Dual-frequency-point dual-path emission unmanned aerial vehicle remote controller convenient to grab and fix

Abstract

The utility model provides a double-frequency-point double-path-emission unmanned aerial vehicle remote controller convenient to grasp and fix, the remote controller is externally connected to a fixing support and comprises a shell and a handheld stable fixing assembly arranged on the shell, and the handheld stable fixing assembly comprises a stable fixing structure which is arranged on the shell and can be firmly connected with the fixing support; the handheld plate group is observed along the vertical direction, is coaxially arranged with the stable fixing structure and is fixedly connected with the shell; the remote controller is provided with the handheld stabilizing assembly, so that tight combination of the stabilizing structure and the fixed bracket is realized, and the remote controller is ensured to be stable in the use process. The coaxial design of the stabilizing structure and the handheld plate group provides additional support for the remote controller, so that the stability of the remote controller in the fixing process is enhanced; in addition, by means of the design, the problems of sliding during control and stacking during storage are effectively prevented, and friction between remote controllers and hardware damage are avoided. In conclusion, due to the innovative design of the stabilizing structure, the stability of the remote controller is remarkably improved, and the problem caused by improper storage in the prior art is solved.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of remote controllers, and in particular to a dual-frequency dual-path transmitting unmanned aerial vehicle remote controller convenient to hold and fix. BACKGROUND

[0002] With the rapid development of the unmanned aerial vehicle industry, dual-frequency dual-path transmitting unmanned aerial vehicle remote controllers are widely used in multi-vehicle cooperative flight tasks due to their more stable signal transmission, anti-interference ability and longer control distance, and play a crucial role in scenarios that require simultaneous programming and control of multiple unmanned aerial vehicles. However, traditional dual-frequency dual-path transmitting remote controllers are mainly optimized in terms of signal performance, and do not adequately consider the portability of users during actual operation and the storage method of the device. In particular, in the scenario of simultaneous operation of multiple unmanned aerial vehicles, how to reasonably store and safely fix the remote controller is still a problem that has not been fully solved. The traditional design cannot meet the demand of simultaneous management of multiple devices, resulting in limitations in the operation scenario. In order to solve the problem of fatigue caused by long-time handheld of the unmanned aerial vehicle remote controller during operation, existing technologies attempt to improve the portability of the remote controller by using external supports, hanging ropes and other auxiliary tools. However, these improvements are more focused on the comfort of holding during use, and do not fully consider the storage problem of multiple unmanned aerial vehicle remote controllers when not in use. In the case of simultaneous use and storage of multiple remote controllers, the existing solutions mostly lack effective fixing mechanisms and cannot securely store the remote controllers in a safe location. When temporarily stored, the remote controllers are often placed randomly and stacked together, which can easily cause friction and collision between devices. This not only causes hardware damage, but also can affect the antenna, keys or shell structure of the remote controller, thereby affecting the stability and safety of subsequent control. The existing technology lacks a reasonable storage design for multiple unmanned aerial vehicle remote controllers in simultaneous control scenarios, mainly in two aspects. First, in the operation task of multiple unmanned aerial vehicles, multiple remote controllers often cannot be properly fixed and stored, and random placement leads to stacking of remote controllers, increasing the risk of device surface wear and hardware damage, especially important components such as antennas and keys are easily damaged by external forces. Second, since the existing technology does not provide a structure specifically for fixing the remote controller, the operator cannot quickly take and store the device during multi-vehicle control, which affects the overall operation efficiency.

[0003] Therefore, it is necessary to provide a dual-frequency dual-path transmitting unmanned aerial vehicle remote controller that is convenient to hold and fix, in order to solve the problem of improper storage of multiple unmanned aerial vehicle remote controllers in simultaneous control scenarios, which leads to stacking of the machine body and hardware damage. CONTENT OF THE INVENTION

[0004] Therefore, it is necessary to provide a dual-frequency dual-path transmitting unmanned aerial vehicle remote controller that is convenient to hold and fix, in order to solve the problem of improper storage of multiple unmanned aerial vehicle remote controllers in simultaneous control scenarios, which leads to stacking of the machine body and hardware damage.

[0005] The embodiment of the present application provides a double-frequency point double-path transmission unmanned aerial vehicle remote controller convenient to hold and fix, which is externally connected to a fixing support, and the double-frequency point double-path transmission unmanned aerial vehicle remote controller convenient to hold and fix comprises a shell and a hand holding and stabilizing assembly arranged on the shell.

