Sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy

Abstract

The invention relates to the technical field of sawing machines, in particular to a sawing machine for zinc-aluminum-silicon-magnesium-chromium alloy machining, which comprises a sawing machine body, a cutting carrying table is fixedly mounted on the sawing machine body, and a fixing clamp plate is fixedly mounted on the cutting carrying table; the movable clamp plate moves and is matched with the fixed clamp plate to clamp and fix the alloy batten; the batten carrying mechanism is mounted on the cutting platform deck and drives the alloy batten to move, so that the position of the alloy batten is adjusted; when the alloy batten is cut, one end of the alloy batten is inserted between the limiting barrier strips, the other end of the alloy batten is in contact with the lower extending carrier plate, the upper end face of the alloy batten is in contact with the attaching pad, and then the alloy batten is pushed to move, so that the movable carrying table can be driven to move, and meanwhile the alloy batten can be adsorbed by the movable carrying table; and in the later cutting process, the alloy plate strip can be driven by the movable carrying table to accurately move.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of sawing machines, in particular to a sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy. BACKGROUND

[0002] Zinc-aluminum-silicon-magnesium-chromium alloy is a multi-element alloy, usually with zinc and aluminum as the main components, and adding elements such as silicon, magnesium and chromium to improve its performance. Among them, zinc as the matrix provides good casting performance and corrosion resistance; aluminum can improve strength, hardness and fluidity, and reduce melting point; silicon can improve wear resistance, thermal stability and casting performance, i.e. reduce shrinkage; magnesium can refine grains, enhance strength and creep resistance; chromium can improve corrosion resistance and high-temperature oxidation resistance, and it is widely used in various fields.

[0003] The zinc-aluminum-silicon-magnesium-chromium alloy strip needs to be cut into equal-length strips by a sawing machine during production to meet the use requirements. The existing sawing machine for cutting zinc-aluminum-silicon-magnesium-chromium alloy strip has a simple structure, and the strip is fixed by a clamp to ensure its stability during cutting. However, the position of the strip needs to be adjusted manually each time during multiple cutting processes to ensure uniform and equal-length cutting of the strip, which is troublesome and increases the workload of the workers and reduces the cutting efficiency. SUMMARY

[0004] The present application aims to provide a sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy to solve the problems in the background art.

[0005] To achieve the above-mentioned purpose, the present application provides the following technical scheme: A sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy, comprising: a sawing machine body, a cutting workbench is fixedly installed on the sawing machine body, and a fixed clamp plate is fixedly installed on the cutting workbench; A movable clamp plate is used to clamp and fix the alloy strip in cooperation with the fixed clamp plate; A strip carrying mechanism is installed on the cutting workbench to move the alloy strip and adjust the position of the alloy strip; An adjustment driving assembly is installed on the movable clamp plate and moves with the movable clamp plate; The adjustment driving assembly cooperates with the strip carrying mechanism to move the strip carrying mechanism.

[0006] Preferably, the lower end of the movable clamp plate is fixedly provided with a lower convex strip, and the adjustment driving assembly is installed on the lower convex strip.

[0007] Preferably, the adjusting driving assembly comprises an adjusting rack, which is movably mounted on the lower convex strip; A bearing link, which is movably connected with the adjusting rack; A locking bearing plate, which is mounted on the adjusting rack.

[0008] Preferably, the adjusting rack can move up and down relative to the lower convex strip, and when it moves up and down, it drives the bearing link to move.

[0009] Preferably, after the adjusting rack moves down, it is locked by the locking bearing plate.

[0010] Preferably, the adjusting driving assembly comprises an adjusting gear, which is driven to rotate by the adjusting rack when the adjusting rack is engaged with the adjusting gear; An adjusting bearing plate, which is mounted on the adjusting gear; A frame-shaped plate rack, which is movably mounted on the adjusting bearing plate; A moving bearing platform, which is also movably mounted on the adjusting bearing plate; A movable strip, which is mounted on the moving bearing platform and movably connected with the adjusting bearing plate.

