Intelligent warehousing storage device
By using the transfer and main conveyor lines of the intelligent warehousing and storage device, combined with spring pins and lifting devices, the weight classification and sorting of goods can be automatically realized. This solves the problems of low accuracy and high labor intensity in manual estimation of goods weight in existing technologies, and improves loading stability and efficiency.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- ACCU JIANGSU CO LTD
- Filing Date
- 2023-12-15
- Publication Date
- 2026-04-10
AI Technical Summary
In existing technologies, workers need to manually estimate the weight of goods to place heavy goods at the bottom of the storage space. This is not very accurate and is labor-intensive. Existing automatic sorting systems cannot accurately classify goods, resulting in poor loading stability and low work efficiency.
An intelligent warehousing and storage device was designed, which includes a transfer conveyor line and a main conveyor line. Using spring pins and a lifting device, the motor is triggered by the contact of goods of different weights with the pins, so as to realize the automatic classification and sorting of goods. Workers only need to judge the weight of the goods according to the lifting of the conveyor line and place them in the corresponding positions.
It enables accurate classification and sorting of goods, reduces the workload of workers, improves work efficiency, and ensures the stability of goods loading.
Smart Images

Figure CN117699298B_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to warehousing technology, in particular to a sorting device of a warehousing equipment. BACKGROUND
[0002] Cargo storage adopts a stereoscopic shelf. The stereoscopic shelf is a multi-layer structure, and the cargo is placed on the layer shelf. The cargo is of different sizes and weights, and sufficient space is required between the layer shelves. Although the layer shelf can bear the cargo and prevent the upper cargo from pressing the lower cargo, the existence of the layer shelf leads to space waste. In practice, large cargo and heavy cargo adopt solid outer packaging, and small cargo and light cargo adopt thin outer packaging. Therefore, the cargo is classified by weight, the heavy cargo is placed at the bottom, the light cargo is placed at the top, the heavy cargo bears the light cargo, and the layer shelf is not required, so that the storage space can be fully utilized.
[0003] In express warehousing, the cargo generally needs to be sorted. In order to improve the sorting efficiency, full-automatic sorting has been realized in the prior art, but the sorting in the prior art only sorts the cargo according to the region, and all the sorted cargo is transported in sequence after sorting, which will cause the small and light cargo to be placed at the bottom of the truck box and the heavy and bulky cargo to be placed at the top of the truck box during loading, which will squeeze and deform the cargo and is not conducive to the stability of the cargo. Therefore, in order to improve the stability of the cargo loading, the loading personnel generally selectively place the heavy cargo in the lower space in the truck box in the prior art, but this operation requires the worker to roughly estimate the weight of the cargo, which greatly increases the working intensity of the worker during loading and reduces the working efficiency (authorized announcement No. CN219003795U, a sorting device applied in intelligent warehousing, the background technology part of the specification). SUMMARY
[0004] The technical problem solved by the present application is that the worker selectively places the heavy cargo in the lower part of the storage space, which requires the worker to roughly estimate the weight of the cargo, is not accurate, and has high working intensity; if a scale is used, although it is accurate, the working efficiency is low.
[0005] To solve the above technical problems, the present application provides the following technical scheme: an intelligent warehousing storage device, comprising a transfer conveying line and a main conveying line, the transfer conveying line and the main conveying line are arranged in a head-to-tail connection manner, the tail end of the main conveying line is close to the transfer conveying line, the front end of the main conveying line is away from the transfer conveying line, the front end of the main conveying line is erected on a lifting device, and the transfer conveying line is erected on a support structure.
[0006] A spring PIN needle is arranged on the support structure, and a telescopic spring is arranged between the transfer conveying line and the support structure.
[0007] The spring PIN needle comprises an upper spring PIN needle, a middle spring PIN needle and a lower spring PIN needle, the upper spring PIN needle and the middle spring PIN needle have a spacing therebetween, and the middle spring PIN needle and the lower spring PIN needle have a spacing therebetween.
