CN102883280B - A kind of method and microcell base station realizing intelligent co-vibration based on microcellulor - Google Patents

Abstract

The embodiment of the present invention discloses a method for realizing intelligent simultaneous vibration based on a microcell. The method includes: when a mobile terminal registered to a microcellular base station is used as a called party, the microcellular base station judges the mobile terminal based on the pre-saved information of the synchronous vibration terminal. Whether the mobile terminal is bound to the fixed-line terminal connected to the microcell base station for simultaneous vibration; bound and connected to the femtocell base station; otherwise the call is only routed to the mobile terminal. The invention also discloses a micro-cell base station. The method and the micro-cell base station can automatically control whether to activate the simultaneous vibration according to the location of the mobile terminal, and do not need the support of the IMS system, so the implementation is simple.

Description

A Method for Realizing Intelligent Simultaneous Vibration Based on Micro Cell and Micro Cell Base Station

technical field

The invention relates to the field of communication technology, in particular to a method for realizing intelligent simultaneous vibration based on a micro-cell and a micro-cell base station.

Background technique

Simultaneous ringing is an application function provided for users in the communication system. It means that when the calling terminal calls the called terminal, the pre-set simultaneous ringing terminal bound to the called terminal can ring at the same time as the called terminal. You can use the called terminal to answer the call, or you can use the bound terminal to answer the call.

A typical simultaneous vibration application is the simultaneous vibration of a mobile terminal and a fixed-line terminal. After the fixed-line terminal is bound to the mobile terminal as a simultaneous-vibration terminal, if there is a call for the mobile terminal, in an environment where the fixed-line terminal can be used, Users can use the bound fixed-line terminal to answer the call.

With the integration of the traditional communication network and the Internet, the 3G communication system introduces the IP Multimedia Subsystem (IMS) domain on the basis of the traditional Circuit Switched (CS) domain, and provides more abundant business applications through the IMS system, and the simultaneous vibration application It is also realized with the emergence of the IMS system.

In the existing 3G communication system, in order to realize the simultaneous vibration of the CS terminal and the fixed-line terminal in the IMS domain, it generally needs to be realized through the existing system entities as shown in Figure 1, mainly involving the mobile switching center (MSC), service control point (SCP), application server (AS), call session control function entity (CSCF), media gateway control function entity (MGCF), and user home server (HHS).

Take the case where a user in the CS domain calls a mobile terminal in the CS domain, and the mobile terminal in the CS domain is bound to a fixed-line terminal in the IMS domain to perform simultaneous vibration as an example. The entire simultaneous vibration implementation process is as follows:

When a CS domain user initiates a call to a mobile terminal in the CS domain, the call will be triggered to the SCP. When the SCP anchors, it will change the destination address of the call to RN + the mobile subscriber number (MSISDN) of the called terminal. The switch is pre-configured RN data, when the switch receives a connection (Connect) message from the SCP, if the destination address in the Connect message starts with RN, it will be routed according to the called MSISDN behind the RN, and the call will be routed to the called mobile terminal. At the same time, it will also send an Identity and Access Management (IAM) message to the MGCF to direct the route to the MGCF; after receiving the IAM message, the MGCF will delete the RN before the called number, and then send an Invite (invitation) request to the CSCF to connect the call to the MGCF. Enter the IMS domain; CSCF learns the simultaneous ringing setting of the user according to the initial filtering rule (iFC) stored in the HHS, and triggers the application server AS to execute the simultaneous ringing service logic, and the AS searches the ringing list and ringing mode of the called user, such as which The number rings first, which number rings later, etc., and finally the call is routed to the fixed-line terminal in the same vibration, so as to realize the simultaneous vibration of the mobile terminal in the CS domain and the fixed-line terminal in the IMS domain.