[0006] A stabilizing structure is arranged on the shell and can be fixedly connected with the fixing support.

[0007] A hand holding plate group is coaxially arranged with the stabilizing structure in the vertical direction and is fixedly connected with the shell.

[0008] In at least one embodiment of the present application, the stabilizing structure further comprises a plate strip,

[0009] In the length direction of the plate strip, the plate strip is bent at both ends in the direction close to the shell to form the stabilizing structure, and both ends of the plate strip are fixedly connected with the shell.

[0010] In at least one embodiment of the present application, the shell comprises a front cover provided with a control element and a rear cover arranged away from the front cover, the front cover is fixedly connected with the rear cover,

[0011] The rear cover is provided with a containing hole, the hand holding plate group is arranged in the containing hole, and the plate strip is fixedly connected with the rear cover.

[0012] In at least one embodiment of the present application, the hand holding plate group comprises a first hand holding plate and a second hand holding plate arranged side by side with the first hand holding plate,

[0013] In the length direction of the plate strip, the first hand holding plate and the second hand holding plate are respectively located on both sides of the plate strip.

[0014] A first direction perpendicular to the contact surface between the stabilizing structure and the shell is defined, and the first hand holding plate and the second hand holding plate are located at both ends of the shell in the first direction.

[0015] In at least one embodiment of the present application, the plate strip comprises a first bending zone, the plate strip is bent in the first direction and close to the shell to form the first bending zone, one end of the first bending zone close to the shell is provided with a first fixing hole, and the support is fixedly connected with the first fixing hole.

[0016] In at least one embodiment of the present application, the board strip further comprises a second bending strip, defining a second direction perpendicular to the bending direction of the first bending strip, the board strip being bent along the second direction to form the second bending strip, and a second fixing hole being formed on the second bending strip, the second fixing hole being fixedly connected with the shell.

[0017] In at least one embodiment of the present application, the first hand-holding board is bent along a first direction and close to the shell to form a gripping part, the gripping part abutting a finger.

[0018] In at least one embodiment of the present application, the gripping part is provided with an anti-skid layer.

[0019] In at least one embodiment of the present application, a fixing groove is formed on the rear cover, and the fixing groove is arranged parallel to the stabilizing structure along the first direction, and the bracket is latched in the fixing groove.

[0020] In at least one embodiment of the present application, the stabilizing structure is an integrally formed aluminum plate.

[0021] The above-provided unmanned aerial vehicle remote controller with double-frequency and double-path transmission for easy gripping and fixing is provided with a hand-holding stabilizing assembly on the remote controller shell, the stabilizing structure of which can be firmly connected with an external fixing bracket to ensure the stability of the remote controller during use. In order to further enhance this function, the stabilizing structure is coaxially arranged with the hand-holding board group, so that the stabilizing structure obtains additional support and assistance during the fixing process, ensuring that the remote controller is more stable and reliable when combined with the bracket. The beneficial effects of this structure design are that the stabilizing structure not only enables the remote controller to be quickly and stably fixed on the bracket, but also effectively prevents sliding during operation and stacking after operation, avoiding friction or hardware damage between remote controllers. Therefore, the innovative design of the stabilizing structure significantly improves the stability of the remote controller during storage and use, solving the problems caused by improper storage in the prior art. BRIEF DESCRIPTION OF DRAWINGS

[0022] Figure 1 It is a rear view of a double-frequency and double-path transmission unmanned aerial vehicle remote controller for easy gripping and fixing;

[0023] Figure 2 It is an axial exploded view of a double-frequency and double-path transmission unmanned aerial vehicle remote controller for easy gripping and fixing;

[0024] Figure 3 It is a rear view of a double-frequency and double-path transmission unmanned aerial vehicle remote controller for easy gripping and fixing;

[0025] Figure 4 It is a rear view of a stabilizing structure;

[0026] Figure 5 A-A sectional view in the rear view of the fixed structure and a partial view of the A-A sectional view;

[0027] Figure 6 An axial view of a double-frequency double-path transmission unmanned aerial vehicle remote controller convenient to grip and fix;

[0028] Figure 7 A side view of a double-frequency double-path transmission unmanned aerial vehicle remote controller convenient to grip and fix.