[0008] The transfer conveying line is in contact with the upper spring PIN needle, and the transfer conveying line and the main conveying line are operated.
[0009] The upper spring PIN needle is in contact with the middle spring PIN needle, the lifting device drives the front end of the main conveying line to descend, and the transfer conveying line and the main conveying line are operated.
[0010] The middle spring PIN needle is in contact with the lower spring PIN needle, the lifting device drives the front end of the main conveying line to continue to descend, and the transfer conveying line and the main conveying line are operated.
[0011] According to the above technical solution, lighter objects are placed on the transfer conveying line, the transfer conveying line descends, the bottom of the transfer conveying line rack is in contact with the upper spring PIN needle, the transfer conveying line and the main conveying line are operated, the objects on the transfer conveying line are transferred to the main conveying line, and the objects are displaced along the main conveying line.
[0012] Heavier objects are placed on the transfer conveying line, the transfer conveying line descends, the bottom of the transfer conveying line rack is in contact with the upper spring PIN needle, the upper spring PIN needle further descends and is in contact with the middle spring PIN needle, the lifting device drives the front end of the main conveying line to descend, and the transfer conveying line and the main conveying line are operated, the objects on the transfer conveying line are transferred to the main conveying line, and the objects are displaced along the main conveying line.
[0013] Heavier objects are placed on the transfer conveying line, the transfer conveying line descends, the bottom of the transfer conveying line rack is in contact with the upper spring PIN needle, the upper spring PIN needle further descends and is in contact with the middle spring PIN needle, the middle spring PIN needle further descends and is in contact with the lower spring PIN needle, the lifting device drives the front end of the main conveying line to further descend, and the transfer conveying line and the main conveying line are operated, the objects on the transfer conveying line are transferred to the main conveying line, and the objects are displaced along the main conveying line.
[0014] The worker stands between the front end of the main conveying line and the storage space, and according to the lifting of the front end of the main conveying line, determines whether the conveyed objects are lighter objects, heavier objects or heavier objects. And the three kinds of objects with different weights are placed at the top, middle or bottom of the storage space. In this way, the present application not only can accurately classify the weight of the objects, but also is convenient for the worker to place the objects with different weights, which is beneficial to the improvement of work efficiency and the reduction of worker strength.
[0015] The transfer conveying line and the upper spring PIN needle are connected in series in a first loop, the first loop is connected with a power supply, a second motor and a third motor, the second motor is used to drive the main conveying line, and the third motor is used to drive the transfer conveying line. When the transfer conveying line rack is lowered and contacts the upper spring PIN needle, the first loop is conducted, the second motor operates, the main conveying line is driven, and the third motor operates to drive the transfer conveying line. The transfer conveying line transfers the articles to the main conveying line.
[0016] The transfer conveying line, the upper spring PIN needle and the middle spring PIN needle are connected in series in a second loop, the second loop is connected with a power supply, a first motor, a second motor and a third motor, the second motor and the third motor in series are connected in parallel with the first motor, and the first motor is used to drive the lifting device. When the transfer conveying line rack is lowered and presses the upper spring PIN needle, the upper spring PIN needle contacts the middle spring PIN needle, the second loop is conducted, the first motor operates, the lifting device drives the front end of the main conveying line to descend. The second motor operates to drive the main conveying line, and the third motor operates to drive the transfer conveying line, so that the transfer conveying line transfers the articles to the main conveying line.
[0017] The transfer conveying line, the upper spring PIN needle, the middle spring PIN needle and the lower spring PIN needle are connected in series in a third loop, the third loop is connected with a power supply, a first motor, a second motor and a third motor, the second motor and the third motor in series are connected in parallel with the first motor. When the transfer conveying line rack is lowered and presses the upper spring PIN needle, the upper spring PIN needle presses the middle spring PIN needle to contact the lower spring PIN needle, the third loop is conducted, the first motor operates, the lifting device drives the front end of the main conveying line to descend again. The second motor operates to drive the main conveying line, and the third motor operates to drive the transfer conveying line, so that the transfer conveying line transfers the articles to the main conveying line.
