CN211613461U - Separating device for side-by-side parcels - Google Patents
Separating device for side-by-side parcels Download PDFInfo
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Abstract
The separator of parcel side by side takes earlier the dispersion to pull open the clearance, use the image recognition algorithm again and shoot and discern the position relation between adjacent parcel to pertinence ground separates leading position parcel one by one, realizes that parcel high-speed separation in batches carries with single queue, realizes follow-up single maximum speed, the reduction of a yard operation of sweeping a yard rate and the efficiency of improving whole letter sorting operation. Comprises a dispersing device, a visual recognition device, a separation device and an edge-leaning device which are arranged along the conveying direction; the visual recognition device is arranged in the direction vertical to the conveying direction of the packages and comprises a 3D camera; the dispersing device comprises a plurality of scattering belt conveyors which are arranged in a dispersing state along the conveying direction and are respectively and independently driven by a plurality of servo motors; the separating device comprises a plurality of separating belt conveyors arranged in a matrix along the conveying direction, and each separating belt conveyor is independently driven by a servo motor; the side-leaning device is an oblique roller machine.
Description
Technical Field
The utility model relates to a carry out high-speed sorting's of goods separator of parcel side by side belongs to commodity circulation letter sorting field.
Background
The logistics sorting operation site of the existing e-commerce and express delivery industries usually adopts an operation mode of manually loading articles at the front end, and manually separates a large number of packages which are piled up and enter a conveying line so as to facilitate subsequent scanning and information input.
The manual workpiece supply mode at the front end of the existing high-speed sorting machine needs to be configured with a plurality of workers. Sorting equipment is usually operated at higher speeds and cannot be shut down, with correspondingly higher requirements on the quality of the personnel who manually load the pieces and greater field labor intensity. If the phenomenon that the processing speed of the goods is reduced appears in the period, a large amount of piled goods still enter a subsequent scanning and sorting stage, so that a large amount of goods is overstocked, the scanning and sorting operation pressure is increased, and a large amount of unidentified goods enter the goods loading and scanning procedures again, so that the processing efficiency of the whole sorting operation is directly influenced, the working time of the whole equipment is prolonged, and the sorting efficiency and the sorting capacity of a logistics system are reduced.
The prior application patent, application number cn201910162842.x, entitled side-by-side object separation method and device, discloses the following scheme, and the side-by-side object separation device comprises a plurality of strip-shaped conveyor belts arranged side by side, a plurality of motors and a control unit, wherein the motors correspond to the strip-shaped conveyor belts one by one. The method comprises the steps that when a first object and a second object are detected to be side by side, the control unit obtains first position information of the first object and second position information of the second object, and the first strip-shaped conveyor belt set and the second strip-shaped conveyor belt set are controlled to run at different conveying speeds through a motor, so that the first object is separated from the second object. The separating device is provided with spacing grooves between adjacent strip-shaped conveyor belts, photoelectric sensors are arranged in the spacing grooves, the spacing grooves are located at the upstream positions of the objects on the conveying paths of the strip-shaped conveyor belts, and the photoelectric sensors are connected with the control unit. Controlling the first set of linear conveyors to transport the first object at the first speed by a first set of motors, and controlling the second set of motors to transport the second object at a third speed, the third speed being less than the first speed.
As in the previous application, the disadvantages and shortcomings include: 1. how do the packages being inspected and separated undergo limited spacing before entering the different strip conveyors formed by adjacent compartments? Or still adopt manual piece-splitting means for preprocessing? Prior applications have not given sufficient disclosure, and there are disadvantages to the specific application of separation techniques; 2. the identification and subsequent separation treatment among multiple position relations of adjacent packages are not solved, the solved problems are limited, and the problems are to be further solved in a targeted manner; 3. the separation treatment is carried out in a sensor signal triggering mode, the treatment speed is low, and the existing field treatment requirements of high-speed and batch packages are difficult to meet; 4. the separated packages are still in a discrete state, which is not beneficial to subsequent single scanning, and the omission ratio is still large.
In view of this, the present patent application is specifically proposed.
