WO2021121003A1 - Message processing method, module, detection method, switching device and storage medium - Google Patents

Abstract

Provided are a message processing method, a module, a detection method, a switching device and a storage medium. The message processing method comprises: configurating a newly added virtual local area network VLAN identifier for a predetermined port, the newly added VLAN identifier is different from the default VLAN identifier of the predetermined port (S110); setting a port state corresponding to the newly added VLAN identifier as a forwarding state, wherein, the port state is a type of configuration information of the predetermined port (S120); modifying the VLAN identifier of the message to be sent to the newly added VLAN identifier (S130).

Description

Message processing method and module, detection method, switching equipment, storage medium

Cross-references to related applications

This application is based on a Chinese patent application with an application number of 201911303617.X and an application date of December 17, 2019, and claims the priority of the Chinese patent application. The entire content of the Chinese patent application is hereby incorporated into this application by reference.

Technical field

The present disclosure relates to the field of communication technology, in particular, to a message processing method, a message processing module that executes the message processing method, a detection method, a switching device, a multi-frame routing device, a A computer-readable storage medium.

Background technique

With the advent of the 5G era, higher requirements have been put forward for the performance of communication network equipment, and the clustering and scale of network equipment has become more and more obvious. Existing high-end distributed routing equipment is often composed of multiple frames, and each frame communicates through an external optical fiber connection.

Due to its apparent characteristics, the optical fibers between the frames may be damaged due to various reasons and need to be replaced; in addition, in actual applications, in order to meet the needs of equipment testing and other requirements, the plugging and unplugging operations of the optical fibers between the frames must be allowed. However, because the frames in the routing system have the ability to generate independent master masters, when a separate frame is reinserted into the optical fiber access routing system, it may cause a series of engineering problems such as dual master conflicts.

In order to avoid the above-mentioned engineering problems, the port that reinserts the fiber is usually set to a blocked state. However, when a specific message such as a detection message used to detect a dual-master conflict needs to be forwarded from the blocked port, the existing method is complicated and the maintenance cost is high. Therefore, a simplified method for message processing and forwarding is urgently needed.

Summary of the invention

In order to solve at least one aspect of the above-mentioned problems to at least a certain extent, the present disclosure provides a message processing method, a message processing module for executing the message processing method, a detection method, a switching device, and a Multi-frame routing equipment, a computer-readable storage medium.

As a first aspect of the present disclosure, a message processing method is provided, including: configuring a new VLAN identifier for a predetermined port, where the new VLAN identifier is different from the default VLAN identifier of the predetermined port; The port state corresponding to the newly added VLAN identifier is set to the forwarding state, where the port state is a type of configuration information of the predetermined port; the VLAN identifier of the message to be sent is modified to the newly added VLAN identifier.

As a second aspect of the present disclosure, a detection method is provided. The detection method includes: constructing a detection message, the Ethernet type of the detection message is a predetermined type; detecting whether a predetermined port is physically connected; In the case of physical connectivity, the foregoing message processing method is executed to send the detection message.

As a third aspect of the present disclosure, a message processing module is provided, including: a VLAN identifier configuration unit configured to configure a new VLAN identifier for a predetermined port, and the new VLAN identifier is different from the predetermined port. The default VLAN identifier of the port; the port configuration unit is configured to set the port state corresponding to the newly added VLAN identifier to the forwarding state, wherein the port state is a type of configuration information of the predetermined port; The message configuration unit is configured to modify the VLAN identifier of the message to be sent to the newly added VLAN identifier.

As four aspects of the present disclosure, a switching device is provided, including: a storage module on which an executable program is stored; one or more processors, when the executable program is used by the one or more When the processor is executed, the one or more processors are allowed to implement the foregoing message processing method.

As a fifth aspect of the present disclosure, a computer-readable storage medium is provided, and an executable program is stored on the computer-readable storage medium, and the executable program can implement the foregoing message processing method or the foregoing The detection method.

As a sixth aspect of the present disclosure, a multi-frame routing device is provided. The multi-frame routing device includes: a storage module on which an executable program is stored; one or more processors, when the When the execution program is executed by the one or more processors, the one or more processors implement the foregoing message processing method or the foregoing detection method.

