This disclosure relates to methods and devices for mitigating overheating in a user equipment device (UE). The UE is configured to communicate over each of LTE and 5G NR and may be configured to communicate through 5G NR over each of a Sub-6 GHz and a millimeter Wave (mmW) frequency band. The UE is configured to establish an ENDC connection with an enB and one or more gNBs. The UE implements intelligent transmission modification and cell measurement adjustments to mitigate overheating and reduce battery drain.

There is provided an electronic device having Bluetooth communication function. The electronic device confirms whether the received signal power is larger than a power threshold within an interval of 72 microseconds every time an RF receiver is turned on in the receive slot so as to determine whether to continuously keep the RF receiver being turned on or to turn off the RF receiver to save power.

Apparatuses and methods for controlling a manner of delivering content to a content user in a mobile telecommunication network are provided. The content is sent to the content user using first a first transmission rate when the content user is in a first radio state and uses a first battery power, and then using a second transmission rate that is lower than the first transmission rate, when the content user is in a second radio state and uses a second battery power that is smaller than the first battery power. The sending is performed such as, (A) while delivering the content, an amount of the content already received by the content user to exceed an amount of the content used by the content user, and (B) to minimize an energy used by the content user during delivery.

Lightweight messaging between a cloud-based platform and compact wireless device.

Provided is a wireless communication terminal that communicates wirelessly. The terminal includes: a wireless LAN (WLAN) transceiver configured to transmit and receive a WLAN signal; and a wake-up radio (WUR) receiver configured to receive a WUR signal. The WUR receiver is configured to receive a wake-up packet from a base wireless communication terminal and wakes-up the WLAN transceiver. A part of the WUR signal is transmitted by a modulation method different from a modulation method of the WLAN signal.

Techniques for allocating event offsets within a period of transmission are described. A mains-powered device (MPD) may act as a “parent” to one or more battery-powered devices (BPDs). The MPD may assign “event offsets” to each BPD. The event offset is a time by which the BPD's timeslot is “offset” from the start of a periodic cycle of transmissions by the MPD. Thus, each event offset indicates a time that the BPD must be “awake,” i.e., operating its radio receiver and/or performing other functionality. A BPD may spend a substantial fraction of its time in a “sleep” mode, wherein less power is used and fewer functions are performed than during a period of that BPD's event offset. Another BPD may have a different event offset. Communications by the MPD with each child BPD may be substantially uniformly distributed over the period. To increase efficiency, groups of BPDs may receive multicasts.

The present invention provides a wireless communication method, a communication device, and a device having a storage function. The wireless communication method in the embodiment of the present invention comprises: a first device waking up with a predetermined wake-up interval, and receiving data packets from a second device; determining a time interval between two consecutive data packets received; determining whether the time interval is higher than the wake-up interval of the first device; and if the time interval is higher than the wake-up interval, the first device increasing the wake-up interval. In this way, the present invention can reduce the communication power consumption of the wireless device.

A delay adjustment method is applied to a first electronic device, and the first electronic device is any device in a distributed device network. The method includes: a starting delay of a wakeup engine of at least one second electronic device in the network is acquired; it is determined whether a starting delay of a wakeup engine of the first electronic device needs to be adjusted according to the starting delay of the wakeup engine of the first electronic device and the starting delay of the wakeup engine of the at least one second electronic device; and responsive to that the starting delay of the first electronic device needs to be adjusted, the starting delay of the wakeup engine is adjusted, and wakeup information interaction is performed with the at least one second electronic device based on the adjusted starting delay of the wakeup engine.

A communication apparatus operable to communicate with a terminal station capable of operating in a Doze state and Awake state in an IEEE 802.11 ba, decides, based on a congestion degree in a channel for communicating with the terminal station in the Awake state, a waiting time for waiting for a response to a Wake-up frame for causing the terminal station to transit from the Doze state to the Awake state from when the Wake-up frame is transmitted, transmits the Wake-up frame while the terminal station is in the Doze state, and retransmits the Wake-up frame when the waiting time has elapsed after the Wake-up frame is transmitted without receiving the response from the terminal station.

Systems and methods for power save aware resource unit allocation include sending, by an access point to a station, a beacon indicating that the station has data buffered at the access point, wherein the station is in a power-save mode, sending, by the access point after sending the beacon, an Orthogonal Frequency Division Multiple Access (OFDMA) trigger to the station, wherein the OFDMA trigger causes the station in the power-save mode to send PS-POLL using OFDMA, receiving, by the access point and from the station, a PS-POLL frame using OFDMA.