WO2014187281A1 - Network access processing method and apparatus of multi-mode terminal, and multi-mode terminal - Google Patents

Network access processing method and apparatus of multi-mode terminal, and multi-mode terminal Download PDF

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Publication number
WO2014187281A1
WO2014187281A1 PCT/CN2014/077724 CN2014077724W WO2014187281A1 WO 2014187281 A1 WO2014187281 A1 WO 2014187281A1 CN 2014077724 W CN2014077724 W CN 2014077724W WO 2014187281 A1 WO2014187281 A1 WO 2014187281A1
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Prior art keywords
protocol stack
standby
standby mode
task
user
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PCT/CN2014/077724
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French (fr)
Chinese (zh)
Inventor
杨允
Original Assignee
中兴通讯股份有限公司
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Publication of WO2014187281A1 publication Critical patent/WO2014187281A1/en

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Classifications

    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W48/00Access restriction; Network selection; Access point selection
    • H04W48/18Selecting a network or a communication service
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W88/00Devices specially adapted for wireless communication networks, e.g. terminals, base stations or access point devices
    • H04W88/02Terminal devices
    • H04W88/06Terminal devices adapted for operation in multiple networks or having at least two operational modes, e.g. multi-mode terminals

Definitions

  • the present invention relates to the field of communications, and in particular to a multimode terminal network access processing method and apparatus, and a multimode terminal.
  • WCDMA Wideband Code Division Multiple Access
  • GPRS General Packet Radio Service
  • TD-SCDMA Time Division-Synchronous Code Division Multiple Access
  • TD/G + G Time Division-Synchronous Code Division Multiple Access
  • LTE Long-Term Evolution
  • GSM Global System for Mobile Communication
  • T/G + G, LTE/TD + GSM terminals can only provide GSM network services after international roaming to places where only WCDMA and GSM networks are covered.
  • W/G + G dual standby terminal roams to a place with only TD and GSM network coverage, it can only provide GSM network services. Therefore, in the related art, when a user roams to a place where the network access technology changes, the user cannot access the corresponding network according to the change, or cannot access the network flexibly according to the configuration.
  • the present invention provides a multimode terminal network access processing method, apparatus, and multimode terminal, to at least solve the problem in the related art, when a user roams to a place where the network access technology changes, and cannot access according to the change.
  • a multimode terminal network access processing method includes: creating a standby mode configuration option, where the standby mode configuration option includes several access technology types And using a plurality of standby modes of the access technology types; receiving an access technology type and a standby mode selected by the user from the standby mode configuration option; creating according to the access technology type selected by the user Corresponding protocol stack task; dividing the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by the user; and registering the access technology selected by the access user according to the protocol stack task in the standby protocol stack The network corresponding to the type.
  • the creating the corresponding protocol stack task according to the access technology type selected by the user comprises: resetting each protocol stack task data area; deleting each protocol stack task by using a task deletion function; and creating a user selected by using a task creation function
  • the dividing the protocol stack task into the corresponding standby protocol stack according to the standby mode selected by the user comprises: labeling the protocol stack task according to the standby mode selected by the user; The protocol stack task is divided into the same standby protocol stack to divide the protocol stack task into the corresponding standby protocol stack.
  • the method further includes: configuring the standby mode configuration option and the current If the running standby mode configuration is different, the protocol stack task in the currently running standby mode configuration is deleted; the current standby mode configuration is switched to the standby mode configuration option reselected by the user; according to the reselected standby mode configuration Option to access the network.
  • the access technology type and the standby mode selected by the user from the standby mode configuration option when the multimode terminal is powered on or in a standby state are received.
  • a multimode terminal network access processing apparatus is provided.
  • the multimode terminal network access processing apparatus includes: a first creating module, configured to create a standby mode configuration option, the standby mode
  • the configuration option includes a plurality of access technology types and a plurality of standby modes using the plurality of access technology types; a receiving module configured to receive an access technology type and a standby mode selected by the user from the standby mode configuration options; a module, configured to create a corresponding protocol stack task according to the access technology type selected by the user; the dividing module is configured to divide the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by the user; The access module is configured to register, according to the protocol stack task in the standby protocol stack, a network corresponding to the access technology type selected by the access user.
  • the second creating module comprises: a reset unit, configured to reset each protocol stack task data area; a deleting unit, configured to delete each protocol stack task by using a task deletion function; and creating a unit, configured to use the task creation function
  • the protocol stack task corresponding to the access technology type selected by the user is created.
  • the dividing module comprises: a classifying unit configured to tag the protocol stack task according to the standby mode selected by the user; and the dividing unit is configured to map the same protocol stack task to the same standby protocol by The stack mode divides the protocol stack task into corresponding standby protocol stacks.
  • the multimode terminal network access processing device further includes: a deleting module, configured to delete the currently running standby mode if the standby mode configuration option reselected by the user is different from the currently running standby mode configuration a protocol stack task configured to: switch the module to switch the current standby mode configuration to the standby mode configuration option reselected by the user; the second access module is configured to access according to the reselected standby mode configuration option The internet.
  • a multimode terminal comprising the multimode terminal network access processing apparatus of any of the above.
  • a standby mode configuration option including a plurality of access technology types and a plurality of standby modes using the plurality of access technology types; receiving a connection selected by the user from the standby mode configuration options Entering a technical type and a standby mode; creating a corresponding protocol stack task according to the access technology type selected by the user; dividing the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by the user; The protocol stack task in the protocol stack is registered to access the network corresponding to the type of the access technology selected by the user, and solves the problem in the related art that when the user roams to a place where the network access technology changes, the access cannot be performed according to the change access.
  • the network or the problem of flexible access to the network according to the configuration, can achieve the effect of accessing the corresponding network according to the change when the user roams to a place where the network access technology changes, or the effect of flexible access to the network according to the configuration.
  • FIG. 2 is a structural block diagram of a multimode terminal network access processing apparatus according to an embodiment of the present invention
  • FIG. 4 is a block diagram showing a preferred structure of the partitioning module 26 in the multimode terminal network access processing apparatus according to an embodiment of the present invention
  • 5 is a block diagram showing a preferred structure of a multimode terminal network access processing apparatus according to an embodiment of the present invention
  • FIG. 6 is a block diagram showing a structure of a multimode terminal according to an embodiment of the present invention
  • FIG. 7 is a single chip single according to an embodiment of the present invention.
  • FIG. 8 is a schematic structural diagram of an LTE/TD+GSM three-mode dual standby protocol stack according to an embodiment of the present invention
  • FIG. 9 is a LTE/W+GSM three-mode dual according to an embodiment of the present invention
  • FIG. 10 is a schematic structural diagram of an LTE/W/GSM three-mode single-standby protocol stack according to an embodiment of the present invention
  • FIG. 11 is a LTE/TD/W/GSM four-mode single-standby protocol according to an embodiment of the present invention
  • FIG. 12 is a schematic diagram of a support system configured to start a task group according to a standby mode according to a preferred embodiment of the present invention
  • FIG. 13 is a schematic diagram of a protocol stack common processing module dividing and combining a standby protocol stack according to a standby mode according to an embodiment of the present invention.
  • Flow chart. BEST MODE FOR CARRYING OUT THE INVENTION a multi-mode terminal network access processing method is provided.
  • FIG. 1 is a flowchart of a multi-mode terminal network access processing method according to an embodiment of the present invention. As shown in FIG. 1, the process includes the following steps.
  • Step S102 Create a standby mode configuration option, where the standby mode configuration option includes a plurality of access technology types and a plurality of standby modes using a plurality of access technology types.
  • Step S104 Receive an access technology type selected by the user from the standby mode configuration option. And a standby mode, wherein the user can select different standby mode configurations when the multimode terminal is powered on and standby, that is, select different access technology types and standby modes;
  • Step S106 create a corresponding protocol according to the access technology type selected by the user.
  • step S108 dividing the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by the user;
  • Step S110 registering, according to the protocol stack task in the standby protocol stack, the network corresponding to the access technology type selected by the user.
  • the user when the user roams to a place where the network access technology changes, the user cannot access the corresponding network according to the change, or cannot access the network flexibly according to the configuration, thereby achieving
  • the user when the user roams to a place where the network access technology changes, the user can access the corresponding network according to the change, or the effect of flexibly accessing the network according to the configuration, thereby greatly improving the user experience to a certain extent.
  • the corresponding protocol stack task is created according to the access technology type selected by the user, the following quick and simple processing methods can be adopted: First, the task data area of each protocol stack is reset; after that, the task deletion function is used to delete each protocol stack task; The task creation function is used to create a protocol stack task corresponding to the access technology type selected by the user.
  • the protocol stack task is divided into the corresponding standby protocol stack according to the standby mode selected by the user, a plurality of processing modes can also be adopted.
  • a tag processing method is introduced, that is, the standby mode selected by the user is the protocol stack task. Classification tagging; the protocol stack task is divided into the corresponding standby protocol stack by assigning the same protocol stack task to the same standby protocol stack.
  • the different standby mode configuration options of the multimode terminal can also be mutually switched, that is, after the network corresponding to the access technology type selected by the user is registered according to the protocol stack task in the standby protocol stack,
  • the method includes: deleting the protocol stack task in the currently running standby mode configuration when the user reselected standby mode configuration option is different from the currently running standby mode configuration; switching the current standby mode configuration to the user reselected standby mode configuration Option; access the network according to the reselected standby mode configuration option, wherein the switching between different standby mode configuration options can be switched from the single standby mode to the dual standby mode, and of course, the dual standby mode can be switched to the single standby mode.
  • a multi-mode terminal network access processing device is also provided, which is used to implement the foregoing embodiments and preferred embodiments, and has not been described again.
  • the term "module" may implement a combination of software and/or hardware of a predetermined function.
  • the apparatus described in the following embodiments is preferably implemented in software, hardware, or a combination of software and hardware, is also possible and conceivable.
  • 2 is a structural block diagram of a multimode terminal network access processing apparatus according to an embodiment of the present invention. As shown in FIG. 2, the multimode terminal network access processing apparatus includes a first creating module 20, a receiving module 22, and a second creation.
  • the module 24, the partitioning module 26 and the first access module 28 will be described below with respect to the multimode terminal network access processing apparatus.
