Anti-interference silica gel transmission cable

Abstract

The utility model discloses an anti-interference silica gel transmission cable, which comprises a cable jacket, a plurality of cable core channels are arranged on the inner side of the cable jacket, an insulating filling layer is filled between the cable jacket and the cable core channels, a reinforcing layer is arranged between the cable jacket and the insulating filling layer, the cable core channels comprise colored aluminum foil layers, and the colored aluminum foil layers are arranged on the inner side of the cable jacket. A colored aluminum foil layer is arranged in the cable core channel, an insulating coating layer is arranged in the colored aluminum foil layer, a metal connecting wire is arranged in the insulating coating layer, two cable core main bodies are arranged on one side of the metal connecting wire, a plurality of filling strips are arranged on one side of the cable core channel, and a plurality of battery cells are arranged among the plurality of cable core channels. Wherein one side of each of the two battery cells is provided with an information storage cell strip. According to the utility model, corresponding stretching is carried out when the transmission cable is bent, the bending degree of the cable can be measured by monitoring the stretching amount, and multi-layer shielding and anti-interference processing can be carried out on the cable.

Description

Technical Field

[0001] This utility model relates to the field of cable technology, specifically to an anti-interference silicone transmission cable. Background Technology

[0002] Transmission cables typically consist of several or more groups of conductors, each group containing at least two or more metal wires. These conductors are insulated from each other and twisted together around a central conductor. The entire cable is covered with a highly insulating outer layer and is responsible for transmitting power or data. Transmission cables serve as a medium for electrical connection between two electronic devices and can stably perform the intended signal transmission. Silicone cables, in particular, can be used in long-term humid environments and offer superior electrical performance, waterproofing, and mildew resistance. They also have excellent bending performance, with a minimum bending radius of 16 times the cable's outer diameter, allowing for portable use.

[0003] Existing transmission cables often require bending during application. When the local bending of the cable is too large, it can easily damage the internal structure of the cable, and it is not convenient to monitor the degree of bending. Therefore, it does not meet the existing requirements. To address this, we propose an anti-interference silicone transmission cable. Utility Model Content

[0004] The purpose of this invention is to provide an anti-interference silicone transmission cable to solve the problems mentioned in the background art, such as the frequent need to bend existing transmission cables during application, the potential damage to the internal structure of the cable when the local bending is too large, and the difficulty in monitoring the degree of cable bending.

[0005] To achieve the above objectives, this utility model provides the following technical solution: an anti-interference silicone transmission cable, comprising a cable sheath, with multiple cable core channels installed on the inner side of the cable sheath, an insulating filler layer filling the space between the cable sheath and the cable core channels, a reinforcing layer between the cable sheath and the insulating filler layer, each cable core channel comprising a colored aluminum foil layer, an insulating covering layer installed inside the colored aluminum foil layer, a metal connecting wire installed inside the insulating covering layer, two cable core bodies installed on one side of the metal connecting wire, multiple filler strips installed on one side of each cable core channel, multiple battery cells installed between the multiple cable core channels, wherein an information storage strip is installed on one side of each of the two battery cells, and pulse signals are transmitted within the information storage strip.

[0006] Preferably, the cable sheath is made of silicone, the reinforcing layer is made of graphene conductive cloth, and the cable sheath and the insulating filler layer are connected by the reinforcing layer.

[0007] Preferably, the insulating filler layer and the plurality of insulating covering layers are fixedly connected by a colored aluminum foil layer, the plurality of cable core channels are parallel to the axis of the insulating filler layer, and the colored aluminum foil layer is wound in the Z direction.

[0008] Preferably, multiple deformation monitoring units are installed inside the cable sheath, and the multiple deformation monitoring units are arranged circumferentially relative to the cable sheath. Each deformation monitoring unit includes multiple anti-abrasion mounting sleeves, and a monitoring box is installed between every two anti-abrasion mounting sleeves. The two sides of the monitoring box are fixedly connected to the two adjacent anti-abrasion mounting sleeves. A central positioning block is installed in the middle of the monitoring box, and elastic wires are fixedly installed on both sides of the central positioning block. The anti-abrasion mounting sleeves and elastic wires are slidably connected through guide seats.

[0009] Preferably, the deformation monitoring unit further includes a metal ring fixedly connected to the central positioning block. Multiple connecting rods are installed on both sides of the metal ring. Multiple metal sleeves are fixedly installed at the near ends of two adjacent guide seats. The metal sleeves are resistors. The multiple connecting rods and metal sleeves are coaxial and arranged circumferentially relative to the elastic wire.

[0010] Compared with the prior art, the beneficial effects of this utility model are:

[0011] 1. This utility model uses a graphene conductive cloth reinforcing layer to strengthen the surface of the insulating filling layer, thereby enabling the silicone cable sheath to achieve stable shielding and anti-interference effects. A colored aluminum foil layer is provided between multiple insulating covering layers and insulating filling layers, which shields the cable core body through the colored aluminum foil layer, enabling stable data transmission between multiple cable core bodies. Pulse signals are transmitted through the information storage core strip, and the installation position of the cable can be determined by detecting the pulse signals, enabling rapid cable location.

