CN119364230A

CN119364230A - Uplink signal transmission method, device, equipment, storage medium and program product

Info

Publication number: CN119364230A
Application number: CN202411920332.1A
Authority: CN
Inventors: 金嘉亮; 张德智
Original assignee: China Telecom Technology Innovation Center; China Telecom Corp Ltd
Current assignee: China Telecom Technology Innovation Center; China Telecom Corp Ltd
Priority date: 2024-12-25
Filing date: 2024-12-25
Publication date: 2025-01-24
Anticipated expiration: 2044-12-25
Also published as: CN119364230B

Abstract

The present application relates to an uplink signal transmission method, apparatus, device, storage medium and program product. The uplink receiving system comprises a mode selection module, a time division routing module and a branching switch module, wherein the mode selection module, the time division routing module and the branching switch module are respectively in communication connection with the access network management system, the mode selection module is used for carrying out wavelength division processing on uplink optical signals according to first wavelength division control signals and outputting first uplink electric signals and second uplink electric signals, the time division routing module is used for disconnecting the branching switch module according to the second wavelength division control signals and receiving and outputting the first uplink electric signals, and the branching switch module is used for receiving and outputting the second uplink electric signals according to third wavelength division control signals. The application can realize smooth switching for coexistence of two generations of wave division of 10G-EPON/50G-PON after the uplink receiving system is disconnected from the EPON terminal with smaller cost expenditure.

Description

Uplink signal transmission method, device, equipment, storage medium and program product

Technical Field

The present application relates to the field of signal transmission technologies, and in particular, to an uplink signal transmission method, apparatus, device, storage medium, and program product.

Background

The existing Network EPON (ETHERNET PASSIVE Optical Network) system comprises 10G-EPON and 50G-PON, most of EPON terminals have uplink wavelengths which are not narrowed (1260 nm-1360 nm), and all conflict with three uplink wavelength options defined by the 50G-PON (Passive Optical Network ) standard, so that uplink time division technology is required to achieve coexistence of the EPON, 10G-EPON and 50G-PON with ODN (Optical Distribution Network ) of the third generation system. Because the uplink rates of different generation-based PONs are greatly different, the practical uplink bandwidth of the 50G-PON is greatly limited by the mode, the ultra-high uplink capacity of the 50G-PON cannot be fully exerted, and the service requirements of high-value clients cannot be met.

As the EPON terminal continues to drop out of the network, it eventually evolves into two generations of coexistence of 10G-EPON and 50G-PON. Since the 10G-EPON and the 50G-PON have no wavelength conflict, the method can be restored to an uplink wavelength coexistence (WAVELENGTH MULTIPLEXING COEXISTENCE) mode, the respective uplink bandwidths are not mutually influenced, and the advantage of the capability of the 50G-PON for the uplink super-large bandwidth is restored.

However, if the existing architecture needs to be restored to the coexistence of uplink wave components, the OLT needs to be replaced, and the cost expenditure is high.

Disclosure of Invention

Based on this, it is necessary to provide an uplink signal transmission method, device, equipment, storage medium and program product for implementing smooth switching for coexistence of two generations of wavelength division of 10G-EPON/50G-PON after an EPON terminal is disconnected, and further fully exerting higher uplink bandwidth capabilities of 10G-EPON and 50G-PON.

In a first aspect, the present application provides an uplink receiving system, where the uplink receiving system includes a mode selection module, a time division routing module, and a branching switch module, where the mode selection module, the time division routing module, and the branching switch module are respectively connected with an access network management system in a communication manner;

The system comprises a mode selection module, a first uplink signal and a second uplink signal, wherein the mode selection module is used for performing wavelength division processing on uplink optical signals according to a first wavelength division control signal and outputting the first uplink signal and the second uplink signal;

The time division path module is used for disconnecting the connection with the branching switch module according to the second wavelength division control signal, and receiving and outputting a first uplink electric signal;

The shunt switch module is used for receiving and outputting a second uplink electric signal according to the third wavelength division control signal;

The first wavelength division control signal, the second wavelength division control signal and the third wavelength division control signal are all transmitted after the access network management system determines to transmit signals in a wavelength division coexistence mode.

In one embodiment, the mode selection module is configured to convert the uplink optical signal into a total uplink electrical signal according to the first time division control signal;

the time division switching module is used for carrying out time division processing on the total uplink electric signals according to the second time division control signals to obtain first uplink electric signals and second uplink electric signals, conducting connection with the branching switch module, and outputting the first uplink electric signals or transmitting the second uplink electric signals to the branching switch module according to uplink time slot scheduling distribution information;

the first time division control signal, the second time division control signal and the third time division control signal are all sent after the access network management system determines that the signals are transmitted by adopting a time division coexistence mode.

In one embodiment, the mode selection module includes an optical switch, a wavelength division module, a first opto-electronic component, and a second opto-electronic component;

The optical switch is used for switching on the wavelength division module according to the first wavelength division control signal and transmitting the uplink optical signal to the wavelength division module;

The wavelength division module is used for carrying out wavelength division processing on the uplink optical signals, respectively transmitting first wavelength division signals to the first photoelectric component and transmitting second wavelength division signals to the second photoelectric component;

The first photoelectric component is used for converting the first wave-splitting signal into a first uplink electric signal and transmitting the first uplink electric signal to the time division routing module;

The second photoelectric assembly is used for converting the second wave beam splitting signal into a second uplink electric signal and transmitting the second uplink electric signal to the shunt switch module.

In one embodiment, the optical switch is further configured to switch on the first optical-electrical component according to the first time division control signal, and transmit an uplink optical signal to the first optical-electrical component;

the first photoelectric assembly is used for converting the uplink optical signal into a total uplink electric signal and transmitting the total uplink electric signal to the time division routing module.

In one embodiment, the uplink receiving system further comprises a terminal chip, and the terminal chip is connected with the time division routing module;

And the terminal chip is used for outputting the uplink time slot scheduling allocation information to the time division routing module.

In a second aspect, the present application provides an uplink signal transmission method, applied to an access network management system, where the method includes:

after determining to transmit signals by adopting a wavelength division coexistence mode, transmitting a first wavelength division control signal to a mode selection module of an uplink receiving system, wherein the first wavelength division control signal is used for controlling the mode selection module to perform wavelength division processing on uplink optical signals and outputting a first uplink electric signal and a second uplink electric signal, and the first uplink electric signal and the second uplink electric signal correspond to uplink optical signals with different wavelengths;

Transmitting a second wavelength division control signal to a time division routing module of an uplink receiving system; the second wavelength division control signal is used for controlling the time division switching module to disconnect the connection with the branching switch module of the uplink receiving system and receiving and outputting a first uplink electric signal;

and sending a third wavelength division control signal to the shunt switch module, wherein the third wavelength division control signal is used for controlling the shunt switch module to receive and output a second uplink electric signal.

