CN118149715A - Copper nickel tin alloy strip thickness detection device - Google Patents

Copper nickel tin alloy strip thickness detection device Download PDF

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Publication number
CN118149715A
CN118149715A CN202410277746.0A CN202410277746A CN118149715A CN 118149715 A CN118149715 A CN 118149715A CN 202410277746 A CN202410277746 A CN 202410277746A CN 118149715 A CN118149715 A CN 118149715A
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China
Prior art keywords
alloy strip
conveying roller
seat
thickness
detection
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CN202410277746.0A
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Chinese (zh)
Inventor
陈希春
张勇
徐星星
张鑫宇
张豪
高伟
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Guogong Hengchang New Materials Yiwu Co ltd
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Guogong Hengchang New Materials Yiwu Co ltd
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Priority to CN202410277746.0A priority Critical patent/CN118149715A/en
Publication of CN118149715A publication Critical patent/CN118149715A/en
Pending legal-status Critical Current

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Abstract

The invention discloses a copper-nickel-tin alloy strip thickness detection device, which relates to the technical field of strip thickness detection and comprises a base, a conveying component and a detection component, wherein a supporting seat is arranged at the middle end of the top of the base, an attaching component is arranged at the middle end of the supporting seat, the conveying component is arranged at the two outer ends of the supporting seat, a placement seat is arranged at the two outer ends of the base, and an alloy strip is placed at the inner side of the placement seat. The laser thickness gauge and the displacement of the alloy strip are driven by the motor, so that the moving speed between the laser thickness gauge and the alloy strip is always equal, the thickness of the alloy strip can be detected by the laser thickness gauge at equal speed no matter what speed the motor is used for displacing the alloy strip in the use process of the device, and complex speed allocation can be omitted through the design, so that the detection speed of the alloy strip can be flexibly adjusted.