[0029] Main component symbol description

[0030] 1, shell; 2, hand holding and stabilizing assembly; 3, stabilizing structure; 4, hand holding plate group; 5, board; 6, front cover; 7, rear cover; 8, accommodating hole; 9, first hand holding plate; 10, second hand holding plate; 11, first direction; 12, first bending belt; 13, first fixing hole; 14, fixing support; 15, second bending belt; 16, second fixing hole; 17, gripping part; 18, anti-skid layer; 19, fixing groove; 100, a double-frequency double-path transmission unmanned aerial vehicle remote controller convenient to grip and fix. DETAILED DESCRIPTION

[0031] The embodiments of the present application will be described below in conjunction with the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of the present application, not all the embodiments.

[0032] It should be noted that when a component is considered to be "connected" to another component, it can be directly connected to the other component or a middle component can exist at the same time. When a component is considered to be "provided on" another component, it can be directly provided on the other component or a middle component can exist at the same time. The terms "top", "bottom", "upper", "lower", "left", "right", "front", "rear", and the like used herein are for illustrative purposes only.

[0033] The embodiments of the present application provide a double-frequency double-path transmission unmanned aerial vehicle remote controller convenient to grip and fix, which is externally connected to a fixing support. The double-frequency double-path transmission unmanned aerial vehicle remote controller convenient to grip and fix comprises a shell and a hand holding and stabilizing assembly provided on the shell. The hand holding and stabilizing assembly comprises:

[0034] A stabilizing structure is provided on the shell and can be fixedly connected to the fixing support.

[0035] A hand holding plate group is coaxially arranged with the stabilizing structure in a vertical direction and is fixedly connected to the shell.

[0036] The double-frequency double-path transmitting unmanned aerial vehicle remote controller provided by the above-mentioned application is convenient to hold and fix. The holding and fixing assembly is arranged on the remote controller shell. The fixing and stabilizing structure can be fixedly connected with the external fixing support, so that the remote controller is stable during use. In order to further enhance this function, the fixing and stabilizing structure is coaxially arranged with the hand holding plate group, so that the fixing and stabilizing structure obtains additional support and assistance during fixing, and the remote controller is more stable and reliable when combined with the support. The beneficial effects of this structure design are that the fixing and stabilizing structure not only enables the remote controller to be quickly and stably fixed on the support, but also effectively prevents sliding during operation and stacking after operation, and avoids friction or hardware damage between remote controllers. Therefore, the innovative design of the fixing and stabilizing structure significantly improves the stability of the remote controller during storage and use, and solves the problems caused by improper storage in the prior art.

[0037] The application will be described in detail below with reference to the accompanying drawings. Figure 1 Figure 7 Some embodiments of the application will be described in detail. The following embodiments and features in the embodiments can be combined with each other without conflict.

[0038] The embodiments of the application provide a double-frequency double-path transmitting unmanned aerial vehicle remote controller 100 which is convenient to hold and fix and is externally connected to a fixing support 14. The double-frequency double-path transmitting unmanned aerial vehicle remote controller convenient to hold and fix comprises a shell 1 and a holding and fixing assembly 2 arranged on the shell 1. The holding and fixing assembly 2 comprises:

[0039] A fixing and stabilizing structure 3 is arranged on the shell 1 and can be fixedly connected with the fixing support 14.

[0040] A hand holding plate group 4 is coaxially arranged with the fixing and stabilizing structure 3 in the vertical direction and is fixedly connected with the shell 1.

[0041] ​Specifically, a kind of unmanned aerial vehicle remote controller with double-frequency point double-way transmitting function is provided, and its core is convenient to grip and fix, and remote controller is connected with external fixed support 14.Remote controller is composed of shell 1 and hand grip stable assembly 2, and hand grip stable assembly 2 includes stable structure 3 and hand grip plate group 4.Stable structure 3 is installed on shell 1, can be firmly connected with fixed support 14, and hand grip plate group 4 is arranged along vertical direction and is coaxial with stable structure 3, to ensure the stability of holding in use process.It has beneficial effects, which solves the problem of instability or inconvenience in traditional design when holding, especially suitable for complex tasks of multiple unmanned aerial vehicles cooperative control.Operators can easily grip hand grip plate group 4 in operation process, and stable structure 3 guarantees the fixing effect of remote controller when external support is connected, avoids equipment shaking or falling, and improves the reliability and safety of operation.In the scene needing to frequently take and place equipment, such as unmanned aerial vehicle formation flight, operators can quickly assemble and disassemble remote controller through fixed support 14, and work efficiency is improved.

