Water tapping device and methods employed thereof

A water tapping device, comprising:

• at least one first hemisphere and at least one second hemisphere in an attachable and detachable manner;
• at least one first end of at least one cylindrical connector connected to the at least one first hemisphere and at least one second end of the at least one cylindrical connector connected to the at least one second hemisphere;
• a plurality of air vents configured to suck air fluid and then sucked air fluid reaches the at least one cylindrical connector, whereby the at least one cylindrical connector comprising at least one first rotor and at least one second rotor configured to rotate with free air movement, whereby the at least one first rotor and the at least one second rotor aligned on at least one axial rod with a ball bearing mechanism and gears, the gears configured to enable the at least one first rotor and the at least one second rotor to spin in any direction;
• and
• a plurality of first rotor blades secured to the at least one first rotor and a plurality of second rotor blades secured to the at least one second rotor respectively, whereby the at least one first rotor and the at least one second rotor are located in the at least one first hemisphere and the at least one second hemisphere, and whereby the plurality of first rotor blades and the plurality of second rotor blades are aligned to optimize the internal pressure by rotation using free air movement, the free air movement is an ambient air that enters the at least one first hemisphere through the plurality of air vents, the plurality of air vents configured to create air pressure for condensation in the at least one first hemisphere to provide pressurized air and subsequently condense the pressurized air into water in the at least one second hemisphere.