  • the first creating module 20 is configured to create a standby mode configuration option, where the standby mode configuration option includes a plurality of access technology types and a plurality of standby modes using a plurality of access technology types; and the receiving module 22 is connected to the first creating module 20,
  • the second creation module 24 is connected to the receiving module 22, and is configured to create a corresponding protocol stack task according to the type of access technology selected by the user, and is configured to receive an access technology type and a standby mode selected by the user from the standby mode configuration option.
  • the dividing module 26 is connected to the second creating module 24, and is configured to divide the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by the user; the first access module 28 is connected to the dividing module 26, and is configured as The protocol stack task in the standby protocol stack is registered to access the network corresponding to the access technology type selected by the user.
  • 3 is a block diagram showing a preferred structure of a second creation module 24 in a multimode terminal network access processing apparatus according to an embodiment of the present invention. As shown in FIG. 3, the second creation module 24 includes a reset unit 32, a deletion unit 34, and The unit 36 is created, and the second creation module 24 will be described below.
  • the reset unit 32 is configured to reset the respective protocol stack task data areas; the deleting unit 34 is connected to the reset unit 32, and is configured to delete each protocol stack task by using the task deletion function; the creating unit 36 is connected to the deleting unit 34. , set to use the task creation function to create a protocol stack task corresponding to the access technology type selected by the user.
  • 4 is a block diagram showing a preferred structure of a partitioning module 26 in a multimode terminal network access processing apparatus according to an embodiment of the present invention. As shown in FIG. 4, the partitioning module 26 includes a classifying unit 42 and a dividing unit 44. Module 26 is described.
  • FIG. 5 is a block diagram of a preferred structure of a multimode terminal network access processing apparatus according to an embodiment of the present invention. As shown in FIG. 5, the apparatus includes a deleting module 52 and a switching module 54 in addition to all the modules shown in FIG. And the second access module 56, the preferred structure will be described below.
  • the deleting module 52 is configured to delete the protocol stack task in the currently running standby mode configuration if the standby mode configuration option reselected by the user is different from the currently running standby mode configuration; the switching module 54 is connected to the deleting module 52. , set to switch the current standby mode configuration to the standby mode that the user reselects The second access module 56 is connected to the switching module 54 and configured to access the network according to the reselected standby mode configuration option.
  • FIG. 6 is a structural block diagram of a multimode terminal according to an embodiment of the present invention. As shown in FIG. 6, the multimode terminal 60 includes the multimode terminal network access processing device 62 of any of the above.
  • a single-to-two-to-be-switched method based on a single-chip single-card terminal is provided, thereby implementing a single-standby, dual-standby free-switching, and freely combining terminal.
  • 7 is a schematic diagram of a single-chip single-card multi-mode protocol stack task group according to an embodiment of the present invention. As shown in FIG.
  • the structure includes an application layer, a protocol stack layer, a support system, and an operating system, where the protocol stack layer includes The protocol stack common task group, the protocol stack common processing module, and the task group corresponding to each access technology (for example, the LTE access technology task group, the TD access technology task group, and the W access technology task group shown in FIG. 7)
  • the GSM access technology task group adopts a single terminal chip, a card slot, and can support insertion of a Subscriber Identity Module (SIM) (or a global subscriber identity card). (Universal Subscriber Identity Module, USIM for short) card, a mobile terminal and method for freely switching between single-standby/dual-standby mode and access technology.
  • SIM Subscriber Identity Module
  • USIM Universal Subscriber Identity Module
  • the mobile terminal can automatically perform single and dual standby switching according to the conditions of roaming, network resources, etc., or can be recombined into the standby mode desired by the user according to user settings.
  • the terminal supports LTE (LTE-TDD/LTE-FDD) TD-SCDMA, WCDMA,
  • FIG. 8 is a schematic structural diagram of an LTE/TD + GSM three mode dual standby protocol stack according to an embodiment of the present invention, such as As shown in FIG.
  • the LTE and TD two access technology related protocol stack tasks are divided into the public task group 1, and the GSM access technology protocol task is divided into the public task group 2, wherein the W access technology task group is not enabled.
  • 9 is a schematic structural diagram of an LTE/W+GSM three-mode dual-standby protocol stack according to an embodiment of the present invention. As shown in FIG. 9, two LTE and W access technology-related protocol stack tasks are divided into a common task group 1, GSM. The access technology protocol task is divided into public task group 2, where the TD access technology task group is not enabled.
  • Step 2 The support system reads this standby mode option after power on, or the user/terminal resets this standby mode in standby mode.
  • Step 3 According to the standby mode LTE/TD + GSM, the support system judges that if it is booting up, it creates two sets of common tasks according to the configuration, and then creates three access technologies LTE, TD, and GSM related tasks. If it is currently set to restart the standby mode, support all the protocol stack tasks before the system is shut down, and re-set two sets of common tasks and three access technologies LTE, TD, and GSM related tasks according to the newly configured configuration.
  • Step 4 The protocol stack common processing module PSCOM performs protocol stack combination according to the standby mode configuration.
  • FIG. 10 is a schematic structural diagram of an LTE/W/GSM three-mode single-standby protocol stack according to an embodiment of the present invention. As shown in FIG.
  • a common task group is created for three access technologies of LTE, W, and GSM, and respectively created.
  • Related protocol stack tasks. 11 is a schematic structural diagram of an LTE/TD/W/GSM four-mode single-standby protocol stack according to an embodiment of the present invention. As shown in FIG. 11, a public task group is created for four access technologies of LTE, TD, W, and GSM. , and create related protocol stack tasks separately. The following is an example of the four-mode single standby in FIG. 11, and the implementation is as follows: Step 1: NV sets a standby mode setting option.
  • Step 2 After booting, the support system reads this standby mode option (LTE/TD/W/GSM four-mode single standby), or the user/terminal resets the standby mode to LTE/TD/W/GSM four-mode in standby mode. Single wait.
  • Step 3 The support system according to the standby mode LTE/TD/W/GSM single standby, judges that if it is currently booting, each set creates a common task according to the configuration, and four access technologies LTE, TD, W, GSM related tasks. If the standby mode is currently turned on, the support system closes all current protocol stack tasks, re-sets a common task according to the newly set configuration, and four access technologies LTE, TD, W, and GSM related tasks.
  • Step 4 The protocol stack common processing module PSCOM performs protocol stack combination according to the standby mode configuration. Judging that the current four-mode single-standby, the common task, LTE, TD, W, GSM four access technology related protocol stack tasks are divided into the same standby protocol stack (constituting LTE/TD/W/GSM four-mode single-standby protocol stack) ). Step 5: Then start the boot process on the LTE/TD/W/GSM protocol stack.
  • Step 1 The current terminal works in LTE/TD + GSM dual standby mode.
  • Step 2 The user/terminal resets this standby mode to LTE/W/GSM triple mode single standby.
  • Step 3 The support system closes all current protocol stack tasks, re-sets a common task according to the newly configured configuration, and three access technologies LTE, W, and GSM-related tasks.
  • Step 4 The protocol stack common processing module PSCOM performs protocol stack combination according to the standby mode configuration.
  • Step 5 Then perform the boot registration process on the LTE/W/GSM protocol stack.
  • Step 1 The current terminal works in LTE/TD/W/GSM four-mode single standby mode.
  • Step 2 The user/terminal resets this standby mode to LTE/W + GSM three mode dual standby.
  • Step 3 Support all protocol stack tasks before the system is shut down, re-create two sets of common tasks according to the newly configured configuration, and three access technologies LTE, W, and GSM related tasks.
  • Step 4 The protocol stack common processing module PSCOM performs protocol stack combination according to the standby mode configuration.
  • the following describes the shutdown, creation, and protocol stack partitioning processing of the protocol stack common processing module PSCOM mentioned in the present invention.
  • the protocol stack tasks RESET related data areas, and the support system uses the task deletion function of the operating system to delete all tasks related to the protocol stack.
  • the protocol stack common processing module PSCOM will classify the protocol stack tasks according to the standby configuration. In single-standby mode, the labels of each protocol stack task are the same.
  • FIG. 12 is a schematic diagram of a configuration in which a support system configures a startup task group according to a preferred mode according to a preferred embodiment of the present invention.
  • the protocol stack task creation process is as follows: Step S1202: A configuration of a standby mode is set in the NV.
  • the selected settings include (Multiple Standby and Single Standby modes consisting of four access technologies: LTE ⁇ TD ⁇ GSM ⁇ W).
  • a boot event or an event that modifies the standby mode configuration triggers the support system to read the standby mode configuration in the NV.
  • the read configuration is successful.
  • the support system determines whether it is currently powered on or not.
  • Step S1208 If the current has been turned on, notify the protocol stack of each task RESET task related data area, and delete the protocol stack related task. If it is not currently powered on, go to process step S1210.
  • the support system determines whether the current configuration is dual standby or single standby.
  • step S1212 if it is currently single-standby, a set of public task groups is created for the single-standby protocol stack, to process step S1214.
  • Step S1214 Create a protocol stack task related to the access technology according to the access technology supported by the single standby configuration. At this point, the single standby protocol stack task is created successfully.
  • Step S1216 in dual mode, two sets of common task groups are created, which are respectively used for two standby protocol stacks, to process step S1218.
  • Step S1218 Create an access protocol related protocol stack task according to the access technology supported by the dual standby standby side configuration. At this point, the dual standby protocol stack task is created successfully.
  • Step S1302 traversing all tasks started by the protocol stack.
  • Step S1304 reading a protocol stack task, and determining according to the current standby configuration.
  • Step S1306, determining whether the standby mode is single standby or dual standby.
  • step S1308 if it is in the single standby mode, the current protocol stack task is marked as protocol stack 1, and the process proceeds to step S1316.
  • Step S1310 If it is a dual standby mode, determine whether the current task is a protocol stack common task. In step S1312, if it is a common task of the protocol stack, according to the standby configuration, the common task of the protocol stack is first marked as protocol stack 1 or protocol stack 2, respectively. In step S1314, if the task is not a common task of the protocol stack, the task is marked as the protocol stack number corresponding to the standby side according to the access technology configured on each standby side. For example, the access technology of protocol stack 1 is LTE/TD, the access technology of protocol stack 2 is GS13M, and the current task is EURAN-RRC (RRC layer task of LTE), then the task is marked as protocol stack 1.
  • EURAN-RRC RRC layer task of LTE
  • step S1316 it is determined whether the current protocol stack task is traversed.
  • step S1318 if the traversal is completed, the flow ends; if it is not traversed, the flow returns to step S1302.
