An integrated circuit system based on a wireless communication module and a control method thereof

Abstract

The application provides an integrated circuit system based on a wireless communication module and a control method thereof.The integrated circuit system based on the wireless communication module comprises a power management module, a wireless communication module and a main controller;power signal output ends of the power management module are connected with power signal input ends of the wireless communication module respectively; a data information interaction end of the wireless communication module is connected with a data information interaction end of the main controller; and a power control signal output end of the main controller is connected with a power control signal output end of the power management module.

Description

Technical Field

[0001] This invention proposes an integrated circuit system based on a wireless communication module and its control method, belonging to the field of integrated circuit technology. Background Technology

[0002] The power supply for commercially available 4G wireless communication modules is 3.8V (3.3V~4.3V), while data interaction uses a 1.8V power supply. Some manufacturers' modules have a built-in 1.8V power output with very weak load capacity. In this case, only one 3.8V power supply is needed for the module, and the built-in 1.8V power supply cannot power other circuits. Some modules do not have a 1.8V power output, in which case two power supplies must be provided. Currently, the power supply of wireless communication modules by various manufacturers, as well as the integrated circuits in existing wireless communication modules, cannot adjust the power supply according to the communication operation status of the wireless communication module, resulting in high power consumption of the wireless communication module. Summary of the Invention

[0003] This invention provides an integrated circuit system based on a wireless communication module and its control method, to solve the problem that existing integrated circuit systems with wireless communication modules cannot adjust power supply according to the communication operation status of the wireless communication module, resulting in high power consumption of the wireless communication module. The technical solution adopted is as follows:

[0004] An integrated circuit system based on a wireless communication module is disclosed. The integrated circuit system based on the wireless communication module includes a power management module, a wireless communication module, and a main controller. The power signal output terminal of the power management module is connected to the power signal input terminal of the wireless communication module. The data information interaction terminal of the wireless communication module is connected to the data information interaction terminal of the main controller. The power control signal output terminal of the main controller is connected to the power control signal output terminal of the power management module.

[0005] Furthermore, the power management module has a power signal output terminal including a first power signal output terminal and a second power signal output terminal; the first power signal output terminal outputs a 3.3V-4.3V power signal; and the second power signal output terminal outputs a power signal less than or equal to 1.8V.

[0006] Furthermore, the second power signal output terminal is connected to the power monitoring signal output terminal of the main controller.

[0007] Furthermore, the main controller includes:

[0008] The power supply control module is used by the main controller to control the power management module to supply 3.3V-4.3V power to the wireless communication module through the first power signal output terminal in real time.

[0009] The pre-power supply control module is used by the main controller to control the second power signal output terminal to supply pre-powered power signals to the wireless communication module in a pre-power supply mode, wherein the pre-power supply voltage value corresponding to the pre-powered power signal is less than 1.8V.

[0010] The wireless communication power supply control module is used by the main controller to monitor and determine in real time whether to control the wireless communication module to perform data transmission. When the main controller determines that the wireless communication module needs to perform data transmission, it controls the second power signal output terminal to switch the power supply to the wireless communication module from the pre-power supply mode to 1.8V.

[0011] Furthermore, the pre-power supply control module includes:

[0012] A real-time recording module is used by the main controller to record the data transmission start time interval of the wireless communication module within a preset monitoring period.

[0013] The pre-power supply setting module allows the main controller to set the pre-power supply voltage value when the current wireless communication module is in sleep mode based on the data transmission start time interval within the monitoring period.

[0014] The pre-supply signal transmission and control module is used by the main controller to send the pre-supply voltage value to the power management module and control the power management module to supply power to the wireless communication module through the second power signal output terminal according to the pre-supply voltage value.

[0015] Furthermore, the pre-supply voltage value is obtained using the following formula:

[0016]

[0017] Where Q represents the pre-supply voltage value; Q e The rated output voltage of the second power signal output terminal is 1.8V; n represents the number of times the wireless communication module initiates wireless data transmission during the monitoring period, and n is an integer greater than 3; T max T represents the maximum data transmission start interval within the monitoring period; min This indicates the minimum data transmission start interval during the monitoring period.

