[0003] As far as devices are concerned, technological progress has created many derivative applications of drones, but there are still the same limitations and application difficulties in quadcopters or single-axis drones. First, when using drones for
aerial photography, then For multi-axis or single-axis aircraft, the camera equipment is mostly installed under the
fuselage, but the
fuselage is usually surrounded by propellers and
fuselage extension arms, so that when the movement offset is large and the
elevation angle of a specific
azimuth must be increased or decreased sharply, It is easy to take the aforementioned
propeller and extension arm into the picture, resulting in
occlusion in the result of the
aerial photography, causing troubles in subsequent productions; secondly, to solve the aforementioned
occlusion problem, the camera is often extended with the
gimbal to increase the distance of the fuselage as a response. However, it also increases the weight of the fuselage itself, which greatly reduces the battery life; the third is to pursue high
image quality and imaging precision, and the configuration of the
camera lens often requires replacement needs and considerations. This is different from the mechanical structure of a single-axis
drone. It is also necessary to consider the
weight change of the camera set on the single-axis drone, so that the single-axis drone will undoubtedly increase the complexity of the mechanical structure of the single-axis drone in order to achieve stable flight, and increase the difficulty of manufacturing the single-axis drone. , increasing the cost of manufacturing
[0004] To undertake the mechanical structure of the single-axis drone mentioned above, especially when moving horizontally, in order to change the offset, whether it is the tilter (
Swashplate) to tilt the rotor cone to a specific
azimuth angle, let the single-axis drone Moving in a specific orientation, or tilting the rotor cone by changing the counterweight of the horizontal plane, as a solution for the movement of a single-axis UAV, will face a complex mechanical structure of the tilter, or it is difficult to accurately control the amount of counterweight change. In addition to increasing the weight, it also increases the difficulty of manufacturing and operation; in order to achieve precise control, its structure must be more complicated, and the complex structure brings more difficulties in manufacturing and increases the overall production cost.
[0005] So far, most of the people who control drones are still professional
remote control aircraft players. Due to the limitation of the structural complexity of three-axis or four-axis aircraft, the current drone control is more difficult than the previous control method of remote control aircraft. much more complicated
Even users who are accustomed to remote control aircraft in the past may not be able to control the drone smoothly, not to mention that it is even more difficult for inexperienced new users to get started easily
In particular, the control of three-axis or four-axis unmanned aerial vehicles is not an intuitive
control mode. In addition, the feedback from the remote control is easy to make the control deviation, which undoubtedly increases the threshold for the control of the drone, not to mention the fact that the process itself is difficult. Complicated flight routes and angles to achieve desired operational goals
[0006] On the other hand, today's drones transmit images to the screen of the remote control device through
radio frequency technology, or use other communication devices that can be connected to the drone, such as mobile phones or tablet computers, for real-time image transmission. This is an attempt to make the operation process more intuitive and humanized, but this
control mode is only a replacement for the original remote control device. It is just a transfer of the traditional control interface to a mobile
communication device, but it is not a control solution that conforms to human intuition.