Wire tying device and industrial computer

Abstract

This application relates to the field of cable management devices for computer chassis, and discloses a cable tie and an industrial computer. The cable tie is detachably connected to a mounting base, which has a mounting hole and a stepped portion on the outer periphery of the mounting hole. The cable tie includes a rotating base, a locking cylinder, and a binding component. The rotating base has a positioning hole, and one end of the rotating base has a limit strip. The end of the limit strip extends inward at an inward angle to form a first guide portion, and extends outward at an inward angle to form a second guide portion. One end of the locking cylinder has a positioning post, and the other end has a locking port. The locking cylinder is inserted between the limit strips, the positioning post is inserted into the positioning hole, and the locking port is sleeved on the first guide portion. The limit strip is used to insert into the mounting hole, and the second guide portion engages with the stepped portion. The positioning post protrudes from the opening of the positioning hole. The binding component is disposed on the rotating base. Through the above method, the cable tie can not only easily adjust the direction of the cable but also be easily assembled and disassembled.

Description

Technical Field

[0001] This application relates to the field of cable management devices for computer chassis, specifically to a cable tie and an industrial control computer. Background Technology

[0002] Industrial PCs contain various circuit components inside their chassis, which require wiring to connect and enable data transmission. Examples of such connections include power cables, LED cables, hard drive cables, and switch cables. Industry standards require that all wiring inside the industrial PC chassis be secured to the chassis to prevent flywires from forming on the motherboard due to vibration, drops, or other environmental factors, which could affect circuit stability.

[0003] The chassis of existing industrial control computers typically have cable ties clipped on at the locations where cables need to be bundled. The cable ties clips have channels that run through both ends. By passing the self-locking cable ties through these channels and binding the cables tightly, the cables can be bundled and secured.

[0004] This method has several drawbacks. First, once the cable ties are secured, the orientation of the openings at both ends of the channel is fixed, making it impossible to adjust the direction and angle of the cable ties. Second, when the cable routing inside the chassis changes, the original cable ties cannot be removed and reused. Instead, new cable ties need to be pressed into the adjusted positions to secure the cables, which undoubtedly leads to a waste of resources and increased costs. Utility Model Content

[0005] In view of the above problems, this application provides a wire tie and an industrial control computer, which can not only easily adjust the direction and angle of the wire tie, but also be easily disassembled and assembled to adapt to changes in the position of the wire tie.

[0006] According to one aspect of the embodiments of this application, a wire tie is provided for detachably connecting to a mounting base. The mounting base is used to fix the wire to be tied. The mounting base has a mounting hole, and a stepped portion is provided on the outer periphery of the mounting hole. The wire tie includes: a rotating base, a locking cylinder, and a binding member. The rotating base has a positioning hole, and at least two limiting strips are provided at one end of the rotating base. The at least two limiting strips are arranged circumferentially along the positioning hole, and the limiting strips extend axially along the rotating base and are elastically bendable. The ends of the limiting strips extend obliquely towards the inner side of the positioning hole to form a first... The guide section has a second guide section formed by the end of the limiting strip extending outward at an angle. One end of the locking cylinder is provided with a positioning post, and the other end is provided with a locking port. The locking cylinder is inserted between at least two limiting strips, wherein the positioning post is inserted into the positioning hole, and the locking port is sleeved on the first guide section. The limiting strip is used to be inserted into the mounting hole, and the second guide section is engaged with the stepped section along the axial direction of the mounting hole so that the rotating seat is rotatably connected to the mounting seat. The positioning post is exposed at the opening of the positioning hole at the end opposite to the locking cylinder. The binding member is provided at the end of the rotating seat opposite to the locking cylinder and is used to bind the wire.

[0007] In one alternative embodiment, the wire tie also includes a fixed plate, and a rotating seat is rotatably connected to the fixed plate. The fixed plate has a limiting opening, and the outer periphery of the limiting opening protrudes to one end to form a connecting plate. The end of the connecting plate extends vertically to form a pressure plate. A limiting strip passes through the limiting opening, and the pressure plate is disposed between at least two limiting strips. An elastic element is sleeved on the outer periphery of the positioning cylinder, and an clearance opening is provided on the pressure plate. The clearance opening is sleeved on the positioning cylinder, and the elastic element abuts against the rotating seat and the pressure plate and is compressed. The fixed plate is used for limiting connection with the mounting seat along the circumferential direction of the mounting hole.

[0008] In one alternative embodiment, one end of the rotating seat is provided with an annular convex wall, and a groove is formed on the inner circumference of the convex wall; a slider is provided on the outer circumference of the fixed disk, the fixed disk is housed in the inner circumference of the convex wall, and the slider can be slidably engaged in the groove.

[0009] In one alternative embodiment, the wire tie also includes a connecting plate sandwiched between a rotating base and a fixed plate, and the rotating base is rotatable relative to the fixed plate; the connecting plate has a through hole through which a locking cylinder and an elastic element pass, and a limiting strip is located at the end of the connecting plate opposite to the rotating base.

[0010] In one alternative embodiment, the end of the mounting base is provided with a boss, a limiting port for inserting the boss, and the inner wall of the limiting port abuts against the boss.

[0011] In one alternative embodiment, the binding component includes a connecting buckle and a cable tie; the connecting buckle is flipped and connected to a rotating seat, and the connecting buckle can flip between a first angle and a second angle; the connecting buckle is provided with a first limiting tooth, and when the connecting buckle is at the first angle, an interpenetrating gap is formed between the first limiting tooth and the rotating seat, with the two ends of the interpenetrating gap being the inlet and the outlet, respectively; a second limiting tooth is provided on one side of the cable tie, the head end of the cable tie is fixed to the connecting buckle, and the tail end is used to bypass the connecting buckle and pass through the interpenetrating gap, the second limiting tooth can slide relative to the first limiting tooth in the direction from the inlet to the outlet, and the second limiting tooth is engaged and limited by the first limiting tooth in the direction from the outlet to the inlet, so that the wire is bound and fixed between the cable tie and the connecting buckle; when the connecting buckle is at the second angle, the first limiting tooth flips to a state of separation from the second limiting tooth, and the limitation of the cable tie is released.

