CN204498792U - A kind of ripe apples degree based on binocular vision detects and picking robot automatically - Google Patents
A kind of ripe apples degree based on binocular vision detects and picking robot automatically Download PDFInfo
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- CN204498792U CN204498792U CN201520047593.7U CN201520047593U CN204498792U CN 204498792 U CN204498792 U CN 204498792U CN 201520047593 U CN201520047593 U CN 201520047593U CN 204498792 U CN204498792 U CN 204498792U
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Abstract
The utility model discloses a kind of ripe apples degree based on binocular vision automatically to detect and picking robot, it is characterized in that: the binocular vision system, the flexible manipulator that comprise mobile platform and be connected with mobile platform, binocular vision system is arranged on flexible mechanical on hand; Described binocular vision system, is made up of two image collecting devices; Image collecting device is connected with intelligence control system by data collecting card, and image collecting device is arranged on distance ground level and is about on the shelf of 135cm; Shelf is fixed on the left side of mobile platform, the distance difference 47cm of two image collecting devices, and focuses on 60cm place, flexible manipulator front.The utility model can detect color, size, the shape of apple automatically, then to obtain image automatically process, detection and indentification, to improve the operational efficiency of system, and situation can be plucked by Real-time Feedback, improve the accuracy rate of harvesting, greatly improve its production automation level, structure is simple, automaticity is high, and applicability is wide.
Description
Technical field
The utility model relates to picker, and particularly a kind of ripe apples degree based on binocular vision detects and picking robot automatically.
Background technology
In China, along with the growth of economic level, the price of labour power improves constantly, and causes the production cost of labor-intensive enterprises to improve constantly, especially agricultural production, as the harvesting of vegetables and fruit, often needs the human resources of at substantial.Therefore, agricultural production robot has played huge effect, as: paddy rice harvesting machine people, insect protected early warning robot etc.But fruit and vegetable picking robot market is substantially blank both at home and abroad at present.Because apple is in the tree in irregular distribution, cause the maturity that is difficult to identify fruit and accurately locate, therefore, develop a kind of flexible manipulator that can be displaced into flexibly between branch is the technical barrier being difficult to break through always.In addition, to pluck the dynamics of fruit wayward and cause occurring plucking the situation that failure or fruit damage and occur for manipulator.At present, have developed a kind of fruit harvesting apparatus abroad, it first by rocking apple tree, apple is landed, and then gather up apple on the ground, and obviously ripe apple is dropped and is easy to cause damaging and causing economic loss.Along with the rise of the price of labour power, the use of fruit and vegetable picking robot will be a main trend of the future of agriculture robot development, research and develop fruit and vegetable picking robot and have important practical significance.
Utility model content
The utility model object is for the deficiencies in the prior art, and provides a kind of ripe apples degree based on binocular vision automatically to detect and picking robot.This apparatus structure is simple, and applicability is wide, can enhance productivity significantly, reduces production cost.
For achieving the above object, the technical scheme that the utility model is taked is:
Ripe apples degree based on binocular vision detects and a picking robot automatically, and the binocular vision system, the flexible manipulator that comprise mobile platform and be connected with mobile platform, binocular vision system and flexible manipulator are all arranged on a mobile platform.
Described binocular vision system, is made up of two image collecting devices; Image collecting device is connected with intelligence control system by data collecting card, and it is on the shelf of 135cm that image collecting device is arranged on distance ground level; Shelf is fixed on the left side of mobile platform, and the distance of two image collecting devices is 47cm, and focuses on 60cm place, flexible manipulator front.
Described flexible manipulator comprise be linked in sequence from bottom to up the first joint, second joint, the 3rd joint, the 4th joint, scissors mobile phone structure, each joint connects with corresponding transmission mechanism, rotating mechanism, photoelectricity mechanism respectively.
Described rotating mechanism comprises energy level, Vertical Free rotates joint rotational axis, the joint motor be connected with joint rotational axis and turning arm, joint motor is connected with joint electrical system.
Described joint rotational axis is divided into the first joint rotational axis, second joint turning cylinder, the 3rd joint rotational axis and the 4th joint rotational axis from bottom to up, scissors mobile phone structure is connected with the 4th joint rotational axis, by the rotation of all joint rotational axis, control scissors mobile phone structure stretch flexibly in three dimensions and pluck fruit, wherein:
First joint rotational axis is parallel to horizontal plane and rotates, and movement angle scope is 180 °, and maximum movement speed is 60 °/s;
Second joint turning cylinder does the rotary motion perpendicular to horizontal plane, and movement angle scope is 120 °, and maximum movement speed is 60 °/s;
3rd joint rotational axis does the rotary motion perpendicular to horizontal plane, and movement angle scope is 120 °, and maximum movement speed is 60 °/s;
4th joint rotational axis does the rotary motion perpendicular to horizontal plane, and movement angle scope is 180 °, and maximum movement speed is 60 °/s;
Brachium between second joint turning cylinder and the 3rd joint rotational axis is 380mm, and the brachium between the 3rd joint rotational axis to the 4th joint rotational axis is 330mm; The maximum expansion radius of whole joint rotational axis is 850mm; Overall vertical height is 1050mm.
