CN207829569U - UAV Intelligent hangar - Google Patents
UAV Intelligent hangar Download PDFInfo
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- CN207829569U CN207829569U CN201820181951.7U CN201820181951U CN207829569U CN 207829569 U CN207829569 U CN 207829569U CN 201820181951 U CN201820181951 U CN 201820181951U CN 207829569 U CN207829569 U CN 207829569U
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Abstract
This disclosure relates to which a kind of UAV Intelligent hangar, is related to unmanned plane field, the UAV Intelligent hangar includes：Unmanned plane stores cabin, and for storing an at least unmanned plane, unmanned plane storage cabin has hatch door；Hatch door control module, the opening and closing for controlling the hatch door, so that the unmanned plane can fly out or fly into unmanned plane storage cabin；Unmanned plane launching platform is used as the carrying platform of the unmanned plane takeoff and landing.In this way, unmanned plane launching platform is set, unmanned plane can take off from intelligent hangar in and on the launching platform before starting inspection, it can drop on the launching platform and returned in the intelligence hangar after terminating inspection, in this way, it is to ensure that unmanned plane completes inspection work without manual intervention, and ensure that the storage of unmanned plane.
Description
Technical field
This disclosure relates to unmanned plane field, and in particular, to a kind of UAV Intelligent hangar.
Background technology
Unmanned plane replaces manpower to carry out the application that the inspection in various fields works, very extensive at this stage.Nothing
Man-machine to replace manpower that the region more severe to environment is gone to carry out inspection, efficiency is than human inspection higher, and cost is lower.
But at present after carrying out inspection using unmanned plane and terminating, in terms of the recycling for unmanned plane, and maintenance and storage, equipment is also
It is not perfect, artificial intervention is needed, such as need that the unmanned plane after recycling is artificially put into the warehouse for storing unmanned plane
In, the warehouse for always needing operation people to show up, and being used to store unmanned plane in the prior art can only accomplish the function of storage, without energy
Platform enough as unmanned plane takeoff and landing cannot directly meet in unmanned plane inspection and be returned after taking off and landing in warehouse
To the whole flow process stored in warehouse, the automation of unmanned plane cruising inspection system can not be thus fully achieved.
Utility model content
Purpose of this disclosure is to provide a kind of UAV Intelligent hangar, which can complete in unmanned plane
After inspection, the recycling and storage to unmanned plane are completed without manual intervention.
To achieve the goals above, the disclosure provides a kind of UAV Intelligent hangar, and the intelligence hangar includes：
Unmanned plane stores cabin, and for storing an at least unmanned plane, unmanned plane storage cabin has hatch door；
Hatch door control module, the opening and closing for controlling the hatch door so that the unmanned plane can fly out or fly into it is described
Unmanned plane stores cabin；
Unmanned plane launching platform is used as the carrying platform of the unmanned plane takeoff and landing.
Optionally, the hatch door control module is used to communicate to connect with external control device, according to the external control dress
The control instruction for setting transmission controls the opening and closing of the hatch door.
Optionally, the intelligent hangar further includes detection of obstacles module, and the detection of obstacles module is arranged described
On hatch door or around, for detecting whether there are obstacles around the hatch door；
The hatch door control module is communicated to connect with the detection of obstacles module, for according to the detection of obstacles mould
The testing result of block controls the opening and closing of the hatch door.
Optionally, the hatch door be it is multiple, wherein a part of hatch door be arranged the unmanned plane store cabin side, one
The top that cabin is stored in the unmanned plane is arranged in part hatch door.
Optionally, the intelligent hangar further includes unmanned plane cell tube stowing, the battery for storing the unmanned plane.
Optionally, the unmanned plane cell tube stowing further includes battery charging and discharging device, for detecting the unmanned plane
The remaining capacity of battery, and charging operations are carried out to the battery when the remaining capacity is less than predetermined threshold value, so that described
The electricity of battery maintains the predetermined threshold value or more.
Optionally, the intelligent hangar further includes ambient condition detection device, for detecting the ring in the intelligent hangar
Border status information；
Ambient condition regulating device, for the ambient condition in the intelligent hangar to be adjusted.
Optionally, the ambient condition detection device includes temperature-detecting device and/or humidity detector；The environment
Status condition device includes temperature-adjusting device and/or humidity control apparatus.
Optionally, the ambient condition detection device is additionally operable to communicate to connect with external control device, for that will detect
The environmental state information be sent to the external control device；
The ambient condition regulating device is additionally operable to communicate to connect with the external control device, for according to the outside
The ambient condition in the intelligent hangar is adjusted in the regulating command that control device is sent.
Optionally, be provided in the unmanned plane storage cabin multi-rotor unmanned aerial vehicle storage rack, fixed-wing unmanned plane storage rack,
At least one of unmanned helicopter storage rack, composite wing unmanned plane storage rack, tilting rotor wing unmanned aerial vehicle storage rack.
Through the above technical solutions, setting unmanned plane launching platform, unmanned plane can be before starting inspection from intelligent machine
It sets out in library and takes off on the launching platform, can be drop on the launching platform after terminating inspection and return to the intelligence
In hangar, in this way, it is possible to ensure that unmanned plane completes inspection work without manual intervention, and unmanned plane ensure that
Storage.
Other feature and advantage of the disclosure will be described in detail in subsequent specific embodiment part.
Description of the drawings
Attached drawing is for providing further understanding of the disclosure, and a part for constitution instruction, with following tool
Body embodiment is used to explain the disclosure together, but does not constitute the limitation to the disclosure.In the accompanying drawings：
Fig. 1 is a kind of flow chart of unmanned plane inspection control method shown according to one exemplary embodiment of the disclosure.
Fig. 2 is a kind of schematic diagram of UAV Intelligent hangar shown according to one exemplary embodiment of the disclosure.
Fig. 3 be in a kind of unmanned plane inspection control method shown according to one exemplary embodiment of the disclosure control targe without
The flow chart of the man-machine method taken off from intelligent hangar.
Fig. 4 is control targe in a kind of unmanned plane inspection control method shown according to disclosure another exemplary embodiment
The flow chart for the method that unmanned plane takes off from intelligent hangar.
Fig. 5 is terminated in inspection in a kind of unmanned plane inspection control method shown according to one exemplary embodiment of the disclosure
Control targe unmanned plane drop to the flow chart of the method in intelligent hangar afterwards.
