Wiring device
By designing a wiring device with a clamp and an insulating shell, the problems of complex wiring operations and poor waterproofing in exploration equipment were solved, achieving convenient, reliable and safe wiring results.
Patent Information
- Application Number
- CN202520680570.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-11
- Publication Date
- 2026-01-16
- Estimated Expiration
- 2035-04-11
AI Technical Summary
Existing wiring methods involve numerous steps in exploration equipment, require tools, and lack convenience and waterproofing, failing to effectively protect the wiring points, resulting in inconvenient, unreliable, and unsafe wiring.
Design a wiring device including a wire clamp and an insulating housing, which clamps the wire through simple operation and protects the wiring point with the insulating housing. The device also employs an insulating button and a sealed structure to improve water resistance and safety.
It improves the ease of wiring, reliability, and waterproofing, meeting the need for fast and reliable wiring in harsh outdoor environments, and ensuring efficiency and safety.
Smart Images
Figure CN223809314U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to the technical field of exploration equipment, in particular to a wiring device. BACKGROUND
[0002] Exploration equipment often needs to work for a long time in outdoor harsh environments, so when the exploration equipment is connected to power through wiring, or the exploration equipment outputs power to other equipment through wiring, the convenience and waterproofness of the wiring need to be considered to facilitate quick and reliable wiring operation in outdoor harsh environments, so as to meet the requirements of efficiency and safety.
[0003] The existing wiring methods include twisted connection, wire cap connection and terminal connection, wherein the twisted connection is to strip the insulation of the wire ends of two wires to a certain length, then cross and twist the wire cores together, and finally wrap them with insulation tape; the wire cap connection is to strip the wire ends, insert them into the wire cap and press them tightly with a wire clamp; the terminal connection is to insert the stripped wire ends into the socket and then tighten and fix them with a screw. Since the existing wiring methods have many operation steps, tools such as insulation tape, wire clamp and screwdriver are needed, and the wiring place cannot be effectively protected, so there are problems in the convenience, reliability, waterproofness, efficiency and safety of the wiring. SUMMARY
[0004] The present application is proposed based on the above needs of the prior art, and the technical problem to be solved by the present application is to provide a wiring device applied to exploration equipment, which can clamp two wires at the same time through simple operation, and protect the wiring place by using an insulating shell, thereby improving the convenience, reliability, waterproofness, efficiency and safety of the wiring.
[0005] In order to solve the above problems, the present application provides the following technical solutions.
[0006] The application provides a wiring device applied to an exploration equipment, comprising: two wiring clamps, two first wires of the exploration equipment are fixedly connected with the two wiring clamps respectively, the wiring clamp comprises a clamping part for clamping a second wire and a compression part for releasing the second wire by compression deformation, and the first wire and the corresponding second wire are electrically connected through the wiring clamp; an insulating shell comprising a mounting groove, a first through hole, a second through hole, a third through hole and a sealing cover, wherein the number of the mounting groove is two, the two mounting grooves are spaced apart by a certain distance, the two wiring clamps are arranged in the two mounting grooves, the two mounting grooves are open to the same side of the insulating shell, the sealing cover is used for covering the opening, the number of the first through hole, the second through hole and the third through hole is two, the first through hole, the second through hole and the third through hole are communicated with the corresponding mounting groove, the two first wires pass through the two first through holes, the two second wires pass through the two second through holes, and the two third through holes correspond to the positions of the two compression parts; two insulating buttons, one end of the two insulating buttons abuts against the compression part through the two third through holes, and the other end of the two insulating buttons extends to the outside of the insulating shell.
[0007] Further, the wiring device further comprises: a sealing ring arranged in the first through hole, the second through hole and the third through hole, and used for sealing the gaps between the first wire and the first through hole, the second wire and the second through hole, and the insulating button and the third through hole.
[0008] Further, the wiring device further comprises: a sealing gasket arranged on one side of the sealing cover and used for sealing the gap between the opening of the mounting groove and the sealing cover.
