Rotorcraft

1. A rotorcraft comprising:

(a) a fuselage;

(b) at least three rotor system arms mounted on said fuselage, each said rotor system arm having a rotor system displaced from said fuselage, each said rotor system including:

i) a mast having at least two rotor blades, and

ii) an electric rotor motor coupled to said mast for driving said mast whereupon said at least two rotor blades act as a rotating rotor disc,

each said rotor system of said at least three rotor systems having an individually controllable collective rotor blade pitch,

at least one rotor system of said at least three rotor systems having a controllable cyclic rotor blade pitch;

(c) a forward propulsion unit mounted on said fuselage for providing forward propulsion to the rotorcraft; and

(d) a flight control system for controlling said at least three electric rotor motors, said collective rotor blade pitch of each said rotor system of said at least three rotor systems, said cyclic rotor blade pitch of said at least one rotor system of said at least three rotor systems and said forward propulsion unit in response to an input control indicating a desired maneuver to operate the rotorcraft for takeoff, gyro-cruising for straight and level forward flight, and landing,

wherein,

after takeoff, the flight control system being configured to simultaneously upwardly pitch the rotorcraft and drive said forward propulsion unit thereby at least partially autorotating said at least three rotor systems for said gyro-cruising for straight and level forward flight,

each said rotor system of said at least three rotor systems continuously rotating in the same direction for takeoff, gyro-cruising for straight and leveled flight, and landing.

2. The rotorcraft according to claim 1 wherein said each rotor system of said at least three rotor systems having an individually controllable cyclic rotor blade pitch.

3. The rotorcraft according to claim 1 wherein at least one rotor system of said at least three rotor systems includes a freewheel arrangement.

4. The rotorcraft according to claim 1 wherein said rotorcraft is configured for said gyro-cruising for straight and level forward flight when said at least three rotor systems are powered upto 25% of their maximum power.

5. The rotorcraft according to claim 4 wherein said rotorcraft is configured for said gyro-cruising for straight and level forward flight when said at least three rotor systems are not powered.

6. The rotorcraft according to claim 1 wherein said rotor system arms are configured as aerodynamic wings for providing lift.

7. A flight control system configured to control the at least three electric rotor motors, the collective rotor blade pitch of each rotor system of said at least three rotor systems, the cyclic rotor blade pitch of the at least one rotor system of the at least three rotor systems and the forward propulsion unit, in a rotorcraft according to claim 1 , in response to an input control indicating a desired maneuver to operate the rotorcraft for takeoff, gyro-cruising for straight and level forward flight, and landing,

wherein, after takeoff, the flight control system being configured to simultaneously pitch the rotorcraft upwardly and drive said forward propulsion unit thereby at least partially autorotating the at least three rotor systems for said gyro-cruising for straight and level forward flight.

8. A computer readable storage medium comprising instructions which, when executed by a flight control system in a rotorcraft according to claim 1 , cause the flight control system to carry out the controlling of the at least three electric rotor motors, the collective rotor blade pitch of each rotor system of the at least three rotor systems, the cyclic rotor blade pitch of the at least one rotor system of the at least three rotor systems and the forward propulsion unit, in response to an input control indicating a desired maneuver to operate the rotorcraft for takeoff, gyro-cruising for straight and level forward flight, and landing,

wherein the controlling of the rotorcraft includes simultaneously pitching the rotorcraft upwardly and driving the forward propulsion unit, thereby at least partially autorotating the at least three rotor systems for said gyro-cruising for straight and level forward flight.

9. A method for operating a rotorcraft comprising the steps of:

a) providing a rotorcraft having:

a fuselage,

at least three rotor system arms mounted on the fuselage,

each rotor system arm having a rotor system displaced from the fuselage, each rotor system including a mast having at least two rotor blades and an electric rotor motor coupled to the mast for driving the mast whereupon said at least two rotor blades act as a rotating rotor disc,

each rotor system of the at least three rotor systems having an individually controllable collective rotor blade pitch,

at least one rotor system of the at least three rotor systems having a controllable cyclic rotor blade pitch,

a forward propulsion unit mounted on the fuselage for providing forward propulsion to the rotorcraft; and

b) controlling the at least three electric rotor motors, the collective rotor blade pitch of each rotor system of the at, least three rotor systems, the cyclic rotor blade pitch of the at least one rotor system of the at least three rotor systems, and the forward propulsion unit in response to an input control indicating a desired maneuver to operate the rotorcraft for takeoff, gyro-cruising for straight and level forward flight, and landing,

wherein, after takeoff the controlling of the rotorcraft includes simultaneously pitching the rotorcraft upwardly and driving said forward propulsion unit, thereby at least partially autorotating the at least three rotor systems for said gyro-cruising for straight and level forward flight,

each said rotor system of said at least three rotor systems continuously rotating in the same direction for takeoff, gyro-cruising for straight and leveled flight, and landing.