Taken from a WW2 navy destroyer this will wake up the dead. It can be heard for over 9 miles. Holly sh!t.

One of the biggest remote controlled model airplanes I've ever seen. It it complete with mini turbo engines. Mount a camera and you've got an UAV. A loud one! Enjoy!

The Mercedes C 63 AMG, is designed to be the direct competitor to the new BMW M3. Powered by a massive 6,2 liter engine developing 457 HP, the new C63 AMG reaches 100 km/h from a standing start in justr 4 and a half seconds. The video clip of this beast is simply cool, and is worth watching just for the sound of the engine! Enjoy!

Here's a cool remote controlled turbine powered helicopter, doing a few laps around on a field. Just a warning though...this thing is really loud...so turn down your speakers. Enjoy!

This guy and his wife (which has an amazing hair style) share a weird passion (as you'll see in the video): mounting train air horns on cars. The result is pretty spectacular, as you wouldn't be able to say what's coming down the road: a car or a train. Enjoy this loud air horn video.

..or this may happen to you! Well...probably not, but the video is very funny! Enjoy!

A magnificent view: a time-lapse video of clouds moving across a mountain range. Simply breathtaking!

Here's an amazingly loud showing the pure speed and power of the Gatling gun cannon mounted on the A-10 Warthog plane. It's live munition contains depleted uranium, which helps penetrate the armor of tanks. Brute power in action!

Awesome missile impact video filmed really close. What is even more astounding is how the impact of the missile leaves a giant crater where it struck. Oh, and make sure you turn down your speakers, because the missile impact is kinda loud. Don't say I didn't warn you. Enjoy!

The switch that turns off and on to command the superconducting property of the new device is a trivial electric field. In practice, what has been done by Andrea Ankle and colleagues at the University of Geneva in the first superconducting transistors. The operation, represents a milestone of applied physics and paves the way for the development of a new generation of microchips - and therefore computers - much faster than at present. To understand how and why the device is considered so promising it must be from another discovery, made last year by the same group of university research in Switzerland and published in Science. In one study, physicists have created a single crystal in which two metal oxides (strontium titanate and lanthanum aluminate) are separated. Between these two materials, researchers have found a layer of free electrons (electronic cloud) and 0.3 Kelvin - that is just above absolute zero - traveling without any resistance. At that temperature, the crystal becomes a superconductor. Scientists have now discovered how to turn off and turn on the superconductivity of this crystal at will, or modules, simply by applying an electric field to the point of contact between the two oxides. The result is a version of superconductive field effect transistors (FET) devices known in applied physics, able to switch from one state to a semiconductor insulator, and basic digital information in electronics (the fact that the current can pass or not is used as a binary 1-0 to store information). As the field effect transistors is a semiconductor, however, it always has resistance to the passage of current. This means that the speed at which you can get the electrons when the device is "on" is limited which means heat develops beyond a certain limit. This side effect is damaging the transistor. A superconducting transistor, however, can pass electrons (and record information) much more quickly, as it does not oppose any resistance to the passage of current and, therefore, not heat. There remains the problem of extremely low temperatures required for superconductivity. A limit that research is a long time trying to overcome.