A kind of check and store and dispense collaborative verification device for instrument

Abstract

The application discloses a kind of for instrument and meter's check storage allocation collaborative verification device, comprising: transfer assembly, transfer assembly includes: base and rotating platform, rotating platform is equipped with four placing grooves, the inside of placing groove is equipped with clamping plate, four placing grooves are alternately rotated by the rotation of rotating platform;Input component is connected in the position of placing groove on the side of rotating platform, multiple instruments and meters are stacked on input component;Output component is connected in the position of placing groove on the opposite side of rotating platform;Storage component is installed in the position connected with the placing groove of the adjacent side of rotating platform, and storage component includes connecting channel, and the inside of storage component is equipped with multiple groups of storage unit cell;And detection component.The for instrument and meter's check storage allocation collaborative verification device of implementation of the application can optimize the check storage allocation collaborative work flow of instrument and meter, improve work efficiency;Structure is simplified, and it is convenient to repair and maintain.

Description

Technical Field

[0001] This invention relates to the field of instrument testing technology, and in particular to a testing, storage, and calibration device for instruments and meters. Background Technology

[0002] In the existing technology, after the instruments are manufactured, they need to be tested for performance. The conventional testing method is to manually place them on a rotating platform and then use a special testing instrument to test their electrical performance. This method is inefficient. In addition, there is also the method of transporting the instruments through an assembly line-style work platform and then continuously testing them. However, this process cannot be well integrated with the subsequent storage and distribution of instruments, which affects the smoothness of the system. Summary of the Invention

[0003] The technical problem to be solved by the present invention is to provide a testing, storage and matching collaborative calibration device for instruments and meters, which can optimize the testing, storage and matching collaborative operation process of instruments and meters and improve the operation efficiency; the structure is simple and easy to repair and maintain.

[0004] To address the aforementioned technical problems, this invention provides a collaborative calibration device for instruments and meters, comprising: a transfer assembly, which includes a base and a rotating platform mounted on the base. The rotating platform has four placement slots, and clamps are provided on both sides of the interior of each placement slot. The four placement slots are rotated alternately by rotating the platform. An input assembly is connected to a placement slot on one side of the rotating platform, on which multiple instruments and meters are stacked. An output assembly is connected to a placement slot on the opposite side of the rotating platform. A storage assembly is mounted on a placement slot adjacent to one side of the rotating platform, and includes a connecting channel. The storage assembly has multiple sets of storage cells inside. A detection assembly is mounted on a placement slot on the opposite side of the rotating platform. The transfer assembly continuously receives and transfers multiple instruments and meters, and the detection assembly performs electrical performance testing on the instruments and meters. The tested instruments and meters are either sent out from the output assembly or stored in multiple sets of storage cells inside the storage assembly via the connecting channel.

[0005] The transfer assembly further includes: a drive seat installed between the base and the rotating platform, the rotating platform being able to rotate relative to the drive seat; a first push plate installed on both sides of the inner wall at the outlet end of the placement slot; and a first electric push rod connected to the first push plate, wherein: the clamping plates move towards each other, cooperating with the first electric push rod and the first push plate to push the instruments out of the placement slot or send them into the interior of the storage assembly for storage.

[0006] The top of the placement trough is equipped with a linkage frame, which includes linkage rods installed on opposite sides of the placement trough, and inclined blocks installed at the bottom of the linkage rods. Inclined plates are provided on both sides of the outside of the placement trough, and the inclined plates are connected to the clamping plates through insert rods. The insert rods are slidably connected to opposite sides of the placement trough. The linkage frame moves back and forth, the inclined blocks slide along the inclined plates, and the inclined plates drive the clamping plates to clamp the instruments inside the placement trough.

[0007] The transfer assembly also includes: a positioning column, a power source mounted on the positioning column, and a swing arm connected to the power source, wherein the swing arm is rotatably connected to the positioning column, and the linkage frame is rotatably connected to the swing arm.

[0008] The base has a second electric push rod installed inside the side facing the detection component, and one end of the second electric push rod is fixedly connected to the bottom of the detection component.

[0009] One side of the storage component is a storage cell for receiving instruments sent from the connection channel, and the other side is a storage cell for storing instruments. All storage cells inside the storage component can be moved in a loop.