[0012] In one alternative embodiment, the rotating base is provided with a mounting groove, and the two side walls of the mounting groove are provided with connecting holes. The two sides of the connecting buckle are provided with rotating shafts. The connecting buckle is at least partially disposed in the mounting groove, and the rotating shafts on both sides of the connecting buckle are correspondingly inserted into the connecting holes on the two side walls of the mounting groove. The connecting holes include a first hole, a second hole, and a channel connecting the first hole and the second hole. The rotating shaft can move between the first hole and the second hole through the channel. When the rotating shaft is in the first hole, the connecting buckle is in an unlocked state, and the connecting buckle can be flipped relative to the rotating base between a first angle and a second angle. The side wall of the mounting groove is also provided with a limiting groove, and the connecting buckle is provided with a limiting protrusion. When the connecting buckle is in the first angle, and the rotating shaft moves from the first hole to the second hole through the channel, the limiting protrusion slides and engages with the limiting groove, and the connecting buckle is in a locked state. When the connecting buckle is in the first angle, an interlocking gap is formed between the bottom of the mounting groove and the first limiting tooth.

[0013] In one alternative configuration, the rotating base is provided with a tape inlet that communicates with the mounting slot.

[0014] In one alternative embodiment, the connecting buckle includes a rotating part, a cable tie fixing part, and a force-receiving part that are fixed to each other. The cable tie fixing part and the force-receiving part are located at opposite ends of the rotating part. The rotating part is flipped and connected to the rotating seat. The force-receiving part is used to receive force to drive the rotating part to flip. The head end of the cable tie is fixed to the cable tie fixing part. A first limiting tooth is provided on the rotating part. A middle through hole is provided on the force-receiving part, and the middle through hole communicates with the insertion gap.

[0015] According to another aspect of the embodiments of this application, an industrial control computer is provided, including a chassis, circuit elements, a mounting base, and a cable tie as described above; the circuit elements include a variety of components, all of which are disposed in the chassis and electrically connected to each other by wires; the mounting base is riveted and fixed to the inner wall of the chassis, the cable tie is detachably connected to the mounting base, and the wires are bundled and fixed by the cable tie.

[0016] The wire tie provided in this application embodiment firstly has an axially extending and bendable limiting strip at one end of the rotating seat, and a second guide portion is inclinedly provided on the outside of the limiting strip. By pressing the second guide portion against the inner wall of the mounting hole on the mounting seat, the limiting strip can bend and retract inward and be smoothly inserted into the mounting hole. After being inserted into place, the rebound of the limiting strip causes the second guide portion to engage with the stepped portion on the outer periphery of the mounting hole along the axial direction of the mounting hole. Finally, the rotating seat is easily and reliably assembled onto the mounting seat, and the rotating seat can rotate relative to the mounting seat to adjust the direction and angle of the binding wire on it to adapt to different binding wire needs.

[0017] In addition, this application cleverly provides a first guide portion inclined on the inner side of the end of the limiting strip, and also provides a locking cylinder. On the one hand, the first guide portion can expand outward under the pressure of the locking cylinder when the locking cylinder is assembled, so as to ensure that the locking cylinder can be installed smoothly. On the other hand, after the locking cylinder is installed, the first guide portion extends into the locking hole at the end of the locking cylinder, so that when the locking cylinder moves, the limiting strip can be bent and contracted inward by the pressure of the first guide portion, thereby separating the second guide portion from the step portion, and the limiting strip can be smoothly pulled out from the mounting hole, and the wire tie can be removed from the mounting base accordingly.

[0018] This application also includes a positioning hole on the rotating base and a positioning post on the other end of the positioning cylinder opposite the positioning opening. After the positioning cylinder is inserted between the limiting strips, the positioning post is correspondingly inserted into the positioning hole. Under the limiting effect of the positioning hole on the positioning post and the limiting effect of the first guide on the positioning opening, the positioning cylinder is reliably fixed between the limiting strips. At the same time, the opening at the outward end of the positioning hole allows the positioning post to protrude, so that by pressing the positioning post through the opening with a finger or auxiliary tool, the second guide can be separated from the step part, thereby easily removing the wire tie from the mounting base and changing the installation position to adapt to changes in the wire tie position.

[0019] The above description is only an overview of the technical solution of this application. In order to better understand the technical means of this application and to implement it in accordance with the contents of the specification, and to make the above and other objects, features and advantages of this application more obvious and understandable, the following are specific embodiments of this application. Attached Figure Description

[0020] Various other advantages and benefits will become apparent to those skilled in the art upon reading the following detailed description of preferred embodiments. The accompanying drawings are for illustrative purposes only and are not intended to limit the scope of this application. Furthermore, the same reference numerals denote the same parts throughout the drawings. In the drawings:

[0021] Figure 1 and Figure 2 These are two schematic diagrams showing the assembly structure of the wire tie and the mounting base from two different perspectives, respectively, according to embodiments of this application.

[0022] Figure 3 and Figure 4 These are exploded structural diagrams of the wire tie and mounting base provided in the embodiments of this application from two different perspectives;

[0023] Figure 5 A partial structural diagram of the end position of the limiting strip in the wire tie provided in an embodiment of this application;

[0024] Figure 6 and Figure 7These are two viewpoints showing the assembly structure of some components in the wire tie provided in the embodiments of this application;

[0025] Figure 8 and Figure 9 These are two perspective structural schematic diagrams of the mounting base provided in the embodiments of this application;

[0026] Figure 10 The exploded structure of some components in the wire tie provided in the embodiments of this application;

[0027] Figure 11 An exploded structure of a portion of a wire tie provided in another embodiment of this application;

[0028] Figure 12 A schematic diagram of the structure of the wire tie provided in the embodiments of this application, in which the connecting buckle is located at a first angle and is in a locked state, and the wire tie is tightened;

[0029] Figure 13 This is a schematic diagram of the structure of the cable tie provided in the embodiments of this application when the connecting buckle is in the unlocked state and located at the second angle;

[0030] Figure 14 and Figure 15 These are two perspective structural schematic diagrams of the connecting buckle in the wire tie provided in the embodiments of this application;

[0031] Figure 16 and Figure 17 These are schematic cross-sectional views of the connecting buckle in the wire tie provided in the embodiments of this application when it is at the first angle and the second angle, respectively.

[0032] The reference numerals in the detailed embodiments are as follows:

[0033] 100. Wire tie;

[0034] 110. Rotating seat; 1101. First part; 1102. Second part; 111. Positioning hole; 112. Protruding wall; 113. Slide groove; 114. Snap-fit ​​hole; 115. Mounting groove; 1151. Connecting hole; 1151a. First hole position; 1151b. Second hole position; 1151c. Channel; 1152. Limiting groove; 116. Belt inlet;

[0035] 120. Positioning cylinder; 121. Positioning pin; 122. Positioning port;

[0036] 130. Bundling component; 131. Connecting buckle; 1311. First limiting tooth; 1312. Rotating shaft; 1313. Guide slope; 1314. Limiting protrusion; 1315. Limiting notch; 1316. Rotating part; 1317. Cable tie fixing part; 1318. Force-bearing part; 1319. Intermediate through hole; 132. Cable tie; 1321. Second limiting tooth; 1322. Head end; 1323. Tail end; 133. Insertion gap; 1331. Inlet; 1332. Outlet;

[0037] 140. Limiting bar; 141. First guide section; 142. Second guide section;

[0038] 150. Fixed plate; 151. Limiting port; 152. Connecting plate; 153. Pressing plate; 154. Clearance port; 155. Slider; 1551. Guide surface;

[0039] 160. Elastic components;

[0040] 170. Connecting plate; 171. Through hole;

[0041] 200, Mounting base; 210, Mounting hole; 220, Stepped section; 230, Boss. Detailed Implementation

[0042] The embodiments of the technical solution of this application will now be described in detail with reference to the accompanying drawings. These embodiments are only used to more clearly illustrate the technical solution of this application and are therefore merely examples, and should not be used to limit the scope of protection of this application.

