WO2019104479A1

WO2019104479A1 - Method for determining loading program and electronic system

Info

Publication number: WO2019104479A1
Application number: PCT/CN2017/113355
Authority: WO
Inventors: 陈泓辉
Original assignee: 深圳市汇顶科技股份有限公司
Priority date: 2017-11-28
Filing date: 2017-11-28
Publication date: 2019-06-06
Also published as: CN110121688A; CN110121688B

Abstract

A method for determining a loading program, applied to an electronic system storing program codes in a first memory and a second memory, the method comprising: when the electronic system receives a trigger event and switches from a sleep mode to a working mode, operating according to a loading instruction, executing a first loading program to obtain the program codes from the second memory, or executing a second loading program to transfer the program codes from the first memory to the second memory, and obtain the program codes from the second memory; calculating, according to the trigger event, first power consumption and second power consumption, to generate an updated loading instruction; when the electronic system receives a sleep instruction and switches from the working mode to the sleep mode, providing a power supply voltage or a ground voltage according to the updated loading instruction, to turn on or turn off the first memory and the second memory of the electronic system; the first power consumption corresponding to the power consumption of the electronic system executing the first loading program in the working mode and the sleep mode, and the second power consumption corresponding to the power consumption of the electronic system executing the second loading program in the working mode and the sleep mode.

Description

Method for judging loader and electronic system

Technical field

The present application relates to a method for judging a load program and an electronic system, and more particularly to a method and an electronic system for automatically determining a load program.

Background technique

In order to load program code at startup, today's electronic systems can be roughly divided into two architectures. One architecture is a one-time loader program, where program code is moved from an external memory with slower access speeds to an internal memory that accesses faster speeds, and continuously supplies power to the internal memory to maintain the internal memory data storage state. When the electronic system is switched from the sleep mode to the active mode, the electronic system can load the program code from the internal memory faster and more power-saving, so the loading of the program code only needs to be performed once. Another architecture is a repetitive loader. Whenever the electronic system switches to the working mode, the program code required by the electronic system is again moved to the internal memory by the external memory again, because when the power-saving sleep mode is performed, The internal memory is not powered. After waking up from sleep, the program code must be moved again. In addition, in some applications, the program code can be directly read by the external memory, usually an electronic system with a lower instruction cycle, which will operate in this way.

The electronic system of the one-time loading program has the disadvantage of high complexity of the power management module, and must be When the electronic system transitions between the sleep mode and the operating mode, it provides the appropriate voltage to each unit of work of the electronic system. In addition, as the process progresses and the size of the electronic components shrinks, the leakage current of the electronic system also becomes severe, and the power consumption of the electronic system in the sleep mode is also affected. When the electronic system operates in the sleep mode according to the one-time loader, the power management module needs to provide an appropriate voltage to the internal memory in the sleep mode to maintain the storage state of the internal memory data. Therefore, the electronic system causes additional power consumption due to leakage current of the internal memory during sleep, which affects the power consumption performance of the electronic system of the one-time loading program. On the other hand, each time the repetitive loader switches from sleep mode to work mode, the electronic system must directly move the program code from the external memory to the internal memory, or directly obtain and load the program code from the external memory. Will generate extra power.

Therefore, the prior art has a need for improvement.

Summary of the invention

Therefore, the purpose of some embodiments of the present application is to provide a method for judging a loading program and an electronic system for solving an electronic system that can only execute a single loading program, and cannot select different according to different usage conditions of the electronic system. The loader mode reduces the power consumption of the electronic system to improve the shortcomings of the prior art.

