CN115723492A - Air-ground dual-purpose aerocar - Google Patents

Air-ground dual-purpose aerocar Download PDF

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CN115723492A
CN115723492A CN202211544092.0A CN202211544092A CN115723492A CN 115723492 A CN115723492 A CN 115723492A CN 202211544092 A CN202211544092 A CN 202211544092A CN 115723492 A CN115723492 A CN 115723492A
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folding
state
ducted fan
ground
ducted
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CN115723492B (en
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帅志斌
赵欣哲
郑阳俊
盖江涛
李勇
王宁
刘朝勋
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China North Vehicle Research Institute
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China North Vehicle Research Institute
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Abstract

The invention belongs to the technical field of automobiles, and particularly relates to an air-ground flying automobile, which comprises: the system comprises a vehicle body, a gas turbine power generation system, a folding power system, a front ducted fan system, wheels, a rear ducted fan and a rear baffle; the gas turbine power generation system comprises a plurality of gas turbine generator sets; the folding power system comprises a plurality of folding power components; the forward ducted fan system includes: a plurality of front ducted fans and an upper baffle; the automobile adopts the foldable ducted fan and the foldable rotor wing to provide lift force and thrust for vertical take-off and landing and flight state, so that the size of the whole automobile is reduced, and the compactness of the flying automobile is increased. The front ducted fan and the rear ducted fan are respectively provided with the cover plate, dust accumulation is avoided when the aircraft is in a ground running state and a non-working state, the cover plates are vertically prevented from generating large ascending resistance in a vertical take-off and landing state, the cover plates are parallel in a flight state, and the aircraft can work more stably as a fixed wing.

Description

Air-ground dual-purpose aerocar
Technical Field
The invention belongs to the technical field of automobiles, and particularly relates to an air-ground flying automobile.
Background
With the change of modern war forms, a single land battle mode is difficult to meet the military battle requirements of China, land military battle vehicles cannot cross obstacles in time within a limited time to transport fighters, and the maneuverability is poor in the current three-dimensional battle, while the continuous fighting capability of air combat equipment is weak. Therefore, it is necessary to provide a land-air flying vehicle capable of taking off and landing vertically, which not only has lasting land battle capacity, but also can realize rapid switching between different land and air forms, and can take off and land vertically in a narrow space, thereby greatly improving the battle strength of our army.
Chinese invention patents CN113370730A and CN113427954A both disclose flying cars capable of taking off and landing vertically and flying horizontally, the former has folding wings and two rotors on the wings, the latter has folding wings and two turbofan engines on the wings, but in the invention, because the wings are unfolded during taking off and landing vertically, the space required by taking off and landing vertically is greatly limited, and the wings are unfolded to have larger resistance during rising, thereby reducing the function of the rotors. The former uses a power battery to supply power, so the former does not have long-term working capacity, and the latter uses fossil energy to supply energy for the aerocar, so the reaction time in the flight process is short when abnormal conditions such as oil leakage occur, and although the thin film solar cell is equipped, the thin film solar cell is greatly influenced by weather and does not have long-term and stable working capacity.
The invention patent CN109878282A discloses a four-duct control vertical take-off and landing variant flying automobile, which is small and compact in structure, but is not suitable for bearing multiple persons because a riding space is hardly reserved in the design scheme, and meanwhile, the four-duct working mode designed by the scheme cannot meet the requirements of air cruising and accelerating rapid driving at the same time.
In addition, the prior art cannot meet the requirement of providing high-power-density power energy, and has the smooth operation capability of three action states of land driving, vertical take-off and landing and air flight.
Disclosure of Invention
Technical problem to be solved
The technical problem to be solved by the invention is as follows: in order to adapt to modern war forms, how to provide a land-air flying automobile, three action states of land driving, vertical take-off and landing and air flying are respectively realized through structures such as an electric ducted fan, a folding rotor wing and wheels, and the like, and the land-air flying automobile is required to have the characteristics of high power density, high power-weight ratio, convenience in action state switching and the like.
(II) technical scheme
In order to solve the technical problem, the invention provides an air-ground flying automobile, which comprises: the device comprises a vehicle body 1, a gas turbine power generation system 2, a folding power system, a front ducted fan system 4, wheels 5, a rear ducted fan 6 and a rear baffle; wherein the content of the first and second substances,
the gas turbine power generation system 2 comprises a plurality of gas turbine generator sets;
the folding power system comprises a plurality of folding power components;
the front ducted fan system 4 includes: a plurality of front ducted fans and an upper baffle;
in a land driving state, the front ducted fan system 4 is horizontally stacked at the vehicle head of the vehicle body 1, the upper baffle is positioned above the front ducted fans and closes the air channels of the front ducted fans, and the front ducted fans are all horizontally arranged; the rear ducted fan 6 is arranged at the tail of the vehicle body 1, and the rear baffle is positioned right behind the rear ducted fan 6 and closes an air duct of the rear ducted fan 6;
the folding power system is positioned in a cavity above a driver cabin of the vehicle body, a plurality of folding power components of the folding power system are respectively positioned at the edge of the driver cabin of the vehicle body, and the folding power system is in a storage state at the moment when the vehicle runs on land; two side surfaces of the driver cabin of the vehicle body are provided with elongated openings at positions corresponding to the plurality of folding power assemblies and used as channels for the conversion process between the storage state and the unfolding state of the folding power system;
a plurality of gas turbine generator sets of the gas turbine power generation system 2 are used for generating source power and simultaneously spraying gas backwards to increase the forward power of the vehicle; the electric energy generated by the gas turbine power generation system 2 is supplied to a wheel-side motor or a wheel-hub motor, so that the wheels 5 rotate to drive the vehicle to run;
the gas turbine power generation system 2 is controlled by a gas turbine power generation system controller 901, and a plurality of front ducted fans and a plurality of rear ducted fans 6 are correspondingly controlled by a plurality of front ducted fan controllers and a plurality of rear ducted fan controllers 904 respectively;
in the plurality of folding power assemblies and the plurality of wheel-side motors or wheel-hub motors, each folding power assembly and one wheel-side motor or wheel-hub motor form a group of shared control channels, and the power-on is controlled alternatively by one shared controller in a land driving state and a non-land driving state; in a land driving state, the shared controller controls the wheel-side motor or the wheel-hub motor to be electrified and operated; under the non-land driving state, the common controller controls the folding power assembly to be electrified and operated;
wherein the non-land driving state comprises a vertical take-off and landing state and a flight state.