Description of the drawings

The accompanying drawings are used to provide a further understanding of the present disclosure and constitute a part of the specification. Together with the following specific embodiments, they are used to explain the present disclosure, but do not constitute a limitation to the present disclosure. In the attached picture:

FIG. 1 is a flowchart of an implementation manner of a message processing method provided by the present disclosure;

FIG. 2 is a flowchart of another implementation manner of the message processing method provided by the present disclosure;

FIG. 3 is a flowchart of another implementation manner of the message processing method provided by the present disclosure;

4 is a flowchart of still another implementation manner of the message processing method provided by the present disclosure;

FIG. 5 is a flowchart of still another implementation manner of the message processing method provided by the present disclosure;

FIG. 6 is a flowchart of still another implementation manner of the message processing method provided by the present disclosure;

FIG. 7 is a schematic diagram of a message processing module provided by the present disclosure;

Figure 8 is a schematic diagram of a multi-frame connection of an existing cluster router.

Detailed ways

The specific embodiments of the present disclosure will be described in detail below with reference to the accompanying drawings. It should be understood that the specific embodiments described herein are only used to illustrate and explain the present disclosure, and are not used to limit the present disclosure.

The inventors of the present disclosure discovered that in order to make the entire system have only one active master, when the optical fiber between the frames is inserted, it is necessary to first detect the respective system states of the two interconnected frames and decide the master master. Before deciding on the master and master, in order to avoid dual master conflicts, it is necessary to limit the normal control plane communication message forwarding between the frames. Therefore, the state of the optical fiber port that reinserts the optical fiber is set to the block state by default. As shown in Figure 8, suppose that frame 100 is connected to frame 300 by reinserting optical fibers on ports P1 and P3. Frame 100, frame 200, and frame 300 form a multi-frame routing device. Frame 100 has main control board 11 and frame 200. There is a main control board 12 on it, and a central switch board 13 on the frame 300. In order to avoid dual-master conflicts, at this time, the states of the port P1 and the port P3 are block. The two states of the switch chip port are explained here. When the switch chip port is set to the forward state, the port can send and receive messages; when the switch chip port is set to the block state, the port will not be able to perform normal Sending and receiving of messages. Therefore, when the states of the port P1 and the port P3 are block, the message cannot be sent from the chip 31 to the chip 35 through the port P1 and the port P3. When it is necessary to detect a dual-master conflict, in some cases, a Bridge Protocol Data Unit (BPDU, Bridge Protocol Data Unit) message can be used as a detection message. However, there are certain limitations in the way BPDUs are forwarded. BPDU messages are mainly used between end-to-end, not the Layer 2 forwarding of the chip hardware itself. Each step of its forwarding requires the participation of the CPU, or it needs to be directed to different orders. The different ports of the board are configured accordingly. For example, as shown in Figure 8, when using a BPDU message to detect a dual-master conflict, the BPDU message needs to start from the CPU 21 in the box 100, go through the chip 31, the chip 32, the chip 35, the chip 34, the chip 33, and finally reach the box 200. The CPU 22, in block 300, may also require the participation of the CPU 31. However, when BPDU messages are forwarded through multiple chips to detect dual-master conflicts, the maintenance complexity and cost will be greatly increased.

In view of this, as the first aspect of the present disclosure, a message processing method is provided. As shown in FIG. 1, the message processing method includes:

In step S110, a newly-added virtual local area network VLAN identifier is configured for a predetermined port, and the newly-added VLAN identifier is different from the default VLAN identifier of the predetermined port;

In step S120, the port state corresponding to the newly added VLAN identifier is set to a forwarding state, where the port state is a type of configuration information of the predetermined port;

In step S130, the VLAN identifier of the message to be sent is modified to the newly added VLAN identifier.

It should be noted that the predetermined port may be any port on the network module. In the present disclosure, the specific type of the network module is not specifically limited. The network module may be a switching chip. In the case of optical fiber plugging and unplugging, the predetermined port is an optical fiber port of a network module that reinserts an optical fiber. In step S110, "newly added" is only used to indicate that the newly added VLAN identifier is different from the default VLAN identifier of the predetermined port.

A virtual local area network (VLAN, Virtual Local Area Network) is a logical subnet established on a physical network. Different VLANs are distinguished by VLAN identifiers. Packets in the network are encapsulated with VLAN identifiers, and packets can be forwarded in the same VLAN as its VLAN identifier; at the same time, different VLANs are logically incompatible with each other , That is to say, the message will not be sent to the VLAN whose VLAN identifier is different.