[0011] Preferably, when the adjusting rack moves down, the bearing link locks the adjusting gear.

[0012] Preferably, when the adjusting gear rotates, it drives the adjusting bearing plate to move, and the adjusting bearing plate drives the moving bearing platform to move.

[0013] Preferably, the frame-shaped plate rack locks the moving bearing platform, and the moving bearing platform drives the alloy strip to move.

[0014] Preferably, the movable strip cooperates with the moving bearing platform to adsorb the alloy strip.

[0015] Compared with the prior art, the present application has the following advantages: 1. When the alloy strip is cut, one end of the alloy strip is inserted between the limiting stop strips, the one end of the alloy strip is in contact with the lower extension bearing plate, and the upper end surface of the alloy strip is in contact with the fitting pad. Then the alloy strip is pushed to move, which drives the moving bearing platform to move, and the moving bearing platform can adsorb the alloy strip. In the later cutting process, the alloy strip can be accurately moved by the moving bearing platform, without manual adjustment of the alloy strip, so that the cutting operation can be smoothly completed. It is very convenient, not only saves manpower, but also improves the work efficiency of cutting.

[0016] 2. When the alloy strip is segmented, the moving clamp plate moves towards the alloy strip, and finally cooperates with the fixed clamp plate to clamp and fix the alloy strip. In this process, the moving clamp plate will drive the adjusting rack to move, and then the adjusting rack will drive the adjusting gear to rotate under the action of the adjusting rack, and the adjusting carrier plate will be driven to move under the action of the adjusting gear, thereby realizing the adjustment of the position of the alloy strip and ensuring the accuracy of the segmentation position.

[0017] 3. When the position of the alloy strip is adjusted, the further movement of the moving clamp plate will make the adjusting rack move downward, and at the same time realize the locking of the adjusting rack. Therefore, when the moving clamp plate moves reversely after the completion of the segmentation, the adjusting rack and the adjusting gear will not mesh, so as to ensure the existing position of the alloy strip. When the moving clamp plate is reset, the adjusting rack will be unlocked and move upward under the action of the first connecting spring. Therefore, when the moving clamp plate moves towards the alloy strip again, the position of the alloy strip can be adjusted again, that is, the automatic adjustment of the position of the alloy strip is realized, which ensures the smooth operation of the multiple segmentation operations and saves the trouble of manual adjustment. BRIEF DESCRIPTION OF DRAWINGS

[0018] Figure 1 It is a schematic view of the assembly of the sawing machine body.

[0019] Figure 2 It is a first perspective view of the assembly of the cutting carrier.

[0020] Figure 3 It is a second perspective view of the assembly of the cutting carrier.

[0021] Figure 4 It is a structural view of the cutting carrier.

[0022] Figure 5 It is a schematic view of the assembly of the moving clamp plate.

[0023] Figure 6 It is a structural view of the adjusting rack.

[0024] Figure 7 It is a first perspective view of the assembly of the adjusting gear, the adjusting carrier and the moving carrier.

[0025] Figure 8 It is a second perspective view of the assembly of the adjusting gear, the adjusting carrier and the moving carrier.

[0026] Figure 9 It is a schematic view of the assembly of the adjusting gear and the adjusting carrier.

[0027] Figure 10 It is a schematic view of the assembly of the adjusting carrier and the movable rack.

[0028] Figure 11 Structure diagram of mobile platform.

