Intelligent panel temperature control system

Abstract

The utility model discloses an intelligent panel temperature control system which comprises a panel-core board connection module and a word lamp amp. A touch indicating lamp module and a word lamp amp; a touch indicating lamp driving module, a segment code screen interface module and a segment code screen amp; a backlight driving module, a key input detection module and a programming amp; the system comprises a panel-core board module, a reset key input detection module, a temperature and humidity detection module, a vibration motor driving module, a touch input detection module and a proximity induction detection module, the proximity induction detection module is connected with other modules of the system through the panel-core board module, and the panel-core board module processes an external signal and outputs a control signal to other modules. Key input detection of the system is realized, and amp is programmed; reset key input detection, temperature and humidity detection, vibration motor driving, touch input detection, proximity induction detection and segment code screen amp; a backlight driver and a word lamp amp; the touch indicating lamp driving module drives the word lamp amp; a touch indicator light is turned on, and a segment code screen is amp; and the backlight driving module drives the segment code screen to display.

Description

Technical Field

[0001] The present application relates to the technical field of temperature control systems, and specifically to an intelligent panel temperature control system. Background Art

[0002] The temperature control system is a device used to control and adjust the indoor temperature. It is often used in smart homes or commercial buildings to achieve precise control of heating, ventilation and air-conditioning systems. However, the current temperature control system is not functional enough. In daily use, there are many devices in the room that need to be switched on and off. If a switch is installed for each type, it will be unsightly and inconvenient to use. If the temperature control system can have functions such as switching, dimming, curtains, scenes, air conditioning, floor heating, fresh air, etc.; have long press and short press functions; infrared proximity sensing function; glass touch auxiliary buttons, which can provide two additional programmable shortcut button functions; multiple LED backlight metal hollow status displays, users will find it more convenient to use. Summary of the invention

[0003] The present application provides an intelligent panel temperature control system to solve the above technical problems.

[0004] The technical solution adopted by the present application to solve its technical problem is: to provide an intelligent panel temperature control system, including: a panel-core board connection module, a character light & touch indicator light module, a character light & touch indicator light drive module, a segment code screen interface module, a segment code screen & backlight drive module, a key input detection module, a programming & reset key input detection module, a temperature and humidity detection module, a vibration motor drive module, a touch input detection module and a proximity sensing detection module.

[0005] The panel-core board connection module supplies power to other modules. The proximity sensing detection module connects to other modules of the system through the panel-core board module. The proximity sensing detection module receives external signals. The panel-core board module processes external signals and outputs control signals to other modules to realize key input detection, programming & reset key input detection, temperature and humidity detection, vibration motor drive, touch input detection, proximity sensing detection and segment code screen & backlight drive of the intelligent panel temperature control system. The character light & touch indicator light drive module drives the character light & touch indicator light to turn on, and the segment code screen & backlight drive module drives the segment code screen to display.

[0006] Preferably, the panel-core board connection module connects the core board and the panel through corresponding connectors CN1, CN2 and CN3, and outputs control signals to other modules through the I / O driver output from the core board.

[0007] Preferably, the character light & touch indicator light module drives the character light and touch indicator light through the constant current source chip U1. The core board MCU gives clock signals and data signals to the constant current source chip U1 through the panel-core board connection module. The constant current source chip U1 recognizes the signal and executes the corresponding operation, and controls the character light & touch indicator light module through OUT0-OUT15 output.

[0008] Preferably, the segment code screen & backlight driver module includes a segment code screen driver chip U6, which is connected to interface J1 of the segment code screen interface module through SEG3-SEG31 and COM1-COM3 interfaces. The core board MCU gives a driving signal to the segment code screen driver chip U6 through the panel-core board connection module. The segment code screen driver chip U6 recognizes the signal and performs the corresponding operation.

[0009] Preferably, the key input detection module is connected to the KEY1-MCU KEY10 interface of the panel-core board module, and detects whether the keys S1-S10 are pressed through the I / O corresponding to the panel-core board module.

[0010] Preferably, the programming & reset button input detection module is connected to the NRST and PB2 interfaces of the panel-core board module, and determines whether S3 or S4 is pressed through the NRST and PB2 interfaces on the panel-core board module, thereby determining whether to execute a programming operation or a reset operation.

[0011] Preferably, the temperature and humidity detection module includes a temperature and humidity detection circuit and a temperature detection circuit, and the temperature and humidity detection circuit and the temperature detection circuit cannot work at the same time.

[0012] Preferably, the touch input detection module includes a touch chip U2, and the touch contacts of the touch chip U2 are TS1-TS6 interfaces. When the touch contacts are any one of the TS1-TS6 interfaces to detect touch input, the touch chip U2 will recognize and communicate with the core board MCU through the TCH1-TCH6 interface of the panel-core board connection module.

