Intelligent terminal theme dynamic adaptation system supporting multi-mode interaction

Abstract

The utility model discloses an intelligent terminal theme dynamic adaptation system supporting multi-mode interaction, and belongs to the field of artificial intelligence. Comprising a master control MCU, an MIC module, a loudspeaker module, a FLASH module, a screen interface module and a charging management module, and the MIC module, the loudspeaker module, the screen interface module, the FLASH module and the charging management module are all connected with the master control MCU. Compared with the prior art, the utility model has the beneficial effects that by arranging the main control MCU capable of upgrading the screen themes, a manufacturer of a product can upload different types of screen themes to the main control MCU through the burning port according to the requirements of a user, then transmit the screen themes to the FLASH module for storage and display the screen themes on the screen interface module; the dynamic upgrading of the screen theme is realized, so that the user can conveniently and dynamically set the theme of the product according to own preferences, and the interactive experience of different types of users can be considered.

Description

Technical Field

[0001] This utility model belongs to the field of artificial intelligence, and specifically relates to a dynamic theme adaptation system for smart terminals that supports multimodal interaction. Background Technology

[0002] AI interaction technology is a very important branch of the field of artificial intelligence. It enables humans and machines to interact through various means such as language, text, and actions.

[0003] In recent years, with the development of artificial intelligence, the AI ​​interaction technology market has shown a rapid growth trend, especially in consumer and enterprise application scenarios, where market demand continues to expand. Products such as e-cigarettes, figurines, and cartoon toys can achieve AI interaction between users and products by setting up modules such as chips, microphones, speakers, and screen interface modules, and connecting to cloud-based AI models such as Doubao and Tencent Yuanbao through the Internet.

[0004] Existing AI-interactive products typically feature a virtual avatar on the screen interface module that interacts with the user. This dialogue format enables both voice interaction and visual interaction via the screen, achieving a multimodal interactive effect that appeals to a wider range of users. However, the avatars in these existing AI-interactive products are often pre-set, usually cartoonish and rather monotonous. Users cannot choose different themes based on their preferences, resulting in a product that fails to cater to the interactive experiences of diverse user groups. Utility Model Content

[0005] To address the aforementioned issues, the purpose of this invention is to provide a smart terminal theme dynamic adaptation system that supports multimodal interaction. Manufacturers can upload different types of screen themes to the main control MCU via the programming port according to user requirements, then transmit them to the FLASH module for storage, and display them on the screen interface module, thereby realizing dynamic upgrades of the screen theme. This allows users to dynamically set the product theme according to their preferences, thus taking into account the interactive experience of different types of users.

[0006] To achieve the above objectives, the technical solution of this utility model is as follows:

[0007] This utility model provides a smart terminal theme dynamic adaptation system that supports multimodal interaction, including:

[0008] The main control MCU can upgrade the screen theme and interact with the cloud AI module;

[0009] The MIC module is used to recognize the user's voice information;

[0010] The speaker module is used to receive and play voice information fed back by the main control MCU to the user;

[0011] The FLASH module is used for storing internal product data and upgraded themes;

[0012] The screen interface module is used to install a display screen, display the screen theme, and interact with the user via video.

[0013] The charging management module is used to manage the charging of the product's battery.

[0014] The MIC module, speaker module, screen interface module, FLASH module, and charging management module are all connected to the main control MCU.

[0015] Furthermore, the main control MCU includes a main control chip U5, a crystal oscillator Y1, and a filtering unit. The MIC module, speaker module, screen interface module, FLASH module, charging management module, crystal oscillator Y1, and filtering unit are all connected to the main control chip U5. The main control chip U5 has a programming interface that can upgrade the main body.

[0016] Furthermore, the main control chip U11 is model AC7911BA, which is a chip manufactured by Zhuhai Jieli Technology Co., Ltd., and uses QFN48 packaging.

[0017] Furthermore, the filtering unit includes an inductor L2, a capacitor C8, a capacitor C9, a resistor R17, and a capacitor C7. One end of the inductor L2 is connected to the main control chip U5, and the other end, together with capacitors C8, C9, C7, and R17, forms a common terminal that is connected to the DCVDD14 pin of the main control chip U5. The other ends of capacitors C8, C9, and C7 are grounded, and the other end of resistor R17 is connected to the WFVDD14 pin of the main control chip U5.

