CN107659947B

CN107659947B - State measurement method, device and system

Info

Publication number: CN107659947B
Application number: CN201610597339.3A
Authority: CN
Inventors: 杨立
Original assignee: ZTE Corp
Current assignee: ZTE Corp
Priority date: 2016-07-26
Filing date: 2016-07-26
Publication date: 2022-08-02
Anticipated expiration: 2036-07-26
Also published as: CN107659947A

Abstract

The invention provides a state measurement method, a state measurement device and a state measurement system, wherein the method comprises the following steps: the method comprises the steps that a first node configures control parameters to User Equipment (UE) and a second node, wherein the control parameters are used for controlling the UE and the second node to record state information of beam forming work sub-states related to activated wireless beams; the first node receives downlink space/time frequency synchronization state information reported by UE and uplink space/time frequency synchronization state information reported by the second node, wherein the space/time frequency synchronization state information comprises state information. The invention solves the technical problem that the working sub-state of the beam forming communication node cannot be known in the related technology.

Description

State measurement method, device and system

Technical Field

The invention relates to the field of communication, in particular to a state measurement method, a state measurement device and a state measurement system.

Background

With the development of the multi-connection data transmission technology of the mobile communication system, the terminal can establish and maintain a plurality of Radio Links (RL) with a plurality of communication base stations at the same time, and perform uplink and downlink transmission and related control feedback of control plane/user plane data at the same time.

In a plurality of communication base station anchors, there is usually only one base station master anchor (or simply called main base station) and a plurality of base station auxiliary anchors (or simply called auxiliary base stations); the main base station is mainly responsible for the control plane functions such as establishment, maintenance and release of the whole multi-connection operation, and the auxiliary base station is mainly responsible for the functions such as shunt and forwarding of related user plane data, so that data flow which can only be transmitted between the main base station and the terminal originally can be shunted and transmitted in a plurality of data connections (wireless data pipelines), and thus, the wireless resources of the air interface can be balanced and utilized more fully and efficiently.

Fig. 1 is a diagram illustrating a multi-connection operation mode of the mobile communication system according to the related art of the present invention, which is illustrated in fig. 1, wherein thin arrow lines indicate control signaling transmission and thick arrow lines indicate user data transmission.

In a future 3GPP 5G New Radio (NR) system, utilization and operation of high-frequency band Radio carrier resources will play an increasingly important role, and wider high-frequency carrier resources can be sufficiently aggregated and utilized by means of carrier aggregation, tight coupling multiple connections and the like, so as to improve capacity and throughput performance of the NR system. Fig. 2 is a schematic diagram of a Beamforming operation of a high frequency small base station according to the related art, and as shown in fig. 2, under the wide coverage of a low frequency macro base station cell, an operator may perform capacity enhancement on a part of a Hotspot region through a high frequency (MmWave) small base station cell. Unlike the coverage of the conventional Omni-Directional (Omni-Directional) or sectored (Sector) cell, in order to increase the uplink and downlink wireless coverage and channel performance, the high-frequency small cell generally needs to perform Beamforming operation on the Transmit/Receive (TX/Receive, RX) side, that is, to Transmit/Receive beams directionally by using the multi-antenna phase technique, so as to converge the transmission power and reduce interference. The TRP (TRP: Transmit Receive Point, equivalent to AP in WLAN system) Cluster in fig. 2 transmits signals in the form of Beams.

Fig. 3 is a multi-connection data transmission communication architecture with tightly coupled high and low frequency base stations according to the related art of the present invention, and the high frequency cell deployment in fig. 2 is mapped to the working architecture in fig. 1, that is, the multi-connection data transmission communication architecture with tightly coupled high and low frequency base stations shown in fig. 3.

Uplink and downlink dedicated reference signals are used for measurement or demodulation of dedicated channels, and for example, in the downlink direction, when a BF synchronization training signal is transmitted by a TRP, the BF synchronization training signal is transmitted in a cyclic scanning manner according to a specific discrete angle (e.g., a rule of 0,30,60,90, 120.. 360 degrees), and the UE may also receive in a specific discrete angular orientation. After the initial coarse synchronization training, the TRP and the UE can roughly determine the optimal discrete angle of the other party, and then can further enter a fine synchronization training stage, so that the TRP and the UE can determine the continuous angle of the other party more accurately (the horizontal angle adjustment granularity of the fine synchronization training is smaller than that of the previous round-robin transmission), and the fine synchronization training minimizes Pathloss. Then, with the movement of the UE, the TRP and the UE need to continuously fine-tune the transmitting and receiving angles according to the BF synchronous training signal transmitted by the other party. Fig. 4 is a diagram illustrating a process from "coarse synchronization training" to "fine synchronization training" according to the related art of the present invention, the above process being illustrated in fig. 4.

The 'fine synchronization training' is an optional optimization function realized locally based on communication node hardware, after the 'fine synchronization training' is completed, the TRP and the UE side can ensure the best measurement result of the BRS and the best receiving and demodulating performance result of the RL proprietary signal, so that the TRP and the UE side can be in the best data transmission mode, and the signal transmission efficiency of a TX end and the signal-to-noise ratio received by an RX end are the maximum at the moment; otherwise, according to simulation, if the precision result of the spatial synchronization training is not enough, the received signal-to-noise ratio is reduced, the TRP and the UE cannot be in the best data transmission mode, and even worse, spatial/time-frequency desynchronization occurs between the TRP and the UE, and the TRP and the UE can only be in the worst data transmission mode.

In view of the above problems in the related art, no effective solution has been found at present.

Disclosure of Invention

The embodiment of the invention provides a state measurement method, a state measurement device and a state measurement system, which are used for at least solving the technical problem that the working sub-state of a beam forming communication node cannot be obtained in the related technology.

According to an embodiment of the present invention, there is provided a state measurement method including: a first node configures control parameters for User Equipment (UE) and a second node, wherein the control parameters are used for controlling the UE and the second node to record state information of beam forming work sub-states related to activated wireless beams; and the first node receives downlink space/time frequency synchronization state information reported by the UE and uplink space/time frequency synchronization state information reported by the second node, wherein the space/time frequency synchronization state information comprises the state information.

Optionally, when the first node configures the control parameter to the UE, the control parameter is carried in a radio resource control, RRC, signaling.

Optionally, when the first node configures a control parameter to the second node, the control parameter is carried in a node interface signaling, where the node interface includes: an X2 interface.

Optionally, before the first node configures the control parameters to the UE, the method further includes: the first node determines that the UE is in a beam forming BF out-of-step sub-state, wherein the BF out-of-step sub-state is used for describing a synchronization relation between the UE and time frequency of a downlink space which is not formed by the UE and any service beam, and in the BF out-of-step sub-state, the UE clears internal variables or related log contents of state information recorded with historical beam forming work sub-state information.

Optionally, before the first node configures the control parameters to the second node, the method further includes: and the first node determines that the second node is in a beam forming BF out-of-step sub-state, wherein the BF out-of-step sub-state is used for describing a synchronization relation between the second node and any service beam forming uplink space time frequency when the second node does not start uplink beam training, and the second node clears internal variables or related log contents of state information recorded with historical beam forming work sub-state information in the BF out-of-step sub-state.

Optionally, the control parameter is further for indicating one of:

reporting all history record table information for describing the state of the beam forming worker;

the reporting part is used for describing the historical record table information of the beam forming work sub-state;

and reporting and extracting abstracted key event information based on a historical record table describing the state of the beam forming worker, wherein the key event information and the trigger condition of the key event information are predefined by a system.

Optionally, after the first node receives the downlink space/time-frequency synchronization status information reported by the UE and the uplink space/time-frequency synchronization status information reported by the second node, the method further includes: the first node performs at least one of the following operations according to the state information of the beamforming work substate: adjusting a Radio Resource Management (RRM) strategy; operating mobility and multi-connection data transmission of a communication node associated with the UE.

Optionally, the first node is a master anchor node, and the second node is a target BF offload base station node.

Optionally, the control parameter comprises at least one of: the working frequency point bandwidth information of the sending node and/or the receiving node governed by the second node, the physical configuration information of the node/cell/beam, the logic configuration information of the node/cell/beam, the maximum effective duration information Tmax counted by BF sub-state records, and the effective region information.

According to an embodiment of the present invention, there is provided another state measurement method including: user Equipment (UE) receives control parameters configured by a first node, wherein the control parameters are used for controlling the UE to record state information of beam forming working sub-states related to all activated wireless beams; the UE carries out downlink space synchronization and downlink Radio Resource Management (RRM) measurement on a serving cell or a beam governed by a target beam forming BF shunting base station node based on the control parameters; and the UE reports downlink space/time frequency synchronization state information and RRM measurement result information obtained by measuring the downlink space synchronization and the downlink radio resource management RRM to the first node, wherein the downlink space/time frequency synchronization state information comprises the state information.

Optionally, when the UE performs coarse synchronization training, the performing, by the UE, downlink spatial synchronization and downlink RRM measurement on a serving cell or a beam governed by a target beam forming BF offload base station node based on the control parameter includes: the UE carries out beam tracking synchronization and measurement of first preset time on a downlink public/private synchronization signal transmitted by a beam dominated by the target beam forming BF shunting base station node based on the control parameter to obtain state information of a first BF synchronization sub-state; and the UE carries out downlink RRM measurement on downlink common/dedicated pilot signals transmitted by beams governed by the target beam forming BF shunting base station node based on the control parameters, and acquires downlink RRM measurement results of appointed beams which are tracked synchronously and transmitting nodes and/or other beams which are not tracked synchronously and governed by the transmitting nodes.

Optionally, when the UE performs fine synchronization training, the performing, by the UE, downlink spatial synchronization and downlink RRM measurement on a serving cell or a beam governed by a target beam forming BF offload base station node based on the control parameter includes: the UE carries out beam tracking synchronization and measurement of a second preset time on a downlink public/private synchronization signal transmitted by a beam dominated by the target beam forming BF shunting base station node based on the control parameter to obtain state information of a second BF synchronization sub-state; and the UE carries out downlink RRM measurement on downlink common/dedicated pilot signals transmitted by beams governed by the target beam forming BF shunting base station node based on the control parameters, and acquires downlink RRM measurement results of appointed beams which are tracked synchronously and transmitting nodes and/or other beams which are not tracked synchronously and governed by the transmitting nodes.