[0018] Furthermore, the main controller also includes:

[0019] The receiving module is used by the main controller to receive the power supply voltage value sent by the second power signal output terminal of the power management module in real time;

[0020] The judgment module is used by the main controller to judge the response time of the power management module when it adjusts from the pre-supply voltage value to 1.8V based on the supply voltage value sent by the second power signal output terminal.

[0021] An adjustment module is used by the main controller to adjust the pre-supply voltage value using a pre-supply voltage value adjustment model when the response time of adjusting the pre-supply voltage value to 1.8V exceeds a preset response time threshold. The pre-supply voltage value adjustment model is as follows:

[0022]

[0023]

[0024] Among them, Q t Indicates the adjusted pre-supply voltage value; Q represents the pre-supply voltage value corresponding to the current response time exceeding the preset response duration threshold; Qmin represents the lowest pre-supply voltage value occurring during the current wireless communication module's operation and switching process when the response time does not exceed the response duration threshold; T c This indicates the response time that exceeds the preset response time threshold; T y This indicates the duration corresponding to the response time threshold.

[0025] A control method for an integrated circuit system based on a wireless communication module, the control method comprising:

[0026] The main controller controls the power management module to supply 3.3V-4.3V power to the wireless communication module through the first power signal output terminal in real time;

[0027] The main controller controls the second power signal output terminal to supply pre-powered power to the wireless communication module in a pre-powered mode.

[0028] The main controller monitors and determines in real time whether to control the wireless communication module to transmit data. When the main controller determines that the wireless communication module needs to transmit data, it controls the second power signal output terminal to switch the power supply to the wireless communication module from the pre-power supply mode to 1.8V.

[0029] When the wireless communication module receives a 1.8V power supply from the second power signal output terminal, it performs wireless data transmission.

[0030] Furthermore, the main controller controls the second power signal output terminal to supply pre-powered energy to the wireless communication module according to the pre-powered mode, including:

[0031] The main controller records the data transmission start time interval of the wireless communication module in real time within the preset monitoring period.

[0032] The main controller sets the pre-supply voltage value when the current wireless communication module is in sleep mode according to the data transmission start time interval within the monitoring period.

[0033] The main controller sends the pre-supply voltage value to the power management module, and controls the power management module to supply power to the wireless communication module through the second power signal output terminal according to the pre-supply voltage value;

[0034] The pre-supply voltage value is obtained by the following formula:

[0035]

[0036] Where Q represents the pre-supply voltage value; Q e The rated output voltage of the second power signal output terminal is 1.8V; n represents the number of times the wireless communication module initiates wireless data transmission during the monitoring period, and n is an integer greater than 3; T max T represents the maximum data transmission start interval within the monitoring period; min This indicates the minimum data transmission start interval during the monitoring period.

[0037] Furthermore, the control method further includes:

[0038] The main controller receives the power supply voltage value sent by the second power signal output terminal of the power management module in real time;

[0039] The main controller determines the response time of the power management module in adjusting from the pre-supply voltage value to 1.8V by sending the supply voltage value from the second power signal output terminal;

[0040] When the response time for adjusting the pre-supply voltage value to 1.8V exceeds a preset response time threshold, the main controller adjusts the pre-supply voltage value using a pre-supply voltage value adjustment model, wherein the pre-supply voltage value adjustment model is as follows:

[0041]

[0042]

[0043] Among them, Q t Indicates the adjusted pre-supply voltage value; Q represents the pre-supply voltage value corresponding to the current response time exceeding the preset response duration threshold; Qmin represents the lowest pre-supply voltage value occurring during the current wireless communication module's operation and switching process when the response time does not exceed the response duration threshold; T c This indicates the response time that exceeds the preset response time threshold; Ty This indicates the duration corresponding to the response time threshold.

