Low-power-consumption data transmission method and transmission system
By prioritizing the selection of data transmission modules that have been awakened and adapting to the module with the lowest power consumption according to the transmission distance and external environment conditions, the problem of high power consumption of microwave equipment is solved and low power data transmission is achieved.
Patent Information
- Application Number
- CN202510032301.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-09
- Publication Date
- 2025-02-14
- Estimated Expiration
- Not applicable · inactive patent
Smart Images
Figure CN119449505A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of data transmission, and in particular to a low-power data transmission method and a transmission system. Background Art
[0002] In the field of power transmission lines, it is usually necessary to conduct daily inspections and monitoring of the power transmission lines through monitoring devices. In particular, the monitoring of the hardware on the towers and the transmission lines between the towers is particularly important. Since the hardware on the towers and the transmission lines are exposed outside the towers, they are easily affected by the external environment, such as aging and loosening of the hardware and icing of the transmission lines. Through daily inspections and monitoring, hidden dangers in the transmission lines and towers can be discovered early.
[0003] Usually, the monitored image data needs to be further transmitted to the server along the transmission line. However, for data transmission between long-distance transmission lines, the communication quality will be affected by the location of the transmission line master station. For example, if the transmission line master station is set in a remote area without a public network signal, its communication quality will be greatly reduced, resulting in poor data transmission signals between transmission lines. Microwave technology is usually used to achieve data transmission between transmission lines. That is, microwave equipment is set on the transmission line, and the communication between microwave equipment is used to achieve data transmission between transmission lines. However, the power consumption of microwave equipment is high, which increases the overall power consumption of the transmission line. Summary of the invention
[0004] The purpose of the present invention is to provide a low-power data transmission method and a transmission system, which give priority to the data transmission module that has been awakened for transmission, avoid wasting power consumption by frequently awakening the data transmission module, thereby further saving power loss and reducing the power consumption used for data transmission. It is intended to solve the problem in the prior art that communication between microwave equipment is used to realize data transmission between transmission lines, but the power consumption of microwave equipment is high, which increases the overall power consumption of the transmission line.
[0005] The present invention is implemented in this way: a low-power data transmission method is applied to a digital transmission device and specifically comprises the following steps: S101: receiving monitoring data collected by a collection terminal, determining a transmission distance value between a receiving device and a digital transmission device and an external environment condition of current data transmission; S102: Acquire the transmission distance value between the receiving device and the digital transmission device and the external environment status data of the current data transmission, and place the transmission distance value between the receiving device and the digital transmission device and the external environment status data of the current data transmission in a transmission identification model for analysis to acquire the power consumption value required for data transmission; S103: adapting the data transmission module according to the calculated data transmission power consumption value, and determining the state of the current data transmission module according to the adapted data transmission module; S104: Determine whether there is an awakened data transmission module in the current data transmission module, and if so, send the monitoring data to the awakened data transmission module for transmission; if not, send the monitoring data to a buffer area in the awakened module of the transmission link for temporary storage; S105: the wake-up module obtains a data load ratio according to the current data load and the rated load of the data transmission module, and compares and sorts the data load ratio and the preset loss ratio of the data transmission sent by the data transmission module to obtain a priority sequence sent by the data transmission module; S106: The data transmission module is awakened according to the priority sequence sent by the data transmission module, and the awakened data transmission module completes the data transmission temporarily stored in the buffer area.
[0006] Furthermore, in S101, receiving the monitoring data collected by the collection end includes: Receiving a monitoring data collection request sent to a collection terminal through a preset network, wherein the monitoring data collection request is used to request the collection terminal to collect data on the current transmission line; Detecting whether the IP address end of the acquisition end is the target IP address end; If the IP address end of the collection end is the target IP address end, the collection end collects data on the current power transmission line according to the monitoring data collection request.
[0007] Further, determining the transmission distance value between the receiving device and the digital transmission device and the external environment condition of the current data transmission includes: Through the execution command of the digital transmission device, the number of receiving devices that currently need to send data and the positioning coordinates of the receiving devices are determined, and based on the digital transmission device as the origin, the transmission distance of all receiving devices is determined; The current external environment condition is obtained through a preset network, and the current external environment includes the current external temperature and humidity. Then, the frequency band interference condition under the transmission path between the receiving device and the digital transmission device is determined through a frequency band detection module.