In order to solve the above technical problem, the embodiment of the present application provides a method for determining a loading program, which is applied to an electronic system, where the electronic system includes a first memory and a second memory, in the first Storing or the second memory storing the program code, the method comprising: when the electronic system receives a trigger event from the sleep mode to the working mode, according to the loading instruction operation, executing the first loading program is obtained by the second memory The program code, or executing the second loader, moving the program code from the first memory to the second memory, obtaining the program code from the second memory; and calculating the first work according to the trigger event And a second power consumption to generate an updated load instruction; and when the electronic system receives the sleep instruction from the operating mode to the sleep mode, providing a power supply voltage or a ground voltage according to the updated load instruction The first memory and the second memory of the electronic system are turned on or off; wherein the first power consumption corresponds to the electronic system executing in the working mode according to the first loading program and Power consumption of the sleep mode, the second power consumption corresponding to the electronic system executing in the working mode according to the second loading program The power consumption sleep mode.

For example, the trigger event is an instruction, a program, or a message.

For example, when the electronic system receives a trigger event to switch from the sleep mode to the working mode, according to the load instruction operation, executing the first loader to obtain the program code from the second memory, or executing the second loader Moving the program code from the first memory to the second memory, the step of obtaining the program code by the second memory includes: when the electronic system receives a trigger event from a sleep mode to a working mode Acting according to a load instruction; when the load instruction is a first loader, the microprocessor in the electronic system loads and executes the program code stored in the second memory; and when the load instruction is The second program loading program, the program code is by the first The memory is moved to the second memory to cause the microprocessor in the electronic system to load and execute the program code stored in the second memory.

For example, calculating the first power consumption and the second power consumption according to the trigger event to generate an updated load instruction includes: calculating a sleep time and a working time of the electronic system according to the trigger event; according to the sleep Time, calculating a first sleep power consumption and a second sleep power consumption, and calculating a first load power consumption and a second load power consumption according to the working time; summing the first sleep power consumption and the first load power Taking a first power consumption, summing the second sleep power consumption and the second load power consumption to obtain a second power consumption; and comparing the first power consumption and the second power consumption to generate Load the instruction after the update.

For example, comparing the first power consumption and the second power consumption to generate an updated load instruction includes: generating, when the power consumption comparison result is that the first power consumption is less than the second power consumption The updated load instruction is the first loader; and when the power consumption comparison result is that the first power consumption is greater than the second power consumption, the generated update load instruction is the second loader.

For example, when the electronic system receives the sleep instruction from the working mode to the sleep mode, according to the updated loading instruction, providing a power voltage or a ground voltage to turn on or off the electronic system The step of describing the first memory and the second memory includes: when the electronic system receives a sleep instruction from the working mode to the sleep mode, when the updated load instruction is the first loader The first memory receives a ground voltage and the second memory receives a power voltage to turn off the first memory and turn on the second memory; and when the updated load instruction When the second loading program is used, the first memory and the second memory receive the ground voltage to turn off the first memory and the second memory.

For example, when the electronic system receives a sleep instruction from the operating mode to the sleep mode, providing a power supply voltage or a ground voltage according to the updated load instruction to turn on or off the electronic system The step of the memory and the second memory includes: when the electronic system receives the sleep instruction from the working mode to the sleep mode, when the updated load instruction is the first loader, The first memory and the second memory receive a power supply voltage to turn on the first memory and the second memory; and when the updated load instruction is the second loader, the first memory Receiving the power voltage and the second memory receiving a ground voltage to turn on the first memory and turn off the second memory.

An embodiment of the present application further provides an electronic system including a microprocessor for receiving program code for operation; a first memory for storing the program code as an external memory of the electronic system; and a second memory For storing the program code, the internal memory of the electronic system is directly coupled to the microprocessor; and the boot loader is configured to: when the electronic system is switched from the sleep mode to the work mode, The program code is moved from the first inner to the second memory; the load judging module includes a storage unit for storing a load instruction; and the processing unit, when the electronic system receives a trigger event, transitioning from the sleep mode to the work mode, according to The load instruction operation, executing the first loader to obtain the program code by the second memory, or executing the second loader to move the program code from the first memory to the second memory, by the The second memory acquires the program code; and the determining unit is configured to calculate the first power consumption and the second power consumption according to the trigger event to generate an update The load instruction; And a power management module, configured to: when the electronic system receives the sleep command from the operating mode to the sleep mode, provide a power voltage or a ground voltage according to the updated load command to turn the electronic system on or off The first memory and the second memory; wherein the first power consumption corresponds to power consumption performed by the electronic system in the operating mode and the sleep mode according to the first loading program, The second power consumption corresponds to power consumption performed by the electronic system in the operating mode and the sleep mode according to the second loading program.