[0009] Further, the surface of the wiring clamp is coated with an insulating layer.
[0010] Further, the clamping part comprises a sawtooth, and the clamping part clamps the second wire through the sawtooth.
[0011] Further, the clamping part comprises a groove, and the shape of the groove is matched with the shape of the second wire.
[0012] Further, the shapes of the two mounting grooves are matched with the shapes of the two wiring clamps.
[0013] Further, the wiring clamp comprises a spring, and the spring is arranged in the compression part in a compressible mode.
[0014] Further, the wiring clamp comprises a spring, and the spring is arranged in the compression part in a compressible mode.
[0015] Further, the exploration device is an electromagnetic transmitter.
[0016] The beneficial effects of the present application include:
[0017] (1) When performing the wiring operation, the deformation of the clamping part can be controlled by pressing the insulation button, so that the second wire can be inserted or taken out in the clamping part. The whole wiring process is simple in operation and few in steps, and does not require the use of any tool, thereby improving the convenience of wiring. Therefore, the wiring operation can be quickly and reliably completed in an outdoor harsh environment, meeting the requirements of efficiency and safety.
[0018] (2) When the electromagnetic transmitter and the transmitting coil are connected, the wiring device provided by the present application can clamp the second wire at both ends of the transmitting coil at the same time. Therefore, by using one wiring device and through simple operation, the wiring operation can be completed, thereby forming a closed loop in which the electromagnetic transmitter outputs power to the transmitting coil. Compared with the wiring device that can only connect the second wire at one end of the transmitting coil, the wiring efficiency is higher.
[0019] (3) The wiring clamp is arranged in the insulation housing, and the insulation housing forms protection at the wiring position. This can not only improve the waterproofness of the wiring, but also avoid direct contact between the personnel and the wiring position, effectively avoid the situation that the personnel is electrocuted, and better meet the requirement of high safety.
[0020] (4) By sealing the gap between the wire, the insulation button and the insulation housing, the waterproofness of the wiring can be further improved, thereby eliminating the potential risks of electrical safety and equipment damage. BRIEF DESCRIPTION OF DRAWINGS
[0021] In order to more clearly illustrate the specific embodiments of the present specification, the drawings required in the specific embodiments will be briefly introduced below. Obviously, the drawings described below are only some specific embodiments described in the present specification, and other drawings can also be obtained by those skilled in the art according to these drawings.
[0022] Figure 1 is a structure diagram of the wiring device in the closed state in the present specific embodiment.
[0023] Figure 2 is a structure diagram of the insulation housing when the wiring device is in the open state in the present specific embodiment.
[0024] Figure 3 is a structure diagram of the connection between the sealing ring and the insulation housing in the present specific embodiment.
[0025] Figure 4 is a structure diagram of the connection between the wiring clamp, the insulation housing, the first wire and the second wire in the present specific embodiment.
[0026] Figure 5 Fig. 1 is a schematic diagram of a wire clamp structure in the embodiment.
[0027] Reference signs:
[0028] 100, wire clamp; 110, clamping portion; 111, sawtooth; 112, groove; 120, compression portion; 130, spring; 140, spring piece;
[0029] 200, insulating housing; 210, mounting groove; 220, first through hole; 230, second through hole; 240, third through hole; 250, sealing cover;
[0030] 300, insulating button;
[0031] 400, sealing ring;
[0032] 500, sealing gasket;
[0033] 600, first wire;
[0034] 700, second wire. DETAILED DESCRIPTION
[0035] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings. Obviously, the embodiments described in the present application are only part of the embodiments of the present application, not all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.
[0036] The electromagnetic transmitter is taken as an example in the embodiment, and the wire connecting device provided in the present application is also applicable to other types of exploration equipment.
[0037] The electromagnetic transmitter is an exploration equipment, and the electromagnetic transmitter can output power to the transmitting coil, so that the transmitting coil generates an electromagnetic field for detecting underground medium.
