Adjustable combined alloy copper rod suitable for multiple environments

Abstract

The invention discloses an adjustable combined alloy copper rod adapting to multiple environments, and relates to the technical field of alloy copper rods, the adjustable combined alloy copper rod comprises a main copper rod, the outer surface of the main copper rod is provided with a ring groove, one end of the main copper rod is provided with an embedded groove, the inner surface of the embedded groove is provided with a limiting groove, and the outer surface of the main copper rod is provided with an arc-shaped inward moving groove; and debugging the assembly. A hollow copper ring and a main copper rod correspondingly sleeved with the hollow copper ring are held by two hands respectively, an arc-shaped T-shaped strip is shifted to slide in a first T-shaped groove, so that a pushing plate is driven to extrude a first spring, meanwhile, a V-shaped retention block is separated from a V-shaped tooth groove strip, the hollow copper ring is pulled along the length of the main copper rod, and the overall length of the main copper rod can be changed; after the arc-shaped T-shaped strip is loosened, the first spring enables the arc-shaped T-shaped strip to drive the V-shaped retention block to be clamped into the V-shaped tooth groove strip again so that the length can be fixed, the length of the copper rod can be adjusted easily and conveniently without tools, and the copper rod can adapt to various environments and requirements.

Description

Technical Field

[0001] The present invention relates to the technical field of alloy copper rods, and particularly relates to an adjustable combined alloy copper rod adaptable to multiple environments. Background Art

[0002] An alloy copper rod refers to a rod-shaped metal material based on copper as the basic element, made by adding a certain proportion of other metal elements (such as zinc, tin, nickel, aluminum, etc.), with specific mechanical properties and physical properties. According to different alloy elements and proportions, various types of copper alloys can be manufactured to meet different industrial needs. The application of alloy copper rods is very extensive, mainly covering the electronic and electrical industries, mechanical manufacturing, construction industry, automotive industry, aerospace, and medical equipment.

[0003] The existing document with the patent number CN218760769U discloses a strong and tough copper rod, belonging to the technical field of copper rods, including a rod body. One end of the rod body is provided with a first clamp seat, and the other end of the rod body is provided with a second clamp seat. Two insertion posts are integrally formed on one side of the first clamp seat away from the second clamp seat; two stoppers are integrally formed on the second clamp seat, through holes are opened on both stoppers, lifting rods are arranged in both through holes, insertion blocks are fixed at the bottom ends of both lifting rods, and springs are sleeved on both lifting rods; two slots adapted to the insertion posts are opened on one side of the second clamp seat away from the first clamp seat, and clamping slots adapted to the insertion blocks are opened on both insertion posts. Insulating sleeves are fixed in both the first clamp seat and the second clamp seat, and both insulating sleeves are in contact with the rod body. This strong and tough copper rod is convenient for connection and disassembly.

[0004] In some application fields and environments, the length of the copper rod often needs to be changed and the overall angle direction adjusted, mainly to adapt to complex structural arrangements or installation conditions. However, the overall length and shape of the copper rod disclosed above are fixed and cannot be adjusted for use in different environments. Summary of the Invention

[0005] The purpose of the present invention is to provide an adjustable combined alloy copper rod adaptable to multiple environments, which solves the problem that the overall length and shape of the traditional alloy copper rod are fixed and cannot be adjusted for use in different environments.

[0006] The present invention solves the above technical problems through the following technical solutions. The present invention includes: A main copper rod, a circular groove is provided on the outer surface of the main copper rod, an embedded groove is opened at one end of the main copper rod, a limiting groove is opened on the inner surface of the embedded groove, and an arc-shaped inner shifting groove is opened on the outer surface of the main copper rod; Debugging component, the debugging component includes a telescopic member and a rotation direction member. The telescopic member includes a telescopic copper rod disposed inside the embedded groove and a V-shaped tooth groove strip fixed to the inner side of the arc-shaped inner moving groove. One end of the telescopic copper rod is fixed with a copper plate, and a hollow copper ring is fixed to one side of the copper plate. The rotation direction member is disposed on the other side of the copper plate. The hollow copper ring is sleeved outside the main copper rod. A first T-shaped groove is opened on the hollow copper ring. A chute is opened on the inner surface of the first T-shaped groove. A retaining member is disposed inside the first T-shaped groove. The retaining member is used to limit the position of the hollow copper ring on the main copper rod. A groove body is opened on the inner surface of the first T-shaped groove. A limiting member is disposed inside the groove body.