[0029] In the figure: 1, sawing machine body; 2, cutting platform; 21, fixed clamp plate; 22, mounting bearing plate; 23, hydraulic rod; 24, bent plate frame; 25, matching rotating wheel; 26, bearing plate strip; 261, matching ejector rod; 27, mounting bearing plate; 271, assembly bearing hole; 28, limiting top groove; 29, supporting convex strip; 3, moving clamp plate; 31, lower convex plate strip; 32, lower moving through hole; 33, supporting vertical plate; 34, moving bearing hole; 35, guide bearing hole; 36, extension plate strip; 37, locking through hole; 4, adjusting rack; 41, moving insertion rod; 42, supporting bottom plate strip; 43, first connecting spring; 44, inclined surface arch frame; 45, guide bearing rod; 46, matching connecting block; 461, bearing convex plate; 462, movable insertion hole; 47, push-eject connecting rod; 5, bearing connecting frame; 51, supporting connecting rod; 52, locking bearing plate; 53, locking matching block; 6, locking bearing plate; 61, locking matching column; 62, elastic connecting strip; 7, adjusting gear; 71, mounting bearing block; 72, threaded through hole; 73, bearing; 8, adjusting bearing plate; 80, threaded adjusting column; 81, limiting frame strip; 82, movable matching hole; 83, matching plate strip; 84, first convex plate; 85, matching channel; 86, frame-shaped plate frame; 87, movable insertion rod; 88, movable blocking strip; 9, mobile platform; 91, locking cavity; 92, fitting pad; 93, matching moving hole; 94, second convex plate; 941, matching bearing rod; 942, supporting bearing disc; 943, second connecting spring; 95, lower extension bearing plate; 96, limiting blocking strip; 97, movable plate strip; 971, matching insertion rod; 972, locking plug plate; 98, driving connecting rod. DETAILED DESCRIPTION

[0030] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments of the present application. Based on the embodiments in the present application, all other embodiments obtained by a person of ordinary skill in the art without creative work fall within the protection scope of the present application.

[0031] The present application provides a technical solution: As Figure 1 and Figure 4As shown, a sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy includes: a sawing machine body 1, a cutting workbench 2 can be installed on the sawing machine body 1 through bolts, a fixed clamp plate 21 is fixedly installed on the cutting workbench 2 through bolts, a bent plate frame 24 is integrally formed at one end of the cutting workbench 2, a matching rotating wheel 25 is installed at the lower end of the bent plate frame 24, a bearing plate strip 26 is integrally formed at the other end of the cutting workbench 2, a matching ejector rod 261 is welded and fixed on the bearing plate strip 26, and an installation bearing plate 27 is integrally formed on the cutting workbench 2 between the bent plate frame 24 and the bearing plate strip 26, an assembly bearing hole 271 is formed in the installation bearing plate 27, a limiting top groove 28 is further formed at the upper end of the installation bearing plate 27, and in addition, a supporting convex strip 29 is welded and fixed on the cutting workbench 2 below the installation bearing plate 27.

[0032] A moving clamp plate 3 is provided, which cooperates with the fixed clamp plate 21 to clamp and fix the alloy plate strip, the moving clamp plate 3 is arranged opposite to the fixed clamp plate 21, an installation bearing plate 22 is integrally formed on the cutting workbench 2, a hydraulic rod 23 is fixedly installed on the installation bearing plate 22 through bolts, and the moving clamp plate 3 is fixedly connected with the hydraulic rod 23 through bolts, so that the moving clamp plate 3 is driven to move by the hydraulic rod 23.

[0033] As shown in Figure 2 and Figure 3 , the plate strip carrying mechanism is installed on the cutting workbench 2 to drive the alloy plate strip to move and adjust the position of the alloy plate strip; the adjustment driving assembly is installed on the moving clamp plate 3 and is driven to move by the moving clamp plate 3; the adjustment driving assembly cooperates with the plate strip carrying mechanism to drive the plate strip carrying mechanism to move.

[0034] As shown in Figure 3 and Figure 4 , a lower convex plate strip 31 is fixedly arranged at the lower end of the moving clamp plate 3, the adjustment driving assembly is installed on the lower convex plate strip 31, a lower moving hole 32 is formed in the lower convex plate strip 31, a supporting vertical plate 33 is fixedly arranged on the lower convex plate strip 31, a moving bearing hole 34 is formed in the supporting vertical plate 33, a guide bearing hole 35 is further formed in the lower convex plate strip 31, in addition, an extension plate strip 36 is integrally formed at one end of the lower convex plate strip 31 close to the guide bearing hole 35, and a locking hole 37 is formed at the upper end of the extension plate strip 36.