[0043] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this application pertains; the terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the application; the terms “comprising” and “having”, and any variations thereof, in the specification, claims, and foregoing description of the drawings are intended to cover non-exclusive inclusion.

[0044] In the description of the embodiments of this application, technical terms such as "first" and "second" are used only to distinguish different objects and should not be construed as indicating or implying relative importance or implicitly specifying the number, specific order, or primary and secondary relationship of the indicated technical features. In the description of the embodiments of this application, "multiple" means two or more, unless otherwise explicitly defined.

[0045] In this document, the term "embodiment" means that a particular feature, structure, or characteristic described in connection with an embodiment may be included in at least one embodiment of this application. The appearance of this phrase in various places throughout the specification does not necessarily refer to the same embodiment, nor is it a separate or alternative embodiment mutually exclusive with other embodiments. It will be explicitly and implicitly understood by those skilled in the art that the embodiments described herein can be combined with other embodiments.

[0046] In the description of the embodiments in this application, the term "and / or" is merely a description of the relationship between related objects, indicating that three relationships can exist. For example, A and / or B can represent three cases: A exists, A and B exist simultaneously, and B exists. In addition, the character " / " in this document generally indicates that the related objects before and after it have an "or" relationship.

[0047] In the description of the embodiments of this application, the term "multiple" refers to two or more (including two), similarly, "multiple sets" refers to two or more (including two sets), and "multiple pieces" refers to two or more (including two pieces).

[0048] In the description of the embodiments of this application, the technical terms "center," "longitudinal," "lateral," "length," "width," "thickness," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," "clockwise," "counterclockwise," "axial," "radial," and "circumferential" indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing the embodiments of this application and simplifying the description, and are not intended to indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the embodiments of this application.

[0049] In the description of the embodiments of this application, unless otherwise expressly specified and limited, technical terms such as "installation," "connection," "joining," and "fixing" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. For those skilled in the art, the specific meaning of the above terms in the embodiments of this application can be understood according to the specific circumstances.

[0050] To facilitate adjustment of the wire binding direction and angle, and to enable convenient assembly and disassembly, this application proposes a novel wire binding device. Please refer to the embodiments for details. Figure 1 and Figure 2The figures show the three-dimensional structure of the cable tie and mounting base after assembly from two different perspectives. As shown, the cable tie 100 is detachably connected to the mounting base 200, which is used to fix the cable tie to the location where it needs to be tied, such as the inner wall of the chassis or a bracket or connecting plate within the chassis. The mounting base 200 can be made of metal and fixed to the location where the cable tie needs to be tied by riveting, which simplifies the assembly operation of the mounting base 200, improves assembly efficiency, and provides high strength and structural stability, making it less prone to loosening even after long-term use. Of course, the mounting base 200 can also be fixed to the location where the cable tie needs to be tied by screws; the specific installation method is not limited here.

[0051] Please refer to further information. Figure 3 and Figure 4 The figure shows the exploded structure of the wire tie and the mounting base from two different perspectives. The wire tie 100 includes: a rotating base 110, a locking cylinder 120, and a binding component 130.

[0052] The rotating base 110 has a positioning hole 111, and at least two limiting strips 140 are provided at one end of the rotating base 110. The at least two limiting strips 140 are arranged circumferentially along the positioning hole 111, and the limiting strips 140 extend axially along the rotating shaft 110, and can undergo elastic bending deformation when subjected to force. Figure 5 As shown in the partial structure of the middle limiting strip 140, the end of the limiting strip 140 extends obliquely inward toward the positioning hole 111 to form a first guide portion 141, and the end also extends obliquely outward to form a second guide portion 142.

[0053] One end of the positioning cylinder 120 is provided with a positioning post 121, and the other end is provided with a positioning opening 122. The positioning cylinder 120 causes the limiting strip 140 to bend and expand outward by pressing the first guide portion 141, so as to be inserted between at least two limiting strips 140, and after being inserted into place, as... Figure 6 and Figure 7 As shown, the positioning pin 121 is inserted into the positioning hole 111, and the locking port 122 is sleeved on the first guide portion 141, thereby restricting the locking cylinder 120 between the limiting strips 140.

[0054] Please see Figure 8 and Figure 9 The mounting base 200, as shown in the diagram, has a three-dimensional structure viewed from two angles. The mounting base 200 has a mounting hole 210, and a stepped portion 220 is provided on the outer periphery of the mounting hole 210. The limiting strip 140 can bend and retract inward by pressing against the inner wall of the mounting hole 210 through the second guide portion 142, thus smoothly inserting it into the mounting hole 210, thereby assembling the wire tie 100 on the mounting base 200. Once the limiting strip 140 is inserted into place, as... Figure 2As shown, the limiting strip 140 returns to its original shape, and the second guide portion 142 engages with the step portion 220 along the axial direction of the mounting hole 210. This prevents the limiting strip 140 from coming out of the mounting hole 210. Furthermore, through the frictional engagement between the second guide portion 142 and the step portion 220, the limiting strip 140 can be rotated relative to the mounting base 200, thereby enabling the rotating base 110 to be rotatably assembled on the mounting base 200.

[0055] The binding element 130 is located at one end of the rotating seat 110 away from the positioning cylinder 120. It can be a cable tie that is fixed on the rotating seat 110 and can be tightened. The binding element 130 is used to bind wires. By rotating the rotating seat 110 relative to the mounting seat 200, the binding direction and angle of the binding element 130 can be adjusted to adapt to the binding requirements in different directions.

[0056] When the wiring is adjusted and the location of the bundled wires changes accordingly, the cable tie 100 can be easily removed from the mounting base 200. Specifically, as follows: Figure 6 As shown, the positioning post 121 is exposed at the opening of the positioning hole 111 away from the end of the clamping cylinder 120. The binding member 130 can be connected to the rotating seat 110 without the positioning hole 111, or it can be detachably installed on the rotating seat 110 by means of snap-fit, threaded fastener connection, etc., so as to ensure that the positioning hole 111 can be avoided when the wire tie 100 needs to be removed.