[0038] In the embodiment, the electromagnetic transmitter is connected to alternating current, the electromagnetic transmitter is provided with positive and negative polar plugs for outputting power to the transmitting coil, the first wire 600 includes a positive wire and a negative wire, one end of the two first wires 600 is respectively provided with a plug matched with the positive and negative polar plugs, the two plugs can be inserted into the corresponding plugs of the electromagnetic transmitter, and the other end of the two first wires 600 is electrically connected to the second wire 700 at both ends of the transmitting coil in a wire connecting manner, so as to form a closed loop, so that the electromagnetic transmitter can output power to the transmitting coil, so that the transmitting coil generates an electromagnetic field for detecting underground medium.
[0039] The two first conductive wires 600 of the electromagnetic transmitter can be connected to the second conductive wire 700 of the transmitting coil by using a wiring device as shown in Figures 1-5 which comprises a wiring clip 100, an insulating housing 200 and an insulating button 300.
[0040] The wiring clip 100 is made of conductive material, for example, the wiring clip 100 can be a copper spring clip, the first conductive wire 600 is welded at one end of the copper spring clip, the other end of the copper spring clip clamps the second conductive wire 700 to realize the electrical connection between the first conductive wire 600 and the second conductive wire 700, and a spring 130 is compressibly arranged at the compression part 120 of the copper spring clip to provide elastic force for clamping the second conductive wire 700. The wiring clip 100 can also be a copper spring clip, and a spring 140 is compressibly arranged at the compression part 120 of the copper spring clip.
[0041] The insulating housing 200 is made of insulating material, and the insulating housing 200 comprises two mounting grooves 210, two first through holes 220, two second through holes 230, two third through holes 240 and a sealing cover 250. The two mounting grooves 210 are spaced apart at a certain distance, the two wiring clips 100 are arranged in the two mounting grooves 210, the two mounting grooves 210 are open towards the same side of the insulating housing 200, and the sealing cover 250 is used to cover the opening. The first through hole 220, the second through hole 230 and the third through hole 240 are all two in number, the first through hole 220, the second through hole 230 and the third through hole 240 are communicated with the corresponding mounting groove 210, the two first conductive wires 600 pass through the two first through holes 220, the two second conductive wires 700 pass through the two second through holes 230, and the two third through holes 240 correspond to the positions of the two compression parts 120.
[0042] The insulating button 300 is also made of insulating material, and the two insulating buttons 300 are arranged at the two third through holes 240 and abut against the compression part 120, and the other ends of the two insulating buttons 300 extend out of the insulating housing 200. When the two insulating buttons 300 are pressed, the compression part 120 is deformed under pressure, and the second conductive wire 700 can be inserted into or taken out of the clamping part 110; when the pressing of the insulating button 300 is stopped, the compression part 120 returns to the uncompressed state, the clamping part 110 clamps the second conductive wire 700, and the first conductive wire 600 and the corresponding second conductive wire 700 are electrically connected through the wiring clip 100.
[0043] Since the electromagnetic transmitter needs to output large current to the transmitting coil, once a person is electrified, it will cause serious casualties and property losses, so the wiring of the electromagnetic transmitter must meet high safety. However, in harsh outdoor environments such as humidity, high temperature, low temperature, wind and sand, and corrosion, wiring by means of twisted connection, wire cap connection and terminal connection requires the use of special tools and skilled wiring skills, and it is difficult to achieve fast and reliable wiring in harsh environments.
[0044] As shown in Figure 1 When wiring work is performed, the deformation of the clamping portion 110 can be controlled by pressing the insulating button 300, so that the second wire 700 can be inserted or taken out in the clamping portion 110. The entire wiring process is simple in operation and few in steps, and does not require the use of any tools, thereby improving the convenience of wiring, so that the wiring work can be quickly and reliably completed in harsh outdoor environments, meeting the requirements of high efficiency and safety.
