leg portion 506 receives the vaporizer body 110. A mechanical connection (e.g., friction engagement) can be formed between the receiving contact 125 in the receiving port 118. Cut.

[0248] Figures 38 and 39 show another variation of the heating element 1350 that is consistent with the realization of this subject. In this modified form of the heating element 1350, the leg portion 506 of the heating element 1350 is in the bending region. 511 includes a bent portion. The bent portion in the leg portion 506 can form a capillary mechanism 598. This helps prevent the liquid vaporizable material from flowing beyond the capillary mechanism 598. Standing. For example, a bend can cause a sudden change in capillary pressure, which is liquid. It also helps to limit or prevent the vaporizable material from flowing beyond the bend, / or limit or prevent accumulation between the leg portion 506 and the wick housing 1315 It also helps to stop the process and limits the outflow of the liquid vaporizable material from the heated section 504. It can help either do or prevent it.

[0249] Figures 18A to 18E show another variation of the heating element 1350 that matches the realized form of this subject. This shows that in some realizations of this subject, the holding portion 180 of the leg portion 506 of the heating element 1350 The tip portion 180A is bent outward (for example, as shown in Figures 19 to 22) Instead, they are bent inward. Each leg 506 is connected to the corresponding socket of the vaporizer 100. Includes and / or defines a cartridge contact 124 configured to contact contact 125 It is possible. For example, each pair of legs 506 (and cartridge contacts 124) is single It can make contact with the receiving contact 125. The leg portion 506 makes contact with the receiving contact 125. To enable maintenance, a spring load can be applied to the leg 506. 06 is the length of the curved leg 506, which helps maintain contact with the receiving contact 125. It may include portions that extend along the ridge. Applying a spring load to the leg portion 506 and / or the curvature of the leg portion 506 increases the consistent pressure between the leg portion 506 and the socket contact 125. It can help to enlarge and / or maintain. In some realizations, the leg 506 This increases and / or maintains consistent pressure between the leg portion 506 and the receiving contact 125. It is connected to a support 176 which helps to do so. The support 176 has legs 506 and receiving contact 12 To help maintain contact with 5, plastic, rubber or other materials are included. This is possible. In some realizations, the support 176 is formed as part of the leg portion 506. It can be done.

[0250] Figures 51A to 51D show another variation of the heating element 1350 that matches the realized form of this subject. This shows that in some realizations of this subject, the holding portion 180 of the leg portion 506 of the heating element 1350 The tip portion 180A is bent outward (for example, as shown in Figures 19 to 22) Instead, it is bent inward. The retaining portion 180 of the leg 506 is connected to the wick housing 1 The tip portion 180A of the retaining portion 180 is located within the corresponding recess of 315. It can make contact with housing 1315. As shown in Figure 51B, By folding the leg portion 506, for example, the first joint 534a, the second joint Forming one or more joints including int 534b and a third joint 534c Furthermore, as shown in Figure 51B, the first joint 534a is connected to the second joint. It can be placed between joint 534b and the third joint 534c, on the other hand, The second joint 534b is positioned between the tip 180a and the first joint 534a. This is possible. In the example of the heating element 1350 shown in Figures 51A to 51D, the cartridge The contact point 124 and the plating material 550 are placed on the first joint 534a of the leg portion 506. This can be done by bending the leg portion 506 of the heating element 1350 in this way. Leg portion 506 is mechanically connected to the receiving port contact 125 in the receiving port 118 of the vaporizer body 110 (e.g. For example, a spring load can be applied to the leg portion 506 so that a frictional engagement can be formed. can.

[0251] For example, as shown in Figure 51B, the first fold of the leg portion 506 of the heating element 1350 Furthermore, the tip portion 180A of the holding portion 180 of the leg portion 506 is bent inward, and the second joint The leg portion 506 can be used to form the heating element 13 15 to Wick Housing 1315 (for example, the corresponding within Wick Housing 1315) It can be fixed by being placed in the recess, but the first joint 534a The second fold of the leg portion 506 of the heating element 1350 can be formed, vaporizer car To further secure the tridge 1320 to the vaporizer body 110, spring tension is provided. Yes, it is possible. That is, the cartridge contact 124 is electrically connected to the receptacle contact 125. While this is happening, the first joint 534a formed by the second fold of the leg portion 506 vaporizes The cartridge receives sufficient pressure to secure the cartridge 1320 to the vaporizer body 110. It can be added to outlet 118. This configuration of heating element 1350 means that heating element 1350 In the third joint 534c within the heating element 1350 that is folded for the third time, the minimum It should be understood that this may be related to stress. This is at least in the cartridge receptacle 118. This is because the force applied to the leg 506 is distributed more evenly along the length of the leg 506.

[0252] Figures 42A to 42B and 43 show the heating element 1350 connected to the wick housing 1315. And another example of the atomizer assembly 141 in its assembled state with the heat shield 518A. This is shown, and Figure 44 shows an exploded view of the atomizer assembly 141 that matches the implementation of this subject. As shown, the wick housing 1315 is made of polypropylene or the like, which is a type of plastic. Good. The wick housing 1315 includes four recesses 592, within which the heating element 1 At least a portion of each of the 350 legs 506 can be positioned and fixed. Recess 5 Within 92, the wick housing 1315 is, for example, a small portion of the leg 506 of the heating element 1350. Even if not, via a snap-fit ​​configuration between a part and the wick housing retaining mechanism 172 , one or more heating elements 1350 configured to be fixed to the wick housing 1315 It may include a wick housing retaining mechanism 172. 172 positions the heating element 1350 at a distance from the surface of the wick housing 1315. This helps to allow heat to act on the wick housing, part of the wick housing 1315. This can help prevent it from melting.