Although the existing technology has realized the simultaneous vibration of the mobile terminal in the traditional CS domain and the fixed-line terminal in the IMS domain, a very serious negative effect on the simultaneous vibration service has not been solved, that is, the privacy problem of the user phone. For example: the user is outside and holds a mobile terminal. When a call is made to the user's mobile terminal, the fixed-line terminal in the office or at home will ring at the same time. At this time, other people can pass through the fixed-line terminal without the user's permission. Answer the user's call, thus losing the protection of user privacy. In fact, at this time, the user has no way to use the fixed-line terminal, and the simultaneous vibration function is actually not necessary.

It can be seen that the existing simultaneous vibration applications need to configure and save corresponding user data in the communication system for their business implementation. Change; this fundamentally prevents the existing synchronous vibration business from being automatically started or suspended, and can only be controlled manually.

In addition, the existing simultaneous vibration of mobile terminals and fixed-line terminals must be implemented through the IMS system, which is costly to implement, and requires multiple system entities for call routing, which is relatively complicated to implement.

Contents of the invention

In view of this, the present invention provides a method for realizing intelligent simultaneous vibration based on a micro-cell and a micro-cell base station, which can automatically control whether to enable simultaneous vibration according to the location of the mobile terminal, and do not need the support of the IMS system, so the implementation is simple.

For reaching above-mentioned purpose, technical scheme of the present invention is specifically realized like this:

A method for realizing intelligent simultaneous vibration based on a microcell, the method comprising:

When the mobile terminal registered to the microcell base station is used as the called party, the microcell base station judges whether the mobile terminal is bound to the fixed-line terminal connected to the microcell base station for simultaneous vibration according to the information of the pre-saved synchronous terminal;

If so, simultaneously routing the call to the mobile terminal to the fixed-line terminal bound to the mobile terminal and connected to the femtocell base station in the information of the mobile terminal and the simultaneous vibration terminal;

Otherwise the call is only routed to said mobile terminal.

Preferably, the method further comprises:

Before the mobile terminal does not answer the call, the femtocell base station ensures that the fixed-line terminal cannot answer the call.

Preferably, the method further includes: after the call of the mobile terminal is connected, the femtocell base station instructs the fixed-line terminal to stop ringing; and after the fixed-line terminal also answers the call, transfer the call to the fixed phone terminal, and release the call connection of the mobile terminal after a preset time.

Preferably, the method further comprises:

After the fixed-line terminal answers the call, if the femtocell base station receives a preset switch command from the fixed-line terminal, it initiates a call connection to the mobile terminal; and after the mobile terminal answers the call, after a preset time Release the call connection of the fixed-line terminal.

Preferably, before the mobile terminal does not answer the call, the femtocell base station ensures that the fixed-line terminal cannot answer the call, including:

After the mobile terminal rings, the microcell base station instructs the fixed-line terminal to ring, and does not respond to the offhook message received from the fixed-line terminal before receiving the connect message sent by the mobile terminal. order to process.

Preferably, after the call of the mobile terminal is connected, the microcell base station instructs the fixed-line terminal to stop ringing; and after the fixed-line terminal also answers the call, the call is transferred to the fixed-line terminal ,include:

After receiving the connection connect message sent by the mobile terminal, the femtocell base station establishes a call connection with the mobile terminal, and sends a signaling to stop ringing to the fixed-line terminal; and upon receiving the fixed-line After the offhook signaling sent by the telephone terminal, the call connection is transferred from the mobile terminal to the fixed telephone terminal by converting the signal of the fixed telephone terminal into the signaling of the mobile terminal.

Preferably, the switching instruction includes: preset DTMF signaling.

A microcellular base station, the microcellular base station comprising:

The synchronous vibration judging module, when the mobile terminal registered to the microcell base station is used as the called party, judges whether the mobile terminal is bound with the fixed-line terminal connected to the microcell base station to synchronously vibrate according to the information of the synchronous terminal saved in advance;

The routing module is connected to the synchronous vibration judgment module, if the synchronous vibration judgment module judges that the fixed-line terminal connected to the mobile terminal and the microcell base station is bound to synchronous vibration; then the call to the mobile terminal is simultaneously routed to The mobile terminal and the fixed-line terminal bound to the mobile terminal and connected to the femtocell base station among the simultaneous vibration terminals; otherwise, only routing the call to the mobile terminal.