[0042] Further, the stable structure 3 further includes a board 5,

[0043] In the length direction of the board 5, the two ends of the board 5 are bent in the direction close to the shell 1 to form the stable structure 3, and the two ends of the board 5 are fixedly connected with the shell 1.

[0044] Specifically, in this scheme, the improvement of the stable structure 3 is that it adds the design of the board 5, and the two ends of the board 5 are bent in the direction close to the shell 1, thereby forming a firm stable structure 3. The board 5 is fixedly connected with the shell 1, so that the entire stable assembly has higher structural strength. The bending design of the board 5 can provide better support under external force, preventing loosening or deformation due to stress generated during violent vibration or operation. This design is especially suitable for outdoor harsh environments or high-speed moving scenes, providing overall stability of the equipment. Through the bending structure of the board 5, the stability of the remote controller is enhanced, not only improving its impact resistance and shock resistance, but also reducing wear and tear due to fatigue wear during long-term use, effectively prolonging the service life of the equipment and ensuring the smooth progress of complex flight tasks.

[0045] Further, the shell 1 includes a front cover 6 provided with control elements and a rear cover 7 disposed away from the front cover 6, the front cover 6 is fixedly connected with the rear cover 7,

[0046] The rear cover 7 is provided with a receiving hole 8, and the hand grip plate group is arranged in the receiving hole 8, and the board 5 is fixedly connected with the rear cover 7.

[0047] Specifically, the structure of the remote controller is further optimized. The shell 1 is composed of a front cover 6 and a rear cover 7. The front cover 6 is used to mount the control elements, and the rear cover 7 is provided with a receiving hole 8. The hand plate group 4 is embedded in the receiving hole 8 and fixedly connected with the slat 5. This design not only protects the hand plate group 4, but also enhances the overall protection capability of the device. The front-mounted control elements enable the operator to intuitively control during operation. The receiving hole 8 of the rear cover 7 not only ensures the stability of the hand plate group 4, but also avoids wear or damage caused by the exposure of the hand plate group 4. The overall structure realizes more compact and reasonable layout through the cooperation of the front and rear covers 7, effectively protects the internal elements during operation, and reduces the influence of the external environment on the device. Especially in complex flight tasks, it prevents wear or misoperation caused by exposure of the remote controller components, thereby improving the durability and operation reliability of the device.

[0048] Further, the hand plate group 4 includes a first hand plate 9 and a second hand plate 10 arranged side by side with the first hand plate 9,

[0049] In the length direction of the slat 5, the first hand plate 9 and the second hand plate 10 are respectively located on both sides of the slat 5.

[0050] The first direction 11 is defined as the direction perpendicular to the contact surface of the stabilizing structure 3 and the shell 1. When viewed along the first direction 11, the first hand plate 9 and the second hand plate 10 are located at both ends of the shell 1.

[0051] The specific hand plate group 4 is composed of a first hand plate 9 and a second hand plate 10 arranged side by side on both sides of the shell 1. The double-hand design enables the operator to flexibly choose the holding position, adapting to different operation habits and task requirements. By arranging the hand plates at both ends of the device, the holding method of the remote controller is more flexible and has good stability. This double-hand design is particularly suitable for long-time operation scenarios, reducing the fatigue of single-hand operation. The double-hand design also provides a larger gripping area and better balance, enabling the operator to control the remote controller more accurately, especially in tasks that require frequent adjustment of flight status or simultaneous control of multiple drones. This design can significantly improve the accuracy and stability of operation. In addition, the symmetrical layout of the double hands makes the device more comfortable to hold at different angles, suitable for various complex operation environments.

[0052] Further, the slat 5 includes a first bending zone 12. The slat 5 is bent in the direction along the first direction 11 and close to the shell 1 to form the first bending zone 12. The first bending zone 12 is provided with a first fixing hole 13 close to one end of the shell 1. The bracket is fixedly connected with the first fixing hole 13.

