About our missionWe strive to make clean energy available to every home and create a sustainable future for future generations. Our installation of simple materials allows you to obtain energy without harming the environment.
How a small boat lifts a sunken container ship - ties bags and inflates them with air using a small compressor and the huge ship floats up, and not because the compressor spent energy equal to the force of lifting the ship from the bottom, from one can of gasoline (?), but namely the buoyant force of Archimedes (in fact, gravity attracts water and objects with a lower density are squeezed out by water to the surface). If you do not believe in the force of Archimedes, then it turns out that ships in order to float on the surface must have incredible energy installations to levitate on the surface of the water, and this, as we know, is not so. (All that is needed is to make the process of pumping the tanks underwater cyclical and transfer the work of the lifting force to the generator)
Here is the same effect - the compressor spends a small amount of energy to move a few grams of air (but this is a significant volume) and when air appears in each of the 50-liter baths, it tries to float with the Archimedes force equal to the mass of the volume of displaced water, that is, 50 kg, and therefore 20 baths with air under water create a thrust of 1000 kg upwards, a serious thrust of a ton that generates tens of kW, while the compressor spends only 2-3 kW on pumping air. 1000 liters of air rises in water with the same force (equal to the volume of displaced water) as 1000 liters of water falls in the air downwards - with a force of 1 ton, but the energy required to move 1000 liters of air is hundreds of times less than to move 1000 liters of water.
Calculations of the installation under construction 12 m 60 baths of 30 liters filled to 80% with a space of 0.5 m for turning the baths at the top and bottom:
Calculation 1, through the acceleration of gravity sec:
60/2 pcs * 30 l * 0.8 filling coefficient * 11 m * 9.8 g / 3600 sec per hour = 21.56 kW
Calculation 2, through horsepower (75 kg per 1 m in 1 sec):
60/2 pcs * 30 l * 0.8 * 11/75 * 0.7354 / 3.6 sec = 21.7 kW
The compressor consumes 3.5 kW, so the useful work of gravity is 18 kW.