DRAWINGS

FIG. 1 is a schematic diagram of an electronic system according to an embodiment of the present application.

FIG. 2 is a schematic diagram of a process according to an embodiment of the present application.

Detailed ways

The present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It is understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.

Please refer to FIG. 1. FIG. 1 is a schematic diagram of an electronic system 10 according to an embodiment of the present application. The electronic system 10 includes a first memory 100, a second memory 102, a microprocessor 104, a boot loader 106, a power management module 108, and a load determination module 110. It is worth noting that the electronic system 10 can transition between the sleep mode and the operational mode to reduce the additional power consumption of the electronic system 10 when idle. Wherein, when the electronic system 10 receives a trigger event, the sleep mode can be switched to the working mode, and the electronic system 10 Optionally executing a first loader (loading and executing the program code from the second memory 102) or a second loader (copying the program code from the first memory 100 to the second memory 102, and from the first The second memory 102 loads and executes the program code). For example, the electronic system 10 can determine whether to select the first loader or the second loader according to the frequency of the trigger event, the length of the sleep time, the power consumption of the first loader, and the power consumption of the second loader to further save The power consumption of the electronic system 10.

In this embodiment, the first memory 100 is a non-volatile flash memory, and the embedded system is disposed in the electronic system 10 for storing data of the electronic system 10, which is external to the electronic system 10. Memory. Among them, the non-volatile flash memory can keep the data stored in the state of power supply or no power supply. The second memory 102 is a static random access memory (SRAM), which is an internal memory of the electronic system 10 and is also used for storing data, and has a high read rate, which is an internal memory when the system is executed. Among them, static random access memory needs to maintain the data storage state when there is power supply. Microprocessor 104 is the processing core of electronic system 10 for loading program code and executing, and performing operations on electronic system 10. The boot loader 106 is a program load module for copying the program code from the first memory 100 to the second memory 102 to provide the microprocessor 104 when the electronic system 10 is booted or switched from the sleep mode to the active mode. Load and execute the program code. The power management module 108 is configured to provide an appropriate power supply voltage or ground voltage to each of the working units in the electronic system 10 so that the various working units in the electronic system 10 can operate normally in the sleep mode and the operating mode. It should be noted that in order to maintain the storage state of the data of the electronic system 10, the power management module 108 must also provide an appropriate power voltage or ground voltage to the first memory 100 and the second memory 102 when in the sleep mode. Load judgment module 110 is used to determine a load instruction. The electronic system 10 can execute the first loader or the second loader according to the load instruction. The boot loader 106 can load the program code according to the load instruction according to the load instruction. The power management module 108 can provide an appropriate power supply voltage according to the load instruction. Or ground voltage to each of the working units in the electronic system 10. The load determination module 110 includes a storage unit 1100, a processing unit 1102, and a determination unit 1104. The storage unit 1100 is configured to store a load instruction, and the processing unit 1102 is configured to instruct the boot loader 106 to execute the first load program or the second load program according to the load instruction, and instruct the power management module 108 to provide an appropriate power voltage or The ground voltage is applied to various working units in the electronic system 10. Therefore, the electronic system 10 can selectively execute the first loading program or the second loading program by the loading instruction determined by the loading determining module 110 to save power consumption of the electronic system 10.

