Signal transmission cable

Abstract

A signal transmission cable includes a photoelectric converter and an extension optical cable. The photoelectric converter has a photoelectric converter optical cable, wherein the photoelectric converter optical cable can transmit an optical signal, and the extension optical cable can be connected to the photoelectric converter optical cable to increase the transmission distance of the optical signal. This means that the length of the photoelectric converter optical cable does not need to be changed according to different application fields or methods. Thus, the photoelectric converter can be mass-produced, reducing manufacturing costs.

Description

[Technical Field]

[0001] This application relates to an optical fiber communication technology, and more specifically, to a signal transmission cable that can be mass-produced to reduce manufacturing costs and prevent heat dissipation liquid from seeping in and affecting signal transmission. [Previous Technology]

[0002] With the rapid development of network technology, fiber optic communication technology has gradually replaced conventional electrical communication technology for transmitting signals due to its numerous advantages, such as high data transmission speed, long transmission distance, resistance to electromagnetic interference, and high security. Therefore, fiber optic communication technology has become a major modern communication technology, widely used for information communication between various fiber optic network devices.

[0003] In the fiber optic communication industry, fiber optic network equipment is often paired with signal transmission cables. Generally, signal transmission cables have photoelectric converters, which consist of photoelectric conversion modules and photoelectric converter optical cables. The photoelectric conversion module can convert electrical signals into optical signals or vice versa. The photoelectric converter optical cable connects the photoelectric conversion module and the fiber optic network equipment, transmitting optical signals between them. However, the length of the photoelectric converter optical cable depends on the distance between the photoelectric conversion module and the fiber optic network equipment; that is, the length of the photoelectric converter optical cable depends on the transmission distance of the optical signal. The distance between the photoelectric conversion module and the fiber optic network equipment can change due to different usage scenarios or methods, resulting in the need for customized length of the photoelectric converter optical cable. This prevents the mass production of photoelectric converters and hinders effective cost reduction.

[0004] In addition, since fiber optic network equipment usually operates continuously for a long time, the operating temperature of the fiber optic network equipment is prone to rise and heat dissipation is required. For heat dissipation of fiber optic network equipment, the fiber optic network equipment is usually immersed in a heat dissipation liquid with high thermal conductivity, so that the fiber optic network equipment operates in a liquid heat dissipation environment. In this way, the heat generated by the operation of the fiber optic network equipment can be quickly dissipated by the heat dissipation liquid, thereby improving the performance and lifespan of the fiber optic network equipment.

[0005] However, if the fiber optic network equipment is immersed in the heat dissipation liquid, the signal transmission cable connecting the fiber optic network equipment also needs to be immersed in the heat dissipation liquid. Therefore, if the signal transmission cable has poor waterproof performance, the heat dissipation liquid can easily seep into the signal transmission cable and affect the signal transmission.

[0006] In view of this, how to improve existing signal transmission cables, how to customize the extension length of optical fiber cables for photoelectric converters, and how to improve the waterproofness of signal transmission cables to prevent heat dissipation liquid from seeping into the signal transmission cables are problems that urgently need to be solved by those in the relevant technical field. [Summary of the Invention]

[0007] In view of the various problems of the prior art, the main objective of this application is to provide at least one signal transmission line that can be mass-produced to reduce manufacturing costs and prevent heat dissipation liquid from seeping into the signal transmission line and affecting signal transmission.

[0008] To achieve the above and other objectives, this application provides a signal transmission cable, which includes: a main-side photoelectric converter having a main-side photoelectric conversion module and a main-side photoelectric converter optical cable; the main-side photoelectric conversion module can convert a main-side electrical signal into a main-side optical signal, or the main-side photoelectric conversion module can convert the main-side optical signal into the main-side electrical signal; the main-side photoelectric converter optical cable provides for transmitting the main-side optical signal and has a main-side photoelectric converter optical cable connector; an extension optical cable having a main-side extension optical cable connector on one side; and a main-side optical cable connector having a main-side optical cable connector carrier, a main-side optical cable connector cover, and a main-side optical cable connector adhesive. The connector carrier system has a main-side carrier docking space, wherein the main-side extension optical cable docking end can dock with the main-side photoelectric converter optical cable docking end in the main-side carrier docking space, so that the main-side photoelectric converter optical cable can transmit the main-side optical signal to the extension optical cable, and the extension optical cable can be extended to increase the transmission distance of the main-side optical signal; and the main-side optical cable connector adhesive can glue the main-side extension optical cable docking end and the main-side photoelectric converter optical cable docking end in the main-side carrier docking space to maintain the docking state of the main-side extension optical cable docking end and the main-side photoelectric converter optical cable docking end, and provide a sealed environment for the main-side extension optical cable docking end and the main-side photoelectric converter optical cable docking end. The main-side optical cable connector cover system covers the main-side optical cable connector carrier so that the main-side optical cable connector adhesive is located in the main-side carrier docking space.

[0009] Preferably, in the signal transmission line of this application, the main-side photoelectric converter optical cable further has a main-side photoelectric converter optical cable connector, and the extension optical cable further has a main-side extension optical cable connector. The main-side photoelectric converter optical cable connector and the main-side extension optical cable connector are provided for mating to transmit the main-side optical signal. The main-side optical cable connector adhesive is used to bond the main-side photoelectric converter optical cable connector and the main-side extension optical cable connector to maintain the mating relationship between the main-side photoelectric converter optical cable connector and the main-side extension optical cable connector.

[0010] Preferably, in the signal transmission line of this application, the main-side photoelectric converter optical cable further has a main-side photoelectric converter optical cable fiber, and the extension optical cable further has an extension optical cable fiber. The main-side photoelectric converter optical cable fiber and the extension optical cable fiber provide transmission of the main-side optical signal. The adhesive of the main-side optical cable connector is used to bond the main-side photoelectric converter optical cable fiber and the extension optical cable fiber to maintain the relative positional relationship between the main-side photoelectric converter optical cable fiber and the extension optical cable fiber.

[0011] Preferably, in the signal transmission line of this application, the primary photoelectric converter optical cable further has a primary photoelectric converter optical cable cladding, and the extension optical cable further has an extension optical cable cladding, wherein the primary photoelectric converter optical cable cladding covers the periphery of the primary photoelectric converter optical cable fiber, and the refractive index of the primary photoelectric converter optical cable cladding is lower than that of the primary photoelectric converter optical cable fiber to provide total internal reflection and ensure that the primary optical signal is transmitted in the primary photoelectric converter optical cable fiber; the extension optical cable cladding covers the periphery of the extension optical cable fiber, and the refractive index of the extension optical cable cladding is lower than that of the extension optical cable fiber to provide total internal reflection and Ensure that the main optical signal is transmitted in the extended optical fiber; there is a first main optical converter optical cable gap between the main optical converter optical cable cladding and the main optical converter optical fiber, and there is a first extended optical cable gap between the extended optical cable cladding and the extended optical fiber; and the main optical cable connector adhesive has a first main optical cable connector sub-adhesive barrier layer, which is respectively glued to the main optical converter optical fiber, the main optical converter optical cable cladding, the extended optical fiber and the extended optical cable cladding to block the communication between the first main optical converter optical cable gap and the first extended optical cable gap.

[0012] Preferably, in the signal transmission line of this application, the main-side photoelectric converter optical cable further has a main-side photoelectric converter optical cable buffer layer, and the extension optical cable further has an extension optical cable buffer layer, wherein the main-side photoelectric converter optical cable buffer layer covers the main-side photoelectric converter optical cable sheath to provide protection for the main-side photoelectric converter optical cable fiber; the extension optical cable buffer layer covers the extension optical cable sheath to provide protection for the extension optical cable fiber; the main-side photoelectric converter optical cable buffer layer and the main-side photoelectric converter... There is a second main-side photoelectric converter optical cable gap between the optical cable sheaths, and there is a second extended optical cable gap between the extended optical cable buffer layer and the extended optical cable sheath; and the main-side optical cable connector adhesive has a second main-side optical cable connector sub-adhesive barrier layer, which is respectively glued to the main-side photoelectric converter optical cable sheath, the main-side photoelectric converter optical cable buffer layer, the extended optical cable sheath, and the extended optical cable buffer layer to prevent the second main-side photoelectric converter optical cable gap from communicating with the second extended optical cable gap.

[0013] Preferably, in the signal transmission line of this application, the main-side photoelectric converter optical cable further has a main-side photoelectric converter optical cable reinforcement layer, and the extension optical cable further has an extension optical cable reinforcement layer, wherein the main-side photoelectric converter optical cable reinforcement layer covers the main-side photoelectric converter optical cable buffer layer to resist tensile force; the extension optical cable reinforcement layer covers the extension optical cable buffer layer to resist tensile force; and a third [missing information] is provided between the main-side photoelectric converter optical cable reinforcement layer and the main-side photoelectric converter optical cable buffer layer. The main optical converter has an optical cable gap, and there is a third extended optical cable gap between the extended optical cable reinforcement layer and the extended optical cable buffer layer; and the main optical cable connector adhesive has a third main optical cable connector sub-adhesive barrier layer, which is respectively glued to the main optical converter optical cable buffer layer, the main optical converter optical cable reinforcement layer, the extended optical cable buffer layer and the extended optical cable reinforcement layer to prevent the third main optical converter optical cable gap from communicating with the third extended optical cable gap.

