The present invention relates to accessories. Specifically, the present invention relates to cleaning accessories such as jewelry that have small crevices, impressions, engravings, or other fine details that are difficult to reach and clean. Even more specifically, the present invention relates to polishing and drying the cleaned accessories by using an allotment of polishing compound and/or steam.

Disclosed is an integrated liquid injection evaporation container, including a container body provided therein with a space for storing a liquid; a seal gasket configured to seal the container body from an upper end portion is provided on an upper portion of the container body, where the seal gasket is an electric material; a press cap configured to press the seal gasket tight on the container body is further provided; a first injection hole configured to inject a fluid is provided on an upper end of the container body; a second injection hole corresponding to the first injection hole is provided on the press cap. Use of the first injection hole, the second injection hole, and the seal gasket achieves the objectives of convenient liquid injection without contamination, and simple mechanical liquid injection.

An exemplary atomizer includes a housing, a mouthpiece, a liquid chamber arranged in the housing, and an atomizing component arranged in the liquid chamber. The liquid chamber is configured for storing tobacco liquid, and defines an air passage. An end of the air passage is connected with the mouthpiece. The atomizing component is configured for atomizing the tobacco liquid to form aerosol. The air passage allows the aerosol to pass through. An opposite end of the air passage is in communication with the atomizing component. The liquid chamber defines a liquid outlet at a bottom part. The liquid outlet is in communication with the atomizing component, so that the tobacco liquid in the liquid chamber can flow to the atomizing component via the liquid outlet.

A steam generator includes: a water storage chamber which stores water therein; a heating portion which heats water in the water storage chamber to generate steam; a water supply device which supplies the water storage chamber with water; a water discharge passage which discharges water through a water discharge port defined in the water storage chamber; a steam spout port which spouts the steam generated in the water storage chamber therethrough; and a rib integrally formed with an inner wall surface of the water storage chamber so as to cross an inside of the water storage chamber, the rib having a plurality of openings defined therein, wherein the openings are smaller than the water discharge port.

A steam generator includes: a water storage chamber which stores water therein; a heating portion which heats water in the water storage chamber to generate steam; a water supply device which supplies the water storage chamber with water; a water discharge passage which discharges water through a water discharge port defined in the water storage chamber; a steam spout port which spouts the steam generated in the water storage chamber therethrough; and a rib integrally formed with an inner wall surface of the water storage chamber so as to cross an inside of the water storage chamber, the rib having a plurality of openings defined therein, wherein the openings are smaller than the water discharge port.

A micro-vaporizer has an annular main body, a vaporization chamber, and a liquid delivery arrangement. The liquid delivery arrangement is configured for sequential delivery of a plurality of vaporizable liquids to the vaporization chamber. The liquid delivery arrangement has an annular wick having an internal wick surface defining at least a portion of the vaporization chamber. The liquid delivery arrangement also comprises a liquid reservoir surrounding the wick. The liquid reservoir is configured for storage of at least one vaporizable liquid therein and is in fluid communication with the wick. A heating element is positioned within the vaporization chamber for heating and vaporizing vaporizable liquid at or near the internal wick surface.

The present invention relates to bathing devices for special therapeutic or hygienic purposes such as e.g. sauna or Finnish baths, and especially to a steam generator element for a sauna electric heater and a sauna electric heater. A sauna electric heater (13) according to the present invention comprises comprising a frame part (14), heating resistor elements (15-17), (29), (30), (54), (55) inside the said frame part (14), and sauna stones (2) arranged inside the said frame part (14) and/or on the top part of the said sauna electric heater (13), which said sauna electric heater (13) comprises a steam generator element (18), (19), (26), (33), (37), (45), (52), (62) placed inside the said frame part (14) between at least two heating resistor elements (15-17), (29), (30), (54), (55) and/or said sauna stones (2), said steam generator element (18), (19), (26), (33), (37), (45), (52), (62) comprising a water tank (20), (27), (38), (46), (53) fillable with water. The sauna electric heater according to the present invention provides more durable operation and with less generated faults and brake ups when compared to the prior art solutions.

In general, in one aspect, the invention relates to a system to create vapor for generating electric power. The system includes a vessel comprising a fluid and a complex and a turbine. The vessel of the system is configured to concentrate EM radiation received from an EM radiation source. The vessel of the system is further configured to apply the EM radiation to the complex, where the complex absorbs the EM radiation to generate heat. The vessel of the system is also configured to transform, using the heat generated by the complex, the fluid to vapor. The vessel of the system is further configured to sending the vapor to a turbine. The turbine of the system is configured to receive, from the vessel, the vapor used to generate the electric power.

In general, in one aspect, the invention relates to a system to create vapor for generating electric power. The system includes a vessel comprising a fluid and a complex and a turbine. The vessel of the system is configured to concentrate EM radiation received from an EM radiation source. The vessel of the system is further configured to apply the EM radiation to the complex, where the complex absorbs the EM radiation to generate heat. The vessel of the system is also configured to transform, using the heat generated by the complex, the fluid to vapor. The vessel of the system is further configured to sending the vapor to a turbine. The turbine of the system is configured to receive, from the vessel, the vapor used to generate the electric power.

An inhalation device for inhaling a vaporized substance that includes metering capabilities to inform a user when a particular amount of substance has been consumed. The inhalation device can include a sensor that senses the vaporized substance and a processor that utilizes data from the sensor to meter the amount consumed. The inhalation device can also define a session, which is a time in which a user can consume a particular amount. During the session, a user can start and stop inhaling and resume inhaling. When the user stops inhaling the inhalation device will halt vapor production and will resume production when the user resumes inhaling.