CN111436012A

CN111436012A - Signal processing system, switch, and optical module

Info

Publication number: CN111436012A
Application number: CN201910037273.6A
Authority: CN
Inventors: 王安斌
Original assignee: Alibaba Group Holding Ltd
Current assignee: Alibaba Group Holding Ltd
Priority date: 2019-01-15
Filing date: 2019-01-15
Publication date: 2020-07-21
Anticipated expiration: 2039-01-15
Also published as: CN111436012B

Abstract

The embodiment of the application provides a signal processing system, a switch and an optical module, wherein the signal processing system comprises a signal processing module, a signal processing module and a signal processing module; the optical module is used for establishing communication connection with the switch; the switch is to: detecting signal loss information of a transmission channel based on the optical module; optimizing and receiving the obtained electric signal based on the signal loss information to obtain a first target signal; and forwarding the first target signal. The technical scheme provided by the embodiment of the application ensures the signal forwarding quality and simultaneously reduces the structural complexity of the optical module.

Description

Signal processing system, switch, and optical module

Technical Field

The embodiment of the application relates to the technical field of electronic communication, in particular to a signal processing system, a switch and an optical module.

Background

In the optical fiber communication technology, the switch can realize signal forwarding through the optical module, and further realize optical fiber communication. However, the electrical signals forwarded by the switch through the optical module have the problems of signal attenuation, phase mismatch and the like, and the electrical signals obtained by the optical module have the problems of transmission errors such as amplitude and phase, so that the forwarded electrical signals are not accurate enough, and transmission errors are generated.

In order to solve the above problem, a CDR (clock data recovery) chip is generally provided in the optical module. The CDR chip can separate clock signals in the original electric signals, phase compensation is carried out on the electric signals through the clock signals, the problems of signal attenuation and the like are solved, the electric signals with phases and amplitudes meeting requirements are obtained, accurate transmission optical signals can be obtained through conversion of the accurate electric signals, and transmission errors are reduced.

However, the configuration of the CDR chip in the optical module may cause the structural configuration of the optical module to be complicated, and the circuit structure of the optical module to be complicated.

Disclosure of Invention

The embodiment of the application provides a signal processing system, a switch and an optical module, which are used for solving the technical problem that the configuration structure of the optical module is complicated when a CDR chip is installed in the optical module to solve the problem of inaccurate signals caused by channel transmission in the prior art.

In a first aspect, an embodiment of the present application provides a signal processing system, including: the optical module comprises a switch and an optical module which is in communication connection with the switch;

the switch is to:

detecting signal loss information of a transmission channel based on the optical module;

optimizing and receiving the obtained electric signal based on the signal loss information to obtain a first target signal;

and forwarding the first target signal.

In a second aspect, an embodiment of the present application provides a signal processing system, including: the optical module comprises a switch and an optical module which is in communication connection with the switch;

the switch is to:

generating a second optimization instruction based on the signal loss information;

sending the second optimization instruction to the optical module;

the optical module is used for:

receiving the second optimization instruction sent by the switch;

responding to the second optimization instruction to obtain the signal loss information;

optimizing the electric signal to be processed based on the signal loss information to obtain a second target signal;

and forwarding the second target signal.

In a third aspect, an embodiment of the present application provides a switch, where the switch establishes a communication connection with an optical module, and the switch is configured to:

and forwarding the first target signal.

In a fourth aspect, an embodiment of the present application provides a switch, where the switch establishes a communication connection with an optical module; the switch is to:

sending the second optimization instruction to the optical module, so that the optical module receives the second optimization instruction sent by the switch; responding to the second optimization instruction to obtain the signal loss information; and optimizing the obtained electric signal based on the signal loss information to obtain a second target signal, and forwarding the second target signal.

In a fifth aspect, an embodiment of the present application provides an optical module, where the optical module establishes a communication connection with a switch; the optical module is used for:

receiving the second optimization instruction sent by the switch; the second optimization instruction is generated by the switch based on the signal loss information of the transmission channel detected by the optical module;

processing the second target signal.

In a sixth aspect, an embodiment of the present application provides an optical module, where the optical module establishes a communication connection with a switch; the optical module is used for: receiving a first target signal sent by a switch; the first target signal is obtained by the switch detecting signal loss information of a transmission channel based on the optical module and optimizing a first electric signal received and obtained from first electronic equipment; processing the first target signal to obtain a first optical signal;

and sending the first optical signal to a second electronic device.

In this embodiment of the application, in the signal processing system, the switch may detect the signal loss information of the transmission channel based on the optical module. Then, the switch can control the optimization of the electric signal to be transmitted between the switch and the optical module based on the signal loss information, the optical module is not required to perform optimization processing on the electric signal to be transmitted through the CDR chip, the switch can optimize the electric signal to be transmitted by utilizing the signal loss information to obtain a first target signal, the first target signal can be forwarded to achieve normal transmission of the signal, the transmission error is reduced, and the structural complexity of the optical module can be reduced because the CDR chip of the optical module is not required to perform optimization processing on the signal.

These and other aspects of the present application will be more readily apparent from the following description of the embodiments.

Drawings

In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings needed to be used in the description of the embodiments or the prior art will be briefly described below, and it is obvious that the drawings in the following description are some embodiments of the present application, and other drawings can be obtained by those skilled in the art without creative efforts.

FIG. 1 is a flow chart illustrating one embodiment of a signal processing method provided herein;

FIG. 2 is a flow chart illustrating a further embodiment of a signal processing method provided herein;

FIG. 3 is a flow chart illustrating a further embodiment of a signal processing method provided herein;

FIG. 4 shows a flow chart of yet another embodiment of a signal processing method provided herein;

FIG. 5 is a flow chart illustrating a further embodiment of a signal processing method provided herein;

FIG. 6 is a flow chart illustrating a further embodiment of a signal processing method provided herein;

FIG. 7 is a flow chart illustrating a further embodiment of a signal processing method provided by the present application;

FIG. 8 is a block diagram illustrating an embodiment of a signal processing system provided herein;

FIG. 9 is a schematic diagram illustrating a signal optimization process provided herein;

FIG. 10 is a schematic diagram illustrating a signal optimization process provided herein;

FIG. 11 is a schematic diagram illustrating a signal processing system according to yet another embodiment of the present application;

FIG. 12 is a schematic diagram illustrating a signal optimization process provided herein;

FIG. 13 is a schematic diagram illustrating a signal optimization process provided herein;

figure 14 shows a schematic block diagram of an embodiment of a switch of an embodiment of the present application;

figure 15 shows a schematic block diagram of yet another embodiment of a switch of an embodiment of the present application;

fig. 16 shows a schematic structural diagram of an embodiment of a light module according to an embodiment of the present application;

fig. 17 shows a schematic structural diagram of another embodiment of a light module according to an embodiment of the present application.

Detailed Description

In order to make the technical solutions better understood by those skilled in the art, the technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application.

In some of the flows described in the specification and claims of this application and in the above-described figures, a number of operations are included that occur in a particular order, but it should be clearly understood that these operations may be performed out of order or in parallel as they occur herein, the number of operations, e.g., 101, 102, etc., merely being used to distinguish between various operations, and the number itself does not represent any order of performance. Additionally, the flows may include more or fewer operations, and the operations may be performed sequentially or in parallel. It should be noted that, the descriptions of "first", "second", etc. in this document are used for distinguishing different messages, devices, modules, etc., and do not represent a sequential order, nor limit the types of "first" and "second" to be different.

The embodiment of the application is mainly applied to an optical fiber communication scene, and the errors such as phase and amplitude generated by transmission are pre-compensated, so that the signal forwarding is less affected, a CDR module is not required to be configured in the optical module, and the structural complexity of the optical module is reduced.