Optionally, the state information of the BF synchronization sub-state includes: time stamp information, location information, where the beam entry is statistically recorded.

Optionally, after the UE reports downlink space/time frequency synchronization state information and RRM measurement result information obtained by the downlink space synchronization and downlink radio resource management RRM measurement to the first node, the method further includes: and the UE deletes the downlink space/time frequency synchronization state information.

Optionally, the control parameter comprises at least one of: the sending node and/or the received working frequency point bandwidth information governed by the second node, the logical configuration information of the node/cell/beam, the maximum effective duration information Tmax counted by BF sub-state records, and the effective region information.

According to an embodiment of the present invention, there is provided still another state measurement method including: a second node receives a control parameter configured by a first node, wherein the control parameter is used for controlling the second node to record state information of a beam forming worker state related to each activated wireless beam; the second node carries out uplink space synchronization and uplink Radio Resource Management (RRM) measurement on User Equipment (UE) in the managed serving cell or beam based on the control parameters; and the second node reports uplink space/time frequency synchronization state information and RRM measurement result information obtained by uplink space synchronization and uplink radio resource management RRM measurement to the first node, wherein the uplink space/time frequency synchronization state information comprises the state information.

Optionally, when the second node performs coarse synchronization training, the performing, by the second node, uplink spatial synchronization and uplink radio resource management RRM measurement on the UE in the served cell or the beam based on the control parameter includes: the second node carries out beam tracking synchronization and measurement of first preset time on uplink public/private synchronization signals transmitted by beams dominated by the target beam forming BF shunting base station node based on the control parameters to obtain state information of a first BF synchronization sub-state; and the second node performs uplink RRM measurement on the uplink common/dedicated pilot signals received by the beams governed by the target beam forming BF shunting base station node based on the control parameters, and obtains uplink RRM measurement results of the appointed beams which are tracked synchronously and other beams which are not tracked synchronously and governed by the sending and receiving node.

Optionally, when the second node performs fine synchronization training, the performing, by the second node, uplink spatial synchronization and uplink radio resource management RRM measurement on the UE in the served cell or the beam based on the control parameter includes: the second node carries out beam tracking synchronization and measurement of first preset time on uplink public/private synchronization signals transmitted by beams dominated by the target beam forming BF shunting base station node based on the control parameters to obtain state information of a second BF synchronization sub-state; and the second node performs uplink RRM measurement on the uplink common/dedicated pilot signals received by the beams governed by the target beam forming BF shunting base station node based on the control parameters, and obtains uplink RRM measurement results of the appointed beams which are tracked synchronously and other beams which are not tracked synchronously and governed by the sending and receiving node.

Optionally, after the second node reports uplink space/time-frequency synchronization state information and RRM measurement result information obtained by the uplink space synchronization and uplink radio resource management RRM measurement to the first node, the method further includes: and the second node deletes the uplink space/time frequency synchronization state information.

Optionally, the control parameter comprises at least one of: the working frequency point bandwidth information of the sending and receiving node governed by the second node, the physical configuration information of the node/cell/beam, the logic configuration information of the node/cell/beam, the maximum effective duration information Tmax counted by BF sub-state records, and the effective region information.

According to another embodiment of the present invention, there is provided a state measurement apparatus, applied in a first node, including: a configuration module, configured to configure a control parameter for a user equipment UE and a second node, where the control parameter is used to control the UE and the second node to record state information of a beamforming worker state associated with each activated radio beam; a receiving module, configured to receive downlink space/time-frequency synchronization status information reported by the UE and uplink space/time-frequency synchronization status information reported by the second node, where the space/time-frequency synchronization status information includes the status information.

Optionally, the control parameter is further for indicating one of:

Optionally, the apparatus further comprises: a processing module, configured to perform, by the first node, at least one of the following operations according to the state information of the beamforming job substate: adjusting a Radio Resource Management (RRM) strategy; operating mobility and multi-connection data transmission of a communication node associated with the UE.

According to another embodiment of the present invention, another status measuring apparatus is provided, which is applied in a UE, and includes: a receiving module, configured to receive a control parameter configured by a first node, where the control parameter is used to control the UE to record state information of a beamforming worker state associated with each activated radio beam; the measurement module is used for carrying out downlink space synchronization and downlink Radio Resource Management (RRM) measurement on a serving cell or a beam governed by a target beam forming BF shunting base station node based on the control parameters; and a reporting module, configured to report downlink space/time-frequency synchronization state information and RRM measurement result information obtained by the downlink space synchronization and downlink radio resource management RRM measurement to the first node, where the downlink space/time-frequency synchronization state information includes the state information.

Optionally, the measurement module comprises: a first measurement unit, configured to perform, when the UE performs coarse synchronization training, beam tracking synchronization and measurement for a first preset time on a downlink common/dedicated synchronization signal transmitted by a beam dominated by the target beam forming BF offload base station node based on the control parameter, so as to obtain state information of a first BF synchronization sub-state; and the second measurement unit is used for performing downlink RRM measurement on downlink common/dedicated pilot signals transmitted by beams governed by the target beam forming BF shunting base station node based on the control parameters when the UE performs coarse synchronization training, and obtaining downlink RRM measurement results of specified beams already tracked synchronously and other beams not tracked synchronously and transmitted by the transmitting node and/or received.

Optionally, the measurement module comprises: a third measurement unit, configured to perform, when the UE performs fine synchronization training, beam tracking synchronization and measurement for a second preset time on a downlink common/dedicated synchronization signal transmitted by a beam dominated by the target beam forming BF offload base station node based on the control parameter, so as to obtain state information of a second BF synchronization sub-state; and a fourth measurement unit, configured to perform downlink RRM measurement on a downlink common/dedicated pilot signal transmitted by a beam governed by the target beam forming BF offload base station node based on the control parameter when the UE performs fine synchronization training, and obtain a downlink RRM measurement result of a specified beam already tracked in synchronization and a downlink RRM measurement result of a transmitting node and/or receiving other beams not tracked in synchronization governed by the transmitting node.

According to another embodiment of the present invention, there is provided a state measurement apparatus, applied in a second node, including: a receiving module, configured to receive a control parameter configured by a first node, where the control parameter is used to control the second node to record state information of a beamforming worker state associated with each activated wireless beam; the measurement module is used for carrying out uplink space synchronization and uplink Radio Resource Management (RRM) measurement on User Equipment (UE) in the managed serving cell or beam based on the control parameters; and a reporting module, configured to report uplink space/time-frequency synchronization state information and RRM measurement result information obtained by uplink space synchronization and uplink radio resource management RRM measurement to the first node, where the uplink space/time-frequency synchronization state information includes the state information.

Optionally, the measurement module comprises: a fifth measurement unit, configured to perform, when the second node performs coarse synchronization training, beam tracking synchronization and measurement for a first preset time on an uplink common/dedicated synchronization signal transmitted by a beam dominated by the target beam forming BF shunting base station node based on the control parameter, so as to obtain state information of a first BF synchronization sub-state; a sixth measurement unit, configured to perform uplink RRM measurement on the uplink common/dedicated pilot signal received by the beam governed by the target beam forming BF offload base station node based on the control parameter when the second node performs coarse synchronization training, and obtain uplink RRM measurement results of the specified beam already tracked in synchronization and other beams not tracked in synchronization governed by the sending and receiving node.

Optionally, the measurement module comprises: a seventh measurement unit, configured to perform, when the second node performs fine synchronization training, beam tracking synchronization and measurement for a first preset time on an uplink common/dedicated synchronization signal transmitted by a beam dominated by the target beam forming BF offload base station node based on the control parameter, so as to obtain state information of a second BF synchronization sub-state; and an eighth measurement unit, configured to perform uplink RRM measurement on the uplink common/dedicated pilot signal received by the beam governed by the target beam forming BF offload base station node based on the control parameter when the second node performs fine synchronization training, and obtain uplink RRM measurement results of the specified beam already tracked in synchronization and other beams not tracked in synchronization governed by the sending and receiving node.

According to another embodiment of the present invention, there is provided a state measurement system including a first node, a second node, and a user equipment UE, the first node including: a configuration module, configured to configure a control parameter for a user equipment UE and a second node, where the control parameter is used to control the UE and the second node to record state information of a beamforming worker state associated with each activated radio beam; a first receiving module, configured to receive downlink space/time-frequency synchronization status information reported by the UE and uplink space/time-frequency synchronization status information reported by the second node, where the space/time-frequency synchronization status information includes the status information; the UE includes: the second receiving module is used for receiving the control parameters configured by the first node; a first measurement module, configured to perform downlink spatial synchronization and downlink radio resource management RRM measurement on a serving cell or a beam governed by a target beam forming BF offload base station node based on the control parameter; a first reporting module, configured to report downlink space/time-frequency synchronization state information and RRM measurement result information obtained by the downlink space synchronization and downlink radio resource management RRM measurement to the first node; the second node comprises: a third receiving module, configured to receive a control parameter configured by the first node; a second measurement module, configured to perform uplink spatial synchronization and uplink Radio Resource Management (RRM) measurement on User Equipment (UE) in a serving cell or a beam under the jurisdiction based on the control parameter; and the second reporting module is configured to report uplink space/time-frequency synchronization state information and RRM measurement result information, which are obtained by uplink space synchronization and uplink radio resource management RRM measurement, to the first node.

According to still another embodiment of the present invention, there is also provided a storage medium. The storage medium is configured to store program code for performing the steps of:

configuring control parameters to User Equipment (UE) and a second node, wherein the control parameters are used for controlling the UE and the second node to record state information of beam forming work sub-states related to all activated wireless beams;

and receiving downlink space/time frequency synchronization state information reported by the UE and uplink space/time frequency synchronization state information reported by the second node, wherein the space/time frequency synchronization state information comprises the state information.

