Smart home control system

Abstract

The utility model discloses an intelligent home control system, which comprises a controller, an inductor module, an air purification module and a communication module, and is characterized in that environmental data is acquired and / or processed through the inductor module; the controller is used for controlling the air purification module according to the environment data so as to purify air; the sensor module is connected with the controller, the communication module is connected with the controller, under the control of the controller, the communication module sends environment data to the client side or receives a control signal of the client side, and the controller further controls the sensor module and / or the air purification module according to the control signal. Therefore, the working mode and the air speed of the air purifier can be dynamically adjusted according to the data monitored in real time, so that the optimal purification effect is achieved; besides, through a mobile application or a webpage end, remote monitoring and control over the air purification system are achieved, and a user can check and adjust the air quality data anytime and anywhere.

Description

Technical Field

[0001] The utility model relates to the technical field of environmental purifier control circuits, and in particular to an intelligent home control system. Background Art

[0002] An air purifier primarily consists of a motor, fan, and air filter. Some models are equipped with a humidifying water tank or auxiliary purification devices such as a negative ion generator and high-voltage circuit. The air filter is the core component. Other purification devices essentially serve auxiliary functions, so effective control of the air filter is the most critical factor directly affecting the effectiveness of an air purifier.

[0003] Existing purifiers typically operate in a fixed mode: once powered on, the air conditioner controls the air filter components to begin operating. These systems don't intelligently adjust the air filter based on environmental parameters, resulting in high energy consumption. Furthermore, excessive operation shortens the purifier's lifespan, and the lack of remote control makes them inconvenient to use. Utility Model Content

[0004] The present invention aims to solve one of the technical problems in the related art at least to a certain extent. To this end, one purpose of the present invention is to provide an intelligent home control system.

[0005] To achieve the above objectives, the present invention provides a smart home control system, comprising:

[0006] Controller;

[0007] a sensor module, the sensor module being connected to the controller to collect and / or process environmental data;

[0008] an air purification module, the air purification module being connected to the controller, the controller being configured to control the air purification module according to environmental data to purify the air;

[0009] A communication module, which is connected to the controller and is also used to communicate with the client to send environmental data to the client or receive control signals from the client under the control of the controller. The controller also controls the sensor module and / or the air purification module according to the control signal.

[0010] Furthermore, according to an embodiment of the present invention, the sensor module includes a PM2.5 detection circuit, and the PM2.5 detection circuit includes:

[0011] PM2.5 sensor, which is used to detect PM2.5 particles in the environment;

[0012] a first MOS transistor (Q101), wherein the source of the first MOS transistor (Q101) is connected to the signal sending end of the PM2.5 sensor via a first resistor (R101), the source of the first MOS transistor (Q101) is further connected to the first power supply output end via a second resistor (R104), the gate of the first MOS transistor (Q101) is connected to the first power supply output end via a third resistor (R106), the drain of the first MOS transistor (Q101) is connected to the first signal end of the controller via a fourth resistor (R124), and the drain of the first MOS transistor (Q101) is further connected to the second power supply output end via a fifth resistor (R108);

[0013] A second MOS transistor (Q100), wherein the source of the second MOS transistor (Q100) is connected to the signal receiving end of the PM2.5 sensor via a sixth resistor (R102), the source of the second MOS transistor (Q100) is further connected to the first power supply output end via a seventh resistor (R103), the gate of the second MOS transistor (Q100) is connected to the first power supply output end via an eighth resistor (R105), the drain of the second MOS transistor (Q100) is connected to the second signal end of the controller via a ninth resistor (R109), and the drain of the second MOS transistor (Q100) is further connected to the second power supply output end via a tenth resistor (R107).

[0014] Furthermore, according to an embodiment of the present invention, the sensor module also includes one or more of a carbon dioxide (CO2) sensor, a humidity sensor, a temperature sensor or a formaldehyde sensor; wherein the carbon dioxide (CO2) sensor is used to detect the carbon dioxide concentration in the environment; the humidity sensor is used to detect the humidity in the environment; the temperature sensor is used to detect the ambient temperature; and the formaldehyde sensor is used to detect the formaldehyde concentration in the environment.

[0015] Furthermore, according to an embodiment of the present invention, the air purification module includes:

[0016] A motor circuit is connected to the fan and the controller respectively, so as to control the rotation of the fan under the action of the controller.

[0017] Furthermore, according to an embodiment of the present invention, the communication module includes:

[0018] A WIFI module, the WIFI module is used for wireless communication connection with the client;

[0019] a third MOS transistor (Q10), wherein the source of the third MOS transistor (Q10) is connected to the signal receiving end of the WIFI module via an eleventh resistor (R141), the source of the third MOS transistor (Q10) is also connected to the first power supply output end via a twelfth resistor (R136), the gate of the third MOS transistor (Q10) is connected to the first power supply output end via a thirteenth resistor (R132), the drain of the third MOS transistor (Q10) is connected to the third signal end of the controller via a fourteenth resistor (R137), and the drain of the third MOS transistor (Q10) is also connected to the second power supply output end via a fifteenth resistor (R135);

[0020] A fourth MOS transistor (Q12), wherein the source of the fourth MOS transistor (Q12) is connected to the signal transmitting end of the WIFI module via a sixteenth resistor (R142), the source of the fourth MOS transistor (Q12) is further connected to the first power supply output end via a seventeenth resistor (R145), the gate of the fourth MOS transistor (Q12) is connected to the first power supply output end via an eighteenth resistor (R148), the drain of the fourth MOS transistor (Q12) is connected to the fourth signal end of the controller via a nineteenth resistor (R143), and the drain of the fourth MOS transistor (Q12) is further connected to the second power supply output end via a twentieth resistor (R146).