[0014] Preferably, in the signal transmission line of this application, the main-side photoelectric converter optical cable further has a main-side photoelectric converter optical cable outer sheath layer, and the extension optical cable further has an extension optical cable outer sheath layer, wherein the main-side photoelectric converter optical cable outer sheath layer covers the main-side photoelectric converter optical cable reinforcing layer to provide outer protection; the extension optical cable outer sheath layer covers the extension optical cable reinforcing layer to provide outer protection; and there is a gap between the main-side photoelectric converter optical cable outer sheath layer and the main-side photoelectric converter optical cable reinforcing layer. A fourth main-side photoelectric converter optical cable gap is provided, and a fourth extended optical cable gap is provided between the outer sheath layer of the extended optical cable and the reinforcing layer of the extended optical cable; and the adhesive of the main-side optical cable connector has a fourth main-side optical cable connector sub-adhesive barrier layer, which is respectively glued to the main-side photoelectric converter optical cable reinforcing layer, the main-side photoelectric converter optical cable outer sheath layer, the extended optical cable reinforcing layer and the extended optical cable outer sheath layer to prevent the fourth main-side photoelectric converter optical cable gap from communicating with the fourth extended optical cable gap.

[0015] Preferably, the signal transmission line of this application further includes: a primary-side photoelectric converter, which has a primary-side photoelectric conversion module and a primary-side photoelectric converter optical cable. The secondary-side photoelectric conversion module can convert a primary-side electrical signal into a primary-side optical signal, or the secondary-side photoelectric conversion module can convert the secondary-side optical signal into the secondary-side electrical signal. The secondary-side photoelectric converter optical cable provides transmission of the secondary-side optical signal and has a primary-side photoelectric converter optical cable connector. The other side of the extension optical cable has a primary-side extension optical cable connector. A primary-side optical cable connector is also included on the other side. Finally, a primary-side optical cable connector is included, which has a primary-side optical cable connector carrier, a primary-side optical cable connector cover, and a primary-side optical cable connector adhesive. The primary-side optical cable connector carrier has a primary-side... The carrier docking space includes a secondary-side extension optical cable docking end that can dock with the secondary-side opto-converter optical cable docking end within the secondary-side carrier docking space, allowing the secondary-side opto-converter optical cable to transmit the secondary-side optical signal to the extension optical cable. The extension optical cable can be extended to increase the transmission distance of the secondary-side optical signal. The secondary-side optical cable connector adhesive can bond the secondary-side extension optical cable docking end and the secondary-side opto-converter optical cable docking end within the secondary-side carrier docking space to maintain their docking state and provide a sealed environment. The secondary-side optical cable connector cover system covers the secondary-side optical cable connector carrier, ensuring the secondary-side optical cable connector adhesive is located within the secondary-side carrier docking space.

[0016] Preferably, in the signal transmission line of this application, the secondary-side photoelectric converter optical cable also has a primary-side photoelectric converter optical cable connector, and the extension optical cable also has a primary-side extension optical cable connector. The secondary-side photoelectric converter optical cable connector and the secondary-side extension optical cable connector are provided for mating to transmit the secondary-side optical signal. The secondary-side optical cable connector adhesive is used to bond the secondary-side photoelectric converter optical cable connector and the secondary-side extension optical cable connector to maintain the mating relationship between the secondary-side photoelectric converter optical cable connector and the secondary-side extension optical cable connector.

[0017] Preferably, in the signal transmission line of this application, the secondary opto-converter optical cable further includes a primary opto-converter optical fiber, and the extension optical cable further includes an extension optical fiber. The secondary opto-converter optical fiber and the extension optical fiber provide for transmitting the secondary optical signal. The adhesive of the secondary optical cable connector is used to bond the secondary opto-converter optical fiber and the extension optical fiber to maintain the relative positional relationship between the secondary opto-converter optical fiber and the extension optical fiber.

[0018] Preferably, in the signal transmission line of this application, the secondary photoelectric converter optical cable further has a primary photoelectric converter optical cable cladding, and the extension optical cable further has an extension optical cable cladding, wherein the secondary photoelectric converter optical cable cladding covers the periphery of the secondary photoelectric converter optical cable fiber, and the refractive index of the secondary photoelectric converter optical cable cladding is lower than that of the secondary photoelectric converter optical cable fiber to provide total internal reflection and ensure that the secondary optical signal is transmitted in the secondary photoelectric converter optical cable fiber; the extension optical cable cladding covers the periphery of the extension optical cable fiber, and the refractive index of the extension optical cable cladding is lower than that of the extension optical cable fiber to provide total internal reflection and ensure that the secondary optical signal is transmitted in the secondary photoelectric converter optical cable fiber; the extension optical cable cladding covers the periphery of the extension optical cable fiber, and the refractive index of the extension optical cable cladding is lower than that of the extension optical cable fiber to provide total internal reflection and ensure that the secondary optical signal is transmitted in the secondary photoelectric converter optical cable fiber. The secondary optical signal is transmitted in the extended optical fiber; and there is a first secondary optical converter optical fiber gap between the secondary optical converter optical fiber cladding and the secondary optical converter optical fiber, and there is a first extended optical fiber gap between the extended optical fiber cladding and the extended optical fiber; and the secondary optical fiber connector adhesive has a first secondary optical fiber connector sub-adhesive barrier layer, which is respectively adhesive to the secondary optical converter optical fiber, the secondary optical converter optical fiber cladding, the extended optical fiber and the extended optical fiber cladding, so as to prevent the first secondary optical converter optical fiber gap from communicating with the first extended optical fiber gap.

[0019] Preferably, in the signal transmission line of this application, the secondary opto-converter optical cable further has a primary opto-converter optical cable buffer layer, and the extension optical cable further has an extension optical cable buffer layer, wherein the secondary opto-converter optical cable buffer layer covers the periphery of the secondary opto-converter optical cable sheath to provide protection for the secondary opto-converter optical cable fiber; the extension optical cable buffer layer covers the periphery of the extension optical cable sheath to provide protection for the extension optical cable fiber; the secondary opto-converter optical cable buffer layer and the secondary opto-converter... There is a secondary optical converter optical cable gap between the optical cable sheaths, and there is a second extended optical cable gap between the extended optical cable buffer layer and the extended optical cable sheath; and the secondary optical cable connector adhesive has a secondary optical cable connector sub-adhesive barrier layer, which is respectively glued to the secondary optical converter optical cable sheath, the secondary optical converter optical cable buffer layer, the extended optical cable sheath, and the extended optical cable buffer layer to prevent the secondary optical converter optical cable gap from communicating with the second extended optical cable gap.

[0020] Preferably, in the signal transmission line of this application, the secondary photoelectric converter optical cable further has a primary photoelectric converter optical cable reinforcement layer, and the extension optical cable further has an extension optical cable reinforcement layer, wherein the secondary photoelectric converter optical cable reinforcement layer covers the periphery of the secondary photoelectric converter optical cable buffer layer to resist tensile force; the extension optical cable reinforcement layer covers the periphery of the extension optical cable buffer layer to resist tensile force; a third [missing information] is provided between the secondary photoelectric converter optical cable reinforcement layer and the secondary photoelectric converter optical cable buffer layer. The secondary optical converter has an optical cable gap, and there is a third extended optical cable gap between the extended optical cable reinforcement layer and the extended optical cable buffer layer; and the secondary optical cable connector adhesive has a third secondary optical cable connector sub-adhesive barrier layer, which is respectively glued to the secondary optical converter optical cable buffer layer, the secondary optical converter optical cable reinforcement layer, the extended optical cable buffer layer and the extended optical cable reinforcement layer to prevent the third secondary optical converter optical cable gap from communicating with the third extended optical cable gap.

[0021] Preferably, in the signal transmission line of this application, the secondary optocoupler optical cable further has a primary optocoupler optical cable outer sheath layer, and the extension optical cable further has an extension optical cable outer sheath layer, wherein the secondary optocoupler optical cable outer sheath layer covers the periphery of the secondary optocoupler optical cable reinforcing layer to provide outer protection; the extension optical cable outer sheath layer covers the periphery of the extension optical cable reinforcing layer to provide outer protection; and there is a space between the secondary optocoupler optical cable outer sheath layer and the secondary optocoupler optical cable reinforcing layer. A fourth-side photoelectric converter optical cable gap is provided, and a fourth-side extension optical cable gap is provided between the outer sheath layer of the extension optical cable and the reinforcing layer of the extension optical cable; and the adhesive of the secondary-side optical cable connector has a fourth-side optical cable connector sub-adhesive barrier layer, which is respectively glued to the reinforcing layer of the secondary-side photoelectric converter optical cable, the outer sheath layer of the secondary-side photoelectric converter optical cable, the reinforcing layer of the extension optical cable and the outer sheath layer of the extension optical cable to prevent the fourth-side photoelectric converter optical cable gap from communicating with the fourth-side extension optical cable gap.

