TWI691908B - Self-photographing system and method - Google Patents

Abstract

The present invention provides a self-photographing system and method. The self-photographing system comprises an electronic device having a taking photo or recording video, and a self-photographing device. The electronic device is disposed on the self-photographing device. The self-photographing device comprises a controller, an infrared receiver and a rotating platform. The controller defines a first area from a signal sensing range of the infrared receiver. The controller controls the rotation of the rotating platform, so that the infrared receiver is able to receive the infrared signal in the first area of the signal sensing range, and therefore a lens of the electronic device can take photo or record video for user in a particular angle.

Description

Selfie system and method

The present invention relates to a Selfie system and a Selfie method, in particular to a system and method that uses infrared ray tracking to implement Selfie.

At present, most smartphones on the market include a self-portrait function for users to take self-portraits or photographs. When users want to take selfies, they often hold the smartphone with one hand and press the camera button or camera button with their thumbs to take selfies. Later, with the introduction of the selfie stick, users can place the smartphone on the selfie stick to perform the selfie action at a better angle and a longer distance.

In the past, self-portraits require users to hold a smartphone or selfie stick to perform self-portraits, which not only causes inconvenience in operation, but also restricts the user's photographic posture.

In view of this, the present invention will provide an innovative Selfie mechanism. The user can realize Selfie by tracking infrared rays to increase the convenience of the Selfie operation, which will be the goal of the present invention.

An object of the present invention is to provide a self-timer system and method. The system includes an electronic device with a photo or video function and a rotatable self-timer. The electronic device is provided on the self-timer, and the lens of the electronic device passes through the self-timer. Rotate to change the angle of taking pictures or recording; the self-timer includes a controller and an infrared receiver. The controller sets a first area from a signal sensing range of the infrared receiver; the controller controls the self-timer to perform rotation to make infrared The receiver receives the infrared signal in the first area in the signal sensing range, thereby enabling the lens of the electronic device to take a picture or video of the user at a specific angle or position; here, the present invention implements a self-timer by tracking infrared to Increase the convenience of self-timer operation.

An object of the present invention is to provide a self-timer system in which the user can open an application on the screen of the electronic device of the self-timer system, and a visible range of a lens of the electronic device can be displayed on the screen, and the user can use the application The interface operation of the program is to set a second area from the visible range of the lens. The electronic device calculates an offset between the first area and the second area and transmits the offset to the self-timer. The controller of the self-timer will The self-timer is controlled to rotate according to the offset, so that the area where the infrared receiver receives the infrared signal can be adjusted from the first area to the second area.

Another object of the present invention is to provide a self-timer system. The self-timer system further includes a remote control. The user presses a button of the remote control to generate an indication signal including an offset. After the self-timer receives the indication signal, the self-timer The controller will control the self-timer to rotate according to the offset, so that the area where the infrared receiver receives the infrared signal can be adjusted from the first area to the second area.

In order to achieve the above object, the present invention provides a self-timer system, including: an electronic device with photographing or video recording functions, including a lens; an infrared emitter for emitting at least one infrared signal; and a self-timer including a controller , A rotating platform and an infrared receiver, the controller is connected to the rotating platform and the infrared receiver, the electronic device is installed on the self-timer and is in communication with the self-timer, the lens of the electronic device changes the angle of taking pictures or recording through the rotation of the rotating platform Among them, the infrared receiver has a signal sensing range, the controller sets a first area from the signal sensing range, the controller controls the rotating platform to rotate, so that the infrared receiver receives the infrared signal in the first area.

In an embodiment of the present invention, when the infrared receiver receives the infrared signal in an actual area in the signal sensing range, the self-timer calculates an error amount between the actual area and the first area through the controller, and the controller controls according to the error amount The rotating platform rotates so that the infrared receiver receives infrared signals in the first area.

In an embodiment of the invention, the first area is a central area of the signal sensing range.

In an embodiment of the present invention, the controller divides a plurality of receiving points for the signal sensing range of the infrared receiver, and the first area is composed of part of the receiving points.

In an embodiment of the present invention, the electronic device further includes an arithmetic unit, a screen, and an application program. The arithmetic unit is connected to the lens and the screen. The screen displays a visible range of the lens. From the visible range of the lens through the operation of the application program Set a second area, the calculator calculates an offset between the first area and the second area and transmits the offset to the self-timer. The controller of the self-timer controls the rotation of the rotating platform according to the offset, so that the infrared ray is received The area where the device receives the infrared signal is adjusted from the first area to the second area.