In one embodiment, the method further comprises:

After determining that the time division coexistence mode is adopted to transmit signals, transmitting a first time division control signal to a mode selection module, wherein the first time division control signal is used for controlling the mode selection module to convert uplink optical signals into total uplink electric signals;

The time division control signal is used for controlling the time division selection module to perform time division processing on the total uplink electric signals to obtain first uplink electric signals and second uplink electric signals, conducting connection with the shunt switch module and outputting the first uplink electric signals or transmitting the second uplink electric signals to the shunt switch module according to uplink time slot scheduling distribution information;

And sending a third time division control signal to the shunt switch module, wherein the third time division control signal is used for controlling the shunt switch module to receive and output a second uplink electric signal.

In a third aspect, the present application provides an uplink signal transmission apparatus, including:

The system comprises a first signal transmitting module, a mode selecting module, a first signal receiving module and a second signal receiving module, wherein the first signal transmitting module is used for transmitting a first wavelength division control signal to the mode selecting module of an uplink receiving system after determining that a wavelength division coexistence mode is adopted for transmitting the signal;

The second signal sending module is used for sending a second wavelength division control signal to the time division routing module of the uplink receiving system, wherein the second wavelength division control signal is used for controlling the time division routing module to disconnect the connection with the branching switch module of the uplink receiving system and receiving and outputting a first uplink electric signal;

and the third signal sending module is used for sending a third wavelength division control signal to the branching switch module, wherein the third wavelength division control signal is used for controlling the branching switch module to receive and output a second uplink electric signal.

In a fourth aspect, the present application also provides a computer device comprising a memory and a processor, the memory storing a computer program, the processor implementing the following steps when executing the computer program:

In a fifth aspect, the present application also provides a computer readable storage medium having stored thereon a computer program which when executed by a processor performs the steps of:

In a sixth aspect, the application also provides a computer program product comprising a computer program which, when executed by a processor, performs the steps of:

The uplink signal transmission method, the device, the equipment, the storage medium and the program product comprise a mode selection module, a time division routing module and a branching switch module, wherein the mode selection module carries out wavelength division processing on uplink optical signals according to a first wavelength division control signal and outputs first uplink electrical signals and second uplink electrical signals, the first uplink electrical signals and the second uplink electrical signals correspond to uplink optical signals with different wavelengths, the time division routing module disconnects the branching switch module according to the second wavelength division control signal and receives and outputs the first uplink electrical signals, and the branching switch module receives and outputs the second uplink electrical signals according to a third wavelength division control signal. In the technical scheme of the embodiment of the application, the uplink receiving system is introduced with the mode selection module, the time division routing module and the branching switch module, and the cost expenditure of the modules is smaller, so that the uplink receiving system can realize the smooth switching of coexistence of two generations of wave division facing to 10G-EPON/50G-PON after the EPON terminal is disconnected, and can fully exert higher uplink bandwidth capacity of 10G-EPON and 50G-PON.

Drawings

In order to more clearly illustrate the embodiments of the present application or the technical solutions in the related art, the drawings that are required to be used in the embodiments or the related technical descriptions will be briefly described, and it is apparent that the drawings in the following description are only some embodiments of the present application, and other drawings may be obtained according to the drawings without inventive effort for those skilled in the art.

Fig. 1 is a schematic diagram of a conventional art EPON, 10G-EPON, and 50G-PON with uplink wavelength conflicts;

FIG. 2 is a schematic diagram of an uplink receiving system in one embodiment;

FIG. 3 is a second schematic diagram of an uplink receiving system according to one embodiment;

FIG. 4 is a third schematic diagram of an uplink receiving system according to one embodiment;

FIG. 5 is a schematic diagram of an uplink receiving system in one embodiment;

FIG. 6 is a schematic diagram of an uplink receiving system according to one embodiment;

FIG. 7 is a flow chart of an uplink signal transmission method according to one embodiment;

FIG. 8 is a flow chart of an uplink signal transmission method according to another embodiment;

FIG. 9 is a block diagram of an upstream signal transmission device in one embodiment;

Fig. 10 is an internal structural view of a computer device in one embodiment.

Detailed Description

The present application will be described in further detail with reference to the drawings and examples, in order to make the objects, technical solutions and advantages of the present application more apparent. It should be understood that the specific embodiments described herein are for purposes of illustration only and are not intended to limit the scope of the application.

Before the technical scheme of the embodiment of the application is specifically introduced, the technical background or technical evolution context based on the embodiment of the application is introduced.

The 50G-PON is a key technology for realizing a base of a 'tera' optical access network, and is also a core technology for guaranteeing sustainable evolution of an operator in a very large scale 10G-PON and continuously providing higher-speed broadband access capability. The 50G-PON is used as a next-generation high-speed PON technology, can provide flexible high-speed bandwidth access capability for cloud network fusion new application, virtual Reality (VR), augmented Reality (Augmented Reality, AR), machine vision, metauniverse, digital twin and other scenes, and further improves the digital level of the whole society.

The 50G-PON system architecture supports rate combining of multiple ONUs (Optical Network Unit, optical network units), such as asymmetric 50G/12.5G, asymmetric 50G/25G, symmetric 50G/50G, by using upstream TDMA (Time Division Multiple Access )/downstream TDM (Time Division Multiplex, time division multiplexing).

The existing network EPON system comprises EPON and 10G-EPON, and the coexisting evolution of 50G-PON is required. However, most EPON terminals have their upstream wavelengths not narrowed (1260 nm to 1360 nm) and occupy the upstream and downstream wavelength ranges of 50G-PON. In addition, the uplink wavelength of the 10G-EPON terminal of the existing network is various due to different standards referenced in different periods, and the uplink wavelength of the asymmetric 10G-EPON terminal conforming to the IEEE standard is 1260-1360 nm and cannot coexist with the 50G-PON. As shown in fig. 1, the wavelengths of the EPON and 10G-EPON terminals of the existing network are narrowed and not narrowed, and have a conflict relationship with the uplink and downlink wavelengths of the 50G-PON. Therefore, the coexistence of EPON/10GE-PON and 50G-PON is currently realized based on an uplink time division multiplexing mode.

With the further promotion of gigabit broadband construction and popularization work, the natural gradual network withdrawal of the existing network EPON terminal is a necessary process. As the EPON terminal continuously exits the network, the two generations of coexistence of 10G-EPON and 50G-PON are finally developed, and as the 10G-EPON and 50G-PON have no wavelength conflict, the coexistence mode of uplink wavelength components can be restored theoretically, the respective uplink bandwidths are not affected, and the advantage of the capability of the uplink ultra-large bandwidth of the 50G-PON is restored.

However, if the existing architecture needs to be restored to the coexistence of upstream components, the OLT (Optical LINE TERMINAL) needs to be replaced, and the cost is relatively high.

In view of the above problems, an embodiment of the present application provides an uplink receiving system. The uplink receiving system introduces a mode selection module, a time division routing module and a branching switch module, and the cost expenditure of the modules is small, so that the uplink receiving system can realize smooth switching of coexistence of two generations of wave division of 10G-EPON/50G-PON after the EPON terminal is disconnected, and can fully exert higher uplink bandwidth capacity of 10G-EPON and 50G-PON.

The following describes a technical scheme related to the embodiment of the application.