In the prior art, a switch can realize the forwarding of signals. The switch can establish communication connection with the optical module to realize corresponding switching function. For example, in a signal forwarding scenario, an exchange may directly perform electrical signal transmission with a first electronic device, and an optical module in communication connection with the exchange may directly perform optical signal transmission with a second electronic device, where the exchange may send an electrical signal to the optical module, and the optical module converts the electrical signal into an optical signal and sends the optical signal to the second electronic device; the optical module can receive an optical signal sent by the second electronic device, convert the optical signal into an electrical signal, and send the electrical signal to the switch, where the switch can send the electrical signal sent by the optical module to the first electronic device. However, in the process of forwarding the electrical signal, the transmission of the electrical signal is affected due to the influence of noise during the transmission. In order to prevent the electric signal from being affected by the transmission channel after being forwarded, a CDR chip is usually added to the optical module, a clock signal in the electric signal is separated through a CDR pair, and the obtained clock signal is used to perform phase compensation on the electric signal and solve the problems of amplitude attenuation and the like, so as to reduce the transmission error of the electric signal.

In order to solve the above technical problem, the inventor thinks whether pre-compensation can be performed on phase, amplitude and the like in the channel transmission process so as to solve the transmission error problem in the channel transmission. Accordingly, the inventors propose a technical solution of the present application.

In the embodiment of the application, the switch may detect the signal loss information of the transmission channel based on the optical module, and may measure the influence of the transmission channel on the transmission signal by detecting the signal loss information of the transmission channel, and may further cancel the influence of the transmission channel on the signal to be transmitted by optimizing the signal, and may further optimize the signal to be transmitted based on the signal loss information to obtain the first target signal, where the first target signal is an optimized signal and forwards the first target signal.

The embodiments of the present application will be described in detail below with reference to the accompanying drawings.

As shown in fig. 1, a flowchart of an embodiment of a signal processing method provided in the embodiment of the present application may include the following steps:

101: and detecting signal loss information of a transmission channel based on the optical module.

The signal processing method can be applied to an exchanger or a signal processing system, wherein the signal processing system can comprise the exchanger and an optical module which is in communication connection with the exchanger, and the exchanger and the optical module in the signal processing system are combined to realize network equipment for forwarding photoelectric signals.

Wherein signal loss information of the transmission channel can be detected by the switch based on the optical module. The signal loss information of the transmission channel may also be detected by an electronic device independent of the transmission scenario, where the electronic device may refer to a computer or an intelligent control terminal that monitors and controls the switch, and after the signal loss information of the transmission channel is detected, the signal loss information may also be sent to the switch. The switch may receive signal loss information transmitted by the electronic device.

Optionally, the switch detects the signal loss information of the transmission channel based on the optical module, and the signal loss information may be obtained by performing channel performance detection on the transmission channel between the optical module and the switch.

The transport channels may actually comprise transport channels of different communication segments. In practical application, the transmission channel between the optical module and the switch may be included, the transmission channel of the entire transmission path formed among the first electronic device, the switch, the optical module, and the second electronic device may be included, the transmission channel of the transmission path formed among the first electronic device, the switch, and the optical module may be included, and the transmission channel of the transmission path formed among the switch, the optical module, and the second electronic device may be included.

For example, the switch may obtain a signal difference between a feedback signal received by different devices, such as the optical module, the first electronic device, the second electronic device, and the like, and an actually transmitted test signal, and determine a channel loss of each channel.

Since a PCB (Printed Circuit Board) Circuit between the switch and the optical module may generate noise to the transmission of the electrical signal, the transmission channel may include a transmission channel formed by a communication Circuit of the switch. When the optical module sends the optical signal to the second electronic device, the optical signal is affected by noise of the optical fiber channel in the optical fiber channel transmission process, and therefore the transmission channel may further include the optical fiber channel. When the switch transmits the electrical signal to the first electronic device, noise may also be affected in a communication path of the electrical signal, and therefore, the transmission channel may further include a communication channel between the first electronic device and the switch. That is, the transmission channel may include a transmission channel of a communication circuit between the switch and the optical module, a fiber channel between the optical module and the second electronic device, and/or a communication channel between the switch and the first electronic device.

The signal loss information may refer to a signal difference between a transmitted test signal and an actual received signal after transmission to determine loss information, and specifically may refer to a bit error rate, amplitude attenuation, and/or phase shift generated in an electrical signal transmission process.

102: and optimizing and receiving the obtained electric signal based on the signal loss information to obtain a first target signal.

The signal loss information may be loss information generated due to channel noise during signal transmission. The switch optimizes the received electric signal based on the signal loss information, which means that the received electric signal is compensated for transmission on the basis of the signal loss information to offset the signal loss in the channel transmission process and reduce the transmission error generated by the channel transmission.

Optionally, the signal obtained by receiving may include an electrical signal received from the first electronic device, and may also include an electrical signal received from the optical module.

The first target signal may be obtained by performing optimization processing on the received electric signal through the signal loss information, and specifically may refer to performing phase compensation and/or amplitude adjustment on a signal to be transmitted through the signal loss information to counteract an influence of a transmission channel on the signal to be transmitted, so that a transmission error of the electric signal is reduced.

103: the first target signal is forwarded.

The switch may forward the first target signal to the first electronic device or the optical module for signal transmission.

In the embodiment of the application, the switch obtains the signal loss information of the transmission channel, and can optimally receive the obtained signal based on the signal loss information to obtain the first target signal, the optimized signal to be transmitted can offset the loss of the transmission channel, the optimal configuration of the electric signal to be transmitted by setting a CDR chip in the optical module is not needed, and after the optimal configuration of the electric signal to be transmitted is performed by using the signal loss information, the obtained first target signal can be forwarded to realize normal communication work, so that the transmission of the electric signal is not influenced by channel transmission, and the normal transmission of the electric signal can be ensured while the complex program of the optical module structure is reduced.

In an optical fiber communication scene, the switch can receive a first electric signal which is directly transmitted by the switch and is exchanged with the optical fiber communication scene, and performs optimization processing on the first electric signal so as to transmit the optimized first target signal to the optical module without being influenced by a transmission channel. As shown in fig. 2, a flowchart of another embodiment of the signal processing method according to the embodiment of the present invention is different from the embodiment shown in fig. 1 in that the step 102: optimizing the reception of the obtained electrical signal based on the signal loss information, and obtaining the first target signal may include: 201: optimizing a first electrical signal received from a first electronic device based on the signal loss information to obtain a first target signal;

the step 103: forwarding the first target signal may include:

202: sending the first target signal to an optical module so that the optical module receives the first target signal sent by the switch; the first target signal is processed to obtain a first optical signal, and the first optical signal is sent to a second electronic device.

For more precise optimization of the electrical signal, the signal loss information includes, as one embodiment, a signal amplitude loss and/or a bit error rate;

the optimizing, based on the signal loss information, a first electrical signal received from a first electronic device, the obtaining a first target signal comprising:

and pre-emphasizing a first electric signal received and obtained from the first electronic equipment based on the signal amplitude loss and/or the error rate to obtain a first target telecommunication.

Wherein pre-emphasizing the first electrical signal received from the first electronic device based on the signal amplitude loss and/or the bit error rate, and obtaining the first target signal may include: and calculating parameter data of pre-emphasis parameters through signal amplitude loss and/or bit error rate, and pre-emphasizing the electric signals received and obtained from the first electronic equipment by using the parameter data of the pre-emphasis parameters to obtain first target signals.

In the embodiment of the application, in optical fiber transmission, signal loss information is utilized to optimize an electric signal received and obtained from first electronic equipment, obtain a first target signal, and forward the first target signal to an optical module, so that signal forwarding work from the first electronic equipment to second electronic equipment is realized.

As shown in fig. 3, a flowchart of another embodiment of a signal processing method according to an embodiment of the present invention is different from the embodiment shown in fig. 2 in that the method may further include:

203: generating a first optimization instruction based on the signal loss information;

204: sending the first optimization instruction to an optical module so that the optical module receives the first optimization instruction, and responding to the first optimization instruction to obtain the signal loss information; receiving the first target signal; based on the signal loss information, optimizing the obtained first target signal to obtain a first double optimized signal, and converting the first double optimized signal into a first optical signal; and sending the first optical signal to a second electronic device.