[0057] When it is necessary to remove the cable tie 100, the positioning post 121 can be pressed from the opening of the positioning hole 111 with a finger or an auxiliary tool (such as a screwdriver) to move the locking cylinder 120 toward the mounting base 200. Figure 7 As shown, since the locking slot 122 is fitted onto the first guide portion 141, the movement of the locking slot 122 will compress the first guide portion 141, causing the first guide portion 141 to move inward, and the limiting strip 140 will correspondingly bend and contract inward. Consequently, as... Figure 2 As shown, the second guide portion 142 moves inward, and when the second guide portion 142 moves to be completely separated from the step portion 220, the limit strip 140 can be pulled out from the mounting hole 210, thereby realizing the removal of the wire tie 100 from the mounting base 200.

[0058] For the aforementioned mounting base 200, which is fixed to the wire-binding location using a traditional crimping method, the mounting base 200 cannot be disassembled and reused. However, such a mounting base 200 has a relatively simple structure and small size; whether it is removed and discarded or left in its original position, it will not cause significant resource waste or cost consumption. When it is necessary to install the wire tie 100 at a new wire-binding location, a new mounting base 200 can be crimped and fixed to that location again, and the original wire tie 100 can be rotatably installed onto the new mounting base 200 to meet the wire-binding fixation requirements after the adjustment.

[0059] As for the mounting base 200 mentioned above, which can be detachably fixed to the part where the wire needs to be tied by means of screws, it can be removed from the old part where the wire needs to be tied and installed in the new part where the wire needs to be tied, and the original wire tie 100 can be rotatably installed on the new mounting base 200.

[0060] In summary, the wire tie 100 provided in this application embodiment firstly has a bendable and deformable limiting strip 140 at one end of the rotating seat 110, and a second guide portion 142 is inclinedly provided on the outside of the limiting strip 140. By pressing the second guide portion 142 against the inner wall of the mounting hole 210 on the mounting base 200, the limiting strip 140 can bend and retract inward and be smoothly inserted into the mounting hole 210. After being inserted into place, the rebound of the limiting strip 140 causes the second guide portion 142 to be axially limited and engaged with the step portion 220 on the outer periphery of the mounting hole 210. Finally, the rotating seat 110 is easily and reliably assembled onto the mounting base 200, and the rotating seat 110 can rotate relative to the mounting base 200 to adjust the wire binding direction and angle of the binding member 130 on it to adapt to different wire binding requirements.

[0061] After the rotating seat 110 and the mounting seat 200 are assembled, the end of the mounting seat 200 away from the rotating seat 110 needs to be fixedly connected to the part to be tied (such as the inner wall of the chassis). This completely blocks the limiting strip 140, so it is impossible to apply force directly to the limiting strip 140 to make it bend and shrink inward. In other words, it is impossible to make the second guide part 142 move inward and separate from the step part 220. This makes it extremely difficult to remove the wire tie from the mounting seat 200.

[0062] In response, this application cleverly provides a first guide portion 141 inclined on the inner side of the end of the limiting strip 140, and additionally provides a locking cylinder 120. On the one hand, the first guide portion 141 can expand outward under the pressure of the locking cylinder 120 when the locking cylinder 120 is assembled, so as to ensure that the locking cylinder 120 can be smoothly installed. On the other hand, after the locking cylinder 120 is installed, the first guide portion 141 extends into the locking port 122 at the end of the locking cylinder 120, so that when the locking cylinder 120 moves, the limiting strip 140 can be bent and contracted inward by the pressure of the first guide portion 141, thereby separating the second guide portion 142 from the step portion 220, and the limiting strip 140 can be smoothly pulled out from the mounting hole 210, and the wire tie 100 is removed from the mounting base 200 accordingly.

[0063] Of course, the locking cylinder 120 located between the limiting strips 140 is also difficult to move under force due to being blocked by the rotating seat 110 and the mounting seat 200. To address this, this application provides a positioning hole 111 on the rotating seat 110 and a positioning post 121 on the other end of the locking cylinder 120 opposite to the locking port 122. After the locking cylinder 120 is inserted between the limiting strips 140, the positioning post 121 is inserted into the positioning hole 111. Under the limiting effect of the positioning hole 111 on the positioning post 121 and the limiting effect of the first guide part 141 on the locking port 122, the locking cylinder 120 is reliably fixed between the limiting strips 140. Meanwhile, the opening at the outward end of the positioning hole 111 allows the positioning post 121 to be exposed, so that the second guide part 142 can be separated from the step part 220 by pressing the positioning post 121 through the opening with a finger or auxiliary tool, and the wire tie 100 can be easily removed from the mounting base 200.

[0064] To ensure the reliability of wire bundling and fixation, and to prevent frequent rotation and wobbling of the rotating seat 110 after it is assembled into the mounting base 200, a suitable dimensional design can be considered. This design would allow the limiting strip 140 to be inserted into the mounting hole 210, with the second guide portion 142 and the step portion 220 tightly abutting against each other, and the surface of the rotating seat 110 to be tightly abutting against the surface of the mounting base 200. This utilizes friction at the corresponding positions to ensure that the rotating seat 110 does not rotate easily. However, this method requires high dimensional accuracy of the components, which inevitably leads to a decrease in the product qualification rate.

[0065] To achieve the same objective, this application also proposes a new implementation scheme, which please refer to again for details. Figure 3 and Figure 4 The wire tie 100 may also include a fixed plate 150, and a rotating seat 110 rotatably connected to the fixed plate 150. The two can slide and cooperate in a way that is either a slider and a groove, or a pulley and a rail. The specific details are not limited here.

[0066] A limiting opening 151 is provided on the fixed plate 150. A connecting plate 152 protrudes from one end of the outer periphery of the limiting opening 151, and a pressing plate 153 extends vertically from the end of the connecting plate 152. Please combine further. Figure 7 When assembling the fixed plate 150 and the rotating seat 110, the limiting strip 140 passes through the limiting port 151, and the pressing plate 153 correspondingly enters between at least two limiting strips 140 by squeezing the first guide part 141.

[0067] An elastic element 160 is fitted around the outer periphery of the positioning cylinder 120. A clearance opening 154 is provided on the pressure plate 153. After the pressure plate 153 enters between at least two limiting strips 140, it is fitted onto the positioning cylinder 120 through the clearance opening 154, thus not affecting the movement of the positioning cylinder 120 when disassembling the wire tie 100. The elastic element 160 correspondingly abuts against the pressure plate 153 and the rotating seat 110 and is compressed, which ensures that the elastic element 160 always exerts a spring force towards the rotating seat 110 in the direction away from the fixed plate 150.