[0022] Compared with the prior art, the signal transmission line of this application has a photoelectric converter, an extension optical cable and an optical cable connector. The photoelectric converter has a photoelectric converter optical cable, wherein the photoelectric converter optical cable can transmit an optical signal, and the extension optical cable can be connected to the photoelectric converter optical cable to increase the transmission distance of the optical signal, so that the length of the photoelectric converter optical cable does not need to be changed according to different application fields or methods. In this way, the photoelectric converter can be mass-produced and the manufacturing cost is reduced.

[0023] In addition, the optical cable connector has an optical cable connector adhesive that can bond the joint between the extension optical cable and the photoelectric converter optical cable. When the signal transmission line is immersed in the heat dissipation liquid, the optical cable connector adhesive can prevent the heat dissipation liquid from seeping into the signal transmission line from the joint between the extension optical cable and the photoelectric converter optical cable. In this way, the waterproof performance of the signal transmission line can be greatly increased.

Implementation Method

[0037] The following description, accompanied by accompanying drawings, illustrates the technical content of this application through specific embodiments. Those skilled in the art can easily understand other advantages and effects of this application from the content disclosed in this specification. This application can also be implemented or applied through other different embodiments. Various details in this specification can also be modified and changed based on different viewpoints and applications without departing from the spirit of this application. In particular, the proportional relationships and relative positions of the various elements in the drawings are for illustrative purposes only and do not represent the actual implementation of this application.

[0038] In addition, it should be noted that, in order to make the disclosed content more concise and easy to understand, the same or similar functional elements in the following embodiments will be described using the same symbols, and the description of the same or equal features will be omitted.

[0039] This application provides a signal transmission line having a photoelectric converter and an extension optical cable. The photoelectric converter has a photoelectric converter optical cable, wherein the photoelectric converter optical cable can transmit an optical signal, and the extension optical cable can be connected to the photoelectric converter optical cable to increase the transmission distance of the optical signal, so that the length of the photoelectric converter optical cable does not need to be changed according to different application fields or methods. In this way, the photoelectric converter can be mass-produced to reduce manufacturing costs.

[0040] For the description of the embodiments disclosed in this application, please refer to Figures 1 to 12.

[0041] In the embodiments shown in Figures 1 to 12, at least one signal transmission line 1 is provided. The signal transmission line 1 can be plugged into an optical fiber network device 2 to transmit signals. The signal transmission line 1 includes: a main-side photoelectric converter 11, an extension optical cable 12, and a main-side optical cable connector 13.

[0042] It should be noted that, in the above embodiments, the fiber optic network device 2 can be immersed in a highly thermally conductive heat dissipation liquid L, allowing the fiber optic network device 2 to operate in a liquid cooling environment. The heat generated during the operation of the fiber optic network device 2 is rapidly dissipated by the heat dissipation liquid L, thereby improving the performance and lifespan of the fiber optic network device 2. Correspondingly, the signal transmission cable 1 can be immersed in the highly thermally conductive heat dissipation liquid L along with the fiber optic network device 2.

[0043] Regarding the main-side photoelectric converter 11, the main-side photoelectric converter 11 has a main-side photoelectric conversion module 111 and a main-side photoelectric converter optical cable 112. The main-side photoelectric conversion module 111 can convert a main-side electrical signal into a main-side optical signal, or the main-side photoelectric conversion module 111 can convert the main-side optical signal into the main-side electrical signal; and the main-side photoelectric converter optical cable 112 can provide transmission of the main-side optical signal, and the main-side photoelectric converter optical cable 112 has a main-side photoelectric converter optical cable connector E1121.

[0044] Regarding the extension optical cable 12, in the embodiment shown in FIG7, one side of the extension optical cable 12 has a main-side extension optical cable docking end E1211. In the above embodiment, the main-side extension optical cable docking end E1211 has a structure that can provide docking with other optical cables.

[0045] Regarding the main optical cable connector 13, in the embodiment shown in FIG7, the main optical cable connector 13 has a main optical cable connector carrier 131, a main optical cable connector cover 132 and a main optical cable connector adhesive 133, and the main optical cable connector carrier 131 has a main carrier docking space S131.

[0046] In the above embodiment, the main-side extension optical cable connector E1211 can be connected to the main-side photoelectric converter optical cable connector E1121 in the main-side carrier connector space S131, so that the main-side photoelectric converter optical cable 112 can transmit the main-side optical signal from the main-side extension optical cable connector E1211 to the main-side extension optical cable connector E1211 and enter the extension optical cable 12. The extension optical cable 12 can be extended to increase the transmission distance of the main-side optical signal. It should be noted that the length of the extension optical cable 12 can be adjusted according to the distance between the main-side photoelectric conversion module 111 and the optical fiber network device. That is, the length of the extension optical cable 12 can be adjusted according to the transmission distance of the main-side optical signal, so that the length of the main-side photoelectric converter optical cable 112 does not need to be changed according to different application fields or methods. Therefore, the main-side photoelectric converter 11 can be mass-produced to reduce manufacturing costs.

[0047] In addition, the adhesive 133 of the main optical cable connector can bond the main extension optical cable connector end E1211 and the main photoelectric converter optical cable connector end E1121 in the main carrier connector space S131 to maintain the connector state of the main extension optical cable connector end E1211 and the main photoelectric converter optical cable connector end E1121. The adhesive 133 of the main optical cable connector can provide a waterproof sealing environment for the main extension optical cable connector end E1211 and the main photoelectric converter optical cable connector end E1121, which cannot be penetrated by the heat dissipation liquid L. Therefore, if the signal transmission cable 1 is immersed in the heat dissipation liquid L along with the fiber optic network equipment, the adhesive 133 of the main-side optical cable connector can prevent the heat dissipation liquid L from seeping into the signal transmission cable 1 through the joint between the main-side extension optical cable joint end E1211 and the main-side photoelectric converter optical cable joint end E1121, thereby improving the waterproof performance of the signal transmission cable 1. The main-side optical cable connector cover 132 covers the main-side optical cable connector carrier 131 to limit the flow range of the main-side optical cable connector adhesive 133, so that the main-side optical cable connector adhesive 133 is located in the main-side carrier joint space S131, which is aesthetically pleasing.

[0048] It should be noted that, in the above embodiments, the adhesive 133 of the main optical cable connector can be, but is not limited to, epoxy resin (EPOXY) adhesive.

[0049] In the embodiments shown in Figures 3 to 6, the main-side photoelectric converter optical cable 112 has a main-side photoelectric converter optical fiber 1122 (fiber core), and correspondingly, the extension optical cable 12 has an extension optical fiber 122. The main-side photoelectric converter optical fiber 1122 and the extension optical fiber 122 can be optionally made of glass or plastic to provide the transmission of the main-side optical signal. The main-side optical cable connector adhesive 133 adhesively bonds the main-side photoelectric converter optical fiber 1122 and the extension optical fiber 122 to maintain their relative positional relationship, preventing them from separating. This ensures that the connection relationship between the main-side extension optical cable connector E1211 and the main-side photoelectric converter optical cable connector E1121 meets expectations.

[0050] In the embodiment shown in FIG9, the main-side photoelectric converter optical cable 112 has a main-side photoelectric converter optical cable connector 1120, and correspondingly, the extension optical cable 12 also has a main-side extension optical cable connector 1201. The main-side photoelectric converter optical cable connector 1120 and the main-side extension optical cable connector 1201 are connected to transmit the main-side optical signal. Correspondingly, the main-side optical cable connector adhesive 133 is used to bond the main-side photoelectric converter optical cable connector 1120 and the main-side extension optical cable connector 1201 to maintain the connection between them.

[0051] In addition, the primary-side photoelectric converter optical cable 112 also has a primary-side photoelectric converter optical cable cladding 1123, wherein the primary-side photoelectric converter optical cable cladding 1123 surrounds the primary-side photoelectric converter optical cable fiber 1122, and the refractive index of the primary-side photoelectric converter optical cable cladding 1123 is lower than that of the primary-side photoelectric converter optical cable fiber 1122 to provide total internal reflection and ensure the transmission of the primary-side optical signal in the primary-side photoelectric converter optical cable fiber 1122. Correspondingly, the extension optical cable 12 also has an extension optical cable cladding 123, wherein the extension optical cable cladding 123 surrounds the extension optical cable fiber 122, and the refractive index of the extension optical cable cladding 123 is lower than that of the extension optical cable fiber 122 to provide total internal reflection and ensure the transmission of the primary-side optical signal in the extension optical cable fiber 122.

[0052] It should be noted that the adhesive 133 of the main optical cable connector is used to bond the main optical converter optical cable sheath 1123 and the extension optical cable sheath 123 to maintain the relative positional relationship between the main optical converter optical cable sheath 1123 and the extension optical cable sheath 123, thereby preventing the main optical converter optical cable sheath 1123 and the extension optical cable sheath 123 from separating, and thus ensuring that the docking relationship between the main extension optical cable docking end E1211 and the main optical converter optical cable docking end E1121 meets the expectations.