The switch generates a first optimization instruction according to the signal loss information, the first optimization instruction can be sent to the optical module, the optical module can obtain the signal loss information based on the first optimization instruction sent by the switch, the optical module can optimize a first target signal obtained by the optical module based on the signal loss information, second optimization of the signal is achieved, a first double-optimization signal with a better optimization effect is obtained, loss in the signal transmission process is reduced, and accuracy of signal transmission is improved.

In an optical fiber communication scenario, an exchange may receive an electrical signal sent by an optical signal module, that is, perform optimization processing on the signal of the optical signal module, and implement signal forwarding from the optical module to the exchange, so as to be shown in fig. 4, which is a flowchart of another embodiment of a signal processing method provided in an embodiment of the present invention, the difference from the embodiment shown in fig. 1 is that, the step 102: optimizing the reception of the obtained electrical signal based on the signal loss information, and obtaining the first target signal may include:

401: receiving a second electric signal sent by the optical module; the second electrical signal is obtained by converting a second optical signal sent by the second electronic device by the optical module;

402: optimizing a second electric signal received and obtained from an optical module based on the signal loss information to obtain a first target signal; the second electrical signal is obtained by converting a second optical signal sent to the optical module by the second electronic device;

the step 103: forwarding the first target signal may include:

403: and sending the first target signal to the first electronic equipment.

In order to optimize the electrical signal received by the switch from the optical module, as a possible implementation manner, the signal loss information includes a signal amplitude loss and/or a bit error rate;

the optimizing, based on the signal loss information, the second electrical signal received from the optical module, and obtaining the first target signal may include:

and balancing the second electric signal received and received from the optical module based on the signal amplitude loss and/or the error rate to obtain a first target signal.

Wherein, based on the signal amplitude loss and/or the bit error rate, equalizing the electrical signal received and obtained from the optical module, and obtaining the first target signal may include: and calculating parameter data of the equalization parameters through signal amplitude loss and/or bit error rate, and equalizing the electric signals received and obtained from the optical module by using the parameter data of the equalization parameters to obtain a first target signal.

In the embodiment of the application, the switch can optimize the electric signal received and obtained from the optical module by using the signal loss information to obtain the first target signal, the electric signal can be obtained by converting the optical module sent by the second electronic device by the optical module, and the switch can actually optimize the electric signal sent by the optical module to avoid the influence of transmission errors generated by the electric signal due to transmission on the error rate of the signal, so that the error rate is reduced without configuring a CDR module, and the transmission stability is improved.

As a possible implementation manner, the optimizing, based on the signal loss information, the receiving the obtained electrical signal, and obtaining the first target signal may include:

and optimizing the phase and/or amplitude of the electric signal obtained by receiving based on the signal loss information to obtain a first target signal.

By optimizing the phase and/or amplitude of the electrical signal, the first target signal can actually counteract the negative influence of the transmission channel on the electrical signal received and obtained by the switch, so as to ensure the signal transmission performance of the received electrical signal, and further avoid the electrical signal from generating larger errors due to transmission even if CDR chips in the optical module are reduced.

As an embodiment, the detecting signal loss information of the transmission channel based on the optical module may include:

reading module configuration information of the optical module;

and detecting signal loss information of a transmission channel when the clock data recovery chip does not exist in the optical module based on the module configuration information.

Optionally, the switch may detect module configuration information of the optical module to determine whether a Clock Data Recovery (CDR) chip exists in the optical module. Specifically, the switch may read chip information of at least one chip in the optical module, where the chip information may specifically include information such as a chip name, an attribute, and a model, and obtain module configuration information of the optical module. The switch may also read Microprocessor (MCU) information of the optical module, for example, running information, connection information, etc. of the MCU, to obtain module configuration information of the optical module. The detecting, by the switch, module configuration information of the optical module to determine whether the clock data recovery chip exists in the optical module may include: and detecting whether the module information of the optical module contains information such as a chip identifier and/or a chip name of the clock data recovery chip or not so as to judge whether the clock data recovery chip exists in the optical module or not.

In the embodiment of the application, if it is detected that the clock data recovery chip does not exist in the optical module, the signal loss information of the optical fiber transmission channel can be acquired, the to-be-transmitted electrical signal can be optimized through the signal loss information of the optical fiber transmission channel, a first target signal is acquired, the to-be-transmitted electrical signal does not need to be optimally configured through the CDR chip, the to-be-transmitted electrical signal is optimized by using the signal loss information, the first target signal can be acquired, the first target signal can be forwarded to realize normal transmission of the signal, the influence of noise of channel transmission is avoided, and the structural complexity of the optical module is reduced.

As shown in fig. 5, a flowchart of another embodiment of a signal processing method provided in this embodiment of the present application may include the following steps:

501: and detecting signal loss information of a transmission channel based on the optical module.

502: generating a second optimization instruction based on the signal loss information.

503: sending the second optimization instruction to the optical module, so that the optical module receives the second optimization instruction sent by the switch; responding to the second optimization instruction to obtain the signal loss information; and optimizing the obtained electric signal based on the signal loss information to obtain a second target signal, and forwarding the second target signal.

The switch may detect signal loss information of a transmission channel based on the optical module, generate a second optimization instruction based on the signal loss information, and send the second optimization instruction to the optical module. The switch controls the optimization process of the optical module to the signals, so that the optical module can realize the accurate transmission of the signals without additionally configuring a CDR module.

Alternatively, the optical module may receive signal loss information transmitted by the switch. After the switch sends the signal loss information to the optical module, the optical module may generate a parameter setting instruction for the electrical signal obtained by the optical module based on the signal loss information, so as to set an optimization parameter based on the parameter setting instruction, and perform optimization processing on the electrical signal obtained by the optical module by using the optimization parameter, so as to obtain a second target signal.

In the embodiment of the application, the switch can acquire the signal loss information of the transmission channel, the signal loss information of the transmission signal identifies the attenuation condition of the transmission channel actually generated in the signal transmission process, and the loss information is utilized to optimize the signal so as to counteract the signal attenuation during signal transmission. After the second optimization instruction generated based on the signal loss information is sent to the optical module, the optical module optimizes the received electric signal by using the signal loss information, so that the influence of channel transmission can be counteracted after the electric signal is transmitted, and the optical module does not need to be provided with a CDR chip to solve the problem that the electric signal is influenced by a transmission path, thereby reducing the structural complexity of the optical module.

In certain embodiments, the method further comprises:

and receiving a second target signal sent by the optical module.

Processing the second target signal to obtain a fifth electrical signal;

and sending the fifth electric signal to the first electronic equipment.

And the second target signal is obtained by optimizing an electric signal received by the optical module according to the signal loss information sent by the switch.

As a possible implementation manner, the processing the second target signal to obtain the fifth electric signal is specifically: determining the second target signal as a fifth electrical signal. The optical module can optimize the electric signals obtained by the optical module by utilizing the signal loss information, so that the electric signals can reduce the noise influence of channel transmission, and the structural complexity of the optical module is reduced.

The switch receives the optimized second target signal sent by the optical module and sends the second target signal to the first electronic device, so that normal transmission of the signal is realized, transmission errors are reduced, an additional CDR module is not needed, and the structural complexity of the optical module is reduced.

The optical module can send the signal to the switch after optimizing the signal, and the switch sends the signal to the first electronic device, so that when the optical module does not use the CDR to perform synchronous processing on the signal, the integrity and accuracy of the signal can be kept, and the transmission of the signal is ensured. As an embodiment, the method may further include:

receiving a third electric signal sent by the first electronic equipment;

forwarding the third electrical signal to the optical module so that the optical module receives the third electrical signal sent by the switch; optimizing the third electric signal based on the signal loss information to obtain a second target signal; and converting the second target signal into a third optical signal, and sending the third optical signal to a second electronic device.