[0035] As shown in Figure 3 , Figure 5 and Figure 6As shown, the adjusting driving assembly comprises an adjusting rack 4 movably mounted on the lower protruding plate strip 31, the lower end of the adjusting rack 4 is welded with a moving plug rod 41, the moving plug rod 41 is inserted in the lower moving through hole 32, and the lower end of the moving plug rod 41 is welded with a supporting bottom plate strip 42, in addition, the moving plug rod 41 is sleeved with a first connecting spring 43, the first connecting spring 43 is located at the lower side of the lower protruding plate strip 31, and the two ends of the first connecting spring 43 are welded on the lower protruding plate strip 31 and the supporting bottom plate strip 42 respectively, one end of the supporting bottom plate strip 42 is welded with an inclined arched frame 44, the surface of the inclined arched frame 44 is smooth without burrs, the other end of the supporting bottom plate strip 42 is welded with a guide bearing rod 45, the guide bearing rod 45 is inserted in the guide bearing hole 35, and the upper end of the guide bearing rod 45 is integrally provided with a matching connecting block 46, the matching connecting block 46 is integrally provided with a bearing protruding plate 461, the bearing protruding plate 461 is provided with a movable insertion hole 462 extending to the matching connecting block 46.

[0036] The bearing connecting frame 5 is movably connected with the adjusting rack 4, the bearing connecting frame 5 is integrally provided with a supporting connecting rod 51, the supporting connecting rod 51 is inserted in the moving bearing hole 34, and the end of the supporting connecting rod 51 away from the bearing connecting frame 5 is welded with a locking bearing plate 52, the locking bearing plate 52 is integrally provided with a locking matching block 53, the bearing connecting frame 5 is hingedly provided with a pushing connecting rod 47, the upper end of the pushing connecting rod 47 is hingedly connected with the matching connecting block 46.

[0037] The locking bearing plate 6 is mounted on the adjusting rack 4, the locking bearing plate 6 is integrally provided with a locking matching column 61, one end of the locking matching column 61 is inserted in the movable insertion hole 462, and the locking bearing plate 6 is welded with a spring connecting strip 62, the other end of the spring connecting strip 62 is welded on the bearing protruding plate 461, when the locking matching column 61 of the locking bearing plate 6 is in contact with the end surface of the extending plate strip 36, the spring connecting strip 62 is in a compressed state.

[0038] The adjusting rack 4 can move up and down relative to the lower protruding plate strip 31, and when it moves up and down, it drives the bearing connecting frame 5 to move, after the adjusting rack 4 moves downward, it is locked by the locking bearing plate 6, that is, the locking matching column 61 on the locking bearing plate 6 is inserted in the locking through hole 37 at this time.

[0039] As Figure 2 , Figure 7 , Figure 8 , Figure 9 , Figure 10 and Figure 11As shown, the adjusting driving assembly comprises an adjusting gear 7, the adjusting gear 7 is driven to rotate when the adjusting gear 7 is engaged with the adjusting rack 4, the adjusting rack 4 is below the adjusting gear 7, and the lower end surface of the adjusting rack 4 is in contact with the upper end surface of the supporting convex strip 29 when the adjusting rack 4 is engaged with the adjusting gear 7, the adjusting rack 4 is supported by the supporting convex strip 29 and cannot move downward.

