A clamp-and-jaw integrated testing platform

Abstract

The present invention relates to a row and array machine, and discloses a clamping jaw and jaw pliers integrated testing platform, comprising a machine platform; a jaw pliers seat; a jaw positioning column; a jaw pliers core shaft; and a jaw pliers hole detection core rod; wherein at least two groups of the jaw pliers hole detection core rods are arranged, the jaw pliers positioning column and the jaw pliers hole detection core rod are located between the jaw pliers seat and the jaw pliers core shaft, and the two groups of the jaw pliers hole detection core rods are respectively located on both sides of the jaw positioning column; the machine platform integrated with the jaw pliers seat and the jaw pliers core shaft of the present invention can be used for both the detection of jaw pliers and the detection of clamping jaws, so that the testing platform has higher versatility and improves the utilization rate of the limited space in the factory area; at the same time, the adjustable detection table can be adaptively adjusted according to the changes of the detection position and the detection sample, so that the testing platform can better detect the clamping jaw or the jaw pliers.

Description

Technical Field

[0001] The invention relates to the field of testing equipment, in particular to a clamp-and-jaw integrated testing platform. Background Art

[0002] The row machine is a kind of equipment mainly used for producing glass bottles and glass tubes. It has the advantages of high degree of automation, high production efficiency and low defect rate. Therefore, it is widely used in the glass products industry.

[0003] The main principle of manufacturing glass bottles by the row machine is to heat the glass bottle blanks and then put them into the mold for blow molding. The initial mold mechanism and the mold forming mechanism of the row machine need to be installed with the help of a clamp or a mouth clamp mechanism.

[0004] For the clamping pliers and the opening pliers, their structures and compositions are different. Since the fit after the mold installation needs to be considered, there are higher requirements for the accuracy of the clamping pliers and the opening pliers, which requires the clamping pliers or the opening pliers to be inspected after processing.

[0005] At present, most of the inspections of holding clamps and opening pliers are carried out separately, that is, the inspection equipment used for holding clamps and the inspection equipment used for opening pliers are not universal. In the production practice, it is necessary to equip the inspection tables for holding clamps and opening pliers at the same time. However, laying the inspection tables for holding clamps and opening pliers at the same time will occupy a large amount of limited space in the site, resulting in space waste. Summary of the invention

[0006] In order to improve the versatility of a testing platform and reduce the space occupied by a site, the present invention provides a testing platform with a clamp and a jaw.

[0007] The present invention provides a technical solution that adopts the following:

[0008] A clamp-and-jaw integrated testing platform, comprising:

[0009] The machine, as the bearing body;

[0010] A jaw clamp seat, fixed on the machine platform, and provided with an insert block for the jaw clamp arm to be sleeved;

[0011] The jaw positioning column is fixed on the machine platform and is used for positioning the jaw sleeve of the jaw pliers;

[0012] The clamp mandrel is fixed on the machine platform and is used for positioning the clamp sleeve;

[0013] The clamp hole inspection mandrel is inserted on the machine platform and is used to penetrate the clamp arm of the clamp and inspect the pin hole on the clamp arm;

[0014] Among them, at least two groups of the clamp hole inspection mandrels are arranged, the jaw positioning column and the clamp hole inspection mandrels are located between the jaw seat and the clamp core shaft, and the two groups of the clamp hole inspection mandrels are respectively located on both sides of the jaw positioning column.

[0015] By adopting the above technical scheme, when in use, the socket on the jaw arm of the jaw pliers is aligned with the plug block on the jaw pliers seat, and the jaw pliers can be installed on the jaw pliers seat. At the same time, the rotating shaft of the clamp is aligned with the clamp mandrel and the clamp is put on the clamp mandrel. The clamp can be installed on the machine platform. After the jaw pliers seat and the clamp mandrel are integrated into the same machine platform, the jaw pliers and the jaw pliers can be inspected on the same equipment, which improves the versatility of the inspection table. In addition, the jaw pliers hole inspection core rods are divided into two groups and arranged on both sides of the jaw positioning column, which can further reduce the distance between the jaw pliers seat and the clamp mandrel, so that the table size of the machine platform can be made smaller, thereby achieving the effect of reducing the space volume occupied by the inspection table, so as to improve the utilization rate of the limited area of ​​the factory building.