Description

Copper nickel tin alloy strip thickness detection device
Technical Field
The invention relates to the technical field of strip thickness detection, in particular to a copper-nickel-tin alloy strip thickness detection device.
Background
Copper-nickel-tin alloy is a common metal material and consists of copper, nickel and tin elements, the copper-nickel-tin alloy is widely applied to the fields of electronic industry, aerospace, military and the like, the good conductivity and corrosion resistance of the copper-nickel-tin alloy make the copper-nickel-tin alloy become ideal material selection, after the copper-nickel-tin alloy strip is produced, thickness detection is usually required to be carried out to ensure thickness uniformity, and a strip thickness detection device is required to be used for thickness detection.
Because the laser thickness measurement has the characteristics of rapidness and accuracy, most of the common strip thickness detection devices in the market adopt laser thickness measurement, but the range of the laser thickness measurement is narrower, so that when the common strip thickness detection devices in the market use the laser thickness measurement, a single-site continuous thickness measurement or multiple-site spot sampling mode is adopted, but more uncertainty exists in the mode, and the accuracy of strip thickness detection is seriously affected.
Accordingly, in view of the above, research and improvement have been made on the conventional structure and defects, and a copper-nickel-tin alloy strip thickness detection device has been proposed.
Disclosure of Invention
The invention aims to provide a copper-nickel-tin alloy strip thickness detection device for solving the problems in the background technology.
In order to achieve the above purpose, the present invention provides the following technical solutions: the utility model provides a copper nickel tin alloy strip thickness detection device, includes base, conveying component and detection component, the top middle-end of base is provided with the supporting seat, and the middle-end of supporting seat is settled there is attached subassembly, the conveying component is settled at the outside both ends of supporting seat, conveying component includes delivery box, first panel, scraper blade, exhaust groove, second panel, electric putter, limit thick plate, feed through groove, velocity of flow inductor, motor, first conveying roller, synchro gear, second conveying roller, air pump and air conveying groove, the first panel of inboard settlement of right part of delivery box, and first panel is close to delivery box one side and is fixed with the scraper blade, the exhaust groove has been seted up to the right side bottom of delivery box, and the left part inboard settlement of delivery box has the second panel, and the inside both sides of second panel are provided with the electric putter, the output of electric putter is connected with limited thick plate, the leading to the groove has been seted up to the inboard middle-end of first panel and second panel, and the outer end of second panel is provided with velocity of flow inductor, the motor's outer end of delivery box has the output end to be connected with the synchro gear, the first conveying roller has the top to be connected with, the second conveying roller has the top to settle the synchro gear, the top has.
Further, the two ends of the outer part of the base are provided with placing seats, and alloy strips are placed on the inner sides of the placing seats.
Further, attached subassembly includes detection platform, suction pump and adsorption tank, the suction pump is settled in the bottom outside of detection platform, and the inside array in top of detection platform has seted up the adsorption tank.
Further, the suction pump is communicated with the adsorption groove, and the adsorption groove is adsorbed on the lower surface of the alloy strip.
Further, the scraping plate is attached to the upper surface and the lower surface of the alloy strip, and the thickness limiting plate is attached to the upper surface and the lower surface of the alloy strip.
Further, the first conveying roller drives the second conveying roller to rotate through the synchronous gear, and the first conveying roller and the second conveying roller are respectively attached to the upper surface and the lower surface of the alloy strip.
Further, the detection component comprises a fixed seat, a transmission shaft, a first synchronous belt, a second synchronous belt, a driven rotating seat, a reciprocating screw rod, a sliding seat, a detection seat, a sliding groove and a laser thickness gauge, wherein the transmission shaft is arranged on two sides of the outer portion of the fixed seat, the first synchronous belt is sleeved at the outer end of the transmission shaft, the second synchronous belt is sleeved between the transmission shafts, the driven rotating seat is arranged at the inner end of the second synchronous belt, the reciprocating screw rod is arranged at the outer end of the driven rotating seat, the sliding seat is arranged at the outer end of the reciprocating screw rod, the outer end of the sliding seat is connected with the detection seat, the sliding groove is formed in an array shape on the inner side of the fixed seat, and the laser thickness gauge is arranged at the bottom end of the detection seat.
Further, the motor drives the transmission shaft to rotate through the first synchronous belt, and the transmission shaft drives the driven swivel mount to rotate through the second synchronous belt.