[0007] Preferably, the retaining member includes an arc-shaped T-shaped strip sliding inside the first T-shaped groove. The arc-shaped T-shaped strip slides inside the chute through a connecting shaft. A groove is opened on the inner side of the arc-shaped T-shaped strip. A first positive magnetic sheet is fixed to the inner surface of the groove. A second positive magnetic sheet slides inside the groove. A V-shaped retaining block is fixed to the second positive magnetic sheet.

[0008] Preferably, the limiting member includes a pushing plate sliding inside the groove body. The pushing plate is fixedly connected to the arc-shaped T-shaped strip. At least two first springs are fixed to the pushing plate. One end of the first spring is fixed to the inner surface of the groove body.

[0009] Preferably, the rotation direction member includes a horizontal rotation member and a vertical rotation member. The horizontal rotation member includes an angle scale disk fixed to one side of the copper plate. A positive magnetic V-shaped tooth disk is fixed to one side of the angle scale disk. An installation column is fixed to one side of the positive magnetic V-shaped tooth disk. An installation groove is provided at one end of the installation column. A rotating column rotates inside the installation groove. An installation sleeve is fixed to one end of the rotating column. The horizontal rotation member is disposed on one side of the installation sleeve. The installation sleeve is sleeved outside the installation column. An observation port and a connection groove are opened on the installation sleeve. A negative magnetic V-shaped tooth is disposed inside the connection groove. A convex strip is fixed to the top of the negative magnetic V-shaped tooth.

[0010] Preferably, the vertical rotation member includes a U-shaped installation seat fixed to one side of the installation sleeve. An annular groove is opened on the inner surface of the U-shaped installation seat. An annular limiting ring rotates inside the annular groove. A rotation direction hollow ball is disposed inside the U-shaped installation seat. The rotation direction hollow ball is fixedly connected to the annular limiting ring. A driving member is disposed inside the rotation direction hollow ball.

[0011] Preferably, an inner slot is provided on the inner surface of the rotating hollow ball, and the driving member includes a rod body arranged on the inner side of the U-shaped mounting seat and a screw rod rotating on the inner side of the U-shaped mounting seat, the screw rod is located on the inner side of the rotating hollow ball, one end of the screw rod extends to the outside of the U-shaped mounting seat and is fixed with an anti-slip disk, the outer surface of the screw rod is threadedly connected with a movable sleeve rod, the movable sleeve rod is slidably sleeved on the rod body, and one end of the movable sleeve rod is fixed with an inner connecting rod, and the inner connecting rod is inserted into the inner slot.

[0012] Preferably, the debugging component also includes an assembling part, which is arranged between two adjacent main copper rods, and the assembling part includes a connecting disk fixed to one end of the main copper rod and a mounting disk fixed on the rotating hollow ball, a square rod is fixed to one end of the connecting disk, a through slot is provided on one side of the connecting disk, a hollow cylinder is rotated on the inner side of the through slot, two positioning strips are fixed on the outer surface of the hollow cylinder, a square hole and an alignment groove are provided on the mounting disk, a positioning groove is provided on the inner surface of the alignment groove, and a reset part is provided on the outer surface of the hollow cylinder.

[0013] Preferably, a second T-slot is provided on the outer surface of the connecting disk, and the reset member includes a connecting plate fixed to the outer surface of the hollow cylinder and an arcuate T-plate sliding on the inner side of the second T-slot, the arcuate T-plate is fixedly connected to the connecting plate, and a second spring is fixed on the connecting plate.

[0014] Compared with the prior art, the beneficial effects of the present invention are: 1. Hold the hollow copper ring and the main copper rod corresponding to the hollow copper ring with both hands respectively, and move the arc-shaped T-bar to make it slide in the first T-slot, thereby driving the pushing plate to squeeze the first spring. At the same time, the V-shaped retaining block is separated from the V-shaped tooth groove bar. Pull the hollow copper ring along the length of the main copper rod to change the overall length of the main copper rod. After loosening the arc-shaped T-bar, the first spring drives the arc-shaped T-bar to drive the V-shaped retaining block to re-enter the V-shaped tooth groove bar to fix the length. The copper rod length adjustment is simple and convenient without tools, and can be adapted to a variety of environments and needs.

