Electronic component tool

Abstract

The utility model belongs to the field of electronic component machining tools, and discloses an electronic component tool which comprises a tool body, a first positioning portion is arranged on the tool body, a sliding block assembly capable of being far away from or close to the first positioning portion is further arranged on the tool body, and the sliding block assembly is in sliding fit with the tool body. A second positioning part is arranged on the side, close to the first positioning part, of the sliding block assembly, the second positioning part is right opposite to the first positioning part, and when the sliding block assembly moves by a preset distance, the part on the second positioning part drives the connecting block to abut against the part on the first positioning part; according to the scheme, the contact pin, the connecting block and the circuit board in the electronic component can be sequentially assembled in the mode that the contact pin, the connecting block and the circuit board are mutually positioned and then connected under the same original point reference, the relative positioning precision of different components is improved, and therefore the assembling precision and the product quality of the electronic component are improved.

Description

Technical Field

[0001] The utility model relates to the field of electronic component processing tools, in particular to an electronic component tooling. Background Art

[0002] Electronic components are mainly assembled from multiple electronic elements. They are an important component of building circuit systems and are often used in equipment and instruments.

[0003] At present, by combining different electronic components, electronic components with different functional effects can be assembled. For example, various electronic components that play specific roles such as physical sensing, information conversion, or signal amplification can be assembled. Among them, physical sensing electronic components are widely used. They mainly include three major electronic components: pins, circuit boards, and induction coils arranged in sequence, and a connecting block arranged between the pins and the circuit board. The connecting block is fixed to the pins and the circuit board as an intermediate component, which not only matches the connection points of the pins and the circuit board, but also enhances the connection strength between the two. In the actual assembly process, the connecting block needs to be positioned and connected to the pins using a first tool, and then positioned and connected to the circuit board using a second tool to complete the two assembly processes. However, since the tool needs to be replaced before the second assembly process, the origin references of the two assembly processes are different. The relative accuracy of the connecting block and the circuit board is reduced due to the change in the origin reference. Compared with the pins directly fixed on the circuit board, when there is a large precision error between the connecting block and the circuit board, the precision error between the pins and the connecting block is superimposed, resulting in poor overall assembly precision and product quality of the electronic components. Utility Model Content

[0004] The purpose of the utility model is to provide an electronic component tooling, which enables the pins, connecting blocks and circuit boards in the electronic components to be assembled in sequence under the same origin reference in a manner of first positioning each other and then connecting them, thereby improving the relative positioning accuracy between different components, thereby improving the assembly accuracy of electronic components and product quality.

[0005] The technical solution provided by the present utility model is: an electronic component tooling, comprising a tooling body, a first positioning portion being provided on the tooling body, a slider assembly being further provided on the tooling body that can move away from or approach the first positioning portion, the slider assembly being slidably engaged with the tooling body, a second positioning portion being provided on a side of the slider assembly adjacent to the first positioning portion, the second positioning portion being arranged opposite to the first positioning portion, and when the slider assembly moves a predetermined distance, the components on the second positioning portion drive the connecting block to counteract the components on the first positioning portion.

[0006] In the above-mentioned electronic component tooling, the first positioning portion is a positioning groove opened on the tooling body for positioning the circuit board, and the second positioning portion is a positioning socket opened on the slider assembly for positioning the pin and the connecting block, and one end of the positioning groove is open and facing the positioning socket.

[0007] In the above-mentioned electronic component tooling, a receiving cavity is provided at the bottom of the positioning groove, the receiving cavity extends toward the positioning socket and is open, and the width of the receiving cavity is smaller than the width of the positioning groove.

[0008] In the above-mentioned electronic component tooling, the tooling body is arranged at an angle, and the slider assembly is arranged below the first positioning portion.

[0009] In the above-mentioned electronic component tooling, the slider assembly includes a slider body and a positioning block. The slider body is slidably matched with the tooling body. A mounting hole facing the first positioning part is provided on one side of the slider body adjacent to the first positioning part. The positioning block is arranged in the mounting hole and is detachably connected to the mounting hole. The second positioning part is arranged on the end face of the positioning block adjacent to the first positioning part.