Further, the driven swivel mount drives the sliding seat to reciprocate through the reciprocating screw rod, and the sliding seat is fixed with the detection seat.
Further, the laser thickness gauge slides on the inner side of the chute, and the laser thickness gauge and the detection table are vertically distributed.
The invention provides a copper-nickel-tin alloy strip thickness detection device, which has the following beneficial effects:
1. The motor synchronously works to drive the first conveying roller to rotate clockwise, the first conveying roller can drive the second conveying roller to synchronously rotate through the synchronous gear, alloy strips arranged between the first conveying roller and the second conveying roller can be pushed to move towards the left end in the synchronous rotation process of the first conveying roller and the second conveying roller, the distance between the first conveying roller and the second conveying roller is the standard thickness set by the alloy strips, the first conveying roller and the second conveying roller rotate in opposite directions through the transmission of the synchronous gear, the first conveying roller and the second conveying roller can be used for leveling the alloy strips while the first conveying roller and the second conveying roller carry out the conveying process of the Jin Daicai, the influence of jolt, accidental collision or bending of the alloy strips on flatness caused by conveying before detection can be reduced, the scraping plate can be attached to the upper end surface and the lower end surface of the alloy strips, the scraping plate can be arranged at the right side of the first conveying roller and the second conveying roller, the scraping plate can be contacted with the alloy strips before the first conveying roller and the second conveying roller are contacted with the alloy strips, the scraping of the alloy strips on the surfaces of the alloy strips can be effectively removed, and foreign matters on the surfaces of the alloy strips can be prevented from being pressed into the first conveying roller and second conveying roller surfaces by the foreign matters and the foreign matters can be prevented from being pushed into the first conveying roller and the second conveying roller.
2. The invention can convey high-speed air flow to the interior of the conveying box through the air conveying pump in the process of conveying the alloy strip in the conveying box through the air conveying groove, and can discharge impurities on the surface of the alloy strip scraped by the scraping plate from the waste discharging groove to the equipment through the blowing of the high-speed air flow, thereby avoiding the accumulation of impurities in the conveying box and affecting the normal operation of the first conveying roller and the second conveying roller, after the alloy strip is arranged in the conveying box, the electric push rod is used for driving the two side limiting plates to adjust the spacing to the standard thickness of the alloy strip at the inner side of the through groove, the thickness of the alloy strip is corrected to the standard thickness after the alloy strip passes through the rolling of the first conveying roller and the second conveying roller, so that no gap exists when the alloy strip slides between the two limiting plates, and if the alloy strip still has uneven condition after rolling, the raised alloy strip positions jack up the limiting plates, so that gaps can appear between the alloy strip and the limiting plates, high-speed air flow output by the air conveying pump can flow out of the left through groove through the gaps, high-speed air flow can be sensed by flow speed sensors arranged at two sides of the outer end of the left through groove, gaps can be naturally generated when the sunken alloy strip contacts with the limiting plates, the alloy strip can be subjected to preliminary thickness detection in the process of conveying the alloy strip by the equipment in a butt joint Jin Daicai, and the initial detection is beneficial to that if the alloy strip has thickness errors, the alloy strip can be driven to return to the first conveying roller and the second conveying roller for re-grinding by only reversing the motor, through the design, the equipment can be subjected to rough detection before formal thickness detection, and the thickness errors of the alloy strip can be effectively eliminated, this enables the detection yield of alloy strip to be improved.
3. In the process of working, the motor can drive the transmission shaft to rotate through the first synchronous belt, the transmission shaft can drive the driven rotary seat to rotate through the second synchronous belt in the process of rotating, the driven rotary seat can drive the reciprocating screw rod to rotate in the process of rotating, and the reciprocating screw rod can drive the detection seat and the laser thickness gauge to reciprocate in the sliding groove in the process of rotating, so that the laser thickness gauge can dynamically detect the surface thickness of an alloy strip through displacement, three groups of laser thickness gauges are arranged in the fixing seat, initial positions of the three groups of laser thickness gauges are different, the three groups of laser thickness gauges can detect different positions of the surface of the alloy strip in the process of displacement, the detection range of the alloy Jin Daicai of equipment can be greatly enlarged, the defect that the traditional laser thickness gauge can only carry out sampling detection at a small position is effectively overcome, in addition, the displacement between the laser thickness gauge and the alloy strip is driven by the motor, the speed of the laser thickness gauge is always equal to the speed, the equipment can be used in the process of motor, the motor can detect the thickness of the alloy strip through the design, the speed of the alloy strip can be adjusted flexibly, and the speed of the alloy strip can be adjusted, and the speed of the alloy strip can be flexibly detected.