[0021] Furthermore, according to an embodiment of the present invention, the communication module further includes:

[0022] a first transistor (Q8), wherein the emitter of the first transistor (Q8) is connected to a power supply, the emitter of the first transistor (Q8) is further connected to the base of the first transistor (Q8) via a twenty-first resistor (R110), and the collector of the first transistor (Q8) is connected to a power supply terminal of the WIFI module;

[0023] A second transistor (Q9), wherein the collector of the second transistor (Q9) is connected to the base of the first transistor (Q8), the emitter of the second transistor (Q9) is connected to a reference ground, the base of the second transistor (Q9) is connected to the reference ground via a twenty-second resistor (R123), and the base of the second transistor (Q9) is further connected to a control terminal of the controller via a twenty-third resistor (R122).

[0024] Furthermore, according to an embodiment of the present invention, the smart home control system further includes:

[0025] The touch circuit includes a plurality of touch buttons, each of which is connected to the controller via a current-limiting resistor to send a control signal to the controller.

[0026] Furthermore, according to an embodiment of the present invention, the smart home control system further includes a speaker circuit, and the speaker circuit includes:

[0027] speaker;

[0028] a third transistor (Q108), wherein the base of the third transistor (Q108) is connected to the driving signal control terminal of the controller via a twenty-fourth resistor (R140), the base of the third transistor (Q108) is further connected to the reference ground via a twenty-fifth resistor (R139), the emitter of the third transistor (Q108) is connected to the reference ground, and the collector of the third transistor (Q108) is connected to one end of the speaker;

[0029] a fourth transistor (Q106), wherein the collector of the fourth transistor (Q106) is connected to the other end of the speaker via a twenty-sixth resistor (R130), the emitter of the fourth transistor (Q106) is connected to the output end of the speaker power supply, and the emitter of the fourth transistor (Q106) is further connected to the base of the fourth transistor (Q106) via a twenty-seventh resistor (R128);

[0030] a fifth transistor (Q107), wherein the collector of the fifth transistor (Q107) is connected to the base of the fourth transistor (Q106) via a twenty-eighth resistor (R129), the emitter of the fifth transistor (Q107) is connected to a reference ground, the base of the fifth transistor (Q107) is connected to the reference ground via a twenty-ninth resistor (R126), and the base of the fifth transistor (Q107) is further connected to the control terminal of the controller via a thirtieth resistor (R125).

[0031] Furthermore, according to an embodiment of the present invention, the smart home control system further includes a display circuit, the display circuit includes an RGB display circuit, and the RGB display circuit includes:

[0032] RGB lamp beads, the RGB lamp beads including one or more, the cathode of each RGB lamp bead being connected to the reference ground respectively;

[0033] A red light driving circuit, comprising a sixth transistor (Q2) and a seventh transistor (Q4), wherein the emitter of the sixth transistor (Q2) is connected to a display light power supply, the emitter of the sixth transistor (Q2) is further connected to the base of the sixth transistor (Q2) via a thirty-first resistor (R11), the collector of the sixth transistor (Q2) is connected to the anode of the red LED of the RGB lamp bead, the base of the sixth transistor (Q2) is connected to the collector of the seventh transistor (Q4) via a thirty-second resistor (R18), the emitter of the seventh transistor (Q4) is connected to a reference ground, the emitter of the seventh transistor (Q4) is further connected to the base of the seventh transistor (Q4) via a thirty-third resistor (R28), and the base of the seventh transistor (Q4) is further connected to a control terminal of the controller via a thirty-fourth resistor (R23);

[0034] A green light driving circuit, comprising an eighth transistor (Q1) and a ninth transistor (Q3), wherein the emitter of the eighth transistor (Q1) is connected to a display light power supply, the emitter of the eighth transistor (Q1) is further connected to the base of the eighth transistor (Q1) via a thirty-fifth resistor (R10), the collector of the eighth transistor (Q1) is connected to the anode of the green LED of the RGB lamp bead, the base of the eighth transistor (Q1) is connected to the collector of the ninth transistor (Q3) via a thirty-sixth resistor (R17), the emitter of the ninth transistor (Q3) is connected to a reference ground, the emitter of the ninth transistor (Q3) is further connected to the base of the ninth transistor (Q3) via a thirty-seventh resistor (R27), and the base of the ninth transistor (Q3) is further connected to a control terminal of the controller via a thirty-eighth resistor (R22);

[0035] A blue light driving circuit, comprising a tenth transistor (Q5) and an eleventh transistor (Q6), wherein the emitter of the tenth transistor (Q5) is connected to a display light power supply, the emitter of the tenth transistor (Q5) is further connected to the base of the tenth transistor (Q5) via a thirty-ninth resistor (R44), the collector of the tenth transistor (Q5) is connected to the anode of the blue light LED of the RGB lamp bead, the base of the tenth transistor (Q5) is connected to the collector of the eleventh transistor (Q6) via a fortieth resistor (R53), the emitter of the eleventh transistor (Q6) is connected to a reference ground, the emitter of the eleventh transistor (Q6) is further connected to the base of the eleventh transistor (Q6) via a forty-first resistor (R64), and the base of the eleventh transistor (Q6) is further connected to a control terminal of the controller via a forty-second resistor (R59).

