Method, device, equipment and medium for determining working mode

Abstract

Embodiments of the present invention provide a method, device, device, and medium for determining a working mode, including: when there is information sent to an Internet of Things terminal, calculating the cumulative sleep power consumption and The cumulative power consumption of waking up, and according to the cumulative power consumption of dormancy and the cumulative power consumption of waking up, respectively determine the first duration of the wake-up timer and the first duration of the sleep timer; send a setting request to the message reporting scheduling platform; wherein, the setting request includes a message The sending time of the wake-up timer, the current duration of the wake-up timer, the current duration of the sleep timer, the first wake-up duration, and the first sleep duration; the receiving message reporting platform sends the first reply message corresponding to the setting request, and the wake-up timer The current duration is set as the first wake-up duration carried in the first reply message. The purpose of the embodiments of the present invention is to improve the success rate of message reporting and further improve the utilization rate of network resources.

Description

technical field [0001] The present invention relates to the field of communication technologies, and in particular to a method, device, equipment and medium for determining a working mode. Background technique [0002] In IoT application scenarios (for example, cellular network-based narrowband Internet of Things (Narrow Band Internet of Things, NB-IoT), eMTC), IoT terminals use power-saving mode (PSM) mechanism and enhanced discontinuous reception ( eDRX) mechanism to reduce the power consumption of IoT terminals to prolong the life cycle of IoT terminal batteries. [0003] Now I am at figure 1 Among them, the Internet of Things business includes a business platform, a terminal, and a communication network connecting the business platform and the terminal. The terminal reports a message to the service platform through the communication network, and the core network equipment receives the message and forwards it to the service platform. However, the uplink access of Inter...

AI Technical Summary

Problems solved by technology

However, the uplink access of IoT terminals is weak in randomness and strong in concentration, which leads to strong peak-valley effect of network uplink wireless resources, uneven load, or problems such as packet loss caused by delay due to overload, or extremely idle network resources

For example, because IoT terminals are configured at the factory, or IoT terminals wake up at the same time according to the unified instructions of the service platform, the similar IoT terminals in the same area report messages at the same time.

Among them, when the Internet of Things terminal sleeps and when it wakes up is set by the timer. The duration of the timer is set by the network side, but the duration of the timer is fixed after setting, and there is no participation from the business side. Disconnect dormancy, waking up and business, resulting in invalid dormancy or invalid waking up

[0004] If the sleep time of the Internet of Things terminal is too short, the power consumption of waking up after power-on will be greater than the power consumption of waking up during this period, and the power saving effect will not be achieved.

In addition, after the IoT terminal wakes up, it initiates a network access request, but the connection may fail, for example, because the network access capacity exceeds the upper limit, and the IoT terminal lacks human intervention, then the IoT terminal will The set strategy is tried repeatedly, and batches of IoT terminals repeatedly request to access the network at the same rhythm, which will cause the request to exceed the network access capacity, which may lead to request oscillation and avalanche

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