According to the invention, a first node configures control parameters to User Equipment (UE) and a second node, wherein the control parameters are used for controlling the UE and the second node to record the state information of the beamforming working sub-state related to each activated wireless beam; the first node receives downlink space/time frequency synchronization state information reported by UE and uplink space/time frequency synchronization state information reported by the second node, wherein the space/time frequency synchronization state information comprises state information. The first node is used for configuring downlink space/time frequency synchronization state information and uplink space/time frequency synchronization state information of the UE and a second node connected with the UE, the second node can acquire the state information of each beam forming work sub-state, and the technical problem that the beam forming communication node work sub-state cannot be obtained in the related technology is solved.

Drawings

The accompanying drawings, which are included to provide a further understanding of the invention and are incorporated in and constitute a part of this application, illustrate embodiment(s) of the invention and together with the description serve to explain the invention without limiting the invention. In the drawings:

fig. 1 is a schematic view of a multi-connection operation mode according to the related art of the present invention;

fig. 2 is a schematic diagram illustrating a Beamforming operation of a high frequency small cell according to the related art of the present invention;

fig. 3 is a communication architecture for tightly coupling multiple connection data transmissions of high and low frequency base stations according to the related art of the present invention;

FIG. 4 is a diagram illustrating a process from "coarse synchronization training" to "fine synchronization training" according to the related art of the present invention;

FIG. 5 is a flow chart of a method of status measurement according to an embodiment of the present invention;

FIG. 6 is a flow chart of a method of status measurement according to an embodiment of the present invention;

FIG. 7 is a flow chart of a method of status measurement according to an embodiment of the present invention;

FIG. 8 is a schematic diagram of a non-BF mode node and a BF mode node tightly coupled for multi-connection data transmission according to an embodiment of the present invention;

FIG. 9 is a diagram illustrating a transition model of a BF sub-state of a communication node according to an embodiment of the present invention;

FIG. 10 is a block diagram of a state measuring device according to an embodiment of the present invention;

FIG. 11 is a block diagram of another configuration of a state measurement device according to an embodiment of the present invention;

FIG. 12 is a block diagram of a further status measuring device according to an embodiment of the present invention;

FIG. 13 is a block diagram of a state measurement system according to an embodiment of the present invention;

FIG. 14 is a schematic view according to specific embodiment 1 of the present invention;

FIG. 15 is a schematic view according to specific embodiment 2 of the present invention;

fig. 16 is a schematic view according to specific embodiment 3 of the present invention.

Detailed Description

The invention will be described in detail hereinafter with reference to the accompanying drawings in conjunction with embodiments. It should be noted that the embodiments and features of the embodiments in the present application may be combined with each other without conflict.

It should be noted that the terms "first," "second," and the like in the description and claims of the present invention and in the drawings described above are used for distinguishing between similar elements and not necessarily for describing a particular sequential or chronological order.

Example 1

The embodiment of the present application can operate on the network architecture shown in fig. 3. In the present embodiment, a state measurement method is provided, and fig. 5 is a flowchart of a state measurement method according to an embodiment of the present invention, as shown in fig. 5, the flowchart includes the following steps:

step S502, a first node configures control parameters for User Equipment (UE) and a second node, wherein the control parameters are used for controlling the UE and the second node to record state information of a beamforming working sub-state related to each activated wireless beam;

step S504, the first node receives downlink space/time frequency synchronization state information reported by the UE and uplink space/time frequency synchronization state information reported by the second node, wherein the space/time frequency synchronization state information comprises state information.

Through the steps, the first node configures control parameters to the user equipment UE and the second node, wherein the control parameters are used for controlling the UE and the second node to record the state information of the beamforming work sub-state related to each activated wireless beam; the first node receives downlink space/time frequency synchronization state information reported by UE and uplink space/time frequency synchronization state information reported by the second node, wherein the space/time frequency synchronization state information comprises state information. The first node is used for configuring downlink space/time frequency synchronization state information and uplink space/time frequency synchronization state information of the UE and a second node connected with the UE, the second node can acquire the state information of each beam forming work sub-state, and the technical problem that the work sub-states of beam forming communication nodes cannot be obtained in the related technology is solved.

The embodiment of the present application can operate on the network architecture shown in fig. 3. In the present embodiment, a state measurement method is provided, and fig. 6 is a flowchart of another state measurement method according to an embodiment of the present invention, as shown in fig. 6, the flowchart includes the following steps:

step S602, a user equipment UE receives a control parameter configured by a first node, wherein the control parameter is used for controlling the UE to record the state information of the beam forming work sub-state related to each activated wireless beam;

step S604, UE carries out downlink space synchronization and downlink Radio Resource Management (RRM) measurement on a serving cell or beam governed by a target beam forming BF shunting base station node based on control parameters;

step S606, the UE reports downlink space/time frequency synchronization status information and RRM measurement result information obtained by downlink space synchronization and downlink radio resource management RRM measurement to the first node, where the downlink space/time frequency synchronization status information includes status information.

The embodiment of the present application can operate on the network architecture shown in fig. 3. In the present embodiment, a state measurement method is provided, and fig. 7 is a flowchart of another state measurement method according to an embodiment of the present invention, as shown in fig. 7, the flowchart includes the following steps:

step S702, a second node receives a control parameter configured by a first node, wherein the control parameter is used for controlling the second node to record the state information of the beam forming worker state related to each activated wireless beam;

step S704, the second node performs uplink space synchronization and uplink Radio Resource Management (RRM) measurement on the UE in the managed serving cell or beam based on the control parameters;

step S706, the second node reports uplink space/time frequency synchronization status information and RRM measurement result information obtained by uplink space synchronization and uplink radio resource management RRM measurement to the first node, where the uplink space/time frequency synchronization status information includes status information.

Optionally, the first node is a master anchor node, the second node is a target BF offload base station node, (Beamforming, abbreviated as BF), for a single communication device, directional transmission operation and reception operation are two independent capabilities, and the directional action is implemented by an Antenna Weight Vector. The UE is connected to and communicates with multiple nodes simultaneously.

Fig. 8 is a schematic diagram of tightly coupling a non-BF mode node and a BF mode node for multi-connection data transmission according to an embodiment of the present invention, and the scenario of the present embodiment is as shown in fig. 8: the UE and the main Control anchor node (which may be an MeNB or an NR base station node) in the non-BF working mode have established Radio Resource Control (RRC) connection Signaling (SRB, Signaling Radio Bearer, Radio Bearer for transmitting RRC Control Signaling and a plurality of user plane Data bearers (DRB, Data Radio Bearer, Radio Resource set for carrying user service Data) and are connected with each other through a standardized interface (which may be an LTEX2 or an NR Xnew interface) between communication nodes, so that the DRB user Data can be shunted and transmitted in parallel in an uplink and a downlink manner, and a multi-connection Data transmission mode is performed, according to the transmission performance characteristics of the connected standardized interfaces, the main Control node and the shunt base station node can aggregate between carriers of the BF (Carrier Aggregation), mutual aggregation between authorized carriers/unauthorized carriers containing different frequency points) or DC (Dual Connectivity LTE Dual Connectivity, where a single UE is connected to two wireless network access nodes, such as MeNB and SeNB, and also includes other kinds of enbs, APs, and the like).

Before the UE and the BF shunting base station node establish RL (namely, before entering a multi-connection data transmission mode), the main control anchor point node configures related control parameters for recording and counting historical beam forming work sub-states to the UE through RRC signaling. Based on these parameters, the UE performs downlink spatial synchronization and downlink RRM measurement on the serving cell or Beams governed by the target BF offload base station node, that is, the UE needs to perform downlink spatial synchronization training and downlink time-frequency synchronization attempt on the serving cell or Beams in the BF mode first, and tries to find the optimal transmission angle of the common/dedicated downlink channel/signal (including downlink spatial synchronization training signal, which is similar to CRS in function for RRM measurement and estimation of channel quality and is different from Beam training signal) of the target TRP, the optimal reception angle of the UE itself, through the process of downlink Beam training.

Before RL is established between UE and BF shunting base station node (namely, before entering into multi-connection data transmission mode), the main control anchor point node configures relevant control parameters for recording and counting historical beam forming work sub-state to the BF shunting base station node through 'standardized interface between the main control anchor point node and the BF shunting base station node', the BF shunting base station node carries out uplink space synchronization and uplink RRM measurement on the UE in the service cell or Beams under the control of the BF shunting base station node based on the parameters, that is, the BF offload base station node needs to perform uplink spatial synchronization training and uplink time-frequency synchronization attempt on the serving cell in the BF mode or UEs in Beams first, through the process of uplink beam training, the optimal transmitting angle of the public/private uplink channel/signal (including uplink space synchronization training signal, uplink random access signal and the like) of the target UE and the optimal receiving angle of the BF shunting base station node are tried to be found.

In the initial stage, before the UE successfully completes the first downlink space/time-frequency synchronization state, the UE is defined to be in a "BF out-of-synchronization sub-state", and at this time, the UE clears an internal variable or a Log content Log for recording the historical beamforming sub-state information.

In the initial stage, before the BF offload base station node successfully completes the first uplink space/time frequency synchronization state, the BF offload base station node is defined to be in a "BF out-of-synchronization sub-state" for the specific associated UE, and at this time, the BF offload base station node clears the internal variables or the related Log content Log for recording the historical beamforming work sub-state information.

After the UE successfully completes the downlink space/time frequency coarse synchronization training, the UE is defined to be in a BF coarse synchronization sub-state, and at the moment, the UE records the BF coarse synchronization sub-state, occurrence time/place stamp (information) and a corresponding downlink RRM measurement result.

After the BF shunting base station node successfully completes the uplink space/time frequency coarse synchronization training, the BF shunting base station node is defined to be in a "BF coarse synchronization sub-state" for the specific associated UE, and at this time, the BF shunting base station node records the "BF coarse synchronization sub-state", the occurrence time/location stamp (information), and the corresponding uplink RRM measurement result.

Further, after the UE successfully completes the downlink space/time-frequency fine synchronization training, the UE is defined to be in a "BF fine synchronization sub-state", and at this time, the UE records the "BF fine synchronization sub-state", the occurrence time/location stamp (information), and the corresponding downlink RRM measurement result. (the measurement results are more reliable than those obtained under coarse synchronization).

