WO2011160500A1

WO2011160500A1 - Dynamic energy consumption control method, system and related equipment

Info

Publication number: WO2011160500A1
Application number: PCT/CN2011/073766
Authority: WO
Inventors: 陈太洲; 殷昉; 黄祖建; 陆学锋; 张朝才
Original assignee: 华为技术有限公司
Priority date: 2010-06-25
Filing date: 2011-05-06
Publication date: 2011-12-29
Also published as: CN101873680A; CN101873680B

Abstract

The embodiments of the present invention belong to the technical field of energy consumption control, and disclose a dynamic energy consumption control method, a system and a related equipment which are used for performing centralized control on the dynamic energy consumption of different network elements. The method comprises the following steps: the load information of service processing boards of different network elements is obtained; according to the load information and a preset energy-saving strategy, energy-saving control instructions are sent to the service processing boards of the different network elements, to make the service processing boards of the different network elements control their operation states according to the energy-saving control instructions, so as to realize dynamic energy consumption control. The embodiments of the present invention can perform centralized control on the dynamic energy consumption of the different network elements, reduce the inconvenience of configuration and maintenance, and reduce the resource consumption.

Description

Dynamic energy consumption control method and system, related equipment

The present invention relates to the field of energy consumption control technologies, and in particular, to a dynamic energy consumption control method and system, and related equipment.

Background technique

In the telecommunication system, the typical traffic model is: idle time (0-8 hours) traffic ^ [minimum, system load is low; but busy time (8-21 hours) traffic is large, system load is high. Because the telecommunication system is deployed according to the traffic volume specification, when the telecommunication system is idle, the idle telecommunication system resources can be dormant and power-off through the dynamic energy consumption control technology, without affecting the service. The energy consumption of the telecommunication system can be significantly reduced.

FIG. 1 is a schematic structural diagram of a conventional dynamic energy consumption control system. As shown in FIG. 1, the dynamic energy consumption control system is deployed on each network element of the telecommunication system, and includes a main control device 101 and a plurality of service processing boards 102. The main control device 101 communicates with each service processing board 102 through a private software interface inside the system. The main control device 101 pre-configures the energy saving policy, the energy saving mode, and other parameters of each service processing board 102, and then according to each service. The load information reported by the processing board 102 is issued with energy-saving control commands such as frequency conversion (up, down frequency), sleep, power-off, etc., to control the dynamic energy consumption of the network element.

Each of the above-mentioned network elements needs to be configured with a main control device to control the dynamic energy consumption of the network element. In the case of a large number of network elements, not only the configuration and maintenance are inconvenient, but also Increase in resource consumption.

Summary of the invention

Embodiments of the present invention provide a dynamic energy consumption control method and system, and related devices, which can centrally control dynamic energy consumption of different network elements.

A dynamic energy consumption control method, comprising:

Obtain load information of service processing boards of different network elements;

Transmitting the energy-saving control command to the service processing board of the different network element according to the load information and the preset energy-saving policy, so that the service processing board of the different network element controls the running state according to the energy-saving control instruction, Dynamic energy control. A dynamic energy consumption control device, comprising:

An obtaining module, configured to acquire load information of a service processing board of different network elements;

a control module, configured to send, according to the load information and the preset energy saving policy, a power saving control command to the service processing board of the different network element, so that the service processing board of the different network element is controlled according to the energy saving control instruction Its operating state enables dynamic energy control.

A dynamic energy consumption control method, comprising:

The load information of the service processing board of the network element is sent to the main control device, so that the main control device acquires the load information of the service processing board of different network elements, and according to the load information of the service processing board of the different network element And the preset energy saving policy, sending the energy saving control command to the different network element; receiving the energy saving control command sent by the main control device;

Sending the energy-saving control command sent by the master control device to the service processing board of the local network element, so that the service processing board of the local network element controls the running state according to the energy-saving control command sent by the master control device, Realize dynamic energy control.

A network element device, including:

a standard protocol interface, configured to send load information of the service processing board to the main control device, so that the main control device acquires load information of the service processing board of different network elements, and according to the service processing board of the different network element The load information and the preset energy saving policy, sending the energy saving control command to the different network element; receiving the energy saving control command sent by the main control device, and sending the energy saving control command sent by the main control device to the service processing Board

The service processing board is configured to control an operating state according to the energy saving control instruction sent by the main control device to implement dynamic energy consumption control.

