A dual-light source laser processing device

Abstract

The present invention relates to a dual-light source laser processing device. The device comprises a machine platform, which is provided with a first light source and a second light source, which project a first laser beam and a second laser beam, respectively; a two-dimensional motion mechanism connected to a laser processing head assembly and driving the laser processing head assembly to move laterally and / or longitudinally; a reflector assembly configured to reflect received laser beams back to the laser processing head assembly; a first laser optical path and a second laser optical path; the first laser optical path being provided with a first reflector; the second laser optical path being provided with a second reflector; the second reflector being positioned on the trajectory of the first laser optical path; a position adjuster and a controller electrically connected to the position adjuster. The device utilizes two laser light sources, coordinated by the position adjuster, resulting in convenient operation and relatively low cost.

Description

[0001] This invention is a divisional application with application number: 2024114913324; invention name: A dual-light source laser processing device; and application date: 2024-10-24. Technical Field

[0002] The present invention relates to the technical field of laser processing devices, and in particular to a dual-light source laser processing device. Background Art

[0003] At present, the laser light sources commonly used in laser processing machines are: carbon dioxide laser and fiber laser. The wavelengths of these two lasers are different, and their corresponding application fields are also different. The laser wavelength emitted by the fiber laser is shorter and the focal length is smaller, which is suitable for metal cutting; while the laser wavelength emitted by the carbon dioxide laser is longer and the focal length is longer, which is suitable for non-metal cutting.

[0004] In actual applications, some manual workers perform laser processing on products, including metals and non-metals. Non-metals include wood, bamboo, rubber and other materials. Therefore, they usually prepare two laser processing machines, one with a carbon dioxide laser and the other with a fiber laser. This results in relatively high usage costs and also occupies a larger volume. Summary of the Invention

[0005] The purpose of the present invention is to provide a dual-light source laser processing machine to address the deficiencies of the existing technology. The dual-light source laser processing machine has two different lasers, which effectively reduces the cost of use.

[0006] A dual-light source laser processing device includes: a machine platform, the machine platform being provided with a first light source and a second light source, the first light source and the second light source projecting a first laser beam and a second laser beam, respectively; the machine platform also being provided with a planar two-dimensional motion mechanism, the planar two-dimensional motion mechanism being connected to a laser processing head assembly and driving the laser processing head assembly to move laterally and / or longitudinally; the planar two-dimensional motion mechanism being provided with a reflector assembly, the reflector assembly being used to reflect received laser beams back to the laser processing head assembly;

[0007] The machine is also provided with a first laser light path and a second laser light path;

[0008] The first laser light path is provided with a first reflector for projecting the first laser light onto the reflector assembly;

[0009] The second laser light path is provided with a second reflector for projecting the second laser light onto the reflector assembly;

[0010] The second reflecting mirror is located on the trajectory of the first laser light path;

[0011] The machine is provided with a position adjuster for adjusting the position of the second reflector, and a controller for controlling the operation of the first light source and the second light source; the controller is electrically connected to the position adjuster.

[0012] Preferably, the position adjuster includes a displacement mechanism connected to the second reflector.

[0013] Preferably, the position adjuster further includes a vertical guiding mechanism, and the second reflector is connected to the vertical guiding mechanism.

[0014] Preferably, the vertical guide mechanism includes a vertically arranged support plate, one side of the support plate is connected to a vertical guide rail, the vertical guide rail is slidably connected to a vertical slide, the second reflector is connected to a fixed plate, the fixed plate is fixedly connected to the vertical slide, the displacement mechanism includes a screw stepper motor fixedly connected to the support plate, the screw stepper motor is bolted to the vertical slider and drives the vertical slider to move up and down, and the vertical slider is fixedly connected to the fixed plate.

[0015] Preferably, the upper and lower ends of the support plate are respectively connected to sensors, and the fixing plate is connected to a sensing block that cooperates with the sensors.

[0016] Preferably, the first reflector is connected to the support plate.

[0017] Furthermore, the first optical path and / or the second optical path is provided with an optical gate for controlling the passage of laser, and the optical gate is connected to a driving unit for driving the optical gate to move or rotate; when the first light source or the second light source is in a stopped working state, the driving unit drives the optical gate to operate, and the optical gate blocks the corresponding first laser or second laser.

[0018] Preferably, the machine is connected to a casing, the planar two-dimensional moving mechanism is located inside the casing, a window is provided at the front upper end of the casing and is connected to a protective cover, the rear end of the protective cover is hinged to the casing, and a support unit for supporting the protective cover to open is connected between the protective cover and the casing.

[0019] Preferably, the housing or protective cover is connected to a sensor for sensing that the protective cover is opened. When the protective cover is opened, the driving unit drives the shutter to operate and block the corresponding first laser or second laser.

[0020] Furthermore, the planar two-dimensional moving mechanism includes longitudinal moving mechanisms located on both sides and a transverse moving mechanism located in the middle, and the mirror assembly is arranged on the transverse moving mechanism; the transverse moving mechanism includes a transverse guide rail located in the middle, a vertical substrate slidably connected to the transverse guide rail, and a transverse driving device for driving the vertical substrate to move, and the two ends of the transverse guide rail are respectively connected to the corresponding longitudinal moving mechanisms.

[0021] Furthermore, a main fixed plate and an auxiliary fixed plate are respectively connected to both sides of the transverse guide rail, and the transverse driving device includes a first pulley fixed to the main fixed plate and a second pulley fixed to the auxiliary fixed plate, the first pulley is connected to a pulley driving motor, and the first pulley is connected to the second pulley through a transverse belt, the upper end of the back surface of the vertical base plate is connected to a plurality of upper pulleys, and the lower end end of the back surface of the vertical base plate is connected to a plurality of lower pulleys, the upper end face and the lower end face of the transverse guide rail are respectively provided with guiding structures arranged opposite to the upper pulley and the lower pulley, and the left side and the right side of the vertical base plate are respectively provided with belt connecting structures.

[0022] Furthermore, the guide structure includes a transverse guide rod arranged on the upper end face and the lower end face of the transverse guide rail, and the middle parts of the side surfaces of the upper pulley and the lower pulley are provided with an annular groove that matches the transverse guide rail; the upper pulley and / or the lower pulley are adjustable pulleys, and the middle part of the adjustable pulley is provided with a connecting shaft, and the back side of the base plate is provided with a through hole for the connecting shaft to pass through, and the aperture of the through hole is larger than the diameter of the connecting shaft, and the front side of the base plate is provided with a countersunk hole, and an eccentric wheel is provided in the countersunk hole, and the middle part of the eccentric wheel is provided with an eccentric hole matching the connecting shaft, and the connecting shaft passes through the through hole and is inserted into the eccentric hole; the end face of the eccentric wheel is provided with a plurality of adjustment holes, among which a plurality of adjustment holes are provided with internal threads, and the adjustment hole is connected with a fastening bolt.