[0016] Optionally, a jaw block having the same size and shape as the jaws of the pliers is sleeved and fixed on the jaw positioning column.

[0017] By adopting the above technical solution, after the pliers block is placed in the jaws of the pliers, the size of the jaws of the pliers can be detected, so that the inspector can understand the flatness and size error of the jaws of the pliers.

[0018] Optionally, a core rod block is fixed on the lower surface of the machine table, and a column hole is opened on the core rod block, which is aligned with the hole on the machine table for the clamp hole inspection core rod to pass through, and the depth of the column hole is less than the thickness of the core rod block.

[0019] By adopting the above technical solution, the core rod block can locally thicken the table top of the machine, so that the clamp hole inspection core rod can be inserted into the machine to a certain depth, so that the clamp hole inspection core rod is not easy to fall off or tip over from the machine. At the same time, local thickening can minimize the impact on the overall weight of the machine, making it convenient for the later transfer and transportation of the equipment.

[0020] Optionally, a detection component is also included, and the detection component includes

[0021] Mounting column, fixed on the machine platform;

[0022] The test gauge is installed on the mounting column, and the probe of the test gauge faces the clamp core shaft or the jaw positioning column.

[0023] By adopting the above technical solution, the mounting column is used to provide support for the inspection table, and the inspection table is used to detect parameters such as the height difference and flatness of the clamp or pliers. During inspection, it is best for the inspection table to remain stationary and the workpiece to move, so that the inspection table will probably be in a relatively stable variable environment, and the measured result will be more accurate. Therefore, in actual application, the probe of the inspection table is placed against the surface of the clamp or pliers, and then the clamp or pliers is rotated to obtain the height difference between the two clamp arms of the clamp or pliers, and by comparing the clamp arms of the clamp or pliers with the height of the standard height block, the clamp arm height parameter of the clamp or pliers can be obtained, which is conducive to better control of the manufacturing accuracy of the clamp or pliers.

[0024] Optionally, the detection meter is connected to the mounting column via a direction adjustment component, and the direction adjustment component includes

[0025] Magnetic block, adsorbed on the mounting column;

[0026] The connecting arm is fixed on the magnetic attraction block, and a hinge ball is integrally provided at one end of the connecting arm away from the magnetic attraction block;

[0027] The ball clamp is installed on the connecting arm and clamps the hinge ball on the connecting arm;

[0028] Wherein, a ball arm is fixed on the detection table, and a hinged ball is arranged at one end of the ball arm away from the detection table, and the hinged ball on the ball arm is clamped on the ball clamp.

[0029] By adopting the above technical solution, during the detection process, it is necessary to adjust the height position of the detection table to meet the detection requirements of different surfaces of the clamp or the mouth clamp. In this case, it can be achieved by moving the magnetic block so that the magnetic block is adsorbed on different heights on the mounting column. When the left and right angles of the detection table need to be adjusted, the detection table and the ball clamp are rotated to generate relative rotation to change the probe direction of the detection table, thereby improving the orientation freedom of the detection table and increasing the detection range.

[0030] Optionally, the ball clamp includes

[0031] Upper clip;

[0032] Lower clamp;

[0033] A clamping member, which penetrates both the upper clamp and the lower clamp and is threadedly connected to the lower clamp;

[0034] Wherein, the surfaces of the upper clamp and the lower clamp facing each other are both provided with ball grooves for embedding the hinge ball, and the upper clamp is located between the lower clamp and the screw head of the clamping piece.

[0035] By adopting the above technical solution, the ball grooves on the upper clamp and the lower clamp can be used for the hinge ball on the test table to be embedded, and the spherical structure enables the hinge ball to rotate between the upper clamp and the lower clamp. The upper clamp and the lower clamp cooperate with each other to form a clamping constraint on the hinge ball. At the same time, the clamping force of the upper clamp and the lower clamp on the hinge ball can be adjusted by twisting the clamping piece, so that the test table is not easy to rotate in the absence of external force. In this way, the angle direction of the test table can be adjusted conveniently and quickly during the test, thereby improving the portability of the test.

