Quality detection device of die cutting machine
Technical Field
The utility model relates to the technical field of die cutting machines, in particular to a quality detection device of a die cutting machine.
Background
The flexible organic film materials required by different electronic products have different specifications and sizes, such as a light splitting sheet of a camera of a mobile phone, a flat plate, a notebook computer and the like is generally a small square sheet, the product precision requirement is high, and the semi-finished product materials after vacuum coating are required to be cut to reach the required size.
The conventional die cutting machine is generally used for blanking, and because the film after vapor deposition is generally square, the shape, the specification and the chipping, the particles, the scratch and the burrs on the surface of the product of the finished product small square sheet after die cutting are generally detected by a microscope, so that the efficiency is low, and meanwhile, the detection result is inaccurate due to the personal vision difference of operators.
Disclosure of utility model
The utility model aims to provide a quality detection device of a die cutting machine, which aims to solve the problems that the existing die cutting machine provided in the background art is low in detection efficiency and inaccurate in detection result due to personal vision difference of operators.
In order to achieve the above purpose, the utility model provides a quality detection device of a die-cutting machine, which comprises a bottom frame, wherein a processing structure is arranged on the bottom frame, and a detection structure is arranged on the bottom frame;
the detection structure comprises a placement frame, a first fixing frame, a first belt wheel, a second belt wheel, a first motor, a first guide shaft, a first transmission block, a first transmission belt, a second fixing frame, a third belt wheel, a fourth belt wheel, a second guide shaft, a second transmission block, a second transmission belt, a moving frame, a guide rod, a screw rod, a second motor, a moving block, a detector and a connecting shaft, wherein the placement frame is arranged on the bottom frame, the first belt wheel is movably arranged on the first fixing frame, the second belt wheel is movably arranged on the first fixing frame, the first transmission belt is arranged on the first belt wheel and the second belt wheel, the first motor driving end is connected with the second belt wheel, the first guide shaft is arranged on the first fixing frame, the first transmission block is movably arranged on the first guide shaft and is connected with the first transmission belt, the second belt wheel is movably arranged on the second guide frame, the second transmission block is movably arranged on the second belt wheel, the second transmission block is movably arranged on the second guide shaft and the second transmission frame, the second transmission belt wheel is movably arranged on the second guide shaft and the fourth belt wheel, the second transmission block is movably arranged on the second fixing frame, the second transmission shaft is movably arranged on the second fixing frame, the second motor is installed on the movable frame, the driving end of the second motor is connected with the screw rod, the movable block is movably arranged on the screw rod and is movably connected with the guide rod, the detector is installed on the movable block, and one end of the connecting shaft is installed on the second belt wheel and the fourth belt wheel.
Preferably, the underframe is provided with fixed support legs, and the placing frame is provided with reinforcing ribs.
Preferably, the first guide shafts are provided with a pair, and the second guide shafts are provided with a pair.
Preferably, the processing structure comprises a supporting frame, a first rotating roller, a first gear, a second rotating roller, a rotating shaft, a second gear, a driven gear, a third motor, a conveying belt, a die cutting part and a driving gear, wherein the supporting frame is installed on the underframe, the first rotating roller is movably installed on the supporting frame, the first gear is installed at one end of the first rotating roller, the second rotating roller is movably installed on the supporting frame, the rotating shaft is movably installed on the supporting frame and connected with one end of the second rotating roller, the second gear is installed on the rotating shaft and meshed with the second gear, the third motor is installed on the supporting frame, the driving gear is installed on the third motor, the driven gear is installed on the rotating shaft and meshed with the driving gear, the conveying belt is installed on the underframe, and the die cutting part is installed on the underframe.
Preferably, a guide frame is arranged on the support frame, and an auxiliary wheel set is arranged on the support frame.
Preferably, the moving block is matched with the screw rod, and the guide rod is provided with a pair of guide rods.
Preferably, the first gear is matched with the second gear, and the third motor is mounted on the support frame through bolts.
Compared with the prior art, the quality detection device for the die cutting machine has the beneficial effects that the first motor of the detection structure drives the second belt pulley to rotate, the connecting shaft drives the fourth belt pulley to rotate under the action of the second belt pulley, the second belt pulley drives the first transmission belt to move on the first belt pulley and the second belt pulley, the first transmission block moves along the first guide shaft under the action of the first transmission belt, the fourth belt pulley drives the third belt pulley to move through the second transmission belt, the second transmission belt moves on the third belt pulley and the fourth belt pulley, the second transmission block moves along the second guide shaft under the action of the second transmission belt, the first transmission block and the second transmission block can synchronously drive the moving frame to move so as to adjust the height of the detector, the second motor is driven by the second motor to drive the screw rod to rotate, and the moving block moves along the direction of the guide rod under the action of the screw rod, so that the horizontal moving direction of the detector can be adjusted, and the practicability of the detector is improved.