In an embodiment of the present invention, the self-timer system further includes a remote controller, and the electronic device further includes a signal receiver. The remote controller includes a plurality of buttons. By pressing the buttons of the remote controller, an indication signal including an offset is generated. , The electronic device receives the instruction signal through the signal receiver and transmits the instruction signal to the self-timer. The controller of the self-timer controls the rotation of the rotating platform according to the offset indicated by the instruction signal, so that the infrared receiver receives the infrared signal from the first An area is adjusted to a second area.

In an embodiment of the present invention, the self-timer system further includes a remote controller, the self-timer further includes a signal receiver, the controller is connected to the signal receiver, the remote controller includes a plurality of buttons, and a button is generated by pressing the buttons of the remote controller There is an indication signal with an offset. The self-timer receives the indication signal through the signal receiver. The controller of the self-timer controls the rotation of the rotating platform according to the offset indicated by the indication signal, so that the infrared receiver receives the infrared signal from the first The area is adjusted to a second area.

In an embodiment of the present invention, the rotating platform includes an infrared receiver, a controller and a motor, the controller is connected to the infrared receiver and the motor, and the rotating platform controls the operation of the motor to rotate through the controller.

In an embodiment of the present invention, the self-timer system has a specific wavelength and a specific frequency for the infrared signal specification. When the infrared receiver receives the infrared signal, the controller determines whether the infrared signal is infrared radiation according to the wavelength and frequency of the infrared signal The device is launched.

In an embodiment of the invention, the infrared receiver is connected to a fisheye lens, and the infrared receiver receives the infrared signal through the fisheye lens.

The invention also provides a self-timer method, which is applied to a self-timer system. The self-timer system includes an electronic device with a photo or video function, a rotatable self-timer and an infrared emitter. The electronic device is provided on the self-timer and has A lens. The self-timer has an infrared receiver and a controller. The infrared receiver has a signal sensing range. The self-timer method includes: causing the controller to set a first area from the signal sensing range of the infrared receiver; transmitting through the infrared transmitter An infrared signal; control the self-timer to rotate so that the infrared receiver receives the infrared signal in the first area; and make the lens of the electronic device follow the rotation of the self-timer to change the angle of taking pictures or recording videos.

In an embodiment of the present invention, the self-timer method further includes a step of: displaying a visible range of the lens on a screen of the electronic device; setting a second area from the visible range of the lens through the operation of an application program of the electronic device Calculate an offset between the first area and the second area through the electronic device; make the electronic device send the offset to the self-timer; and make the self-timer rotate according to the offset so that the infrared receiver receives the infrared signal Adjust from the first area to the second area.

In an embodiment of the present invention, the self-timer system further includes a remote controller having a plurality of buttons, and the self-timer method further includes a step of: pressing a button of the remote controller to generate and transmit an indication signal including an offset; the electronic device Receive the instruction signal and send the instruction signal to the self-timer; make the self-timer rotate according to the offset indicated by the instruction signal to adjust the area of the infrared receiver to receive the infrared signal from the first area to a second area.

In an embodiment of the present invention, the self-timer system further includes a remote controller having a plurality of buttons, and the self-timer method further includes a step of: pressing a button of the remote controller to generate and transmit an indication signal including an offset; the self-timer Receive the indication signal; make the self-timer rotate according to the offset indicated by the indication signal so that the area where the infrared receiver receives the infrared signal is adjusted from the first area to a second area.

In an embodiment of the invention, the Selfie method further includes a step of determining whether the wavelength and frequency of the infrared signal are equal to a specified specific wavelength and specific frequency.