[0023] Preferably, the belt connection structure includes a main clamping block and a secondary clamping block for connecting with the belt, a mounting notch for installing the secondary clamping block is provided in the middle of the back side of the main clamping block, the main clamping block is connected to the secondary clamping block through a connecting piece, the outer end face of the main clamping block is provided with a plurality of through holes, the side surface of the vertical base plate is provided with connecting holes arranged opposite to the through holes, the main clamping block is connected with a side bolt, one end of the side bolt passes through the through hole and is inserted into the connecting hole of the vertical base plate, the middle part of the side bolt is threadedly connected with an adjusting nut, and the adjusting nut abuts against the main clamping block.

[0024] Secondly, another structure can also be adopted, such as: the belt connection structure includes a main clamping block and a secondary clamping block for connecting to the belt, and an installation notch for installing the secondary clamping block is provided in the middle of the back side of the main clamping block. The main clamping block is connected to the secondary clamping block through a connecting piece, and the outer end face of the main clamping block is provided with a plurality of through holes, and the side surface of the vertical substrate is provided with connecting holes arranged opposite to the through holes. The main clamping block is connected with a side threaded column, one end of the side threaded column passes through the through hole and is inserted into the connecting hole of the vertical substrate, and the side threaded column is connected with two fixing nuts, and the two fixing nuts are clamped on both sides of the main clamping block.

[0025] Preferably, the guide structure includes guide grooves provided on the upper end surface and the lower end surface of the horizontal guide rail, and the upper pulleys are rotatably connected to the two sides of the upper end of the back side of the vertical base, and an adjusting structure is provided in the middle of the lower end of the back side of the vertical base to adjust the state of the lower pulley against the horizontal guide rail; the adjusting structure includes an adjusting block, the middle of the adjusting block is hinged to the vertical base through a hinge shaft, one end of the adjusting block is rotatably connected to the lower pulley, the other end of the adjusting block is provided with a threaded hole and is bolted to an adjusting bolt. A fixing block is provided on the back side of the vertical base, and the fixing block is located below the other end of the adjusting block; the fixing block is provided with a movable hole for the middle of the adjusting bolt to pass through, and an elastic member for pushing the adjusting bolt downward is provided between the head of the adjusting bolt and the fixing block.

[0026] 7. The swiftly and minutely adjusting device for a wood-planer working table as claimed in claim 1, wherein said linking rod and said adjusting base are pivotally connected to each other with a bolt, and said bolt has a round shank to contact with said linking rod. said linking rod has a round shank to contact with said linking rod. The top end face of said sliding arm is connected to said sliding arm, and the bottom end of said sliding arm is connected to said sliding arm by a threaded connection to said sliding arm.

[0027] Preferably, the guide cylinder outer sleeve is provided with a spring, and both ends of the spring are fixedly connected to the sensing block and the boss respectively.

[0028] Beneficial effects of the present invention: The present invention adopts two laser light sources to work and coordinates them through a position adjuster, which is easy to operate and relatively low in cost. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 This is a structural schematic diagram of the dual-light source laser processing device of this embodiment.

[0030] Figure 2 for Figure 1 A schematic diagram with part of the casing removed.

[0031] Figure 3 A structural diagram of a laser light source.

[0032] Figure 4 A structural diagram of a position adjuster.

[0033] Figure 5 A schematic diagram of the cooperation between the planar two-dimensional moving mechanism and the laser processing head assembly.

[0034] Figure 6 for Figure 5 Enlarged schematic diagram of point A in the middle.

[0035] Figure 7 for Figure 5 Enlarged schematic diagram of point C in the middle.

[0036] Figure 8 for Figure 5 Enlarged schematic diagram of point B in the middle.

[0037] Figure 9 A partially exploded schematic diagram of the laser processing head assembly.

[0038] Figure 10 This is a second schematic diagram of the cooperation between the lateral movement mechanism and the laser processing head assembly.

[0039] Figure 11 for Figure 10 Schematic diagram from another perspective.

[0040] Figure 12 for Figure 11 Enlarged schematic diagram of point D in the middle.

[0041] Figure 13 This is a schematic diagram of the second structure of the laser processing head assembly.

[0042] Figure 14 This is a schematic diagram of the third structure of the laser processing head assembly.

[0043] Figure 15 This is a schematic diagram of another state of the third structure of the laser processing head assembly.

[0044] Figure 16 for Figure 15 Enlarged schematic diagram of point E in the middle.

[0045] Figure 17A structural diagram of an adjustment ring.

[0046] Reference numerals:

[0047] 1 - housing; 2 - protective cover; 3 - second light source; 4 - position adjuster; 5 - first light source; 6 - planar two-dimensional moving mechanism; 7 - laser processing head assembly; 8 - optical shutter; 9 - reflector assembly; 41 - second reflector; 42 - nut block; 43 - lead screw stepper motor; 44 - support plate; 45 - fixing plate; 46 - first reflector; 47 - vertical guide rail; 48 - vertical slide;

[0048] 61 - longitudinal movement mechanism; 62 - transverse guide rail; 63 - transverse guide rod; 64 - main fixed plate; 65 - belt transmission mechanism; 66 - pulley drive motor; 67 - first pulley; 68 - auxiliary fixed plate; 69 - second pulley; 610 - guide groove;

[0049] 71 - Vertical base plate; 72 - Upper pulley; 73 - Belt connecting structure; 74 - Countersunk hole; 75 - Eccentric hole; 76 - Fastening bolt; 77 - Eccentric wheel; 78 - Adjusting hole; 710 - Lower pulley; 711 - Adjusting bolt; 712 - Movable hole; 713 - Fixed block; 714 - Elastic member; 715 - Adjusting block; 716 - Side edge; 717 - Gap; 718 - Annular plate; 719 - Steel ball; 720 - Horizontal slide; 721 - Sensing block; 722 - Spring; 723 - Sensor; 724 - Guide cylinder; 725 - Boss; 726 - Adjusting ring; 727 - Driving wheel; 728 - Intermediate wheel; 729 - Fixed plate; 730 - Zeroing rod; 731 - Main clamping block; 732 - Auxiliary clamping block; 733 - Mounting notch; 734 - Side bolt; 735 - Through hole; 736 - Adjusting nut. DETAILED DESCRIPTION

[0050] In order to make the technical problems, technical solutions and beneficial effects to be solved by this application more clearly understood, this application is further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain this application and are not intended to limit this application.

[0051] It should be noted that when an element is referred to as being “fixed on” or “disposed on” another element, it may be directly on the other element or indirectly on the other element. When an element is referred to as being “connected to” another element, it may be directly connected to the other element or indirectly connected to the other element.

[0052] It should be understood that the terms "length", "width", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", etc., indicating the orientation or position relationship, are based on the orientation or position relationship shown in the accompanying drawings, and are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation on this application.