The front ducted fan keeps the original position unchanged in a vertical lifting state, the number of the upper baffles is two, the upper baffles rotate respectively by taking two sides of the vehicle head as rotating shafts and rotate to a state vertical to the ground, and in the process, a channel of the front ducted fan is opened; the rear ducted fan 6 rotates around the upper edge of the tail of the vehicle in the anticlockwise direction to be parallel to the ground, meanwhile, two rear baffles are arranged, the two rear ducted fans 6 respectively rotate by taking the two sides of the rear ducted fan 6 as rotating shafts to be perpendicular to the ground, and in the process, the channel of the rear ducted fan 6 is opened;
at the moment, the two upper baffles and the two rear baffles are vertical to the ground, so that rising resistance cannot be generated, namely, the lift force generated by the front ducted fan system 4 and the rear ducted fan 6 cannot be weakened;
on a horizontal plane, through the elongated openings on the two sides of the vehicle body, the plurality of folding power assemblies horizontally rotate 90 degrees along a vertical shaft at the edge of the vehicle body, the folding power assemblies are changed from a storage state in the vehicle body to a horizontal unfolding state outside the vehicle body, and in the horizontal unfolding state, all the folding power assemblies are used for providing kinetic energy propelling force vertically downwards;
at the moment, all ducted fans and folding power components of the air-ground flying automobile are in a horizontal unfolding state, and the gas turbine power generation system 2 provides electric energy for the ducted fans and the folding power components, so that the air-ground flying automobile can be vertically lifted and landed.
At least one of the front ducted fans rotates by 90 degrees to be vertical to the ground from a vertical take-off and landing state to a flying state, and the two upper baffles rotate respectively by taking two sides of the vehicle head as rotating shafts and rotate to be parallel to the ground from a state of being vertical to the ground; the two rear baffles rotate by taking the two sides of the rear ducted fan 6 as rotating shafts respectively and rotate from a state of being vertical to the ground to a state of being parallel to the ground; at the moment, the two upper baffles, the two rear baffles and the ground are horizontal to play a role of a wing;
the folding power assemblies rotate 90 degrees along a horizontal shaft at the edge of the cavity of the vehicle body respectively, and change from a horizontal unfolding state to a vertical unfolding state, and in the vertical unfolding state, all the folding power assemblies are used for providing kinetic energy propelling force horizontally backwards;
at the moment, all ducted fans and folding power components of the air-ground flying automobile are in an unfolded state, the gas turbine power generation system 2 at the top of the air-ground flying automobile provides electric energy for the air-ground flying automobile, and the gas turbine in the gas turbine power generation system 2 sprays gas backwards, so that the forward power of the air-ground flying automobile is increased.
Wherein, the folding driving system is a folding ducted fan group 3 which comprises a plurality of folding ducted fans.
Wherein, folding duct fan group 3 contains four folding duct fans, divide into first folding duct fan 301, second folding duct fan 302, third folding duct fan 303, fourth folding duct fan 304, and under the state of traveling on land, be located left front side, left rear side, right front side, the right rear side in automobile body driver's cabin respectively.
Under the vertical take-off and landing state, on the horizontal plane, through the elongated openings on the two sides of the vehicle body, the first folded ducted fan 301 rotates 90 degrees clockwise along the vertical axis at the left front edge of the vehicle body cavity, the second folded ducted fan 302 rotates 90 degrees counterclockwise along the vertical axis at the left rear edge of the vehicle body cavity, the third folded ducted fan 303 rotates 90 degrees counterclockwise along the vertical axis at the right front edge of the vehicle body cavity, and the fourth folded ducted fan 304 rotates 90 degrees clockwise along the vertical axis at the right rear edge of the vehicle body cavity, and changes from the storage state to the horizontal unfolding state.
From the vertical take-off and landing state to the flying state, the first folded ducted fan 301 rotates 90 degrees clockwise along the horizontal axis at the left front edge of the vehicle body cavity, the second folded ducted fan 302 rotates 90 degrees counterclockwise along the horizontal axis at the left rear edge of the vehicle body cavity, the third folded ducted fan 303 rotates 90 degrees clockwise along the horizontal axis at the right front edge of the vehicle body cavity, and the fourth folded ducted fan 304 rotates 90 degrees counterclockwise along the horizontal axis at the right rear edge of the vehicle body cavity, and changes from the horizontal unfolding state to the vertical unfolding state.
Wherein, folding driving system is folding rotor group 8, and it contains the folding rotor of a plurality of.
Wherein the folding rotor group 8 comprises a first folding rotor 801, a second folding rotor 802, a third folding rotor 803, and a fourth folding rotor 804;
in a land driving state, the front side, the rear side, the front right side and the rear right side are respectively positioned in a driver cabin of a vehicle body;
in the vertical take-off and landing state, on the horizontal plane, through the elongated openings on the two sides of the vehicle body, the first folding rotor 801 rotates 90 degrees clockwise along the vertical axis at the left front edge of the vehicle body cavity, the second folding rotor 802 rotates 90 degrees counterclockwise along the vertical axis at the left rear edge of the vehicle body cavity, the third folding rotor 803 rotates 90 degrees counterclockwise along the vertical axis at the right front edge of the vehicle body cavity, the fourth folding rotor 804 rotates 90 degrees clockwise along the vertical axis at the right rear edge of the vehicle body cavity, and the storage state is changed into the horizontal unfolding state.
Wherein, from the vertical take-off and landing state to the flight state, the first folding rotor 801 rotates 90 degrees clockwise relative to the link with the vehicle body 1; the second folding rotor 802 rotates 90 ° counterclockwise with respect to its link with the vehicle body 1, the third folding rotor 803 rotates 90 ° clockwise with respect to its link with the vehicle body 1, and the fourth folding rotor 804 rotates 90 ° counterclockwise with respect to its link with the vehicle body 1, changing from the horizontally deployed state to the vertically deployed state.
(III) advantageous effects
Compared with the prior art, the invention has the following advantages:
(1) The invention provides an air-ground dual-purpose aerocar, which adopts a foldable ducted fan and a foldable rotor wing to provide lift force and thrust for vertical take-off, landing and flight states, reduces the volume of the whole aerocar and increases the compactness of the aerocar.
(2) The front duct fan and the rear duct fan of the air-ground flying car are both provided with the cover plates, so that dust accumulation is avoided in the ground driving state and the non-operating state, the cover plates are vertically prevented from generating large ascending resistance in the vertical take-off and landing state, and the cover plates are parallel in the flying state and serve as 'fixed wings' to enable the flying car to work more stably.
(3) The power system of the land-air dual-purpose aerocar adopts n small and medium-sized gas turbine generator sets, n can be determined according to the whole weight of the aerocar, the working number of the gas turbine generator sets is selected according to three action states of land driving, vertical take-off and landing and air flying, the flying or ground driving speed in different action states and the like, when a certain gas turbine generator set breaks down, the fault set can be removed through a control system, the normal stable action of the aerocar is ensured, and the reliability of equipment is greatly improved.