Drawings
FIG. 1 is a schematic view of a three-dimensional overall structure of a copper-nickel-tin alloy strip thickness detection device according to the present invention;
FIG. 2 is a schematic diagram showing the overall structure of a copper-nickel-tin alloy strip thickness detection device in a top view;
FIG. 3 is a schematic diagram showing the overall structure of a copper-nickel-tin alloy strip thickness detection device according to the present invention;
FIG. 4 is a schematic diagram of a conveying assembly of a copper-nickel-tin alloy strip thickness detection device according to the present invention;
FIG. 5 is a schematic diagram showing the overall structure of a copper-nickel-tin alloy strip thickness detection device in a rear view;
FIG. 6 is a schematic diagram showing a cross-sectional structure of a conveying assembly of a copper-nickel-tin alloy strip thickness detection device according to the present invention;
fig. 7 is a schematic structural diagram of an attaching assembly of the copper-nickel-tin alloy strip thickness detecting device according to the present invention.
In the figure: 1. a base; 2. a support base; 3. attaching a component; 301. a detection table; 302. a suction pump; 303. an adsorption tank; 4. a transport assembly; 401. a delivery box; 402. a first panel; 403. a scraper; 404. a waste discharge tank; 405. a second panel; 406. an electric push rod; 407. limiting the thickness plate; 408. a material passing groove; 409. a flow rate sensor; 410. a motor; 411. a first conveying roller; 412. a synchronizing gear; 413. a second conveying roller; 414. an air delivery pump; 415. a gas transmission groove; 5. a setting seat; 6. an alloy strip; 7. a detection assembly; 701. a fixing seat; 702. a transmission shaft; 703. a first synchronization belt; 704. a second timing belt; 705. a driven swivel mount; 706. a reciprocating screw rod; 707. a sliding seat; 708. a detection seat; 709. a chute; 710. laser thickness gauge.
Detailed Description
Referring to fig. 1 to 7, the present invention provides the following technical solutions: the copper-nickel-tin alloy strip thickness detection device comprises a base 1, a conveying component 4 and a detection component 7, wherein a supporting seat 2 is arranged at the middle end of the top of the base 1, an attaching component 3 is arranged at the middle end of the supporting seat 2, a conveying component 4 is arranged at the two outer ends of the supporting seat 2, the conveying component 4 comprises a conveying box 401, a first panel 402, a scraping plate 403, a waste discharge groove 404, a second panel 405, an electric push rod 406, a thick limiting plate 407, a through groove 408, a flow rate sensor 409, a motor 410, a first conveying roller 411, a synchronous gear 412, a second conveying roller 413, a gas conveying pump 414 and a gas conveying groove 415, a first panel 402 is arranged at the inner side of the right part of the conveying box 401, the scraping plate 403 is fixed at one side of the first panel 402, the waste discharge groove 404 is arranged at the bottom end of the right side of the conveying box 401, and second panel 405 is settled to the left portion inboard of delivery box 401, and the inside both sides of second panel 405 are provided with electric push rod 406, the output of electric push rod 406 is connected with limited thick plate 407, logical silo 408 has been seted up to first panel 402 and the inboard middle-end of second panel 405, and the outer end of second panel 405 is provided with flow rate inductor 409, motor 410 is settled to the outer end of delivery box 401, and the output of motor 410 is connected with first conveying roller 411, the outer end of first conveying roller 411 is connected with synchro gear 412, and the other end of synchro gear 412 is connected with second conveying roller 413, the top outside of delivery box 401 is settled there is air pump 414, and the top inboard of delivery box 401 has been seted up gas-supply groove 415, the outside both ends of base 1 are provided with settling seat 5, and the inboard of settling seat 5 has settled alloy strip 6.
The specific operation is as follows: the staff will need to detect alloy strip 6 settle the seat 5 inboard on the right side top of base 1, through pulling alloy strip 6, can make alloy strip 6 rotatory winding out in seat 5 inboard, the staff passes the alloy strip 6 of winding out through the gap between the feed-through groove 408 of first panel 402 and first conveying roller 411 and the second conveying roller 413, follow alloy strip 6 again from the feed-through groove 408 of second panel 405, can make alloy strip 6 attached on detecting table 301, the staff continues to pull alloy strip 6 and extends, make alloy strip 6 pass behind the conveying subassembly 4 of base 1 left end, can make alloy strip 6 wind on seat 5 of base 1 left end, up to this, alloy strip 6 can realize the installation on equipment.