[0053] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of the technical features being referred to. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of the features. Throughout the description of this application, "plurality" means two or more, unless otherwise specifically defined.

[0054] The present invention will be described in detail below with reference to the accompanying drawings. Figures 1 to 3 shown.

[0055] Example 1: See Figure 1 、 Figure 2 A dual-light source laser processing device, comprising: a machine platform, the machine platform being provided with a first light source 5 and a second light source 3, the first light source 5 and the second light source 3 respectively projecting a first laser and a second laser; the machine platform being further provided with a planar two-dimensional moving mechanism 6, the planar two-dimensional moving mechanism 6 being connected to a laser processing head assembly 7 and driving the laser processing head assembly 7 to move laterally and / or longitudinally; the planar two-dimensional moving mechanism 6 being provided with a reflector assembly 9, the reflector assembly 9 being used to reflect received laser light to the laser processing head assembly 7;

[0056] The machine is also provided with a first laser light path and a second laser light path;

[0057] The first laser light path is provided with a first reflector 46 for projecting the first laser light onto the reflector assembly 9;

[0058] The second laser light path is provided with a second reflector 41 for projecting the second laser light onto the reflector assembly 9;

[0059] The second reflecting mirror 41 is located on the trajectory of the first laser light path;

[0060] The machine is provided with a position adjuster 4 for adjusting the position of the second reflector 41 , and a controller for controlling the operation of the first light source 5 and the second light source 3 ; the controller is electrically connected to the position adjuster 4 .

[0061] The present technical solution is achieved by arranging a first light source 5 and a second light source 3 on the machine, thereby enabling the machine to have a dual laser light source, the first light source 5 and the second light source 3 can be respectively one of a carbon dioxide laser and a radio frequency laser, and the first light source 5 and the second light source 3 can be the same or different; in this embodiment, two different light sources are used; the laser emitted by the first light source 5 is projected onto the reflector assembly 9 through the first laser optical path, and then reflected onto the laser processing head assembly 7; the laser emitted by the second light source 3 can also be projected onto the reflector assembly 9 through the second laser optical path, and the reflector assembly 9 can reflect both the first laser and the second laser to the laser processing head assembly 7; since the reflected light paths formed by the first laser and the second laser through the reflector assembly 9 are the same, the incident light paths of the first laser and the second laser to the reflector assembly 9 are the same; for this reason, during the design, the second reflector 41 is arranged on the trajectory of the first laser optical path, and of course the first reflector 46 can also be arranged on the trajectory of the second laser optical path.

[0062] During use, since the second reflector 41 is located on the trajectory of the first laser light path, the first light source 5 and the second light source 3 need to be switched for use, and when the first light source 5 is provided, the position of the second reflector 41 needs to be adjusted to make it leave the first laser light path; this technical solution adjusts the position of the second reflector 41 by setting a position adjuster 4; at the same time, the position adjuster 4 is electrically connected to the controller, and the controller controls the use status of the first light source 5 and the second light source 3, and sends a signal to the position adjuster 4 according to the use status, and the position adjuster 4 makes adjustments according to the corresponding signal; such as: when the controller controls the first light source 5 to be in use, the controller sends a high level to the position adjuster 4, the position adjuster 4 works, and moves the second reflector 41 outside the first light path trajectory; when the controller controls the first light source 5 to be in non-use state, the controller sends a low level to the position adjuster 4, the position adjuster 4 works, and moves the second reflector 41 to the first light path trajectory. Of course, other adjustment strategies can also be employed. For example, when the controller controls the second light source 3 to be in use, the controller sends a high level to the position adjuster 4, causing the position adjuster 4 to operate and move the second reflector 41 onto the first optical path. When the controller controls the second light source 3 to be inactive, the controller sends a low level to the position adjuster 4, causing the position adjuster 4 to operate and move the second reflector 41 outside the first optical path. The controller can be conventional, such as a control IC, a processor, etc. Secondly, it should be noted that due to the different positions of the laser light sources in the first and second laser light paths, multiple intermediate reflectors can be provided between the first light source 3 and the first reflector 46. Similarly, multiple intermediate reflectors can be provided between the second light source 5 and the second reflector 41 to project the laser light from the first light source onto the first reflector 46 and the laser light from the second light source onto the second reflector 41. In this embodiment, an intermediate reflector is provided between the second light source 3 and the second reflector 41 to reflect the laser light from the second light source onto the second reflector 41. The technology for providing intermediate reflectors is conventional and will not be further described.

[0063] See also Figure 4 The position adjuster 4 includes a displacement mechanism connected to the second reflecting mirror 41.

[0064] By providing a displacement mechanism, the second reflector 41 can be driven to move in any direction other than the direction of laser transmission. In this embodiment, the displacement mechanism is illustratively a vertical linear module that drives the second reflector 41 to move up and down.

[0065] See also Figure 4 The position adjuster 4 also includes a vertical guide mechanism, and the second reflector 41 is connected to the vertical guide mechanism.

[0066] A vertical guide mechanism is provided so that the second reflector 41 moves linearly when moving up and down without shaking, which can protect the reflector and also accurately transport the reflector to a predetermined position.

[0067] In this embodiment, the vertical guiding mechanism includes a vertically arranged support plate 44, one side of the support plate 44 is connected to a vertical guide rail 47, the vertical guide rail 47 is slidably connected to a vertical slide 48, the second reflector 41 is connected to a fixed plate 45, and the fixed plate 45 is fixedly connected to the vertical slide 48.

[0068] Secondly, the displacement mechanism includes a screw stepper motor 43 fixedly connected to the support plate 44. The screw of the screw stepper motor 43 is threadedly connected to the fixed plate 45 and drives the fixed plate 45 to move up and down. The vertical slide 48 is fixedly connected to the fixed plate 45. During operation, the screw stepper motor 43 drives its own screw to rotate, and the screw drives the fixed plate 45 to move up and down. The fixed plate 45 drives the vertical slide 48 and the second reflector 41 to move up and down along the vertical guide rail 47. In the specific setting, the fixed plate 45 includes a vertical section connected to the vertical slide 48 and a horizontal section connected to the screw. To facilitate the connection between the screw and the horizontal section, the screw is threadedly connected to a nut block 42, and the nut block 42 is connected to the horizontal section. The connection of the nut block 42 to the horizontal section can effectively increase the connection area.

[0069] Secondly, the upper and lower ends of the support plate 44 are respectively connected to sensors, and the fixing plate 45 is connected to a sensing block that cooperates with the sensor. The sensors and sensing blocks are provided to assist in controlling the position of the fixing plate 45 and the second reflector 41 to rise and fall.

