Electronic balance record data transmission control method and system based on cloud server

Abstract

The invention discloses an electronic balance record data transmission control method and system based on a cloud server, and relates to the technical field of electronic balance data transmission, and the control method comprises the following steps: S100, monitoring the power state of an electronic balance in real time, including the electric quantity of a battery and the connection state of an external power supply, by intelligently sensing the power state of the electronic balance and the current network environment, the frequency and power of data transmission are dynamically adjusted, the system can efficiently transmit data under the condition that the battery electric quantity is sufficient and the network environment is good, and when the battery electric quantity is low or the network environment is poor, the data transmission efficiency is improved. The system can automatically reduce the frequency and power of data transmission, thereby effectively reducing unnecessary energy consumption, prolonging the service life of a battery, and reducing the overall operation cost.

Description

Technical Field

[0001] The present invention relates to the technical field of electronic balance data transmission, and in particular to a cloud server-based electronic balance record data transmission control method and system. Background Art

[0002] With the rapid development of science and technology, electronic balances, as precision measuring instruments, have been widely used in many fields such as scientific research, medical treatment, and industrial production. These fields have increasingly higher requirements for data accuracy and real-time performance, prompting the continuous upgrading of the data transmission system of electronic balances. However, traditional electronic balance data transmission methods often focus on accurate data transmission, while ignoring the energy consumption problem in the data transmission process, which is particularly important today when energy is becoming increasingly tight.

[0003] At present, although there are some electronic balances on the market with data transmission functions, they generally have deficiencies in energy consumption management. These systems lack intelligent power management and network environment perception capabilities, and cannot dynamically adjust data transmission strategies according to the actual use of the electronic balance. In addition, for battery-powered electronic balances, frequent data transmission will quickly consume battery power, shorten the use time of the equipment, and increase the frequency of user battery replacement and charging, which not only brings inconvenience to users, but also increases the cost of use. In addition, in an environment with weak network signals, data transmission fails and needs to be retransmitted due to network instability, which not only increases the energy consumption of data transmission, but also affects the accuracy and real-time nature of the data, resulting in unnecessary energy waste during data transmission.

[0004] To sum up, the existing electronic balance data transmission system has obvious defects in energy consumption management and cannot meet the needs of energy conservation, emission reduction and efficient use of resources. Therefore, developing a control method and system that can intelligently sense the power status and network environment of the electronic balance and dynamically adjust the data transmission frequency and power accordingly is of great significance for reducing overall energy consumption and improving resource utilization efficiency. Summary of the invention

[0005] The purpose of the present invention is to make up for the shortcomings of the prior art and provide an electronic balance recording data transmission control method and system based on a cloud server. It can dynamically adjust the frequency and power of data transmission by real-time monitoring the power status of the electronic balance and evaluating the current network environment, thereby reducing unnecessary data transmission in a battery-powered environment with weak network signals, thereby reducing energy consumption and extending battery life.

[0006] In order to solve the above technical problems, the present invention provides the following technical solutions: On the one hand, a cloud server-based electronic balance recording data transmission control method comprises the following steps:

[0007] S100, real-time monitoring of the power status of the electronic balance, including battery power and external power connection status;

[0008] S200, evaluating the current network environment and obtaining parameters of network signal strength, network bandwidth, and network delay;

[0009] S300, dynamically adjusts the frequency of data transmission according to the power status and network environment. When the battery power is sufficient and the network environment is good, the transmission frequency is increased, and when the battery power is low and the network environment is poor, the transmission frequency is reduced;

[0010] S400 dynamically adjusts the transmission power according to the network environment and the amount of data being transmitted. When the network signal is weak, the transmission power is increased to avoid energy waste caused by excessive power. When the network signal is good, the transmission power is reduced.

[0011] S500, executing data transmission according to the formulated dynamic adjustment strategy, and sending the weighing record data of the electronic balance to the cloud server for storage and management;

[0012] S600 provides a user terminal interface, allowing users to customize energy consumption optimization strategies according to actual needs, and regularly feedback energy consumption optimization effects to users so that users can adjust and optimize strategies.

[0013] Furthermore, the S100 further includes:

[0014] When the electronic balance is powered by a battery and the battery power is too low, it enters the energy-saving mode. In the energy-saving mode, the data transmission frequency and power are reduced;

[0015] When the electronic balance is connected to an external power supply, data transmission is performed in normal mode, and the transmission frequency and power are restored to the default values.