[0018] Furthermore, the MIC module includes a first MIC unit and a second MIC unit, both of which are connected to the main control chip U5.

[0019] Furthermore, the first MIC unit includes a microphone interface J2, a capacitor C12, a resistor R21, a capacitor C13, a resistor R25, a capacitor C16, and a capacitor C18. The capacitor C12 and the resistor R21 are connected in series. One end of the resistor R21, the capacitor C13, and the capacitor C16 forms a common terminal and is connected to the positive terminal of the microphone interface J2. The other end of the capacitor C16 and one end of the resistor R25 and the capacitor C18 form a common terminal and are connected to the negative terminal of the microphone interface J2. The other ends of the capacitors C13 and C18 are both connected to the main control chip U5.

[0020] Furthermore, the second MIC unit includes a microphone interface J4, a capacitor C14, a resistor R19, a capacitor C15, a resistor R26, a capacitor C17, and a capacitor C19. The capacitor C14 and the resistor R19 are connected in series. One end of the resistor R19, the capacitor C15, and the capacitor C17 forms a common terminal and is connected to the positive terminal of the microphone interface J4. The other end of the capacitor C17 and one end of the resistor R26 and the capacitor C19 form a common terminal and are connected to the negative terminal of the microphone interface J4. The other ends of the capacitors C15 and C19 are both connected to the main control chip U5.

[0021] Furthermore, the speaker module includes a speaker interface J5, an audio power amplifier chip U6, a headphone conversion unit, and a headphone interface J6. The audio power amplifier chip U6 is connected to the main control chip U5, the speaker interface J5 is connected to the audio power amplifier chip U6, and the headphone interface J6 is connected to the audio power amplifier chip U6 through the headphone conversion unit.

[0022] Furthermore, the headphone conversion unit includes a transistor Q4 and a MOSFET Q3. The first terminal of the transistor Q4 is connected to the headphone interface J6, and the third terminal is connected to the gate terminal of the MOSFET Q3. The drain terminal of the MOSFET Q3 is connected to the speaker interface J5 through the audio power amplifier chip U6, and the source terminal of the MOSFET Q3 is connected to the power input signal.

[0023] Furthermore, the FLASH module includes a flash memory chip U4 and a filter capacitor C6. The flash memory chip U4 is connected to the main control chip U5, and the filter capacitor C6 is connected to pins 7 and 8 of the flash memory chip U4.

[0024] Furthermore, the screen interface module includes a display interface J3, a PMOS transistor Q2, a pull-up resistor R23, and a pull-up resistor R24. The display interface J3 is connected to the main control chip U5. The drain (D) terminal of the PMOS transistor Q2 is connected to the display interface J3 through the pull-up resistor R24. One end of the pull-up resistor R23 is connected to the source (S) terminal of the PMOS transistor Q2, and the other end is connected to the gate (G) terminal of the PMOS transistor Q2.

[0025] Furthermore, the charging management module includes a charging interface USB1, a charging management unit, and a battery J1, which are connected in sequence, and the charging interface USB1 and the charging management unit are connected to the main control chip U5.

[0026] Furthermore, the charging management unit includes a charging management chip U1, a filter resistor R6, and a filter capacitor C5. The charging management chip U1 is connected to the main control chip U5. The filter capacitor C5 and the filter resistor R6 are connected in series and form a common terminal with the charging interface USB1, which is then connected to the charging management chip U1. The charging management chip U1 is connected to the battery J1.

[0027] Furthermore, the charging management chip U1 is model AK4056H.

[0028] Furthermore, the system also includes a low-power control module, which includes a low-power control chip U2, a button KEY2, and a MOSFET Q1. The low-power control chip U2 is connected to the main control chip U5, and the MOSFET Q1 and the button KEY2 are both connected to the low-power control chip U2.

[0029] Furthermore, the low-power control chip U2 is model number NY8A051H, and its manufacturer is Jiuqi Technology.

[0030] Furthermore, the system also includes an LED module, which includes LED2 and a current-limiting resistor R18, and the LED2 and the current-limiting resistor R18 are connected in series to the power signal VCC.