Further, after the BF offload base station node successfully completes the uplink spatial/time-frequency fine synchronization training, the BF offload base station node is defined to be in a "BF fine synchronization sub-state" for the specific associated UE, and at this time, the BF offload base station node records the "BF fine synchronization sub-state" and occurrence time/location stamp (information) and corresponding uplink RRM measurement result. (the measurement results are more reliable than those obtained under coarse synchronization).

After the time lapse is pushed, in the later process, when the UE loses the state of downlink space/time frequency synchronization, the UE is defined to be in a BF out-of-step sub-state, and at the moment, the UE records the BF out-of-step sub-state, a time/place stamp (information) of occurrence and a corresponding downlink RRM measurement result. Similarly, when the BF shunting base station node loses the state of uplink space/time frequency synchronization, the BF shunting base station node is defined to be in the "BF out-of-step sub-state" for the specific associated UE, and at this time, the BF shunting base station node records the "BF out-of-step sub-state" and the occurrence time/location stamp (information) and the corresponding uplink RRM measurement result.

After the time lapse is deduced, in the later process, when the UE returns to enter the BF coarse synchronization sub-state or the BF fine synchronization sub-state again, the UE continues to record the BF coarse/fine synchronization sub-state, the occurrence time/place stamp (information) and the corresponding downlink RRM measurement result; and when the BF shunting base station node recovers to enter a BF coarse synchronization sub-state or a BF fine synchronization sub-state again, the BF shunting base station node continuously records the BF coarse/fine synchronization sub-state, the occurrence time/place stamp (information) and the corresponding uplink RRM measurement result.

Therefore, the final result of the uplink and downlink tracking synchronous recording process forms a history record table of the beam forming work sub-state of the BF communication node, and the starting time points of the table are as follows: after the main control anchor node completes the statistical configuration of the history information of the related sub-states, and the BF communication node successfully completes the BF coarse/fine synchronization sub-state for the first Time, the termination Time point of the table is that a certain Time limit timer Time Out/Expire is finished, or a display stop record command from the main control anchor node or the UE leaves the multi-connection data transmission mode.

The main control anchor point node can make the target UE report all or part of the history record table information of the beam forming work sub-state or only report the key event information analyzed and processed based on the table through RRC signaling. After the UE successfully reports, the UE clears the internal variables for recording the historical beamforming worker state information or the content of the Log content Log.

The main control anchor point node can make the target BF shunting base station node report all or part of historical record table information of beam forming working sub-state or analyze processed key event information based on the table through the signaling of 'standardized interface between the main control anchor point node and the BF shunting base station node'. After the successful report, the target BF shunting base station node clears the internal variables or the content of the Log content Log for recording the historical beamforming worker state information.

The main control anchor node can adjust internal related RRM strategies such as BF communication node beam forming operation management ((re) configuration, (de) activation and the like) and UE data distribution/mobility management based on historical record table information of beam forming work sub-states reported by the UE and the BF distribution base station node respectively, so that the method can be started, updated and stopped for multi-connection data transmission operation more reasonably, and obtains the historical conditions of the BF sub-states and the wireless signal strength/quality at the BF distribution base station node side where the service UE and the BF distribution base station node cooperate to perform tight coupling distribution, and performs optimization and performance improvement of network deployment.

Fig. 9 is a schematic diagram of a transition model of a communication node BF sub-state according to an embodiment of the present invention, where the transition of the sub-state is as shown in fig. 9:

when the sub-state information reported by the UE and the BF offload base station node respectively and the uplink and downlink RRM measurement result information of the specific associated UE satisfy the specific system predefined condition set 1, the master control anchor node may select to establish (newly configure) a corresponding BF RL for the appropriate Beam of the served UE and the target BF offload base station node for the multi-connection data offload transmission.

When the sub-state information respectively reported by the UE and the BF offload base station node and the uplink and downlink RRM measurement result information of the specific associated UE satisfy the specific system predefined condition set 2, the master control anchor node may select to modify (reconfigure) the corresponding BF RL for the served UE and the target BF offload base station node Beam, and continue to be used for the multi-connection data offload transmission.

When the sub-state information reported by the UE and the BF offloading base station node respectively and the uplink and downlink RRM measurement result information of the specific associated UE satisfy the specific system predefined condition set 3, the master anchor node may select to delete (deconfigure) the corresponding BF RL for the served UE and the target BF offloading base station node Beam, and stop the multi-connection data offloading transmission on the RL.

Through the above description of the embodiments, those skilled in the art can clearly understand that the method according to the above embodiments can be implemented by software plus a necessary general hardware platform, and certainly can also be implemented by hardware, but the former is a better implementation mode in many cases. Based on such understanding, the technical solutions of the present invention may be embodied in the form of a software product, which is stored in a storage medium (e.g., ROM/RAM, magnetic disk, optical disk) and includes instructions for enabling a terminal device (e.g., a mobile phone, a computer, a server, or a network device) to execute the method according to the embodiments of the present invention.

Example 2

In this embodiment, a state measurement apparatus and system are further provided for implementing the foregoing embodiments and preferred embodiments, which have already been described and are not described again. As used below, the term "module" may be a combination of software and/or hardware that implements a predetermined function. Although the means described in the embodiments below are preferably implemented in software, an implementation in hardware, or a combination of software and hardware is also possible and contemplated.

Fig. 10 is a block diagram of a state measuring apparatus according to an embodiment of the present invention, as shown in fig. 10, the apparatus including:

a configuration module 100, configured to configure a control parameter for a user equipment UE and a second node, where the control parameter is used to control the UE and the second node to record state information of a beamforming worker state associated with each activated radio beam;

a receiving module 102, configured to receive downlink space/time-frequency synchronization status information reported by the UE and uplink space/time-frequency synchronization status information reported by the second node, where the space/time-frequency synchronization status information includes status information.

Optionally, the control parameter is further used to indicate one of: reporting all history record table information for describing the state of the beam forming worker; the reporting part is used for describing the historical record table information of the beam forming work sub-state; and reporting and extracting abstracted key event information based on a historical record table describing the state of the beam forming worker, wherein the key event information and the trigger condition of the key event information are predefined by the system.

Optionally, the apparatus further comprises: a processing module, configured to perform, by the first node, at least one of the following operations according to the state information of the sub-state of the beamforming operation: adjusting a Radio Resource Management (RRM) strategy; mobility and multi-connection data transmission of a communication node associated with the UE is operated.

Optionally, the control parameter includes at least one of: the method comprises the steps of working frequency point bandwidth information of a sending node and/or a receiving node governed by a second node, physical configuration information of a node/cell/beam, logic configuration information of the node/cell/beam, maximum effective duration information Tmax counted by BF sub-state records, and effective region information.

Fig. 11 is a block diagram showing another configuration of a state measuring apparatus according to an embodiment of the present invention, as shown in fig. 11, the apparatus including:

a receiving module 110, configured to receive a control parameter configured by a first node, where the control parameter is used to control the UE to record state information of a beamforming worker state associated with each activated radio beam;

a measurement module 112, configured to perform downlink spatial synchronization and downlink RRM measurement on a serving cell or a beam governed by a target beam forming BF offload base station node based on a control parameter;

the reporting module 114 is configured to report downlink space/time frequency synchronization status information and RRM measurement result information obtained by downlink space synchronization and downlink radio resource management RRM measurement to the first node, where the downlink space/time frequency synchronization status information includes status information.

Optionally, the measurement module 112 includes: the first measurement unit is used for carrying out beam tracking synchronization and measurement of first preset time on downlink public/private synchronization signals transmitted by beams dominated by a target beam forming BF shunting base station node based on control parameters when the UE carries out coarse synchronization training, so as to obtain state information of a first BF synchronization sub-state; and the second measurement unit is used for performing downlink RRM measurement on downlink common/dedicated pilot signals transmitted by beams governed by a target beam forming BF shunting base station node based on the control parameters when the UE performs coarse synchronization training, and obtaining downlink RRM measurement results of appointed beams already tracked synchronously and other beams not tracked synchronously and managed by the sending node and/or receiving nodes.

Optionally, the measurement module 112 includes: the third measurement unit is used for carrying out beam tracking synchronization and measurement of a second preset time on downlink public/private synchronization signals transmitted by beams governed by the target beam forming BF shunting base station node based on the control parameters when the UE carries out fine synchronization training, so as to obtain state information of a second BF synchronization sub-state; and the fourth measurement unit is used for performing downlink RRM measurement on downlink common/dedicated pilot signals transmitted by beams governed by the target beam forming BF shunting base station node based on the control parameters when the UE performs fine synchronization training, and obtaining downlink RRM measurement results of the appointed beams which are tracked synchronously and the other beams which are not tracked synchronously and are sent by the sending node and/or received by the sending node.

Fig. 12 is a block diagram of a further state measuring apparatus according to an embodiment of the present invention, as shown in fig. 12, the apparatus including:

a receiving module 120, configured to receive a control parameter configured by a first node, where the control parameter is used to control a second node to record state information of a beamforming worker state associated with each activated wireless beam;

a measurement module 122, configured to perform uplink spatial synchronization and uplink Radio Resource Management (RRM) measurement on User Equipment (UE) in a served cell or a beam under the jurisdiction based on the control parameter;

a reporting module 124, configured to report uplink space/time frequency synchronization status information and RRM measurement result information obtained by uplink space synchronization and uplink radio resource management RRM measurement to the first node, where the uplink space/time frequency synchronization status information includes status information.

Optionally, the measurement module 122 includes: the fifth measurement unit is used for carrying out beam tracking synchronization and measurement of first preset time on an uplink public/private synchronization signal transmitted by a beam dominated by the target beam forming BF shunting base station node based on the control parameter when the second node carries out coarse synchronization training, so as to obtain state information of a first BF synchronization sub-state; and the sixth measurement unit is used for performing uplink RRM measurement on the uplink common/dedicated pilot signal received by the beam governed by the target beam forming BF shunting base station node based on the control parameter when the second node performs coarse synchronization training, and obtaining uplink RRM measurement results of the specified beam which is tracked synchronously and other beams which are not tracked synchronously and governed by the sending and receiving node.

