CN106612514B - Measurement scheduling method, device and terminal - Google Patents

Abstract

The invention discloses a measurement scheduling method, which comprises the following steps: when receiving a measurement configuration message which is sent by a network side and contains information of a B1 event or a B2 event, detecting whether a terminal is in a call connection state in a first system network; if yes, the pilot frequency point measurement is carried out according to a preset strategy until the frequency point meeting the report condition is measured, and the frequency point meeting the report condition is reported to the network side. The invention also discloses a measurement scheduling device and a terminal. By adopting the technical scheme of the invention, the measurement frequency points of the networks of all systems can be flexibly scheduled, the required measurement time before switching is reduced, and the switching success rate is improved.

Description

Measurement scheduling method, device and terminal

Technical Field

The present invention relates to a measurement scheduling technology in the field of communications, and in particular, to a measurement scheduling method, apparatus, and terminal.

Background

Currently, when a terminal (UE) moves to a VoLTE (Voice over lte) coverage edge, an ongoing VoLTE call should be switched to 2/3G network through Single Radio Voice Call Continuity (SRVCC) to ensure Voice continuity. Therefore, SRVCC handover success rate is crucial to the user experience. The SRVCC measurement delay of the terminal directly affects the SRVCC handover success rate, and the longer the SRVCC measurement delay is, the terminal may fail to report the measurement result in a handover failure and drop a call, and the lower the SRVCC handover success rate is. Therefore, optimizing the SRVCC measurement delay becomes a problem that the terminal needs to solve urgently.

In the prior art, when a VoLTE terminal performs a voice call, a network preferentially ensures that the terminal performs a same-system handover during the VoLTE call, that is, a Long Term Evolution (LTE) system same-system inter-frequency point measurement is issued first, and then an 2/3G inter-system frequency point measurement is issued. Therefore, when the terminal performs the SRVCC measurement, the 2/3/4G frequency point is measured at the same time. After the network sends a Measurement control message, the terminal adopts a polling Measurement mechanism for all 2/3/4G frequency points, the terminal respectively and equally distributes m Measurement intervals (Measurement gaps) to measure each Measurement object until all the Measurement objects are completed, then a new round of polling is carried out, and so on until a target frequency point meeting a Measurement event is reported.

Taking a typical scenario of a chinese Mobile as an example, 3 LTE adjacent frequency points are configured, 3 Time Division-Synchronous Code Division Multiple Access (TD-SCDMA) adjacent frequency points are configured, 1 GSM frequency point cluster (including 16 GSM frequency points) is configured in a Global System for Mobile Communication (GSM), and based on external field test data, 80% of a measurement Time from a VoLTE terminal SRVCC to a GSM is concentrated in 19 seconds, and the measurement Time is too long, which seriously affects a success rate of SRVCC. According to the measured data of the external field, the switching success rate of the SRVCC during walking is only about 60%, and it is expected that the switching success rate of the SRVCC will be lower under the high-speed and fast-aging environment, and the commercial requirement cannot be met.

Disclosure of Invention

In view of this, the present invention is expected to provide a measurement scheduling method, a measurement scheduling device, and a terminal, which can flexibly schedule measurement frequency points of networks of various systems, reduce measurement time required before handover, and improve handover success rate.

In order to achieve the purpose, the technical scheme of the invention is realized as follows:

the invention provides a measurement scheduling method, which comprises the following steps:

when receiving the measurement configuration message containing the information of the B1 event or the B2 event sent by the network side,

detecting whether the terminal is in a call connection state under a first standard network;

if yes, the pilot frequency point measurement is carried out according to a preset strategy until the frequency point meeting the report condition is measured, and the frequency point meeting the report condition is reported to the network side.

In the foregoing scheme, preferably, the performing pilot frequency point measurement according to a preset strategy includes:

setting the priority order of each system network;

and measuring the pilot frequency points under the networks of all systems according to the priority sequence.

In the foregoing scheme, preferably, before the measuring the pilot frequency points in the network of each system according to the priority order, the method further includes:

acquiring the total number N of frequency points to be measured in each system network configured by a network side from the measurement configuration message;

and respectively allocating measurement interval duration for performing pilot frequency point measurement to each system network, so that the sum of the measurement interval duration allocated to each system network is equal to N measurement interval periods (MGRP).

