Abstract: An exemplary heating assembly includes a liquid conducting and heating body and an inductive coil corresponding to the liquid conducting and heating body. The liquid conducting and heating body includes a micro-porous ceramic main body and a metallic powder evenly distributed in the ceramic main body. The inductive coil is configured for generating high frequency magnetic field in response to an alternating current, so that eddy current and heat are generated in the liquid conducting and heating body. The liquid conducting and heating body is configured for absorbing tobacco liquid and heating the tobacco liquid to form aerosol.

Abstract: Provided are an aroma diffusing apparatus and an oil supply method. The aroma diffusing apparatus includes a main body and an oil storage tube. The main body is provided with a liquid storage chamber which is configured to store a liquid. The oil storage tube is configured to store an essential oil. When the aroma diffusing apparatus works, a bottom portion of the oil storage tube may be in fluidic communication with the liquid storage chamber thus allowing the essential oil in the oil storage tube to flow from the bottom of the oil storage tube into the liquid storage chamber as the liquid in the liquid storage chamber is being consumed.

Abstract: The present invention discloses an aerosol generator, an electronic cigarette, and a detachable atomizing device. The aerosol generator includes a housing, a storage chamber, a heating device, and an aerosol discharging channel. The storage chamber is formed in the housing and configured for storing an aerosol forming substance. The heating device is disposed in the housing and configured for heating the aerosol forming substance to generate aerosol. The aerosol discharging channel is configured for discharging aerosol generated by the aerosol forming substance to the outside of the housing. The heating device includes a quartz glass body and a heating element. The heating element is encapsulated inside the quartz glass body, and the heating element is capable of generating thermal radiation and infrared radiation outwardly through the quartz glass body to heat the aerosol forming substance.

Abstract: An exemplary electronic cigarette includes a power supply and an atomizer. The atomizer is connected with the power supply via a detachable connecting structure. The power supply has a connecting end connecting with the atomizer. The power supply includes an electromagnetic induction coil at the connecting end. The atomizer includes a housing, a liquid chamber arranged in the housing, and a metallic element. The metallic element is capable of generating heat in an alternating magnetic field. The liquid chamber defines an opening facing the power supply. The atomizer further includes a liquid storing element arranged in the opening. The liquid storing element is capable of storing tobacco liquid, and preventing tobacco liquid in the liquid chamber from flowing out. The metallic element abuts against the liquid storing element. The metallic element is configured for heating the tobacco liquid absorbed in the liquid storing element to form aerosol.

Abstract: An exemplary atomizer includes a shell, a liquid supply received in the shell, and an atomizing assembly. The liquid supply is configured for storing tobacco liquid, and the liquid supply has an open end. The atomizing assembly includes a liquid conducting element, a heating disk, and a liquid absorbing body. An end of the liquid conducting element is engaged in the open end. The heating disk is arranged at an opposite end of the liquid conducting element. The liquid absorbing body is sandwiched between the liquid conducting element and the heating disk. The liquid conducting element is configured for conveying the tobacco liquid from the liquid supply to the liquid absorbing body. The heating disk is configured for heating the tobacco liquid in the liquid absorbing body to vaporize.

Abstract: The present disclosure provides an atomization apparatus, which relates to the field of aromatherapy equipment. The atomization apparatus may include a body having an internal cavity, a reservoir chamber disposed in the internal cavity, a spacer disposed above the reservoir chamber, and an oil cup. The spacer and a top wall of the internal cavity may form an atomized gas passage. The atomized gas passage may be communicated with a nozzle of the body. The oil cup may be disposed inside the reservoir chamber and located outside a projection of the spacer onto the reservoir chamber. A bottom of the oil cup may be communicated with the reservoir chamber.

Abstract: Provided are an aroma diffusing apparatus and an oil supply method. The aroma diffusing apparatus includes a main body and an oil storage tube. The main body is provided with a liquid storage chamber which is configured to store a liquid. The oil storage tube is configured to store an essential oil. When the aroma diffusing apparatus works, a bottom portion of the oil storage tube may be in fluidic communication with the liquid storage chamber thus allowing the essential oil in the oil storage tube to flow from the bottom of the oil storage tube into the liquid storage chamber as the liquid in the liquid storage chamber is being consumed.

Abstract: Provided are an aroma diffusing apparatus and an oil supply method. The aroma diffusing apparatus includes a main body and an oil storage tube. The main body is provided with a liquid storage chamber which is configured to store a liquid. The oil storage tube is configured to store an essential oil. When the aroma diffusing apparatus works, a bottom portion of the oil storage tube may be in fluidic communication with the liquid storage chamber thus allowing the essential oil in the oil storage tube to flow from the bottom of the oil storage tube into the liquid storage chamber as the liquid in the liquid storage chamber is being consumed.

Abstract: The present disclosure relates to a heating device for an electronic cigarette. The heating device includes a heating part, a first conductive part, and a second electrically conductive part. The heating part has a hollow metallic tube wound in a spiral form. The first conductive part is electrically connected to a first end of the metallic tube. The second electrically conductive part is electrically connected to an opposite second end of the metallic tube.

Abstract: Provided are an aroma diffusing apparatus and an oil supply method. The aroma diffusing apparatus includes a main body and an oil storage tube. The main body is provided with a liquid storage chamber which is configured to store a liquid. The oil storage tube is configured to store an essential oil. When the aroma diffusing apparatus works, a bottom portion of the oil storage tube may be in fluidic communication with the liquid storage chamber thus allowing the essential oil in the oil storage tube to flow from the bottom of the oil storage tube into the liquid storage chamber as the liquid in the liquid storage chamber is being consumed.