[0036] Optionally, the detection meter is connected to the mounting column via a direction adjustment component, and the direction adjustment component includes

[0037] A collar is sleeved on the mounting column and positioned by a locking mechanism;

[0038] The connecting arm is fixed on the collar, and a hinge ball is integrally provided at one end of the connecting arm away from the collar;

[0039] The ball clamp is installed on the connecting arm and clamps the hinge ball on the connecting arm;

[0040] Wherein, a ball arm is fixed on the detection table, and a hinged ball is arranged at one end of the ball arm away from the detection table, and the hinged ball on the ball arm is clamped on the ball clamp.

[0041] As for the magnetic attraction method, the magnetic fixing method is not very stable after all, and sometimes it is easy to shift due to scratches during the detection process. By adopting the above technical solution, the ring is used as the connection between the detection table and the mounting column. As long as the cross-section of the mounting column is set to a non-circular state, the ring will not easily rotate relative to the mounting column. In this way, the detection table will not easily deflect and shift under external force collision, thereby making the detection of the clamp or mouth pliers smoother.

[0042] Optionally, the locking mechanism includes

[0043] The outer ring convex is integrally formed on the outer circumferential wall of the collar;

[0044] The inner ring convex is integrally formed on the outer circumferential wall of the sleeve, is located inside the outer ring convex and is concentrically distributed with the outer ring convex, and has a penetrating positioning hole in the center;

[0045] A positioning pin is inserted into a positioning hole at the center of the inner ring convex portion, and one end of the positioning pin inserted into the positioning hole is pressed against the side wall of the mounting column;

[0046] The buckle cover is telescopically embedded in the gap between the outer ring convexity and the inner ring convexity and is limited by a limiting member;

[0047] Wherein, an elastic member is arranged between the buckle cover and the positioning pin, and the elastic member drives the positioning pin to press against the side wall of the mounting column.

[0048] By adopting the above technical solution, the inner ring convexity is used to constrain the movement direction of the locating pin, and the outer ring convexity and the inner ring convexity together provide an installation position for the buckle cover, and the buckle cover applies pressure to the elastic member, so that the elastic member pushes the locating pin against the side wall of the mounting column to lock the position of the ring. After the position of the ring is fixed, the position of the test table is also fixed, so that the clamp or pliers can perform detection more smoothly.

[0049] Optionally, two guide blocks facing each other are integrally arranged on the inner wall of the buckle cover, a guide oblique hole is provided through the side wall of the positioning pin, and the locking mechanism further includes

[0050] The retraction block is pressed to penetrate the inner ring convexity along the radial direction of the inner ring convexity and then slide into the guide inclined hole of the positioning pin;

[0051] Among them, the side opposite to each other of the two guide blocks is set as a guide slope, the press-retract block includes a central slope block part and edge slope block parts located at both ends of the central slope block part, and the two edge slope block parts are respectively provided with matching slopes on the sides opposite to each other, and the matching slopes of the two edge slope block parts are respectively abutted against the guide slopes of the two guide blocks.

[0052] By adopting the above technical solution, when the height position of the collar needs to be adjusted, the buckle cover is pressed. Since the guide block on the inner wall of the buckle cover is in contact with the push-back block via an inclined surface, the buckle cover will drive the push-back block to move radially along the positioning pin during the process of penetrating into the gap between the outer ring convexity and the inner ring convexity. At the same time, since the central inclined block portion of the push-back block and the guide inclined hole on the positioning pin are also in contact with an inclined surface, the positioning pin will be driven to retreat toward the outside of the inner ring convexity during the movement of the push-back block, so that the positioning pin is out of contact with the mounting column, thereby allowing the position of the collar to be adjusted.