[0018] In the first loop, the second motor and the third motor are connected in series with a first timer. After the transfer conveying line rack contacts the upper spring PIN needle, the first timer is delayed, and the second motor and the third motor do not operate immediately, so as to provide time for the upper spring PIN needle to possibly contact the middle spring PIN needle and the middle spring PIN needle to possibly contact the lower spring PIN needle. When the first timer delay ends, the second motor and the third motor operate.
[0019] In the second loop, the first motor is connected in series with a second timer, and the second motor and the third motor are connected in series with a third timer. After the second loop is conducted, the first motor operates first to drive the lifting device to make the front end of the main conveying line descend. The time of the first motor operation is controlled by the second timer, the second timer timing ends, the first motor is disconnected with the power supply, and the first motor stops. The third timer makes the second motor and the third motor start to delay, and when the first motor stops, the second motor and the third motor start.
[0020] In the third circuit, the first motor is connected in series with a fourth timer, and the second motor and the third motor are connected in series with a fifth timer. When the third circuit is turned on, the first motor operates first to drive the lifting device to lower the front end of the main conveying line. The operation time of the first motor is controlled by the fourth timer. When the fourth timer expires, the first motor is disconnected from the power supply and stops. The fifth timer delays the start of the second motor and the third motor, and when the first motor stops, the second motor and the third motor start.
[0021] In the first circuit, a first normally closed switch is provided, and a first electromagnetic coil of the first normally closed switch is connected in series in the second circuit. In the second circuit, a second normally closed switch is provided, and a second electromagnetic coil of the second normally closed switch is connected in series in the third circuit. When the second circuit is turned on, the first electromagnetic coil is powered on, the first normally closed switch is opened, and the first circuit is disconnected. When the third circuit is turned on, the second electromagnetic coil is powered on, the second normally closed switch is opened, and the second circuit is disconnected.
[0022] The support structure includes a box body and an upper plate block, the upper plate block is fixed on the box body, and the telescopic spring is arranged on the upper plate block; the outer thread sleeve of the upper spring PIN needle is screwed on the upper plate block, the outer thread sleeve of the middle spring PIN needle is screwed on the first support, and the outer thread sleeve of the lower spring PIN needle is screwed on the second support; the first support and the second support are arranged on a suspension, and the suspension is fixed in the box body.
[0023] A spring is sleeved on any spring PIN needle, the spring is fitted in the outer thread sleeve, the top end of the spring PIN needle protrudes out of the outer thread sleeve, in this way, when an external force acts on the top end of the spring PIN needle, the spring is compressed, and the bottom end of the spring PIN needle protrudes out of the outer thread sleeve downward. When the external force is removed, the spring PIN needle rises and resets under the action of the spring.
[0024] The lifting device includes a connecting rod hinged to the main conveying line rack, a movable block hinged to the bottom end of the connecting rod, and a horizontal screw rod screwed with the movable block, and the first motor drives the horizontal screw rod to rotate; the tail end of the main conveying line rack is hinged to the support frame. Under the drive of the first motor, the horizontal screw rod rotates to drive the movable block to displace transversely along the horizontal screw rod, and the movable block drives the front end of the main conveying line to rise through the connecting rod.
[0025] The side wall of the support structure is provided with an upwardly extending connecting piece, the connecting piece is provided with a contact switch, the contact switch is located above the transfer conveying line, the support frame is provided with a third normally closed switch, the contact switch, the third normally closed switch, the transfer conveying line rack, the power supply and the first motor are connected in series in the fourth loop; when there is no article on the transfer conveying line, under the action of the extension spring, the transfer conveying line rack contacts the contact switch, the fourth loop is conducted, the first motor operates, drives the lifting device, and the lifting device drives the main conveying line front end to rise and reset; when the main conveying line resets to the initial state, the third normally closed switch contacts the main conveying line rack, the third normally closed switch is opened, the fourth circuit is disconnected, the first motor stops, and the main conveying line stays in the initial position. BRIEF DESCRIPTION OF DRAWINGS
[0026] The application will be further described below in combination with the drawings:
[0027] Figure 1 It is a schematic view of an intelligent warehouse storage device;
[0028] Figure 2 It is Figure 1 It is a schematic view of the main conveying line front end descending;
[0029] Figure 3 It is Figure 2 It is a schematic view of the main conveying line front end descending again;
[0030] Figure 4 It is Figure 1 It is a schematic view of the support structure 40;
[0031] Figure 5 It is a schematic view of the intelligent warehouse storage device circuit.