In one exemplary embodiment, as shown in fig. 2, an uplink receiving system is provided. The uplink receiving system comprises a mode selection module 11, a time division routing module 12 and a branching switch module 13, wherein the mode selection module 11, the time division routing module 12 and the branching switch module 13 are respectively in communication connection with an access network management system (the access network management system is not shown in the figure), the mode selection module 11 is used for performing wavelength division processing on uplink optical signals according to a first wavelength division control signal to output a first uplink electric signal and a second uplink electric signal, the first uplink electric signal and the second uplink electric signal correspond to uplink optical signals with different wavelengths, the time division routing module 12 is used for disconnecting the connection with the branching switch module 13 according to the second wavelength division control signal and receiving and outputting the first uplink electric signal, the branching switch module 13 is used for receiving and outputting the second uplink electric signal according to a third wavelength division control signal, and the first wavelength division control signal, the second wavelength division control signal and the third wavelength division control signal are sent after the access network management system determines that the transmission signals adopting the wavelength division mode are adopted.

In the embodiment of the application, the access network management system stores the terminal information of the EPON terminal, the 10G-EPON terminal and the 50G-PON terminal, and determines that the uplink receiving system can transmit signals in a wavelength division coexistence mode after determining that all the EPON terminals are off-line according to the terminal information. In this case, the access network management system transmits a wavelength division control signal to the uplink reception system.

The uplink receiving system may include a mode selection module 11, a time division routing module 12, and a branching switch module 13, where the mode selection module 11, the time division routing module 12, and the branching switch module 13 are respectively communicatively connected to the access network management system. When transmitting the wavelength division control signals, the access network management system transmits the first wavelength division control signals to the mode selection module 11, transmits the second wavelength division control signals to the time division routing module 12, and transmits the third wavelength division control signals to the branching switch module 13.

It should be noted that, the access network management system may send the first wavelength division control signal, the second wavelength division control signal, and the third wavelength division control signal at the same time, or may send the first wavelength division control signal, the second wavelength division control signal, and the third wavelength division control signal in a preset order.

The mode selection module 11 of the uplink receiving system receives the first wavelength division control signal and the uplink optical signal, performs wavelength division processing on the uplink optical signal according to the first wavelength division control signal to obtain uplink optical signals with different wavelengths, and then performs photoelectric conversion processing on the uplink optical signals with different wavelengths to obtain a first uplink electrical signal and a second uplink electrical signal.

The time division routing module 12 of the uplink receiving system receives the first uplink electrical signal and the second wavelength division control signal, and when the second wavelength division control signal is disconnected, the communication connection between the routing module 12 and the branching switch module 13 is selected, and outputs the first uplink electrical signal.

The branching switch module 13 of the uplink receiving system receives the second uplink electrical signal and the third wavelength division control signal, and outputs the second uplink electrical signal according to the third wavelength division control signal.

Taking an EPON terminal as an example, after the network is removed, the uplink optical signals include a 50G-PON uplink optical signal and a 10G-EPON uplink optical signal, the mode selection module 11 receives the first wavelength division control signal and the uplink optical signal, performs wavelength division processing on the uplink optical signal according to the first wavelength division control signal to obtain a 50G-PON uplink optical signal and a 10G-EPON uplink optical signal, and performs photoelectric conversion processing on the 50G-PON uplink optical signal and the 10G-EPON uplink optical signal to obtain a 50G-PON uplink electrical signal and a 10G-EPON uplink electrical signal. Then, the mode selection module 11 outputs a 50G-PON upstream electrical signal to the time division routing module 12 and outputs a 10G-EPON upstream optical signal to the branching switch module 13.

The time division multiplexing module 12 receives the second wavelength division control signal and the 50G-PON upstream signal, cuts off the communication connection with the branching switching module 13 according to the second wavelength division control signal, and outputs the 50G-PON upstream signal.

The branching switch module 13 receives the third wavelength division control signal and the 10G-EPON uplink electrical signal, and outputs the 10G-EPON uplink electrical signal according to the third wavelength division control signal.

In the embodiment, the uplink receiving system comprises a mode selection module, a time division routing module and a branching switch module, wherein the mode selection module carries out wavelength division processing on uplink optical signals according to a first wavelength division control signal and outputs a first uplink electrical signal and a second uplink electrical signal, the first uplink electrical signal and the second uplink electrical signal correspond to uplink optical signals with different wavelengths, the time division routing module disconnects the branching switch module according to the second wavelength division control signal and receives and outputs the first uplink electrical signal, and the branching switch module receives and outputs the second uplink electrical signal according to a third wavelength division control signal. In the technical scheme of the embodiment of the application, the uplink receiving system is introduced with the mode selection module, the time division routing module and the branching switch module, and the cost expenditure of the modules is smaller, so that the uplink receiving system can realize the smooth switching of coexistence of two generations of wave division facing to 10G-EPON/50G-PON after the EPON terminal is disconnected, and can fully exert higher uplink bandwidth capacity of 10G-EPON and 50G-PON.

In an exemplary embodiment, as shown in fig. 3, the mode selection module 11 is configured to convert an uplink optical signal into a total uplink electrical signal according to a first time division control signal, the time division routing module 12 is configured to perform time division processing on the total uplink electrical signal according to a second time division control signal to obtain a first uplink electrical signal and a second uplink electrical signal, conduct connection with the branching switch module 13, output the first uplink electrical signal according to uplink time slot scheduling allocation information or transmit the second uplink electrical signal to the branching switch module 13, and the branching switch module 13 is configured to receive and output the second uplink electrical signal according to a third wavelength division control signal, where the first time division control signal, the second time division control signal, and the third time division control signal are all sent after the access network management system determines that the signal is transmitted in a time division coexistence mode.

In the embodiment of the application, the access network management system stores the terminal information of the EPON terminal, the 10G-EPON terminal and the 50G-PON terminal, and if the EPON terminal is determined not to be out of the network according to the terminal information, the uplink receiving system is determined to transmit signals in a time division coexistence mode. In this case, the access network management system transmits the first time division control signal to the mode selection module 11 of the uplink reception system, the second time division control signal to the time division routing module 12, and the third time division control signal to the branching switch module 13, respectively.

It should be noted that, the access network management system may send the first time division control signal, the second time division control signal, and the third time division control signal at the same time, or may send the first time division control signal, the second time division control signal, and the third time division control signal in a preset order.

The mode selection module 11 receives the first time division control signal and the uplink optical signal, and then the mode selection module 11 converts the uplink optical signal into a total uplink electrical signal according to the first time division control signal.

The time division multiplexing module 12 receives the second time division control signal and the total uplink electric signal, conducts the communication connection with the branching switch module 13 according to the second time division control signal, and performs time division processing on the total uplink electric signal according to the second time division control signal to obtain a first uplink electric signal and a second uplink electric signal. Thereafter, the time division routing module 12 outputs the first uplink electrical signal according to the uplink time slot scheduling assignment information acquired in advance, or transmits the second uplink electrical signal to the branching switch module 13. The uplink timeslot scheduling allocation information is used to indicate the operation mode of the timeslot selective channel module 12, which includes the time range of each time slice, and the signal type output by each time slice.

The branching switch module 13 receives the third wavelength division control signal and the second uplink electrical signal, and outputs the second uplink electrical signal according to the third wavelength division control signal.