In order to further ensure the transmission stability of the signal, the switch may perform secondary optimization on the received optimized signal, and therefore, as an embodiment, the processing the second target signal to obtain the fifth electrical signal specifically includes:

optimizing the second target signal based on the signal loss information to obtain a second doubly optimized signal;

determining the second dual optimization signal as a fifth electrical signal.

For precise optimization, as a possible implementation, the signal loss information includes a signal amplitude loss and/or a bit error rate;

the optimizing the second target signal based on the signal loss information to obtain a second doubly optimized signal includes:

and balancing the second target signal based on the signal amplitude loss and/or the bit error rate to obtain a second double optimized signal.

Wherein the equalizing the second target signal based on the signal amplitude loss and/or the bit error rate to obtain the second doubly optimized signal may include: and calculating parameter data of the equalization parameters through the signal amplitude loss and/or the bit error rate, and equalizing the second target signal by using the parameter data of the equalization parameters to obtain a second doubly optimized signal.

The switch can optimize the second target signal optimized by the optical module again, so that the accuracy of the obtained second double-optimization signal can be improved, and the accuracy of signal transmission is ensured.

As shown in fig. 6, a schematic structural diagram of another embodiment of a signal processing method provided in the embodiment of the present application is shown, where the method may include the following steps:

601: receiving the second optimization instruction sent by the switch; the second optimization instruction is generated by the switch based on the signal loss information and is used for detecting the signal loss information of the transmission channel based on the optical module.

The embodiment of the invention can be applied to an optical module, wherein the optical module is in communication connection with a switch.

602: and responding to the second optimization instruction to obtain the signal loss information.

Wherein the signal loss information is obtained by the switch detecting the signal loss of the transmission channel.

603: and optimizing the electric signal to be processed based on the signal loss information to obtain a second target signal.

The second target signal can be obtained by the optical module by optimizing the electrical signal to be processed by using the signal loss information. The compensation information of the electric signal to be processed can be obtained according to the signal loss information, and the electric signal to be processed is pre-compensated through the compensation information, so that the electric signal to be processed is not influenced by phase displacement and amplitude attenuation after being transmitted through a channel, signal transmission is accurately carried out, and the stability and the accuracy of transmission are ensured.

In one possible design, the switch may control the optical module to optimize the electrical signal to be processed, for example, the optical module may determine a parameter setting instruction based on the signal loss information, and the optical module may perform parameter optimization setting on the electrical signal to be processed in response to the parameter setting instruction to obtain a second target electrical signal.

604: processing the second target signal.

In the embodiment of the application, the optical module can receive signal loss information sent by the switch, and the signal loss information is utilized to optimize the electric signal to be processed, so that the influence of a transmission channel on the signal to be transmitted can be counteracted after the electric signal to be processed is optimized, the stability and reliability of the second target signal during transmission can be ensured through optimization, a CDR chip for phase compensation and amplitude compensation is avoided being additionally arranged in the optical module, and the complexity of a circuit structure of the optical module is reduced while the signal safety is ensured.

In order to implement signal forwarding, the optical module may receive an electrical signal sent by the switch and convert the electrical signal into an optical signal, so as to transmit the optical signal by using an optical fiber, and as an embodiment, the method may further include:

receiving a third electric signal sent by the switch; the third electric signal is sent to the switch for the first electronic equipment and is forwarded to the optical module by the switch;

the performing optimization processing on the electrical signal to be processed based on the signal loss information to obtain a second target signal may include:

optimizing the third electric signal based on the signal loss information to obtain a second target signal;

the processing the second target signal may include:

and converting the second target signal into a third optical signal, and sending the third optical signal to a second electronic device.

As a possible implementation manner, the signal loss information includes a signal amplitude loss and/or a bit error rate;

the optimizing the third electrical signal based on the signal loss information to obtain a second target signal includes:

and balancing the third electric signal based on the signal amplitude loss and/or the error rate to obtain a second target signal.

Wherein, based on the signal amplitude loss and/or the bit error rate, equalizing the third electrical signal to obtain the second target signal may include: and calculating parameter data of the pre-emphasis parameters through signal amplitude loss and/or bit error rate, and balancing the third electric signal by using the parameter data of the pre-emphasis parameters to obtain a second target signal.

In order to realize signal forwarding, the optical module may receive an optical signal forwarded by the second electronic device through the optical fiber, convert the optical signal into an electrical signal, and forward the electrical signal to the switch. As yet another embodiment, the method may further include:

receiving a fourth optical signal sent by the second electronic device;

converting the fourth optical signal to a fourth electrical signal;

the optimizing the electric signal to be processed based on the signal loss information to obtain a second target signal comprises:

optimizing the fourth electric signal based on the signal loss information to obtain a second target signal;

the processing the second target signal comprises:

sending the second target signal to an exchanger so that the exchanger can receive the second target signal sent by the optical module; processing the second target signal to obtain a fifth electrical signal; and sending the fifth electric signal to the first electronic equipment.

And the optical module converts the received fourth optical signal into a fourth electric signal to be processed to realize signal optimization processing.

In order to optimize the received signal to ensure the accuracy of the received signal and obtain an accurate optimization result, as another embodiment, the signal loss information may include a signal amplitude loss and/or a bit error rate;

the optimizing the fourth electrical signal based on the signal loss information to obtain a second target signal includes:

and pre-emphasizing the fourth electric signal based on the signal amplitude loss and/or the bit error rate to obtain a second target signal.

The pre-emphasis of the electrical signal to be processed based on the signal amplitude loss and/or the bit error rate to obtain the second target signal may include: and calculating parameter data of the pre-emphasis parameters through signal amplitude loss and/or bit error rate, and pre-emphasizing the electric signal to be processed by utilizing the parameter data of the pre-emphasis parameters to obtain a second target signal.

As shown in fig. 7, a flowchart of another embodiment of a signal processing method provided in this embodiment of the present application may include the following steps:

701: and receiving a first target signal sent by the switch.

The first target signal is obtained by optimizing a first electric signal received and obtained from first electronic equipment by the switch based on signal loss information of a detection optical fiber transmission channel;

702: the first target signal is processed to obtain a first optical signal.

703: and sending the first optical signal to a second electronic device.

In some embodiments, said processing said first target signal to obtain a first optical signal comprises:

the first target signal is converted into a first optical signal.

The optical module can receive the optimized first target signal sent by the switch, convert the first target signal into an optical signal and send the optical signal to the second electronic device, and the optical module transmits the optical signal. The optical module can ensure that channel influence in the signal transmission process is offset, ensure the stability and reliability of transmitted signals, avoid additionally arranging a CDR chip for phase compensation and amplitude compensation in the optical module, ensure the signal safety and reduce the complexity of the circuit structure of the optical module.

In order to further ensure the transmission stability of the signal, the optical module may perform secondary optimization on the received optimized signal, and thus, as a further embodiment, the method may further include:

and receiving a first optimization instruction sent by the switch. Wherein the first optimization instruction is generated by the switch based on signal loss information obtained by detecting signal loss of an optical fiber transmission channel.

And responding to the first optimization instruction to obtain signal loss information.

The processing the first target signal to obtain a first optical signal comprises:

optimizing the first target signal based on the signal loss information to obtain a first double optimized signal; converting the first double optimized signal into a first optical signal.

For accurate optimization, as a further embodiment, the signal loss information includes signal amplitude loss and/or bit error rate;

the optimizing the first target signal based on the signal loss information to obtain a first doubly optimized signal includes:

and balancing the first target signal based on the signal amplitude loss and/or the error rate to obtain a first double optimized signal.

Wherein equalizing the first target signal based on the signal amplitude loss and/or the bit error rate to obtain the first doubly optimized signal may include: and calculating parameter data of the equalization parameters through signal amplitude loss and/or bit error rate, and equalizing the first target signal by using the parameter data of the equalization parameters to obtain a first double optimized signal.