[0013] Preferably, the PA15 interface of the vibration motor driving module is connected to the panel-core board connecting module, and the panel-core board connecting module and the touch input detection module are used to determine whether the touch button is pressed, thereby controlling the motor.

[0014] Preferably, the proximity sensing interface J5 of the proximity sensing detection module is connected to the panel-core board connection module, and the signal is emitted by driving the light-emitting diode D5. The proximity sensing module senses the distance between the human body and the panel by receiving the reflected signal, and the reflected signal is transmitted by the IIC interface through the panel-core board module to the I / O corresponding to the core board MCU to realize the proximity sensing function.

[0015] The substantial effect of this application is: this intelligent panel temperature control system has functions such as switch, dimming, curtains, scenes, air conditioning, floor heating, fresh air, etc.; it has long press and short press functions; infrared proximity sensing function; glass touch auxiliary buttons, which can provide two additional programmable shortcut button functions; multiple LED backlight metal hollow status displays, which will make it more convenient for users to use to realize switch control, and the functions are very complete. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a circuit connection diagram of the panel-core board connection module of the intelligent panel temperature control system of the present application;

[0017] Figure 2 This is a circuit connection diagram of the character light & touch indicator light module of the smart panel temperature control system of this application;

[0018] Figure 3 This is a circuit connection diagram of the character light & touch indicator light drive module of the intelligent panel temperature control system of the present application;

[0019] Figure 4 It is a circuit connection diagram of the segment code screen interface module of the intelligent panel temperature control system of the present application;

[0020] Figure 5 It is a circuit connection diagram of the segment code screen & backlight drive module of the intelligent panel temperature control system of the present application;

[0021] Figure 6 It is a circuit connection diagram of the key input detection module of the intelligent panel temperature control system of the present application;

[0022] Figure 7 It is a circuit connection diagram of the programming & reset button input detection module of the smart panel temperature control system of the present application;

[0023] Figure 8 It is a circuit connection diagram of the temperature and humidity detection module of the intelligent panel temperature control system of the present application;

[0024] Fig. 9 It is a circuit connection diagram of the touch input detection module and the vibration motor drive module of the intelligent panel temperature control system of the present application;

[0025] Fig.10 It is a circuit connection diagram of the vibration motor drive module of the intelligent panel temperature control system of the present application;

[0026] Fig.11 It is a circuit connection diagram of the proximity sensing detection module of the smart panel temperature control system of the present application. DETAILED DESCRIPTION

[0027] The technical solution of the present application is further described below through specific embodiments.

[0028] Embodiment 1

[0029] like Figure 1-11 As shown, an embodiment of the intelligent panel temperature control system of the present application includes: a panel-core board connection module, a character light & touch indicator light module, a character light & touch indicator light driving module, a segment code screen interface module, a segment code screen & backlight driving module, a key input detection module, a programming & reset key input detection module, a temperature and humidity detection module, a vibration motor driving module, a touch input detection module and a proximity sensing detection module.

[0030] The panel-core board connection module supplies power to other modules. The proximity sensing detection module connects to other modules of the system through the panel-core board module. The proximity sensing detection module receives external signals. The panel-core board module processes external signals and outputs control signals to other modules to realize key input detection, programming & reset key input detection, temperature and humidity detection, vibration motor drive, touch input detection, proximity sensing detection and segment code screen & backlight drive of the intelligent panel temperature control system. The character light & touch indicator light drive module drives the character light & touch indicator light to turn on, and the segment code screen & backlight drive module drives the segment code screen to display.

[0031] like Figure 1 As shown, the panel-core board connection module connects the core board and the panel through the corresponding connectors CN1, CN2, and CN3, and drives the corresponding circuits through the I / O brought from the core board.

