An electrical skin treating appliance has an elongate hollow polymeric housing with front and rear portions. The front portion contains a reservoir for receiving and containing water. The rear portion has one or more controls. The housing contains an ultrasonic mist generator for converting the water into a fine mist and dispersing the mist from the housing. A sonically-vibratory spatula extends from the housing at a junction of the front and rear portions and is adapted to scrape the outermost surface of a user's skin. The housing contains an oscillation generator for selectively causing ultrasonic vibration of the spatula, and the one or more controls are adapted for selectively energizing, only one at a time, the mist generator and the oscillation generator.

A method that can plate a predetermined position on various plating targets without implementing a pretreatment thereon is provided. A plating method is performed on a plating target using a plating solution, and the plating method includes at least a bubble ejection step of ejecting a bubble generated by a bubble ejection member to a plating solution. The bubble ejection member includes an electrode formed of a conductive material and an insulating material covering at least a part of the electrode, at least a part of the insulating material forms a bubble ejection port, and an air gap surrounded by the insulating material is formed between at least a part of the electrode and the bubble ejection port.

A multi-functional integrated skin beauty device according to the present invention is formed by comprising a mist treatment part generating sterilization water by electrolyzing water in a water tank and spraying the generated sterilization water in a mist shape, a temperature stimulation treatment part applying a temperature stimulation to skin, an EP treatment part applying an electric signal to an EP electrode; and a light treatment part outputting a light for skin care. A housing forming an exterior appearance of the multi-functional integrated skin beauty device includes a pillar-type handle part graspable by a user with one hand, and a first head part and a second head part protruded from an upper end of the handle part toward both lateral surfaces.

A device and method for vaporizing game liquid attractants are provided. The vaporizing device has a container suitable for holding vaporizable liquid therein, a wick, a transducer operably connected to a power supply, and a controller. Vaporizable liquid, preferably game attractant or a mixture thereof is drawn to the transducer by the wick. When supplied with electrical current from the power supply, the transducer oscillates at a high frequency sufficient to vaporize the vaporizable liquid drawn to the transducer via cavitation. Once vaporized, game attractant vapor may be diffused or propelled through an outlet in the container to the external hunting environment.

A housing selectively encloses a nozzle. The housing has a body that partially defines an interior space in which the nozzle is configured to be disposed. The housing also includes a cover assembly that selectively blocks a first aperture of the body and further defines the interior space. Additionally, the housing has a piston that is disposed in the interior space and secured to the nozzle. The piston defines a gas inlet, a liquid inlet, and an outlet fluidly connected to both the gas inlet and the liquid inlet. The housing further includes a biasing member attached to the piston. The biasing member is configured to exert a biasing force that biases the nozzle to a retracted position. The biasing member is further configured such that when pressurized gas flows through the body, the biasing force is overcome such that the nozzle is disposed in an extended position.

A method for applying anti-gallant coating to metal parts utilizes an ultrasonic sprayer driven by a precise manipulation device such as a robotic arm for high efficiency and precision. The method does not require masking adjacent or nearby metal parts, decreases time and money spent applying the anti-gallant coating, and is environmentally friendly.

Microfluidic delivery systems for dispensing a fluid composition into the air comprising microfluidic die and at least one heating element that is configured to receive an electrical signal comprising a certain on-time and wave form to deliver a fluid composition into the air.

A method of prepping a cylindrical inner surface of a bore using a high-frequency forced pulsed waterjet apparatus entails generating a pressurized waterjet using a high-pressure water pump, generating a high-frequency signal using a high-frequency signal generator, applying the high-frequency signal to a transducer having a microtip to cause the microtip to vibrate to thereby generate the high-frequency forced pulsed waterjet, and rotating the rotatable ultrasonic nozzle inside the bore to prep the inner cylindrical surface of the bore using the high-frequency forced pulsed waterjets exiting from the angled exit orifices of the rotatable ultrasonic nozzle.

A variable-frequency surface acoustic wave electronic cigarette includes an atomizer. An atomization cavity is disposed in the atomizer, and a variable-frequency surface acoustic wave atomization chip is disposed at a lower portion of the atomization cavity. An inverted trapezoidal interdigital transducer is disposed on the variable-frequency surface acoustic wave atomization chip. An e-liquid storage cavity is disposed in the atomization cavity. A porous ceramic sheet is disposed between the e-liquid storage cavity and the atomization chip. The new variable-frequency surface acoustic wave electronic cigarette can realize any adjustment of the working frequency within a set range, thereby realizing the autonomous regulation and control of a smoke particle size after atomization of the e-liquid.

The invention relates to a device for applying a liquid immersion agent into a gap (6) between a microscope objective (1) and a sample (2, 20) to be examined under the microscope, wherein the device has a blasting device (4) which is designed to introduce the immersion agent laterally into the gap (6) in a jet (5), and the blasting device (4) is designed to spray the immersion agent into the gap (6) in the form of a vapor or spray mist jet (5).