[0044] Beneficial effects of this invention:

[0045] This invention proposes an integrated circuit system and its control method based on a wireless communication module. The main controller controls the power management module to manage the data interaction level supply to the wireless communication module based on the module's startup and operation status. This avoids energy waste caused by continuous power supply for data interaction when no data interaction is needed. Simultaneously, by controlling the wireless communication module to operate at a low level when no data interaction is required, the main controller can effectively reduce energy consumption while maintaining sufficient startup energy for the module in sleep mode. This prevents insufficient energy during startup from increasing response time and reducing data interaction efficiency. Attached Figure Description

[0046] Figure 1 This is a system block diagram of the integrated circuit system described in this invention;

[0047] Figure 2 This is a flowchart of the integrated circuit system control method described in this invention. Detailed Implementation

[0048] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are for illustration and explanation only and are not intended to limit the present invention.

[0049] This invention proposes an integrated circuit system based on a wireless communication module, such as... Figure 1 As shown, the integrated circuit system based on the wireless communication module includes a power management module, a wireless communication module, and a main controller; the power signal output terminal of the power management module is connected to the power signal input terminal of the wireless communication module; the data information interaction terminal of the wireless communication module is connected to the data information interaction terminal of the main controller; and the power control signal output terminal of the main controller is connected to the power control signal output terminal of the power management module.

[0050] The power management module includes a first power signal output terminal and a second power signal output terminal. The first power signal output terminal outputs a 3.3V-4.3V power signal, and the second power signal output terminal outputs a power signal less than or equal to 1.8V. The second power signal output terminal is connected to the power monitoring signal output terminal of the main controller.

[0051] The working principle of the above technical solution is as follows: the main controller controls the power management module to supply 3.3V-4.3V power to the wireless communication module through the first power signal output terminal in real time; the main controller controls the second power signal output terminal to supply pre-powered power to the wireless communication module in the pre-powered mode; the main controller monitors and determines in real time whether to control the wireless communication module to perform data transmission. When the main controller determines that the wireless communication module needs to perform data transmission, it controls the second power signal output terminal to switch the power supply to the wireless communication module from the pre-powered mode to 1.8V; when the wireless communication module receives the 1.8V power supply from the second power signal output terminal, it performs wireless data transmission.

[0052] The advantages of the above technical solution are as follows: The integrated circuit system based on the wireless communication module proposed in this embodiment controls the power management module to control the data interaction level supply of the wireless communication module according to the startup and operation status of the wireless communication module by the main controller. This avoids the energy waste caused by the continuous power supply of the data interaction level when the wireless communication data module does not need to perform data interaction. At the same time, by controlling the wireless communication module with a low level when data interaction is not required by the main controller, energy consumption can be effectively reduced while maintaining sufficient startup energy for the wireless communication module in the sleep state. This prevents the problem of insufficient energy during startup leading to increased startup response time and reduced data interaction efficiency of the wireless communication module.

[0053] In one embodiment of the present invention, the main controller includes:

[0054] The power supply control module is used by the main controller to control the power management module to supply 3.3V-4.3V power to the wireless communication module through the first power signal output terminal in real time.

[0055] The pre-power supply control module is used by the main controller to control the second power signal output terminal to supply pre-powered power signals to the wireless communication module in a pre-power supply mode, wherein the pre-power supply voltage value corresponding to the pre-powered power signal is less than 1.8V.

[0056] The wireless communication power supply control module is used by the main controller to monitor and determine in real time whether to control the wireless communication module to perform data transmission. When the main controller determines that the wireless communication module needs to perform data transmission, it controls the second power signal output terminal to switch the power supply to the wireless communication module from the pre-power supply mode to 1.8V.