[0053] Optionally, a limiting groove extending axially along the buckle cover is opened on the side wall of the buckle cover, and the limiting member is in the shape of a pin column, one end of the limiting member is embedded in the outer ring convexity and the other end passes through the limiting groove on the buckle cover and then embedded in the inner ring convexity.

[0054] By adopting the above technical solution, since the limit member is inserted into the limit groove on the side wall of the buckle cover, the buckle cover can use the length of the limit groove as the travel range, so that the buckle cover can return to the position where the positioning pin is tightly against the mounting column, and can also go deep into the position where the positioning pin is separated from the mounting column. At the same time, the limit member can restrain the buckle cover and limit the buckle cover from falling off, so that the buckle cover can always squeeze the elastic member to push the positioning pin to press against the side wall of the mounting column.

[0055] In summary, the machine that integrates the jaw clamp base and the clamp mandrel can be used for both jaw clamp and clamp clamp inspection, thereby making the inspection table more versatile and improving the utilization rate of limited space in the factory. At the same time, the adjustable inspection table can be adaptively adjusted according to changes in the inspection position and the inspection sample, so that the inspection table can better inspect the clamp or jaw clamp. BRIEF DESCRIPTION OF THE DRAWINGS

[0056] Figure 1 is an overall structural diagram of Embodiment 1 of the present invention;

[0057] Figure 2 is an oblique bottom view of embodiment 1 of the present invention;

[0058] Figure 3 is a schematic diagram of the structure of a detection component of Example 1 of the present invention;

[0059] Figure 4 is an overall structural diagram of Embodiment 2 of the present invention;

[0060] Figure 5 : is a schematic diagram of the structure of the detection assembly of Example 2 of the present invention (the outer ring convex is in a half-section state);

[0061] Figure 6 It is a schematic diagram of the explosion structure of the detection component of Example 2 of the present invention (the outer ring convex is in a half-section state).

[0062] Description of reference numerals:

[0063] 1. Machine table; 11. Mandrel block; 2. Jaw seat; 21. Insert block; 3. Jaw positioning column; 31. Jaw block; 4. Mandrel of clamping jaws; 5. Mandrel of clamping jaws for hole inspection; 6. Inspection assembly; 61. Mounting column; 62. Inspection table; 621. Ball arm; 7. Direction adjustment assembly; 71. Magnetic block; 72. Connecting arm; 73. Ball clamp; 731. Upper clamp; 732. Lower clamp; 733. Clamping piece; 734. Ball groove; 74. Ring; 8. Locking mechanism; 81. Outer ring convex; 82. Inner ring convex; 821. Positioning hole; 822. Movable hole; 83. Positioning pin; 831. Guide inclined hole; 84. Press-retract block; 841. Edge inclined block portion; 842. Center inclined block portion; 843. Matching inclined surface; 85. Buckle cover; 851. Guide block; 852. Guide inclined surface; 853. Limiting groove; 86. Elastic member; 9. Limiting member. DETAILED DESCRIPTION

[0064] The following is combined with Figures 1 to 6 The present invention is described in further detail.

[0065] Embodiment 1:

[0066] The present application embodiment discloses a clamp jaw integrated testing platform, referring to Figure 1 , including a machine table 1, a jaw base 2, a jaw positioning column 3, a jaw core shaft 4, a jaw hole inspection core rod 5 and a detection component 6. The machine table 1 serves as a supporting body for the installation of other components; the jaw base 2 is fixed on the machine table 1, and at the same time, the jaw base 2 is provided with an insert block 21 for the jaw arm of the jaw to be socketed. The cross-sectional shape of the insert block 21 can be T-shaped or other shapes with a guiding function.

[0067] The clamp core shaft 4 is fixed on the side of the machine table 1 away from the jaw seat 2. At this time, the clamp core shaft 4 and the jaw seat 2 are respectively located on both sides of the machine table 1, and the jaw positioning column 3 and the clamp hole detection core rod 5 are located between the jaw seat 2 and the clamp core shaft 4. Specifically, at least two groups of clamp hole detection core rods 5 are provided, and the two groups of clamp hole detection core rods 5 are respectively located on both sides of the jaw positioning column 3, and the connecting line between the two groups of clamp hole detection core rods 5 is perpendicular to the connecting line between the jaw seat 2 and the clamp core shaft 4.