[0015] 2. By rotating the anti-slip disk to drive the screw to rotate, the movable sleeve rod drives the inner connecting rod to move in the inner slot, thereby promoting the rotation angle of the rotating hollow ball, and then changing the overall direction of the copper rod, so that the copper rod has a certain bending angle. If you need to change the bending direction of the copper rod after bending, you can drive the negative magnetic V-shaped tooth to move along the connecting groove by moving the convex strip. After the negative magnetic V-shaped tooth is out of the V-shaped tooth restriction on the positive magnetic V-shaped tooth plate, the mounting sleeve can be rotated. After adjusting the angle to the appropriate level, release the convex strip. Under the action of the same-sex attraction between the negative magnetic V-shaped tooth and the positive magnetic V-shaped tooth plate, the negative magnetic V-shaped tooth is stuck in the corresponding V-shaped tooth on the positive magnetic V-shaped tooth plate, so that the direction of the bent copper rod can be further adjusted. The cooperation of the horizontal rotating part and the vertical rotating part can complete the multi-directional angle adjustment of the copper rod.

[0016] 3. According to the overall length requirement of the copper rod, the number of main copper rods in the middle can be freely added or reduced. When adding and installing, one end of the main copper rod with the connecting disk installed corresponds to the mounting disk on the other main copper rod to be spliced with it, and the square rod is inserted into the square hole until one end of the hollow tube is blocked by the mounting disk. At this time, the arcuate T-plate is moved, and the force of pushing the connecting disk toward the mounting disk is continued to be applied. The arcuate T-plate squeezes the second spring through the connecting piece and drives the hollow tube to deflect until the hollow tube and the positioning strip are deflected to the opening of the alignment groove and correspond to its shape. After the hollow tube and the positioning strip enter the positioning groove, the arcuate T-plate is released. The elastic force of the second spring causes the arcuate T-plate, hollow tube and positioning strip to deflect and reset. The hollow tube and positioning strip will no longer correspond to the alignment groove. The two main copper rods are assembled. When disassembling, directly move the arcuate T-plate to make the hollow tube and the positioning strip correspond to the alignment groove, and then pull them out. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 Schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the main copper rod after the connection angle is adjusted in the present invention; Figure 3 1 is a split cross-sectional view of the main copper rod in the present invention; Figure 4 for Figure 3 A magnified schematic diagram of part A in the middle; Figure 5 for Figure 3 A magnified schematic diagram of part B in the middle; Figure 6 for Figure 3 Enlarged schematic diagram of the middle C part; Figure 7 for Figure 3 Enlarged schematic diagram of the middle D part; Figure 8 It is a disassembled cross-sectional view of the assembly parts in the present invention.

[0018] 1. Main copper rod; 2. Ring groove; 3. Embedded groove; 4. Limit groove; 5. Arc-shaped inward displacement groove; 6. Debugging component; 61. Telescopic copper rod; 62. V-shaped tooth groove strip; 63. Copper plate; 64. Hollow copper ring; 65. First T-shaped groove; 66. Slide groove; 67. Arc-shaped T-shaped strip; 68. Groove; 69. First positive magnetic sheet; 610. Second positive magnetic sheet; 611. V-shaped retaining block; 612. Angle scale; 613. Positive magnetic V-shaped tooth disc; 614. Mounting post; 615. Mounting groove; 616. Rotating post; 617. Mounting sleeve; 618. Observation port; 619. Connecting groove; 620. Negative magnetic V-shaped tooth; 621. Rib; 622. U-shaped mounting seat; 623. Annular groove; 624. Annular limiting ring; 625. Rotation-direction hollow ball; 626. Inner slot; 627. Lead screw; 628. Anti-slip disc; 629. Moving sleeve rod; 630. Inner connecting rod; 631. Connecting disc; 632. Mounting disc; 633. Square rod; 634. Interpenetrating slot; 635. Hollow cylinder; 636. Positioning strip; 637. Square hole; 638. Positioning groove; 639. Second T-shaped groove; 640. Connecting piece; 641. Arc-shaped T-shaped plate; 642. Second spring; 643. Groove body; 644. Pushing plate; 645. First spring; 646. Alignment groove; 647. Rod body. Detailed implementation

[0019] The following further elaborates on the above and other technical features and advantages of the present invention with reference to the accompanying drawings.