[0016] Furthermore, the S300 data transmission frequency also includes:

[0017] The electronic balance is powered by batteries with sufficient battery power. At the same time, the network environment is good with strong signals, large bandwidth, and low latency, so that data can be transmitted at a higher frequency to ensure the real-time nature of the data.

[0018] If the battery is low and the network environment deteriorates with weak signals, low bandwidth, and high latency, the data transmission frequency will be reduced.

[0019] Furthermore, the S300 data transmission frequency dynamically adjusts the data transmission interval according to the actual working state of the electronic balance to optimize energy consumption, and its application process is as follows:

[0020] Initialization parameters: Before the system starts running, according to the characteristics of the electronic balance and the expected usage scenario, set the α and β coefficients to adjust the impact of battery power on the transmission interval and the current data transmission time interval T. current ;

[0021] Collect status information: real-time monitoring of the current battery power P battery and network signal strength N signal ;

[0022] Calculate the transmission interval: By calculating the next data transmission time interval T next , that is, T next =T current ×(1-(α×P battery +β×N signal )),;

[0023] Adjust the transmission strategy: According to the calculated T next , adjust the frequency of electronic balance data transmission;

[0024] Periodic Update: This calculation process runs periodically and is triggered when significant changes in battery power and network signal are detected.

[0025] Furthermore, the transmission strategy is adjusted according to the calculation result, that is:

[0026] Low battery and weak network signal, α×P battery +β×N signal The value of is large, resulting in T next Increase, that is, reduce the frequency of data transmission;

[0027] The battery is sufficient and the network signal is strong. next will be close to and equal to T current , that is, maintain and increase the frequency of data transmission.

[0028] Furthermore, the specific steps of S400 are:

[0029] S401, determining an initial transmission power level according to a network environment evaluation result, i.e., network signal strength, wherein when the network signal is weak, a higher initial power level is selected to ensure reliability of data transmission, and when the network signal is good, a lower initial power level is selected to reduce energy consumption;

[0030] S402, considering the amount of data to be transmitted, for a larger amount of data, increasing the transmission power to speed up the data transmission process, but at the same time monitoring the power usage to avoid excessive energy consumption, and for a smaller amount of data, maintaining the transmission power to further reduce energy consumption;

[0031] S403, when implementing the power adjustment strategy, the battery power status is taken into consideration, and when the electronic balance is in a battery-powered state with low power, the transmission power is preferentially reduced to extend the battery life;

[0032] S404, continuously monitor the actual power consumption and transmission efficiency during the data transmission process, and adjust the transmission power in real time as needed to achieve an optimal balance between energy consumption and transmission efficiency.

[0033] Furthermore, the S400 dynamically adjusts the transmission power according to the network environment and the amount of transmission data, including:

[0034] Set the threshold range of network signal strength and divide the network signal strength into three levels: strong, medium, and weak;

[0035] When the network signal strength is strong, different transmission powers are set according to different ranges of the amount of data transmitted, including the lowest power P1 watt, the medium power P2 watt and the maximum power P3 watt;

[0036] When the network signal strength is medium, the transmission power is adjusted according to different ranges of the amount of data transmitted, including P2 watts, P3 watts, and a 10% increase on the basis of P3 watts;

[0037] When the network signal strength is weak, the transmission power is increased to 1.5 times the maximum power P3 watts, but does not exceed the maximum power limit P allowed by the device. max Watts, and the transmission power is adjusted in real time before each data transmission, based on the current network signal strength and the amount of data to be transmitted.

[0038] Furthermore, the specific steps of S500 are:

[0039] S501, confirming data transmission parameters: according to the transmission frequency and power determined in steps S300 and S400, configuring data transmission parameters, including but not limited to data transmission interval, data packet size, and transmission power level;

[0040] S502, execute data transmission: start the data transmission process, send the compressed weighing record data to the cloud server according to the configured parameters, and continuously monitor the network status and transmission progress during the data transmission process;

[0041] S503, transmission status feedback: after data transmission is completed, transmission status feedback is sent to the user terminal, including information on transmission success, failure, and need for retransmission;

[0042] S504, data storage and management: After receiving the weighing record data, the cloud server stores the data in the database and provides a data access interface for users to remotely query and manage.