  • the access technologies to be implemented and supported can be arbitrarily combined across the standby side according to the configuration information, and are not limited by the standby protocol stacks.
  • the above modules or steps of the present invention can be implemented by a general-purpose computing device, which can be concentrated on a single computing device or distributed over a network composed of multiple computing devices.
  • they may be implemented by program code executable by the computing device, such that they may be stored in the storage device by the computing device and, in some cases, may be different from
  • the steps shown or described are performed sequentially, or they are separately fabricated into individual integrated circuit modules, or a plurality of modules or steps thereof are fabricated into a single integrated circuit module.
  • the invention is not limited to any specific combination of hardware and software.

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Abstract

Provided are a network access processing method and apparatus of a multi-mode terminal, and a multi-mode terminal. The network access processing method of the multi-mode terminal comprises: establishing a standby mode configuration option, the standby mode configuration option comprising multiple access technology types and multiple standby modes using the multiple access technology types; receiving an access technology type and a standby mode that are selected by a user from the standby mode configuration option; establishing a corresponding protocol stack task according to the access technology type selected by the user; distributing the protocol stack task to a corresponding standby protocol stack according to the standby mode selected by the user; registering with and accessing, according to the protocol stack task in the standby protocol stack, a network corresponding to the access technology type selected by the user. With the present invention, when a user roams to a place where the network access technology is changed, the user can access a corresponding network according to the change, or flexibly access the network according to configuration.

Description

多模终端网络接入处理方法、 装置及多模终端 技术领域 本发明涉及通信领域, 具体而言, 涉及一种多模终端网络接入处理方法、 装置及 多模终端。 背景技术 随着 3G、 4G无线技术的不断发展, 无线移动终端的发展也异常迅速。 其中, 双 待手机的市场份额也越来越大,如宽带码分多址接入(Wideband Code Division Multiple Access, 简称为 WCDMA) /通用无线分组业务(General Packet Radio Service, 简称为 GPRS ) +GPRS ( W/G + G ) 双待终端, 时分同步码分多址接入 ( Time Division-Synchronous Code Division Multiple Access, TD-SCDMA)/GPRS+ GPRS ( TD/G + G) 双待终端、 长期演进 (Long-Term Evolution, 简称为 LTE) / TD-SCDMA +全球 移动通信 (Global System for Mobile Communication, 简称为 GSM) (LTE/TD + GSM) 双待终端等。 但这些终端当漫游到国内其他运营商网络或国外的时候, 可能因为当地网络接入 技术的原因而无法提供更全面的业务给用户, 影响双待终端的用户体验和双待终端的 发展。 比如, T/G + G、 LTE/TD + GSM终端, 到国际漫游到仅有 WCDMA、 GSM网 络覆盖的地方后, 仅能提供 GSM网络服务。 W/G + G双待终端漫游到仅有 TD、 GSM 网络覆盖的地方后, 仅能提供 GSM 网络服务等。 因此, 在相关技术中, 用户漫游到 一个网络接入技术有变化的地方时并不能依据变化接入对应的网络, 或者并不能依据 配置灵活接入网络。 发明内容 本发明提供了一种多模终端网络接入处理方法、 装置及多模终端, 以至少解决在 相关技术中, 用户漫游到一个网络接入技术有变化的地方时并不能依据变化接入对应 的网络, 或者并不能依据配置灵活接入网络的问题。 根据本发明的一个方面, 提供了一种多模终端网络接入处理方法, 所述多模终端 网络接入处理方法包括: 创建待机模式配置选项, 所述待机模式配置选项包括若干接 入技术类型及使用所述若干接入技术类型的若干待机模式; 接收用户从所述待机模式 配置选项中选择的接入技术类型及待机模式; 根据用户选择的所述接入技术类型创建 相应的协议栈任务; 依据用户选择的所述待机模式将所述协议栈任务划分到相应的待 机协议栈; 依据所述待机协议栈内的协议栈任务注册接入用户选择的所述接入技术类 型对应的网络。 优选地, 根据用户选择的所述接入技术类型创建相应的所述协议栈任务包括: 重 置各个协议栈任务数据区; 利用任务删除函数删除各个协议栈任务; 利用任务创建函 数创建用户选择的所述接入技术类型对应的所述协议栈任务。 优选地, 依据用户选择的所述待机模式将所述协议栈任务划分到相应的所述待机 协议栈包括: 依据用户选择的所述待机模式为所述协议栈任务分类打标签; 通过将标 签相同的协议栈任务划到同一待机协议栈的方式将所述协议栈任务划分到相应的所述 待机协议栈。 优选地, 在依据所述待机协议栈内的所述协议栈任务注册接入用户选择的所述接 入技术类型对应的网络之后, 还包括: 在用户重新选择的所述待机模式配置选项与当 前运行的待机模式配置不同的情况下,删除当前运行的待机模式配置下的协议栈任务; 将当前待机模式配置切换到用户重新选择的所述待机模式配置选项; 依据重新选择的 所述待机模式配置选项接入网络。 优选地, 接收用户在所述多模终端在开机或者是待机状态下, 从所述待机模式配 置选项中选择的所述接入技术类型及所述待机模式。 根据本发明的另一方面, 提供了一种多模终端网络接入处理装置, 所述多模终端 网络接入处理装置包括: 第一创建模块, 设置为创建待机模式配置选项, 所述待机模 式配置选项包括若干接入技术类型及使用所述若干接入技术类型的若干待机模式; 接 收模块,设置为接收用户从所述待机模式配置选项中选择的接入技术类型及待机模式; 第二创建模块, 设置为根据用户选择的所述接入技术类型创建相应的协议栈任务; 划 分模块, 设置为依据用户选择的所述待机模式将所述协议栈任务划分到相应的待机协 议栈; 第一接入模块, 设置为依据所述待机协议栈内的协议栈任务注册接入用户选择 的所述接入技术类型对应的网络。 优选地, 所述第二创建模块包括: 重置单元, 设置为重置各个协议栈任务数据区; 删除单元, 设置为利用任务删除函数删除各个协议栈任务; 创建单元, 设置为利用任 务创建函数创建用户选择的所述接入技术类型对应的所述协议栈任务。 优选地, 所述划分模块包括: 分类单元, 设置为依据用户选择的所述待机模式为 所述协议栈任务分类打标签; 划分单元, 设置为通过将标签相同的协议栈任务划到同 一待机协议栈的方式将所述协议栈任务划分到相应的所述待机协议栈。 优选地, 所述多模终端网络接入处理装置还包括: 删除模块, 设置为在用户重新 选择的所述待机模式配置选项与当前运行的待机模式配置不同的情况下, 删除当前运 行的待机模式配置下的协议栈任务; 切换模块, 设置为将当前待机模式配置切换到用 户重新选择的所述待机模式配置选项; 第二接入模块, 设置为依据重新选择的所述待 机模式配置选项接入网络。 根据本发明的还一方面, 提供了一种多模终端, 包括上述任一项所述的多模终端 网络接入处理装置。 通过本发明, 采用创建待机模式配置选项, 所述待机模式配置选项包括若干接入 技术类型及使用所述若干接入技术类型的若干待机模式; 接收用户从所述待机模式配 置选项中选择的接入技术类型及待机模式; 根据用户选择的所述接入技术类型创建相 应的协议栈任务; 依据用户选择的所述待机模式将所述协议栈任务划分到相应的待机 协议栈; 依据所述待机协议栈内的协议栈任务注册接入用户选择的所述接入技术类型 对应的网络, 解决了在相关技术中, 用户漫游到一个网络接入技术有变化的地方时并 不能依据变化接入对应的网络, 或者并不能依据配置灵活接入网络的问题, 进而达到 了在用户漫游到一个网络接入技术有变化的地方时能够依据变化接入对应的网络, 或 者依据配置灵活接入网络的效果。 附图说明 此处所说明的附图用来提供对本发明的进一步理解, 构成本申请的一部分, 本发 明的示意性实施例及其说明用于解释本发明, 并不构成对本发明的不当限定。 在附图 中: 图 1是根据本发明实施例的多模终端网络接入处理方法的流程图; 图 2是根据本发明实施例的多模终端网络接入处理装置的结构框图; 图 3是根据本发明实施例的多模终端网络接入处理装置中第二创建模块 24的优选 结构框图; 图 4是根据本发明实施例的多模终端网络接入处理装置中划分模块 26的优选结构 框图; 图 5是根据本发明实施例的多模终端网络接入处理装置的优选结构框图; 图 6是根据本发明实施例的多模终端的结构框图; 图 7是根据本发明实施例的单芯片单卡多模协议栈任务组的示意图; 图 8是根据本发明实施例的 LTE/TD + GSM三模双待协议栈结构示意图; 图 9是根据本发明实施例的 LTE/W+GSM三模双待协议栈结构示意图; 图 10是根据本发明实施例的 LTE/W/ GSM三模单待协议栈结构示意图; 图 11是根据本发明实施例的 LTE/TD/W/GSM四模单待协议栈结构示意图; 图 12 是根据本发明优选实施方式的支持系统按照待机模式配置启动任务组的示 意图; 图 13 是根据本发明实施例的协议栈公共处理模块按照待机模式配置划分和组合 待机协议栈的流程图。 具体实施方式 下文中将参考附图并结合实施例来详细说明本发明。 需要说明的是, 在不冲突的 情况下, 本申请中的实施例及实施例中的特征可以相互组合。 在本实施例中提供了一种多模终端网络接入处理方法, 图 1是根据本发明实施例 的多模终端网络接入处理方法的流程图, 如图 1所示, 该流程包括如下步骤: 步骤 S102, 创建待机模式配置选项, 该待机模式配置选项包括若干接入技术类型 及使用若干接入技术类型的若干待机模式; 步骤 S104, 接收用户从待机模式配置选项中选择的接入技术类型及待机模式, 其 中, 用户可以在多模终端开机及待机时选择不同的待机模式配置, 即选择不同的接入 技术类型及待机模式; 步骤 S106, 根据用户选择的接入技术类型创建相应的协议栈任务; 步骤 S108, 依据用户选择的待机模式将协议栈任务划分到相应的待机协议栈; 步骤 S110, 依据待机协议栈内的协议栈任务注册接入用户选择的接入技术类型对 应的网络。 通过上述步骤, 依据接入技术类型及使用接入技术类型的待机模式的各种组合, 使得接入网络的方式可以灵活多变, 相对于相关技术中每个待机协议栈支持的接入技 术均是固定的来说, 解决了在相关技术中, 用户漫游到一个网络接入技术有变化的地 方时并不能依据变化接入对应的网络, 或者并不能依据配置灵活接入网络的问题, 进 而达到了在用户漫游到一个网络接入技术有变化的地方时能够依据变化接入对应的网 络, 或者依据配置灵活接入网络的效果, 在一定程度上较大地提高了用户体验。 根据用户选择的接入技术类型创建相应的协议栈任务时, 可以采用以下快速简便 的处理方式: 首先, 重置各个协议栈任务数据区; 之后, 利用任务删除函数删除各个 协议栈任务; 然后, 利用任务创建函数创建用户选择的接入技术类型对应的协议栈任 务。 而在依据用户选择的待机模式将协议栈任务划分到相应的待机协议栈时也可以采 用多种处理方式, 此处介绍一种打标签的处理方式, 即依据用户选择的待机模式为协 议栈任务分类打标签; 通过将标签相同的协议栈任务划到同一待机协议栈的方式将协 议栈任务划分到相应的待机协议栈, 需要说明的是, 只有相同标签的任务间能够进行 消息交互, 不同标签的协议栈是互相独立的, 通过打标签的方式实现各待机任务的分 化组合。 需要指出的是, 在多模终端的不同待机模式配置选项之间也是可以相互切换的, 即在依据待机协议栈内的协议栈任务注册接入用户选择的接入技术类型对应的网络之 后, 还包括: 在用户重新选择的待机模式配置选项与当前运行的待机模式配置不同的 情况下, 删除当前运行的待机模式配置下的协议栈任务; 将当前待机模式配置切换到 用户重新选择的待机模式配置选项; 依据重新选择的待机模式配置选项接入网络, 其 中, 在不同待机模式配置选项之间的切换可以由单待模式切换至双待模式, 当然也可 以由双待模式切换至单待模式, 可以依据用户的选择灵活多变。 在本实施例中还提供了一种多模终端网络接入处理装置, 该装置用于实现上述实 施例及优选实施方式, 已经进行过说明的不再赘述。 如以下所使用的, 术语 "模块" 可以实现预定功能的软件和 /或硬件的组合。尽管以下实施例所描述的装置较佳地以软 件来实现, 但是硬件, 或者软件和硬件的组合的实现也是可能并被构想的。 图 2是根据本发明实施例的多模终端网络接入处理装置的结构框图,如图 2所示, 该多模终端网络接入处理装置包括第一创建模块 20、 接收模块 22、 第二创建模块 24、 划分模块 26和第一接入模块 28, 下面对该多模终端网络接入处理装置进行说明。 第一创建模块 20, 设置为创建待机模式配置选项, 该待机模式配置选项包括若干 接入技术类型及使用若干接入技术类型的若干待机模式; 接收模块 22, 连接至上述第 一创建模块 20, 设置为接收用户从待机模式配置选项中选择的接入技术类型及待机模 式; 第二创建模块 24, 连接至上述接收模块 22, 设置为根据用户选择的接入技术类型 创建相应的协议栈任务; 划分模块 26, 连接至上述第二创建模块 24, 设置为依据用户 选择的待机模式将协议栈任务划分到相应的待机协议栈; 第一接入模块 28, 连接至上 述划分模块 26, 设置为依据待机协议栈内的协议栈任务注册接入用户选择的接入技术 类型对应的网络。 图 3是根据本发明实施例的多模终端网络接入处理装置中第二创建模块 24的优选 结构框图, 如图 3所示, 该第二创建模块 24包括重置单元 32、 删除单元 34和创建单 元 36, 下面对该第二创建模块 24进行说明。 重置单元 32, 设置为重置各个协议栈任务数据区; 删除单元 34, 连接至上述重置 单元 32, 设置为利用任务删除函数删除各个协议栈任务; 创建单元 36, 连接至上述删 除单元 34, 设置为利用任务创建函数创建用户选择的接入技术类型对应的协议栈任 务。 图 4是根据本发明实施例的多模终端网络接入处理装置中划分模块 26的优选结构 框图, 如图 4所示, 该划分模块 26包括分类单元 42和划分单元 44, 下面对该划分模 块 26进行说明。 分类单元 42, 设置为依据用户选择的待机模式为协议栈任务分类打标签; 划分单 元 44,连接至上述分类单元 42,设置为通过将标签相同的协议栈任务划到同一待机协 议栈的方式将协议栈任务划分到相应的待机协议栈。 图 5是根据本发明实施例的多模终端网络接入处理装置的优选结构框图, 如图 5 所示, 该装置除包括图 2所示的所有模块外, 还包括删除模块 52、 切换模块 54和第 二接入模块 56, 下面对该优选结构进行说明。 删除模块 52, 设置为在用户重新选择的待机模式配置选项与当前运行的待机模式 配置不同的情况下, 删除当前运行的待机模式配置下的协议栈任务; 切换模块 54, 连 接至上述删除模块 52, 设置为将当前待机模式配置切换到用户重新选择的待机模式配 置选项; 第二接入模块 56, 连接至上述切换模块 54, 设置为依据重新选择的待机模式 配置选项接入网络。 图 6是根据本发明实施例的多模终端的结构框图, 如图 6所示, 该多模终端 60 包括上述任一项的多模终端网络接入处理装置 62。 基于相关技术中, 如何让用户漫游到一个网络接入技术变化的地方, 也能尽可能 地提供 3G、 4G业务。 在本实施例中, 提供了一种基于单芯片单卡终端的单双待切换 方法, 从而实现单待、 双待自由切换、 接入技术自由组合的终端。 图 7是根据本发明实施例的单芯片单卡多模协议栈任务组的示意图,如图 7所示, 该结构包括应用层、 协议栈层、 支撑系统及操作系统, 其中, 协议栈层包括协议栈公 共任务组、 协议栈公共处理模块以及各个接入技术对应的任务组 (例如, 图 7中所示 的, LTE接入技术任务组、 TD接入技术任务组、 W接入技术任务组、 GSM接入技术 任务组), 在本发明实施例中的终端形态采用单个终端芯片、一个卡槽、可以支持插入 一张客户识别模块 (Subscriber Identity Module, 简称为 SIM) (或全球用户识别卡 (Universal Subscriber Identity Module, 简称为 USIM)) 卡, 实现单待 /双待模式自由 切换, 接入技术自由组合的移动终端和方法。 移动终端可以根据漫游、 网络资源等情 况自动进行单双待切换, 也可以根据用户设置重新组合成用户期望的待机模式。 