[0020] The present invention provides a technical solution: an adaptable multi-environment adjustable combined alloy copper rod, as Figures 1-8 shown, including a main copper rod 1 and a debugging component 6. A circular groove 2 is provided on the outer surface of the main copper rod 1. An embedded groove 3 is opened at one end of the main copper rod 1. Two corresponding limiting grooves 4 are opened on the inner surface of the embedded groove 3. An arc-shaped inner moving groove 5 is opened on the outer surface of the main copper rod 1. The debugging component 6 includes a telescopic member and a rotation-direction member. The telescopic member includes a telescopic copper rod 61 disposed inside the embedded groove 3 and a V-shaped tooth groove strip 62 fixed to the inner side of the arc-shaped inner moving groove 5. The limiting grooves 4 are used to limit the movement trajectory of the telescopic copper rod 61 to ensure that the telescopic copper rod 61 can only be horizontally pulled in the embedded groove 3. One end of the telescopic copper rod 61 is fixed with a copper plate 63, and a hollow copper ring 64 is fixed to one side of the copper plate 63. The rotation-direction member is disposed on the other side of the copper plate 63. The hollow copper ring 64 is sleeved outside the main copper rod 1 and is located in the circular groove 。A first T-shaped groove 65 is opened on the hollow copper ring 64. A slide groove 66 is opened on the inner surface of the first T-shaped groove 65. A retaining member is provided inside the first T-shaped groove 65. The retaining member is used to limit the position of the hollow copper ring 64 on the main copper rod 1. A groove body 643 is opened on the inner surface of the first T-shaped groove 65. A limiting member is provided inside the groove body 643. The limiting member is used to automatically reset the retaining member in the first T-shaped groove 65.

[0021] The retaining member includes an arc-shaped T-shaped strip 67 that slides inside the first T-shaped groove 65. The arc-shaped T-shaped strip 67 slides inside the sliding groove 66 through a connecting shaft, thereby pulling and restricting the sliding trajectory and range of the arc-shaped T-shaped strip 67. A groove 68 is formed inside the arc-shaped T-shaped strip 67. A first positive magnetic sheet 69 is fixed on the inner surface of the groove 68. A second positive magnetic sheet 610 slides inside the groove 68. A V-shaped retaining block 611 is fixed on the second positive magnetic sheet 610. The position of the V-shaped retaining block 611 is restricted by the repulsion generated by the same magnetic properties of the first positive magnetic sheet 69 and the second positive magnetic sheet 610. Later, the V-shaped retaining block 611 pushed into the groove 68 can also be reset. The limiting member includes a pushing plate 644 that slides inside the groove body 643. The pushing plate 644 is fixedly connected to the arc-shaped T-shaped strip 67. At least two first springs 645 are fixed on the pushing plate 644. One end of the first spring 645 is fixed on the inner surface of the groove body 643. The arc-shaped T-shaped strip 67 is automatically reset in the first T-shaped groove 65 by the elastic force of the first spring 645.

[0022] The rotating member includes a horizontal rotating member and a vertical rotating member. The horizontal rotating member includes an angle scale disk 612 fixed on one side of the copper plate 63. Angle scale lines and angle markings are provided on the angle scale disk 612. A positive magnetic V-shaped tooth disk 613 is fixed on one side of the angle scale disk 612. Each V-shaped tooth on the positive magnetic V-shaped tooth disk 613 corresponds to an angle marking. An installation column 614 is fixed on one side of the positive magnetic V-shaped tooth disk 613. An installation groove 615 is provided at one end of the installation column 614. A rotating column 616 rotates inside the installation groove 615. An installation sleeve 617 is fixed at one end of the rotating column 616. The horizontal rotating member is arranged on one side of the installation sleeve 617. The installation sleeve 617 is sleeved outside the installation column 614. An observation port 618 and a connection groove 619 are formed on the installation sleeve 617. The observation port 618 is used to observe whether the V-shaped teeth on the negative magnetic V-shaped tooth 620 and the positive magnetic V-shaped tooth disk 613 correspond. A negative magnetic V-shaped tooth 620 is arranged inside the connection groove 619. A convex strip 621 is fixed on the top of the negative magnetic V-shaped tooth 620.