Taking an EPON terminal with no network withdrawal, the uplink optical signals include at least two of an EPON uplink optical signal, a 10G-EPON uplink optical signal, and a 50G-PON uplink optical signal as an example, the mode selection module 11 receives the first time division control signal and the uplink optical signal, and then converts the uplink optical signal into a total uplink electrical signal according to the first time division control signal, and outputs the total uplink electrical signal. The total upstream electrical signals include at least two of an EPON upstream electrical signal, a 10G-EPON upstream electrical signal, and a 50G-PON upstream electrical signal.

The time division switching module 12 receives the second time division control signal and the total uplink electric signal, outputs the 50G-PON uplink electric signal in the first time slice according to the uplink time slot scheduling allocation information, and outputs the EPON uplink electric signal or the 10G-EPON uplink electric signal to the branching switching module 13 in the second time slice. Or the time division and separation module 12 outputs a 50G-PON uplink signal in a first time slice according to uplink time slot scheduling allocation information, outputs an EPON uplink signal to the branching switch module 13 in a second time slice, and outputs a 10G-EPON uplink signal to the branching switch module 13 in a third time slice. For example, the time division routing module 12 outputs a 50G-PON upstream signal at time t0 according to the upstream time slot scheduling allocation information, outputs a 10G-EPON upstream signal to the branching switch module 13 at time t1, outputs an EPON upstream signal to the branching switch module 13 at time t2, and then outputs signals in the order described above at t3..

The branching switch module 13 receives the third wavelength division control signal and the second uplink electric signal, and outputs a 10G-EPON uplink electric signal in time slices at t1 and an EPON uplink electric signal in time slices at t2 according to the third wavelength division control signal.

Note that, the output modes of the EPON uplink electric signal, the 10G-EPON uplink electric signal, and the 50G-PON uplink electric signal are not limited to the above examples, and may be set according to actual situations.

In the embodiment, the mode selection module converts the uplink optical signal into the total uplink electrical signal according to the first time division control signal, the time division routing module performs time division processing on the total uplink electrical signal according to the second time division control signal to obtain the first uplink electrical signal and the second uplink electrical signal, conducts connection with the branching switch module, outputs the first uplink electrical signal according to the uplink time slot scheduling distribution information or transmits the second uplink electrical signal to the branching switch module, and the branching switch module receives and outputs the second uplink electrical signal according to the third wavelength division control signal. In the technical scheme of the embodiment of the application, the uplink receiving system adopts the mode selection module, the time division routing module and the branching switch module, so that the flexible switching of the time division coexistence mode and the wavelength division coexistence mode can be realized, the support is provided for the smooth evolution and the upgrading of the network in the network withdrawal process of the EPON terminal, the network investment of operators is protected, and the service requirements of high-value customers of the existing network are met.

In an exemplary embodiment, as shown in fig. 4, the mode selection module 11 includes an optical switch 111, a wavelength division module 112, a first optical-electrical component 113 and a second optical-electrical component 114, the optical switch 111 is configured to switch on the wavelength division module 112 according to a first wavelength division control signal and transmit an uplink optical signal to the wavelength division module 112, the wavelength division module 112 is configured to perform wavelength division processing on the uplink optical signal and transmit a first wavelength division optical signal to the first optical-electrical component 113 and a second wavelength division optical signal to the second optical-electrical component 114, respectively, the first optical-electrical component 113 is configured to convert the first wavelength division optical signal into a first uplink electrical signal and transmit the first uplink electrical signal to the time division routing module 12, and the second optical-electrical component 114 is configured to convert the second wavelength division optical signal into a second uplink electrical signal and transmit the second uplink electrical signal to the branching switch module 13.

In the embodiment of the present application, the mode selection module 11 includes an optical switch 111, a wavelength division module 112, a first photoelectric component 113 and a second photoelectric component 114.

When it is determined that the uplink receiving system transmits signals in the coexistence mode of wavelength division, the access network management system transmits first wavelength division control signals to the mode selection module 11, transmits second wavelength division control signals to the time division routing module 12, and transmits third wavelength division control signals to the branching switch module 13.

The optical switch 111 of the mode selection module 11 receives the first wavelength division control signal and the uplink optical signal, turns on the connection with the wavelength division module 112 according to the first wavelength division control signal, and transmits the uplink optical signal to the wavelength division module 112. The wavelength division module 112 performs wavelength division processing on the uplink optical signal to obtain a first wavelength division signal and a second wavelength division signal. Wherein the wavelengths corresponding to the first and second wave split signals are different. The wavelength division module 112 then transmits the first wavelength division signal to the first optoelectronic device 113, and transmits the second wavelength division signal to the second optoelectronic device 114. The first photoelectric component 113 performs photoelectric conversion processing on the first wave-split optical signal to obtain a first uplink electrical signal, and transmits the first uplink electrical signal to the time division routing module 12. The second photoelectric component 114 performs photoelectric conversion processing on the second wave split optical signal to obtain a second uplink electric signal, and transmits the second uplink electric signal to the shunt switch module 13.

The time division multiplexing module 12 receives the second wavelength division control signal and the first uplink electric signal, cuts off the connection with the branching switching module 13 according to the second wavelength division control signal, and outputs the first uplink electric signal.

Taking an EPON terminal as an example, after the network is removed, the uplink optical signal includes a 50G-PON uplink optical signal and a 10G-EPON uplink optical signal, and the optical switch 111 of the mode selection module 11 receives the first wavelength division control signal and the uplink optical signal, conducts connection with the wavelength division module 112 according to the first wavelength division control signal, and transmits the uplink optical signal to the wavelength division module 112. The wavelength division module 112 performs wavelength division processing on the uplink optical signal to obtain a 50G-PON uplink optical signal and a 10G-EPON uplink optical signal, and then transmits the 50G-PON uplink optical signal to the first optical-electrical component 113 and the 10G-EPON uplink optical signal to the second optical-electrical component 114. The first photoelectric component 113 performs photoelectric conversion processing on the 50G-PON upstream optical signal to obtain a 50G-PON upstream electrical signal, and outputs the 50G-PON upstream electrical signal to the time division routing module 12. The second photoelectric component 114 performs photoelectric conversion processing on the 10G-EPON uplink optical signal to obtain a 10G-EPON uplink electrical signal, and outputs the 10G-EPON uplink optical signal to the shunt switch module 13.

In some embodiments, the first and second photo-assemblies 113 and 114 each include an avalanche photo-detector APD and a low noise transimpedance amplifier TIA. The avalanche photodetector APD can convert optical signals into electric signals, the low-noise transimpedance amplifier TIA can perform noise reduction and amplification treatment on the electric signals, the quality of the electric signals is improved, and subsequent signal transmission is facilitated.

Note that the structures of the first photoelectric element 113 and the second photoelectric element 114 are not limited to the above examples, and may be set according to actual situations.

