Smoore International

An aerosol-generating substrate, manufacturing method, and aerosol-generating system for controlled cannabinoid delivery. The substrate contains 25% to 90% by weight cannabis with 2% to 5% moisture content and features interior air channels extending longitudinally. Manufacturing involves mechanical comminution to achieve particle sizes of 1 µm to 150 µm D90, freeze-drying to control moisture, mixing with skeletal material, binder, and flavoring, and extrusion to form the channeled substrate structure. The aerosol-generating system heats the substrate to produce aerosol delivering 3 mg to 10 mg mass per puff with 1.5 mg to 5.0 mg cannabinoid content under standard testing conditions, enabling consistent and controlled cannabinoid administration.

The present application discloses an aerosol generating device. The aerosol generating device includes a shell (20) and an atomization assembly (30). The shell (20) includes side surfaces and a bottom surface (21) that are connected. The side surfaces include a first side surface (221) and a second side surface (222) that are oppositely disposed. The first side surface (221) is closer to the first cavity (201) than the second side surface (222). The bottom surface (21) and the first side surface (221) are non-resting surfaces. In a natural resting state in which no external force is applied, the aerosol generating device can only be tilted in the front-rear direction, or tilted toward the second cavity (202) (left side), such that the first cavity (201) can replenish a liquid to a liquid storage cavity of the second cavity (202).

The present disclosure relates to an electronic atomization system, including a main unit and an electronic atomization device. The main unit includes a liquid supply module, and the liquid supply module includes a liquid storage tank and a first accommodating cavity in fluid communication with liquid storage tank. The electronic atomization device includes a liquid storage module, an atomization core module, and a power module. The atomization core module includes an atomization core, and the liquid storage module includes a first liquid guide component. After the liquid storage module is assembled with the atomization core module, the first liquid guide component is in fluid communication with the atomization core. The liquid storage module can be at least partially accommodated in the first accommodating cavity, to enable the liquid storage module to be in fluid communication with the liquid storage tank. The liquid storage module can be connected to the liquid supply module to inject liquid. In this way, after a user assembles the electronic atomization device, a liquid substrate in the first liquid guide component can be quickly guided to the atomization core, so as to avoid scorched taste for the first sip caused by smoking directly after the user gets the electronic atomization device, and avoid a problem of waiting for a long time for injecting the liquid for the first time.

The present disclosure relates to an electronic atomization system, and an atomization device and a vape mod thereof. The electronic atomization system includes the vape mod and the atomization device. The vape mod includes a liquid storage cavity, and the atomization device includes at least one first wick. When the atomization device is matched with the vape mod, the liquid storage cavity is in fluid communication with the at least one first wick, and a liquid substrate in the liquid storage cavity can be transmitted to the at least one first wick through gravity action. Thus, automatic liquid filling can be implemented, a liquid filling operation is convenient, and another liquid filling structure and an additional operation are not needed.

This application provides a power supply assembly and an aerosol generating device including the same. The power supply assembly includes: a first housing assembly; a starting assembly, where the starting assembly includes an airflow sensor and a mounting member, and the airflow sensor is accommodated in the mounting member; a start airway, with one end in communication with the outside atmosphere, and the other end in communication with the airflow sensor; an air inlet channel, with one end in communication with the outside atmosphere, and the other end in communication with the start airway; and a partition, where the partition is arranged between the air inlet channel and the start airway, the first housing assembly and/or the starting assembly and the partition jointly form a fluid channel, one end of the fluid channel is in fluid communication with the air inlet channel, and the other end of the fluid channel is in fluid communication with the start airway. In this application, the partition is arranged between the air inlet channel and the start airway to prevent a condensate or an aerosol-forming substrate from directly entering an airflow sensing element, thereby improving sensitivity of the airflow sensor and enhancing atomization efficiency of the aerosol generating device.

This application provides an atomization core, an atomizer, and an electronic atomization apparatus. The atomization core includes a dense substrate liquid guiding layer, a porous cover layer, and a heating element. The dense substrate liquid guiding layer has a liquid inlet surface and a liquid outlet surface that are oppositely disposed, and the first microporous structure that penetrates through the liquid inlet surface and the liquid outlet surface is provided on the dense substrate liquid guiding layer; the porous cover layer is disposed on the liquid outlet surface side of the dense substrate liquid guiding layer; the porous cover layer has a liquid supply portion, and the liquid supply portion has a second microporous structure; at least part of the first microporous structure of the dense substrate liquid guiding layer is in fluid communication with the second microporous structure, where the porosity of the liquid supply portion is greater than that of the dense substrate liquid guiding layer, and the equivalent diameter of the second microporous structure is greater than that of the first microporous structure; and the heating element is disposed between the dense substrate liquid guiding layer and the liquid supply portion, and the heating element is configured to atomize a to-be-atomized substrate. Through the foregoing arrangement, the taste of aerosols generated by a rigid atomization core can be improved, thereby improving user experience.

The present invention relates to an electronic atomization device, including a first liquid storage and atomization module and a second liquid storage and atomization module. The first liquid storage and atomization module includes a first airflow channel, a first liquid storage cavity configured to store a first aerosol generating substrate, and a first atomization assembly in flow communication with the first liquid storage cavity. The second liquid storage and atomization module includes a second airflow channel communicated with the first airflow channel, a second liquid storage cavity configured to store a second aerosol generating substrate, and a second atomization assembly in flow communication with the second liquid storage cavity. The power of the first atomization assembly and/or the second atomization assembly is adjustable, so as to generate aerosols of a plurality of tastes.

Zusammenfassung wird geladen …

Zusammenfassung wird geladen …

Zusammenfassung wird geladen …