[0057] The working principle of the above technical solution is as follows: First, the main controller of the power supply control module controls the power management module to supply 3.3V-4.3V to the wireless communication module through the first power signal output terminal in real time; then, the main controller of the pre-power supply control module controls the second power signal output terminal to supply pre-powered power to the wireless communication module according to the pre-power supply mode, wherein the pre-powered voltage value corresponding to the pre-powered power signal is less than 1.8V; finally, the wireless communication power supply control module is used by the main controller to monitor and determine in real time whether to control the wireless communication module to perform data transmission. When the main controller determines that the wireless communication module needs to perform data transmission, it controls the second power signal output terminal to switch the power supply to the wireless communication module from the pre-power supply mode to 1.8V.

[0058] The above technical solution achieves the following effects: By controlling the power management module to manage the data interaction level supply of the wireless communication module based on its startup and operation status, the main controller avoids the energy waste caused by continuous power supply for data interaction when no data interaction is required. Simultaneously, by controlling the wireless communication module to operate at a low level when no data interaction is needed, the main controller effectively reduces energy consumption while maintaining sufficient startup energy for the wireless communication module in sleep mode. This prevents insufficient energy during startup from increasing response time and reducing data interaction efficiency.

[0059] In one embodiment of the present invention, the pre-power supply control module includes:

[0060] A real-time recording module is used by the main controller to record the data transmission start time interval of the wireless communication module within a preset monitoring period.

[0061] The pre-power supply setting module allows the main controller to set the pre-power supply voltage value when the current wireless communication module is in sleep mode based on the data transmission start time interval within the monitoring period.

[0062] The pre-supply signal transmission and control module is used by the main controller to send the pre-supply voltage value to the power management module and control the power management module to supply power to the wireless communication module through the second power signal output terminal according to the pre-supply voltage value.

[0063] The pre-supply voltage value is obtained by the following formula:

[0064]

[0065] Where Q represents the pre-supply voltage value; Q eThe rated output voltage of the second power signal output terminal is 1.8V; n represents the number of times the wireless communication module initiates wireless data transmission during the monitoring period, and n is an integer greater than 3; T max T represents the maximum data transmission start interval within the monitoring period; min T0 represents the minimum data transmission start interval within the monitoring period; T0 represents the total duration of the monitoring period.

[0066] The working principle of the above technical solution is as follows: First, the main controller is controlled by the real-time recording module to record the data transmission start time interval of the wireless communication module in real time within a preset monitoring period. Then, the main controller uses the pre-power supply setting module to set the pre-power supply voltage value when the wireless communication module is in sleep mode according to the data transmission start time interval within the monitoring period. Finally, the main controller is controlled by the pre-power supply signal sending and control module to send the pre-power supply voltage value to the power management module, and the power management module is controlled to supply data transmission electrical signals to the wireless communication module through the second power signal output terminal according to the pre-power supply voltage value.

[0067] The above technical solution achieves the following effects: By controlling the power management module to manage the data interaction level supply of the wireless communication module based on its startup and operation status, the main controller avoids the energy waste caused by continuous power supply for data interaction when no data interaction is required. Simultaneously, by controlling the wireless communication module to operate at a low level when no data interaction is needed, the main controller effectively reduces energy consumption while maintaining sufficient startup energy for the wireless communication module in sleep mode. This prevents insufficient energy during startup from increasing response time and reducing data interaction efficiency.

[0068] On the other hand, the pre-supply voltage value obtained through the above formula can be effectively configured in conjunction with the actual startup frequency of the wireless communication module. Increasing the pre-supply voltage value when the actual startup frequency is high and decreasing it when it is low further improves the actual startup efficiency and shortens the response time of the wireless communication module, thus enhancing its startup efficiency. Simultaneously, setting the pre-supply voltage value based on the maximum and minimum data transmission startup intervals within the monitoring period, as well as the overall quantity ratio within the monitoring period, effectively improves the rationality of the pre-supply voltage value setting and its matching with the actual operating conditions of the wireless communication module. This maximizes the balance between high startup efficiency and low energy consumption, ensuring the wireless communication module operates at its lowest energy consumption while achieving maximum startup efficiency.