Referring to fig. 1 to 7, the scraping plate 403 is attached to the upper and lower surfaces of the alloy strip 6, the thickness limiting plate 407 is attached to the upper and lower surfaces of the alloy strip 6, the first conveying roller 411 drives the second conveying roller 413 to rotate through the synchronizing gear 412, and the first conveying roller 411 and the second conveying roller 413 are attached to the upper and lower surfaces of the alloy strip 6 respectively.
The specific operation is that after the alloy strip 6 is installed, the two groups of motors 410 synchronously work to drive the first conveying roller 411 to rotate clockwise, the first conveying roller 411 can drive the second conveying roller 413 to synchronously rotate through the synchronous gear 412, and the alloy strip 6 arranged between the first conveying roller 411 and the second conveying roller 413 can be pushed to displace towards the left end in the synchronous rotation process of the first conveying roller 411 and the second conveying roller 413, the distance between the first conveying roller 411 and the second conveying roller 413 is the standard thickness set by the alloy strip 6, the first conveying roller 411 and the second conveying roller 413 rotate in opposite directions through the transmission of the synchronous gear 412, this allows the first conveying roller 411 and the second conveying roller 413 to level the alloy strip 6 while conveying the alloy strip 6 at the same time as the joining Jin Daicai, which can reduce the influence of the bump, accidental collision or bending of the alloy strip 6 on the flatness before detection, the scraper 403 can be attached to the upper and lower end surfaces of the alloy strip 6, and since the scraper 403 is disposed at the position where the first conveying roller 411 and the second conveying roller 413 are right, this allows the scraper 403 to contact the alloy strip 6 before the first conveying roller 411 and the second conveying roller 413 contact the alloy strip 6, by scraping the scraper 403 on the surface of the alloy strip 6, impurities and foreign matters on the surface of the alloy strip 6 can be effectively removed, the situation that the impurities and the foreign matters exist on the surface of the alloy strip 6, the first conveying roller 411 and the second conveying roller 413 press the foreign matters into the alloy strip 6 or collapse the first conveying roller 411 and the second conveying roller 413 in the leveling process can be avoided, the use safety performance of equipment is improved, the alloy strip 6 can be conveyed to the inside of the conveying box 401 through the air conveying pump 414 in the conveying process of the conveying box 401, high-speed air flow can be conveyed to the inside of the conveying box 401 through the air conveying groove 415, impurities on the surface of the alloy strip 6 scraped by the scraping plate 403 can be discharged from the waste discharging groove 404 through blowing of the high-speed air flow, this can avoid the accumulation of impurities in the interior of the conveying box 401, and affect the normal operation of the first conveying roller 411 and the second conveying roller 413, after the alloy strip 6 is placed in the interior of the conveying box 401, the electric push rod 406 is used to drive the two side limiting plates 407 to adjust the distance to the standard thickness of the alloy strip 6 in the inner side of the through trough 408, the thickness of the alloy strip 6 is corrected to the standard thickness after the alloy strip 6 passes through the rolling of the first conveying roller 411 and the second conveying roller 413, so that no gap exists when the alloy strip 6 slides between the two limiting plates 407, if the alloy strip 6 still has uneven condition after the rolling, the raised alloy strip 6 is lifted up from the thickness limiting plate 407, which results in a gap between the alloy strip 6 and the thickness limiting plate 407, the high-speed air flow output by the air delivery pump 414 flows out of the left through groove 408 through the gap, the high-speed air flow is sensed by the flow rate sensors 409 arranged at two sides of the outer end of the left through groove 408, the gap is naturally generated when the sunken alloy strip 6 contacts with the thickness limiting plate 407, in this way, the device can perform preliminary thickness detection on the alloy strip 6 in the process of conveying the alloy strip Jin Daicai, and due to the preliminary detection, if the thickness error exists in the alloy strip 6 at the moment, the motor 410 is only required to reversely rotate, and the alloy strip 6 can be driven to return to the first conveying roller 411 and the second conveying roller 413 for re-grinding.
Referring to fig. 1,2, 3 and 7, the attaching assembly 3 includes a detecting table 301, a suction pump 302 and an adsorption tank 303, the suction pump 302 is disposed at the outer side of the bottom of the detecting table 301, the adsorption tank 303 is disposed at the inner side array of the top of the detecting table 301, the suction pump 302 is connected with the adsorption tank 303, the adsorption tank 303 adsorbs the lower surface of the alloy strip 6, the detecting assembly 7 includes a fixing base 701, a transmission shaft 702, a first synchronous belt 703, a second synchronous belt 704, a driven rotary seat 705, a reciprocating screw 706, a sliding seat 707, a detecting seat 708, a sliding groove 709 and a laser thickness gauge 710, the transmission shafts 702 are disposed at two sides of the outer side of the fixing base 701, the first synchronous belt 703 is sleeved at the outer end of the transmission