Remote control lamp correction regulation and control circuit and remote control lamp

Abstract

The utility model provides a remote control lamp correction regulation and control circuit and a remote control lamp. The remote control lamp correction regulation and control circuit comprises a remote control main control circuit, a UWB positioner, a Zigzag communicator, a spectrum sensor and a power supply circuit. The remote control master control circuit comprises a remote control master controller, a positioning transmit-receive resistor, a communication transmit-receive resistor and a light sensation transmit-receive resistor. The transmitting-receiving end of the spectrum sensor is connected with the second end of the light sensation transmitting-receiving resistor, and the spectrum sensor is used for sensing an environment spectrum; the power supply circuit supplies power to the remote control master controller, the UWB positioning circuit, the zigzag module circuit and the spectrum sensing circuit. The ambient light around the beacon is collected through the spectrum sensor, and then the color temperature output by the remote control lamp is adjusted through the spectrum correction instruction output by the remote control main controller, so that the color temperature in a scene used by the remote control lamp is kept consistent.

Description

TECHNICAL FIELD

[0001] The present disclosure relates to the technical field of remote control lamps, in particular to a remote control lamp correction control circuit and a remote control lamp. BACKGROUND

[0002] The remote control lamp product has the ability to adjust the position, brightness and color temperature of the light spot. This flexible adjustable ability makes this type of product irreplaceable in hotel lobbies, banquet halls and other scenes. With people's increasing demand for light and increasingly complex application environment, conventional remote control lamps cannot meet the user's usage requirements, and the market urgently needs a more convenient and intelligent remote control lamp product. The existing remote control lamp is flexible in application and cannot be replaced by conventional lamps. The control of the light spot of the remote control lamp mainly includes the control of the position of the light spot and the control of the shape of the light spot, and the control board is required to accurately receive the control command in time, which has a very high requirement for the stability of the entire control system. However, the traditional remote control lamp is mainly manual in professional dance, banquet and other debugging sites. This scheme is difficult to operate at high altitude, time-consuming and labor-intensive, and it is difficult to achieve the consistency of the color temperature of the venue. CONTENT OF THE UTILITY MODEL

[0003] The purpose of the present disclosure is to overcome the deficiencies in the prior art and provide a remote control lamp correction control circuit and a remote control lamp which facilitate the consistent adjustment of color temperature.

[0004] The purpose of the present disclosure is achieved by the following technical solutions:

[0005] A remote control lamp correction control circuit, comprising: a remote control main control circuit, a UWB locator, a Ziggbe communicator, a light spectrum sensor and a power supply circuit; the remote control main control circuit comprises a remote control main controller, a positioning transceiver resistor, a communication transceiver resistor and a light sensing transceiver resistor, a first end of the positioning transceiver resistor is connected with a positioning sampling end of the remote control main controller, a first end of the communication transceiver resistor is connected with a communication sampling end of the remote control main controller, and a first end of the light sensing transceiver resistor is connected with a light sensing sampling end of the remote control main controller; a transceiver end of the UWB locator is connected with a second end of the positioning transceiver resistor, and the UWB locator is used for coordinate positioning of a beacon; a transceiver end of the Ziggbe communicator is connected with a second end of the communication transceiver resistor, and the Ziggbe communicator is used for beacon coordinate information transmission; a transceiver end of the light spectrum sensor is connected with a second end of the light sensing transceiver resistor, and the light spectrum sensor is used for sensing the environmental spectrum; and the power supply circuit supplies power to the remote control main controller, the UWB positioning circuit, the ziggbe module circuit and the light spectrum sensing circuit.

[0006] In one of the embodiments, the positioning transceiving resistor comprises a first positioning resistor, and the first positioning sampling end of the remote control master is connected with the sending end of the UWB locator through the first positioning resistor.

[0007] In one of the embodiments, the positioning transceiving resistor comprises a second positioning resistor, and the second positioning sampling end of the remote control master is connected with the receiving end of the UWB locator through the second positioning resistor.