[0253] As shown, the wick housing 1315 provides access to the internal volume 594. This also includes an opening 593, within which at least the heating portion 5 of the heating element 1350 is located. 04 and wicking element 1362 are placed.

[0254] The wick housing 1315 has a heating element 1350 on the surface of the wick housing 1315. By positioning them at a distance from the surface, the amount of heat that comes into contact with the surface of the wick housing 1315 is reduced. It may also include one or more other notches that can be used to do so. For example, a wickhouse The 1315 can include a notch 170. The notch 170 can be used to open the 593. It can be formed along the outer surface of the adjacent wick housing 1315. The notch 170 may also include a capillary mechanism, for example, a capillary mechanism 598. The capillary mechanism is between adjacent (or intersecting) walls (e.g., the walls of the wick housing). The surface that destroys the contact point (e.g., a curved surface) can be defined. The curved surface is Wickhaus. The radius is sufficient to reduce or eliminate the capillary action that forms between adjacent exterior walls of the wall. It is possible.

[0255] Referring to Figure 42A, the wick housing 1315 may include the tab 168. Tab 168 is used during the assembly of the vaporizer cartridge to connect the wick housing to the vaporizer cartridge. Position and / or orient the cartridge appropriately relative to one or more other components. It can be helpful in making it. For example, the additional material that forms tab 168 makes it easier to The center of mass of the wick housing 1315 shifts. Due to the shift in the center of mass, the wick housing G1315 is a corresponding mechanism of another component of the vaporizer cartridge during assembly. It can rotate or slide in a specific direction to align itself with others.

[0256] Figure 46 shows an exploded view of an example of a vaporizer body 110 that matches the implementation of this subject. In some implementations, the vaporizer body 110 is, for example, a cart having a collector 1313. It has the various mechanisms described above, including the ridge 1320 and the finned condensate collector 352. It may be configured to receive and / or connect to a cartridge.

[0257] As shown in Figure 46, the vaporizer body 110 is a decorative sheath 1219, battery 121 2. Printed circuit board assembly (PCBA) 1203, antenna 1217, frame 121 1. Charging badge 1213, cartridge receptacle 118, end cap 1201 and L It may include a shell 1220 containing an ED badge 1215. In some embodiments, a vaporizer The main body 110 is assembled by attaching the battery 1212 to the lower end of the frame 1211 (left side in Figure 46). This includes placing it within the compartment 1211. The antenna 1217 is connected to the lower end of the battery 1212. It can be connected. Cartridge receptacle 118, PCBA 1203, and battery 12 12 can be mechanically connected, for example, by one or more connecting means. For example, The lower end of PCBA1203 can be connected to the upper end of battery 1212, PCBA1 The upper end of 203 is joined by press-fitting, soldering and / or any other means of connection. It can be connected to the cartridge receptacle 118. The decorative sheath 1219 is a cartridge receptacle. When the outlet 118 is positioned inside the cosmetic sheath 1219, the cartridge outlet 118 is slightly It is acceptable if it is not present at all, but rather partially surrounded.

[0258] As shown in Figure 46, the cosmetic sheath 1219 is on the first side of the cosmetic sheath 1219 It may include an opening of a size and shape that can accommodate the charging badge 1213. The second side of the decorative sheath 1219 may include an LED badge 1215, and this LED The badge is incorporated into the cosmetic sheath 1219 or the LED badge 1215 is received by It can be placed in an opening of a different size and shape. In some embodiments, a decorative sheath 12 Item 19 may include stainless steel material and may have a thickness of approximately 0.2 mm. The LED badge 1215 can be molded with a black printed circuit. In some embodiments, The charging badge 1213 is made of liquid crystal polymer (LCP), polycarbonate and / or resin. It may include bronze contacts. The charging badge 1213 uses Mylar film. This minimizes the distance between charging pads. The plating on the charging badge is Radium-nickel, black nickel, physical vapor deposition (PVD), or other black plating options. It can include. In some implementations, the assembled battery 1212, PCBA 1203, the cartridge receptacle 118 and the decorative sheath 1219 are fitted into the frame 1211. They may be configured to fit together, and the frame 1211 is configured to fit into the shell 1220. It may be configured as follows. In some embodiments, the decorative sheath 1219 has a thickness of 0.2 mm. It may include stainless steel material. The shell 1220 has a grounding pad and end cap. Data, LED interface, (connecting cartridge 1320 to vaporizer body 110) In this case, one slot 596 at the bottom of the wick housing 1315 is in fluid communication with it. The above air inlets and the frame 1211 snap into place when inserted into the shell 1220. It may include a skeletal snap mechanism. The end cap 1201 is a decorative sheath 12 It can be positioned on the lower end of shell 1220 opposite to 19. End cap 120 1 is configured to hold the internal components of the vaporizer body 210 within the shell 1220. It is well-designed and can also function as a vent at the lower end of the shell 1220.