Preferably, the Femtocell base station further includes:

A call restriction module, connected to the routing module, is used to ensure that the fixed-line terminal cannot answer the call before the mobile terminal does not answer the call.

Preferably, the microcell base station further includes:

The fixed-line switching module is connected with the routing module, and is used to instruct the fixed-line terminal to stop ringing after the call of the mobile terminal is connected; and transfer the call after the fixed-line terminal also answers the call to the fixed-line terminal, and release the call connection of the mobile terminal after a preset time.

Preferably, the Femtocell base station further includes: a fixed-line switchback module, connected to the routing module, and used for handover from the fixed-line terminal if a preset call is received after the fixed-line terminal answers the call instruction, initiate a call connection to the mobile terminal; and release the call connection of the fixed-line terminal after a preset time after the mobile terminal answers the call.

It can be seen from the above technical solution that the method for realizing intelligent simultaneous vibration based on the micro-cell and the micro-cell base station of the present invention use the user's switching between the micro-cell base station and the macro network to realize automatic control of whether the simultaneous vibration function is enabled or not according to the user's location. Intelligent simultaneous vibration; realize the business logic of simultaneous vibration in the microcell, when the user enters the coverage of the microcell base station, it will register with the microcell base station, so as to bind the terminal connected to the microcell base station, and the user in the microcell The simultaneous vibration service logic realizes the simultaneous vibration of the bound terminal. When the user leaves the coverage of the microcell base station, he will log out from the microcell and enter the macro network. At this time, the user communication has nothing to do with the microcell and will not trigger the microcell Simultaneous vibration business logic, so as to realize the purpose of automatically controlling whether to enable simultaneous vibration according to the location of the mobile terminal, and does not require IMS system support, so the implementation is simple.

Description of drawings

FIG. 1 is a schematic structural diagram of an existing system for realizing the synchronous vibration function.

Fig. 2 is a schematic structural diagram of a system for implementing intelligent simultaneous vibration according to an embodiment of the present invention.

Fig. 3 is a flowchart of a method for implementing intelligent simultaneous vibration according to an embodiment of the present invention.

Fig. 4 is a flow chart of switching from a fixed-line terminal to a mobile terminal in the method for implementing intelligent simultaneous vibration according to an embodiment of the present invention.

FIG. 5 is a schematic structural diagram of a femtocell base station according to an embodiment of the present invention.

Detailed ways

In order to make the object, technical solution and advantages of the present invention clearer, the present invention will be further described in detail below with reference to the accompanying drawings and examples.

The present invention mainly utilizes the user's switch between the micro-cell base station and the macro network to realize the intelligent simultaneous vibration that automatically controls whether the synchronous vibration function is enabled or not according to the user's position; realizes the business logic of the simultaneous vibration in the micro-cell, and the user enters the micro-cell When the coverage of the base station is reached, it will register with the microcell base station, so as to bind the terminal connected to the microcell base station. The simultaneous oscillation of the bound terminal is realized by the synchronous vibration business logic in the microcell. When the user leaves the coverage area of the microcell base station At this time, the user will log out from the microcell and enter the macro network. At this time, the user communication has nothing to do with the microcell, and will not trigger the synchronous service logic in the microcell base station, which is equivalent to automatically unbinding the terminal connected to the microcell base station. , thereby achieving the effect of automatically stopping the synchronous vibration service.

The use of microcells to achieve simultaneous vibration can not only use the microcellular base station to connect with ordinary fixed-line terminals, realize the binding and simultaneous vibration between mobile terminals and fixed-line terminals, but also realize the binding and simultaneous vibration between mobile terminals. The logic is only implemented on the microcell base station, does not involve the functional entity in the macro network, and does not need to route the traffic through the IMS system, so compared with the existing scheme of realizing the simultaneous vibration of the mobile terminal and the fixed-line terminal through the IMS system , simpler and less costly.