SUMMERY OF THE UTILITY MODEL
The separator of parcel side by side, lie in solving the problem that above-mentioned prior art exists and take earlier the dispersion pull open the clearance, use the image recognition algorithm again and shoot and discern the position relation between adjacent parcel to pertinence ground separates leading position parcel one by one, realizes that the high-speed separation of batch parcel is carried with single queue, realizes follow-up single maximum speed, the reduction of a yard operation and the efficiency of improving whole letter sorting operation.
In order to achieve the design purpose, the separation device for the side-by-side packages is provided with a dispersion device, a visual recognition device, a separation device and an edge leaning device which are arranged along the conveying direction;
the visual recognition device is arranged in the direction vertical to the conveying direction of the packages and comprises a 3D camera;
the dispersing device comprises a plurality of scattering belt conveyors which are arranged in a dispersing state along the conveying direction and are respectively and independently driven by a plurality of servo motors;
the separating device comprises a plurality of separating belt conveyors arranged in a matrix along the conveying direction, and each separating belt conveyor is independently driven by a servo motor;
the side-leaning device is an oblique roller machine.
Furthermore, the scattering belt conveyor comprises a plurality of groups of V belts driven by servo motors; the multiple groups of V belts are connected to the V belt wheel shaft through a cross universal coupling; the servo motor drives the V-belt wheel shaft through the synchronous belt wheel and the synchronous belt.
Furthermore, the separation belt conveyor comprises a conveying belt driven by a servo reducer and a belt wheel; a tensioning belt is sleeved between the belt wheels at the two sides and sequentially connected with a driving roller, a tensioning roller arranged on a tensioning crankshaft, a tensioning handle and a spring.
To sum up, the separating device for side-by-side wrapping has the advantages of:
1. the full-automatic parcel sorting machine can meet the requirement that large batches of parcels automatically enter the separation device without manual intervention and pretreatment, is suitable for the full-automatic operation requirement of a high-speed sorting machine, and does not need the original manual part feeding link.
2. The labor investment can be greatly reduced, the operation intensity and the operation amount of workers are reduced, and the requirement on the quality of the workers is lowered.
3. The position relations of a plurality of adjacent parcels can be identified and calculated simultaneously by adopting an image identification algorithm, so that the accuracy and the efficiency of processing the separation processing one by one are improved, and the execution reliability of the separation method is improved to the greatest extent.
4. The defects in the prior art are improved, the scheme is more fully disclosed, the application prospect is wider, and the full-automatic level of sorting operation is favorably improved.
Drawings
The invention will now be further described with reference to the following figures.
FIG. 1 is a schematic flow diagram of a method of separating side-by-side parcels according to the present application;
fig. 2 is a schematic diagram of a package location distribution example 1;
fig. 3 is a schematic diagram of a package location distribution example 2;
FIG. 4 is a schematic view of the side-by-side wrapped separator module assembly of the present application;
FIG. 5 is a schematic view of a control system for a side-by-side wrapped separation apparatus;
FIGS. 6-1 through 6-6 are schematic diagrams of a side-by-side parcel separation control process;
FIG. 7 is a schematic view of the transmission mechanism of a single scattering belt conveyor;
FIG. 8 is a schematic side view of a single split belt conveyor;
Detailed Description
Example 1, the method for separating side-by-side parcels according to the present application comprises the following steps:
1) dispersing
The parcels arriving at the dispersing device from the conveying line are dispersed through the angle difference existing in the conveying direction, and a gap is reserved between every two adjacent parcels;
2) detection recognition
The visual recognition device is arranged along the direction vertical to the conveying direction of the packages and comprises a 3D camera;
the detected parcels are photographed and identified through a visual identification device, and the three-dimensional size and real-time position data of each parcel are obtained;
the visual recognition device carries out edge detection on the parcel image according to an image recognition algorithm, and three-dimensional coordinates and position information of the parcel corresponding to the edge information of the parcel are screened out;
defining the size coordinate of the outermost periphery of the package along the conveying direction as the current position of the package;
3) separation of
The identified adjacent parcels are applied with different conveying speeds by the separating device;
if the position information of the parcels is consistent, the parcel size information is compared, and the parcel with the largest volume is regarded as the first parcel, and so on.