[0031] Furthermore, the system also includes a switch module, which includes switch KEY1, switch KEY3, current-limiting resistor R1, and current-limiting resistor R12. Switch KEY1 and current-limiting resistor R1 are connected in series to the main control chip U5, and switch KEY3 and current-limiting resistor R12 are connected in series to the main control chip U5.

[0032] Compared with the prior art, the beneficial effects of this utility model are: by setting a main control MCU that can upgrade the screen theme, the product manufacturer can upload different types of screen themes to the main control MCU through the programming port according to the user's requirements, and then transmit them to the FLASH module for storage and display on the screen interface module, thereby realizing the dynamic upgrading of the screen theme. This allows users to dynamically set the product theme according to their own preferences, thus taking into account the interactive experience of different types of users. Attached Figure Description

[0033] Figure 1 This is a block diagram of the smart terminal theme dynamic adaptation system of this application.

[0034] Figure 2 This is the circuit schematic of the main control MCU.

[0035] Figure 3 This is the circuit schematic of the MIC module.

[0036] Figure 4 This is the circuit diagram of speaker interface J5 and audio power amplifier chip U6.

[0037] Figure 5 This is the circuit diagram of the headphone conversion unit.

[0038] Figure 6 This is the circuit diagram of headphone jack J6.

[0039] Figure 7 This is the circuit schematic of the FLASH module.

[0040] Figure 8 This is the circuit schematic of the screen interface module.

[0041] Figure 9 This is the circuit schematic of the charging management module.

[0042] Figure 10 This is the circuit schematic of the low-power control module.

[0043] Figure 11 This is the circuit diagram of an LED indicator module.

[0044] Figure 12 This is the circuit schematic of the switching module. Detailed Implementation

[0045] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.

[0046] To achieve the above objectives, the technical solution of this utility model is as follows:

[0047] See Figure 1 As shown, this embodiment provides a smart terminal theme dynamic adaptation system that supports multimodal interaction, including:

[0048] The main control MCU can upgrade the screen theme and interact with the cloud AI module;

[0049] The MIC module is used to recognize the user's voice information;

[0050] The speaker module is used to receive and play voice information fed back by the main control MCU to the user;

[0051] The FLASH module is used for storing internal product data and upgraded themes;

[0052] The screen interface module is used to install a display screen, display the screen theme, and interact with the user via video.

[0053] The charging management module is used to manage the charging of the product's battery.

[0054] The low-power control module is used to control the product to enter a low-power state after it is powered off.

[0055] LED indicator module is used to indicate the working status of the product;

[0056] The switch module is used to control the product's power on and off.

[0057] The MIC module, speaker module, screen interface module, FLASH module, charging management module, low power control module, LED indicator module, and switch module are all connected to the main control MCU.

[0058] In this application, when the system circuit is applied to a product, the main control MCU can upgrade the screen theme. The manufacturer can upload different types of screen themes, such as cartoon characters, celebrity characters, and science fiction characters, to the main control MCU through the programming port according to the user's requirements. Then, the themes are transmitted to the FLASH module for storage and displayed on the screen interface module, thereby realizing the dynamic upgrading of the screen theme. This allows users to dynamically set the product screen theme according to their own preferences, thus taking into account the interactive experience of different types of users.

[0059] Further, see Figure 2 The main control MCU includes a main control chip U5, a crystal oscillator Y1, and a filtering unit. The MIC module, speaker module, screen interface module, FLASH module, charging management module, crystal oscillator Y1, and filtering unit are all connected to the main control chip U5. The main control chip U5 has a programming interface that can upgrade the main body.

[0060] Furthermore, the main control chip U5 is model AC7911BA. AC7911BA is a low-cost, highly integrated system-on-a-chip (SoC), and its functional principle is as follows:

[0061] 1. Wireless Communication: Integrates WiFi 802.11b / g / n and dual-mode Bluetooth V2.1-V5.0, supports various communication modes such as single-antenna 40MHz BWWiFi 802.11b / g / n AP and STA, and can be used to realize the wireless networking and Bluetooth connection functions of devices, such as smart speakers, smart home devices, etc., which can communicate with other devices or access the network to realize AI interaction between products and users;

[0062] 2. Audio Processing: The audio interface supports the IIS protocol and is compatible with left-aligned, right-aligned, and DSP modes to meet the needs of various audio devices. It also integrates multiple audio channel-related circuits, such as four-channel 16-bit audio ADCs and four-channel microphone amplifiers, enabling high-quality audio acquisition, processing, and playback.