In the embodiment, the mode selection module comprises an optical switch, a wavelength division module, a first photoelectric component and a second photoelectric component, wherein the optical switch is connected with the wavelength division module according to a first wavelength division control signal and transmits an uplink optical signal to the wavelength division module, the wavelength division module carries out wavelength division processing on the uplink optical signal and respectively transmits the first wavelength division signal to the first photoelectric component and transmits a second wavelength division signal to the second photoelectric component, the first photoelectric component converts the first wavelength division signal into a first uplink electric signal and transmits the first uplink electric signal to the time division routing module, and the second photoelectric component converts the second wavelength division signal into a second uplink electric signal and transmits the second uplink electric signal to the branching switch module. In the technical scheme of the embodiment of the application, the mode selection module adopts the optical switch, the wavelength division module, the first photoelectric component and the second photoelectric component to realize the function of performing wavelength division processing on the uplink optical signal, so that after the Ethernet of the EPON terminal is removed, the uplink receiving system can realize smooth switching of coexistence of two generations of wavelength division oriented to 10G-EPON/50G-PON, and can fully play the higher uplink bandwidth capacity of 10G-EPON and 50G-PON. And the expenditure costs of the optical switch, the wavelength division module, the first photoelectric component and the second photoelectric component are lower, so that the investment cost of network construction of operators can be saved.

In an exemplary embodiment, as shown in fig. 5, the optical switch 111 is further configured to switch on the first optical-electrical component 113 according to the first time division control signal and transmit the uplink optical signal to the first optical-electrical component 113, and the first optical-electrical component 113 is configured to convert the uplink optical signal into a total uplink electrical signal and transmit the total uplink electrical signal to the time division routing module 12.

In the embodiment of the application, the access network management system determines that all EPON terminals do not drop off the network according to the terminal information of the EPON terminals, the 10G-EPON terminals and the 50G-PON terminals, and determines that the uplink receiving system adopts a time division coexistence mode to transmit signals. In this case, the access network management system sends a first time division control signal to the mode selection module 11, a second time division control signal to the time division routing module 12, and a third time division control signal to the branching switch module 13, respectively.

The optical switch 111 of the mode selection module 11 receives the uplink optical signal and the first time division control signal, conducts the connection with the first photoelectric component 113 according to the first time division control signal, and transmits the uplink optical signal to the first photoelectric component 113. The first photoelectric component 113 performs photoelectric conversion on the uplink optical signal to obtain a total uplink electrical signal, and transmits the total uplink electrical signal to the time division routing module 12.

The time division multiplexing module 12 receives the second time division control signal and the total uplink electric signal, conducts the communication connection with the branching switch module 13 according to the second time division control signal, and performs time division processing on the total uplink electric signal according to the second time division control signal to obtain a first uplink electric signal and a second uplink electric signal. Thereafter, the time division routing module 12 outputs the first uplink electrical signal according to the uplink time slot scheduling assignment information acquired in advance, or transmits the second uplink electrical signal to the branching switch module 13.

Taking an EPON terminal with no network drop, the uplink optical signal includes at least two of an EPON uplink optical signal, a 10G-EPON uplink optical signal, and a 50G-PON uplink optical signal as an example, the optical switch 111 of the mode selection module 11 receives a first time division control signal and the uplink optical signal, and transmits the uplink optical signal to the first photoelectric assembly 113 according to the first time division control signal, and the first photoelectric assembly 113 converts the uplink optical signal into a total uplink electrical signal and outputs the total uplink electrical signal. The total upstream electrical signals include at least two of an EPON upstream electrical signal, a 10G-EPON upstream electrical signal, and a 50G-PON upstream electrical signal.

In the embodiment, the optical switch is connected with the first photoelectric assembly according to the first time division control signal and transmits the uplink optical signal to the first photoelectric assembly, and the first photoelectric assembly converts the uplink optical signal into the total uplink electric signal and transmits the total uplink electric signal to the time division routing module. In the technical scheme of the embodiment of the application, the mode selection module adopts the optical switch, the wavelength division module, the first photoelectric component and the second photoelectric component, so that the flexible switching of the time division coexistence mode and the wavelength division coexistence mode can be realized, support is provided for the smooth evolution and upgrading of the network in the Ethernet withdrawal process of the EPON terminal, the network investment of operators is protected, and the service requirements of high-value customers of the existing network are met.

In an exemplary embodiment, as shown in fig. 6, the uplink receiving system further includes a terminal chip 14, where the terminal chip 14 is connected to the time division routing module 12, and the terminal chip 14 is configured to output uplink time slot scheduling allocation information to the time division routing module 12.

In the embodiment of the present application, the uplink receiving system further includes a terminal chip 14, where the terminal chip 14 is connected to the time division routing module 12. The terminal chip 14 may preset uplink time slot scheduling allocation information, generate uplink time slot scheduling allocation information according to the first uplink electrical signal output by the time division multiplexing module 12 and the second uplink electrical signal output by the branching switch module 13, and correct the uplink time slot scheduling allocation information according to the first uplink electrical signal output by the time division multiplexing module 12 and the second uplink electrical signal output by the branching switch module 13 to obtain corrected uplink time slot scheduling allocation information.

In practical applications, the terminal chip 14 may send the uplink timeslot scheduling allocation information to the time division routing module 12 before the time division routing module 12 works. Or the time division routing module 12 sends request information to the terminal chip 14 after receiving the first time division control signal, and the terminal chip 14 receives the request information and sends uplink time slot scheduling allocation information to the time division routing module 12 according to the request information.

The generation method and transmission method of the uplink time slot scheduling allocation information are not limited to the above examples, and may be set according to actual situations.

In the above embodiment, the uplink receiving system further includes a terminal chip, and the terminal chip outputs uplink time slot scheduling allocation information to the time division routing module. In the technical scheme of the embodiment of the application, the terminal chip outputs the uplink time slot scheduling allocation information, so that the operation mode of the time-division selecting module can be controlled, and different uplink electric signals can be better output.

In an exemplary embodiment, as shown in fig. 7, an uplink signal transmission method is provided, which is illustrated by using a method applied to an access network management system as an example, and may include the following steps:

Step 201, after determining to transmit a signal in the coexistence mode of wavelength division, transmitting a first wavelength division control signal to a mode selection module of an uplink receiving system.

The first wavelength division control signal is used for controlling the mode selection module to perform wavelength division processing on the uplink optical signals and outputting a first uplink electric signal and a second uplink electric signal, wherein the first uplink electric signal and the second uplink electric signal correspond to uplink optical signals with different wavelengths.

The access network management system can determine that the uplink receiving system adopts the wavelength division coexistence mode to transmit signals under the condition that the access network management system receives the mode switching requirement issued by the upper network management system. Or the access network management system stores terminal information of the EPON terminal, the 10G-EPON terminal and the 50G-PON terminal, and after determining that all the EPON terminals are off-line according to the terminal information, the uplink receiving system can be determined to transmit signals in a wavelength division coexistence mode.

After determining that the uplink receiving system adopts the wavelength division coexistence mode to transmit signals, the access network management system respectively transmits first wavelength division control signals to a mode selection module of the uplink receiving system.

The mode selection module receives the first wavelength division control signal and the uplink optical signal, performs wavelength division processing on the uplink optical signal according to the first wavelength division control signal to obtain uplink optical signals with different wavelengths, and performs photoelectric conversion processing on the uplink optical signals with different wavelengths to obtain a first uplink electrical signal and a second uplink electrical signal.