Drawings
FIG. 1 is a schematic view of a three-dimensional structure of the present utility model;
FIG. 2 is a schematic view of a three-dimensional structure of a rack according to the present utility model;
FIG. 3 shows the auxiliary device of the present utility model a three-dimensional structure schematic diagram of the wheel set;
FIG. 4 is a schematic diagram of a moving block according to the present utility model;
The device comprises a frame 1, a bottom frame 2, a processing structure 201, a supporting frame 202, a first rotating roller 203, a first gear 204, a second rotating roller 205, a rotating shaft 206, a second gear 207, a driven gear 208, a third motor 209, a conveying belt 210, a die cutting part 211, an auxiliary wheel set 212, a guide frame 213, a driving gear 3, a detection structure 301, a placing frame 302, a first fixing frame 303, a first belt pulley 304, a second belt pulley 305, a first motor 306, a first guide shaft 307, a first transmission block 308, a first transmission belt 309, a second fixing frame 310, a third belt pulley 311, a fourth belt pulley 312, a second guide shaft 313, a second transmission block 314, a second transmission belt 315, a moving frame 316, a guide rod 317, a screw rod 318, a second motor 319, a moving block 320, a detector 321 and a connecting shaft.
Detailed Description
The technical solutions of the embodiments of the present utility model will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present utility model, and it is apparent that the described embodiments are only some embodiments of the present utility model, but not all embodiments, and all other embodiments obtained by those skilled in the art without making creative efforts based on the embodiments of the present utility model are included in the protection scope of the present utility model.
Referring to fig. 1-4, the utility model provides a technical scheme that a quality detection device of a die cutting machine comprises a bottom frame 1, wherein a processing structure 2 is arranged on the bottom frame 1, and a detection structure 3 is arranged on the bottom frame 1;
The detection structure 3 comprises a placing frame 301, a first fixing frame 302, a first belt wheel 303, a second belt wheel 304, a first motor 305, a first guide shaft 306, a first transmission block 307, a first transmission belt 308, a second fixing frame 309, a third belt wheel 310, a fourth belt wheel 311, a second guide shaft 312, a second transmission block 313, a second transmission belt 314, a moving frame 315, a guide rod 316, a screw rod 317, a second motor 318, a moving block 319, a third belt, a fourth belt wheel, The detector 320 and the connecting shaft 321, the placing frame 301 is mounted on the chassis 1, the first fixing frame 302 is mounted on the placing frame 301, the first belt wheel 303 is movably mounted on the first fixing frame 302, the second belt wheel 304 is movably mounted on the placing frame 301, the first belt wheel 308 is arranged on the first belt wheel 303 and the second belt wheel 304, the first motor 305 is mounted on the first fixing frame 302, the driving end of the first motor 305 is connected with the second belt wheel 304, the first guiding shaft 306 is mounted on the first fixing frame 302, the first driving block 307 is movably mounted on the first guiding shaft 306 and connected with the first driving belt 308, the second fixing frame 309 is movably mounted on the placing frame 301, the third belt wheel 310 is movably mounted on the second fixing frame 309, the fourth belt wheel 311 is movably mounted on the second fixing frame 309, the second guiding shaft 312 is mounted on the second belt 319, the second belt wheel 319 is arranged on the second belt wheel 319, the second driving end of the second driving block 314 is movably mounted on the second guiding frame 313 and is movably mounted on the second guiding frame 313, the second driving end of the second driving block 315 is movably mounted on the second driving frame 313 and connected with the second driving end of the second driving frame 315, the second driving block is movably mounted on the second driving frame 313 and the second driving end of the second driving frame 315 is movably mounted on the second driving frame 313, the detector 320 is mounted on the moving block 319, one end of the connecting shaft 321 is mounted on the second pulley 304 and the fourth pulley 311, the first motor 305 is driven to rotate the second pulley 304, the connecting shaft 321 drives the fourth pulley 311 to rotate under the action of the second pulley 304, the second pulley 304 drives the first transmission belt 308 to move on the first pulley 303 and the second pulley 304, the first transmission block 307 moves along the first guiding shaft 306 under the action of the first transmission belt 308, the fourth pulley 311 drives the third pulley 310 to move through the second transmission belt 314, the second transmission belt 314 moves on the third pulley 310 and the fourth pulley 311, the second transmission block 313 moves along the second guiding shaft 312 under the action of the second transmission belt 314, the first transmission block 307 and the second transmission block 313 can synchronously drive the moving frame 315 to move, the detector 320 is further adjusted in height, the second motor 318 is driven, the second motor 318 drives the screw 317 to rotate, the moving block 319 moves along the third pulley 310 under the action of the first transmission belt 308, the second transmission belt 314 moves along the guiding shaft 316, and the detector 320 is further adjusted in the horizontal direction.