[0010] The storage assembly includes: a housing, storage cells installed inside the housing, transverse grooves installed at the top and bottom of the housing, a first screw installed in the top transverse groove, a second screw installed in the bottom transverse groove, a movable sleeve sleeved around the first and second screws, a crossbar installed outside the movable sleeve, multiple sets of third electric push rods connected to the crossbar, and a first motor fastened to the first and second screws respectively. The multiple sets of third electric push rods are installed inside the movable sleeve, which can slide within the transverse groove.

[0011] The storage component has vertical slots on both sides, and a screw sleeve is installed inside the vertical slot. The screw sleeve is fitted with a third screw and slides inside the vertical slot. The storage component also includes a second motor at the position corresponding to the two third screws, and the second motor is fixedly connected to the third screw.

[0012] The storage cell has a limiting groove at its inner bottom and electromagnetic chucks installed on both sides of the storage cell. The storage component is equipped with a second push plate on the top inner wall of the connecting channel. A fourth electric push rod is fixed on the outside of the storage component and is fixedly connected to the second push plate. The crossbar is inserted into the limiting groove under the push of the third electric push rod.

[0013] It also includes: a transmission platform, with a feeding port on the top of the storage component, and the transmission platform is connected to the feeding port.

[0014] The instrumentation and storage coordination calibration device of the present invention has the following beneficial effects: First, the drive seat can drive the rotation of the rotating platform, which in turn causes the four placement slots to rotate alternately, thereby receiving, testing, storing and sending out instruments and meters, realizing a continuous assembly line system process; in conjunction with the first electric push rod and the first push plate, instruments and meters can be pushed out from inside the placement slots. When the placement slots are in positions corresponding to the output components and connection channels, instruments and meters can be pushed into the output components for sending out, or sent into the storage components for storage from the connection channels.

[0015] Secondly, the storage cells can move and switch laterally within the storage component. When receiving instruments, the storage cells can be evenly stacked inside the storage cells. Alternatively, after the storage cells move upward, they can move laterally by the drive of the first screw, corresponding to the position of the second push plate and the delivery port. The second push plate is then moved by the fourth electric push rod, pushing the instruments out of the delivery port. The instruments are then delivered through the transmission platform, which optimizes the collaborative operation process of instrument inspection, storage, and distribution.

[0016] Third, it further improves operational efficiency, has a simplified structure, and is easy to repair and maintain. Attached Figure Description

[0017] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 This is a schematic diagram of the overall structure of the instrumentation and storage collaborative calibration device according to an embodiment of the present invention.

[0019] Figure 2 This is a schematic diagram of the assembly positions of the transfer component, input component, output component and detection component in an embodiment of the present invention.

[0020] Figure 3 This is a schematic diagram of the structure of the transfer component according to an embodiment of the present invention.

[0021] Figure 4 This is a schematic diagram of the bottom structure of the rotating platform of the transfer component in an embodiment of the present invention.

[0022] Figure 5 This is a schematic diagram of the assembly of the inclined block and the inclined plate of the transfer component according to an embodiment of the present invention.

[0023] Figure 6 This is a schematic diagram of the storage component and rotating platform according to an embodiment of the present invention.

[0024] Figure 7 This is a schematic diagram of the internal structure of the storage component according to an embodiment of the present invention.

[0025] Figure 8 This is a schematic diagram of the structure of the storage cell according to an embodiment of the present invention.

[0026] Figure 9 This is a schematic diagram of the assembly of the movable sleeve and the storage cell according to an embodiment of the present invention. Detailed Implementation

[0027] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0028] like Figures 1-9 The image shows an embodiment of the instrumentation and storage collaborative calibration device of the present invention.