In the present disclosure, each port of the network module is configured with a default VLAN identifier, and the network module encapsulates the default VLAN identifier for packets entering the network module. Therefore, the packets encapsulated with the default VLAN identifier can pass through The port configured with the default VLAN identifier is forwarded. As mentioned earlier, whether a message can be forwarded through a certain port of the network module also depends on the status of the port. Specifically, suppose that the default VLAN identifier is 1, and port a is a port on the network module with VLAN identifier 1. When the status of port a is forwarding, packets with VLAN identifier 1 can be sent and received through port a ; When the status of port a is blocked, packets with VLAN identifier 1 cannot be forwarded through port a.

In order to forward a specific message (for example, a detection message used to detect whether there is a dual-master conflict in a multi-frame routing device) through the port when the port status of the network module is blocked, in step S110 of the present disclosure, The predetermined port of the network module is configured with a newly added VLAN identifier, and the newly added VLAN identifier is different from the default VLAN identifier of the predetermined port. It should be emphasized that when a new VLAN identifier is configured for the predetermined port of the network module in step S110, the predetermined port still retains the default VLAN identifier. For example, configure the newly added VLAN identifier for port a to 2. At this time, port a is configured with two VLAN identifiers 1 and 2, that is, port a is added with VLAN identifier 1 and VLAN identifier at the same time Two VLANs for 2. At this time, both the packet with the VLAN identifier of 1 and the packet with the VLAN identifier of 2 can be forwarded through port a.

It can be seen from the foregoing that whether the message can be forwarded through the port of the network module also depends on the port status. Therefore, in order to enable the message whose VLAN identifier is the newly added VLAN identifier to be forwarded from the reserved port, in step S120, The port state corresponding to the newly added VLAN identifier in the configuration information of the predetermined port is set to a forwarding state. It should be noted that in step S120, the port status corresponding to the default VLAN identifier in the configuration information of the predetermined port is not modified. For example, in the configuration information of port a, the port status corresponding to VLAN identifier 2 is set to forwarding, so that packets with VLAN identifier 2 can be forwarded through port a; and in the configuration information of port a, The status of the port corresponding to character 1 is still blocked, and the packet with VLAN identifier 1 cannot be forwarded through port a.

In the present disclosure, the VLAN identifier of a specific message (for example, a detection message used to detect whether a dual-master conflict exists in a multi-frame routing device) is modified to the newly added VLAN identifier, and the VLAN identifier of a common message The default VLAN identifier is still the default VLAN identifier, so that a specific message can be forwarded from the VLAN identifier set in the forwarding state in step S120 to the predetermined port of the newly added VLAN identifier, while ordinary messages cannot be forwarded from the VLAN identifier. The predetermined port is forwarded. Therefore, correspondingly, in step S130, the VLAN identifier of the message to be sent is modified to the newly added VLAN identifier, and the specific message and the ordinary message are differentiated, so as to realize the specific message Differentiated forwarding from ordinary messages.

The message processing method provided in the present disclosure configures a new VLAN identifier for a specific port of a network module, enables the specific port to join different VLANs at the same time, and configures different ports in different VLANs for the specific port State, and through differentiated processing of specific messages and ordinary messages, only the VLAN identifier of the specific message to be sent is modified, so that when the port status of the specific port in the default VLAN is the blocking state, the specific message It can also be forwarded from the specific port, and only specific messages can be forwarded from the specific port, thereby realizing differentiated forwarding of specific messages and ordinary messages. In addition, in the message processing method provided by the present disclosure, the configuration of the port VLAN identifier, the configuration of the port status, and the configuration of the message VLAN identifier are all performed in the network module, which avoids multiple BPDU messages. When detecting whether there is a dual-master conflict in the frame routing device, it requires the participation of the CPU or the corresponding configuration for different ports of different boards. When a specific port is blocked, the detection is realized by the hardware of the network module itself. The message is forwarded at the second layer, which simplifies the message processing procedure and reduces the complexity of dual-master conflict detection of multi-frame routing equipment; and in practical applications, there is no need to add hardware equipment, which reduces hardware costs and maintenance costs.

As an alternative implementation manner of the present disclosure, the VLAN identifier described in the present disclosure is specifically a VLAN ID.