[0010] In the above-mentioned electronic component tooling, a shoulder is provided on the outer peripheral surface of the positioning block, and the shoulder abuts against a side surface of the slider body adjacent to the first positioning portion; the slider body is provided with a tightening bolt that can reach the mounting hole, and the tightening bolt is threadedly connected to the slider body in an adjustable manner and abuts against the positioning block.

[0011] In the above-mentioned electronic component fixture, a plane is provided on the side surface of the positioning block, and the tightening bolt abuts against the plane.

[0012] In the above-mentioned electronic component tooling, the tooling body includes a frame and a fixed block fixed in the frame, the first positioning portion is provided on the fixed block, and the slider assembly is provided in the frame and slidably cooperates with the frame.

[0013] In the above-mentioned electronic component tooling, guide rails are provided on opposite sides of the frame body, and the slider body is provided with bayonet holes corresponding to the two guide rails one by one, and the bayonet holes are clamped on the corresponding guide rails; the fixing block is fixedly connected to the two guide rails.

[0014] In the above-mentioned electronic component tooling, it also includes a base, the frame and the base are spaced apart, a hinge assembly is provided on the base, one side of the frame is hinged to the hinge assembly, and two support members are also provided on the base, the hinge assembly is provided between the two support members, and the frame is selectively abutted against a single support member.

[0015] After adopting the above technical solution, the utility model has the following beneficial effects:

[0016] In this technical solution, a first positioning portion is provided on the tool body, a first component of the electronic component is mounted on the first positioning portion, and the first positioning portion positions the first component by temporarily fixing the first component, while a second component of the electronic component is mounted on the second positioning portion of the slider assembly, and the second positioning portion positions the second component by temporarily fixing the second component, that is, two components are positioned simultaneously on one tool. When the connecting block connects the first component and the second component in sequence, the positioning accuracy of the connecting block and the first component is improved, and the positioning accuracy of the connecting block and the second component is also improved;

[0017] In addition, in the specific connection process of the connecting block, the slider assembly is first separated from the first positioning part, and the connecting block is fixed on the second component of the second positioning part. After the connecting block is fixed on the second component, it is facing the first positioning part, and then the slider assembly is pushed to drive the second component and the connecting block to approach the first component on the first positioning part until the connecting block is against the circuit board, and then the first component is fixed on the connecting block. In the above assembly process, the first component, the connecting block and the second component are all relatively positioned through the same origin reference. Even if a large relative positioning error occurs between the connecting block and the first component, the relative positioning accuracy of the first component and the second component can still be guaranteed; and the first component can be either a pin or a circuit board. When the first component is a pin, the second component is a circuit board. When the second component is a pin, the first component is a circuit board, so that the pins, connecting blocks and circuit boards in the electronic components are assembled in sequence under the same origin reference in a manner of first positioning and then connecting. This improves the relative positioning accuracy between different components, thereby improving the assembly accuracy and product quality of electronic components. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is a schematic diagram of the three-dimensional structure of the electronic component tooling of Example 1 of the present utility model;

[0019] Figure 2 This is an exploded schematic diagram of the electronic component tooling of Example 1 of the present utility model;

[0020] Figure 3 This is a schematic diagram of the flipped state of the electronic component tooling of Example 1 of the present utility model;

[0021] Figure 4 This is an exploded assembly diagram of the tooling body, slider assembly, and product parts of Example 1 of the present utility model;

[0022] Figure 5This utility model Figure 4 A partial enlarged view of A;

[0023] Figure 6 This is a structural diagram of the positioning jack of Example 1 of the present utility model;

[0024] Figure 7 This is a schematic structural diagram of the shaft shoulder of Example 1 of the present utility model;

[0025] Figure 8 It is a structural schematic diagram of the slider assembly of Example 1 of the present utility model.

[0026] Reference numerals: 1, base; 2, coil; 3, tooling body; 4, circuit board; 5, slider assembly; 6, connecting block; 7, pin;

[0027] 11. Support member; 12. Hinge block;

[0028] 31. Frame; 311. Recess; 312. Second hand-locking opening; 313. Guide rail;

[0029] 32. Fixing block; 321. Hand-locking hole; 322. Accommodating cavity; 323. Positioning groove;

[0030] 51, positioning block; 511, head; 5111, positioning socket; 512, rod; 5121, plane;

[0031] 52. Slider body; 521. Threaded hole; 522. First hand-catching avoidance opening; 523. Mounting hole; 524. Ball-end screw; 525. First slider component; 526. Bayonet; 527. Second slider component; 53. Shaft shoulder. DETAILED DESCRIPTION

[0032] The technical solution of the present invention will be further described in detail below in conjunction with specific implementation methods, but this does not constitute any limitation to the present invention.