[0063] 3. Multiple peripheral interfaces: It has a rich set of peripheral interfaces, including an OTG controller with FUSB 1.1 standard for high-speed data transmission; three full-duplex advanced UARTs, two SPI interfaces (supporting host and device modes), two SD card host controllers, and one IIC interface (supporting host and device modes), etc., which facilitates communication with various external devices; among them, SPI communication mode is used in TF card and internal flash.

[0064] The pin principle is as follows:

[0065] 1. Power supply pins: such as DCVDD14, WFVDD14, IOVDD, etc., provide stable power input for different modules of the chip; when connecting power supply pins, it is usually necessary to use filter components such as capacitors to filter out power supply noise and ensure stable operation of the chip.

[0066] 2. Flash pins: Pins 37-41 connect to the internal flash memory, SPI0_MISO (Master Input, Slave Output), SPI0_MOSI (Master Output, Slave Input), SPI0_CLK (Clock Signal), etc. Through differential signal transmission, under the control of the clock signal, the chip and the device ZB25VQ32D can perform high-speed serial data transmission.

[0067] 3. MIC pin: Pins 8-11 are connected to the MIC microphone for input signals.

[0068] 4. WIFI pins: Pins 22-25 are WIFI pins.

[0069] 5. LCD pins: Pins 29-35 are screen pins, which control the screen drive.

[0070] 6. Speaker pins: Pins 18 and 19 are connected to the single-ended feedback circuit at the speaker end. That is, the next instruction can only be executed after the single-ended feedback of the product is completed.

[0071] 7. Charging pins: 47 and 48 connect to the USB port to power the battery and are used to connect to an external power adapter. They can also be used as programming ports for upgrading screen themes.

[0072] Furthermore, the power input unit includes resistors R16 and R19. One end of resistor R16 is connected to the power supply module, and the other end forms a common terminal with resistor R19 and is connected to the main control chip U5.

[0073] Furthermore, the filtering unit includes an inductor L2, a capacitor C8, a capacitor C9, a resistor R17, and a capacitor C7. One end of the inductor L2 is connected to the main control chip U5, and the other end forms a common terminal with the capacitors C8, C9, C7, and R17, which is connected to the DCVDD14 pin of the main control chip U5. The other ends of the capacitors C8, C9, and C7 are grounded, and the other end of the resistor R17 is connected to the WFVDD14 pin of the main control chip U5.

[0074] In the main control MCU, crystal oscillator Y1 provides a 24MHz frequency, connected to the XOSC0 and XOSC1 pins of the main control chip U5, providing the operating clock signal for the internal digital circuits and ensuring that each functional module of the chip operates according to the correct timing. The power input unit provides a 5V input power through the power supply module, which is divided by resistors R16 and R19 and connected to the PA7 pin on the main control chip U5 to detect whether the power supply is plugged in. After being filtered by a series of capacitors, resistors, and inductors, the 5V power supply generates DCVDD14 and WFVDD14 power signals, which power the main control chip U5 and other circuit modules. Among them, the capacitors and inductors form a filtering circuit to filter out high-frequency noise in the power supply, making the power supply more stable. In addition, capacitors of different capacitance values ​​are used in multiple places for power supply filtering to ensure the purity of the power supply and provide a stable DC voltage for the chip and other circuits.

[0075] Further, see Figure 3 The MIC module includes a first MIC unit and a second MIC unit, both of which are connected to the main control chip U5.

[0076] Furthermore, the first MIC unit includes a microphone interface J2, a capacitor C12, a resistor R21, a capacitor C13, a resistor R25, a capacitor C16, and a capacitor C18. The capacitor C12 and the resistor R21 are connected in series. One end of the resistor R21, the capacitor C13, and the capacitor C16 forms a common terminal and is connected to the positive terminal of the microphone interface J2. The other end of the capacitor C16 and one end of the resistor R25 and the capacitor C18 form a common terminal and are connected to the negative terminal of the microphone interface J2. The other ends of the capacitors C13 and C18 are both connected to the main control chip U5.