[0032] Explanation of symbols in the drawings:
[0033] 10, lifting device; M1, first motor; 11, connecting rod; 12, movable block; 13, horizontal screw; 14, support frame;
[0034] 20, main conveying line; M2, second motor;
[0035] 30, transfer conveying line; M3, third motor;
[0036] 40, support structure; 41, extension spring; 43, box body; 431, first support; 432, second support; 433, suspension; 44, upper plate;
[0037] 51, upper spring PIN; 52, middle spring PIN; 53, lower spring PIN;
[0038] 60, storage space;
[0039] T1, first timer; T2, second timer; T3, third timer; T4, fourth timer; T5, fifth timer;
[0040] S1, first normally closed switch; S2, second normally closed switch; S3, third normally closed switch; S4, contact switch; K1, first electromagnetic coil; K2, second electromagnetic coil. DETAILED DESCRIPTION
[0041] In combination Figure 1 , Figure 5 An intelligent warehouse storage device includes a transfer conveying line 30 and a main conveying line 20, the transfer conveying line and the main conveying line are arranged in a head-to-tail connection manner, the tail end of the main conveying line is close to the transfer conveying line, the front end of the main conveying line is away from the transfer conveying line, the front end of the main conveying line is erected on a lifting device 10, and the transfer conveying line is erected on a support structure 40.
[0042] The support structure is provided with spring PIN needles, and the transfer conveying line and the support structure are provided with a telescopic spring 41.
[0043] The spring PIN needles include upper spring PIN needles 51, middle spring PIN needles 52, and lower spring PIN needles 53, the upper spring PIN needles and the middle spring PIN needles have a spacing therebetween, and the middle spring PIN needles and the lower spring PIN needles have a spacing therebetween.
[0044] The transfer conveying line 30 is in contact with the upper spring PIN needles, and the transfer conveying line and the main conveying line 20 are operated.
[0045] The upper spring PIN needles 51 are in contact with the middle spring PIN needles 52, the lifting device 10 drives the front end of the main conveying line to descend, and the transfer conveying line and the main conveying line are operated.
[0046] The middle spring PIN needles 52 are in contact with the lower spring PIN needles 53, the lifting device 10 drives the front end of the main conveying line 20 to continue to descend, and the transfer conveying line and the main conveying line are operated.
[0047] Lighter articles are placed on the transfer conveying line 30, the transfer conveying line descends, the bottom of the transfer conveying line rack is in contact with the upper spring PIN needles 51, the transfer conveying line 30 and the main conveying line 20 are operated, the articles on the transfer conveying line are transferred to the main conveying line, and the articles are displaced along the main conveying line 20.
[0048] The heavier article is placed on the transfer conveyor line 30, the transfer conveyor line is lowered, the bottom of the transfer conveyor line frame contacts the upper spring PIN needle 51, the upper spring PIN needle is lowered again to contact the middle spring PIN needle 52, the middle spring PIN needle contacts the lower spring PIN needle 53 again, the lifting device 10 drives the front end of the main conveyor line 20 to lower again, and the transfer conveyor line 30 and the main conveyor line 20 operate, the articles on the transfer conveyor line are transferred to the main conveyor line, and the articles are displaced along the main conveyor line 20.
[0049] The heavier article is placed on the transfer conveyor line 30, the transfer conveyor line is lowered, the bottom of the transfer conveyor line frame contacts the upper spring PIN needle 51, the upper spring PIN needle is lowered again to contact the middle spring PIN needle 52, the middle spring PIN needle contacts the lower spring PIN needle 53 again, the lifting device 10 drives the front end of the main conveyor line 20 to lower again, and the transfer conveyor line 30 and the main conveyor line 20 operate, the articles on the transfer conveyor line are transferred to the main conveyor line, and the articles are displaced along the main conveyor line 20.