[0053] In the embodiment shown in FIG5, there is a first main-side photoelectric converter optical cable gap G1121 between the main-side photoelectric converter optical cable cladding 1123 and the main-side photoelectric converter optical cable fiber 1122, and there is a first extension optical cable gap G121 between the extension optical cable cladding 123 and the extension optical cable fiber 122. Accordingly, the main optical cable connector adhesive 133 has a first main optical cable connector sub-adhesive barrier layer 1331, which is used to bond the main optical converter optical fiber 1122, the main optical converter optical cable sheath 1123, the extension optical fiber 122, and the extension optical cable sheath 123 to block the communication between the first main optical converter optical cable gap G1121 and the first extension optical cable gap G121, thereby preventing the heat dissipation liquid L from flowing between the first main optical converter optical cable gap G1121 and the first extension optical cable gap G121 through capillary action.

[0054] It should be noted that, in the embodiment shown in FIG11, if the main optical cable connector 13 leaves the heat dissipation liquid L, the first main optical cable connector sub-adhesive barrier layer 1331 can prevent the heat dissipation liquid L from flowing between the first main optical converter optical cable gap G1121 and the first extension optical cable gap G121 through capillary action, and then seeping out through the main optical cable connector 13 to pollute the environment.

[0055] In addition, the primary-side photoelectric converter optical cable 112 also has a primary-side photoelectric converter optical cable buffer layer 1124 (coating or primary buffer), wherein the primary-side photoelectric converter optical cable buffer layer 1124 may be made of plastic materials such as acrylic or polymer. In the above embodiment, the primary-side photoelectric converter optical cable buffer layer 1124 covers the periphery of the primary-side photoelectric converter optical cable sheath 1123 to provide protection for the primary-side photoelectric converter optical cable fiber 1122, and to protect the primary-side photoelectric converter optical cable fiber 1122 from mechanical damage and environmental influence. Accordingly, the extension optical cable 12 also has an extension optical cable buffer layer 124, wherein the extension optical cable buffer layer 124 may be made of plastic materials such as acrylic or polymer. In the above embodiment, the extension optical cable buffer layer 124 covers the extension optical cable sheath 123 to provide protection for the extension optical cable optical fiber 122, and to protect the extension optical cable optical fiber 122 from mechanical damage and environmental influences.

[0056] It should be noted that the adhesive 133 of the main optical cable connector is used to bond the main optical converter optical cable buffer layer 1124 and the extension optical cable buffer layer 124 to maintain the relative positional relationship between the main optical converter optical cable buffer layer 1124 and the extension optical cable buffer layer 124, thereby preventing the main optical converter optical cable buffer layer 1124 and the extension optical cable buffer layer 124 from separating, and thus ensuring that the connection relationship between the main extension optical cable connector E1211 and the main optical converter optical cable connector E1121 meets the expectations.

[0057] In the embodiment shown in FIG5, there is a second main-side photoelectric converter optical cable gap G1122 between the main-side photoelectric converter optical cable buffer layer 1124 and the main-side photoelectric converter optical cable sheath 1123, and there is a second extended optical cable gap G122 between the extended optical cable buffer layer 124 and the extended optical cable sheath 123. Accordingly, the main optical cable connector adhesive 133 has a second main optical cable connector sub-adhesive barrier layer 1332. The second main optical cable connector sub-adhesive barrier layer 1332 is respectively adhesive to the main optical converter optical cable sheath 1123, the main optical converter optical cable buffer layer 1124, the extension optical cable sheath 123 and the extension optical cable buffer layer 124, so as to block the communication between the second main optical converter optical cable gap G1122 and the second extension optical cable gap G122, thereby preventing the heat dissipation liquid L from flowing between the second main optical converter optical cable gap G1122 and the second extension optical cable gap G122 through capillary action.

[0058] It should be noted that, in the embodiment shown in FIG11, if the main optical cable connector 13 leaves the heat dissipation liquid L, the second main optical cable connector sub-adhesive barrier layer 1332 can prevent the heat dissipation liquid L from flowing between the second main optical converter optical cable gap G1122 and the second extension optical cable gap G122 through capillary action, and then seeping out through the main optical cable connector 13 to pollute the environment.

[0059] Furthermore, the main-side photoelectric converter optical cable 112 also has a main-side photoelectric converter optical cable reinforcement layer 1125, wherein the main-side photoelectric converter optical cable reinforcement layer 1125 may be made of reinforcement materials such as aramid (Kevlar), glass fiber or steel wire. In the above embodiment, the main-side photoelectric converter optical cable reinforcement layer 1125 is wrapped around the main-side photoelectric converter optical cable buffer layer 1124 to provide additional mechanical strength to resist tension, thereby protecting the main-side photoelectric converter optical cable optical fiber 1122 from the influence of tension. Accordingly, the extension optical cable 12 also has an extension optical cable reinforcement layer 125, wherein the extension optical cable reinforcement layer 125 may be made of a reinforcing material such as aramid (Kevlar), glass fiber or steel wire. In the above embodiment, the extension optical cable reinforcement layer 125 is wrapped around the extension optical cable buffer layer 124 to provide additional mechanical strength to resist tension, thereby protecting the extension optical cable optical fiber 122 from the influence of tension.

[0060] It should be noted that the adhesive 133 of the main optical cable connector is used to bond the main optical converter optical cable reinforcement layer 1125 and the extension optical cable reinforcement layer 125 to maintain the relative positional relationship between the main optical converter optical cable reinforcement layer 1125 and the extension optical cable reinforcement layer 125, thereby preventing the main optical converter optical cable reinforcement layer 1125 and the extension optical cable reinforcement layer 125 from separating, and thus ensuring that the docking relationship between the main extension optical cable docking end E1211 and the main optical converter optical cable docking end E1121 meets the expectations.

[0061] In the embodiment shown in FIG6, there is a third main-side photoelectric converter optical cable gap G1123 between the main-side photoelectric converter optical cable reinforcement layer 1125 and the main-side photoelectric converter optical cable buffer layer 1124, and there is a third extended optical cable gap G123 between the extended optical cable reinforcement layer 125 and the extended optical cable buffer layer 124. Accordingly, the main optical cable connector adhesive 133 has a third main optical cable connector sub-adhesive barrier layer 1333. The third main optical cable connector sub-adhesive barrier layer 1333 is respectively bonded to the main optical converter optical cable buffer layer 1124, the main optical converter optical cable reinforcement layer 1125, the extension optical cable buffer layer 124, and the extension optical cable reinforcement layer 125, so as to block the communication between the third main optical converter optical cable gap G1123 and the third extension optical cable gap G123, thereby preventing the heat dissipation liquid L from flowing between the third main optical converter optical cable gap G1123 and the third extension optical cable gap G123 through capillary action.

[0062] It should be noted that, in the embodiment shown in FIG11, if the main optical cable connector 13 leaves the heat dissipation liquid L, the third main optical cable connector sub-adhesive barrier layer 1333 can prevent the heat dissipation liquid L from flowing between the third main optical converter optical cable gap G1123 and the third extension optical cable gap G123 through capillary phenomenon, and then seeping out through the main optical cable connector 13 to pollute the environment.

[0063] In addition, the main-side photoelectric converter optical cable 112 also has a main-side photoelectric converter optical cable outer sheath layer 1126 (Outer Sheath or Jacket), wherein the main-side photoelectric converter optical cable outer sheath layer 1126 may be made of materials such as polyethylene (PE), polyvinyl chloride (PVC) or polyurethane (PU). In the above embodiment, the main-side photoelectric converter optical cable outer sheath layer 1126 covers the main-side photoelectric converter optical cable reinforcing layer 1125 to provide outer protection and to provide waterproof, UV protection, chemical corrosion resistance and other functions. Accordingly, the extension optical cable 12 also has an extension optical cable outer sheath layer 126, wherein the extension optical cable outer sheath layer 126 may be made of materials such as polyethylene (PE), polyvinyl chloride (PVC) or polyurethane (PU). In the above embodiment, the extension optical cable outer sheath layer 126 covers the extension optical cable reinforcing layer 125 to provide outer protection and to provide waterproof, UV protection, chemical corrosion resistance and other functions.

[0064] It should be noted that the adhesive 133 of the main optical cable connector is used to bond the outer sheath layer 1126 of the main optical converter optical cable and the outer sheath layer 126 of the extension optical cable to maintain the relative positional relationship between the outer sheath layer 1126 of the main optical converter optical cable and the outer sheath layer 126 of the extension optical cable, thereby preventing the outer sheath layer 1126 of the main optical converter optical cable and the outer sheath layer 126 of the extension optical cable from separating, and thus ensuring that the docking relationship between the main extension optical cable docking end E1211 and the main optical converter optical cable docking end E1121 meets the expectations.