[0043] On the other hand, the electronic balance record data transmission control system based on the cloud server includes the following components:

[0044] Power status monitoring module: real-time monitoring of the power status of the electronic balance, including battery power and external power connection status;

[0045] Network environment monitoring module: evaluates the current network environment and obtains parameters of network signal strength, network bandwidth and network delay;

[0046] Data transmission frequency control module: dynamically adjusts the frequency of data transmission according to the power status and network environment. When the battery power is sufficient and the network environment is good, the transmission frequency is increased; when the battery power is low and the network environment is poor, the transmission frequency is reduced;

[0047] Data transmission power control module: dynamically adjusts the transmission power according to the network environment and the amount of data to be transmitted. When the network signal is weak, the transmission power is increased to avoid energy waste caused by excessive power. When the network signal is good, the transmission power is reduced.

[0048] Data recording and storage module: Execute data transmission according to the formulated dynamic adjustment strategy, and send the weighing record data of the electronic balance to the cloud server for storage and management;

[0049] User customization and feedback module: provides a user terminal interface, allowing users to customize energy consumption optimization strategies according to actual needs, and regularly provides users with feedback on energy consumption optimization effects so that users can adjust and optimize strategies.

[0050] Furthermore, the user customization and feedback module provides a user terminal interface, integrating user interaction with the customization and optimization of energy consumption optimization strategies, including a data display area, an operation control area, and an energy consumption optimization strategy configuration area. The data display area is used to display information on the current power status, network environment, data transmission status, and energy consumption optimization effect of the electronic balance. The operation control area provides real-time control functions for data transmission, i.e., manually triggering data transmission, pausing / resuming data transmission, and the energy consumption optimization strategy configuration area allows users to customize and adjust energy consumption optimization strategies according to actual needs.

[0051] Compared with the prior art, the electronic balance recording data transmission control method and system based on the cloud server has the following beneficial effects:

[0052] 1. The present invention dynamically adjusts the frequency and power of data transmission by intelligently sensing the power status of the electronic balance and the current network environment. When the battery power is sufficient and the network environment is good, the system can efficiently perform data transmission. When the battery power is low or the network environment is poor, the system will automatically reduce the frequency and power of data transmission, thereby effectively reducing unnecessary energy consumption, extending battery life, and reducing overall operating costs.

[0053] 2. The present invention can not only dynamically adjust the transmission power according to the network environment, ensuring the success rate of data transmission even when the network signal is weak, reducing data transmission failures and retransmissions caused by network instability, thereby improving the reliability of data transmission, but also, through a reasonable frequency adjustment strategy, it can reduce the frequency of data transmission while ensuring the real-time nature of data, avoid data transmission delays or losses caused by network congestion, and further improve the overall efficiency of data transmission.

[0054] Other advantages, objectives and features of the present invention will be set forth in part in the following description and, in part, will be apparent to those skilled in the art based on an examination of the following or may be taught from the practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0055] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the prior art descriptions are briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention, and for ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0056] Figure 1 The operational flow chart of the data transmission control method for electronic balance recording based on cloud server is provided.

[0057] Figure 2 Flow chart of the data transmission control system for electronic balance recording based on cloud server. DETAILED DESCRIPTION

[0058] The technical solutions in the embodiments of the present invention are described clearly and completely below. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of them. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0059] Embodiment 1

[0060] The electronic balance recording data transmission control method based on the cloud server can accurately and dynamically adjust the frequency and power of data transmission according to the real-time power status and network environment of the electronic balance. When the electronic balance is powered by battery and the network is poor, it can effectively reduce unnecessary data transmission and excessive transmission power, thereby significantly reducing energy consumption, extending the use time of the electronic balance in battery-powered mode, and improving the applicability of the equipment.

[0061] First, monitor the power status of the electronic balance in real time, including the battery level and the external power connection status. For example, when the electronic balance is powered only by batteries and the power level is lower than the preset threshold, the system will automatically enter energy-saving mode to reduce the frequency and power of data transmission. If the balance is connected to an external power supply, it will restore to the default transmission frequency and power. Evaluate the current network environment, obtain the parameters of network signal strength, network bandwidth, and network delay, and use the built-in network test tool of the electronic balance to regularly detect the network signal strength, bandwidth, and delay, and store the relevant data.