Please refer to FIG. 1, FIG. 2 and FIG. 3, which are respectively a schematic structural diagram of an embodiment of the self-timer system of the present invention, a schematic circuit structural diagram of an embodiment of the electronic device of the present invention, and a schematic circuit structural diagram of an embodiment of the self-timer of the present invention. . As shown in FIG. 1, FIG. 2 and FIG. 3, the Selfie system 100 includes an electronic device 10, a Selfie 30 and an infrared emitter 50. The electronic device 10 is a device with a photographing or photographing function, such as a smart phone, a tablet, or a camera. The Selfie 30 is a rotatable device. The electronic device 10 is disposed on the Selfie 30. The lens of the electronic device 10 changes the angle of taking pictures or recording videos through the rotation of the Selfie 30. The infrared transmitter 50 is used to transmit an infrared signal 501. The Selfie system 100 of the present invention controls the rotation of the Selfie 30 by tracking the infrared signal 501.

The electronic device 10 includes an arithmetic unit 11, a lens 13, a screen 15 and a first signal transmission element 17, and the arithmetic unit 11 is connected to the lens 13, the screen 15 and the first signal transmission element 17. The Selfie 30 includes a rotating platform 31 and a fixed base 37. The fixed base 37 is disposed on the rotating platform 31. The electronic device 10 is fixed to the rotating platform 31 of the Selfie 30 via a fixing base 37.

The Selfie 30 further includes an infrared receiver 32, a controller 33, a motor 34, and a second signal transmission element 35. The infrared receiver 32, the controller 33, the motor 34, and the second signal transmission element 35 are disposed in the rotating platform 31. The controller 33 is connected to the infrared receiver 32, the motor 34 and the second signal transmission element 35. The motor 34 is a single-axis or a double-axis motor. The electronic device 10 and the Selfie 30 communicate with and transmit data through the first signal transmission element 17 and the second signal transmission element 35. In an embodiment of the invention, the first signal transmission element 17 and the second signal transmission element 35 are a wireless communication element (such as a Bluetooth element or a WiFi element) or a wired transmission interface element. The rotating platform 31 controls the operation of the motor 34 via the controller 33 to rotate. Here, the lens 13 of the electronic device 10 of the present invention will change the angle of taking pictures or videos through the rotation of the rotating platform 31.

The infrared receiver 32 of the Selfie 30 is a light receiving chip composed of a plurality of light sensing elements. The infrared receiver 32 has a signal sensing range 320. The controller 33 sets a first area 323 from the signal sensing range 320. Furthermore, the controller 33 divides a plurality of receiving points (M×N) for the signal sensing range 320 of the infrared receiver 32, for example: 4096×4096 receiving points. The first area 323 is composed of a part of the receiving point, which may be a fixed size area (such as a 50×50 receiving point area) or a variable size area. In an embodiment of the invention, the first area 323 is an area in the center of the signal sensing range 320. The controller 33 will control the rotating platform 31 to perform rotation, so that the infrared receiver 32 can receive the infrared signal 501 emitted by the infrared transmitter 50 in the first area 323 of the signal sensing range 320. In an embodiment of the invention, the first area 323 is an area defined by the internal firmware of the Selfie 30. Alternatively, in yet another embodiment of the present invention, the first area 323 may also be an area that can be set via a mobile phone or a remote control.

Taking an example as an explanation, please refer to FIG. 1, FIG. 2, FIG. 3, and FIG. 4 at the same time. When the self-timer system 100 wants to perform a self-timer on the user’s face, the infrared emitter 50 can be worn for use. For example, the infrared emitter 50 is worn on the user's right hand. The infrared receiver 32 of the Selfie 30 may also receive the infrared signal 501 emitted by the infrared transmitter 50 in an actual area 324 in the signal sensing range 320. The Selfie 30 calculates an error amount A1 between the actual area 324 and the first area 323 through the controller 33. After that, the controller 33 controls the motor 34 of the rotating platform 31 to rotate to the upper right according to the error amount A1, so that the area where the infrared receiver 32 receives the infrared signal 501 can be adjusted from the actual area 324 to the first area 323, as shown in FIG. 5 As shown. Then, the lens 13 of the electronic device 10 can be relatively adjusted to the upper right through the rotation of the rotating platform 31, so that the lens 13 of the electronic device 10 can take a picture or video against the user's face.

Please refer to FIG. 6, which is a schematic structural diagram of another embodiment of the Selfie system of the present invention. As shown in FIG. 6, the infrared receiver 32 of this embodiment is connected to a fisheye lens 36. The infrared receiver 32 receives the infrared signal 501 via the fisheye lens 36. With the arrangement of the fisheye lens 36, the infrared receiver 32 will be able to expand the sensing angle of the infrared signal 501.

