The front of the main rotor is tilted down
The "advancing blade" of a helicopter refers to the side of the rotor which moves forward in relation to the fuselage. As each rotor blade makes a full circle around the center, on one side of the swing, it moves forward, and on the opposite side it is moving towards the rear of the helicopter. When the helicopter is moving forward in air, the rotor blades on the advancing side are moving at a higher airspeed than the rotor blades elsewhere. Rotor speed + aircrafts forward airspeed. This results in slightly more lift on that side. Conversely the exact opposite is happening on the other side where you get Rotor speed - aircraft forward airspeed. This creates a tendency for helicopters to want to roll at high airspeed. This is one of the many odd tendencies of rotor aircraft that pilots are constantly adjusting to balance out.
A helicopter hovers, flies forward, backwards, left, and right.
When the speaker cone moves forward, it compresses the air in front of it, creating a high-pressure region. As the cone moves backwards, it rarefies the air, creating a low-pressure region. This rapid oscillation of high and low-pressure regions propagates through the air as sound waves.
Aeroplanes go forward by the propulsion of the engine. The engine may be of any type. Air is pushed behind and the aeroplane moves forward.
The main rotor is tilted forward.
When a skydiver jumps out of a hovering helicopter with forward velocity, the skydiver's initial velocity will be a combination of the helicopter's forward velocity and the vertical velocity due to gravity. As the skydiver falls, their acceleration is primarily due to gravity acting downward, with air resistance also playing a role. The acceleration experienced by the skydiver will be constant at approximately 9.8 m/s^2 downward, ignoring air resistance.
It keeps moving forward or moves with the cold air it depends
um.... they do
The shape of the wing and the forward speed generates lift and the aircraft rises.
When the stick is moved by the pilot, it moves an assembly called a swashplate accordingly. The swashplate is at the rotor base. When this moves, it changes the pitch of the rotor blades. As the pitch changes, the orientation of lift produced changes as well. Thus, when the stick is moved forward, the blade pitch is affected by the swashplate to re-orient the lift forward, instead of directly vertical, and the helicoptor is pulled in a forward direction.
Helicopters tilt to offset the direction of their lift in order to initiate movement in that direction. A helicopter pilot can tip the helicopter forward to get a little forward motion, and then tip the helicopter back to stop or even reverse. Likewise, the pilot can make the helicopter "slew" left or right by tilting the helicopter left or right.
They both utilize airflow over an airfoil. The helicopter moves the airfoil (blade) by spinning them, as air passes around the blade it creates lift. An airplane uses thrust from the engines to push the airfoil (wings) forward through the air, the air then flowing over(lower pressure) and under them (higher pressure) produces lift.