[0036] Furthermore, according to an embodiment of the present invention, the smart home control system further includes a display circuit, wherein the display circuit includes a matrix display circuit, and the matrix display circuit includes:

[0037] LED light matrix, the LED light matrix includes multiple LED lamp beads, and the multiple LED lamp beads form an LED display matrix;

[0038] An LED lamp driver is connected to each of the LED lamp beads in the LED display matrix to control the lighting or extinguishing of each LED lamp bead.

[0039] The smart home control system provided by the embodiment of the present invention is connected to the controller through a sensor module to collect and / or process environmental data; the air purification module is connected to the controller, and the controller is used to control the air purification module according to the environmental data to purify the air; the communication module is connected to the controller, and the communication module is also used to communicate with the client to send the environmental data to the client or receive the control signal of the client under the control of the controller. The controller also controls the sensor module and / or the air purification module according to the control signal. In this way, the working mode and wind speed of the air purifier can be dynamically adjusted according to the real-time monitoring data to achieve the best purification effect, save electricity, and extend the service life of the machine; in addition, remote monitoring and control of the air purification system can be achieved through mobile applications or web pages, and users can view air quality data and make adjustments anytime and anywhere. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] Figure 1 This is a block diagram of the smart home control system provided by an embodiment of the present utility model;

[0041] Figure 2 A schematic diagram of a controller circuit provided in an embodiment of the present utility model;

[0042] Figure 3 A schematic diagram of the PM2.5 detection circuit structure provided by an embodiment of the present utility model;

[0043] Figure 4 A schematic diagram of the motor circuit structure provided by an embodiment of the utility model;

[0044] Figure 5 A schematic diagram of the WiFI circuit structure provided in an embodiment of the present utility model;

[0045] Figure 6 A schematic diagram of the touch circuit structure provided by an embodiment of the present utility model;

[0046] Figure 7A schematic diagram of the speaker circuit structure provided by an embodiment of the present utility model;

[0047] Figure 8A A schematic diagram of the RGB display circuit structure provided by an embodiment of the present utility model;

[0048] Figure 8B This is a schematic diagram of the matrix display circuit structure provided by an embodiment of the utility model.

[0049] The purpose, features and advantages of the present invention will be further described with reference to the accompanying drawings and in conjunction with the embodiments. DETAILED DESCRIPTION

[0050] In order to enable those skilled in the art to better understand the present invention, the following will be combined with the accompanying drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Unless otherwise defined, all technical and scientific terms used herein have the same meanings as those commonly understood by those skilled in the art to which the present invention belongs. The terms used in the specification of the present invention are only for the purpose of describing specific embodiments and are not intended to limit the present invention.

[0051] References to "embodiments" herein mean that a particular feature, structure, or characteristic described in connection with the embodiments may be included in at least one embodiment of the present invention. The appearance of this phrase in various places in the specification does not necessarily refer to the same embodiment, nor does it constitute an independent or alternative embodiment that is mutually exclusive of other embodiments. It is understood, both explicitly and implicitly, by those skilled in the art that the embodiments described herein may be combined with other embodiments.

[0052] See Figure 1 The embodiment of the present invention provides a smart home control system, comprising: a controller, a sensor module, an air purification module, and a communication module. The sensor module is connected to the controller to collect and / or process environmental data. The sensor module may include multiple types. For example, it may include one or more of a PM2.5 detection circuit, a carbon dioxide (CO2) sensor, a humidity sensor, a temperature sensor, or a formaldehyde sensor. The PM2.5 detection circuit can detect PM2.5 particles; the carbon dioxide (CO2) sensor is used to detect the carbon dioxide concentration in the environment; the humidity sensor is used to detect the humidity in the environment; the temperature sensor is used to detect the ambient temperature; and the formaldehyde sensor is used to detect the formaldehyde concentration in the environment. Each sensor can detect the corresponding environmental parameter and transmit the detection data to the controller. In this way, the controller can obtain specific environmental parameter information.

[0053] The air purification module is connected to the controller, which is used to control the air purification module based on environmental data to purify the air. After the controller obtains specific environmental parameter information through the sensor module, it can control the operation of the air purification module. The air purification module is equipped with an air purifier to filter the air and thus achieve air purification. When the ambient air quality is relatively good, the controller can control the air purification module to stop operating, thereby saving air purification consumables and energy.