Optionally, the measurement module 122 includes: a seventh measurement unit, configured to perform, when performing fine synchronization training on the second node, beam tracking synchronization and measurement for a first preset time on an uplink common/dedicated synchronization signal transmitted by a beam dominated by a target beam forming BF shunting base station node based on the control parameter, so as to obtain state information of a second BF synchronization sub-state; and the eighth measurement unit is used for performing uplink RRM measurement on the uplink common/dedicated pilot signal received by the beam managed by the target beam forming BF shunting base station node based on the control parameter when the second node performs fine synchronization training, and obtaining uplink RRM measurement results of the specified beam which is tracked synchronously and other beams which are not tracked synchronously and managed by the sending and receiving node.

Fig. 13 is a block diagram of a configuration of a state measurement system according to an embodiment of the present invention, as shown in fig. 13, the system including: a first node 130, a second node 140, a user equipment UE160,

the first node 130 includes:

a configuration module 132, configured to configure a control parameter for the UE and the second node, where the control parameter is used to control the UE and the second node to record state information of a beamforming worker state associated with each activated radio beam;

a first receiving module 134, configured to receive downlink space/time-frequency synchronization status information reported by the UE and uplink space/time-frequency synchronization status information reported by the second node, where the space/time-frequency synchronization status information includes status information;

the UE160 includes:

a second receiving module 162, configured to receive the control parameter configured by the first node;

a first measurement module 164, configured to perform downlink spatial synchronization and downlink RRM measurement on a serving cell or a beam governed by a target beam forming BF offload base station node based on a control parameter;

a first reporting module 166, configured to report downlink space/time-frequency synchronization state information and RRM measurement result information obtained by downlink space synchronization and downlink radio resource management RRM measurement to the first node;

the second node 140 includes:

a third receiving module 142, configured to receive the control parameter configured by the first node;

a second measurement module 144, configured to perform uplink spatial synchronization and uplink Radio Resource Management (RRM) measurement on the user equipment UE in the governed serving cell or beam based on the control parameter;

a second reporting module 146, configured to report uplink space/time-frequency synchronization state information and RRM measurement result information obtained by uplink space synchronization and uplink radio resource management RRM measurement to the first node.

It should be noted that, the above modules may be implemented by software or hardware, and for the latter, the following may be implemented, but not limited to: the modules are all positioned in the same processor; alternatively, the modules are respectively located in different processors in any combination.

Example 3

The present embodiment includes three specific embodiments, which are used to explain and explain the present application by combining different scenarios:

detailed description of the preferred embodiment 1

Fig. 14 is a schematic diagram according to embodiment 1 of the present invention, as shown in fig. 14: an operator deploys and utilizes high-low frequency tight coupling to carry out double-connection DC operation, service macro cell coverage of Pcell is arranged on a certain authorized carrier where a low-frequency main control anchor node MeNB is located, a remote end is connected with an SeNB high-frequency shunt base station node through an X2 interface, and the SeNB node is provided with deployment of 1 TRP1 and 4 service Beams under jurisdiction on the certain high-frequency authorized carrier where the SeNB node is located, so that capacity enhancement in a hot spot area is realized.

At a certain time, the UE is under public/private coverage of Pcell + TRP1-Beams, so that the MeNB decides to configure relevant control parameters for recording statistical historical beamforming worker states for the UE facing a high-frequency target service node, the UE performs downlink beamforming worker state tracking recording and RRM measurement on the target TRP1-Beams, and by default, the UE needs to perform downlink synchronous tracking attempt on the target TRP 1-Beams. The non-BF low frequency MeNB node and BF high frequency SeNB node and UE both support the context capabilities of the present invention. The method comprises the following specific implementation steps:

step 101: the master control anchor point node MeNB configures Beam search, training and tracking and Beam downlink RRM measurement of a Beam towards a high-frequency target TRP1 node for the UE through RRC message RRC Connection Reconfiguration, and records and counts the operation of the historical Beam forming worker state related to the invention. The main control parameters include: working frequency point information of TRP1, cell physical configuration information, and maximum duration information Tmax for BF sub-state record statistics.

Step 102: the UE starts a related timer, starts to perform Beam tracking synchronization and measurement based on parameters configured by the MeNB, performs Beam training tracking through a downlink public/private synchronization signal transmitted by the Beam governed by TRP1, and after 10ms of synchronization training, the UE obtains a downlink BF coarse synchronization sub-state with the optimal Beam1 but cannot enter a BF fine synchronization sub-state, so that the UE records a record Entry and a related time/location stamp (information) of a first Beam1-BF coarse synchronization sub-state. The UE simultaneously carries out downlink RRM measurement through downlink public/private pilot signals transmitted by Beams governed by the TRP1, so that the UE obtains downlink RRM measurement results of other Beams 2/3/4 governed by the optimal Beam1 and TRP1 which have tracked synchronization, and records the downlink RRM measurement results together with a first Beam1-BF rough synchronization sub-state.

Step 103: as the timer continues to go, the UE continues to track synchronization and measure the target Beam, and after the UE has generated Beam Switch within TRP1, for example, the UE newly obtains a downlink "BF coarse synchronization substate" with the best Beam2, the UE records the record Entry and associated time/location stamp (information) of the second "Beam 2-BF coarse synchronization substate". The UE simultaneously carries out downlink RRM measurement through downlink common/private pilot signals transmitted by Beams governed by the TRP1, so that the UE obtains downlink RRM measurement results of the synchronized optimal Beam2 and other Beams 1/3/4 governed by the TRP1, and the downlink RRM measurement results are recorded together with a second Beam2-BF rough synchronization sub-state.

Step 104: the UE continues to track the measurement target Beam along with the continuous running of the timer when the BF desynchronization of the UE occurs

Thereafter, a downlink "Beam 2-BF out-of-sync substate" occurs, such as for the UE and the current best Beam2, whereupon the UE records the second

Three record entries Entry for "Beam 2-BF out-of-sync substate" and associated time/place stamps (information). UE simultaneous passing

Downlink common/special pilot frequency signals emitted by Beams governed by TRP1 are used for downlink RRM measurement, and UE obtains the loss of synchronization which just happens

The downlink RRM measurement results of other beams 1/3/4 governed by Beam2 and TRP1, and a third Beam2-BF desynchronizing

The sub-states "are recorded together.

Step 105: as time goes on, the UE timer reaches Tmax, so that the UE stops the recording and counting operation of the historical beamforming operation sub-state related to the present invention, and the UE may report that its recording and counting operation is completed to the MeNB through an RRC message, and there is a recording Entry in the local table. The UE still needs to keep tracking synchronization and measure the target Beams, try to maintain or recover the "BF coarse/fine synchronization sub-state", and continue the dual connectivity data transmission mode.

Step 106: and the MeNB requires the UE to report the historical beamforming work sub-state Information which is recorded and counted before through an RRC message UE Information Request. At this time, the UE may still be in the dual connectivity data transmission mode, and the real-time sub-states of the UE and the target Beams may be arbitrary.

Step 107: and the UE records statistical historical beamforming work sub-state Information before reporting to the MeNB through an RRC message UE Information Response. And after the successful report is finished, the UE deletes all record entries Entry in the emptied local record statistical table.

Step 108: and the MeNB can learn the change situation of the UE and the target TRP1-Beams downlink BF synchronizer state within a past period of time based on the result reported by the UE, decide to continue to establish high and low frequency DC dual connection operation for the served UE and the SeNB, and maintain the current transmission mode of the TRP1-Beams on the SeNB side.

Specific example 2

Fig. 15 is a schematic diagram according to specific embodiment 2 of the present invention, as shown in fig. 15: an operator deploys and utilizes NR high-low frequency tight coupling to carry out three connection operations, a service macro cell of a Pcell covers a certain authorized carrier where a low-frequency non-BF mode main control anchor point node NR BS is located, a BF mode NR BS high-frequency shunt base station node is connected at a far end through an NR Xnew interface, a certain high-frequency authorized carrier where the NR BS node is located has TRP1 and TRP2, and the NR BS node and the TRP BS node respectively manage 4 service Beams for capacity enhancement of a hotspot area.

The UE is under public/private coverage of Pcell + TRP1-Beams + TRP2-Beams at a certain time, so that a non-BF low-frequency main control NR BS determines to configure measurement parameters facing a BF mode high-frequency target service node for the UE, the UE carries out downlink tracking synchronization and RRM measurement on target TRP1-Beams and TRP2-Beams, sub-state information of statistical historical beam forming work is recorded, and by default, the UE needs to carry out downlink synchronization tracking attempt on target TRP1-Beams and TRP 2-Beams. Both the non-BF mode low frequency NR BS nodes and BF mode high frequency NR BS nodes and UEs support the context capabilities of the present invention. The method comprises the following specific implementation steps:

step 201: the method comprises the steps that a non-BF low-frequency NR BS of a main control anchor point node is configured for Beam search, training and tracking and downlink RRM Measurement of Beams of a UE facing a high-frequency target TRP1/2 node through RRC message registered Measurement Configuration, and relevant operation of recording and counting historical Beam forming work sub-states is carried out. The main control parameters include: working frequency point information of TRP1/2, cell physical configuration information, and maximum duration information Tmax for BF sub-state record statistics.

Step 202: the UE starts a related timer, starts to carry out Beam tracking synchronization and measurement based on parameters configured by a non-BF low-frequency NR BS, carries out Beam training tracking through a downlink public/private synchronization signal transmitted by the Beam controlled by TRP1, and after 5ms of synchronization training, the UE obtains a downlink BF coarse synchronization sub-state with the best Beam1, so that the UE records a first record Entry and a related time/place stamp (information) of the TRP1-Beam1-BF coarse synchronization sub-state; the UE simultaneously carries out downlink RRM measurement through downlink public/private pilot signals transmitted by Beams governed by the TRP1, so that the UE obtains downlink RRM measurement results of other Beams 2/3/4 governed by the optimal Beam1 and TRP1 which have tracked synchronization, and records the downlink RRM measurement results together with a first TRP1-Beam1-BF rough synchronization sub-state. After 1ms of synchronization training, the UE further enters a downstream "BF fine synchronization substate" with the best Beam1, and the UE records the record Entry and associated time/location stamp (information) of the second "TRP 1-Beam1-BF fine synchronization substate". The UE simultaneously carries out downlink RRM measurement through downlink common/private pilot signals transmitted by Beams governed by the TRP1, so that the UE obtains downlink RRM measurement results of other Beams 2/3/4 governed by the optimal Beams 1 and TRP1 which have tracked synchronization, and records the downlink RRM measurement results together with a second TRP1-Beams 1-BF fine synchronization sub-state. Similarly, for TRP2, the UE needs to perform a similar tracking synchronization measurement operation for TRP1, assuming that the UE also obtains a downlink "BF coarse synchronization sub-state" and a downlink "BF fine synchronization sub-state" in sequence with the best Beam2 governed by TRP2, the UE also records corresponding sub-state information, time/location stamp (information), and downlink RRM measurement result: the third "TRP 2-Beam2-BF coarse synchronizer state" and the fourth "TRP 2-Beam2-BF fine synchronizer state".