In the foregoing scheme, preferably, the allocating, to each standard network, measurement interval durations for performing pilot frequency point measurement so that a sum of the measurement interval durations allocated to each standard network is equal to N MGRPs includes:

allocating the duration of q measurement intervals (GAP) to a first standard network for measuring the frequency point of the first standard network;

allocating the durations of the m GAPs to a second standard network for measuring the frequency points of the second standard network;

allocating the durations of the n GAPs to a third-standard network for measuring the frequency points of the third-standard network;

by analogy, allocating the durations of the X GAPs to the network of the X standard to be used for measuring the frequency points of the network of the X standard;

wherein q + m + N + … + x is N.

In the foregoing scheme, preferably, the allocating interval durations between measurements for performing pilot frequency point measurement to each standard network respectively so that a sum of the interval durations allocated to each standard network is equal to N MGRPs further includes:

allocating q% of measurement duration to the first standard network for measuring the frequency point of the first standard network;

distributing m% of the measurement duration to a second standard network for measuring the frequency point of the second standard network;

distributing n% of measurement duration to a third standard network for measuring frequency points of the third standard network;

by analogy, allocating X% of measurement duration to the X-th standard network for measuring the frequency point of the X-th standard network;

wherein q + m + n + … + x is 100.

In the foregoing scheme, preferably, the measuring the pilot frequency points in the network of each system according to the priority order includes:

taking a first measurement interval distributed by a network side as an initial position, and recording as a 1 st GAP;

for the ith GAP, i is a positive integer greater than or equal to 1;

firstly, judging whether a network with a first priority has allocated m GAPs, wherein m is the number of GAPs allocated to the network with the first priority for carrying out frequency point measurement; if not, continuing to allocate the ith GAP to the network with the first priority;

if yes, allocating the ith GAP to a network with a second priority, and judging whether the network with the second priority is allocated with full q, wherein q is the number of GAPs allocated to the network with the second priority and used for performing frequency point measurement; if not, continuing to allocate the (i + 1) th GAP to the network with the second priority; if yes, allocating the (i + 1) th GAP to the network with the third priority level, and judging whether the network with the third priority level is allocated with n networks; wherein n is the number of GAPs for performing frequency point measurement allocated to the third priority network;

by the way of analogy, the method can be used,

until obtaining the frequency point meeting the report condition.

The invention also provides a measurement scheduling device, which comprises:

a receiving module, configured to receive a measurement configuration message sent by a network side and containing information of a B1 event or a B2 event;

the detection module is used for detecting whether the terminal is in a call connection state under a first standard network;

the control module is used for measuring the pilot frequency points according to a preset strategy when the detection module determines that the terminal is in a call connection state in a first standard network until the frequency points meeting the report condition are measured; and reporting the frequency points meeting the reporting conditions to the network side.

In the foregoing solution, preferably, the control module includes:

the setting submodule is used for setting the priority order of each system network;

and the measurement submodule is used for measuring the pilot frequency points under the networks of all systems according to the priority sequence.

In the foregoing solution, preferably, the control module further includes:

the acquisition submodule is used for acquiring the total number N of frequency points to be measured in each system network configured by the network side from the measurement configuration message;

and the distribution submodule is used for respectively distributing the measurement interval duration for carrying out pilot frequency point measurement for the networks of all the systems, so that the sum of the measurement interval durations distributed for the networks of all the systems is equal to the N MGRPs.

In the foregoing solution, preferably, the allocation submodule is further configured to:

allocating the durations of the q GAPs to a first standard network for measuring the frequency points of the first standard network;

allocating the durations of the m GAPs to a second standard network for measuring the frequency points of the second standard network;

allocating the durations of the n GAPs to a third-standard network for measuring the frequency points of the third-standard network;

by analogy, allocating the durations of the X GAPs to the network of the X standard to be used for measuring the frequency points of the network of the X standard;

wherein q + m + N + … + x is N.

In the foregoing solution, preferably, the allocation submodule is further configured to:

allocating q% of measurement duration to the first standard network for measuring the frequency point of the first standard network;

distributing m% of the measurement duration to a second standard network for measuring the frequency point of the second standard network;

distributing n% of measurement duration to a third standard network for measuring frequency points of the third standard network;

by analogy, allocating X% of measurement duration to the X-th standard network for measuring the frequency point of the X-th standard network;

wherein q + m + n + … + x is 100.