Taking the realization of the simultaneous vibration of the mobile terminal and the fixed-line terminal as an example, the realization of the intelligent simultaneous vibration of the present invention mainly involves functional entities as shown in Figure 2, including: a femtocell AP, a fixed-line terminal, a mobile terminal, a micro-cellular Gateway (femtoGW); wherein the femtoGW is further connected to the MSC through the MGW, and accesses the core network (not shown in the figure).

Among them, femtocellAP is connected to femtoGW through the Internet; the present invention does not change the message flow between femtocellAP and femtoGW, and all the logic of the synchronous vibration service is realized on femtocellAP, so the message flow between femtocellAP and femtoGW is not done here described in detail.

The specific connection mode between the fixed-line terminal and the femtocellAP can be adopted in various ways according to the specific application.

For example, in a home application scenario: FemtocellAP can be connected to a fixed-line terminal through its own plain old telephone service (POTS) interface.

In an enterprise application scenario: FemtocellAP can be connected to an IP program-controlled exchange (IP-PBX) through an IP interface, and then can be connected to multiple fixed-line terminals.

Wherein, the FemtocellAP stores the information of the simultaneous vibration terminal specified by the user, such as the International Mobile Subscriber Identity (IMSI) of the mobile terminal and the number of the fixed-line terminal bound to the mobile terminal. Specifically, the information of the user-specified simultaneous vibration terminal stored in the FemtocellAP can be sent to the AP network management by the system administrator through the business operation support system (BOSS) interface in the communication system when the user applies for the simultaneous vibration service. Then issue instructions to the FemtocellAP for implementation; of course, it can also be manually written directly into the FemtocellAP.

When the mobile terminal enters the coverage area of the FemtocellAP, it will reselect from the macro network to enter the Femtocell; the mobile terminal will initiate a location update (LOCATIONUPDATE) process to register on the FemtocellAP. Since the mobile terminal has reported the IMSI to the FemtocellAP during the LOCATIONUPDATE process. When the mobile terminal is called, FemtocellAP can judge whether the IMSI of the mobile terminal is bound with the fixed-line number, the simultaneous ringing service is triggered, and the call is routed to the mobile terminal and the bound fixed-line terminal at the same time, so that the fixed-line terminal rings at the same time. When the mobile terminal leaves the coverage area of the FemtocellAP, that is, cancels the registration on the FemtocellAP, and reselects into the macro network after leaving the FemtocellAP, the FemtocellAP and the macro network do not need to perform any operations. At this time, if the mobile terminal is called, all its communication services are It will be carried out on the macro network without any relationship with FemtocellAP, and will not trigger the simultaneous vibration service logic implemented on FemtocellAP, which is equivalent to realizing the automatic release of the simultaneous vibration binding between mobile terminals and fixed-line terminals, achieving The effect of automatically stopping the synchronous vibration service. That is to say, the present invention indirectly obtains the location information of the user through whether the mobile terminal is registered on the FemtocellAP, and realizes the simultaneous vibration service logic on the FemtocellAP, so that the mobile terminal can only be triggered when the mobile terminal is registered on the FemtocellAP. The vibration service logic achieves the purpose of starting the simultaneous vibration service when the user is within the coverage of the FemtocellAP, and automatically stopping the simultaneous vibration service when the user leaves the coverage area of the FemtocellAP.

After the user binds the co-ringing terminal, when the mobile terminal rings as the called party, the relevant signaling process between femtoGW, femtocellAP, mobile terminal and fixed-line terminal is shown in Figure 3, including the following process:

In step 301, the mobile terminal sends an alerting (Alerting) message to the femtoGW.

In step 302, the femtocellAP sends a ring (ring) instruction to the fixed-line terminal. This step is based on the judgment of the femtocellAP for the simultaneous vibration service. If the femtocellAP judges that the mobile terminal is not bound to the fixed-line terminal number of the simultaneous vibration, this step will not be performed.