[0008] Furthermore, in S102, the transmission distance value between the receiving device and the digital transmission device and the external environment condition data of the current data transmission are placed in the transmission identification model for analysis to obtain the power consumption value required for data transmission, including: Obtain a data transmission power calculation model, and place the obtained transmission distance and current external environment status data into the transmission power calculation model; The transmission power calculation model calculates a threshold range of power consumption required for data transmission based on a preset transmission loss value.
[0009] Furthermore, the preset network includes one or a combination of a 3G network, a 4G network, a 5G network, and a WIFI network.
[0010] Further, in S104, it is determined whether there is an awakened data transmission module in the current data transmission module, and if there is, the monitoring data is sent to the awakened data transmission module for transmission, including: According to the threshold range of power consumption values required for data transmission, a data transmission module that can output power consumption values required for data transmission within the threshold range is selected from the set data transmission modules; Obtain the selected data transmission modules within the power consumption value threshold range required for data transmission, and sort the data transmission modules that meet the power consumption value threshold range according to the output power range of the data transmission modules that meet the power consumption value threshold range from small to large errors; After the sorting is completed, the status of the data transmission module that meets the power consumption value threshold is confirmed, and if there is, the monitoring data is sent to the awakened data transmission module for transmission.
[0011] Further, in S105, the wake-up module obtains a data load ratio according to the data load of the current data transmission module and the rated load, and compares and sorts according to the data load ratio and a preset loss ratio of the data transmission sent by the data transmission module, including: The wake-up module obtains the current data load of the data transmission module that meets the power consumption value threshold range and the rated load to obtain a data load ratio; The wake-up module then obtains a preset loss ratio of the data transmission sent by the data transmission module, and compares the data load ratio with the loss ratio to obtain a ratio coefficient; If the ratio coefficient is greater than 1, the priority of the data transmission module is entered, and the obtained priorities are sorted from large to small to obtain a priority sequence.
[0012] Compared with the prior art, the low-power data transmission method and transmission system provided by the present invention have the following beneficial effects: 1. After receiving the monitoring data collected by the collection end, the transmission distance value between the receiving device of the transmitted monitoring data and the digital transmission device and the external environment conditions of the current data transmission are obtained to select a data transmission module that meets the power consumption value required for data transmission. This ensures that the transmission of monitoring data is completed under the lowest power consumption. When transmitting data, the awakened data transmission module is used for transmission first, avoiding wasting power consumption by frequently waking up the data transmission module, thereby further saving power loss and reducing the power consumption used for data transmission. 2. Determine whether there is an awakened data transmission module in the current data transmission module. If so, send the monitoring data to the awakened data transmission module for transmission. If not, send the monitoring data to the cache area in the awakening module of the transmission link for temporary storage. Then, compare the data load of the data transmission module with the rated load to obtain the data load ratio. Compare and sort the data load ratio and the preset loss ratio of the data transmission sent by the data transmission module to obtain a priority sequence. Select the data transmission modules for awakening in turn according to the priority sequence, so as to ensure that the monitoring data is transmitted in the best adapted data transmission module. At the same time, it also avoids the situation where the power of the awakened data transmission module does not match the monitoring data, resulting in serious loss.
[0013] A low-power data transmission system is applied to the above-mentioned low-power data transmission method, and the system comprises: The acquisition module is used to request the acquisition end to obtain the data of the current transmission line for data acquisition; The MCU module is used to generate a data acquisition request for receiving the transmission data, and the transmission distance value between the receiving device and the digital transmission device and the external environment condition of the current data transmission, so as to calculate the power consumption value required for data transmission; An acquisition module is used to acquire an adapted corresponding data transmission module according to the power consumption value required for data transmission; A judgment module, used to judge whether there is an awakened data transmission module in the current data transmission module and obtain the priority sequence sent by the data transmission module; The wake-up module is used to obtain a data load ratio according to the current data load and the rated load of the data transmission module, and compare the data load ratio with a preset loss ratio of the data transmission sent by the data transmission module.
[0014] Specifically, the judgment module includes: A first judgment unit, used for judging whether there is an awakened data transmission module in the current data transmission module, and if so, sending the monitoring data to the awakened data transmission module for transmission; A second judgment unit, used for judging that the ratio coefficient is greater than 1, and entering a data transmission module of priority; The priority acquisition unit is used to sort the data transmission modules entering the priority level from large to small to acquire a priority sequence.