[0033] Example 1:

[0034] like Figure 1-8 As shown, the electronic component tooling includes a tooling body 3, a first positioning portion is provided on the tooling body 3, and a slider assembly 5 that can move away from or approach the first positioning portion is also provided on the tooling body 3. The slider assembly 5 slides with the tooling body 3, and a second positioning portion is provided on the side of the slider assembly 5 adjacent to the first positioning portion. The second positioning portion is arranged opposite to the first positioning portion. When the slider assembly 5 moves a predetermined distance, the components on the second positioning portion drive the connecting block 6 to counteract the components on the first positioning portion.

[0035] The specific implementation principle is that a first positioning portion is provided on the tooling body 3, and a first component of the electronic component is mounted on the first positioning portion. The first positioning portion positions the first component by temporarily fixing the first component, and a second component of the electronic component is mounted on the second positioning portion of the slider assembly 5. The second positioning portion positions the second component by temporarily fixing the second component. That is, two components are positioned simultaneously on one tooling. When the connecting block 6 connects the second component and the first component in sequence, the positioning accuracy of the connecting block 6 and the second component is improved, and the positioning accuracy of the connecting block 6 and the first component is also improved.

[0036] In addition, in the specific connection process of the connecting block 6, the slider assembly 5 is first separated from the first positioning part, and the connecting block 6 is fixed on the second component of the second positioning part. After the connecting block 6 is fixed on the second component, it is facing the first positioning part, and then the slider assembly 5 is pushed to drive the second component and the connecting block 6 to approach the first component on the first positioning part until the connecting block 6 is against the circuit board 4, and then the first component is fixed on the connecting block 6. In the above assembly process, the first component, the connecting block 6 and the second component are all relatively positioned by the same origin reference. Even if a large relative positioning error occurs between the connecting block 6 and the first component, the relative positioning accuracy of the first component and the second component can still be guaranteed; the first component can be either the pin 7 or the circuit board 4. When the first component is the pin 7, the second component is the circuit board 4. When the second component is the pin 7, the first component is the circuit board 4. The pin 7, the connecting block 6 and the circuit board 4 in the electronic component are assembled in sequence under the same origin reference in a manner of first positioning and then connecting. This improves the relative positioning accuracy between different components, thereby improving the assembly accuracy and product quality of the electronic components.

[0037] In addition to first being positioned and connected with the second component and then being positioned and connected with the first component, the connecting block 6 can also be first being positioned and connected with the first component and then being positioned and connected with the second component. In this method, the connecting block 6 and the tooling body 3 always remain in a relatively stationary state, and only the second component and the tooling body 3 move relative to each other, which is different from the connecting block 6 and the second component moving together relative to the tooling body 3.

[0038] Combine Figure 1 、 Figure 4 and Figure 6 As shown, in a specific application, the second positioning portion can not only temporarily fix and position the second component, but also temporarily fix and position the connecting block 6 at the same time. For example, a local connecting block 6 is clamped on the second positioning portion. After the connecting block 6 is relatively positioned with the second positioning portion, it is also relatively positioned with the second component installed on the second positioning portion, thereby improving the accuracy of the positioning connection between the connecting block 6 and the second component.

[0039] Combine Figure 4 、 Figure 5 and Figure 6 As shown, in this embodiment, taking the first component as the circuit board 4 and the second component as the pin 7 as an example, the specific structures of the first positioning part and the second positioning part are that the first positioning part is a positioning groove 323 provided on the tooling body 3 for positioning the circuit board 4, and the second positioning part is a positioning socket 5111 provided on the slider assembly 5 for positioning the pin 7 and the connecting block 6, and one end of the positioning groove 323 is open and faces the positioning socket 5111.