(4) The gas turbine generator set of the invention can provide power energy for the flying automobile, and simultaneously, as the gas turbine is arranged in the tail direction of the flying automobile, the turbine can provide propulsive force for the automobile in advancing and flying states during rotating operation, thus greatly improving the utilization rate of the energy.
(5) The wheel motor, the ducted fan and the rotor wing of the land-air dual-purpose hovercar share the motor controller, so that when three action states of land driving, vertical take-off and landing and air flight are switched, the working states of the wheel, the ducted fan and the rotor wing can be quickly and cooperatively controlled, the energy of the hovercar is maximally utilized, and the action states are quickly switched.
Drawings
Fig. 1 is a schematic structural diagram of a land-air flying vehicle (ducted fan) in the embodiment 1 in a land driving state;
fig. 2 is a schematic structural diagram of a land-air flying vehicle (ducted fan) in a vertical take-off and landing state according to embodiment 1;
fig. 3 is a schematic structural diagram of a flying state of an air-ground flying vehicle (ducted fan) in the embodiment 1;
fig. 4 is a schematic position diagram of a folding ducted fan of an air-ground flying vehicle (ducted fan) in the state of land driving according to embodiment 1;
FIG. 5 is a left side view of the flying state of the aeroamphibious aerocar (ducted fan) according to embodiment 1;
fig. 6 is a schematic structural diagram of a land-air flying vehicle (ducted fan + foldable rotor) in the present embodiment 2 in a land driving state;
fig. 7 is a schematic structural diagram of a land-air flying vehicle (ducted fan + folding rotor) in a vertical take-off and landing state according to embodiment 2;
fig. 8 is a schematic structural diagram of a flying state of an air-ground flying vehicle (ducted fan + foldable rotor) according to the embodiment 2;
fig. 9 is a schematic position diagram of a folding rotor of the aeroamphibious aerocar (ducted fan + folding rotor) according to embodiment 2 in a land driving state;
FIG. 10 is a left side view of the flying state of the aeroamphibious aerodyne (ducted fan + folding rotor) according to embodiment 2;
fig. 11 and 12 are schematic diagrams of electrical connections of an air-ground flying automobile according to the invention.
In the figure: 1: vehicle body, 2: gas turbine power generation system, 201: first combustion engine generator set, 202: second fuel generator set, 203: third combustion engine generator set, 204: fourth gas turbine generator set, 3: folding ducted fan set, 301: first folded ducted fan, 302: second folded ducted fan, 303: third folded ducted fan, 304: fourth folded ducted fan, 4: front ducted fan system, 401: first forward ducted fan, 402: second front ducted fan, 403: first upper baffle, 404: second upper baffle, 405: lower baffle, 5: wheel, 501: first hub (hub) motor, 502: second hub (hub) motor, 503: third hub (hub) motor, 504: fourth hub (hub) motor, 6: rear ducted fan, 7: set of tailgate, 701: first tailgate, 702: second tailgate, 8: folding rotor group, 801: first folding rotor, 802: second folding rotor, 803: third folding rotor, 804: fourth folding rotor, 901: gas turbine power generation system controller, 902: first forward ducted fan controller, 903: second forward ducted fan controller, 904: rear ducted fan controller, 905: first common controller, 906: second common controller, 907: third common controller, 908: and a fourth common controller.
Detailed Description
In order to make the objects, contents, and advantages of the present invention clearer, the following detailed description of the embodiments of the present invention will be made in conjunction with the accompanying drawings and examples.
In order to solve the above technical problem, the present invention provides an air-ground flying car, as shown in fig. 1 to 10, which comprises: the device comprises a vehicle body 1, a gas turbine power generation system 2, a folding power system, a front ducted fan system 4, wheels 5, a rear ducted fan 6 and a rear baffle; wherein the content of the first and second substances,
the gas turbine power generation system 2 comprises a plurality of gas turbine generator sets;
the folding power system comprises a plurality of folding power components;
the front ducted fan system 4 includes: a plurality of front ducted fans and an upper baffle;
in a land driving state, the front ducted fan system 4 is horizontally stacked at the vehicle head of the vehicle body 1, the upper baffle is positioned above the front ducted fans and closes the air channels of the front ducted fans, and the front ducted fans are all horizontally arranged; the rear ducted fan 6 is arranged at the tail of the vehicle body 1, and the rear baffle is positioned right behind the rear ducted fan 6 and closes an air channel of the rear ducted fan 6;
the folding power system is positioned in a cavity above a driver cabin of the vehicle body, a plurality of folding power components of the folding power system are respectively positioned at the edge of the driver cabin of the vehicle body, and the folding power system is in a storage state at the moment when the vehicle runs on land; two side surfaces of the driver cabin of the vehicle body are provided with elongated openings at positions corresponding to the plurality of folding power assemblies and used as channels for the conversion process between the storage state and the unfolding state of the folding power system;
the gas turbine power generation system 2 is characterized in that a plurality of gas turbine generator sets are used for generating source power and simultaneously spraying gas backwards to increase the forward power of the vehicle; the electric energy generated by the gas turbine power generation system 2 is supplied to a wheel-side motor or a wheel-hub motor, so that the wheels 5 rotate to drive the vehicle to run;
the gas turbine power generation system 2 is controlled by a gas turbine power generation system controller 901, and a plurality of front ducted fans and a plurality of rear ducted fans 6 are correspondingly controlled by a plurality of front ducted fan controllers and a plurality of rear ducted fan controllers 904 respectively;
in the plurality of folding power assemblies and the plurality of wheel-side motors or wheel-hub motors, each folding power assembly and one wheel-side motor or wheel-hub motor form a group of shared control channels, and the power-on is controlled alternatively by one shared controller in a land driving state and a non-land driving state; in a land driving state, the shared controller controls the wheel-side motor or the wheel-hub motor to be electrified and operated; under the non-land driving state, the common controller controls the folding power assembly to be electrified and operated;
wherein the non-land driving state comprises a vertical take-off and landing state and a flight state.
The front ducted fan keeps the original position unchanged in a vertical lifting state, the number of the upper baffles is two, the upper baffles rotate respectively by taking two sides of the vehicle head as rotating shafts and rotate to a state vertical to the ground, and in the process, a channel of the front ducted fan is opened; the rear ducted fan 6 rotates around the upper edge of the tail of the vehicle in the anticlockwise direction to be parallel to the ground, meanwhile, two rear baffles are arranged, the two rear ducted fans 6 respectively rotate by taking the two sides of the rear ducted fan 6 as rotating shafts to be perpendicular to the ground, and in the process, the channel of the rear ducted fan 6 is opened;
at the moment, the two upper baffles and the two rear baffles are vertical to the ground, so that ascending resistance cannot be generated, namely, the lifting force generated by the front ducted fan system 4 and the rear ducted fan 6 cannot be weakened;
on a horizontal plane, through the elongated openings on the two sides of the vehicle body, the plurality of folding power assemblies horizontally rotate 90 degrees along a vertical shaft at the edge of the vehicle body, the folding power assemblies are changed from a storage state in the vehicle body to a horizontal unfolding state outside the vehicle body, and in the horizontal unfolding state, all the folding power assemblies are used for providing kinetic energy propelling force vertically downwards;
at the moment, all ducted fans and folding power components of the air-ground flying automobile are in a horizontal unfolding state, and the gas turbine power generation system 2 provides electric energy for the ducted fans and the folding power components, so that the air-ground flying automobile can be vertically lifted and landed.