[0015] Specifically, the wake-up module includes: An execution unit, used for determining that there is an awakened data transmission module in the current data transmission module, and sending the monitoring data to the awakened data transmission module for transmission; Buffer area, used to temporarily store monitoring data; The ratio coefficient generating unit is used to obtain the current data load and rated load of the data transmission module that meets the power consumption value threshold range to obtain the data load ratio, then obtain the preset loss ratio of the data transmission sent by the data transmission module, and compare the data load ratio with the loss ratio to obtain the ratio coefficient. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] Figure 1 A schematic flow chart of the low-power data transmission method proposed by the present invention; Figure 2 A schematic block diagram of the process of receiving monitoring data collected by a collection end in the low-power data transmission method proposed by the present invention; Figure 3 A schematic diagram of the structure of the low-power data transmission system proposed by the present invention; Figure 4 This is a structural schematic diagram of a judgment module in the low-power data transmission system proposed by the present invention; Figure 5 This is a schematic diagram of the structure of the low-power data transmission system wake-up module proposed by the present invention. DETAILED DESCRIPTION
[0017] In order to make the purpose, technical solution and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.
[0018] The implementation of the present invention is described in detail below in conjunction with specific embodiments.
[0019] The same or similar numbers in the drawings of this embodiment correspond to the same or similar parts; in the description of the present invention, it should be understood that if the terms "upper", "lower", "left", "right" and the like indicate directions or positional relationships based on the directions or positional relationships shown in the drawings, it is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific direction, be constructed and operated in a specific direction. Therefore, the terms describing the positional relationship in the drawings are only used for illustrative purposes and cannot be understood as limitations on the present invention. For ordinary technicians in this field, the specific meanings of the above terms can be understood according to specific circumstances.
[0020] Reference Figure 1-2 As shown, the low-power data transmission method is applied to a digital transmission device and specifically includes the following steps: S101: receiving monitoring data collected by a collection terminal, determining a transmission distance value between a receiving device and a digital transmission device and an external environment condition of current data transmission; The monitoring data collected by the receiving and collecting end includes: A monitoring data collection request is sent to the collection end through a preset network, wherein the monitoring data collection request is used to request the collection end to collect data on the current transmission line; Check whether the IP address of the collection end is the target IP address; If the IP address of the collection end is the target IP address, the collection end collects data on the current transmission line according to the monitoring data collection request; S102: Acquire the transmission distance value between the receiving device and the digital transmission device and the external environment status data of the current data transmission, and place the transmission distance value between the receiving device and the digital transmission device and the external environment status data of the current data transmission in a transmission identification model for analysis to acquire the power consumption value required for data transmission; Among them, the transmission distance value between the receiving device and the digital transmission device and the external environment status data of the current data transmission are placed in the transmission identification model for analysis to obtain the power consumption value required for data transmission, including: Obtain a data transmission power calculation model, and place the obtained transmission distance and current external environment status data into the transmission power calculation model; The transmission power calculation model calculates the threshold range of power consumption required for data transmission based on the preset transmission loss value; S103: adapting the data transmission module according to the calculated data transmission power consumption value, and determining the state of the current data transmission module according to the adapted data transmission module; S104: Determine whether there is an awakened data transmission module in the current data transmission module, and if so, send the monitoring data to the awakened data transmission module for transmission; if not, send the monitoring data to the buffer area in the awakened module of the transmission link for temporary storage; Wherein, determining whether there is an awakened data transmission module in the current data transmission module, and if there is, sending the monitoring data to the awakened data transmission module for transmission, includes: According to the threshold range of power consumption value required for data transmission, a data transmission module that can output power consumption value required for data transmission within the threshold range is selected from the set data transmission modules; Obtain the selected data transmission modules within the power consumption value threshold range required for data transmission, and sort the data transmission modules that meet the power consumption value threshold range according to the output power range of the data transmission modules that meet the power consumption value threshold range from small to large errors; After the sorting is completed, the status of the data transmission module that meets the power consumption value threshold is confirmed. If there is any, the monitoring data is sent to the awakened data transmission module for transmission; S105: the wake-up module obtains a data load ratio according to the current data load and the rated load of the data transmission module, and compares and sorts the data load ratio and the preset loss ratio of the data transmission sent by the data transmission module to obtain a priority sequence sent by the data transmission module; S106: The data transmission module is awakened according to the priority sequence sent by the data transmission module, and the awakened data transmission module completes the data transmission temporarily stored in the buffer area. After receiving the monitoring data collected by the collection end, the present invention obtains the transmission distance value between the receiving device of the transmitted monitoring data and the digital transmission device and the external environment conditions of the current data transmission, so as to select a data transmission module adapted to the power consumption value required for data transmission. In this way, it can be ensured that the transmission of the monitoring data is completed under the lowest power consumption, and when performing data transmission, the awakened data transmission module is given priority to transmission, avoiding the waste of power consumption to frequently wake up the data transmission module, thereby further saving power loss and reducing the power consumption used for data transmission.