Described joint motor is connected with each joint rotational axis respectively, inside is provided with electricity loss brake and decelerator, is driven by DC servo motor, controls the motion of each joint rotational axis respectively, its power supply and power are respectively 24v and 400w, wherein: decelerator is harmonic speed reducer.
Described joint electrical system is connected to form by direct current generator, encoder, brake and optoelectronic switch.
Described scissors mobile phone structure is made up of pneumatic system and the expansible be connected with pneumatic system, closed scissors hand, be provided with harvesting blade in scissors hand, blade has cushion pad, and the pressure utilizing pneumatic system to bring cuts off fruit carpopodium, and clamp carpopodium end, plucked apple is recycled in fruit basket.
Described mobile platform is a four wheel drive platform; The rated operational voltage of its four wheel drive motor is 48V, and power is 100W, and is the encoder of 2000 with wired number, and speed reducing ratio is 35, and Rated motor rotating speed is 20 r/s.The diameter of each wheel is 34.5cm, and is furnished with rubber tyre, and earth-catching property is good, makes mobile platform have good cross-country ability, can meet robot movement flexibly in comparatively rugged orchard.
The course of work of the present utility model is as follows:
After whole device has initialized, first vision system gathers image, analyzes described image, retrieves the apple plucked that manipulator front exists, if there is no the apple that can pluck, mobile platform counterclockwise rotates 60 ° by differential, and vision system again gathers image and analyzes, if still do not had, mobile platform repeats previous step instruction, if after mobile platform rotates a circle, vision system does not still find the apple that can pluck, then device enters park mode; If described vision system finds the apple that can pluck, then will solve the locus residing for apple, and the three-dimensional coordinate of the target apple obtained will be delivered to manipulator control end, then perform harvesting work; If manipulator cannot arrive the position of described three-dimensional coordinate, so mobile platform makes the appropriate adjustments according to the position of target apple, until manipulator can realize plucking, described adjustment, it is a closed-loop control link, described closed-loop control link is by continuous visual determination, and the adjustment of mobile platform, until make target apple meet harvesting condition relative to the coordinate of manipulator; If described binocular vision system has detected that multiple apple meets harvesting condition, then the apple that distance means is nearest will preferentially have been plucked, and then plucks the nearest apple in being left, and the apple plucked is positioned in the basket of mobile platform front end.
The utility model has the advantages that: the utility model utilizes binocular vision system to detect, four dimension flexible manipulators of scissors hand are furnished with by installing a set of image collecting device and one on a mobile platform additional, automatically the color of apple can be detected, size, shape, then the image obtained is processed automatically, detection and indentification, to improve the operational efficiency of system, and situation can be plucked by Real-time Feedback, improve the accuracy rate of harvesting, change is plucked at present fruits and vegetables link and all rely on artificial present situation, greatly improve its production automation level, structure is simple, automaticity is high, applicability is wide, transplantability is strong, harvesting and the recovery of fruits and vegetables can be widely used in, have broad prospects.
Accompanying drawing explanation
Fig. 1 is the utility model overall system view;
Fig. 2 is the structural representation of the utility model manipulator;
Fig. 3 is the program flow diagram of the utility model binocular vision identification apple;
Fig. 4 is robot movement planning procedure flow chart.
Embodiment
Below in conjunction with drawings and Examples, the utility model is set forth, but be not the restriction to the utility model content.
Embodiment:
As shown in Figure 1, a kind of ripe apples degree based on binocular vision detects and picking robot automatically, and be made up of mobile platform and the binocular vision system be connected with mobile platform, flexible manipulator, binocular vision system is arranged on mobile platform.Mobile platform is four wheel drive platform, and its main purpose is the position on the relative ground of adjustment System; Because orchard is not level land usually, machinery equipment need have good exercise performance can movement flexibly, and each wheel of mobile platform is all furnished with independent drive motors; When controller receive movement instruction be time, each motor independently adjusts its rotating speed and acceleration thereof and working time according to the instruction of CAN agreement; Described mobile platform motion control and caterpillar machinery similar, as described in mobile platform to turn left time, then the right two wheels movement velocity be greater than two, left side wheel, realize differential turn left; As needed to turn right, then two, left side wheel speed is greater than two wheels in the right.