在本实施例中, 终端支持 LTE ( LTE-TDD/LTE-FDD ) TD-SCDMA、 WCDMA、The present invention relates to the field of communications, and in particular to a multimode terminal network access processing method and apparatus, and a multimode terminal. BACKGROUND With the continuous development of 3G and 4G wireless technologies, the development of wireless mobile terminals is also extremely rapid. Among them, the market share of dual standby mobile phones is also increasing, such as Wideband Code Division Multiple Access (WCDMA) / General Packet Radio Service (GPRS) GPRS (W/G + G) dual standby terminal, Time Division-Synchronous Code Division Multiple Access (TD-SCDMA)/GPRS+ GPRS (TD/G + G) dual standby terminal, long term evolution ( Long-Term Evolution, referred to as LTE) / TD-SCDMA + Global System for Mobile Communication (GSM) (LTE/TD + GSM) dual standby terminal. However, when these terminals roam to other domestic carrier networks or abroad, they may not be able to provide more comprehensive services to users due to local network access technologies, affecting the user experience of dual standby terminals and the development of dual standby terminals. For example, T/G + G, LTE/TD + GSM terminals can only provide GSM network services after international roaming to places where only WCDMA and GSM networks are covered. After the W/G + G dual standby terminal roams to a place with only TD and GSM network coverage, it can only provide GSM network services. Therefore, in the related art, when a user roams to a place where the network access technology changes, the user cannot access the corresponding network according to the change, or cannot access the network flexibly according to the configuration. SUMMARY OF THE INVENTION The present invention provides a multimode terminal network access processing method, apparatus, and multimode terminal, to at least solve the problem in the related art, when a user roams to a place where the network access technology changes, and cannot access according to the change. The corresponding network, or the problem of flexible access to the network according to the configuration. According to an aspect of the present invention, a multimode terminal network access processing method is provided, where the multimode terminal network access processing method includes: creating a standby mode configuration option, where the standby mode configuration option includes several access technology types And using a plurality of standby modes of the access technology types; receiving an access technology type and a standby mode selected by the user from the standby mode configuration option; creating according to the access technology type selected by the user Corresponding protocol stack task; dividing the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by the user; and registering the access technology selected by the access user according to the protocol stack task in the standby protocol stack The network corresponding to the type. Preferably, the creating the corresponding protocol stack task according to the access technology type selected by the user comprises: resetting each protocol stack task data area; deleting each protocol stack task by using a task deletion function; and creating a user selected by using a task creation function The protocol stack task corresponding to the access technology type. Preferably, the dividing the protocol stack task into the corresponding standby protocol stack according to the standby mode selected by the user comprises: labeling the protocol stack task according to the standby mode selected by the user; The protocol stack task is divided into the same standby protocol stack to divide the protocol stack task into the corresponding standby protocol stack. Preferably, after registering, according to the protocol stack task in the standby protocol stack, the network corresponding to the type of the access technology selected by the user, the method further includes: configuring the standby mode configuration option and the current If the running standby mode configuration is different, the protocol stack task in the currently running standby mode configuration is deleted; the current standby mode configuration is switched to the standby mode configuration option reselected by the user; according to the reselected standby mode configuration Option to access the network. Preferably, the access technology type and the standby mode selected by the user from the standby mode configuration option when the multimode terminal is powered on or in a standby state are received. According to another aspect of the present invention, a multimode terminal network access processing apparatus is provided. The multimode terminal network access processing apparatus includes: a first creating module, configured to create a standby mode configuration option, the standby mode The configuration option includes a plurality of access technology types and a plurality of standby modes using the plurality of access technology types; a receiving module configured to receive an access technology type and a standby mode selected by the user from the standby mode configuration options; a module, configured to create a corresponding protocol stack task according to the access technology type selected by the user; the dividing module is configured to divide the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by the user; The access module is configured to register, according to the protocol stack task in the standby protocol stack, a network corresponding to the access technology type selected by the access user. Preferably, the second creating module comprises: a reset unit, configured to reset each protocol stack task data area; a deleting unit, configured to delete each protocol stack task by using a task deletion function; and creating a unit, configured to use the task creation function The protocol stack task corresponding to the access technology type selected by the user is created. Preferably, the dividing module comprises: a classifying unit configured to tag the protocol stack task according to the standby mode selected by the user; and the dividing unit is configured to map the same protocol stack task to the same standby protocol by The stack mode divides the protocol stack task into corresponding standby protocol stacks. Preferably, the multimode terminal network access processing device further includes: a deleting module, configured to delete the currently running standby mode if the standby mode configuration option reselected by the user is different from the currently running standby mode configuration a protocol stack task configured to: switch the module to switch the current standby mode configuration to the standby mode configuration option reselected by the user; the second access module is configured to access according to the reselected standby mode configuration option The internet. According to still another aspect of the present invention, a multimode terminal is provided, comprising the multimode terminal network access processing apparatus of any of the above. With the present invention, a standby mode configuration option is adopted, the standby mode configuration option including a plurality of access technology types and a plurality of standby modes using the plurality of access technology types; receiving a connection selected by the user from the standby mode configuration options Entering a technical type and a standby mode; creating a corresponding protocol stack task according to the access technology type selected by the user; dividing the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by the user; The protocol stack task in the protocol stack is registered to access the network corresponding to the type of the access technology selected by the user, and solves the problem in the related art that when the user roams to a place where the network access technology changes, the access cannot be performed according to the change access. The network, or the problem of flexible access to the network according to the configuration, can achieve the effect of accessing the corresponding network according to the change when the user roams to a place where the network access technology changes, or the effect of flexible access to the network according to the configuration. . BRIEF DESCRIPTION OF THE DRAWINGS The accompanying drawings, which are set to illustrate,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,, 1 is a flowchart of a multimode terminal network access processing method according to an embodiment of the present invention; FIG. 2 is a structural block diagram of a multimode terminal network access processing apparatus according to an embodiment of the present invention; A preferred block diagram of the second creation module 24 in the multimode terminal network access processing apparatus according to the embodiment of the present invention; FIG. 4 is a block diagram showing a preferred structure of the partitioning module 26 in the multimode terminal network access processing apparatus according to an embodiment of the present invention; ; 5 is a block diagram showing a preferred structure of a multimode terminal network access processing apparatus according to an embodiment of the present invention; FIG. 6 is a block diagram showing a structure of a multimode terminal according to an embodiment of the present invention; FIG. 7 is a single chip single according to an embodiment of the present invention. FIG. 8 is a schematic structural diagram of an LTE/TD+GSM three-mode dual standby protocol stack according to an embodiment of the present invention; FIG. 9 is a LTE/W+GSM three-mode dual according to an embodiment of the present invention; FIG. 10 is a schematic structural diagram of an LTE/W/GSM three-mode single-standby protocol stack according to an embodiment of the present invention; FIG. 11 is a LTE/TD/W/GSM four-mode single-standby protocol according to an embodiment of the present invention; FIG. 12 is a schematic diagram of a support system configured to start a task group according to a standby mode according to a preferred embodiment of the present invention; FIG. 13 is a schematic diagram of a protocol stack common processing module dividing and combining a standby protocol stack according to a standby mode according to an embodiment of the present invention; Flow chart. BEST MODE FOR CARRYING OUT THE INVENTION Hereinafter, the present invention will be described in detail with reference to the accompanying drawings. It should be noted that the embodiments in the present application and the features in the embodiments may be combined with each other without conflict. In this embodiment, a multi-mode terminal network access processing method is provided. FIG. 1 is a flowchart of a multi-mode terminal network access processing method according to an embodiment of the present invention. As shown in FIG. 1, the process includes the following steps. Step S102: Create a standby mode configuration option, where the standby mode configuration option includes a plurality of access technology types and a plurality of standby modes using a plurality of access technology types. Step S104: Receive an access technology type selected by the user from the standby mode configuration option. And a standby