[0065] In the embodiment shown in FIG6, there is a fourth main-side photoelectric converter optical cable gap G1124 between the main-side photoelectric converter optical cable outer sheath layer 1126 and the main-side photoelectric converter optical cable reinforcement layer 1125, and there is a fourth extension optical cable gap G124 between the extension optical cable outer sheath layer 126 and the extension optical cable reinforcement layer 125. Accordingly, the main optical cable connector adhesive 133 has a fourth main optical cable connector sub-adhesive barrier layer 1334, which is respectively glued to the main optical converter optical cable reinforcement layer 1125, the main optical converter optical cable outer sheath layer 1126, the extension optical cable reinforcement layer 125 and the extension optical cable outer sheath layer 126, so as to block the communication between the fourth main optical converter optical cable gap G1124 and the fourth extension optical cable gap G124, thereby preventing the heat dissipation liquid L from flowing between the fourth main optical converter optical cable gap G1124 and the fourth extension optical cable gap G124 through capillary action.

[0066] It should be noted that, in the embodiment shown in FIG11, if the main optical cable connector 13 leaves the heat dissipation liquid L, the fourth main optical cable connector sub-adhesive barrier layer 1334 can prevent the heat dissipation liquid L from flowing between the fourth main optical converter optical cable gap G1124 and the fourth extension optical cable gap G124 through capillary action, and then seeping out through the main optical cable connector 13 to pollute the environment.

[0067] In the embodiment shown in FIG2, the signal transmission line 1 further includes: a primary-side photoelectric converter 14.

[0068] Regarding the secondary-side photoelectric converter 14, the secondary-side photoelectric converter 14 has a primary-side photoelectric conversion module 141 and a primary-side photoelectric converter optical cable 142. The secondary-side photoelectric conversion module 141 can convert a primary-side electrical signal into a primary-side optical signal, or the secondary-side photoelectric conversion module 141 can convert the secondary-side optical signal into the secondary-side electrical signal; and the secondary-side photoelectric converter optical cable 142 can provide transmission of the secondary-side optical signal, and the secondary-side photoelectric converter optical cable 142 has a primary-side photoelectric converter optical cable connector E1421.

[0069] Regarding the extension optical cable 12, in the embodiment shown in FIG8, the other side of the extension optical cable 12 has a primary-side extension optical cable docking end E1212. In the above embodiment, the secondary-side extension optical cable docking end E1212 has a structure that can provide docking with other optical cables.

[0070] Regarding the secondary optical cable connector 15, in the embodiment shown in FIG8, the secondary optical cable connector 15 has a primary optical cable connector carrier 151, a primary optical cable connector cover 152 and a primary optical cable connector adhesive 153, and the secondary optical cable connector carrier 151 has a primary carrier docking space S151.

[0071] In the above embodiment, the secondary-side extension optical cable connector E1212 can be connected to the secondary-side optoelectronic converter optical cable connector E1421 in the secondary-side carrier connector space S151, so that the secondary-side optoelectronic converter optical cable 142 can transmit the secondary-side optical signal from the secondary-side extension optical cable connector E1212 to the secondary-side extension optical cable connector E1212 and enter the extension optical cable 12. The extension optical cable 12 can be extended to increase the transmission distance of the secondary-side optical signal. It should be noted that the length of the extension optical cable 12 can be adjusted according to the distance between the secondary-side optoelectronic conversion module 141 and the optical fiber network device. That is, the length of the extension optical cable 12 can be adjusted according to the transmission distance of the secondary-side optical signal, so that the length of the secondary-side optoelectronic converter optical cable 142 does not need to be changed according to different application fields or methods. Therefore, the secondary-side optoelectronic converter 142 can be mass-produced to reduce manufacturing costs.

[0072] In addition, the secondary optical cable connector adhesive 153 can bond the secondary extension optical cable connector end E1212 and the secondary photoelectric converter optical cable connector end E1421 in the secondary carrier connector space S151 to maintain the connector state of the secondary extension optical cable connector end E1212 and the secondary photoelectric converter optical cable connector end E1421. The secondary optical cable connector adhesive 153 can provide a waterproof sealing environment for the secondary extension optical cable connector end E1212 and the secondary photoelectric converter optical cable connector end E1421, which cannot be penetrated by the heat dissipation liquid L. Therefore, if the signal transmission cable 1 is immersed in the heat dissipation liquid L along with the fiber optic network equipment, the secondary optical cable connector adhesive 153 can prevent the heat dissipation liquid L from seeping into the signal transmission cable 1 through the joint between the secondary extended optical cable connector E1212 and the secondary optoelectronic converter optical cable connector E1421, thereby improving the waterproof performance of the signal transmission cable 1. The secondary optical cable connector cover 152 covers the secondary optical cable connector carrier 151 to limit the flow range of the secondary optical cable connector adhesive 153, so that the secondary optical cable connector adhesive 153 is located in the secondary carrier docking space S151 for aesthetic purposes.

[0073] It should be noted that, in the above embodiments, the secondary optical cable connector adhesive 153 may be, but is not limited to, epoxy resin (EPOXY) adhesive.

[0074] In the embodiments shown in Figures 3 to 6, the secondary-side photoelectric converter optical cable 142 has a primary-side photoelectric converter optical fiber 1422 (Fiber Core), and correspondingly, the extension optical cable 12 has an extension optical fiber 122. The secondary-side photoelectric converter optical fiber 1422 and the extension optical fiber 122 can be made of glass or plastic to provide the transmission of the secondary-side optical signal. The secondary-side optical cable connector adhesive 153 adhesively bonds the secondary-side photoelectric converter optical fiber 1422 and the extension optical fiber 122 to maintain their relative positional relationship, preventing them from separating. This ensures that the connection relationship between the secondary-side extension optical cable connector E1212 and the secondary-side photoelectric converter optical cable connector E1421 meets expectations.

[0075] In the embodiment shown in FIG10, the secondary-side photoelectric converter optical cable 142 further has a primary-side photoelectric converter optical cable connector 1420, and correspondingly, the extension optical cable 12 also has a primary-side extension optical cable connector 1202. The secondary-side photoelectric converter optical cable connector 1420 and the secondary-side extension optical cable connector 1202 are connected to transmit the secondary-side optical signal, and the adhesive of the secondary-side optical cable connector is used to bond the secondary-side photoelectric converter optical cable connector 1420 and the secondary-side extension optical cable connector 1202 to maintain the connection between the secondary-side photoelectric converter optical cable connector 1420 and the secondary-side extension optical cable connector 1202.

[0076] In addition, the secondary-side photoelectric converter optical cable 142 also has a primary-side photoelectric converter optical cable cladding 1423, wherein the secondary-side photoelectric converter optical cable cladding 1423 covers the periphery of the secondary-side photoelectric converter optical cable fiber 1422, and the refractive index of the secondary-side photoelectric converter optical cable cladding 1423 is lower than that of the secondary-side photoelectric converter optical cable fiber 1422 to provide total internal reflection and ensure the transmission of the secondary-side optical signal in the secondary-side photoelectric converter optical cable fiber 1422. Correspondingly, the extension optical cable 12 also has an extension optical cable cladding 123, wherein the extension optical cable cladding 123 covers the periphery of the extension optical cable fiber 122, and the refractive index of the extension optical cable cladding 123 is lower than that of the extension optical cable fiber 122 to provide total internal reflection and ensure the transmission of the secondary-side optical signal in the extension optical cable fiber 122. The adhesive 153 of the secondary optical cable connector is used to bond the secondary optical converter optical cable sheath 1423 and the extension optical cable sheath 123 to maintain the relative positional relationship between the secondary optical converter optical cable sheath 1423 and the extension optical cable sheath 123, thereby preventing the secondary optical converter optical cable sheath 1423 from separating from the extension optical cable sheath 123, and thus ensuring that the connection relationship between the secondary extension optical cable connector E1212 and the secondary optical converter optical cable connector E1421 meets expectations.

[0077] In the embodiment shown in FIG5, there is a first side photoelectric converter optical cable gap G1421 between the secondary side photoelectric converter optical cable cladding 1423 and the secondary side photoelectric converter optical cable fiber 1422, and there is a first extension optical cable gap G121 between the extension optical cable cladding 123 and the extension optical cable fiber 122. Accordingly, the secondary optical cable connector adhesive 153 has a primary optical cable connector sub-adhesive barrier layer 1531. The primary optical cable connector sub-adhesive barrier layer 1531 is respectively glued to the secondary photoelectric converter optical fiber 1422, the secondary photoelectric converter optical cable sheath 1423, the extension optical fiber 122 and the extension optical cable sheath 123, so as to block the communication between the primary photoelectric converter optical cable gap G1421 and the primary extension optical cable gap G121, thereby preventing the heat dissipation liquid L from flowing between the primary photoelectric converter optical cable gap G1421 and the primary extension optical cable gap G121 through capillary action.

[0078] It should be noted that, in the embodiment shown in FIG12, if the secondary optical cable connector 15 leaves the heat dissipation liquid L, the primary optical cable connector sub-insulating layer 1531 can prevent the heat dissipation liquid L from flowing between the primary photoelectric converter optical cable gap G1421 and the first extension optical cable gap G121 through capillary action, and then seeping out through the secondary optical cable connector 15 to pollute the environment.