[0045] Moreover, when the electromagnetic transmitter and the transmitting coil are wired, since the wiring device proposed in the present application can clamp the second wire 700 at both ends of the transmitting coil at the same time, the wiring work can be completed by using one such wiring device and through simple operation, thereby forming a closed loop of the electromagnetic transmitter outputting power to the transmitting coil. Compared with the wiring device that can only connect the second wire 700 at one end of the transmitting coil, it has higher wiring efficiency.
[0046] In addition, the wiring clamp 100 is arranged in the insulating housing 200, and the insulating housing 200 forms protection at the wiring position, which not only improves the waterproofness of the wiring, but also avoids direct contact between the person and the wiring position, effectively avoiding the occurrence of a person being electrified, and better meeting the requirement of high safety.
[0047] Further, the wiring device can include a sealing ring 400 as shown in Figure 3 The sealing ring 400 is arranged in the first through hole 220, the second through hole 230 and the third through hole 240. For example, the sealing ring 400 can be an O-shaped rubber sealing ring, the side walls of the first through hole 220, the second through hole 230 and the third through hole 240 are each provided with an annular groove, and three O-shaped rubber sealing rings are arranged in the three annular grooves. When the first wire 600 is inserted into the first through hole 220, the second wire 700 is inserted into the second through hole 230, and the insulating button 300 is inserted into the third through hole 240, the three O-shaped rubber sealing rings can be compressed and deformed under the action of extrusion, thereby sealing the gap between the first wire 600 and the first through hole 220, the gap between the second wire 700 and the second through hole 230, and the gap between the insulating button 300 and the third through hole 240.
[0048] The wiring device can also include a Figure 1The sealing gasket 500 is shown. The sealing gasket 500 is disposed on one side of the sealing cover 250. For example, the sealing gasket 500 can be a rectangular rubber gasket. The shape of the rectangular rubber gasket matches the shape of the sealing cover 250 and the openings of the two mounting grooves 210. When the sealing cover 250 covers the openings of the two mounting grooves 210, the rectangular rubber gasket is located between them and can generate a certain compression deformation under the action of extrusion, thereby sealing the gap between the openings of the two mounting grooves 210 and the sealing cover 250.
[0049] By using sealing ring 400 and sealing gasket 500 to seal the gaps between the wires, insulating buttons and insulating housing, the waterproofness of the wiring can be further improved, thereby eliminating potential electrical safety and equipment damage risks.
[0050] To further improve the waterproofness of the wiring, the surfaces of the two clamps 100 can be covered with an insulating layer. For example, except for the locations where the two clamping parts 110 are electrically connected to the second conductor 700, other areas on the surfaces of the two clamps 100 are covered with an insulating rubber layer. Since the two clamps 100 are housed within the insulating housing 200, and the gaps between the conductor, the insulating button, and the insulating housing are sealed, water is unlikely to enter the insulating housing 200 and come into contact with the two clamps 100. Even if the insulating housing 200 is damaged, or the sealing ring 400 or the sealing gasket 500 fails, a small amount of water may enter the interior of the insulating housing 200. However, because the surfaces of the two clamps 100 are covered with an insulating rubber layer, it is difficult for a small amount of water inside the insulating housing 200 to penetrate the locations where the clamping parts 110 are electrically connected to the second conductor 700, and the wiring still has good waterproofness.
[0051] like Figure 5 As shown, the clamping part 110 may have serrations 111 at the contact point with the second wire 700. In conventional wire clamps, the connection between the wire and the clamp relies solely on friction, making the wire prone to slipping out due to vibration or external force. However, in this specific embodiment, when the wire clamp 100 clamps the second wire 700, the tips of the serrations 111 can press against the surface of the second wire 700, creating a depression at the pressed area. The tips of the serrations 111 extend into this depression, effectively preventing the second wire 700 from slipping out of the clamping part 110 and improving the reliability of the connection.