[0054] The communication module is connected to the controller, and the communication module is also used to communicate with the client to send environmental data to the client or receive control signals from the client under the control of the controller. The controller also controls the sensor module and / or the air purification module according to the control signal. On the one hand, the client can receive the environmental parameter information collected and transmitted by the controller, so that the client can display the environmental parameter information so that the user can obtain environmental information through the client. In addition, the user can also decide whether to start the environmental purification operation based on the current environmental parameter information. The control signal of the client can be transmitted to the controller through the communication module, and the air purification module can be turned on or off by the controller. In this way, the working mode and wind speed of the air purifier can be dynamically adjusted according to the real-time monitoring data to achieve the best purification effect, save electricity and extend the service life of the machine; in addition, remote monitoring and control of the air purification system can be achieved through mobile applications or web pages, and users can view air quality data and make adjustments anytime, anywhere. The air purification system is interconnected with other smart home devices (such as air conditioners, humidifiers, smart curtains, etc.) to provide a full range of smart home experience. By integrating voice assistants (such as Alexa, Google Assistant, etc.), users can directly control the air purifier through voice commands, greatly improving the convenience of use.

[0055] See Figure 1 、 Figure 2 and Figure 3The sensor module includes a PM2.5 detection circuit, which includes: a PM2.5 sensor, a first MOS transistor (Q101), and a second MOS transistor (Q100). The PM2.5 sensor is used to detect PM2.5 particles in the environment; the source of the first MOS transistor (Q101) is connected to the signal sending end of the PM2.5 sensor through a first resistor (R101), the source of the first MOS transistor (Q101) is also connected to the first power supply output end through a second resistor (R104), the gate of the first MOS transistor (Q101) is connected to the first power supply output end through a third resistor (R106), and the drain of the first MOS transistor (Q101) is connected to the first power supply output end of the controller through a fourth resistor (R124). The controller is connected to a signal terminal of the controller, the drain of the first MOS transistor (Q101) is also connected to the second power supply output terminal through a fifth resistor (R108); the source of the second MOS transistor (Q100) is connected to the signal receiving terminal of the PM2.5 sensor through a sixth resistor (R102), the source of the second MOS transistor (Q100) is also connected to the first power supply output terminal through a seventh resistor (R103), the gate of the second MOS transistor (Q100) is connected to the first power supply output terminal through an eighth resistor (R105), the drain of the second MOS transistor (Q100) is connected to the second signal terminal of the controller through a ninth resistor (R109), and the drain of the second MOS transistor (Q100) is also connected to the second power supply output terminal through a tenth resistor (R107).

[0056] Specifically, if Figure 3 As shown in , the PM2.5 sensor can be connected through the CN4 interface and transmit and receive signals through the PM_TX and PM_RX signal terminals. When PM_TX is a low-level signal, the source of the first MOS transistor (Q101) can be pulled down to a low-level signal, thereby turning on the first MOS transistor (Q101) and outputting a low-level signal to the controller through the -PM-TX signal terminal. When PM_TX is a high-level signal, the source of the first MOS transistor (Q101) can be pulled up to a high-level signal, thereby turning off the first MOS transistor (Q101). The -PM-TX signal terminal is pulled up to a high-level signal through the fifth resistor (R108) and the second power supply, thereby outputting a high-level signal to the controller. In this way, the controller receives the output data of the PM2.5 sensor. The voltage of the first power supply can be lower than the voltage of the second power supply. In this way, the problem of the difference between the output signal of the PM2.5 sensor and the signal of the controller can be solved.

[0057] Similarly, the operating principle of the second MOS transistor (Q100) is substantially the same as that of the first MOS transistor (Q101). The controller can send high and low level signals via the -PM-RX signal terminal to control the conduction or cutoff of the first MOS transistor (Q101), thereby outputting corresponding high and low level signals to the PM2.5 sensor, thereby achieving communication between the PM2.5 sensor and the controller. In this way, the PM2.5 sensor can transmit the collected PM2.5 particle information to the controller.

[0058] See Figure 1 、 Figure 2 and Figure 4 The air purification module includes: a motor circuit, which is connected to the fan and the controller respectively, so as to control the rotation of the fan under the action of the controller. Figure 4 As shown in , the motor circuit may include a fan interface that can be connected to a fan. This allows the fan to rotate under the control of the controller, drawing ambient air into the purifier for filtration. Fuse F1 provides short-circuit protection for the fan, while transient diodes TVS1 and TVS2 absorb transient signals from the fan to prevent damage to the controller. The controller can adjust the fan speed via the -M-PWM signal terminal and start or stop the fan via the -M-EN signal terminal.

[0059] See Figure 1 、 Figure 2 and Figure 5The communication module includes: a WIFI module, a third MOS transistor (Q10) and a fourth MOS transistor (Q12); the WIFI module is used for wireless communication connection with the client; the source of the third MOS transistor (Q10) is connected to the signal receiving end of the WIFI module through an eleventh resistor (R141); the source of the third MOS transistor (Q10) is also connected to the first power supply output end through a twelfth resistor (R136); the gate of the third MOS transistor (Q10) is connected to the first power supply output end through a thirteenth resistor (R132); the drain of the third MOS transistor (Q10) is connected to the third signal end of the controller through a fourteenth resistor (R137); the third MOS transistor (Q10) is connected to the third signal end of the controller through a fourteenth resistor (R137); The drain of the fourth MOS transistor (Q12) is also connected to the second power supply output terminal through a fifteenth resistor (R135); the source of the fourth MOS transistor (Q12) is connected to the signal sending terminal of the WIFI module through a sixteenth resistor (R142); the source of the fourth MOS transistor (Q12) is also connected to the first power supply output terminal through a seventeenth resistor (R145); the gate of the fourth MOS transistor (Q12) is connected to the first power supply output terminal through an eighteenth resistor (R148); the drain of the fourth MOS transistor (Q12) is connected to the fourth signal terminal of the controller through a nineteenth resistor (R143); and the drain of the fourth MOS transistor (Q12) is also connected to the second power supply output terminal through a twentieth resistor (R146).