In the above embodiment, the area 323 at the center 321 of the signal sensing range 320 of the infrared receiver 32 is used as the area to receive the infrared signal 501. Alternatively, in another embodiment of the present invention, the user can also use the electronic device 10 or a remote control to adjust the area where the infrared receiver 32 receives the infrared signal 501, so that the infrared receiver 32 can set a range in the signal sensing range 320 The area other than the center 321 serves as the area that receives the infrared signal 501.

In an embodiment of the invention, the user uses the electronic device 10 to adjust the area where the infrared receiver 32 receives the infrared signal 501. As shown in FIG. 2, FIG. 3 and FIG. 6 and FIG. 7, the electronic device 10 further includes an application 16. A visible range 131 of the lens 13 will be displayed on the screen 15 of the electronic device 10. The user can operate the interface of the application 16 to set a second area 325 from the visible range 131 of the lens 13. The arithmetic unit 11 of the electronic device 10 calculates an offset A2 between the first area 323 and the second area 325, and transmits the offset A2 to the Selfie 30. The controller 33 of the self-timer 30 controls the motor 34 of the rotating platform 31 to rotate according to the offset A2, so that the area where the infrared receiver 32 receives the infrared signal 501 can be adjusted from the first area 323 to the second area 325, as in the seventh The picture shows. Then, the lens 13 of the electronic device 10 can be relatively adjusted to the right following the rotation of the rotating platform 31, so that the lens 13 of the electronic device 10 can take pictures or videos of the user and the background content on the right. For example, when the Selfie system 100 is applied to a briefing occasion, the lens 13 of the electronic device 100 will take a picture or video of the briefing presenter and the content of the briefing presented on the right wall. In an embodiment of the invention, the second area 325 may be set to fall within the original signal sensing range 320 of the infrared receiver 32. In yet another embodiment of the present invention, the second area 325 can be set to fall outside the original signal sensing range 320 of the infrared receiver 32. Alternatively, in yet another embodiment of the present invention, the second area 325 may be set to fall on the edge of the original signal sensing range 320 of the infrared receiver 32.

In yet another embodiment of the present invention, the user can also use a remote control to adjust the area where the infrared receiver 32 receives the infrared signal 501. Please refer to FIG. 8, FIG. 9, FIG. 10 and FIG. 11, which are schematic structural diagrams of another embodiment of the self-timer system of the present invention, schematic circuit structural diagrams of another embodiment of the electronic device of the present invention, and the self-timer of the present invention. A schematic diagram of the circuit structure of an embodiment and a schematic diagram of the structure of an embodiment of the remote controller of the present invention. The Selfie system 100 of this embodiment further includes a remote control 70, and the electronic device 10 further includes a signal receiver 19 connected to the arithmetic unit 11. The signal receiver 19 is used to receive the signal transmitted by the remote control 70. The remote controller 70 and the signal receiver 19 are devices that comply with Bluetooth transmission specifications, RF transmission specifications, infrared transmission specifications, or other wireless transmission specifications. The remote control 70 includes a plurality of keys 71-76. When the user wants to use the remote control 70 to set the area to receive the infrared signal 501, first, press the button 71 of the setting mode to enter the setting mode. If the user wants to set the center area of the signal sensing range 320 as the area to receive the infrared signal 501, select to press the middle button 72, the remote controller 70 will generate an indication signal 701 that selects the center area as the infrared signal 501 receiving area, and will indicate The signal 701 is sent to the electronic device 10. Then, the electronic device 10 receives the instruction signal 701 via the signal receiver 19 and transmits the instruction signal 701 to the Selfie 30 via the first signal transmission element 17. The Selfie 30 receives the instruction signal 701 via the second signal transmission element 35. The controller 33 of the Selfie 30 uses the first region 323 located at the center 321 of the signal sensing range 320 as the receiving region of the infrared signal 501 according to the instruction of the instruction signal 701, as shown in FIG. 4.