Fig. 6 is in a kind of unmanned plane inspection control method shown according to disclosure another exemplary embodiment in inspection knot
Control targe unmanned plane drop to the flow chart of the method in intelligent hangar after beam.
Fig. 7 is a kind of schematic diagram of UAV Intelligent hangar shown according to disclosure another exemplary embodiment.
Fig. 8 is a kind of flow chart of unmanned plane inspection control method shown according to disclosure another exemplary embodiment.
Fig. 9 is a kind of schematic block diagram of unmanned plane routing inspection control device shown according to one exemplary embodiment of the disclosure.
Figure 10 is control of taking off in a kind of unmanned plane routing inspection control device shown according to one exemplary embodiment of the disclosure
The schematic block diagram of module.
Figure 11 is control of landing in a kind of unmanned plane routing inspection control device shown according to one exemplary embodiment of the disclosure
The schematic block diagram of module.
Figure 12 is a kind of schematic block of unmanned plane routing inspection control device shown according to disclosure another exemplary embodiment
Figure.
Figure 13 is a kind of schematic block diagram of unmanned plane cruising inspection system shown according to one exemplary embodiment of the disclosure.
Reference sign
10 take off 20 inspection control module of control module
30 landing 40 MCM maintenance control modules of control module
101 first instruction 102 first command reception submodules of sending submodule
103 first hatch door condition adjudgement submodule, 104 first hatch door control submodule
105 second instruction 301 thirds of sending submodule instruct sending submodule
302 second command reception submodule, 303 second hatch door condition adjudgement submodule
304 second hatch door control submodules 305 the 4th instruct sending submodule
50 drone status information receiving module, 60 drone status message processing module
70 intelligent machine lab environment status information receiving module, 80 intelligent machine lab environment adjustment module
100 unmanned plane routing inspection control device, 200 unmanned plane
The intelligent hangar of 300 engineering robot 400
1 unmanned plane stores 2 unmanned plane launching platform of cabin
11 hatch door, 3 unmanned plane cell tube stowing
Specific implementation mode
The specific implementation mode of the disclosure is described in detail below in conjunction with attached drawing.It should be understood that this place is retouched
The specific implementation mode stated is only used for describing and explaining the disclosure, is not limited to the disclosure.
Fig. 1 is a kind of flow chart of unmanned plane inspection control method shown according to one exemplary embodiment of the disclosure.Such as
Shown in Fig. 1, the method includes the steps 101 to step 104.
In a step 101, control targe unmanned plane takes off from intelligent hangar, wherein the intelligence hangar is for storing
An at least unmanned plane, the UAV targets are any unmanned plane stored in the intelligent hangar.In intelligent hangar
Unmanned plane quantity can be one or more, and the unmanned plane quantity that can actually accommodate can be carried out according to different applicable scenes
Adjustment.UAV targets can be any one in the unmanned plane stored in the intelligence hangar, i.e., stored in the intelligence hangar
Any one unmanned plane can be controlled and taken off from the intelligence hangar.
In a step 102, the UAV targets are controlled according to target inspection instruction and proceeds by inspection.Target inspection refers to
It can be the acquiescence inspection instruction preset to enable, and for controlling course line during inspection of unmanned plane, fault point detection is appointed
Business etc..Target inspection instruction can also be the instruction inputted in real time during inspection by operating personnel, consequently facilitating operation
Personnel carry out artificial control in real time according to the concrete condition during inspection to UAV targets.UAV targets are receiving
After target inspection instruction, patrol task is proceeded by according to target inspection instruction.
In step 103, the UAV targets are controlled after the inspection to drop in the intelligent hangar.
After inspection, UAV targets need to return to intelligent hangar to safeguard and store, therefore in this step, according to mesh
After marking inspection instruction control targe unmanned plane completion inspection, control targe unmanned plane is drop in intelligent hangar, with after the completion
Continuous maintenance and storage.
At step 104, control instruction is safeguarded to the transmission of engineering robot, it is described to safeguard that control instruction is described for controlling
Engineering robot carries out attended operation to the UAV targets.After UAV targets drop in intelligent hangar, to machine
Control instruction is safeguarded in the transmission of business robot, to control engineering robot to carry out attended operation, maintenance behaviour to UAV targets
Make be the battery for for example replacing UAV targets, either charges or scan UAV targets to UAV targets
Appearance, or clean etc. any one or more attended operation that can be completed by operating personnel to UAV targets.
Through the above technical solutions, can control targe unmanned plane take off from intelligent hangar, in default place inspection, simultaneously
It controls it and drop to intelligent hangar, and control engineering robot carries out attended operation to UAV targets, can make work in this way
Industry the personnel inspection of complete remote control unmanned plane and unmanned plane after inspection in the case where not entering inspection place are safeguarded
And storage, it needs to carry out inspection or for the remote site of test without being deep into, saves after unmanned plane inspection to nothing
Man-machine carry out folding and unfolding and a large amount of time-consuming and a large amount of human resources safeguarded.
Fig. 2 be according to the schematic diagram of the UAV Intelligent hangar shown in one exemplary embodiment of the disclosure, as shown in Fig. 2,
It is described intelligence hangar include：Unmanned plane stores cabin 1, and for storing an at least unmanned plane, unmanned plane storage cabin 1 has cabin
Door 11；Hatch door control module (not shown), the opening and closing for controlling the hatch door 11, so that the unmanned plane can fly out or fly
Enter unmanned plane storage cabin 1；Unmanned plane launching platform 2 is used as the carrying platform of the unmanned plane takeoff and landing.Such as Fig. 2
Shown, the hatch door 11 that unmanned plane stores cabin 1 can be multiple, wherein a part of hatch door 11 can be arranged to be deposited in the unmanned plane
The side in cabin 1 is put, the top that cabin 1 is stored in the unmanned plane can be arranged in a part of hatch door 11.Unmanned plane launching platform 2 can be with
It is the external platform of the hatch door 11 for the side for being connected to unmanned plane storage cabin 1 as shown in Figure 2, can also be to be stored positioned at unmanned plane
Platform inside cabin 1.The control that hatch door 11 is opened and closed by hatch door control module and unmanned plane launching platform 2, it will be able to real
Existing unmanned plane is not necessarily to people follow the automation for returning to the whole process stored in intelligent hangar after starting inspection to inspection
The intervention of work can be completed.