[0068] More specifically, the jaw positioning column 3 is fixed on the machine table 1, and the clamp hole inspection mandrel 5 first penetrates the clamp arm of the clamp and then is inserted into the table of the machine table 1. In order to improve the stability of the clamp hole inspection mandrel 5, refer to Figure 2 A core rod block 11 is fixed on the lower surface of the machine table 1. The core rod block 11 is provided with a column hole aligned with the hole on the machine table 1 for the clamp hole inspection core rod 5 to pass through, and the column hole is a blind hole.

[0069] Reference Figure 1 In order to facilitate the inspection of the jaws of the pliers, a clamp block 31 is mounted and fixed on the jaw positioning column 3. The clamp block 31 can be fixed with the help of fasteners such as screws. At the same time, the size and shape of the clamp block 31 are the same as the jaws of the pliers.

[0070] Reference Figure 1 and Figure 3 The detection component 6 includes a mounting column 61 and a detection table 62. The mounting column 61 is fixed on the machine 1. A ball arm 621 is fixed on the detection table 62. A hinge ball is provided at one end of the ball arm 621 away from the detection table 62, and the detection table 62 is connected to the mounting column 61 through a direction adjustment component 7. Specifically, the direction adjustment component 7 includes a magnetic block 71, a connecting arm 72 and a ball clamp 73. The magnetic block 71 is adsorbed on the mounting column 61 by magnetic force. At the same time, in order to facilitate the adsorption of the magnetic block 71, a plane is provided on the side wall of the mounting column 61 along its axial direction. The adsorption position of the magnetic block 71 is the plane on the mounting column 61. One end of the connecting arm 72 is fixed on the magnetic block 71, and a hinge ball is also provided at the other end.

[0071] The ball clamp 73 includes an upper clamp 731, a lower clamp 732 and a clamping member 733. The upper clamp 731 and the lower clamp 732 are both in sheet shape and are stacked and used in coordination. At least two ball grooves 734 are provided on the surfaces of the upper clamp 731 and the lower clamp 732 facing each other. The connecting arm 72 and the hinged ball clamp 73 on the ball arm 621 are located between the upper clamp 731 and the lower clamp 732 and are located in the two ball grooves 734. The clamping member 733 has a screw portion, and the screw portion of the clamping member 733 penetrates the upper clamp 731 and the lower clamp 732 in sequence. At this time, the upper clamp 731 is located between the lower clamp 732 and the screw head of the clamping member 733, and the screw portion of the clamping member 733 forms a threaded match with the lower clamp 732.

[0072] Embodiment 2:

[0073] By adopting the magnetic attraction method, when the external force hits the detection table 62, it is easy to cause the detection table 62 to slip on the mounting column 61. Therefore, in order to overcome this problem, the present application provides an optimized clamp-and-mouth clamp integrated detection table, specifically, the optimization of the direction adjustment component 7. For details, refer to Figure 4 The direction adjustment assembly 7 includes a collar 74, a connecting arm 72 and a ball clamp 73. The connecting arm 72 is fixed to the collar 74. The structures of the connecting arm 72 and the ball clamp 73 are the same as those of the above-mentioned embodiment 1. The connection method between the connecting arm 72 and the ball clamp 73, and the detection table 62 and the ball clamp 73 is also the same as that of the above-mentioned embodiment 1. Specifically, the collar 74 is sleeved on the mounting column 61 and is positioned by a locking mechanism 8.

[0074] Reference Figure 5 The locking mechanism 8 includes an outer ring protrusion 81, an inner ring protrusion 82, a positioning pin 83, a push-back block 84 and a buckle cover 85. The outer ring protrusion 81 and the inner ring protrusion 82 are fixed on the ring 74 as a whole, and the inner ring protrusion 82 is located on the inner side of the outer ring protrusion 81, so that the two are distributed in concentric rings. At this time, a gap is formed between the outer ring protrusion 81 and the inner ring protrusion 82 for the buckle cover 85 to be embedded, and the center of the inner ring protrusion 82 has a penetrating positioning hole 821.

