Fireball - Spicey, Hot Cinnamon eLiquid
Fireball eLiquid creates a new definition for cinnamon eJuice. Imagine the simmering, hot goodness of a cinnamon asteroid burning through space only to be captured by lab techs at VapeSafe and distilled into a bottle of Fireball eLiquid. If you like the flavor of spicey hot cinnamon candy and you enjoy the sensation of heavy vapor pouring out of your electronic cigarette, then you are in luck. We created Fireball just for you.
Fireball eLiquid by VapeSafe brings the spice back into spicey. As with all of the VapeSafe eLiquids, our mixtures are designed to produce nice, heavy vapors and the most succulent flavors.
Try Fireball eLiquid today!
Technology Information:
Resonance penetration of gas bubbles through a thin liquid layer: a capillary resonator and its use for the generation of droplets [An article from: Journal of Aerosol Science]
![Resonance penetration of gas bubbles through a thin liquid layer: a capillary resonator and its use for the generation of droplets [An article from: Journal of Aerosol Science]](http://ecx.images-amazon.com/images/I/5181HBQEK2L._SL160_.jpg)
Product Type: Book
Product Price: $8.95
Manufacturer: Elsevier
Purchase
Description
This digital document is a journal article from Journal of Aerosol Science, published by Elsevier in 2004. The article is delivered in HTML format and is available in your Amazon.com Media Library immediately after purchase. You can view it with any web browser.
Description:
As it is well known, a bounded layer of liquid forms an oscillatory system (resonator) for surface waves. We consider a capillary wave resonator that is composed by a thin liquid layer placed on a substrate and surrounded by a solid ring. The dimensions of the system are chosen so that gravity forces are small compared with forces from surface tension. Standing capillary waves are excited by a gas flow supplied through a small orifice in the substrate. Stable oscillations in various resonator modes are described which are accompanied by ordered formation and destruction of gas bubbles producing the regular streams of identical droplets. The mechanism of self-oscillatory behaviour based on the correspondence between bubble growth time and oscillation period is proposed and analysed. Possible applications of the phenomenon, in particular, for the generation of monodisperse droplets without special periodic stimulation, are discussed.
Reviews
None