mode, wherein the user can select different standby mode configurations when the multimode terminal is powered on and standby, that is, select different access technology types and standby modes; Step S106, create a corresponding protocol according to the access technology type selected by the user. a stack task; step S108, dividing the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by the user; Step S110, registering, according to the protocol stack task in the standby protocol stack, the network corresponding to the access technology type selected by the user. Through the above steps, according to the combination of the access technology type and the standby mode using the access technology type, the manner of accessing the network can be flexibly changed, compared with the access technologies supported by each standby protocol stack in the related art. In the related art, in the related art, when the user roams to a place where the network access technology changes, the user cannot access the corresponding network according to the change, or cannot access the network flexibly according to the configuration, thereby achieving When the user roams to a place where the network access technology changes, the user can access the corresponding network according to the change, or the effect of flexibly accessing the network according to the configuration, thereby greatly improving the user experience to a certain extent. When the corresponding protocol stack task is created according to the access technology type selected by the user, the following quick and simple processing methods can be adopted: First, the task data area of each protocol stack is reset; after that, the task deletion function is used to delete each protocol stack task; The task creation function is used to create a protocol stack task corresponding to the access technology type selected by the user. When the protocol stack task is divided into the corresponding standby protocol stack according to the standby mode selected by the user, a plurality of processing modes can also be adopted. Here, a tag processing method is introduced, that is, the standby mode selected by the user is the protocol stack task. Classification tagging; the protocol stack task is divided into the corresponding standby protocol stack by assigning the same protocol stack task to the same standby protocol stack. It should be noted that only the tasks of the same tag can perform message interaction, different tags. The protocol stacks are independent of each other, and the differentiation combination of each standby task is realized by tagging. It should be noted that the different standby mode configuration options of the multimode terminal can also be mutually switched, that is, after the network corresponding to the access technology type selected by the user is registered according to the protocol stack task in the standby protocol stack, The method includes: deleting the protocol stack task in the currently running standby mode configuration when the user reselected standby mode configuration option is different from the currently running standby mode configuration; switching the current standby mode configuration to the user reselected standby mode configuration Option; access the network according to the reselected standby mode configuration option, wherein the switching between different standby mode configuration options can be switched from the single standby mode to the dual standby mode, and of course, the dual standby mode can be switched to the single standby mode. Can be flexible according to the user's choice. In this embodiment, a multi-mode terminal network access processing device is also provided, which is used to implement the foregoing embodiments and preferred embodiments, and has not been described again. As used hereinafter, the term "module" may implement a combination of software and/or hardware of a predetermined function. Although the apparatus described in the following embodiments is preferably implemented in software, hardware, or a combination of software and hardware, is also possible and conceivable. 2 is a structural block diagram of a multimode terminal network access processing apparatus according to an embodiment of the present invention. As shown in FIG. 2, the multimode terminal network access processing apparatus includes a first creating module 20, a receiving module 22, and a second creation. The module 24, the partitioning module 26 and the first access module 28 will be described below with respect to the multimode terminal network access processing apparatus. The first creating module 20 is configured to create a standby mode configuration option, where the standby mode configuration option includes a plurality of access technology types and a plurality of standby modes using a plurality of access technology types; and the receiving module 22 is connected to the first creating module 20, The second creation module 24 is connected to the receiving module 22, and is configured to create a corresponding protocol stack task according to the type of access technology selected by the user, and is configured to receive an access technology type and a standby mode selected by the user from the standby mode configuration option. The dividing module 26 is connected to the second creating module 24, and is configured to divide the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by the user; the first access module 28 is connected to the dividing module 26, and is configured as The protocol stack task in the standby protocol stack is registered to access the network corresponding to the access technology type selected by the user. 3 is a block diagram showing a preferred structure of a second creation module 24 in a multimode terminal network access processing apparatus according to an embodiment of the present invention. As shown in FIG. 3, the second creation module 24 includes a reset unit 32, a deletion unit 34, and The unit 36 is created, and the second creation module 24 will be described below. The reset unit 32 is configured to reset the respective protocol stack task data areas; the deleting unit 34 is connected to the reset unit 32, and is configured to delete each protocol stack task by using the task deletion function; the creating unit 36 is connected to the deleting unit 34. , set to use the task creation function to create a protocol stack task corresponding to the access technology type selected by the user. 4 is a block diagram showing a preferred structure of a partitioning module 26 in a multimode terminal network access processing apparatus according to an embodiment of the present invention. As shown in FIG. 4, the partitioning module 26 includes a classifying unit 42 and a dividing unit 44. Module 26 is described. The classification unit 42 is configured to label the protocol stack task according to the standby mode selected by the user; the dividing unit 44 is connected to the classification unit 42 and is set to be the same protocol stack task by the same protocol stack task The protocol stack task is divided into corresponding standby protocol stacks. FIG. 5 is a block diagram of a preferred structure of a multimode terminal network access processing apparatus according to an embodiment of the present invention. As shown in FIG. 5, the apparatus includes a deleting module 52 and a switching module 54 in addition to all the modules shown in FIG. And the second access module 56, the preferred structure will be described below. The deleting module 52 is configured to delete the protocol stack task in the currently running standby mode configuration if the standby mode configuration option reselected by the user is different from the currently running standby mode configuration; the switching module 54 is connected to the deleting module 52. , set to switch the current standby mode configuration to the standby mode that the user reselects The second access module 56 is connected to the switching module 54 and configured to access the network according to the reselected standby mode configuration option. FIG. 6 is a structural block diagram of a multimode terminal according to an embodiment of the present invention. As shown in FIG. 6, the multimode terminal 60 includes the multimode terminal network access processing device 62 of any of the above. Based on the related technology, how to let users roam to a place where network access technology changes can also provide 3G and 4G services as much as possible. In this embodiment, a single-to-two-to-be-switched method based on a single-chip single-card terminal is provided, thereby implementing a single-standby, dual-standby free-switching, and freely combining terminal. 7 is a schematic diagram of a single-chip single-card multi-mode protocol stack task group according to an embodiment of the present invention. As shown in FIG. 7, the structure includes an application layer, a protocol stack layer, a support system, and an operating system, where the protocol stack layer includes The protocol stack common task group, the protocol stack common processing module, and the task group corresponding to each access technology (for example, the LTE access technology task group, the TD access technology task group, and the W access technology task group shown in FIG. 7) The GSM access technology task group), in the embodiment of the present invention, adopts a single terminal chip, a card slot, and can support insertion of a Subscriber Identity Module (SIM) (or a global subscriber identity card). (Universal Subscriber Identity Module, USIM for short) card, a mobile terminal and method for freely switching between single-standby/dual-standby mode and access technology. The mobile terminal can automatically perform single and dual standby switching according to the conditions of roaming, network resources, etc., or can be recombined into the standby mode desired by the user according to user settings. In this embodiment, the terminal supports LTE (LTE-TDD/LTE-FDD) TD-SCDMA, WCDMA,