In the foregoing solution, preferably, the measurement submodule is further configured to:

taking a first measurement interval distributed by a network side as an initial position, and recording as a 1 st GAP;

for the ith GAP, i is a positive integer greater than or equal to 1;

firstly, judging whether a network with a first priority has allocated m GAPs, wherein m is the number of GAPs allocated to the network with the first priority for carrying out frequency point measurement; if not, continuing to allocate the ith GAP to the network with the first priority;

if yes, allocating the ith GAP to a network with a second priority, and judging whether the network with the second priority is allocated with full q, wherein q is the number of GAPs allocated to the network with the second priority and used for performing frequency point measurement; if not, continuing to allocate the (i + 1) th GAP to the network with the second priority; if yes, allocating the (i + 1) th GAP to the network with the third priority level, and judging whether the network with the third priority level is allocated with n networks; wherein n is the number of GAPs for performing frequency point measurement allocated to the third priority network;

by the way of analogy, the method can be used,

until obtaining the frequency point meeting the report condition.

The invention also provides a terminal which comprises the measurement scheduling device.

The measurement scheduling method, the device and the terminal provided by the invention detect whether the terminal is in a call connection state under a first standard network when receiving a measurement configuration message which is sent by a network side and contains B1 event or B2 event information; if yes, carrying out pilot frequency point measurement according to a preset strategy until the frequency points meeting the report condition are measured, and reporting the frequency points meeting the report condition to the network side; therefore, the measurement frequency point objects of the network (such as 2G/3G/4G) of each system can be flexibly scheduled, the opportunity of continuously measuring the network frequency points of each system is improved, the required measurement time before switching is shortened, the switching success rate is improved, and the user experience in the edge area of the network of a certain system is improved.

Drawings

FIG. 1 is a flow chart of an implementation of a measurement scheduling method provided by the present invention;

fig. 2 is a flowchart of an implementation of the LTE terminal performing inter-frequency inter-system measurement scheduling according to the present invention;

fig. 3 is a flowchart of another implementation of the LTE terminal performing inter-frequency inter-system measurement scheduling according to the present invention;

fig. 4 is a flowchart of another implementation of the LTE terminal performing inter-frequency inter-system measurement scheduling according to the present invention;

fig. 5 is a flowchart illustrating another implementation of the inter-frequency inter-system measurement scheduling performed by the LTE terminal according to the present invention;

fig. 6 is a schematic diagram of a structure of a measurement scheduling apparatus according to the present invention.

Detailed Description

So that the manner in which the features and aspects of the present invention can be understood in detail, a more particular description of the invention, briefly summarized above, may be had by reference to embodiments, some of which are illustrated in the appended drawings.

Example one

Fig. 1 is a flowchart of an implementation of the measurement scheduling method provided by the present invention, and as shown in fig. 1, the method mainly includes the following steps:

step 101: and receiving a measurement configuration message which is sent by the network side and contains the information of the B1 event or the B2 event.

In the 3GPP standard, the B1 event represents that the inter-system cell is higher than the first threshold, the B2 event represents that the LTE serving cell is lower than the second threshold and the inter-system cell is higher than the first threshold.

Here, the 3GPP is short for 3rd Generation Partnership Project, wherein the text name may be "third Generation Partnership Project".

Preferably, the measurement configuration message may further include one or more of the following information:

the UE needs to measure the objects, the cell list, the reporting mode, the measurement identifier and the event parameter.

Step 102: whether the terminal is in a call connection state in a first system network is detected.

In this embodiment, the first standard network may be a 2G network, a 3G network, a 4G network, a 5G network, or the like.

For example, when the network of the first standard is 4G, the call connection state may be a VoLTE call state.

Step 103: if yes, the pilot frequency point measurement is carried out according to a preset strategy until the frequency point meeting the report condition is measured, and the frequency point meeting the report condition is reported to the network side.

Here, the pilot frequency point measurement may include pilot frequency point measurement of the same system, and may also include pilot frequency point measurement of a different system.

Preferably, the performing pilot frequency point measurement according to a preset strategy may include:

setting the priority order of each system network;

and measuring the pilot frequency points under the networks of all systems according to the priority sequence.

Preferably, before the measuring the pilot frequency points in the network of each system according to the priority order, the method may further include:

acquiring the total number N of frequency points to be measured in each system network configured by a network side from the measurement configuration message;

and respectively allocating Measurement interval durations for performing different-frequency point Measurement to each system network, so that the sum of the Measurement interval durations allocated to each system network is equal to N Measurement interval periods (MGRP).

For example, in the 3GPP standard, MGRP is 40 or 80.