[0040] One end of the positioning groove 323 is open, so that the circuit board 4 installed in the positioning groove 323 is exposed toward the positioning socket 5111. Since the circuit board 4 is partially exposed outside the positioning groove 323 and is on the moving path of the positioning socket 5111, whenever the slider assembly 5 drives the second component to approach the circuit board 4 on the positioning groove 323, it can drive the connecting block 6 on the pin 7 to abut against the circuit board 4. By abutting against the circuit board 4, positioning is first performed and then connection is performed, thereby improving the connection accuracy between the connecting block 6 and the circuit board 4.

[0041] like Figure 6 As shown, in a specific implementation, when the positioning socket 5111 needs to position both the second component and the connecting block 6, the positioning socket 5111 adopts a stepped hole structure to simultaneously match the pins 7 and the connecting block 6 with different outer diameters, thereby achieving the goal of clamping both components on the slider assembly 5.

[0042] like Figure 5 As shown, preferably, an accommodating cavity 322 is defined at the bottom of the positioning groove 323 . The accommodating cavity 322 extends toward the positioning socket 5111 and is open. The width of the accommodating cavity 322 is smaller than the width of the positioning groove 323 .

[0043] In addition to the conductive circuits printed on the circuit board 4, there are also electronic components of a certain volume such as capacitors, resistors and chips. The setting of the accommodating cavity 322 allows the electronic components on the circuit board 4 to be accommodated in the accommodating cavity 322, preventing the circuit board 4 from warping due to the electronic components contacting the bottom of the positioning groove 323, thereby avoiding affecting the temporary fixation and positioning effect of the circuit board 4.

[0044] like Figure 1 、 Figure 2 or Figure 3 As shown, another preferred embodiment is that the tooling body 3 is arranged at an angle, and the slider assembly 5 is arranged below the first positioning portion.

[0045] The tool body 3 is tilted so that the operator does not have to move his head directly above the tool during operation, reducing the operator's bending over and thus reducing the operator's work strain. The tilt angle of the tool body 3 is preferably less than 55°. When the tilt angle of the tool body 3 is greater than 55°, it is necessary to continuously press the slider assembly 5 with the hand to keep the connecting block 6 pressed against the circuit board 4. When the tilt angle of the tool body 3 is less than 55°, in the absence of external interference, the slider assembly 5 is pressed down on the tool body 3 by the component of its own gravity, and the slider assembly 5 and the tool body 3 remain relatively stationary, so that the connecting block 6 can always be pressed against the circuit board 4. In addition, the slider assembly 5 is also provided with a ball screw 524, which is threadedly connected to the slider assembly 5 in an adjustable manner, and the ball end of the ball screw 524 abuts against the tool body 3. By rotating the ball screw 524 on the slider assembly 5, the squeezing force of the ball screw on the tool body 3 can be increased or decreased, thereby adjusting the sliding friction of the slider assembly 5 on the tool body 3, avoiding the slider assembly 5 from falling naturally, and balancing the movement smoothness of the slider assembly 5; in actual effect, no matter the slider assembly 5 and the tool body 3 are relatively stationary or moving relative to each other, the ball screw 524 presses the slider assembly 5 against the tool body 3, avoiding the slider assembly 5 from shaking due to the assembly gap, and improving the movement stability and guiding accuracy.

[0046] Combine Figure 1 、 Figure 4 and Figure 6 As shown, the specific structure of the slider assembly 5 is that the slider assembly 5 includes a slider body 52 and a positioning block 51. The slider body 52 is slidably matched with the tooling body 3. A mounting hole 523 facing the first positioning portion is provided on the side of the slider body 52 adjacent to the first positioning portion. The positioning block 51 is arranged in the mounting hole 523 and is detachably connected to the mounting hole 523. The second positioning portion is arranged on the end face of the positioning block 51 adjacent to the first positioning portion.

[0047] In this embodiment, the sliding part on the tooling body 3 is set as a component. Compared with the component being an integrated structure, the component structure is simpler and more convenient to install on the tooling body 3, and the difficulty of mass production is relatively low. The use of the component structure can also avoid the entire removal from the tooling body 3 when replacing the pins 7 of different structures, thereby reducing the impact on the relative accuracy of the slider assembly 5 and the first positioning part.