In a kind of possible embodiment, the hatch door control module is used to communicate to connect with external control device, root
According to the control instruction that the external control device is sent, the opening and closing of the hatch door 11 is controlled.External control device can be for example
The remotely controlled plants such as remote console can also be the control device being set in the intelligence hangar, such as be opened and closed handle,
It is opened and closed button etc., can also be portable mobile equipment, such as mobile phone, tablet computer, laptop etc..
Fig. 3 be in a kind of unmanned plane inspection control method shown according to one exemplary embodiment of the disclosure control targe without
The flow chart of the man-machine method taken off from intelligent hangar.As shown in figure 3, step 101 shown in Fig. 1：Control targe nobody
Machine takes off from intelligent hangar including step 201 to step 203.
In step 201, it sends first to the engineering robot and carries instruction, described first carries instruction for controlling
The UAV targets are carried at launching platform by the engineering robot.Launching platform can be connected with intelligent hangar
The platform to take off for unmanned plane, which can be external in the sun deck of the intelligence hangar, such as shown in Fig. 2
The external launching platform 2 in unmanned plane storage cabin 1, can also be the platform in certain region inside intelligent hangar, such as can be with
It is the launching platform (not shown) inside unmanned plane storage shown in Fig. 2 cabin 1.Engineering robot is receiving first carrying
After instruction, UAV targets are carried to by the side that the mode at launching platform can be traction according to the first carrying instruction
Formula can also be the mode born, can also be the mode lifted, and unmanned plane can be arbitrarily carried to predetermined launching platform
Mode of transport can.
In step 202, it receives the engineering robot is sent first and arrives bit instruction, described first is used for bit instruction
Indicate that the UAV targets have been carried at the launching platform.When engineering robot according to first carry instruct, it is complete
After UAV targets are carried to the action at launching platform, can feed back first arrive bit instruction, with this come characterize target nobody
Machine is in place.
In step 203, it sends first to the UAV targets to take off instruction, described first, which takes off, instructs for controlling
The UAV targets take off from the launching platform.It completes UAV targets being carried to receiving engineering robot
Fly feed back after platform first to after bit instruction, sending first to UAV targets takes off instruction, with control targe nobody
Machine takes off from launching platform, to start the inspection work to specifying region.
Through the above technical solutions, before UAV targets start inspection, corresponding instruction is sent to engineering robot
UAV targets are carried on the launching platform that can be taken off with controlling engineering robot, then again control targe unmanned plane from
It takes off on the launching platform, to start inspection work, in such manner, it is possible to simplify the work of taking off before UAV targets' progress inspection
Make, specified takeoff point is voluntarily reached without starting UAV targets to control it, without operation people in the on-site manual that takes off
Control targe unmanned plane takes off so that the take-off process before UAV targets' inspection is realized full-automatic.
Fig. 4 is control targe in a kind of unmanned plane inspection control method shown according to disclosure another exemplary embodiment
The flow chart for the method that unmanned plane takes off from intelligent hangar.As shown in figure 4, step 101 shown in Fig. 1：Control targe without
It is man-machine to take off including step 301 to step 303 from intelligent hangar.
In step 301, judge whether the hatch door of the intelligent hangar is opened, if so, step 303 is gone to, if it is not, then
Go to step 302.The hatch door of intelligent hangar can be the hatch door of the storehouse for storing unmanned plane in intelligent hangar, such as Fig. 2
Shown in unmanned plane storage cabin 1 top hatch door 11 and side hatch door 11.The state of hatch door 11 can be by shown in Fig. 2
Hatch door control module (not shown) in intelligent hangar obtains.After the hatch door 11 is opened, UAV targets can pass through
The hatch door 11 directly takes off inside the unmanned plane of intelligent hangar storage cabin 1, and UAV targets store cabin 1 from unmanned plane is stored in
In state between the state taken off be not necessarily to additional action.
In step 302, the hatch door for controlling the intelligent hangar is opened.When judge the intelligence hangar hatch door be not turned on
In the case of, the hatch door for controlling the intelligence hangar is opened.It, can be by hatch door for example, for intelligent hangar shown in Fig. 2
Control module sends hatch door open instructions to control the opening of hatch door 11.
In addition, the status information between intelligent hangar interacts and instruction interaction, in addition to can directly with such as hatch door control
Except specific control module in the intelligence hangar such as molding block carries out, it can also be that the central controller with intelligent hangar carries out
Interaction, the central controller are the master controller in intelligent hangar.
In a kind of possible embodiment, judge whether hatch door corresponding with the UAV targets is opened；When sentencing
In the case that the hatch door that breaks is not turned on, controls the hatch door and open.Can have in intelligent hangar multiple for storing nobody
The storage cabin of machine, each cabin of storing can correspond to different one or more hatch doors or share a hatch door respectively, for example, such as
Shown in Fig. 2, which includes a unmanned plane storage cabin 1, and unmanned plane storage cabin 1 has corresponded to multiple hatch doors 11, wrapped
It includes six hatch doors 11 at the top of unmanned plane storage cabin 1 and stores a hatch door of 1 side of cabin positioned at unmanned plane, the six of top
A hatch door 11 is independent mutually.When the storage cabin in intelligent hangar corresponds to different hatch doors respectively, can only pair with target nobody
The state of hatch door corresponding with UAV targets is detected in the storage cabin that machine is stored, to judge whether to need to execute
Open the action of the correspondence hatch door.When judging to need to execute the action for opening the correspondence hatch door, open and UAV targets' phase
Corresponding hatch door.
In step 303, it sends second to the UAV targets to take off instruction, described second, which takes off, instructs for controlling
The UAV targets are rollinged takeoff from the inside of the intelligent hangar.When the feelings for judging that the hatch door of the intelligence hangar has already turned on
Under condition, sends second to UAV targets and take off instruction, be used for control targe unmanned plane directly inside the storehouse of intelligent hangar
It takes off, to start inspection work.
Through the above technical solutions, when control targe unmanned plane takes off from intelligent hangar, intelligent hangar is first judged
Whether hatch door is opened, and in the case where hatch door has already turned on, sends second directly to UAV targets and takes off instruction, to control this
UAV targets directly take off inside intelligent hangar, in the case where hatch door is not turned on, control the hatch door of the intelligence hangar
It first opens, then sending second to UAV targets again takes off instruction.In this way, simplifying rising before UAV targets carry out inspection
Fly work, is allowed to reach takeoff point without first starting UAV targets and take off again, people manually controls nothing at the scene without operation
Man-machine takes off, and can remote control unmanned plane deposit position of UAV targets directly from intelligent hangar take off so that
Take-off process before UAV targets' inspection is realized full-automatic.