Preferably, the allocating, to each standard network, measurement interval durations for performing pilot frequency point measurement respectively so that a sum of the measurement interval durations allocated to each standard network is equal to N MGRPs may include:

allocating the durations of q measurement intervals GAP to a first standard network for measuring the frequency points of the first standard network;

allocating the durations of the m GAPs to a second standard network for measuring the frequency points of the second standard network;

allocating the durations of the n GAPs to a third-standard network for measuring the frequency points of the third-standard network;

by analogy, allocating the durations of the X GAPs to the network of the X standard to be used for measuring the frequency points of the network of the X standard;

wherein q + m + N + … + x is N.

Preferably, the allocating interval durations between measurements for performing pilot frequency point measurement to each standard network respectively so that the sum of the interval durations allocated to each standard network is equal to N MGRPs may further include:

allocating q% of measurement duration to the first standard network for measuring the frequency point of the first standard network;

distributing m% of the measurement duration to a second standard network for measuring the frequency point of the second standard network;

distributing n% of measurement duration to a third standard network for measuring frequency points of the third standard network;

by analogy, allocating X% of measurement duration to the X-th standard network for measuring the frequency point of the X-th standard network;

wherein q + m + n + … + x is 100.

Of course, the distribution manner is not limited to the two listed forms, and will not be described herein.

The first standard network may be a 4G network, such as an LTE network; the second standard network is a 2G network, such as a Global System For Mobile communications (GSM) network; the third-standard network may be a 3G network, such as a Code Division Multiple Access (CDMA) network.

Specifically, the measuring the pilot frequency points in the network of each system according to the priority order may include:

taking a first measurement interval distributed by a network side as an initial position, and recording as a 1 st GAP;

for the ith GAP, i is a positive integer greater than or equal to 1;

firstly, judging whether a network with a first priority has allocated m GAPs, wherein m is the number of GAPs allocated to the network with the first priority for carrying out frequency point measurement; if not, continuing to allocate the ith GAP to the network with the first priority;

if yes, allocating the ith GAP to a network with a second priority, and judging whether the network with the second priority is allocated with full q, wherein q is the number of GAPs allocated to the network with the second priority and used for performing frequency point measurement; if not, continuing to allocate the (i + 1) th GAP to the network with the second priority; if yes, allocating the (i + 1) th GAP to the network with the third priority level, and judging whether the network with the third priority level is allocated with n networks; wherein n is the number of GAPs for performing frequency point measurement allocated to the third priority network;

by the way of analogy, the method can be used,

until obtaining the frequency point meeting the report condition.

In the measurement scheduling method of this embodiment, when receiving a measurement configuration message that includes a B1 event or B2 event information and is sent by a network side, it is detected whether a terminal is in a call connection state in a network of a first system; if yes, carrying out pilot frequency point measurement according to a preset strategy until the frequency points meeting the report condition are measured, and reporting the frequency points meeting the report condition to the network side; therefore, the measurement frequency point objects of the network of each system can be flexibly scheduled, the opportunity of continuously measuring the network frequency points of each system is improved, the measurement time required before switching is shortened, the switching success rate is improved, and the user experience in the edge area of the network of a certain system is improved.

Example two

Fig. 2 is a flowchart of an implementation of the LTE terminal performing inter-frequency inter-system measurement scheduling, as shown in fig. 2, the method mainly includes the following steps:

step 201: when the terminal performing VoLTE call moves to the edge of the serving cell, the signal of the serving cell further decreases, and the network configures a B1/B2 event to the terminal.

In the 3GPP standard, the B1 event represents that the inter-system cell is higher than the first threshold, the B2 event represents that the LTE serving cell is lower than the second threshold and the inter-system cell is higher than the first threshold.

Step 202: after the terminal receives the event B1/B2 configured by the network, the detection module detects whether the terminal is in the VoLTE call at the moment.

Here, the detection module is located in the measurement scheduling apparatus.

Step 203: after confirming that the terminal is in the VoLTE call at present, the control module performs measurement scheduling and resource allocation on all 2/3/4G adjacent frequency points configured by the a event and the B event configured by the network.

Here, the control module is located in the measurement scheduling apparatus.

Wherein the A event is A2 or A4; specifically, in the 3GPP standard, the a2 event represents that the LTE serving cell is lower than the third threshold; at this time, the terminal only measures the serving cell without configuring a measurement interval by the network; the event a4 represents that the LTE adjacent frequency is higher than the fourth threshold, and at this time, the terminal measures the serving cell and needs to configure a measurement interval by the network.