[0008] In one of the embodiments, the communication transceiving resistor comprises a first communication resistor, and the first communication sampling end of the remote control master is connected with the sending end of the Ziggbe communicator through the first communication resistor.

[0009] In one of the embodiments, the communication transceiving resistor comprises a second communication resistor, and the second communication sampling end of the remote control master is connected with the receiving end of the Ziggbe communicator through the second communication resistor.

[0010] In one of the embodiments, the light sensing transceiving resistor comprises a first light sensing resistor, and the first light sensing sampling end of the remote control master is connected with the sending end of the light spectrum sensor through the first light sensing resistor.

[0011] In one of the embodiments, the light sensing transceiving resistor comprises a second light sensing resistor, and the second light sensing sampling end of the remote control master is connected with the receiving end of the light spectrum sensor through the second light sensing resistor.

[0012] In one of the embodiments, the remote control master circuit further comprises a first pull-up resistor, and the first end of the first pull-up resistor is used for being connected with a reference power supply, and the second end of the first pull-up resistor is connected with the sending end of the light spectrum sensor.

[0013] In one of the embodiments, the remote control master circuit further comprises a second pull-up resistor, and the first end of the second pull-up resistor is used for being connected with a reference power supply, and the second end of the second pull-up resistor is connected with the receiving end of the light spectrum sensor.

[0014] A remote control lamp adopts the remote control lamp correction control circuit in any one of the embodiments.

[0015] Compared with the prior art, the present disclosure has at least the following advantages:

[0016] Under the cooperation of the UWB locator and the Ziggbe communicator, the position of the beacon is positioned, and the beacon is tracked by the remote control lamp, and at this time, the ambient light of the beacon is collected by the light spectrum sensor, and then the light spectrum correction instruction output by the remote control master is used to adjust the color temperature output by the remote control lamp, so that the color temperature in the scene used by the remote control lamp is kept consistent. Attached Figure Description

[0017] To more clearly illustrate the technical solutions of the embodiments of this disclosure, the accompanying drawings used in the embodiments will be briefly described below. It should be understood that the following drawings only show some embodiments of this disclosure and should not be regarded as a limitation of the scope. For those skilled in the art, other related drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 This is a circuit diagram of the remote control main control circuit of the remote control lamp correction and control circuit in one embodiment;

[0019] Figure 2 This is a circuit diagram of the UWB locator corresponding to the remote control light correction and control circuit in one embodiment.

[0020] Figure 3 This is a circuit diagram of the Zigbe communicator corresponding to the remote control light correction and control circuit in one embodiment.

[0021] Figure 4 This is a partial circuit diagram of the power supply circuit of the remote control light correction and control circuit in one embodiment;

[0022] Figure 5 This is a partial circuit diagram of the power supply circuit of the remote control light correction and control circuit in one embodiment;

[0023] Figure 6 This is a circuit diagram of the spectral sensor corresponding to the remote control lamp correction and control circuit in one embodiment. Detailed Implementation

[0024] To facilitate understanding of this disclosure, a more complete description will be given below with reference to the accompanying drawings, which illustrate preferred embodiments of the present disclosure. However, this disclosure can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a more thorough and complete understanding of the disclosure.

[0025] It should be noted that when an element is referred to as being "fixed to" another element, it can be directly attached to the other element or there may be an intervening element. When an element is referred to as being "connected to" another element, it can be directly connected to the other element or there may be an intervening element. The terms "vertical," "horizontal," "left," "right," and similar expressions used herein are for illustrative purposes only and do not represent the only possible implementation.

[0026] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this disclosure belongs. The terminology used in the description herein is for describing particular embodiments only and is not intended to be limiting of the disclosure. As used herein, the term "and / or" includes any and all combinations of one or more of the associated listed items.