[0060] Specifically, if Figure 5 As shown in , the WIFI module can be accessed through the J_WIFI interface. Signals are sent and received through the WF_TX and WF_RX signal terminals. When WF_TX is a low-level signal, the source of the third MOS tube (Q10) can be pulled down to a low-level signal, thereby turning on the third MOS tube (Q10) and outputting a low-level signal to the controller through the -WF-TX signal terminal. When WF_TX is a high-level signal, the source of the third MOS tube (Q10) can be pulled up to a high-level signal, thereby turning off the third MOS tube (Q10), and the -WF-TX signal terminal is pulled up to a high-level signal through the fifteenth resistor (R135) and the second power supply, thereby outputting a high-level signal to the controller. In this way, the controller receives the output data of the WIFI module. The voltage of the first power supply can be less than the voltage of the second power supply. In this way, the problem of the difference between the output signal of the WIFI module and the signal of the controller can be solved.

[0061] Similarly, the operating principle of the fourth MOS transistor (Q12) is substantially the same as that of the third MOS transistor (Q10). The controller can send high and low level signals via the -PM-RX signal terminal to control the conduction or cutoff of the third MOS transistor (Q10), thereby outputting corresponding high and low level signals to the WIFI module, thereby enabling communication between the WIFI module and the controller. The WIFI module can be wirelessly connected to a WIFI router. In this way, it can be connected to a remote server through the WIFI router. Since the client is also connected to the remote server, communication between the controller and the client can be achieved.

[0062] See Figure 5 The communication module further comprises: a first transistor (Q8) and a second transistor (Q9), wherein the emitter of the first transistor (Q8) is connected to a power supply, the emitter of the first transistor (Q8) is further connected to the base of the first transistor (Q8) via a twenty-first resistor (R110), and the collector of the first transistor (Q8) is connected to the power supply end of the WIFI module; the collector of the second transistor (Q9) is connected to the base of the first transistor (Q8), the emitter of the second transistor (Q9) is connected to a reference ground, the base of the second transistor (Q9) is connected to the reference ground via a twenty-second resistor (R123), and the base of the second transistor (Q9) is further connected to a control end of the controller via a twenty-third resistor (R122).

[0063] Specifically, if Figure 5 As shown in , the first transistor (Q8) and the second transistor (Q9) can be used to switch the power output of the WIFI circuit, thereby disconnecting the power supply of the WIFI circuit when the WIFI is not in use, thereby achieving the purpose of saving power. Its specific working process is that the controller can output high and low level signals through the -WF-EN signal terminal. When the -WF-EN signal terminal outputs a high level signal, the second transistor (Q9) and the first transistor (Q8) can be turned on, thereby outputting the power supply WF-V and powering the WIFI circuit. When the WIFI circuit is not needed for wireless communication, the controller can output a low level signal through the WF-EN signal terminal, thereby turning off the second transistor (Q9) and the first transistor (Q8), thereby disconnecting the power supply of the WIFI circuit, thereby achieving the purpose of saving power.

[0064] See Figure 1 、 Figure 2 and Figure 6, the smart home control system further includes: a touch circuit, the touch circuit includes a plurality of touch buttons, each of the touch buttons is connected to the controller via a current limiting resistor to send a control signal to the controller. Figure 6 As shown in , the touch circuit may include multiple touch buttons (TK1 to TK9). Each touch button can obtain touch information of a touch point and send the touch information to the controller. In this way, the controller can control the working state of each circuit module according to the touch information.

[0065] See Figure 1 、 Figure 2 and Figure 7 The smart home control system further includes a speaker circuit, which includes: a speaker, a third transistor (Q108), a fourth transistor (Q106) and a fifth transistor (Q107), wherein the base of the third transistor (Q108) is connected to the drive signal control terminal of the controller through a twenty-fourth resistor (R140), the base of the third transistor (Q108) is further connected to the reference ground through a twenty-fifth resistor (R139), the emitter of the third transistor (Q108) is connected to the reference ground, and the collector of the third transistor (Q108) is connected to one end of the speaker; the collector of the fourth transistor (Q106) is connected to the speaker through a twenty-sixth resistor (R130). The other end of the device is connected, the emitter of the fourth transistor (Q106) is connected to the output end of the speaker power supply, and the emitter of the fourth transistor (Q106) is also connected to the base of the fourth transistor (Q106) through a twenty-seventh resistor (R128); the collector of the fifth transistor (Q107) is connected to the base of the fourth transistor (Q106) through a twenty-eighth resistor (R129), the emitter of the fifth transistor (Q107) is connected to the reference ground, the base of the fifth transistor (Q107) is connected to the reference ground through a twenty-ninth resistor (R126), and the base of the fifth transistor (Q107) is also connected to the control end of the controller through a thirtieth resistor (R125).