As shown in fig. 8, a schematic structural diagram of an embodiment of a signal processing system according to an embodiment of the present invention is provided, where the system may include: a switch 801 and an optical module 802 establishing communication connection with the switch;

the switch is to:

and forwarding the first target signal.

In any embodiment of the present application, a switch establishes a communication connection with an optical module, and specifically, as shown in fig. 8, a communication connection is established between an RX CDR (receive clock data recovery) module 8011 of the switch 801 and a TX Driver (transmit Driver) module 8021 of the optical module, so as to form a first communication path; a TX CDR (transmit clock data recovery) module 8012 of the switch and an RX TIA (trans-impedance amplifier) module 8022 of the optical module 801 establish communication connection, so as to form a second communication path.

Wherein, the switch 801 sends an electrical signal to the optical module 802 through a first communication path; the optical module 802 sends the electrical signal to the switch 801 through a second communication path. In addition, a communication connection is also established between the switch 801 and the optical module 802 through a low-speed I2C line, so that the switch 801 can send instructions to the optical module 802. The switch can also comprise a detection feedback module, and the detection feedback module is used for executing the processing steps of the switch in the signal processing system. That is, the detection feedback module of the switch may be configured to detect the signal loss information of the transmission channel based on the optical module; and optimizing the received obtained electric signal based on the signal loss information to obtain a first target signal; and forwarding the first target signal.

In an optical fiber communication scene, the switch can receive a first electric signal which is directly transmitted by the switch and is exchanged with the optical fiber communication scene, and performs optimization processing on the first electric signal so as to transmit the optimized first target signal to the optical module without being influenced by a transmission channel. As an embodiment, the switch optimizes, based on the signal loss information, the received obtained electrical signal, and obtaining the first target signal specifically includes:

optimizing a first electrical signal received from a first electronic device based on the signal loss information to obtain a first target signal;

the forwarding, by the switch, the first target signal specifically includes:

sending the first target signal to an optical module;

the optical module is used for: receiving a first target signal sent by the switch; processing the first target signal to obtain a first optical signal; and sending the first optical signal to a second electronic device.

The detection feedback module of the switch may send a first target signal to a TXdriver of the optical module through an RX CDR, where a TX dviver of the optical module includes a first adjusting module, and the first adjusting module may be configured to receive the first target signal sent by the switch, and process the first target signal to obtain a first optical signal, so as to send the first optical signal to a second electronic device.

the switch optimizes a first electrical signal received and obtained from the first electronic device based on the signal loss information, and obtaining a first target signal is specifically:

and pre-emphasis is carried out on the first electric signal received and obtained from the first electronic equipment based on the signal amplitude loss and/or the error rate, so as to obtain a first target signal.

As yet another embodiment, the switch may be further operable to:

generating a first optimization instruction based on the signal loss information;

sending the first optimization instruction to the optical module;

the optical module is used for:

receiving a first optimization instruction sent by the switch;

responding to the first optimization instruction to obtain the signal loss information;

the processing, by the optical module, the first target signal to obtain a first optical signal specifically includes:

optimizing the first target signal based on the signal loss information to obtain a first double optimized signal;

converting the first double optimized signal into a first optical signal; and sending the first optical signal to a second electronic device.

The detection feedback module of the switch can generate a first optimization instruction and send the first optimization instruction to the optical module through a low-speed I2C bus between the switch and the optical module. The first adjusting module in the TX dviver and the second adjusting module in the RXTIA of the optical module can both acquire the first optimization instruction sent by the switch through the low-speed I2C bus.

The TX dviver of the optical module may receive a first target signal sent by an RX CDR of the switch, and a first adjusting module in the optical module TXdviver may optimize the first target signal based on the signal loss information to obtain a first doubly optimized signal, and then the TX dviver may convert the first doubly optimized module into a first optical signal and send the first optical signal to the second electronic device.

In an optical fiber communication scenario, an exchange may receive an electrical signal sent by a signal optical module, that is, perform optimization processing on the signal of the received optical module to implement signal forwarding from the optical module to the exchange, so in some embodiments, the signal loss information includes a signal amplitude loss and/or a bit error rate;

the optical module optimizes the first target signal based on the signal loss information, and obtaining a first doubly-optimized signal specifically includes:

During signal transmission, the optical module may receive an optical signal, directly convert the optical signal into an electrical signal, and complete an optimization process of the electrical signal by the switch, so in some embodiments, the optical module may further be configured to:

receiving a second optical signal sent by second electronic equipment;

converting the second optical signal to obtain a second electrical signal;

sending the second electrical signal to the switch;

the switch optimizes receiving the obtained electrical signal based on the signal loss information, and obtaining a first target signal specifically includes:

optimizing a second electric signal received and obtained from an optical module based on the signal loss information to obtain a first target signal;

the forwarding, by the switch, the first target signal specifically includes:

and sending the first target signal to the first electronic equipment.

The RX TIA of the optical module can receive a second optical signal sent by a second electronic device; converting the second optical signal to obtain a second electrical signal; sending the second electrical signal to the switch.

The TX CDR of the switch may receive the second electrical signal sent by the RX TIA of the optical module, so that the detection feedback module optimizes the second electrical signal received and obtained from the RX TIA of the optical module based on the signal loss information, obtains the first target signal, and then sends the first target signal to the first electronic device.

the switch optimizes a second electrical signal received from an optical module based on the signal loss information, and obtaining a first target signal comprises:

and balancing the second electric signal received and received from the optical module by utilizing the signal amplitude loss and/or the error rate to obtain a first target signal.

In some embodiments, the switch optimizing the reception of the obtained electrical signal based on the signal loss information, and obtaining the first target signal may include:

The switch can determine whether to optimize the electrical signal by reading the configuration information of the optical module. In some possible designs, the switch detects the signal loss information of the transmission channel based on the optical module by:

reading module configuration information of the optical module;

and detecting signal loss information of a transmission channel when the optical module is determined to have no clock data recovery chip based on the module configuration information.

The signal processing steps executed by the switch and the optical module in the signal processing system shown in fig. 8, the content of execution and the technical effects generated by the signal processing steps have been described in detail in the embodiment of the method, and the specific implementation manner of the operation has been described in detail in each step of the signal processing method shown in fig. 1 to fig. 7, and will not be elaborated herein.

For convenience of understanding, an exemplary diagram of a signal optimization processing procedure performed by a signal processing system, which may be composed of a switch M1 and an optical module M2 connected to an interactive machine M1, is shown in fig. 9; the switch M1 may be connected to a first electronic device M3, and the optical module M2 may be connected to a second electronic device M4. The communication connection and signal processing manner between the switch and the optical module may be as shown in fig. 8, and are not described herein again.

The switch M1 may detect the signal loss information 901 of the transmission channel based on the optical module; receiving a first electrical signal 902 sent by a first electronic device M3; optimizing 903 the first electrical signal based on the signal loss information to obtain a first target signal; the first target signal is sent 904 to the light module M2.

The optical module M2 may receive the first target signal 905 sent by the switch; converting 906 the first target signal into a first optical signal; the first optical signal 907 is sent to the first electronic device.

The switch M1 may also generate a first optimization instruction 908 based on the signal loss information; sending 909 a first optimization instruction to the light module M2; thereafter, the optical module M2 may receive 910 the first optimization instruction sent by the switch M1; obtaining signal loss information 911 based on the first optimization instruction; at this time, after the optical module M2 receives the first target signal 905 transmitted by the switch M1, the optical module M2 may further optimize 912 the first target signal based on the signal loss information to obtain a first doubly optimized signal; the optical module M2 may then convert the first bi-optimized signal into a first optical signal 913; and performs the step of sending the first optical signal to the first electronic device 907.

For convenience of understanding, an exemplary diagram of still another signal optimization processing procedure performed by a signal processing system, which may be composed of a switch M1 and an optical module M2 connected to the switch M1, is shown in fig. 10; the switch M1 may be connected to a first electronic device M3, and the optical module M2 may be connected to a second electronic device M4. The communication connection between the switch and the optical module may be as shown in fig. 8, and is not described herein again.