[0032] like Figure 2 and 3As shown, the character light & touch indicator light module shows the connection method of the LED. The anodes of the light-emitting diodes D1, D28, D34, and D35 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R4, and the cathode K is driven through the OUT0 interface of the chip U4. The anodes of the light-emitting diodes D2, D29, D36, and D37 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R5, and the cathode K is driven through the OUT1 interface of the chip U4. The anodes of the light-emitting diodes D39, D38, D5, and D30 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R11, and the cathode K is driven through the OUT2 interface of the chip U4. The anodes of the light-emitting diodes D41, D40, D6, and D31 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R12, and the cathode K is driven through the OUT3 interface of the chip U4. After the anodes of the light-emitting diodes D76, D74, D12, and D42 are connected in parallel, they are connected to the power supply VDD_5V through the current limiting resistor R15, and the cathode K is driven through the OUT4 interface of the chip U4. After the anodes of the light-emitting diodes D77, D75, D13, and D44 are connected in parallel, they are connected to the power supply VDD_5V through the current limiting resistor R16, and the cathode K is driven through the OUT5 interface of the chip U4. After the anodes of the light-emitting diodes D78, D79, D80, and D81 are connected in parallel, they are connected to the power supply VDD_5V through the current limiting resistor R92, and the cathode K is driven through the OUT6 interface of the chip U4. After the anodes of the light-emitting diodes D82, D83, D84, and D85 are connected in parallel, they are connected to the power supply VDD_5V through the current limiting resistor R93, and the cathode K is driven through the OUT6 interface of the chip U4. After the anodes of the light-emitting diodes D89, D92, D91, and D90 are connected in parallel, they are connected to the power supply VDD_5V through the current limiting resistor R94, and the cathode K is driven through the OUT8 interface of the chip U4. After the anodes of the light-emitting diodes D93, D92, D91, and D90 are connected in parallel, they are connected to the power supply VDD_5V through the current limiting resistor R95, and the cathode K is driven through the OUT8 of the chip U4. In this way, each group of four word lights in parallel can be lit and extinguished at the same time. The on and off mode is controlled by the constant current source chip U1.

[0033] The power supply VDD3V3 is connected to the first end of R6, the second end of R6 is connected to the A end of D3, and the K end of D3 is connected to OUT10 of U1. The power supply VDD3V3 is connected to the first end of R7, the second end of R7 is connected to the A end of D4, and the K end of D4 is connected to OUT13 of U1. The power supply VDD3V3 is connected to the first end of R13, the second end of R13 is connected to the A end of D7, and the K end of D7 is connected to OUT11 of U1. The power supply VDD3V3 is connected to the first end of R14, the second end of R14 is connected to the A end of D8, and the K end of D8 is connected to OUT14 of U1. The power supply VDD3V3 is connected to the first end of R17, the second end of R17 is connected to the A end of D14, and the K end of D14 is connected to OUT12 of U1. The power supply VDD3V3 is connected to the first end of R18, the second end of R18 is connected to the A end of D15, and the K end of D15 is connected to OUT15 of U1. The light-emitting diode here is used as a touch indicator.

[0034] like Figure 3 As shown, the character light & touch indicator light module consists of a constant current source chip U1, filter capacitor C13, capacitors C66, C67, C68, C69, pull-up resistor R32, pull-down resistor R37, ESD tubes D47, D48, D49, D50, resistor R31, magnetic beads R35, R36, R117, R118. The character light and touch indicator light are mainly driven by the constant current source chip U1. The core board MCU gives the clock signal and data signal to the constant current source chip U1 through the panel-core board connection module. The constant current source chip U1 performs the corresponding operation after recognizing the signal. Output control through OUT0-OUT15 Figure 3 The character light & touch indicator light module, most of the resistors, capacitors and ESD tubes here play a role in electrostatic protection.

[0035] like Figure 4As shown, the interface J1 is connected to the segment code screen externally. The first end of J1 of the segment code screen interface module is connected to the first end of R124 and the second end of the capacitor C70. The first end of C70 is grounded, and the second end of R124 is connected to SEG3 of U6. The second end of J1 is connected to the first end of R125 and the second end of the capacitor C71. The first end of C71 is grounded, and the second end of R124 is connected to SEG4 of U6. The third end of J1 is connected to the first end of R126 and the second end of the capacitor C84. The first end of C84 is grounded, and the second end of R126 is connected to SEG5 of U6. The fourth end of J1 is connected to the first end of R102 and the second end of the capacitor C51. The first end of C51 is grounded, and the second end of R102 is connected to COM0 of U6. The fifth end of J1 is connected to the first end of R103 and the second end of the capacitor C52. The first end of C52 is grounded, and the second end of R103 is connected to COM1 of U6. The sixth end of J1 is connected to the first end of R104 and the second end of capacitor C53, the first end of C53 is grounded, and the second end of R104 is connected to COM2 of U6. The seventh end of J1 is connected to the first end of R105 and the second end of capacitor C54, the first end of C54 is grounded, and the second end of R105 is connected to COM3 of U6. The eighth end of J1 is connected to the first end of R106 and the second end of capacitor C55, the first end of C55 is grounded, and the second end of R106 is connected to SEG31 of U6. The ninth end of J1 is connected to the first end of R106 and the second end of capacitor C56, the first end of C56 is grounded, and the second end of R107 is connected to SEG30 of U6. The tenth end of J1 is connected to the first end of R108 and the second end of capacitor C57, the first end of C57 is grounded, and the second end of R108 is connected to SEG29 of U6. The eleventh terminal of J1 is connected to the first terminal of R109 and the second terminal of capacitor C58, the first terminal of C58 is grounded, and the second terminal of R109 is connected to SEG28 of U6. The twelfth terminal of J1 is connected to the first terminal of R110 and the second terminal of capacitor C59, the first terminal of C59 is grounded, and the second terminal of R110 is connected to SEG27 of U6. The thirteenth terminal of J1 is connected to the first terminal of R111 and the second terminal of capacitor C60, the first terminal of C60 is grounded, and the second terminal of R111 is connected to SEG26 of U6. The fourteenth terminal of J1 is connected to the first terminal of R112 and the second terminal of capacitor C61, the first terminal of C61 is grounded, and the second terminal of R111 is connected to SEG25 of U6. The fifteenth terminal of J1 is connected to the first terminal of R113 and the second terminal of capacitor C62, the first terminal of C62 is grounded, and the second terminal of R113 is connected to SEG24 of U6. The sixteenth terminal of J1 is connected to the first terminal of R114 and the second terminal of capacitor C63, the first terminal of C63 is grounded, and the second terminal of R114 is connected to SEG23 of U6. The seventeenth terminal of J1 is connected to the first terminal of R115 and the second terminal of capacitor C64, the first terminal of C64 is grounded, and the second terminal of R115 is connected to SEG22 of U6. The eighteenth terminal of J1 is connected to the first terminal of R116 and the second terminal of capacitor C65, the first terminal of C65 is grounded, and the second terminal of R116 is connected to SEG21 of U6.The 19th terminal of J1 is connected to the first terminal of R127 and the second terminal of C90 capacitor, the first terminal of C90 is grounded, and the second terminal of R127 is connected to SEG20 of U6. The 20th terminal of J1 is connected to the first terminal of R128 and the second terminal of C91 capacitor, the first terminal of C91 is grounded, and the second terminal of R128 is connected to SEG19 of U6. The resistors and capacitors here play a role in electrostatic protection.