Fig. 5 is terminated in inspection in a kind of unmanned plane inspection control method shown according to one exemplary embodiment of the disclosure
Control targe unmanned plane drop to the flow chart of the method in intelligent hangar afterwards.As shown in figure 5, step 103 shown in Fig. 1：
It includes step 401 to step 403 to control the UAV targets after inspection and drop to the intelligent hangar.
In step 401, after the inspection, the first landing instruction is sent to the UAV targets, described the
One landing instruction is drop to for controlling the UAV targets at the launching platform.Launching platform can be and intelligent hangar
The platform to take off for unmanned plane being connected, the launching platform can be external in the sun deck of the intelligence hangar, such as
The external launching platform 2 in unmanned plane storage shown in Fig. 2 cabin 1, can also be the platform in certain region inside intelligent hangar, example
It such as can be the platform (not shown) inside unmanned plane storage shown in Fig. 2 cabin 1.Terminate in the inspection process of UAV targets
Later, send the first landing instruction to the UAV targets, landing instruction can control targe unmanned plane drop to and take off
At platform, can be that such as control targe unmanned plane is first returns according to certain course line around launching platform, then control targe
Unmanned plane lands according to preset level point on launching platform, can be for example only control targe unmanned plane according to rise
Fly preset level point on platform to land.As long as can control the UAV targets after inspection drop to take off it is flat
On platform.
In step 402, it receives the UAV targets send second and arrives bit instruction, described second is used for bit instruction
Indicate that the UAV targets have drop at the launching platform.Finger is drop to according to the first landing instruction in UAV targets
Positioning is set, i.e., on launching platform after, can feed back this second arrive bit instruction, with indicate UAV targets drop to take off it is flat
Platform.
In step 403, it sends second to the engineering robot and carries instruction, described second carries instruction for controlling
The UAV targets are carried to the position in the intelligent hangar for storing the UAV targets by the engineering robot
It sets.The second of UAV targets' transmission is being received to after bit instruction, is showing that UAV targets have drop to launching platform,
Second is sent to engineering robot at this time and carry instruction, to control the engineering machine that engineering robot will be drop on launching platform
People is carried to position for storing unmanned plane in intelligent hangar, such as unmanned plane shown in Fig. 2 storage cabin 1 etc..Engineering machine
UAV targets are carried to the mode of the position in intelligent hangar for storing unmanned plane according to the second carrying instruction by device people
It can be the mode of traction, can also be the mode born, can also be the mode lifted, unmanned plane can be arbitrarily carried to
The mode of transport in precalculated position can.
Through the above technical solutions, after unmanned plane terminates inspection, control unmanned plane is drop on launching platform, and is controlled
Engineering robot processed, which will drop to the UAV targets on launching platform and be carried in intelligent hangar, to be stored, in such manner, it is possible to
Simplify the recycling problem after unmanned plane progress inspection, operation people is not necessarily to recycle unmanned plane manually into region of patrolling and examining, and is patrolling
In the case that inspection area surroundings are severe, the working strength and danger of operation people can be reduced, unmanned plane inspection is substantially increased
Degree of automation and efficiency.
Fig. 6 is in a kind of unmanned plane inspection control method shown according to disclosure another exemplary embodiment in inspection knot
Control targe unmanned plane drop to the flow chart of the method in intelligent hangar after beam.As shown in fig. 6, step shown in Fig. 1
103：It includes step 501 to step to control the UAV targets after inspection and drop to the intelligent hangar
503。
In step 501, after the inspection, judge whether the hatch door of the intelligent hangar is opened, if so, turning
To step 503, if it is not, then going to step 502.After the inspection process of UAV targets terminates, the cabin of intelligent hangar is judged
Whether door is opened.The hatch door of intelligent hangar can be the hatch door of the storehouse for storing unmanned plane in intelligent hangar, such as in Fig. 2
Shown in unmanned plane storage cabin 1 top hatch door 11 and side hatch door 11.The state of hatch door 11 can be for example, by shown in Fig. 2
Intelligent hangar in hatch door control module (not shown) obtain.After the hatch door 11 is opened, UAV targets can lead to
The hatch door 11 is crossed directly to drop in intelligent hangar, such as unmanned plane storage cabin 1.
In step 502, the hatch door for controlling the intelligent hangar is opened.Terminate it in the inspection process of UAV targets
Afterwards, and in the case of judging that the hatch door of intelligent hangar is not turned on, the hatch door for controlling intelligent hangar is opened.For example, in Fig. 2
Shown in intelligent hangar, the opening of hatch door 11 can be controlled by sending hatch door open instructions to hatch door control module.
In a kind of possible embodiment, judge whether hatch door corresponding with the UAV targets is opened；When sentencing
In the case that the hatch door that breaks is not turned on, controls the hatch door and open.Can have in intelligent hangar multiple for storing nobody
The storage cabin of machine, each cabin of storing can correspond to different one or more hatch doors or share a hatch door respectively, for example, such as
Shown in Fig. 2, which includes a unmanned plane storage cabin 1, and unmanned plane storage cabin 1 has corresponded to multiple hatch doors 11, wrapped
It includes six hatch doors 11 at the top of unmanned plane storage cabin 1 and stores a hatch door of 1 side of cabin positioned at unmanned plane, the six of top
A hatch door 11 is independent mutually.When the storage cabin in intelligent hangar corresponds to different hatch doors respectively, can only pair with target nobody
The state of hatch door corresponding with UAV targets is detected in the storage cabin that machine is stored, to judge whether to need to execute
Open the action of the correspondence hatch door.When judging to need to execute the action for opening the correspondence hatch door, open and UAV targets' phase
Corresponding hatch door.
In step 503, the second landing instruction is sent to the UAV targets, the second landing instruction is for controlling
The UAV targets directly drop to the position for storing the UAV targets in the intelligent hangar.Confirming intelligence
After the hatch door of hangar is opened, the second landing instruction is sent to UAV targets, it is direct by hatch door with control targe unmanned plane
It drop in intelligent hangar and is used for the position of stored target unmanned plane.