Step 303, when the mobile terminal answers the call, it sends a connect (connect) message to the femtocellAP;

Step 304, femtocellAP sends a connect message to femtoGW;

Step 305, femtoGW sends a connection acknowledgment (connectACK) message to femtocellAP;

Step 306, femtocellAP sends a connectACK message to the mobile terminal;

In step 307, the femtocellAP sends a stop ringing (stopring) instruction to the mobile terminal; at this time, the voice service flow (AMRtraffic) is on the channel from the mobile terminal to the core network (indicated by a dotted line).

Step 308 , the fixed-line terminal sends an offhook signaling. At this time, the AMRtraffic will switch from the mobile terminal to the core network channel to the fixed-line terminal-to-core network channel (indicated by a dotted line).

The above process can ensure the privacy of the user's phone; femtocellAP is judged based on whether it has received a connect message. Only after receiving the connect message (indicating that the mobile terminal has answered the call) and receiving the fixed-line offhook signaling, the voice service can From the mobile terminal to the core network channel to the fixed line to the core network channel. That is to say, the fixed-line terminal can normally answer the call only after the mobile terminal answers the call. Before the mobile terminal answers, because the femtocellAP does not receive the conncet message, even if it receives the offhook signaling from the fixed-line terminal, the femtocellAP will not release the call. The voice link of the fixed line, so as to ensure that the fixed line terminal cannot answer the call.

After the user uses the mobile terminal to answer the call, once the user switches to the fixed-line terminal to answer the call, that is, femtocellAP receives the offhook signaling sent by the fixed-line terminal, and femtocellAP will be responsible for converting the fixed-line terminal signaling to the mobile terminal signaling process, simulating the fixed-line terminal as a mobile terminal The terminal continues the voice service, so that the core network remains unchanged, and there is no need to rebuild the call. At the same time, the femtocellAP can start a timer, and release the wireless resources of the mobile terminal when the preset time is reached.

After the user uses the fixed-line terminal to answer the call, if he wants to switch back to the mobile terminal to answer the call, he can send a switching command through the button of the fixed-line terminal to notify the femtocellAP. After receiving the switching command, the femtocellAP establishes a wireless link with the mobile terminal and transfers the voice service The mobile terminal is switched back, while the core network remains unchanged. Similarly, at this time, the femtocellAP can start a timer, and disconnect the fixed line terminal after the preset time is reached.

The specific flow of switching back to the mobile terminal to answer is shown in Figure 4, including the following steps:

Step 401, the fixed-line terminal sends a switching instruction in the form of a dual-tone multi-frequency (DTMF) signal to the femtocellAP;

Step 402, the femtocellAP performs paging to the mobile terminal, and sends a paging (paging) message to the mobile terminal;

Step 403, the mobile terminal returns a paging response (pagingresponse) message to the femtocellAP;

Step 404, the femtocellAP sends a bearer setup (RBSetup) message to the mobile terminal;

Step 405, the mobile terminal returns (RBSetupComplete) message to femtocellAP;

Step 406, the mobile terminal sends an Alerting message to the femtocellAP;

Step 407, the mobile terminal sends a conncet message to the femtocellAP; indicating that the mobile terminal has answered the call;

Step 408, the femtocellAP sends a connectACK message to the mobile terminal to complete the call connection; after that, AMRtraffic will switch from the fixed line terminal to the core network channel to the mobile terminal to the core network channel (indicated by the dotted line).

Wherein, the messages between the femtocellAP and the femtoGW are omitted and not shown because they are the same as those in the prior art.

In the above process, the switching command can be sent through the button of the fixed-line terminal, such as 12#, and transmitted to the femtocellAP through the DTMF signal. The femtocellAP triggers a paging when it receives the DTMF signal. The IMSI of the mobile terminal is bound to the number of the fixed-line terminal. At this time, the femtocellAP can know which mobile terminal needs to initiate paging based on this information. After that, the femtocellAP establishes a wireless channel with the mobile terminal. When the mobile terminal answers the call, the femtocellAP can still According to the process shown in Figure 3, it is judged whether the connect message sent by the mobile terminal is received, and if so, the femtocellAP releases the original physical channel from the femtocellAP to the fixed-line terminal.