GSM等接入技术。 因为单待 /双待可以自由切换、 接入技术自由组合, 实现实例比较 多, 为方便说明, 在本实施例中, 基于单待、 双待两种不同的待机形态, 以及单双待 切换分别举例进行实现说明。 下面说明一下双待组合的实现方式: 以双待形态进行举例: LTE/TD + GSM双待 组合, 图 8是根据本发明实施例的 LTE/TD + GSM三模双待协议栈结构示意图, 如图 8所示, LTE、 TD两个接入技术相关协议栈任务划分到公共任务组 1中, GSM接入技 术协议任务划分到公共任务组 2, 其中的 W接入技术任务组不启用。 图 9是根据本发 明实施例的 LTE/W+GSM三模双待协议栈结构示意图, 如图 9所示, LTE、 W两个接 入技术相关协议栈任务划分到公共任务组 1中, GSM接入技术协议任务划分到公共任 务组 2, 其中的 TD接入技术任务组不启用。下面以图 8的三模双待为例进行说明, 实 现如下: 步骤 1 : NV设置一个待机模式设置选项。 步骤 2: 在开机后支撑系统读取这个待机模式选项, 或用户 /终端在待机模式重新 设置这个待机模式。 步骤 3 : 支撑系统根据待机模式 LTE/TD + GSM, 判断当前如果是开机, 按照配置 分别创建两套公共任务, 然后再创建三个接入技术 LTE、 TD、 GSM相关的任务。 如 果是当前已经开机重新设置待机模式, 支撑系统关闭之前的所有协议栈任务, 按照新 设置的配置重新两套公共任务和三个接入技术 LTE、 TD、 GSM相关的任务。 步骤 4:协议栈公共处理模块 PSCOM根据待机模式配置进行协议栈组合。将 LTE、 TD相关的公共任务, 及 LTE、 TD两个接入技术相关协议栈任务划分到一个待机协议 栈 (组成 LTE/TD协议栈); 将 GSM相关的公共任务, 及 GSM接入技术相关协议栈 任务划分到另外一个待机协议栈 (组成 GSM协议栈)。 步骤 5: 然后分别在 LTE/TD协议栈、 GSM协议栈上进行开机注册过程即可。 下面说明一下单待组合的实现方式: 单待形态举例: LTE/TD/W/GSM四模单待组 合。 图 10是根据本发明实施例的 LTE/W/ GSM三模单待协议栈结构示意图, 如图 10 所示, 为 LTE、 W 、 GSM三个接入技术创建一套公共任务组, 以及分别创建相关协 议栈任务。图 11是根据本发明实施例的 LTE/TD/W/GSM四模单待协议栈结构示意图, 如图 11所示, 为 LTE、 TD、 W、 GSM四个接入技术创建一套公共任务组, 以及分别 创建相关协议栈任务。 下面以图 11中的四模单待为例进行说明, 实现方式如下: 步骤 1 : NV设置一个待机模式设置选项。 步骤 2: 在开机后支撑系统读取这个待机模式选项 (LTE/TD/W/GSM四模单待), 或用户 /终端在待机模式重新设置这个待机模式为 LTE/TD/W/GSM四模单待。 步骤 3 : 支撑系统根据待机模式 LTE/TD/W/GSM单待, 判断当前如果是开机, 按 照配置分别创建一套公共任务, 及四个接入技术 LTE、 TD、 W、 GSM相关的任务。 如果是当前已经开机重新设置待机模式, 支撑系统关闭当前所有协议栈任务, 按照新 设置的配置重新一套公共任务, 及四个接入技术 LTE、 TD、 W、 GSM相关的任务。 步骤 4: 协议栈公共处理模块 PSCOM根据待机模式配置进行协议栈组合。 判断 当前是四模单待, 将公共任务, LTE、 TD、 W、 GSM四个接入技术相关协议栈任务划 分到同一个待机协议栈 (组成 LTE/TD/W/GSM四模单待协议栈)。 步骤 5: 然后在 LTE/TD/W/GSM协议栈上进行开机注册过程即可。 下面说明一下双待切换单待的实现方式: 双待切换单待的待机模式举例: LTE/TD + GSM三模双待 ->LTE/W/GSM三模单待。 实现如下: 步骤 1: 当前终端在 LTE/TD + GSM双待模式下工作。 步骤 2: 用户 /终端重新设置这个待机模式为 LTE/W/GSM三模单待。 步骤 3 : 支撑系统关闭当前所有的协议栈任务, 按照新设置的配置重新一套公共 任务, 及三个接入技术 LTE、 W、 GSM相关的任务。 步骤 4: 协议栈公共处理模块 PSCOM根据待机模式配置进行协议栈组合。 判断 当前是三模单待, 将公共任务, 及 LTE、 W、 GSM三个接入技术相关协议栈任务划分 到同一个待机协议栈 (组成 LTE/W/GSM三模单待协议栈)。 步骤 5: 然后在 LTE/W/GSM协议栈上进行开机注册过程即可。 下面说明一下单待切换双待的实现方式: 单待切换双待的待机模式举例: LTE/TD/W/GSM四模单待 ->LTE/W + GSM三模双待。 步骤 1: 当前终端在 LTE/TD/W/GSM四模单待模式下工作。 步骤 2: 用户 /终端重新设置这个待机模式为 LTE/W + GSM三模双待。 步骤 3 : 支撑系统关闭之前的所有协议栈任务, 按照新设置的配置重新创建两套 公共任务, 及三个接入技术 LTE、 W、 GSM相关的任务。 步骤 4: 协议栈公共处理模块 PSCOM根据待机模式配置进行协议栈组合。 判断 当前是三模双待, 将 LTE、 W相关公共任务, 及 LTE、 W两个接入技术相关协议栈任 务划分到一个待机协议栈(组成 LTE/W双模协议栈),将 GSM相关公共任务,及 GSM 接入技术相关协议栈任务划分到另一个待机协议栈 (组成 GSM单模单待协议栈)。 步骤 5: 然后分别在 LTE/W协议栈、 GSM协议栈上进行开机注册过程即可。 以上四种实现说明均是以本发明实施例的 "单双待可以自由切换、 接入技术自由 组合"为例进行说明, 对于其他各种组合处理类似, 本发明中不再赘述。 下面介绍一下本发明中提及的系统协议栈任务的关闭、 创建和协议栈公共处理模 块 PSCOM的协议栈划分处理。 用户设置待机模式变化后,协议栈各任务 RESET相关数据区,支撑系统利用操作 系统的任务删除函数用将协议栈相关的任务全部删除。 然后读取 NV中的待机配置, 根据配置利用操作系统的任务创建函数创建待机模式所需公共任务及各接入技术相关 的任务。 完成后协议栈任务创建后, 协议栈公共处理模块 PSCOM, 会根据待机配置, 将 协议栈任务分类打标签。 单待模式时, 各协议栈任务的标签相同。 双待模式, 根据待 机配置分别进行打标签, 同一个待机侧的标签相同。 然后只有相同标签的任务间能够 进行消息交互, 不同标签的协议栈任务是互相独立的。 通过这个打标签的方式实现各 待机任务的分化组合。 下面结合附图对本发明优选实施方式进行说明。 图 12 是根据本发明优选实施方式的支持系统按照待机模式配置启动任务组的示 意图, 如图 12所示, 该协议栈任务创建流程如下: 步骤 S1202,NV中设置有待机模式的配置,可供选择的设置包括 (LTE\TD\GSM\W 四种接入技术组成的各种双待、单待模式)。 开机事件或修改待机模式配置的事件, 触 发支持系统读取 NV中的待机模式配置。 步骤 S1204, 读取配置成功。 步骤 S1206, 支撑系统判定当前是已经开机的还是未开机。 步骤 S1208, 如果当前已经开机, 通知协议栈各任务 RESET任务相关数据区, 删 除协议栈相关任务。 如果当前未开机, 到流程步骤 S1210。 步骤 S1210, 支撑系统判断当前配置是双待还是单待。 步骤 S1212, 如果当前是单待, 创建一套公共任务组, 用于单待协议栈, 到流程 步骤 S1214。 步骤 S1214, 根据单待配置支持的接入技术, 创建接入技术相关的协议栈任务。 至此, 单待协议栈任务创建成功。 步骤 S1216, 双模模式, 创建两套公共任务组, 分别用于两个待机协议栈, 到流 程步骤 S1218。 步骤 S1218, 根据双待各待机侧配置支持的接入技术, 创建接入技术相关的协议 栈任务。 至此, 双待协议栈任务创建成功。 图 13 是根据本发明实施例的协议栈公共处理模块按照待机模式配置划分和组合 待机协议栈的流程图, 如图 13所示,根据待机模式配置对协议栈任务进行划分和组合 的流程处理包括如下步骤: 步骤 S1302, 遍历协议栈启动的所有任务。 步骤 S1304, 读取一个协议栈任务, 根据当前待机配置判断。 步骤 S1306, 判断待机模式为单待还是双待。 步骤 S1308,如果是单待模式,标记当前协议栈任务为协议栈 1,进入步骤 S1316。 步骤 S1310, 如果是双待模式, 判断当前任务是否是协议栈公共任务。 步骤 S1312, 如果是协议栈公共任务, 按照待机配置, 将协议栈的公共任务分别 先标记为协议栈 1或协议栈 2。 步骤 S1314, 如果此任务不是协议栈公共任务, 按照各待机侧配置的接入技术, 将此任务标记为对应待机侧的协议栈号。 举例: 协议栈 1 的接入技术是 LTE/TD, 协 议栈 2的接入技术是 GS13M, 当前任务是 EURAN-RRC (LTE的 RRC层任务), 那么 就标记此任务是协议栈 1。 步骤 S1316, 判断当前协议栈任务是否遍历完成。 步骤 S1318, 如果遍历完成, 流程结束; 如果没有遍历完返回步骤 S1302。 通过上述实施例及优选实施方式所提供的多模终端, 实现了 "单双待自由切换、 接入技术自由组合"。相对于相关技术中的单双待切换,通过开启或关闭某一个待机协 议实现, 且每个待机协议栈支持的接入技术是固定的处理来说, 本发明实施例及优选 实施方式的单双待实现及支持的接入技术根据配置信息可以跨待机侧任意组合, 不受 各待机协议栈的限制。 显然, 本领域的技术人员应该明白, 上述的本发明的各模块或各步骤可以用通用 的计算装置来实现, 它们可以集中在单个的计算装置上, 或者分布在多个计算装置所 组成的网络上, 可选地, 它们可以用计算装置可执行的程序代码来实现, 从而, 可以 将它们存储在存储装置中由计算装置来执行, 并且在某些情况下, 可以以不同于此处 的顺序执行所示出或描述的步骤, 或者将它们分别制作成各个集成电路模块, 或者将 它们中的多个模块或步骤制作成单个集成电路模块来实现。 这样, 本发明不限制于任 何特定的硬件和软件结合。 以上所述仅为本发明的优选实施例而已, 并不用于限制本发明, 对于本领域的技 术人员来说, 本发明可以有各种更改和变化。 凡在本发明的精神和原则之内, 所作的 任何修改、 等同替换、 改进等, 均应包含在本发明的保护范围之内。 工业实用性 如上所述, 本发明实施例提供的一种多模终端网络接入处理方法、 装置及多 模终端具有以下有益效果: 解决了在相关技术中, 用户漫游到一个网络接入技术有 变化的地方时并不能依据变化接入对应的网络, 或者并不能依据配置灵活接入网络 的问题, 进而达到了在用户漫游到一个网络接入技术有变化的地方时能够依据变化 接入对应的网络, 或者依据配置灵活接入网络的效果。 Access technology such as GSM. The single-standby/double-standby can be freely switched, and the access technologies are freely combined, and the implementation examples are relatively large. For convenience of description, in this embodiment, two standby modes, single standby and dual standby, and single and dual standby switching modes are respectively used. An example of implementation is provided. The following describes the implementation of the dual standby combination: The dual standby mode is used as an example: LTE/TD + GSM dual standby combination, FIG. 8 is a schematic structural diagram of an LTE/TD + GSM three mode dual standby protocol stack according to an embodiment of the present invention, such as As shown in FIG. 8, the LTE and TD two access technology related protocol stack tasks are divided into the public task group 1, and the GSM access technology protocol task is divided into the public task group 2, wherein the W access technology task group is not enabled. 9 is a schematic structural diagram of an LTE/W+GSM three-mode dual-standby protocol stack according to an embodiment of the present invention. As shown in FIG. 9, two LTE and W access technology-related protocol stack tasks are divided into a common task group 1, GSM. The access technology protocol task is divided into public task group 2, where the TD access technology task group is not enabled. The following is an example of the three-mode dual standby of FIG. 8 as follows: Step 1: NV sets a standby mode setting option. Step 2: The support system reads this standby mode option after power on, or the user/terminal resets this standby mode in standby mode. Step 3: According to the standby mode LTE/TD + GSM, the support system judges that if it is booting up, it creates two sets of common tasks according to the configuration, and then creates three access technologies LTE, TD, and GSM related tasks. If it is currently set to restart the standby mode, support all the protocol stack tasks before the system is shut down, and re-set two sets of common tasks and three access technologies LTE, TD, and GSM related tasks according to the newly configured configuration. Step 4: The protocol stack common processing module PSCOM performs protocol stack combination according to the standby mode configuration. The LTE and TD related public tasks, and the LTE and TD two access technology related protocol stack tasks are divided into a standby protocol stack (constituting the LTE/TD protocol stack); the GSM related public tasks and the GSM access technologies are related. The protocol stack task is divided into another standby protocol stack (constituting the GSM protocol stack). Step 5: Then perform the boot registration process on the LTE/TD protocol stack and the GSM protocol stack respectively. The following describes the implementation of the single standby combination: Single standby form: LTE/TD/W/GSM four-mode single standby combination. FIG. 10 is a schematic structural diagram of an LTE/W/GSM three-mode single-standby protocol stack according to an embodiment of the present invention. As shown in FIG. 10, a common task group is created for three access technologies of LTE, W, and GSM, and respectively created. Related protocol stack tasks. 11 is a schematic structural diagram of an LTE/TD/W/GSM four-mode single-standby protocol stack according to an embodiment of the present invention. As shown in FIG. 11, a public task group is created for four access technologies of LTE, TD, W, and GSM. , and create related protocol stack tasks separately. The following is an example of the four-mode single standby in FIG. 11, and the implementation is as follows: Step 1: NV sets a standby mode setting option. Step 2: After booting, the support system reads this standby mode option (LTE/TD/W/GSM four-mode single standby), or the user/terminal resets the standby mode to LTE/TD/W/GSM four-mode in standby mode. Single wait. Step 3: The support system according to the standby mode LTE/TD/W/GSM single standby, judges that if it is currently booting, each set creates a common task according to the configuration, and four access technologies LTE, TD, W, GSM related tasks. If the standby mode is currently turned on, the support system closes all current protocol stack tasks, re-sets a common task according to the newly set configuration, and four access technologies LTE, TD, W, and GSM related tasks. Step 4: The protocol stack common processing module PSCOM performs protocol stack combination according to the standby mode configuration. Judging that the current four-mode single-standby, the common task, LTE, TD, W, GSM four access technology related protocol stack tasks are divided into the same standby protocol stack (constituting LTE/TD/W/GSM four-mode single-standby protocol stack) ). Step 5: Then start the boot process on the LTE/TD/W/GSM protocol stack. The following describes the implementation of dual standby switching single standby: Dual standby standby single standby standby mode example: LTE/TD + GSM three mode dual standby -> LTE / W / GSM three mode single standby. The implementation is as follows: Step 1: The current terminal works in LTE/TD + GSM dual standby mode. Step 2: The