[0050] The worker stands between the front end of the main conveyor line 20 and the storage space 60, and according to the lifting of the front end of the main conveyor line, judges whether the conveyed article is a lighter article, a heavier article or a heavier article. And place the three kinds of articles with different weights at the top, middle or bottom of the storage space 60.
[0051] As Figure 5 , the transfer conveyor line 30 and the upper spring PIN needle 51 are connected in series in the first loop, the first loop is connected with the power supply, the second motor M2 and the third motor M3, the second motor is used to drive the main conveyor line 20, and the third motor is used to drive the transfer conveyor line 30. When the transfer conveyor line frame is lowered and contacts the upper spring PIN needle 51, the first loop is conducted, the second motor operates to drive the main conveyor line 20, and the third motor operates to drive the transfer conveyor line 30. The transfer conveyor line transfers the articles to the main conveyor line 20.
[0052] The transfer conveyor line 30, the upper spring PIN needle 51 and the middle spring PIN needle 52 are connected in series in the second loop, the second loop is connected with the power supply, the first motor M1, the second motor M2 and the third motor M3, the series connected second motor and the third motor are connected in parallel with the first motor, and the first motor is used to drive the lifting device 10. When the transfer conveyor line frame is lowered, the upper spring PIN needle 51 is pressed, the upper spring PIN needle contacts the middle spring PIN needle 52 again, the second loop is conducted, the first motor operates, the lifting device 10 drives the front end of the main conveyor line 20 to lower. The second motor operates to drive the main conveyor line 20, and the third motor operates to drive the transfer conveyor line 30. The transfer conveyor line transfers the articles to the main conveyor line.
[0053] The middle transfer line 30, the upper spring PIN 51, the middle spring PIN 52 and the lower spring PIN 53 are connected in series in the third circuit, and the third circuit is connected with the power supply, the first motor M1, the second motor M2 and the third motor M3. The second motor and the third motor are connected in series and parallel to the first motor. When the middle transfer line frame is lowered, the upper spring PIN 51 is pressed down, the upper spring PIN further presses the middle spring PIN 52 to contact, the middle spring PIN further contacts the lower spring PIN 53, the third circuit is turned on, the first motor operates, the lifting device 10 drives the front end of the main transfer line to further lower. The second motor operates to drive the main transfer line 20, and the third motor operates to transfer the goods to the main transfer line by the middle transfer line 30.
[0054] In the first circuit, the second motor M2 and the third motor M3 are connected in series with the first timer T1. After the middle transfer line frame contacts the upper spring PIN 51, the first timer delays, and the second motor and the third motor do not immediately operate to provide time for the upper spring PIN 51 to possibly contact the middle spring PIN 52 and the middle spring PIN 52 to possibly contact the lower spring PIN 53. When the first timer delay ends, the second motor and the third motor operate.
[0055] In the second circuit, the first motor M1 is connected in series with the second timer T2, and the second motor M2 and the third motor M3 are connected in series with the third timer T3. After the second circuit is turned on, the first motor operates first to drive the lifting device 10 to lower the front end of the main transfer line 20. The time of the first motor operation is controlled by the second timer, and when the second timer ends, the first motor is disconnected from the power supply and the first motor stops. The third timer delays the start of the second motor and the third motor, and when the first motor stops, the second motor and the third motor start.
[0056] In the third circuit, the first motor M1 is connected in series with the fourth timer T4, and the second motor M2 and the third motor M3 are connected in series with the fifth timer T5. After the third circuit is turned on, the first motor operates first to drive the lifting device 10 to lower the front end of the main transfer line 20. The time of the first motor operation is controlled by the fourth timer, and when the fourth timer ends, the first motor is disconnected from the power supply and the first motor stops. The fifth timer delays the start of the second motor and the third motor, and when the first motor stops, the second motor and the third motor start.