[0069] In one embodiment of the present invention, the main controller further includes:

[0070] The receiving module is used by the main controller to receive the power supply voltage value sent by the second power signal output terminal of the power management module in real time;

[0071] The judgment module is used by the main controller to judge the response time of the power management module when it adjusts from the pre-supply voltage value to 1.8V based on the supply voltage value sent by the second power signal output terminal.

[0072] An adjustment module is used by the main controller to adjust the pre-supply voltage value using a pre-supply voltage value adjustment model when the response time of adjusting the pre-supply voltage value to 1.8V exceeds a preset response time threshold. The pre-supply voltage value adjustment model is as follows:

[0073]

[0074]

[0075] Among them, Q t Q represents the adjusted pre-supply voltage value; Q represents the pre-supply voltage value corresponding to the current response time exceeding the preset response time threshold; Q min This indicates the lowest pre-supply voltage value that occurs during the current wireless communication module's operation and transition process, provided the response time does not exceed the response duration threshold; T c This indicates the response time that exceeds the preset response time threshold; T y This indicates the duration corresponding to the response time threshold.

[0076] The working principle of the above technical solution is as follows: First, the receiving module controls the main controller to receive the power supply voltage value sent by the second power signal output terminal of the power management module in real time; then, the judgment module controls the main controller to judge the response time of the power management module to adjust from the pre-supply voltage value to 1.8V based on the power supply voltage value sent by the second power signal output terminal; finally, the adjustment module controls the main controller to adjust the pre-supply voltage value using the pre-supply voltage value adjustment model when the response time of the pre-supply voltage value adjustment to 1.8V exceeds a preset response time threshold.

[0077] The effect of the above technical solution is as follows: As the circuit operation time increases, the aging degree of the components increases. During the adjustment of the pre-supply voltage value to 1.8V, the response time will be extended as the usage time of the integrated circuit system increases. In order to ensure that the integrated circuit system can still maintain a fast response speed during long-term operation, it is necessary to monitor the response time of the wireless communication module in real time through the main controller. When the response time becomes too long, the pre-supply voltage value should be adjusted in time to provide sufficient startup energy for the wireless communication module in the sleep state.

[0078] On the other hand, the adjusted pre-supply voltage value obtained by the above formula can be set according to the actual operation of the integrated circuit, thereby improving the rationality of the adjusted pre-supply voltage value setting. At the same time, the adjusted pre-supply voltage value setting can maximize the estimation of the startup energy of the wireless communication module in the dormant state, thereby improving its startup response speed and maximizing the limitation of energy consumption and reducing resource consumption.

[0079] This invention proposes a control method for an integrated circuit system based on a wireless communication module, such as... Figure 2 As shown, the control method includes:

[0080] S1. The main controller controls the power management module to supply 3.3V-4.3V power to the wireless communication module through the first power signal output terminal;

[0081] S2. The main controller controls the second power signal output terminal to supply pre-powered power signal to the wireless communication module in a pre-powered mode.

[0082] S3. The main controller monitors and determines in real time whether to control the wireless communication module to perform data transmission. When the main controller determines that the wireless communication module needs to perform data transmission, it controls the second power signal output terminal to switch the power supply to the wireless communication module from the pre-power supply mode to 1.8V.

[0083] S4. When the wireless communication module receives 1.8V power from the second power signal output terminal, it performs wireless data transmission.

[0084] The working principle of the above technical solution is as follows: First, the main controller controls the power management module to supply 3.3V-4.3V power to the wireless communication module through the first power signal output terminal in real time; then, the main controller controls the second power signal output terminal to supply pre-powered power to the wireless communication module in a pre-powered mode; subsequently, the main controller monitors and determines in real time whether to control the wireless communication module to perform data transmission. When the main controller determines that the wireless communication module needs to perform data transmission, it controls the second power signal output terminal to switch from the pre-powered mode to 1.8V power supply to the wireless communication module; finally, when the wireless communication module receives the 1.8V power supply from the second power signal output terminal, it performs wireless data transmission.