A dynamic energy consumption control system includes at least two network element devices and a dynamic energy consumption control device; wherein the network element device is configured to send load information of a service processing board of the local network element to the dynamic energy consumption Controlling the device, and receiving the energy-saving control command sent by the dynamic energy-control device; sending the energy-saving control command sent by the dynamic energy-control device to the service processing board of the local network element, so that the service processing board of the local network element Control the operating state according to the energy-saving control command sent by the dynamic energy-consuming control device to realize dynamic energy consumption control;

The dynamic energy consumption control device is configured to acquire load information of a service processing board of at least two network element devices, and send an energy saving control command to the location according to the load information and a preset energy saving policy. A service processing board of at least two network element devices.

Compared with the existing technology, the embodiment of the present invention can simultaneously obtain the load information of the service processing boards of different network elements, and send the energy-saving control commands to the service processing of different network elements according to the obtained load information and the preset energy-saving policy. The board is configured to enable the service processing boards of different network elements to control dynamic energy consumption according to the energy saving control instruction. In this way, centralized control of dynamic energy consumption of different network elements can be implemented, and it is not necessary to configure a master control device on each network element to implement dynamic energy consumption control of the network element, thereby reducing configuration and maintenance. The inconvenience is to reduce resource consumption.

BRIEF DESCRIPTION OF THE DRAWINGS The accompanying drawings, which are incorporated in FIG Further drawings can also be obtained from these drawings.

FIG. 1 is a schematic structural diagram of a conventional dynamic energy consumption control system;

FIG. 2 is a flowchart of a dynamic energy consumption control method according to an embodiment of the present invention; FIG. 3 is a flowchart of another dynamic energy consumption control method according to an embodiment of the present invention; FIG. FIG. 5 is a structural diagram of another dynamic energy consumption control device provided in an embodiment of the present invention; FIG. 6 is a structural diagram of a dynamic energy control device provided in an embodiment of the present invention; Structure diagram of the equipment;

FIG. 7 is a structural diagram of a dynamic energy consumption control system according to an embodiment of the present invention.

detailed description

The technical solutions in the embodiments of the present invention are clearly and completely described in the following with reference to the accompanying drawings in the embodiments of the present invention. It is obvious that the described embodiments are only a part of the embodiments of the present invention, but not all of the embodiments. All other embodiments obtained by a person of ordinary skill in the art based on the embodiments of the present invention without creative efforts are within the scope of the present invention.

In the embodiment of the present invention, a dynamic energy consumption control method and system, and related equipment are provided, which can centrally control dynamic energy consumption of different network elements. The details are described below separately.

Embodiment 1:

Please refer to FIG. 2. FIG. 2 is a flow chart of a dynamic energy consumption control method according to an embodiment of the present invention. The method can include the following steps:

201. Acquire load information of a service processing board of different network elements.

In this embodiment, the network element may include, but is not limited to, a Call Session Control Function (CSCF) entity inside the Internet Protocol Multimedia Subsystem (IMS). The CSCF entity is the core of the entire IMS network, and the CSCF entity includes a master device and multiple service processing boards. The main control device can deliver the energy-saving control command to each service processing board according to the load information reported by each service processing board to implement dynamic energy consumption control of the network element.

In this embodiment, the main control devices of different network elements can be separated from different network elements, and a main control device is used to perform centralized dynamic energy control on different network elements of the entire network, without having to be in each A master device is configured on the network element to implement dynamic energy consumption control on the network element, thereby reducing inconvenience in configuration and maintenance, and reducing resource consumption. For example, a main control device may be deployed on the network management layer, and various energy-saving policies may be preset on the main control device, and the main control device may obtain load information of service processing boards of different network elements through a standard protocol interface, and And sending the energy-saving control command to the service processing board of the different network element according to the foregoing load information and the preset energy-saving policy, so that the service processing board of the different network element controls the running state according to the energy-saving control instruction, thereby realizing dynamic energy consumption. control.

For example, the main control device can receive the load information reported by the service processing of different network elements through a Simple Object Access Protocol (SOAP) interface; or the main control device can also adopt other standard protocol interfaces. To actively monitor the load information of the service processing boards of different network elements.