Step 203: as the timer goes on, the UE continues to track the target Beam governed by the synchronization and measurement TRP1/2, respectively, and after the UE has generated Beam Switch within TRP1, for example, the UE has newly acquired a downlink "BF coarse synchronization sub-state" with the best Beam2, then the UE records the record Entry and associated time/location stamp (information) and RRM measurement result of the fifth "TRP 1-Beam2-BF coarse synchronization sub-state", but then the UE and the current best Beam2 have generated a downlink "TRP 1-Beam2-BF out-of-step sub-state", then the UE records the record Entry and associated time/location stamp (information) and RRM measurement result of the sixth "TRP 1-Beam2-BF out-of-step sub-state". Similarly, for TRP2, the UE needs to perform a similar tracking synchronization measurement operation for TRP1, and assuming that after the UE generates a Beam Switch in TRP2, it obtains a downlink "BF coarse synchronization sub-state" and a downlink "BF fine synchronization sub-state" in sequence with the best Beam3 governed by TRP2, and the UE also records corresponding sub-state information, a time/location stamp (information), and a downlink RRM measurement result: the seventh "TRP 2-Beam3-BF coarse Sync State" and the eighth "TRP 2-Beam3-BF Fine Sync State".

Step 204: as the timer continues to go over time, the UE continues to track the targets governed by the synchronization and measurement TRP1/2, respectively

Beam, during the process that the UE performs the tracking synchronization measurement operation facing to TRP1, the best governed UE and TRP1 are assumed

The Beam3 successively obtains the downlink BF coarse synchronization sub-state and the downlink BF out-of-step sub-state, and the UE correspondingly records

Corresponding sub-state change information, time/location stamp (information) and downlink RRM measurement results: the ninth item "TRP 1-Beam3-BF

Coarse synchronizer State "and the tenth" TRP1-Beam3-BF out-of-synchronization substate ". Note: RL occurrence between UE and TRP1

Multiple out-of-sync substates are shown, indicating that this RL is not well suited for data splitting.

Step 205: as time goes on, the UE timer reaches Tmax, so that the UE stops the recording and counting operation of the historical beamforming operation sub-state related to the present invention, and the UE may report that its recording and counting operation is completed to the non-BF low-frequency NR BS through an RRC message, and there is a recording Entry in the local table. The UE still needs to keep tracking synchronization and measure the target Beams, try to maintain or recover the "BF coarse/fine synchronization sub-state", and continue the three-connection data transmission mode.

Step 206: and the non-BF low-frequency NR BS of the main control anchor node requires the UE to report the historical beamforming work sub-state Information which is recorded and counted before through an RRC message UE Information Request. At this time, the UE may still be in the three-connection data transmission mode, and the real-time sub-states of the UE and the target Beams may be arbitrary.

Step 207: and the UE reports the recorded and counted historical beamforming work sub-state Information before the low frequency of the main control anchor node is not BF to the main control anchor node through RRC Information Response. And after the successful report is finished, the UE deletes all record entries Entry in the emptied local record statistical table.

Step 208: the non-BF low frequency of the main control anchor point node can learn the change situation of the UE in the past period and the downlink BF synchronizer state of the target TRP1/2-Beams, decide to delete RL between the UE and the TRP1, enable the UE to only perform double connection operation with the TRP2, and maintain the current emission mode of the TRP2-Beams at the BF high frequency NR BS side.

Specific example 3

Fig. 16 is a schematic diagram according to specific embodiment 3 of the present invention, as shown in fig. 16: an operator deploys and utilizes NR high-low frequency tight coupling to carry out double connection operation, a service macro cell of a Pcell covers a certain authorized carrier where a low-frequency main control anchor point node NR BS is located, a remote end is connected with an NR BS high-frequency shunt base station node through an NR Xnew interface, the certain high-frequency authorized carrier where the NRBS node is located is provided with TRP1 and TRP2, and the NRBS node and the high-frequency authorization carrier respectively manage 4 service Beams for capacity enhancement of a hot spot area.

The UE is under public/private coverage of Pcell + TRP1-Beams + TRP2-Beams at a certain time, so that a non-BF low-frequency main control NR BS determines to configure measurement parameters of a related high-frequency target service node for the UE, the UE carries out downlink RRM measurement on target TRP1-Beams and TRP2-Beams, sub-state information of historical beamforming work is recorded, and by default, the UE needs to carry out downlink synchronous tracking attempt on target TRP1-Beams and TRP 2-Beams. Both the non-BF low frequency NR BS nodes and BF high frequency NR BS nodes and UEs support the context capabilities of the present invention. The method comprises the following specific implementation steps:

step 301: the non-BF low-frequency NR BS of the main control anchor node is configured for Beam search, training and tracking of a high-frequency target TRP1/2 node-oriented Beam RRM measurement of the Beam by the UE through RRC message RRC Connection Reconfiguration, and relevant operation of recording and counting historical Beam forming work sub-states is carried out. The main control parameters include: working frequency point information of TRP1/2, cell physical configuration information, and event evaluation information for BF sub-state record statistics.

The event is defined as: when the UE aims at the same Beam in the Twin observation window, if two or more downlink BF out-of-step sub-states occur, the UE triggers and reports the event to the non-BF low-frequency NR BS.

Step 302: the UE starts to carry out Beam tracking synchronization and measurement based on parameters configured by a non-BF low-frequency NR BS, Beam training tracking is carried out through a downlink public/private synchronization signal transmitted by the Beam governed by TRP1, after 10ms of synchronization training, the UE obtains a downlink BF coarse synchronization sub-state of the best Beam4, and then the UE records a recording Entry and a related time/place stamp (information) of a first TRP1-Beam4-BF coarse synchronization sub-state; the UE simultaneously carries out downlink RRM measurement through downlink public/private pilot signals transmitted by Beams governed by the TRP1, so that the UE obtains downlink RRM measurement results of other Beams 1/2/3/governed by the optimal Beam4 and TRP1 which have tracked synchronization, and the downlink RRM measurement results are recorded together with a first TRP1-Beam4-BF rough synchronization sub-state. After 2ms of synchronization training, the UE further enters a downstream "BF fine synchronization substate" with the best Beam4, and the UE records the Entry and associated time/location stamp (information) of the second "TRP 1-Beam4-BF fine synchronization substate". The UE simultaneously carries out downlink RRM measurement through downlink public/private pilot signals transmitted by Beams governed by TRP1, so that the UE obtains downlink RRM measurement results of other Beams 1/2/3/governed by the optimal Beams 4 and TRP1 which have tracked synchronization, and records the downlink RRM measurement results together with a second 'TRP 1-Beams 4-BF fine synchronization sub-state'. Similarly, for TRP2, the UE needs to perform a similar tracking synchronization measurement operation for TRP1, assuming that the best Beam3 governed by the UE and TRP2 obtains a downlink "BF coarse synchronization sub-state" and a downlink "BF fine synchronization sub-state" in sequence, the UE also records corresponding sub-state information, time/location stamp (information), and downlink RRM measurement result: the third "TRP 2-Beam3-BF coarse synchronizer state" and the fourth "TRP 2-Beam3-BF fine synchronizer state". Since the UE is limited in capability to do only dual connectivity operation, the UE can only establish and activate the RL of TRP1 for the time being while establishing the RL that is maintained but not activating TRP 2. The RL on the TRP2 side is equivalently preconfigured and cannot be used for data offloading transmission before being activated, and the UE needs to maintain sub-state information related to downlink tracking synchronization/recording statistics.

Step 303: over time, the UE continues to track and measure the target Beam dominated by TRP1/2 respectively, and when the UE occurs and the current best Beam4 in TRP1 descends "TRP 1-Beam4-BF out-of-step sub-state", then the UE records the fifth record Entry of "TRP 1-Beam4-BF out-of-step sub-state" and the associated time/location stamp (information) and RRM measurement result, the UE starts the UE promoter state event evaluation timer. Similarly, for TRP2, the UE needs to perform a similar tracking synchronization measurement operation for TRP1, and assuming that after the UE generates a Beam Switch in TRP2, it obtains a downlink "BF coarse synchronization sub-state" and a downlink "BF fine synchronization sub-state" in sequence with the best Beam1 governed by TRP2, and the UE also records corresponding sub-state information, a time/location stamp (information), and a downlink RRM measurement result: the sixth "TRP 2-Beam1-BF coarse Sync State" and the seventh "TRP 2-Beam1-BF Fine Sync State".

Step 304: over time, the UE continues to track the targets dominated by the synchronization and measurement TRP1/2 respectively

The Beam4 successively obtains the downlink BF coarse synchronization sub-state and the downlink BF out-of-step sub-state again, and the UE records the BF coarse synchronization sub-state and the downlink BF out-of-step sub-state correspondingly

Recording the corresponding sub-state change information, time/place stamp (information) and downlink RRM measurement result: eighth Bar

"TRP 1-Beam4-BF rough synchronizer State" and the ninth "TRP 1-Beam4-BF out-of-step synchronizer State". Note: since the "TRP 1-Beam4-BF out-of-sync substate" again occurs for TRP1-Beam4 that had been out-of-sync before, and at this point the event evaluation timer has not timed out < Twin, the UE needs to trigger reporting of the event to the non-BF low frequency NR BS. The RL out-of-sync substate occurs many times in a short time between the UE and TRP1, which indicates that the RL is not well suited for data offloading.