[0085] The advantages of the above technical solution are as follows: The control method for an integrated circuit system based on a wireless communication module proposed in this embodiment controls the power management module to supply data interaction levels to the wireless communication module according to the startup and operation status of the wireless communication module by the main controller. This avoids the energy waste caused by continuous power supply to the data interaction level when the wireless communication data module does not need to perform data interaction. At the same time, by controlling the wireless communication module to operate at a low level when data interaction is not required, the main controller can effectively reduce energy consumption while maintaining sufficient startup energy for the wireless communication module in sleep mode. This prevents the problem of insufficient energy during startup leading to increased startup response time and reduced data interaction efficiency of the wireless communication module.

[0086] In one embodiment of the present invention, the main controller controls the second power signal output terminal to supply pre-powered energy to the wireless communication module according to the pre-powered mode, including:

[0087] S201, The main controller records the data transmission start time interval of the wireless communication module in real time within the preset monitoring period;

[0088] S202, The main controller sets the pre-supply voltage value when the current wireless communication module is in sleep mode according to the data transmission start time interval within the monitoring period;

[0089] S203. The main controller sends the pre-supply voltage value to the power management module and controls the power management module to supply power to the wireless communication module through the second power signal output terminal according to the pre-supply voltage value.

[0090] The pre-supply voltage value is obtained by the following formula:

[0091]

[0092] Where Q represents the pre-supply voltage value; Q e The rated output voltage of the second power signal output terminal is 1.8V; n represents the number of times the wireless communication module initiates wireless data transmission during the monitoring period, and n is an integer greater than 3; T max T represents the maximum data transmission start interval within the monitoring period; min This indicates the minimum data transmission start interval during the monitoring period.

[0093] The working principle of the above technical solution is as follows: First, the main controller records the data transmission start time interval of the wireless communication module in real time within a preset monitoring period; then, the main controller sets the pre-supply voltage value when the wireless communication module is in sleep mode according to the data transmission start time interval within the monitoring period; finally, the main controller sends the pre-supply voltage value to the power management module, and controls the power management module to supply the data transmission electrical signal to the wireless communication module through the second power signal output terminal according to the pre-supply voltage value.

[0094] The above technical solution achieves the following effects: By controlling the power management module to manage the data interaction level supply of the wireless communication module based on its startup and operation status, the main controller avoids the energy waste caused by continuous power supply for data interaction when no data interaction is required. Simultaneously, by controlling the wireless communication module to operate at a low level when no data interaction is needed, the main controller effectively reduces energy consumption while maintaining sufficient startup energy for the wireless communication module in sleep mode. This prevents insufficient energy during startup from increasing response time and reducing data interaction efficiency.

[0095] In one embodiment of the present invention, the control method further includes:

[0096] Step 1: The main controller receives the power supply voltage value sent by the second power signal output terminal of the power management module in real time;

[0097] Step 2: The main controller determines the response time of the power management module in adjusting from the pre-supply voltage value to 1.8V by using the supply voltage value sent by the second power signal output terminal;

[0098] Step 3: When the response time for adjusting the pre-supply voltage value to 1.8V exceeds a preset response time threshold, the main controller adjusts the pre-supply voltage value using a pre-supply voltage value adjustment model, wherein the pre-supply voltage value adjustment model is as follows:

[0099]

[0100]

[0101] Among them, Q t Indicates the adjusted pre-supply voltage value; Q represents the pre-supply voltage value corresponding to the current response time exceeding the preset response duration threshold; Qmin represents the lowest pre-supply voltage value occurring during the current wireless communication module's operation and switching process when the response time does not exceed the response duration threshold; T c This indicates the response time that exceeds the preset response time threshold; T y This indicates the duration corresponding to the response time threshold.

[0102] The working principle of the above technical solution is as follows: First, the main controller receives the power supply voltage value sent by the second power signal output terminal of the power management module in real time; then, the main controller determines the response time of the power management module to adjust from the pre-supply voltage value to 1.8V based on the power supply voltage value sent by the second power signal output terminal; finally, when the response time of the pre-supply voltage value adjustment to 1.8V exceeds a preset response time threshold, the main controller adjusts the pre-supply voltage value using the pre-supply voltage value adjustment model.