[0259] The power supply 112 is part of the vaporizer body 110 and is configured to be connected to the vaporizer body 110. In a vaporizer in which a heating element is placed within the vaporizer cartridge 1320, the vaporizer 100 This includes the controller 104 (e.g., printed circuit board, microcontroller, etc.) and the power supply. and an electrical connection mechanism for completing the circuit including the heating element (for example, completing the circuit These mechanisms may include means for the vaporizer cartridge 1320 to be used When inserted into the cartridge receptacle 118 and connected to the cartridge receptacle 118, The cartridge contact 124 and the receptacle contact 125 make an electrical connection, At least two contacts 124 on the bottom surface of the ridge 1320 (in this specification, cartridge (referred to as the contact point 124) and located near the base of the cartridge receptacle of the vaporizer 100. and at least two contacts 125 (referred to herein as receptacle contacts 125) It can include. The circuit completed by these electrical connections provides power to the resistive heating element. This enables the transmission of flow, and furthermore, resistance based on the thermal coefficient of the resistivity of the resistive heating element, for example. Resistors for use when determining and / or controlling the temperature of a heating element. To measure, based on one or more electrical properties of the resistive heating element, the cartridge or vaporizer It can be used for additional functions, such as identifying other circuits in the cartridge.

[0260] In some examples of this subject, at least two cartridge contacts and at least two receivers The outlet contact is configured to be electrically connected in at least one of two directions. Good. For example, the first set of cartridges with at least two cartridge contacts 124 The contacts are electrically connected to the first set of receptacle contacts of at least two receptacle contacts 125. And, at least two cartridge contacts 124 of the second set of cartridge contacts, At least two of the receptacle contacts 125 will be electrically connected to the second set of receptacle contacts. One or more circuits necessary for the operation of the vaporizer (vaporizer cartridge having cartridge (The end of the cartridge is inserted into the cartridge receptacle 118 of the vaporizer body 110, around the shaft) In the first rotational direction, insert the vaporizer cartridge 1320 into the cartridge receptacle 118. This can be completed by doing so. Furthermore, one or more circuits necessary for the operation of the vaporizer At least two cartridge contacts 124 of the first set of cartridge contacts are less At least two receptacle contacts 125 are electrically connected to the second set of receptacle contacts, The second set of cartridge contacts of the two cartridge contacts 124 are at least 2 The second set of socket contacts 125 is electrically connected to the first set of socket contacts 125 By inserting the vaporizer cartridge 1320 into the cartridge receptacle 118 in the direction of rotation, It can be completed in a reversible manner within the cartridge receiving port 118 of the vaporizer body 110. This mechanism of the insertable vaporizer cartridge 1320 is described further below.

[0261] An example of a mounting structure for connecting the vaporizer cartridge 1320 to the vaporizer body 110. The vaporizer body 110 has one or more protrusions that extend inward from the inner surface of the cartridge receptacle 118. Includes upper stopper (e.g., dimple, protrusion, spring connector, etc.). Vaporizer cartridge One or more outer surfaces of the 1320 are such that the ends of the vaporizer cartridge 1320 are on the vaporizer body 11 When inserted into the cartridge receptacle 118 above, it engages with this stopper. A corresponding recess that can be snap-fitted by one or some other method (not shown in Figure 1) (For example) It may include the vaporizer cartridge 1320 and the vaporizer body 110. The end of the vaporizer cartridge 1320 is placed inside the cartridge receiving port 118 of the vaporizer body 110. When connected (by insertion), the return stopper inside the vaporizer body 110 is assembled At that time, in order to hold the vaporizer cartridge 1320 in place, vaporizer cartridge 1 It can be fitted into the recess of 320 and / or held in the recess in some way. Such a return-recess assembly ensures that at least two cartridge contacts 12 To ensure good contact between 4 and at least two receptacle contacts 125, the vaporizer It can provide sufficient support to hold the cartridge 1320 in place, while the - In order to disengage the vaporizer cartridge 1320 from the cartridge receptacle 118 When the vaporizer cartridge 1320 is pulled with moderate force, the vaporizer cartridge 132 It becomes possible to detach 0 from the vaporizer body 110. For example, in one implementation of this subject, At least two stoppers can be placed on the outside of the cosmetic sheath 1219. The outer stopper of the sheath 1219 is, for example, the cosmetic sheath 1219 (and cartridge A decorative sheath 1219 (and cartridge) so as to cover at least a portion of the receiving opening 118) The housing of the vaporizer cartridge 1320 extends below the open upper part of the receiving port 118) On some of the inner surfaces, engage with one or more corresponding recesses in the vaporizer cartridge 1320. It may be configured in such a way.

[0262] The electrical connection between the vaporizer cartridge and the vaporizer body is reversible, and as a result, The vaporizer cartridge in the cartridge receptacle is capable of at least two rotational directions. In addition to the above considerations, in some vaporizers, the shape of the vaporizer cartridge or less The shape of the end of the vaporizer cartridge, which is designed to be inserted into the cartridge receptacle. The shape can have at least second-order rotational symmetry. That is, the vaporizer cartridge At least the insertable end of the carburetor cartridge is the carburetor cartridge The axis inserted into the cartridge socket may be symmetrical when rotated 180°. In this configuration, the vaporizer circuitry determines which symmetrical orientation of the vaporizer cartridge occurs. However, the same operation can be supported. In some embodiments, the first rotational position is the second The rotational angle can be greater than or less than 180° from the rotational position.

[0263] In some cases, it is configured to be inserted into a vaporizer cartridge or cartridge receptacle. At least one end of the vaporizer cartridge is connected to the cartridge receiver. It may have a non-circular cross-section that crosses the axis inserted into the mouth. For example, the non-circular cross-section is Nearly rectangular, nearly oval (for example, having a nearly elliptical shape), non-rectangular, but in pairs It has parallel or nearly parallel opposite sides (for example, it has a shape like a parallelogram) ) or other shapes having at least second-order rotational symmetry. To have a shape that is nearly identical to a given shape indicates a clear fundamental similarity to the described shape. This demonstrates that the edges of the shape do not need to be perfectly linear, and the vertices do not need to be perfectly sharp. This indicates that there is no such thing. The rounding of either or both the edges and / or vertices of the cross-sectional shape is the true nature of the This is intended in the description of any non-circular cross-section mentioned in the details.