[0070] See also Figure 4 , the first reflector 46 is connected to the support plate 44. To facilitate the fixation of the first reflector 46, in this technical solution, the first reflector 46 is connected to the support plate 44 via a connecting bracket. When switching the light source, the screw stepper motor 43 drives the vertical slider to move the second reflector 41 up and down, avoiding the first laser light path.

[0071] See also Figure 3 The first optical path and / or the second optical path is provided with an optical gate 8 for controlling the passage of the laser, and the optical gate 8 is connected to a driving unit for driving the optical gate 8 to move or rotate; when the first light source 5 or the second light source 3 is in a stopped working state, the driving unit drives the optical gate 8 to move, and the optical gate 8 blocks the corresponding first laser or second laser.

[0072] See also Figure 1 、 Figure 2The machine is connected to a casing 1, the planar two-dimensional moving mechanism is located inside the casing 1, a window is provided at the upper front end of the casing 1 and is connected to a protective cover 2, the rear end of the protective cover 2 is hinged to the casing 1, and a support unit for supporting the protective cover 2 to open is connected between the protective cover 2 and the casing 1; the casing 1 or the protective cover is connected to a sensor for sensing that the protective cover is opened, and the sensor is electrically connected to the control unit. When the protective cover is opened, the control unit drives the optical shutter 8 to block the corresponding first laser or second laser.

[0073] When the laser processing assembly is working, the laser is harmful to the human body. In order to avoid laser exposure and damage to the human body, a housing 1 is set up to shield the planar two-dimensional mechanism; at the same time, a protective cover 2 is set up to facilitate the operation of the workpiece on the workbench; when the protective cover 2 is opened, in order to protect the operator, it is necessary to shut down the laser emitter or block the laser. If the laser is shut down, it will take some time to restart the laser. Therefore, this technical solution adopts a shielding method, by setting a sensor to sense the state of the protective cover 2. Once the protective cover 2 is opened, it acts as a light gate 8 to shield the first laser or the second laser. Secondly, the support unit can adopt gas springs, support rods, etc.; it can be existing technology.

[0074] In this embodiment, the driving unit includes a driving motor, and the control unit is connected to the driving motor. When a signal is received from the sensor, the driving motor is controlled to rotate the shutter 8. The driving unit can also be a cylinder that drives the shutter 8 to move to control whether the laser passes through.

[0075] See also Figure 5 The planar two-dimensional moving mechanism includes longitudinal moving mechanisms 61 located on both sides and a transverse moving mechanism located in the middle, and the mirror assembly 9 is arranged on the transverse moving mechanism; the transverse moving mechanism includes a transverse guide rail 62 located in the middle, a vertical substrate 71 slidably connected to the transverse guide rail 62, and a transverse driving device for driving the vertical substrate 71 to move, and the two ends of the transverse guide rail 62 are respectively connected to the corresponding longitudinal moving mechanism 61.

[0076] In the present technical solution, the length direction of one of the longitudinal guide rails is parallel to the direction in which the first laser is reflected from the first reflector 46. The reflector assembly 9 is arranged on the transverse moving mechanism. When adjusting the position, the reflector assembly 9 moves longitudinally along with the transverse moving mechanism, so that the reflector assembly 9 can always receive the first laser or the second laser. In order to facilitate the setting of the transverse moving mechanism and the laser processing head assembly 7, the transverse moving mechanism is provided with a transverse guide rail 62. The laser processing head is slidably connected to the transverse guide rail 62 and moves laterally under the drive of the transverse drive device.

[0077] See also Figure 5 、 Figure 6 、 Figure 7 、 Figure 8 as well as Figure 9 、 Figure 10 The two sides of the transverse guide rail 62 are respectively connected to a main fixed plate 64 and an auxiliary fixed plate 68. The transverse drive device includes a first pulley 67 fixed to the main fixed plate 64 and a second pulley 69 fixed to the auxiliary fixed plate 68. The first pulley 67 is connected to a pulley drive motor 66. The first pulley 67 is connected to the second pulley 69 through a transverse belt. Figure 6 、 Figure 11 The upper end of the back side of the vertical substrate 71 is connected to a number of upper pulleys 72, and the lower end of the back side of the vertical substrate 71 is connected to a number of lower pulleys 710. The upper end face and the lower end face of the transverse guide rail 62 are respectively provided with guiding structures arranged opposite to the upper pulley 72 and the lower pulley 710, and the left side and the right side of the vertical substrate 71 are respectively provided with belt connection structures 73.

[0078] In this embodiment, when the main fixing plate 64 and the auxiliary fixing plate 68 are provided, the main fixing plate 64 is located on the side of the transverse guide rail 62 away from the reflector assembly 9. Furthermore, a pulley drive motor 66 is fixed to the main fixing plate 64 and is drivingly connected to a first pulley 67. The pulley drive motor 66 drives the first pulley 67. To facilitate the fixing of the pulley drive motor 66 and the first pulley 67, a transmission mechanism, such as a gear transmission mechanism, can be provided on the main fixing plate 64. In this embodiment, a belt transmission mechanism 65 is provided on the main fixing plate 64. The pulley drive motor 66 is connected to the first pulley 67 via the belt transmission mechanism 65. Specifically, the belt transmission mechanism 65 includes a main pulley connected to the rotating shaft of the pulley drive motor 66 and an auxiliary pulley coaxially connected to the second pulley 69. The pulley drive motor 66 drives the first pulley 67 to rotate, which in turn drives the second pulley 69 via a belt. Simultaneously, the belt moves between the first and second pulleys 67 and 69. As the belt moves, it drives the vertical base plate 71 to move laterally along the transverse guide rail 62. To reduce friction with the transverse guide rail 62, in this embodiment, an upper pulley 72 and a lower pulley 710 are provided on the back of the vertical base plate 71. Guide structures are provided on the upper and lower end surfaces of the transverse guide rail 62, respectively. The upper pulley 72 and the lower pulley 710 respectively abut against the guide structures on the upper and lower end surfaces of the transverse guide rail 62, rolling relative to each other and performing linear transverse movement under the guidance of the guide structures. The upper pulley 72 and the lower pulley 710 are in rolling contact with the transverse guide rail 62, effectively reducing the coefficient of friction.

[0079] See also Figure 5 、 Figure 6 The guide structure includes a transverse guide rod 63 provided on the upper and lower end surfaces of the transverse guide rail 62, and an annular groove matching the transverse guide rail 62 is provided in the middle of the side of the upper pulley 72 and the lower pulley 710; Figure 9The upper pulley 72 and / or the lower pulley 710 are adjustable pulleys, and a connecting shaft is provided in the middle of the adjustable pulley. A through hole is provided on the back of the base plate for the connecting shaft to pass through, and the aperture of the through hole is larger than the diameter of the connecting shaft. A countersunk hole 74 is provided on the front of the base plate, and an eccentric wheel 77 is provided in the countersunk hole 74. An eccentric hole 75 matching the connecting shaft is provided in the middle of the eccentric wheel 77, and the connecting shaft passes through and is inserted into the eccentric hole 75; a plurality of adjustment holes 78 are provided on the end face of the eccentric wheel 77, wherein a plurality of adjustment holes 78 are provided with internal threads, and the adjustment holes 78 are connected with fastening bolts 76.

