Measurement method, device, related equipment and storage medium

Abstract

The present application discloses a measurement method, an apparatus, a terminal, a network device, and a storage medium, in which the method includes: a terminal obtains first information, which is information related to a measurement of a first cell, and the measurement of the first cell includes at least one of Layer 1 measurement, candidate beam detection (CBD), beam failure detection (BFD), and radio link monitoring (RLM).

Description

[Technical field]

[0001] (CROSS REFERENCE TO RELATED APPLICATIONS) This application is filed based on and claims priority to a Chinese patent application having application number 202210130197.5 and filing date of February 11, 2022, the entire contents of which are hereby incorporated by reference into this application. The present application relates to wireless communication technology, and in particular to a measurement method, an apparatus, an associated device, and a storage medium. [Background technology]

[0002] In the related technology, for mobility operation, first, a handover to a target cell is performed based on the measurement results of Layer 3 (L3) reported by the terminal, and then, in the target cell, a transmission configuration indication state (TCI state) is configured via a radio resource control (RRC) reconfiguration message based on the reported results of beam management, so that the terminal can select an appropriate downlink beam to receive data.

[0003] However, the above beam management is performed only in the serving cell, and data transmission and reception is also performed only in the serving cell. Summary of the Invention [Problem to be solved by the invention]

[0004] To solve the problems in the related art, embodiments of the present application provide a measurement method, an apparatus, related instruments and a storage medium. [Means for solving the problem]

[0005] The technical aspects of the embodiments of the present application are realized as follows.

[0006] An embodiment of the present application is a measurement method applied to a terminal, comprising: obtaining first information relating to a measurement of a first cell, the measurement of the first cell comprising: Layer 1 (L1) measurements and Candidate Beam Detection (CBD) and Beam Failure Detection (BFD) and and Radio Link Monitoring (RLM).

[0007] In the above aspect, the first cell includes a non-serving cell or a cell having a physical cell identifier (PCI) different from that of the serving cell.

[0008] In the above aspect, the first information includes a first factor to be applied to a measurement period.

[0009] In the above aspect, the first factor is Percentages and Positive numbers and Fractions and one of them, When the reference symbol of the serving cell and the reference symbol of the first cell have a partial overlap, the first factor=K1 / (1-A / B), or the first factor=K1 / (1-B / A), where K1 is a positive number, A represents the period of the reference symbol of L1 of the first cell, and B represents the period of the reference symbol of L1 of the serving cell; If there is a partial overlap between the reference symbol of the first cell and the measurement interval, then the first factor=K2 / (1-A / Z), where K2 is a positive number, A represents the period of the reference symbol of L1 of the first cell, and Z represents the period of the measurement interval; If there is partial overlap between the reference symbols of the serving cell and the reference symbols of the first cell and there is partial overlap between the reference symbols of the first cell and the measurement interval, the first factor = K3 / (1-A / BA / Z), or the first factor = K3 / (1-B / AA / Z), or the first factor = K3 / (1-B / AB / Z), where K3 is a positive number, A represents the period of the L1 reference symbols of the first cell, Z represents the period of the measurement interval, and B represents the period of the L1 reference symbols of the serving cell.

[0010] In the above aspect, the first factor is When there is an overlap between the reference symbol of the serving cell and the reference symbol of the first cell, the first factor is related to a parameter A and a parameter B, the parameter A represents a period of the reference symbol of the L1 of the first cell, and the parameter B represents a period of the reference symbol of the L1 of the serving cell; When there is an overlap between the reference symbol of the first cell and the measurement interval, the first factor is related to a parameter A and a parameter Z, where the parameter A represents a period of the reference symbol of L1 of the first cell and the parameter Z represents a period of the measurement interval; When there is an overlap between the reference symbol of the serving cell and the reference symbol of the first cell, and there is an overlap between the reference symbol of the first cell and the measurement interval, the first factor is related to parameter A, parameter B and parameter Z, and satisfies one of the following: parameter A represents the period of the reference symbol of L1 of the first cell, parameter Z represents the period of the measurement interval, and parameter B represents the period of the reference symbol of L1 of the serving cell.

[0011] In the above aspect, the first information includes a second factor to be applied to the measurement period.

[0012] In the above aspect, the second factor is Percentages and Positive numbers and Fractions and one of them, If there is a partial overlap between the L1 reference symbol of the first cell and the L3 reference symbol of the second cell, the second factor=M1 / (1-A / C), or the second factor=M1 / (1-C / A), where M1 is a positive number, A represents the period of the L1 reference symbol of the first cell, and C represents the period of the L3 reference symbol of the second cell; If there is a partial overlap between the reference symbol of the first cell and the measurement interval, then the second factor=M2 / (1-A / Z), where M2 is a positive number, A represents the period of the reference symbol of L1 of the first cell, and Z represents the period of the measurement interval; If there is a partial overlap between the reference symbol of the first cell and the reference symbol of the second cell and there is a partial overlap between the reference symbol of the first cell and the measurement interval, then the second factor = M3 / (1-A / CA / Z), or the second factor = M3 / (1-C / AA / Z), or the second factor = M3 / (1-C / AC / Z), where M3 is a positive number, A represents the period of the reference symbol of L1 of the first cell, Z represents the period of the measurement interval, and C represents the period of the reference symbol of L3 of the second cell.

[0013] In the above aspect, the second factor is When there is an overlap between the L1 reference symbol of the first cell and the L3 reference symbol of the second cell, the second factor is related to a parameter A and a parameter C, where the parameter A represents a period of the L1 reference symbol of the first cell and the parameter C represents a period of the L3 reference symbol of the second cell; When there is an overlap between the reference symbol of the first cell and the measurement interval, the second factor is related to a parameter A and a parameter Z, where the parameter A represents a period of the reference symbol of L1 of the first cell and the parameter Z represents a period of the measurement interval; When there is an overlap between the reference symbol of the first cell and the reference symbol of the second cell, and there is an overlap between the reference symbol of the first cell and the measurement interval, the second factor is related to parameter A, parameter C and parameter Z, and satisfies one of the following: parameter A represents the period of the reference symbol of L1 of the first cell, parameter Z represents the period of the measurement interval, and parameter C represents the period of the reference symbol of L3 of the second cell.

[0014] In the above aspect, the first information includes a third factor to be applied to the measurement period.

[0015] In the above aspect, the third factor is Percentages and Positive numbers and Fractions and one of them, If there is a partial overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, the third factor = N1 / (1-D / E), or the third factor = N1 / (1-E / D), where N1 is a positive number, D represents the period of the reference symbols of the BFD of the first cell, and E represents the period of the reference symbols of the CBD of the third cell; If there is a partial overlap between the reference symbol of the BFD of the first cell and the measurement interval, the third factor = N2 / (1-D / Z), where N2 is a positive number, D represents the period of the reference symbol of the BFD of the first cell, and Z represents the period of the measurement interval; If there is a partial overlap between the reference symbol in the CBD of the first cell and the measurement interval, the third factor=N6 / (1-F / Z), where N6 is a positive number, F represents the period of the reference symbol in the CBD of the first cell, and Z represents the period of the measurement interval; if there is a partial overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, and there is a partial overlap between the BFD of the first cell and the measurement interval, then the third factor=N3 / (1-D / ED / Z), or the third factor=N3 / (1-E / DD / Z), or the third factor=N3 / (1-E / DE / Z), where N3 is a positive number, D represents the period of the reference symbols of the BFD of the first cell, Z represents the period of the measurement interval, and E represents the period of the reference symbols of the CBD of the third cell; If there is a partial overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, the third factor=N4 / (1-F / G), or the third factor=N4 / (1-G / F), where N4 is a positive number, F represents the period of the reference symbols of the CBD of the first cell, and G represents the period of the reference symbols of the BFD of the third cell; If there is a partial overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, and there is a partial overlap between the CBD of the first cell and the measurement interval, the third factor = N5 / (1-F / GF / Z), or the third factor = N5 / (1-G / FF / Z), or the third factor = N5 / (1-G / FG / Z), where N5 is a positive number, F represents the period of the reference symbols of the CBD of the first cell, Z represents the period of the measurement interval, and G represents the period of the reference symbols of the BFD of the third cell.

[0016] In the above aspect, the third factor is When there is an overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, the third factor is related to a parameter D and a parameter E, the parameter D representing a period of the reference symbols of the BFD of the first cell, and the parameter E representing a period of the reference symbols of the CBD of the third cell; When there is an overlap between the reference symbol of the BFD of the first cell and the measurement interval, the third factor is related to a parameter D and a parameter Z, where the parameter D represents a period of the reference symbol of the BFD of the first cell and the parameter Z represents a period of the measurement interval; said third factor being related to a parameter F and a parameter Z when there is an overlap between the reference symbol of the CBD of the first cell and the measurement interval, the parameter F representing the period of the reference symbol of the CBD of the first cell and the parameter Z representing the period of the measurement interval; When there is an overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, and there is an overlap between the BFD of the first cell and the measurement interval, the third factor is related to parameters D, E and Z, where parameter D represents a period of the reference symbols of the BFD of the first cell, parameter Z represents a period of the measurement interval, and parameter E represents a period of the reference symbols of the CBD of the third cell; When there is an overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, the third factor is related to a parameter F and a parameter G, where the parameter F represents a period of the reference symbols of the CBD of the first cell and the parameter G represents a period of the reference symbols of the BFD of the third cell; When there is an overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, and when there is an overlap between the CBD of the first cell and the measurement interval, the third factor is related to parameters F, G and Z, and satisfies one of the following: parameter F represents the period of the reference symbols of the CBD of the first cell, parameter Z represents the period of the measurement interval, and parameter G represents the period of the reference symbols of the BFD of the third cell.

[0017] In the above aspect, the first information includes: First indication information indicating whether to perform simultaneous measurements when there is an overlap between the L1 measurements of the first cell and the L1 measurements of the serving cell; second instruction information instructing whether to simultaneously measure the L1 measurement of the first cell and the L3 measurement of the second cell when there is an overlap between the two; third instruction information for instructing whether to perform simultaneous measurement when there is an overlap between the BFD measurement of the first cell and the CBD measurement of the third cell, or for instructing whether to perform simultaneous measurement when there is an overlap between the CBD measurement of the first cell and the BFD measurement of the third cell; and a fourth indication information indicating the first threshold or turning on or off a prompt report of the L1 measurement result of the first cell.

[0018] In the above aspect, the fourth instruction information instructs turning on a quick report of the L1 measurement result of the first cell, or when the L1 measurement result of the first cell is equal to or greater than the first threshold, after obtaining P1 L1 measurement results of the first cell, the measurement result is reported to the network side; Alternatively, the fourth instruction information instructs to turn off prompt reporting of the measurement result of L1 of the first cell, or when the measurement result of L1 of the first cell is less than the first threshold, after obtaining Q1 measurement results of L1 of the first cell, the measurement result is reported to the network side, where P1 is an integer greater than or equal to 1, Q1 is an integer greater than or equal to 1, and P1 is less than Q1.

[0019] In the above aspect, if the fourth instruction information instructs turning on or off a rapid report of the L1 measurement result of the first cell, the fourth instruction information includes a first counter; If the number of the obtained L1 measurement results of the first cell meets the requirement of the first counter, the measurement results are reported.

[0020] In the above aspect, the method further comprises: receiving second information transmitted from the network side, the second information indicating a second threshold; The method further includes reporting to the network side, among the L1 measurement results of the first cell, the measurement results that are equal to or above the second threshold.

[0021] In the above aspect, the method further comprises: receiving third information transmitted from the network side, the third information indicating a third threshold; The method further includes, when the number of L1 measurement results that are equal to or greater than the second threshold meets a third threshold, reporting the L1 measurement results that are equal to or greater than the second threshold to the network side.

[0022] In the above aspect, the third information includes a second counter, If the number of the L1 measurement results that are equal to or greater than the second threshold satisfies the requirement of the second counter, the L1 measurement results that are equal to or greater than the second threshold are reported to the network side.

[0023] In the above aspect, the method further comprises: receiving fourth information sent from the network side, the fourth information indicating a maximum number of measurement results to be reported; and if the number of measurement results equal to or greater than the second threshold among the measurement results of L1 is greater than the maximum number, selecting and reporting the maximum number of measurement results from the measurement results equal to or greater than the second threshold.

[0024] In the above embodiment, the absolute value of the measurement result is reported, or Or, The measurement results are reported relative to the first beam measurement results.

[0025] In the above aspect, the first beam is The highest quality beam from the first cell, Contains one of the best quality beams of the serving cell.

[0026] In the above aspect, when reporting the measurement result of L1 of the first cell, the method further comprises: The method further includes reporting the L3 measurement result of the first cell.

[0027] In the above aspect, the method further comprises: receiving fifth information transmitted from the network side, the fifth information instructing the terminal whether to report a measurement result of L3 of a first cell; If the fifth information instructs the terminal to report the L3 measurement result of the first cell, it further includes reporting the L3 measurement result at the same time as reporting the L1 measurement result of the first cell.

[0028] An embodiment of the present application is a measurement method applied to a network device, comprising: transmitting first information to the terminal, the first information being information related to a measurement of a first cell, the measurement of the first cell including: L1 measurement and CBD and BFD and The present invention further provides a method of measurement comprising at least one of:

[0029] In the above aspect, the first cell includes a non-serving cell or a cell having a PCI different from that of the serving cell.

[0030] In the above aspect, the first information includes a first factor to be applied to a measurement period.

[0031] In the above aspect, the first factor is Percentages and Positive numbers and Fractions and one of them, When the reference symbol of the serving cell and the reference symbol of the first cell have a partial overlap, the first factor=K1 / (1-A / B), or the first factor=K1 / (1-B / A), where K1 is a positive number, A represents the period of the reference symbol of L1 of the first cell, and B represents the period of the reference symbol of L1 of the serving cell; If there is a partial overlap between the reference symbol of the first cell and the measurement interval, then the first factor=K2 / (1-A / Z), where K2 is a positive number, A represents the period of the reference symbol of L1 of the first cell, and Z represents the period of the measurement interval; If there is partial overlap between the reference symbols of the serving cell and the reference symbols of the first cell and there is partial overlap between the reference symbols of the first cell and the measurement interval, the first factor = K3 / (1-A / BA / Z), or the first factor = K3 / (1-B / AA / Z), or the first factor = K3 / (1-B / AB / Z), where K3 is a positive number, A represents the period of the L1 reference symbols of the first cell, Z represents the period of the measurement interval, and B represents the period of the L1 reference symbols of the serving cell.

[0032] In the above aspect, the first factor is When there is an overlap between the reference symbol of the serving cell and the reference symbol of the first cell, the first factor is related to a parameter A and a parameter B, the parameter A represents a period of the reference symbol of the L1 of the first cell, and the parameter B represents a period of the reference symbol of the L1 of the serving cell; When there is an overlap between the reference symbol of the first cell and the measurement interval, the first factor is related to a parameter A and a parameter Z, where the parameter A represents a period of the reference symbol of L1 of the first cell and the parameter Z represents a period of the measurement interval; When there is an overlap between the reference symbol of the serving cell and the reference symbol of the first cell, and there is an overlap between the reference symbol of the first cell and the measurement interval, the first factor is related to parameter A, parameter B and parameter Z, and satisfies one of the following: parameter A represents the period of the reference symbol of L1 of the first cell, parameter Z represents the period of the measurement interval, and parameter B represents the period of the reference symbol of L1 of the serving cell.

[0033] In the above aspect, the first information includes a second factor to be applied to the measurement period.

[0034] In the above aspect, the second factor is Percentages and Positive numbers and Fractions and one of them, If there is a partial overlap between the L1 reference symbol of the first cell and the L3 reference symbol of the second cell, the second factor=M1 / (1-A / C), or the second factor=M1 / 1-C / A), where M1 is a positive number, A represents the period of the L1 reference symbol of the first cell, and C represents the period of the L3 reference symbol of the second cell; If there is a partial overlap between the reference symbol of the first cell and the measurement interval, then the second factor=M2 / (1-A / Z), where M2 is a positive number, A represents the period of the reference symbol of L1 of the first cell, and Z represents the period of the measurement interval; If there is a partial overlap between the reference symbol of the first cell and the reference symbol of the second cell and there is a partial overlap between the reference symbol of the first cell and the measurement interval, then the second factor = M3 / (1-A / CA / Z), or the second factor = M3 / (1-C / AA / Z), or the second factor = M3 / (1-C / AC / Z), where M3 is a positive number, A represents the period of the reference symbol of L1 of the first cell, Z represents the period of the measurement interval, and C represents the period of the reference symbol of L3 of the second cell.