[0057] In the first circuit, a first normally closed switch S1 is provided, and a first electromagnetic coil K1 of the first normally closed switch is connected in series in the second circuit; in the second circuit, a second normally closed switch S2 is provided, and a second electromagnetic coil K2 of the second normally closed switch is connected in series in the third circuit. When the second circuit is turned on, the first electromagnetic coil is powered, the first normally closed switch is opened, and the first circuit is disconnected. When the third circuit is turned on, the second electromagnetic coil is powered, the second normally closed switch is opened, and the second circuit is disconnected.
[0058] As Figure 4 , the support structure 40 includes a box 43 and an upper plate 44, the upper plate is fixed on the box, and the telescopic spring 41 is arranged on the upper plate; the outer threaded sleeve of the upper spring PIN needle 51 is screwed on the upper plate, the outer threaded sleeve of the middle spring PIN needle 52 is screwed on the first support 431, and the outer threaded sleeve of the lower spring PIN needle 53 is screwed on the second support 432; the first support and the second support are arranged on the suspension 433, and the suspension is fixed in the box.
[0059] A spring is sleeved on any spring PIN needle, the spring is matched in the outer threaded sleeve, the top end of the spring PIN needle protrudes out of the outer threaded sleeve, thus, when external force acts on the top end of the spring PIN needle, the spring is compressed, and the bottom end of the spring PIN needle protrudes out of the outer threaded sleeve downward. When the external force is removed, the spring PIN needle rises and resets under the action of the spring.
[0060] As Figure 1 , the lifting device 10 includes a connecting rod 11 hinged to the rack of the main conveying line 20, a movable block 12 hinged to the bottom end of the connecting rod, and a horizontal screw rod 13 screwed with the movable block, and a first motor M1 drives the horizontal screw rod to rotate; the tail end of the main conveying line rack is hinged to a support frame 14. Under the drive of the first motor, the horizontal screw rod 13 rotates, drives the movable block 12 to displace transversely along the horizontal screw rod, and the movable block 12 drives the front end of the main conveying line 20 to lift through the connecting rod 11.
[0061] A connecting piece extending upward is arranged on the side wall of the support structure 40, a contact switch S4 is arranged on the connecting piece, the contact switch is located above the transfer conveying line 30, a third normally closed switch S3 is arranged on the support frame, and the contact switch, the third normally closed switch, the transfer conveying line rack, a power supply, and the first motor M1 are connected in series in the fourth circuit; when there is no article on the transfer conveying line 30, the transfer conveying line rack contacts the contact switch under the action of the telescopic spring 41, the fourth circuit is turned on, the first motor operates, drives the lifting device 10, and the lifting device drives the front end of the main conveying line to rise and reset; when the main conveying line 20 resets to the initial state, the third normally closed switch contacts the main conveying line rack, the third normally closed switch S3 is opened, the fourth circuit is disconnected, the first motor M1 stops, and the main conveying line stays in the initial position.
[0062] The above merely provides the preferred embodiment of the present application, and for those skilled in the art, the specific embodiments and the application scope can be changed according to the idea of the present application, and the content of the description should not be understood as the limitation of the present application.