Among them, the SOAP interface is a lightweight, simple, extensible markup language (XML)-based standard protocol interface. In a telecommunication system, a SOAP interface can serve as an identity protocol interface between the network management system and the network element to implement communication between the network management system and the network element.

202. Send the energy-saving control command to the service processing board of the different network element according to the load information and the preset energy-saving policy, so that the service processing board of the different network element controls the running state according to the energy-saving control instruction. Realize dynamic energy control.

In this embodiment, the main control device can directly send the energy-saving control command to the SOAP interface. The service processing board of different network elements, where the energy saving control instruction may be a frequency conversion (up-frequency or down-conversion) instruction, or may be a sleep instruction;

Alternatively, the main control device may send the energy-saving control command to the chassis management board of the different network element through the SOAP interface, so that the energy-saving control command is sent to the service processing board of the different network element through the chassis management board of the different network element. The power-saving control command may be a power-off command, a power-on command, or a wake-up command.

The chassis management board can send the energy-saving control command sent by the SOAP interface to the service processing board through the intelligent platform management bus (IPMB), so that the service processing board controls the dynamic energy consumption according to the energy-saving control instruction. .

In this embodiment, the dynamic energy consumption control method may further configure an energy saving policy before the foregoing step 201.

The power saving policy may be pre-configured in the main control device by the administrator through the man-machine configuration interface. The configured energy saving policy may include whether one or more of energy saving, energy saving time window, and energy saving mode (including frequency conversion, sleep, power off) are allowed. The so-called energy-saving time window is used to indicate that the dynamic energy consumption is saved within the time range of the energy-saving time window, or the dynamic energy-saving energy is saved outside the time range of the energy-saving time window. The foregoing energy saving mode is determined according to the service application type and load of the service processing board. The load involved in this embodiment may be the central processing unit (CPU) occupancy of the service processing board.

In this embodiment, the main control device can be deployed at the network management layer or separately in other independent network elements. The main control device can obtain the load information of the service processing boards of different network elements at the same time, and obtain the load information according to the obtained load information. And the preset energy-saving policy, sending the energy-saving control command to the service processing board of different network elements, so that the service processing boards of different network elements control the dynamic energy consumption according to the energy-saving control instruction. In this way, centralized control of dynamic energy consumption of different network elements can be implemented, and it is not necessary to configure a master control device on each network element to implement dynamic energy consumption control of the network element, thereby reducing configuration and maintenance. The inconvenience is to reduce resource consumption.

Embodiment 2:

In this embodiment, the dynamic energy consumption control method provided by the embodiment of the present invention is introduced by performing sleep and wake-up on the service processing board of the network element. The process of the service processing board performing the hibernation may include the following steps:

S1 monitoring phase:

The main control device receives the load information of the service processing board reported by the different network elements through the SOAP interface, and finds that the service processing board of the service processing board of the network element is sent to the SOAP interface of the network element. Sleep instruction.

Alternatively, the main control device periodically monitors the load information of the service processing boards of the different network elements through the SOAP interface, and finds that the sleep condition of a service processing board of a certain network element is established, and then sends the information to the SOAP interface of the network element. The service processing board sleep instruction.

The load information of the service processing board reported by the NE can carry the CPU usage information. The higher the CPU usage, the greater the load on the service processor board. Otherwise, the load on the service processor board is smaller. Further, the load information of the service processing board reported by the network element further carries the basic information of the network element, and the basic information may include the network element name, the frame number, the slot number, and the service processing board configuration information. In this way, when the master device receives the load information of the service processing board, it can know which service processing board of the network element the load information comes from.

S2 service isolation phase:

After receiving the sleep instruction of the service processing board delivered by the master device through the SOAP interface, the network element sets the service processing board to be in an isolated state. At this point, the service processing board no longer accepts new service (such as call) access, and the accessed service is not affected, and continues to process until all services are completed or the number of services is less than the system setting. Through business isolation, the impact of sleep on the business can be minimized.

S3 sleep phase:

After the service processing is completed, the service processing board enters a sleep state.