The present invention also provides a microcellular base station, the structure of which is shown in Figure 5, including:

Simultaneous vibration judging module 501, when the mobile terminal registered to the femtocell base station is used as the called party, judge whether the pre-saved simultaneous vibration terminal includes the mobile terminal;

The routing module 502 is connected to the simultaneous vibration judging module 501, if the simultaneous vibration judging module 501 judges that the mobile terminal is included in the pre-saved simultaneous vibration terminals; then the call to the mobile terminal is simultaneously routed to the The mobile terminal and the fixed-line terminal bound to the mobile terminal and connected to the femtocell base station among the simultaneous vibration terminals; otherwise, only the call is routed to the mobile terminal.

Preferably, the Femtocell base station may further include:

A call restriction module 503, connected to the routing module 502, is used to ensure that the fixed-line terminal cannot answer the call before the mobile terminal does not answer the call. Specifically, the call restriction module 503 is based on whether the conncet message sent by the mobile terminal is received or not. Before receiving the conncet message, even if an offhook signaling from the fixed-line terminal is received, the call to the fixed-line terminal will not be released. voice link, so as to ensure that the fixed-line terminal cannot answer the call.

Preferably, the Femtocell base station may further include:

The fixed-line switching module 504 is connected with the routing module 502, and is used for instructing the fixed-line terminal to stop ringing after the call of the mobile terminal is connected; and after the fixed-line terminal also answers the call, set The call is transferred to the fixed-line terminal, and the call connection of the mobile terminal is released after a preset time. For specific operations, reference may be made to steps 307 to 308 in FIG. 3 , which will not be repeated here.

Preferably, the Femtocell base station may further include:

The fixed-line switchback module 505 is connected with the routing module 502, and is used for initiating a call to the mobile terminal if a preset switching instruction from the fixed-line terminal is received after the fixed-line terminal answers the call connection; and after the mobile terminal answers the call, release the call connection of the fixed-line terminal after a preset time. For specific operations, reference may be made to steps 401 to 408 in FIG. 4 , which will not be repeated here.

It can be seen from the above-mentioned embodiments that the method for realizing intelligent simultaneous vibration based on the micro-cell of the present invention and the micro-cell can automatically control whether to enable the simultaneous vibration according to the location of the mobile terminal, so that the users who have applied for the simultaneous vibration service The privacy is well protected. Furthermore, the fixed-line terminal can answer normally only after the mobile terminal answers the call. Customers can also switch between the mobile terminal and the fixed-line call according to their preferences. In addition, since the logic of the simultaneous vibration service is implemented in the microcell base station, there is no need to change the core network and invest in IMS system equipment. The cost of realizing the simultaneous vibration service is small and the effect is quick, which is conducive to improving the market competitiveness of communication companies. After using the fixed line to answer the call, the battery life of the user's mobile terminal can be extended. In traffic hotspots, it can effectively divert traffic from wireless network to wired network, and reduce the investment in wireless network while maintaining the communication quality of wireless network.

The above descriptions are only preferred embodiments of the present invention, and are not intended to limit the present invention. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principles of the present invention shall be included in the present invention. within the scope of protection.

Claims (11)

1. realize a method for intelligent co-vibration based on microcellulor, it is characterized in that, the method comprises:

When being registered to the mobile terminal of microcell base station as time called, according to the information of the same terminal of shaking of preserving in advance, microcell base station judges that the fixed phone terminal whether described mobile terminal is connected with microcell base station is bound with shaking;

If so, then by the calling of described mobile terminal simultaneously route give described mobile terminal with described with in the information of terminal of shaking with described mobile terminal binding and the fixed phone terminal be connected with microcell base station;

Otherwise only give described mobile terminal by call routing.