[0053] Specifically, a first bending strip 12 is designed on the plate strip 5, which is bent along the direction close to the shell 1 and has a first fixing hole 13 at one end. The fixing hole is used to connect with the external support, realizing the quick assembly and disassembly of the remote controller and the support. The advantage of this design is that the bending strip provides a stable bending structure, enhancing the overall strength of the plate strip 5 and avoiding deformation or damage of the plate strip 5 during long-term use or frequent assembly and disassembly. The arrangement of the fixing hole enables the operator to quickly install the remote controller on the support, especially in scenarios that require multiple switching of equipment or multiple operations within a short period of time. This quick connection mechanism can effectively improve work efficiency. In addition, the design of the bending strip can absorb part of the external impact force, thereby further protecting the equipment and improving the durability of the remote controller.

[0054] Further, the plate strip 5 further comprises a second bending strip 15, defining a second direction perpendicular to the bending direction of the first bending strip 12, the plate strip 5 being bent along the second direction to form the second bending strip, and the second bending strip 15 being provided with a second fixing hole 16, the second fixing hole 16 being fixedly connected with the shell 1.

[0055] Specifically, the plate strip 5 is further bent along the second direction to form the second bending strip 15, and the second bending strip 15 is provided with the second fixing hole 16, which is fixedly connected with the shell 1. This double-bending structure significantly enhances the stability of the stable assembly, ensuring that the remote controller can maintain good fixing effect in complex environments. Through the bidirectional bending design, the plate strip 5 can provide stronger anti-twisting and anti-stretching capability, reducing structural deformation caused by external force during use. In addition, the second bending strip 15 provides a more secure connection point for the equipment, making the connection between the shell 1 and the plate strip 5 more stable. This structure enables the remote controller not only to cope with multiple assembly and disassembly, but also to ensure the stability of the equipment in scenes of violent shaking or rapid movement, without the risk of loosening or falling off.

[0056] Further, the first hand plate 9 is bent along the first direction 11 and close to the shell 1 to form a gripping portion 17, and the gripping portion 17 abuts against the fingers.

[0057] Specifically, the first hand plate 9 is bent in the direction close to the shell 1 to form a gripping part 17 that can abut against the fingers and provide a more ergonomic holding experience. This design allows the operator to hold the remote control more naturally, especially during long operations, as the fingers are effectively supported, reducing the feeling of fatigue. The bending of the gripping part 17 not only improves the overall holding of the hand plate, but also provides a more secure grip point for the operator, making the device less likely to slip or tilt. This design is particularly suitable for outdoor or high-precision operation scenarios, allowing the operator to control the device more stably during complex flight tasks, reducing the risk of operational errors due to fatigue, and improving the safety and efficiency of the task.

[0058] Furthermore, the gripping part 17 is provided with a non-slip layer 18.

[0059] Specifically, the gripping part 17 is further provided with a non-slip layer 18 that effectively improves the firmness of the grip, especially in humid environments or during long use, the non-slip layer 18 can effectively prevent the problem of slippery hands. The non-slip layer 18 allows the operator to hold the remote control stably under various operating conditions, especially in outdoor or harsh weather conditions, where sweating or slippery environments can make it difficult to hold the device stably. The non-slip layer 18 can effectively prevent the device from slipping. The material of the non-slip layer 18 should have high wear resistance and comfort, ensuring durability during long-term use, and not causing hand discomfort due to prolonged holding. In addition, the non-slip layer 18 can also increase the friction of the gripping part 17, further improving the stability of the device during complex operations, ensuring the smooth completion of the task.

[0060] Furthermore, the rear cover 7 is provided with a fixing groove 19, and the fixing groove 19 is arranged parallel to the stabilizing structure 3 along the first direction 11, and the bracket is buckled in the fixing groove 19.

[0061] Specifically, the rear cover 7 is provided with a fixing groove 19, and the fixing groove 19 is arranged parallel to the stabilizing structure 3, and the bracket is buckled in the fixing groove 19, thereby realizing the firm connection between the remote control and the bracket. The design of the fixing groove 19 provides an embedded mounting position for the bracket, ensuring the tight connection between the bracket and the remote control, and avoiding the separation of the bracket and the device during operation. This groove design is particularly suitable for scenarios that require frequent disassembly and installation, allowing the operator to complete the fixing and disassembly of the device within a short period of time, improving the flexibility of the operation. At the same time, the groove design can prevent the device from loosening due to vibration during intense movement, improving the stability and safety of the device in complex environments.