[0012] 2. This utility model fixes two adjacent elastic wires together with a central positioning block and inserts them into the inner side of the anti-wear mounting sleeve after passing through the guide seat. When the cable is bent, the anti-wear mounting sleeve can drive the elastic wires to stretch and bend. Then, the elastic wires can drive the metal ring to move between two adjacent guide seats through the central positioning block. Then, the metal ring drives the connecting rod to be inserted into the inner side of the metal sleeve and realizes the connection between the connecting rod and the metal sleeve. By reading the change in the resistance value of the metal sleeve, the degree of bending of the cable can be monitored, thereby realizing the rapid determination of the cable condition. Attached Figure Description

[0013] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0014] Figure 2 This is a cross-sectional structural diagram of the entire utility model;

[0015] Figure 3 This is a schematic diagram of the deformation monitoring unit of this utility model;

[0016] Figure 4 This utility model Figure 3 A schematic diagram of the cross-sectional structure of region A in the middle.

[0017] In the diagram: 1. Cable sheath; 2. Cable core channel; 201. Colored aluminum foil layer; 202. Insulation covering layer; 203. Cable core body; 204. Metal connecting wire; 3. Deformation monitoring unit; 301. Monitoring box; 302. Anti-wear mounting sleeve; 303. Guide seat; 304. Elastic wire; 305. Center positioning block; 306. Metal sleeve; 307. Metal ring; 308. Connecting rod; 4. Filler strip; 5. Insulation filling layer; 6. Reinforcing layer; 7. Information storage core strip; 8. Battery core. Detailed Implementation

[0018] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0019] Please see Figure 1 and Figure 2 This utility model provides an embodiment of an anti-interference silicone transmission cable, comprising a cable sheath 1, multiple cable core channels 2 installed on the inner side of the cable sheath 1, an insulating filler layer 5 filling the space between the cable sheath 1 and the cable core channels 2, and a reinforcing layer 6 between the cable sheath 1 and the insulating filler layer 5. The cable sheath 1 is made of silicone, and the reinforcing layer 6 is made of graphene conductive cloth. The cable sheath 1 and the insulating filler layer 5 are connected by the reinforcing layer 6, so that the surface of the insulating filler layer 5 can be reinforced by the reinforcing layer 6, thereby enabling the cable sheath 1 to achieve a stable shielding and anti-interference effect.

[0020] Please see Figure 2 The cable core channel 2 includes a colored aluminum foil layer 201, an insulating covering layer 202 is installed inside the colored aluminum foil layer 201, a metal connecting wire 204 is installed inside the insulating covering layer 202, and two cable core bodies 203 are installed on one side of the metal connecting wire 204. The insulating filling layer 5 and multiple insulating covering layers 202 are all fixedly connected through the colored aluminum foil layer 201. The multiple cable core channels 2 are parallel to the axis of the insulating filling layer 5. The colored aluminum foil layer 201 is wound in the Z direction. The colored aluminum foil layer 201 can shield the cable core body 203, so as to realize the stable transmission of data by multiple cable core bodies 203.

[0021] Multiple filler strips 4 are installed on one side of the cable core channel 2, and multiple electrical cores 8 are installed between the multiple cable core channels 2. Information storage core strips 7 are installed on one side of two electrical cores 8. Pulse signals are transmitted inside the information storage core strips 7. The installation position of the cable can be determined by detecting the pulse signals, so as to realize the rapid location of the cable.

[0022] Please see Figures 2 to 4 Multiple deformation monitoring units 3 are installed inside the cable sheath 1. The multiple deformation monitoring units 3 are arranged in a circle relative to the cable sheath 1. The deformation monitoring unit 3 includes multiple anti-wear mounting sleeves 302. A monitoring box 301 is installed between every two anti-wear mounting sleeves 302. The two sides of the monitoring box 301 are fixedly connected to the two adjacent anti-wear mounting sleeves 302. A central positioning block 305 is installed in the middle of the monitoring box 301. Elastic wires 304 are fixedly installed on both sides of the central positioning block 305. The anti-wear mounting sleeves 302 and the elastic wires 304 are slidably connected through guide seats 303. The anti-wear mounting sleeves 302 can drive the elastic wires 304 to stretch and bend. In turn, the elastic wires 304 can drive the metal ring 307 to move between the two adjacent guide seats 303 through the central positioning block 305.

[0023] A metal ring 307 is fixedly installed on the outer side of the central positioning block 305. Multiple connecting rods 308 are installed on both sides of the metal ring 307. Multiple metal sleeves 306 are fixedly installed on the near ends of two adjacent guide seats 303. The metal sleeves 306 are resistors. The multiple connecting rods 308 and the metal sleeves 306 are coaxial and arranged in a circle relative to the elastic wire 304. The metal ring 307 drives the connecting rods 308 to be inserted into the inner side of the metal sleeves 306 and realizes the connection between the connecting rods 308 and the metal sleeves 306. The degree of bending of the cable can be monitored by reading the change in the resistance value of the metal sleeves 306.