[0062] Then, the data transmission frequency is dynamically adjusted according to the power status and network environment. When the battery power is sufficient and the network environment is good (strong signal, large bandwidth, low latency), data is transmitted at a higher frequency to ensure the real-time nature of the data. When the battery power is low or the network environment deteriorates, the data transmission frequency is reduced to reduce energy consumption and avoid data transmission failure. In particular, if the electronic balance enters energy-saving mode (battery power is extremely low), the data transmission frequency is further reduced to a minimum, such as once per minute.

[0063] Next, set the threshold range of network signal strength, and divide the network signal strength into three levels: strong (signal strength greater than X), medium (signal strength between Y and X), and weak (signal strength less than Y). When the network signal strength is strong: if the amount of transmitted data is less than M bytes, the transmission power is set to the minimum power P1 watt; if the amount of transmitted data is between M bytes and N bytes, the transmission power is adjusted to the medium power P2 watt; if the amount of transmitted data is greater than N bytes, the transmission power is increased to the maximum power P3 watt;

[0064] When the network signal strength is medium: if the amount of data transmitted is less than K bytes, the transmission power is set to P2 watts; if the amount of data transmitted is between K bytes and L bytes, the transmission power is adjusted to P3 watts; if the amount of data transmitted is greater than L bytes, the transmission power is increased by 10% on the basis of P3 watts;

[0065] When the network signal strength is weak: Regardless of the amount of data transmitted, the transmission power is increased to 1.5 times the maximum power P3 watts, but does not exceed the maximum power limit P allowed by the device. maxWatts; at the same time, before each data transmission, the current network signal strength and the amount of data to be transmitted are detected in real time, and the transmission power is dynamically adjusted according to the above rules.

[0066] Subsequently, according to the dynamically adjusted strategy, the system executes data transmission and sends the compressed weighing record data to the cloud server. During the transmission process, the network status and progress are continuously monitored. After the transmission is completed, the status is fed back to the user terminal, including success, failure or information that needs to be retransmitted. After receiving the data, the cloud server stores it in the database and provides an access interface for users to query and manage.

[0067] Finally, real-time feedback on the data transmission status is provided through the user terminal interface, including information on successful, failed, and required retransmissions. Users can manually trigger data transmission, pause / resume data transmission, and customize energy consumption optimization strategies according to actual needs.

[0068] This embodiment provides a specific implementation of the electronic balance record data transmission control method based on the cloud server. By real-time monitoring of the power status and network environment of the electronic balance, the frequency and power of data transmission are dynamically adjusted, thereby avoiding unnecessary energy waste, effectively extending the battery life, and reducing the frequency and cost of battery replacement. This intelligent energy consumption optimization strategy can significantly reduce energy consumption and improve the overall operating efficiency of the electronic balance.

[0069] Embodiment 2

[0070] This embodiment describes in detail the specific implementation process of the electronic balance recording and data transmission control system based on the cloud server, including a power status monitoring module, a network environment monitoring module, a data transmission frequency control module, a data transmission power control module, a data recording and storage module, a user customization and feedback module, and how to dynamically adjust the frequency and power of data transmission according to the power status of the electronic balance and the network environment to achieve energy consumption optimization and stable data transmission.

[0071] In a specific implementation, after the electronic balance is started, the power status monitoring module immediately starts working to obtain battery power information in real time, for example, the current battery power is 70%, and it is detected that the external power supply is not connected.

[0072] Then, the network environment monitoring module evaluates the network environment once at regular intervals and obtains the current network signal strength of 65dBm (medium strong), network bandwidth of 15Mbps (medium) and network delay of 30ms (medium) parameters. According to the monitored power status and network environment, it is judged that the battery power is sufficient and the network environment is medium. The system sets the data transmission frequency to once every 10 seconds. When data needs to be transmitted, the system determines the initial transmission power level to be P2 watts based on the current medium-strong network signal strength. The amount of data transmitted this time is 500KB, which is a medium amount of data. Therefore, the transmission power is maintained at P2 watts. The data transmission parameters are confirmed to be a transmission frequency of once every 10 seconds, a data packet size adjusted according to the actual amount of data, and a transmission power level of P2 watts.