At least one of the front ducted fans rotates by 90 degrees to be vertical to the ground from a vertical take-off and landing state to a flying state, and the two upper baffles rotate respectively by taking two sides of the vehicle head as rotating shafts and rotate to be parallel to the ground from a state of being vertical to the ground; the two rear baffles rotate by taking the two sides of the ducted fan 6 as rotating shafts respectively and rotate from a state of being vertical to the ground to a state of being parallel to the ground; at the moment, the two upper baffles and the two rear baffles are horizontal to the ground and play a role of wings;
the folding power assemblies rotate 90 degrees along a horizontal shaft at the edge of the cavity of the vehicle body respectively, and change from a horizontal unfolding state to a vertical unfolding state, and in the vertical unfolding state, all the folding power assemblies are used for providing kinetic energy propelling force horizontally backwards;
at the moment, all ducted fans and folding power components of the air-ground flying automobile are in an unfolded state, the gas turbine power generation system 2 at the top of the air-ground flying automobile provides electric energy for the air-ground flying automobile, and the gas turbine in the gas turbine power generation system 2 sprays gas backwards, so that the forward power of the air-ground flying automobile is increased.
Wherein, the folding driving system is a folding ducted fan group 3 which comprises a plurality of folding ducted fans.
The folding ducted fan set 3 comprises four folding ducted fans which are divided into a first folding ducted fan 301, a second folding ducted fan 302, a third folding ducted fan 303 and a fourth folding ducted fan 304, and is respectively positioned on the left front side, the left rear side, the right front side and the right rear side in a cabin of a vehicle body driver in a land driving state.
Under the vertical take-off and landing state, on the horizontal plane, through the elongated openings on the two sides of the vehicle body, the first folded ducted fan 301 rotates 90 degrees clockwise along the vertical axis at the left front edge of the vehicle body cavity, the second folded ducted fan 302 rotates 90 degrees counterclockwise along the vertical axis at the left rear edge of the vehicle body cavity, the third folded ducted fan 303 rotates 90 degrees counterclockwise along the vertical axis at the right front edge of the vehicle body cavity, and the fourth folded ducted fan 304 rotates 90 degrees clockwise along the vertical axis at the right rear edge of the vehicle body cavity, and changes from the storage state to the horizontal unfolding state.
From a vertical take-off and landing state to a flying state, the first folded ducted fan 301 rotates 90 degrees clockwise along a horizontal axis at the left front edge of the vehicle body cavity, the second folded ducted fan 302 rotates 90 degrees anticlockwise along a horizontal axis at the left rear edge of the vehicle body cavity, the third folded ducted fan 303 rotates 90 degrees clockwise along a horizontal axis at the right front edge of the vehicle body cavity, the fourth folded ducted fan 304 rotates 90 degrees anticlockwise along a horizontal axis at the right rear edge of the vehicle body cavity, and the vertical unfolded state is changed from a horizontal unfolded state.
Wherein, folding driving system is folding rotor group 8, and it contains the folding rotor of a plurality of.
Wherein, the folding rotor group 8 comprises a first folding rotor 801, a second folding rotor 802, a third folding rotor 803, and a fourth folding rotor 804;
in a land driving state, the front side, the rear side, the front right side and the rear right side are respectively positioned in a driver cabin of a vehicle body;
in the vertical take-off and landing state, on the horizontal plane, through the elongated openings on the two sides of the vehicle body, the first folding rotor 801 rotates 90 degrees clockwise along the vertical axis at the left front edge of the vehicle body cavity, the second folding rotor 802 rotates 90 degrees counterclockwise along the vertical axis at the left rear edge of the vehicle body cavity, the third folding rotor 803 rotates 90 degrees counterclockwise along the vertical axis at the right front edge of the vehicle body cavity, the fourth folding rotor 804 rotates 90 degrees clockwise along the vertical axis at the right rear edge of the vehicle body cavity, and the storage state is changed into the horizontal unfolding state.
Wherein, from the vertical take-off and landing state to the flight state, the first folding rotor 801 rotates 90 degrees clockwise relative to the link with the vehicle body 1; the second folding rotor 802 rotates 90 ° counterclockwise with respect to its link with the vehicle body 1, the third folding rotor 803 rotates 90 ° clockwise with respect to its link with the vehicle body 1, and the fourth folding rotor 804 rotates 90 ° counterclockwise with respect to its link with the vehicle body 1, changing from the horizontally deployed state to the vertically deployed state.