[0062] Furthermore, the stabilizing structure 3 is an aluminum plate formed in one piece.

[0063] Specifically, the solid stable structure 3 adopts an aluminum plate formed integrally. The aluminum plate has the characteristics of lightness and firmness as a material, and also has good heat dissipation performance. In complex unmanned aerial vehicle control tasks, the remote controller needs to work continuously for a long time, and if the heat generated cannot be dissipated in time, it may affect the performance and stability of the device. The one-piece design of the aluminum plate not only provides the stability of the device structure, but also quickly conducts heat out to prevent the device from overheating. In addition, the aluminum plate is light in weight, suitable for handheld operation, reducing the burden of the operator for a long time operation. The use of the aluminum plate improves the overall strength of the device, while reducing the potential damage risk caused by the complexity of the structure, enhancing the durability and reliability of the remote controller in outdoor and extreme conditions.

[0064] The above only describes the embodiments of the present application, and it should be pointed out that those skilled in the art can make improvements without departing from the creative concept of the present application, but these all belong to the protection scope of the present application.

Claims

1. A double-frequency double-path transmission unmanned aerial vehicle remote controller convenient to hold and fix, which is externally connected to a fixing support, the double-frequency double-path transmission unmanned aerial vehicle remote controller convenient to hold and fix comprises a shell and a hand-holding and stabilizing component arranged on the shell, characterized in that, The hand holding stabilizing assembly comprises: A stabilizing structure arranged on the shell and capable of being fixedly connected with the fixing support; A hand holding plate group, which is coaxially arranged with the stabilizing structure and fixedly connected with the shell in the vertical direction.

2. The dual frequency dual path transmission's drone remote controller for easy gripping and fixing according to claim 1, wherein, The stabilizing structure further comprises a plate strip, In the length direction of the plate strip, the plate strip is bent at both ends in the direction close to the shell to form the stabilizing structure, and both ends of the plate strip are fixedly connected with the shell.

3. The dual frequency dual path transmission's drone remote controller for easy gripping and fixing according to claim 2, wherein, The shell comprises a front cover provided with a control element and a rear cover arranged away from the front cover, and the front cover is fixedly connected with the rear cover, The rear cover is provided with a containing hole, the hand holding plate group is arranged in the containing hole, and the plate strip is fixedly connected with the rear cover.

4. The dual frequency dual path transmission's drone remote controller for easy gripping and fixing according to claim 3, wherein, The hand holding plate group comprises a first hand holding plate and a second hand holding plate arranged side by side with the first hand holding plate, In the length direction of the plate strip, the first hand holding plate and the second hand holding plate are respectively located on both sides of the plate strip; The first direction is defined as the direction perpendicular to the contact surface between the stabilizing structure and the shell, and in the first direction, the first hand holding plate and the second hand holding plate are located at both ends of the shell.

5. The dual frequency dual path transmission's drone remote controller for easy gripping and fixing as claimed in claim 4 wherein, The plate strip comprises a first bending zone, the plate strip is bent in the first direction and close to the shell to form the first bending zone, one end of the first bending zone close to the shell is provided with a first fixing hole, and the support is fixedly connected with the first fixing hole.

6. The dual frequency dual path transmission's drone remote controller for easy gripping and fixing according to claim 5, wherein, The plate strip further comprises a second bending zone, the second direction is defined as the bending direction perpendicular to the first bending zone, the plate strip is bent in the second direction to form the second bending zone, the second bending zone is provided with a second fixing hole, and the second fixing hole is fixedly connected with the shell.

7. The dual frequency dual path transmission's drone remote controller for easy gripping and fixing as claimed in claim 4 wherein, The first hand holding plate is bent in the first direction and close to the shell to form a gripping part, and the gripping part abuts against the finger.

8. The dual frequency dual path transmission's drone remote controller for easy gripping and fixing according to claim 7, wherein, The gripping part is provided with an anti-skid layer.

9. The dual frequency dual path transmission's drone remote controller for easy gripping and fixing as claimed in claim 4 wherein, The rear cover is provided with a fixing groove, and in the first direction, the fixing groove is arranged side by side with the stabilizing structure, and the support is latched in the fixing groove.

10. The dual frequency dual path transmission based easy to grip and fix drone remote control of claim 1, wherein, The stabilizing structure is an aluminum plate formed in one piece.

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