[0035] In the above aspect, the second factor is When there is an overlap between the L1 reference symbol of the first cell and the L3 reference symbol of the second cell, the second factor is related to a parameter A and a parameter C, where the parameter A represents a period of the L1 reference symbol of the first cell and the parameter C represents a period of the L3 reference symbol of the second cell; When there is an overlap between the reference symbol of the first cell and the measurement interval, the second factor is related to a parameter A and a parameter Z, where the parameter A represents a period of the reference symbol of L1 of the first cell and the parameter Z represents a period of the measurement interval; When there is an overlap between the reference symbol of the first cell and the reference symbol of the second cell, and there is an overlap between the reference symbol of the first cell and the measurement interval, the second factor is related to parameter A, parameter C and parameter Z, and satisfies one of the following: parameter A represents the period of the reference symbol of L1 of the first cell, parameter Z represents the period of the measurement interval, and parameter C represents the period of the reference symbol of L3 of the second cell.

[0036] In the above aspect, the first information includes a third factor to be applied to the measurement period.

[0037] In the above aspect, the third factor is Percentages and Positive numbers and Fractions and one of them, If there is a partial overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, the third factor = N1 / (1-D / E), or the third factor = N1 / (1-E / D), where N1 is a positive number, D represents the period of the reference symbols of the BFD of the first cell, and E represents the period of the reference symbols of the CBD of the third cell; If there is a partial overlap between the reference symbol of the BFD of the first cell and the measurement interval, the third factor = N2 / (1-D / Z), where N2 is a positive number, D represents the period of the reference symbol of the BFD of the first cell, and Z represents the period of the measurement interval; If there is a partial overlap between the reference symbol in the CBD of the first cell and the measurement interval, the third factor=N6 / (1-F / Z), where N6 is a positive number, F represents the period of the reference symbol in the CBD of the first cell, and Z represents the period of the measurement interval; if there is a partial overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, and there is a partial overlap between the BFD of the first cell and the measurement interval, then the third factor=N3 / (1-D / ED / Z), or the third factor=N3 / (1-E / DD / Z), or the third factor=N3 / (1-E / DE / Z), where N3 is a positive number, D represents the period of the reference symbols of the BFD of the first cell, Z represents the period of the measurement interval, and E represents the period of the reference symbols of the CBD of the third cell; If there is a partial overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, the third factor=N4 / (1-F / G), or the third factor=N4 / (1-G / F), where N4 is a positive number, F represents the period of the reference symbols of the CBD of the first cell, and G represents the period of the reference symbols of the BFD of the third cell; If there is a partial overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, and there is a partial overlap between the CBD of the first cell and the measurement interval, the third factor = N5 / (1-F / GF / Z), or the third factor = N5 / (1-G / FF / Z), or the third factor = N5 / (1-G / FG / Z), where N5 is a positive number, F represents the period of the reference symbols of the CBD of the first cell, Z represents the period of the measurement interval, and G represents the period of the reference symbols of the BFD of the third cell.

[0038] In the above aspect, the third factor is When there is an overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, the third factor is related to a parameter D and a parameter E, the parameter D representing a period of the reference symbols of the BFD of the first cell, and the parameter E representing a period of the reference symbols of the CBD of the third cell; When there is an overlap between the reference symbol of the BFD of the first cell and the measurement interval, the third factor is related to a parameter D and a parameter Z, where the parameter D represents a period of the reference symbol of the BFD of the first cell and the parameter Z represents a period of the measurement interval; said third factor being related to a parameter F and a parameter Z when there is an overlap between the reference symbol of the CBD of the first cell and the measurement interval, the parameter F representing the period of the reference symbol of the CBD of the first cell and the parameter Z representing the period of the measurement interval; When there is an overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, and there is an overlap between the BFD of the first cell and the measurement interval, the third factor is related to parameters D, E and Z, where parameter D represents a period of the reference symbols of the BFD of the first cell, parameter Z represents a period of the measurement interval, and parameter E represents a period of the reference symbols of the CBD of the third cell; When there is an overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, the third factor is related to a parameter F and a parameter G, where the parameter F represents a period of the reference symbols of the CBD of the first cell and the parameter G represents a period of the reference symbols of the BFD of the third cell; When there is an overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, and when there is an overlap between the CBD of the first cell and the measurement interval, the third factor is related to parameters F, G and Z, and satisfies one of the following: parameter F represents the period of the reference symbols of the CBD of the first cell, parameter Z represents the period of the measurement interval, and parameter G represents the period of the reference symbols of the BFD of the third cell.

[0039] In the above aspect, the first information includes: First indication information indicating whether to perform simultaneous measurements when there is an overlap between the L1 measurements of the first cell and the L1 measurements of the serving cell; second instruction information instructing whether to simultaneously measure the L1 measurement of the first cell and the L3 measurement of the second cell when there is an overlap between the two; third instruction information for instructing whether to perform simultaneous measurement when there is an overlap between the BFD measurement of the first cell and the CBD measurement of the third cell, or for instructing whether to perform simultaneous measurement when there is an overlap between the CBD measurement of the first cell and the BFD measurement of the third cell; and a fourth indication information indicating the first threshold or turning on or off a prompt report of the L1 measurement result of the first cell.

[0040] In the above aspect, when the first information includes the fourth instruction information, the method further comprises: The method further includes receiving an L1 measurement result of a first cell reported from the terminal based on the first information.

[0041] In the above aspect, if the fourth instruction information instructs turning on or off rapid reporting of L1 measurement results of the first cell, the fourth instruction information includes a first counter that instructs the terminal to report the measurement results if the number of obtained L1 measurement results of the first cell satisfies the requirement of the first counter.

[0042] In the above aspect, the method further comprises: The method further includes transmitting to the terminal second information indicating a second threshold, the second threshold being for the terminal to report measurement results of L1 of the first cell that are equal to or greater than the second threshold.

[0043] In the above aspect, the method further comprises: The method further includes transmitting third information to the terminal, the third information indicating a third threshold, the third threshold being for the terminal to report to the network side, among the L1 measurement results, those measurement results that are equal to or greater than the second threshold when the number of the measurement results among the L1 measurement results that are equal to or greater than the second threshold satisfies the third threshold.

[0044] In the above aspect, the third information includes a second counter for instructing the terminal to report, to the network side, the measurement results of L1 that are equal to or greater than the second threshold if the number of the measurement results of L1 that are equal to or greater than the second threshold satisfies the requirement of the second counter.

[0045] In the above aspect, the method further comprises: The method further includes transmitting fourth information to the terminal indicating a maximum number of measurements to be reported.

[0046] In the above aspect, when receiving the L1 measurement result of the first cell, the method further comprises: The method further includes receiving an L3 measurement result of the primary cell reported from the terminal.

[0047] In the above aspect, the method further comprises: transmitting fifth information to the terminal, the fifth information instructing the terminal whether to report a measurement result of L3 of the first cell; If the fifth information instructs the terminal to report an L3 measurement result of the first cell, the method further includes receiving an L3 measurement result reported from the terminal at the same time as receiving an L1 measurement result of the first cell reported from the terminal.

[0048] An embodiment of the present application is a measurement device, comprising: an acquisition unit configured to acquire first information, the first information being information related to a measurement of a first cell, the measurement of the first cell comprising: L1 measurement and CBD and BFD and and a RLM.

[0049] An embodiment of the present application is a measurement device, comprising: A transmitting unit configured to transmit to the terminal first information, the first information being information related to a measurement of a first cell, the measurement of the first cell including: L1 measurement and CBD and BFD and and a RLM.

[0050] An embodiment of the present application provides a terminal including a first processor and a first communication interface, The first processor is configured to obtain first information, the first information being information relating to a measurement of a first cell, the measurement of the first cell including: L1 measurement and CBD and BFD and and RLM.

[0051] An embodiment of the present application is a network device including a second processor and a second communication interface, The second communication interface is configured to transmit first information to the terminal, the first information being information related to a measurement of a first cell, the measurement of the first cell including: L1 measurement and CBD and BFD and and an RLM.

[0052] An embodiment of the present application provides a terminal including a first processor and a first memory configured to store a computer program operable on the processor, The present invention further provides a terminal, the first processor being configured to execute the steps of any one of the methods on the terminal side when the first processor runs the computer program.

[0053] An embodiment of the present application is a network device including a second processor and a second memory configured to store a computer program operable on the processor, The present invention further provides a network device, wherein the second processor is configured to execute the steps of any one of the above methods on the network device side when the second processor runs the computer program.

[0054] An embodiment of the present application is a storage medium storing a computer program, and when the computer program is executed by a processor, the steps of any one of the methods on the terminal side are realized, or the steps of any one of the methods on the network device side are realized. Effect of the Invention

[0055] In the measurement method, device, related equipment, and storage medium according to the embodiments of the present application, a terminal acquires first information, which is information regarding measurements of a first cell, and the measurements of the first cell include at least one of L1 measurements, CBD, BFD, and RLM. In the aspects according to the embodiments of the present application, by the terminal acquiring information regarding L1 measurements of a neighboring cell, it is possible to perform measurements based on the information, and further improve the stability of beam handover of the neighboring cell performed based on the L1 measurements and improve mobility performance. By the terminal acquiring information regarding link quality monitoring of the neighboring cell, it is possible to perform measurements based on the information, and further realize data transmission and reception with one or more neighboring cells without cell handover, thereby improving throughput and improving system performance. [Brief description of the drawings]

[0056] [Figure 1a] 1 is a schematic diagram of an L1-based mobility scene. [Figure 1b] FIG. 1 is a schematic diagram of another L1-based mobility scene. [Diagram 2] FIG. 2 is a schematic flow diagram of a measurement method according to an embodiment of the present application. [Diagram 3] FIG. 2 is a schematic flow diagram of another measurement method according to an embodiment of the present application. [Figure 4] FIG. 2 is a structural schematic diagram of a measuring device according to an embodiment of the present application. [Diagram 5] FIG. 2 is a structural schematic diagram of another measuring device according to an embodiment of the present application. [Figure 6] FIG. 2 is a structural schematic diagram of a terminal according to an embodiment of the present application. [Figure 7]FIG. 2 is a structural schematic diagram of a network device according to an embodiment of the present application; [Figure 8] FIG. 1 is a structural schematic diagram of a measurement system according to an embodiment of the present application. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

[0057] The present application will be described in further detail below in conjunction with the drawings and examples.

[0058] In the related art, beam management is only performed in the serving cell, and the terminal does not need to perform beam management related measurements on neighboring cells. However, in order to improve the system throughput, it is possible to use L1-based mobility operation. The basic idea of ​​L1-based mobility operation is to transmit and receive data based on the beam of the neighboring cell in the manner of beam management based on the measurement result of L1, without performing inter-cell handover. There are three possible application scenarios for L1-based mobility operation: The first is to first perform a handover of a beam to a neighboring cell (which may be called a beam-level handover) based on the L1 measurement for beam management of the neighboring cell, and then perform a handover to the neighboring cell (i.e., perform a cell-level handover). Specifically, as shown in Fig. 1a, the terminal performs L1 measurement of the neighboring cell, and the network side configures the terminal to receive the corresponding beam of the neighboring cell by referring to the L1 measurement result of the neighboring cell reported from the terminal, then configures the terminal to perform L3 measurement of the neighboring cell, and further performs a handover with the neighboring cell as the target cell. The second is to first perform L1 measurement for beam management of the neighboring cell, and then simultaneously perform beam handover of the neighboring cell and handover to the neighboring cell. Specifically, as shown in Fig. 1b, the terminal performs L1 measurement of the neighboring cell, and the network refers to the L1 measurement result of the neighboring cell reported by the terminal and simultaneously triggers beam handover and cell handover to the neighboring cell by the terminal. The third method is to first perform L1 measurements for beam management of the neighboring cell, and then perform only beam handover of the neighboring cell, i.e., perform handover that is not detected by L3 (no cell handover), and receive data from the neighboring cell only using the beam handover method.

[0059] As can be seen from the above description, in the implementation methods of the above three application scenarios, the terminal first needs to perform the related measurement of the beam management of the neighboring cells (i.e., the L1 measurement of the neighboring cells), and then trigger other operations. Such a method may have the following problems: First, the L1 measurement results of adjacent cells are not filtered (this can be understood as not being averaged, and are reported directly to the network side after sampling), so the measurement results are unstable, not very robust, and prone to ping-pong effects. Second, in practice, in the related art, no beam management related measurements are performed for neighboring cells (i.e., no L1 measurements are performed for non-serving cells), and if beam management related measurements are performed for neighboring cells, the L1 measurements for the serving cell and the L3 measurements for the neighboring cells will be affected, for example, due to beam scanning, etc., the L1 measurements for the serving cell and / or the L3 measurements for the neighboring cells will be interrupted, further affecting system performance.

[0060] In other words, when performing L1 measurements on neighboring cells, it is necessary to consider both the problem of how to perform the measurements (measurement collisions may occur) and the problem of how to report the measurements after they are performed.

[0061] In view of this, in each embodiment of the present application, the terminal obtains information on L1 measurement of the neighboring cell, so that the terminal can perform measurement based on the information, and further improve the stability of the beam handover of the neighboring cell performed based on the L1 measurement, and improve the mobility performance.In addition, the terminal obtains information on the measurement of link quality monitoring of the neighboring cell, so that the terminal can realize data transmission and reception with one or more neighboring cells without cell handover, and can improve the throughput and the performance of the system.

[0062] An embodiment of the present application provides a measurement method applied to a terminal, and as shown in FIG. 2, the method includes the following steps 201-202: Step 201 is to obtain first information, which is information about a measurement of a first cell, and the measurement of the first cell includes at least one of L1 measurement, CBD, BFD, and RLM; Step 202 is to make a measurement based on the first information.

[0063] In practical applications, the terminal may be referred to as a user equipment (UE), a terminal device, a device, a user, or the like.

[0064] In step 201, in practical application, the terminal: A method for receiving first information transmitted from a network side; A manner of predefining the first information, i.e., predefining the first information; the first information may be obtained in at least one of the following ways: the first information is determined by the terminal itself, i.e., is determined by the internal implementation of the terminal.

[0065] Meanwhile, in practical application, the network side may transmit the first information to the terminal via broadcast or RRC signaling, etc., but the embodiment of the present application is not limited thereto.

[0066] The first cell refers to a neighboring cell of a serving cell in which the terminal is located. Specifically, the first cell is: a non-serving cell; The PCI may include one of the following: a cell having a PCI different from that of the serving cell. Among them, for a non-serving cell, the transmission reception point (TRP) of the non-serving cell is different from the TRP of the serving cell, and in this case, the PCI of the non-serving cell may be the same as or different from the PCI of the serving cell.

[0067] In practical applications, the measurement of L1 requires: L1 reference signal received power (L1-RSRP) and L1 reference signal received quality (L1-RSRQ) and L1 signal-to-interference-and-noise-ratio (L1-SINR).

[0068] In the related art, the terminal only needs to perform L1 measurement of the serving cell. However, when it is necessary to perform L1 measurement of the neighboring cell (the terminal transmits and receives data to and from one or more neighboring cells through beam switching (may be referred to as handover) without performing cell handover in order to increase the system throughput and improve the system performance), since the beam of the L1 reference symbol of the neighboring cell and the beam of the L1 reference symbol of the serving cell have different directions, if the L1 reference symbol of the neighboring cell and the L1 reference symbol of the serving cell overlap in the time domain, for an FR2 terminal that supports only one-way reception at the same time, the terminal may only receive a signal (reference symbol or data) of a specific direction at a certain time, and may not be able to simultaneously perform L1 measurement of the neighboring cell and L1 measurement of the serving cell, that is, if the signal of the serving cell and the signal of the neighboring cell are from different directions, the terminal cannot receive them simultaneously. That is, when measuring the L1 of the first cell, there may be a situation where the L1 measurement of the serving cell overlaps with the L1 measurement of the first cell. In this case, the terminal performs measurements based on the first information.