[0079] In addition, the secondary-side photoelectric converter optical cable 142 also has a primary-side photoelectric converter optical cable buffer layer 1424 (Coating or Primary Buffer), wherein the secondary-side photoelectric converter optical cable buffer layer 1424 may be made of plastic materials such as acrylic or polymer. In the above embodiment, the secondary-side photoelectric converter optical cable buffer layer 1424 covers the periphery of the secondary-side photoelectric converter optical cable sheath 1423 to provide protection for the secondary-side photoelectric converter optical cable fiber 1422, and to protect the secondary-side photoelectric converter optical cable fiber 1422 from mechanical damage and environmental influence. Accordingly, the extension optical cable 12 also has an extension optical cable buffer layer 124, wherein the extension optical cable buffer layer 124 may be made of plastic materials such as acrylic or polymer. In the above embodiment, the extension optical cable buffer layer 124 covers the extension optical cable sheath 123 to provide protection for the extension optical cable optical fiber 122, and to protect the extension optical cable optical fiber 122 from mechanical damage and environmental influences.

[0080] It should be noted that the secondary optical cable connector adhesive 153 is used to bond the secondary photoelectric converter optical cable buffer layer 1424 and the extension optical cable buffer layer 124 to maintain the relative positional relationship between the secondary photoelectric converter optical cable buffer layer 1424 and the extension optical cable buffer layer 124, thereby preventing the secondary photoelectric converter optical cable buffer layer 1424 and the extension optical cable buffer layer 124 from separating, and thus ensuring that the connection relationship between the secondary extension optical cable connector E1212 and the secondary photoelectric converter optical cable connector E1421 meets expectations.

[0081] In the embodiment shown in FIG5, there is a second optical fiber gap G1422 between the secondary optical fiber converter optical fiber buffer layer 1424 and the secondary optical fiber converter optical fiber sheath 1423, and there is a second extended optical fiber gap G122 between the extended optical fiber buffer layer 124 and the extended optical fiber sheath 123. Accordingly, the secondary optical cable connector adhesive 153 has a secondary optical cable connector sub-adhesive barrier layer 1532. The secondary optical cable connector sub-adhesive barrier layer 1532 is respectively glued to the secondary photoelectric converter optical cable sheath 1423, the secondary photoelectric converter optical cable buffer layer 1424, the extended optical cable sheath 123 and the extended optical cable buffer layer 124, so as to block the communication between the secondary photoelectric converter optical cable gap G1422 and the second extended optical cable gap G122, thereby preventing the heat dissipation liquid L from flowing between the secondary photoelectric converter optical cable gap G1422 and the second extended optical cable gap G122 through capillary action.

[0082] It should be noted that, in the embodiment shown in FIG12, if the secondary optical cable connector 15 leaves the heat dissipation liquid L, the secondary optical cable connector sub-insulating layer 1532 can prevent the heat dissipation liquid L from flowing between the secondary photoelectric converter optical cable gap G1422 and the second extension optical cable gap G122 through capillary action, and then seeping out through the secondary optical cable connector 15 to pollute the environment.

[0083] Furthermore, the secondary-side photoelectric converter optical cable 142 also has a primary-side photoelectric converter optical cable reinforcement layer 1425, wherein the secondary-side photoelectric converter optical cable reinforcement layer 1425 may be made of reinforcement materials such as aramid (Kevlar), glass fiber or steel wire. In the above embodiment, the secondary-side photoelectric converter optical cable reinforcement layer 1425 is wrapped around the secondary-side photoelectric converter optical cable buffer layer 1424 to provide additional mechanical strength to resist tension, thereby protecting the secondary-side photoelectric converter optical cable fiber 1422 from the influence of tension. Accordingly, the extension optical cable 12 also has an extension optical cable reinforcement layer 125, wherein the extension optical cable reinforcement layer 125 may be made of a reinforcing material such as aramid (Kevlar), glass fiber or steel wire. In the above embodiment, the extension optical cable reinforcement layer 125 is wrapped around the extension optical cable buffer layer 124 to provide additional mechanical strength to resist tension, thereby protecting the extension optical cable optical fiber 122 from the influence of tension.

[0084] It should be noted that the secondary optical cable connector adhesive 153 is used to bond the secondary photoelectric converter optical cable reinforcement layer 1425 and the extension optical cable reinforcement layer 125 to maintain the relative positional relationship between the secondary photoelectric converter optical cable reinforcement layer 1425 and the extension optical cable reinforcement layer 125, thereby preventing the secondary photoelectric converter optical cable reinforcement layer 1425 and the extension optical cable reinforcement layer 125 from separating, and thus ensuring that the connection relationship between the secondary extension optical cable connector E1212 and the secondary photoelectric converter optical cable connector E1421 meets expectations.

[0085] In the embodiment shown in FIG6, there is a third optical fiber gap G1423 between the secondary optical fiber reinforcement layer 1425 and the secondary optical fiber buffer layer 1424, and there is a third extended optical fiber gap G123 between the extension optical fiber reinforcement layer 125 and the extension optical fiber buffer layer 124. Accordingly, the secondary optical cable connector adhesive 153 has a third secondary optical cable connector sub-adhesive barrier layer 1533. The third secondary optical cable connector sub-adhesive barrier layer 1533 is respectively bonded to the secondary photoelectric converter optical cable buffer layer 1424, the secondary photoelectric converter optical cable reinforcement layer 1425, the extension optical cable buffer layer 124, and the extension optical cable reinforcement layer 125 to block the communication between the third secondary photoelectric converter optical cable gap G1423 and the third extension optical cable gap G123, thereby preventing the heat dissipation liquid L from flowing between the third secondary photoelectric converter optical cable gap G1423 and the third extension optical cable gap G123 through capillary action.

[0086] It should be noted that, in the embodiment shown in FIG12, if the secondary optical cable connector 15 leaves the heat dissipation liquid L, the third secondary optical cable connector sub-insulating layer 1533 can prevent the heat dissipation liquid L from flowing between the third-side photoelectric converter optical cable gap G1423 and the third extension optical cable gap G123 through capillary action, and then seeping out through the secondary optical cable connector 15 to pollute the environment.

[0087] In addition, the secondary-side photoelectric converter optical cable 142 also has a primary-side photoelectric converter optical cable outer sheath layer 1426. The secondary-side photoelectric converter optical cable outer sheath layer 1426 can be made of materials such as polyethylene (PE), polyvinyl chloride (PVC), or polyurethane (PU). In the above embodiment, the secondary-side photoelectric converter optical cable outer sheath layer 1426 surrounds the secondary-side photoelectric converter optical cable reinforcing layer 1425 to provide outer protection, thus providing waterproofing, UV protection, and chemical corrosion resistance. Correspondingly, the extension optical cable 12 also has an extension optical cable outer sheath layer 126. The extension optical cable outer sheath layer 126 can be made of materials such as polyethylene (PE), polyvinyl chloride (PVC), or polyurethane (PU). In the above embodiment, the extension optical cable outer sheath layer 126 surrounds the extension optical cable reinforcing layer 125 to provide outer protection, thus providing waterproofing, UV protection, and chemical corrosion resistance.

[0088] It should be noted that the adhesive 153 of the secondary optical cable connector is used to bond the outer sheath layer 1426 of the secondary optical converter optical cable and the outer sheath layer 126 of the extension optical cable to maintain the relative positional relationship between the outer sheath layer 1426 of the secondary optical converter optical cable and the outer sheath layer 126 of the extension optical cable, thereby preventing the outer sheath layer 1426 of the secondary optical converter optical cable and the outer sheath layer 126 of the extension optical cable from separating, and thus ensuring that the connection relationship between the secondary extension optical cable connector E1212 and the secondary optical converter optical cable connector E1421 meets the expectations.

[0089] In the embodiment shown in FIG6, there is a fourth secondary optical converter optical cable gap G1424 between the secondary optical converter optical cable outer sheath layer 1426 and the secondary optical converter optical cable reinforcement layer 1425, and there is a fourth extension optical cable gap G124 between the extension optical cable outer sheath layer 126 and the extension optical cable reinforcement layer 125. Accordingly, the secondary optical cable connector adhesive 153 has a fourth secondary optical cable connector sub-adhesive barrier layer 1534. The fourth secondary optical cable connector sub-adhesive barrier layer 1534 is respectively bonded to the secondary photoelectric converter optical cable reinforcement layer 1425, the secondary photoelectric converter optical cable outer sheath layer 1426, the extension optical cable reinforcement layer 125, and the extension optical cable outer sheath layer 126, so as to block the fourth secondary photoelectric converter optical cable gap G1424 from communicating with the fourth extension optical cable gap G124, thereby preventing the heat dissipation liquid L from flowing between the fourth secondary photoelectric converter optical cable gap G1424 and the fourth extension optical cable gap G124 through capillary action.

[0090] It should be noted that, in the embodiment shown in FIG12, if the secondary optical cable connector 15 leaves the heat dissipation liquid L, the fourth secondary optical cable connector sub-adhesive barrier layer 1534 can prevent the heat dissipation liquid L from flowing between the fourth secondary photoelectric converter optical cable gap G1424 and the fourth extension optical cable gap G124 through capillary action, and then seeping out through the secondary optical cable connector 15 to pollute the environment.

[0091] It should be noted that the signal transmission line of this application may omit some components or structural steps and is not limited to the above content.