[0080] The present technical solution is to provide a transverse guide rod 63, and an annular groove is provided in the middle of the side of the upper pulley 72 and the lower pulley 710, so that the upper end of the transverse guide rod 63 is stuck in the annular groove of the upper pulley 72 and the lower pulley 710. When working, the upper pulley 72 and the lower pulley 710 roll along the corresponding transverse guide rod 63, respectively, and the rolling direction of the upper pulley 72 and the lower pulley 710 can be guided; secondly, the provision of the transverse guide rod 63 can reduce costs, and the upper pulley 72 and the lower pulley 710 can be When the transverse guide rod 63 rolls, the upper pulley 72, the lower pulley 710, and the transverse guide rod 63 all wear. To reduce wear and extend service life, it is understandable that the materials of the upper pulley 72, the lower pulley 710, and the transverse guide rod 63 are all selected to be hard and wear-resistant. If the transverse guide rod 63 is not provided separately, the transverse guide rail 62 needs to be made of a wear-resistant material. By providing the transverse guide rod 63 separately, it is only necessary to change the material of the transverse guide rod 63 to a more wear-resistant material. At the same time, it is also convenient for replacement. When the transverse guide rod 63 is severely worn, only the transverse guide rod 63 needs to be replaced.

[0081] Secondly, during installation, since the transverse guide rail 62 and the laser processing head assembly 7 are two different components, when the laser processing head assembly 7 is reassembled and assembled to the transverse guide rail 62, since the upper pulley 72 and the lower pulley 710 are all clamped with the corresponding transverse guide rod 63, if the upper pulley 72 and the lower pulley 710 are fixedly connected to the vertical base plate 71, the positions of the upper pulley 72 and the lower pulley 710 cannot be adjusted, and the clamping connection of the upper pulley 72 and the lower pulley 710 to the transverse guide rail 62 cannot be achieved; the present technical solution is achieved by setting at least one of the upper pulley 72 and the lower pulley 710 as an adjustable pulley; in this embodiment, the lower pulley 710 is set as an adjustable pulley, and the connecting shaft of the lower pulley 710 is connected to the eccentric hole 75 of the eccentric wheel 77, and when assembled with the transverse guide rail 62, it is rotated by a tool. The eccentric wheel 77 causes the height of the lower pulley 710 to drop, and the gap between the lower pulley 710 and the upper pulley 72 increases, and the distance between the upper pulley 72 and the lower pulley 710 is greater than the distance between the transverse guide rods 63 located on the upper and lower end faces of the transverse guide rails 62; the vertical base plate 71 is then moved so that the upper pulley 72 is opposite to the transverse guide rod 63 located above, and the lower pulley 710 is opposite to the transverse guide rod 63 located below; the vertical base plate 71 is loosened, and the side surface of the upper pulley 72 abuts against the transverse guide rail 62 located above; the workpiece is then used to rotate the eccentric wheel 77, so that the lower pulley 710 moves upward and abuts against the transverse guide rail 62 located below; finally, the eccentric wheel 77 is fixed with the fastening bolt 76, and the fastening bolt 76 rotates relative to the eccentric wheel 77 and abuts against the vertical base plate 71.

[0082] Furthermore, after prolonged use, when the upper pulley 72 and / or the lower pulley 710 are severely worn, the grip of the upper pulley 72 and the lower pulley 710 on the transverse guide rail 62 becomes loose, and the lower pulley 710 may separate from the transverse guide rod 63 located below. The vertical substrate 71 moves under the drive of the belt, and the vertical substrate 71 has a small range of up and down jumps, affecting the normal operation of the laser processing head assembly 7. This technical solution adopts an eccentric wheel 77 structure. By operating the eccentric wheel 77, the eccentric wheel 77 rotates and drives the lower pulley 710 to rotate. At the same time, the lower pulley 710 also moves upward, so that the lower pulley 710 abuts against the transverse guide rod 63 located below; thereby overcoming the impact of wear of the upper pulley 72 and the lower pulley 710.

[0083] See also Figure 9The belt connecting structure 73 includes a main clamping block 731 and a secondary clamping block 732 for connecting to the belt. The middle part of the back of the main clamping block 731 is provided with a mounting notch 733 for installing the secondary clamping block 732. The main clamping block 731 is connected to the secondary clamping block 732 through a connecting piece, which can be a bolt, etc.; the outer end surface of the main clamping block 731 is provided with a plurality of through holes 735, and the side surface of the vertical base plate 71 is provided with a connecting hole arranged opposite to the through hole 735. The main clamping block 731 is connected with a side bolt 734, one end of the side bolt 734 passes through the through hole 735 and is inserted into the connecting hole of the vertical base plate 71, and the middle part of the side bolt 734 is threadedly connected with an adjusting nut 736, and the adjusting nut 736 abuts against the main clamping block 731.

[0084] The belt can be connected to the belt connecting structures 73 on both sides in two ways: 1. The belt is a closed-loop structure, and a section of the belt is clamped between the belt connecting structures 73 on both sides; and the length of a section of the belt is greater than the distance between the belt connecting structures 73 on both sides; 2. The belt is an open-loop structure, the middle part of the belt is disconnected, and the two ends of the disconnected belt are respectively connected to the corresponding belt connecting structures 73.

[0085] The belt passes between the main clamping block 731 and the auxiliary clamping block 732. The main clamping block 731 and the auxiliary clamping block 732 are connected by a connecting piece and clamp the belt. Secondly, the belt connection structure 73 can adjust the tension of the belt; two connection points are formed on the belt, which are the connection points between the belt and the belt connection structure 73; when working, the working length of the belt is: the belt between the two connection points and around the first pulley 67 and the second pulley 69. For the convenience of description, this section of the belt length is set as the effective working length; after assembly is completed, the tension of the belt needs to be adjusted, that is, the effective working length of the belt is within a predetermined value or a predetermined range so that the belt can work normally; currently, when adjusting the belt tension in the industry, a tension adjustment wheel is generally used. By setting a position-adjustable tension adjustment wheel, the position of the tension adjustment wheel is changed when adjusting the belt tension, thereby achieving the purpose of adjusting the belt tension; in this embodiment, setting a position-adjustable tension adjustment wheel will make the overall structure complicated and the cost is high. In this embodiment, side bolts 734 are provided on the main clamping block 731 and are threadedly connected to the vertical base plate 71, so that the effective use length of the belt can be adjusted; when in use, the belt continuously maintains an outward pulling force on the main clamping block 731, so that the main clamping block 731 and the head of the side bolt 734 are against each other; when adjusting, by rotating the side bolt 734, the side bolt 734 moves toward or away from the base plate, and the side bolt 734 drives the main clamping block 731 to move left and right. After the main clamping block 731 moves left and right, the connection point between the belt connecting structure 73 and the belt also moves left and right, thereby changing the effective use length of the belt.