shaft 702, the second synchronous belt 704 is sleeved between the two groups of transmission shafts 702, the inner end of the second synchronous belt 704 is provided with a driven swivel 705, the outer end of the driven swivel 705 is provided with a reciprocating screw rod 706, the outer end of the reciprocating screw rod 706 is provided with a sliding seat 707, the outer end of the sliding seat 707 is connected with a detection seat 708, the inner side of the fixed seat 701 is provided with sliding grooves 709 in an array shape, the bottom end of the detection seat 708 is provided with a laser thickness meter 710, the motor 410 drives the transmission shaft 702 to rotate through the first synchronous belt 703, the transmission shaft 702 drives the driven swivel 705 to rotate through the second synchronous belt 704, the driven swivel 705 drives the sliding seat 707 to reciprocate through the reciprocating screw rod 706, the sliding seat 707 is fixed with the detection seat 708, the laser thickness meter 710 slides inside the sliding grooves 709, and the laser thickness meter 710 and the detection table 301 are vertically distributed;
The specific operation is as follows: after the alloy strip 6 subjected to preliminary detection is moved to the surface of the detection table 301, the suction pump 302 is operated to transfer suction force into the suction groove 303, so that the suction groove 303 can enable the alloy strip 6 to be attached to the surface of the detection table 301 through suction force, the situation that the alloy strip 6 and the detection table 301 are in a non-attached state to influence detection precision can be avoided, at the moment, the laser thickness gauge 710 is operated, the thickness of the alloy strip 6 can be detected by measuring the distance that the laser thickness gauge 710 reaches the surface of the alloy strip 6, the motor 410 can drive the transmission shaft 702 to rotate through the first synchronous belt 703 in the operation process, the transmission shaft 702 can drive the driven rotary seat 705 to rotate through the second synchronous belt 704 in the rotation process, the driven rotary seat 705 can drive the reciprocating screw 706 to rotate in the rotation process, the sliding seat 707 can drive the detecting seat 708 and the laser thickness gauge 710 to reciprocate in the chute 709, which enables the laser thickness gauge 710 to dynamically detect the surface thickness of the alloy Jin Daicai by displacement, three groups of laser thickness gauges 710 are arranged in the fixing seat 701, initial positions of the three groups of laser thickness gauges 710 are different, which enables the three groups of laser thickness gauges 710 to detect different positions of the surface of the alloy strip 6 in the displacement process, which can greatly expand the detection range of the surface thickness of the alloy strip 6 by equipment, and effectively optimize the defect that the traditional laser thickness gauge can only perform spot sampling detection, in addition, the displacement of the laser thickness gauge 710 and the alloy strip 6 is driven by the motor 410, which enables the moving speed between the two to be equal ratio all the time, which enables the equipment to displace the alloy strip 6 at any speed adopted by the motor 410 in the use process, the laser thickness gauge 710 can detect the thickness of the surface of the alloy strip 6 at equal speed, and by this design, complex speed adjustment can be avoided, which allows flexible adjustment of the detection speed of the alloy strip 6.
In summary, when the copper-nickel-tin alloy strip thickness detection device is used, firstly, a worker places an alloy strip 6 to be detected on the inner side of a placement seat 5 at the top end on the right side of a base 1, the alloy strip 6 can be wound out in a rotating manner on the inner side of the placement seat 5 by pulling the alloy strip 6, the wound alloy strip 6 passes through a gap between a feed trough 408 of a first panel 402 and a first conveying roller 411 and a second conveying roller 413, then the alloy strip 6 is led out of the feed trough 408 of a second panel 405, the alloy strip 6 can be attached to a detection table 301, the worker continues to pull the alloy strip 6 to extend, and after the alloy strip 6 passes through a conveying assembly 4 at the left end of the base 1, the alloy strip 6 can be wound on the placement seat 5 at the left end of the base 1, so that the alloy strip 6 can be mounted on equipment;
After the alloy strip 6 is installed, the two groups of motors 410 synchronously work to drive the first conveying roller 411 to rotate clockwise, the first conveying roller 411 can drive the second conveying roller 413 to synchronously rotate through the synchronous gear 412, in the process of synchronously rotating the first conveying roller 411 and the second conveying roller 413, the alloy strip 6 arranged between the first conveying roller 411 and the second conveying roller 413 can be pushed to displace towards the left end, the distance between the first conveying roller 411 and the second conveying roller 413 is the standard thickness set by the alloy strip 6, the first conveying roller 411 and the second conveying roller 413 are driven by the synchronous gear 412 to oppositely rotate, the first conveying roller 411 and the second conveying roller 413 can be used for leveling the alloy strip 6 while the first conveying roller 411 and the second conveying roller 413 are conveying the alloy strip Jin Daicai, the influence of bump, accidental collision or bending on the flatness of the alloy strip 6 before detection can be reduced, the scraping plate 403 can be attached to the upper end surface and the lower end of the alloy strip 6, the scraping plate 403 is arranged at the right position of the first conveying roller 411 and the second conveying roller 413, the situation that the foreign matters in the alloy strip 403 and the second conveying roller 413 are contacted with the surface of the alloy strip 6 can be avoided, and the foreign matters in the process of the alloy strip 6 can be effectively removed by the scraping the foreign matters in the first conveying roller 413 and the second conveying roller 413, and the foreign matters can be prevented from contacting the surface of the alloy strip 6, and foreign matters in the process;