[0021] In S101 of this embodiment, determining the transmission distance between the receiving device and the digital transmission device and the external environment conditions of the current data transmission includes: Through the execution command of the digital transmission device, the number of receiving devices that currently need to send data and the positioning coordinates of the receiving devices are determined, and based on the digital transmission device as the origin, the transmission distance of all receiving devices is determined; The current external environment conditions are obtained through the preset network. The current external environment includes the current external temperature and humidity. Then the frequency band interference conditions under the transmission path between the receiving device and the digital transmission device are determined through the frequency band detection module.
[0022] In this embodiment, the preset network includes one or a combination of a 3G network, a 4G network, a 5G network, and a WIFI network.
[0023] In S105 of this embodiment, the wake-up module obtains a data load ratio according to the data load of the current data transmission module and the rated load, and compares and sorts the data according to the data load ratio and the preset loss ratio of the data transmission sent by the data transmission module, including: The wake-up module obtains the current data load of the data transmission module that meets the power consumption value threshold range and the rated load to obtain a data load ratio; The wake-up module then obtains the preset loss ratio of the data transmission sent by the data transmission module, and compares the data load ratio with the loss ratio to obtain the ratio coefficient; If the ratio coefficient is greater than 1, the priority of the data transmission module is entered, and then the obtained priorities are sorted from large to small to obtain a priority sequence.
[0024] After receiving the monitoring data collected by the collection end, the technical solution obtains the transmission distance value between the receiving device of the transmitted monitoring data and the digital transmission device and the external environment conditions of the current data transmission, so as to select a data transmission module that is adapted to the power consumption value required for data transmission. In this way, it can ensure that the transmission of the monitoring data is completed under the lowest power consumption, and when performing data transmission, the data transmission module that has been awakened is given priority for transmission, avoiding the waste of power consumption to frequently awaken the data transmission module, thereby further saving power loss and reducing the power consumption used for data transmission. The data transmission module is awakened and selected in turn through the priority sequence, thereby ensuring that the monitoring data is transmitted by the best adapted data transmission module. At the same time, it also avoids the situation where the power of the awakened data transmission module does not match the monitoring data, resulting in serious loss.
[0025] Reference Figure 3-5As shown, a low-power data transmission system is applied to the above-mentioned low-power data transmission method, and the system includes: an acquisition module, which is used to request the acquisition end to obtain the data of the current power transmission line for data acquisition; an MCU module, which is used to generate a data acquisition request for receiving the transmission data, and the transmission distance value between the receiving device and the digital transmission device and the external environment condition of the current data transmission, so as to calculate the power consumption value required for data transmission; an acquisition module, which is used to obtain an adapted corresponding data transmission module according to the power consumption value required for data transmission; a judgment module, which is used to judge whether there is an awakened data transmission module in the current data transmission module and obtain the priority sequence sent by the data transmission module; and an awakening module, which is used to obtain the power consumption value required for data transmission according to the power consumption value required for data transmission. The data load ratio is obtained by comparing the current data load and the rated load of the data transmission module. The data load ratio is compared with the preset loss ratio of the data transmission sent by the data transmission module. When performing data transmission, the present technical solution gives priority to the awakened data transmission module for transmission, avoiding the waste of power consumption by frequently waking up the data transmission module, thereby further saving power loss and reducing the power consumption used for data transmission. The data transmission modules are awakened and selected in sequence through the priority sequence, thereby ensuring the data transmission of the monitoring data completed by the best adapted data transmission module. At the same time, it also avoids the situation where the power of the awakened data transmission module does not match the monitoring data, resulting in serious loss.