[0073] Subsequently, the data transmission process is started, and the compressed weighing record data is sent to the cloud server according to the configured parameters. During the data transmission process, the network status and transmission progress are continuously monitored. After the data transmission is completed, the transmission status feedback is sent to the user terminal. The transmission is successful. After receiving the weighing record data, the cloud server stores the data in the database and provides a data access interface for users to remotely query and manage. Users can view the current power status, network environment, data transmission status and energy consumption optimization effect of the electronic balance through the user terminal interface. Users can customize energy consumption optimization strategies according to experimental requirements. For example, when the battery power is less than 30%, the transmission frequency is further reduced to once every 20 seconds. As the experiment progresses, the battery power drops to 40%, and the network signal strength weakens to -70dBm (medium and weak). The system automatically adjusts the data transmission frequency to once every 15 seconds according to the new power status and network environment. According to the medium and weak network signal strength, the transmission power is increased to P3 watts, but not exceeding the maximum power limit allowed by the device.

[0074] Finally, the experiment continued, and when the battery power further dropped to 20%, the system entered the energy-saving mode, slowing down the data transmission frequency to once every 30 seconds and reducing the transmission power to extend the battery life.

[0075] According to the above implementation steps, this embodiment monitors the power status and network environment of the electronic balance in real time, dynamically adjusts the frequency and power of data transmission, avoids unnecessary energy waste, reduces the number of data transmissions and reduces the transmission power when powered by batteries, effectively extends the battery life, and reduces the frequency and cost of battery replacement. This intelligent energy consumption optimization strategy can significantly reduce energy consumption and improve the overall operating efficiency of the electronic balance, especially when the network signal is unstable or the battery is low.

[0076] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

Claims

1. A cloud server-based electronic balance recording data transmission control method, characterized in that: The control method comprises the following steps: S100, real-time monitoring of the power status of the electronic balance, including battery power and external power connection status; S200, evaluating the current network environment and obtaining parameters of network signal strength, network bandwidth, and network delay; S300, dynamically adjusts the frequency of data transmission according to the power status and network environment. When the battery power is sufficient and the network environment is good, the transmission frequency is increased, and when the battery power is low and the network environment is poor, the transmission frequency is reduced; S400 dynamically adjusts the transmission power according to the network environment and the amount of data being transmitted. When the network signal is weak, the transmission power is increased to avoid energy waste caused by excessive power. When the network signal is good, the transmission power is reduced. S500, executing data transmission according to the formulated dynamic adjustment strategy, and sending the weighing record data of the electronic balance to the cloud server for storage and management; S600 provides a user terminal interface, allowing users to customize energy consumption optimization strategies according to actual needs, and regularly feedback energy consumption optimization effects to users so that users can adjust and optimize strategies.

2. The electronic balance recording data transmission control method based on a cloud server according to claim 1 is characterized in that: The S100 further includes: When the electronic balance is powered by a battery and the battery power is too low, it enters the energy-saving mode. In the energy-saving mode, the data transmission frequency and power are reduced; When the electronic balance is connected to an external power supply, data transmission is performed in normal mode, and the transmission frequency and power are restored to the default values.

3. The electronic balance recording data transmission control method based on a cloud server according to claim 2 is characterized in that: The S300 data transmission frequency also includes: The electronic balance is powered by batteries with sufficient battery power. At the same time, the network environment is good with strong signals, large bandwidth, and low latency, so that data can be transmitted at a higher frequency to ensure the real-time nature of the data. If the battery is low and the network environment deteriorates with weak signals, low bandwidth, and high latency, the data transmission frequency will be reduced.

4. The electronic balance recording data transmission control method based on a cloud server according to claim 3 is characterized in that: The S300 data transmission frequency dynamically adjusts the data transmission interval according to the actual working state of the electronic balance to optimize energy consumption. The application process is as follows: Initialization parameters: Before the system starts running, according to the characteristics of the electronic balance and the expected usage scenario, set the α and β coefficients to adjust the impact of battery power on the transmission interval and the current data transmission time interval T. current ; Collect status information: real-time monitoring of the current battery power P battery and network signal strength N signal ; Calculate the transmission interval: By calculating the next data transmission time interval T next , that is, T next =T current ×(1-(α×P battery +β×N signal )),; Adjust the transmission strategy: According to the calculated T next , adjust the frequency of electronic balance data transmission; Periodic Update: This calculation process runs periodically and is triggered when significant changes in battery power and network signal are detected.

5. The electronic balance recording data transmission control method based on a cloud server according to claim 4 is characterized in that: The transmission strategy is adjusted according to the calculation result, that is: Low battery and weak network signal, α×P battery +β×N signal The value of is large, resulting in T next Increase, that is, reduce the frequency of data transmission; The battery is sufficient and the network signal is strong. next will be close to and equal to T current , that is, maintain and increase the frequency of data transmission.