[0066] Specifically, the controller can control the power supply of the speaker through the BUZZ_PWR signal terminal and control the sound of the speaker through the BUZZ_PWM signal terminal. The specific working process is as follows: when the controller needs to control the speaker to emit sound, it can output a high-level signal through the BUZZ_PWR signal terminal. This high-level signal can turn on the fifth transistor (Q107) and the fourth transistor (Q106), thereby outputting the power supply S12V to the speaker. At the same time, the controller also outputs a pulse signal through the BUZZ_PWM signal terminal. This pulse signal can turn on or off the third transistor (Q108), thereby controlling the output sound of the speaker. Conversely, when the BUZZ_PWR signal terminal outputs a low-level signal, it can turn off both the fifth transistor (Q107) and the fourth transistor (Q106), and the speaker stops playing sound without power supply.

[0067] See Figure 1 、 Figure 28 , the smart home control system further includes a display circuit, the display circuit includes an RGB display circuit, the RGB display circuit includes: RGB lamp beads, a red light driving circuit, a green light driving circuit and a blue light driving circuit, the RGB lamp beads include one or more, and the cathode of each RGB lamp bead is respectively connected to the reference ground; the red light driving circuit includes a sixth transistor (Q2) and a seventh transistor (Q4), the emitter of the sixth transistor (Q2) is connected to the display lamp power supply, the emitter of the sixth transistor (Q2) is connected to the display lamp power supply, and the emitter of the sixth transistor (Q4) is connected to the display lamp power supply. The emitter of the sixth transistor (Q2) is further connected to the base of the sixth transistor (Q2) through a thirty-first resistor (R11), the collector of the sixth transistor (Q2) is connected to the anode of the red LED of the RGB lamp bead, the base of the sixth transistor (Q2) is connected to the collector of the seventh transistor (Q4) through a thirty-second resistor (R18), the emitter of the seventh transistor (Q4) is connected to the reference ground, and the emitter of the seventh transistor (Q4) is further connected to the reference ground through a thirty-third resistor (R28). The base of the seventh transistor (Q4) is connected, and the base of the seventh transistor (Q4) is also connected to a control terminal of the controller through a thirty-fourth resistor (R23); the green light driving circuit includes an eighth transistor (Q1) and a ninth transistor (Q3), the emitter of the eighth transistor (Q1) is connected to the display light power supply, the emitter of the eighth transistor (Q1) is also connected to the base of the eighth transistor (Q1) through a thirty-fifth resistor (R10), and the collector of the eighth transistor (Q1) is connected to the display light power supply. The eighth transistor (Q1) is connected to the anode of the green LED of the RGB lamp bead, the base of the eighth transistor (Q1) is connected to the collector of the ninth transistor (Q3) via a thirty-sixth resistor (R17), the emitter of the ninth transistor (Q3) is connected to the reference ground, the emitter of the ninth transistor (Q3) is further connected to the base of the ninth transistor (Q3) via a thirty-seventh resistor (R27), and the base of the ninth transistor (Q3) is further connected to a control terminal of the controller via a thirty-eighth resistor (R22);The blue light driving circuit includes a tenth transistor (Q5) and an eleventh transistor (Q6), the emitter of the tenth transistor (Q5) being connected to a display light power supply, the emitter of the tenth transistor (Q5) being further connected to the base of the tenth transistor (Q5) via a thirty-ninth resistor (R44), the collector of the tenth transistor (Q5) being connected to the anode of the blue light LED of the RGB lamp bead, the base of the tenth transistor (Q5) being connected to the collector of the eleventh transistor (Q6) via a fortieth resistor (R53), the emitter of the eleventh transistor (Q6) being connected to a reference ground, the emitter of the eleventh transistor (Q6) being further connected to the base of the eleventh transistor (Q6) via a forty-first resistor (R64), and the base of the eleventh transistor (Q6) being further connected to a control terminal of the controller via a forty-second resistor (R59).

[0068] Specifically, as shown in FIG8 , the RGB lamp can include multiple lamp beads (LD1 to LD17), each of which can include red, green, and blue LEDs. The cathode of each LED is connected to a reference ground. The anode of each red LED is connected to the red light driver circuit; the anode of each green LED is connected to the green light driver circuit; and the anode of each blue LED is connected to the blue light driver circuit. In this way, the red light driver circuit can simultaneously drive each red LED to emit light; the green light driver circuit can simultaneously drive each green LED to emit light; and the blue light driver circuit can simultaneously drive each blue LED to emit light. Because the circuit structures of the red, green, and blue light driver circuits are essentially the same, only the red light driver circuit will be used as an example for explanation. When the controller needs to control the red LED to emit light, it can output a high-level signal through the CTL_R signal terminal. This high-level signal turns on both the seventh transistor (Q4) and Q2, and outputs the drive power DRV_R to the anode terminals of each red LED, thereby illuminating each red LED simultaneously.

[0069] See Figure 1 、 Figure 2As shown in Figure 8 , the smart home control system also includes a display circuit, which includes a matrix display circuit. The matrix display circuit includes: an LED light matrix and an LED light driver. The LED light matrix includes multiple LED light beads, which form an LED display matrix. The LED light driver is respectively connected to the LED light beads in the LED display matrix to control the lighting or extinguishing of each LED light bead. As shown in Figure 8 , the LED light driver U3 can communicate with the controller via the TM-DIO, TM-CLK, and TM-STB signal terminals. In this way, the lighting of each LED light bead in the LED light matrix can be controlled under the control of the controller. The LED light driver outputs 10 rows and 7 columns of control signals, so that each light bead can be controlled to light or extinguish.