Or, if the user wants to adjust the area where the infrared receiver 32 receives the infrared signal 501, he selects to press the direction button 73/74/75/76 at least once to generate an indication signal 702 including the offset A2, and the indication signal 702送到电子装置10。 Transmission to the electronic device 10. Then, the electronic device 10 receives the instruction signal 702 via the signal receiver 19 and transmits the instruction signal 702 to the Selfie 30 via the first signal transmission element 17. The Selfie 30 receives the instruction signal 702 via the second signal transmission element 35. The controller 33 of the self-timer 30 controls the motor 34 of the rotating platform 31 to rotate according to the offset A2 indicated by the instruction signal 702, so that the area where the infrared receiver 32 receives the infrared signal 501 can be adjusted from the first area 323 to the second Area 326 is shown in Figure 12. Furthermore, in an embodiment of the invention, the infrared transmitter 50 and the remote control 70 can be integrated into a single device.

Similarly, in an embodiment of the present invention, the second area 326 can be set to fall within the original signal sensing range 320 of the infrared receiver 32. In yet another embodiment of the present invention, the second area 326 may be set to fall outside the original signal sensing range 320 of the infrared receiver 32. Alternatively, in another embodiment of the present invention, the second area 326 can also be set to fall on the edge of the original signal sensing range 320 of the infrared receiver 32.

Please refer to FIG. 13 and FIG. 14, which are schematic structural diagrams of another embodiment of the Selfie system of the present invention and schematic circuit structural diagrams of another embodiment of the Selfie of the present invention, respectively. In still another embodiment of the present invention, the signal receiver 38 for receiving the signal transmitted by the remote controller 70 may also be provided in the Selfie 30. The signal receiver 38 is connected to the controller 33. The Selfie 30 receives the instruction signal 701 or 702 emitted by the remote controller 70 via the signal receiver 38. Then, the controller 33 of the Selfie 30 uses the first region 323 located in the center 321 of the signal sensing range 320 as the receiving region of the infrared signal 501 according to the instruction of the instruction signal 701, as shown in FIG. 4. Alternatively, the controller 33 of the self-timer 30 controls the motor 34 of the rotating platform 31 to rotate according to the offset A2 indicated by the instruction signal 702, so that the area where the infrared receiver 32 receives the infrared signal 501 can be adjusted from the first area 323 to The second area 326 is shown in FIG.

Here, the self-timer system 100 of the present invention will set or adjust the area 323/325/326 to be received by the infrared signal 501 according to the object to be self-timed (such as the user's body part and/or background content) or application, so that the electronic device The lens 13 of 10 can take a picture or video of an object to be tracked by a selfie at a specific angle or position. In the above embodiment of the present invention, the Selfie system 100 takes the user as the subject of Selfie tracking. Of course, another embodiment of the present invention can also be applied to Selfie tracking of other movable objects, such as pet Selfie tracking.

In yet another embodiment of the present invention, the Selfie system 100 will have a specific wavelength and a specific frequency (such as carrier frequency) for the infrared signal 501 specification. When the infrared receiver 32 receives the infrared signal 501, it will determine whether the wavelength and frequency of the infrared signal 501 are equal to a specific wavelength and a specific frequency. If the wavelength and frequency of the infrared signal 501 received by the infrared receiver 32 are equal to the specific wavelength and the specific frequency, the Selfie system 100 will perform the rotation operation of the Selfie 30; otherwise, the rotation operation of the Selfie 30 is prohibited. Through the specification of the wavelength and frequency of the infrared signal 501, unexpected infrared signals, such as infrared signals generated by fluorescent lamps, can be prevented from interfering with the operation of the Selfie system 100.

The infrared emitter 50 has a plurality of light emitting elements, such as light emitting diodes. Each light-emitting element can emit an infrared signal 501. Then, the infrared receiver 32 can receive multiple infrared signals 501 at different reception angles, such as nine infrared signals. The infrared receiver 32 takes the infrared signal 501 with the largest light spot and the brightest brightness as the main target to be tracked and received.

Please refer to FIG. 15, which is a method flowchart of an embodiment of the Selfie method of the present invention. As shown in FIG. 15, first, in step S91, the controller 33 of the Selfie 30 sets a first area 323 from the signal sensing range 320 of the infrared receiver 32. In step S92, the infrared transmitter 50 transmits an infrared signal 501. In step S94, the controller 33 controls the motor 34 of the Selfie 30 to rotate, so that the infrared receiver 32 receives the infrared signal 501 in the first area 323. In step S99, the lens 13 of the electronic device 10 follows the rotation of the Selfie 30 to change the angle of taking pictures or recording videos.