[0075] Reference Figure 5 and Figure 6 The locating pin 83 is cylindrical and is passed through the locating hole 821 at the center of the inner ring protrusion 82. At the same time, a guiding inclined hole 831 is opened on the side wall of the locating pin 83 at the outer end of the inner ring protrusion 82. The guiding inclined hole 831 is opened along the radial direction of the locating pin 83, and on the vertical plane, the center line of the depth direction of the guiding inclined hole 831 is obliquely crossed with the axial direction of the locating pin 83.

[0076] The push-back block 84 is formed by two "7"-shaped parts that are spliced ​​reversely end to end. The overall shape of the push-back block 84 after splicing is "Z"-shaped. At this time, the two ends of the push-back block 84 respectively form edge bevel block portions 841, and the two edge bevel block portions 841 form matching bevel surfaces 843 on the north side of each other, and the two matching bevel surfaces 843 are parallel to each other. At the same time, the part of the push-back block 84 located between the two edge bevel block portions 841 forms a center bevel block portion 842.

[0077] The side wall of the inner annular protrusion 82 is provided with a movable hole 822 for the push-back block 84 to pass through. The depth direction of the movable hole 822 is parallel to the radial direction of the inner annular protrusion 82. The movable hole 822 is used to limit the radial movement of the push-back block 84 along the inner annular protrusion 82. During installation, firstly, two "7"-shaped components are put into the movable holes 822 on both sides of the inner annular protrusion 82, and the components are combined in the guide inclined hole 831. After being assembled, the two "7"-shaped components are fixed to each other. The specific fixing method can be rivets, pins or screws, so as to complete the installation of the push-back block 84 on the positioning pin 83.

[0078] The buckle cover 85 is embedded in the gap between the inner ring protrusion 82 and the outer ring protrusion 81, and an elastic member 86 is placed between the buckle cover 85 and the positioning pin 83. The elastic member 86 can be a spring. The two ends of the elastic member 86 are respectively fixed on the buckle cover 85 and the positioning pin 83. After the buckle cover 85 is installed, the buckle cover 85 squeezes the elastic member 86 to push the positioning pin 83 against the side wall of the installation column 61. At the same time, in order to prevent the buckle cover 85 from being pushed down by the reaction force of the elastic member 86, a limiting member 9 is set on the inner ring protrusion 82 and the outer ring protrusion 81.

[0079] Specifically, a limiting groove 853 parallel to the axial direction of the positioning pin 83 and blocked on both sides is opened on the side wall of the buckle cover 85. The limiting member 9 is in the shape of a pin column. The limiting member 9 first penetrates the outer ring protrusion 81, then passes through the limiting groove 853 on the buckle cover 85 and is embedded in the inner ring protrusion 82, thereby restricting the travel of the buckle cover 85 and preventing the buckle cover 85 from falling.

[0080] The main function of the buckle cover 85 is to make the locating pin 83 press against the mounting column 61 and guide the locating pin 83 to separate from the mounting column 61 when pressed. Therefore, guide blocks 851 are respectively provided on both sides of the inner cavity of the buckle cover 85. The sides of the two guide blocks 851 opposite to each other are provided with guide slopes 852. At this time, a channel is formed between the two guide blocks 851, which runs in an axial direction intersecting with the locating pin 83. After installation, the press-and-retract block 84 is located between the two guide blocks 851, and the edge sloped block portions 841 at both ends of the press-and-retract block 84 respectively abut against the two guide blocks 851, so that when the buckle cover 85 is pressed, the guide block 851 squeezes the press-and-retract block 84, causing the guide block 851 to move along the radial direction of the locating pin 83, thereby driving the locating pin 83 to be lifted with the help of the central sloped block portion 842 of the press-and-retract block 84, so that the locating pin 83 and the mounting column 61 are out of contact, thereby facilitating the adjustment of the height position of the ring 74 on the mounting column 61.