The first parcel identified as the earlier location arrives at the edge-approaching device at a faster rate, and so on;
4) single line queuing
Different packages arriving at the side approaching device successively are conveyed forwards in a single-row queue.
In the above method flow, the separation device comprises a plurality of separation belt conveyors arranged in a matrix along the conveying direction, and each separation belt conveyor is driven by a servo motor independently;
for the first parcel identified by image identification algorithm comparison, the motor speed of the belt conveyor is increased;
the rotation speed of a motor of the belt conveyor is reduced or the rotation of the belt conveyor is stopped until the first parcel completely exceeds other parcels;
the packages are conveyed to the edge-leaning device in a single and sequential way by the circulation reciprocating way.
In the process of the method, the edge device is an inclined roller machine; different packages arriving at the side leaning device are all arranged to one side along the conveying direction of the roller to form a single-row queue.
As shown in fig. 1, the principle and the main flow of separating the single pieces of the side-by-side parcel separation are that, firstly, a parcel set is fed from a conveying belt conveyor, and when the parcel set is conveyed to a scattering belt conveyor, the scattering belt conveyor disperses parcels through the angle difference of the advancing direction, so that when the adhered parcels move to the separating belt conveyor, gaps are opened between the adjacent parcels, and the parcels are conveniently identified as different parcels by an algorithm; when a plurality of parcels exist on the separating belt conveyor at the same time, the vision controller obtains current position information of the parcels through the camera, and whether the parcels are a first parcel set and a second parcel set is processed through an algorithm, wherein the first parcel is always the parcel with the most front position in the conveying direction of the parcels or the parcel set; when the packages are judged to be the first packages, the PLC gives a high-speed operation instruction to the belt driving motor corresponding to the first packages, gives a low-speed operation or 0-speed operation instruction to the belt driving motor corresponding to the second packages, and enables the distance of the first packages to be drawn away from the second packages to be larger than the parallel distance within a period of time, so that the first package set is separated from the second package set, and then the position information of the second packages is fed back to the vision control system to continue to perform algorithm processing to wait for a separation instruction; meanwhile, the separated first parcel leaves the separation belt conveyor at a high speed, enters the edge roller and then is conveyed forwards in a parcel queue mode through the edge roller.
The three-dimensional size and the real-time position of the package are detected through a 3D camera which is vertically installed in the conveying direction, the package is independently distinguished, the visual control unit judges an object on the conveying belt according to an image recognition algorithm, the image recognition algorithm can carry out edge detection on the image, edge information of the package is screened out from edge detection data of the image, and the edge information is the coordinate of the package outline.
The size coordinate of the outermost periphery of the packages along the conveying direction is defined as the current position of the packages, the position information is an important input condition for judging the separation sequence of the packages by an algorithm, namely the packages which are the most front along the conveying direction of the packages are defined as first packages, and other packages which are positioned on the separation belt conveyor at the same time except the first packages are defined as second package sets.
There may be the following:
in a first possibility, when the first parcel position and the second parcel set position are distributed as shown in fig. 2, an algorithm judges that two parcels exist when the L is greater than 10mm, and the first parcel and the second parcel set do not have a side-by-side relation, and a system judges that the first parcel can be separated in the current state;
in a second possibility, the first parcel position and the second parcel set position are distributed as shown in fig. 3, when L > -10mm and W >10mm, the algorithm judges that two parcels exist, and the first parcel and the second parcel set have a side-by-side relationship, and the system judges that the first parcel can be separated in the current state;
in a third possibility, the first parcel position and the second parcel set position are distributed as shown in fig. 3, when L > -10mm and W <10mm and | H1-H2| >10mm, the algorithm determines that two parcels exist, and the first parcel and the second parcel set have a side-by-side relationship, and the system determines that the first parcel can be separated in the current state;
a fourth possibility is that the first parcel location and the second parcel set location are distributed as shown in fig. 3, when L > -10mm and W <10mm and | H1-H2| <10mm, the algorithm determines that one parcel is a parcel, in which case the parcel is called an adhesive parcel, the system determines that the first parcel can be separated in the current state, and the adhesive parcel waits for the next period of time, and the algorithm processing result waits for a separation command.