Then, during the process of conveying the alloy strip 6 in the conveying box 401, the conveying pump 414 is used for conveying high-speed air flow into the conveying box 401 through the air conveying groove 415, impurities on the surface of the alloy strip 6 scraped by the scraping plate 403 can be discharged from the waste discharging groove 404 through blowing of the high-speed air flow, the situation that impurities are accumulated in the conveying box 401 can be avoided, the normal operation of the first conveying roller 411 and the second conveying roller 413 is influenced, after the alloy strip 6 is placed in the conveying box 401, the electric push rod 406 is used for driving the two-side thick limiting plates 407 to adjust the distance to the standard thickness of the alloy strip 6 at the inner side of the through groove 408, the thickness of the alloy strip 6 can be corrected to the standard thickness after the alloy strip 6 passes through the rolling of the first conveying roller 411 and the second conveying roller 413, the thickness of the alloy strip 6 can be corrected to the standard thickness when the alloy strip 6 slides between the two thick plates 407, if the alloy strip 6 still has uneven at the moment, the position of the raised alloy strip limiting plates 407 can be jacked up, gaps can appear between the alloy strip 6 and the thick plates 407, after the alloy strip 6 is placed in the conveying groove 408, the high-speed air flow can be sensed by the air flow through the gap detector Jin Daicai when the high-speed passing through the gap, and the alloy strip passing through the left end of the alloy strip passing through the groove 408 can be naturally sensed by the gap 408, and the air flow can be detected by the gap between the left end and the thick plates and the alloy strip passing through the gap detector;
After the alloy strip 6 subjected to preliminary detection moves to the surface of the detection table 301, the suction pump 302 works to transfer suction force into the suction groove 303, so that the suction groove 303 can enable the alloy strip 6 to be attached to the surface of the detection table 301 through suction force, the alloy strip 6 and the detection table 301 can be prevented from being in a non-attaching state, and therefore detection accuracy is affected, the laser thickness gauge 710 works at the moment, and the thickness of the alloy strip 6 can be detected by measuring and calculating the distance from the laser thickness gauge 710 to the surface of the alloy strip 6;
Finally, the motor 410 can drive the transmission shaft 702 to rotate through the first synchronous belt 703 in the working process, the transmission shaft 702 can drive the driven swivel base 705 to rotate through the second synchronous belt 704 in the rotating process, the driven swivel base 705 can drive the reciprocating screw 706 to rotate, the reciprocating screw 706 can drive the detection seat 708 and the laser thickness gauge 710 to carry out reciprocating displacement in the sliding groove 709 in the rotating process, the laser thickness gauge 710 can dynamically detect the surface thickness of the alloy Jin Daicai through displacement, three groups of laser thickness gauges 710 are arranged in the fixing seat 701, initial positions of the three groups of laser thickness gauges 710 are different, the three groups of laser thickness gauges 710 can detect different positions of the surface of the alloy strip 6 in the displacement process, the detection range of the surface thickness of the alloy strip 6 can be greatly enlarged, the defect that the traditional laser thickness gauge 710 and the alloy strip 6 can only carry out small-site spot check detection can be effectively overcome, the displacement of the laser thickness gauge 710 and the alloy strip 6 is driven by the motor 410, the laser thickness gauge 710 can be dynamically detected through displacement, the three groups of laser thickness gauges 710 can be flexibly adjusted to the same speed as the alloy strip 6 in the measuring process, and the speed of the alloy strip 6 can be flexibly adjusted, and the speed can be flexibly adjusted to the speed can be used for measuring the alloy strip 6.
The embodiments of the invention have been presented for purposes of illustration and description, and are not intended to be exhaustive or limited to the invention in the form disclosed. Many modifications and variations will be apparent to those of ordinary skill in the art. The embodiments were chosen and described in order to best explain the principles of the invention and the practical application, and to enable others of ordinary skill in the art to understand the invention for various embodiments with various modifications as are suited to the particular use contemplated.