[0081] In order to enhance the positioning effect of the positioning pin 83 on the position of the collar 74, the present application additionally provides a further optimization scheme, that is, a friction pad can be fixed on the end of the positioning pin 83 that is used to contact the mounting column 61. The friction pad can be made of rubber, and the cross-sectional shape of the positioning column can be set to a non-circular shape. This can limit the relative rotation between the collar 74 and the mounting column 61, thereby reducing the interference of external force collision on the position of the detection table 62.

[0082] When it is necessary to adjust the height position of the test gauge 62, press the buckle cover 85 to disengage the positioning pin 83 from the mounting column 61, and then move the ring 74. After the ring 74 is moved to a suitable position, release the buckle cover 85. At this time, the positioning pin 83 is pushed against the mounting column 61 again by the elastic member 86, thereby limiting the position of the ring 74. Compared with the magnetic structure, the position stability of this ring 74 on the mounting column 61 is higher, so it is not easily disturbed by external forces and shifted, so that the test gauge 62 can better detect the clamp or mouth pliers.

[0083] The implementation principle of the integrated clamp and jaw testing platform of the present application is as follows: after the inspection of the clamp and jaw is integrated into one device, the overall volume of the testing equipment can be reduced to improve the utilization rate of the limited space in the factory area, and the mounting column 61 and the testing table 62 are connected by magnetic attraction, so that the height position of the testing table 62 can be easily adjusted, and when the angle orientation of the testing table 62 needs to be fixed, since the ball clamp 73 and the testing table 62 are connected by a hinge ball, the testing table 62 can be directly rotated to adjust the orientation of the testing table 62, which further facilitates the detection operation, and by screwing the clamp 733, the rotational resistance of the testing table 62 can be adjusted, so that the testing table 62 is not easily offset during the detection process. During specific inspection, the inspection gauge 62 is adjusted to a suitable position and kept stationary, and then the clamp or jaws are rotated to obtain the height difference between the two clamp arms of the clamp or jaws. By comparing the clamp arms of the clamp or jaws with the height of the standard height block, the height parameters of the clamp arms of the clamp or jaws can be obtained, which is conducive to better control of the manufacturing accuracy of the clamp or jaws.

[0084] The above are all preferred embodiments of the present invention, and are not intended to limit the protection scope of the present invention. Therefore, any equivalent changes made based on the structure, shape, and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A clamp-and-jaw integrated testing platform, characterized in that: include A machine (1) serving as a load-bearing body; A jaw clamp seat (2) is fixed on the machine platform (1) and has an insert block (21) for the jaw clamp arm to be sleeved; A jaw positioning column (3) is fixed on the machine platform (1) and is used for positioning the jaw sleeve of the jaw pliers; A clamp mandrel (4) is fixed on the machine platform (1) and is used for positioning the clamp sleeve; A clamp hole detection mandrel (5) is inserted on the machine platform (1) and is used to penetrate the clamp arm of the clamp and detect the pin hole on the clamp arm; At least two groups of the clamp hole detection mandrels (5) are provided, the jaw positioning column (3) and the clamp hole detection mandrels (5) are located between the jaw base (2) and the clamp core shaft (4), and the two groups of the clamp hole detection mandrels (5) are located on both sides of the jaw positioning column (3) respectively; Also included is a detection component (6), the detection component (6) includes A mounting column (61) fixed on the machine platform (1); A detection gauge (62) is mounted on the mounting column (61), and a probe of the detection gauge (62) faces the clamp mandrel (4) and the jaw positioning column (3); The detection meter (62) is connected to the mounting column (61) via a direction adjustment component (7), and the direction adjustment component (7) includes A collar (74) is sleeved on the mounting column (61) and positioned by a locking mechanism (8); The connecting arm (72) is fixed on the collar (74), and a hinge ball is integrally provided at one end of the connecting arm (72) away from the collar (74); A ball clamp (73) is installed on the connecting arm (72) and clamps the hinge ball on the connecting arm (72); Wherein, a ball arm (621) is fixed on the detection table (62), and a hinged ball is arranged at one end of the ball arm (621) away from the detection table (62), and the hinged ball on the ball arm (621) is clamped on the ball clamp (73); The locking mechanism (8) comprises An outer ring protrusion (81) is integrally formed on the outer circumferential wall of the collar (74); The inner annular protrusion (82) is integrally formed on the outer circumferential wall of the collar (74), is located inside the outer annular protrusion (81) and is concentrically distributed with the outer annular protrusion (81), and has a penetrating positioning hole (821) at the center; A positioning pin (83) is inserted into a positioning hole (821) at the center of the inner ring protrusion (82), and one end of the positioning pin inserted into the positioning hole (821) is pressed against the side wall of the mounting column (61); The buckle cover (85) is telescopically embedded in the gap between the outer annular protrusion (81) and the inner annular protrusion (82), and is limited by the limiting member (9); Wherein, an elastic member (86) is provided between the buckle cover (85) and the positioning pin (83), and the elastic member (86) drives the positioning pin (83) to press against the side wall of the mounting column (61).