[0048] Combine Figure 4 and Figure 8 As shown, the mounting hole 523 can be either a blind hole or a through hole, and this embodiment does not impose too many restrictions on this.

[0049] Combine Figure 1 and Figure 4As shown, the specific connection method between the positioning block 51 and the slider body 52 is that a shoulder 53 is provided on the outer peripheral surface of the positioning block 51, and the shoulder 53 abuts against a side surface of the slider body 52 adjacent to the first positioning portion; the slider body 52 is provided with a tightening bolt that can reach the mounting hole 523, and the tightening bolt is threadedly connected to the slider body 52 in an adjustable manner and presses against the positioning block 51.

[0050] Combine Figure 6 or Figure 7 As shown, the specific structure of the positioning block 51 is that the positioning block 51 includes a rod 512 and a head 511 provided on one end of the rod 512. The other end of the rod 512 is inserted into the mounting hole 523 of the slider body 52. The outer diameter of the head 511 is larger than the outer diameter of the rod 512 and the aperture of the mounting hole 523. A shoulder 53 is formed at the intersection of the head 511 and the rod 512, and the mounting hole 523 is opened on the side of the slider body 52 adjacent to the first positioning portion. When installed, combined with Figure 1 、 Figure 4 and Figure 8 As shown, the head 511 is located outside the mounting hole 523 , and the shoulder 53 is pressed against the side of the slider body 52 adjacent to the first positioning portion, so that the positioning block 51 is fixed relative to the mounting hole 523 along the axial direction of the mounting hole 523 .

[0051] In addition, the positioning block 51 is pressed against the inner side of the mounting hole 523 by the tightening bolt. Under the action of extrusion, the positioning block 51 has a relatively fixed abutment effect with the mounting hole 523 in the axial, radial and circumferential directions of the mounting hole 523. Correspondingly, combined with Figure 1 、 Figure 4 and Figure 8 As shown, a threaded hole 521 is provided on the slider body 52, and the threaded hole 521 communicates with the mounting hole 523 and the outside of the slider body 52, and the tightening bolt is threadedly connected in the threaded hole 521 in an adjustable manner. In addition, a pin hole can be used instead of the threaded hole 521, and the tightening bolt is replaced with a latch. The latch and the pin hole are relatively fixed by an interference fit. During installation, the latch is driven into the pin hole until it is tight against the positioning block 51, and finally the positioning block 51, the latch and the slider body 52 are fixed to each other.

[0052] like Figure 7 or Figure 8 As shown, in another preferred embodiment, a plane 5121 is provided on the side of the positioning block 51 , and the tightening bolt abuts against the plane 5121 .

[0053] After the tightening bolt abuts against the flat surface 5121 on the positioning block 51, whenever the positioning block 51 rotates in the circumferential direction of the mounting hole 523, the flat surface 5121 will be relatively inclined with the tightening bolt and abut against the side surface of the tightening bolt. At this time, the tightening bolt blocks the movement of the flat surface 5121 through its side surface, thereby playing a positioning role in the circumferential direction of the mounting hole 523, thereby enhancing the relatively fixed abutment effect of the positioning block 51 and the mounting hole 523 along the circumference of the mounting hole 523.

[0054] like Figure 4 As shown, the specific structure of the tooling body 3 is that the tooling body 3 includes a frame 31 and a fixed block 32 fixed in the frame 31, the first positioning portion is provided on the fixed block 32, and the slider assembly 5 is provided in the frame 31 and slides with the frame 31.

[0055] The fixed block 32 and the slider assembly 5 are respectively arranged on opposite sides of the frame 31, which can be either the two sides in the length direction of the frame 31 or the two sides in the width direction of the frame 31. The frame 31 limits the maximum distance between the slider assembly 5 and the fixed block 32 through its own frame structure, and also guides the slider assembly 5 to move away from or approach the fixed block 32 in the shortest way.

[0056] In addition, the frame 31 can also be replaced by a plate. After being replaced by the plate, the fixed block 32 and the slider assembly 5 are arranged on the same side of the plate in a spaced-apart manner. The slider assembly 5 slides with the plate, and the pins 7, the connecting block 6 and the circuit board 4 can still be positioned and connected in sequence. This embodiment does not impose too many restrictions on this.