Further, be equipped with fixed stabilizer blade on the chassis 1, fixed stabilizer blade is equipped with a plurality of, evenly establishes at chassis 1 lower wall, and a plurality of stabilizer blades are convenient for install and place stably, are equipped with the strengthening rib on the rack 301, and the strengthening rib has increased the steadiness of rack 301.
Further, the first guide shafts 306 are provided with a pair, the first guide shafts 306 can make the first transmission block 307 move more stably, the second guide shafts 312 are provided with a pair, and the second transmission block 313 can be moved more stably by the second guide shafts 312.
Further, the processing structure 2 includes a support 201, a first rotating roller 202, a first gear 203, a second rotating roller 204, a rotating shaft 205, a second gear 206, a driven gear 207, a third motor 208, a conveyor belt 209, a die cutting portion 210 and a driving gear 213, the support 201 is mounted on the chassis 1, the first rotating roller 202 is movably mounted on the support 201, the first gear 203 is mounted at one end of the first rotating roller 202, the second rotating roller 204 is movably mounted on the support 201, the rotating shaft 205 is movably mounted on the support 201 and the rotating shaft 205 is connected with one end of the second rotating roller 204, the second gear 206 is mounted on the rotating shaft 205 and the second gear 206 is meshed with the first gear 203, the third motor 208 is mounted on the support 201, the driving gear 213 is mounted on the third motor 208, the driven gear 207 is mounted on the rotating shaft 205 and is meshed with the driving gear 213, the conveyor belt 209 is mounted on the conveyor belt 205, the conveyor belt 205 is mounted on the first motor 208, the second motor 205 is movably mounted on the second chassis 202, the second motor 206 is connected with one end of the second rotating roller 204, the second rotating shaft 206 is driven by the second gear 206, the driven by the driven gear 206 and the second motor 206 rotates under the first motor 206, and the first motor 206 rotates under the first motor 203, and the first motor 206 rotates under the first roller 206 and the first roller 206 under the first motor 203, and the driving gear 213 rotates under the first roller 206 and the first motor 206.
Further, a guide frame 212 is provided on the support frame 201, an auxiliary wheel set 211 is provided on the support frame 201, the guide frame 212 is provided at the feeding end of the device, the guide frame 212 can adjust the position of the material, so that the material is convenient for die cutting, a pair of moving wheels is movably provided on the auxiliary wheel set 211, and the pair of moving wheels are abutted with the first rotating roller 202, so that the first rotating roller 202 is stable when moving.
Further, the moving block 319 is adapted to the screw rod 317, the guide rods 316 are provided with a pair of moving blocks 319 adapted to be convenient to move on the screw rod 317 stably, and the pair of guide rods 316 can make the moving blocks 319 more stable when moving.
Further, the first gear 203 is matched with the second gear 206, the third motor 208 is mounted on the supporting frame 201 through a bolt, the first gear 203 and the second gear 206 which are matched with each other can keep stable when rotating, and the third motor 208 is mounted on the supporting frame 201 and detached through the bolt.
Working principle: when the material needs to be processed, the third motor 208 is driven to drive the driving gear 213 to rotate, the driven gear 207 is driven to rotate by the driving gear 213, the rotating shaft 205 is driven to rotate by the second gear 206 by the driven gear 207, the first gear 203 is driven to rotate by the second gear 206, the first rotating roller 202 is driven to rotate by the first gear 203, the second rotating roller 204 is driven to rotate by the second gear 206 opposite to the first gear 203, the material can pass through the space between the first rotating roller 202 and the second rotating roller 204 to enter the conveyor belt 209, then hastily is carried out on the material through the die-cutting part 210, the first motor 305 drives the second belt pulley 304 to rotate, the connecting shaft 321 drives the fourth belt pulley 311 to rotate by the second belt pulley 304, the second belt pulley 304 drives the first belt 308 to move on the first belt pulley 303 and the second belt pulley 304, the first transmission block 307 moves along the first guide shaft 306 under the action of the first transmission belt 308, the fourth belt pulley 311 drives the third belt pulley 310 to move through the second transmission belt 314, the second transmission belt 314 moves on the third belt pulley 310 and the fourth belt pulley 311, the second transmission block 313 moves along the second guide shaft 312 under the action of the second transmission belt 314, the first transmission block 307 and the second transmission block 313 can synchronously drive the moving frame 315 to move so as to adjust the height of the detector 320, the second motor 318 is driven, the second motor 318 drives the screw rod 317 to rotate, the moving block 319 moves along the direction of the guide rod 316 under the action of the screw rod 317 so as to adjust the horizontal moving direction of the detector 320, and the detection position can be adjusted according to different materials. Although embodiments of the present utility model have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made therein without departing from the principles and spirit of the utility model, the scope of which is defined in the appended claims and their equivalents.