Example 1
As shown in fig. 1-5, the present application provides an air-ground flying automobile (ducted fan), which includes an automobile body 1, a gas turbine power generation system 2, a folding ducted fan set 3, a front ducted fan system 4, wheels 5, a rear ducted fan 6, and a rear baffle set 7; wherein the content of the first and second substances,
the gas turbine power generation system 2 comprises a first gas turbine generator set 201, a second gas turbine generator set 202, a third gas turbine generator set 203 and a fourth gas turbine generator set 204;
the folding ducted fan set 3 comprises a first folding ducted fan 301, a second folding ducted fan 302, a third folding ducted fan 303 and a fourth folding ducted fan 304;
the front ducted fan system 4 includes: a first front ducted fan 401, a second front ducted fan 402, a first upper baffle 403, a second upper baffle 404, a lower baffle 405;
the rear baffle group 7 comprises a first rear baffle 701 and a second rear baffle 702;
as shown in fig. 1, in a land driving state, the first front ducted fan 401 and the second front ducted fan 402 are horizontally stacked at the head of the vehicle body 1 of the air-ground flying vehicle, the first upper baffle 403 and the second upper baffle 404 are closed and located right above the first front ducted fan 401 and the second front ducted fan 402, and the lower baffle 405 is located right below the first front ducted fan 401 and the second front ducted fan 402; the rear duct fan 6 is arranged at the tail of the body 1 of the air-ground flying automobile, the first rear baffle 701 and the second rear baffle 702 which are comprised by the rear baffle group 7 are positioned right behind the rear duct fan 6, and all the baffles are used for preventing dust from entering the duct fan and reducing the resistance in a land driving state;
as shown in fig. 4, the folded ducted fan set 3 is located in a cavity above a vehicle body driver cabin, a first folded ducted fan 301, a second folded ducted fan 302, a third folded ducted fan 303, and a fourth folded ducted fan 304 included in the folded ducted fan set 3 are respectively located on a left front side, a left rear side, a right front side, and a right rear side in the vehicle body driver cabin, and in a land driving state, the folded ducted fan set 3 is in a storage state at this time; the positions of the two side surfaces of the vehicle body driver cabin, which correspond to the first folded ducted fan 301, the second folded ducted fan 302, the third folded ducted fan 303 and the fourth folded ducted fan 304, are provided with elongated openings which are used as channels for the conversion process between the storage state and the expansion state of the folded ducted fan set 3;
as shown in fig. 1, the first gas turbine generator set 201, the second gas turbine generator set 202, the third gas turbine generator set 203, and the fourth gas turbine generator set 204 included in the gas turbine power generation system 2 are fixed to the roof of the air-ground hovercar and arranged in this order. The gas turbine in the gas turbine power generation system 2 is positioned behind the generator and used for generating source power and simultaneously spraying gas backwards, so that the forward power of the vehicle is increased; the electric energy generated by the gas turbine power generation system 2 is supplied to a wheel-side motor or a wheel-hub motor, so that the wheels 5 rotate to drive the vehicle to run;
as shown in fig. 2, in a vertical take-off and landing state, a first front ducted fan 401 and a second front ducted fan 402 of the air-ground hovercar keep the original positions unchanged, a lower baffle 405 moves backward, a first upper baffle 403 and a second upper baffle 404 respectively rotate by taking two sides of a vehicle head as rotating shafts, the first upper baffle 403 rotates clockwise 270 degrees and the second upper baffle 404 rotates counterclockwise 270 degrees when viewed from the direction from the vehicle tail to the vehicle head; the rear ducted fan 6 rotates around the upper edge of the tail part of the vehicle in the anticlockwise direction to be parallel to the ground
Meanwhile, the first rear baffle 701 and the second rear baffle 702 rotate respectively by taking two 5 sides of the rear ducted fan 6 as rotating shafts to be vertical to the ground, the first rear baffle 701 rotates anticlockwise by 270 degrees when viewed from the tail of the vehicle to the head of the vehicle, and the second rear baffle 702 rotates clockwise by 270 degrees;
at this time, the first top flap 403, the second top flap 404, the first rear flap 701, and the second rear flap 702 are perpendicular to the ground, and do not generate an ascending resistance, that is, do not weaken the lift force generated by the front ducted fan 0 fan system 4 and the rear ducted fan 6.
As shown in fig. 2, the first folded ducted fan 301 is rotated 90 degrees clockwise along the vertical axis at the left front edge of the cavity of the vehicle body and the second folded ducted fan 302 is rotated counterclockwise along the vertical axis at the left rear edge of the cavity of the vehicle body through the elongated openings at both sides of the vehicle body in the horizontal plane
The third folded ducted fan 303 is rotated 90 degrees counterclockwise along the vertical axis 5 at the right front edge of the vehicle body cavity, the fourth folded ducted fan 304 is rotated 90 degrees clockwise along the vertical axis at the right rear edge of the vehicle body cavity, and the stowed state shown in fig. 4 is changed to the horizontally deployed state shown in fig. 2; at this time, all ducted fans of the air-ground hovercar are in a horizontal unfolded state, and the gas turbine power generation system 2 at the top of the air-ground hovercar provides the ducted fans for the air-ground hovercar
The electric energy enables the air-ground flying automobile to realize vertical take-off and landing, and the take-off and landing area of the air-ground flying 0 automobile on the road is very small, so that the rapid switching of the action state of narrow roads and spaces can be met.
As shown in FIG. 3, from the VTOL state to the flight state, the first front ducted fan 401 of the aeroamphibious aerobus keeps the original position unchanged, and the second front ducted fan 402 keeps the counterclockwise
The first upper baffle 403 and the second upper baffle 404 rotate by 90 degrees and are vertical to the ground, the two sides of the head of the vehicle 5 are taken as rotating shafts to rotate from a state of being vertical to the ground to a state of being parallel to the ground,
when viewed from the direction from the tail to the head, the first upper baffle 403 on the right side rotates anticlockwise by 90 degrees, and the second upper baffle 404 on the left side rotates clockwise by 90 degrees; the first rear baffle 701 and the second rear baffle 702 rotate respectively by taking two sides of the rear ducted fan 6 as rotating shafts, the first rear baffle 701 rotates clockwise from a state vertical to the ground to a state parallel to the ground, and the first rear baffle 701 on the left side rotates 90 degrees and the second rear baffle 702 rotates 90 degrees anticlockwise when viewed from the tail of the vehicle to the head of the vehicle; at this time, the first top board 403, the second top board 404, the first rear board 701 and the second rear board 702 are horizontal to the ground and play a role of 'wings', and the 'wings' are not unfolded in a vertical take-off and landing state, so that the floor area of the land-air flying automobile on the ground is reduced.
As shown in fig. 3, the first folded ducted fan 301 is rotated 90 ° clockwise along the horizontal axis at the left front edge of the vehicle body cavity, the second folded ducted fan 302 is rotated 90 ° counterclockwise along the horizontal axis at the left rear edge of the vehicle body cavity, the third folded ducted fan 303 is rotated 90 ° clockwise along the horizontal axis at the right front edge of the vehicle body cavity, and the fourth folded ducted fan 304 is rotated 90 ° counterclockwise along the horizontal axis at the right rear edge of the vehicle body cavity, from the horizontally unfolded state shown in fig. 2 to the vertically unfolded state shown in fig. 3. At the moment, all ducted fans of the air-ground aerocar are in a developed state, the gas turbine power generation system 2 at the top of the air-ground aerocar provides electric energy for the fans, and the gas turbine in the gas turbine power generation system 2 sprays gas backwards, so that the forward power of the air-ground aerocar is increased.
As shown in fig. 11 and 12, the gas turbine power generation system 2 of the hovercar (ducted fan) for land and air in the present embodiment is controlled by a gas turbine power generation system controller 901, and the first front ducted fan 401, the second front ducted fan 402, and the rear ducted fan 6 are controlled by a first front ducted fan controller 902, a second front ducted fan controller 903, and a rear ducted fan controller 904, respectively. The first common controller 905 may control the first folded ducted fan 301 and the first hub (hub) motor 501, the second common controller 906 may control the second folded ducted fan 302 and the second hub (hub) motor 502, the third common controller 907 may control the third folded ducted fan 303 and the third hub (hub) motor 503, and the fourth common controller 908 may control the fourth folded ducted fan 304 and the fourth hub (hub) motor 504. When the air-land aerocar is in a vertical take-off and landing state or a flight state, the control system electrical circuit is as shown in fig. 11, the first shared controller 905, the second shared controller 906, the third shared controller 907 and the fourth shared controller 908 respectively control the first folded ducted fan 301, the second folded ducted fan 302, the third folded ducted fan 303 and the fourth folded ducted fan 304 to change the flight attitude, and when the air-land aerocar is in a land driving state, the control system electrical circuit is as shown in fig. 12, the first shared controller 905, the second shared controller 906, the third shared controller 907 and the fourth shared controller 908 respectively control the first hub (wheel side) motor 501, the second hub (wheel side) motor 502, the third hub (wheel side) motor 503 and the fourth hub (wheel side) motor 504 to complete the change of the land driving state.
