Unmanned aerial vehicle capable of performing monitoring shooting and controlling through smart glasses

[0039] The following describes the invention in detail with reference to the drawings and embodiments:

[0040] The present invention designs a drone that can be monitored, photographed and controlled by smart glasses. It combines 3D shaping technology with drone technology and smart glasses technology, and a dual-head camera with high freedom is set at the bottom of the drone. Use smart glasses to get the corresponding three-dimensional patterns, so as to give people an immersive feeling, and then control them through the bracelet, so that the control effect is good, the viewing accuracy is high, and the entire device is easy to carry, and people can realize the The real monitoring effect on the drone.

[0041] As an embodiment of the present invention, the present invention provides a drone capable of monitoring, shooting and controlling through smart glasses, including a drone body 1, a camera base 2, a control bracket, smart glasses, and a controller:

[0042] The camera mount 2 of the present invention is fixed below the front end of the drone body 1 through a control bracket. There is a pair of cameras 9 in front of the camera mount 2. The control bracket includes a main rotating motor 6, a side rotating motor 7, and a bracket 8. The bottom of the main rotating motor 6 is fixed below the front end of the drone body 1, the end of the rotating shaft of the main rotating motor 6 has a bracket 8, and the two sides of the camera base 2 are respectively connected to the rotating shafts of the side rotating motors 7. The bottom of the side rotating motor 7 is fixed on the lower end surface of the bracket 8, and the front end of the drone body 1 has a pair of drone signal transmitter receivers 3;

[0043] The smart glasses of the present invention include a smart glasses main body 4, a supporting leg 11, a supporting leg connecting hinge 12, a smart glasses signal transmitter and receiver 14, a button 15, a display frame bracket 16, a display screen 17, a cylindrical image projector 18, and eyeball position The sensor 19 and the bracket are connected to the hinge 20 and the sensor fixing frame 21. The smart glasses body 4 has two frames, the feet 11 have a pair, and one end of the feet 11 is connected to the side of the hinge 12 and the smart glasses body 4 through the feet. Each of the smart glasses body 4 has a smart glasses signal transmitter receiver 14 corresponding to the drone signal transmitter receiver 3 at the front end of the drone body 1, and the eyeball position sensor 19 passes The sensor fixing frame 21 is fixed in the lens frame of the smart glasses body 4, the lens of the eyeball position sensor 19 faces the eyeball side, and the display screen lens frame bracket 16 has two lens frames corresponding to the lens frames of the smart glasses body 4. , There is a display screen 17 in the frame of the display screen frame support 16, and a columnar image projector 18 is fixed to the display screen 17, and the lens of the columnar image projector 18 rests on the display screen 17. The upper end of the screen frame bracket 16 is connected to the upper end of the smart glasses main body 4 through a bracket connecting hinge 20, and a button 15 is provided on the leg 11;

[0044] The controller of the present invention corresponds to the UAV signal transmitter receiver 3 through the built-in signal transmitter receiver.

[0045] As a preferred embodiment of the present invention, the present invention provides figure 1 Shown is an unmanned aerial vehicle that can be monitored, photographed and controlled through smart glasses, including a drone body 1, a camera base 2, a control bracket, smart glasses and a controller:

[0046] The camera holder 2 of the present invention is such as figure 2 As shown, the control bracket is fixed below the front end of the drone body 1, and there is a pair of cameras 9 in front of the camera mount 2. The control bracket is image 3 Shown includes a main rotating motor 6, a side rotating motor 7, and a bracket 8. The drone body 1 has a slot below the front end, and the drone body 1 has a telescopic cylinder 4 in the slot below the front end. The bottom of the cylinder 4 is fixed in the groove below the front end of the drone body 1, and the end of the telescopic rod of the telescopic cylinder 4 is connected to the bottom of the main rotating motor 6. The telescopic cylinder can be used when the camera is not used. The inside of the machine does not affect the landing. There are 4 telescopic cylinders 4 divided into 2 rows. In order to ensure the stability of the camera contraction, a plurality of telescopic cylinders need to be provided. The end of the rotating shaft of the main rotating motor 6 has a bracket 8. The two sides of the camera base 2 are respectively connected with the rotating shaft of the side rotating motor 7, the bottom of the side rotating motor 7 is fixed on the lower end surface of the bracket 8, and the front end of the drone body 1 has a pair of drone signal transmitter receivers 3;

[0047] The smart glasses of the present invention are Figure 4 with 5 Shown includes smart glasses main body 4, legs 11, leg connecting hinges 12, smart glasses signal transmitter and receiver 14, buttons 15, frame bracket for display screen 16, display screen 17, cylindrical image projector 18, eye position sensor 19, The bracket is connected to the hinge 20 and the sensor fixing frame 21. The smart glasses body 4 has two frames. The frames of the smart glasses body 4 are equipped with lenses. The frames of the present invention can be provided with a frame holder for the display screen when not in use. Open for use as ordinary glasses, the legs 11 have a pair, one end of the legs 11 is connected to the side end of the smart glasses body 4 through a leg connecting hinge 12, and the smart glasses body 4 has a smart glasses signal transmitter on each frame The receiver 14 corresponds to the drone signal transmitter 3 at the front end of the drone body 1, the eye position sensor 19 has a pair, and the eye position sensor 19 is symmetrically fixed to the smart glasses through the sensor fixing frame 21 A pair of eyeball position sensors can be provided on the upper and lower end surfaces of the lens frame of the main body 4 in order to accurately position the eyeballs. The lens of the eyeball position sensor 19 faces the eyeball side, and the display frame bracket 16 has 2 Two spectacle frames correspond to the spectacle frame of the smart glasses main body 4. The spectacle frame bracket 16 for the display screen has a display screen 17 in the spectacle frame, and the display screen 17 is fixed with a cylindrical image projector 18, the cylindrical image projector 18 The lens rests on the display screen 17, the upper end of the display frame bracket 16 is connected to the upper end of the smart glasses main body 4 through the bracket connecting hinge 20, the support foot 11 has a button 15 and the button 15 on the support foot 11 is for camera Buttons, camera buttons, switch buttons, and focus buttons. The present invention can set corresponding camera buttons, camera buttons, switch buttons, and focus buttons according to functions. There is a camera below the end of the leg 11 connected to the smart glasses body 4 The touch screen 13 is controlled, and the touch screen is controlled by the camera under the feet, which can facilitate the operator to hold the glasses for control, the operation is extremely convenient, and it can be operated separately from the drone.

[0048] The controller of the present invention is Image 6 The touch control ring shown includes a control ring main body 5, a touch screen 22, and a connecting buckle 23. The control ring main body 5 has a built-in signal transmitter receiver, the control ring main body 5 has an opening, and the control ring main body 5 has an opening. The two ends of the opening are connected by a connecting buckle 23. The control ring main body 5 has a touch screen 22. The touch control ring of the present invention can adopt the above structure, so that it can be better placed on the arm. The controller is connected with the built-in signal transmitter and receiver. The UAV signal transmitter receiver 3 corresponds to it,

[0049] The controller of the present invention is a remote controller or a control ring. The controller of the present invention can use a remote controller or a control ring. The control ring can be directly placed on the arm to control the drone, and the operation is more convenient. The control ring is a button-type control ring or a touch-type control ring. The control ring of the present invention can be a button-type or a touch-screen type. The touch-screen type is more convenient to operate, but the touch-screen is easy to be damaged when used regularly. The life span is longer.

[0050] The above are only preferred embodiments of the present invention, and are not intended to limit the present invention in any other form. Any modification or equivalent change made according to the technical essence of the present invention still belongs to the scope of protection claimed by the present invention. .