[0070] The above are only embodiments of the present invention, but do not limit the scope of the patent of the present invention. Although the present invention has been described in detail with reference to the above embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the above embodiments or to replace some of the technical features with equivalent ones. Any equivalent structure made by using the contents of the present invention specification and drawings, directly or indirectly applied to other related technical fields, shall also fall within the scope of protection of the present invention patent.

[0071] Throughout this specification, reference to terms such as "one embodiment," "some embodiments," "examples," "specific examples," or "some examples" means that the specific features, structures, materials, or characteristics described in conjunction with that embodiment or example are included in at least one embodiment or example of the present invention. In this specification, schematic representations of the above terms do not necessarily refer to the same embodiment or example. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in any one or more embodiments or examples.

[0072] Although the embodiments of the present invention have been shown and described above, it can be understood that the above embodiments are illustrative and cannot be understood as limitations on the present invention. Ordinary technicians in this field can change, modify, replace and modify the above embodiments within the scope of the present invention without departing from the principles and purpose of the present invention.

Claims

1. A smart home control system, characterized in that: include: Controller; a sensor module, the sensor module being connected to the controller to collect and / or process environmental data; an air purification module, the air purification module being connected to the controller, the controller being configured to control the air purification module according to environmental data to purify the air; A communication module, which is connected to the controller and is also used to communicate with the client to send environmental data to the client or receive control signals from the client under the control of the controller. The controller also controls the sensor module and / or the air purification module according to the control signal.

2. The smart home control system according to claim 1, characterized in that: The sensor module includes a PM2.5 detection circuit, which includes: PM2.5 sensor, which is used to detect PM2.5 particles in the environment; a first MOS transistor (Q101), wherein the source of the first MOS transistor (Q101) is connected to the signal sending end of the PM2.5 sensor via a first resistor (R101), the source of the first MOS transistor (Q101) is further connected to the first power supply output end via a second resistor (R104), the gate of the first MOS transistor (Q101) is connected to the first power supply output end via a third resistor (R106), the drain of the first MOS transistor (Q101) is connected to the first signal end of the controller via a fourth resistor (R124), and the drain of the first MOS transistor (Q101) is further connected to the second power supply output end via a fifth resistor (R108); A second MOS transistor (Q100), wherein the source of the second MOS transistor (Q100) is connected to the signal receiving end of the PM2.5 sensor via a sixth resistor (R102), the source of the second MOS transistor (Q100) is further connected to the first power supply output end via a seventh resistor (R103), the gate of the second MOS transistor (Q100) is connected to the first power supply output end via an eighth resistor (R105), the drain of the second MOS transistor (Q100) is connected to the second signal end of the controller via a ninth resistor (R109), and the drain of the second MOS transistor (Q100) is further connected to the second power supply output end via a tenth resistor (R107).

3. The smart home control system according to claim 1 or 2, characterized in that: The sensor module also includes one or more of a carbon dioxide sensor, a humidity sensor, a temperature sensor or a formaldehyde sensor; wherein the carbon dioxide sensor is used to detect the carbon dioxide concentration in the environment; the humidity sensor is used to detect the humidity in the environment; the temperature sensor is used to detect the ambient temperature; and the formaldehyde sensor is used to detect the formaldehyde concentration in the environment.

4. The smart home control system according to claim 1, characterized in that: The air purification module comprises: A motor circuit is connected to the fan and the controller respectively, so as to control the rotation of the fan under the action of the controller.

5. The smart home control system according to claim 1, characterized in that: The communication module includes: A WIFI module, the WIFI module is used for wireless communication connection with the client; a third MOS transistor (Q10), wherein the source of the third MOS transistor (Q10) is connected to the signal receiving end of the WIFI module via an eleventh resistor (R141), the source of the third MOS transistor (Q10) is also connected to the first power supply output end via a twelfth resistor (R136), the gate of the third MOS transistor (Q10) is connected to the first power supply output end via a thirteenth resistor (R132), the drain of the third MOS transistor (Q10) is connected to the third signal end of the controller via a fourteenth resistor (R137), and the drain of the third MOS transistor (Q10) is also connected to the second power supply output end via a fifteenth resistor (R135); A fourth MOS transistor (Q12), wherein the source of the fourth MOS transistor (Q12) is connected to the signal transmitting end of the WIFI module via a sixteenth resistor (R142), the source of the fourth MOS transistor (Q12) is further connected to the first power supply output end via a seventeenth resistor (R145), the gate of the fourth MOS transistor (Q12) is connected to the first power supply output end via an eighteenth resistor (R148), the drain of the fourth MOS transistor (Q12) is connected to the fourth signal end of the controller via a nineteenth resistor (R143), and the drain of the fourth MOS transistor (Q12) is further connected to the second power supply output end via a twentieth resistor (R146).