[0103] The above technical solution achieves the following effects: By controlling the power management module to manage the data interaction level supply of the wireless communication module based on its startup and operation status, the main controller avoids the energy waste caused by continuous power supply for data interaction when no data interaction is required. Simultaneously, by controlling the wireless communication module to operate at a low level when no data interaction is needed, the main controller effectively reduces energy consumption while maintaining sufficient startup energy for the wireless communication module in sleep mode. This prevents insufficient energy during startup from increasing response time and reducing data interaction efficiency.

[0104] On the other hand, the pre-supply voltage value obtained through the above formula can be effectively configured in conjunction with the actual startup frequency of the wireless communication module. Increasing the pre-supply voltage value when the actual startup frequency is high and decreasing it when it is low further improves the actual startup efficiency and shortens the response time of the wireless communication module, thus enhancing its startup efficiency. Simultaneously, setting the pre-supply voltage value based on the maximum and minimum data transmission startup intervals within the monitoring period, as well as the overall quantity ratio within the monitoring period, effectively improves the rationality of the pre-supply voltage value setting and its matching with the actual operating conditions of the wireless communication module. This maximizes the balance between high startup efficiency and low energy consumption, ensuring the wireless communication module operates at its lowest energy consumption while achieving maximum startup efficiency.

[0105] Obviously, those skilled in the art can make various modifications and variations to this invention without departing from its spirit and scope. Therefore, if these modifications and variations fall within the scope of the claims of this invention and their equivalents, this invention also intends to include these modifications and variations.

Claims

1. An integrated circuit system based on a wireless communication module, characterized in that, The integrated circuit system based on the wireless communication module includes a power management module, a wireless communication module, and a main controller; the power signal output terminal of the power management module is connected to the power signal input terminal of the wireless communication module; the data information interaction terminal of the wireless communication module is connected to the data information interaction terminal of the main controller; the power control signal output terminal of the main controller is connected to the power control signal output terminal of the power management module; the main controller further includes: The receiving module is used by the main controller to receive the power supply voltage value sent by the second power signal output terminal of the power management module in real time; The judgment module is used by the main controller to judge the response time of the power management module when it adjusts from the pre-supply voltage value to 1.8V based on the supply voltage value sent by the second power signal output terminal. An adjustment module is used by the main controller to adjust the pre-supply voltage value using a pre-supply voltage value adjustment model when the response time of adjusting the pre-supply voltage value to 1.8V exceeds a preset response time threshold. The pre-supply voltage value adjustment model is as follows: ； in, Q t This indicates the adjusted pre-supply voltage value; Q Qmin represents the pre-supply voltage value corresponding to the current response time exceeding the preset response duration threshold; Qmin represents the lowest pre-supply voltage value that occurs during the current wireless communication module operation and switching process when the response time does not exceed the response duration threshold. T c This indicates the response time that has exceeded the preset response time threshold. T y This indicates the duration corresponding to the response time threshold.

2. The integrated circuit system according to claim 1, characterized in that, The power management module has a power signal output terminal including a first power signal output terminal and a second power signal output terminal; the first power signal output terminal outputs a 3.3V-4.3V power signal; the second power signal output terminal outputs a power signal less than or equal to 1.8V.

3. The integrated circuit system according to claim 2, characterized in that, The second power signal output terminal is connected to the power monitoring signal output terminal of the main controller.

4. The integrated circuit system according to claim 1, characterized in that, The main controller includes: The power supply control module is used by the main controller to control the power management module to supply 3.3V-4.3V power to the wireless communication module through the first power signal output terminal in real time. The pre-power supply control module is used by the main controller to control the second power signal output terminal to supply pre-powered power signals to the wireless communication module in a pre-power supply mode, wherein the pre-power supply voltage value corresponding to the pre-powered power signal is less than 1.8V. The wireless communication power supply control module is used by the main controller to monitor and determine in real time whether to control the wireless communication module to perform data transmission. When the main controller determines that the wireless communication module needs to perform data transmission, it controls the second power signal output terminal to switch the power supply to the wireless communication module from the pre-power supply mode to 1.8V.