Through the above technical solutions, after unmanned plane terminates inspection, before control unmanned plane landing, intelligent machine is first judged
Whether the hatch door in library is opened, and in the case where having already turned on, directly the second landing instruction is sent to UAV targets, to control mesh
Mark unmanned plane directly drop to the position in intelligent hangar for storing unmanned plane by hatch door, the case where hatch door is not turned on
Under, the hatch door for first controlling intelligent hangar is opened, and is then sending the second landing instruction to UAV targets.In this way, simplifying target
Landing recovery operation after unmanned plane inspection completion, operation people is not necessarily to recycle unmanned plane manually into region of patrolling and examining, and is patrolling
In the case that inspection area surroundings are severe, the working strength and danger of operation people can be reduced, unmanned plane inspection is substantially increased
Degree of automation and efficiency.
Fig. 7 is a kind of schematic diagram of UAV Intelligent hangar shown according to disclosure another exemplary embodiment, such as Fig. 7
Shown, which further includes unmanned plane cell tube stowing 3, the battery for storing the unmanned plane.
In a kind of possible embodiment, which includes battery charging and discharging device (not shown),
Remaining capacity for the battery for detecting the unmanned plane, and the remaining capacity be less than predetermined threshold value when to the battery into
Row charging operations, so that the electricity of the battery maintains the predetermined threshold value or more.
In a kind of possible embodiment, step 104 shown in Fig. 1：It is sent to engineering robot and safeguards that control refers to
Order includes：The first maintenance instruction is sent to the engineering robot, first maintenance instruction is for controlling the engineering machine
The battery altering of the UAV targets is battery of the electricity more than the first predetermined threshold value by people.First predetermined threshold value can be with
For the arbitrary value between such as 90%-100%.The upper replaced battery of UAV targets and the battery for replacement can be deposited
It is stored in the unmanned plane cell tube stowing 3 in intelligent hangar as shown in Figure 7, engineering robot can receive first dimension
Finger shield takes out the satisfactory battery of electricity after enabling from unmanned plane cell tube stowing 3, then by the electricity on UAV targets
Pond changes, and then will be again stored in the unmanned plane cell tube stowing 3 from the upper replaced battery of UAV targets.
In this way, sending the first maintenance instruction to engineering robot to control the battery on engineering robot replacement UAV targets, in this way
UAV targets are to ensure that before inspection is set out next time, the electricity of battery can be 90% or more, to protect
The electricity supply of UAV targets during card inspection, avoid the occurrence of causes inspection can not because of UAV targets' not enough power supply
The case where completion.
In a kind of possible embodiment, step 104 shown in Fig. 1：It is sent to engineering robot and safeguards that control refers to
Order includes sending the second maintenance instruction to the engineering robot, and second maintenance instruction is for controlling the engineering robot
It charges to the battery of the UAV targets, so that the battery capacity of the UAV targets maintains the second predetermined threshold value
More than.Second predetermined threshold value can be between such as 90%-100% arbitrary value, can be identical as the first predetermined threshold value,
It can differ.Engineering robot is after receiving the second maintenance instruction, the side charged to the battery of UAV targets
Method can be charged to the battery of UAV targets by the charging interface in the engineering robot, can also be to pass through company
Meet the charge and discharge device (not shown) in the unmanned plane cell tube stowing in intelligent hangar as shown in Figure 7 and UAV targets
The charging interface of battery charge to the battery of UAV targets.Referred to by sending second to engineering robot and safeguarding
It enables, controls it and charge to the battery of UAV targets, this makes it possible to ensure that UAV targets set out in inspection next time
Before, the electricity of battery to ensure the electricity supply of UAV targets during inspection, can be avoided 90% or more
Occur leading to the impossible situation of inspection because of UAV targets' not enough power supply.
In a kind of possible embodiment, step 104 shown in Fig. 1：It is sent to engineering robot and safeguards that control refers to
It enables other than including to send the first maintenance instruction to shown engineering robot, further includes sending institute to the engineering robot
After stating the first maintenance instruction, third maintenance instruction is sent to the engineering robot, the third maintenance instruction is for controlling
The engineering robot from the replaced battery of the UAV targets to charging, so that the electricity of the battery maintains
It is more than first predetermined threshold value.Engineering robot can be for example, by the unmanned plane cell tube in intelligent hangar shown in Fig. 7
Charge and discharge device in stowing 3 charges to the replaced battery of UAV targets.
In a kind of possible embodiment, step 104 shown in Fig. 1：It is sent to engineering robot and safeguards that control refers to
Order includes sending fourth dimension finger shield to the engineering robot to enable, wherein fourth dimension finger shield is enabled for controlling the engineering machine
People records the status information of the UAV targets.Engineering robot can record UAV targets' for example, by camera
Status information, the status information can be apparent condition information at this time.It is enabled by sending fourth dimension finger shield to engineering robot, with
Control engineering robot records the state of UAV targets, in this way, convenient working people remotely obtains UAV targets'
Status information, to remotely carry out damage accordingly and event to status informations such as the apparent conditions of UAV targets for operation people
Barrier judges to provide a kind of approach.
In a kind of possible embodiment, in intelligent hangar as shown in Figure 7 further include ambient condition detection device (not
Show), for detecting the environmental state information in the intelligent hangar；And ambient condition regulating device (not shown), it is used for
Ambient condition in the intelligent hangar is adjusted.The ambient condition detection device include temperature-detecting device and/or
Humidity detector；The ambient condition conditioning device includes temperature-adjusting device and/or humidity control apparatus.
In a kind of possible embodiment, the ambient condition detection device includes temperature-detecting device and/or humidity
Detection device；The ambient condition conditioning device includes temperature-adjusting device and/or humidity control apparatus.
In a kind of possible embodiment, the ambient condition detection device is additionally operable to and external control device communication link
It connects, for the environmental state information detected to be sent to the external control device；The ambient condition regulating device
It is additionally operable to communicate to connect with the external control device, the regulating command for being sent according to the external control device, to institute
The ambient condition stated in intelligent hangar is adjusted.
Fig. 8 is a kind of flow chart of unmanned plane inspection control method shown according to disclosure another exemplary embodiment.
As shown in figure 8, this method further includes step 601 and step 602.
In step 601, the status information for the UAV targets that the engineering robot is sent is received, wherein described
Status information includes at least one kind in the battery electric quantity state information and apparent condition information of the UAV targets.Target without
Man-machine battery electric quantity state information can be examined by engineering robot when charging for UAV targets or replacing battery
It measures and, can also be individually detected by engineering robot, such as be connected with the battery management system of UAV targets.