[0027] The present disclosure relates to a remote control lamp correction control circuit. In one embodiment, the remote control lamp correction control circuit comprises a remote control master control circuit, a UWB locator, a Ziggbe communicator, a light spectrum sensor, and a power supply circuit; the remote control master control circuit comprises a remote control master controller, a positioning transceiver resistor, a communication transceiver resistor, and a light sensing transceiver resistor, a first end of the positioning transceiver resistor is connected to a positioning sampling end of the remote control master controller, a first end of the communication transceiver resistor is connected to a communication sampling end of the remote control master controller, and a first end of the light sensing transceiver resistor is connected to a light sensing sampling end of the remote control master controller; a transceiver end of the UWB locator is connected to a second end of the positioning transceiver resistor, and the UWB locator is used for coordinate positioning of a beacon; a transceiver end of the Ziggbe communicator is connected to a second end of the communication transceiver resistor, and the Ziggbe communicator is used for transmission of beacon coordinate information; a transceiver end of the light spectrum sensor is connected to a second end of the light sensing transceiver resistor, and the light spectrum sensor is used for sensing ambient light spectrum; and the power supply circuit supplies power to the remote control master controller, the UWB positioning circuit, the ziggbe module circuit, and the light spectrum sensing circuit. Under the cooperation of the UWB locator and the Ziggbe communicator, the position of the beacon is positioned, which facilitates the tracking of the beacon by the remote control lamp, and at this time, the ambient light around the beacon is collected by the light spectrum sensor, and then the light spectrum correction instruction output by the remote control master controller is used to adjust the color temperature output by the remote control lamp, so that the color temperature in the scene used by the remote control lamp is kept consistent.

[0028] Please refer to Figures 1 to 6 which is a circuit diagram of the remote control lamp correction control circuit of an embodiment of the present disclosure.

[0029] The remote control lamp correction control circuit 10 of an embodiment comprises a remote control master circuit 100, a UWB locator U4, a Ziggbe communicator U5, a light spectrum sensor U24 and a power supply circuit 200. The remote control master circuit 100 comprises a remote control master U3, a positioning transceiver resistor, a communication transceiver resistor and a light sensing transceiver resistor, a first end of the positioning transceiver resistor is connected with a positioning sampling end of the remote control master U3, a first end of the communication transceiver resistor is connected with a communication sampling end of the remote control master U3, and a first end of the light sensing transceiver resistor is connected with a light sensing sampling end of the remote control master U3. A transceiver end of the UWB locator U4 is connected with a second end of the positioning transceiver resistor, and the UWB locator U4 is used for coordinate positioning of a beacon. A transceiver end of the Ziggbe communicator U5 is connected with a second end of the communication transceiver resistor, and the Ziggbe communicator U5 is used for transmission of beacon coordinate information. A transceiver end of the light spectrum sensor U24 is connected with a second end of the light sensing transceiver resistor, and the light spectrum sensor U24 is used for sensing of ambient light spectrum. The power supply circuit 200 supplies power for the remote control master U3, the UWB positioning circuit, the ziggbe module circuit and the light spectrum sensing circuit.

[0030] In the embodiment, the position of a beacon is positioned in cooperation of the UWB locator U4 and the Ziggbe communicator U5, so as to facilitate tracking of the beacon by the remote control lamp, and at this time, ambient light around the beacon is collected by the light spectrum sensor U24, and then a light spectrum correction instruction output by the remote control master U3 is used to adjust the color temperature output by the remote control lamp, so that the color temperature in a scene used by the remote control lamp is kept consistent.

[0031] In another embodiment, the power supply circuit provides 5V voltage in addition to 1.8V and 3.3V voltage, which will be described in detail in the power supply circuit 200. Figure 4 and 5 .