[0040] The adjusting carrier plate 8 is mounted on the adjusting gear 7, the adjusting gear 7 is integrally formed with a mounting block 71, the mounting block 71 is provided with a threaded hole 72, and the mounting block 71 is sleeved with a bearing 73, the bearing 73 is mounted in the assembly hole 271, the adjusting carrier plate 8 is welded with a threaded adjusting column 80, the threaded adjusting column 80 is threaded in the threaded hole 72, the upper end of the adjusting carrier plate 8 is welded with a limiting frame strip 81, the limiting frame strip 81 is inserted in the limiting top groove 28 and in contact with the inner wall of the limiting top groove 28, the adjusting carrier plate 8 is limited and cannot rotate with the adjusting gear 7, and the adjusting carrier plate 8 is symmetrically provided with a movable cooperation hole 82, the upper end of the adjusting carrier plate 8 is also integrally formed with a cooperation plate strip 83, in addition, the adjusting carrier plate 8 is integrally formed with a first convex plate 84, and the first convex plate 84 is provided with a cooperation channel 85.

[0041] The frame type plate frame 86 is movably mounted on the adjusting carrier plate 8, the lower end of the frame type plate frame 86 is symmetrically welded with a movable insertion rod 87, the movable insertion rod 87 is inserted in the movable cooperation hole 82, and the frame type plate frame 86 is also integrally formed with a movable blocking strip 88.

[0042] The moving carrier 9 is also movably mounted on the adjusting carrier plate 8, the moving carrier 9 is integrally formed with a second convex plate 94, the second convex plate 94 is welded with a cooperation supporting rod 941, the cooperation supporting rod 941 is inserted in the cooperation channel 85, and the cooperation supporting rod 941 is integrally formed with a supporting carrier disc 942 at the end away from the moving carrier 9, the cooperation supporting rod 941 is sleeved with a second connecting spring 943, the two ends of the second connecting spring 943 are welded on the supporting carrier disc 942 and the first convex plate 84 respectively, and the lower end of the moving carrier 9 is integrally formed with a lower extension carrier plate 95, the lower extension carrier plate 95 is symmetrically welded with a limiting blocking strip 96, and the limiting blocking strip 96 limits the alloy plate strip.

[0043] The movable batten 97 is installed on the moving platform 9 and movably connected with the adjusting plate 8. The movable batten 97 is hingedly connected with the driving connecting rod 98, the lower end of the driving connecting rod 98 is hingedly connected with the adjusting plate 8, the moving platform 9 is provided with a locking cavity 91, the inner top surface of the locking cavity 91 is provided with a matching moving hole 93, the lower end of the movable batten 97 is integrally provided with a matching plug rod 971, the lower end of the matching plug rod 971 is welded with a locking plug plate 972, the matching plug rod 971 is inserted into the locking cavity 91 through the matching moving hole 93, and the locking plug plate 972 is also inserted into the locking cavity 91 and tightly matches with the locking cavity 91.

[0044] When the adjusting rack 4 moves downward, the bearing connecting frame 5 locks the adjusting gear 7, that is, the locking matching block 53 on the locking plate 52 is engaged with the adjusting gear 7.

[0045] When the adjusting gear 7 rotates, the adjusting plate 8 is driven to move, the adjusting plate 8 drives the moving platform 9 to move, and the adjusting gear 7 is driven to move under the action of the screw thread.

[0046] The frame type plate frame 86 locks the moving platform 9, the moving platform 9 drives the alloy batten to move, and when the adjusting plate 8 drives the moving platform 9 to move, the first convex plate 84 is in contact with the second convex plate 94.

[0047] The movable batten 97 is matched with the moving platform 9 to adsorb the alloy batten, the end face of the locking cavity 91 is pasted with the matching pad 92, and when the alloy batten is in contact with the matching pad 92, the matching pad 92 ensures the sealing property of the cavity opening of the locking cavity 91.