Wherein the B event is B1 or B2; specifically, in the 3GPP standard, a B1 event represents that the inter-system cell is higher than the first threshold, and a B2 event represents that the LTE serving cell is lower than the second threshold and the inter-system cell is higher than the first threshold.

Specifically, the step 203 may include:

step 2031: the control module acquires that the number of all 2G/3G/4G frequency points (or frequency point clusters) to be measured is N, and allocates the number of GAPs (GAP GAPs) for the 2G/3G/4G respectively;

specifically, in the duration of N × MGRP, m GAPs are allocated to 2G frequency point cluster measurement, N GAPs are allocated to 3G inter-system frequency point measurement, q GAPs are allocated to LTE inter-frequency point measurement, where m + N + q is N.

Step 2032: the control module sets the prior measurement sequence of the 2G, 3G and 4G pilot frequency points to be 2G >4G > 3G;

step 2033: allocating a first measurement interval allocated by the network as an initial position, namely a 1 st GAP, to the 2G network for measuring the 2G frequency point;

step 2034: when the ith GAP is in use, judging whether the 2G frequency point is allocated with m GAPs;

step 2035: if not, continuously allocating the ith GAP for 2G frequency point measurement;

that is, a continuous GAP will be allocated for the frequency sweep of the GSM frequency bin cluster.

Step 2036: if the full m GAPs are allocated for measuring the 2G frequency points, the ith GAP is allocated for measuring the 4G frequency points;

step 2037: continuously judging whether the 4G frequency point is allocated with full q GAPs, and assuming that the current frequency point is the jth GAP; if not, the jth GAP is allocated to be used for measuring the 4G frequency points; and if the j GAP is allocated to the q GAPs, the j GAP is allocated to the measurement of the 3G frequency point, whether the 3G frequency point is allocated to the n GAPs is continuously judged, and the process is repeated until the frequency point meeting the report condition is obtained, and the report of the frequency point meeting the report condition is completed.

EXAMPLE III

Fig. 3 is another flowchart for implementing inter-frequency inter-system measurement scheduling by an LTE terminal according to the present invention, where N is 0, q is 0, and m is N based on the measurement scheduling method described in the second embodiment, as shown in fig. 3, the flowchart mainly includes:

step 301: after the network issues a B1/B2 event, a detection module firstly confirms whether the terminal is in the VoLTE call process;

step 302: after the detection module confirms that the terminal is in the VoLTE call, the control module uses the measurement intervals distributed by all networks after the time of B1/B2 for the measurement of the GSM frequency point cluster, and stops the measurement of the 3G/4G frequency point;

step 303: and the terminal finishes the measurement and reporting of the GSM target frequency point.

Here, the detection module and the control module are located in the measurement scheduling device.

Example four

Fig. 4 is a flowchart of another implementation of the inter-frequency and inter-system measurement scheduling performed by the LTE terminal according to the present invention, where, based on the measurement scheduling method described in the second embodiment, when N is 0, m is 0, and q is N, as shown in fig. 4, the flowchart mainly includes:

step 401: after the network issues a B1/B2 event, a detection module firstly confirms whether the terminal is in the VoLTE call process;

step 402: after the detection module confirms that the terminal is in the VoLTE call, the control module uses the measurement intervals distributed by all networks after the time of B1/B2 for the measurement of the 4G frequency point, and stops the measurement of the 2G/3G frequency point;

step 403: and the terminal finishes the 4G target frequency point measurement and reports.

Here, the detection module and the control module are located in the measurement scheduling device.

EXAMPLE five

Fig. 5 is a flowchart of another implementation of the LTE terminal performing inter-frequency inter-system measurement scheduling, where based on the measurement scheduling method described in the second embodiment, when q is 0, m is 0, and N is N, as shown in fig. 5, the flowchart mainly includes:

step 501: after the network issues a B1/B2 event, a detection module firstly confirms whether the terminal is in the VoLTE call process;

step 502: after the detection module confirms that the terminal is in the VoLTE call, the control module uses the measurement intervals distributed by all networks after the time of B1/B2 for the measurement of the 3G frequency point and stops the measurement of the 2G/4G frequency point;

step 503: and the terminal finishes the measurement and reporting of the 3G target frequency point.

Here, the detection module and the control module are located in the measurement scheduling device.