In detail, due to the characteristic relationship between the flash memory and the static random access memory, when the electronic memory 10 is in the sleep mode, the first memory 100 does not need to receive a power supply voltage to maintain the storage state of its internal data even if the receiving thereof is cut off. The power supply voltage can also keep the data stored in the first memory 100 from disappearing. However, the second memory 102 needs to receive the power supply voltage in addition to the operating mode, and the second memory 102 also needs to receive the power supply voltage in the sleep mode to maintain its internally stored data. Therefore, in the sleep mode of the electronic system 10, the power management module 108 can be used to provide an appropriate power supply voltage or ground voltage to various working units in the electronic system 10 to enable the electronic system 10 to operate normally in the sleep mode. The load judging module 110 is configured to instruct the boot loader 106 to load the program code from the first memory 100 or the second memory 102 to the microprocessor 104 when the electronic system 10 is switched from the sleep mode to the work mode; and in the electronic system 10 transitions from the operational mode to the sleep mode, instructing the power management module 108 to provide an appropriate supply voltage or ground voltage to each of the work cells in the electronic system 10.

In other words, the electronic system 10 can determine the manner in which the program is loaded according to the frequency at which the electronic system 10 receives the trigger event to save power consumption. The operation steps of the electronic system 10 can be summarized into a process 20, as shown in FIG. 2, the process 20 includes the following steps:

Step 200: Start.

Step 202: When the electronic system 10 receives a trigger event from a sleep mode to a working mode, the processing unit 1102 instructs the boot loader 106 to execute a first loader or a second loader according to a load instruction.

Step 204: The processing unit 1102 calculates a first power consumption and a second power consumption according to the trigger event to generate an updated load instruction.

Step 206: When the electronic system 10 receives a sleep command from the working mode to the sleep mode, the processing unit 1102 instructs the power management module 108 to provide a power voltage or a ground voltage according to the updated load command to turn the electronic system on or off. The first memory 100 of the 10 and the second memory 102.

Step 208: End.

In detail, in step 202, when the electronic system 10 receives a triggering event in the sleep mode, the electronic system 10 transitions from the sleep mode to the active mode. The processing unit 1102 of the load judging module 110 instructs the boot loader 106 to execute the load program according to the load instruction stored in the storage unit 1100. When the load instruction is the first load instruction, the second memory 102 stores the copy-shifted program code, and the processing unit 1102 instructs the microprocessor 104 to load and execute the program code in the second memory 102; when the load instruction is the second When the instruction is loaded, it means that no program code is stored in the second memory 102. The processing unit 1102 instructs the boot loader 106 to copy the program code from the first memory 100 to the second memory 102 to cause the microprocessor 104 in the electronic system 10 to load and execute the program code in the second memory 102.

Next, in step 204, the determining unit 1104 of the load determining module 110 calculates the sleep time and the working time of the electronic system 10 in a default time according to the trigger event. The first power consumption of the first load program is executed according to the sleep time and the work time, and the second power consumption of the second load program is executed. And comparing the first power consumption with the second power consumption, generating an updated load instruction to indicate the loading procedure of the electronic system 10 while sleeping. In detail, in addition to the load power consumption of the load program code when the electronic system 10 operates in the work mode, when the electronic system 10 operates in the sleep mode, the first memory 100 and the second memory 102 are loaded according to the load. The command is different, and the power supply voltage or the ground voltage is selectively received. When the first memory 100 or the second memory 102 receives the power supply voltage, additional power consumption is caused by leakage current, thereby generating sleep power consumption. Among them, the power consumption of the execution loader includes load power consumption and sleep power consumption. The power consumption is the power consumption of the electronic system 10 in the operating mode, and the sleep power consumption is the power consumption of the electronic system 10 in the sleep mode. Therefore, the determining unit 1104 first determines the sleep time and the working time according to the trigger event, and accordingly calculates the first sleep power consumption and the second sleep power consumption of the electronic system 10, and calculates the first load power consumption and the second load power consumption. The first sleep power consumption is the power consumption of the electronic system 10 to transition to the sleep mode according to the first load instruction, and the second sleep power consumption is the power consumption of the electronic system 10 to transition to the sleep mode according to the second load instruction. The first load power consumption is the power consumption of the electronic system 10 to load the program code according to the first load instruction, and the second load power consumption is the power consumption of the electronic system 10 to load the program code according to the second load instruction. Therefore, the electronic system 10 performs the first power consumption of the first load program, that is, the sum of the first load power consumption and the first sleep power consumption. Electronic system 10 execution The second power consumption of the second loader is the sum of the second load power consumption and the second sleep power consumption. The determining unit 1104 can compare the first power consumption with the second power consumption to generate an updated load instruction.