[0069] Specifically, the first information includes a first factor, and the first factor may be applied when there is an overlap between the L1 measurement of the serving cell and the L1 measurement of the first cell, i.e., the first factor may be applied when there is an overlap between the L1 measurement of the serving cell and the L1 measurement of the first cell. Here, the "there is an overlap" may include a complete overlap or a partial overlap between the L1 measurement of the serving cell and the L1 measurement of the first cell. The overlap may include an overlap in a time domain and / or an overlap in a frequency domain.

[0070] The first factor may instruct the terminal how to allocate the L1 measurement of the serving cell and the L1 measurement of the first cell when there is a collision between the L1 measurement of the serving cell and the L1 measurement of the first cell. Specifically, the first factor is applied to a measurement period, and the terminal allocates resources between the L1 measurement of the serving cell and the L1 measurement of the first cell based on the first factor.

[0071] In addition, in practical application, there may be an overlap between the L1 reference symbols and the measurement intervals of the neighboring cells. Of course, such overlap may include a complete overlap or a partial overlap between the L1 reference symbols and the measurement intervals of the neighboring cells. The overlap may include an overlap in a time domain and / or an overlap in a frequency domain, in which case the terminal performs measurements based on the first information.

[0072] In one embodiment, the first factor is: a percentage (i.e., the value of the first factor is a percentage); A positive number less than 100, such as 0.8, 1.5, or 3, For example, one of the fractions, such as 4 / 5, When there is an overlap between the reference symbol of the serving cell and the reference symbol of the first cell, the first factor is related to a parameter A and a parameter B, where the parameter A represents the period of the reference symbol of the L1 of the first cell (which may be referred to as the period of the reference symbol for L1 measurement), and the parameter B represents the period of the reference symbol of the L1 of the serving cell. Specifically, when there is a partial overlap between the reference symbol of the serving cell and the reference symbol of the first cell, the first factor=K1 / (1-A / B), or the first factor=K1 / (1-B / A), where K1 is a positive number; When there is an overlap between the reference symbol of the first cell and the measurement interval, the first factor is related to a parameter A and a parameter Z, where the parameter A represents the period of the reference symbol of L1 of the first cell, and the parameter Z represents the period of the measurement interval. Specifically, when there is a partial overlap between the reference symbol of the first cell and the measurement interval, the first factor=K2 / (1-A / Z), where K2 is a positive number; When there is an overlap between the reference symbols of the serving cell and the reference symbols of the first cell and there is an overlap between the reference symbols of the first cell and the measurement interval, the first factor is related to parameters A, B, and Z, where A represents the period of the reference symbols of L1 of the first cell, Z represents the period of the measurement interval, and B represents the period of the reference symbols of L1 of the serving cell. Specifically, when there is a partial overlap between the reference symbols of the serving cell and the reference symbols of the first cell and there is a partial overlap between the reference symbols of the first cell and the measurement interval, the first factor=K3 / (1-A / BA / Z), or the first factor=K3 / (1-B / AA / Z), or the first factor=K3 / (1-B / AB / Z), where K3 is a positive number.

[0073] Meanwhile, in practical application, the first factor may be applied to the measurement of the primary cell or the measurement of the serving cell.

[0074] When the first factor includes a percentage or a fraction, in practical application, the first factor may indicate the measurement resource of the L1 measurement of the first cell implicitly or explicitly. Exemplarily, if the value of the first factor is a percentage, for example P2%, if the first factor indicates the measurement resource of the L1 measurement of the first cell explicitly, the measurement resource for the L1 measurement of the first cell can be understood to be P2%, and the delay of the L1 measurement of the first cell needs to be extended by 1 / P2 times accordingly. Correspondingly, the measurement resource for the L1 measurement of the serving cell is (1-P2)%, and the delay of the L1 measurement of the serving cell needs to be extended by 1 / (1-P2) times accordingly. If the first factor indicates the measurement resource of the L1 measurement of the first cell implicitly, the measurement resource for the L1 measurement of the serving cell can be understood to be P2%, and the delay of the L1 measurement of the serving cell needs to be extended by 1 / P2 times accordingly. Correspondingly, the measurement resource for L1 measurement of the first cell becomes (1-P2)%, and accordingly the delay of L1 measurement of the first cell needs to be extended by a factor of 1 / (1-P2).

[0075] If the value of the first factor is a non-zero positive number, for example, if the value of the first factor is P3 (for example, 3), then when the first factor is used for L1 measurement of the first cell, the delay of the L1 measurement of the first cell needs to be extended by P3 times, and when the first factor is used for L1 measurement of the serving cell, the delay of the L1 measurement of the serving cell needs to be extended by P3 times.

[0076] The value of the first factor may be a percentage, a positive number or a fraction and may be applied to scenes that are perfect overlaps or scenes that are not perfect overlaps.

[0077] If the L1 measurement of the serving cell and the L1 measurement of the primary cell do not overlap, the value of the first factor is set to 1.

[0078] In practical application, the values ​​of K1, K2 and K3 can be determined as necessary, for example, based on at least one factor such as the reference symbol period, the discontinuous reception period (DRX cycle), the carrier measurement performance scaling factor (CSSF), the measurement interval period (MGRP), etc., and the value is, for example, 1 or 1.5, etc. The values ​​of K1, K2 and K3 may be the same or different.

[0079] In an embodiment of the present application, the reference symbol is: Synchronization signal block (SSB) and and a channel state information reference signal (CSI-RS). Accordingly, in the present embodiment, the period of the reference symbols is: SSB cycle and SSB measurement time configuration (SMTC) period, and a CSI-RS period.

[0080] Specifically, in practical applications, the periods of the reference symbols of the serving cell and the first cell may both be an SSB period, or the periods of the reference symbols of the serving cell and the first cell may both be a CSI-RS period, or the periods of the reference symbols of the serving cell and the first cell may both be an SMTC period, or the periods of the reference symbols of the serving cell and the first cell may be a combination of any two of the SSB period, the CSI-RS period, and the SMTC period.

[0081] When there is a partial overlap between the L1 reference symbol of the serving cell and the L1 reference symbol of the first cell, the L1 measurement of the first cell is performed only at the position of the reference symbol that does not overlap with the L1 measurement of the serving cell, i.e., the terminal performs the L1 measurement only at the position of the reference symbol of the first cell where there is no overlap with the reference symbol of the serving cell. Exemplarily, when the period of the L1 reference symbol of the first cell is smaller than the period of the L1 reference symbol of the serving cell, the first factor=K1 / (1-A / B), in which case, the measurement period of the L1 of the first cell needs to be extended by K1 / (1-A / B) times, i.e., the first factor is applied to the L1 measurement of the first cell, and the L1 measurement of the serving cell is not affected, i.e., the terminal can measure at all the positions of the L1 reference symbols of the serving cell. Wherein, if the period of the L1 reference symbol of the first cell is greater than the period of the L1 reference symbol of the serving cell, the first factor=K1 / (1-B / A), in this case, the L1 measurement of the serving cell needs to be extended by K1 / (1-B / A) times, i.e., the first factor is applied to the L1 measurement of the serving cell, and the L1 measurement of the first cell is not affected, i.e., the terminal can measure at all positions of the L1 reference symbol of the first cell. Here, in practical application, this aspect may be applied to a scene where the L1 measurement of the neighboring cell (i.e., the first cell) is performed outside the SMTC, or may be applied to a scene where the L1 measurement of the neighboring cell is performed within the SMTC.

[0082] When the L1 reference symbol of the first cell and the measurement interval (which may be expressed as MG in English) have a partial overlap, the terminal performs L1 measurement only at the position of the reference symbol of the first cell that does not overlap with the measurement interval. Specifically, when the period of the L1 reference symbol of the first cell is smaller than the period of the measurement interval and the L1 reference symbol of the first cell and the L1 reference symbol of the serving cell have a partial overlap, the terminal performs L1 measurement only at the position of the reference symbol of the first cell that does not overlap with the measurement interval and does not overlap with the L1 reference symbol of the serving cell, in this case, the first factor=K2 / (1-A / Z).

[0083] When the L1 reference symbol of the serving cell and the L1 reference symbol of the first cell partially overlap, and when the reference symbol of the first cell partially overlaps with the measurement interval, the terminal performs L1 measurement only at the position of the reference symbol of the first cell that does not overlap with the measurement interval and does not overlap with the L1 reference symbol of the serving cell. Specifically, when the period of the L1 reference symbol of the first cell is smaller than the period of the measurement interval, and when the L1 reference symbol of the first cell and the L1 reference symbol of the serving cell partially overlap, the terminal performs L1 measurement only at the position of the reference symbol of the first cell that does not overlap with the measurement interval and does not overlap with the L1 reference symbol of the serving cell. Accordingly, the terminal performs L1 measurement only at the position of the reference symbol of the serving cell that does not overlap with the measurement interval and does not overlap with the L1 measurement reference symbol of the first cell. More specifically, a first factor=K3 / (1-A / BA / Z) and a first factor=K3 / (1-B / AA / Z) are applied to the measurements of the first cell, and a first factor=K3 / (1-B / AB / Z) is applied to the measurements of the serving cell.

[0084] In one embodiment, the measurement period is: The measurement period (which may be expressed as measurement period in English) A detection period for the Primary Synchronization Signal (PSS) / Secondary Synchronization Signal (SSS) (which may be referred to as a detection delay, or in English, may be expressed as a Time period for PSS / SSS detection), A time index detection period (which may be expressed as a time period for time index detection in English and can be understood as the time required for a terminal to acquire a resource index (e.g., an SSB index, etc.)) The RLM detection period (which may be expressed as the RLM evaluation period in English), The BFD detection period (which may also be expressed as the BFD evaluation period in English), The CBD detection period (which may be expressed as a CBD evaluation period in English) may include at least one of the above.

[0085] In the related art, the terminal only needs to perform L3 measurement of the neighboring cell. However, when it is necessary to perform L1 measurement of the neighboring cell (the terminal transmits and receives data to and from one or more neighboring cells through beam switching (may be referred to as handover) without performing cell handover in order to increase the system throughput and improve the system performance), since the beam of the L1 reference symbol and the beam of the L3 reference symbol are different in direction, if there is an overlap in the time domain between the L1 reference symbol and the L3 reference symbol, for an FR2 terminal that supports only one-way reception at the same time, the terminal may only receive a signal (reference symbol or data) in a specific direction at a certain time, and may not be able to simultaneously perform L3 measurement of the neighboring cell and L1 measurement of the neighboring cell, that is, if the signal for L1 measurement of the first cell and the signal for L3 measurement of the second cell are from different directions, the terminal cannot receive them simultaneously. That is, when measuring L1 of the first cell, there may be a situation where there is an overlap between the L3 measurement of the second cell and the L1 measurement of the first cell. In this case, the terminal performs measurement based on the first information.

[0086] Specifically, the first information includes a second factor, and the second factor may be applied when there is an overlap between the L1 measurement of the first cell and the L3 measurement of the second cell, i.e., the second factor may be applied when there is an overlap between the L3 measurement of the second cell and the L1 measurement of the first cell. Here, the "there is an overlap" may include a complete overlap or a partial overlap between the L3 measurement of the second cell and the L1 measurement of the first cell. The overlap may include an overlap in a time domain and / or an overlap in a frequency domain.

[0087] The second factor may instruct the terminal how to allocate resources for the L3 measurement of the second cell and the L1 measurement of the first cell when there is a collision between the L3 measurement of the second cell and the L1 measurement of the first cell. Specifically, the second factor is applied to a measurement period, and the terminal allocates resources between the L3 measurement of the second cell and the L1 measurement of the first cell based on the second factor.

[0088] In addition, in practical application, there may be an overlap between the L1 reference symbols and the measurement intervals of the neighboring cells. Of course, such overlap may include a complete overlap or a partial overlap between the L1 reference symbols and the measurement intervals of the neighboring cells. The overlap may include an overlap in a time domain and / or an overlap in a frequency domain, in which case the terminal performs measurements based on the first information.

[0089] In one embodiment, the second factor is: a percentage (i.e., the value of the second factor is a percentage); A positive number less than 100, such as 0.8, 1.5, or 3, For example, one of the fractions, such as 4 / 5, When there is an overlap between the reference symbol L1 of the first cell and the reference symbol L3 of the second cell, the second factor is related to parameter A and parameter C, where parameter A represents the period of the reference symbol L1 of the first cell, and parameter C represents the period of the reference symbol L3 of the second cell. Specifically, when there is a partial overlap between the reference symbol L1 of the first cell and the reference symbol L3 of the second cell, the second factor=M1 / (1-A / C), or the second factor=M1 / (1-C / A), where M1 is a positive number; When there is an overlap between the reference symbol of the first cell and the measurement interval, the second factor is related to a parameter A and a parameter Z, where the parameter A represents the period of the reference symbol of L1 of the first cell, and the parameter Z represents the period of the measurement interval. Specifically, when there is a partial overlap between the reference symbol of the first cell and the measurement interval, the second factor=M2 / (1-A / Z), where M2 is a positive number; When there is an overlap between the reference symbol of the first cell and the reference symbol of the second cell, and there is an overlap between the reference symbol of the first cell and the measurement interval, the second factor is related to parameters A, C, and Z, where parameter A represents the period of the reference symbol of L1 of the first cell, parameter Z represents the period of the measurement interval, and parameter C represents the period of the reference symbol of L3 of the second cell. Specifically, when there is a partial overlap between the reference symbol of the first cell and the reference symbol of the second cell, and there is a partial overlap between the reference symbol of the first cell and the measurement interval, the second factor=M3 / (1-A / CA / Z), or the second factor=M3 / (1-C / AA / Z), or the second factor=M3 / (1-C / AC / Z), where M3 is a positive number.

[0090] In practical application, the second cell is: A serving cell; a non-serving cell; The PCI may include at least one of a cell having a PCI different from that of the serving cell.

[0091] Here, when the first cell and the second cell are both non-serving cells, the first cell and the second cell may have different PCIs. When the first cell and the second cell are both cells with a PCI different from that of the serving cell, the first cell and the second cell have different PCIs. When the first cell and the second cell are both TRPs, the first cell and the second cell have different PCIs or TRP IDs, or correspond to different network nodes.

[0092] In practical application, the second factor may be applied to the measurement of the first cell or may be applied to the measurement of the second cell.

[0093] When the second factor includes a percentage or a fraction, in practical application, the second factor may implicitly or explicitly indicate the measurement resource of the L1 measurement of the first cell. Exemplarily, if the value of the second factor is a percentage, for example P4%, if the first factor explicitly indicates the measurement resource of the L1 measurement of the first cell, the measurement resource for the L1 measurement of the first cell can be understood to be P4%, and the delay of the L1 measurement of the first cell needs to be extended by 1 / P4 times accordingly. Correspondingly, the measurement resource for the L3 measurement of the second cell is (1-P4)%, and the delay of the L3 measurement of the second cell needs to be extended by 1 / (1-P4) times accordingly. If the second factor implicitly indicates the measurement resource of the L1 measurement of the first cell, the measurement resource for the L3 measurement of the second cell can be understood to be P4%, and the delay of the L3 measurement of the second cell needs to be extended by 1 / P4 times accordingly. Correspondingly, the measurement resource for L1 measurement of the first cell becomes (1-P4)%, and accordingly the delay of L1 measurement of the first cell needs to be extended by a factor of 1 / (1-P4).

[0094] If the value of the second factor is a non-zero positive number, for example, if the value of the second factor is P5 (for example, 1.5), then when the second factor is used for the L1 measurement of the first cell, the delay of the L1 measurement of the corresponding first cell needs to be extended by P5 times, and when the second factor is used for the L3 measurement of the second cell, the delay of the L3 measurement of the second cell needs to be extended by P5 times.

[0095] The value of the second factor may be a percentage, a positive number or a fraction and may be applied to scenes that are perfect overlaps or scenes that are not perfect overlaps.