[0036] like Figure 5 As shown, the segment code screen & backlight driver module consists of the segment code screen driver chip U6, ESD tubes D61, D62, D63, D64, D65, resistor R77, magnetic beads R69, R72, R73, R74, R79, capacitors C36, C46, ​​C47, C48, C49, C50. U6 connects to the segment code screen through SEG3-SEG31 and COM1, COM2, COM3 and J1. The core board MCU gives the driving signal to the segment code screen driver chip U6 through the panel-core board connection module. The segment code screen driver chip U6 performs the corresponding operation after identifying the signal. The segment code screen is connected and driven through SEG3-SEG31 and COM1, COM2, COM3 and J1. Most of the resistors, capacitors and ESD tubes here play a role in electrostatic protection.

[0037] Figure 5 The lower part is the segment code screen backlight driver. J4 is connected to the segment code screen backlight. The first end of J4 is connected to the first end of R70, and the second end of R70 is connected to the C level of the driving transistor Q8. The Q8E level and the second end of R78 are grounded. The Q8B level is connected to the second end of R75, the K end of the ESD tube D66, and the second end of C80. The first end of C80 and the A end of D66 are grounded. The first end of R75 is connected to PA7. That is, the MCU outputs the corresponding I / O port signal through the panel-core board connection module, which is amplified by Q8 and drives the segment code screen backlight.