[0086] Since the main clamping block 731 and the side bolt 734 are in a socket structure, the main clamping block 731 can move laterally relative to the side bolt 734; during use, the laser processing head assembly 7 will continuously move laterally left and right, and during the movement of the laser processing head, it is inevitable that the main clamping block 731 will be displaced against the side bolt 734 for a short period of time, causing the laser processing head to shake left and right for a short period of time, affecting the processing accuracy of the laser processing head; for this reason, this embodiment adopts the method of setting an adjusting nut 736, and clamping the main clamping block 731 by adjusting the nut 736 and the head of the side bolt 734, thereby preventing the main clamping block 731 from moving relative to the side bolt 734.

[0087] Secondly, you can also have another structure like:

[0088] The belt connection structure 73 includes a main clamping block 731 and a secondary clamping block 732 for connecting to the belt. A mounting notch 733 for mounting the secondary clamping block 732 is provided in the middle of the back side of the main clamping block 731. The main clamping block 731 is connected to the secondary clamping block 732 through a connecting piece. The outer end face of the main clamping block 731 is provided with a plurality of through holes 735. The side of the vertical base plate 71 is provided with connecting holes arranged opposite to the through holes 735. The main clamping block 731 is connected with a side threaded column. One end of the side threaded column passes through the through hole 735 and is inserted into the connecting hole of the vertical base plate 71. The side threaded column is connected with two fixing nuts, and the two fixing nuts are clamped on both sides of the main clamping block 731.

[0089] Two fixing nuts clamp the main clamp 731 and adjust its position. To adjust its position, the two fixing nuts can be rotated simultaneously to move the main clamp 731 left and right. Other adjustment methods are also possible. The two fixing nuts prevent the main clamp 731 from moving left and right relative to the side screws. The side screws can be connected to the base plate using either a threaded connection or a plug-in, interference fit connection.

[0090] See also Figure 12 、 Figure 13The cam 713 is provided with a screw hole 714 on the upper and lower ends of the cam 714 so as to allow the cam 714 to move downwards and thereby prevent the cam 714 from sliding downwards.

[0091] In this embodiment, the guide structure adopts another structure, see Figure 12 A guide groove 610 is provided on the upper and lower end surfaces of the transverse guide rail 62. The middle portions of the sides of the upper pulley 72 and the lower pulley 710 are convex outwards, and the upper pulley 72 and the lower pulley 710 roll along the guide groove 610. Figure 13 The back of the vertical base plate 71 is provided with an adjustment structure, which facilitates the installation and adjustment of the clamping force of the upper pulley 72 and the lower pulley 710 on the transverse guide rail 62. When the vertical base plate 71 is assembled with the transverse guide rail 62, the upper pulley 72 and the lower pulley 710 are respectively inserted from the front of the transverse guide rail 62 until the upper pulley 72 moves above the upper guide groove 610 and the lower pulley 710 moves below the lower guide groove 610. The vertical base plate 71 is then released, and the lower end of the upper pulley 72 falls into the upper guide groove 610. As the elastic member 714 pushes the adjustment bolt 711 downward, the adjustment block 715 rotates, and the lower pulley 710 is driven upward by the adjustment block 715, and the upper end of the lower pulley 710 falls into the lower guide groove 610. This prevents the lower pulley 710 from failing to contact the bottom surface of the lower guide groove 610. When the lever 720 is in the unlocked position, the lever 721 is in the unlocked position, and the spring 714 is in the unlocked position, so the lever 720 is unlocked and the spring 714 is in the unlocked position.

[0092] See also Figures 14 to 17 The back of the vertical substrate 71 is connected to a zeroing rod 730 adjustment assembly, which includes a zeroing rod 730. Two parallel fixing plates 729 are provided on the back of the vertical substrate 71. A limiting space is formed between the two fixing plates 729. A through-hole is provided in the middle of the fixing plate 729 for the zeroing rod 730 to pass through. A double-helical side edge 716 is provided in the middle of the side of the zeroing rod 730. An adjusting ring 726 is provided on the outer sleeve of the zeroing rod 730. The adjusting ring 726 is located in the limiting space and the inner side of the adjusting ring 726 is embedded with a The steel ball 719 can rotate freely, and the middle part of the double-helix side edge 716 forms a spiral gap 717 that cooperates with the steel ball 719; the lower end of the side of the zeroing rod 730 is provided with an open ring piece 718, the opening of the ring piece 718 is arranged opposite to the lower end opening of the double-helix side edge 716, and the ring piece 718 is arranged at an angle, and the opening of the ring piece 718 is located at the highest point of the ring piece 718; the two sides of the adjusting ring 726 are respectively provided with a driving wheel 727, the middle part of the driving wheel 727 is connected to a connecting shaft, and the driving wheel 727 is located in the limited space. The two ends of the connecting shaft are slidably connected with the two fixed plates 729. The fixed plate 729 is provided with a horizontal slide groove 720 that matches the connecting shaft. The end of the connecting shaft extends into the horizontal slide groove 720. The rear end of the driving wheel 727 extends out of the fixed plate 729 and abuts against the horizontal guide rail 62. An intermediate wheel 728 is provided between one of the driving wheels 727 and the adjusting ring 726. The intermediate wheel 728 is rotatably connected to the fixed plate 729, and the side of the intermediate wheel 728 abuts against the side of the adjusting ring 726. A boss 725 is provided in the middle of the back of the vertical base plate 71. The boss 725 The upper end of the zero return rod 730 is connected to a guide cylinder 724 that cooperates with the upper end of the zero return rod 730, the boss 725 is provided with a through hole, and the upper end of the zero return rod 730 passes through the boss 725 and the guide cylinder 724 in sequence. The upper end side surface of the zero return rod 730 is provided with a vertical groove, and the inner side surface of the guide cylinder 724 is provided with a convex point that cooperates with the vertical groove, and the convex point is stuck in the vertical groove; the upper end of the zero return rod 730 is connected to the sensing block 721, and the upper end of the back side of the vertical substrate 71 is connected to the sensor 723, and the sensor 723 is provided with a sensing hole that cooperates with the sensing block 721.