[0096] If the L3 measurement of the second cell and the L1 measurement of the first cell do not overlap, the value of the second factor is set to one.

[0097] For L3 measurement, Synchronization signal (SS)-RSRP, SS-RSRQ, SS-SINR and Channel State Information (CSI)-RSRP; CSI-RSRQ, At least one of CSI-SINR and CSI-SINR may be included.

[0098] In practical application, the values ​​of M1, M2 and M3 can be determined as needed, for example, based on at least one factor such as the period of the reference symbol, the DRX cycle, the CSSF, the MGRP, etc., and the value is, for example, 1 or 1.5, etc. The values ​​of M1, M2 and M3 may be the same or different.

[0099] In practical application, the periods of the reference symbols of the second cell and the first cell may both be an SSB period, or the periods of the reference symbols of the second cell and the first cell may both be a CSI-RS period, or the periods of the reference symbols of the second cell and the first cell may both be an SMTC period, or the periods of the reference symbols of the second cell and the first cell may be a combination of any two of the SSB period, the CSI-RS period, and the SMTC period.

[0100] When there is partial overlap between the L1 reference symbol of the first cell and the L3 reference symbol of the second cell, the L1 measurement of the first cell is only performed at reference symbol positions that do not overlap with the L3 measurement of the second cell, i.e., the terminal performs L1 measurement only at reference symbol positions of the first cell where there is no overlap with the reference symbol of the second cell. For example, if the period of the L1 reference symbol of the first cell is smaller than the period of the L3 reference symbol of the second cell, the second factor = M1 / (1-A / C), in which case the measurement period of the L1 of the first cell needs to be extended by M1 / (1-A / C) times, i.e. the second factor is applied to the L1 measurement of the first cell and the L3 measurement of the second cell is not affected, i.e. the terminal can measure at all positions of the L3 reference symbol of the second cell; if the period of the L1 reference symbol of the first cell is larger than the period of the L3 reference symbol of the second cell, the second factor = M1 / (1-C / A), in which case the L3 measurement of the second cell needs to be extended by M1 / (1-C / A) times, i.e. the first factor is applied to the L3 measurement of the second cell and the L1 measurement of the first cell is not affected, i.e. the terminal can measure at all positions of the L1 reference symbol of the first cell.

[0101] When there is a partial overlap between the L1 reference symbol of the first cell and the measurement interval, the terminal performs L1 measurement only at the position of the reference symbol of the first cell where there is no overlap with the measurement interval. Specifically, when the period of the L1 reference symbol of the first cell is smaller than the period of the measurement interval, the terminal performs L1 measurement only at the position of the reference symbol of the first cell where there is no overlap with the measurement interval, in which case the second factor=M2 / (1-A / Z).

[0102] When the L3 reference symbol of the second cell and the L1 reference symbol of the first cell partially overlap, and when the L1 reference symbol of the first cell partially overlaps with the measurement interval, the terminal performs L1 measurement only at the position of the reference symbol of the first cell that does not overlap with the measurement interval and does not overlap with the L3 reference symbol of the second cell. Specifically, when the period of the L1 reference symbol of the first cell is smaller than the period of the measurement interval, and when the L1 reference symbol of the first cell and the L3 reference symbol of the second cell partially overlap, the terminal performs L1 measurement only at the position of the reference symbol of the first cell that does not overlap with the measurement interval and does not overlap with the L3 reference symbol of the second cell. Accordingly, the terminal performs L3 measurement only at the position of the reference symbol of the second cell that does not overlap with the measurement interval and does not overlap with the L1 reference symbol of the first cell. More specifically, a second factor = M3 / (1-A / CA / Z) and a second factor = M3 / (1-C / AA / Z) are applied to the measurements of the first cell, and a second factor = M3 / (1-C / AC / Z) is applied to the measurements of the second cell.

[0103] In the related art, the terminal only needs to transmit and receive data with the serving cell. In order to increase the throughput and improve the system performance, the terminal may transmit and receive data with one or more neighboring cells without cell handover. However, in this case, there is a separate requirement for the terminal, and when transmitting and receiving data with the neighboring cells, it is also necessary to perform link quality monitoring and measure related resources for BFD (which may be expressed as resource in English) and / or related resources for CBD. In this case, if there is time domain overlap between resources for BFD and CBD of different cells, the terminal cannot handle them simultaneously because the directions of data of different cells are different. In this case, the terminal performs measurement based on the first information.

[0104] Specifically, the first information includes a third factor, and the third factor may be applied when there is an overlap between the BFD of the first cell and the CBD of the third cell, i.e., the third factor may be applied when there is an overlap between the BFD of the first cell and the CBD of the third cell. Here, the "there is an overlap" may include a complete overlap or a partial overlap between the BFD of the first cell and the CBD measurement of the third cell. The overlap may include an overlap in the time domain and / or an overlap in the frequency domain.

[0105] The third factor may instruct the terminal how to allocate resources between the BFD of the first cell and the CBD of the third cell when there is a conflict between the resources of the BFD of the first cell and the CBD of the third cell. Specifically, the third factor is applied to a measurement period, and the terminal allocates resources between the BFD of the first cell and the CBD measurement of the third cell based on the third factor.

[0106] In addition, in practical applications, there may be an overlap between the BFD and / or CBD resources of the neighboring cells and the measurement intervals. Of course, such overlap may include a full overlap or a partial overlap between the BFD and / or CBD resources and the measurement intervals. The overlap may include an overlap in the time domain and / or an overlap in the frequency domain, in which case the terminal performs measurements based on the first information.

[0107] In one embodiment, the third factor is: a percentage (i.e., the value of the third factor is a percentage); A positive number less than 100, such as 0.8, 1.5, or 3, For example, one of the fractions, such as 4 / 5, When there is an overlap in the reference symbols (i.e., resources) between the BFD of the first cell and the CBD of the third cell, the third factor is related to parameters D and E, where parameter D represents the period of the reference symbols of the BFD of the first cell, and parameter E represents the period of the reference symbols of the CBD of the third cell. Specifically, when there is a partial overlap in the reference symbols (i.e., resources) between the BFD of the first cell and the CBD of the third cell, the third factor=N1 / (1-D / E), or the third factor=N1 / (1-E / D), where N1 is a positive number; When there is an overlap between the BFD reference symbol of the first cell and the measurement interval, the third factor is related to a parameter D and a parameter Z, where the parameter D represents a period of the BFD reference symbol of the first cell, and the parameter Z represents a period of the measurement interval. Specifically, when there is a partial overlap between the BFD reference symbol of the first cell and the measurement interval, the third factor=N2 / (1-D / Z), where N2 is a positive number; When there is an overlap between the reference symbol in the CBD of the first cell and the measurement interval, the third factor is related to a parameter F and a parameter Z, where the parameter F represents a period of the reference symbol in the CBD of the first cell, and the parameter Z represents a period of the measurement interval. Specifically, when there is a partial overlap between the reference symbol in the CBD of the first cell and the measurement interval, the third factor=N6 / (1-F / Z), where N6 is a positive number; When there is an overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, and there is an overlap between the BFD of the first cell and the measurement interval, the third factor is related to parameters D, E, and Z, where the parameter D represents the period of the reference symbol of the BFD of the first cell, the parameter Z represents the period of the measurement interval, and the parameter E represents the period of the reference symbol of the CBD of the third cell. Specifically, when there is a partial overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, and there is a partial overlap between the BFD of the first cell and the measurement interval, the third factor=N3 / (1-D / ED / Z), or the third factor=N3 / (1-E / DD / Z), or the third factor=N3 / (1-E / DE / Z), where N3 is a positive number; When there is an overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, the third factor is related to a parameter F and a parameter G, where the parameter F represents a period of the reference symbols of the CBD of the first cell, and the parameter G represents a period of the reference symbols of the BFD of the third cell. Specifically, when there is a partial overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, the third factor=N4 / (1-F / G), or the third factor=N4 / (1-G / F), where N4 is a positive number; When there is an overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, and when there is an overlap between the CBD of the first cell and the measurement interval, the third factor is related to parameters F, G, and Z, where parameter F represents the period of the reference symbol of the CBD of the first cell, parameter Z represents the period of the measurement interval, and parameter G represents the period of the reference symbol of the BFD of the third cell. Specifically, when there is a partial overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, and when there is a partial overlap between the CBD of the first cell and the measurement interval, the third factor=N5 / (1-F / GF / Z), or the third factor=N5 / (1-G / FF / Z), or the third factor=N5 / (1-G / FG / Z), where N5 is a positive number.

[0108] Among them, the third cell is A serving cell; a non-serving cell; The PCI may include at least one of a cell having a PCI different from that of the serving cell.

[0109] Here, when the first cell and the third cell are both non-serving cells, the first cell and the third cell may have different PCIs. When the first cell and the third cell are both cells with a PCI different from that of the serving cell, the first cell and the third cell have different PCIs. When the first cell and the third cell are both TRPs, the first cell and the third cell have different PCIs or TRP IDs, or correspond to different network nodes.

[0110] In practical application, the third factor may be applied to the measurement of the first cell or may be applied to the measurement of the third cell.

[0111] If the resources of the BFD of the first cell and the CBD of the third cell do not overlap, the value of the third factor is set to 1.

[0112] In practical application, the values ​​of N1, N2, N3, N4, N5 and N6 can be determined as needed, for example, based on at least one factor such as the period of the reference symbol, the DRX cycle, the CSSF, the MGRP, etc., and the value is, for example, 1 or 1.5, etc. The values ​​of N1, N2, N3, N4, N5 and N6 may be the same or different.

[0113] When there is a partial overlap between the BFD of the first cell and the CBD of the third cell, the BFD measurement of the first cell is performed only at the resource position that does not overlap with the CBD measurement of the third cell, i.e., the terminal performs measurement only at the position of the BFD reference symbol (which may be referred to as a reference symbol for BFD measurement) of the first cell where there is no overlap with the CBD resource of the third cell. Exemplarily, when the period of the BFD reference symbol of the first cell is smaller than the period of the CBD reference symbol (which may be referred to as a reference symbol for CBD measurement) of the third cell, the third factor = N1 / (1-D / E), in which case the third factor is applied to the BFD measurement of the first cell. When the period of the BFD reference symbol of the first cell is larger than the period of the CBD reference symbol of the third cell, the third factor = N1 / (1-E / D), in which case the third factor is applied to the CBD measurement of the third cell.

[0114] When there is a partial overlap between the BFD resource of the first cell and the measurement interval, the terminal performs measurements only at the positions of the BFD reference symbols of the first cell that do not overlap with the measurement interval. Specifically, when the period of the BFD reference symbols of the first cell is smaller than the period of the measurement interval, the terminal performs measurements only at the positions of the BFD reference symbols of the first cell that do not overlap with the measurement interval, in which case the third factor=N2 / (1-D / Z).

[0115] If there is a partial overlap between the resource of the CBD of the first cell and the measurement interval, the terminal performs measurements only at the positions of the reference symbols of the CBD of the first cell that do not overlap with the measurement interval. Specifically, if the period of the reference symbols of the CBD of the first cell is smaller than the period of the measurement interval, the terminal performs measurements only at the positions of the reference symbols of the CBD of the first cell that do not overlap with the measurement interval, in which case the third factor=N6 / (1-F / Z).

[0116] When the resource of the BFD of the first cell and the CBD of the third cell partially overlap, and when the resource of the BFD of the first cell and the measurement interval partially overlap, the terminal performs measurement only at the position of the BFD reference symbol of the first cell that does not overlap with the measurement interval and does not overlap with the reference symbol of the CBD of the third cell. Specifically, when the period of the BFD reference symbol of the first cell is smaller than the period of the measurement interval, and when the reference symbol of the BFD of the first cell and the reference symbol of the CBD of the third cell partially overlap, the terminal performs measurement only at the position of the BFD reference symbol of the first cell that does not overlap with the measurement interval and does not overlap with the reference symbol of the CBD of the third cell, in this case, the third factor is applied to the BFD measurement of the first cell. Of course, the terminal performs CBD measurement only at the position of the CBD reference symbol of the third cell that does not overlap with the measurement interval and does not overlap with the BFD of the first cell, in this case, the third factor is applied to the CBD measurement of the third cell. More specifically, a third factor = N3 / (1-D / ED / Z) and a third factor = N3 / (1-E / DD / Z) are applied to the measurements of the first cell, and a third factor = N3 / (1-E / DE / Z) is applied to the measurements of the third cell.

[0117] When there is a partial overlap between the resources of the CBD of the first cell and the BFD of the third cell, the CBD measurement of the first cell is performed only at the resource position that does not overlap with the BFD measurement of the third cell, that is, the terminal performs measurement only at the reference symbol position of the CBD of the first cell where there is no overlap with the resources of the BFD of the third cell. Specifically, when the period of the reference symbol of the CBD of the first cell is smaller than the period of the reference symbol of the BFD of the third cell, the third factor is applied to the BFD measurement of the first cell. When the period of the reference symbol of the CBD of the first cell is larger than the period of the reference symbol of the BFD of the third cell, the third factor is applied to the CBD measurement of the third cell.

[0118] When the resources of the CBD of the first cell and the BFD of the third cell partially overlap, and when the CBD of the first cell partially overlaps with the measurement interval, the terminal performs measurement only at the position of the reference symbol of the CBD of the first cell where there is no overlap with the measurement interval and no overlap with the reference symbol of the BFD of the third cell. Specifically, when the period of the reference symbol of the CBD of the first cell is smaller than the period of the measurement interval, and when the reference symbol of the CBD of the first cell and the reference symbol of the BFD of the third cell partially overlap, the terminal performs measurement only at the position of the reference symbol of the CBD of the first cell where there is no overlap with the measurement interval and no overlap with the reference symbol of the BFD of the third cell, in this case, the third factor is applied to the CBD measurement of the first cell. Of course, the terminal performs BFD measurement only at the position of the reference symbol of the BFD of the third cell where there is no overlap with the measurement interval and no overlap with the CBD of the first cell, in this case, the third factor is applied to the BFD measurement of the third cell. More specifically, a third factor = N5 / (1-F / GF / Z) and a third factor = N5 / (1-G / FF / Z) are applied to the measurements of the first cell, and a third factor = N5 / (1-G / FG / Z) is applied to the measurements of the third cell.

[0119] In one embodiment, the influence of the above factors on the measurement period (at least one of the first cell, the second cell, and the third cell) is: Measurement period = max(T,ceil(M*P)*reference symbol period*factor), Measurement period = M * P * reference symbol period * factor; Measurement period = ceil(M*P) * reference symbol period * factor; Measurement period = max (T, ceil (K * M * P) * max (DRX cycle, reference symbol period)) * factor; Measurement period = K * M * P * max (DRX cycle, reference symbol period) * factor; Measurement period = ceil(M*P)*DRX cycle*factor; Measurement period = max(T,ceil(M*P*N)*period of reference symbol)*factor; Measurement period = max (T, ceil (1.5 * M * P * N) * max (DRX cycle, reference symbol period)) * factor; Measurement period = ceil(1.5*M*P*N)*DRX cycle*factor; Measurement period = max(600ms,ceil(M*P)*reference symbol period)*CSSF*factor; Measurement period = max (600 ms, ceil (K * M * P) * max (reference symbol period, DRX cycle)) * CSSF * factor, Measurement period = ceil(M*P)*DRX cycle*CSSF*factor; Measurement period = max(600ms,ceil(M*P*Q)*reference symbol period)*CSSF*factor; Measurement period = max (600 ms, ceil (1.5 * M * P * Q) * max (reference symbol period, DRX cycle)) * CSSF * factor, Measurement period = ceil(M*P*Q)*DRX cycle*CSSF*factor; Measurement period = max (600 ms, M * max (MGRP, reference symbol period)) * CSSF * factor; Measurement period = max (600 ms, ceil (M * K) * max (MGRP, reference symbol period, DRX cycle)) * CSSF * factor; Measurement period = M * max (MGRP, DRX cycle) * CSSF * factor; Measurement period = max (600 ms, M * max (MGRP, reference symbol period)) * CSSF * factor; Measurement period = max (600 ms, ceil (1.5 * M) * max (MGRP, reference symbol period, DRX cycle)) * CSSF * factor; It may be expressed by one of the following equations: Measurement period=M*max(MGRP, DRX cycle)*CSSF*factor.