As shown in fig. 4 and 5, the separation method of side-by-side parcels in the present application is to control the set of conveyor belts at the bottom of side-by-side parcels to run at different speeds for separation.
The device comprises a separating device for side-by-side wrapping, and further comprises a control system consisting of an upper computer, a PLC, a vision module and a servo motor, wherein the servo motor respectively drives a separating belt conveyor and a scattering belt conveyor, the wrapping feeding is performed by the belt conveyor, and the blanking is completed by an edge roller machine;
in the control communication of whole separator, send the instruction including host computer and vision controller to PLC, PLC sends the instruction and gives servo motor in order to drive and control the separation belt feeder with corresponding rotational speed operation, and PLC still sends the instruction simultaneously and triggers the camera for the vision controller and take a picture.
Specifically, the vision controller detects real-time location information of the package through the 3D camera. Through the position information comparison, the parcel that will lean on the front most along parcel direction of delivery position is first parcel, and the belt that first parcel corresponds is first belt set, and the belt that other parcels correspond is the second belt set, and the servo motor's that first belt set corresponds rotational speed is first speed, and the servo motor's that other belt sets correspond rotational speed is the second speed, and first speed should be greater than the second, through the speed of controlling the belt driving motor that different parcels correspond, realizes the parcel separation.
When the vision controller detects that the separation distance of the packages is greater than the parallel distance, the current separation is finished, the position information of the next group of packages is continuously compared before control, and the parallel packages are separated in the same way;
if the packages are sorted too large, the algorithm judges that the packages of the first package set and the second package set cannot be separated during advancing, the controller gives a high-speed command to a belt driving motor corresponding to the first package set and a 0-speed command to a belt driving motor corresponding to the second package set, and when the distance between the first package and the second package is larger than the parallel distance, the controller gives a low-speed command to the belt driving motor corresponding to the second package through the PLC, and the second package set is subsequently separated;
the process of side-by-side package separation control as shown in fig. 6-1 to 6-6, the process of detection and identification by the visual identification means is broken down as follows:
1) camera stitching
In fig. 6-1, since the area of the separation belt is too large, which exceeds the effective visual field range of a single 3D camera, and the effective visual field range of the single camera is larger than 1/4 of the area of the separation belt and smaller than 1/2, a visual splicing method of 4 3D cameras is adopted, and repeated photographing parts are removed by comparison through a visual algorithm, so that a complete top view picture is obtained at the same time of separating the separation belt (camera splicing is initially completed, and then the visual detection boundary needs to be divided).
2) Coordinate setting and visual inspection boundary partitioning
In fig. 6-2, a point O is selected on the separator belt as a zero coordinate; selecting positive directions of an X axis and a Y axis, measuring data of a coordinate origin O of the separation belt conveyor from edges X1, X2, Y1 and Y2 of the belt conveyor, and inputting the measured data into a visual control algorithm to obtain a visual detection boundary as shown in fig. 6-3.
3) Package boundary calibration and coordinate information
In fig. 6-4, when the parcel appears in the visual field of the camera, the camera frames the peripheral boundary of the parcel, as shown by the black-bold outer frame, where the coordinates x and y represent the position of the parcel on the separation belt conveyor, and z represents the height information of the parcel, and the peripheral boundary of the parcel captured by the camera contains a plurality of coordinate information, which is an important basis for the algorithm to determine the separation sequence of the parcel; the belt conveyor corresponding to the package 1 is shown as an area 1 in fig. 6-4, the belt conveyor corresponding to the package 2 is shown as an area 2 in fig. 6-4, the vision controller sends instructions to the PLC to control the belt conveyors in different areas to operate at different speeds, and the package separation is realized through the speed difference; when a side-by-side package exists on the separation belt conveyor at the most front end along the package conveying direction, the camera captures the boundary size coordinates of two packages, wherein { x1, y1, z1} represents the coordinate set of package 1, and { x2, y2, z2} represents the coordinate set of package 2, and the package separation is divided into multiple cases;
in the first case, as shown in FIGS. 6-5, when there is no side-by-side package at the forward-most end in the package conveying direction, that is, assuming (x2a, y2a, z2a) is a point on the package 2 coordinate set, (x1a, y1a, z1a) is a point on the package 1 coordinate set,
and (x1a, y1a, z1a) ∈ { x1, y1, z1}, there is always x2a<x1 a; at the moment, the vision controller sends a high-speed instruction to the PLC to control the servo motor of the area 2 corresponding to the parcel 2 to run at a high speed, and the parcel set of the parcel 1 is subjected to subsequent algorithm processing to wait for separation.