6. The electronic balance recording data transmission control method based on a cloud server according to claim 1 is characterized in that: The specific steps of S400 are: S401, determining an initial transmission power level according to a network environment evaluation result, i.e., network signal strength, wherein when the network signal is weak, a higher initial power level is selected to ensure reliability of data transmission, and when the network signal is good, a lower initial power level is selected to reduce energy consumption; S402, considering the amount of data to be transmitted, for a larger amount of data, increasing the transmission power to speed up the data transmission process, but at the same time monitoring the power usage to avoid excessive energy consumption, and for a smaller amount of data, maintaining the transmission power to further reduce energy consumption; S403, when implementing the power adjustment strategy, the battery power state is taken into consideration, and when the electronic balance is in a battery-powered state with low power, the transmission power is preferentially reduced to extend the battery life; S404, continuously monitor the actual power consumption and transmission efficiency during the data transmission process, and adjust the transmission power in real time as needed to achieve an optimal balance between energy consumption and transmission efficiency.

7. The electronic balance recording data transmission control method based on a cloud server according to claim 6 is characterized in that: The S400 dynamically adjusts the transmission power according to the network environment and the amount of transmission data, including: Set the threshold range of network signal strength and divide the network signal strength into three levels: strong, medium, and weak; When the network signal strength is strong, different transmission powers are set according to different ranges of the amount of data transmitted, including the lowest power P1 watt, the medium power P2 watt and the maximum power P3 watt; When the network signal strength is medium, the transmission power is adjusted according to different ranges of the amount of data transmitted, including P2 watts, P3 watts, and a 10% increase on the basis of P3 watts; When the network signal strength is weak, the transmission power is increased to 1.5 times the maximum power P3 watts, but does not exceed the maximum power limit P allowed by the device. max Watts, and the transmission power is adjusted in real time before each data transmission, based on the current network signal strength and the amount of data to be transmitted.

8. The electronic balance recording data transmission control method based on a cloud server according to claim 1 is characterized in that: The specific steps of S500 are: S501, confirming data transmission parameters: according to the transmission frequency and power determined in steps S300 and S400, configuring data transmission parameters, including but not limited to data transmission interval, data packet size, and transmission power level; S502, execute data transmission: start the data transmission process, send the compressed weighing record data to the cloud server according to the configured parameters, and continuously monitor the network status and transmission progress during the data transmission process; S503, transmission status feedback: after data transmission is completed, transmission status feedback is sent to the user terminal, including information on transmission success, failure, and need for retransmission; S504, data storage and management: After receiving the weighing record data, the cloud server stores the data in the database and provides a data access interface for users to remotely query and manage.

9. The electronic balance record data transmission control system based on the cloud server is characterized in that: The control system includes the following components: Power status monitoring module: real-time monitoring of the power status of the electronic balance, including battery power and external power connection status; Network environment monitoring module: evaluates the current network environment and obtains parameters of network signal strength, network bandwidth and network delay; Data transmission frequency control module: dynamically adjusts the frequency of data transmission according to the power status and network environment. When the battery power is sufficient and the network environment is good, the transmission frequency is increased; when the battery power is low and the network environment is poor, the transmission frequency is reduced; Data transmission power control module: dynamically adjusts the transmission power according to the network environment and the amount of data to be transmitted. When the network signal is weak, the transmission power is increased to avoid energy waste caused by excessive power. When the network signal is good, the transmission power is reduced. Data recording and storage module: Execute data transmission according to the formulated dynamic adjustment strategy, and send the weighing record data of the electronic balance to the cloud server for storage and management; User customization and feedback module: provides a user terminal interface, allowing users to customize energy consumption optimization strategies according to actual needs, and regularly provides users with feedback on energy consumption optimization effects so that users can adjust and optimize strategies.

10. The electronic balance recording data transmission control system based on the cloud server according to claim 9 is characterized in that: The user customization and feedback module provides a user terminal interface, integrates user interaction and customization and optimization of energy consumption optimization strategies, and includes a data display area, an operation control area, and an energy consumption optimization strategy configuration area. The data display area is used to display information on the current power status, network environment, data transmission status, and energy consumption optimization effect of the electronic balance. The operation control area provides a real-time control function for data transmission, i.e., manually triggering data transmission, pausing / resuming data transmission. The energy consumption optimization strategy configuration area allows users to customize and adjust the energy consumption optimization strategy according to actual needs.

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