[0264] Figures 47A to 47C show various examples of the receiving contact 125 that are consistent with the implementation of this subject. Figure 47A shows an exemplary pod ID connector extending from the pod ID overmolding 308. Point 307A is indicated. Pod ID contact 307A is connected to contact 293 of identification chip 174. It may be configured in such a way. Figure 47B shows the extension from the pod ID overmold 308. Another exemplary pod ID contact 307B is shown. Figure 47C shows the pod ID overmotion. Another exemplary pod ID contact 307C extending from rudo 308 is shown.

[0265] As shown in Figures 47A to 47C, the cartridge 1320 is placed from the top of the paper. It can be inserted into the cartridge receptacle 318. In some embodiments, cartridge 132 When 0 is inserted into the cartridge receptacle 318, pod ID contact 307A~ Compress 307C inward or to the left of the paper depending on the insertion of cartridge 1320. It is possible. Furthermore, pod ID contacts 307A~307C are for cartridge 1320. After being fully inserted into the cartridge receptacle 318, one or more cartridge contacts 12 It may be configured to be connected to 4 (for example, contact 293).

[0266] As shown in Figure 47A, the pod ID contact 307A is at position 407, pod I The material of the D contact 307A includes a 180° bend. The pod ID contact 307C in Figure 47C is It is similar to and compatible with the pod ID contact 307B in Figure 47B. As shown in Figure 47C As described above, the pod ID contact 307C is at least a portion of the pod ID contact 307C. Includes a protective member (e.g., foot or boot) 408 surrounding the target.

[0267] Figure 47D shows the assembled cartridge receptacle 118 of the vaporizer body 110. As shown in 47D, the cartridge receptacle 118 is the third of the cartridge receptacle 418. On side 404 of 1, for example, pod ID contacts 307A, 307B and 307C are included. Includes one or more pod ID contacts. Figure 47D shows the second side of the cartridge receptacle 118. Further showing the two heater / cartridge receptacle contacts 125A and 125B on 402 .

[0268] Figure 47E shows a vaporization process including a cartridge receptacle 118, which is consistent with the implementation of the subject of this paper. The top perspective view of the main body 110 is shown. As shown in Figure 47E, the cartridge receptacle 118 This can be at least partially placed within the decorative sheath 1219. For example, see Figure 47. In the example shown in E, the upper rim of the cartridge receptacle 118 and the decorative sheath 1219 are The surface may be substantially flush. The inside of the cartridge receptacle 118 is one or more pods I D contacts (e.g., pod ID contacts 307A, 307B, and 307C) and one or more receivers It may also include receiving contacts (for example, receiving contacts 125A and 125B). The vaporizer body 110 is located inside the cartridge receptacle 118 and / or the decorative sheath 12 It may also include one or more pod retaining mechanisms 415 that can be positioned outside of 19. Examples of the pod retention mechanism 415 may include pins, clips, protrusions, retainers, etc. The pod holding mechanism 415 applies magnetic force, adhesive force, and compressive force to the cartridge 1320. Including the application of frictional force, etc., the cartridge 1320 is placed in the cartridge receptacle. It may be configured to be fixed within 118.

[0269] In the implementation where the pod holding mechanism 415 is located inside the cartridge receiving port 118, The head holding mechanism 415 includes, for example, at least a part of the heating element 1350 (for example, the wick (Part of one or more legs 506 located on the outside of housing 1315) and / or With a part of the wick housing 1315 (for example, a recess in the wick housing 1315) It may be configured to form a mechanical connection. Alternatively and / or additionally, In an exemplary embodiment where the retaining mechanism 415 is located outside the decorative sheath 1219, The holding mechanism 415 forms a mechanical connection with the housing of the vaporizer cartridge 1320. It may be configured in such a way. The pod holding mechanism 415 holds the cartridge 1320. It should be understood that various means of fixing within the dagger receiving opening 118 may be included. Furthermore, The pod holding mechanism 415 can be positioned at any suitable location within the vaporizer body 110. ru.

[0270] Figures 48A and 48B show the cartridge receptacle 118, which is consistent with the implementation of the subject of this paper. A side cross-section of the placed cartridge 1320 is shown. As shown in Figure 48A, pod I The D contact 307 can be positioned on the first side of the cartridge receptacle 118, It can be connected to the identification chip 174 on the ridge 1320. Furthermore, the pod ID contact 309 is the second side of the cartridge receptacle 118 (the first side of the cartridge receptacle 118 It can be located on the opposite side (from the side) and can be connected to cartridge 1320. Figure 48A shows the pod ID contact 309 connected to the contact 293 of the identification chip 250. As shown, the cartridge receptacle 118 is, for example, at least the wick housing 1315 To make it sized to accept at least a portion of cartridge 1320, which also includes a part of it. It should be understood that this is possible. For example, the cartridge receptacle 118 is approximately 4.5 mm deep. It may be a tor, and as a result, a flat arranged at least partially around its upper periphery. The wick housing 1315, which has a height of approximately 5.2 mm including the range, is cart. It can be partially positioned (for example, up to the flange) within the ridge socket 118. When the vaporizer cartridge 1320 is connected to the vaporizer body 110, the cartridge The cartridge receptacle 118 can remain outside, and the rim and decorative seal of the cartridge receptacle 118 can remain outside. -1219 can be extended at least partially above it.