6. The smart home control system according to claim 5, characterized in that: The communication module further includes: a first transistor (Q8), wherein the emitter of the first transistor (Q8) is connected to a power supply, the emitter of the first transistor (Q8) is further connected to the base of the first transistor (Q8) via a twenty-first resistor (R110), and the collector of the first transistor (Q8) is connected to a power supply terminal of the WIFI module; A second transistor (Q9), wherein the collector of the second transistor (Q9) is connected to the base of the first transistor (Q8), the emitter of the second transistor (Q9) is connected to a reference ground, the base of the second transistor (Q9) is connected to the reference ground via a twenty-second resistor (R123), and the base of the second transistor (Q9) is further connected to a control terminal of the controller via a twenty-third resistor (R122).

7. The smart home control system according to claim 1, characterized in that: Also includes: The touch circuit includes a plurality of touch buttons, each of which is connected to the controller via a current-limiting resistor to send a control signal to the controller.

8. The smart home control system according to claim 1, characterized in that: Also included is a speaker circuit, the speaker circuit comprising: speaker; a third transistor (Q108), wherein the base of the third transistor (Q108) is connected to the driving signal control terminal of the controller via a twenty-fourth resistor (R140), the base of the third transistor (Q108) is further connected to the reference ground via a twenty-fifth resistor (R139), the emitter of the third transistor (Q108) is connected to the reference ground, and the collector of the third transistor (Q108) is connected to one end of the speaker; a fourth transistor (Q106), wherein the collector of the fourth transistor (Q106) is connected to the other end of the speaker via a twenty-sixth resistor (R130), the emitter of the fourth transistor (Q106) is connected to the output end of the speaker power supply, and the emitter of the fourth transistor (Q106) is further connected to the base of the fourth transistor (Q106) via a twenty-seventh resistor (R128); a fifth transistor (Q107), wherein the collector of the fifth transistor (Q107) is connected to the base of the fourth transistor (Q106) via a twenty-eighth resistor (R129), the emitter of the fifth transistor (Q107) is connected to a reference ground, the base of the fifth transistor (Q107) is connected to the reference ground via a twenty-ninth resistor (R126), and the base of the fifth transistor (Q107) is further connected to the control terminal of the controller via a thirtieth resistor (R125).

9. The smart home control system according to claim 1, characterized in that: The display circuit further includes an RGB display circuit, and the RGB display circuit includes: RGB lamp beads, the RGB lamp beads including one or more, the cathode of each RGB lamp bead being connected to the reference ground respectively; A red light driving circuit, comprising a sixth transistor (Q2) and a seventh transistor (Q4), wherein the emitter of the sixth transistor (Q2) is connected to a display light power supply, the emitter of the sixth transistor (Q2) is further connected to the base of the sixth transistor (Q2) via a thirty-first resistor (R11), the collector of the sixth transistor (Q2) is connected to the anode of the red LED of the RGB lamp bead, the base of the sixth transistor (Q2) is connected to the collector of the seventh transistor (Q4) via a thirty-second resistor (R18), the emitter of the seventh transistor (Q4) is connected to a reference ground, the emitter of the seventh transistor (Q4) is further connected to the base of the seventh transistor (Q4) via a thirty-third resistor (R28), and the base of the seventh transistor (Q4) is further connected to a control terminal of the controller via a thirty-fourth resistor (R23); A green light driving circuit, comprising an eighth transistor (Q1) and a ninth transistor (Q3), wherein the emitter of the eighth transistor (Q1) is connected to a display light power supply, the emitter of the eighth transistor (Q1) is further connected to the base of the eighth transistor (Q1) via a thirty-fifth resistor (R10), the collector of the eighth transistor (Q1) is connected to the anode of the green LED of the RGB lamp bead, the base of the eighth transistor (Q1) is connected to the collector of the ninth transistor (Q3) via a thirty-sixth resistor (R17), the emitter of the ninth transistor (Q3) is connected to a reference ground, the emitter of the ninth transistor (Q3) is further connected to the base of the ninth transistor (Q3) via a thirty-seventh resistor (R27), and the base of the ninth transistor (Q3) is further connected to a control terminal of the controller via a thirty-eighth resistor (R22); A blue light driving circuit, comprising a tenth transistor (Q5) and an eleventh transistor (Q6), wherein the emitter of the tenth transistor (Q5) is connected to a display light power supply, the emitter of the tenth transistor (Q5) is further connected to the base of the tenth transistor (Q5) via a thirty-ninth resistor (R44), the collector of the tenth transistor (Q5) is connected to the anode of the blue light LED of the RGB lamp bead, the base of the tenth transistor (Q5) is connected to the collector of the eleventh transistor (Q6) via a fortieth resistor (R53), the emitter of the eleventh transistor (Q6) is connected to a reference ground, the emitter of the eleventh transistor (Q6) is further connected to the base of the eleventh transistor (Q6) via a forty-first resistor (R64), and the base of the eleventh transistor (Q6) is further connected to a control terminal of the controller via a forty-second resistor (R59).

10. The smart home control system according to claim 1, characterized in that: The display circuit further includes a matrix display circuit, wherein the matrix display circuit includes: LED light matrix, the LED light matrix includes multiple LED lamp beads, and the multiple LED lamp beads form an LED display matrix; An LED lamp driver is connected to each of the LED lamp beads in the LED display matrix to control the lighting or extinguishing of each LED lamp bead.

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