[0032] In one of the embodiments, please refer to Figure 1The positioning receiving and transmitting resistor comprises a first positioning resistor R32, and a first positioning sampling end of the remote control host U3 is connected with a transmitting end of the UWB locator U4 through the first positioning resistor R32. In the embodiment, the first positioning resistor R32 is connected with the remote control host U3 and the UWB locator U4 respectively, specifically, one end of the first positioning resistor R32 is connected with the first positioning sampling end of the remote control host U3, and the other end of the first positioning resistor R32 is connected with the transmitting end of the UWB locator U4. The UWB locator U4 is a coordinate positioning device for the beacon, that is, the UWB locator U4 is used for collecting coordinate information of the beacon, the UWB locator U4 transmits the coordinate information to the first positioning sampling end of the remote control host U3, and current for collecting the positioning information of the beacon by the remote control host U3 is ensured to be in a safe range through current limiting of the first positioning resistor R32.

[0033] In one of the embodiments, referring to Figure 1 The positioning receiving and transmitting resistor comprises a second positioning resistor R34, and a second positioning sampling end of the remote control host U3 is connected with a receiving end of the UWB locator U4 through the second positioning resistor R34. In the embodiment, the second positioning resistor R34 is connected with the remote control host U3 and the UWB locator U4 respectively, specifically, one end of the second positioning resistor R34 is connected with the second positioning sampling end of the remote control host U3, and the other end of the second positioning resistor R34 is connected with the receiving end of the UWB locator U4. The UWB locator U4 is a coordinate positioning device for the beacon, that is, the UWB locator U4 is used for collecting coordinate information of the beacon, the UWB locator U4 transmits the coordinate information to the first positioning sampling end of the remote control host U3, and then the second positioning sampling end of the remote control host U3 feeds back a positioning adjustment signal to the UWB locator U4, current for collecting the positioning adjustment information of the beacon by the remote control host U3 is ensured to be in a safe range through current limiting of the second positioning resistor R34, and accurate positioning of the position of the beacon is facilitated.

[0034] In one of the embodiments, referring to Figure 1, the communication transceiver resistor comprises a first communication resistor R31, and the first communication sampling end of the remote control host U3 is connected with the sending end of the Ziggbe communicator U5 through the first communication resistor R31. In the embodiment, the first communication resistor R31 is connected with the remote control host U3 and the ZIGGBE communicator U5 respectively, specifically, one end of the first communication resistor R31 is connected with the first positioning sampling end of the remote control host U3, and the other end of the first communication resistor R31 is connected with the sending end of the ZIGGBE communicator U5. The ZIGGBE communicator U5 is a coordinate information transmission device for a beacon, that is, the ZIGGBE communicator U5 is used for transmitting coordinate information of a beacon, the ZIGGBE communicator U5 transmits the coordinate information to the first communication sampling end of the remote control host U3, and the current of the transmission of the communication information of the beacon by the remote control host U3 is limited by the first communication resistor R31, so that the current of the transmission of the communication information of the beacon by the remote control host U3 is ensured to be within a safe range.

[0035] In one of the embodiments, referring to Figure 1 , the communication transceiver resistor comprises a second communication resistor R15, and the second communication sampling end of the remote control host U3 is connected with the receiving end of the Ziggbe communicator U5 through the second communication resistor R15. In the embodiment, the second communication resistor R15 is connected with the remote control host U3 and the ZIGGBE communicator U5 respectively, specifically, one end of the second communication resistor R15 is connected with the second communication sampling end of the remote control host U3, and the other end of the second communication resistor R15 is connected with the receiving end of the ZIGGBE communicator U5. The ZIGGBE communicator U5 is a coordinate information transmission device for a beacon, that is, the ZIGGBE communicator U5 is used for transmitting coordinate information of a beacon, the ZIGGBE communicator U5 transmits the coordinate information to the first communication sampling end of the remote control host U3, and then the second communication sampling end of the remote control host U3 feeds back a communication adjustment signal to the ZIGGBE communicator U5, the current of the transmission of the communication adjustment information of the beacon coordinates by the remote control host U3 is limited by the second communication resistor R15, so that the current of the transmission of the communication adjustment information of the beacon coordinates by the remote control host U3 is ensured to be within a safe range, and the position information of the beacon is communicated in time.