For example, when the comparison result is that the first power consumption is less than the second power consumption, the determining unit 1104 updates the load instruction to the first load program; when the comparison result is that the first power consumption is greater than the second power consumption, the determining unit 1104 Then update the load instruction to the second loader. Therefore, the determining unit 1104 can calculate the sleep time and the working time according to the trigger event, and accordingly obtain the first power consumption and the second power consumption to generate the updated loading program. In general, the first loader loads and executes the program code by the second memory 102 each time the electronic system 10 transitions from the sleep mode to the active mode. Therefore, executing the first loader can eliminate the step of copying the move program code to reduce the load power consumption. The second loader copies the shift program code to the second memory 102 by the first memory 100 each time the electronic system transitions from the sleep mode to the work mode, and loads and executes the program code by the second memory 102. Therefore, executing the second loader can provide no power supply voltage to the second memory 102 during sleep to reduce sleep power consumption caused by leakage current. In other words, the first loader has lower load power consumption and the second loader has lower sleep power consumption.

Finally, in step 206, when the electronic system 10 receives a sleep command event in the operational mode, the electronic system 10 transitions from the operational mode to the sleep mode. The processing unit 1102 of the load judging module 110 instructs the power management module 108 of the electronic system 10 to supply power voltage or ground voltage to each working unit in the electronic system 10 according to the updated loading program. To switch the electronic system 10 to the sleep mode. In detail, when the updated loader is the first loader, the processing unit 1102 instructs the power management module 108 to provide a ground voltage to the first memory 100, and supplies a power voltage to the second memory 102 to maintain the second memory. The storage state of the program code in 102. When the updated loader is the second loader, the processing unit 1102 instructs the power management module 108 to provide a ground voltage to the first memory 100 and the second memory 102. Thus, electronic system 10 can transition to sleep mode in accordance with the updated loader.

Briefly, the electronic system 10 can calculate the trigger frequency according to the trigger event, and calculate the power consumption of the system as a basis for selection, selectively executing the first load program or the second load program to reduce the power of the electronic system 10. Consumption.

It should be noted that the foregoing embodiments are used to explain the concept of the present application, and those skilled in the art can make various modifications. For example, the present application is not limited to integrating the first memory into the electronic system in an embedded setting manner, and may also connect the external first memory through the input/output port to obtain and copy the moving program code. In addition, the first memory 110 is not limited to a non-volatile flash memory, and may also be a static random access memory. In this case, in step 206, when the electronic system 10 receives the sleep instruction event in the working mode, if the updated loader is the first loader, the processing unit 1102 instructs the power management module 108 to supply the power voltage to the first A memory 100 and a second memory 102. If the updated loader is the second loader, the processing unit 1102 instructs the power management module 108 to provide a power voltage to the first memory 100 and provides a ground voltage to the second memory 102. In this way, the first memory 100 can maintain the storage state of its internal data in the sleep mode so that the data does not disappear, and by using the static random access memory as the external memory, although the sleep power consumption of the electronic system 10 is increased, However, static random access memory has lower load power consumption when executing the loader than the non-volatile flash memory, and has better system integration and is easier to integrate with the electronic system 10.

Therefore, with the embodiment of the present application, the electronic system can selectively execute the first loading program or the second loading program by determining the loading program, preferably according to the usage of the electronic system to select a loading with lower power consumption. The program mode reduces the power consumption of the electronic system.