[0048] When the alloy strip is to be cut, one end of the alloy strip is inserted under the moving carrier 9, the alloy strip is between the two limiting bars 96, one end of the alloy strip is in contact with the downward extending carrier plate 95, and at this time the upper end surface of the alloy strip is in contact with the matching pad 92, so as to ensure the sealing of the cavity opening of the locking cavity 91. At this time, the movable bar 88 on the frame-shaped plate frame 86 is above the moving carrier 9, that is, the lower end surface of the movable bar 88 is in contact with the upper end surface of the moving carrier 9. After the alloy strip is inserted, the alloy strip can be pushed to drive the moving carrier 9 to move towards the adjusting carrier plate 8. With the movement of the moving carrier 9, the movable bar 88 will pass over the moving carrier 9, so that the movable bar 88 loses the limitation and moves downward under the gravity of the frame-shaped plate frame 86, so that the movable bar 88 moves downward and is clamped on the end surface away from the adjusting carrier plate 8 of the moving carrier 9. In this way, the position of the moving carrier 9 can be limited. At this time, the first convex plate 84 and the second convex plate 94 are in contact with each other. In addition, the moving carrier 9 will also drive the movable bar 97 to move synchronously during the movement of the moving carrier 9. Under the action of the driving connecting rod 98, the movable bar 97 will move upward, and with the upward movement of the movable bar 97, the locking plug plate 972 will move upward, so that a negative pressure is formed in the locking cavity 91, and the alloy strip can be adsorbed and fixed, so that the alloy strip and the moving carrier 9 are relatively fixed. The moving carrier 9 can drive the alloy strip to move accurately, avoiding the alloy strip from moving slightly due to inertia during adjustment, which may cause the alloy strip to be cut inaccurately. When the moving carrier 9 moves to the working point, the hydraulic rod 23 can be started to drive the moving clamp plate 3 to move towards the alloy strip. With the movement of the moving clamp plate 3, the adjusting rack 4 moves together, so that the adjusting rack 4 moves above the supporting convex strip 29 and is in contact with the supporting convex strip 29, and at the same time the adjusting rack 4 is in mesh with the adjusting gear 7. Under the support of the supporting convex strip 29, when the adjusting rack 4 is in mesh with the adjusting gear 7, the adjusting rack 4 will not move downward under the action of external force, which ensures the stability of the meshing. With the movement of the adjusting rack 4, the adjusting gear 7 rotates, and under the action of the screw thread, the adjusting carrier plate 8 moves towards the fixed clamp plate 21, thereby adjusting the position of the alloy strip. When the alloy strip is adjusted to the position, the adjusting rack 4 completely passes over the adjusting gear 7 and is separated from the adjusting gear 7, and at this time the adjusting rack 4 is also separated from the supporting convex strip 29. With the further movement of the moving clamp plate 3, the other end surface of the alloy strip is in contact with the moving clamp plate 3. In this way, the alloy strip is clamped and fixed under the cooperation of the fixed clamp plate 21 and the moving clamp plate 3. In this process, the inclined arch-shaped frame 44 on the supporting bottom strip 42 will be in contact with the cooperating rotating wheel 25 on the bending plate frame 24.Thus under the action of the matching runner 25 will push the support bottom strip 42 to move down, and then make the adjusting rack 4 move down, and move to the lower side of the support convex strip 29, and the downward movement of the support bottom strip 42 will also drive the matching connecting block 46 to move down, thus under the action of the push-up connecting rod 47 will drive the bearing connecting frame 5 to move to the direction of the adjusting gear 7, and then make the locking matching block 53 on the locking bearing plate 52 engage with the adjusting gear 7, thus under the action of the locking matching block 53 can lock the adjusting gear 7, so that it cannot rotate, thus it can ensure that the alloy strip cannot be moved mistakenly during the cutting process, in addition, the downward movement of the matching connecting block 46 will also make the locking matching column 61 on the locking bearing plate 6 align with the locking through hole 37, thus under the action of the elastic connecting strip 62 will make the locking bearing plate 6 move, and then make the locking matching column 61 insert into the locking through hole 37, to realize the locking of the adjusting rack 4, thus it can make the adjusting rack 4 unable to move up, when the first division is completed, start the hydraulic rod 23 to drive the moving clamp plate 3 to move reversely, since the adjusting rack 4 cannot move up, so the adjusting rack 4 will not engage with the adjusting gear 7 during the reverse movement, thus it will not drive the adjusting gear 7 to rotate reversely, with the resetting of the adjusting rack 4 and the moving clamp plate 3, will make the matching top rod 261 insert into the locking through hole 37, thus under the action of the matching top rod 261 will make the locking matching column 61 exit from the locking through hole 37, and then make the adjusting rack 4 in the unlocked state, thus under the action of the first connecting spring 43 can make the adjusting rack 4 move up to reset finally, for driving the adjusting gear 7 again, when the division of the whole alloy strip is completed, pull up the frame plate 86 to make the moving bearing 9 in the unlocked state, thus it can reset under the action of the second connecting spring 943, for clamping the next alloy strip, then rotate the adjusting gear 7 reversely to make the adjusting bearing plate 8 reset, which is very convenient.