[0038] like Figure 6As shown, the key input detection module shows a key input detection circuit, the second end of S1 is grounded, the first end is connected to the first end of R1, the first end of R8, the second end of C1, the K end of ESD tube D9, and the second end of C4, the second end of R1 is connected to VDD3V3, the second end of R8 is connected to MCU KEY1 through the panel-core board module, C1, the A end of D9, and the first end of C4 are grounded. The second end of S2 is grounded, the first end is connected to the first end of R2, the first end of R9, the second end of C2, the K end of ESD tube D10, and the second end of C5, the second end of R2 is connected to VDD3V3, the second end of R9 is connected to MCU KEY2 through the panel-core board module, C2, the A end of D10, and the first end of C5 are grounded. The second end of S5 is grounded, the first end is connected to the first end of R20, the first end of R23, the second end of C8, the K end of ESD tube D17, and the second end of C11, the second end of R20 is connected to VDD3V3, the second end of R23 is connected to MCU KEY3 through the panel-core board module, C8, the A end of D17, and the first end of C11 are grounded. The second end of S6 is grounded, the first end is connected to the first end of R21, the first end of R24, the second end of C9, the K end of ESD tube D18, and the second end of C12, the second end of R21 is connected to VDD3V3, the second end of R24 is connected to MCU KEY4 through the panel-core board module, C9, the A end of D18, and the first end of C12 are grounded. The second end of S7 is grounded, the first end is connected to the first end of R27, the first end of R33, the second end of C14, the K end of ESD tube D19, and the second end of C16, the second end of R27 is connected to VDD3V3, the second end of R33 is connected to MCU KEY5 through the panel-core board module, C14, the A end of D19, and the first end of C16 are grounded. The second end of S8 is grounded, the first end is connected to the first end of R28, the first end of R34, the second end of C15, the K end of ESD tube D20, and the second end of C17, the second end of R28 is connected to VDD3V3, the second end of R34 is connected to MCU KEY6 through the panel-core board module, C15, the A end of D20, and the first end of C17 are grounded. The second end of S9 is grounded, and the first end is connected to the first end of R84, the first end of R86, the second end of C37, the K end of ESD tube D94, and the second end of C39. The second end of R84 is connected to VDD3V3, and the second end of R86 is connected to MCU KEY7 through the panel-core board module. C37, the A end of D94, and the first end of C39 are grounded. The second end of S10 is grounded, and the first end is connected to the first end of R85, the first end of R87, the second end of C38, the K end of ESD tube D95, and the second end of C40. The second end of R85 is connected to VDD3V3, and the second end of R87 is connected to MCU KEY8 through the panel-core board module. C38, the A end of D95, and the first end of C40 are grounded.The second end of S11 is grounded, and the first end is connected to the first end of R88, the first end of R90, the second end of C41, the K end of ESD tube D96, and the second end of C43. The second end of R88 is connected to VDD3V3, and the second end of R90 is connected to MCU KEY9 through the panel-core board module. C41, the A end of D96, and the first end of C43 are grounded. The second end of S12 is grounded, and the first end is connected to the first end of R89, the first end of R91, the second end of C42, the K end of ESD tube D97, and the second end of C44. The second end of R89 is connected to VDD3V3, and the second end of R91 is connected to MCU KEY10 through the panel-core board module. C42, the A end of D97, and the first end of C44 are grounded. Most of the resistors, capacitors, and ESD tubes here play a role in electrostatic protection. The MCU detects whether the keys S1-S10 are pressed through the I / O corresponding to the panel-core board module.

[0039] like Figure 7 As shown, the programming & reset button input detection module shows the programming and reset button detection circuit, the zeroth, second and third ends of S3 are grounded, the first end is connected to the first end of R3, the first end of R10, the second end of C3, the K end of ESD tube D11, and the second end of C6, the second end of R3 is connected to the power supply VDD3V3, and the second end of R10 is connected to the NRST of MCU through the panel-core board module. The first end of C3, the A end of D11, and the first end of C6 are grounded. The zeroth, second and third ends of S4 are grounded, the first end is connected to the first end of R19, the first end of R22, the second end of C7, the K end of ESD tube D16, and the second end of C10, the second end of R19 is connected to the power supply VDD3V3, and the second end of R22 is connected to the PB2 of MCU through the panel-core board module. The first end of C7, the A end of D16, and the first end of C10 are grounded. The MCU determines whether S3 or S4 is pressed through NRST and PB2 on the panel-core board module, thereby determining whether to perform a programming operation or a reset operation. Most of the resistors, capacitors and ESD tubes here play a role in electrostatic protection.

[0040] like Figure 8 As shown in the figure, the temperature and humidity detection module shows that the temperature and humidity detection circuit consists of interface P1, resistors R129, R130, R65, R119, capacitor C34, and ESD tube D32. The left side of the figure is the temperature and humidity meter module interface, which can be connected to the temperature and humidity meter module of the IIC communication protocol, and the right side is the thermistor interface. Note: Only one of the two interfaces can be selected, and they cannot work at the same time.

[0041] like Fig. 9As shown, the touch input detection module shows that the touch input detection circuit is composed of touch chip U2, resistors R50, R51, R53, R54, R55, R56, R57, R58, R97, R150, R98, R99, R100, R101, ESD tubes D21, D22, D23, D24, D25, D26, D54, D55, D56, D57, capacitors C19, C24, C26, C28, C29, C30, C31, C73, C74, C75, C76. The touch button is identified by the touch chip U2, and the touch contacts are TS1-TS6. When any of TS1-TS6 detects touch input, the touch chip U2 will identify and communicate with the MCU through TCH1, TCH3, TCH4, TCH5, TCH6 of the panel-core board. Most of the resistors, capacitors and ESD tubes here play a role in electrostatic protection. Different types of touch chips can be selected through R150, R151 and R152.

[0042] like Fig.10 As shown in the figure, the vibration motor drive module shows that the vibration motor drive circuit is composed of J2, diode D27, capacitor C32, resistors R61, R71, R76, drive transistor Q7, ESD tube D46, C45. The MCU determines whether the touch button is pressed through the panel-core board module and the touch input detection module, and then controls the motor through PA15.