In a second case, as shown in fig. 6 to 6, when there are side-by-side parcels at the forefront in the parcel conveying direction, that is, assuming that (x2a, y2a, z2a), (x2b, y2b, z2b) are points on the parcel 2 coordinate set, (x1a, y1a, z1a), (x1b, y1b, z1b) are points on the parcel 1 coordinate set, (x2a, y2a, z2a) ∈ { x2, y2, z2} and (x2b, y2b, z2b) b { x b, y b, z1b }, (x1b, y1b, z1b) b { x b, y b, z b } and (x1b, y1, z1b) x b, z b { b, z b };
and is
Package 1 and package 2 are referred to herein as side-by-side packages; assuming that package 2 has one point (x2c, y2c, z2c), there is x2c for any point on package 1 (x1c, y1c, z1c)<x1c, expressed mathematically as,
∈{x2,y2,z2}，
all have x2c<x1c, when the algorithm judges that the separation priority of the parcel 2 is higher than that of the parcel 1, the vision controller controls the PLC to send a high-speed instruction to the servo motor corresponding to the area 2 and a low-speed instruction of the high-speed motor corresponding to the area 1, after the operation for a period of time, when the operation is carried out for a certain period of time,
if x1d-x2d is more than or equal to 10, then the separation of parcel 2 and parcel 1 is determined to be completed, and parcel 1 and subsequent parcels similarly perform algorithm processing to wait for separation.
For the separation of the side-by-side packages, a special condition exists, when the algorithm judges that the separation priority of the package 2 is higher than that of the package 1, but the algorithm calculates that the distance between the package 1 and the package 2 and the edge of the separation belt conveyor is too short, so that the separation is not enough to be completed in the process of moving, at the moment, the vision controller can control the PLC to send a high-speed instruction to a servo motor corresponding to the area 2 and simultaneously send a zero-speed instruction to a servo motor corresponding to the area outside the area 2, after the package 2 is separated, the vision controller can control servo motors corresponding to packages in other areas to operate at a low speed by sending an instruction to the PLC, and the package separation;
in order to realize the separation method, the separation device for the side-by-side packages is provided with a dispersion device, a visual recognition device, a separation device and an edge leaning device which are arranged along the conveying direction. Wherein,
the visual recognition device is arranged in the direction vertical to the conveying direction of the packages and comprises a 3D camera;
the dispersing device comprises a plurality of scattering belt conveyors which are arranged in a dispersing state along the conveying direction and are respectively and independently driven by a plurality of servo motors;
the separating device comprises a plurality of separating belt conveyors arranged in a matrix along the conveying direction, and each separating belt conveyor is independently driven by a servo motor;
the side-leaning device is an oblique roller machine.
As shown in fig. 7, the scattering belt conveyor comprises 12 narrow belt conveyors divergently arranged at a certain angle. Every four narrow belt conveyors form a group. The three servo motors drive the motor.
Wherein, the first narrow belt conveyor comprises a plurality of groups of V belts 12 driven by a servo motor 11; the multiple groups of V belts 12 are connected to a V belt wheel shaft 14 through a cross universal joint 13; the servomotor 11 drives the V-belt wheel shaft 14 via a timing pulley 15 and a timing belt 16.
As shown in fig. 8, the separating belt conveyor comprises 24 small belt conveyors arranged in a matrix, each small belt conveyor is driven by a servo system, and the speed can be adjusted independently.