[0068] The fixing plate 150 is used to limit the connection between the fixing plate 150 and the mounting base 200 along the circumferential direction of the mounting hole 210, that is, the fixing plate 150 cannot rotate relative to the mounting base 200. Specifically, the fixing plate 150 can be limited by the abutment of the protrusion and the recess or by the locking of the pin. In some embodiments, such as Figure 3 and Figure 8 As shown, a boss 230 may be provided at the end of the mounting base 200. When the fixing plate 150 is assembled into the mounting base 200, the boss 230 is inserted into the limiting port 151. The inner wall of the limiting port 151 abuts against the outer peripheral edge of the boss 230, so that the fixing plate 150 is fixed relative to the mounting base 200 along the circumference of the mounting hole 210.

[0069] With the above configuration, the fixed plate 150 is fixedly assembled onto the mounting base 200, and the rotating base 110 is inserted into the mounting hole 210 via the limiting strip 140. The second guide portion 142 and the step portion 220 are engaged, allowing the rotating base 110 to still rotate relative to the mounting base 200. Furthermore, because the pressure plate 153 and the rotating base 110 are abutted by an elastic element 160, the rotating base 110 and the limiting strip 140 are constantly moving away from the mounting base 200 due to the elastic force of the elastic element 160. This tendency ensures that the second guide portion 142 and the step portion 220 are tightly abutted with a large positive pressure, thereby increasing the static friction between the second guide portion 142 and the step portion 220, preventing the rotating base 110 from rotating easily, and ensuring the reliability of the wire bundling and fixing.

[0070] Regarding the rotational assembly method between the rotating seat 110 and the fixed disk 150, this application proposes an embodiment, please refer to the following for details. Figure 10The figure shows the exploded structure of the rotating seat 110 and the fixed disk 150. As shown in the figure, one end of the rotating seat 110 can be provided with an annular convex wall 112. The inner circumference of the convex wall 112 is provided with a sliding groove 113. The outer circumference of the fixed disk 150 is provided with a slider 155. The fixed disk 150 is housed in the inner circumference of the convex wall 112, and the slider 155 can be slidably engaged in the sliding groove 113. This allows the rotating seat 110 and the fixed disk 150 to rotate relative to each other while moving axially ( Figure 10 The direction of the midpoint line is relatively fixed.

[0071] To further ensure that the rotating seat 110 does not rotate easily and to prevent it from pulling on the bundled wires, a damping structure can be provided in the slide groove 113, for example, it could be... Figure 10 The slide block 155 is engaged with several snap-fit ​​holes 114 arranged closely in the circumferential direction, making it difficult for the rotating seat 110 to rotate easily relative to the fixed plate 150. Accordingly, at least one side of the slide block 155 may be provided with a guide surface 1551 (which may be an arc surface or a slope). Through the extrusion friction between the guide surface 1551 and the surface near the snap-fit ​​holes 114, the slide block 155 can switch between multiple snap-fit ​​holes 114 when the rotating seat 110 is under force, so that the rotating seat 110 can rotate to the desired wire binding direction and then be fixed.

[0072] Of course, in some other embodiments, the damping structure can also be a wave-shaped structure. The damping effect of the wave-shaped structure on the slider 155 is the same as that of the snap-fit ​​hole 114. In addition, the damping structure can also be a soft rubber pad that can increase the friction between the slider 155 and the soft rubber pad.

[0073] from Figure 7 As can be seen, when the limiting strip 140 and the rotating seat 110 are an integral structure, or when the two are fixedly connected, since the limiting strip 140 is inserted into the limiting opening 151, it is restricted by the outer periphery of the limiting opening 151, and therefore the limiting strip 140 cannot rotate a full circle. Consequently, the direction of the binding wire cannot be adjusted 360°. Figure 7 In the specific embodiment shown, the limiting strip 140 can rotate about 60° in the limiting port 151, which can basically meet the adjustment needs of most binding directions.

[0074] To further increase the rotation angle of the rotating seat 110, this application also proposes an embodiment, which can be found in the following details. Figure 11The figure shows an exploded view of a portion of the rotating seat 110 in a wire tie 100 according to another embodiment of this application. As shown in the figure, the wire tie 100 may further include a connecting plate 170, which is sandwiched between the rotating seat 110 and the fixed plate 150, and the rotating seat 110 is rotatable relative to the fixed plate 150. A through hole 171 is provided on the connecting plate 170, through which the locking cylinder 120 and the elastic member 160 pass, and a limiting strip 140 is provided at the end of the connecting plate 170 opposite to the rotating seat 110.

[0075] In this embodiment, by adding a connecting plate 170 between the rotating seat 110 and the fixed plate 150, the rotating seat 110 and the connecting plate 170 are made to rotate relative to each other. The limiting strip 140 is set at the end of the connecting plate 170 away from the rotating seat 110, so that when the rotating seat 110 is rotated to adjust the binding direction, the limiting strip 140 no longer rotates with it. As a result, the rotation angle of the rotating seat 110 is no longer affected by the interference between the limiting strip 140 and the outer periphery of the limiting port 151, and the rotating seat 110 can be rotated 360°.

[0076] In the embodiment where the fixed plate 150 is inserted into the slide groove 113 by the slider 155 and rotates with the rotating seat 110, and the connecting plate 170 is clamped between the fixed plate 150 and the rotating seat 110, the elastic force applied by the elastic member 160 to the rotating seat 110 no longer increases the static friction between the second guide portion 142 and the step portion 220. Instead, it increases the static friction between the slider 155 and the slide groove 113 by applying an elastic force to the rotating seat 110 away from the fixed plate 150, thereby ensuring that the rotating seat 110 will not rotate easily.

[0077] Existing self-locking cable ties, which connect to the cable tie clips and are used for bundling cables, cannot be loosened once tightened. If re-tying is required, the ties must be cut and discarded, and a new self-locking cable tie must be installed. This undoubtedly wastes materials and reduces the margin of error for assembly personnel. If a mistake is made, the old cable tie must be discarded and a new one replaced. Furthermore, due to the small cross-sectional area of ​​the channels on the cable tie clips, threading the self-locking cable ties through the channels in narrow spaces within the chassis is quite cumbersome.

[0078] In view of the above problems, this application further improves the structural design of the bundling component 130, making it convenient for bundling wires and reusable. Please refer again for details. Figure 3 and Figure 4 The binding component 130 includes a connecting buckle 131 and a cable tie 132. The connecting buckle 131 is flipped and connected to the rotating seat 110. The connecting buckle 131 can be... Figure 12 The first angle shown and Figure 13 Flip between the second angle shown.