The switch M1 may detect signal loss information 1001 of the transmission channel based on the optical module.

The optical module M2 may receive a second optical signal 1002 sent by a second electronic device M; converting the second optical signal to obtain a second electrical signal 1003; the second electrical signal 1004 is sent to switch M1.

Thereafter, the switch M1 may receive the second electrical signal sent by the optical module M1; optimizing reception of the obtained second electrical signal based on the signal loss information to obtain a first target signal 1005; and sends 1006 the first target signal to the first electronic device M1.

As shown in fig. 11, a schematic structural diagram of an embodiment of a signal processing system according to an embodiment of the present invention, the system may include: a switch 1101 and an optical module 1102 establishing communication connection with the switch 1101;

the switch 1101 may be configured to:

sending the second optimization instruction to the optical module;

the optical module is used for:

receiving the second optimization instruction sent by the switch;

and forwarding the second target signal.

The communication connection established between the switch and the optical module may be specifically as shown in fig. 8, and is not described herein again.

The detection feedback module of the switch can detect the signal loss information of the transmission channel based on the optical module; generating a second optimization instruction based on the signal loss information; a second optimization instruction is sent to the light module over the low speed I2C line.

A first adjusting module in a TX dviver of an optical module and a second adjusting module in an RX TIA can both acquire a second optimization instruction sent by a switch through a low-speed I2C bus, and respond to the second optimization instruction to acquire the signal loss information; optimizing the electric signal to be processed based on the signal loss information to obtain a second target signal; and forwarding the second target signal.

The optical module can send the signal to the switch after optimizing the signal, and the switch sends the signal to the first electronic device, so that when the optical module does not use the CDR to perform synchronous processing on the signal, the integrity and accuracy of the signal can be kept, and the transmission of the signal is ensured. As an embodiment, the interactive machine is further configured to:

receiving a third electric signal sent by the first electronic equipment;

forwarding the third electrical signal to the optical module;

the optical module is used for: receiving a third electric signal sent by the switch;

the optical module optimizes the electric signal to be processed based on the signal loss information, and specifically, the obtaining of the second target signal is as follows:

the optical module forwarding the second target signal comprises:

The switch may receive the third electrical signal sent by the first electronic device through the RX CDR, and send the third electrical signal to the TX driver module of the optical module through the first communication path. The TX driver module of the optical module can receive a third electric signal sent by the switch; the first adjusting module in the TX driver module may perform optimization processing on the third electrical signal based on the signal loss information to obtain a second target signal, convert the second target signal into a third optical signal through the TX driver module, and send the third optical signal to the second electronic device.

The RX CDR of the switch may receive the optimized second target signal sent by the TX driver of the optical module, and send the second target signal to the first electronic device, so as to implement normal transmission of signals, reduce transmission errors, eliminate the need for configuring an additional CDR module for the optical module, and reduce the structural complexity of the optical module.

the optical module performs optimization processing on the third electrical signal based on the signal loss information, and obtaining a second target signal specifically includes:

The equalizing, by the optical module, the second target signal based on the signal amplitude loss and/or the bit error rate to obtain a second doubly optimized signal may include: and calculating parameter data of the equalization parameters through the signal amplitude loss and/or the bit error rate, and equalizing the second target signal by using the parameter data of the equalization parameters to obtain a second doubly optimized signal.

In order to realize signal forwarding, the optical module may receive an optical signal forwarded by the second electronic device through the optical fiber, convert the optical signal into an electrical signal, and forward the electrical signal to the switch. As yet another embodiment, the light module is further configured to:

receiving a fourth optical signal sent by the second electronic device;

converting the fourth optical signal to a fourth electrical signal;

the optical module optimizes the electric signal to be processed based on the signal loss information, and obtaining a second target signal comprises:

the forwarding, by the optical module, the second target signal specifically includes:

sending the second target signal to the switch;

the switch is to: receiving a second target signal sent by the optical module; processing the second target signal to obtain a fifth electrical signal; and sending the fifth electric signal to the first electronic equipment.

The optical module can receive a fourth optical signal sent by the second electronic device through the RX TIA module; converting the fourth optical signal to a fourth electrical signal; and optimizing the fourth electrical signal through a second adjusting module in the RX TIA module based on the signal loss information to obtain a second target signal. Then, the RX TIA module of the optical module may send the second target signal to the TX CDR module of the switch through the second communication path, and at this time, the detection feedback module of the optical module may obtain the second target signal sent by the optical module through the TX CDR; processing the second target signal to obtain a fifth electrical signal; and sending the fifth electric signal to the first electronic equipment.

The optical module performs pre-emphasis on the fourth electrical signal based on the signal amplitude loss and/or the bit error rate, and obtaining the second target signal may include: and calculating parameter data of the pre-emphasis parameters through signal amplitude loss and/or bit error rate, and pre-emphasizing the fourth electric signal by using the parameter data of the pre-emphasis parameters to obtain a second target signal.

In some embodiments, the switch processes the second target signal to obtain the fifth electrical signal is specifically:

optimizing the fourth target signal based on the signal loss information to obtain a second doubly optimized signal;

determining the second dual optimization signal as a fifth electrical signal.

The detection feedback module of the switch may optimize the fourth target signal based on the signal loss information to obtain a second doubly optimized signal; determining the second dual optimization signal as a fifth electrical signal.

the switch optimizing the fourth target signal based on the signal loss information, the obtaining a second doubly optimized signal comprising:

and balancing the fourth target signal based on the signal amplitude loss and/or the bit error rate to obtain a second double optimized signal.

The equalizing, by the switch, the fourth target signal based on the signal amplitude loss and/or the bit error rate, and obtaining the second doubly optimized signal may include: and calculating parameter data of the equalization parameters through the signal amplitude loss and/or the bit error rate, and equalizing the fourth target signal by using the parameter data of the equalization parameters to obtain a second doubly optimized signal.

determining the second target signal as the fifth electrical signal.

The detection feedback module of the switch may determine that the second target signal is the fifth electrical signal.

The signal processing steps executed by the switch and the optical module in the signal processing system shown in fig. 11, the content of execution and the technical effect generated by the signal processing steps have been described in detail in the embodiment of the method, and the specific implementation manner of the operation has been described in detail in each step of the signal processing method shown in fig. 1 to fig. 7, and will not be elaborated herein.

For convenience of understanding, an exemplary diagram of a signal optimization processing procedure performed by a signal processing system, which may be composed of a switch M1 and an optical module M2 connected to an interactive machine M1, is shown in fig. 12; the switch M1 may be connected to a first electronic device M3, and the optical module M2 may be connected to a second electronic device M4. The communication connection between the switch and the optical module may be as shown in fig. 8, and is not described herein again.

The switch M1 may detect signal loss information 1201 of a transmission channel based on the optical module; generating a second optimization instruction 1202 based on the signal loss information; sending 1203 the second optimization instruction to the light module M2.

Thereafter, the light module M2 may receive the second optimization instruction 1204 sent by the switch M1; the signal loss information may then be obtained in response to the second optimization instructions 1205.

The switch M1 may receive the third electrical signal 1206 transmitted by the first electronic device M3; and sends 1207 a third electrical signal to the light module M2. Then, the optical module M2 may receive the third electrical signal 1208, and perform optimization 1209 on the third electrical signal based on the signal loss information to obtain a second target signal; the second target signal is converted into a third optical signal 1210, which is sent 1211 to the second electronic device M4.

For convenience of understanding, an exemplary diagram of a signal optimization processing procedure performed by a signal processing system, which may be composed of a switch M1 and an optical module M2 connected to an interactive machine M1, is shown in fig. 13; the switch M1 may be connected to a first electronic device M3, and the optical module M2 may be connected to a second electronic device M4. The communication connection between the switch and the optical module may be as shown in fig. 8, and is not described herein again.