Wherein, each small belt conveyor comprises a conveying belt 23 driven by a servo reducer 21 and a belt wheel 22; a tension belt 24 is sleeved between the belt wheels 22 at the two sides, and the tension belt 24 is sequentially connected with a driving roller 25, a tension roller 26 arranged on a tension crank shaft 27, a tension handle and a spring 28.
The tensioning roller 26 realizes automatic tensioning under the tension of the tensioning handle and the spring 28, so that the reserved space for manually adjusting the tensioning structure can be saved, and the structure is more compact; but also can realize automatic tensioning and avoid manual maintenance.
In summary, the embodiments presented in connection with the figures are only preferred. It is obvious to those skilled in the art that other alternative structures according to the design concept of the present invention can be derived directly from the above teachings, and the present invention shall also fall within the scope of the present invention.
Claims (3)
1. A side-by-side wrapped separation device, comprising: the dispersing device, the visual recognition device, the separation device and the edge-leaning device are arranged along the conveying direction;
the visual recognition device is arranged in the direction vertical to the conveying direction of the packages and comprises a 3D camera;
the dispersing device comprises a plurality of scattering belt conveyors which are arranged in a dispersing state along the conveying direction and are respectively and independently driven by a plurality of servo motors;
the separating device comprises a plurality of separating belt conveyors arranged in a matrix along the conveying direction, and each separating belt conveyor is independently driven by a servo motor;
the side-leaning device is an oblique roller machine.
2. The side-by-side wrapped separation device of claim 1, wherein: the scattering belt conveyor comprises a plurality of groups of V belts (12) driven by a servo motor (11);
the multiple groups of V belts (12) are connected to a V belt wheel shaft (14) through a cross universal coupling (13);
the servo motor (11) drives a V-belt wheel shaft (14) through a synchronous belt wheel (15) and a synchronous belt (16).
3. The side-by-side wrapped separation device of claim 2, wherein: the separation belt conveyor comprises a conveying belt (23) driven by a servo reducer (21) and a belt wheel (22);
a tension belt (24) is sleeved between the belt wheels (22) at the two sides, and the tension belt (24) is sequentially connected with a driving roller (25), a tension roller (26) arranged on a tension crankshaft (27), a tension handle and a spring (28).
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Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN112620123A (en) * | 2020-12-18 | 2021-04-09 | 科捷智能科技股份有限公司 | Method for arranging separated single goods |
| CN112642734A (en) * | 2020-12-18 | 2021-04-13 | 科捷智能科技股份有限公司 | Full-automatic package guiding and loading control method |
| CN113003091A (en) * | 2021-02-02 | 2021-06-22 | 华南新海(深圳)科技股份有限公司 | Single piece separating and conveying system |
| CN115744049A (en) * | 2022-11-03 | 2023-03-07 | 青岛孚鼎泰智能技术有限公司 | Multi-product whole-layer unstacking conveying system equipment and method |
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2019
- 2019-11-25 CN CN201922059603.XU patent/CN211613461U/en active Active
Cited By (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN112620123A (en) * | 2020-12-18 | 2021-04-09 | 科捷智能科技股份有限公司 | Method for arranging separated single goods |
| CN112642734A (en) * | 2020-12-18 | 2021-04-13 | 科捷智能科技股份有限公司 | Full-automatic package guiding and loading control method |
| CN112642734B (en) * | 2020-12-18 | 2022-04-19 | 科捷智能科技股份有限公司 | Full-automatic package guiding and loading control method |
| CN113003091A (en) * | 2021-02-02 | 2021-06-22 | 华南新海(深圳)科技股份有限公司 | Single piece separating and conveying system |
| CN115744049A (en) * | 2022-11-03 | 2023-03-07 | 青岛孚鼎泰智能技术有限公司 | Multi-product whole-layer unstacking conveying system equipment and method |
| CN115744049B (en) * | 2022-11-03 | 2023-10-17 | 青岛孚鼎泰智能技术有限公司 | Multi-class whole-layer unstacking conveying system equipment and method |
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