[0092] For example, the signal transmission line of this application may optionally include: a main-side photoelectric converter, an extension optical cable, and a main-side optical cable connector. The main-side photoelectric converter has a main-side photoelectric conversion module and a main-side photoelectric converter optical cable. The main-side photoelectric conversion module can convert a main-side electrical signal into a main-side optical signal, or the main-side photoelectric conversion module can convert a main-side optical signal into a main-side electrical signal. The main-side photoelectric converter optical cable provides transmission of the main-side optical signal and has a main-side photoelectric converter optical cable connector. One side of the extension optical cable has a main-side extension optical cable connector. The main optical cable connector system comprises a main optical cable connector carrier, a main optical cable connector cover, and a main optical cable connector adhesive. The main optical cable connector carrier system has a main carrier mating space, wherein the main extension optical cable mating end can mate with the main photoelectric converter optical cable mating end in the main carrier mating space, enabling the main photoelectric converter optical cable to transmit the main optical signal to the extension optical cable, and the extension optical cable can extend to increase the transmission distance of the main optical signal; and the main optical cable connector adhesive can glue the main extension optical cable mating end and the main photoelectric converter optical cable mating end in the main carrier mating space to maintain the mating state of the main extension optical cable mating end and the main photoelectric converter optical cable mating end, and provide a sealed environment for the main extension optical cable mating end and the main photoelectric converter optical cable mating end. The main optical cable connector cover system covers the main optical cable connector carrier, so that the main optical cable connector adhesive is located in the main carrier mating space.

[0093] In summary, this application provides a signal transmission line having a photoelectric converter, an extension optical cable, and an optical cable connector. The photoelectric converter has a photoelectric converter optical cable, wherein the photoelectric converter optical cable can transmit an optical signal, and the extension optical cable can be connected to the photoelectric converter optical cable to increase the transmission distance of the optical signal, so that the length of the photoelectric converter optical cable does not need to be changed according to different application fields or methods. Thus, the photoelectric converter can be mass-produced to reduce manufacturing costs.

[0094] In addition, the optical cable connector has an optical cable connector adhesive that can bond the joint between the extension optical cable and the photoelectric converter optical cable. When the signal transmission line is immersed in the heat dissipation liquid, the optical cable connector adhesive can prevent the heat dissipation liquid from seeping into the signal transmission line from the joint between the extension optical cable and the photoelectric converter optical cable. In this way, the waterproof performance of the signal transmission line can be greatly increased.

[0095] The foregoing embodiments are illustrative only to illustrate the principles and efficacy of the application and are not used to limit the application. Any person familiar with this technology may modify and alter the above embodiments without violating the spirit and scope of this application. Therefore, the scope of rights protection in this application shall be as listed in the scope of the application for patent in this application. [Brief explanation of the diagram]

[0024] The schemas of this application will be combined with the descriptions of the next embodiments so that the features of the application as well as other advantages are more clearly understood.

[0025] FIG.

[0026] FIG.

[0027] FIG.

[0028] FIG.

[0029] FIG.

[0030] Fig. 6 , a schematic representation of the state of the docking of some members of the optical cable of the primary (secondary) side photoconverter and the extended optical cable as shown in Figs.

[0031] FIG.

[0032] FIG.

[0033] FIG.

[0034] FIG.

[0035] FIG.

[0036] Figure 12 is a schematic diagram showing that some components of the signal transmission line of this application are immersed in a heat dissipation liquid.

Claims

1. A signal transmission line, the signal transmission line comprising: A primary-side photoelectric converter, comprising a primary-side photoelectric conversion module and a primary-side photoelectric converter optical cable, wherein the primary-side photoelectric conversion module can convert a primary-side electrical signal into a primary-side optical signal, or the primary-side photoelectric conversion module can convert the primary-side optical signal into the primary-side electrical signal, the primary-side photoelectric converter optical cable provides transmission of the primary-side optical signal, and the primary-side photoelectric converter optical cable has a primary-side photoelectric converter optical cable connector end; an extension optical cable, one side of which has a primary-side extension optical cable connector end; and a primary-side optical cable connector, comprising a primary-side optical cable connector carrier, a primary-side optical cable connector cover, and a primary-side optical cable connector adhesive, the primary-side optical cable connector carrier having a primary-side carrier docking space, wherein... The main-side extension optical cable connector can be connected to the main-side photoelectric converter optical cable connector in the main-side carrier connector space, so that the main-side photoelectric converter optical cable can transmit the main-side optical signal to the extension optical cable, and the extension optical cable can be extended to increase the transmission distance of the main-side optical signal; and the main-side optical cable connector adhesive can bond the main-side extension optical cable connector and the main-side photoelectric converter optical cable connector in the main-side carrier connector space to maintain the connection state of the main-side extension optical cable connector and the main-side photoelectric converter optical cable connector, and provide a sealed environment for the main-side extension optical cable connector and the main-side photoelectric converter optical cable connector. The main-side optical cable connector cover system covers the main-side optical cable connector carrier so that the main-side optical cable connector adhesive is located in the main-side carrier connector space; wherein, the main-side photoelectric converter optical cable also has a main-side photoelectric converter optical cable fiber and a main-side photoelectric converter optical cable fiber, and the extension optical cable also has an extension optical cable fiber and an extension optical cable cladding; The main optical converter fiber and the extension fiber provide the transmission of the main optical signal. The adhesive of the main optical connector is used to bond the main optical converter fiber and the extension fiber to maintain their relative positional relationship. The main-side photoelectric converter optical cable cladding is wrapped around the main-side photoelectric converter optical cable fiber, and the refractive index of the main-side photoelectric converter optical cable cladding is lower than that of the main-side photoelectric converter optical cable fiber to provide total internal reflection and ensure the transmission of the main-side optical signal in the main-side photoelectric converter optical cable fiber; the extension optical cable cladding is wrapped around the extension optical cable fiber, and the refractive index of the extension optical cable cladding is lower than that of the extension optical cable fiber to provide total internal reflection and ensure the transmission of the main-side optical signal in the extension optical cable fiber; there is a first main-side photoelectric converter optical cable gap between the main-side photoelectric converter optical cable cladding and the main-side photoelectric converter optical cable fiber, and there is a first extension optical cable gap between the extension optical cable cladding and the extension optical cable fiber;The main-side optical cable connector adhesive has a first main-side optical cable connector sub-adhesive barrier layer, which adhesively bonds the main-side photoelectric converter optical fiber, the main-side photoelectric converter optical cable sheath, the extension optical fiber, and the extension optical cable sheath, thereby preventing communication between the gap in the first main-side photoelectric converter optical cable and the gap in the first extension optical cable.

2. The signal transmission cable as described in claim 1, wherein, The main-side photoelectric converter optical cable also has a main-side photoelectric converter optical cable connector, and the extension optical cable also has a main-side extension optical cable connector. The main-side photoelectric converter optical cable connector and the main-side extension optical cable connector are connected to transmit the main-side optical signal. The adhesive of the main-side optical cable connector is used to bond the main-side photoelectric converter optical cable connector and the main-side extension optical cable connector to maintain the connection between the main-side photoelectric converter optical cable connector and the main-side extension optical cable connector.

3. The signal transmission line as described in claim 1, wherein, The main-side photoelectric converter optical cable also has a main-side photoelectric converter optical cable buffer layer, and the extension optical cable also has an extension optical cable buffer layer. The main-side photoelectric converter optical cable buffer layer surrounds the main-side photoelectric converter optical cable sheath to provide protection for the main-side photoelectric converter optical cable fiber; the extension optical cable buffer layer surrounds the extension optical cable sheath to provide protection for the extension optical cable fiber; a second buffer layer is provided between the main-side photoelectric converter optical cable buffer layer and the main-side photoelectric converter optical cable sheath. The main optical converter has an optical cable gap, and there is a second extended optical cable gap between the extended optical cable buffer layer and the extended optical cable sheath; and the main optical cable connector adhesive has a second main optical cable connector sub-adhesive barrier layer, which is respectively glued to the main optical converter optical cable sheath, the main optical converter optical cable buffer layer, the extended optical cable sheath and the extended optical cable buffer layer to prevent the second main optical converter optical cable gap from communicating with the second extended optical cable gap.

4. The signal transmission cable as described in claim 3, wherein, The main-side photoelectric converter optical cable also has a main-side photoelectric converter optical cable reinforcement layer, and the extension optical cable also has an extension optical cable reinforcement layer. The main-side photoelectric converter optical cable reinforcement layer covers the main-side photoelectric converter optical cable buffer layer to resist tensile force; the extension optical cable reinforcement layer covers the extension optical cable buffer layer to resist tensile force; there is a third main-side photoelectric converter optical cable gap between the main-side photoelectric converter optical cable reinforcement layer and the main-side photoelectric converter optical cable buffer layer, and there is a third extension optical cable gap between the extension optical cable reinforcement layer and the extension optical cable buffer layer; and the main-side optical cable connector adhesive has a third main-side optical cable connector sub-adhesive barrier layer, which is respectively adhesive to the main-side photoelectric converter optical cable buffer layer, the main-side photoelectric converter optical cable reinforcement layer, the extension optical cable buffer layer, and the extension optical cable reinforcement layer to prevent the third main-side photoelectric converter optical cable gap from communicating with the third extension optical cable gap.