[0043] like Fig.11 As shown, the proximity sensing detection module shows that the proximity sensing circuit consists of a proximity sensing interface J5, filter capacitors C33, C35, resistors R66, R67, R68, R60, R121, R122, R123, light-emitting diodes U3, pull-up resistors R59, R64, R63, R62, capacitors C77, C78, ​​C79, ESD tubes D58, D59, D60. The proximity sensing module is connected to the panel through the proximity sensing interface J5, and the light-emitting diode D5 is driven to transmit a signal. The proximity sensing module senses the distance between the human body and the Yizhi panel by receiving the reflected signal. This information is transmitted from the IIC interface to the corresponding I / O of the MCU through the panel-core board module to realize the proximity sensing function. Most of the R, C and ESD tubes here play a role in electrostatic protection.

[0044] This application is mainly composed of a character light & touch indicator module, a character light & touch indicator driver module, a segment code screen interface module, a segment code screen & backlight driver module, a key input detection module, a programming & reset key input detection module, a temperature and humidity detection module, a vibration motor driver module, a touch input detection module, and a proximity sensing detection module connected to the MCU end of the core board through the panel-core board module to realize the key input detection, programming & reset key input detection, temperature and humidity detection, vibration motor drive, touch input detection, proximity sensing detection, segment code screen & backlight driver, character light & touch indicator functions of the intelligent panel temperature control system. It not only supports touch operation through touch points, but also supports key operation, bringing a dual experience, but also has luminous feedback and vibration feedback, supports proximity sensing wake-up function, and also integrates lighting, curtains, scenes, temperature control, air conditioning, fresh air system and other functions, and equipment status display, and built-in temperature and humidity sensors, which can detect local ambient temperature and humidity to meet most daily applications.

[0045] The above-described embodiment is only a preferred solution of the present application and does not limit the present application in any form. There are other variations and modifications without exceeding the technical solution described in the claims.

Claims

1. An intelligent panel temperature control system, characterized in that: include: Panel-core board connection module, character light & touch indicator light module, character light & touch indicator light driver module, segment code screen interface module, segment code screen & backlight driver module, key input detection module, programming & reset key input detection module, temperature and humidity detection module, vibration motor driver module, touch input detection module and proximity sensing detection module, The panel-core board connection module supplies power to other modules. The proximity sensing detection module connects to other modules of the system through the panel-core board module. The proximity sensing detection module receives external signals. The panel-core board module processes external signals and outputs control signals to other modules to realize key input detection, programming & reset key input detection, temperature and humidity detection, vibration motor drive, touch input detection, proximity sensing detection and segment code screen & backlight drive of the intelligent panel temperature control system. The character light & touch indicator light drive module drives the character light & touch indicator light to turn on, and the segment code screen & backlight drive module drives the segment code screen to display.

2. The intelligent panel temperature control system according to claim 1, characterized in that: The panel-core board connection module connects the core board and the panel through corresponding connectors CN1, CN2 and CN3.

3. The intelligent panel temperature control system according to claim 2, characterized in that: The anodes of the light-emitting diodes D1, D28, D34, and D35 of the character light & touch indicator module are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R4, and the cathode K is driven through the OUT0 interface of the chip U4. The anodes of the light-emitting diodes D2, D29, D36, and D37 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R5, and the cathode K is driven through the OUT1 interface of the chip U4. The anodes of the light-emitting diodes D39, D38, D5, and D30 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R11, and the cathode K is driven through the OUT2 interface of the chip U4. The anodes of the light-emitting diodes D41, D40, D6, and D31 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R12, and the cathode K is driven through the OUT3 interface of the chip U4. The anodes of the light-emitting diodes D76, D74, D12, and D42 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R15, and the cathode K is driven through the OUT4 interface of the chip U4. Interface drive, the anodes of the light-emitting diodes D77, D75, D13, and D44 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R16, the cathode K is driven through the OUT5 interface of the chip U4, the anodes of the light-emitting diodes D78, D79, D80, and D81 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R92, the cathode K is driven through the OUT6 interface of the chip U4, the anodes of the light-emitting diodes D82, D83, D84, and D85 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R93, the cathode K is driven through the OUT6 interface of the chip U4, the anodes of the light-emitting diodes D89, D92, D91, and D90 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R94, the cathode K is driven through the OUT8 interface of the chip U4, the anodes of the light-emitting diodes D93, D92, D91, and D90 are connected in parallel and connected to the power supply VDD_5V through the current limiting resistor R95, and the cathode K is driven through the OUT8 of the chip U4.