[0079] Please combine further Figure 14 and Figure 15 The connecting buckle 131 is shown in two perspectives, and the connecting buckle 131 is provided with a first limiting tooth 1311, as shown. Figure 12 Stereoscopic view and Figure 16 As shown in the cross-sectional view, when the connecting buckle 131 is at the first angle, an interpenetrating gap 133 is formed between the first limiting tooth 1311 and the rotating seat 110, with the two ends of the interpenetrating gap 133 being the inlet 1331 and the outlet 1332, respectively.

[0080] A second limiting tooth 1321 is provided on one side of the cable tie 132. The head end 1322 of the cable tie 132 is fixed to the connecting buckle 131, and the tail end 1323 is used to bypass the connecting buckle 131 and pass through the insertion gap 133. The first limiting tooth 1311 and the second limiting tooth 1321 are both designed as follows: Figure 16 The right-angled teeth shown (i.e., each tooth is a right-angled triangle) can, of course, also be used with helical teeth (i.e.,... Figure 16 The right angle in the right-angle tooth is enlarged to an obtuse angle. The purpose of this setting is to use the mutual guiding effect of the matching inclined surfaces between the first limiting tooth 1311 and the second limiting tooth 1321 to allow the second limiting tooth 1321 to pass smoothly through the intersecting gap 133 from the inlet 1331 to the outlet 1332. At the same time, the mutual abutment and limiting effect of the vertical surfaces between the first limiting tooth 1311 and the second limiting tooth 1321 prevents the second limiting tooth 1321 from being pulled out in the opposite direction. That is, the second limiting tooth 1321 can slide relative to the first limiting tooth 1311 in the direction from the inlet 1331 to the outlet 1332, while the direction from the outlet 1332 to the inlet 1331 is blocked and limited by the first limiting tooth 1311.

[0081] With this setup, in the initial state, the head end 1322 of the cable tie 132 is fixed to the connecting buckle 131, while the tail end 1323 is in a free state. When bundling the wire, the wire is placed between the cable tie 132 and the connecting buckle 131, and then the tail end 1323 is inserted from the inlet 1331 into the insertion gap 133 and out from the outlet 1332. After the tail end 1323 is pulled tight, the wire is reliably bundled and fixed between the cable tie 132 and the connecting buckle 131. Under the reverse limiting action between the first limiting tooth 1311 and the second limiting tooth 1321, the cable tie 132 will not loosen, ensuring that the wire is firmly bundled.

[0082] like Figure 13 Three-dimensional structure and Figure 17As shown in the cross-sectional structure, when the connecting buckle 131 is at the second angle shown in the figure, the first limiting tooth 1311 flips to a state that is separated from the second limiting tooth 1321. At this time, the first limiting tooth 1311 and the second limiting tooth 1321 are released from engagement, and the tail end 1323 of the cable tie 132 can be smoothly pulled out to realize the reuse of the cable tie 132, thereby reducing costs and improving the error tolerance rate of technicians during cable tying operations.

[0083] Regarding the structure in which the connecting buckle 131 and the rotating seat 110 are flipped together, this application proposes an implementation method, which can be found in the following description. Figure 6 The rotating base 110 is provided with a mounting groove 115, and the two side walls of the mounting groove 115 are provided with connecting holes 1151. Please further combine Figure 14 and Figure 15 The connecting buckle 131 has a rotating shaft 1312 on both sides. The connecting buckle 131 is at least partially disposed in the mounting groove 115, and the rotating shafts 1312 on both sides of the connecting buckle 131 are correspondingly inserted into the connecting holes 1151 on the side walls of the mounting groove 115.

[0084] To facilitate the assembly operation between the connecting buckle 131 and the rotating seat 110, such as Figure 14 and Figure 15 As shown, the end of the rotating shaft 1312 can be provided with a guide slope 1313. When the connecting buckle 131 is inserted into the mounting groove 115, the rotating shaft 1312 can be smoothly inserted into the connecting hole 1151 to form a rotatable connection through the extrusion deformation between the guide slope 1313 and the inner wall of the mounting groove 115. Alternatively, the rotating shaft 1312 and the connecting buckle 131 can be separately installed. After the connecting buckle 131 is inserted into the mounting groove 115, the rotating buckle 1312 is inserted into the connecting hole 1151 from the outside to the inside, so that the connecting buckle 131 and the rotating seat 110 form a rotatable engagement.

[0085] The connecting hole 1151 can be gourd-shaped. The gourd shape primarily allows the rotating shaft 1312 to move within the connecting hole 1151, thereby enabling the locking and unlocking of the connecting buckle 131. Specifically, as shown... Figure 6 As shown, the connecting hole 1151 includes a first hole position 1151a, a second hole position 1151b, and a channel 1151c connecting the first hole position 1151a and the second hole position 1151b. The "gourd shape" makes the channel 1151c narrower than the first hole position 1151a and the second hole position 1151b. This allows the rotating shaft 1312 to move and switch between the first hole position 1151a and the second hole position 1151b through the channel 1151c when a slightly larger force is applied to the connecting buckle 131. Furthermore, when the rotating shaft 1312 is in the first hole position 1151a or the second hole position 1151b, it can remain in the current hole position due to the narrower channel 1151c.

[0086] Please continue reading. Figure 6 , Figure 14 and Figure 15 and simultaneously combined Figure 13 The side wall of the mounting groove 115 is also provided with a limiting groove 1152, and the connecting buckle 131 is provided with a limiting protrusion 1314. When the rotating shaft 1312 is in the first hole position 1151a, the limiting protrusion 1314 is located outside the limiting groove 1152. At this time, the connecting buckle 131 is in the unlocked state, that is, the rotation of the connecting buckle 131 is unrestricted, and it can rotate relative to the rotating seat 110. Figure 12 and Figure 16 The first angle shown is Figure 13 and Figure 17 Flip between the second angle shown.

[0087] When the connecting buckle 131 is at the first angle, when the rotating shaft 1312 moves from the first hole 1151a through the channel 1151c to the second hole 1151b, the limiting protrusion 1314 slides and gets into the limiting groove 1152. At this time, due to the limiting groove 1152 abutting and limiting the limiting protrusion 1314, the connecting buckle 131 cannot be flipped relative to the rotating seat 110, and the connecting buckle 131 is in a locked state.

[0088] When the connecting buckle 131 is in Figure 16 At the first angle shown, an interlocking gap 133 is formed between the bottom of the mounting groove 115 and the first limiting tooth 1311.