The apparent condition information of UAV targets can be detected to obtain by the camera etc. configured in engineering robot.Engineering machine
The status information for the UAV targets that human hair is sent can only include the battery electric quantity state information of UAV targets, can also only wrap
The apparent condition information of UAV targets is included, for example, body apparent condition information and/or propeller apparent condition information etc., it can
For judging whether body surface and/or propeller surface have serious bump injury or scuffing etc., in addition, the state of the unmanned plane
Information can also include both the above status information simultaneously, alternatively, can also be including unrequited other states letter out herein
Breath.
In step 602, the status information shown by default display equipment and/or by the status information
It is stored in default storage device.
After receiving the status information of UAV targets of engineering robot transmission, which can be passed through
Default display equipment shows that it can be for example any type of display screen to preset display equipment, for example, receiving engineering
It after the battery electric quantity state information for the UAV targets that robot is sent, can be displayed it, be shown by display screen
Mode can be shown in the form of percentage, can also be display etc. in the form of images.In this way can convenient working people it is straight
See the status information for the UAV targets that ground sees that engineering robot is sent.In addition, in the nothing for receiving the transmission of engineering robot
After man-machine status information, for the ease of being managed to UAV targets, which can be stored in default deposit
Store up in equipment, in this way convenient for being called at any time to the pervious status information of UAV targets in case of need, more from
And it is more convenient for the management to UAV targets.
In a kind of possible embodiment, as shown in figure 8, the method further includes step 603 and step 604.
In step 603, the environmental state information in the intelligent hangar that the intelligent hangar is sent is received.Environment shape
State information can be the state of temperature information in intelligent hangar, can also be the moisture condition information in intelligent hangar, can be with
It is other environmental state informations in intelligent hangar.The environmental state information can be by intelligent hangar for example shown in fig. 7
In ambient condition detection device (not shown) detect.
In step 604, ambient condition regulating command, institute are sent to the intelligent hangar according to the environmental state information
It states ambient condition regulating command and adjusts ambient condition in the intelligent hangar for controlling the intelligent hangar, described in guarantee
Ambient condition is suitable for storing the UAV targets, wherein the ambient condition include in state of temperature and moisture condition extremely
Few one kind.After the environmental state information in receiving the intelligent hangar transmitted by intelligent hangar, according to the information to intelligence
Hangar sends ambient condition regulating command, which can be the regulating command made for the environmental state information, can also
It is default adjustment instruction.For example, when intelligent hangar send be state of temperature information when, receive the state of temperature information it
Afterwards, the state of temperature information and preset optimum temperature state are compared, to send out the instruction of heating or cooling to intelligent hangar,
When intelligent hangar send be moisture condition information when, after receiving the moisture condition information, compare the moisture condition letter
Breath and preset optimum humidity state, to send out the instruction etc. for increasing humidity or reducing humidity to intelligent hangar.
Intelligent hangar, can be for example, by intelligent hangar shown in fig. 7 after receiving ambient condition regulating command
In ambient condition regulating device (not shown) execute the instruction that the ambient condition in intelligent hangar is adjusted.
Through the above technical solutions, the environmental state information in the intelligent hangar that intelligent hangar is sent is received, according to the ring
Border status information sends regulating command to intelligent hangar and ambient condition therein is adjusted to suitable for storage with controlling intelligent hangar
The state of unmanned plane obtains good when this makes it possible to ensure that unmanned plane does not execute patrol task outside in intelligent hangar
Storage, avoids storing the improper damage for leading to unmanned plane, and the accident to influence unmanned plane inspection occurs.
Step 601 shown in Fig. 8 is inevitable to step 602 and step 603 to not having between two flows of step 604
Precedence relationship, step 104 end after, step 601 and step 602 can be first carried out, then execute step 603 and step
604, step 603 and step 604 can also be first carried out, then execute step 601 and step 602.
Fig. 9 is a kind of schematic block diagram of unmanned plane routing inspection control device shown according to one exemplary embodiment of the disclosure.
As shown in figure 9, described device includes：Control module of taking off 10 is taken off for control targe unmanned plane from intelligent hangar,
In, the intelligence hangar is appointed for storing an at least unmanned plane, the UAV targets for what is stored in the intelligent hangar
One unmanned plane；Inspection control module 20 proceeds by inspection for controlling the UAV targets according to target inspection instruction；
Landing control module 30 is drop to for controlling the UAV targets after inspection in the intelligent hangar；Dimension
Control module 40 is protected, it is described to safeguard control instruction for controlling the machine for safeguarding control instruction to the transmission of engineering robot
Robot be engaged in UAV targets progress attended operation.
Figure 10 is control of taking off in a kind of unmanned plane routing inspection control device shown according to one exemplary embodiment of the disclosure
The schematic block diagram of module 10.As shown in Figure 10, the control module 10 of taking off includes：First instruction sending submodule 101, is used for
First is sent to the engineering robot and carries instruction, and described first carries instruction will be described for controlling the engineering robot
UAV targets are carried at launching platform；First command reception submodule 102, for receiving the engineering robot transmission
First arrives bit instruction, and described first to bit instruction, which is used to indicate the UAV targets, has been carried at the launching platform；
The first instruction sending submodule 101, which is additionally operable to send first to the UAV targets, takes off instruction, and described first takes off
Instruction is taken off for controlling the UAV targets from the launching platform.
In a kind of possible embodiment, as shown in Figure 10, the control module 10 of taking off includes：First hatch door state
Judging submodule 103, for judging whether the hatch door of the intelligent hangar is opened；First hatch door control submodule 104 is used for
In the case that the first hatch door condition adjudgement submodule 103 judges that the hatch door of the intelligent hangar is not switched on, the intelligence is controlled
The hatch door of energy hangar is opened；Second instruction sending submodule 105, for sentencing in the first hatch door condition adjudgement submodule 103
In the case that the hatch door of the disconnected intelligent hangar has been opened, sends second to the UAV targets and take off instruction, described second
Instruction of taking off is rollinged takeoff for controlling the UAV targets from the inside of the intelligent hangar.
Figure 11 is control of landing in a kind of unmanned plane routing inspection control device shown according to one exemplary embodiment of the disclosure
The schematic block diagram of module 30.As shown in figure 11, the landing control module 30 includes：Third instructs sending submodule 301, is used for
After the inspection, the first landing instruction is sent to the UAV targets, the first landing instruction is for controlling
UAV targets are stated to drop at the launching platform；Second command reception submodule 302, for receiving the UAV targets
Second sent arrives bit instruction, and described second to bit instruction, which is used to indicate the UAV targets, has drop to the launching platform
Place；The third instruction sending submodule 301 is additionally operable to send the second carrying instruction to the engineering robot, and described second removes
Fortune instruction is carried in the intelligent hangar for controlling the engineering robot by the UAV targets described for storing
The position of UAV targets.
