Abstract: Systems and methods for supporting a temporary data boost include a first wireless communication device which receives a signal from a second wireless communication device. The signal can include information for obtaining a model from a server used by the first wireless communication device to generate an avatar associated with a user of the second wireless communication device. The first wireless communication device can transmit a request to retrieve the model from the server, where the request identifies a data size of the model and an address of the server. The first wireless communication device may receive, via the core network from the server, data corresponding to the model from the server, where the data is prioritized by the core network according to the request.

Abstract: Systems and methods for managing avatar communications may include a wireless communication node which receives a data packet from a first wireless communication device. The data packet may include an identifier corresponding to a user of the first wireless communication device. The wireless communication node may generate an avatar for the user according to the identifier, receive an expression code from the first wireless communication device, and/or configure the avatar for the user according to the expression code. The wireless communication node may transmit video data corresponding to the avatar to an address of a second wireless communication device.

Abstract: A control method and system for refrigeration, oil return and noise reduction of a multi-split air-conditioner, wherein the method includes: when the accumulative time that the frequency of a compressor is smaller than the set frequency threshold reaches the oil return cycle and a standby indoor unit exists, conducting an oil return running mode; resetting the accumulative time; starting counting the oil return running time; calculating the indoor unit starting load; determining the opening degree of an expansion valve of the standby indoor unit according to the indoor unit starting load and whether there is anyone in a room where the standby indoor unit is located; controlling the compressor to run according to the set oil return frequency; and when the oil return running time reaches the oil return set time, exiting the oil return running mode, and conducting a normal refrigerating running mode.

Abstract: Systems and methods for managing power consumption of device subsystems include a device which maintains one or more constraint metric tables for applications executable on the device. Each of the one or more constraint metric tables may specify respective power levels for subsystems of the device according to a respective application or an application type of the respective application. The device may determine to operate the device at a reduced power level for a first application, based on a condition for the device satisfying at least one of a thermal threshold criterion or a power threshold criteria when the device operates at full power level. The device may apply a constraint metric responsive to determining to operate at the reduced power level, to cause a subset of the plurality of subsystems to adjust a power consumption level according to a first constraint metric table corresponding to the first application.

Abstract: A roadway/tunnel excavation robot and an automatic cutting control method are provided. The robot includes a rack, a walking platform, a supporting and stabilizing mechanism, a milling mechanism, a telescoping mechanism, an inclined cutting feed adjusting mechanism, a horizontal swinging mechanism, a lifting mechanism and a controller. The milling mechanism includes a drive unit, a milling shaft, an eccentric rotary casing, a high-pressure jet nozzle unit, a tension and compression sensor and a direction sensor. Through the deflection of a center line of an inner hole of the eccentric rotary casing, the milling mechanism drives a milling cutter head to carry out a rotational oscillation motion for rock breaking. The telescoping mechanism, the inclined cutting feed adjusting mechanism, the lifting mechanism and the horizontal swinging mechanism are controlled such that the milling mechanism performs coal rocks milling.

Abstract: Disclosed herein are aspects related to a device that can include a wireless communication interface and one or more processors. The one or more processors can assign a first protocol data unit (PDU) set and a second PDU set to at least one of a quality of service (QoS) flow or a data radio bearer (DRB). The one or more processors can identify a first metric of the first PDU set and a second metric of the second PDU set. The one or more processors can determine, based at least on the first metric and the second metric, one or more entities for communication of the first PDU set and the second PDU set to a remote device. The one or more processors can cause the wireless communications interface to communicate the first PDU set and the second PDU set from the at least one of the QoS flow or the DRB according to the determination.

Abstract: Disclosed herein are aspects related to a device that can include a wireless communications interface and one or more processors. The wireless communications interface can be to communicate a plurality of data packets and/or a data burst to a network device. The one or more processors can generate the plurality of data packets according to a timing characteristic of the one or more data packets. The one or more processors can provide an indication of the timing characteristic to the network device. The one or more processors can receive a communication rate from the network device. The one or more processors can cause the wireless communications interface to communicate the plurality of data packets to the network device according to the communication rate.

Abstract: Disclosed herein are aspects related to a device that can include a wireless communication interface and one or more processors. The one or more processors can allocate at least a first data burst and a second data burst to a data buffer. The one or more processors can assign a timer corresponding to an amount of time for output of the first data burst until one or more timing criteria expire. The one or more processors can assign, responsive to the first data burst and the second data burst each representing periodic network traffic, an index indicative of the position of the second data burst in the data buffer relative to the first data burst. The wireless communications interface can transmit the first data burst, the timer for the first data burst, the second data burst, and the index for the second data burst.

Abstract: Systems and methods for managing power consumption of device subsystems include a device which maintains one or more constraint metric tables for applications executable on the device. Each of the one or more constraint metric tables may specify respective power levels for subsystems of the device according to a respective application or an application type of the respective application. The device may determine to operate the device at a reduced power level for a first application, based on a condition for the device satisfying at least one of a thermal threshold criteria or a power threshold criteria when the device operates at full power level. The device may apply a constraint metric responsive to determining to operate at the reduced power level, to cause a subset of the plurality of subsystems to adjust a power consumption level according to a first constraint metric table corresponding to the first application.

Abstract: Systems, methods, and apparatuses for transmitting, by a wireless communication device, to an access management function (AMF) of a core network, a request for a session to be established with a wireless communication node, the session requested to include a dedicated internet protocol (IP) flow for a low queuing latency, low loss, and scalable throughput (L4S) protocol, and receiving, by the wireless communication device, via the AMF from a session management function (SMF) of the core network, a response to the request, the response indicating that the L4S protocol is supported by the wireless communication node.