The time-division path selecting module receives the first uplink electric signal and the second wavelength division control signal, and when the second wavelength division control signal is disconnected, the time-division path selecting module is in communication connection with the branching switch module and outputs the first uplink electric signal.

The branching switch module receives the second uplink electric signal and the third wavelength division control signal, and outputs the second uplink electric signal according to the third wavelength division control signal.

In some embodiments, the "sending the first wavelength division control signal to the mode selection module of the uplink receiving system" may include sending the first wavelength division control signal to an optical switch of the mode selection module.

The mode selection module comprises an optical switch, a wavelength division module, a first photoelectric component and a second photoelectric component. And the access network management system sends the first wavelength division control module sent to the uplink receiving system to the optical switch.

The optical switch receives the first wavelength division control signal and the uplink optical signal, conducts connection with the wavelength division module according to the first wavelength division control signal, and transmits the uplink optical signal to the wavelength division module. The wavelength division module performs wavelength division processing on the uplink optical signal to obtain a first wavelength division signal and a second wavelength division signal. And then, the wavelength division module transmits the first wavelength division signal to the first photoelectric component and transmits the second wavelength division signal to the second photoelectric component. The first photoelectric component performs photoelectric conversion processing on the first wave splitting signal to obtain a first uplink electric signal, and transmits the first uplink electric signal to the time division routing module. And the second photoelectric assembly performs photoelectric conversion processing on the second wave splitting signal to obtain a second uplink electric signal, and transmits the second uplink electric signal to the shunt switch module.

Step 202, a second wavelength division control signal is sent to a time division routing module of the uplink receiving system.

The second wavelength division control signal is used for controlling the time division switching module to disconnect the connection with the branching switch module of the uplink receiving system and receiving and outputting a first uplink electric signal;

The access network management system sends a second wavelength division control signal to the time division routing module. The time division switching module receives the second wavelength division control signal and the first uplink electric signal output by the mode selection module, cuts off the connection with the branching switch module according to the second wavelength division control signal, and outputs the first uplink electric signal.

Step 203, sending a third wavelength division control signal to the shunt switch module.

The third wavelength division control signal is used for controlling the shunt switch module to receive and output a second uplink electric signal.

The access network management system sends a third wavelength division control signal to the shunt switch module. The branching switch module receives the third wavelength division control signal and the second uplink electric signal output by the mode selection module, and outputs the second uplink electric signal according to the third wavelength division control signal.

In the above embodiment, after determining that the signal is transmitted in the coexistence mode of wavelength division, the method sends a first wavelength division control signal to a mode selection module of an uplink receiving system, sends a second wavelength division control signal to a time division routing module of the uplink receiving system, and sends a third wavelength division control signal to a branching switch module. In the technical scheme of the embodiment of the application, after the EPON terminal is disconnected, the uplink receiving system is controlled by the access network system to transmit signals in a wavelength division coexistence mode, so that smooth switching of the uplink receiving system for coexistence of two generations of wavelength division of 10G-EPON/50G-PON is realized, and higher uplink bandwidth capacity of 10G-EPON and 50G-PON can be fully exerted.

In an exemplary embodiment, as shown in fig. 8, the embodiment of the present application may further include the following steps:

step 301, after determining to transmit a signal in a time division coexistence mode, sends a first time division control signal to a mode selection module.

The first time division control signal is used for controlling the mode selection module to convert the uplink optical signal into a total uplink electric signal.

The access network management system can determine that the uplink receiving system adopts the time division coexistence mode to transmit signals under the condition that the access network management system receives the mode switching requirement issued by the upper network management system. Or the access network management system determines that the EPON terminal does not totally exit the network according to the terminal information of the EPON terminal, the 10G-EPON terminal and the 50G-PON terminal, determines that the uplink receiving system adopts a time division coexistence mode to transmit signals, and sends a first time division control signal to the mode selection module.

In some embodiments, the above-described "sending the first time division control signal to the mode selection module" may include sending the first time division control signal to an optical switch.

The access network management system sends a first time division control signal to the mode selection module and sends the first time division control signal to the optical switch. The optical switch receives an uplink optical signal and a first time division control signal, conducts connection with the first photoelectric component according to the first time division control signal, and transmits the uplink optical signal to the first photoelectric component. The first photoelectric component performs photoelectric conversion on the uplink optical signals to obtain total uplink electric signals, and transmits the total uplink electric signals to the time division routing module.

Step 302, a second time division control signal is sent to the time division routing module.

The second time division control signal is used for controlling the time division processing of the total uplink electric signal by the time division selecting circuit module to obtain a first uplink electric signal and a second uplink electric signal, conducting connection between the first uplink electric signal and the shunt switch module, and outputting the first uplink electric signal or transmitting the second uplink electric signal to the shunt switch module according to uplink time slot scheduling distribution information.

The access network management system sends a second time division control signal to the time division routing module. The time division switching module receives the second time division control signal and the total uplink electric signal, conducts communication connection with the shunt switching module according to the second time division control signal, and conducts time division processing on the total uplink electric signal according to the second time division control signal to obtain a first uplink electric signal and a second uplink electric signal. And then, the time division routing module outputs a first uplink electric signal according to the pre-acquired uplink time slot scheduling distribution information, or transmits a second uplink electric signal to the branching switch module.

Step 303, sending a third time division control signal to the shunt switch module.

The third time division control signal is used for controlling the shunt switch module to receive and output a second uplink electric signal.

The access network management system sends a third time division control signal to the branching switch module, the branching switch module receives the third wavelength division control signal and the second uplink electric signal, and the second uplink electric signal is output according to the third wavelength division control signal.

In the embodiment, after determining that the time division coexistence mode is adopted for transmitting the signals, the first time division control signal is sent to the mode selection module, the second time division control signal is sent to the time division routing module, and the third time division control signal is sent to the branching switch module. In the technical scheme of the embodiment of the application, the access network management system controls the uplink receiving system to flexibly switch between the time division coexistence mode and the wavelength division coexistence mode, thereby providing support for smooth evolution and upgrading of the network in the process of the Ethernet of the EPON terminal, protecting the network investment of operators and meeting the service requirements of high-value customers of the existing network.

In an exemplary embodiment, an uplink signal transmission method is provided, where the method is applied to an access network management system and an uplink receiving system, steps 1-7 are performed when an EPON terminal does not drop out, and steps 8-15 are performed after the EPON terminal drops out:

step 1, after determining that a time division coexistence mode is adopted to transmit signals, an access network management system sends a first time division control signal to an optical switch of a mode selection module of an uplink receiving system.

And 2, switching on the first photoelectric component by the optical switch, and transmitting an uplink optical signal to the first photoelectric component.

And step 3, the first photoelectric component converts the uplink optical signal into a total uplink electric signal and transmits the total uplink electric signal to the time division routing module.

And step 4, the access network management system sends a second time division control signal to a time division routing module of the uplink receiving system.

And 5, performing time division processing on the total uplink electric signal by the time division routing module according to the second time division control signal to obtain a first uplink electric signal and a second uplink electric signal, conducting connection between the first uplink electric signal and the shunt switch module, and outputting the first uplink electric signal or transmitting the second uplink electric signal to the shunt switch module according to uplink time slot scheduling distribution information.