Example 2
As shown in fig. 6-10, the present embodiment provides an air-ground flying automobile (ducted fan + folding rotor), which includes an automobile body 1, a gas turbine power generation system 2, a front ducted fan system 4, wheels 5, a rear ducted fan 6, a rear baffle group 7, and a folding rotor group 8; wherein the content of the first and second substances,
the gas turbine power generation system 2 comprises a first gas turbine generator set 201, a second gas turbine generator set 202, a third gas turbine generator set 203 and a fourth gas turbine generator set 204;
the front ducted fan system 4 includes: a first front ducted fan 401, a second front ducted fan 402, a first upper baffle 403, a second upper baffle 404, a lower baffle 405;
the rear baffle group 7 comprises a first rear baffle 701 and a second rear baffle 702;
the folding rotor group 8 comprises a first folding rotor 801, a second folding rotor 802, a third folding rotor 803 and a fourth folding rotor 804;
as shown in fig. 6, in a land driving state, the first front ducted fan 401 and the second front ducted fan 402 are horizontally stacked at the head of the body 1 of the air-ground hovercar, the first top flap 403 and the second top flap 404 are closed and located right above the first front ducted fan 401 and the second front ducted fan 402, and the lower flap 405 is located right below the first front ducted fan 401 and the second front ducted fan 402; the rear ducted fan 6 is arranged at the tail of the body 1 of the air-ground flying automobile, the first rear baffle 701 and the second rear baffle 702 which are included in the rear baffle group 7 are positioned right behind the rear ducted fan 6, and all the baffles are used for preventing dust from entering the ducted fan and reducing the resistance in a land driving state;
as shown in fig. 9, the foldable rotor group 8 is located in a cavity above a vehicle body driver's cabin, and a first foldable rotor 801, a second foldable rotor 802, a third foldable rotor 803, and a fourth foldable rotor 804 included in the foldable rotor group 8 are respectively located on a left front side, a left rear side, a right front side, and a right rear side in the vehicle body driver's cabin, and at this time, the foldable rotor group 8 is in a storage state; in addition, strip-shaped openings are formed in the two side surfaces of the vehicle body driver cabin, corresponding to the first folding rotor wing 801, the second folding rotor wing 802, the third folding rotor wing 803 and the fourth folding rotor wing 804, and are used as channels for the conversion process between the storage state and the unfolding state of the folding rotor wing group 8;
as shown in fig. 6, the first gas turbine generator set 201, the second gas turbine generator set 202, the third gas turbine generator set 203, and the fourth gas turbine generator set 204 included in the gas turbine power generation system 2 are fixed to the roof of the air-ground hovercar and arranged in this order. The gas turbine in the gas turbine power generation system 2 is positioned behind the generator, and can generate source power and simultaneously spray gas backwards, so that the forward power of a vehicle is increased; the electric energy generated by the gas turbine power generation system 2 is supplied to a wheel-side motor or a wheel-hub motor, so that the wheels 5 rotate to drive the vehicle to run;
as shown in fig. 7, in a vertical take-off and landing state, a first front ducted fan 401 and a second front ducted fan 402 of the air-ground hovercar keep the original positions unchanged, a lower baffle 405 moves backward, a first upper baffle 403 and a second upper baffle 404 respectively rotate by taking two sides of a vehicle head as rotating shafts, the first upper baffle 403 rotates clockwise 270 degrees and the second upper baffle 404 rotates counterclockwise 270 degrees when viewed from the direction from the vehicle tail to the vehicle head; the rear ducted fan 6 rotates around the upper edge of the tail of the vehicle in the anticlockwise direction to be parallel to the ground, meanwhile, the first rear baffle 701 and the second rear baffle 702 rotate respectively by taking the two sides of the rear ducted fan 6 as rotating shafts to be perpendicular to the ground, and when the vehicle is observed from the tail of the vehicle to the head of the vehicle, the first rear baffle 701 rotates in the anticlockwise direction of 270 degrees, and the second rear baffle 702 rotates in the clockwise direction of 270 degrees;
at this time, the first top baffle 403, the second top baffle 404, the first rear baffle 701, and the second rear baffle 702 are perpendicular to the ground, and do not generate lift resistance, that is, do not weaken the lift force generated by the front ducted fan system 4 and the rear ducted fan 6.
As shown in fig. 7, in the horizontal plane, through the elongated openings on both sides of the vehicle body, the first folding rotor 801 rotates 90 ° clockwise along the vertical axis at the left front edge of the vehicle body cavity, the second folding rotor 802 rotates 90 ° counterclockwise along the vertical axis at the left rear edge of the vehicle body cavity, the third folding rotor 803 rotates 90 ° counterclockwise along the vertical axis at the right front edge of the vehicle body cavity, and the fourth folding rotor 804 rotates 90 ° clockwise along the vertical axis at the right rear edge of the vehicle body cavity, and the stowed state shown in fig. 9 is changed to the horizontally deployed state shown in fig. 7. At the moment, all ducted fans and rotors of the air-ground flying automobile are in an unfolded state, and the gas turbine power generation system 2 at the top of the air-ground flying automobile provides electric energy for the fans and the rotors, so that the air-ground flying automobile can take off and land vertically, the take-off and landing area of the air-ground flying automobile on the road is very small, and the action state quick switching of narrow roads and spaces can be met.
As shown in fig. 8, from a vertical take-off and landing state to a flying state, a first front ducted fan 401 of the air-ground hovercar keeps the original position unchanged, a second front ducted fan 402 rotates 90 degrees counterclockwise and is perpendicular to the ground, a first top flap 403 and a second top flap 404 rotate respectively by taking two sides of the vehicle head as rotating shafts, the first top flap 403 on the right rotates 90 degrees counterclockwise and the second top flap 404 on the left rotates 90 degrees clockwise when viewed from the direction from the vehicle tail to the vehicle head, and the second top flap 403 on the right rotates 90 degrees clockwise when viewed from the direction from the vehicle tail to the vehicle head; the first rear baffle 701 and the second rear baffle 702 respectively rotate by taking two sides of the rear ducted fan 6 as rotating shafts, the first rear baffle 701 on the left side rotates clockwise by 90 degrees and the second rear baffle 702 on the right side rotates anticlockwise by 90 degrees when being observed from the tail of the vehicle to the head of the vehicle from a state of being vertical to the ground to a state of being parallel to the ground; at this time, the first top board 403, the second top board 404, the first rear board 701 and the second rear board 702 are horizontal to the ground and play a role of 'wings', and the 'wings' are not unfolded in a vertical take-off and landing state, so that the floor area of the land-air flying automobile on the ground is reduced.