Abstract: Systems, methods, and apparatuses for transmitting, by a wireless communication device, to an access management function (AMF) of a core network, a request for a session to be established with a wireless communication node, the request indicating a low queuing latency, low loss, and scalable throughput (L4S) protocol is to be used for the session, and a registration area corresponding to the wireless communication node, and receiving, by the wireless communication device, via the AMF from a session management function (SMF) of the core network, a response to the request, the response indicating that the L4S protocol is supported by the wireless communication node according to the registration area.

Abstract: Systems, methods, and apparatuses for establishing, by a wireless communication device, a first connection with a first wireless communication node supporting a low queuing latency, low loss, and scalable throughput (L4S) protocol, the first connection including a dedicated internet protocol (IP) flow for the L4S protocol, switching, by the wireless communication device, from the first connection to a second connection with a second wireless communication node, and determining, by the wireless communication device, a support status of the L4S protocol by the second wireless communication node, according to the dedicated IP flow responsive to switching.

Abstract: Systems and methods of protocol data unit (PDU) set discard policies may include a first device which receives a first PDU of a PDU set. The first PDU may include information relating to a PDU set discard policy. The first device may receive one or more second PDUs of the PDU set within a time window. The first device may apply the PDU set discard policy to the PDU set, based on a count of PDUs of the PDU set received within the time window, to selectively discard each of the PDUs of the PDU set according to the PDU set discard policy.

Abstract: Disclosed herein are aspects related to a device that can include a wireless communication interface and one or more processors. The one or more processors can generate a plurality of data packets. The one or more processors can allocate the plurality of data packets to a buffer for transmission to a network device. The one or more processors can determine an indication of a remaining time for transmission of at least one data packet of the plurality of data packets. The one or more processors can cause transmission, using the wireless communications interface, of the indication of the remaining time to the network device.

Abstract: Disclose are a roadway/tunnel excavation robot and an automatic cutting control method. The robot includes a rack, a moving platform, a supporting and stabilizing mechanism, a milling mechanism, a telescoping mechanism, an inclined cutting feed adjusting mechanism, a horizontal swinging mechanism, a lifting mechanism and a controller. The milling mechanism includes a drive unit, a milling shaft, an eccentric rotary casing, a high-pressure jet nozzle unit, a tension and compression sensor and a direction sensor. Through the deflection of a center line of an inner hole of the eccentric rotary casing, the milling mechanism drives a milling cutter head to carry out a rotational oscillation motion for rock breaking; and the milling cutter head is in discontinuous contact with a rock mass. The telescoping mechanism, the inclined cutting feed adjusting mechanism, the lifting mechanism and the horizontal swinging mechanism are controlled such that the milling mechanism performs coal rocks milling.

Abstract: Disclosed herein are related to devices and methods for communication. In one aspect, a device includes a first processor and a second processor. The first processor may be configured to generate a first set of packets associated with an application data unit in a first layer corresponding to content data. Each packet of the first set of packets may include a flag indicative of an association with the application data unit. The second processor may be configured to generate a second set of one or more packets in a second layer for transmission, in response to determining that the first set of packets is associated with the application data unit according to flags of the first set of packets. The second processor may be configured to schedule to transmit the second set of one or more packets in the second layer within a defined time period.

Abstract: Disclosed herein are related to a communication device. In one aspect, the communication device includes a wireless interface and a processor coupled to the wireless interface. In one aspect, the processor is configured to determine an absence of content data remaining to transmit to a base station for an uplink configured grant, and cause the wireless interface to bypass transmission of a padding data for the uplink configured grant, responsive to the absence of the content data remaining for the uplink configured grant.

Abstract: Aspects of this technical solution can include identifying, by a wireless communication device, various of a plurality of data units each respectively corresponding to various types of communication, determining, by the wireless communication device and from various of the plurality of data units, various parameters each indicating an importance of respective ones of the plurality of data units according to the various types of communication, selecting, by the wireless communication device according to various of the parameters satisfying a first heuristic indicative of a type of communication among the types of communication, various selected data units among various of the plurality of data units that correspond to the parameters satisfying a second heuristic corresponding to a quality-of-service (QoS) level for the type of communication, and transmitting, by the wireless communication device according to the second heuristic, various of the selected data units.

Abstract: Aspects of this technical solution can include receiving, by a wireless communication device, one or more of a plurality of data units corresponding to a first set configured according to a heuristic indicating a quality-of-service (QoS) level corresponding to the first set, determining, by the wireless communication device, a first parameter from one or more of the received plurality of data units, determining, by the wireless communication device, a second parameter from one or more of the received plurality of data units, selecting, by the wireless communication device, a second set including at least a subset of the received plurality of data units satisfying the second parameter, and transmitting, by the wireless communication device and according to the QoS level corresponding to the first set, the second set according to the second parameter.

Abstract: Aspects of this technical solution can include identifying, by a wireless communication device, one or more of a plurality of data units corresponding to a set, the set configured according to a heuristic indicating a quality of service (QoS) level corresponding to the set. The wireless communication device can determine one or more metrics indicating respective states of the received plurality of data units. The wireless communication device can select according to the one or more metrics satisfying the heuristic, the set including the plurality of received data units corresponding to the set, from among a plurality of sets each having a corresponding QoS level. The wireless communication device can transmit, according to a set of one or more of the metrics satisfying the heuristic and according to the QoS level corresponding to the set, a set of one or more of the plurality of received data units corresponding to the one or more of the metrics.