5. The integrated circuit system according to claim 4, characterized in that, The pre-power supply control module includes: A real-time recording module is used by the main controller to record the data transmission start time interval of the wireless communication module within a preset monitoring period. The pre-power supply setting module allows the main controller to set the pre-power supply voltage value when the current wireless communication module is in sleep mode based on the data transmission start time interval within the monitoring period. The pre-supply signal transmission and control module is used by the main controller to send the pre-supply voltage value to the power management module and control the power management module to supply power to the wireless communication module through the second power signal output terminal according to the pre-supply voltage value.

6. The integrated circuit system according to claim 5, characterized in that, The pre-supply voltage value is obtained using the following formula: ； in, Q Indicates the pre-supply voltage value; Q e This indicates the rated output voltage value of the second power signal output terminal, which is 1.8V; n This indicates the number of times the wireless communication module initiates wireless data transmission during the monitoring period, and... n It is an integer greater than 3; T max This indicates the maximum data transmission start interval within the monitoring period; T min This indicates the minimum data transmission start time interval within the monitoring period. T 0 indicates the total duration of the monitoring period.

7. A control method for an integrated circuit system based on a wireless communication module, characterized in that, The control method includes: The main controller controls the power management module to supply 3.3V-4.3V power to the wireless communication module through the first power signal output terminal in real time; The main controller controls the second power signal output terminal to supply pre-powered power to the wireless communication module in a pre-powered mode. The main controller monitors and determines in real time whether to control the wireless communication module to transmit data. When the main controller determines that the wireless communication module needs to transmit data, it controls the second power signal output terminal to switch the power supply to the wireless communication module from the pre-power supply mode to 1.8V. The wireless communication module performs wireless data transmission when it receives 1.8V power from the second power signal output terminal; the control method further includes: The main controller receives the power supply voltage value sent by the second power signal output terminal of the power management module in real time; The main controller determines the response time of the power management module in adjusting from the pre-supply voltage value to 1.8V by sending the supply voltage value from the second power signal output terminal; When the response time for adjusting the pre-supply voltage value to 1.8V exceeds a preset response time threshold, the main controller adjusts the pre-supply voltage value using a pre-supply voltage value adjustment model, wherein the pre-supply voltage value adjustment model is as follows: ； in, Q t This indicates the adjusted pre-supply voltage value; Q Qmin represents the pre-supply voltage value corresponding to the current response time exceeding the preset response duration threshold; Qmin represents the lowest pre-supply voltage value that occurs during the current wireless communication module operation and switching process when the response time does not exceed the response duration threshold. T c This indicates the response time that has exceeded the preset response time threshold. T y This indicates the duration corresponding to the response time threshold.

8. The control method for the integrated circuit system according to claim 7, characterized in that, The main controller controls the second power signal output terminal to supply pre-powered energy to the wireless communication module according to the pre-powered mode, including: The main controller records the data transmission start time interval of the wireless communication module in real time within the preset monitoring period. The main controller sets the pre-supply voltage value when the current wireless communication module is in sleep mode according to the data transmission start time interval within the monitoring period. The main controller sends the pre-supply voltage value to the power management module, and controls the power management module to supply power to the wireless communication module through the second power signal output terminal according to the pre-supply voltage value; The pre-supply voltage value is obtained by the following formula: ； in, Q Indicates the pre-supply voltage value; Q e This indicates the rated output voltage value of the second power signal output terminal, which is 1.8V; n This indicates the number of times the wireless communication module initiates wireless data transmission during the monitoring period, and... n It is an integer greater than 3; T max This indicates the maximum data transmission start interval within the monitoring period; T min This indicates the minimum data transmission start time interval within the monitoring period. T 0 indicates the total duration of the monitoring period.

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