In practical applications, the redundant network topology eliminates the problem of network terminals caused by a single point of failure. However, loops are easily formed in the redundant network topology, which in turn leads to problems such as broadcast storms, repeated frames, and instability of the MAC address table. In order to solve the above problems, Spanning Tree Protocol (STP) is mainly used to construct a tree-shaped logical network topology, and redundant links are blocked to eliminate possible loops in the redundant network topology, thereby avoiding packets in loops. Proliferation and infinite loops in the network. On STP-enabled switches, each VLAN is bound to a Spanning Tree Group (STG, STP Group), and different STGs are distinguished by STG identifiers. For example, the VLAN with the VLAN ID of 2 is bound to the STG with the STG identifier of 2, and the port a with the VLAN ID of 2 is also configured with the STG identifier 2. In addition, STP also defines different port states to control the forwarding of port messages. For example, when the STP state of the spanning tree group with the STG identifier of 2 is in the forwarding state, port a is also in the forwarding state, and the packet with the VLAN ID of 2 can be forwarded through port a.

Therefore, in the present disclosure, the port status in the configuration information of the predetermined port can be set by configuring the STG identifier for the predetermined port and modifying the STP status of the corresponding spanning tree group. Correspondingly, as shown in FIG. 2, step S120 specifically includes:

In step S121, a new spanning tree group identifier is configured for the predetermined port configured with the new VLAN identifier, and the newly added spanning tree group identifier is different from the default spanning tree group identifier of the predetermined port symbol;

In step S122, the Spanning Tree Protocol STP state corresponding to the newly added spanning tree group identifier is set to a forwarding state, where the STP state is one of the configuration information of the predetermined port.

In the embodiment of the message processing method described above, a path for forwarding a specific message when the port status is block is provided. In the present disclosure, filter conditions can also be set to control the messages to be sent on a predetermined port. The message is filtered, and only specific messages that meet the filtering conditions are processed and forwarded through the predetermined port, thereby realizing differentiated processing and forwarding of specific messages and ordinary messages. In the present disclosure, there are no special restrictions on how to set filter conditions to filter messages. In practical applications, corresponding preset conditions can be set according to the characteristics of the message itself or the purpose of the message. As an alternative implementation manner, it can be determined whether the packet to be sent meets a preset condition by detecting whether the Ethernet type of the packet to be sent is the predetermined type; when the Ethernet type of the packet to be sent is the predetermined type; In case of the type, it is determined that the message to be sent meets the preset condition. Correspondingly, the message processing method provided by the present disclosure includes step S110 to step S130, as shown in FIG. 3, before step S130, it also includes:

In step S140, it is detected whether the Ethernet type of the message to be sent is a predetermined type; if the Ethernet type of the message to be sent is the predetermined type, step S130 is executed.

EtherType (EtherType) is a field in the Ethernet frame used to specify the protocol applied to the frame data field. The EtherType field is a limit space, that is, the allocation of EtherType values is limited. Some well-known protocols have been assigned a fixed EtherType value, for example, 0x0806 corresponds to the address resolution protocol, 0x0800 corresponds to the Internet protocol, etc. In addition, there are some EtherType values that have not been assigned. Therefore, in the present disclosure, the EtherType field of the specific message can be set to an unassigned value, such as 0x88FF, when constructing a specific message such as a detection message for detecting whether there is a dual-master conflict in a multi-frame routing device. When the EtherType field of the message to be sent is 0x88FF, it is determined that the message to be sent meets the preset condition, and step S130 is executed to forward the message to be sent.

It should be noted that the present disclosure does not specifically limit the sequence of step S140 and step S120. Step S120 may be executed first and then step S140 may be executed, or step S140 may be executed first and then step S120 may be executed. Step S140 is executed at the same time as S120, as long as it is ensured that step S140 is executed before step S130. Fig. 3 only exemplarily shows the execution of step S140 in step S120.

When step S140 is performed, an access control list (ACL, Access Control List) rule may be set to detect whether the Ethernet type of the message to be sent is the predetermined type.

ACL is an access control technology based on packet filtering. It can filter data packets on a port according to set conditions to decide whether to allow them to pass or discard. Access control lists have many functions, such as restricting network traffic, improving network performance, controlling communication traffic, providing network security access, and determining which type of communication traffic is forwarded or blocked at router ports. In the present disclosure, the ACL rule is to filter out specific messages by Ethernet type. For example, when the EtherType field of the message to be sent is 0x88FF, it is determined that the message to be sent satisfies a preset condition, and step S130 is executed. The message to be sent is forwarded.