In summary, in the prior art, the electronic system can only perform a single program code loading program, and the loading program cannot be adaptively changed to save power when the electronic system sleep time is changed. In contrast, the present application can automatically determine the appropriate loader mode according to the power consumption of the execution load of the electronic system, select a power-saving loader mode to save power consumption of the electronic system, and improve the disadvantages of the prior art. .

The above is only the preferred embodiment of the present invention, and is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection of the present invention. Within the scope.

Claims

A method for judging a loader is applied to an electronic system, the electronic system including a first memory and a second memory, and the program code is stored in the first memory or the second memory, wherein the method include:

When the electronic system receives a trigger event to switch from the sleep mode to the working mode, according to the load instruction operation, executing the first loader to obtain the program code from the second memory, or executing the second load program by the Transmitting the program code to the second memory by a memory, and acquiring the program code by the second memory;

Calculating a first power consumption and a second power consumption according to the trigger event to generate an updated load instruction;

When the electronic system receives the sleep instruction from the working mode to the sleep mode, according to the updated load instruction, providing a power voltage or a ground voltage to turn on or off the first memory of the electronic system And the second memory; wherein the first power consumption corresponds to power consumption performed by the electronic system in the working mode and the sleep mode according to the first loading program, and the second power consumption corresponds to The electronic system performs power consumption in the operating mode and the sleep mode according to the second loading program.
The method of claim 1 wherein said triggering event is an instruction, a program or a message.
The method of claim 1 , wherein when the electronic system receives a trigger event from a sleep mode to an active mode, the first loader is executed according to the load instruction operation. The second memory acquires the program code, or executes the second loader to move the program code from the first memory to the second memory, and the step of acquiring the program code by the second memory includes :

When the electronic system receives a trigger event from the sleep mode to the working mode, operating according to the load instruction;

And when the load instruction is the first loader, the microprocessor in the electronic system loads and executes the program code stored in the second memory;

And when the load instruction is a second loader, moving the program code from the first memory to the second memory, so that the microprocessor in the electronic system loads and executes the storage in the Said program code of the second memory.
The method of claim 1, wherein the calculating the first power consumption and the second power consumption according to the trigger event to generate an updated load instruction comprises:

Calculating a sleep time and a working time of the electronic system according to the trigger event;

Calculating a first sleep power consumption and a second sleep power consumption according to the sleep time, and calculating a first load power consumption and a second load power consumption according to the working time;

And summing the first sleep power consumption and the first load power consumption to obtain a first power consumption, and summing the second sleep power consumption and the second load power consumption to obtain a second power consumption;

Comparing the first power consumption and the second power consumption to generate an updated load instruction.
The method of claim 4 wherein the step of comparing the first power consumption with the second power consumption to generate an updated load instruction comprises:

When the power consumption comparison result is that the first power consumption is less than the second power consumption, the generated update load instruction is the first loader;

When the power consumption comparison result is that the first power consumption is greater than the second power consumption, the generated update load instruction is the second loader.
The method of claim 1 , wherein when the electronic system receives a sleep command from the operating mode to the sleep mode, providing a power supply voltage or a ground voltage according to the updated load command, The step of turning on or off the first memory and the second memory of the electronic system includes:

When the electronic system receives a sleep command from the operating mode to the sleep mode,

When the updated load instruction is the first loader, the first memory receives a ground voltage and the second memory receives a power voltage to turn off the first memory and turn on the second memory;

When the updated load instruction is the second loader, the first memory and the second memory receive a ground voltage to turn off the first memory and the second memory.
The method of claim 1 , wherein when the electronic system receives a sleep command from the operating mode to the sleep mode, providing a power supply voltage or a ground voltage according to the updated load command, The step of turning on or off the first memory and the second memory of the electronic system includes:

When the electronic system receives a sleep command from the operating mode to the sleep mode,