5. The signal transmission line as described in claim 4, wherein, The main-side photoelectric converter optical cable also has a main-side photoelectric converter optical cable outer sheath layer, and the extension optical cable also has an extension optical cable outer sheath layer. The main-side photoelectric converter optical cable outer sheath layer surrounds the main-side photoelectric converter optical cable reinforcing layer to provide outer protection; the extension optical cable outer sheath layer surrounds the extension optical cable reinforcing layer to provide outer protection; a fourth main-side photoelectric converter optical cable is located between the main-side photoelectric converter optical cable outer sheath layer and the main-side photoelectric converter optical cable reinforcing layer. The cable gap, and there is a fourth extension optical cable gap between the outer sheath layer of the extension optical cable and the reinforcing layer of the extension optical cable; and the adhesive of the main optical cable connector has a fourth main optical cable connector sub-adhesive barrier layer, which is respectively glued to the main photoelectric converter optical cable reinforcing layer, the main photoelectric converter optical cable outer sheath layer, the extension optical cable reinforcing layer and the extension optical cable outer sheath layer, so as to prevent the fourth main optical converter optical cable gap from communicating with the fourth extension optical cable gap.

6. The signal transmission line as described in claim 1, wherein, It also includes: a primary-side photoelectric converter, which has a primary-side photoelectric conversion module and a primary-side photoelectric converter optical cable. The primary-side photoelectric conversion module can convert a primary-side electrical signal into a primary-side optical signal, or the primary-side photoelectric conversion module can convert a secondary-side optical signal into a secondary-side electrical signal. The secondary-side photoelectric converter optical cable provides transmission of the secondary-side optical signal and has a primary-side photoelectric converter optical cable connector. The other side of the extension optical cable has a primary-side extension optical cable connector. And a primary-side optical cable connector, which has a primary-side optical cable connector carrier, a primary-side optical cable connector cover, and a primary-side optical cable connector adhesive. The secondary-side optical cable connector carrier system has a primary-side carrier docking space. The secondary-side extension optical cable connector can be connected to the secondary-side photoelectric converter optical cable connector in the secondary-side carrier docking space, so that the secondary-side photoelectric converter optical cable can transmit the secondary-side optical signal to the extension optical cable, and the extension optical cable can be extended to increase the transmission distance of the secondary-side optical signal; and the secondary-side optical cable connector adhesive can be glued to the secondary-side extension optical cable connector and the secondary-side photoelectric converter optical cable connector in the secondary-side carrier docking space to maintain the docking state of the secondary-side extension optical cable connector and the secondary-side photoelectric converter optical cable connector, and provide a sealed environment for the secondary-side extension optical cable connector and the secondary-side photoelectric converter optical cable connector. The secondary-side optical cable connector cover system covers the secondary-side optical cable connector carrier so that the secondary-side optical cable connector adhesive is located in the secondary-side carrier docking space.

7. The signal transmission cable as described in claim 6, wherein, The secondary-side photoelectric converter optical cable also has a primary-side photoelectric converter optical cable connector, and the extension optical cable also has a primary-side extension optical cable connector. The secondary-side photoelectric converter optical cable connector and the secondary-side extension optical cable connector are provided for mating to transmit the secondary-side optical signal. The adhesive of the secondary-side optical cable connector is used to bond the secondary-side photoelectric converter optical cable connector and the secondary-side extension optical cable connector to maintain the mating relationship between the secondary-side photoelectric converter optical cable connector and the secondary-side extension optical cable connector.

8. The signal transmission line as described in claim 6, wherein, The secondary-side photoelectric converter optical cable also has a primary-side photoelectric converter optical cable fiber, and the extension optical cable also has an extension optical cable fiber. The secondary-side photoelectric converter optical cable fiber and the extension optical cable fiber provide transmission of the secondary-side optical signal. The adhesive of the secondary-side optical cable connector is used to bond the secondary-side photoelectric converter optical cable fiber and the extension optical cable fiber to maintain the relative positional relationship between the secondary-side photoelectric converter optical cable fiber and the extension optical cable fiber.

9. The signal transmission line as described in claim 8, wherein, The secondary-side photoelectric converter optical cable also has a primary-side photoelectric converter optical cable cladding, and the extension optical cable also has an extension optical cable cladding. The secondary-side photoelectric converter optical cable cladding surrounds the secondary-side photoelectric converter optical fiber, and the refractive index of the secondary-side photoelectric converter optical cable cladding is lower than that of the secondary-side photoelectric converter optical fiber to provide total internal reflection and ensure the transmission of the secondary-side optical signal within the secondary-side photoelectric converter optical fiber. The extension optical cable cladding surrounds the extension optical fiber, and the refractive index of the extension optical cable cladding is lower than that of the extension optical fiber to provide total internal reflection and ensure the transmission of the secondary-side optical signal within the extension optical fiber. Transmission occurs within an optical fiber; and a first optical fiber gap exists between the secondary optical converter's optical cable sheath and the secondary optical converter's optical fiber, while a first extended optical fiber gap exists between the extended optical cable sheath and the extended optical fiber; and the secondary optical cable connector adhesive has a first-side optical cable connector sub-adhesive barrier layer, which is respectively adhesive to the secondary optical converter's optical fiber, the secondary optical converter's optical cable sheath, the extended optical fiber, and the extended optical cable sheath, thereby preventing communication between the first-side optical converter's optical fiber gap and the first extended optical fiber gap.

10. The signal transmission line as described in claim 9, wherein, The secondary-side photoelectric converter optical cable also has a primary-side photoelectric converter optical cable buffer layer, and the extension optical cable also has an extension optical cable buffer layer. The secondary-side photoelectric converter optical cable buffer layer surrounds the secondary-side photoelectric converter optical cable sheath to protect the secondary-side photoelectric converter optical cable fiber. The extension optical cable buffer layer surrounds the extension optical cable sheath to protect the extension optical cable fiber. A secondary-side photoelectric converter optical cable gap is formed between the secondary-side photoelectric converter optical cable buffer layer and the secondary-side photoelectric converter optical cable sheath, and a second extension optical cable gap is formed between the extension optical cable buffer layer and the extension optical cable sheath. The secondary-side optical cable connector adhesive has a secondary-side optical cable connector sub-adhesive barrier layer, which adhesively bonds the secondary-side photoelectric converter optical cable sheath, the secondary-side photoelectric converter optical cable buffer layer, the extension optical cable sheath, and the extension optical cable buffer layer to prevent communication between the secondary-side photoelectric converter optical cable gap and the second extension optical cable gap.

11. The signal transmission line as described in claim 10, wherein, The secondary-side photoelectric converter optical cable also has a primary-side photoelectric converter optical cable reinforcement layer, and the extension optical cable also has an extension optical cable reinforcement layer. The secondary-side photoelectric converter optical cable reinforcement layer surrounds the secondary-side photoelectric converter optical cable buffer layer to resist tensile forces. The extension optical cable reinforcement layer surrounds the extension optical cable buffer layer to resist tensile forces. A third-side photoelectric converter optical cable gap exists between the secondary-side photoelectric converter optical cable reinforcement layer and the secondary-side photoelectric converter optical cable buffer layer, and a third extension optical cable gap exists between the extension optical cable reinforcement layer and the extension optical cable buffer layer. The secondary-side optical cable connector adhesive has a third-side optical cable connector sub-adhesive barrier layer, which adhesively bonds the secondary-side photoelectric converter optical cable buffer layer, the secondary-side photoelectric converter optical cable reinforcement layer, the extension optical cable buffer layer, and the extension optical cable reinforcement layer to prevent communication between the third-side photoelectric converter optical cable gap and the third extension optical cable gap.

12. The signal transmission line as described in claim 11, wherein, The secondary-side photoelectric converter optical cable also has a primary-side photoelectric converter optical cable outer sheath layer, and the extension optical cable also has an extension optical cable outer sheath layer. The secondary-side photoelectric converter optical cable outer sheath layer surrounds the secondary-side photoelectric converter optical cable reinforcing layer to provide outer protection; the extension optical cable outer sheath layer surrounds the extension optical cable reinforcing layer to provide outer protection; a fourth-side photoelectric converter optical cable is located between the secondary-side photoelectric converter optical cable outer sheath layer and the secondary-side photoelectric converter optical cable reinforcing layer. The cable gap, and there is a fourth extension optical cable gap between the outer sheath layer of the extension optical cable and the reinforcing layer of the extension optical cable; and the adhesive of the secondary optical cable connector has a fourth secondary optical cable connector sub-adhesive barrier layer, which is respectively glued to the reinforcing layer of the secondary photoelectric converter optical cable, the outer sheath layer of the secondary photoelectric converter optical cable, the reinforcing layer of the extension optical cable and the outer sheath layer of the extension optical cable, so as to block the communication between the fourth secondary photoelectric converter optical cable gap and the fourth extension optical cable gap.

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