[0093] This technical solution is to set a zeroing rod 730 component to assist the laser processing head in focusing. At present, the laser processing head assembly 7 needs to obtain the height of the laser processing head when focusing. However, the laser processing head assembly 7 is not equipped with a distance measuring unit such as a rangefinder. Therefore, it is necessary to know a relative height of the laser processing head assembly 7 and then adjust it according to the relative height. In this embodiment, when focusing, the laser processing head assembly 7 remains stationary, and the zeroing rod 730 moves downward under the action of gravity. Since the convex point in the guide cylinder 724 cooperates with the vertical groove at the upper end of the side of the zeroing rod 730, the zeroing rod 730 moves linearly downward. At the same time, the side edge 716 of the zeroing rod 730 abuts against the steel ball 719 of the adjustment ring 726 and pushes the steel ball 719 to move along the spiral gap 717. The steel ball 719 carries The adjusting ring 726 rotates until the sensing block 721 abuts against the upper end of the guide cylinder 724; at this time, the sensing block 721 is just below the sensor block, the steel ball 719 is still in the gap 717, and the lower end face of the zeroing rod 730 is below the laser processing head assembly 7; then the control system of the laser processing device drives the workbench to move upward, and the workbench drives the workpiece thereon to move slowly upward together until the workpiece contacts the zeroing rod 730, and the zeroing rod 730 is pushed by the workpiece, and the zeroing rod 730 drives the sensing block 721 to move upward, and the sensor 723 senses the sensing block 721 and sends a signal to the control system, and the control system controls the workbench to stop rising. At this time, the height of the laser processing head assembly 7 is the reference 0 height, and then the control system controls the workbench to move downward a predetermined distance to complete the focusing.

[0094] After the focusing is completed, the control system will control the two-dimensional moving laser to drive the laser processing head assembly 7 to move in two dimensions. Since the lower end surface of the zeroing rod 730 is located below the laser processing head assembly 7 at this time, during the two-dimensional movement, the zeroing rod 730 will have a high probability of colliding with other foreign objects placed on the workbench, thereby damaging both the zeroing rod 730 and the foreign objects. To avoid this situation, it is necessary to retract the zeroing rod 730 during operation, that is, drive the zeroing rod 730 to move upward; in this embodiment, a combination structure of an adjustment ring 726, a driving wheel 727 and an intermediate wheel 728 is used to realize the upward movement of the driving zeroing rod 730.

[0095] Referring to the accompanying drawings, when the laser processing head assembly 7 moves to the left, the two driving wheels 727 abut against the transverse guide rail 62 and are subjected to the friction force of the transverse guide rail 62. The direction of this friction force is rightward and simultaneously pushes the driving wheel 727 to move to the right. The two ends of the connecting shaft of the driving wheel 727 move along the transverse slide groove 720 respectively and move to the right end of the transverse slide groove 720; the driving wheel 727 on the right side is separated from the adjusting ring 726; for ease of understanding, in this embodiment, the intermediate wheel 728 is illustratively arranged on the left side of the adjusting ring 726; of course, it can also be arranged on the right side of the adjusting ring 726; the driving wheel 727 on the left side abuts against the intermediate wheel 728, The driving wheel 727 then rotates under the force of friction, simultaneously driving the intermediate wheel 728 to rotate. The intermediate wheel 728 then drives the adjustment ring 726 to rotate. When the adjustment ring 726 rotates, the steel ball 719 moves along the gap 717 and drives the zero return rod 730 upward. For ease of understanding, when the laser processing head assembly 7 moves to the left, the driving wheel 727 rotates clockwise under the force of friction. The driving wheel 727 and the intermediate wheel 728 rotate in opposite directions. Therefore, the intermediate wheel 728 rotates counterclockwise, while the intermediate wheel 728 and the adjustment ring 726 rotate in opposite directions. The adjustment ring 726 rotates clockwise. When the adjustment ring 726 rotates clockwise, the zero return rod 730 is driven upward.

[0096] When the laser processing head assembly 7 moves to the right, the two driving wheels 727 abut against the transverse guide rail 62 and are subjected to the friction force of the transverse guide rail 62. The direction of the friction force is leftward and simultaneously pushes the driving wheel 727 to move leftward. The two ends of the connecting shaft of the driving wheel 727 move along the transverse slide groove 720 respectively and move to the left end of the transverse slide groove 720; the driving wheel 727 on the left is separated from the middle wheel 728; the driving wheel 727 on the right is abutted against the adjusting ring 726, and the driving wheel 727 rotates counterclockwise. At the same time, the driving wheel 727 and the adjusting ring 726 rotate in opposite directions. The adjusting ring 726 rotates clockwise. When the adjusting ring 726 rotates clockwise, the driving zeroing rod 730 moves upward.

[0097] When the zeroing rod 730 moves upward until the ball exits the gap 717, the ball moves around the lower end surface of the open annular plate 718. Because the opening of the open annular plate 718 is opposite the opening at the lower end of the double-helix side edge 716, when the ball passes through the opening of the annular plate 718, the ball briefly enters the opening at the lower end of the double-helix side edge 716 before exiting. It will be appreciated that to facilitate the ball's exit, the two ends of the opening of the annular plate 718 connect to the two ends of the opening at the lower end of the double-helix side edge 716, forming an arc-shaped transition. When the ball abuts the lower end surface of the annular plate 718, the lower end surface of the zeroing rod 730 can be located above the lower end surface of the vertical base plate 71, and the zeroing rod 730 is hidden. When the laser processing head assembly 7 stops working, the zeroing rod 730 moves downward under its own gravity, and the annular piece 718 presses the ball, causing the adjustment ring 726 to rotate. The ball moves along the lower end surface of the annular piece to the highest point of the annular piece 718, that is, the opening, and then the ball enters the lower end opening of the double helix side edge 716 and enters the gap 717; the ball moves along the gap 717 again, and the adjustment ring 726 rotates until the zeroing rod 730 drops to the sensing block 721 and abuts against the guide cylinder 724.

[0098] Preferably, a spring 722 is provided on the outer sleeve of the guide cylinder 724 , and two ends of the spring 722 are fixedly connected to the sensing block 721 and the boss 725 respectively.

[0099] By providing the spring 722 , the force of the zero return rod 730 moving downward can be increased, thereby accelerating the downward movement of the zero return rod 730 .

[0100] Secondly, in order to facilitate the free rotation of the driving wheel 727 and the intermediate wheel 728, a bearing can be provided between the wheel body of the driving wheel 727 and the connecting shaft. The wheel body of the driving wheel 727 can rotate freely relative to the connecting shaft, and the intermediate wheel 728 can adopt the same structure as the driving wheel 727.

[0101] The above contents are only preferred embodiments of the present invention. For ordinary technicians in this field, according to the concept of the present invention, there may be changes in the specific implementation methods and application scopes. The contents of this specification should not be understood as limiting the present invention.