In a kind of possible embodiment, as shown in figure 11, the landing control module 30 includes：Second hatch door state
Judging submodule 303, for after the inspection, judging whether the hatch door of the intelligent hangar is opened；Second hatch door control
System module 304, for judging what the hatch door of the intelligent hangar was not switched in the second hatch door condition adjudgement submodule 303
In the case of, the hatch door for controlling the intelligent hangar is opened；4th instruction sending submodule 305, in the second hatch door shape
In the case that state judging submodule 303 judges that the hatch door of the intelligent hangar has been opened, second is sent to the UAV targets
Landing instruction, the second landing instruction are directly drop in the intelligent hangar for controlling the UAV targets for depositing
Put the position of the UAV targets.
In a kind of possible embodiment, the MCM maintenance control module 40 includes：First maintenance instruction sending submodule
(not shown), for sending the first maintenance instruction to the engineering robot, first maintenance instruction is for controlling the machine
The battery altering of the UAV targets is battery of the electricity more than the first predetermined threshold value by business robot.
In a kind of possible embodiment, the MCM maintenance control module 40 includes：Second maintenance instruction sending submodule
(not shown), for sending the second maintenance instruction to the engineering robot, second maintenance instruction is for controlling the machine
Business robot charges to the battery of the UAV targets, so that the battery capacity of the UAV targets maintains second
It is more than predetermined threshold value.
In a kind of possible embodiment, the MCM maintenance control module 40 further includes：Third maintenance instruction sends submodule
Block (not shown) refers to for sending described first to the engineering robot in the first maintenance instruction sending submodule and safeguarding
After order, third maintenance instruction is sent to the engineering robot, the third maintenance instruction is for controlling the engineering machine
People charges to the replaced battery of the UAV targets, so that the electricity of the battery maintains the described first default threshold
It is more than value.
In a kind of possible embodiment, the MCM maintenance control module 40 includes：Fourth dimension finger shield enables sending submodule
(not shown) enables, wherein fourth dimension finger shield is enabled for controlling the machine for sending fourth dimension finger shield to the engineering robot
The status information of UAV targets described in robot records of being engaged in.
Figure 12 is a kind of schematic block of unmanned plane routing inspection control device shown according to disclosure another exemplary embodiment
Figure.As shown in figure 12, described device further includes：Drone status information receiving module 50, for receiving the engineering robot
The status information of the unmanned plane sent, wherein the battery electric quantity state that the status information includes at least the unmanned plane is believed
One kind in breath and apparent condition information；Drone status message processing module 60, it is default for passing through the status information
Display equipment shows and/or the status information is stored in default storage device.
In a kind of possible embodiment, as shown in figure 12, described device further includes：Intelligent machine lab environment status information
Receiving module 70, for receiving the environmental state information in the intelligent hangar that intelligent hangar is sent；Intelligent machine lab environment tune
Module 80 is saved, for sending ambient condition regulating command, the environment to the intelligent hangar according to the environmental state information
Status adjustment instruction adjusts ambient condition in the intelligent hangar for controlling the intelligent hangar, to ensure the environment shape
State is suitable for storing the unmanned plane, wherein the ambient condition includes at least one of state of temperature and moisture condition.
Those skilled in the art can be understood that, for convenience and simplicity of description, only with above-mentioned each function mould
The division progress of block, can be as needed and by above-mentioned function distribution by different function modules for example, in practical application
It completes, i.e., the internal structure of device is divided into different function modules, to complete all or part of the functions described above.
The specific work process of foregoing description function module, can refer to corresponding processes in the foregoing method embodiment, no longer superfluous herein
It states.
Figure 13 is a kind of schematic block diagram of unmanned plane cruising inspection system shown according to one exemplary embodiment of the disclosure.Such as figure
Shown in 13, which includes：Unmanned plane 200；Engineering robot 300；At least one intelligence hangar 400, as shown in Fig. 2 or Fig. 7；
Above-described unmanned plane routing inspection control device 100, wherein the control device 100 and the unmanned plane 200, the engineering
It is connected by way of wireless telecommunications between robot 300 and the intelligent hangar 400, for example, control device 100 can lead to
It crosses internet cloud and sends control instruction to intelligent hangar 400, intelligent hangar 400 can be by internet cloud to control device 100
Return related status information etc.；Wherein, an engineering robot 300, Mei Gezhi is at least configured in each intelligent hangar 400
One or more unmanned planes 200 can be stored in hangar 400.
In a kind of possible embodiment, the intelligence hangar 400 further includes detection of obstacles module (not shown), institute
It states detection of obstacles module to be arranged on the hatch door 11 or surrounding, for detecting around the hatch door 11 with the presence or absence of obstacle
Object；The hatch door control module is communicated to connect with the detection of obstacles module, for according to the detection of obstacles module
Testing result controls the opening and closing of the hatch door 11.For example, it may be detecting the barrier in the detection of obstacles module
In the case of, automatically control the hatch door 11 opening, and the detection of obstacles module be not detected the barrier or
In the case that barrier described in person has left, the closing of the hatch door 11 is automatically controlled.Break the barriers detection module, can be in nothing
Man-machine needs leave intelligent hangar and automatically open or close the hatch door of intelligent hangar when entering intelligent hangar, without external control
Device processed controls come the opening and closing of the hatch door to intelligent hangar so that the flow of unmanned plane inspection more automates.
In a kind of possible embodiment, more rotors are provided in the unmanned plane storage cabin 1 in the intelligence hangar 400
Unmanned plane storage rack, fixed-wing unmanned plane storage rack, unmanned helicopter storage rack, composite wing unmanned plane storage rack, tilting rotor
At least one of unmanned plane storage rack.
The preferred embodiment of the disclosure is described in detail above in association with attached drawing, still, the disclosure is not limited to above-mentioned reality
The detail in mode is applied, in the range of the technology design of the disclosure, a variety of letters can be carried out to the technical solution of the disclosure
Monotropic type, these simple variants belong to the protection domain of the disclosure.
It is further to note that specific technical features described in the above specific embodiments, in not lance
In the case of shield, it can be combined by any suitable means.In order to avoid unnecessary repetition, the disclosure to it is various can
The combination of energy no longer separately illustrates.