[0049] Although the embodiments of the present application have been shown and described, it is to be understood that various modifications, substitutions, replacements and changes can be made to these embodiments without departing from the principles and spirit of the present application, and the scope of the present application is defined by the appended claims and their equivalents.

Claims

1. A sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy, characterized by: include: A sawing machine body, on which a cutting platform is fixedly mounted, and on which a fixed fixture plate is fixedly mounted; A movable fixture plate, wherein the movable fixture plate moves to cooperate with the fixed fixture plate to clamp and fix the alloy strip; The slat carrying mechanism is installed on the cutting platform to drive the alloy slats to move and adjust the position of the alloy slats; An adjustment drive assembly, wherein the adjustment drive assembly is mounted on the movable fixture plate and is driven to move by the movable fixture plate; The adjustment drive assembly cooperates with the slat carrying mechanism to drive the slat carrying mechanism to move.

2. A sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy according to claim 1, characterized in that: A lower convex strip is fixedly provided at the lower end of the movable fixture plate, and an adjustment drive component is installed on the lower convex strip.

3. The sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy according to claim 2, characterized in that: The adjustment drive assembly includes: an adjustment rack, the adjustment rack being movably mounted on the lower convex strip; A load-bearing connecting frame, wherein the load-bearing connecting frame is movably connected to the adjustment rack; A locking support plate is installed on the adjusting rack.

4. The sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy according to claim 3, characterized in that: The adjusting rack can move up and down relative to the lower convex strip, and when it moves up and down, it drives the supporting frame to move.

5. The sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy according to claim 4, characterized in that: After the adjustment rack has moved downward, it is locked by locking the carrier plate.

6. The sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy according to claim 5, characterized in that: The adjustment drive assembly includes: an adjustment gear, when the adjustment gear is engaged with the adjustment rack, the adjustment rack drives the adjustment gear to rotate; An adjusting carrier plate, wherein the adjusting carrier plate is mounted on the adjusting gear; A frame-type plate rack, the frame-type plate rack being movably mounted on the adjustment carrier plate; A movable carrier, the movable carrier also being movably mounted on the adjustment carrier plate; The movable slats are installed on the movable carrier and are movably connected to the adjustment carrier.

7. The sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy according to claim 6, characterized in that: When the adjusting rack moves downward, the supporting connecting frame locks the adjusting gear.

8. The sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy according to claim 7, characterized in that: When the adjusting gear rotates, the adjusting carrier plate is driven to move, and the adjusting carrier plate drives the movable carrier to move.

9. The sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy according to claim 8, characterized in that: The frame-type plate rack locks the movable carrier, and the movable carrier drives the alloy plate strips to move.

10. The sawing machine for processing zinc-aluminum-silicon-magnesium-chromium alloy according to claim 9, characterized in that: The movable slats cooperate with the movable carrier to adsorb the alloy slats.

Images