[0029] The instrument storage and calibration device in this embodiment includes a transfer component 5, which includes a base 51 and a rotating platform 53 mounted on the base 51. The rotating platform 53 is provided with four placement slots 510, and clamps 511 are provided on both sides inside the placement slots 510. The four placement slots 510 are rotated alternately by rotating the rotating platform 53. An input component 1 is connected to a placement slot 510 on one side of the rotating platform 53, and multiple instruments 8 are stacked on the input component 1; an output component 4 is connected to a placement slot 510 on the opposite side of the rotating platform 53; a storage component 2 is installed at a position connected to a placement slot 510 on one side of the rotating platform 53, the storage component 2 includes a connecting channel 28, and multiple storage cells 27 are provided inside the storage component 2; and a detection component 7 is installed at a position connected to a placement slot 510 on the opposite side of the rotating platform 53; wherein: The transfer component 5 continuously receives and transfers multiple instruments 8, and the detection component 7 performs electrical performance testing on the instruments 8. After the instruments 8 are tested and their quality is determined, they are sent out from the output component 4 or stored in multiple storage cells 27 inside the storage component 2 through the connection channel 28.

[0030] It also includes: a transmission platform 3, with a delivery port 21 on the top of the storage component 2, and the transmission platform 3 is connected to the delivery port 21.

[0031] Furthermore, the transfer assembly 5 also includes: a drive seat 52 installed between the base 51 and the rotating platform 53, the rotating platform 53 being rotatable relative to the drive seat 52; a first push plate 512 installed on both sides of the inner wall of the outlet end of the placement slot 510; and a first electric push rod 513 connected to the first push plate 512, wherein: the clamping plates 511 move towards each other, cooperating with the first electric push rod 513 and the first push plate 512 to push the instrument 8 out of the placement slot 510 or send it into the interior of the storage assembly 2 for storage.

[0032] Preferably, the transfer assembly 5 further includes: a positioning column 515, a power source 55 mounted on the positioning column 515, and a swing arm 56 connected to the power source 55, wherein: the swing arm 56 is rotatably connected to the positioning column 515, and the linkage frame 57 is rotatably connected to the swing arm 56.

[0033] A linkage frame 57 is installed on the top of the placement slot 510. The linkage frame 57 includes linkage rods 514 installed on opposite sides of the placement slot 510. An inclined block 58 is installed at the bottom of the linkage rods 514. Inclined plates 59 are provided on both sides of the outside of the placement slot 510. The inclined plates 59 are connected to the clamping plate 511 through insert rods. The insert rods are slidably connected to opposite sides of the placement slot 510. The linkage frame 57 moves back and forth, the inclined block 58 slides along the inclined plate 59, and the inclined plate 59 drives the clamping plate 511 to clamp the instrument 8 inside the placement slot 510.

[0034] During implementation, a second electric push rod 54 is installed inside the base 51 on the side facing the detection component 7, and one end of the second electric push rod 54 is fixedly connected to the bottom of the detection component 7.

[0035] In practice, the detection component 7 can be moved by the second electric push rod 54. As the rotating platform 53 rotates, the detection component 7 can be moved away from the rotating platform 53. After the rotating platform 53 has rotated, the detection component 7 corresponds to the placement slot 510 and performs electrical performance testing on the instruments 8 inside the placement slot 510. The rotating platform 53 can be rotated by the drive seat 52, and the four placement slots 510 rotate alternately, thereby receiving, testing, storing and sending out the instruments 8, realizing a continuous assembly line system process.

[0036] When the power source 55 drives the swing arm 56 to rotate, and the linkage frame 57, which is directly opposite the input component 1 and the detection component 7, moves upward, the inclined block 58 slides along the inclined surface of the inclined plate 59. The inclined plate 59 drives the clamping plate 511 to clamp the instrument 8 inside the placement slot 510. At the same time, the clamping plates 511 inside the other two placement slots 510 release the clamping of the instrument 8. The insert rod connected to the inclined plate 59 and the clamping plate 511 is sleeved with a spring. When the inclined block 58 moves downward, the inclined plate 59 moves outward automatically, and the clamping plate 511 moves toward the inner wall of the placement slot 510. With the cooperation of the first electric push rod 513 and the first push plate 512, the instrument 8 can be pushed out of the placement slot 510. When the placement slot 510 corresponds to the output component 4 and the connection channel 28, the clamping of the instrument 8 is released, and the faulty instrument 8 is pushed into the output component 4 and sent out, or sent into the storage component 2 for storage from the connection channel 28.

