Abstract: An atomizing device includes a first liquid chamber to store a liquid to be atomized; a nozzle plate unit disposed on the first liquid chamber and used to spray the liquid into first atomized droplets; and an indirect spray unit disposed at a position where the first atomized droplets are sprayed to accept the first atomized droplets. The indirect spray unit includes a channel structure having a droplet inlet disposed toward a position where the nozzle plate unit sprays out the first atomized droplets; and a droplet outlet disposed on one side wall of the atomizing device. The droplet inlet receives the first atomized droplets to enter the indirect spray unit. The first atomizing droplets undertake striking and rebounding repeatedly in the channel structure to form the second atomized droplets. The second atomized droplets are sprayed out from the droplet outlet.

Abstract: The invention relates to an atomizing plug assembly and an atomizer formed thereby. The atomizing plug assembly comprises a containing part and an atomizing part. The containing part has a containing body. The containing body defines a containing space for containing a liquid to be atomized and has an aerosol opening which communicates with the containing space. The atomizing part is integrated with or detachably connected with the containing part and has a vibrating member and a nozzle plate. The vibrating member has an atomizing electrical connecting portion, where the vibrating member is electrically connected, and a pin element electrically connected with the atomizing electrical connecting portion. The nozzle plate is located corresponding to the aerosol opening. The atomizer is formed by electrically connecting the atomizing plug assembly to a base.

Abstract: The present invention relates to a nozzle plate structure which comprises a plate and a plurality of orifices penetrating the plate. Each orifice comprises a liquid-storing space and a liquid-outputting space. Through the configuration of the liquid-storing space, the liquid in a container can be smoothly educed therefrom. Through the configuration of the liquid-outputting space, liquid dripping can be decreased. Alternatively, a liquid-guiding space is arranged between the liquid-storing space and the liquid-outputting space, so that the resonance oscillation of the liquid in the orifice can be enhanced. Further, the remaining liquid in the liquid-outputting space can be reabsorbed by the capillarity of the liquid-guiding space.

Abstract: The present invention relates to a nozzle plate structure which comprises a plate and a plurality of orifices penetrating the plate. Each orifice comprises a liquid-storing space and a liquid-outputting space. Through the configuration of the liquid-storing space, the liquid in a container can be smoothly educed therefrom. Through the configuration of the liquid-outputting space, liquid dripping can be decreased. Alternatively, a liquid-guiding space is arranged between the liquid-storing space and the liquid-outputting space, so that the resonance oscillation of the liquid in the orifice can be enhanced. Further, the remaining liquid in the liquid-outputting space can be reabsorbed by the capillarity of the liquid-guiding space.

Abstract: A valve manifold box comprises a chamber and a front cover. Significantly, the chamber is manufactured by injection molding and is one-piece construction. Moreover, the chamber comprises a back board, a sidewall, at least an outfall, and multiple fittings and inside surface at the bottom sidewall has changes in an inclination angle for collecting the liquid within the chamber. By means of injection molding, one piece construction of the chamber is obtained such that it prevents chemicals from leaking outside. Besides, by using the design that the inside surface at the bottom sidewall has changes in an inclination angle, liquid can be easily collected and drained. Also, since it is unnecessary to frequently maintain the valve manifold box, maintenance costs are saved.