[0271] As described above, one or more air inlets are inserted into, for example, the cartridge receiving port 118. As a result, only the cartridge 1320 is formed while it is connected to the vaporizer body 110. One or more air inlets can be maintained in the wick housing 1315. One or more of the slots 596 inside can be in fluid communication. As a result, one or more Air entering through the air inlet passes through one or more slots 596 to the wick housing 1 Enter 315 further, pass through and / or flow around wicking element 1362. This is possible. As described above, vaporizable material drawn into the wicking element 1362 To enable proper and timely vaporization of material 1302, the wick housing 131 A suitable airflow through 5 may be required. In cases where there are two or more air inlets, this Multiple air inlets are located around the assembly including the cartridge 1320 and the vaporizer body 110. They can be arranged in the enclosure. For example, two or more air inlets can be placed in the vaporizer cartridge 132 It can be positioned substantially opposite the assembly including the vaporizer body 110. Located on the same side of the assembly including the vaporizer cartridge 1320 and the vaporizer body 110 Having two or more air inlets, or on different sides of such an assembly Having an air inlet on a side that is not substantially opposite (for example, an adjacent side) is also relevant to this subject. It is within the range.

[0272] In some realizations of this subject, the air inlet allows for the vaporization and inhalation of the vaporizable material 1302. It may be configured to allow in enough air to enable the generation of aerosols. Furthermore, as mentioned above, one or more air inlets could, for example, be exposed to the user's fingers, hands or other body parts. It may be configured to resist obstruction by body parts. For example, one or more air inlets It can be placed at the interface between the vaporizer cartridge 1320 and the vaporizer body 110. As shown in Figures 48A to 48D, the vaporizer cartridge 1320 is located in the vaporizer body 11 When connected to 0, a recess is formed between the vaporizer cartridge 1320 and the vaporizer body 110. Region 1395 (e.g., cavity, gap, seam, etc.) can be formed. More than one air inlet is provided in the cartridge 1320 (e.g., housing 160) and the vaporizer. The main body 110 can extend beyond a region containing one or more air inlets. It can be placed within the recessed area 1395. Furthermore, the recessed area 1395 is a vaporizer One extends at least partially around the cartridge 1320 and the vaporizer body 110. This can provide clearance for the above air inlet. This is the user's finger (ma This is because (or other body parts) can cover only a portion of the recessed area 1395. Therefore, as shown in Figure 48E, the user's finger (or other body part) is in the recessed area 1 Even if part of 395 is covered, the air still remains in the uncovered recessed area. It can enter one or more air inlets through the opening.

[0273] The air inlet is at least somewhat narrow to the airflow within the vaporizer cartridge 1320. It should be understood that it can exhibit narrowing. For example, in the pressure map shown in Figure 48F, The greatest local pressure drop was observed at the air inlet, in this case, as described above, the ambient air However, it enters cartridge 1320, and vaporizable material 1320 can be vaporized and inhaled aero It can provide enough air to enable sol formation. Also, the ambient air is air As the air enters the constricted space of the entrance, observe the maximum velocity of the airflow through the air inlet. It is also possible. The decrease in airflow velocity is observed following the intake air passing through the intake port.

[0274] Figure 49A shows the assembled vaporizer body shell with the LED badge 1215 facing forward. A perspective view of 1220 is shown. As shown in Figure 49A, the shell 1220 has one or more ports. A cartridge receptacle 118 having a second side surface 402 having a cartridge holding mechanism, and It can include jack receptacle contacts 125A and 125B and pod ID contact 307. Figure 49A shows a shell 1220 with at least one air inlet 1605 on the right side. Shell 1220 is shown further, however, in a different location than shown. It should be understood that additional air inlets may be included. For example, some of the subject In the implemented form, the air inlet 1605 is connected to the power supply 112 (for example, battery 1212) at a minimum. The second shell 1220 under the decorative sheath 1219, which is configured to accommodate part of it The first part of the shell 1220 (decorative sheath 1219) has a cross-sectional dimension smaller than the part It can be positioned above the raised portion 1387 of the shell 1220 formed by (including) The air inlet 1605 allows ambient air to enter the cartridge 1320 and into the atomizer 141. It may be configured to allow mixing with the generated vapor. For example, an air inlet. 1605 is the air inlet 160 when cartridge 1320 is connected to shell 1220. Through 5, the cartridge 1 allows ambient air to enter the air passage 1338. It can be in fluid communication with the air passage 1338 that extends through the main body of 320. The mixture of ambient air and the vapor generated in the atomizer 141 passes through the mouthpiece 130. To be inhaled (for example, into the user's mouth), it is drawn in through the air passage 1338. That's good too.

[0275] Alternatively and / or additionally, the air inlet 1605 is an overflow collector 1313. - Air vent 131 located at one end of overflow channel 1104 within volume 1344 It can be in fluid communication with 8. As mentioned above, air is supplied via air vent 1318. And it can enter and exit collector 1313. For example, if it is captured inside collector 1313 The trapped bubbles can be released through the air vent 1318. Furthermore, the air is released. To increase the pressure inside the valve 1340, the collector 131 is opened via the air vent 1318. It can also be placed in 3. Therefore, the dimensions of the air inlet 1605, the shape of the air inlet 1605. , and / or the position of the air inlet 1605 on the shell 1220 is the air inlet 1605 At least a portion of the incoming ambient air enters the collector 1313 via the air vent 1318. This allows at least a portion of the air released from collector 1313 to enter air vent 1318. The dimensions, shape, and position can be such that air can exit through the air inlet 1605. It should be understood that the air inlet 1605 may be substantially circular and 0.6 mm in diameter. It can have a diameter of approximately 1.0 mm. For example, a partial realization of this subject In this configuration, the air inlet 1605 is substantially circular and has a diameter of approximately 0.8 millimeters. It is possible. In some realizations of this subject, the air vent 1318 is an air passage 133 It can also be in fluid communication with 8. Therefore, the ambient air entering the air inlet 1605 is (For example, via air vent 1318) collector 1313 and (for example, inhalable It can be supplied to the air passage 1338 (to generate an aerosol).

