Shenzhen Smoore Technology Limited

Other

Hunan Zhengyuan Institute for Energy Storage Materials and Devices

Shenzhen Smoore Tech. Ltd.

Hongming Zhou

Xing Liu

Junjie Xiao

Jian Li

Pingkun Liu

Qinglu Xia

Bo Li

Feng Chen

Chaoyong Bie

Biao Chen

Chunfeng Zhang

Jiao Zhang

Wenli Du

Hua Chen

Zhenqian Cheng

Jicai Long

Kaiwen Xiao

Jianxin Xiao

Xingfu Zhang

Taowen Liu

Caiqiang Zhu

Xianzhi Qin

Shaobin Xiang

Tingting Wu

Dongfu Jiang

Xiong Yu

A heating apparatus for an electronic baking cigarette device includes a substrate and a heating element on the substrate. The substrate includes a root portion configured for fixing and an end portion for inserting a cigarette. The substrate includes a first region close to the root portion and a second region close to the end portion, the first region has a first thermal conductivity, the second region has a second thermal conductivity, and the first thermal conductivity is less than the second thermal conductivity. The heating element is located in the first region. The substrate adopts a gradient thermal conductivity layout, so that the heating apparatus can have advantages such as a higher energy utilization rate, a better temperature field, a large amount of vapor during vaping, and a better vaping taste.

Electronic baking cigarette device and heating apparatus thereof

An electromagnetic heating assembly includes: a fixing tube with two run-through ends for fixing an aerosol-forming substrate; a heating body at least partially extending from a first end of the fixing tube into the fixing tube and inserted into the aerosol-forming substrate in the fixing tube; and an induction coil sleeved on a periphery of the fixing tube for generating electromagnetic induction under an energized state so as to cause the heating body to heat. A ratio of a total height of the induction coil to a depth by which the heating body is inserted into the aerosol-forming substrate in the fixing tube ranges from 1:1 to 3:1.

Aerosol generating device and electromagnetic heating assembly thereof

A ceramic vaporization core includes: a porous body; and a heating body disposed on the porous body. The porous body includes at least one porous ceramic layer doped with a hydroxyl group-containing matrix. In an embodiment, the porous ceramic layer doped with the hydroxyl group-containing matrix includes components in parts by weight as follows: 35 to 55 parts by weight of a ceramic powder doped with a hydroxyl group compound; and 25 to 45 parts by weight of a pore-forming agent.

Vaporizer and ceramic vaporization core thereof and method for fabricating ceramic vaporization core

A cigarette device includes a housing, and a loading cavity, an airflow sensor, a circuit control unit, and a power supply are disposed in the housing. A fluid channel is located between the loading cavity and the housing, and the fluid channel is in communication with the outside of the housing and the inside of the loading cavity. An electromagnetic induction heating element surrounds the outside of the loading cavity; and the electromagnetic induction heating element is electrically connected to the power supply, and the circuit control unit is electrically connected to the airflow sensor and the electromagnetic induction heating element. When the cigarette device is used in combination with a cigarette added with a magnetic material, the cigarette can be heated uniformly and generate vapor quickly, to ensure a consistent vaping taste and improve utilization of tobacco while achieving immediate vaping and immediate stopping, which helps improve user experience.

Cigarette device

Provided are an electronic atomization device and an atomization assembly thereof, and a manufacturing method of the atomization assembly. The atomization assembly includes a porous matrix and a heating body. The porous matrix includes an atomization face. The heating body includes a heating part and at least one fixing part connected to the heating part. The at least one fixing part is embedded in the porous matrix, such that the heating body is mounted on the porous ceramic matrix and the heating part is arranged to correspond to the atomization face. The beneficial effect is that mounting of the heating body is realized by having the fixing part embedded in the porous matrix to improve reliability of the atomization assembly.

Electronic atomization device and atomization assembly thereof, and manufacturing method of atomization assembly

The present invention relates to a preparation method of a porous ceramic, the porous ceramic, and a use thereof in the electronic cigarette. The method of preparing a porous ceramic includes: mixing amorphous silica, aluminum oxide and iron oxide uniformly to obtain a mixture; sintering the mixture at a temperature of 1000&#xb0; C. to 1400&#xb0; C. for 0.5 hour to 3 hours to obtain a precursor; grinding the precursor to obtain precursor powder; mixing the precursor powder, sodium silicate, and porogen uniformly to obtain a premix; mixing and extruding the premix with water to obtain a molded body; and heat preserving the molded body at a temperature of 200&#xb0; C. to 600&#xb0; C. for 1 hour to 6 hours, and sintering the molded body at a temperature of 700&#xb0; C. to 1200&#xb0; C. for 0.5 hour to 3 hours to obtain the porous ceramic.

Preparation method of porous ceramic, porous ceramic, and electronic cigarette

The present invention relates to a manufacturing method of a porous ceramic material, which includes the following steps: mixing a silicate material and a porogen to obtain a premix, wherein the silicate material includes sodium silicate and other compounds being at least one selected from the group consisting of oxides, nitrides, and carbides; drying the premix to obtain a silicate aggregate; mixing the silicate aggregate and an adhesive to obtain an injection molding material, wherein in a weight percentage, the silicate aggregate is in the range of from 50% to 60%, the adhesive is in the range of from 40% to 50%; injection molding the injection molding material to obtain a green body; and degumming and calcinating the green body successively to obtain the porous ceramic material. In the aforementioned manufacturing method of the porous ceramic material, the space-holder method is combined with the injection molding method, such that the obtained porous ceramic material has a high porosity, controllable pore sizes and good mechanical properties. In addition, compared with the dry pressing process, the use of the injection molding process can significantly improve the production efficiency, and is suitable for large-scale production.

Porous ceramic material, manufacturing method and use thereof

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Changsha, China

Hongming Zhou