[0077] Furthermore, the second MIC unit includes a microphone interface J4, a capacitor C14, a resistor R19, a capacitor C15, a resistor R26, a capacitor C17, and a capacitor C19. The capacitor C14 and the resistor R19 are connected in series. One end of the resistor R19, the capacitor C15, and the capacitor C17 forms a common terminal and is connected to the positive terminal of the microphone interface J4. The other end of the capacitor C17 and one end of the resistor R26 and the capacitor C19 form a common terminal and are connected to the negative terminal of the microphone interface J4. The other ends of the capacitors C15 and C19 are both connected to the main control chip U5.

[0078] This module is equipped with two microphone input units. Through reasonable power filtering, differential signal input, signal coupling, and filtering, it can effectively acquire audio signals, enhance useful information, suppress environmental noise, and clearly pick up sound even in noisy environments, transmitting relatively pure audio signals to subsequent audio processing chips.

[0079] The working principle of this module is as follows:

[0080] 1. Power Supply Section: ACVDD provides power to the circuit. Capacitors C12 and C14, along with resistors R21 and R22, form an RC filter circuit. C12 and C14 are used to filter out high-frequency noise in the power supply, while R21 and R22 act as current limiters and voltage dividers, making the power input to the microphone circuit more stable and pure.

[0081] 2. Microphone Connection: J2 and J4 are microphone jacks for connecting the microphone. M1+ and M1- are the microphone's differential input pins. This differential input method effectively suppresses common-mode noise and improves the quality of audio signal acquisition. Capacitors C16 and C17 act as DC-blocking and AC-passing capacitors, preventing DC signals from affecting the microphone's operation while allowing AC audio signals to pass smoothly.

[0082] 3. Signal Output: The audio signal captured by the microphone is coupled to the MICDP pin through capacitors C12 and C15. C15 and C13 are also DC blocking capacitors, transmitting the audio signal output from the microphone to the subsequent audio processing circuit. The circuits composed of resistor R24 ​​and capacitor C18, and R25 and capacitor C19, can be used for audio signal filtering or impedance matching to further optimize the audio signal.

[0083] Further, see Figure 4-6 The speaker module includes a speaker interface J5, an audio power amplifier chip U6, a headphone conversion unit, and a headphone interface J6. The audio power amplifier chip U6 is connected to the main control chip U5, the speaker interface J5 is connected to the audio power amplifier chip U6, and the headphone interface J6 is connected to the audio power amplifier chip U6 through the headphone conversion unit.

[0084] Furthermore, the headphone conversion unit includes a transistor Q4 and a MOSFET Q3. The first terminal of the transistor Q4 is connected to the headphone interface J6, and the third terminal is connected to the gate terminal of the MOSFET Q3. The drain terminal of the MOSFET Q3 is connected to the speaker interface J5 through the audio power amplifier chip U6, and the source terminal of the MOSFET Q3 is connected to the power input signal.

[0085] In this module, speaker interface J5 is used to install a speaker; audio power amplifier chip U6 can amplify weak audio signals to drive the speaker; headphone interface J6 is used to install headphones; the headphone conversion unit can switch between headphones and speakers. When headphones are plugged in, pins 1 and 4 of headphone interface J6 are connected, and AUX_EN is low. When transistor Q4 is high, the circuit is turned on, AUX_EN is low, Q4 is turned off, and then MOSFET Q3 is turned off. Q3 is connected to the power supply terminal of the speaker at pin 6, thus realizing the switching of the speaker. This achieves the effect of turning off the speaker when headphones are plugged in and restoring the speaker to normal function when headphones are unplugged.

[0086] Further, see Figure 7 The FLASH module includes a flash memory chip U4 and a filter capacitor C6. The flash memory chip U4 is connected to the main control chip U5, and the filter capacitor C6 is connected to pins 7 and 8 of the flash memory chip U4. This module is a serial flash memory circuit with an SPI interface, mainly used for storing internal data.