[0024] In use, when transmitting data using the cable, the cable sheath 1 and the insulation filling layer 5 are connected by a reinforcing layer 6. The reinforcing layer 6, made of graphene conductive cloth, strengthens the surface of the insulation filling layer 5, thereby enabling the silicone cable sheath 1 to provide stable shielding and anti-interference. At the same time, multiple cable core channels 2 are installed inside the insulation filling layer 5. A colored aluminum foil layer 201 is provided between multiple insulation covering layers 202 and the insulation filling layer 5, so that the colored aluminum foil layer 201 can shield the cable core body 203, enabling stable data transmission from multiple cable core bodies 203. Pulse signals are transmitted through the information storage core strip 7, and the installation position of the cable can be determined by detecting the pulse signals, enabling rapid cable location.

[0025] Multiple deformation monitoring units 3 arranged in a circular pattern are installed inside the cable sheath 1. A monitoring box 301 is installed between each pair of adjacent anti-wear mounting sleeves 302, so that adjacent elastic wires 304 are fixedly connected by a central positioning block 305 and inserted into the inner side of the anti-wear mounting sleeve 302 after passing through the guide seat 303. When the cable is bent, the cable sheath 1 can drive the elastic wires 304 to stretch and bend through the anti-wear mounting sleeves 302. Then, the elastic wires 304 can drive the metal ring 307 to move between adjacent guide seats 303 through the central positioning block 305. Then, the metal ring 307 drives the connecting rod 308 to be inserted into the inner side of the metal sleeve 306 and realizes the connection between the connecting rod 308 and the metal sleeve 306. By reading the change in the resistance value of the metal sleeve 306, the degree of bending of the cable can be monitored, thereby realizing the rapid determination of the cable condition.

[0026] It will be apparent to those skilled in the art that this invention is not limited to the details of the exemplary embodiments described above, and that it can be implemented in other specific forms without departing from the spirit or essential characteristics of this invention. Therefore, the embodiments should be considered illustrative and non-limiting in all respects, and the scope of this invention is defined by the appended claims rather than the foregoing description. Thus, it is intended that all variations falling within the meaning and scope of equivalents of the claims be included within this invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

Claims

1. An anti-interference silicone transmission cable, comprising a cable sheath (1), characterized in that: Multiple cable core channels (2) are installed inside the cable sheath (1). An insulating filler layer (5) is filled between the cable sheath (1) and the cable core channel (2). A reinforcing layer (6) is provided between the cable sheath (1) and the insulating filler layer (5). The cable core channel (2) includes a colored aluminum foil layer (201). An insulating covering layer (202) is installed inside the colored aluminum foil layer (201). A metal connecting wire (204) is installed inside the insulating covering layer (202). Two cable core bodies (203) are installed on one side of the metal connecting wire (204). Multiple filler strips (4) are installed on one side of the cable core channel (2). Multiple battery cells (8) are installed between the multiple cable core channels (2). An information storage core strip (7) is installed on one side of each of the two battery cells (8). A pulse signal is transmitted inside the information storage core strip (7).

2. The anti-interference silicone transmission cable according to claim 1, characterized in that: The cable sheath (1) is made of silicone, the reinforcing layer (6) is made of graphene conductive cloth, and the cable sheath (1) and the insulating filling layer (5) are connected by the reinforcing layer (6).

3. The anti-interference silicone transmission cable according to claim 2, characterized in that: The insulating filling layer (5) and multiple insulating covering layers (202) are fixedly connected by a colored aluminum foil layer (201). The multiple cable core channels (2) are parallel to the axis of the insulating filling layer (5). The colored aluminum foil layer (201) is wound in the Z direction.

4. The anti-interference silicone transmission cable according to claim 1, characterized in that: Multiple deformation monitoring units (3) are installed inside the cable sheath (1). The multiple deformation monitoring units (3) are arranged in a circle relative to the cable sheath (1). Each deformation monitoring unit (3) includes multiple anti-wear mounting sleeves (302). A monitoring box (301) is installed between every two anti-wear mounting sleeves (302). The two sides of the monitoring box (301) are fixedly connected to the two adjacent anti-wear mounting sleeves (302). A central positioning block (305) is installed in the middle of the monitoring box (301). Elastic wires (304) are fixedly installed on both sides of the central positioning block (305). The anti-wear mounting sleeves (302) and the elastic wires (304) are slidably connected through guide seats (303).

5. The anti-interference silicone transmission cable according to claim 4, characterized in that: The deformation monitoring unit (3) also includes a metal ring (307) fixedly connected to the central positioning block (305). Multiple connecting rods (308) are installed on both sides of the metal ring (307). Multiple metal sleeves (306) are fixedly installed on the near ends of two adjacent guide seats (303). The metal sleeves (306) are resistors. The multiple connecting rods (308) and the metal sleeves (306) are coaxial and arranged in a circle relative to the elastic wire (304).

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