As shown in fig. 8, the first folding rotor 801 is rotated 90 ° clockwise with respect to its connection to the body 1; the second folding rotor 802 rotates 90 ° counterclockwise with respect to its link with the vehicle body 1, the third folding rotor 803 rotates 90 ° clockwise with respect to its link with the vehicle body 1, and the fourth folding rotor 804 rotates 90 ° counterclockwise with respect to its link with the vehicle body 1, changing from the horizontally deployed state shown in fig. 7 to the vertically deployed state shown in fig. 8. At the moment, all ducted fans of the air-ground aerocar are in a developed state, the gas turbine power generation system 2 at the top of the air-ground aerocar provides electric energy for the fans, and the gas turbine in the gas turbine power generation system 2 sprays gas backwards, so that the forward power of the air-ground aerocar is increased.
As shown in fig. 11 and 12, the gas turbine power generation system 2 of the hovercar (ducted fan + folding rotor) according to the present embodiment is controlled by a gas turbine power generation system controller 901, and the first front ducted fan 401, the second front ducted fan 402, and the rear ducted fan 6 are controlled by a first front ducted fan controller 902, a second front ducted fan controller 903, and a rear ducted fan controller 904, respectively. A first common controller 905 may control the first folded rotor 801 and the first hub (wheel-side) motor 501, a second common controller 906 may control the second folded rotor 802 and the second hub (wheel-side) motor 502, a third common controller 907 may control the third folded rotor 803 and the third hub (wheel-side) motor 503, and a fourth common controller 908 may control the fourth folded rotor 804 and the fourth hub (wheel-side) motor 504. When the air-ground flying vehicle is in a vertical take-off and landing state or a flying state, the control system electrical circuits are as shown in fig. 11, the first shared controller 905, the second shared controller 906, the third shared controller 907 and the fourth shared controller 908 respectively control the first folding rotor 801, the second folding rotor 802, the third folding rotor 803 and the fourth folding rotor 804 to change the flying attitude, and when the air-ground flying vehicle is in a land driving state, the control system electrical circuits are as shown in fig. 12, the first shared controller 905, the second shared controller 906, the third shared controller 907 and the fourth shared controller 908 respectively control the first hub (wheel edge) motor 501, the second hub (wheel edge) motor 502, the third hub (wheel edge) motor 503 and the fourth hub (wheel edge) motor 504 to complete the change of the land driving state.
Folding duct fan assembly 3 is compared in folding rotor group 8 possesses stronger flexibility, simple structure, and accessible rotor angle changes and adjusts the flight direction of land and air dual-purpose hovercar at flight status in a flexible way, but folding duct fan assembly 3 is because there is the protection of duct for it is safer, long service life, because the leaf point department is restricted by the duct, the impulsive noise reduces, and the induced resistance reduces, and efficiency is higher. At the same power consumption, the folded ducted fan assembly 3 generates more thrust than the folded rotor assembly 8 of the same diameter.
Therefore, different combinations should be selected according to actual needs.
In the description of the embodiments of the present invention, it should be noted that the terms "left", "right", "front" and "rear" used herein refer to the orientation of the driver, and the "upper", "lower", "vertical", "horizontal", "inner" and "outer" and other indicated orientations or positional relationships are based on the orientations or positional relationships shown in the drawings or the orientations or positional relationships which are usually placed when the product of the present invention is used, and are only used for convenience of describing the present invention and simplifying the description, but do not indicate or imply that the indicated device or element must have a specific orientation, be configured and operated in a specific orientation, and thus, should not be construed as limiting the present invention. Furthermore, the terms "first," "second," "third," and the like are used solely to distinguish one from another and are not to be construed as indicating or implying relative importance. In the description of the embodiments of the present invention, "a plurality" represents at least 2. In the description of the embodiments of the present invention, it should be further noted that unless otherwise explicitly stated or limited, the terms "disposed," "mounted," and "connected" should be interpreted broadly, and may be, for example, fixedly connected, detachably connected, or integrally connected; can be mechanically or electrically connected; they may be connected directly or indirectly through intervening media, or they may be interconnected between two elements. The specific meanings of the above terms in the present invention can be understood by those skilled in the art according to specific situations.
The above description is only a preferred embodiment of the present invention, and it should be noted that, for those skilled in the art, it is possible to make various improvements and modifications without departing from the technical principle of the present invention, and those improvements and modifications should be considered as the protection scope of the present invention.

Claims (10)

1. An air-ground flying automobile, characterized in that it comprises: the power generation system comprises a vehicle body (1), a gas turbine power generation system (2), a folding power system, a front ducted fan system (4), wheels (5), a rear ducted fan (6) and a rear baffle plate; wherein, the first and the second end of the pipe are connected with each other,
the gas turbine power generation system (2) comprises a plurality of gas turbine generator sets;
the folding power system comprises a plurality of folding power components;
the ducted front fan system (4) comprises: a plurality of front ducted fans and an upper baffle;
in a land driving state, the front ducted fan system (4) is horizontally arranged at the vehicle head of the vehicle body (1) in a stacking mode, the upper baffle is located above the front ducted fans and closes air ducts of the front ducted fans, and the front ducted fans are all arranged horizontally; the rear ducted fan (6) is arranged at the tail of the vehicle body (1), the rear baffle is positioned right behind the rear ducted fan (6) and closes an air channel of the rear ducted fan (6);
the folding power system is positioned in a cavity above a driver cabin of the vehicle body, a plurality of folding power components of the folding power system are respectively positioned at the edge of the driver cabin of the vehicle body, and the folding power system is in a storage state at the moment when the vehicle runs on land; two side surfaces of the driver cabin of the vehicle body are provided with elongated openings at positions corresponding to the plurality of folding power assemblies and used as channels for the conversion process between the storage state and the unfolding state of the folding power system;
a plurality of gas turbine generator sets of the gas turbine power generation system (2) are used for generating source power and simultaneously spraying gas backwards to increase the forward power of a vehicle; the electric energy generated by the gas turbine power generation system (2) is supplied to a wheel-side motor or a hub motor, so that wheels (5) rotate to drive a vehicle to run;
the gas turbine power generation system (2) is controlled by a gas turbine power generation system controller (901), and the plurality of front ducted fans and the plurality of rear ducted fans (6) are respectively and correspondingly controlled by the plurality of front ducted fan controllers and the plurality of rear ducted fan controllers (904);
in the plurality of folding power assemblies and the plurality of wheel-side motors or hub motors, each folding power assembly and one wheel-side motor or hub motor form a group of shared control channels, and the power-on is controlled alternatively by a shared controller in a land driving state and a non-land driving state; in a land driving state, the shared controller controls the wheel-side motor or the wheel-hub motor to be electrified and operated; under the non-land driving state, the common controller controls the folding power assembly to be electrified and operated;
the non-land driving state comprises a vertical take-off and landing state and a flying state.