[0087] Further, see Figure 8 The screen interface module includes a display interface J3, a PMOS transistor Q2, pull-up resistors R23 and R24. The display interface J3 is connected to the main control chip U5. The drain (D) of the PMOS transistor Q2 is connected to the display interface J3 via pull-up resistor R24. One end of pull-up resistor R23 is connected to the source (S) of the PMOS transistor Q2, and the other end is connected to the gate (G) of the PMOS transistor Q2. The display interface J3 is used to connect to a 1.54-inch LCD or OLED screen for power control and screen communication. Q2 is a PMOS transistor; when its gate is pulled up to 3.3V by R23, the MOS transistor is off; when its gate is pulled low to ground, Q2 is on. The screen and the main control MCU communicate via the SPI protocol. When the main control program performs a theme upgrade, the main control sends information to the screen, and the screen interface changes to display the new theme.

[0088] Further, see Figure 9 The charging management module includes a charging interface USB1, a charging management unit, and a battery J1. The charging interface USB1, the charging management unit, and the battery J1 are connected in sequence, and the charging interface USB1 and the charging management unit are connected to the main control chip U5.

[0089] Furthermore, the charging management unit includes a charging management chip U1, a filter resistor R6, and a filter capacitor C5. The charging management chip U1 is connected to the main control chip U5. The filter capacitor C5 and the filter resistor R6 are connected in series and form a common terminal with the charging interface USB1, which is then connected to the charging management chip U1. The charging management chip U1 is connected to the battery J1.

[0090] In this module, the charging interface USB1 is used to connect to an external power adapter or USB-powered device, and the battery J1 is used to power the product. The charging management chip U1 is model AK4056H. The 5V power supply is filtered by a filter circuit composed of resistor R6 and capacitor C5 to remove high-frequency noise from the power supply, making the power input to the charging chip cleaner and more stable. Pin 4 of the charging management chip U1 is connected to the filtered 5V power supply to provide the chip with the power required for operation. Pin 5 is used to set the charging current. By connecting an external resistor to ground, the charging current can be determined according to the formula. Pin 2 is used for grounding. Pin 1 is used for charging status indication. When the battery is fully charged, the level of this pin will change accordingly, which can be used by external circuits to determine whether charging is complete and whether charging has started.

[0091] Further, see Figure 10 The low-power control module includes a low-power control chip U2, a button KEY2, and a MOSFET Q1. The low-power control chip U2 is connected to the main control chip U5, and the MOSFET Q1 and button KEY2 are both connected to the low-power control chip U2. When button KEY2 is pressed, a low-level signal powers on the device; when the button is released, a high-level signal is input, at which point the MOSFET is deactivated, and the device enters low-power mode.

[0092] Furthermore, the low-power control chip U2 is model NY8A051H, an 8-bit EPROM microcontroller manufactured by Jiuqi Technology.

[0093] Further, see Figure 11 The LED module includes LED2 and a current-limiting resistor R18, which are connected in series to the power signal VCC. R18 is a 1KΩ resistor that limits the current and is connected in series with LED2 to limit the current passing through LED2 and prevent excessive current from burning out LED2.

[0094] Further, see Figure 12The switch module includes switches KEY1 and KEY3, current-limiting resistors R1 and R12. Switches KEY1 and R1 are connected in series to the main control chip U5, and switches KEY3 and R12 are also connected in series to the main control chip U5. They function to control the on / off state of the circuit. R12 and R1 have a resistance of 1KΩ and are connected in series with the buttons. Switches KEY1 and KEY3 limit the current in the circuit to prevent excessive current from damaging circuit components during button operation. The "ON / OFF" signal is connected to pin 1 of the button through resistor R2. When the button is not pressed, the "ON / OFF" signal is disconnected from ground; when the button is pressed, the "ON / OFF" signal is shorted to ground.

[0095] The above are merely preferred embodiments of the present utility model and are not intended to limit the present utility model. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A smart terminal theme dynamic adaptation system supporting multimodal interaction, characterized in that, include: The main control MCU can upgrade the screen theme and interact with the cloud AI module; The MIC module is used to recognize the user's voice information; The speaker module is used to receive and play voice information fed back by the main control MCU to the user; The FLASH module is used for storing internal product data and upgraded themes; The screen interface module is used to install a display screen, display the screen theme, and interact with the user via video. The charging management module is used to manage the charging of the product's battery. The MIC module, speaker module, screen interface module, FLASH module, and charging management module are all connected to the main control MCU.