[0037] Furthermore, one side of the storage component 2 is a storage cell 27 for receiving instruments 8 sent from the connection channel 28, and the other side of the storage component 2 is a storage cell 27 for storing instruments 8. All storage cells 27 inside the storage component 2 can be moved in a loop.

[0038] The storage component 2 includes: a housing, a storage cell 27 installed inside the housing, transverse grooves 23 installed at the top and bottom of the housing, a first screw 24 installed in the transverse groove 23 at the top, a second screw 25 installed in the transverse groove 23 at the bottom, a movable sleeve 212 sleeved on the outside of the first screw 24 and the second screw 25, a crossbar 214 installed on the outside of the movable sleeve 212, multiple sets of third electric push rods 215 connected to the crossbar 214, and a first motor 210 fastened to the first screw 24 and the second screw 25 respectively. The multiple sets of third electric push rods 215 are installed inside the movable sleeve 212, and the movable sleeve 212 can slide within the transverse groove 23.

[0039] In practice, the storage cells 27 located at the top and bottom of the storage assembly 2 can be pushed by the third electric push rod 215 inside the movable sleeve 212 to insert the crossbar 214 into the limiting groove 213 of the storage cell 27. Then, the first motor 210 drives the first screw 24 and the second screw 25 to rotate. The movable sleeve 212 and the first screw 24 and the second screw 25 are threaded together and move horizontally along the inside of the transverse groove 23, thereby driving the storage cells 27 to move and switch laterally inside the storage assembly 2. When receiving instruments 8, the storage cells 27 can be evenly stacked inside the storage cells 27, or the stored instruments 8 can be continuously sent out.

[0040] Furthermore, vertical slots are provided on both sides of the storage component 2, and a screw sleeve 216 is installed inside the vertical slot. The screw sleeve 216 is sleeved with a third screw 26 and slides inside the vertical slot. The storage component 2 also includes a second motor 211 provided at the positions corresponding to the two third screws 26. The second motor 211 is fixedly connected to the third screw 26.

[0041] The storage cell 27 has a limiting groove 213 at the bottom inner side, and electromagnetic chucks are installed inside both sides of the storage cell 27. The storage component 2 is equipped with a second push plate 22 on the top inner wall of the connecting channel 28. A fourth electric push rod 29 is fixed on the outside of the storage component 2. The fourth electric push rod 29 is fixedly connected to the second push plate 22. The crossbar 214 is inserted into the limiting groove 213 under the push of the third electric push rod 215.

[0042] During implementation, electromagnetic chucks are installed inside both ends of the storage cell 27, which can be opened manually. Depending on the location of the storage cell 27, it is connected to the third screw 26 on the corresponding side. For example, when the storage cell 27 is on the left side of the storage component 2, the electromagnetic chuck inside the left side of the storage cell 27 is opened and it is attracted to the screw sleeve 216. The second motor 211 can drive the rotation of the third screw 26 to move the storage cell 27 vertically. The spare storage cell 27 on the left side is moved downward and gradually moved to the horizontal position of the connecting channel 28 and connected to the second screw 25. Then, the instruments 8 sent into the connecting channel 28 are received and stacked.

[0043] When the storage cell 27 moves to the right, the storage cell 27 is connected to the screw sleeve 216 on the third screw 26 on the right through the electromagnetic chuck on the right. Driven by the third screw 26 on the right, the storage cell 27 is gradually moved upward. During the whole process, all the storage cells 27 inside the storage component 2 can move in a cycle and alternately receive and send out instruments 8.

[0044] It is understood that the storage component 2 in the instrument storage and distribution collaborative calibration device of the present invention is internally divided into two parts: the left side is a storage cell 27 for receiving instruments 8 sent out by the connection channel 28, and the right side is a storage cell 27 for storing instruments 8 when full. After the storage cell 27 moves upward, it can move laterally by the drive of the first screw 24, corresponding to the position of the second push plate 22 and the delivery port 21. The fourth electric push rod 29 pushes the second push plate 22 to move, pushing the instruments 8 out of the delivery port 21, and then the instruments 8 are distributed by the transmission platform 3.