The message processing method provided by the present disclosure is mainly used for differential processing and forwarding of specific messages and ordinary messages when the state of the predetermined port is in the blocking state. When the state of the predetermined port changes from the blocking state to the forwarding state, the specific message Both and ordinary messages can be forwarded through the predetermined port, indicating that there is no dual-master conflict in the current routing system or the only master master has been decided, and the predetermined port no longer needs to send and receive specific messages. In this embodiment, the port status corresponding to the default VLAN identifier in the configuration information of the predetermined port is detected, and when the port status changes from block to forward, the transmission and reception of the specific message is stopped. In addition to the above-mentioned steps S110 to S130, the message processing method provided by the present disclosure, as shown in FIG. 4, before step S130, further includes:

In step S150, the port status corresponding to the default VLAN identifier is detected, wherein the port status corresponding to the default VLAN identifier is one of the configuration information of the predetermined port; When the status of the port corresponding to the symbol is the forwarding status, the execution of step S130 is stopped.

Specifically, the STP status of the STG group can be detected to determine the port status of the predetermined port. For example, when the STP status of the spanning tree group with the STG identifier of 1 is forward, the status of port a corresponding to the port with VLAN ID of 1 is forward. At this time, stop sending and receiving specific messages such as detection messages used to detect dual-master conflicts.

Here, for ease of description, the VLAN composed of ports whose VLAN identifier is the default VLAN identifier is named the first VLAN, and the VLAN composed of ports whose VLAN identifier is the newly added VLAN identifier is named the second VLAN. VLAN.

As mentioned above, each port of the same network module is configured with the same default VLAN ID, and the network module encapsulates the default VLAN ID for the packets entering the network module. Therefore, the packets with the default VLAN ID are encapsulated. The text can be forwarded through the port configured with the default VLAN ID. Through the foregoing steps S110 to S130, a new VLAN ID is configured for a predetermined port, and the predetermined port can either send a message with the VLAN ID of the newly added VLAN ID or receive a message with the VLAN ID of the newly added VLAN ID. However, at this time, ports other than the predetermined port are not configured with the newly added VLAN ID, so the packet with the VLAN ID of the newly added VLAN ID cannot be forwarded through other ports other than the predetermined port. In other words, the VLAN identifier that is the newly added VLAN identifier can only be forwarded in the second VLAN, but cannot be forwarded in the first VLAN. And some messages (for example, detection messages) need to be forwarded between various network modules to detect whether each network module is normal. For network devices that have performed optical fiber insertion and removal operations between certain pairs of ports, the detection message needs to be performed between the port configured with the newly added VLAN identifier and the port where the newly added VLAN identifier is not configured. Forward. If the message is not processed, the message may only be forwarded between ports configured with a new VLAN identifier (that is, it can only be forwarded in the second VLAN). The ports with the default VLAN identifier are forwarded (that is, cannot be forwarded in the first VLAN), so that the purpose of detecting each network module cannot be achieved.

In view of this, in the present disclosure, when a network module receives a message whose VLAN ID is the newly added VLAN ID, and needs to remove the received message from other parts of the network module that have not configured the newly added VLAN ID When forwarding, the VLAN ID of the message needs to be changed from the newly added VLAN ID to the default VLAN ID, so that the message can be transmitted between switch chips, between switch chips and CPUs, and in multiple frames. The frame and frame of the routing device continue to forward, thereby completing specific functions such as dual-master conflict detection.

A further description will be given below in conjunction with FIG. 8. In Figure 8, it is assumed that the VLAN ID configured for port P1, port P2, port P3, port P4, port P5, port P6, port P7, etc. are all 1 (that is, all are the default VLAN IDs). When the status of each port is When it is forward, packets with VLAN ID 1 can be forwarded between each chip and each CPU. For example, it may start from the CPU 21 of the block 100, pass through the chip 31, the chip 32, the chip 35, the chip 34, and the chip 33 in sequence, and finally reach the CPU 22 of the block 200. Assuming that ports P1 and P3 are re-inserted into optical fibers, the state of ports P1 and P3 in the VLAN with VLAN ID 1 is defaulted to block. Through step S110, the VLAN ID of the ports P1 and P3 is configured as 2 (that is, the newly added VLAN ID is configured), and the status of the port P1 and the port P3 in the second VLAN is set to forward. At this time, port P1 can either send a packet with VLAN ID 2 to port P3, or receive a packet with VLAN ID 2 sent by port P3. However, ports such as port P2, port P4, port P5, port P6, and port P7 are only added to the first VLAN. After a packet with VLAN ID 2 is received or sent through port P1 or port P3, it cannot pass through port P2 and port P4. , Port P5, Port P6, Port P7, etc. continue forwarding. When port P1 receives a message with VLAN ID 2, as long as the VLAN ID of the message is changed to 1, the message can be sent to chip 31 and CPU21 through port P6, etc.; when port P3 receives VLAN ID When it is a message of 2, as long as the VLAN ID of the message is changed to 1, the message can be sent to CPU23, chip 34, chip 33, CPU22 through ports P2, P4, P5, P7, etc. Wait.