[0276] Figure 49B shows a cross-sectional view of the vaporizer body shell 1220, which matches the implementation of the subject matter. As shown in Figure 49B, the shell 1220 has a pressure sensor path 1602 and a decorative sheath 1219 and an air inlet 1605 which may also include a pod identification cavity and a pod ID Spring 307 or 309 and / or heater contacts 125A and 125B (or 3 Pod ID housing 1607 can include a connection to 02) .

[0277] term In this specification, a feature or element is referred to as being "on top of" another feature or element. If so, that feature or element shall be considered to be immediately above any other feature or element. Features and / or elements that can or may be involved in this process may exist. In contrast, When one feature or element is mentioned as being "immediately above" another feature or element, The feature or element in question does not exist. Also, one feature or element does not exist in relation to another feature or element. It is referred to as "connected," "attached," or "linked." In that case, the feature or element is directly connected to and attached to other features or elements. It was understood that they may be linked, or that there may be intervening features or elements. In contrast, when one feature or element is "directly connected" to another feature or element, When it is mentioned that something is "directly attached" or "directly connected," the intervening part is... No features or elements exist.

[0278] Although described or shown in relation to one embodiment, it is not described or shown in that way. The described features and elements can be applied to other embodiments. Furthermore, "adjacent" features can be applied to other features. A reference to a structure or feature that is arranged in such a way may overlap with an adjacent feature or Those skilled in the art will understand that it may have a lower portion.

[0279] The terms used herein are for the purpose of describing specific embodiments and implementations. It is used only and is not intended to be limited to. For example, when used herein The singular forms "a," "an," and "the" are used unless explicitly indicated otherwise by the context. The plural form is also intended to be included. "To prepare" and / or "the act of preparing" The terms used herein refer to the features, steps, actions, elements and / or other terms described herein. Or it indicates the existence of a component, but one or more other features, steps, behaviors, or elements, This does not exclude the existence or addition of components and / or groups thereof. It will be further understood that, as used herein, "and / or" The term includes any and all combinations of one or more related listed items, It can be abbreviated as " / ".

[0280] In the above description and claims, "at least one of" or "of" Phrases such as "one or more of the following" may be followed by a conjunctive list of elements or features. The term "and / or" may also appear in a list of two or more elements or features. Yes. Unless implicitly or explicitly denied in some way depending on the context in which it is used, Such phrases mean or enumerate any of the listed elements or features individually. A combination of any element or feature and any of the other enumerated elements or features It is intended to mean "at least one of A and B". The phrases "one or more of A and B" and "A and / or B" are, respectively, This is intended to mean "A only," "B only," or "both A and B." It refers to three or more items. The same interpretation is intended for lists that include "A, B, and C "At least one," "one or more of A, B, and C," and "A, B, and / or C The phrases "A only, B only, C only, A and B together, A and C together, This is intended to mean "both B and C" or "both A, B, and C". The use of the term "based on" in the claims implies that the claims may include features not listed. The intention is to mean "at least partially based on" so that elements can also be allowed. It is.

[0281] For example, "forward," "backward," "downward," "below," "below," "upward," Spatially relative terms such as "at the top" refer to a single element or feature as shown in the drawing. And, in order to facilitate descriptions that explain the relationship with other elements or features, this specification includes It may be used in the following context. Spatially relative terms should be used in the context of use, in addition to the orientation shown in the drawing. Alternatively, it is understood to be intended to encompass various orientations of the device during operation. For example, if the device in the figure is inverted, the "downward" of other elements or features will be affected. Elements described as "to" or "directly below" are directed "above" other elements or features. Therefore, the illustrative term "downward" encompasses both upward and downward directions. It may include. The device is oriented in some way (rotated 90 degrees or in another direction) Similarly, spatially relative descriptions used herein may be interpreted accordingly. The terms "upward," "downward," "vertically," and "horizontally" are used in this context. Unless otherwise specifically indicated, these terms are used herein solely for illustrative purposes.

[0282] In this specification, in order to describe various features / elements (including steps), the term "First" is used. The terms "second" and "second" may be used, but these characteristics / elements depend on the context. Unless otherwise indicated, these terms are not limited to these terms. This can be used to distinguish one feature / element from another feature / element. Without departing from the teachings provided herein, the first feature / element discussed below This can be referred to as the second feature / element, and similarly, the second feature / element discussed below is also a second feature / element. This can be called the first characteristic / element.