The switch M1 may detect the signal loss information 1301 of the transmission channel based on the optical module; generating second optimization instructions 1302 based on the signal loss information; and sending 1303 the second optimization instruction to the light module M2.

Thereafter, the light module M2 may receive the second optimization instruction 1304 sent by the switch M1; the signal loss information may then be obtained in response to the second optimization instructions 1305.

The light module M2 may receive the fourth optical signal 1306 transmitted by the second electronic device M4; and converts the fourth optical signal to a fourth electrical signal 1307; and then, based on the signal loss information, performing optimization 1308 on the fourth electrical signal to obtain a second target signal. Thereafter, the optical module M2 may send 1309 a second target signal to the switch M1; the switch M1 may receive 1310 a second target signal.

The switch M1 may forward 1311 the second target signal directly to the first electronic device M3 as a fifth electrical signal.

The switch M1 may also optimize 1312 the second target signal based on the signal loss information to obtain a second dual optimized signal; the second double optimized signal may then be forwarded 1313 as a fifth electrical signal to the first electronic device M3.

As shown in fig. 14, which is a schematic structural diagram of an embodiment of a switch provided in the present invention, the switch 1401 may establish a communication connection with an optical module, and the switch 1401 may be configured to:

and forwarding the first target signal.

The steps or contents, signals and instructions executed by each module of the switch shown in fig. 14 are transmitted in the same manner as the steps or contents, signals and instructions executed by the switch in the signal processing system shown in fig. 8, and are not described again here.

the forwarding the first target signal comprises:

and sending the first target signal to an optical module, so that the optical module processes the first target signal to obtain a first optical signal, and sending the first optical signal to a second electronic device.

In an optical fiber communication scenario, an exchange may receive an electrical signal sent by an optical module, that is, perform optimization processing on the signal received by the optical module, so as to implement signal forwarding from the optical module to the exchange, and thus, as a further embodiment, the exchange is further configured to:

receiving a second electric signal sent by the optical module; the second electrical signal is obtained by converting a second optical signal sent by the second electronic device by the optical module;

the forwarding, by the switch, the first target signal specifically includes:

and sending the first target signal to the first electronic equipment.

In order to optimize the electrical signal received by the switch from the optical module, as a possible implementation, the signal loss information includes a signal amplitude loss and/or a bit error rate;

the switch optimizes a second electrical signal received and obtained from an optical module based on the signal loss information, and obtaining a first target signal specifically includes:

As a possible implementation manner, the switch optimizes, based on the signal loss information, reception of the obtained electrical signal, and obtaining the first target signal includes:

As another embodiment, the switch detects the signal loss information of the transmission channel based on the optical module specifically as follows:

reading module configuration information of the optical module;

As yet another embodiment, the switch may be further operable to:

sending the first optimization instruction to an optical module so that the optical module receives the first optimization instruction, and responding to the first optimization instruction to obtain the signal loss information; receiving the first target signal; based on the signal loss information; optimizing the obtained first target signal to obtain a first double optimized signal and converting the first double optimized signal into a first optical signal; and sending the first optical signal to a second electronic device.

In an optical fiber communication scenario, an exchange may receive an electrical signal sent by a signal optical module, that is, perform optimization processing on the signal received by the optical module, and implement signal forwarding from the optical module to the exchange, so as to provide a schematic structural diagram of another embodiment of an exchange according to an embodiment of the present invention, as shown in fig. 15, the exchange 1501 establishes communication connection with the optical module; the switch 1501 is configured to:

The detection feedback module of the switch may be configured to: detecting signal loss information of a transmission channel based on the optical module; generating a second optimization instruction based on the signal loss information; and sending the second optimization instruction to the light module.

The steps or contents, signals and instructions executed by each module of the switch shown in fig. 15 are transmitted in the same manner as the steps or contents, signals and instructions executed by the switch in the signal processing system shown in fig. 9, and are not described again here.

The signal processing steps executed by the switch shown in fig. 15, the content of execution thereof, and the technical effects generated thereby have been described in detail in the embodiment of the method, and the specific operations executed by the steps in the signal processing methods of fig. 1 to fig. 7 and the specific implementation of the operations are not described in detail herein.

In some embodiments, the switch is further configured to:

receiving a second target signal sent by the optical module; processing the second target signal to obtain a fifth electrical signal;

and sending the fifth electric signal to the first electronic equipment.

As a possible implementation manner, the processing, by the switch, of the second target signal to obtain a fifth electrical signal is specifically:

determining the second target signal as a fifth electrical signal.

The optical module can optimize the electric signals obtained by the optical module by utilizing the signal loss information, so that the electric signals can reduce the noise influence of channel transmission, and the structural complexity of the optical module is reduced.

In order to further ensure the transmission stability of the signal, the switch may perform secondary optimization on the received optimized signal, and therefore, as an embodiment, the switch processes the second target signal to obtain a fifth electrical signal specifically:

determining the second dual optimization signal as a fifth electrical signal.

In some embodiments, the signal loss information comprises signal amplitude loss and/or bit error rate;

the switch performs optimization processing on the second target signal based on the signal loss information, and obtaining a second double-optimization signal includes:

As shown in fig. 16, which is a schematic structural diagram of an embodiment of an optical module according to an embodiment of the present invention, the optical module 1601 establishes a communication connection with a switch; the light module may be configured to:

processing the second target signal.

The steps or contents, signals and instructions executed by each module of the optical module shown in fig. 16 are transmitted in the same or similar manner as the steps or contents, signals and instructions executed by each module of the optical module in the signal processing system shown in fig. 8, and are not described again here.

In order to implement signal forwarding, the optical module may receive an electrical signal sent by the switch, and convert the electrical signal into an optical signal to transmit the optical signal by using an optical fiber, and as an embodiment, the optical module is further configured to: receiving a third electric signal sent by the switch; the third electric signal is sent to a switch by the first electronic equipment and is forwarded to the optical module by the switch;

the optical module performs optimization processing on the electric signal to be processed based on the signal loss information, and specifically, obtaining a second target signal is as follows:

the optical module processing the second target signal comprises:

the optical module performs optimization processing on the third electrical signal based on the signal loss information, and obtaining a second target signal includes:

In order to realize signal forwarding, the optical module may receive an optical signal forwarded by the second electronic device through the optical fiber, convert the optical signal into an electrical signal, and forward the electrical signal to the switch. As yet another embodiment, the optical mode is further for:

receiving a fourth optical signal sent by the second electronic device;

converting the fourth optical signal to a fourth electrical signal;

the processing of the second target signal by the optical module specifically includes:

sending the second target signal to a switch for receiving the second target signal sent by the optical module; processing the second target signal to obtain a fifth electrical signal; and sending the fifth electric signal to the first electronic equipment.

In order to optimize the received signal to ensure the accuracy of the received signal and obtain an accurate optimization result, as another embodiment, the signal loss information includes a signal amplitude loss and/or a bit error rate;

and pre-emphasis is carried out on the electric signal to be processed based on the signal amplitude loss and/or the error rate, so as to obtain a second target signal.

As shown in fig. 17, which is a schematic structural diagram of an embodiment of an optical module according to an embodiment of the present invention, the optical module 1701 establishes a communication connection with a switch; the optical module 1701 may be used to: receiving a first target signal optimally sent by a switch; the first target signal is obtained by the switch detecting signal loss information of a transmission channel based on the optical module and optimally receiving an obtained electric signal; processing the first target signal to obtain a first optical signal;

and sending the first optical signal to a second electronic device.

The steps or contents, signals and instructions executed by each module of the optical module shown in fig. 17 are transmitted in the same or similar manner as the steps or contents, signals and instructions executed by each module of the optical module in the signal processing system shown in fig. 9, and are not described again here.

In some embodiments, the processing, by the optical module, the first target signal to obtain the first optical signal is specifically:

the first target signal is converted into a first optical signal.