[0023] The vertical rotating part includes a U-shaped mounting base 622 fixed to one side of the mounting sleeve 617. Two oppositely arranged annular grooves 623 are provided on the inner surface of the U-shaped mounting base 622. An annular limiting ring 624 rotates inside the annular groove 623. A rotation-direction hollow ball 625 is arranged inside the U-shaped mounting base 622. A fixed connection is made between the rotation-direction hollow ball 625 and the annular limiting ring 624. The rotation position of the rotation-direction hollow ball 625 is restricted by the annular limiting ring 624. A driving part is arranged inside the rotation-direction hollow ball 625. An obliquely arranged inner insertion slot 626 is provided on the inner surface of the rotation-direction hollow ball 625. The driving part includes a rod body 647 arranged inside the U-shaped mounting base 622 and a lead screw 627 rotating inside the U-shaped mounting base 622. The lead screw 627 is located inside the rotation-direction hollow ball 625 and is positioned with respect to the center line of the ball. One end of the lead screw 627 extends outside the U-shaped mounting base 622 and is fixed with an anti-slip disc 628. An arrow direction mark is provided on the anti-slip disc 628 to facilitate the user to know the rotation direction in time. A moving sleeve rod 629 is threadedly connected to the outer surface of the lead screw 627. The moving sleeve rod 629 is slidably sleeved on the rod body 647. One end of the moving sleeve rod 629 is fixed with an inner connecting rod 630. The inner connecting rod 630 is inserted into the inner insertion slot 626.

[0024] The debugging assembly 6 further includes a splicing part. The splicing part is arranged between two adjacent main copper rods 1. The splicing part is not provided on the main copper rods 1 at the head end and the tail end. The splicing part is mainly used for quickly disassembling and assembling between the main copper rods 1, and the splicing quantity of the main copper rods 1 can be changed by itself according to the use environment and scene. The splicing part includes a connection disc 631 fixed to one end of the main copper rod 1 and an installation disc 632 fixed to the rotation-direction hollow ball 625. One end of the connection disc 631 is fixed with a square rod 633. A through slot 634 is provided on one side of the connection disc 631. The through slot 634 is arranged around the square rod 633. A hollow cylinder 635 rotates inside the through slot 634. Two equally spaced clamping strips 636 are fixed to the outer surface of the hollow cylinder 635. A square hole 637 and a positioning slot 646 are provided on the installation disc 632. The size of the square hole 637 is adapted to the square rod 633. The shape of the positioning slot 646 is the combined structure shape of the hollow cylinder 635 and the clamping strips 636 on the hollow cylinder 635. A clamping groove 638 is provided on the inner surface of the positioning slot 646. The shape of the clamping groove 638 is the shape formed after the positioning slot 646 rotates a certain angle around the center point. A reset part is arranged on the outer surface of the hollow cylinder 635. A second T-shaped groove 639 is provided on the outer surface of the connection disc 631. The reset part includes a connection piece 640 fixed to the outer surface of the hollow cylinder 635 and an arc-shaped T-shaped plate 641 slidably arranged inside the second T-shaped groove 639. The arc-shaped T-shaped plate 641 is fixedly connected to the connection piece 640. A second spring 642 is fixed to the connection piece 640. The second spring 642 is used to help the hollow cylinder 635 automatically reset.