Claims

1. A dual-light source laser processing device, comprising: The machine is characterized in that: the machine is provided with a first light source and a second light source, the first light source and the second light source projecting a first laser and a second laser respectively; the machine is further provided with a planar two-dimensional movement mechanism, the planar two-dimensional movement mechanism is connected to the laser processing head assembly and drives the laser processing head assembly to move horizontally and / or vertically; the planar two-dimensional movement mechanism is provided with a reflector assembly, the reflector assembly is used to reflect the received laser light to the laser processing head assembly; The machine is also provided with a first laser light path and a second laser light path; The first laser light path is provided with a first reflector for projecting the first laser light onto the reflector assembly; The second laser light path is provided with a second reflector for projecting the second laser light onto the reflector assembly; The second reflecting mirror is located on the trajectory of the first laser light path; The machine is provided with a position adjuster for adjusting the position of the second reflector, and a controller for controlling the operation of the first light source and the second light source; the controller is electrically connected to the position adjuster; Material toggling mechanism, its both sides respectively have a cylinder pressure, and the cylinder pressure bar connects swing arm, and the swing arm end face has hook portion, and a bar passes position between the end of two swing arms and the hook portion. The guide structure includes a transverse guide rod arranged on the upper end surface and the lower end surface of the transverse guide rail, and the middle parts of the side surfaces of the upper pulley and the lower pulley are provided with an annular groove that matches the transverse guide rail; the upper pulley and / or the lower pulley are adjustable pulleys, and the middle part of the adjustable pulley is provided with a connecting shaft, the back side of the base plate is provided with a through hole for the connecting shaft to pass through, the aperture of the through hole is larger than the diameter of the connecting shaft, the front side of the base plate is provided with a countersunk hole, an eccentric wheel is provided in the countersunk hole, the middle part of the eccentric wheel is provided with an eccentric hole matching the connecting shaft, the connecting shaft passes through the through hole and is inserted into the eccentric hole; the end surface of the eccentric wheel is provided with a plurality of adjustment holes, some of which are provided with internal threads, and the adjustment holes are connected with fastening bolts; The back of the vertical base is connected to a zeroing rod adjustment assembly, and the zeroing rod adjustment assembly includes a zeroing rod, and the back of the vertical base is provided with two parallel fixed plates, a limited space is formed between the two fixed plates, and a through-hole is provided in the middle of the fixed plate for the zeroing rod to pass through, and the middle part of the side of the zeroing rod is provided with a double-helix side edge, and the outer sleeve of the zeroing rod is provided with an adjusting ring, the adjusting ring is located in the limited space and the inner side surface of the adjusting ring is embedded with a steel ball that can rotate freely, and a spiral gap is formed in the middle of the double-helix side edge that cooperates with the steel ball; an open-loop annular piece is provided at the lower end of the side of the zeroing rod, the opening of the annular piece is arranged opposite to the opening at the lower end of the double-helix side edge, and the annular piece is inclined, and the opening of the annular piece is located at the highest point of the annular piece; driving wheels are respectively provided on both sides of the adjusting ring, and a connecting shaft is connected to the middle of the driving wheel, and the driving wheel is located in the limited space, The two ends of the connecting shaft are slidably connected with the two fixing plates, and the fixing plate is provided with a horizontal sliding groove that cooperates with the connecting shaft, and the end of the connecting shaft extends into the horizontal sliding groove, and the rear end of the driving wheel extends out of the fixing plate and abuts against the horizontal guide rail. An intermediate wheel is provided between one of the driving wheels and the adjusting ring, and the intermediate wheel is rotatably connected to the fixing plate, and the side surface of the intermediate wheel abuts against the side surface of the adjusting ring; a boss is provided in the middle of the back side of the vertical base plate, and the upper end of the boss is connected to a guide cylinder that cooperates with the upper end of the zeroing rod, the boss is provided with a through hole, and the upper end of the zeroing rod passes through the boss and the guide cylinder in sequence. A vertical groove is provided on the side surface of the upper end of the zeroing rod, and the inner side surface of the guide cylinder is provided with a convex point that cooperates with the vertical groove, and the convex point is stuck in the vertical groove; the upper end of the zeroing rod is connected to a sensing block, and the upper end of the back side of the vertical base plate is connected to a sensor, and the sensor is provided with a sensing hole that cooperates with the sensing block.

2. The dual-light source laser processing device according to claim 1, characterized in that: The position adjuster includes a displacement mechanism connected to the second reflector; the position adjuster also includes a vertical guide mechanism, and the second reflector is connected to the vertical guide mechanism.

3. The dual-light source laser processing device according to claim 2, characterized in that: The vertical guide mechanism includes a vertically arranged support plate, one side of the support plate is connected to a vertical guide rail, the vertical guide rail is slidably connected to a vertical slide, the second reflector is connected to a fixed plate, the fixed plate is fixedly connected to the vertical slide, the displacement mechanism includes a screw stepper motor fixedly connected to the support plate, the screw stepper motor is bolted to the vertical slider and drives the vertical slider to move up and down, and the vertical slider is fixedly connected to the fixed plate.

4. The dual-light source laser processing device according to claim 1, characterized in that: The first optical path and / or the second optical path is provided with an optical gate for controlling the passage of laser, and the optical gate is connected to a driving unit for driving the optical gate to move or rotate; when the first light source or the second light source is in a stopped working state, the driving unit drives the optical gate to operate, and the optical gate blocks the corresponding first laser or second laser.

5. The dual-light source laser processing device according to claim 4, characterized in that: The machine is connected to a casing, the planar two-dimensional moving mechanism is located inside the casing, a window is provided at the front upper end of the casing and is connected to a protective cover, the rear end of the protective cover is hinged to the casing, and a support unit for supporting the protective cover to open is connected between the protective cover and the casing; the casing or protective cover is connected to a sensor for sensing that the protective cover is opened, and when the protective cover is opened, the driving unit drives the light shutter to move, thereby blocking the corresponding first laser or second laser.

6. The dual-light source laser processing device according to claim 3, characterized in that: The upper and lower ends of the support plate are respectively connected with sensors, and the fixing plate is connected with induction blocks matched with the sensors.

7. The dual-light source laser processing device according to claim 3, characterized in that: The first reflector is connected to the support plate.

8. The dual-light source laser processing device according to claim 1, characterized in that: The belt connection structure includes a main clamping block and a secondary clamping block for connecting with the belt. An installation notch for installing the secondary clamping block is provided in the middle of the back side of the main clamping block. The main clamping block is connected to the secondary clamping block through a connecting piece. The outer end face of the main clamping block is provided with a plurality of through holes. The side surface of the vertical base plate is provided with connecting holes arranged opposite to the through holes. The main clamping block is connected with a side threaded column. One end of the side threaded column passes through the through hole and is inserted into the connecting hole of the vertical base plate. The side threaded column is connected with two fixing nuts, and the two fixing nuts are clamped on both sides of the main clamping block.

9. The dual-light source laser processing device according to claim 1, characterized in that: The outer sleeve of the guide cylinder is provided with a spring, and two ends of the spring are fixedly connected to the induction block and the boss respectively.

Images