Step 305: when the defined evaluation event is triggered, the UE may Report its own record statistical result to the non-BF low-frequency NR BS through an RRC message Measurement Report, and the local table has a record Entry. And after the successful report is finished, the UE deletes all record entries Entry in the emptied local record statistical table. The UE still needs to keep tracking synchronization and measure the target Beams, try to maintain or recover the "BF coarse/fine synchronization sub-state", and continue the dual connectivity data transmission mode.

Step 306: the non-BF low frequency of the main control anchor point node can learn the change situation of the UE and the downlink BF synchronizer state of the target TRP1/2-Beams in a period of time in the past, decide to deactivate the RL between the UE and the TRP1, activate the RL between the UE and the TRP2 which is pre-configured before, enable the UE to perform double-connection operation with the TRP2 again, and maintain the current transmission mode of the TRP1/2-Beams on the BF high-frequency NR BS side.

Example 4

The embodiment of the invention also provides a storage medium. Alternatively, in the present embodiment, the storage medium may be configured to store program codes for performing the following steps:

s1, configuring control parameters for the user equipment UE and the second node, wherein the control parameters are used for controlling the UE and the second node to record the state information of the beam forming work sub-state related to each activated wireless beam;

s2, receiving downlink space/time-frequency synchronization status information reported by the UE and uplink space/time-frequency synchronization status information reported by the second node, where the space/time-frequency synchronization status information includes status information.

Optionally, in this embodiment, the storage medium may include, but is not limited to: a U-disk, a Read-Only Memory (ROM), a Random Access Memory (RAM), a removable hard disk, a magnetic or optical disk, and other various media capable of storing program codes.

Optionally, in this embodiment, the processor performs, according to a program code stored in the storage medium, configuration of a control parameter to the user equipment UE and the second node, where the control parameter is used to control the UE and the second node to record state information of a beamforming worker state associated with each activated radio beam;

optionally, in this embodiment, the processor executes, according to a program code stored in the storage medium, receiving downlink space/time frequency synchronization status information reported by the UE and uplink space/time frequency synchronization status information reported by the second node, where the space/time frequency synchronization status information includes status information.

Optionally, the specific examples in this embodiment may refer to the examples described in the above embodiments and optional implementation manners, and this embodiment is not described herein again.

It will be apparent to those skilled in the art that the modules or steps of the present invention described above may be implemented by a general purpose computing device, they may be centralized on a single computing device or distributed across a network of multiple computing devices, and alternatively, they may be implemented by program code executable by a computing device, such that they may be stored in a storage device and executed by a computing device, and in some cases, the steps shown or described may be performed in an order different than that described herein, or they may be separately fabricated into individual integrated circuit modules, or multiple ones of them may be fabricated into a single integrated circuit module. Thus, the present invention is not limited to any specific combination of hardware and software.

The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention, and various modifications and changes may be made by those skilled in the art. Any modification, equivalent replacement, or improvement made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A method of condition measurement, comprising:

a first node configures control parameters for User Equipment (UE) and a second node, wherein the control parameters are used for controlling the UE and the second node to record state information of beam forming work sub-states related to activated wireless beams;

the first node receives downlink space/time frequency synchronization state information reported by the UE and uplink space/time frequency synchronization state information reported by the second node, wherein the space/time frequency synchronization state information comprises the state information; wherein, before the first node configures the control parameters to the UE, the method further comprises:

the first node determines that the UE is in a beam forming BF out-of-step sub-state, wherein the BF out-of-step sub-state is used for describing a synchronization relation between the UE and time frequency of a downlink space which is not formed by the UE and any service beam, and in the BF out-of-step sub-state, the UE clears internal variables or related log contents of state information recorded with historical beam forming work sub-state information.

2. The method of claim 1, wherein the control parameters are carried in radio resource control, RRC, signaling when the first node configures the control parameters to the UE.

3. The method of claim 1, wherein when a first node configures a control parameter to a second node, the control parameter is carried in node interface signaling, and wherein the node interface comprises: an X2 interface.

4. The method of claim 1, wherein prior to the first node configuring the control parameters to the second node, the method further comprises:

and the first node determines that the second node is in a beam forming BF out-of-step sub-state, wherein the BF out-of-step sub-state is used for describing a synchronization relation between the second node and any service beam forming uplink space time frequency when the second node does not start uplink beam training, and the second node clears internal variables or related log contents of state information recorded with historical beam forming work sub-state information in the BF out-of-step sub-state.

5. The method of claim 1, wherein the control parameter is further configured to indicate one of:

6. The method of claim 1, wherein after the first node receives the downlink spatial/time-frequency synchronization status information reported by the UE and the uplink spatial/time-frequency synchronization status information reported by the second node, the method further comprises:

the first node performs at least one of the following operations according to the state information of the beamforming work substate:

adjusting a Radio Resource Management (RRM) strategy;

operating mobility and multi-connection data transmission of a communication node associated with the UE.

7. The method of claim 1, wherein the first node is a master anchor node and the second node is a target BF offload base station node.

8. The method according to any of claims 1 to 7, wherein the control parameters comprise at least one of: the working frequency point bandwidth information of the sending node and/or the receiving node governed by the second node, the physical configuration information of the node/cell/beam, the logic configuration information of the node/cell/beam, the maximum effective duration information Tmax counted by BF sub-state records, and the effective region information.

9. A method of condition measurement, comprising:

user Equipment (UE) receives control parameters configured by a first node, wherein the control parameters are used for controlling the UE to record state information of beam forming working sub-states related to all activated wireless beams;

the UE carries out downlink space synchronization and downlink Radio Resource Management (RRM) measurement on a serving cell or a beam governed by a target beam forming BF shunting base station node based on the control parameters;

the UE reports downlink space/time frequency synchronization state information and RRM measurement result information obtained by measuring the downlink space synchronization and downlink radio resource management RRM to the first node, wherein the downlink space/time frequency synchronization state information comprises the state information; the method for receiving the control parameter configured by the first node by the User Equipment (UE) comprises the following steps:

and under the condition that the first node determines that the UE is in a beamforming BF out-of-step sub-state, the UE receives a control parameter configured by the first node, wherein the BF out-of-step sub-state is used for describing a synchronization relation between the UE and a time frequency of a downlink space formed by the UE and a beam of any service, and under the BF out-of-step sub-state, the UE clears an internal variable or related log content of state information recorded with historical beamforming working sub-state information.

10. The method of claim 9, wherein when the UE performs coarse synchronization training, the UE performing downlink spatial synchronization and downlink RRM measurement on a serving cell or a beam served by a target beam forming BF offload base station node based on the control parameter comprises:

the UE carries out beam tracking synchronization and measurement of first preset time on downlink public/private synchronization signals transmitted by beams governed by the target beam forming BF shunting base station node based on the control parameters to obtain state information of a first BF synchronization sub-state;

and the UE carries out downlink RRM measurement on downlink common/dedicated pilot signals transmitted by beams governed by the target beam forming BF shunting base station node based on the control parameters, and acquires downlink RRM measurement results of appointed beams which are tracked synchronously and transmitting nodes and/or other beams which are not tracked synchronously and governed by the transmitting nodes.

11. The method of claim 9, wherein when the UE performs fine synchronization training, the UE performing downlink spatial synchronization and downlink RRM measurement on a serving cell or a beam served by a target beam forming BF offload base station node based on the control parameter comprises:

the UE carries out beam tracking synchronization and measurement of a second preset time on a downlink public/private synchronization signal transmitted by a beam dominated by the target beam forming BF shunting base station node based on the control parameter to obtain state information of a second BF synchronization sub-state;

12. The method according to claim 10 or 11, wherein the state information of the BF synchronization sub-states each comprise: time stamp information, location information, where the beam entry is statistically recorded.

13. The method according to claim 9, wherein after the UE reports downlink spatial/time-frequency synchronization status information and RRM measurement result information obtained by the downlink spatial synchronization and downlink RRM measurement to the first node, the method further comprises:

and the UE deletes the downlink space/time frequency synchronization state information.

14. The method according to any of claims 9 to 13, wherein the control parameters comprise at least one of: the target BF distributes bandwidth information of a sending node and/or a received working frequency point governed by a base station node, logic configuration information of a node/cell/beam, logic configuration information of the node/cell/beam, maximum effective duration information Tmax counted by BF sub-state records and effective region information.

15. A method of condition measurement, comprising:

a second node receives a control parameter configured by a first node, wherein the control parameter is used for controlling the second node to record state information of a beam forming work sub-state related to each activated wireless beam;

the second node carries out uplink space synchronization and uplink Radio Resource Management (RRM) measurement on User Equipment (UE) in the managed serving cell or beam based on the control parameters;

the second node reports uplink space/time frequency synchronization state information and RRM measurement result information obtained by uplink space synchronization and uplink radio resource management RRM measurement to the first node, wherein the uplink space/time frequency synchronization state information comprises the state information; the second node receives the control parameter configured by the first node, and the method comprises the following steps:

and under the condition that the first node determines that the UE is in a beamforming BF out-of-step sub-state, the second node receives a control parameter configured by the first node, wherein the BF out-of-step sub-state is used for describing a synchronization relation between the UE and a time frequency of a downlink space formed by the UE and a beam of any service, and under the BF out-of-step sub-state, the UE clears internal variables or related log contents of state information recorded with historical beamforming working sub-state information.

16. The method of claim 15, wherein the second node performs uplink spatial synchronization and uplink Radio Resource Management (RRM) measurement on User Equipment (UE) in the governed serving cell or beam based on the control parameter when performing coarse synchronization training at the second node comprises:

the second node carries out beam tracking synchronization and measurement of first preset time on uplink public/private synchronization signals transmitted by beams dominated by a target beam forming BF shunting base station node based on the control parameters to obtain state information of a first BF synchronization sub-state;

and the second node performs uplink RRM measurement on the uplink common/dedicated pilot signals received by the beams governed by the target beam forming BF shunting base station node based on the control parameters, and obtains uplink RRM measurement results of the appointed beams which are tracked synchronously and other beams which are not tracked synchronously and governed by the sending and receiving node.