In order to further ensure the transmission stability of the signal, the optical module may perform secondary optimization on the received optimized signal, and thus, as another embodiment, the optical module may further be configured to:

receiving a first optimization instruction sent by a switch; the first optimization instruction is generated by the switch based on signal loss information obtained by detecting the signal loss of an optical fiber transmission channel;

performing optimization processing on the first target signal based on signal loss information to obtain first double optimization;

converting the first double optimized signal into a first optical signal.

the optical module performs optimization processing on the first target signal based on the signal loss information, and obtaining a first doubly-optimized signal includes:

In addition, an embodiment of the present application further provides a computer-readable storage medium, which stores a computer program, and when the computer program is executed by a computer, the computer program can implement the signal processing method of the embodiment shown in fig. 1 to 5. The specific implementation of the signal processing electronics in the above embodiments when implemented has been described in detail in relation to the embodiments of the method, and will not be elaborated upon here.

It is clear to those skilled in the art that, for convenience and brevity of description, the specific working processes of the above-described systems, apparatuses and units may refer to the corresponding processes in the foregoing method embodiments, and are not described herein again.

The above-described embodiments of the apparatus are merely illustrative, and the units described as separate parts may or may not be physically separate, and parts displayed as units may or may not be physical units, may be located in one place, or may be distributed on a plurality of network units. Some or all of the modules may be selected according to actual needs to achieve the purpose of the solution of the present embodiment. One of ordinary skill in the art can understand and implement it without inventive effort.

Through the above description of the embodiments, those skilled in the art will clearly understand that each embodiment can be implemented by software plus a necessary general hardware platform, and certainly can also be implemented by hardware. With this understanding in mind, the above-described technical solutions may be embodied in the form of a software product, which can be stored in a computer-readable storage medium, such as ROM/RAM, magnetic disk, optical disk, etc., and includes instructions for causing a computer electronic device (which may be a personal computer, a server, or a network electronic device, etc.) to execute the method according to the embodiments or some parts of the embodiments.

Finally, it should be noted that: the above embodiments are only used to illustrate the technical solutions of the present application, and not to limit the same; although the present application has been described in detail with reference to the foregoing embodiments, it should be understood by those of ordinary skill in the art that: the technical solutions described in the foregoing embodiments may still be modified, or some technical features may be equivalently replaced; and such modifications or substitutions do not depart from the spirit and scope of the corresponding technical solutions in the embodiments of the present application.

Claims

1. A signal processing system, comprising: the optical module comprises a switch and an optical module which is in communication connection with the switch;

the switch is to:

and forwarding the first target signal.

2. The system according to claim 1, wherein the switch optimizes the reception of the obtained electrical signal based on the signal loss information, and obtaining the first target signal is specifically:

the forwarding, by the switch, the first target signal specifically includes:

sending the first target signal to an optical module;

3. The system of claim 2, wherein the signal loss information comprises signal amplitude loss and/or bit error rate;

4. The system of claim 2, wherein the switch is further configured to:

sending the first optimization instruction to the optical module;

the optical module is used for:

receiving a first optimization instruction sent by the switch;

5. The system of claim 4, wherein the signal loss information comprises signal amplitude loss and/or bit error rate;

6. The system of claim 1, wherein the light module is configured to:

receiving a second optical signal sent by second electronic equipment;

converting the second optical signal to obtain a second electrical signal;

sending the second electrical signal to the switch;

the forwarding, by the switch, the first target signal specifically includes:

and sending the first target signal to the first electronic equipment.

7. The system of claim 6, wherein the signal loss information comprises signal amplitude loss and/or bit error rate;

8. The system of claim 1, wherein the switch optimizes the received obtained electrical signal based on the signal loss information, and wherein obtaining a first target signal comprises:

9. The system according to claim 1, wherein the switch detects the signal loss information of the transmission channel based on the optical module by specifically:

reading module configuration information of the optical module;

10. A signal processing system, comprising: the optical module comprises a switch and an optical module which is in communication connection with the switch;

the switch is to:

sending the second optimization instruction to the optical module;

the optical module is used for:

receiving the second optimization instruction sent by the switch;

and forwarding the second target signal.

11. The system of claim 10, wherein the interaction engine is further configured to:

receiving a third electric signal sent by the first electronic equipment;

forwarding the third electrical signal to the optical module;

the optical module forwarding the second target signal comprises:

12. The system of claim 11, wherein the signal loss information comprises signal amplitude loss and/or bit error rate;

13. The system of claim 10, wherein the light module is further configured to include:

receiving a fourth optical signal sent by the second electronic device;

converting the fourth optical signal to a fourth electrical signal;

sending the second target signal to the switch;

14. The system of claim 13, wherein the signal loss information comprises signal amplitude loss and/or bit error rate;

15. The system according to claim 13, wherein the switch processes the second target signal to obtain a fifth electrical signal is in particular:

determining the second dual optimization signal as a fifth electrical signal.

16. The system of claim 15, wherein the signal loss information comprises signal amplitude loss and/or bit error rate;

17. The system according to claim 13, wherein the switch processes the second target signal to obtain a fifth electrical signal is in particular:

determining the second target signal as the fifth electrical signal.

18. A switch, wherein the switch establishes a communication connection with an optical module, the switch configured to:

and forwarding the first target signal.

19. The switch of claim 18, wherein the switch optimizes reception of the obtained electrical signal based on the signal loss information, and wherein obtaining the first target signal is specifically:

the forwarding the first target signal comprises:

20. The switch of claim 18, wherein the switch is further configured to:

the forwarding, by the switch, the first target signal specifically includes:

and sending the first target signal to the first electronic equipment.

21. The switch of claim 18, wherein the switch detects the signal loss information of the transmission channel based on the optical module by specifically:

reading module configuration information of the optical module;

22. The switch of claim 19, wherein the switch is further configured to:

sending the first optimization instruction to an optical module so that the optical module receives the first optimization instruction, and responding to the first optimization instruction to obtain the signal loss information; receiving the first target signal; based on the signal loss information, optimizing the obtained first target signal to obtain a first double optimized signal, and converting the first double optimized signal into a first optical signal; and sending the first optical signal to a second electronic device.

23. A switch, wherein the switch establishes a communication connection with an optical module; the switch is to:

24. The switch of claim 23, wherein the switch is further configured to:

receiving a third electric signal sent by the first electronic equipment;

25. The switch of claim 24, wherein the switch is further configured to:

receiving a second target signal sent by the optical module;

processing the second target signal to obtain a fifth electrical signal;

and sending the fifth electric signal to the first electronic equipment.

26. The switch according to claim 25, characterized in that said switch processes said second target signal to obtain a fifth electric signal is in particular:

determining the second dual optimization signal as a fifth electrical signal.

27. The switch according to claim 25, characterized in that said switch processes said second target signal to obtain a fifth electric signal is in particular:

determining the second target signal as a fifth electrical signal.

28. An optical module, wherein the optical module establishes a communication connection with a switch; the optical module is used for:

processing the second target signal.

29. The light module of claim 28, wherein the light module is further configured to:

receiving a third electric signal sent by the switch; the third electric signal is sent to a switch by the first electronic equipment and is forwarded to the optical module by the switch;

the optical module processing the second target signal comprises:

30. The light module of claim 28, wherein the light module is configured to:

receiving a fourth optical signal sent by the second electronic device;

converting the fourth optical signal to a fourth electrical signal;

31. An optical module, wherein the optical module establishes a communication connection with a switch;

the optical module is used for:

receiving a first target signal sent by a switch; the first target signal is obtained by the switch detecting signal loss information of a transmission channel based on the optical module and optimizing a first electric signal received and obtained from first electronic equipment;

processing the first target signal to obtain a first optical signal;

and sending the first optical signal to a second electronic device.

32. The light module of claim 31, further comprising:

responding to the first optimization instruction to obtain signal loss information;

converting the first double optimized signal into a first optical signal.

33. The optical module of claim 31, wherein the processing of the first target signal by the optical module to obtain the first optical signal is specifically:

the first target signal is converted into a first optical signal.