[0120] Wherein, max() is a function for obtaining a maximum value, ceil() is a function for rounding up, T is a specific time length, which may be used for reporting or measuring the measurement, M is an integer, the value of which can be set as necessary, for example, 1, 3, 5, 24, 40 or 64, P may be 1 or other positive number, the specific value of which is related to the reference symbol and measurement interval or SMTC of the serving cell, N is an integer, for example, the value of which is 8, which can be understood as related to the beam, K is a positive number, the value of which can be 1, 1.5 or 7.5, which can be understood as related to the configuration of high speed railway and / or the SMTC period, CSSF is a carrier measurement performance scaling factor (which may be expressed as Carrier-specific scaling factor in English), which can be understood as related to the number of frequency points and / or the number of frequency bands, and Q is 1 or 1.5, which can be understood as related to the time domain position of the RLM, BFD, CBD or L1 reference symbol and SMTC of the serving cell.

[0121] It should be noted here that the factor in the above formula may be a first factor, a second factor or a third factor.

[0122] In practical application, when measuring, the above three factors can be used alone according to the scene, or two of the above three factors can be used, or the three factors can be used simultaneously. When the above two or three factors are used, the factor in the formula is the product of the two or three factors.

[0123] In addition, in the embodiments of the present application, the length of the measurement period is related to a factor, and there is a direct multiplicative relationship between the factor in the above formula and the measurement period, and in actual applications, there may be other relationships between the factor and the measurement period, for example, the factor is in a function, and there is a direct multiplicative relationship between the measurement period and the function, etc.

[0124] Among them, in practical applications, when the factor in the above formula for determining the measurement period is the first factor, it may be applied to a scene in which the time offset between the serving cell and the first cell (which may be expressed as timing offset in English, and can be understood as the time difference between the reception of data or signals by the terminal from the serving cell and the first cell) is below a certain threshold (e.g., cyclic prefix (CP), or CP / 2, etc.).

[0125] In the formula for determining the measurement period above, when the factor is the second factor, it may be applied to a scene in which the time offset between the second cell and the first cell (which can be understood as the time difference between reception of data or signals from the second cell and the first cell by the terminal) is below a certain threshold (e.g., CP, or CP / 2, etc.).

[0126] In the formula for determining the measurement period above, when the factor is the third factor, it may be applied to a scene in which the time offset between the third cell and the first cell (which can be understood as the time difference between reception of data or signals from the third cell and the first cell by the terminal) is below a certain threshold (e.g., CP, or CP / 2, etc.).

[0127] It should be noted that for the first factor, the second factor and the third factor, if the corresponding time offset exceeds the corresponding threshold, the cell data of the non-serving cells may be added separately in the formula for determining the measurement period; specifically, in the above formula, in addition to multiplying the corresponding factor, the cell quantity of the non-serving cells may also be multiplied.

[0128] In order to achieve both robustness and mobility, the terminal may obtain auxiliary information (i.e., instruction information), and the terminal uses the auxiliary information to perform beam management measurements and / or related measurements for link quality monitoring of neighboring cells (i.e., BFD measurements and / or CBD measurements).

[0129] Based on this, in one embodiment, the first information includes: First indication information indicating whether to perform simultaneous measurements when there is an overlap between the L1 measurements of the first cell and the L1 measurements of the serving cell; second instruction information instructing whether to simultaneously measure the L1 measurement of the first cell and the L3 measurement of the second cell when there is an overlap between the two; third instruction information for instructing whether to perform simultaneous measurement when there is an overlap between the BFD measurement of the first cell and the CBD measurement of the third cell, or for instructing whether to perform simultaneous measurement when there is an overlap between the CBD measurement of the first cell and the BFD measurement of the third cell; and a fourth indication information indicating the first threshold or turning on or off a prompt report of the L1 measurement result of the first cell.

[0130] In practical application, the indication information may be indicated by TRUE or FALSE to indicate whether to perform simultaneous measurement, for example, TRUE indicates that simultaneous measurement is required, and FALSE indicates that simultaneous measurement is not required. It may also be indicated by a bit sequence, for example, a bit sequence value of 0 indicates that simultaneous measurement is not required, and a bit sequence value of 1 indicates that simultaneous measurement is required.

[0131] The first instruction information indicates whether the L1 measurement of the first cell needs to be abandoned when there is a collision between the L1 measurement of the first cell and the L1 measurement of the serving cell (in this case, since the L1 measurement of the serving cell affects link quality monitoring, the abandonment of the L1 measurement of the serving cell may not be considered so that a reasonable transmission / reception beam is configured for the terminal). If the first instruction information indicates to abandon the L1 measurement of the first cell, the terminal abandons the L1 measurement of the first cell, and in this case, the L1 measurement of the serving cell is not affected. If the first instruction information indicates not to abandon the L1 measurement of the first cell, the terminal needs to allocate resources between the first cell and the serving cell in consideration of both the L1 measurement of the first cell and the L1 measurement of the serving cell, and specifically, the terminal may perform the measurement based on a first factor. The first instruction information may be delivered from a network side (e.g., delivered via broadcast or RRC signaling). Exemplarily, the first factor may be delivered from a network side (e.g., delivered via RRC signaling). According to the manner of instruction by the network, different allocation manners can be realized in different scenes, and it is more adaptable. For example, if the network wants to ensure the beam management performance of the serving cell, the network may allocate more resources to the L1 measurement of the serving cell through the configuration of the first factor to reduce the impact on the L1 measurement of the serving cell. For example, if the network wants to quickly find a suitable neighboring cell beam and configure the neighboring cell beam for the terminal to realize high-speed data transmission and reception, the network may allocate more resources to the neighboring cell L1 measurement through the configuration of the first factor to accelerate the L1 measurement.

[0132] The second instruction information indicates whether a sharing mechanism needs to be turned on when there is a collision between the L1 measurement of the first cell and the L3 measurement of the second cell. If the second instruction information indicates not to turn on the sharing mechanism, the terminal needs to select which measurement to abandon from the L3 measurement of the second cell and the L1 measurement of the first cell, in which case the second instruction information may further instruct the terminal to abandon the L1 measurement of the first cell or to abandon the L3 measurement of the second cell. Exemplarily, when the network side wants to quickly complete the cell handover, the network side may instruct the terminal (for example, via RRC signaling) to perform L3 measurement of the neighboring cell (abandon L1 measurement of the neighboring cell) when there is a collision in the time domain. For example, when the network side wants to quickly find a beam of a suitable neighboring cell and configure the beam of the neighboring cell for the terminal to realize high-speed data transmission and reception, the network side may instruct the terminal (for example, via RRC signaling) to perform L1 measurement of the neighboring cell (abandon L3 measurement of the neighboring cell) when there is a collision in the time domain. If the second instruction information instructs to turn on the sharing mechanism, the terminal needs to take into account both the L1 measurement of the first cell and the L3 measurement of the second cell and allocate resources between them, and specifically, the terminal may perform measurements based on the second factor. Exemplarily, the second instruction information may be distributed from the network side (e.g., distributed via broadcast or RRC signaling). According to the manner of instruction by the network, different allocation manners can be used in different scenarios, and it is more adaptable. For example, if the network side wants to quickly complete cell handover, the network side may allocate more resources to the L3 measurement of the neighboring cell through the configuration of the second factor to accelerate the L3 measurement. For example, if the network side wants to quickly find a beam of a suitable neighboring cell and configure the beam of the neighboring cell for the terminal to realize high-speed data transmission and reception, the network side may allocate more resources to the L1 measurement of the neighboring cell through the configuration of the second factor to accelerate the L1 measurement.

[0133] The third instruction information may instruct whether to turn on a sharing mechanism when there is a collision between the BFD measurement of the first cell and the CBD measurement of the third cell. If the third instruction information instructs not to turn on a sharing mechanism, the terminal needs to select which measurement to abandon from the BFD measurement of the first cell and the CBD measurement of the third cell, in which case the third instruction information may further instruct the terminal to abandon the BFD measurement of the first cell or to abandon the CBD measurement of the third cell. Exemplarily, when the network side wants to perform the CBD measurement quickly, the network side may instruct the terminal (for example, via RRC signaling) to perform the CBD measurement (abandon the BFD measurement of the neighboring cell) when there is a collision in the time domain. For example, when the network side wants to detect the link quality more suitably, the network side may instruct the terminal (for example, via RRC signaling) to perform the BFD measurement of the first cell (abandon the CBD measurement of the neighboring cell) when there is a collision in the time domain. If the third instruction information instructs to turn on the sharing mechanism, the terminal needs to take into account both the BFD measurement of the first cell and the CBD measurement of the third cell and allocate resources between them, and specifically, the terminal may perform the measurement based on the third factor. Exemplarily, the third instruction information may be distributed from the network side (e.g., distributed via broadcast or RRC signaling). According to the method of instruction by the network, it is possible to realize that different allocation methods are used in different scenes, and it is more adaptable. For example, when the network side wants to perform CBD quickly, the network side may allocate more resources to the CBD measurement of the neighboring cell by configuring the third factor to accelerate the CBD measurement. For example, when the network side wants to detect the link quality more favorably, the network side may allocate more resources to the BFD measurement of the neighboring cell by configuring the third factor to accelerate the BFD measurement.

[0134] The third instruction information may instruct whether to turn on a sharing mechanism when there is a collision between the CBD measurement of the first cell and the BFD measurement of the third cell. If the third instruction information instructs not to turn on the sharing mechanism, the terminal needs to select which measurement to abandon from the CBD measurement of the first cell and the BFD measurement of the third cell, in which case the third instruction information may further instruct the terminal to abandon the CBD measurement of the first cell or to abandon the BFD measurement of the third cell. Exemplarily, when the network side wants to perform CBD quickly, the network side may instruct the terminal (for example, via RRC signaling) to perform CBD measurement of the first cell (abandon BFD measurement of the neighboring cell) when there is a collision in the time domain. For example, when the network side wants to detect link quality more suitably, the network side may instruct the terminal (for example, via RRC signaling) to perform BFD measurement of the third cell (abandon CBD measurement of the neighboring cell) when there is a collision in the time domain. If the third instruction information instructs to turn on the sharing mechanism, the terminal needs to take into account both the CBD measurement of the first cell and the BFD measurement of the third cell and allocate resources between them, and specifically, the terminal may perform the measurement based on the third factor. Exemplarily, the third instruction information may be distributed from the network side (e.g., distributed via broadcast or RRC signaling). According to the method of instruction by the network, it is possible to realize that different allocation methods are used in different scenarios, and it is more adaptable. For example, when the network side wants to perform CBD quickly, the network side may allocate more resources to the CBD measurement of the neighboring cell by configuring the third factor to accelerate the CBD measurement. For example, when the network side wants to detect the link quality more favorably, the network side may allocate more resources to the BFD measurement of the neighboring cell by configuring the third factor to accelerate the BFD measurement.

[0135] Regarding the fourth instruction information, the fourth instruction information instructs to turn on rapid reporting of the L1 measurement result of the first cell, or when the measurement result of L1 of the first cell is greater than or equal to the first threshold, the measurement result of L1 of the first cell is reported to the network side after P1 measurement results of L1 are obtained, and the fourth instruction information instructs to turn off rapid reporting of the L1 measurement result of the first cell, or when the measurement result of L1 of the first cell is less than the first threshold, the measurement result of L1 of the first cell is reported to the network side after Q1 measurement results of L1 are obtained, where P1 is an integer greater than or equal to 1, Q1 is an integer greater than or equal to 1, and P1 is less than Q1.

[0136] Wherein, the fourth instruction information instructs the terminal whether the measurement result of the beam management of the first cell, i.e., the measurement result of L1 of the first cell, can be quickly reported. For example, when the network side has data transmission and wants to quickly perform the beam handover of the neighboring cell, it may instruct to turn on the quick report via the fourth instruction information, so that the terminal can report immediately after obtaining the measurement result of L1. When the network side wants to ensure the stability of the beam handover of the neighboring cell, it may instruct to turn off the quick report via the fourth instruction information, so that the terminal can report after obtaining several (i.e., Q1) measurement results of L1.

[0137] Wherein, the fourth indication information indicates to the terminal that the L1 measurement result of the first cell can be promptly reported, and when P1 is 1, the terminal reports every time an L1 measurement result of the first cell is obtained, and when P1 is an integer greater than 1, the terminal reports every time P1 L1 measurement results of the first cell are obtained. Here, when reporting, the terminal may report an average value of the P1 measurement results, or may report a maximum or minimum value of the P1 measurement results, but the embodiment of the present application is not limited thereto.

[0138] If the fourth instruction information instructs the terminal to turn off the prompt reporting of the L1 measurement result of the first cell, the terminal can report after obtaining Q1 L1 measurement results of the first cell. In reporting, the terminal may report the average value of the Q1 measurement results, or may report the maximum or minimum value of the Q1 measurement results, but the embodiment of the present application is not limited thereto.

[0139] In practical application, the fourth indication information may be used to implicitly indicate to the terminal whether the measurement result of the beam management of the first cell can be quickly reported, and may be used to indicate to the terminal whether the measurement result of the beam management of the first cell can be quickly reported in the form of a counter.

[0140] More specifically, if the fourth instruction information is for instructing to turn on or off the rapid reporting of the L1 measurement result of the first cell, the fourth instruction information includes a first counter; If the number of obtained L1 measurement results of the first cell meets the requirement of the first counter, the terminal reports the measurement results.

[0141] Wherein, the counter value can indicate to the terminal whether the measurement result of the beam management of the first cell can be quickly reported. In practical application, the network side can configure different counter values ​​according to the needs of different scenarios to achieve both robustness and mobility performance.

[0142] If the fourth indication information indicates a first threshold, when the L1 measurement result of the first cell is equal to or greater than the first threshold (meaning that the current channel quality of the first cell is good, and the terminal can quickly report the measurement result), and P1 is 1, the terminal reports each time it obtains an L1 measurement result of the first cell, and when P1 is an integer greater than 1, the terminal reports each time it obtains an L1 measurement result of the first cell. Here, when reporting, the terminal may report the average value of P1 measurement results, or may report the maximum or minimum value of P1 measurement results, but the embodiment of the present application is not limited thereto. Accordingly, when the L1 measurement result of the first cell is less than the first threshold (meaning that the current channel quality of the first cell is poor, and the terminal cannot quickly report the measurement result), the terminal can report after obtaining Q1 L1 measurement results of the first cell. During reporting, the terminal may report the average value of the Q1 measurement results, or may report the maximum or minimum value of the Q1 measurement results, but the embodiments of the present application are not limited thereto.

[0143] In practical application, the values ​​of P1 and Q1 may be configured by the network side, for example via broadcast or RRC signaling, etc.

[0144] To increase robustness, a threshold for reporting beam management measurements (ie, a quality threshold) may be introduced such that only beams with a beam quality above the threshold are reported.

[0145] Based on this, in one embodiment, the method comprises: receiving second information transmitted from the network side, the second information indicating a second threshold; The method may further include reporting to the network side, among the L1 measurement results of the first cell, the measurement results that are equal to or above the second threshold.

[0146] Wherein, the network side may transmit the second information via broadcast or RRC signaling, etc., but the embodiment of the present application is not limited thereto.

[0147] In practical application, in order to increase robustness, the beam quantity of the first cell above the second threshold will be reported only if it meets a certain threshold.

[0148] Based on this, in one embodiment, the method comprises: receiving third information transmitted from the network side, the third information indicating a third threshold; The method may further include reporting, to the network side, the L1 measurement results that are equal to or above the second threshold among the L1 measurement results of the first cell when the number of the measurement results that are equal to or above the second threshold meets the third threshold.

[0149] Wherein, the network side may transmit the third information via broadcast or RRC signaling, etc., but the embodiment of the present application is not limited thereto.

[0150] Specifically, in one embodiment, the third information includes a second counter; If the number of L1 measurement results that are equal to or above the second threshold satisfies the requirement of the second counter, the terminal reports to the network side the L1 measurement results of the first cell that are equal to or above the second threshold.

[0151] Here, in practical application, the network side can configure different counter values ​​according to the needs of different scenarios to achieve robustness.