And step 6, the access network management system sends a third time division control signal to the branching switch module of the uplink receiving system.

And 7, receiving and outputting a second uplink electric signal by the shunt switch module according to the third time division control signal.

And 8, after determining that the wavelength division coexistence mode is adopted to transmit the signal, the access network management system sends a first wavelength division control signal to the optical switch of the mode selection module.

And 9, the optical switch is connected with the wavelength division module according to the first wavelength division control signal and transmits the uplink optical signal to the wavelength division module.

Step 10, the wavelength division module performs wavelength division processing on the uplink optical signal, and transmits the first wavelength division signal to the first photoelectric component and the second wavelength division signal to the second photoelectric component respectively.

And step 11, the first photoelectric component converts the first wave beam splitting signal into a first uplink electric signal and transmits the first uplink electric signal to the time division routing module, and the second photoelectric component converts the second wave beam splitting signal into a second uplink electric signal and transmits the second uplink electric signal to the branching switch module.

And step 12, the access network management system sends a second wavelength division control signal to the time division routing module.

And step 13, the time division routing module disconnects the connection with the shunt switch module according to the second wavelength division control signal, and receives and outputs a first uplink electric signal.

Step 14, the access network management system sends a third wavelength division control signal to the shunt switch module.

And step 15, the shunt switch module receives and outputs a second uplink electric signal according to the third wavelength division control signal.

In the above embodiment, the uplink receiving system may use a time division coexistence mode to transmit signals, or may use a wavelength division coexistence mode to transmit signals, and flexibly switch between the time division coexistence mode and the wavelength division coexistence mode, so as to provide support for smooth evolution and upgrading of the network in the process of the EPON terminal network withdrawal, protect network investment of operators, and meet the service requirements of high-value customers of the existing network.

It should be understood that, although the steps in the flowcharts related to the embodiments described above are sequentially shown as indicated by arrows, these steps are not necessarily sequentially performed in the order indicated by the arrows. The steps are not strictly limited to the order of execution unless explicitly recited herein, and the steps may be executed in other orders. Moreover, at least some of the steps in the flowcharts described in the above embodiments may include a plurality of steps or a plurality of stages, which are not necessarily performed at the same time, but may be performed at different times, and the order of the steps or stages is not necessarily performed sequentially, but may be performed alternately or alternately with at least some of the other steps or stages.

Based on the same inventive concept, the embodiment of the application also provides an uplink signal transmission device for realizing the uplink signal transmission method. The implementation of the solution provided by the device is similar to the implementation described in the above method, so the specific limitation in the embodiments of one or more uplink signal transmission devices provided below may refer to the limitation of the uplink signal transmission method hereinabove, and will not be repeated herein.

In an exemplary embodiment, as shown in fig. 9, there is provided an uplink signal transmission apparatus, including:

A first signal sending module 401, configured to send a first wavelength division control signal to a mode selection module of an uplink receiving system after determining that a wavelength division coexistence mode is adopted to transmit a signal, where the first wavelength division control signal is used to control the mode selection module to perform wavelength division processing on an uplink optical signal and output a first uplink electrical signal and a second uplink electrical signal, where the first uplink electrical signal and the second uplink electrical signal correspond to uplink optical signals with different wavelengths;

The second signal sending module 402 is configured to send a second wavelength division control signal to a time division routing module of the uplink receiving system, where the second wavelength division control signal is used to control the time division routing module to disconnect from a branching switch module of the uplink receiving system, receive and output a first uplink electrical signal;

and the third signal sending module 403 is configured to send a third wavelength division control signal to the shunt switch module, where the third wavelength division control signal is used to control the shunt switch module to receive and output the second uplink electrical signal.

In some embodiments, the first signal sending module is further configured to send a first time division control signal to the mode selection module after determining that the signal is transmitted in the time division coexistence mode, where the first time division control signal is used to control the mode selection module to convert the uplink optical signal to a total uplink electrical signal;

The second time division control signal is used for controlling the time division separation path module to perform time division processing on the total uplink electric signal to obtain a first uplink electric signal and a second uplink electric signal, conducting connection with the branching switch module and outputting the first uplink electric signal or transmitting the second uplink electric signal to the branching switch module according to uplink time slot scheduling distribution information;

and the third signal transmitting module is used for transmitting a third time division control signal to the shunt switch module, wherein the third time division control signal is used for controlling the shunt switch module to receive and output a second uplink electric signal.

The above-mentioned various modules in the uplink signal transmission apparatus may be implemented in whole or in part by software, hardware, and a combination thereof. The above modules may be embedded in hardware or may be independent of a processor in the computer device, or may be stored in software in a memory in the computer device, so that the processor may call and execute operations corresponding to the above modules.

In one exemplary embodiment, a computer device is provided, which may be a server, and the internal structure thereof may be as shown in fig. 10. The computer device includes a processor, a memory, an Input/Output interface (I/O) and a communication interface. The processor, the memory and the input/output interface are connected through a system bus, and the communication interface is connected to the system bus through the input/output interface. Wherein the processor of the computer device is configured to provide computing and control capabilities. The memory of the computer device includes a non-volatile storage medium and an internal memory. The non-volatile storage medium stores an operating system, computer programs, and a database. The internal memory provides an environment for the operation of the operating system and computer programs in the non-volatile storage media. The database of the computer device is used to store XX data. The input/output interface of the computer device is used to exchange information between the processor and the external device. The communication interface of the computer device is used for communicating with an external terminal through a network connection. The computer program is executed by a processor to implement an uplink signal transmission method.

It will be appreciated by those skilled in the art that the structure shown in FIG. 10 is merely a block diagram of some of the structures associated with the present inventive arrangements and is not limiting of the computer device to which the present inventive arrangements may be applied, and that a particular computer device may include more or fewer components than shown, or may combine some of the components, or have a different arrangement of components.

In one exemplary embodiment, a computer device is provided comprising a memory and a processor, the memory having stored therein a computer program, the processor when executing the computer program performing the steps of:

In one embodiment, the processor when executing the computer program further performs the steps of:

In one embodiment, a computer readable storage medium is provided having a computer program stored thereon, which when executed by a processor, performs the steps of:

In one embodiment, the computer program when executed by the processor further performs the steps of:

In one embodiment, a computer program product is provided comprising a computer program which, when executed by a processor, performs the steps of:

Those skilled in the art will appreciate that implementing all or part of the above described methods may be accomplished by way of a computer program stored on a non-transitory computer readable storage medium, which when executed, may comprise the steps of the embodiments of the methods described above. Any reference to memory, database, or other medium used in embodiments provided herein may include at least one of non-volatile and volatile memory. The nonvolatile Memory may include Read-Only Memory (ROM), magnetic tape, floppy disk, flash Memory, optical Memory, high density embedded nonvolatile Memory, resistive random access Memory (ReRAM), magneto-resistive random access Memory (Magnetoresistive Random Access Memory, MRAM), ferroelectric Memory (Ferroelectric Random Access Memory, FRAM), phase change Memory (PHASE CHANGE Memory, PCM), graphene Memory, and the like. Volatile memory can include random access memory (Random Access Memory, RAM) or external cache memory, and the like. By way of illustration, and not limitation, RAM can be in various forms such as static random access memory (Static Random Access Memory, SRAM) or dynamic random access memory (Dynamic Random Access Memory, DRAM), etc. The databases referred to in the embodiments provided herein may include at least one of a relational database and a non-relational database. The non-relational database may include, but is not limited to, a blockchain-based distributed database, and the like. The processor referred to in the embodiments provided in the present application may be a general-purpose processor, a central processing unit, a graphics processor, a digital signal processor, a programmable logic unit, a data processing logic unit based on quantum computing, or the like, but is not limited thereto.