Claims
1. An intelligent warehousing and storage device, comprising a transfer conveyor line (30) and a main conveyor line (20), wherein the transfer conveyor line and the main conveyor line are arranged in a head-to-tail connection manner, the tail end of the main conveyor line is close to the transfer conveyor line, and the front end of the main conveyor line is far away from the transfer conveyor line, characterized in that: The front end of the main conveyor line is mounted on the lifting device (10), and the transfer conveyor line is mounted on the support structure (40); The support structure is equipped with spring pins, and a telescopic spring (41) is provided between the transfer conveyor line and the support structure. The spring pin includes an upper spring pin (51), a middle spring pin (52) and a lower spring pin (53), with a gap between the upper spring pin and the middle spring pin, and a gap between the middle spring pin and the lower spring pin; The transfer conveyor (30) contacts the upper spring PIN pin, and the transfer conveyor and the main conveyor (20) operate; The upper spring pin (51) contacts the middle spring pin (52), the lifting device (10) drives the front end of the main conveyor line to descend, and the transfer conveyor line and the main conveyor line operate. The middle spring pin (52) contacts the lower spring pin (53), the lifting device (10) drives the front end of the main conveyor line (20) to continue to descend, and the transfer conveyor line and the main conveyor line operate; The transfer conveyor line (30) is connected in series with the upper spring PIN pin (51) in the first circuit. The first circuit is connected in series with a power supply, a second motor (M2) and a third motor (M3). The second motor is used to drive the main conveyor line (20) and the third motor is used to drive the transfer conveyor line (30). The transfer conveyor line (30), the upper spring PIN pin (51) and the middle spring PIN pin (52) are connected in series in the second circuit. The second circuit is connected to the power supply, the first motor (M1), the second motor (M2) and the third motor (M3). The second motor and the third motor are connected in series and are connected in parallel with the first motor. The first motor is used to drive the lifting device (10). The transfer conveyor line (30), the upper spring PIN pin (51), the middle spring PIN pin (52) and the lower spring PIN pin (53) are connected in series in the third circuit. The third circuit is connected to the power supply, the first motor (M1), the second motor (M2) and the third motor (M3). The second motor and the third motor are connected in series and are connected in parallel with the first motor. The support structure (40) includes a housing (43) and an upper plate (44). The upper plate is fixed on the housing, and a telescopic spring (41) is set on the upper plate. The external thread of the upper spring pin (51) is screwed onto the upper plate, the external thread of the middle spring pin (52) is screwed onto the first support (431), and the external thread of the lower spring pin (53) is screwed onto the second support (432). The first and second supports are set on the suspension (433), and the suspension is fixed inside the housing. The lifting device (10) includes a connecting rod (11) hinged to the frame of the main conveyor line (20), a movable block (12) hinged to the bottom end of the connecting rod, and a horizontal screw (13) screwed to the movable block. The first motor (M1) drives the horizontal screw to rotate. The tail end of the frame of the main conveyor line is hinged to the support frame (14). The side wall of the support structure (40) is provided with an upwardly extending connector, and the connector is provided with a contact switch (S4). The contact switch is located above the transfer conveyor line (30). The support frame is provided with a third normally closed switch (S3). The contact switch, the third normally closed switch, the transfer conveyor line frame, the power supply, and the first motor (M1) are connected in series in the fourth circuit. When there are no items on the transfer conveyor line (30), under the action of the telescopic spring (41), the transfer conveyor line frame contacts the contact switch, the fourth circuit is connected, the first motor operates, and drives the lifting device (10). The lifting device drives the front end of the main conveyor line to rise and reset. When the main conveyor line (20) is reset to the initial state, the third normally closed switch contacts the main conveyor line frame, the third normally closed switch (S3) opens, the fourth circuit is disconnected, the first motor (M1) stops, and the main conveyor line stays in the initial position.
2. The intelligent warehousing and storage device as described in claim 1, characterized in that: In the first circuit, the second motor (M2) and the third motor (M3) are connected in series with the first timer (T1). In the second circuit, the first motor (M1) is connected in series with the second timer (T2), and the second motor (M2) and the third motor (M3) are connected in series with the third timer (T3). In the third circuit, the first motor (M1) is connected in series with the fourth timer (T4), and the second motor (M2) and the third motor (M3) are connected in series with the fifth timer (T5).
3. The intelligent warehousing and storage device as described in claim 1, characterized in that: In the first circuit, there is a first normally closed switch (S1), and the first electromagnetic coil (K1) of the first normally closed switch is connected in series in the second circuit; in the second circuit, there is a second normally closed switch (S2), and the second electromagnetic coil (K2) of the second normally closed switch is connected in series in the third circuit.
Citation Information
Patent Citations
Sorting device applied to intelligent storage
CN219003795U
Belt conveyor for portioning food
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Rice sorts mechanism in bags
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