[0036] In one of the embodiments, referring to Figure 1The light-sensing receiving and transmitting resistor includes a first light-sensing resistor R42, and a first light-sensing sampling end of the remote control host controller U3 is connected with a transmitting end of the light spectrum sensor U24 through the first light-sensing resistor R42. In the embodiment, the first light-sensing resistor R42 is connected with the remote control host controller U3 and the light spectrum sensor U24 respectively, specifically, one end of the first light-sensing resistor R42 is connected with the first light-sensing sampling end of the remote control host controller U3, and the other end of the first light-sensing resistor R42 is connected with the transmitting end of the light spectrum sensor U24. The light spectrum sensor U24 is an ambient light sensing device for the beacon, that is, the light spectrum sensor U24 is used for collecting ambient light spectrum information of the beacon, the light spectrum sensor U24 transmits the ambient light spectrum information to the first light-sensing sampling end of the remote control host controller U3, and current for collecting light sensing information of the beacon by the remote control host controller U3 is ensured to be in a safe range through current limiting of the first light-sensing resistor R42.

[0037] In one of the embodiments, referring to Figure 1 The light-sensing receiving and transmitting resistor includes a second light-sensing resistor R40, and a second light-sensing sampling end of the remote control host controller U3 is connected with a receiving end of the light spectrum sensor U24 through the second light-sensing resistor R40. In the embodiment, the second light-sensing resistor R40 is connected with the remote control host controller U3 and the light spectrum sensor U24 respectively, specifically, one end of the second light-sensing resistor R40 is connected with the second light-sensing sampling end of the remote control host controller U3, and the other end of the second light-sensing resistor R40 is connected with the receiving end of the light spectrum sensor U24. The light spectrum sensor U24 is an ambient light sensing device for the beacon, that is, the light spectrum sensor U24 is used for collecting ambient light spectrum information of the beacon, the light spectrum sensor U24 transmits the ambient light spectrum information to the first light-sensing sampling end of the remote control host controller U3, and then the second light-sensing sampling end of the remote control host controller U3 feeds back a light-sensing adjustment signal to the light spectrum sensor U24, current for collecting light-sensing adjustment information of the beacon by the remote control host controller U3 is ensured to be in a safe range through current limiting of the second light-sensing resistor R40, color temperature of the beacon is accurately adjusted, and thus color temperature irradiated on the beacon is kept consistent with color temperature of the surrounding environment.

[0038] In one of the embodiments, referring to Figure 6The remote control main control circuit 100 further comprises a first pull-up resistor R25, a first end of the first pull-up resistor R25 is connected with a reference power supply, and a second end of the first pull-up resistor R25 is connected with a sending end of the spectrum sensor U24. In the embodiment, the first pull-up resistor R25 is connected in series with the sending end of the spectrum sensor U24, a reference voltage is loaded on the first end of the first pull-up resistor R25, so that the voltage on the sending end of the spectrum sensor U24 is increased, the voltage of the sending end output signal of the spectrum sensor U24 is pulled up, the transmission stability of the spectrum sensor U24 to the beacon ambient light spectrum information is ensured, and the color temperature of the beacon ambient light is accurately transmitted to the remote control main control device U3.

[0039] In one of the embodiments, referring to Figure 6 The remote control main control circuit 100 further comprises a second pull-up resistor R16, a first end of the second pull-up resistor R16 is connected with a reference power supply, and a second end of the second pull-up resistor R16 is connected with a receiving end of the spectrum sensor U24. In the embodiment, the second pull-up resistor R16 is connected in series with the receiving end of the spectrum sensor U24, a reference voltage is loaded on the second end of the second pull-up resistor R16, so that the voltage on the receiving end of the spectrum sensor U24 is increased, the voltage of the receiving end output signal of the spectrum sensor U24 is pulled up, the receiving stability of the spectrum sensor U24 to the beacon ambient light color temperature adjustment feedback signal is ensured, the color temperature adjustment of the remote control lamp is accurately controlled, and specifically, the remote control main control device U3 detects whether there is a deviation between the real-time spectrum parameters sent by the spectrum sensor U24 and the specified color temperature, the adjustment signal of the spectrum sensor U24 is the above-mentioned deviation signal, the color temperature of the remote control lamp is adjusted according to the deviation signal.