In addition, in the present disclosure, the received packets whose VLAN identifiers are the newly added VLAN identifiers are also filtered, and only the detection packets are processed and forwarded. Correspondingly, in addition to the above-mentioned steps S110 to S130, the message processing method provided by the present disclosure, as shown in FIG. 5, after step S120, further includes:

In step S160, when the VLAN identifier of the received message is the newly added VLAN identifier, it is detected whether the received message is a detection message;

In step S170, if the received message is a detection message, the VLAN identifier of the received message is modified to the default VLAN identifier.

By performing step S160 and step S170, the detection message whose VLAN identifier is modified to the default VLAN identifier can be forwarded between ports whose VLAN identifier is the default VLAN identifier and whose port status is the forwarding state.

It should be noted that the detection message in step S160 is a message that meets a predetermined condition. Specifically, it can be judged whether the Ethernet type of the received message is a predetermined type to detect whether the received message is a detection message, for example, when constructing a detection message, the EtherType field of the detection message is set to 0x88FF, Therefore, when the Ethernet type of the received message is 0x88FF, it is determined that the received message is a detection message, and step S170 is executed to modify the VLAN identifier of the message to the default VLAN identifier. You can also set ACL rules to detect whether the Ethernet type of the received packet is a predetermined type.

It needs to be further explained that in practical applications, different steps in the message processing methods provided in the embodiments of the present disclosure can be combined to obtain a new technical solution, which should also belong to the protection of the present disclosure. range.

The message processing method provided by the present disclosure configures a new VLAN identifier for a specific port of a network module, enables the specific port to join different VLANs at the same time, and configures different ports in different VLANs for the specific port State, and through differentiated processing of specific messages and ordinary messages, only the VLAN identifier of the specific message to be sent is modified, so that when the port status of the specific port in the default VLAN is the blocking state, the specific message It can also be forwarded from the specific port, and only specific messages can be forwarded from the specific port, thereby realizing differentiated forwarding of specific messages and ordinary messages. In addition, in the message processing method provided by the present disclosure, the configuration of the port VLAN identifier, the configuration of the port status, and the configuration of the message VLAN identifier are all performed in the network module, which avoids multiple BPDU messages. When detecting whether there is a dual-master conflict in the frame routing device, it requires the participation of the CPU or the corresponding configuration for different ports of different boards. When a specific port is blocked, the detection is realized by the hardware of the network module itself. The message is forwarded at the second layer, which simplifies the message processing procedure and reduces the complexity of dual-master conflict detection of multi-frame routing equipment; and in practical applications, there is no need to add hardware equipment, which reduces hardware costs and maintenance costs.

As a second aspect of the present disclosure, a detection method is provided. As shown in FIG. 6, the detection method includes:

In step S210, a detection message is constructed, and the Ethernet type of the detection message is a predetermined type;

In step S220, it is detected whether the predetermined port is physically connected;

In step S230, when the predetermined port is physically connected, the foregoing message processing method is executed to send the detection message.

It should be noted that the physical connection of the predetermined port in step S220 means that the predetermined port is connected to the opposite port through an optical fiber. Specifically, it is possible to determine whether the predetermined port is physically connected by detecting the physical state of the predetermined port. When the physical state of the predetermined port becomes UP, it is physically connected.

The present disclosure does not specifically limit the specific use of the detection method. For example, it can be used to detect dual-master conflicts in multi-frame routing equipment. The dual-master conflict is because after the fiber is unplugged, the separated frame may be converted to an independent device and generate an independent master master. When the fiber is reinserted to communicate again, it will be detected that both frames in a system are There is a conflict caused by the master master.