4. The intelligent panel temperature control system according to claim 3, characterized in that: The segment code screen & backlight driver module includes a segment code screen driver chip U6. The segment code screen driver chip U6 is connected to the interface J1 of the segment code screen interface module through the SEG3-SEG31 and COM1-COM3 interfaces. The interface J1 is connected to the segment code screen externally. The first end of J1 of the segment code screen interface module is connected to the first end of R124 and the second end of the capacitor C70. The first end of C70 is grounded, and the second end of R124 is connected to SEG3 of the segment code screen driver chip U6. The second end of J1 is connected to the first end of R125 and the second end of the capacitor C71. The first end of C71 is grounded, and the second end of R124 is connected to the SEG4 end of the segment code screen driver chip U6. The third end of J1 is connected to the first end of R126 and the second end of the capacitor C84. The first end of C84 is grounded, and the second end of R126 is connected to SEG5 of the segment code screen driver chip U6, the fourth end of J1 is connected to the first end of R102 and the second end of the capacitor C51, the first end of C51 is grounded, and the second end of R102 is connected to the COM0 end of the segment code screen driver chip U6, the fifth end of J1 is connected to the first end of R103 and the second end of the capacitor C52, the first end of C52 is grounded, and the second end of R103 is connected to the COM1 end of the segment code screen driver chip U6, the sixth end of J1 is connected to the first end of R104 and the second end of the capacitor C53, the first end of C53 is grounded, and the second end of R104 is connected to the COM2 end of the segment code screen driver chip U6, the seventh end of J1 is connected to the first end of R105 and the second end of the capacitor C54, the first end of C54 is grounded, and the second end of R105 is connected to the COM3 end of the segment code screen driver chip U6 , the eighth end of J1 is connected to the first end of R106 and the second end of C55 capacitor, the first end of C55 is grounded, the second end of R106 is connected to the SEG31 end of the segment code screen driver chip U6, the ninth end of J1 is connected to the first end of R106 and the second end of C56 capacitor, the first end of C56 is grounded, the second end of R107 is connected to the SEG30 end of the segment code screen driver chip U6, the tenth end of J1 is connected to the first end of R108 and the second end of C57 capacitor, the first end of C57 is grounded, and the second end of R108 is connected to the SEG29 end of the segment code screen driver chip U6, the eleventh end of J1 is connected to the first end of R109 and the second end of C58 capacitor, the first end of C58 is grounded, and the second end of R109 is connected to the SEG28 end of the segment code screen driver chip U6, the twelfth end of J1 is connected to R The first end of J1 is connected to the second end of C59 capacitor, the first end of C59 is grounded, the second end of R110 is connected to the SEG27 end of the segment code screen driver chip U6, the thirteenth end of J1 is connected to the first end of R111 and the second end of C60 capacitor, the first end of C60 is grounded, the second end of R111 is connected to the SEG26 end of the segment code screen driver chip U6, the fourteenth end of J1 is connected to the first end of R112 and the second end of C61 capacitor, the first end of C61 is grounded, the second end of R111 is connected to the SEG25 end of the segment code screen driver chip U6, the fifteenth end of J1 is connected to the first end of R113 and the second end of C62 capacitor, the first end of C62 is grounded, the second end of R113 is connected to the SEG24 end of the segment code screen driver chip U6, the sixteenth end of J1 is connected to the first end of R114,The second end of the C63 capacitor is connected, the first end of C63 is grounded, the second end of R114 is connected to the SEG23 end of the segment code screen driver chip U6, the seventeenth end of J1 is connected to the first end of R115, the second end of the C64 capacitor is connected, the first end of C64 is grounded, the second end of R115 is connected to the SEG22 end of the segment code screen driver chip U6, the eighteenth end of J1 is connected to the first end of R116, the second end of the C65 capacitor is connected, the first end of C65 is grounded, the second end of R116 is connected to the SEG21 end of the segment code screen driver chip U6, the nineteenth end of J1 is connected to the first end of R127, the second end of the C90 capacitor is connected, the first end of C90 is grounded, the second end of R127 is connected to the SEG20 end of the segment code screen driver chip U6, the twentieth end of J1 is connected to the first end of R128, the second end of the C91 capacitor, the first end of C91 is grounded, and the second end of R128 is connected to the SEG19 end of the segment code screen driver chip U6.