Abstract: An exemplary atomizer includes a housing, a liquid chamber defined in the housing, a heating part in the housing, an air passage, and two electrodes. The liquid chamber is configured for storing tobacco liquid. The heating part includes a liquid conductor and a heater. The liquid conductor is configured for absorbing the tobacco liquid from the liquid chamber. The heater is in contact with the liquid conductor. The heater is configured for heating the tobacco liquid to form aerosol. The air passage allows the aerosol to flow out of the atomizer. The two electrodes are arranged at one end of the housing, and electrically connected to two opposite ends of the heater. The atomizer further includes a temperature sensor configured for sensing a temperature of the heating part.

Abstract: An exemplary spraying atomizing device includes a housing, a liquid tank, a spraying device, a heating element, and a power supply. The housing defines an atomizing chamber. The liquid tank is configured for storing tobacco liquid. The spraying device is configured for spraying the tobacco liquid into the atomizing chamber in a form of liquid particles. The heating element is arranged in the atomizing chamber, and has a heating surface. The heating surface is configured for supporting and heating the liquid particles to form aerosol. The power supply is arranged in the housing, and is configured for feeding the heating element power.

Abstract: The present disclosure relates to a heating device for heating tobacco liquid. The heating device includes a heating element, and a liquid conducting body configured for guiding the tobacco liquid to the heating element. The liquid conducting body includes a main body and at least one liquid conducting arm extending from the main body. The heating element is inserted in the main body, and is integrally formed with the main body. The at least one liquid conducting arm and the main body are made of micro-porous material.

Abstract: An atomizer of electronic cigarette, ceramic heating atomizing core and ceramic heater are provided. The ceramic heater is configured to atomize liquid to form aerosol. The ceramic heater includes a ceramic body and a heating element, the ceramic body includes a wall having an inner surface and an outer surface, the wall defining a plurality of through holes passing through the inner and outer surfaces to release the aerosol. The heating element is formed on one of the inner and outer surfaces of the ceramic body. The ceramic heater of the present disclosure could heat overall and the aerosol could be release in time, the atomization efficiency of the ceramic heater could be increased.

Abstract: An exemplary replaceable atomizing unit includes a liquid conducting body, a heating element in contact with the liquid conducting body, a holder, and a press fit element. The holder is configured for supporting the liquid conducting body. The holder includes an open end. The press fit element is coupled with the open end. The press fit element and the holder cooperatively define an atomizing chamber. The heating element is received in the atomizing chamber. The open end defines a gap for accommodating the liquid conducting body. At least one part of the liquid conducting body extends along the gap outside of the atomizing chamber. The atomizing unit further includes a resilient component nesting the open end, and the resilient component is tightly pressed against the liquid conducting body by the press fit element.

Abstract: An exemplary atomizer includes a housing and a mouthpiece assembly. The housing defines a liquid chamber for storing tobacco liquid. The mouthpiece assembly is arranged at a first end of the housing. The mouthpiece assembly defines an air passage and a backflow chamber. The backflow chamber includes a closed bottom end away from the housing, and an open near end adjacent to the housing. The open end is in communication with the air passage.

Abstract: An exemplary heating assembly includes a ceramic substrate having at least one surface, a heating element formed on the at least one surface, and a temperature sensing element formed on the at least one surface. The heating element includes a heating part and an electrode part. The heating part is formed on the at least one surface, and the electrode part is arranged at two opposite ends of the heating part. The temperature sensing element includes a thermistor layer and an electrically connecting part. The thermistor layer is formed on the at least one surface. The electrically connecting part connects the thermistor layer, and the thermistor layer is insulated from the heating part.

Abstract: An exemplary atomizer includes a housing, a conductive part at an end of the housing, a mouthpiece with an air outlet, a liquid chamber, and at least one heating element. The liquid chamber is in the housing and configured for storing tobacco liquid. The at least one heating element is electrically connected to the conductive part. The heating element includes a liquid carrier and a heating part integrally formed with the liquid carrier. The liquid carrier has a micro porous structure. The liquid carrier is in contact with the tobacco liquid. The liquid carrier is configured for absorbing the tobacco liquid, and the heating part is configured for heating the tobacco liquid to form aerosol.

Abstract: The present invention discloses an aerosol generator, an electronic cigarette, and a detachable atomizing device. The aerosol generator includes a housing, a storage chamber, a heating device, and an aerosol discharging channel. The storage chamber is formed in the housing and configured for storing an aerosol forming substance. The heating device is disposed in the housing and configured for heating the aerosol forming substance to generate aerosol. The aerosol discharging channel is configured for discharging aerosol generated by the aerosol forming substance to the outside of the housing. The heating device includes a quartz glass body and a heating element. The heating element is encapsulated inside the quartz glass body, and the heating element is capable of generating thermal radiation and infrared radiation outwardly through the quartz glass body to heat the aerosol forming substance.

Abstract: An exemplary electronic cigarette includes a power supply and an atomizer. The atomizer is connected with the power supply via a detachable connecting structure. The power supply has a connecting end connecting with the atomizer. The power supply includes an electromagnetic induction coil at the connecting end. The atomizer includes a housing, a liquid chamber arranged in the housing, and a metallic element. The metallic element is capable of generating heat in an alternating magnetic field. The liquid chamber defines an opening facing the power supply. The atomizer further includes a liquid storing element arranged in the opening. The liquid storing element is capable of storing tobacco liquid, and preventing tobacco liquid in the liquid chamber from flowing out. The metallic element abuts against the liquid storing element. The metallic element is configured for heating the tobacco liquid absorbed in the liquid storing element to form aerosol.