[0057] like Figure 4 As shown, the specific cooperation method between the slider assembly 5 and the frame 31 is that guide rails 313 are provided on opposite sides of the frame 31, and the slider body 52 is provided with a one-to-one corresponding to the two guide rails 313, and the bayonet 526 is clamped on the corresponding guide rails 313; the fixed block 32 is fixedly connected to the two guide rails 313.

[0058] Combine Figure 4 and Figure 8As shown, in actual application, the slider body 52 in the slider assembly 5 is a contact component that slides with the guide rail 313, so the bayonet 526 is also correspondingly provided on the slider body 52. The slider body 52 includes a first slider component 525 and a second slider component 527. The middle portion of the first slider component 525 is connected to the middle portion of the second slider component 527. The second slider component 527 is provided with side wings on opposite sides. The side wings on both sides are spaced apart from the first slider component 525 and together form bayonet 526 corresponding to the two guide rails 313. As a preferred embodiment, the first slider component 525 is also provided with side wings on opposite sides. The side wings on the second slider component 527 are aligned with the side wings on the first slider component 525. They are arranged opposite each other and spaced apart in pairs to form a one-to-one corresponding snap-in 526 with the two guide rails 313; in addition, the second positioning portion and the corresponding mounting hole 523 and the positioning block 51 can be set on the first slider component 525 or on the second slider component 527; and in some embodiments, the first slider component 525 and the second slider component 527 each have a half-hole gap. After the first slider component 525 is connected to the second slider component 527, the two half-hole gaps are opposite each other and communicate with each other to form a mounting hole 523.

[0059] Among them, the ball-end screw 524 mentioned above is specifically arranged on the side wing, and the ball-end screw 524 is threadedly connected to the side wing in an adjustable manner, and passes through the side wing and extends into the bayonet 526. The ball end of the ball-end screw 524 abuts against the tooling body 3 (specifically abuts against the guide rail 313 of the frame 31).

[0060] In a specific implementation, a first hand-catching avoidance opening 522 is provided on the side of the slider assembly 5 away from the first positioning portion, which facilitates the insertion of fingers between the slider assembly 5 and the frame 31, thereby pushing the slider assembly 5. The first hand-catching avoidance opening 522 is specifically provided on the side of the slider body 52 away from the first positioning portion. In addition, it can also be provided at other positions of the slider assembly 5 (i.e., other positions of the slider body 52). This embodiment does not impose too many restrictions on this.

[0061] like Figure 1 、 Figure 2 or Figure 3 As shown, as a further improvement of this embodiment, it also includes a base 1, a frame 31 is spaced apart from the base 1, a hinge assembly is provided on the base 1, one side of the frame 31 is hinged to the hinge assembly, and two support members 11 are also provided on the base 1, the hinge assembly is provided between the two support members 11, and the frame 31 is selectively abutted against a single support member 11.

[0062] The frame 31 of the tooling body 3 is hinged on the hinge assembly of the base 1, so that the tooling body 3 can be flipped on the base 1 in the manner of turning pages of a book, and the pins 7, connecting block 6 and circuit board 4 are temporarily fixed in the frame 31. When the tooling body 3 is flipped, the above-mentioned components are also flipped synchronously, so that the backs of the above-mentioned components are exposed upward in the frame 31, which is convenient for connection from the back of the above-mentioned components. Compared with the method of manually flipping and reinstalling the removed components and replacing the tooling, it can avoid changes in the origin reference, thereby improving assembly accuracy and product quality.

[0063] Before and after flipping, the tooling body 3 is kept stable on the base 1 by abutting against the corresponding support members 11; and there are at least two support members 11, that is, one is set on one side of the hinge assembly and one is set on the other side. When one is set on each side, the support member 11 is set on the median perpendicular intersecting the flip axis of the tooling body 3. When more than two are set on each side, the support members 11 on the same side of the hinge assembly are set at intervals along the axial direction of the flip axis of the tooling body 3.

[0064] The specific structure of the hinge assembly is that the hinge assembly includes two hinge blocks 12 spaced apart on the base 1 , and the frame 31 is disposed between the two hinge blocks 12 and hinged to the two hinge blocks 12 respectively.