[0152] For the terminal's reporting of the L1 measurement of the first cell, if the network side configures the maximum value of the number of reportable beams for the terminal to be combined with the second threshold, the terminal can only report the beams that satisfy the quality threshold. If the number of beams that satisfy the quality threshold is greater than the maximum number of beams configured by the network, the terminal can only select and report the beams that satisfy the reporting requirement of the number of beams by sorting them in descending order of the quality threshold starting from the highest beam quality.

[0153] Based on this, in one embodiment, the method comprises: receiving fourth information sent from the network side, the fourth information indicating a maximum number of measurement results to be reported; The method may further include, when the number of measurement results equal to or greater than the second threshold among the measurement results of L1 is greater than the maximum number, selecting and reporting the maximum number of measurement results from the measurement results equal to or greater than the second threshold.

[0154] Wherein, the network side may transmit the fourth information via broadcast or RRC signaling, etc., but the embodiment of the present application is not limited thereto.

[0155] For reporting of measurement results related to beam management, the terminal may report absolute values, i.e. the terminal may report absolute values ​​of L1 measurement results of the first cell. The network may be configured to allow the terminal to report relative values ​​with respect to the measurement results of the first beam, i.e. the terminal may report relative values ​​of L1 measurement results of the first cell with respect to the measurement results of the first beam.

[0156] Wherein, the first beam quality may be the highest quality beam of the first cell or the highest quality beam of the serving cell, where the quality refers to a measurement quantity and may be referred to as a measurement result; SS-RSRP and SS-SINR and SS-RSRQ, L1-RSRP and L1-SINR and L1-RSRQ, CSI-RSRP and CSI-RSRQ, CSI-SINR and at least one of them.

[0157] Considering that a terminal may have performed measurements (L3 measurements) regarding the mobility of neighboring cells for the cell in which beam management measurements are performed, for such a terminal, the terminal may report the L3 measurement results at the same time as reporting the beam management measurement results for the target cell (i.e., the first cell).

[0158] Based on this, in one embodiment, when reporting the measurement result of L1 of the first cell, the method includes: The method further includes reporting the L3 measurement result of the first cell.

[0159] Wherein, the network side may instruct the terminal through signaling (such as RRC signaling) whether to report the L3 measurement result, which can help the network to better understand the target cell situation and is favorable for subsequent scheduling decisions.

[0160] Based on this, in one embodiment, the method comprises: receiving fifth information transmitted from the network side, the fifth information instructing the terminal whether to report a measurement result of L3 of a first cell; If the fifth information instructs the terminal to report L3 measurement results of the first cell, it may further include reporting L3 measurement results at the same time as reporting L1 measurement results of the first cell.

[0161] In step 202, the terminal performs a measurement, the measurement relating to the first information.

[0162] It should be noted that when the measurement of the first cell includes RLM, the reference symbol of the RLM measurement is the same type as the reference symbol of the L1 measurement, the CBD measurement, and the BFD measurement, and the processing method during the measurement is also the same as the processing method of these measurements, that is, the principle of the above factors can be applied to the RLM measurement.

[0163] After the terminal reports the measurement result of the first cell to the network side, the network side configures a beam handover based on the reported measurement result, and accordingly, the terminal performs a beam handover based on the configuration on the network side and hands over to the beam of an adjacent cell.

[0164] Accordingly, the embodiment of the present application further provides a measurement method applied to a network side, i.e., a network device (specifically, a base station), as shown in FIG. 3, the method includes the following steps 301-302: Step 301 is to determine first information, which is information about a measurement of a first cell, and the measurement of the first cell includes at least one of L1 measurement, CBD, BFD, and RLM; Step 302 is to send first information to a terminal.

[0165] In practical application, the network device determines the first information according to the needs of the scene, but the embodiment of the present application is not limited thereto.

[0166] In one embodiment, the first information includes fourth instruction information for instructing to turn on or off the prompt reporting of the L1 measurement result of the first cell or a first threshold; The L1 measurement result of the first cell reported from the terminal based on the first information is received.

[0167] In one embodiment, the method comprises: The method may further include transmitting to the terminal second information indicating a second threshold, the second threshold being for the terminal to report measurement results of L1 of the first cell that are equal to or greater than the second threshold.

[0168] In one embodiment, the method comprises: The method may further include transmitting third information to the terminal, the third information indicating a third threshold, the third threshold being for the terminal to report to the network side, among the L1 measurement results, measurement results that are equal to or greater than the second threshold when a number of the measurement results among the L1 measurement results that are equal to or greater than the second threshold satisfies the third threshold.

[0169] In one embodiment, the method comprises: The method may further include transmitting fourth information to the terminal indicating a maximum number of measurements to be reported.

[0170] In one embodiment, when receiving the L1 measurement result of the first cell, the method includes: The method may further include receiving an L3 measurement result of the primary cell reported from the terminal.

[0171] In one embodiment, the method comprises: transmitting fifth information to the terminal, the fifth information instructing the terminal whether to report a measurement result of L3 of the first cell; If the fifth information instructs the terminal to report L3 measurement results of the first cell, it may further include receiving L3 measurement results reported from the terminal at the same time as receiving the L1 measurement results of the first cell reported from the terminal.

[0172] In a measurement method according to an embodiment of the present application, a terminal acquires first information, which is information regarding measurements of a first cell, and the measurements of the first cell include at least one of L1 measurements, CBD, BFD, and RLM. In an aspect according to an embodiment of the present application, a terminal acquires information regarding L1 measurements of a neighboring cell, thereby enabling it to perform measurements based on the information, and further improving the stability of beam handover of the neighboring cell performed based on the L1 measurements and improving mobility performance. A terminal acquires information regarding measurements of link quality monitoring of the neighboring cell, thereby enabling it to perform measurements based on the information, and further realizing data transmission and reception with one or more neighboring cells without cell handover, thereby improving throughput and improving system performance.

[0173] In order to realize the method on the terminal side according to the embodiment of the present application, the embodiment of the present application further provides a measuring device provided in the terminal, as shown in FIG. 4, the device comprises: The wireless LAN system includes an acquisition unit 401 configured to acquire first information, which is information related to measurements of a first cell, and the measurements of the first cell include at least one of L1 measurements, CBD, BFD, and RLM.

[0174] In one embodiment, as shown in FIG. 4, the device comprises: It may further include a measurement unit 402 configured to perform a measurement based on the first information and to perform a measurement report.

[0175] In one embodiment, the first information includes fourth instruction information for instructing to turn on or off the prompt reporting of the L1 measurement result of the first cell or a first threshold; The measurement unit 402 includes: The fourth instruction information is configured to instruct to turn on rapid reporting of the L1 measurement result of the first cell, or to report the measurement result to the network side after obtaining P1 L1 measurement results of the first cell when the fourth instruction information instructs to turn off rapid reporting of the L1 measurement result of the first cell, or to report the measurement result to the network side after obtaining Q1 L1 measurement results of the first cell when the L1 measurement result of the first cell is less than the first threshold, where P1 is an integer greater than or equal to 1, Q1 is an integer greater than or equal to 1, and P1 is less than Q1.

[0176] Wherein, in one embodiment, if the fourth instruction information is for instructing to turn on or off the rapid reporting of the L1 measurement result of the first cell, the fourth instruction information includes a first counter; If the number of the obtained L1 measurement results of the first cell meets the requirement of the first counter, the measurement unit 402 reports the measurement result.

[0177] In one embodiment, the acquiring unit 401 is further configured to receive second information sent from the network side, the second information indicating a second threshold; The measurement unit 402 is configured to report to the network side, among the L1 measurement results of the first cell, the measurement results that are equal to or above the second threshold.

[0178] In one embodiment, the acquiring unit 401 is further configured to receive third information sent from the network side, the third information indicating a third threshold; The measurement unit 402 is configured to report, to the network side, the measurement results of L1 that are equal to or above the second threshold when the number of the measurement results of L1 that are equal to or above the second threshold meets a third threshold.

[0179] In one embodiment, the third information includes a second counter; If the number of the L1 measurement results that are equal to or greater than the second threshold satisfies the requirement of the second counter, the measurement unit 402 reports the L1 measurement results that are equal to or greater than the second threshold to the network side.

[0180] In one embodiment, the acquiring unit 401 is further configured to receive fourth information sent from the network side, the fourth information indicating a maximum number of measurement results to be reported; The measurement unit 402 is configured to select and report the maximum number of measurement results from among the measurement results of L1 that are equal to or above the second threshold when the number of measurement results equal to or above the second threshold is greater than the maximum number.

[0181] In one embodiment, the measurement unit 402 comprises: Report absolute measurement results or Or, The measurement result is configured to be reported relative to the measurement result of the first beam.

[0182] In one embodiment, when reporting the measurement result of L1 of the first cell, the measurement unit 402 is further configured to report the measurement result of L3 of the first cell.

[0183] In one embodiment, the acquiring unit 401 is further configured to receive fifth information sent from the network side, the fifth information instructing the terminal whether to report a L3 measurement result of a first cell; The measurement unit 402 is configured to report the L3 measurement result of the first cell at the same time as reporting the L1 measurement result of the first cell if the fifth information instructs the terminal to report the L3 measurement result of the first cell.

[0184] In practical application, the acquisition unit 401 and the measurement unit 402 may be realized by combining a processor and a communication interface in a measurement device.

[0185] In order to realize the method on the network device side according to the embodiment of the present application, the embodiment of the present application further provides a measuring device installed in the network device, as shown in FIG. 5 , the device: The wireless terminal includes a transmitting unit 501 configured to transmit first information to a terminal, the first information being information regarding measurements of a first cell, the measurements of the first cell including at least one of L1 measurements, CBD, BFD, and RLM.

[0186] In one embodiment, as shown in FIG. 5, the device comprises: It may further include a determining unit 502 configured to determine the first information.

[0187] In one embodiment, the device may further include a receiving unit, among which: The first information includes fourth instruction information for instructing whether to turn on or off the prompt reporting of the L1 measurement result of the first cell, or for instructing a first threshold; The receiving unit is configured to receive an L1 measurement result of a first cell reported from the terminal based on the first information.

[0188] In one embodiment, the transmitting unit 501 is further configured to transmit to the terminal second information indicating a second threshold, the second threshold being for the terminal to report measurement results of L1 of the first cell that are equal to or greater than the second threshold.

[0189] In one embodiment, the transmitting unit 501 is further configured to transmit to the terminal third information indicating a third threshold, the third threshold being for the terminal to report to the network side, among the L1 measurement results, those measurement results that are equal to or greater than the second threshold when the number of the measurement results of L1 that are equal to or greater than the second threshold satisfies the third threshold.

[0190] In one embodiment, the sending unit 501 is further configured to send fourth information to the terminal, the fourth information indicating a maximum number of measurement results to be reported.

[0191] In one embodiment, the receiving unit is configured to receive an L3 measurement result of the primary cell reported by the terminal when receiving an L1 measurement result of the primary cell.

[0192] In one embodiment, the sending unit 501 is further configured to send fifth information to the terminal, the fifth information instructing the terminal whether to report a measurement result of L3 of the first cell; If the fifth information instructs the terminal to report the L3 measurement result of the first cell, the receiving unit receives the L1 measurement result of the first cell reported from the terminal and at the same time receives the L3 measurement result reported from the terminal.

[0193] In practical application, the sending unit 501 and the receiving unit may be realized by a communication interface in a measuring device, and the determining unit 502 may be realized by a processor in the measuring device.

[0194] It should be noted that, when the measuring device according to the above embodiment performs measurement, the above-mentioned division of each program module is taken as an example, but in actual application, the above processes may be assigned to be performed by different program modules as necessary, that is, the internal structure of the device may be divided into different program modules to perform all or part of the processes described above. In addition, the measuring device according to the above embodiment belongs to the same concept as the embodiment of the measuring method, and the specific implementation procedure thereof is not repeated here, so please refer to the method embodiment for details.

[0195] Based on the hardware implementation of the above program modules, and in order to realize the method on the terminal side according to the embodiment of the present application, the embodiment of the present application further provides a terminal, as shown in FIG. 6, the terminal 600 includes: A first communication interface 601 capable of exchanging information with the network side; A first processor 602 connected to the first communication interface 601 so as to realize information exchange with a network side, the first processor 602 being configured to execute a method according to one or more technical aspects of the terminal side when a computer program is operated; and a first memory 603 in which the computer program is stored.

[0196] Specifically, the first processor 602 is configured to obtain first information, which is information regarding measurements of a first cell, and the measurements of the first cell include at least one of L1 measurements, CBD, BFD, and RLM.

[0197] In one embodiment, the first processor 602 receives first information sent from a network side through the first communication interface 601 .

[0198] In one embodiment, the first processor 602 is configured to perform measurements based on the first information via the first communication interface 601 and to report the measurements via the first communication interface 601 .

[0199] In one embodiment, the first information includes fourth instruction information for instructing to turn on or off the prompt reporting of the L1 measurement result of the first cell or a first threshold; The first processor 602 is The fourth instruction information is configured to instruct to turn on rapid reporting of the L1 measurement result of the first cell, or to report the measurement result to the network side after obtaining P1 L1 measurement results of the first cell when the fourth instruction information instructs to turn off rapid reporting of the L1 measurement result of the first cell, or to report the measurement result to the network side after obtaining Q1 L1 measurement results of the first cell when the L1 measurement result of the first cell is less than the first threshold, where P1 is an integer greater than or equal to 1, Q1 is an integer greater than or equal to 1, and P1 is less than Q1.

[0200] Wherein, in one embodiment, if the fourth instruction information is for instructing to turn on or off the rapid reporting of the L1 measurement result of the first cell, the fourth instruction information includes a first counter; If the number of the obtained L1 measurement results of the first cell meets the requirement of the first counter, the first processor 602 reports the measurement results.

[0201] In one embodiment, the first communication interface 601 is configured to receive second information sent from the network side, the second information indicating a second threshold; The first processor 602 is configured to report to the network side, among the L1 measurement results of the first cell, the measurement results that are equal to or greater than the second threshold.

[0202] In one embodiment, the first communication interface 601 is further configured to receive third information sent from the network side, the third information indicating a third threshold; The first processor 602 is configured to report, to the network side, the L1 measurement results that are equal to or above the second threshold when the number of L1 measurement results that are equal to or above the second threshold meets a third threshold.

[0203] In one embodiment, the third information includes a second counter; If the number of L1 measurement results that are equal to or greater than the second threshold satisfies the requirement of the second counter, the first processor 602 reports the L1 measurement results that are equal to or greater than the second threshold to the network side.

[0204] In one embodiment, the first communication interface 601 is further configured to receive fourth information sent from the network side, the fourth information indicating a maximum number of measurement results to be reported; The first processor 602 is configured to select and report the maximum number of measurement results from among the measurement results of L1 that are equal to or greater than the second threshold when the number of measurement results equal to or greater than the second threshold is greater than the maximum number.

[0205] In one embodiment, the first processor 602 is Report absolute measurement results or Or, The measurement result is configured to be reported relative to the measurement result of the first beam.

[0206] In one embodiment, when reporting L1 measurement results of the first cell, the first processor 602 is further configured to report L3 measurement results of the first cell via the first communication interface 601 .

[0207] In one embodiment, the first communication interface 601 is further configured to receive fifth information sent from the network side, the fifth information instructing the terminal whether to report a measurement result of L3 of a first cell; The first processor 602 is configured to report the L3 measurement results of the first cell at the same time as reporting the L1 measurement results of the first cell if the fifth information instructs the terminal to report the L3 measurement results of the first cell.

[0208] It should be noted that the specific processing procedures of the first processor 602 and the first communication interface 601 can be understood with reference to the above method.

[0209] Of course, in practical application, each component in the terminal 600 is coupled via a bus system 604. It is understood that the bus system 604 is configured to realize connection communication between these components. The bus system 604 includes a power bus, a control bus, and a status signal bus in addition to a data bus. However, for the sake of clarity, all the various buses are shown as the bus system 604 in FIG. 6.

[0210] In an embodiment of the present application, the first memory 603 is configured to store various types of data to support the operation of the terminal 600. Examples of such data include any computer programs for operating on the terminal 600.