Claims (10)

1. The utility model provides a copper nickel tin alloy strip thickness detection device, its characterized in that includes base (1), conveying component (4) and detection component (7), the top middle-end of base (1) is provided with supporting seat (2), and the middle-end of supporting seat (2) is settled there is attached subassembly (3), conveying component (4) are settled at the outside both ends of supporting seat (2), conveying component (4) are including carrying case (401), first panel (402), scraper blade (403), exhaust groove (404), second panel (405), electric push rod (406), limit thick plate (407), logical silo (408), velocity of flow inductor (409), motor (410), first conveying roller (411), synchronizing gear (412), second conveying roller (413), gas transmission pump (414) and gas transmission groove (415), first panel (402) are settled to the inside right portion inboard of carrying case (401), and first panel (402) are close to carrying case (401) one side and are fixed with scraper blade (403), exhaust groove (405) are seted up to the right side bottom of carrying case (401), and second panel (405) are settled to the inside of carrying case (405), the output of electric putter (406) is connected with limited thick plate (407), logical silo (408) have been seted up to inboard middle-end of first panel (402) and second panel (405), and the outer end of second panel (405) is provided with velocity of flow inductor (409), motor (410) are settled to the outer end of delivery box (401), and the output of motor (410) is connected with first transport roller (411), the outer end of first transport roller (411) is connected with synchro gear (412), and the other end of synchro gear (412) is connected with second transport roller (413), gas transmission pump (414) have been settled in the top outside of delivery box (401), and gas transmission groove (415) have been seted up to the top inboard of delivery box (401).
2. The copper-nickel-tin alloy strip thickness detection device according to claim 1, wherein the two ends of the outer portion of the base (1) are provided with placing seats (5), and alloy strips (6) are placed on the inner sides of the placing seats (5).
3. The copper-nickel-tin alloy strip thickness detection device according to claim 2, wherein the attaching assembly (3) comprises a detection table (301), a suction pump (302) and an adsorption groove (303), the suction pump (302) is arranged on the outer side of the bottom of the detection table (301), and the adsorption groove (303) is arranged on the inner side array of the top of the detection table (301).
4. A copper-nickel-tin alloy strip thickness detection apparatus according to claim 3, wherein the suction pump (302) is in communication with an adsorption tank (303), and the adsorption tank (303) is adsorbed to the lower surface of the alloy strip (6).
5. The copper-nickel-tin alloy strip thickness detection device according to claim 2, wherein the scraping plate (403) is attached to the upper and lower surfaces of the alloy strip (6), and the thickness limiting plate (407) is attached to the upper and lower surfaces of the alloy strip (6).
6. The copper-nickel-tin alloy strip thickness detection device according to claim 2, wherein the first conveying roller (411) drives the second conveying roller (413) to rotate through the synchronous gear (412), and the first conveying roller (411) and the second conveying roller (413) are respectively attached to the upper surface and the lower surface of the alloy strip (6).
7. A copper-nickel-tin alloy strip thickness detection device according to claim 3, characterized in that, detection component (7) includes fixing base (701), transmission shaft (702), first hold-in range (703), second hold-in range (704), driven swivel mount (705), reciprocal lead screw (706), sliding seat (707), detection seat (708), spout (709) and laser thickness gauge (710), outside both sides of fixing base (701) are provided with transmission shaft (702), and the outer end of transmission shaft (702) has cup jointed first hold-in range (703), two sets of second hold-in range (704) have been cup jointed between transmission shaft (702), driven swivel mount (705) have been settled to the inner of second hold-in range (704), and the outer end of driven swivel mount (705) is provided with reciprocal lead screw (706), the outer end of reciprocal lead screw (706) is provided with sliding seat (707), and the outer end of sliding seat (707) is connected with detection seat (708), spout (709) has been seted up to the inboard of fixing base (701) in the form of array, bottom of detection seat (708) has been settled laser thickness gauge (710).
8. The copper-nickel-tin alloy strip thickness detection device according to claim 7, wherein the motor (410) drives the transmission shaft (702) to rotate through the first synchronous belt (703), and the transmission shaft (702) drives the driven swivel base (705) to rotate through the second synchronous belt (704).
9. The device for detecting the thickness of the copper-nickel-tin alloy strip according to claim 7, wherein the driven rotary seat (705) drives the sliding seat (707) to reciprocate through the reciprocating screw rod (706), and the sliding seat (707) is fixed with the detecting seat (708).
10. The device for detecting the thickness of the copper-nickel-tin alloy strip according to claim 7, wherein the laser thickness gauge (710) slides inside the chute (709), and the laser thickness gauge (710) and the detecting table (301) are vertically distributed.
CN202410277746.0A 2024-03-12 2024-03-12 Copper nickel tin alloy strip thickness detection device Pending CN118149715A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN202410277746.0A CN118149715A (en) 2024-03-12 2024-03-12 Copper nickel tin alloy strip thickness detection device

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN202410277746.0A CN118149715A (en) 2024-03-12 2024-03-12 Copper nickel tin alloy strip thickness detection device

Publications (1)

Publication Number Publication Date
CN118149715A true CN118149715A (en) 2024-06-07

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Family Applications (1)

Application Number Title Priority Date Filing Date
CN202410277746.0A Pending CN118149715A (en) 2024-03-12 2024-03-12 Copper nickel tin alloy strip thickness detection device

Country Status (1)

Country Link
CN (1) CN118149715A (en)

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