AIRCRAFT COMPRISING A PLURALITY OF FLYING MODES, AND METHOD FOR OPERATING SAME

1 - 16 . (canceled)

17 . An aircraft that takes off and lands vertically, for transporting people and/or loads, wherein the aircraft comprises:

a flying unit, having a framework structure formed in a plane E, drive units being arranged on the framework structure, and air-guiding devices, each with an adjustable angle of incidence β 1-n , each angle of incidence β 1-n being variable between a minimum angle of incidence β 1-n,min and a maximum angle of incidence β 1-n,max ,

a transportation unit comprising a conveying pod and a connection device for connecting the conveying pod to the flying unit, the connection device having an elongate shaft, one end of which is attached to the conveying pod, and

an articulated coupling device for an articulated connection of the flying unit to another end of the elongate shaft, such that an adjustable tilt angle α of the flying unit is variable between a minimum tilt angle α min in a range 0° ≤ α min < 30 and a maximum tilt angle α max = 90°.

18 . The aircraft of claim 17 , wherein the minimum tilt angle α min is 0° ≤ α min ≤ 10°.

19 . The aircraft of claim 17 , wherein the articulated coupling device is slidable along the framework structure parallel to the plane E between a centric position and an outer position.

20 . The aircraft of claim 17 , wherein a length 1 of the shaft is variable between a minimum length 1 min and a maximum length 1 max .

21 . The aircraft of claim 19 , wherein the outer position is located at a distance from a central axis M of the flying unit in such a way and/or wherein a maximum length 1 max of the shaft is such that the conveying pod, for the minimum tilt angle α min , is located outside of an outer boundary of the framework structure.

22 . The aircraft of claim 21 , wherein the outer position is located at a distance from a central axis M of the flying unit in such a way that the conveying pod, for the minimum tilt angle α min , is located outside of an outer boundary of the framework structure.

23 . The aircraft of claim 21 , wherein a maximum length 1 max of the shaft is such that the conveying pod, for the minimum tilt angle α min , is located outside of an outer boundary of the framework structure.

24 . The aircraft of claim 19 , wherein the articulated coupling device, as a function of the tilt angle α, is slidable along the framework structure parallel to the plane E and/or wherein the length 1 of the shaft is variable as a function of the tilt angle α.

25 . The aircraft of claim 24 , wherein the articulated coupling device, as a function of the tilt angle α, is slidable along the framework structure parallel to the plane E.

26 . The aircraft of claim 24 , wherein the length 1 of the shaft is variable as a function of the tilt angle α.

27 . The aircraft of claim 17 , wherein the framework structure and the connection device are connected to each other via a damping device.

28 . The aircraft of claim 17 , wherein on the framework structure a locking device, configured to lock the shaft, is arranged.

29 . The aircraft of claim 17 , wherein the flying unit and the transportation unit have a modular design, so that the flying unit and any transportation unit can be joined to each other and separated from each other as desired by means of the articulated coupling device.

30 . The aircraft of claim 17 , wherein the air-guiding devices are shaped in the manner of air foils.

31 . A method of operating the aircraft of claim 17 , wherein the aircraft can be operated in at least one take-off phase, a cruising flight phase and a landing phase, and wherein

during a transition from the take-off phase to the cruising phase, the tilt angle α of the flying unit is reduced, and

during a transition from the cruising flight phase to the landing phase, the tilt angle α of the flying unit is increased.

32 . The method of claim 31 , wherein

during the take-off phase, the angles of incidence β 1-n of a particular number of the air-guiding devices (8 1-n ) are reduced, and /or

during the landing phase, the angles of incidence β 1-n of a particular number of the air-guiding devices (8 1-n ) are increased.

33 . The method of claim 32 , wherein

during the take-off phase, the angles of incidence β 1-n of a particular number of the air-guiding devices (8 1-n ) are reduced into a range of a minimum angle of incidence β 1-n,min from 90°≤ β 1-n,min ≤ 120° and/or

during the landing phase, the angles of incidence β 1-n of a particular number of the air-guiding devices (8 1-n ) are increased into a range of a maximum angle of incidence β 1-n,max from 150° ≤ β 1-n,max ≤ 180°.

34 . The method of claim 31 , wherein

during the transition from the take-off phase to the cruising flight phase, the shaft of the transportation unit is extended and/or the articulated coupling device is slid along the framework structure parallel to the plane E into an outer position, and

during the transition from the cruising flight phase to the landing phase, the shaft of the transportation unit is shortened and/or the articulated coupling device is slid along the framework structure parallel to the plane E into a centric position.

35 . A control unit for controlling the aircraft of claim 17 , wherein the control unit is set up and configured for generating and emitting control signals which bring about an adjustment of the tilt angle α and/or an adjustment of the angles of incidence β 1-n .

36 . The control unit of claim 35 , wherein the control unit is set up and configured for generating and emitting control signals which bring about a change in length of the shaft and/or a change in a sliding position of the articulated coupling device along the framework structure parallel to the plane E.