user/terminal resets this standby mode to LTE/W/GSM triple mode single standby. Step 3: The support system closes all current protocol stack tasks, re-sets a common task according to the newly configured configuration, and three access technologies LTE, W, and GSM-related tasks. Step 4: The protocol stack common processing module PSCOM performs protocol stack combination according to the standby mode configuration. It is judged that the current is a three-mode single standby, and the common task, and the three access technology related protocol stack tasks of LTE, W, and GSM are divided into the same standby protocol stack (constituting the LTE/W/GSM three-mode single standby protocol stack). Step 5: Then perform the boot registration process on the LTE/W/GSM protocol stack. The following describes the implementation of single standby switching dual standby: Single standby standby dual standby standby mode example: LTE/TD/W/GSM four-mode single standby->LTE/W + GSM three-mode dual standby. Step 1: The current terminal works in LTE/TD/W/GSM four-mode single standby mode. Step 2: The user/terminal resets this standby mode to LTE/W + GSM three mode dual standby. Step 3: Support all protocol stack tasks before the system is shut down, re-create two sets of common tasks according to the newly configured configuration, and three access technologies LTE, W, and GSM related tasks. Step 4: The protocol stack common processing module PSCOM performs protocol stack combination according to the standby mode configuration. Judging that the current is a three-mode dual standby, LTE, W related public tasks, and LTE, W two access technology related protocol stack tasks are divided into a standby protocol stack (constituting LTE / W dual-mode protocol stack), the GSM-related public The task, and the GSM access technology related protocol stack task is divided into another standby protocol stack (constituting the GSM single-mode single-standby protocol stack). Step 5: Then perform the boot registration process on the LTE/W protocol stack and the GSM protocol stack respectively. The above four implementations are all described by taking the example of "single and double standby can be freely switched and the access technology is freely combined" as an example. The other various combinations are similarly described, and are not described in detail in the present invention. The following describes the shutdown, creation, and protocol stack partitioning processing of the protocol stack common processing module PSCOM mentioned in the present invention. After the user sets the standby mode change, the protocol stack tasks RESET related data areas, and the support system uses the task deletion function of the operating system to delete all tasks related to the protocol stack. Then read the standby configuration in the NV, and use the task creation function of the operating system to create the common tasks required by the standby mode and the tasks related to each access technology according to the configuration. After the protocol stack task is created, the protocol stack common processing module PSCOM will classify the protocol stack tasks according to the standby configuration. In single-standby mode, the labels of each protocol stack task are the same. The dual standby mode is labeled separately according to the standby configuration, and the labels on the same standby side are the same. Then, only the tasks of the same tag can perform message interaction, and the protocol stack tasks of different tags are independent of each other. The differentiation combination of each standby task is realized by this tagging method. Preferred embodiments of the present invention will now be described with reference to the accompanying drawings. FIG. 12 is a schematic diagram of a configuration in which a support system configures a startup task group according to a preferred mode according to a preferred embodiment of the present invention. As shown in FIG. 12, the protocol stack task creation process is as follows: Step S1202: A configuration of a standby mode is set in the NV. The selected settings include (Multiple Standby and Single Standby modes consisting of four access technologies: LTE\TD\GSM\W). A boot event or an event that modifies the standby mode configuration triggers the support system to read the standby mode configuration in the NV. In step S1204, the read configuration is successful. In step S1206, the support system determines whether it is currently powered on or not. Step S1208: If the current has been turned on, notify the protocol stack of each task RESET task related data area, and delete the protocol stack related task. If it is not currently powered on, go to process step S1210. In step S1210, the support system determines whether the current configuration is dual standby or single standby. In step S1212, if it is currently single-standby, a set of public task groups is created for the single-standby protocol stack, to process step S1214. Step S1214: Create a protocol stack task related to the access technology according to the access technology supported by the single standby configuration. At this point, the single standby protocol stack task is created successfully. Step S1216, in dual mode, two sets of common task groups are created, which are respectively used for two standby protocol stacks, to process step S1218. Step S1218: Create an access protocol related protocol stack task according to the access technology supported by the dual standby standby side configuration. At this point, the dual standby protocol stack task is created successfully. 13 is a flowchart of a protocol stack common processing module dividing and combining a standby protocol stack according to a standby mode according to an embodiment of the present invention. As shown in FIG. 13, the process of dividing and combining protocol stack tasks according to a standby mode configuration includes: The following steps are performed: Step S1302, traversing all tasks started by the protocol stack. Step S1304, reading a protocol stack task, and determining according to the current standby configuration. Step S1306, determining whether the standby mode is single standby or dual standby. In step S1308, if it is in the single standby mode, the current protocol stack task is marked as protocol stack 1, and the process proceeds to step S1316. Step S1310: If it is a dual standby mode, determine whether the current task is a protocol stack common task. In step S1312, if it is a common task of the protocol stack, according to the standby configuration, the common task of the protocol stack is first marked as protocol stack 1 or protocol stack 2, respectively. In step S1314, if the task is not a common task of the protocol stack, the task is marked as the protocol stack number corresponding to the standby side according to the access technology configured on each standby side. For example, the access technology of protocol stack 1 is LTE/TD, the access technology of protocol stack 2 is GS13M, and the current task is EURAN-RRC (RRC layer task of LTE), then the task is marked as protocol stack 1. In step S1316, it is determined whether the current protocol stack task is traversed. Step S1318, if the traversal is completed, the flow ends; if it is not traversed, the flow returns to step S1302. Through the multi-mode terminal provided by the above embodiments and the preferred embodiments, "single and double standby free switching, free combination of access technologies" is realized. Compared with the single-and-double-to-be-switched in the related art, the access technology supported by each standby protocol stack is a fixed process, and the single-double of the preferred embodiment of the present invention and the preferred embodiment are implemented by turning on or off a certain standby protocol. The access technologies to be implemented and supported can be arbitrarily combined across the standby side according to the configuration information, and are not limited by the standby protocol stacks. Obviously, those skilled in the art should understand that the above modules or steps of the present invention can be implemented by a general-purpose computing device, which can be concentrated on a single computing device or distributed over a network composed of multiple computing devices. Alternatively, they may be implemented by program code executable by the computing device, such that they may be stored in the storage device by the computing device and, in some cases, may be different from The steps shown or described are performed sequentially, or they are separately fabricated into individual integrated circuit modules, or a plurality of modules or steps thereof are fabricated into a single integrated circuit module. Thus, the invention is not limited to any specific combination of hardware and software. The above is only the preferred embodiment of the present invention, and is not intended to limit the present invention, and various modifications and changes can be made to the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and scope of the present invention are intended to be included within the scope of the present invention. INDUSTRIAL APPLICABILITY As described above, a multimode terminal network access processing method, apparatus, and multimode terminal provided by an embodiment of the present invention have the following beneficial effects: In the related art, a user roaming to a network access technology is solved. When the change is made, the access to the corresponding network cannot be changed according to the change, or the problem of flexible access to the network according to the configuration cannot be achieved, thereby achieving the access according to the change when the user roams to a place where the network access technology changes. Network, or the effect of flexible access to the network according to the configuration.