2. The air-ground flying automobile according to claim 1, wherein the front ducted fan keeps the original position unchanged in the vertical take-off and landing state, the two upper baffles are respectively rotated by taking the two sides of the automobile head as rotating shafts to be vertical to the ground, and in the process, the channel of the front ducted fan is opened; the rear ducted fan (6) rotates around the upper edge of the tail of the vehicle in the anticlockwise direction to be parallel to the ground, meanwhile, two rear baffles are arranged, the two rear ducted fans (6) respectively rotate by taking the two sides of the rear ducted fan (6) as rotating shafts to be perpendicular to the ground, and in the process, a channel of the rear ducted fan (6) is opened;
at the moment, the two upper baffles and the two rear baffles are vertical to the ground, so that rising resistance cannot be generated, namely, the lifting force generated by the front ducted fan system (4) and the rear ducted fan (6) cannot be weakened;
on a horizontal plane, through the elongated openings on the two sides of the vehicle body, the plurality of folding power assemblies horizontally rotate 90 degrees along a vertical shaft at the edge of the vehicle body, the folding power assemblies are changed from a storage state in the vehicle body to a horizontal unfolding state outside the vehicle body, and in the horizontal unfolding state, all the folding power assemblies are used for providing kinetic energy propelling force vertically downwards;
at the moment, all ducted fans and folding power components of the air-ground flying automobile are in a horizontal unfolding state, and the gas turbine power generation system (2) provides electric energy for the ducted fans and the folding power components, so that the air-ground flying automobile can be vertically lifted.
3. The air-ground flying automobile according to claim 1, wherein at least one of the front ducted fans rotates 90 ° to be perpendicular to the ground from a vertical takeoff and landing state to a flying state, and the two upper baffles rotate respectively with both sides of the automobile head as rotating shafts and rotate from a state of being perpendicular to the ground to a state of being parallel to the ground; the two rear baffles rotate by taking the two sides of the rear duct fan (6) as rotating shafts respectively and rotate from a state of being vertical to the ground to a state of being parallel to the ground; at the moment, the two upper baffles, the two rear baffles and the ground are horizontal to play a role of a wing;
the folding power assemblies respectively rotate 90 degrees along a horizontal shaft at the edge of a cavity of the vehicle body, and are changed from a horizontal unfolding state to a vertical unfolding state, and in the vertical unfolding state, all the folding power assemblies are used for providing kinetic energy propelling force in the horizontal direction and the backward direction;
at the moment, all ducted fans and folding power components of the air-ground flying automobile are in an unfolded state, a gas turbine power generation system (2) on the top of the air-ground flying automobile provides electric energy for the fans and the folding power components, and a gas turbine in the gas turbine power generation system (2) sprays gas backwards, so that the forward power of the air-ground flying automobile is increased.
4. An airphibious hovercar as claimed in claim 3, wherein said folding power system is a folding ducted fan group (3) comprising a plurality of folding ducted fans.
5. The land-air flying automobile as claimed in claim 4, wherein the folding ducted fan set (3) comprises four folding ducted fans, which are divided into a first folding ducted fan (301), a second folding ducted fan (302), a third folding ducted fan (303) and a fourth folding ducted fan (304), and are respectively positioned at the left front side, the left rear side, the right front side and the right rear side in the cabin of the automobile body driver in a land driving state.
6. An aeroamphibious flying car as claimed in claim 5, wherein in the vertical take-off and landing state, through the elongated openings on both sides of the car body on the horizontal plane, said first folded ducted fan (301) rotates clockwise 90 ° along the vertical axis at the left front edge of the car body cavity, said second folded ducted fan (302) rotates counterclockwise 90 ° along the vertical axis at the left rear edge of the car body cavity, said third folded ducted fan (303) rotates counterclockwise 90 ° along the vertical axis at the right front edge of the car body cavity, said fourth folded ducted fan (304) rotates clockwise 90 ° along the vertical axis at the right rear edge of the car body cavity, and changes from the stowed state to the horizontally deployed state.
7. The amphibious flying automobile of claim 6, wherein from a VTOL state to a flying state, the first folded ducted fan (301) rotates clockwise 90 ° along a horizontal axis at the left front edge of the cavity, the second folded ducted fan (302) rotates counterclockwise 90 ° along a horizontal axis at the left rear edge of the cavity, the third folded ducted fan (303) rotates clockwise 90 ° along a horizontal axis at the right front edge of the cavity, the fourth folded ducted fan (304) rotates counterclockwise 90 ° along a horizontal axis at the right rear edge of the cavity, and the state is changed from a horizontally unfolded state to a vertically unfolded state.
8. An air-ground flying vehicle according to claim 3, wherein the folding power system is a folding rotor group (8) comprising a plurality of folding rotors.
9. An air-ground flying vehicle according to claim 8, wherein the folding rotor set (8) comprises a first folding rotor (801), a second folding rotor (802), a third folding rotor (803) and a fourth folding rotor (804);
in a land driving state, the front side, the rear side, the front right side and the rear right side are respectively positioned in a driver cabin of a vehicle body;
under the VTOL state, on the horizontal plane, through the rectangular shape opening of automobile body both sides, first folding rotor (801) rotate 90 along the vertical axis clockwise at automobile body cavity left side front edge, second folding rotor (802) rotate 90 along the vertical axis counter-clockwise at automobile body cavity left side back edge, third folding rotor (803) rotate 90 along the vertical axis counter-clockwise at automobile body cavity right side front edge, fourth folding rotor (804) rotate 90 along the vertical axis clockwise at automobile body cavity right side back edge, become the horizontal state of expanding from the state of accomodating.
10. An air-ground flying automobile according to claim 9, wherein the first folding rotor (801) rotates 90 ° clockwise with respect to its link with the automobile body (1) from a vertical takeoff and landing position to a flying position; the second folding rotor (802) rotates 90 degrees anticlockwise relative to the connecting rod of the second folding rotor (802) and the vehicle body (1), the third folding rotor (803) rotates 90 degrees clockwise relative to the connecting rod of the third folding rotor and the vehicle body (1), the fourth folding rotor (804) rotates 90 degrees anticlockwise relative to the connecting rod of the fourth folding rotor and the vehicle body (1), and the horizontal unfolding state is changed into the vertical unfolding state.
CN202211544092.0A 2022-12-01 Land-air dual-purpose aerocar Active CN115723492B (en)

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