Before step S94 is executed, there is a step S93. In step S93, the infrared receiver 32 will determine whether the wavelength of the infrared signal 501 is equal to a specified specific wavelength and frequency. If so, the self-timer system 100 will perform the rotation operation of the self-timer 30. If not, the rotation operation of the self-timer 30 is prohibited .

Please refer to FIG. 16 and FIG. 17, which is a method flowchart of another embodiment of the Selfie method of the present invention and a method flowchart of the present invention that uses an application program of an electronic device to adjust an infrared signal receiving area. Compared with the embodiment of FIG. 15, the Selfie method in this embodiment further includes a step S95 of adjusting the receiving area of the infrared signal 501 by using the application 16 of the electronic device 10. In step S95, first, in step S951, a visible range 131 of the lens 13 of the electronic device 10 is displayed on a screen 15 of the electronic device 10. In step S952, a second area 325 is set from the visible range 131 of the lens 13 through the interface operation of the application 16 of the electronic device 10. In step S953, the electronic device 10 calculates an offset A2 between the first area 323 and the second area 325. In step S954, the electronic device 10 transmits the offset A2 to the Selfie 30. In step S955, the Selfie 30 performs rotation according to the offset A2, so that the area where the infrared receiver 32 receives the infrared signal 501 is adjusted from the first area 323 to the second area 325, as shown in FIG. 7.

Please refer to FIG. 18 and FIG. 19, which is a flowchart of a method of another embodiment of the Selfie method of the present invention and a flowchart of a method of the present invention for adjusting the receiving area of an infrared signal using a remote controller. Compared with the embodiment of FIG. 15, the Selfie method in this embodiment further includes a step S96 of adjusting the receiving area of the infrared signal 501 by using the remote controller 70. In step S96, first, in step S961, the buttons 72/73/74/75/76 of the remote control 70 are pressed to generate and transmit an instruction signal 702 including an offset A2. In step S962, the electronic device 10 receives the instruction signal 702 and transmits the instruction signal 702 to the Selfie 30, or the Selfie 30 directly receives the instruction signal 702. In step S963, the self-timer 30 rotates according to the offset A2 indicated by the instruction signal 702, so that the area where the infrared receiver 32 receives the infrared signal 501 is adjusted from the first area 323 to a second area 326, as shown in FIG. Show.

In summary, the Selfie system 100 of the present invention can perform self-timer using a method of tracking the infrared signal 501, which will increase the convenience of the Selfie operation.

The above is only one of the preferred embodiments of the present invention and is not intended to limit the scope of the implementation of the present invention, that is, any changes in shape, structure, features and spirit described in the patent application of the present invention Modifications should be included in the patent application scope of the present invention.

100‧‧‧Self-timer system 10‧‧‧Electronic device 11‧‧‧Computer 13‧‧‧Lens 131‧‧‧Viewing range 15‧‧‧Screen 16‧‧‧Application 17‧‧‧First signal transmission element 19 ‧‧‧Signal receiver 30‧‧‧Self-timer 31‧‧‧Rotating platform 32‧‧‧Infrared receiver 320‧‧‧Signal sensing range 321‧‧‧Center 323‧‧‧First area 324‧‧‧Actual area 325‧‧‧Second area 326‧‧‧Second area 33‧‧‧Controller 34‧‧‧Motor 35‧‧‧Second signal transmission element 36‧‧‧Fisheye lens 37‧‧‧Fixed base 38‧‧ ‧Signal receiver 50‧‧‧Infrared transmitter 501‧‧‧Infrared signal 70‧‧‧Remote control 701‧‧‧Indicating signal 702‧‧‧Indicating signal 71‧‧‧Keys 72‧‧‧Keys 73‧‧‧Keys 74‧‧‧ button 75‧‧‧ button 76‧‧‧ button A1‧‧‧error A2‧‧‧offset

Figure 1: Schematic diagram of an embodiment of the Selfie system of the present invention.

FIG. 2 is a schematic diagram of a circuit structure of an embodiment of an electronic device of the present invention.

Figure 3: Schematic diagram of the circuit structure of an embodiment of the Selfie of the present invention.

Figure 4: A schematic diagram of an infrared receiver of the present invention receiving an infrared signal in an actual area of the signal sensing range.