[0283] Unless otherwise specified, including as used in examples, this specification and patent When used within the scope of the claim, all numbers are given with the words "approximately" or "nearly". Even if these terms are not explicitly stated, they can be interpreted as being prefaced. To be able to. When describing size and / or location, use the words "approximately" or "almost". The stated value and / or location is within a reasonable predicted range for this value and / or location. It can be used to indicate that. For example, a number is the + of the displayed value (or range of values). -0.1%, + / -1% of the displayed value (or range of values), + -2%, + / -5% of the displayed value (or range of values), + / - of the displayed value (or range of values) It can have a value such as 10%. Any numerical value given herein depends on the context. Unless otherwise specified, please understand that this includes approximately or nearly that value. For example, the value "10 If “” is disclosed, “about 10” is also disclosed. Any of the terms listed herein are also disclosed. The numerical range is intended to include all subranges contained within it. If a value is disclosed, it should be understood by a person skilled in the art to be "less than or equal to" that value, or It should be understood that the values ​​"greater than or equal to" and the possible range between those values ​​are also disclosed. If the value "X" is disclosed, then "less than or equal to X" and "greater than or equal to X" (for example, X is a numerical value) (The following information is also disclosed.) Furthermore, throughout this application, the data is provided in many different formats. This data includes the end point and the start point, as well as any combination of these data points. It can also be understood as representing a range for matching. For example, a specific data point "10" And if a specific data point "15" is disclosed, then values ​​greater than 10 and 15, 10 and 15 or more, 10 and 15 or less, 10 and 15 or less, and 10 or more If the fact that it is equal to 15 is considered to be disclosed in the same way as the range between 10 and 15, It is understood that each unit between two specific units is also disclosed. For example, if 10 and 15 are disclosed, then 11, 12, 13 and 14 are also disclosed. It has been disclosed.

[0284] Although various exemplary embodiments have been discussed above, this does not deviate from the teachings of this specification. In any case, any of the many modifications can be made to various embodiments. For example, The order in which the various method steps described are performed is often different in alternative embodiments. This may be modified, and in other alternative embodiments, one or more method steps may be completely skipped. This may be done. Any feature of the various device and system embodiments may be part of the implementation. It may be included in one embodiment but not in other embodiments. Therefore, the above description is mainly These are provided for illustrative purposes only and should not be construed as limiting the scope of the claims. .

[0285] One or more aspects or features of the subject matter described herein are described in relation to digital electronic circuits, integrated circuits Roads, specially designed application-specific integrated circuits (ASICs), field programmers FPGA (Field-Processing Array), computer hardware, firmware, software This can be achieved in and / or in combination thereof. The features may be special or general-purpose, and include a storage system, at least one input A force device and at least one output device receive data and commands and At least one programmer connected to send data and instructions One or more executable and / or interpretable on a programmable system including a processor. This may include implementation in the above computer program. Programmable system or A computing system can include clients and servers. The user and server are generally remote from each other and typically communicate. Int...

Claims

1. A cartridge for a vaporizer device, When the cartridge is connected to the vaporizer device, the receiving inside the vaporizer device A cartridge housing configured to extend below the open top, It is disposed within the cartridge housing and configured to contain vaporizable material. Reservoir and, A wick housing is placed inside the cartridge housing, A heating portion and the wick are at least partially disposed within the wick housing. A heating element including a contact portion located at least partially outside the housing, The contact portion makes an electrical connection with one or more socket contacts in the socket of the vaporizer device. A heating element comprising one or more cartridge contacts configured to form, A wick housing is positioned close to the heating portion of the heating element. A king element, which, for vaporization by the heating element, from the reservoir to the wick A wicking element configured to draw the vaporizable material into the housing, A cartridge equipped with these features.

2. The aforementioned contact portion further forms a mechanical connection with the receiving port of the vaporizer device. It is configured in such a way that the mechanical connection allows the receiving port of the vaporizer device to be inserted into the front The cartridge according to claim 1, wherein the cartridge is fixed in place.

3. The receiving opening has a front cross-sectional dimension smaller than the second portion of the main body of the vaporizer device. The first part of the main body of the vaporizer device is provided, and the cartridge is the vaporizer device When connected to the cartridge housing, the cartridge housing and the main body of the vaporizer device A recessed region is formed between the second portion and the cartridge according to claim 1 or 2. Ji.

4. The receiving port is connected to the vaporizer device when the cartridge is connected to the vaporizer device. One or more slots at the bottom of the housing and one or more air pockets forming a fluid connection Including the inlet, the one or more slots are such that the air that enters the one or more air inlets is the U It is configured to allow further entry into the wick housing, and one or more of the above The cartridge according to claim 3, wherein the air inlet is located in the recessed region.

5. The one or more air inlets are generally between 0.6 mm and 1.0 mm. A cartridge according to claim 4, having a diameter.

6. The interior of each of the one or more slots is located at the bottom of the wick housing. The inner dimensions of the one or more slots are smaller than the dimensions of the one or more slots, and the shape is formed by the inner dimensions of the one or more slots. It includes at least one stepped portion, the at least one stepped portion being the Wickhouse To prevent the vaporizable material in the sing from flowing out of one or more slots The cartridge according to claim 4 or 5, which provides a constriction point where a meniscus is formed.

7. The dimensions of the one or more slots at the bottom of the wick housing are approximately It is 1.2 mm in length and 0.5 mm in width, and the one or more slots The aforementioned internal dimensions are approximately 1.0 mm in length and 0.30 mm in width. The cartridge described in item 6.

8. The heating portion and the contact portion of the heating element are made of a folded substrate material. The substrate material is formed by the same process, and the substrate material forms the heating portion of the heating element. The substrate material is cut to include one or more comb teeth for heating Cut to include one or more legs for forming the aforementioned contact portion of the element, claim A cartridge as described in any one of items 1 through 7.

9. The contact portion of the heating element comprises at least a first joint, a second joint, and By folding each of the one or more legs so as to form a third joint The first joint is formed from the second joint and the third joint. The second joint is positioned between the int and each of the one or more legs. The cartridge according to claim 8, which is positioned between the tip of and the first joint.