[0040] In one of the embodiments, the present disclosure also relates to a remote control lamp adopting the remote control lamp correction control circuit in any of the above embodiments. In the embodiment, the remote control lamp correction control circuit comprises a remote control master circuit, a UWB locator, a Ziggbe communicator, a spectrum sensor and a power supply circuit; the remote control master circuit comprises a remote control master, a positioning transceiver resistor, a communication transceiver resistor and a light sensing transceiver resistor, a first end of the positioning transceiver resistor is connected with a positioning sampling end of the remote control master, a first end of the communication transceiver resistor is connected with a communication sampling end of the remote control master, and a first end of the light sensing transceiver resistor is connected with a light sensing sampling end of the remote control master; a transceiver end of the UWB locator is connected with a second end of the positioning transceiver resistor, and the UWB locator is used for coordinate positioning of a beacon; a transceiver end of the Ziggbe communicator is connected with a second end of the communication transceiver resistor, and the Ziggbe communicator is used for beacon coordinate information transmission; a transceiver end of the spectrum sensor is connected with a second end of the light sensing transceiver resistor, and the spectrum sensor is used for sensing ambient spectrum; and the power supply circuit supplies power for the remote control master, the UWB positioning circuit, the ziggbe module circuit and the spectrum sensing circuit. Under the cooperation of the UWB locator and the Ziggbe communicator, the position of the beacon is positioned, and the beacon is tracked by the remote control lamp, and at this time, the ambient light of the beacon is collected by the spectrum sensor, and then the spectrum correction instruction output by the remote control master is used to adjust the color temperature output by the remote control lamp, so that the color temperature in the scene used by the remote control lamp is kept consistent.

[0041] The above embodiments only express several embodiments of the present disclosure, and the description is more specific and detailed, but it cannot be understood as a limitation on the scope of the present disclosure. It should be noted that for ordinary skilled persons in the art, without departing from the concept of the present disclosure, several modifications and improvements can be made, which are within the protection scope of the present disclosure. Therefore, the protection scope of the present disclosure should be subject to the appended claims.

Claims

1. A remote lamp correction regulating circuit, characterized by, The remote control main control circuit comprises a remote control main controller, a positioning transceiver resistor, a communication transceiver resistor, and a light sensing transceiver resistor. The UWB locator is connected with the second end of the positioning transceiver resistor. The Ziggbe communicator is connected with the second end of the communication transceiver resistor. The light spectrum sensor is connected with the second end of the light sensing transceiver resistor. The power supply circuit supplies power for the remote control main controller, the UWB locator, the Ziggbe communicator, and the light spectrum sensor. The positioning transceiver resistor comprises a first positioning resistor.

2. The remote lamp correction regulation circuit of claim 1, wherein, The positioning transceiver resistor comprises a second positioning resistor.

3. The remote lamp correction regulation circuit of claim 1, wherein, The communication transceiver resistor comprises a first communication resistor.

4. The remote lamp correction regulation circuit of claim 1, wherein, The communication transceiver resistor comprises a second communication resistor.

5. The remote lamp correction regulation circuit of claim 1, wherein, The light sensing transceiver resistor comprises a first light sensing resistor.

6. The remote lamp correction regulation circuit of claim 1, wherein, The light sensing transceiver resistor comprises a second light sensing resistor.

7. The remote lamp correction regulating circuit of claim 1, wherein, The remote control main control circuit further comprises a first pull-up resistor.

8. The remote lamp correction regulation circuit of claim 1, wherein, The remote control main control circuit further comprises a second pull-up resistor.

9. The remote lamp correction regulating circuit of claim 1, wherein, The remote control lamp correction control circuit adopts any one of the remote control main control circuits in claims 1 to 9.

10. A remote control lamp characterized by, ​

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