2. The intelligent terminal theme dynamic adaptation system supporting multimodal interaction as described in claim 1, characterized in that, The main control MCU includes a main control chip U5, a crystal oscillator Y1, and a filtering unit. The MIC module, speaker module, screen interface module, FLASH module, charging management module, crystal oscillator Y1, and filtering unit are all connected to the main control chip U5. The main control chip U5 has a programming interface that can upgrade the main body.

3. The intelligent terminal theme dynamic adaptation system supporting multimodal interaction as described in claim 2, characterized in that, The main control chip U11 is model AC7911BA.

4. The intelligent terminal theme dynamic adaptation system supporting multimodal interaction as described in claim 2, characterized in that, The filtering unit includes an inductor L2, capacitors C8 and C9, a resistor R17, and a capacitor C7. One end of the inductor L2 is connected to the main control chip U5, and the other end, together with capacitors C8, C9, C7, and resistor R17, forms a common terminal that is connected to the DCVDD14 pin of the main control chip U5. The other ends of capacitors C8, C9, and C7 are grounded, and the other end of resistor R17 is connected to the WFVDD14 pin of the main control chip U5.

5. A smart terminal theme dynamic adaptation system supporting multimodal interaction as described in claim 2, characterized in that, The MIC module includes a first MIC unit and a second MIC unit, both of which are connected to the main control chip U5.

6. The intelligent terminal theme dynamic adaptation system supporting multimodal interaction as described in claim 5, characterized in that, The first MIC unit includes a microphone interface J2, a capacitor C12, a resistor R21, a capacitor C13, a resistor R25, a capacitor C16, and a capacitor C18. The capacitor C12 and resistor R21 are connected in series. One end of resistor R21, capacitor C13, and capacitor C16 forms a common terminal connected to the positive terminal of the microphone interface J2. The other end of capacitor C16, along with one end of resistor R25 and capacitor C18, forms a common terminal connected to the negative terminal of the microphone interface J2. The other ends of capacitors C13 and C18 are both connected to the main control chip U5. The second MIC unit includes a microphone interface J4, a capacitor C14, a resistor R19, a capacitor C15, a resistor R26, a capacitor C17, and a capacitor C19. The capacitor C14 and the resistor R19 are connected in series. One end of the resistor R19, the capacitor C15, and the capacitor C17 forms a common terminal and is connected to the positive terminal of the microphone interface J4. The other end of the capacitor C17 and one end of the resistor R26 and the capacitor C19 form a common terminal and are connected to the negative terminal of the microphone interface J4. The other ends of the capacitors C15 and C19 are both connected to the main control chip U5.

7. A smart terminal theme dynamic adaptation system supporting multimodal interaction as described in claim 2, characterized in that, The speaker module includes a speaker interface J5, an audio power amplifier chip U6, a headphone conversion unit, and a headphone interface J6. The audio power amplifier chip U6 is connected to the main control chip U5, the speaker interface J5 is connected to the audio power amplifier chip U6, and the headphone interface J6 is connected to the audio power amplifier chip U6 through the headphone conversion unit.

8. A smart terminal theme dynamic adaptation system supporting multimodal interaction as described in claim 7, characterized in that, The headphone conversion unit includes a transistor Q4 and a MOSFET Q3. The first terminal of the transistor Q4 is connected to the headphone interface J6, and the third terminal is connected to the gate terminal of the MOSFET Q3. The drain terminal of the MOSFET Q3 is connected to the speaker interface J5 through the audio power amplifier chip U6, and the source terminal of the MOSFET Q3 is connected to the power input signal.

9. A smart terminal theme dynamic adaptation system supporting multimodal interaction as described in claim 2, characterized in that, The FLASH module includes a flash memory chip U4 and a filter capacitor C6. The flash memory chip U4 is connected to the main control chip U5, and the filter capacitor C6 is connected to pins 7 and 8 of the flash memory chip U4.

10. A smart terminal theme dynamic adaptation system supporting multimodal interaction as described in claim 2, characterized in that, The screen interface module includes a display interface J3, a PMOS transistor Q2, a pull-up resistor R23, and a pull-up resistor R24. The display interface J3 is connected to the main control chip U5. The drain (D) of the PMOS transistor Q2 is connected to the display interface J3 through the pull-up resistor R24. One end of the pull-up resistor R23 is connected to the source (S) of the PMOS transistor Q2, and the other end is connected to the gate (G) of the PMOS transistor Q2.

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