[0026] In this embodiment, the judgment module includes: a first judgment unit, which is used to judge whether there is an awakened data transmission module in the current data transmission module, and if so, the monitoring data is sent to the awakened data transmission module for transmission; a second judgment unit, which is used to judge whether the ratio coefficient is greater than 1 and enter the priority data transmission module; a priority acquisition unit, which is used to sort the data transmission modules entering the priority from large to small, obtain a priority sequence, judge whether there is an awakened data transmission module in the current data transmission module, and if so, send the monitoring data to the awakened data transmission module for transmission; if not, send the monitoring data to the cache area in the wake-up module of the transmission link for temporary storage, and then compare the data load of the data transmission module with the rated load to obtain the data load ratio, and compare and sort according to the data load ratio and the preset loss ratio of the data transmission sent by the data transmission module to obtain the priority sequence.
[0027] In this embodiment, the wake-up module includes: an execution unit, which is used to determine whether there is an awakened data transmission module in the current data transmission module, and send the monitoring data to the awakened data transmission module for transmission; a cache area, which is used to temporarily store the monitoring data; a ratio coefficient generation unit, which is used to obtain the current data load and rated load of the data transmission module that meets the power consumption value threshold range to obtain the data load ratio, and then obtain the preset loss ratio of the data transmission sent by the data transmission module, and compare the data load ratio with the loss ratio to obtain the ratio coefficient, and perform the wake-up selection of the data transmission module in turn through the priority sequence, so as to ensure that the monitoring data is transmitted by the best adapted data transmission module, and at the same time avoid the situation where the power of the awakened data transmission module does not match the monitoring data, resulting in serious loss.
[0028] After receiving the monitoring data collected by the collection end, the technical solution obtains the transmission distance value between the receiving device of the transmitted monitoring data and the digital transmission device and the external environment conditions of the current data transmission, so as to select a data transmission module adapted to the power consumption value required for data transmission, so as to ensure that the transmission of the monitoring data is completed under the lowest power consumption, and judge whether there is an awakened data transmission module in the current data transmission module. If there is, the monitoring data is sent to the awakened data transmission module for transmission. If not, the monitoring data is sent to the buffer area in the wake-up module of the transmission link for temporary storage, and then the data load of the data transmission module is compared with the rated load to obtain the data load ratio, and the data load ratio and the preset loss ratio of the data transmission sent by the data transmission module are compared and sorted to obtain the priority sequence, and the data transmission module is awakened and selected in turn according to the priority sequence, so as to ensure that the monitoring data is transmitted by the best adapted data transmission module, and at the same time, it also avoids the situation where the power of the awakened data transmission module does not match the monitoring data, resulting in serious loss.
[0029] In this embodiment, the entire operation process can be controlled by a computer to achieve automatic operation control, and in each operation link, signal feedback can be performed to achieve the sequential execution of steps. These are all common knowledge of current automatic control and will not be repeated in this embodiment.
[0030] The above description is only a 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 scope of the present invention.
Claims
1. A low-power data transmission method, characterized in that: Applied to digital transmission equipment, specifically including the following steps: S101: receiving monitoring data collected by a collection terminal, determining a transmission distance value between a receiving device and a digital transmission device and an external environment condition of current data transmission; S102: Acquire the transmission distance value between the receiving device and the digital transmission device and the external environment status data of the current data transmission, and place the transmission distance value between the receiving device and the digital transmission device and the external environment status data of the current data transmission in a transmission identification model for analysis to acquire the power consumption value required for data transmission; S103: adapting the data transmission module according to the calculated data transmission power consumption value, and determining the state of the current data transmission module according to the adapted data transmission module; S104: Determine whether there is an awakened data transmission module in the current data transmission module, and if so, send the monitoring data to the awakened data transmission module for transmission; if not, send the monitoring data to a buffer area in the awakened module of the transmission link for temporary storage; S105: the wake-up module obtains a data load ratio according to the current data load and the rated load of the data transmission module, and compares and sorts the data load ratio and the preset loss ratio of the data transmission sent by the data transmission module to obtain a priority sequence sent by the data transmission module; S106: The data transmission module is awakened according to the priority sequence sent by the data transmission module, and the awakened data transmission module completes the data transmission temporarily stored in the buffer area.
2. The low-power data transmission method according to claim 1, characterized in that: In S101, monitoring data collected by a collection terminal is received, including: Receiving a monitoring data collection request sent to a collection terminal through a preset network, wherein the monitoring data collection request is used to request the collection terminal to collect data on the current transmission line; Detecting whether the IP address end of the acquisition end is the target IP address end; If the IP address end of the collection end is the target IP address end, the collection end collects data on the current power transmission line according to the monitoring data collection request.