5. The intelligent panel temperature control system according to claim 4, characterized in that: The second end of S1 of the key input detection module is grounded, the first end is connected to the first end of R1, the first end of R8, the second end of C1, the K end of ESD tube D9, and the second end of C4, the second end of R1 is connected to VDD3V3, the second end of R8 is connected to MCU KEY1 through the panel-core board module, the A ends of C1 and D9 and the first end of C4 are grounded, the second end of S2 is grounded, the first end is connected to the first end of R2, the first end of R9, the second end of C2, the K end of ESD tube D10, and the second end of C5, the second end of R2 is connected to VDD3V3, the second end of R9 is connected to MCU KEY2 through the panel-core board module, the A ends of C2 and D10 and the first end of C5 are grounded, the second end of S5 is grounded, the first end is connected to the first end of R20, the first end of R23, the second end of C8, the K end of ESD tube D17, and the second end of C11, the second end of R20 is connected to VDD3V3, the second end of R23 is connected to MCU through the panel-core board module KEY3 is connected, the A ends of C8 and D17 and the first end of C11 are grounded, the second end of S6 is grounded, the first end is connected to the first end of R21, the first end of R24, the second end of C9, the K end of ESD tube D18, and the second end of C12, the second end of R21 is connected to VDD3V3, the second end of R24 is connected to MCU KEY4 through the panel-core board module, the A ends of C9 and D18 and the first end of C12 are grounded, the second end of S7 is grounded, the first end is connected to the first end of R27, the first end of R33, the second end of C14, the K end of ESD tube D19, and the second end of C16, the second end of R27 is connected to VDD3V3, and the second end of R33 is connected to MCU through the panel-core board module KEY5 is connected, the A ends of C14 and D19 and the first end of C16 are grounded, the second end of S8 is grounded, the first end is connected to the first end of R28, the first end of R34, the second end of C15, the K end of ESD tube D20, and the second end of C17, the second end of R28 is connected to VDD3V3, the second end of R34 is connected to MCU KEY6 through the panel-core board module, the A ends of C15 and D20 and the first end of C17 are grounded, the second end of S9 is grounded, the first end is connected to the first end of R84, the first end of R86, the second end of C37, the K end of ESD tube D94, and the second end of C39, the second end of R84 is connected to VDD3V3, the second end of R86 is connected to MCU through the panel-core board module KEY7 is connected, the A end of C37 and D94 and the first end of C39 are grounded, the second end of S10 is grounded, the first end is connected to the first end of R85, the first end of R87, the second end of C38, the K end of ESD tube D95, and the second end of C40, the second end of R85 is connected to VDD3V3, the second end of R87 is connected to MCU KEY8 through the panel-core board module, the A end of C38 and D95 ​​and the first end of C40 are grounded, the second end of S11 is grounded, the first end is connected to the first end of R88,The first end of R90, the second end of C41, the K end of ESD tube D96, and the second end of C43 are connected, the second end of R88 is connected to VDD3V3, the second end of R90 is connected to MCUKEY9 through the panel-core board module, the A ends of C41 and D96 and the first end of C43 are grounded, the second end of S12 is grounded, the first end is connected to the first end of R89, the first end of R91, the second end of C42, the K end of ESD tube D97, and the second end of C44, the second end of R89 is connected to VDD3V3, the second end of R91 is connected to MCU KEY10 through the panel-core board module, and the A ends of C42 and D97 and the first end of C44 are grounded. , 6. The intelligent panel temperature control system according to claim 5, characterized in that: The zeroth, second and third ends of S3 of the programming & reset button input detection module are grounded, the first end is connected to the first end of R3, the first end of R10, the second end of C3, the K end of ESD tube D11, and the second end of C6, the second end of R3 is connected to the power supply VDD3V3, the second end of R10 is connected to the NRST of the MCU through the panel-core board module, the first end of C3, the A end of D11, and the first end of C6 are grounded, the zeroth, second and third ends of S4 are grounded, the first end is connected to the first end of R19, the first end of R22, the second end of C7, the K end of ESD tube D16, and the second end of C10, the second end of R19 is connected to the power supply VDD3V3, the second end of R22 is connected to PB2 of the MCU through the panel-core board module, the first end of C7, the A end of D16, and the first end of C10 are grounded.

7. The intelligent panel temperature control system according to claim 6, characterized in that: The temperature and humidity detection module includes a temperature and humidity detection circuit and a temperature detection circuit.

8. The intelligent panel temperature control system according to claim 7, characterized in that: The touch input detection module includes a touch chip U2, and the touch contacts of the touch chip U2 are TS1-TS6 interfaces. When the touch contacts detect touch input at any of the TS1-TS6 interfaces, the touch chip U2 will recognize and communicate with the core board MCU through the TCH1-TCH6 interface of the panel-core board connection module.

9. The intelligent panel temperature control system according to claim 8, characterized in that: The PA15 interface of the vibration motor driver module is connected to the panel-core board connection module, and the panel-core board connection module and the touch input detection module are used to determine whether the touch button is pressed, thereby controlling the motor.

10. The intelligent panel temperature control system according to claim 9, characterized in that: The proximity sensing interface J5 of the proximity sensing detection module is connected to the panel-core board connection module. By driving the light-emitting diode D5 to transmit a signal, the proximity sensing module senses the distance between the human body and the panel by receiving the reflected signal. The reflected signal is transmitted by the IIC interface through the panel-core board module to the I / O corresponding to the core board MCU to realize the proximity sensing function.

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