[0211] The methods disclosed in the above embodiments of the present application may be implemented in the first processor 602 or implemented by the first processor 602. The first processor 602 may be an integrated circuit chip having the ability to process signals. In implementation, each step of the above method may be completed by an integrated logic circuit in hardware in the first processor 602 or a command in software form. The above-mentioned first processor 602 may be a general-purpose processor, a digital signal processor (DSP), or other programmable logic device, a discrete gate or transistor logic device, a discrete hardware component, etc. The first processor 602 may implement or execute each method, step, and logic block diagram disclosed in the embodiments of the present application. The general-purpose processor may be a microprocessor or any conventional processor, etc. The combination of steps in the methods disclosed in the embodiments of the present application may be directly embodied and implemented by a hardware decoder processor, or may be implemented by a combination of hardware and software modules in the decoder processor. The software module may be located in a storage medium, which is located in the first memory 603, and the first processor 602 reads the information in the first memory 603 and combines with its hardware to complete the steps in the above-mentioned method.

[0212] In an exemplary embodiment, terminal 600 may be implemented with one or more Application Specific Integrated Circuits (ASICs), DSPs, Programmable Logic Devices (PLDs), Complex Programmable Logic Devices (CPLDs), Field-Programmable Gate Arrays (FPGAs), general-purpose processors, controllers, Micro Controller Units (MCUs), Microprocessors, or other electronic components and configured to perform the methods described above.

[0213] Based on the hardware implementation of the above program modules, and in order to realize the method on the network device side according to the embodiment of the present application, the embodiment of the present application further provides a network device, as shown in FIG. 7, the network device 700 includes: A second communication interface 701 capable of exchanging information with a terminal; a second processor 702 connected to the second communication interface 701 so as to realize information exchange with a terminal, the second processor 702 being configured to execute a method according to one or more technical aspects of the network device side when a computer program is operated; and a second memory 703 in which the computer program is stored.

[0214] Specifically, the second communication interface 701 is configured to transmit first information to the terminal, which is information regarding measurements of a first cell, and the measurements of the first cell include at least one of L1 measurements, CBD, BFD, and RLM.

[0215] Wherein, in one embodiment, the second processor 702 is configured to determine the first information.

[0216] In one embodiment, the first information includes fourth instruction information for instructing to turn on or off the prompt reporting of the L1 measurement result of the first cell or a first threshold; The second communication interface 701 is further configured to receive an L1 measurement result of a first cell reported from the terminal based on the first information.

[0217] In one embodiment, the second communication interface 701 is further configured to transmit to the terminal second information indicating a second threshold, the second threshold being for the terminal to report measurement results of L1 of the first cell that are equal to or greater than the second threshold.

[0218] In one embodiment, the second communication interface 701 is further configured to transmit to the terminal third information indicating a third threshold, the third threshold being for the terminal to report to the network side, among the L1 measurement results, those measurement results that are equal to or greater than the second threshold when the number of the measurement results of L1 that are equal to or greater than the second threshold satisfies the third threshold.

[0219] In one embodiment, the second communication interface 701 is further configured to send fourth information to the terminal indicating a maximum number of measurements to be reported.

[0220] In one embodiment, the receiving unit is configured to receive an L3 measurement result of the first cell reported by the terminal when receiving an L1 measurement result of the first cell.

[0221] In one embodiment, the second communication interface 701 is further configured to send fifth information to the terminal, the fifth information instructing the terminal whether to report a measurement result of L3 of the first cell; If the fifth information instructs the terminal to report the L3 measurement results of the first cell, the second communication interface 701 receives the L1 measurement results of the first cell reported from the terminal and at the same time receives the L3 measurement results reported from the terminal.

[0222] It should be noted that the specific processing procedures of the second processor 702 and the second communication interface 701 can be understood with reference to the above method.

[0223] Of course, in practical application, each component in the network device 700 is coupled via a bus system 704. It is understood that the bus system 704 is configured to realize connection communication between these components. The bus system 704 includes a power bus, a control bus, and a status signal bus in addition to a data bus. However, for the sake of clarity, all the various buses are shown as the bus system 704 in FIG. 7.

[0224] In an embodiment of the present application, second memory 703 is configured to store various types of data to support the operation of network device 700. Examples of such data include any computer programs for operating on network device 700.

[0225] The methods disclosed in the above embodiments of the present application may be applied in or implemented by the second processor 702. The second processor 702 may be an integrated circuit chip having the ability to process signals. In implementation, each step of the above method may be completed by an integrated logic circuit in hardware in the second processor 702 or a command in software form. The above-mentioned second processor 702 may be a general-purpose processor, DSP, or other programmable logic device, discrete gate or transistor logic device, discrete hardware component, etc. The second processor 702 may implement or execute each method, step, and logic block diagram disclosed in the embodiments of the present application. The general-purpose processor may be a microprocessor or any conventional processor, etc. The combination of steps in the methods disclosed in the embodiments of the present application may be directly embodied and executed by a hardware decoder processor, or may be executed by a combination of hardware and software modules in the decoder processor. The software module may be located in a storage medium, which is located in the second memory 703, and the second processor 702 reads the information in the second memory 703 and combines with its hardware to complete the steps in the above-mentioned method.

[0226] In an exemplary embodiment, network device 700 may be implemented with one or more ASICs, DSPs, PLDs, CPLDs, FPGAs, general purpose processors, controllers, MCUs, microprocessors, or other electronic components and configured to perform the methods described above.

[0227] It can be understood that the memory (first memory 603, second memory 703) in the embodiment of the present application can be a volatile memory or a non-volatile memory, and can include both volatile and non-volatile memory. Among them, the non-volatile memory can be a read only memory (ROM), a programmable read-only memory (PROM), an erasable programmable read-only memory (EPROM), an electrically erasable programmable read-only memory (EEPROM), a ferromagnetic random access memory (FRAM), a flash memory, a magnetic surface memory, an optical disk, or a read only optical disk (CD-ROM, Compact Disc Read-Only Memory), and the magnetic surface memory can be a magnetic disk memory or a magnetic tape memory. The volatile memory can be a random access memory (RAM), and is used as an external high-speed cache.By way of example, various RAMs may be used, such as, but not limited to, static random access memory (SRAM), synchronous static random access memory (SSRAM), dynamic random access memory (DRAM), synchronous dynamic random access memory (SDRAM), double data rate synchronous dynamic random access memory (DDRSDRAM), enhanced synchronous dynamic random access memory (ESDRAM), synclink dynamic random access memory (SLDRAM), and direct memory bus random access memory (DRRAM). The memory described in the embodiments of the present disclosure includes, but is not limited to, these and any other suitable types of memory.

[0228] An embodiment of the present application further provides a measurement system, as shown in FIG. 8, the system includes a terminal 801 and a network device 802.

[0229] What should be explained here is that the specific processing procedures of the terminal 801 and the network device 802 have been described in detail above, and therefore will not be repeated here.

[0230] In an exemplary embodiment, the embodiment of the present application further provides a storage medium, i.e., a computer storage medium, specifically, a computer readable storage medium, for example, including a first memory 603 storing a computer program, the computer program being executable by the first processor 602 of the terminal 600 to complete the steps of the terminal-side method described above. Further, for example, a second memory 703 storing a computer program, the computer program being executable by the second processor 702 of the network device 700 to complete the steps of the terminal-side method described above. The computer readable storage medium may be a memory such as FRAM, ROM, PROM, EPROM, EEPROM, Flash Memory, magnetic surface memory, optical disk, or CD-ROM.

[0231] It should be clarified that terms such as "first" and "second" are used to distinguish between similar objects and are not necessarily used to describe a particular order or chronology.

[0232] Furthermore, the technical aspects described in the embodiments of the present application can be combined in any manner as long as they are not inconsistent.

[0233] The above are merely preferred embodiments of the present application, and are not intended to limit the scope of protection of the present application.

Claims

1. A measurement method applied to a terminal, comprising: obtaining first information relating to a measurement of a first cell, the measurement of the first cell comprising: Layer 1 measurements; Candidate Beam Detection (CBD); Beam Fault Detection (BFD); and Radio Link Monitoring (RLM).

2. The method of claim 1 , wherein the first cell comprises a non-serving cell or a cell having a physical cell identity (PCI) different from that of a serving cell.

3. The method of claim 1 , wherein the first information includes a first factor to be applied to a measurement period.

4. The first factor is Percentages and Positive numbers and Fractions and include one of them, When there is a partial overlap between the reference symbols of the serving cell and the reference symbols of the first cell, the first factor=K1 / (1−A / B), or the first factor=K1 / (1−B / A), where K1 is a positive number, A represents the period of the layer 1 reference symbols of the first cell, and B represents the period of the layer 1 reference symbols of the serving cell; If there is a partial overlap between the reference symbols of the first cell and the measurement interval, then the first factor=K2 / (1−A / Z), where K2 is a positive number, A represents the period of the layer 1 reference symbols of the first cell, and Z represents the period of the measurement interval; The method of claim 3, wherein when there is a partial overlap between the reference symbols of the serving cell and the reference symbols of the first cell and there is a partial overlap between the reference symbols of the first cell and the measurement interval, the first factor = K3 / (1-A / B-A / Z), or the first factor = K3 / (1-B / A-A / Z), or the first factor = K3 / (1-B / A-B / Z), where K3 is a positive number, A represents the period of the layer 1 reference symbols of the first cell, Z represents the period of the measurement interval, and B represents the period of the layer 1 reference symbols of the serving cell.

5. The first factor is When there is an overlap between the reference symbols of the serving cell and the reference symbols of the first cell, the first factor is related to a parameter A and a parameter B, where the parameter A represents a period of the reference symbols of the layer 1 of the first cell, and the parameter B represents a period of the reference symbols of the layer 1 of the serving cell; if there is an overlap between the reference symbols of the first cell and the measurement interval, the first factor is related to a parameter A and a parameter Z, where parameter A represents a period of the layer 1 reference symbols of the first cell and parameter Z represents a period of the measurement interval; 4. The method of claim 3, wherein when there is an overlap between the reference symbols of the serving cell and the reference symbols of the first cell and there is an overlap between the reference symbols of the first cell and the measurement interval, the first factor is related to parameters A, B and Z, and satisfies one of the following: parameter A represents a periodicity of the layer 1 reference symbols of the first cell, parameter Z represents a periodicity of the measurement interval, and parameter B represents a periodicity of the layer 1 reference symbols of the serving cell.

6. The method of claim 1 , wherein the first information includes a second factor to be applied to a measurement period.

7. The second factor is Percentages and Positive numbers and Fractions and include one of them, if there is a partial overlap between the layer 1 reference symbols of the first cell and the layer 3 reference symbols of the second cell, then the second factor=M1 / (1−A / C), or the second factor=M1 / (1−C / A), where M1 is a positive number, A represents the period of the layer 1 reference symbols of the first cell, and C represents the period of the layer 3 reference symbols of the second cell; If there is a partial overlap between the reference symbols of the first cell and the measurement interval, then the second factor=M2 / (1−A / Z), where M2 is a positive number, A represents the period of the layer 1 reference symbols of the first cell, and Z represents the period of the measurement interval; 7. The method of claim 6, wherein when there is a partial overlap between the reference symbols of the first cell and the reference symbols of the second cell and there is a partial overlap between the reference symbols of the first cell and the measurement interval, the second factor = M3 / (1-A / C-A / Z), or the second factor = M3 / (1-C / A-A / Z), or the second factor = M3 / (1-C / A-C / Z), where M3 is a positive number, A represents the period of the reference symbols of layer 1 of the first cell, Z represents the period of the measurement interval, and C represents the period of the reference symbols of layer 3 of the second cell.

8. The second factor is if there is an overlap between the layer 1 reference symbols of the first cell and the layer 3 reference symbols of the second cell, the second factor is related to parameters A and C, where parameter A represents a period of the layer 1 reference symbols of the first cell and parameter C represents a period of the layer 3 reference symbols of the second cell; if there is an overlap between the reference symbols of the first cell and the measurement interval, the second factor is related to a parameter A and a parameter Z, where parameter A represents a period of the layer 1 reference symbols of the first cell and parameter Z represents a period of the measurement interval; 7. The method of claim 6, wherein when there is an overlap between the reference symbols of the first cell and the reference symbols of the second cell and there is an overlap between the reference symbols of the first cell and the measurement interval, the second factor is related to parameters A, C and Z, and satisfies one of the following: parameter A represents a period of the reference symbols of layer 1 of the first cell, parameter Z represents a period of the measurement interval, and parameter C represents a period of the reference symbols of layer 3 of the second cell.

9. The method of claim 1 , wherein the first information includes a third factor to be applied to a measurement period.

10. The third factor is Percentages and Positive numbers and Fractions and include one of them, When there is a partial overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, the third factor=N1 / (1-D / E), or the third factor=N1 / (1-E / D), where N1 is a positive number, D represents the period of the reference symbols of the BFD of the first cell, and E represents the period of the reference symbols of the CBD of the third cell; If there is a partial overlap between the reference symbol of the BFD of the first cell and the measurement interval, the third factor=N2 / (1−D / Z), where N2 is a positive number, D represents the period of the reference symbol of the BFD of the first cell, and Z represents the period of the measurement interval; If there is a partial overlap between the reference symbol of the CBD of the first cell and the measurement interval, the third factor=N6 / (1−F / Z), where N6 is a positive number, F represents the period of the reference symbol of the CBD of the first cell, and Z represents the period of the measurement interval; When there is a partial overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, and there is a partial overlap between the BFD of the first cell and the measurement interval, the third factor=N3 / (1-D / E-D / Z), or the third factor=N3 / (1-E / D-D / Z), or the third factor=N3 / (1-E / D-E / Z), where N3 is a positive number, D represents the period of the reference symbols of the BFD of the first cell, Z represents the period of the measurement interval, and E represents the period of the reference symbols of the CBD of the third cell; When there is a partial overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, the third factor=N4 / (1−F / G), or the third factor=N4 / (1−G / F), where N4 is a positive number, F represents the period of the reference symbols of the CBD of the first cell, and G represents the period of the reference symbols of the BFD of the third cell; 10. The method of claim 9, wherein when there is a partial overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, and there is a partial overlap between the CBD of the first cell and the measurement interval, the third factor = N5 / (1-F / G-F / Z), or the third factor = N5 / (1-G / F-F / Z), or the third factor = N5 / (1-G / F-G / Z), where N5 is a positive number, F represents the period of the reference symbols of the CBD of the first cell, Z represents the period of the measurement interval, and G represents the period of the reference symbols of the BFD of the third cell.

11. The third factor is When there is an overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, the third factor is related to a parameter D and a parameter E, the parameter D representing a period of the reference symbols of the BFD of the first cell, and the parameter E representing a period of the reference symbols of the CBD of the third cell; When there is an overlap between the reference symbol of the BFD of the first cell and the measurement interval, the third factor is related to a parameter D and a parameter Z, where the parameter D represents a period of the reference symbol of the BFD of the first cell and the parameter Z represents a period of the measurement interval; When there is an overlap between the reference symbol of the CBD of the first cell and the measurement interval, the third factor is related to a parameter F and a parameter Z, where the parameter F represents a period of the reference symbol of the CBD of the first cell and the parameter Z represents a period of the measurement interval; When there is an overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, and there is an overlap between the BFD of the first cell and the measurement interval, the third factor is related to parameters D, E, and Z, where parameter D represents a period of the reference symbols of the BFD of the first cell, parameter Z represents a period of the measurement interval, and parameter E represents a period of the reference symbols of the CBD of the third cell; When there is an overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, the third factor is related to a parameter F and a parameter G, the parameter F representing a period of the reference symbols of the CBD of the first cell, and the parameter G representing a period of the reference symbols of the BFD of the third cell; The method of claim 9, wherein when there is an overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell and when there is an overlap between the CBD of the first cell and the measurement interval, the third factor is related to parameters F, G and Z, and satisfies one of the following: parameter F represents the period of the reference symbols of the CBD of the first cell, parameter Z represents the period of the measurement interval, and parameter G represents the period of the reference symbols of the BFD of the third cell.