In an alternative implementation manner, the main control board CPU of the multi-frame routing device constructs a detection message, and the detection message includes information such as the master/standby status of the current master and the physical location of the current master; Step S230 configures VLAN, STG, ACL rules, etc. on the board switch chip and the central switch board switch chip; the central switch board CPU detects whether there is a dual-master conflict according to the detection message; the main control board CPU and the central switch board CPU pass the set The socket is used to send and receive messages. In addition, the detection method mainly initiates the detection of the dual-master conflict when the optical fiber is reinserted to communicate again. Therefore, in this embodiment, it also includes a periodic scan of the physical state of the port (for example, the port is an optical port). When detecting that the physical status of the port changes to UP, it starts sending and receiving detection packets.

The detection method provided in the present disclosure performs differentiated processing and forwarding of detection messages according to the message processing method provided in the present disclosure, so that the detection messages can still pass through the switching chip hardware itself to comply with the two rules even when the ports between the frames are blocked. Layer forwarding is used for forwarding, which simplifies the procedure of dual-master conflict detection for multi-frame routing equipment, and reduces maintenance costs and complexity.

As a third aspect of the present disclosure, as shown in FIG. 7, a message processing module 400 is provided, including:

The VLAN identifier configuration unit 410 is configured to configure a newly-added VLAN identifier for a predetermined port, where the newly-added VLAN identifier is different from the default VLAN identifier of the predetermined port;

The port configuration unit 420 is configured to set the port state corresponding to the newly added VLAN identifier to the forwarding state, where the port state is a type of configuration information of the predetermined port;

The message configuration unit 430 is configured to modify the VLAN identifier of the message to be sent to the newly added VLAN identifier.

The message processing module provided in the present disclosure is used to execute the message processing method provided in the present disclosure. The working principle and beneficial effects of the message processing method have been described in detail above, and will not be repeated here.

As four aspects of the present disclosure, a switching device is provided, including:

A storage module, the storage module stores an executable program;

One or more processors, when the executable program is executed by the one or more processors, enable the one or more processors to implement the foregoing message processing method.

It should be noted that the switching device provided by the present disclosure also includes a plurality of network modules. By executing the message processing method provided by the present disclosure, VLAN identifier, spanning tree group identifier, ACL rule and other configurations are performed on the network module. .

The switching device provided in the present disclosure can implement the message processing method provided in the present disclosure. The working principle and beneficial effects of the message processing method have been described in detail above, and will not be repeated here.

As a fifth aspect of the present disclosure, a computer-readable storage medium is provided, and an executable program is stored on the computer-readable storage medium, and the executable program can implement the foregoing message processing method or the foregoing The detection method.

Among them, the computer-readable storage medium includes volatile and non-volatile, removable and The media cannot be removed. Computer-readable storage media include but are not limited to RAM, ROM, EEPROM, flash memory or other memory technologies, CD-ROM, digital versatile disk (DVD) or other optical disk storage, magnetic cassettes, magnetic tapes, magnetic disk storage or other magnetic storage media, Or any other medium that can be used to store desired information and that can be accessed by a computer.

As a sixth aspect of the present disclosure, a multi-frame routing device is provided, and the multi-frame routing device includes:

A storage module, the storage module stores an executable program;

One or more processors, when the executable program is executed by the one or more processors, enable the one or more processors to implement the foregoing message processing method or the foregoing detection method.

It should be noted that the multi-frame routing device also includes a plurality of center frames, each center frame includes a plurality of center frame main control boards and a plurality of center switching boards; the center frame main control board includes a plurality of switching chips for Connect all other functional boards in this frame to communicate in the control plane of the entire system; the central switch board includes a CPU and multiple switching chips, used to connect the main control boards of each frame, and to connect the entire multi-frame routing device control plane communication. The multi-frame routing device also includes a plurality of line card frames, each line card frame includes a line card frame main control board and a line card board, the line card frame main control board is used to connect all the line card boards in the frame in the entire system Communication within the control plane.

The multi-frame routing device provided by the present disclosure processes and forwards messages according to the message processing method provided by the present disclosure, so that when the port status of the specific port in the default VLAN is blocked, the specific message can also be sent from all sources. The specific port is forwarded, and only specific messages can be forwarded from the specific port, thereby realizing differentiated forwarding of specific messages and ordinary messages, and reducing maintenance costs and complexity.