3. The low-power data transmission method according to claim 2, characterized in that: Determine the transmission distance between the receiving device and the digital transmission device and the external environment conditions of the current data transmission, including: Through the execution command of the digital transmission device, the number of receiving devices that currently need to send data and the positioning coordinates of the receiving devices are determined, and based on the digital transmission device as the origin, the transmission distance of all receiving devices is determined; The current external environment condition is obtained through a preset network, and the current external environment includes the current external temperature and humidity. Then, the frequency band interference condition under the transmission path between the receiving device and the digital transmission device is determined through a frequency band detection module.
4. The low-power data transmission method according to claim 3, characterized in that: In S102, the transmission distance value between the receiving device and the digital transmission device and the external environment status data of the current data transmission are placed in the transmission identification model for analysis to obtain the power consumption value required for data transmission, including: Obtain a data transmission power calculation model, and place the obtained transmission distance and current external environment status data into the transmission power calculation model; The transmission power calculation model calculates a threshold range of power consumption required for data transmission based on a preset transmission loss value.
5. The low-power data transmission method according to claim 4, characterized in that: The preset network includes one or a combination of a 3G network, a 4G network, a 5G network, and a WIFI network.
6. The low-power data transmission method according to claim 5, characterized in that: In S104, it is determined whether there is an awakened data transmission module in the current data transmission module, and if there is, the monitoring data is sent to the awakened data transmission module for transmission, including: According to the threshold range of power consumption value required for data transmission, a data transmission module that can output power consumption value required for data transmission within the threshold range is selected from the set data transmission modules; Obtain the selected data transmission modules within the power consumption value threshold range required for data transmission, and sort the data transmission modules that meet the power consumption value threshold range according to the output power range of the data transmission modules that meet the power consumption value threshold range from small to large errors; After the sorting is completed, the status of the data transmission module that meets the power consumption value threshold is confirmed, and if there is, the monitoring data is sent to the awakened data transmission module for transmission.
7. The low-power data transmission method according to claim 6, characterized in that: In S105, the wake-up module obtains a data load ratio according to the data load of the current data transmission module and the rated load, and compares and sorts the data according to the data load ratio and the preset loss ratio of the data transmission sent by the data transmission module, including: The wake-up module obtains the current data load of the data transmission module that meets the power consumption value threshold range and the rated load to obtain a data load ratio; The wake-up module then obtains a preset loss ratio of the data transmission sent by the data transmission module, and compares the data load ratio with the loss ratio to obtain a ratio coefficient; If the ratio coefficient is greater than 1, the priority of the data transmission module is entered, and the obtained priorities are sorted from large to small to obtain a priority sequence.
8. A low power data transmission system, characterized in that: The low-power data transmission method according to any one of claims 1 to 7, wherein the system comprises: The acquisition module is used to request the acquisition end to obtain the data of the current transmission line for data acquisition; The MCU module is used to generate a data acquisition request for receiving the transmission data, and the transmission distance value between the receiving device and the digital transmission device and the external environment condition of the current data transmission, so as to calculate the power consumption value required for data transmission; An acquisition module is used to acquire an adapted corresponding data transmission module according to the power consumption value required for data transmission; A judgment module, used to judge whether there is an awakened data transmission module in the current data transmission module and obtain the priority sequence sent by the data transmission module; The wake-up module is used to obtain a data load ratio according to the current data load and the rated load of the data transmission module, and compare the data load ratio with a preset loss ratio of the data transmission sent by the data transmission module.
9. The low-power data transmission system according to claim 8, characterized in that: The judging module comprises: A first judgment unit, used for judging whether there is an awakened data transmission module in the current data transmission module, and if so, sending the monitoring data to the awakened data transmission module for transmission; A second judgment unit, used for judging that the ratio coefficient is greater than 1, and entering a data transmission module of priority; The priority acquisition unit is used to sort the data transmission modules entering the priority level from large to small to acquire a priority sequence.
10. The low power consumption data transmission system according to claim 9, characterized in that: The wake-up module comprises: An execution unit, used for determining that there is an awakened data transmission module in the current data transmission module, and sending the monitoring data to the awakened data transmission module for transmission; Buffer area, used to temporarily store monitoring data; The ratio coefficient generating unit is used to obtain the current data load and rated load of the data transmission module that meets the power consumption value threshold range to obtain the data load ratio, then obtain the preset loss ratio of the data transmission sent by the data transmission module, and compare the data load ratio with the loss ratio to obtain the ratio coefficient.