In addition, arbitrary combination can also be carried out between a variety of different embodiments of the disclosure, as long as it is without prejudice to originally
Disclosed thought equally should be considered as disclosure disclosure of that.
Claims (10)
1. a kind of UAV Intelligent hangar, which is characterized in that it is described intelligence hangar include：
Unmanned plane stores cabin, and for storing an at least unmanned plane, unmanned plane storage cabin has hatch door；
Hatch door control module, the opening and closing for controlling the hatch door so that the unmanned plane can fly out or fly into it is described nobody
Machine stores cabin；
Unmanned plane launching platform is used as the carrying platform of the unmanned plane takeoff and landing.
2. intelligence hangar according to claim 1, which is characterized in that the hatch door control module is used to fill with outside control
Communication connection is set, according to the control instruction that the external control device is sent, controls the opening and closing of the hatch door.
3. intelligence hangar according to claim 1, which is characterized in that the intelligence hangar further includes detection of obstacles mould
Block, the detection of obstacles module is arranged on the hatch door or surrounding, for detecting around the hatch door with the presence or absence of hindering
Hinder object；
The hatch door control module is communicated to connect with the detection of obstacles module, for according to the detection of obstacles module
Testing result controls the opening and closing of the hatch door.
4. intelligence hangar according to claim 1, which is characterized in that the hatch door is multiple, wherein a part of hatch door is set
The side that cabin is stored in the unmanned plane is set, the top that cabin is stored in the unmanned plane is arranged in a part of hatch door.
5. intelligence hangar according to claim 1, which is characterized in that the intelligence hangar further includes unmanned plane battery management
Cabin, the battery for storing the unmanned plane.
6. intelligence hangar according to claim 5, which is characterized in that the unmanned plane cell tube stowing includes battery charge and discharge
Electric installation, the remaining capacity of the battery for detecting the unmanned plane, and when the remaining capacity is less than predetermined threshold value to institute
It states battery and carries out charging operations, so that the electricity of the battery maintains the predetermined threshold value or more.
7. it is according to claim 1 intelligence hangar, which is characterized in that it is described intelligence hangar further include：
Ambient condition detection device, for detecting the environmental state information in the intelligent hangar；
Ambient condition regulating device, for the ambient condition in the intelligent hangar to be adjusted.
8. intelligence hangar according to claim 7, which is characterized in that the ambient condition detection device includes temperature detection
Device and/or humidity detector；The ambient condition conditioning device includes temperature-adjusting device and/or humidity control apparatus.
9. intelligence hangar according to claim 7, which is characterized in that the ambient condition detection device is additionally operable to and outside
Control device communicates to connect, for the environmental state information detected to be sent to the external control device；
The ambient condition regulating device is additionally operable to communicate to connect with the external control device, for according to the external control
The ambient condition in the intelligent hangar is adjusted in the regulating command that device is sent.
10. intelligence hangar according to claim 1, which is characterized in that the unmanned plane storage is provided with more rotors in cabin
Unmanned plane storage rack, fixed-wing unmanned plane storage rack, unmanned helicopter storage rack, composite wing unmanned plane storage rack, tilting rotor
At least one of unmanned plane storage rack.
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Cited By (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN110794870A (en) * | 2019-10-30 | 2020-02-14 | 众芯汉创（北京）科技有限公司 | Unmanned aerial vehicle inspection fixed airport, inspection business system and autonomous inspection method |
| CN113552900A (en) * | 2021-07-23 | 2021-10-26 | 中国科学院地理科学与资源研究所 | Unmanned aerial vehicle intelligence hangar |
| CN113968350A (en) * | 2021-10-28 | 2022-01-25 | 广东电网有限责任公司 | Intelligent remote parking platform for unmanned aerial vehicle |
| CN114185359A (en) * | 2021-09-07 | 2022-03-15 | 天津云圣智能科技有限责任公司 | Scheduling method and device for unmanned aerial vehicle and unmanned aerial vehicle library and server |
| CN114458120A (en) * | 2021-06-04 | 2022-05-10 | 广州极飞科技股份有限公司 | Unmanned aerial vehicle cabin-exiting control method, device and system and unmanned aerial vehicle airport |
| CN114458119A (en) * | 2021-06-04 | 2022-05-10 | 广州极飞科技股份有限公司 | Unmanned aerial vehicle cabin entry control method, device and system and unmanned aerial vehicle cabin |
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2018
- 2018-02-01 CN CN201820181951.7U patent/CN207829569U/en active Active
Cited By (10)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN110794870A (en) * | 2019-10-30 | 2020-02-14 | 众芯汉创（北京）科技有限公司 | Unmanned aerial vehicle inspection fixed airport, inspection business system and autonomous inspection method |
| CN114458120A (en) * | 2021-06-04 | 2022-05-10 | 广州极飞科技股份有限公司 | Unmanned aerial vehicle cabin-exiting control method, device and system and unmanned aerial vehicle airport |
| CN114458119A (en) * | 2021-06-04 | 2022-05-10 | 广州极飞科技股份有限公司 | Unmanned aerial vehicle cabin entry control method, device and system and unmanned aerial vehicle cabin |
| CN114458119B (en) * | 2021-06-04 | 2023-11-17 | 广州极飞科技股份有限公司 | Unmanned aerial vehicle cabin entering control method, device and system and unmanned aerial vehicle cabin |
| CN114458120B (en) * | 2021-06-04 | 2023-11-17 | 广州极飞科技股份有限公司 | Unmanned aerial vehicle cabin-leaving control method, device and system and unmanned aerial vehicle airport |
| CN113552900A (en) * | 2021-07-23 | 2021-10-26 | 中国科学院地理科学与资源研究所 | Unmanned aerial vehicle intelligence hangar |
| CN114185359A (en) * | 2021-09-07 | 2022-03-15 | 天津云圣智能科技有限责任公司 | Scheduling method and device for unmanned aerial vehicle and unmanned aerial vehicle library and server |
| CN114185359B (en) * | 2021-09-07 | 2024-03-26 | 天津云圣智能科技有限责任公司 | Unmanned aerial vehicle and scheduling method and device of unmanned aerial vehicle library and server |
| CN113968350A (en) * | 2021-10-28 | 2022-01-25 | 广东电网有限责任公司 | Intelligent remote parking platform for unmanned aerial vehicle |
| CN113968350B (en) * | 2021-10-28 | 2024-01-23 | 广东电网有限责任公司 | Unmanned aerial vehicle intelligent remote berthing platform |
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