Claims

权 利 要 求 书 Claim
1. 一种多模终端网络接入处理方法, 所述多模终端网络接入处理方法包括: 创建待机模式配置选项, 所述待机模式配置选项包括若干接入技术类型及 使用所述若干接入技术类型的若干待机模式; A multimode terminal network access processing method, the multimode terminal network access processing method includes: creating a standby mode configuration option, the standby mode configuration option including a plurality of access technology types and using the plurality of access Several standby modes of the technology type;
接收用户从所述待机模式配置选项中选择的接入技术类型及待机模式; 根据用户选择的所述接入技术类型创建相应的协议栈任务; 依据用户选择的所述待机模式将所述协议栈任务划分到相应的待机协议 栈;  Receiving an access technology type and a standby mode selected by the user from the standby mode configuration option; creating a corresponding protocol stack task according to the access technology type selected by the user; and the protocol stack according to the standby mode selected by the user The task is divided into corresponding standby protocol stacks;
依据所述待机协议栈内的协议栈任务注册接入用户选择的所述接入技术类 型对应的网络。  And registering, according to the protocol stack task in the standby protocol stack, a network corresponding to the access technology type selected by the user.
2. 根据权利要求 1所述的多模终端网络接入处理方法, 其中, 根据用户选择的所 述接入技术类型创建相应的所述协议栈任务包括: The multi-mode terminal network access processing method according to claim 1, wherein the creating the corresponding protocol stack task according to the type of the access technology selected by the user comprises:
重置各个协议栈任务数据区;  Reset each protocol stack task data area;
利用任务删除函数删除各个协议栈任务;  Use the task delete function to delete each protocol stack task;
利用任务创建函数创建用户选择的所述接入技术类型对应的所述协议栈任 务。  The protocol stack function is used to create the protocol stack task corresponding to the access technology type selected by the user.
3. 根据权利要求 1所述的多模终端网络接入处理方法, 其中, 依据用户选择的所 述待机模式将所述协议栈任务划分到相应的所述待机协议栈包括: The multi-mode terminal network access processing method according to claim 1, wherein the dividing the protocol stack task into the corresponding standby protocol stack according to the standby mode selected by the user comprises:
依据用户选择的所述待机模式为所述协议栈任务分类打标签; 通过将标签相同的协议栈任务划到同一待机协议栈的方式将所述协议栈任 务划分到相应的所述待机协议栈。  The protocol stack task is tagged according to the standby mode selected by the user; the protocol stack task is divided into corresponding standby protocol stacks by dividing the same protocol stack task of the tag into the same standby protocol stack.
4. 根据权利要求 1所述的多模终端网络接入处理方法, 其中, 在依据所述待机协 议栈内的所述协议栈任务注册接入用户选择的所述接入技术类型对应的网络之 后, 还包括: The multi-mode terminal network access processing method according to claim 1, wherein after the network corresponding to the access technology type selected by the user is registered according to the protocol stack task in the standby protocol stack , Also includes:
在用户重新选择的所述待机模式配置选项与当前运行的待机模式配置不同 的情况下, 删除当前运行的待机模式配置下的协议栈任务;  In the case that the standby mode configuration option reselected by the user is different from the currently running standby mode configuration, the protocol stack task in the currently running standby mode configuration is deleted;
将当前待机模式配置切换到用户重新选择的所述待机模式配置选项; 依据重新选择的所述待机模式配置选项接入网络。 Switching the current standby mode configuration to the standby mode configuration option reselected by the user; The network is accessed according to the reselected standby mode configuration option.
5. 根据权利要求 1至 4中任一项所述的多模终端网络接入处理方法, 其中, 接收 用户在所述多模终端在开机或者是待机状态下, 从所述待机模式配置选项中选 择的所述接入技术类型及所述待机模式。 The multimode terminal network access processing method according to any one of claims 1 to 4, wherein the receiving user is in the standby mode configuration option when the multimode terminal is in a power on state or a standby state. The type of access technology selected and the standby mode.
6. 一种多模终端网络接入处理装置, 所述多模终端网络接入处理装置包括: A multi-mode terminal network access processing device, where the multi-mode terminal network access processing device includes:
第一创建模块, 设置为创建待机模式配置选项, 所述待机模式配置选项包 括若干接入技术类型及使用所述若干接入技术类型的若干待机模式;  a first creation module, configured to create a standby mode configuration option, the standby mode configuration option including a plurality of access technology types and a plurality of standby modes using the plurality of access technology types;
接收模块, 设置为接收用户从所述待机模式配置选项中选择的接入技术类 型及待机模式;  a receiving module, configured to receive an access technology type and a standby mode selected by the user from the standby mode configuration option;
第二创建模块, 设置为根据用户选择的所述接入技术类型创建相应的协议 栈任务;  a second creating module, configured to create a corresponding protocol stack task according to the access technology type selected by the user;
划分模块, 设置为依据用户选择的所述待机模式将所述协议栈任务划分到 相应的待机协议栈;  a dividing module, configured to divide the protocol stack task into a corresponding standby protocol stack according to the standby mode selected by a user;
第一接入模块, 设置为依据所述待机协议栈内的协议栈任务注册接入用户 选择的所述接入技术类型对应的网络。  The first access module is configured to register, according to the protocol stack task in the standby protocol stack, a network corresponding to the access technology type selected by the access user.
7. 根据权利要求 6所述的多模终端网络接入处理装置, 其中, 所述第二创建模块 包括: The multi-mode terminal network access processing device according to claim 6, wherein the second creation module comprises:
重置单元, 设置为重置各个协议栈任务数据区;  a reset unit, configured to reset each protocol stack task data area;
删除单元, 设置为利用任务删除函数删除各个协议栈任务;  Deleting the unit, setting to delete each protocol stack task by using the task deletion function;
创建单元, 设置为利用任务创建函数创建用户选择的所述接入技术类型对 应的所述协议栈任务。  A creating unit is configured to create a protocol stack task corresponding to the access technology type selected by a user by using a task creation function.
8. 根据权利要求 6所述的多模终端网络接入处理装置,其中,所述划分模块包括: 8. The multimode terminal network access processing apparatus of claim 6, wherein the dividing module comprises:
分类单元, 设置为依据用户选择的所述待机模式为所述协议栈任务分类打 标签;  a classifying unit, configured to tag the protocol stack task according to the standby mode selected by the user;
划分单元, 设置为通过将标签相同的协议栈任务划到同一待机协议栈的方 式将所述协议栈任务划分到相应的所述待机协议栈。  The dividing unit is configured to divide the protocol stack task into the corresponding standby protocol stack by dividing the same protocol stack task of the label to the same standby protocol stack.
9. 根据权利要求 6所述的多模终端网络接入处理装置, 其中, 所述多模终端网络 接入处理装置还包括: 删除模块, 设置为在用户重新选择的所述待机模式配置选项与当前运行的 待机模式配置不同的情况下, 删除当前运行的待机模式配置下的协议栈任务; 切换模块, 设置为将当前待机模式配置切换到用户重新选择的所述待机模 式配置选项; The multimode terminal network access processing device according to claim 6, wherein the multimode terminal network access processing device further comprises: Deleting the module, setting to delete the protocol stack task in the currently running standby mode configuration when the standby mode configuration option reselected by the user is different from the currently running standby mode configuration; switching the module, setting the current standby mode The configuration switches to the standby mode configuration option that the user reselects;
第二接入模块, 设置为依据重新选择的所述待机模式配置选项接入网络。 一种多模终端, 包括权利要求 6至 9中任一项所述的多模终端网络接入处理装  The second access module is configured to access the network according to the reselected standby mode configuration option. A multimode terminal comprising the multimode terminal network access processing device according to any one of claims 6 to 9.
PCT/CN2014/077724 2013-10-22 2014-05-16 Network access processing method and apparatus of multi-mode terminal, and multi-mode terminal WO2014187281A1 (en)

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