2. The integrated clamp and jaw testing platform according to claim 1, characterized in that: A clamp block (31) having the same size and shape as the jaws of the pliers is sleeved and fixed on the jaw positioning column (3).

3. The integrated clamp and jaw testing platform according to claim 1, characterized in that: A core rod block (11) is fixed on the lower surface of the machine platform (1), and a column hole is provided on the core rod block (11) which is aligned with a hole on the machine platform (1) for a clamp hole inspection core rod (5) to pass through, and the depth of the column hole is less than the thickness of the core rod block (11).

4. The integrated clamp and jaw testing platform according to claim 1, characterized in that: The detection meter (62) is connected to the mounting column (61) via a direction adjustment component (7), and the direction adjustment component (7) includes A magnetic block (71) is adsorbed on the mounting column (61); The connecting arm (72) is fixed on the magnetic attraction block (71), and a hinge ball is integrally provided at one end of the connecting arm (72) away from the magnetic attraction block (71); A ball clamp (73) is installed on the connecting arm (72) and clamps the hinge ball on the connecting arm (72); Wherein, a ball arm (621) is fixed on the detection table (62), and a hinged ball is arranged at one end of the ball arm (621) away from the detection table (62), and the hinged ball on the ball arm (621) is clamped on the ball clamp (73).

5. The integrated clamp and jaw testing platform according to claim 4, characterized in that: The ball clamp (73) comprises Upper clamp (731); Lower clamp (732); A clamping member (733) penetrates both the upper clamp (731) and the lower clamp (732) and is threadedly connected to the lower clamp (732); The surfaces of the upper clamp (731) and the lower clamp (732) facing each other are both provided with ball grooves (734) for inserting hinge balls, and the upper clamp (731) is located between the lower clamp (732) and the screw head of the clamping member (733).

6. The integrated clamp and jaw testing platform according to claim 1, characterized in that: The inner wall of the buckle cover (85) is integrally provided with two guide blocks (851) facing each other, the side wall of the positioning pin (83) is provided with a penetrating guide inclined hole (831), and the locking mechanism (8) also includes The retracting block (84) is pressed to penetrate the inner ring convexity (82) along the radial direction of the inner ring convexity (82) and then slide into the guide inclined hole (831) of the positioning pin (83); The sides of the two guide blocks (851) facing each other are provided with guide bevels (852), the pressing and retracting block (84) comprises a central bevel block portion (842) and edge bevel block portions (841) located at both ends of the central bevel block portion (842), the sides of the two edge bevel block portions (841) facing away from each other are provided with matching bevels (843), and the matching bevels (843) of the two edge bevel block portions (841) are respectively in contact with the guide bevels (852) of the two guide blocks (851).

7. The integrated clamp and jaw testing platform according to claim 1, characterized in that: A limiting groove (853) extending axially along the buckle cover (85) is provided on the side wall of the buckle cover (85); the limiting member (9) is in the shape of a pin column; one end of the limiting member (9) is embedded in the outer ring protrusion (81) and the other end passes through the limiting groove (853) on the buckle cover (85) and then is embedded in the inner ring protrusion (82).

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