17. The method of claim 15, wherein the second node performs uplink spatial synchronization and uplink Radio Resource Management (RRM) measurement on User Equipment (UE) in the governed serving cell or beam based on the control parameter when performing fine synchronization training by the second node comprises:

the second node carries out beam tracking synchronization and measurement of first preset time on uplink public/private synchronization signals transmitted by beams dominated by the target beam forming BF shunting base station node based on the control parameters to obtain state information of a second BF synchronization sub-state;

18. The method according to claim 16 or 17, wherein the state information of the BF sync sub-state comprises: time stamp information, location information, where the beam entry is statistically recorded.

19. The method according to claim 15, wherein after the second node reports uplink spatial/time-frequency synchronization status information and RRM measurement result information obtained by the uplink spatial synchronization and uplink radio resource management, RRM, measurement to the first node, the method further comprises:

and the second node deletes the uplink space/time frequency synchronization state information.

20. The method according to any of claims 15 to 19, wherein the control parameters comprise at least one of: the working frequency point bandwidth information of the sending and receiving node governed by the second node, the physical configuration information of the node/cell/beam, the logic configuration information of the node/cell/beam, the maximum effective duration information Tmax counted by BF sub-state records, and the effective region information.

21. A state measurement apparatus applied in a first node, comprising:

a configuration module, configured to configure a control parameter for a user equipment UE and a second node, where the control parameter is used to control the UE and the second node to record state information of a beamforming worker state associated with each activated radio beam;

a receiving module, configured to receive downlink space/time-frequency synchronization status information reported by the UE and uplink space/time-frequency synchronization status information reported by the second node, where the space/time-frequency synchronization status information includes the status information; the configuration module is further configured to determine, by the first node, that the UE is in a BF out-of-sync sub-state for beamforming, where the BF out-of-sync sub-state is used to describe a synchronization relationship between a time frequency and a downlink space that is not formed by the UE and a beam of any service, and in the BF out-of-sync sub-state, the UE clears an internal variable or a related log content recorded with state information of historical beamforming work sub-state information.

22. The apparatus of claim 21, wherein the control parameter is further configured to indicate one of:

23. The apparatus of claim 21, further comprising:

a processing module, configured to perform at least one of the following operations according to the state information of the beamforming worksub-state:

adjusting a Radio Resource Management (RRM) strategy;

24. The apparatus of any one of claims 21 to 23, wherein the control parameter comprises at least one of: the working frequency point bandwidth information of the sending node and/or the receiving node governed by the second node, the physical configuration information of the node/cell/beam, the logic configuration information of the node/cell/beam, the maximum effective duration information Tmax counted by BF sub-state records, and the effective region information.

25. A status measurement device applied in a UE, comprising:

a receiving module, configured to receive a control parameter configured by a first node, where the control parameter is used to control the UE to record state information of a beamforming worker state related to each activated radio beam;

the measurement module is used for carrying out downlink space synchronization and downlink Radio Resource Management (RRM) measurement on a serving cell or a beam governed by a target beam forming BF shunting base station node based on the control parameters;

a reporting module, configured to report downlink space/time-frequency synchronization state information and RRM measurement result information obtained by the downlink space synchronization and downlink radio resource management RRM measurement to the first node, where the downlink space/time-frequency synchronization state information includes the state information; the receiving module is configured to receive, by the UE, a control parameter configured by the first node when the first node determines that the UE is in a BF out-of-synchronization sub-state for beamforming, where the BF out-of-synchronization sub-state is used to describe a synchronization relationship between the UE and a time frequency of a downlink space formed by the UE and no downlink beam training is started, and the UE clears an internal variable or related log content of state information recorded with historical beamforming work sub-state information in the BF out-of-synchronization sub-state.

26. The apparatus of claim 25, wherein the measurement module comprises:

a first measurement unit, configured to perform, when the UE performs coarse synchronization training, beam tracking synchronization and measurement for a first preset time on a downlink common/dedicated synchronization signal transmitted by a beam dominated by the target beam forming BF offload base station node based on the control parameter, so as to obtain state information of a first BF synchronization sub-state;

and the second measurement unit is used for performing downlink RRM measurement on downlink common/dedicated pilot signals transmitted by beams governed by the target beam forming BF shunting base station node based on the control parameters when the UE performs coarse synchronization training, and obtaining downlink RRM measurement results of specified beams already tracked synchronously and other beams not tracked synchronously and transmitted by the transmitting node and/or received.

27. The apparatus of claim 25, wherein the measurement module comprises:

a third measurement unit, configured to perform, when the UE performs fine synchronization training, beam tracking synchronization and measurement for a second preset time on a downlink common/dedicated synchronization signal transmitted by a beam dominated by the target beam forming BF offload base station node based on the control parameter, so as to obtain state information of a second BF synchronization sub-state;

and a fourth measurement unit, configured to perform downlink RRM measurement on a downlink common/dedicated pilot signal transmitted by a beam governed by the target beam forming BF offload base station node based on the control parameter when the UE performs fine synchronization training, and obtain a downlink RRM measurement result of a specified beam already tracked in synchronization and a downlink RRM measurement result of a transmitting node and/or receiving other beams not tracked in synchronization governed by the transmitting node.

28. A state measurement apparatus applied in a second node, comprising:

a receiving module, configured to receive a control parameter configured by a first node, where the control parameter is used to control the second node to record state information of a beamforming worker state associated with each activated wireless beam;

the measurement module is used for carrying out uplink space synchronization and uplink Radio Resource Management (RRM) measurement on User Equipment (UE) in the managed serving cell or beam based on the control parameters;

a reporting module, configured to report uplink space/time-frequency synchronization state information and RRM measurement result information obtained by uplink space synchronization and uplink radio resource management RRM measurement to the first node, where the uplink space/time-frequency synchronization state information includes the state information; the receiving module is configured to receive, by the second node, a control parameter configured by the first node when the first node determines that the UE is in a BF out-of-synchronization sub-state for beamforming, where the BF out-of-synchronization sub-state is used to describe a synchronization relationship between the UE and a time frequency of a downlink space formed by the UE and a beam of any service, where in the BF out-of-synchronization sub-state, the UE clears an internal variable or related log content of state information recorded with state information of historical beamforming work sub-state information.

29. The apparatus of claim 28, wherein the measurement module comprises:

a fifth measurement unit, configured to perform, when the second node performs coarse synchronization training, beam tracking synchronization and measurement for a first preset time on an uplink common/dedicated synchronization signal transmitted by a beam dominated by a target beam forming BF shunting base station node based on the control parameter, so as to obtain state information of a first BF synchronization sub-state;

a sixth measurement unit, configured to perform uplink RRM measurement on the uplink common/dedicated pilot signal received by the beam governed by the target beam forming BF offload base station node based on the control parameter when the second node performs coarse synchronization training, and obtain uplink RRM measurement results of the specified beam already tracked in synchronization and other beams not tracked in synchronization governed by the sending and receiving node.

30. The apparatus of claim 28, wherein the measurement module comprises:

a seventh measurement unit, configured to perform, when the second node performs fine synchronization training, beam tracking synchronization and measurement for a first preset time on an uplink common/dedicated synchronization signal transmitted by a beam dominated by a target beam forming BF shunting base station node based on the control parameter, so as to obtain state information of a second BF synchronization sub-state;

and an eighth measurement unit, configured to perform uplink RRM measurement on the uplink common/dedicated pilot signal received by the beam governed by the target beam forming BF offload base station node based on the control parameter when the second node performs fine synchronization training, and obtain uplink RRM measurement results of the specified beam already tracked in synchronization and other beams not tracked in synchronization governed by the sending and receiving node.

31. A condition measurement system comprising: a first node, a second node, a user equipment, UE,

the first node comprises:

a first receiving module, configured to receive downlink space/time-frequency synchronization state information reported by the UE and uplink space/time-frequency synchronization state information reported by the second node, where the space/time-frequency synchronization state information includes the state information, and the configuration module is further configured to determine, by the first node, that the UE is in a BF out-of-step sub-state for beamforming, where the BF out-of-step sub-state is used to describe that the UE does not start downlink beamforming training and does not form a downlink space time-frequency synchronization relationship with any serving beam, and in the BF out-of-step sub-state, the UE clears an internal variable or related log content of state information recorded with historical beamforming work sub-state information;

the UE includes:

the second receiving module is used for receiving the control parameters configured by the first node;

a first measurement module, configured to perform downlink spatial synchronization and downlink radio resource management RRM measurement on a serving cell or a beam governed by a target beam forming BF offload base station node based on the control parameter;

a first reporting module, configured to report downlink space/time-frequency synchronization state information and RRM measurement result information obtained by downlink space synchronization and downlink radio resource management RRM measurement to the first node, where the second receiving module is configured to receive, by the UE, a control parameter configured by the first node when the first node determines that the UE is in a beam forming BF out-of-step sub-state, where the BF out-of-step sub-state is used to describe that the UE does not start downlink beam training and does not form a downlink space time-frequency synchronization relationship with any serving beam, and in the BF out-of-step sub-state, the UE clears an internal variable or a related log content of state information recorded with historical beam forming work sub-state information;

the second node comprises:

a third receiving module, configured to receive a control parameter configured by the first node;

a second measurement module, configured to perform uplink spatial synchronization and uplink Radio Resource Management (RRM) measurement on User Equipment (UE) in a serving cell or a beam under the jurisdiction based on the control parameter;

a second reporting module, configured to report uplink space/time-frequency synchronization state information and RRM measurement result information obtained by uplink space synchronization and uplink radio resource management RRM measurement to the first node; the third receiving module is configured to receive, by the second node, a control parameter configured by the first node when the first node determines that the UE is in a BF out-of-synchronization sub-state for beamforming, where the BF out-of-synchronization sub-state is used to describe a synchronization relationship between the UE and a time frequency of a downlink space formed by the UE and no downlink beam training is started, and in the BF out-of-synchronization sub-state, the UE clears an internal variable or related log content of state information recorded with state information of historical beamforming work sub-state information.

32. The system of claim 31, wherein the first node is a master anchor node and the second node is a target BF offload base station node.