Figure 5: A schematic diagram of the infrared receiver of the present invention receiving infrared signals in a first area of the signal sensing range.

Figure 6: A schematic structural view of another embodiment of the Selfie system of the present invention.

Fig. 7: A schematic diagram of a visible range of the lens of the electronic device of the present invention.

Figure 8: A schematic structural diagram of another embodiment of the Selfie system of the present invention.

Fig. 9: A schematic diagram of a circuit structure of an embodiment of an electronic device of the present invention.

Figure 10: A schematic diagram of the circuit structure of another embodiment of the Selfie.

Figure 11: A schematic structural view of an embodiment of a remote controller of the present invention.

Figure 12: A schematic diagram of the infrared receiver of the present invention receiving infrared signals in a second area of the signal sensing range.

Figure 13: A schematic structural view of another embodiment of the Selfie system of the present invention.

Figure 14: A schematic diagram of the circuit structure of another embodiment of the Selfie.

Figure 15: A method flowchart of an embodiment of the Selfie method of the present invention.

Figure 16: A method flowchart of still another embodiment of the Selfie method of the present invention.

FIG. 17: A flowchart of a method for adjusting an infrared signal receiving area using an application program of an electronic device according to the present invention.

Figure 18: A method flowchart of still another embodiment of the Selfie method of the present invention.

Figure 19: A flow chart of the method for adjusting the receiving area of infrared signal of the present invention using a remote control.

100‧‧‧Selfie system

10‧‧‧Electronic device

13‧‧‧Lens

30‧‧‧Self-timer

31‧‧‧Rotating platform

32‧‧‧Infrared receiver

37‧‧‧Fixed seat

50‧‧‧Infrared emitter

501‧‧‧Infrared signal

Claims (6)

A self-timer system includes: an electronic device with a photo or video function, the electronic device is a smart phone, including a lens; an infrared transmitter for emitting at least one infrared signal; and a self-timer, including a control Device, a rotating platform and an infrared receiver, the controller is connected to the rotating platform and the infrared receiver, the electronic device is installed on the self-timer and is in communication with the self-timer, the lens of the electronic device passes through the rotation The rotation of the platform changes the angle of taking pictures or videos; wherein, the infrared receiver has a signal sensing range, the controller sets a first area from the signal sensing range, and the controller has a specific wavelength for the infrared signal specification And a specific frequency, when the infrared receiver receives the infrared signal of the specific wavelength and specific frequency in an actual area in the signal sensing range, the controller calculates an error amount between the actual area and the first area And the rotation platform is controlled to rotate according to the error amount, so that the infrared receiver receives the infrared signal of the specific wavelength and the specific frequency in the first area. The Selfie system as described in item 1 of the patent application scope, wherein the first area is a central area of the signal sensing range. The Selfie system as described in item 1 of the patent application scope, wherein the controller divides a plurality of reception points for the signal sensing range of the infrared receiver, and the first area is composed of part of the reception points. The self-timer system as described in item 1 of the patent application scope, wherein the rotating platform includes the infrared receiver, the controller and a motor, the controller is connected to the infrared receiver and the motor, and the rotating platform is controlled by the controller The motor operates to rotate. The Selfie system as described in item 1 of the patent application scope, wherein the infrared receiver is externally connected to a fisheye lens, and the infrared receiver receives the infrared signal through the fisheye lens. A self-timer method is applied to a self-timer system. The self-timer system includes an electronic device with a photo or video function, a rotatable self-timer, and an infrared transmitter. The electronic device is a smart phone. The infrared transmitter The transmitter emits at least one infrared signal. The electronic device is provided on the self-timer and has a lens. The self-timer has an infrared receiver and a controller. The controller has a specific wavelength and a specific frequency for the infrared signal specification , The infrared receiver has a signal sensing range, and the self-timer method includes: causing the controller to set a first area from the signal sensing range of the infrared receiver; when the infrared receiver is within one of the signal sensing ranges When the actual region receives the infrared signal of the specific wavelength and the specific frequency, the controller calculates an error between the actual region and the first region and controls the self-timer to rotate according to the error so that the infrared receiver The first area receives the infrared signal; and causes the lens of the electronic device to follow the rotation of the self-timer to change the angle of taking pictures or recording videos.

Images