EXAMPLE six

Fig. 6 is a schematic structural diagram of a measurement scheduling apparatus provided in the present invention, and as shown in fig. 6, the apparatus includes: a receiving module 61, a detecting module 62 and a control module 63; wherein the content of the first and second substances,

the receiving module 61 is configured to receive a measurement configuration message sent by a network side and containing information of a B1 event or a B2 event;

the detection module 62 is configured to detect whether the terminal is in a call connection state in a first standard network;

the control module 63 is configured to, when the detection module determines that the terminal is in a call connection state in the first-standard network, perform pilot frequency point measurement according to a preset policy until a frequency point meeting a reporting condition is measured; and reporting the frequency points meeting the reporting conditions to the network side.

Preferably, the control module 63 includes:

the setting sub-module 631 is used for setting the priority order of each system network;

and the measurement submodule 632 is configured to measure the pilot frequency points in the networks of different systems according to the priority order.

Preferably, the control module 63 further includes:

the obtaining submodule 633 is configured to obtain, from the measurement configuration message, the total number N of frequency points to be measured in each standard network configured by the network side;

the allocating submodule 634 is configured to allocate measurement interval durations for performing pilot frequency point measurement to each system network, so that the sum of the measurement interval durations allocated to each system network is equal to N MGRPs.

Preferably, the allocating sub-module 634 is further configured to:

allocating the durations of the q GAPs to a first standard network for measuring the frequency points of the first standard network;

allocating the durations of the m GAPs to a second standard network for measuring the frequency points of the second standard network;

allocating the durations of the n GAPs to a third-standard network for measuring the frequency points of the third-standard network;

by analogy, allocating the durations of the X GAPs to the network of the X standard to be used for measuring the frequency points of the network of the X standard;

wherein q + m + N + … + x is N.

Preferably, the allocating sub-module 634 is further configured to:

allocating q% of measurement duration to the first standard network for measuring the frequency point of the first standard network;

distributing m% of the measurement duration to a second standard network for measuring the frequency point of the second standard network;

distributing n% of measurement duration to a third standard network for measuring frequency points of the third standard network;

by analogy, allocating X% of measurement duration to the X-th standard network for measuring the frequency point of the X-th standard network;

wherein q + m + n + … + x is 100.

The first standard network may be a 4G network, such as an LTE network; the second standard network is a 2G network, such as a GSM network; the third standard network may be a 3G network, such as a CDMA network.

Preferably, the measurement submodule 632 is further configured to:

taking a first measurement interval distributed by a network side as an initial position, and recording as a 1 st GAP;

for the ith GAP, i is a positive integer greater than or equal to 1;

firstly, judging whether a network with a first priority has allocated m GAPs, wherein m is the number of GAPs allocated to the network with the first priority for carrying out frequency point measurement; if not, continuing to allocate the ith GAP to the network with the first priority;

if yes, allocating the ith GAP to a network with a second priority, and judging whether the network with the second priority is allocated with full q, wherein q is the number of GAPs allocated to the network with the second priority and used for performing frequency point measurement; if not, continuing to allocate the (i + 1) th GAP to the network with the second priority; if yes, allocating the (i + 1) th GAP to the network with the third priority level, and judging whether the network with the third priority level is allocated with n networks; wherein n is the number of GAPs for performing frequency point measurement allocated to the third priority network;

by the way of analogy, the method can be used,

until obtaining the frequency point meeting the report condition.

It should be understood by those skilled in the art that the functions of each module in the measurement scheduling apparatus of this embodiment may be implemented by an analog circuit that implements the functions described in this embodiment, or by running software that executes the functions described in this embodiment on an intelligent terminal.

In practical applications, the measurement scheduling apparatus of this embodiment may be disposed in a terminal; the receiving module 61, the detecting module 62, the controlling module 63, and sub-modules of each module may be implemented by a Central Processing Unit (CPU), a MicroProcessor Unit (MPU), a Digital Signal Processor (DSP), a Field Programmable Gate Array (FPGA), or the like in the measurement scheduling apparatus or the device to which the measurement scheduling apparatus belongs.

The measurement scheduling device of the embodiment can flexibly schedule the measurement frequency point objects of the network of each system, improve the opportunity of continuously measuring the network frequency points of each system, shorten the required measurement time before switching, and improve the switching success rate, thereby improving the user experience in the edge area of the network of a certain system.

Correspondingly, the invention also discloses a terminal, which comprises the measurement scheduling device.

Specifically, a schematic diagram of a structure of the measurement scheduling apparatus may be as shown in fig. 5, which is not described herein again.