[0089] In actual operation, when it is necessary to tie the wire, after adjusting the direction of the tying by rotating the rotating seat 110 and locking the connecting buckle 131, first place the wire on the connecting buckle 131, then wrap the tail end 1323 of the tying tape 132 around the connecting buckle 131 and pass through the insertion gap 133 from the inlet 1331 to the outlet 1332. Then pull the tail end 1323 that comes out from the outlet 1332 to tighten the tying tape 132, and the wire is correspondingly tied between the tying tape 132 and the connecting buckle 131.

[0090] When it is necessary to untie the wire, force is applied to the connecting buckle 131 to move the rotating shaft 1312 from the second hole 1151b to the first hole 1151a. The limiting protrusion 1314 slides out from the limiting groove 1152 accordingly, and the connecting buckle 131 is unlocked. Then, the connecting buckle 131 is flipped to the second angle so that the first limiting tooth 1311 and the second limiting tooth 1321 separate and are no longer locked. Then, the tail end 1323 of the cable tie 132 is pulled out, and the bundled wire is released.

[0091] Of course, the design of the connecting hole 1151, the limiting protrusion 1314 and the limiting groove 1152 is only an example provided by this application. In some other embodiments, the connecting buckle 131 and the rotating seat 110 can also be flipped by conventional hole-shaft cooperation. As for locking the connecting buckle 131, it can be achieved by a structure such as a pin or a latch.

[0092] Furthermore, such as Figure 6 As shown, the positioning hole 111 can be formed at the bottom of the mounting groove 115. When it is necessary to press the positioning post 121 through the positioning hole 111 to remove the cable tie 100 from the mounting base 200, first unlock the connecting buckle 131 and flip it to the second angle so that the positioning hole 111 is exposed, and then press the positioning post 121 through the positioning hole 111. This setting also ensures that the connecting buckle 131 is in the first angle and in the locked state. When the wire is bundled and fixed, the connecting buckle 131 will also cover the positioning hole 111 to prevent the positioning post 121 from being accidentally pressed and causing the cable tie 100 to detach abnormally from the mounting base 200, which helps to ensure the reliability of the wire after bundling and fixing. Of course, in some other embodiments, the position of the mounting groove 115 and the position of the positioning hole 111 can also avoid each other.

[0093] As for the rotating seat 110 provided in the above embodiment, since one end needs to have an installation groove 115, and the side wall of the installation groove 115 also needs to be provided with a structure such as a connecting hole 1151 and a limiting groove 1152, and the other end needs to cooperate with the limiting strip 140 and the locking cylinder 120, it may also need to cooperate with components such as the fixing plate 150, the elastic element 160 and the connecting plate 170. This will undoubtedly make the overall shape of the rotating seat 110 very complex, and the mold opening cost will also become more expensive for its production.

[0094] In order to reduce the production cost of the rotating seat 110, such as Figure 10 As shown, the rotating base 110 may include a first part 1101 and a second part 1102. The first part 1101 is located between the second part 1102 and the limiting strip 140. The first part 1101 is responsible for abutting against the locking cylinder 120, further abutting against the elastic member 160, and rotatably connected to the fixed plate 150. The second part 1102 has a mounting groove 115 for rotatably engaging with the connecting buckle 131. The two facing surfaces of the first part 1101 and the second part 1102 are flat, abutting against each other and fixedly connected by screws or buckles. This arrangement simplifies the structural shape of the first part 1101 and the second part 1102, and can effectively reduce production costs compared to using a one-piece molding method for the rotating base 110.

[0095] like Figure 12 and Figure 13As shown, the rotating seat 110 can be provided with an inlet 116 that communicates with the mounting groove 115. When bundling wires, the tail end 1323 of the bundling tape 132 passes around the connecting buckle 131 and can be inserted into the mounting groove 115 through the inlet 116. It then passes through the insertion gap 133 and is tightened to complete the bundling.

[0096] The design of the inlet 116 ensures that after the cable tie 132 tightly binds the wire, the force on the cable tie 132 is primarily applied to the wall of the edge of the inlet 116. Figure 16 The area marked by the circle at the midpoint can weaken the interaction force between the first limiting tooth 1311 and the second limiting tooth 1321, thereby preventing the cable tie from coming loose.

[0097] In addition, to prevent the cable tie 132 from slipping off the connecting buckle 131 during the tightening process, such as... Figure 12 As shown, a limiting notch 1315 can also be provided on the connecting buckle 131. When tying the wire, the tying tape 132 passes around the connecting buckle 131 and is inserted into the limiting notch 1315, and then passes through the interlacing gap 133 and is tightened.

[0098] Considering that when there are only a few cables to be bundled, the cables may wobble in the space between the cable tie 132 and the connecting buckle 131, which would undoubtedly affect the reliability of the cable fixation. Therefore, this application further improves the structure of the connecting buckle 131, specifically, as follows: Figure 12 and 14 As shown, the connecting buckle 131 may include a rotating part 1316, a cable tie fixing part 1317, and a force-receiving part 1318 that are fixed to each other. The cable tie fixing part 1317 and the force-receiving part 1318 are located at opposite ends of the rotating part 1316. The rotating part 1316 is flipped and connected to the rotating seat 110, and the force-receiving part 1318 is used to receive force to drive the rotating part 1316 to flip.

[0099] The head end 1322 of the cable tie 132 is fixed to the cable tie fixing part 1317, for example, it can be used as follows: Figure 12 The connection shown is for fixing, but hook-and-loop, binding, or screw connections can also be used; specific methods are not limited here. The first limiting tooth 1311 is as follows... Figure 15 As shown, the first limiting tooth 1311 is disposed on the rotating part 1316. Since the rotating part 1316 is directly rotatably connected to the rotating seat 110, the first limiting tooth 1311 can be disposed on the rotating part 1316 to ensure that the rotating part 1316 is in a certain position. Figure 16 At the first angle shown, the first limiting tooth 1311 can more stably lock and limit the second limiting tooth 1321 on the cable tie 132.

[0100] like Figure 12 and Figure 16 As shown, a central through hole 1319 is provided on the force-bearing part 1318, and the central through hole 1319 communicates with the insertion gap 133. This allows the cable tie 132 to be used as a guide when there are few wires to be bundled. Figure 16 As shown by the dashed line, the wire passes through the rotating part 1316 and through the middle through hole 1319 into the insertion gap 133, so as to bind the wire in a small area between the rotating part 1316 and the cable tie 132, so that the wire can still be firmly and reliably bundled when a small amount of wire is bundled.