S4 sleep confirmation phase:

The chassis management board can detect that the status of the service processing board is in the dormant state through the IPMB bus, and notify the SOAP interface to sleep successfully. The sleep success response message is returned to the master device by the SOAP interface.

When the main control device monitors the network element service growth and needs to wake up the service processing board of a network element that has been hibernated, it sends a wake-up command to the SOAP interface of the corresponding network element. The service processing board wakeup process may include the following steps: SI monitoring phase:

The main control device receives the load information of the service processing board reported by the different network elements through the SOAP interface, and finds that the wakeup condition of the service processing board of a network element is established, and then sends the service processing board to the SOAP interface of the network element to wake up the service processing board. instruction.

For example, when the main control device finds that the service processing board of a certain network element is asleep, the CPU usage of the system is greater than a certain threshold, indicating that the wake-up condition of the service processing board of the network element is established, and the SOAP interface of the network element can be Send a wake-up command for the business processing board.

S2 wakeup phase:

After receiving the wake-up command of the service processing board through the SOAP interface, the network element sends the wake-up command received by the SOAP interface to the chassis management board of the network element, and the chassis management board of the network element wakes up the dormant service processing one by one. board.

The chassis management board can send the wake-up commands sent by the SOAP interface to the service processing board one by one through the IPMB bus to implement wake-up of the service processing board. After the service processing board is woken up, the service link can be established immediately and service processing can be started.

S3 wakeup confirmation phase:

The chassis management board detects that the status of the service processing board is active through the IPMB bus, and notifies the SOAP interface that the wakeup is successful. The wakeup success response message is returned to the master device by the SOAP interface.

In this embodiment, the so-called service processing board sleeps means that the context of the system is suspended in the memory, and the memory enters a self-refresh mode to save the information without being lost. In this case, the entire system has only memory, and all other peripherals (including the CPU) have been powered down. This state is also called the S3 state. Compared with the SO state (active state) dynamic energy consumption, the energy saving effect of the S3 state is more obvious. For example, statistics show that the S3 state can save 87.5% of dynamic energy consumption compared to the SO state. However, in the S3 state, the wake-up time of the system is gradually lengthened, and the impact of service quality is gradually increasing. The S3 state is the best balance between service quality assurance and system energy savings.

In this embodiment, the main control device can be deployed independently of the network element. The SOAP interface can simultaneously obtain the load information of the service processing boards of different network elements, and send a sleep instruction or wake up according to the acquired load information and the preset energy saving policy. The service processing boards are sent to different network elements, so that the service processing boards of different network elements sleep according to the sleep instruction, or wake up according to the wake-up instruction. In this way, centralized control of dynamic energy consumption of different network elements can be achieved without having to be in each network element A master device is configured on the device to control the dynamic energy consumption of the network element, thereby reducing inconvenience in configuration and maintenance and reducing resource consumption.

In addition, in the dynamic energy consumption control method provided by the embodiment of the present invention, for the service processing board in the activated state, the main control device may further determine whether the service processing board needs to be up-converted or down-converted according to the energy-saving policy, so as to implement Fine management of dynamic energy consumption.

Among them, the up-conversion or down-conversion function can be implemented based on the intelligent down-conversion technology (EIST) or the advanced configuration and power management interface (Advanced Configuration and Power Management Interface) technology, which controls the dynamic energy consumption by defining frequencies corresponding to different performance points. Consumption. For example, the main control device monitors the load information of the network element, and delivers the specified frequency according to the configured energy-saving control policy, and the service processing board application software sets the CPU frequency through the speed-up drive interface (speedstep-centrino or acpi-cpufreq). To achieve this, this embodiment does not describe it.

Currently supported FM strategies are Performance, Powersave, Userspace, and Ondemand. The main control device monitors the service load of the NE and sends control commands to CPU frequency control according to the configured energy-saving control strategy. For example, in the Userspace mode, the energy management center delivers the specified frequency, and the board application software sets the CPU frequency through the speed-up drive interface (speedstep-centrino or acpi-cpufreq) provided by the OS.

Embodiment 3:

Referring to FIG. 3, FIG. 3 is a flow chart of a dynamic energy consumption control method according to an embodiment of the present invention. The method may include the following steps:

301: Send load information of the service processing board of the network element to the main control device;

In this embodiment, the network element may send the load information of the service processing board of the local network element to the main control device through a SOAP interface or other standard protocol interface.