2. the method realizing intelligent co-vibration based on microcellulor as claimed in claim 1, it is characterized in that, the method comprises further:

Before described mobile terminal does not answer the call, described microcell base station ensures that described fixed phone terminal cannot answer the call.

3. the method realizing intelligent co-vibration based on microcellulor as claimed in claim 2, it is characterized in that, the method comprises further: after the call through of described mobile terminal, and fixed phone terminal described in described microcell base station instruction stops ring; And after described fixed phone terminal also answers the call, transfer the call to described fixed phone terminal, and the call discharging mobile terminal after Preset Time connects.

4. the method realizing intelligent co-vibration based on microcellulor as claimed in claim 3, it is characterized in that, the method comprises further:

After fixed phone terminal answers the call, if microcell base station receives default, from the switching command of fixed phone terminal, then to make a call connection to described mobile terminal; And after described mobile terminal answers the call, the call discharging described fixed phone terminal after Preset Time connects.

5. the method realizing intelligent co-vibration based on microcellulor as claimed in claim 2, it is characterized in that, before described mobile terminal does not answer the call, described microcell base station ensures that described fixed phone terminal cannot answer the call, and comprising:

After mobile terminal ring, fixed phone terminal ring described in described microcell base station instruction, and before the connection connect message not receiving the transmission of described mobile terminal, the off-hook offhook signaling received is not processed from described fixed phone terminal.

6. the method realizing intelligent co-vibration based on microcellulor as claimed in claim 3, is characterized in that, after the call through of described mobile terminal, fixed phone terminal described in described microcell base station instruction stops ring; And after described fixed phone terminal also answers the call, transfer the call to described fixed phone terminal, comprising:

After described microcell base station receives the connect message of described mobile terminal transmission, set up the call connection with described mobile terminal, and send the signaling stopping ring to described fixed phone terminal; And after the offhook signaling receiving the transmission of described fixed phone terminal, by changing fixed phone terminal signal into mobile terminal signaling, call connection is transferred to described fixed phone terminal from described mobile terminal.

7. the method realizing intelligent co-vibration based on microcellulor as claimed in claim 4, it is characterized in that, described switching command comprises: the dual tone multi-frequency dtmf signaling preset.

8. a microcell base station, is characterized in that, this microcell base station comprises:

With shaking judge module, when being registered to the mobile terminal of described microcell base station as time called, judge that the fixed phone terminal whether described mobile terminal is connected with microcell base station is bound with shaking according to the information of the same terminal of shaking of preserving in advance;

Routing module, is connected with the judge module that shakes with described, if the described fixed phone terminal judging that described mobile terminal is connected with microcell base station with the judge module that shakes is bound with shaking; Then by the calling of described mobile terminal simultaneously route give described mobile terminal with described with in terminal of shaking with described mobile terminal binding and the described fixed phone terminal be connected with microcell base station; Otherwise only give described mobile terminal by call routing.

9. microcell base station as claimed in claim 8, it is characterized in that, described microcell base station comprises further:

Call blocking module, is connected with described routing module, before not answering the call at described mobile terminal, ensures that described fixed phone terminal cannot answer the call.

10. microcell base station as claimed in claim 8 or 9, it is characterized in that, described microcell base station comprises further:

Fixed line handover module, is connected with described routing module, and for after the call through of described mobile terminal, fixed phone terminal described in instruction stops ring; And after described fixed phone terminal also answers the call, transfer the call to described fixed phone terminal, and the call discharging mobile terminal after Preset Time connects.

11. microcell base stations as claimed in claim 10, it is characterized in that, described microcell base station comprises further: fixed line switchback module, be connected with described routing module, for after described fixed phone terminal answers the call, if receive default, from the switching command of fixed phone terminal, then to make a call connection to described mobile terminal; And after described mobile terminal answers the call, the call discharging described fixed phone terminal after Preset Time connects.