The message processing method and module, detection method, switching device, and storage medium provided by the present disclosure simplifies the message processing procedure, realizes differentiated processing and forwarding of messages, and reduces maintenance complexity and maintenance costs.

It can be understood that the above implementations are merely exemplary implementations used to illustrate the principle of the present disclosure, but the present disclosure is not limited thereto. For those of ordinary skill in the art, various modifications and improvements can be made without departing from the principle and essence of the present disclosure, and these modifications and improvements are also deemed to be within the protection scope of the present disclosure.

Claims (11)

A message processing method includes: Configuring a new virtual local area network VLAN identifier for a predetermined port, where the newly added VLAN identifier is different from the default VLAN identifier of the predetermined port; Setting the port state corresponding to the newly added VLAN identifier to a forwarding state, where the port state is a type of configuration information of the predetermined port; Modify the VLAN identifier of the message to be sent to the newly added VLAN identifier. The message processing method according to claim 1, wherein the step of setting the port status corresponding to the newly added VLAN identifier to the forwarding status comprises: Configuring a newly-added spanning tree group identifier for the predetermined port configured with the newly-added VLAN identifier, where the newly-added spanning tree group identifier is different from the default spanning tree group identifier of the predetermined port; The Spanning Tree Protocol STP state corresponding to the newly added spanning tree group identifier is set to a forwarding state, where the STP state is one of the configuration information of the predetermined port. The message processing method according to claim 1, wherein before the step of modifying the VLAN identifier of the message to be sent to the newly added VLAN identifier, the message processing method further comprises: Detecting whether the Ethernet type of the message to be sent is a predetermined type; In the case that the Ethernet type of the message to be sent is the predetermined type, a step of modifying the VLAN identifier of the message to be sent to the newly added VLAN identifier is performed. The message processing method according to claim 3, wherein the step of detecting whether the Ethernet type of the message to be sent is a predetermined type comprises: An access control list ACL rule is set to detect whether the Ethernet type of the message to be sent is the predetermined type. The message processing method according to any one of claims 1 to 4, wherein, before the step of modifying the VLAN identifier of the message to be sent to the newly added VLAN identifier, the message processing method Also includes: Detecting the port status corresponding to the default VLAN identifier, where the port status corresponding to the default VLAN identifier is one of the configuration information of the predetermined port; When the state of the port corresponding to the default VLAN identifier is the forwarding state, stop performing the step of modifying the VLAN identifier of the message to be sent to the newly added VLAN identifier. The message processing method according to claim 1, wherein after the step of setting the port state corresponding to the newly added VLAN identifier to the forwarding state, the message processing method further comprises: When the VLAN identifier of the received message is the newly added VLAN identifier, detecting whether the received message is a detection message; In the case that the received message is a detection message, the VLAN identifier of the received message is modified to the default VLAN identifier, so that the VLAN identifier is modified to the default VLAN identifier The detection message can be forwarded between ports whose VLAN identifier is the default VLAN identifier and whose port status is the forwarding state. A detection method, the detection method includes: Constructing a detection message, where the Ethernet type of the detection message is a predetermined type; Detect whether the predetermined port is physically connected; When the predetermined port is physically connected, the message processing method according to any one of claims 1 to 6 is executed to send the detection message. A message processing module includes: The VLAN identifier configuration unit is configured to configure a newly-added VLAN identifier for a predetermined port, where the newly-added VLAN identifier is different from the default VLAN identifier of the predetermined port; The port configuration unit is configured to set the port state corresponding to the newly added VLAN identifier to the forwarding state, wherein the port state is a type of configuration information of the predetermined port; The message configuration unit is configured to modify the VLAN identifier of the message to be sent to the newly added VLAN identifier. A switching device, including: A storage module, the storage module stores an executable program; One or more processors, when the executable program is executed by the one or more processors, so that the one or more processors implement the message processing according to any one of claims 1 to 6 method. A computer-readable storage medium having an executable program stored on the computer-readable storage medium, and when the executable program is executed, it can realize the message processing method or right of any one of claims 1 to 6 The detection method described in claim 7. A multi-frame routing device, the multi-frame routing device includes: A storage module, the storage module stores an executable program; One or more processors, when the executable program is executed by the one or more processors, so that the one or more processors implement the message processing according to any one of claims 1 to 6 The method or the detection method of claim 7.

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