302. Receive an energy saving control instruction sent by the main control device.

The main control device can be connected to different network elements through the SOAP interface or other standard protocol interfaces to obtain the load information of the service processing boards of different network elements, and according to the load information of the service processing boards of different network elements and the preset energy saving policies. Send energy-saving control commands to different network elements.

303. The energy-saving control command sent by the master device is sent to the service processing board of the local network element, so that the service processing board of the network element controls the running state according to the energy-saving control command sent by the master control device to implement dynamic energy consumption control.

In this embodiment, if the energy-saving control command sent by the master device is a variable frequency command or a sleep command, it may be directly sent to the service processing board of the local network element; if the power-saving control command sent by the master control device is a power-off command or power-on The instruction or wake-up command, the energy-saving control finger that can be sent by the master device The command is sent to the chassis management board, so that the energy-saving control command sent by the master device is sent to the service processing board of the network element through the chassis management board to implement dynamic energy consumption control.

The service management board can send the energy-saving control command issued by the main control device to the service processing board through the IPMB bus, so that the service processing board controls the dynamic energy consumption according to the energy-saving control instruction.

In this embodiment, the network element can communicate with the main control device through a standard protocol interface such as a SOAP interface, so that the main control device can be deployed independently of the network element, and centralized control of dynamic energy consumption of different network elements can be realized without A master device is configured on each network element to control the dynamic energy consumption of the network element, thereby reducing inconvenience in configuration and maintenance and reducing resource consumption.

Embodiment 4:

Referring to FIG. 4, FIG. 4 is a structural diagram of a dynamic energy consumption control device according to an embodiment of the present invention, which is used to implement the functions of the above-mentioned main control device. As shown in FIG. 4, the device may include: an obtaining module 401, configured to acquire load information of a service processing board of different network elements; and a policy module 402, configured to preset a power saving policy;

The control module 403 is configured to send the energy-saving control command to the service processing board of the different network element according to the foregoing load information and the preset energy-saving policy, so that the service processing board of the different network element controls the power processing board according to the energy-saving control instruction. Operating status.

In this embodiment, the obtaining module 401 is specifically configured to receive the load information reported by the service processing board of different network elements through the SOAP interface.

Referring to FIG. 5, FIG. 5 is a structural diagram of another dynamic energy consumption control device according to an embodiment of the present invention, which is used to implement the functions of the above-mentioned main control device. In the dynamic energy consumption control device shown in FIG. 5, the control module 403 may include:

The first sub-module 4031 is configured to send the energy-saving control command to the service processing board of the different network element, where the power-saving control instruction is a variable frequency instruction or a sleep instruction;

In this embodiment, if the power saving control command is a variable frequency command or a sleep command, the first submodule 4031 may specifically send the power saving control command to the service processing board of the different network element through the SOAP interface.

The second sub-module 4032 is configured to send the energy-saving control command to the chassis management board of the different network element, so that the energy-saving control command is sent to the different network elements by using the chassis management board of the different network element. The service processing board, the power-saving control instruction is a power-off instruction or a power-on instruction or wake-up Instruction.

In this embodiment, if the power-saving control command is a power-off command or a power-on command or a wake-up command, the second sub-module 4032 may specifically send the energy-saving control command to the chassis management board of the different network element through the SOAP interface, so that The energy-saving control command is delivered to the service processing board of the different network elements by using the chassis management board of the different network elements.

In this embodiment, the obtaining module 401 can obtain the load information of the service processing boards of different network elements at the same time, and the control module 403 can send the energy-saving control command to the service processing board of different network elements according to the obtained load information and the preset energy-saving policy. So that the service processing boards of different network elements control the dynamic energy consumption according to the energy-saving control instructions. In this way, centralized control of dynamic energy consumption of different network elements can be implemented, and it is not necessary to configure a master control device on each network element to implement dynamic energy consumption control of the network element, thereby reducing configuration and maintenance. The inconvenience is to reduce resource consumption.