[0025] When in use, one hand holds the hollow copper ring 64, and the other hand holds the main copper rod 1 corresponding to the hollow copper ring 64, and the thumb moves the arc T-shaped bar 67 on the hollow copper ring 64, so that the arc T-shaped bar 67 slides along the slide groove 66 in the first T-shaped groove 65, thereby driving the V-shaped retaining block 611 to move accordingly, and at the same time the arc T-shaped bar 67 will drive the pushing plate 644 to slide in the groove body 643 and squeeze the first spring 645, and the V-shaped retaining block 611 will move along the arc inner displacement groove 5 in the direction away from the V-shaped tooth groove bar 62. The V-shaped retaining block 611 is pushed by the wall of the arc-shaped inward displacement groove 5 to push the second positive magnetic piece 610 closer to the first positive magnetic piece 69 until the arc-shaped T-shaped bar 67 is limited by the sliding groove 66 and cannot slide. This means that the V-shaped retaining block 611 moves out of the V-shaped tooth groove bar 62, releasing the limit of the V-shaped tooth groove bar 62 on the V-shaped retaining block 611, and pulling the hollow copper ring 64 along the length of the main copper rod 1. The hollow copper ring 64 will drive the telescopic copper rod 61 to be pulled out of the embedded groove 3 through the copper plate 63, thereby changing the overall length of the main copper rod 1. After the hollow copper ring 64 is pulled a certain distance, the arc-shaped T-shaped bar 67 is released, and the first spring 645 will push the pushing plate 644 to reset by its own elastic force, and the pushing plate 644 will drive the arc-shaped T-shaped bar 67 to reset. When the arc-shaped T-shaped bar 67 is reset, the V-shaped retaining block 611 will move along the arc-shaped inner displacement groove 5 toward the direction close to the V-shaped tooth groove bar 62, and during the movement, the V-shaped retaining block 611 can be smoothly stuck in the V-shaped tooth groove bar 62 under the action of the same-pole repulsion between the first positive magnetic piece 69 and the second positive magnetic piece 610. In the V-shaped socket, when one end of the V-shaped retaining block 611 contacts the edge of one of the V-shaped socket openings in the V-shaped socket strip 62, it will slide into the V-shaped socket along the inclined contact surface, thereby realizing automatic alignment of the V-shaped retaining block 611 and the V-shaped socket, and slightly adjusting the position of the hollow copper ring 64. Restricted by the V-shaped socket in the V-shaped socket strip 62, the position of the V-shaped retaining block 611 is restricted, thereby restricting the position of the arc-shaped T-shaped bar 67 and the hollow copper ring 64, and the copper rod length adjustment can be completed simply and quickly.

[0026] When it is necessary to change the direction (i.e., angle) of the copper rod, the anti-slip disc 628 can be rotated to drive the lead screw 627 to rotate. The rotation of the lead screw 627 will cause the moving sleeve rod 629 to move along the rod body 647. The moving sleeve rod 629 will drive the inner connecting rod 630 to move in the inner slot 626, thereby pushing the rotation-direction hollow ball 625 to rotate a certain angle, and then changing the overall direction of the copper rod, causing a certain angle bend in the copper rod. If it is necessary to change the bending direction of the copper rod after bending, the rib 621 can be toggled to drive the negative magnetic V-shaped tooth 620 to move along the connecting groove 619, so that the negative magnetic V-shaped tooth 620 moves away from the positive magnetic V-shaped tooth disc 613. After the negative magnetic V-shaped tooth 620 is released from the V-shaped tooth restriction on the positive magnetic V-shaped tooth disc 613, the mounting sleeve 617 can be rotated. By observing through the observation port 618 the corresponding relationship between the V-shaped teeth on the negative magnetic V-shaped tooth 620 and the positive magnetic V-shaped tooth disc 613, when the rotation angle of the mounting sleeve 617 is adjusted to an appropriate value, the rib 621 is released. Under the action of the like-pole attraction between the negative magnetic V-shaped tooth 620 and the positive magnetic V-shaped tooth disc 613, the negative magnetic V-shaped tooth 620 is stuck in the corresponding V-shaped tooth on the positive magnetic V-shaped tooth disc 613, and the direction of the copper rod after bending can be further adjusted. The cooperation of the horizontal rotating part and the vertical rotating part can complete the multi-directional angle adjustment of the copper rod.