In the embodiments provided in the present invention, it should be understood that the disclosed method, apparatus and electronic device may be implemented in other ways. The above-described device embodiments are merely illustrative, for example, the division of the unit is only a logical functional division, and there may be other division ways in actual implementation, such as: multiple units or components may be combined, or may be integrated into another system, or some features may be omitted, or not implemented. In addition, the coupling, direct coupling or communication connection between the components shown or discussed may be through some interfaces, and the indirect coupling or communication connection between the devices or units may be electrical, mechanical or other forms.

The units described as separate parts may or may not be physically separate, and parts displayed as units may or may not be physical units, that is, may be located in one place, or may be distributed on a plurality of network units; some or all of the units can be selected according to actual needs to achieve the purpose of the solution of the embodiment.

In addition, all the functional units in the embodiments of the present invention may be integrated into one processing unit, or each unit may be separately regarded as one unit, or two or more units may be integrated into one unit; the integrated unit can be realized in a form of hardware, or in a form of hardware plus a software functional unit.

Those of ordinary skill in the art will understand that: all or part of the steps for implementing the method embodiments may be implemented by hardware related to program instructions, and the program may be stored in a computer readable storage medium, and when executed, the program performs the steps including the method embodiments; and the aforementioned storage medium includes: a mobile storage device, a Read-Only Memory (ROM), a Random Access Memory (RAM), a magnetic disk or an optical disk, and other various media capable of storing program codes.

Alternatively, the integrated unit according to the embodiment of the present invention may be stored in a computer-readable storage medium if it is implemented in the form of a software functional module and sold or used as a separate product. Based on such understanding, the technical solutions of the embodiments of the present invention may be essentially implemented or a part contributing to the prior art may be embodied in the form of a software product, which is stored in a storage medium and includes several instructions for causing a computer device (which may be a personal computer, a server, or a network device) to execute all or part of the methods described in the embodiments of the present invention. And the aforementioned storage medium includes: a removable storage device, a ROM, a RAM, a magnetic or optical disk, or various other media that can store program code.

The above description is only for the specific embodiments of the present invention, but the scope of the present invention is not limited thereto, and any person skilled in the art can easily conceive of the changes or substitutions within the technical scope of the present invention, and all the changes or substitutions should be covered within the scope of the present invention. Therefore, the protection scope of the present invention shall be subject to the protection scope of the appended claims.

Claims (11)

1. A method for measurement scheduling, the method comprising:

when receiving the measurement configuration message containing the information of the B1 event or the B2 event sent by the network side,

detecting whether the terminal is in a call connection state under a first standard network;

if yes, carrying out pilot frequency point measurement according to a preset strategy until the frequency points meeting the report condition are measured, and reporting the frequency points meeting the report condition to the network side;

the method for measuring the pilot frequency points according to the preset strategy comprises the following steps:

setting the priority order of each system network;

and measuring the pilot frequency points under the networks of all systems according to the priority sequence.

2. The method according to claim 1, wherein before measuring the pilot frequency points in the network of each system according to the priority order, the method further comprises:

acquiring the total number N of frequency points to be measured in each system network configured by a network side from the measurement configuration message;

and respectively allocating measurement interval duration for performing pilot frequency point measurement to each system network, so that the sum of the measurement interval duration allocated to each system network is equal to N measurement interval periods MGRP.

3. The method as claimed in claim 2, wherein the allocating the inter-measurement interval duration for performing the inter-frequency point measurement for each standard network respectively, so that the sum of the measurement interval durations allocated for each standard network is equal to N MGRPs, includes:

allocating the durations of q measurement intervals GAP to a first standard network for measuring the frequency points of the first standard network;

allocating the durations of the m GAPs to a second standard network for measuring the frequency points of the second standard network;

allocating the durations of the n GAPs to a third-standard network for measuring the frequency points of the third-standard network;

by analogy, allocating the durations of the X GAPs to the network of the X standard to be used for measuring the frequency points of the network of the X standard;

wherein q + m + N + … + x is N.

4. The method according to claim 2, wherein the allocating the inter-measurement interval duration for performing the inter-frequency point measurement for each standard network respectively, so that the sum of the measurement interval durations allocated for each standard network is equal to N MGRPs, further comprises:

allocating q% of measurement duration to the first standard network for measuring the frequency point of the first standard network;

distributing m% of the measurement duration to a second standard network for measuring the frequency point of the second standard network;

distributing n% of measurement duration to a third standard network for measuring frequency points of the third standard network;

by analogy, allocating X% of measurement duration to the X-th standard network for measuring the frequency point of the X-th standard network;

wherein q + m + n + … + x is 100.