Embodiment 5:

Referring to FIG. 6, FIG. 6 is a structural diagram of a network element device according to an embodiment of the present invention. As shown in FIG. 6, the network element device may include a standard protocol interface 601 and a service processing board 602;

The standard protocol interface 601 is configured to send the load information of the service processing board 602 to the main control device, and receive the energy saving control command sent by the main control device; send the energy saving control command sent by the main control device to the service processing board 602;

In this embodiment, if the power saving control command sent by the master device is a variable frequency command or a sleep command, the standard protocol interface 601 can directly send the power saving control command to the service processing board 602 through the SOAP interface.

In this embodiment, the main control device can be connected to different network elements through a SOAP interface or other standard protocol interface, and obtain load information of service processing boards of different network elements, and load information and presets according to service processing boards of different network elements. The energy saving strategy sends the energy saving control command to different network elements.

The service processing board 602 is configured to control the running state according to the energy saving control instruction sent by the main control device, thereby implementing dynamic energy consumption control.

In this embodiment, the standard protocol interface 601 may include, but is not limited to, a SOAP interface.

In this embodiment, if the power-saving control command sent by the master device is a power-off command or a power-on command or a wake-up command, the network element device may further include a chassis management board 603;

At this time, the standard protocol interface 601 is specifically configured to send the load information of the service processing board 602 to The main control device, and receives the energy saving control command sent by the main control device; the energy saving control command sent by the main control device is sent to the chassis management board 603;

The service management board 603 is configured to send the energy-saving control command issued by the standard protocol interface 601 to the service processing board 602 through the IPMB bus (shown by the dotted line in FIG. 6), so that the service processing board 602 sends the service processing board 602 according to the main control device. The energy-saving control command controls its operating state to achieve dynamic energy consumption control.

In this embodiment, the network element device can communicate with the main control device through the standard protocol interface 601, so that the main control device can be deployed independently of the network element, and can implement centralized control of dynamic energy consumption of different network elements without A master device is configured on a network element to control the dynamic energy consumption of the network element, thereby reducing inconvenience in configuration and maintenance and reducing resource consumption.

Example 6:

Referring to FIG. 7, FIG. 7 is a structural diagram of a dynamic energy consumption control system according to an embodiment of the present invention. As shown in FIG. 7, the system may include a dynamic energy consumption control device 701 and at least two network element devices 702, wherein the dynamic energy consumption control device 701 provided in this embodiment and the dynamic energy consumption control device described in Embodiment 5 above The functions are the same, and the embodiment does not repeat. The network element device 702 can communicate with the dynamic energy consumption control device 701 through a standard protocol interface such as a SOAP interface.

The network element device 702 is configured to send the load information of the service processing board of the local network element to the dynamic energy consumption control device 701, and receive the energy saving control command sent by the dynamic energy consumption control device 701. The dynamic energy consumption control device 701 The sent energy-saving control command is sent to the service processing board of the local network element, so that the service processing board of the local network element controls the running state according to the energy-saving control instruction sent by the dynamic energy-consuming control device 701, and implements dynamic energy consumption control;

The dynamic energy consumption control device 701 is configured to acquire load information of the service processing boards of the at least two network element devices 702, and send the energy saving control commands to the services of the at least two network element devices 702 according to the load information and the preset energy saving policy. Processing board.

In this embodiment, the network element device 702 can communicate with the dynamic energy consumption control device 701 through a standard protocol interface, so that the dynamic energy consumption control device 701 can be deployed independently of the network element, and can realize centralized energy consumption of different network elements. Control, without having to configure a master device on each network element to control the dynamic energy consumption of the network element, thereby reducing inconvenience in configuration and maintenance and reducing resource consumption.

One of ordinary skill in the art can understand that all or part of the steps of the above method embodiments are implemented. The foregoing program may be completed by a program instruction related hardware, and the foregoing program may be stored in a computer readable storage medium, and when executed, the program includes the steps of the foregoing method embodiment; and the foregoing storage medium includes: A medium that can store program codes, such as a read-on memory (ROM), a random access memory (RAM), a magnetic disk, or an optical disk.

The foregoing is a dynamic energy consumption control method and system, and related arrangements provided by the embodiments of the present invention. The description of the above embodiments is only used to help understand the method and core ideas of the present invention; The present invention is not limited by the scope of the present invention, and the details of the present invention are not limited by the scope of the present invention.