[0052] like Figure 5As shown, the position where the clamping portion 110 contacts the second wire 700 can also be provided with a groove 112. A conventional wire clamp forms a line contact with the wire, and the small contact area results in unreliable connection between the two. In the present embodiment, the groove 112 is shaped to match the shape of the second wire 700, and the surface of the groove 112 can form a surface contact with the surface of the second wire 700, increasing the friction between the two, thereby avoiding the second wire 700 from sliding out of the clamping portion 110, and improving the reliability of the connection.
[0053] The shape of the two mounting grooves 210 can match the shape of the two wire clamps 100, and the side walls of the two mounting grooves 210 can abut against the corresponding wire clamps 100, thereby limiting the movement of the wire clamps 100 in the mounting grooves 210, effectively avoiding the situations that the fixed connection between the first wire 600 and the wire clamp 100 fails, and the second wire 700 slides out of the clamping portion 110, and further improving the reliability of the connection.
[0054] The above merely provides the preferred embodiments of the present application, and is not intended to limit the present application. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application shall be included in the protection scope of the present application.
Claims
1. A wiring device, used in exploration equipment, characterized in that, The utility model relates to a kind of wire connecting clamps (100), two, two first wires (600) of the exploration equipment are fixedly connected with two wire connecting clamps (100) respectively, wire connecting clamp (100) includes the clamping portion (110) for clamping second wire (700), and the compression portion (120) of the clamping portion (110) is released second wire (700) by compression deformation, and first wire (600) and corresponding second wire (700) are electrically connected by wire connecting clamp (100); Insulating shell (200) includes installation groove (210), first through-hole (220), second through-hole (230), third through-hole (240) and sealing cover (250), wherein, the number of installation groove (210) is two, two installation grooves (210) are spaced apart, two wire connecting clamps (100) are arranged in two installation grooves (210), two installation grooves (210) are opened to the same side of insulating shell (200), sealing cover (250) is used to cover the opening, the number of first through-hole (220), second through-hole (230) and third through-hole (240) is two, and first through-hole (220), second through-hole (230) and third through-hole (240) are communicated with corresponding installation groove (210), two first wires (600) pass through two first through-holes (220), two second wires (700) pass through two second through-holes (230), and two third through-holes (240) correspond to the positions of two compression portions (120); Two insulating buttons (300) are arranged, one end of two insulating buttons (300) is arranged to abut against the compression portion (120) through two third through-holes (240), and the other end of two insulating buttons (300) extends to the outside of the insulating shell (200). Further comprising:
2. The wiring device of claim 1, wherein, Sealing ring (400) is arranged in first through-hole (220), second through-hole (230) and third through-hole (240), and is used for sealing the gap between first wire (600) and first through-hole (220), second wire (700) and second through-hole (230), and insulating button (300) and third through-hole (240). Further comprising:
3. The wiring device of claim 2, wherein, Sealing gasket (500) is arranged on one side of sealing cover (250), and is used for sealing the gap between the opening of installation groove (210) and sealing cover (250). The surface of the wire connecting clamp (100) is coated with an insulating layer.
4. The wiring device of claim 3, wherein, The clamping portion (110) includes a sawtooth (111), and the clamping portion (110) clamps the second wire (700) through the sawtooth (111).
5. The wiring device of claim 4, wherein, The clamping portion (110) includes a groove (112), and the shape of the groove (112) is adapted to the shape of the second wire (700).
6. The wiring device of claim 5, wherein, The shapes of the two installation grooves (210) are adapted to the shapes of the two wire connecting clamps (100).
7. The wiring device of claim 6, wherein, 8. The wiring device of claim 1, wherein, The terminal clip (100) comprises a spring (130) which is arranged in the compression part (120) in a compressible manner.
9. The wiring device of claim 1, wherein, The terminal clip (100) comprises a spring (140) which is arranged in the compression part (120) in a compressible manner.
10. The wiring device of any of claims 1-9, wherein, The exploration device is an electromagnetic transmitter.