[0027] According to the overall length requirement of the copper rod, the number of main copper rods 1 in the middle can be freely added or reduced. When adding and installing the main copper rod 1 in the middle, one end of the main copper rod 1 with the connecting disk 631 is matched with the mounting disk 632 on the other main copper rod 1 to be spliced with it, and one end of the square rod 633 is inserted into the square hole 637 until one end of the hollow cylinder 635 is blocked by the mounting disk 632. At this time, the curved T-shaped plate 641 is moved by the thumb of the hand holding the connecting disk 631, and the force of pushing the connecting disk 631 toward the mounting disk 632 is continued. When the arcuate T-shaped plate 641 is moved, the connecting plate 631 as a whole will not deflect due to the restriction of the square rod 633 and the square hole 637. Only the arcuate T-shaped plate 641 will deflect in the second T-shaped slot 639. The arcuate T-shaped plate 641 drives the connecting piece 640 to deflect in the through-slot 634 and squeeze the second spring 642. The deflection of the connecting piece 640 will drive the hollow cylinder 635 to deflect, and the hollow cylinder 635 will drive the two locking strips 636 to deflect together with it until the hollow cylinder 635 and the two locking strips 636 deflect to the opening of the alignment slot 646 and correspond to the shape of the alignment slot 646. At this time, the obstruction on the connecting disk 631 is removed, and it can continue to approach the mounting disk 632. The square rod 633 will continue to enter the square hole 637, and the hollow cylinder 635 and the locking strip 636 will enter the locking groove 638 until the connecting disk 631 and the mounting disk 632 are attached together. At this time, the hollow cylinder 635 and the locking strip 636 are completely in the locking groove 638, and the arc T-shaped plate 641 is released. Under the elastic force of the second spring 642, the connecting piece 640 and the arc T-shaped plate 641 are reset, and the connecting piece 640 will drive the hollow cylinder 635 and the locking strip 636 to deflect into the locking groove 638. The deflection of the hollow cylinder 635 and the locking strip 636 will no longer correspond to the alignment groove 646, and will be restricted inside the locking groove 638. The connecting plate 631 and the mounting plate 632 can be fixedly assembled. The assembly method is simple and convenient, and no tools are required. When several main copper rods 1 need to be removed, the arc-surface T-shaped plate 641 is directly moved to drive the connecting piece 640 to deflect and squeeze the second spring 642. After the connecting piece 640 drives the hollow cylinder 635 and the locking strip 636 to deflect to the direction corresponding to the alignment groove 646, the hollow cylinder 635 and the locking strip 636 can be directly pulled out to complete the disassembly work.

[0028] The above description is merely a preferred embodiment of the present invention and is intended to be illustrative rather than restrictive of the present invention. Those skilled in the art will appreciate that many changes, modifications, and even equivalents may be made to the present invention within the spirit and scope of the claims, all of which fall within the scope of protection of the present invention.

Claims

1. An adjustable modular alloy copper rod adaptable to multiple environments, characterized in that, Including: A main copper rod (1), a circular groove (2) is arranged on the outer surface of the main copper rod (1), an embedded groove (3) is opened at one end of the main copper rod (1), a limiting groove (4) is opened on the inner surface of the embedded groove (3), and an arc-shaped inner shifting groove (5) is opened on the outer surface of the main copper rod (1); A debugging component (6), the debugging component (6) includes a telescopic member and a rotation direction member, the telescopic member includes a telescopic copper rod (61) arranged inside the embedded groove (3) and a V-shaped tooth groove strip (62) fixed to the inner side of the arc-shaped inner shifting groove (5), one end of the telescopic copper rod (61) is fixed with a copper plate (63), a hollow copper ring (64) is fixed to one side of the copper plate (63), the rotation direction member is arranged on the other side of the copper plate (63), the hollow copper ring (64) is sleeved on the outside of the main copper rod (1), a first T-shaped groove (65) is opened on the hollow copper ring (64), a sliding groove (66) is opened on the inner surface of the first T-shaped groove (65), a retaining member is arranged inside the first T-shaped groove (65), the retaining member is used for limiting the position of the hollow copper ring (64) on the main copper rod (1), a groove body (643) is opened on the inner surface of the first T-shaped groove (65), and a limiting member is arranged inside the groove body (643).

2. The adaptable multi-environment adjustable combined alloy copper rod according to claim 1, characterized in that, The retaining member includes an arc-shaped T-shaped strip (67) sliding inside the first T-shaped groove (65), the arc-shaped T-shaped strip (67) slides inside the sliding groove (66) through a connecting shaft, a groove (68) is opened on the inner side of the arc-shaped T-shaped strip (67), a first positive magnetic sheet (69) is fixed on the inner surface of the groove (68), a second positive magnetic sheet (610) slides inside the groove (68), and a V-shaped retaining block (611) is fixed on the second positive magnetic sheet (610).