5. The method according to claim 3, wherein the measuring the pilot frequency points in the network of each system according to the priority order includes:

taking a first measurement interval distributed by a network side as an initial position, and recording as a 1 st GAP;

for the ith GAP, i is a positive integer greater than or equal to 1;

firstly, judging whether a network with a first priority has allocated m GAPs, wherein m is the number of GAPs allocated to the network with the first priority for carrying out frequency point measurement; if not, continuing to allocate the ith GAP to the network with the first priority;

if yes, allocating the ith GAP to a network with a second priority, and judging whether the network with the second priority is allocated with full q, wherein q is the number of GAPs allocated to the network with the second priority and used for performing frequency point measurement; if not, continuing to allocate the (i + 1) th GAP to the network with the second priority; if yes, allocating the (i + 1) th GAP to a network with a third priority level, and judging whether the network with the third priority level is allocated with n networks; wherein n is the number of GAPs for performing frequency point measurement allocated to the third priority network;

by the way of analogy, the method can be used,

until obtaining the frequency point meeting the report condition.

6. A measurement scheduling apparatus, characterized in that the apparatus comprises:

a receiving module, configured to receive a measurement configuration message sent by a network side and containing information of a B1 event or a B2 event;

the detection module is used for detecting whether the terminal is in a call connection state under a first standard network;

the control module is used for measuring the pilot frequency points according to a preset strategy when the detection module determines that the terminal is in a call connection state in a first standard network until the frequency points meeting the report condition are measured; reporting the frequency points meeting the reporting conditions to the network side;

wherein the control module comprises:

the setting submodule is used for setting the priority order of each system network;

and the measurement submodule is used for measuring the pilot frequency points under the networks of all systems according to the priority sequence.

7. The apparatus of claim 6, wherein the control module further comprises:

the acquisition submodule is used for acquiring the total number N of frequency points to be measured in each system network configured by the network side from the measurement configuration message;

and the distribution submodule is used for respectively distributing the measurement interval duration for carrying out pilot frequency point measurement for the networks of all the systems, so that the sum of the measurement interval durations distributed for the networks of all the systems is equal to the N MGRPs.

8. The apparatus of claim 7, wherein the assignment sub-module is further configured to:

allocating the durations of the q GAPs to a first standard network for measuring the frequency points of the first standard network;

allocating the durations of the m GAPs to a second standard network for measuring the frequency points of the second standard network;

allocating the durations of the n GAPs to a third-standard network for measuring the frequency points of the third-standard network;

by analogy, allocating the durations of the X GAPs to the network of the X standard to be used for measuring the frequency points of the network of the X standard;

wherein q + m + N + … + x is N.

9. The apparatus of claim 7, wherein the assignment sub-module is further configured to:

allocating q% of measurement duration to the first standard network for measuring the frequency point of the first standard network;

distributing m% of the measurement duration to a second standard network for measuring the frequency point of the second standard network;

distributing n% of measurement duration to a third standard network for measuring frequency points of the third standard network;

by analogy, allocating X% of measurement duration to the X-th standard network for measuring the frequency point of the X-th standard network;

wherein q + m + n + … + x is 100.

10. The apparatus of claim 8, wherein the measurement submodule is further configured to:

taking a first measurement interval distributed by a network side as an initial position, and recording as a 1 st GAP;

for the ith GAP, i is a positive integer greater than or equal to 1;

firstly, judging whether a network with a first priority has allocated m GAPs, wherein m is the number of GAPs allocated to the network with the first priority for carrying out frequency point measurement; if not, continuing to allocate the ith GAP to the network with the first priority;

if yes, allocating the ith GAP to a network with a second priority, and judging whether the network with the second priority is allocated with full q, wherein q is the number of GAPs allocated to the network with the second priority and used for performing frequency point measurement; if not, continuing to allocate the (i + 1) th GAP to the network with the second priority; if yes, allocating the (i + 1) th GAP to a network with a third priority level, and judging whether the network with the third priority level is allocated with n networks; wherein n is the number of GAPs for performing frequency point measurement allocated to the third priority network;

by the way of analogy, the method can be used,

until obtaining the frequency point meeting the report condition.

11. A terminal, characterized in that the terminal comprises the measurement scheduling apparatus of any one of claims 6 to 10.

Images