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Claims

Claim

A dynamic energy consumption control method, characterized in that it comprises:

Transmitting the energy-saving control command to the service processing board of the different network element according to the load information and the preset energy-saving policy, so that the service processing board of the different network element controls the running state according to the energy-saving control instruction, Dynamic energy control.

2. The method according to claim 1, wherein the acquiring load information of the service processing board of different network elements comprises:

The load information reported on the service processing board of different network elements is received through the simple object access protocol interface.

The method according to claim 1 or 2, wherein the sending the energy-saving control command to the service processing board of the different network element comprises:

And sending a power saving control command to the service processing board of the different network element, where the power saving control command is a frequency conversion instruction or a sleep instruction;

Or sending an energy-saving control command to the chassis management board of the different network element, so that the energy-saving control command is sent to the service processing board of the different network element by using the chassis management board of the different network element. The power saving control command is a power-off command or a power-on command or a wake-up command.

The method according to claim 1 or 2, wherein the load information of the service processing boards of the different network elements is obtained by the master control device, and the master control device is deployed on the network management layer or separately. And deploying, and the energy saving policy is preset in the main control device, and the energy saving policy includes whether one or more of an energy saving, an energy saving time window, or a power saving mode are allowed.

5. A dynamic energy consumption control device, characterized in that:

6. Apparatus according to claim 5 wherein:

The acquiring module is specifically configured to receive, by using a simple object access protocol interface, load information reported by a service processing board of different network elements.

The device according to claim 5 or 6, wherein the control module comprises: a first submodule, configured to send a power saving control command to a service processing board of the different network element, where the energy saving control instruction Is a variable frequency instruction or a sleep instruction;

a second sub-module, configured to send the energy-saving control command to the chassis management board of the different network element, so that the energy-saving control command is sent to the different network element by using the chassis management board of the different network element The service processing board, the power saving control instruction includes a power-off instruction or a power-on instruction or a wake-up instruction.

The device according to claim 5 or 6, further comprising:

The policy module is configured to preset a power saving policy, where the energy saving policy includes one or more of whether to allow energy saving, a power saving time window, or a power saving mode.

9. A dynamic energy consumption control method, characterized in that:

The method according to claim 9, wherein the sending the energy-saving control command sent by the master device to the service processing board of the local network element comprises:

If the power-saving control command sent by the master device is a frequency conversion command or a sleep command, it is directly sent to the service processing board of the local network element;

If the power-saving control command sent by the master device is a power-off command or a power-on command or a wake-up command, the power-saving control command sent by the master device is sent to the chassis management board, so that the master device is The sent energy-saving control command is sent to the service processing board of the local network element by using the chassis management board.

The method according to claim 9 or 10, wherein the sending the load information of the service processing board of the network element to the main control device comprises:

Sending load information of the service processing board of the local network element to the main control device by using a simple object access protocol interface;

The receiving the energy saving control instruction sent by the main control device includes:

The energy saving control instruction sent by the main control device is received through a simple object access protocol interface.

12. A network element device, comprising:

13. The network element device of claim 12, wherein the standard protocol interface comprises a simple object access protocol interface.

The network element device according to claim 12 or 13, wherein, if the power saving control command sent by the master device is a power-off command or a power-on command or a wake-up command, the network element device further includes Chassis management board;

The standard protocol interface is specifically configured to send the load information of the service processing board to the main control device, and receive the energy saving control command sent by the main control device; and send the energy saving control command sent by the main control device to the Chassis management board;

The chassis management board is configured to deliver the energy saving control command issued by the standard protocol interface to the service processing board by using an intelligent platform management bus.

15. A dynamic energy consumption control system, comprising: at least two network element devices and dynamic energy consumption control devices;

The network element device is configured to send load information of the service processing board of the local network element to the dynamic energy consumption control device, and receive an energy saving control instruction sent by the dynamic energy consumption control device; The energy-saving control command sent by the control device is sent to the service processing board of the local network element, so that the service processing board of the local network element controls the running state according to the energy-saving control command sent by the dynamic energy-consuming control device, and implements dynamic energy consumption control;

The dynamic energy consumption control device is configured to acquire load information of a service processing board of at least two network element devices, and send an energy saving control command to the at least two network element devices according to the load information and a preset energy saving policy. Business processing board.