[0101] According to another aspect of the embodiments of this application, an industrial control computer (not shown) is provided, which includes a chassis, circuit components, a mounting base 200, and a cable tie 100 as described in any of the above embodiments. The circuit components include various types, such as a motherboard, hard disk, power supply, etc., and the various circuit components are all disposed inside the chassis and electrically connected to each other by wires. The mounting base 200 is crimped and fixed to the inner wall of the chassis, and the cable tie 100 is detachably connected to the mounting base 200, and the wires connecting the circuit components are bundled and fixed by the cable tie 100.

[0102] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this application, and not to limit them. Although this application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some or all of the technical features therein; and these modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of this application. In particular, as long as there is no structural conflict, the various technical features mentioned in the various embodiments can be combined in any way.

Claims

1. A wire tie, characterized in that, It is used for detachable connection to the mounting base, the mounting base is used to fix the wire to be tied, the mounting base has a mounting hole, and the outer periphery of the mounting hole is provided with a stepped part; The wire tie includes: a rotating base, a locking cylinder, and a binding component; The rotating seat has a positioning hole, and one end of the rotating seat is provided with at least two limiting strips. The at least two limiting strips are arranged circumferentially along the positioning hole, and the limiting strips extend axially along the rotating seat. The limiting strips can be elastically bent and deformed. The end of the limiting strip extends obliquely towards the inside of the positioning hole to form a first guide portion, and the end of the limiting strip extends obliquely towards the outside to form a second guide portion. One end of the positioning cylinder is provided with a positioning post, and the other end is provided with a positioning opening. The positioning cylinder is inserted between at least two of the limiting strips, wherein the positioning post is inserted into the positioning hole, and the positioning opening is sleeved on the first guide part. The limiting strip is used to be inserted into the mounting hole, and the second guide portion is engaged with the step portion along the axial direction of the mounting hole, so that the rotating seat is rotatably connected to the mounting seat; The positioning post is exposed at the opening of the positioning hole at the end opposite to the locking cylinder; The binding element is located at the end of the rotating seat opposite to the locking cylinder, and the binding element is used to bind the wire.

2. The wire tie according to claim 1, characterized in that, The wire tie also includes a fixed plate, and the rotating seat is rotatably connected to the fixed plate; The fixed plate has a limiting port, and the outer periphery of the limiting port protrudes to one end to form a connecting plate. The end of the connecting plate extends vertically to form a pressing plate. The limiting strip passes through the limiting opening, and the pressing plate is disposed between at least two of the limiting strips; An elastic element is sleeved on the outer periphery of the positioning cylinder, and an clearance opening is provided on the pressure plate. The clearance opening is sleeved on the positioning cylinder, and the elastic element abuts against the rotating seat and the pressure plate and is compressed. The fixing plate is used to limit the connection with the mounting base along the circumferential direction of the mounting hole.

3. The wire tie according to claim 2, characterized in that, One end of the rotating seat is provided with an annular convex wall, and a sliding groove is provided on the inner circumference of the convex wall; The outer periphery of the fixed disk is provided with a slider, the fixed disk is housed within the inner periphery of the convex wall, and the slider can be slidably engaged in the groove.

4. The wire tie according to claim 2, characterized in that, The wire tie also includes a connecting plate, which is sandwiched between the rotating base and the fixed plate, and the rotating base can rotate relative to the fixed plate; The connecting plate has a through hole, through which the locking cylinder and the elastic element pass, and the limiting strip is located at the end of the connecting plate away from the rotating seat.

5. The wire tie according to claim 2, characterized in that, The mounting base has a boss at one end, and the limiting port is used for inserting the boss, with the inner wall of the limiting port abutting against the boss.

6. The wire tie according to any one of claims 1-5, characterized in that, The binding component includes a connecting buckle and a cable tie; The connecting buckle is flipped and connected to the rotating seat, and the connecting buckle can flip between a first angle and a second angle; The connecting buckle is provided with a first limiting tooth. When the connecting buckle is at the first angle, an interpenetrating gap is formed between the first limiting tooth and the rotating seat. The two ends of the interpenetrating gap are the inlet and the outlet, respectively. A second limiting tooth is provided on one side of the cable tie. The head end of the cable tie is fixed to the connecting buckle, and the tail end is used to bypass the connecting buckle and pass through the insertion gap. The second limiting tooth can slide relative to the first limiting tooth in the direction from the inlet to the outlet, and the second limiting tooth is locked and limited by the first limiting tooth in the direction from the outlet to the inlet, so that the wire is bundled and fixed between the cable tie and the connecting buckle. When the connecting buckle is at the second angle, the first limiting tooth flips to a state of separation from the second limiting tooth, and the limiting of the cable tie is released.

7. The wire tie according to claim 6, characterized in that, The rotating seat is provided with a mounting groove, and the two side walls of the mounting groove are provided with connecting holes. The two sides of the connecting buckle are provided with rotating shafts. The connecting buckle is at least partially disposed in the mounting groove, and the rotating shafts on both sides of the connecting buckle are correspondingly rotatably inserted into the connecting holes on the two side walls of the mounting groove. The connecting hole includes a first hole, a second hole, and a channel connecting the first hole and the second hole. The rotating shaft can move between the first hole and the second hole through the channel. When the rotating shaft is located in the first hole, the connecting buckle is in the unlocked state, and the connecting buckle can be flipped relative to the rotating seat between the first angle and the second angle; The side wall of the mounting groove is also provided with a limiting groove, and the connecting buckle is provided with a limiting protrusion. When the connecting buckle is at the first angle and the rotating shaft moves from the first hole to the second hole through the channel, the limiting protrusion slides and gets into the limiting groove, and the connecting buckle is in a locked state. When the connecting buckle is at the first angle, the interlocking gap is formed between the bottom of the mounting groove and the first limiting tooth.

8. The wire tie according to claim 7, characterized in that, The rotating base is provided with a tape inlet that communicates with the mounting groove.

9. The wire tie according to claim 6, characterized in that, The connecting buckle includes a rotating part, a cable tie fixing part, and a force-receiving part that are fixed to each other. The cable tie fixing part and the force-receiving part are located at both ends of the rotating part, respectively. The rotating part is flipped and connected to the rotating seat, and the force-receiving part is used to receive force to drive the rotating part to flip. The head end of the cable tie is fixed to the cable tie fixing part; The first limiting tooth is disposed on the rotating part; The force-bearing part has a central through hole, which communicates with the insertion gap.

10. An industrial control computer, characterized in that, Includes a chassis, circuit components, a mounting base, and a cable tie as described in any one of claims 1-9; The circuit elements include a variety of components, all of which are disposed within the chassis and are electrically connected to each other via wires. The mounting base is press-fitted to the inner wall of the chassis, the wire tie is detachably connected to the mounting base, and the wire is bundled and fixed by the wire tie.

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