[0045] In the specific implementation of the instrument and meter testing, storage, and distribution collaborative calibration device in this embodiment of the invention, the instrument and meter 8 is continuously received and transported through the transfer component 5. The instrument and meter 8 can undergo electrical performance testing through the detection component 7, and after being distinguished as good or bad, it is sent out from the output component 4 or the connection channel 28. The instrument and meter 8 is sent into the storage component 2 through the connection channel 28, where it is received and stored by the storage cell 27. The instrument and meter 8 is then sent out from the top delivery port 21 as needed. The detection component 7 can be moved by the second electric push rod 54, so that when the rotating platform 53 rotates, the detection component 7 can be moved away from the rotating platform 53. After the rotating platform 53 has rotated, the detection component 7 corresponds to the placement slot 510 and performs electrical performance testing on the instrument and meter 8 inside the placement slot 510. The rotating platform 53 can be rotated by the drive seat 52, so that the four placement slots 510 rotate alternately, thereby receiving, testing, storing, and sending out the instrument and meter 8, realizing a continuous assembly line system process.

[0046] When the power source 55 drives the swing arm 56 to rotate, and the linkage frame 57, which is directly opposite the input component 1 and the detection component 7, moves upward, the inclined block 58 slides along the inclined surface of the inclined plate 59. The inclined plate 59 drives the clamping plate 511 to clamp the instrument 8 inside the placement slot 510. At the same time, the clamping plates 511 inside the other two placement slots 510 release their clamping on the instrument 8. The insert rod connected to the inclined plate 59 and the clamping plate 511 is fitted with a spring. When the inclined block 58 moves downward, the inclined plate 59 automatically moves outward, and the clamping plate 511 moves toward the inner wall of the placement slot 510. With the cooperation of the first electric push rod 513 and the first push plate 512, the instrument 8 can be pushed out of the placement slot 510. When the placement slot 510 corresponds to the output component 4 and the connecting channel 28, the clamping on the instrument 8 is released, and the faulty instrument 8 is pushed into the output component 4 for delivery, or sent into the storage component 2 for storage from the connecting channel 28. Throughout the entire process described above, all the storage cells 27 inside the storage component 2 can move cyclically and alternately receive and send out instruments 8. The storage cells 27 located at the top and bottom of the storage component 2 can be pushed by the third electric push rod 215 inside the moving sleeve 212 to insert the crossbar 214 into the limiting groove 213 of the storage cell 27. Then, the first motor 210 drives the first screw 24 and the second screw 25 to rotate. The moving sleeve 212 and the first screw 24 and the second screw 25 are threaded together and move horizontally along the inside of the transverse groove 23, thereby driving the storage cells 27 to move and switch laterally inside the storage component 2. When receiving instruments 8, the storage cells 27 can be evenly stacked inside the storage cell 27, or the stored instruments 8 can be continuously sent out.

[0047] The instrumentation and storage coordination calibration device of the present invention has the following beneficial effects: First, the drive seat can drive the rotation of the rotating platform, which in turn causes the four placement slots to rotate alternately, thereby receiving, testing, storing and sending out instruments and meters, realizing a continuous assembly line system process; in conjunction with the first electric push rod and the first push plate, instruments and meters can be pushed out from inside the placement slots. When the placement slots are in positions corresponding to the output components and connection channels, instruments and meters can be pushed into the output components for sending out, or sent into the storage components for storage from the connection channels.

[0048] Secondly, the storage cells can move and switch laterally within the storage component. When receiving instruments, the storage cells can be evenly stacked inside the storage cells. Alternatively, after the storage cells move upward, they can move laterally by the drive of the first screw, corresponding to the position of the second push plate and the delivery port. The second push plate is then moved by the fourth electric push rod, pushing the instruments out of the delivery port. The instruments are then delivered through the transmission platform, which optimizes the collaborative operation process of instrument inspection, storage, and distribution.

[0049] Third, it further improves operational efficiency, has a simplified structure, and is easy to repair and maintain.