When the updated load instruction is the first loader, the first memory and the second memory receive a power voltage to turn on the first memory and the second memory;

When the updated load instruction is the second loader, the first memory receives a power voltage and the second memory receives a ground voltage to turn on the first memory and turn off the second memory.
An electronic system, characterized in that the electronic system comprises:

a microprocessor for receiving program code for operation;

a first memory for storing the program code as an external memory of the electronic system;

a second memory for storing the program code, directly coupled to the internal memory of the electronic system;

a boot loader for moving the program code from the first memory to the second memory when the electronic system transitions from a sleep mode to an active mode;

The load determination module includes:

a storage unit for storing a load instruction;

a processing unit, when the electronic system receives a trigger event to switch from the sleep mode to the working mode, performing an operation according to the load instruction, executing the first loader to obtain the program code from the second memory, or executing the second The loader moves the program code from the first memory to the second memory, and the program code is obtained by the second memory;

a determining unit, configured to calculate a first power consumption and a second power consumption according to the trigger event to generate an updated load instruction;

a power management module, configured to: when the electronic system receives a sleep command from the working mode to the sleep mode, provide a power voltage or a ground voltage according to the updated load instruction to turn on or off the electronic system Describe the first memory and the second memory;

The first power consumption corresponds to power consumption performed by the electronic system in the working mode and the sleep mode according to the first loading program, and the second power consumption corresponds to the electronic system according to the The second loader executes the power consumption of the operating mode and the sleep mode.
The electronic system of claim 8 wherein said triggering event is an instruction, a program or a message.
The electronic system according to claim 8, wherein said processing unit is specifically configured to perform the following steps:

When the electronic system receives a trigger event from the sleep mode to the working mode, operating according to the load instruction;

When the load instruction is a first loader, instructing the microprocessor in the electronic system to load and execute the program code stored in the second memory;

And when the load instruction is a second loader, instructing the boot loader in the electronic system to move the program code from the first memory to the second memory, and indicating the electronic system The microprocessor loads and executes the program code stored in the second memory.
The electronic system according to claim 8, wherein said determining unit is specifically configured to perform the following steps:

Calculating a sleep time and a working time of the electronic system according to the trigger event;

Calculating a first sleep power consumption and a second sleep power consumption according to the sleep time, and calculating a first load power consumption and a second load power consumption according to the working time;

And summing the first sleep power consumption and the first load power consumption to obtain a first power consumption, and summing the second sleep power consumption and the second load power consumption to obtain a second power consumption;

Comparing the first power consumption and the second power consumption to generate an updated load instruction.
The electronic system according to claim 11, wherein said determining unit is further configured to perform the following steps:

When the power consumption comparison result is that the first power consumption is less than the second power consumption, the generated update load instruction is the first loader;

When the power consumption comparison result is that the first power consumption is greater than the second power consumption, the generated update load instruction is the second loader.
The electronic system of claim 8 wherein said first memory is a non-volatile flash memory and said second memory is a static random access memory.
The electronic system of claim 13, wherein the power management module is specifically configured to perform the following steps:

When the electronic system receives a sleep command from the operating mode to the sleep mode,

When the updated load instruction is the first loader, the power management module provides a ground voltage to the first memory, and supplies a power voltage to the second memory to turn off the first memory and Turning on the second memory;

When the updated load instruction is the second loader, the power management module provides a ground voltage to the first memory and the second memory to turn off the first memory and the second memory .
The electronic system of claim 8 wherein said first memory and said second memory are static random access memory.
The electronic system according to claim 15, wherein the power management module is specifically configured to perform the following steps:

When the electronic system receives a sleep command from the operating mode to the sleep mode,

When the updated load instruction is the first loader, the power management module provides a power voltage to the first memory and the second memory to turn on the first memory and the second memory ;as well as

When the updated load instruction is the second loader, the power management module provides a power voltage to the first memory, and the power management module provides a ground voltage to the second memory to open the The first memory is described and the second memory is turned off.