[0065] like Figure 4 As shown, another improvement of this embodiment is that a recess 311 for placing the coil 2 is further provided on the tooling body 3, and the side of the recess 311 adjacent to the tooling body 3 is opened, so that when the coil 2 is placed in the recess 311, part of the coil 2 is exposed from the recess 311 from the opening on the side of the recess 311, and is thus placed outside one side of the tooling body 3. The structure of the recess 311 fixing the coil 2 can be to set an insert block in the recess 311 to insert into the middle of the coil 2, or to fit the outer side of the coil 2 through the side of the recess 311, or to use both of the above methods.

[0066] like Figure 1 、 Figure 2 、 Figure 3 or Figure 4 As shown, a second hand-avoidance opening 312 is provided at the edge of the tool body 3 , and the opening of the recess 311 is communicated with the second hand-avoidance opening 312 ; a hand-avoidance through hole 321 is also provided on the tool body 3 .

[0067] The above embodiments are preferred implementation methods of the present invention, but the implementation methods of the present invention are not limited to the above embodiments. Any other changes, modifications, substitutions, combinations, and simplifications that do not deviate from the spirit and principles of the present invention should be considered as equivalent replacement methods and are included in the scope of protection of the present invention.

Claims

1. An electronic component tooling, comprising a tooling body, wherein the tooling body is provided with a first positioning portion, characterized in that: The tooling body is also provided with a slider assembly that can move away from or approach the first positioning part. The slider assembly is slidably matched with the tooling body. A second positioning part is provided on the side of the slider assembly adjacent to the first positioning part. The second positioning part is arranged opposite to the first positioning part. When the slider assembly moves a predetermined distance, the components on the second positioning part drive the connecting block to counteract the components on the first positioning part.

2. The electronic component tooling according to claim 1, characterized in that: The first positioning portion is a positioning groove provided on the tooling body for positioning the circuit board, and the second positioning portion is a positioning socket provided on the slider assembly for positioning the pin and the connecting block, and one end of the positioning groove is open and faces the positioning socket.

3. The electronic component tooling according to claim 2, characterized in that: An accommodating cavity is formed at the bottom of the positioning groove. The accommodating cavity extends toward the positioning insertion hole and is open. The width of the accommodating cavity is smaller than the width of the positioning groove.

4. The electronic component tooling according to claim 1, characterized in that: The tooling body is arranged in an inclined manner, and the slider assembly is arranged below the first positioning portion.

5. The electronic component tooling according to any one of claims 1 to 4, characterized in that: The slider assembly includes a slider body and a positioning block. The slider body is slidably matched with the tooling body. A mounting hole facing the first positioning portion is provided on one side of the slider body adjacent to the first positioning portion. The positioning block is arranged in the mounting hole and is detachably connected to the mounting hole. The second positioning portion is arranged on the end face of the positioning block adjacent to the first positioning portion.

6. The electronic component tooling according to claim 5, characterized in that: A shoulder is provided on the outer peripheral surface of the positioning block, and the shoulder abuts against a side surface of the slider body adjacent to the first positioning portion; a tightening bolt that can reach the mounting hole is provided on the slider body, and the tightening bolt is threadedly connected to the slider body in an adjustable manner and abuts against the positioning block.

7. The electronic component tooling according to claim 6, characterized in that: A plane is provided on the side surface of the positioning block, and the tightening bolt abuts against the plane.

8. The electronic component tooling according to claim 5, characterized in that: The tooling body includes a frame and a fixed block fixed in the frame, the first positioning portion is provided on the fixed block, and the slider assembly is provided in the frame and slidably cooperates with the frame.

9. The electronic component tooling according to claim 8, characterized in that: Guide rails are provided on opposite sides of the frame body, and the slider body is provided with bayonet holes corresponding to the two guide rails one by one, and the bayonet holes are clamped on the corresponding guide rails; the fixing block is fixedly connected to the two guide rails.

10. The electronic component tooling according to claim 8, characterized in that: It also includes a base, the frame is spaced apart from the base, a hinge assembly is provided on the base, one side of the frame is hinged to the hinge assembly, two support members are also provided on the base, the hinge assembly is provided between the two support members, and the frame is selectively abutted against a single support member.

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