Claims

1. A collaborative calibration device for the inspection, storage, and distribution of instruments and meters, characterized in that, include: A transfer assembly includes: a base and a rotating platform mounted on the base. The rotating platform is provided with four placement slots, and clamps are provided on both sides inside the placement slots. The four placement slots are rotated alternately by rotating the rotating platform. An input component is connected to a placement slot on one side of the rotating platform, and multiple instruments are stacked on the input component; An output component connected to a placement slot on the opposite side of the rotating platform; A storage assembly installed in connection with a placement slot adjacent to one side of the rotating platform, the storage assembly including a connecting channel and having multiple sets of storage cells inside; and A detection assembly installed at a position connected to a placement slot on the opposite side of the rotating platform, wherein: The transfer component continuously receives and transfers the multiple instruments, and the detection component performs electrical performance testing on the instruments. The tested instruments are either sent out from the output component or stored in the multiple storage cells inside the storage component via the connection channel.

2. The instrument and meter inspection, storage, and distribution coordinated calibration device as described in claim 1, characterized in that, The transfer component also includes: A drive seat is installed between the base and the rotating platform, and the rotating platform is rotatable relative to the drive seat; The first push plate installed on both sides of the inner wall at the outlet end of the placement slot; and The first electric push rod connected to the first push plate, wherein: The clamps move towards each other, cooperating with the first electric push rod and the first push plate to push the instruments out of the placement slot or send them into the storage component for storage.

3. The instrument and meter inspection, storage, and distribution coordinated calibration device as described in claim 2, characterized in that, The top of the placement slot is equipped with a linkage frame, which includes linkage rods installed on opposite sides of the placement slot, and the bottom of the linkage rods is equipped with inclined blocks. The placement groove has inclined plates on both sides, which are connected to the clamping plate by insert rods. The insert rods are slidably connected to the opposite sides of the placement groove, wherein: The linkage frame moves back and forth, the inclined block slides along the inclined plate, and the inclined plate drives the clamping plate to clamp the instruments and meters inside the placement slot.

4. The instrument and meter inspection, storage, and distribution coordinated calibration device as described in claim 3, characterized in that, The transfer assembly further includes: a positioning column, a power source mounted on the positioning column, and a swing arm connected to the power source, wherein: The swing arm is rotatably connected to the positioning column, and the linkage frame is rotatably connected to the swing arm.

5. The instrument and meter inspection, storage, and distribution collaborative calibration device as described in claim 1, characterized in that, A second electric push rod is installed inside the base on the side facing the detection component, and one end of the second electric push rod is fixedly connected to the bottom of the detection component.

6. The instrument and meter inspection, storage, and distribution coordinated calibration device as described in claim 1, characterized in that, One side of the storage component is a storage cell for receiving instruments sent from the connection channel, and the other side is a storage cell for storing instruments. All storage cells inside the storage component can be moved in a loop.

7. The instrument and meter inspection, storage, and distribution coordinated calibration device as described in claim 6, characterized in that, The storage assembly includes: a housing, storage cells installed inside the housing, transverse slots installed at the top and bottom of the housing, a first screw installed in the top transverse slot, a second screw installed in the bottom transverse slot, movable sleeves respectively fitted around the first and second screws, a crossbar installed outside the movable sleeves, multiple sets of third electric push rods connected to the crossbar, and a first motor respectively fastened to the first and second screws, wherein: The multiple sets of third electric push rods are installed inside the movable sleeve, which can slide within the transverse groove.

8. The instrument and meter inspection, storage, and distribution coordinated calibration device as described in claim 7, characterized in that, The storage component has vertical slots on both sides, and a screw sleeve is installed inside the vertical slot. The screw sleeve is fitted with a third screw, and the screw sleeve slides inside the vertical slot. The storage component also includes a second motor positioned corresponding to the two third screws, and the second motor is fixedly connected to the third screws.

9. The instrument and meter inspection, storage, and distribution coordinated calibration device as described in claim 8, characterized in that, The storage cell has a limiting groove at its inner bottom, and electromagnetic chucks are installed inside both sides of the storage cell. The storage component is equipped with a second push plate on the top inner wall of the connecting channel, and a fourth electric push rod is fixed to the outside of the storage component. The fourth electric push rod is fixedly connected to the second push plate, wherein: The crossbar is inserted into the limiting groove under the push of the third electric push rod.

10. The instrument and meter inspection, storage, and distribution coordinated calibration device as described in claim 9, characterized in that, Also includes: The transmission platform has a feeding port on the top of the storage component, and the transmission platform is connected to the feeding port.

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