The technical features of the above embodiments may be arbitrarily combined, and all possible combinations of the technical features in the above embodiments are not described for brevity of description, however, as long as there is no contradiction between the combinations of the technical features, they should be considered as the scope of the description.

The foregoing examples illustrate only a few embodiments of the application and are described in detail herein without thereby limiting the scope of the application. It should be noted that it will be apparent to those skilled in the art that several variations and modifications can be made without departing from the spirit of the application, which are all within the scope of the application. Accordingly, the scope of the application should be assessed as that of the appended claims.

Claims

1. The uplink receiving system is characterized by comprising a mode selection module, a time division routing module and a branching switch module, wherein the mode selection module, the time division routing module and the branching switch module are respectively in communication connection with an access network management system;

The mode selection module is used for performing wavelength division processing on the uplink optical signals according to a first wavelength division control signal and outputting a first uplink electric signal and a second uplink electric signal, wherein the first uplink electric signal and the second uplink electric signal correspond to uplink optical signals with different wavelengths;

the time division routing module is used for disconnecting the connection with the branching switch module according to a second wavelength division control signal, and receiving and outputting the first uplink electric signal;

The shunt switch module is used for receiving and outputting the second uplink electric signal according to a third wavelength division control signal;

the first wavelength division control signal, the second wavelength division control signal and the third wavelength division control signal are all sent after the access network management system determines to transmit signals in a wavelength division coexistence mode.

2. The uplink receiving system according to claim 1, wherein,

The mode selection module is used for converting the uplink optical signal into a total uplink electric signal according to a first time division control signal;

The time division routing module is used for performing time division processing on the total uplink electric signal according to a second time division control signal to obtain the first uplink electric signal and the second uplink electric signal, conducting connection with the branching switch module, and outputting the first uplink electric signal or transmitting the second uplink electric signal to the branching switch module according to uplink time slot scheduling distribution information;

The shunt switch module is used for receiving and outputting the second uplink electric signal according to the third wavelength division control signal;

The first time division control signal, the second time division control signal and the third time division control signal are all sent after the access network management system determines to transmit signals in a time division coexistence mode.

3. The uplink receiving system according to claim 2, wherein the mode selection module includes an optical switch, a wavelength division module, a first photoelectric component, and a second photoelectric component;

the wavelength division module is used for performing wavelength division processing on the uplink optical signal, respectively transmitting a first wavelength division signal to the first photoelectric component and transmitting a second wavelength division signal to the second photoelectric component;

The first photoelectric component is configured to convert the first wavelength division optical signal into the first uplink electrical signal, and transmit the first uplink electrical signal to the time division routing module;

the second photoelectric component is configured to convert the second wavelength division optical signal into the second uplink electrical signal, and transmit the second uplink electrical signal to the shunt switch module.

4. The upstream receiving system of claim 3, wherein said optical switch is further configured to switch on said first optical-electrical component according to said first time division control signal and transmit said upstream optical signal to said first optical-electrical component;

The first photoelectric component is configured to convert the uplink optical signal into the total uplink electrical signal, and transmit the total uplink electrical signal to the time division routing module.

5. The uplink receiving system according to claim 2, wherein the uplink receiving system further comprises a terminal chip, the terminal chip being connected to the time division routing module;

The terminal chip is used for outputting the uplink time slot scheduling allocation information to the time division routing module.

6. An uplink signal transmission method, which is applied to an access network management system, comprises the following steps:

After determining that a wavelength division coexistence mode is adopted to transmit a signal, transmitting a first wavelength division control signal to a mode selection module of an uplink receiving system, wherein the first wavelength division control signal is used for controlling the mode selection module to perform wavelength division processing on an uplink optical signal and outputting a first uplink electric signal and a second uplink electric signal, and the first uplink electric signal and the second uplink electric signal correspond to uplink optical signals with different wavelengths;

The method comprises the steps of sending a second wavelength division control signal to a time division routing module of the uplink receiving system, wherein the second wavelength division control signal is used for controlling the time division routing module to disconnect the connection with a branching switch module of the uplink receiving system and receiving and outputting the first uplink electric signal;

And sending a third wavelength division control signal to the shunt switch module, wherein the third wavelength division control signal is used for controlling the shunt switch module to receive and output the second uplink electric signal.

7. The method of claim 6, wherein the method further comprises:

After determining that a time division coexistence mode is adopted to transmit a signal, transmitting a first time division control signal to the mode selection module, wherein the first time division control signal is used for controlling the mode selection module to convert the uplink optical signal into a total uplink electric signal;

The first time division control signal is used for controlling the time division routing module to conduct time division processing on the total uplink electric signal to obtain the first uplink electric signal and the second uplink electric signal, conducting connection with the branching switch module and outputting the first uplink electric signal or transmitting the second uplink electric signal to the branching switch module according to uplink time slot scheduling distribution information;

And sending a third time division control signal to the shunt switch module, wherein the third time division control signal is used for controlling the shunt switch module to receive and output the second uplink electric signal.

8. An uplink signal transmission apparatus, the apparatus comprising:

The system comprises a first signal transmitting module, a mode selecting module and a second signal transmitting module, wherein the first signal transmitting module is used for transmitting a first wavelength division control signal to the mode selecting module of an uplink receiving system after determining that a wavelength division coexistence mode is adopted for transmitting the signal, and the first wavelength division control signal is used for controlling the mode selecting module to perform wavelength division processing on the uplink optical signal and outputting a first uplink electric signal and a second uplink electric signal, and the first uplink electric signal and the second uplink electric signal correspond to uplink optical signals with different wavelengths;

The second signal sending module is used for sending a second wavelength division control signal to a time division routing module of the uplink receiving system, wherein the second wavelength division control signal is used for controlling the time division routing module to disconnect the connection with a branching switch module of the uplink receiving system and receiving and outputting the first uplink electric signal;

And the third signal sending module is used for sending a third wavelength division control signal to the branching switch module, wherein the third wavelength division control signal is used for controlling the branching switch module to receive and output the second uplink electric signal.

9. A computer device comprising a memory and a processor, the memory storing a computer program, characterized in that the processor implements the steps of the method of any of claims 6 to 7 when the computer program is executed.

10. A computer readable storage medium, on which a computer program is stored, characterized in that the computer program, when being executed by a processor, implements the steps of the method of any of claims 6 to 7.

11. A computer program product comprising a computer program, characterized in that the computer program, when being executed by a processor, implements the steps of the method of any of claims 6 to 7.