10. The one or more cartridge contacts are arranged in the second joint, and the The thermal element is located outside the wick housing, and the first joint and the third joint. The first mechanical connection between the nt and a part of each of the one or more legs, The cartridge is fixed to the wick housing, and the cartridge is connected to the second joint and the front The second mechanical connection between the vaporizer device and the receiving port allows the vaporizer device The cartridge according to claim 9, which is fixed to the aforementioned receiving port.

11. The one or more cartridge contacts are arranged in the first joint, and the The thermal element is located outside the wick housing and between the tip and the second joint. The first mechanical connection between the Wickhouse and a portion of each of the one or more legs The cartridge is fixed to the sing, and the cartridge is connected to the first joint and the vaporizer device. A second mechanical connection between the chair and the receiving opening allows the vaporizer device to reach the receiving opening. A fixed cartridge according to claim 9.

12. The reservoir includes a storage chamber and a collector, the collector being the storage chamber An overflow channel configured to hold the volume of the vaporizable material in fluid contact with the humber. The system includes a channel, and one or more microfluidic mechanisms are arranged along the length of the overflow channel. The one or more microfluidic mechanisms are configured such that a meniscus is formed and the liza This prevents the air entering the overflow channel from passing through the vaporizable material in the overflow channel. A configuration that provides a constriction point, according to any one of claims 1 to 11. The cartridge.

13. The cartridge housing is formed by the heating element that vaporizes the vaporizable material. The collector includes an air passage leading to an outlet for the aerosol, and the air passage The central tunnel is connected to the road and fluid, and the bottom surface of the collector vaporizes the vaporizable material. A flow is configured to mix the aerosol generated by the heating element. A cartridge according to claim 12, including a controller.

14. The inner surface of the air passage extends from the outlet to the wicking element, with one or more Includes channels, one or more of which contain condensates formed by the aerosol Collect and direct at least a portion of the collected condensate toward the wicking element The cartridge according to claim 13, comprising the above configuration.

15. The flow controller includes a first channel and a second channel, and the first The channel is offset from the second channel and the first channel The inner surface of the first channel is tilted in a different direction from the second inner surface of the second channel. The first column of aerosol that enters the central tunnel through the second channel The aerosols entering the central tunnel through the aerosols are directed in a direction different from the second column. The cartridge according to claim 13 or 14.

16. The bottom surface of the flow controller further includes one or more wick interfaces, and the one or more The upper wick interface is in fluid communication with one or more wick feeds in the collector. The one or more wick feeds are arranged within the wick housing. The locking element contains at least a portion of the vaporizable material contained in the storage chamber. A cartridge according to any one of claims 13 to 15, configured to send 。

17. The wick housing is connected to the vaporizer device when the cartridge is connected to the vaporizer device. The vaporizer is at least partially located within the receiving port of the vaporizer device, and the A flange is positioned at least partially around the upper perimeter of the housing, and the flange The rib extends over at least a portion of the rim of the cartridge's receiving opening, claim 1 A cartridge as described in any one of items from to 16.

18. A vaporizer device, A receiving port comprising the first part of the main body of the vaporizer device, comprising one or more receiving port connections When a cartridge containing a vaporizable material, including a point, is connected to the vaporizer device It is configured to receive the wick housing of the cartridge, and the cartridge The housing of the cartridge is connected to the vaporizer device when the cartridge is connected to the vaporizer device. Extending below the opening at the top, one or more of the receiving contacts are located within the cartridge. To form an electrical connection with one or more cartridge contacts that have contact portions of the heating element. The contact portion is configured such that it is at least partially located outside the wick housing. The opening, A power supply, at least partially located within the second part of the main body of the vaporizer device, 、 When the cartridge is connected to the vaporizer device, the power supply to the cartridge A controller configured to control the discharge of current flowing to the heating element contained in the ridge A roller, which is positioned within the wick housing in close proximity to the heating portion of the heating element. To vaporize at least a portion of the vaporizable material that fills the wicking element, A controller discharges the current to the heating element, A vaporizer device equipped with [a specific feature].

19. The receiving opening is further configured to form a mechanical connection with the contact portion of the heating element. The device is configured such that the mechanical connection allows the carburetor to enter the receiving port of the vaporizer device. The vaporizer device according to claim 18, wherein the cartridge is fixed.

20. The first portion of the main body of the vaporizer device is the main body of the vaporizer device Having a smaller cross-sectional dimension than the second portion, the cartridge is connected to the vaporizer device. When connected, the second part of the main body of the vaporizer device and the cartridge A recessed area is formed between the housing and the vaporizer device according to claim 18 or 19. A chair.

21. The receiving port is connected to the vaporizer device when the cartridge is connected to the vaporizer device. One or more slots at the bottom of the housing and one or more air pockets forming a fluid connection Including the inlet, the one or more slots are such that the air that enters the one or more air inlets is the U It is configured to allow further entry into the wick housing, and one or more of the above The vaporizer device according to claim 20, wherein the air inlet is located in the recessed region.

22. The one or more air inlets are generally between 0.6 mm and 1.0 mm. A vaporizer device according to claim 20 or 21, having a diameter.

23. The receiving opening has a top rim that is the first of the main body of the vaporizer device. The first of the body of the vaporizer device so as to be substantially flush with the top rim of the portion A vaporizer device according to any one of claims 18 to 22, which is located within the portion of vinegar.

24. The receiving opening is at least partially located around the upper part of the wick housing. The lunge is located on the top rim of the cartridge receptacle and / or the vaporizer device The first portion of the main body extends over at least a portion of the top rim, The vaporizer according to claim 23, configured to receive a portion of the wick housing. device.

25. The depth of the receiving opening is approximately 4.5 millimeters, as per any of claims 18 to 24. A vaporizer device as described in item 1.

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