3. The adaptable multi-environment adjustable combined alloy copper rod according to claim 2, characterized in that, The limiting member includes a pushing plate (644) sliding inside the groove body (643), the pushing plate (644) is fixedly connected with the arc-shaped T-shaped strip (67), at least two first springs (645) are fixed on the pushing plate (644), and one end of the first spring (645) is fixed on the inner surface of the groove body (643).

4. The adaptable multi-environment adjustable combined alloy copper rod according to claim 2, wherein The rotation direction member includes a horizontal rotation member and a vertical rotation member, the horizontal rotation member includes an angle scale disk (612) fixed to one side of the copper plate (63), a positive magnetic V-shaped tooth disk (613) is fixed to one side of the angle scale disk (612), a mounting column (614) is fixed to one side of the positive magnetic V-shaped tooth disk (613), a mounting groove (615) is arranged at one end of the mounting column (614), a rotating column (616) rotates inside the mounting groove (615), a mounting sleeve (617) is fixed to one end of the rotating column (616), the horizontal rotation member is arranged on one side of the mounting sleeve (617), the mounting sleeve (617) is sleeved on the outside of the mounting column (614), an observation port (618) and a connecting groove (619) are opened on the mounting sleeve (617), a negative magnetic V-shaped tooth (620) is arranged inside the connecting groove (619), and a convex strip (621) is fixed to the top of the negative magnetic V-shaped tooth (620).

5. The adaptable multi-environment adjustable combined alloy copper rod according to claim 4, characterized in that, The vertical rotating part includes a U-shaped mounting seat (622) fixed to one side of the mounting sleeve (617). An annular groove (623) is formed on the inner surface of the U-shaped mounting seat (622). An annular limiting ring (624) rotates inside the annular groove (623). A rotation-direction hollow ball (625) is arranged inside the U-shaped mounting seat (622). The rotation-direction hollow ball (625) is fixedly connected to the annular limiting ring (624). A driving part is arranged inside the rotation-direction hollow ball (625).

6. The adaptable multi-environment adjustable combined alloy copper rod according to claim 5, characterized in that, An inner slot (626) is formed on the inner surface of the rotation-direction hollow ball (625). The driving part includes a rod body (647) arranged inside the U-shaped mounting seat (622) and a lead screw (627) rotating inside the U-shaped mounting seat (622). The lead screw (627) is located inside the rotation-direction hollow ball (625). One end of the lead screw (627) extends outside the U-shaped mounting seat (622) and is fixed with an anti-slip disc (628). A moving sleeve rod (629) is threadedly connected to the outer surface of the lead screw (627). The moving sleeve rod (629) is slidably sleeved on the rod body (647). One end of the moving sleeve rod (629) is fixed with an inner connecting rod (630). The inner connecting rod (630) is inserted into the inner slot (626).

7. The adaptable multi-environment adjustable combined alloy copper rod according to claim 6, characterized in that, The debugging assembly (6) further includes an assembling part. The assembling part is arranged between two adjacent main copper rods (1). The assembling part includes a connecting disc (631) fixed to one end of the main copper rod (1) and a mounting disc (632) fixed to the rotation-direction hollow ball (625). One end of the connecting disc (631) is fixed with a square rod (633). An insertion slot (634) is formed on one side of the connecting disc (631). A hollow cylinder (635) rotates inside the insertion slot (634). Two clamping strips (636) are fixed to the outer surface of the hollow cylinder (635). A square hole (637) and a positioning slot (646) are formed on the mounting disc (632). A clamping slot (638) is formed on the inner surface of the positioning slot (646). A reset part is arranged on the outer surface of the hollow cylinder (635).

8. The adaptable multi-environment adjustable combined alloy copper rod according to claim 7, characterized in that, A second T-shaped groove (639) is formed on the outer surface of the connecting disc (631). The reset part includes a connecting piece (640) fixed to the outer surface of the hollow cylinder (635) and an arc-shaped T-shaped plate (641) sliding inside the second T-shaped groove (639). The arc-shaped T-shaped plate (641) is fixedly connected to the connecting piece (640). A second spring (642) is fixed to the connecting piece (640).

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