12. The first information includes: First instruction information instructing whether to perform simultaneous measurements when there is an overlap between the Layer 1 measurements of the first cell and the Layer 1 measurements of the serving cell; second instruction information for instructing whether to perform simultaneous measurements when there is an overlap between the layer 1 measurement of the first cell and the layer 3 measurement of the second cell; Third instruction information instructing whether to simultaneously measure the BFD measurement of the first cell and the CBD measurement of the third cell when there is an overlap between the BFD measurement of the first cell and the CBD measurement of the third cell, or instructing whether to simultaneously measure the CBD measurement of the first cell and the BFD measurement of the third cell when there is an overlap between the BFD measurement of the first cell and the CBD measurement of the third cell; 2. The method of claim 1, further comprising at least one of: turning on or off rapid reporting of layer 1 measurements of the first cell; and a fourth indication indicating the first threshold.

13. The fourth instruction information instructs to turn on a quick report of the layer 1 measurement result of the first cell, or when the layer 1 measurement result of the first cell is equal to or greater than the first threshold, to report the measurement result to the network side after obtaining P1 layer 1 measurement results of the first cell; Alternatively, the fourth instruction information instructs turning off prompt reporting of the layer 1 measurement result of the first cell, or when the layer 1 measurement result of the first cell is less than the first threshold, the measurement result is reported to the network side after obtaining Q1 layer 1 measurement results of the first cell, P1 is an integer greater than or equal to 1, Q1 is an integer greater than or equal to 1, and P1 is less than Q1.

14. if the fourth indication is to turn on or off rapid reporting of layer 1 measurement results of the first cell, the fourth indication includes a first counter; The method of claim 12, further comprising reporting a measurement result if the number of layer 1 measurements obtained for a first cell satisfies the requirement of the first counter.

15. The method comprises: receiving second information transmitted from the network side, the second information indicating a second threshold; The method of claim 13, further comprising: reporting to the network side layer 1 measurement results of the first cell that are equal to or greater than the second threshold.

16. The method comprises: receiving third information transmitted from the network side, the third information indicating a third threshold; The method of claim 13, further comprising: reporting, to the network side, the layer 1 measurement results that are equal to or greater than the second threshold if a number of the layer 1 measurement results that are equal to or greater than the second threshold satisfies a third threshold.

17. the third information includes a second counter, The method of claim 16, further comprising: reporting, to the network side, among the layer 1 measurement results, the measurement results that are equal to or greater than the second threshold if the number of the measurement results among the layer 1 measurement results that are equal to or greater than the second threshold satisfies the requirement of the second counter.

18. The method comprises: receiving fourth information sent from the network side, the fourth information indicating a maximum number of measurement results to be reported; 17. The method of claim 16, further comprising: if a number of layer 1 measurements that are equal to or greater than the second threshold is greater than the maximum number, selecting and reporting the maximum number of measurements from among the layer 1 measurements that are equal to or greater than the second threshold.

19. Report absolute measurement results or Or, The method of claim 13, further comprising reporting the measurement relative to the measurement of the first beam.

20. The first beam is The highest quality beam from the first cell, 20. The method of claim 19, further comprising one of: a serving cell's best quality beam;

21. When reporting layer 1 measurements of the first cell, the method comprises: The method of claim 13 , further comprising reporting layer 3 measurements of the first cell.

22. The method comprises: receiving fifth information transmitted from the network side, the fifth information instructing the terminal whether to report a layer 3 measurement result of a first cell; 22. The method of claim 21, further comprising: if the fifth information instructs the terminal to report layer 3 measurement results of the first cell, reporting layer 3 measurement results simultaneously with reporting layer 1 measurement results of the first cell.

23. A measurement method applied to a network device, comprising: transmitting first information to the terminal, the first information being information related to a measurement of a first cell, the measurement of the first cell including: Layer 1 measurements; CBD and BFD and RLM.

24. 24. The method of claim 23, wherein the first cell comprises a non-serving cell or a cell with a different PCI than a serving cell.

25. The method of claim 23 , wherein the first information includes a first factor to be applied to a measurement period.

26. The first factor is Percentages and Positive numbers and Fractions and include one of them, When there is a partial overlap between the reference symbols of the serving cell and the reference symbols of the first cell, the first factor=K1 / (1−A / B), or the first factor=K1 / (1−B / A), where K1 is a positive number, A represents the period of the layer 1 reference symbols of the first cell, and B represents the period of the layer 1 reference symbols of the serving cell; If there is a partial overlap between the reference symbols of the first cell and the measurement interval, then the first factor=K2 / (1−A / Z), where K2 is a positive number, A represents the period of the layer 1 reference symbols of the first cell, and Z represents the period of the measurement interval; The method of claim 25, wherein when there is a partial overlap between the reference symbols of the serving cell and the reference symbols of the first cell and there is a partial overlap between the reference symbols of the first cell and the measurement interval, the first factor = K3 / (1-A / B-A / Z), or the first factor = K3 / (1-B / A-A / Z), or the first factor = K3 / (1-B / A-B / Z), where K3 is a positive number, A represents the period of the layer 1 reference symbols of the first cell, Z represents the period of the measurement interval, and B represents the period of the layer 1 reference symbols of the serving cell.

27. The first factor is When there is an overlap between the reference symbols of the serving cell and the reference symbols of the first cell, the first factor is related to a parameter A and a parameter B, where the parameter A represents a period of the reference symbols of the layer 1 of the first cell, and the parameter B represents a period of the reference symbols of the layer 1 of the serving cell; if there is an overlap between the reference symbols of the first cell and the measurement interval, the first factor is related to a parameter A and a parameter Z, where parameter A represents a period of the layer 1 reference symbols of the first cell and parameter Z represents a period of the measurement interval; 26. The method of claim 25, wherein when there is an overlap between the reference symbols of the serving cell and the reference symbols of the first cell and there is an overlap between the reference symbols of the first cell and the measurement interval, the first factor is related to a parameter A, a parameter B and a parameter Z, and satisfies one of the following: parameter A represents a periodicity of the layer 1 reference symbols of the first cell, parameter Z represents a periodicity of the measurement interval, and parameter B represents a periodicity of the layer 1 reference symbols of the serving cell.

28. 24. The method of claim 23, wherein the first information includes a second factor to be applied to a measurement period.

29. The second factor is Percentages and Positive numbers and Fractions and include one of them, if there is a partial overlap between the layer 1 reference symbols of the first cell and the layer 3 reference symbols of the second cell, then the second factor=M1 / (1−A / C), or the second factor=M1 / (1−C / A), where M1 is a positive number, A represents the period of the layer 1 reference symbols of the first cell, and C represents the period of the layer 3 reference symbols of the second cell; If there is a partial overlap between the reference symbols of the first cell and the measurement interval, then the second factor=M2 / (1−A / Z), where M2 is a positive number, A represents the period of the layer 1 reference symbols of the first cell, and Z represents the period of the measurement interval; 29. The method of claim 28, wherein when there is a partial overlap between the reference symbols of the first cell and the reference symbols of the second cell and there is a partial overlap between the reference symbols of the first cell and the measurement interval, the second factor = M3 / (1-A / C-A / Z), or the second factor = M3 / (1-C / A-A / Z), or the second factor = M3 / (1-C / A-C / Z), where M3 is a positive number, A represents the period of the reference symbols of layer 1 of the first cell, Z represents the period of the measurement interval, and C represents the period of the reference symbols of layer 3 of the second cell.

30. The second factor is if there is an overlap between the layer 1 reference symbols of the first cell and the layer 3 reference symbols of the second cell, the second factor is related to parameters A and C, where parameter A represents a period of the layer 1 reference symbols of the first cell and parameter C represents a period of the layer 3 reference symbols of the second cell; if there is an overlap between the reference symbols of the first cell and the measurement interval, the second factor is related to a parameter A and a parameter Z, where parameter A represents a period of the layer 1 reference symbols of the first cell and parameter Z represents a period of the measurement interval; 29. The method of claim 28, wherein when there is an overlap between the reference symbols of the first cell and the reference symbols of the second cell and there is an overlap between the reference symbols of the first cell and the measurement interval, the second factor is related to parameters A, C and Z, and satisfies one of the following: parameter A represents a period of the reference symbols of layer 1 of the first cell, parameter Z represents a period of the measurement interval, and parameter C represents a period of the reference symbols of layer 3 of the second cell.

31. The method of claim 23 , wherein the first information includes a third factor to be applied to a measurement period.

32. The third factor is Percentages and Positive numbers and Fractions and include one of them, When there is a partial overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, the third factor=N1 / (1-D / E), or the third factor=N1 / (1-E / D), where N1 is a positive number, D represents the period of the reference symbols of the BFD of the first cell, and E represents the period of the reference symbols of the CBD of the third cell; If there is a partial overlap between the reference symbol of the BFD of the first cell and the measurement interval, the third factor=N2 / (1−D / Z), where N2 is a positive number, D represents the period of the reference symbol of the BFD of the first cell, and Z represents the period of the measurement interval; If there is a partial overlap between the reference symbol of the CBD of the first cell and the measurement interval, the third factor=N6 / (1−F / Z), where N6 is a positive number, F represents the period of the reference symbol of the CBD of the first cell, and Z represents the period of the measurement interval; When there is a partial overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, and there is a partial overlap between the BFD of the first cell and the measurement interval, the third factor=N3 / (1-D / E-D / Z), or the third factor=N3 / (1-E / D-D / Z), or the third factor=N3 / (1-E / D-E / Z), where N3 is a positive number, D represents the period of the reference symbols of the BFD of the first cell, Z represents the period of the measurement interval, and E represents the period of the reference symbols of the CBD of the third cell; When there is a partial overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, the third factor=N4 / (1−F / G), or the third factor=N4 / (1−G / F), where N4 is a positive number, F represents the period of the reference symbols of the CBD of the first cell, and G represents the period of the reference symbols of the BFD of the third cell; 32. The method of claim 31, wherein when there is a partial overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, and there is a partial overlap between the CBD of the first cell and the measurement interval, the third factor = N5 / (1-F / G-F / Z), or the third factor = N5 / (1-G / F-F / Z), or the third factor = N5 / (1-G / F-G / Z), where N5 is a positive number, F represents the period of the reference symbols of the CBD of the first cell, Z represents the period of the measurement interval, and G represents the period of the reference symbols of the BFD of the third cell.

33. The third factor is When there is an overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, the third factor is related to a parameter D and a parameter E, the parameter D representing a period of the reference symbols of the BFD of the first cell, and the parameter E representing a period of the reference symbols of the CBD of the third cell; When there is an overlap between the reference symbol of the BFD of the first cell and the measurement interval, the third factor is related to a parameter D and a parameter Z, where the parameter D represents a period of the reference symbol of the BFD of the first cell and the parameter Z represents a period of the measurement interval; When there is an overlap between the reference symbol of the CBD of the first cell and the measurement interval, the third factor is related to a parameter F and a parameter Z, where the parameter F represents a period of the reference symbol of the CBD of the first cell and the parameter Z represents a period of the measurement interval; When there is an overlap between the reference symbols of the BFD of the first cell and the CBD of the third cell, and there is an overlap between the BFD of the first cell and the measurement interval, the third factor is related to parameters D, E, and Z, where parameter D represents a period of the reference symbols of the BFD of the first cell, parameter Z represents a period of the measurement interval, and parameter E represents a period of the reference symbols of the CBD of the third cell; When there is an overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell, the third factor is related to a parameter F and a parameter G, the parameter F representing a period of the reference symbols of the CBD of the first cell, and the parameter G representing a period of the reference symbols of the BFD of the third cell; The method of claim 31, wherein when there is an overlap between the reference symbols of the CBD of the first cell and the BFD of the third cell and when there is an overlap between the CBD of the first cell and the measurement interval, the third factor is related to parameters F, G and Z, and satisfies one of the following: parameter F represents the period of the reference symbols of the CBD of the first cell, parameter Z represents the period of the measurement interval, and parameter G represents the period of the reference symbols of the BFD of the third cell.

34. The first information includes: First instruction information instructing whether to perform simultaneous measurements when there is an overlap between the Layer 1 measurements of the first cell and the Layer 1 measurements of the serving cell; second instruction information for instructing whether to perform simultaneous measurements when there is an overlap between the layer 1 measurement of the first cell and the layer 3 measurement of the second cell; Third instruction information instructing whether to simultaneously measure the BFD measurement of the first cell and the CBD measurement of the third cell when there is an overlap between the BFD measurement of the first cell and the CBD measurement of the third cell, or instructing whether to simultaneously measure the CBD measurement of the first cell and the BFD measurement of the third cell when there is an overlap between the BFD measurement of the first cell and the CBD measurement of the third cell; 24. The method of claim 23, further comprising at least one of: turning on or off rapid reporting of layer 1 measurements of the first cell; and a fourth indication indicating the first threshold.

35. When the first information includes the fourth indication information, the method further comprises: The method of claim 34, further comprising receiving, from the terminal, layer 1 measurement results of a first cell reported based on the first information.

36. 36. The method of claim 35, wherein if the fourth instruction information instructs turning on or off rapid reporting of layer 1 measurement results of the first cell, the fourth instruction information includes a first counter for instructing the terminal to report measurement results if the number of obtained layer 1 measurement results of the first cell satisfies the requirement of a first counter.

37. The method comprises:

36. The method of claim 35, further comprising: transmitting to the terminal second information indicating a second threshold, the second threshold being for the terminal to report Layer 1 measurement results of a first cell that are equal to or greater than the second threshold.

38. The method comprises:

38. The method of claim 37, further comprising: transmitting to the terminal third information indicating a third threshold, the third threshold being for the terminal to report to the network side, among the layer 1 measurement results, measurement results equal to or greater than the second threshold when a number of the layer 1 measurement results equal to or greater than the second threshold satisfies the third threshold.

39. The method according to claim 36, wherein the third information includes a second counter for instructing the terminal to report, to the network side, the measurement results of Layer 1 that are equal to or greater than the second threshold if a number of the measurement results of Layer 1 that are equal to or greater than the second threshold satisfies a requirement of the second counter.

40. The method comprises:

38. The method of claim 37, further comprising: transmitting fourth information to the terminal indicating a maximum quantity of measurements to be reported.

41. When receiving layer 1 measurement results for the first cell, the method includes:

36. The method of claim 35, further comprising receiving layer 3 measurement results of a first cell reported from the terminal.

42. The method comprises: transmitting fifth information to the terminal, the fifth information instructing the terminal whether to report a layer 3 measurement result of the first cell; 42. The method of claim 41, further comprising: if the fifth information instructs the terminal to report Layer 3 measurement results for a first cell, receiving Layer 1 measurement results for the first cell reported from the terminal simultaneously with receiving Layer 3 measurement results reported from the terminal.

43. 1. A measurement device comprising: an acquisition unit configured to acquire first information, the first information being information related to a measurement of a first cell, the measurement of the first cell comprising: Layer 1 measurements; CBD and BFD and and RLM.

44. 1. A measurement device comprising: A transmitting unit configured to transmit to the terminal first information, the first information being information related to a measurement of a first cell, the measurement of the first cell including: Layer 1 measurements; CBD and BFD and and RLM.

45. A terminal including a first processor and a first communication interface, The first processor is configured to obtain first information, the first information being information relating to a measurement of a first cell, the measurement of the first cell including: Layer 1 measurements; CBD and BFD and A terminal including at least one of the following:

46. a network device including a second processor and a second communication interface, The second communication interface is configured to transmit first information to the terminal, the first information being information related to a measurement of a first cell, the measurement of the first cell including: Layer 1 measurements; CBD and BFD and A network device including at least one of the following:

47. 1. A terminal including a first processor and a first memory configured to store a computer program operable on the processor, A terminal, wherein the first processor is configured to execute the steps of the method according to any one of claims 1 to 22 when the computer program is run.

48. A network device including a second processor and a second memory configured to store a computer program operable on the processor, A network device, wherein said second processor is configured to execute the steps of the method according to any one of claims 23 to 42 when said second processor runs said computer program.

49. A storage medium storing a computer program, the computer program being executed by a processor to realize the steps of the method according to any one of claims 1 to 22, or the steps of the method according to any one of claims 23 to 42.

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