Overall reference coordinate is right-handed system, the positive direction of mobile platform is X-axis positive direction, the camera focus of binocular vision is in the negative direction of Y-axis, the i.e. right direction of mobile platform, described video camera is installed on the left of mobile platform, and manipulator is parallel to Z axis, be installed on the right side of mobile platform, its reset mode is vertical state; The motion positive direction in each joint is direction of curve corresponding in figure, and if l1 presentation surface is to X-axis negative direction, the motion positive direction in four joints does counterclockwise for being parallel to ZOY plane; L2 represents the motion positive direction in three joints, and its direction is the same with l1 direction; L3 represents the motion positive direction in two joints, contrary with l1; L4 presentation surface is to Z axis negative direction, and the motion positive direction in a joint is the counterclockwise being parallel to XOY plane.
As shown in Figure 2, this part is the flexible mechanical hand portion of total system, connected successively by manipulator base, the first joint, second joint, the 3rd joint, the 4th joint, scissors hand from bottom to up, each wherein said joint correspond to corresponding transmission mechanism, rotating mechanism, photoelectricity mechanism, and base 16 is connected with mobile platform by bolt.
The joint rotational axis that rotating mechanism is rotated freely by energy level, vertical four dimensions, the joint motor be connected with joint rotational axis, photoelectricity mechanism and turning arm form, joint rotational axis is divided into the first joint rotational axis 15, second joint turning cylinder 22, the 3rd joint rotational axis 10 and the 4th joint rotational axis 4 from bottom to up, each joint rotational axis sequential series, is driven by full DC servo motor.Wherein:
First joint rotational axis 15 does and is parallel to horizontal plane and rotates, and its movement angle scope is 180 °, and maximum movement speed is 60 °/s; First joint rotational axis 15 is connected with the first joint motor, the the first embolia optoelectronic switch 24 being provided with the reset for controlling rotary joint on the right side of this turning cylinder 15 and the first joint optoelectronic switch catch 14 be connected with this switch 24, when this articulation, light blocks by catch 14, close festival-gathering to rotate, till catch 14 is not lived light trap always; Be provided with the first joint electromechanical stop 18 on the left of turning cylinder 15, prevent manipulator from rotating too much angle, the first joint rotational axis 15 lower end is connected with base 16 by the first linking arm 17, upper end and second joint turning cylinder 22 snapping;
Second joint turning cylinder 22 does the rotary motion perpendicular to horizontal plane, and its movement angle scope is 120 °, and maximum movement speed is 60 °/s; Second joint turning cylinder 22 is connected with second joint motor 26 by second joint dynamic conveyor belt 13, its side is provided with for second joint reset optoelectronic switch 24 and the second joint optoelectronic switch catch 23 that is connected with this switch 24, when this articulation, light blocks by catch 23, close festival-gathering to rotate, till catch 23 is not lived light trap always; Turning cylinder 22 is provided with second joint electromechanical stop and the 3rd picking hands wireway holder 25, prevents manipulator from rotating too much angle, second joint turning cylinder 22 is provided with electromechanical stop 21, and be provided with mechanical assistance block 20 below turning cylinder 22;
3rd joint rotational axis 10 does the rotary motion perpendicular to horizontal plane, and its movement angle scope is 120 °, and maximum movement speed is 60 °/s; 3rd joint rotational axis 10 is connected with the 3rd joint motor 12 by the 3rd joint power conveyer belt 28, its one end is provided with the second picking hands wireway holder 11, for the 3rd embolia optoelectronic switch 8 of the rotational angle with time that control rotary joint and the 3rd joint optoelectronic switch catch 9 that is connected with this switch 8, when this articulation, light blocks by catch 9, close festival-gathering to rotate, till catch 9 is not lived light trap always; 3rd articulation arm 10 is connected with the 4th joint rotational axis 4 by the second linking arm 7; The 3rd joint harmonic speed reducer is provided with in the 3rd joint motor 12;
4th joint rotational axis 4 does the rotary motion perpendicular to horizontal plane, and its movement angle scope is 180 °, and maximum movement speed is 60 °/s; 4th joint rotational axis 4 is connected with the 4th joint motor 6 by the 4th joint power conveyer belt 30, the 4th joint optoelectronic switch catch 3 that its one end is provided with the rotational angle for controlling rotary joint and the 4th embolia optoelectronic switch 2 of time and is connected with this switch 2, when this articulation, light blocks by catch 3, close festival-gathering to rotate, till catch 3 is not lived light trap always; Turning cylinder 4 is also provided with and prevents that manipulator from rotating the 4th joint electromechanical stop of too much angle, the 4th picking hands wireway holder the 29, four articulation arm 4 is connected with pneumatic scissors hand by the 3rd linking arm 31; By the rotation of the 4th joint rotational axis 4, control pneumatic scissors hand and stretch flexibly in three dimensions and pluck fruit.
Linking arm 27 between second joint turning cylinder 22 and the 3rd joint rotational axis 10 is long is 380mm, and the linking arm 7 between the 3rd joint rotational axis 10 to the 4th joint rotational axis 4 is long is 330mm; The maximum expansion radius of whole joint rotational axis is 850mm; Overall vertical height is 1050mm.
First joint motor, second joint motor 26, the 3rd joint motor 12 are connected with joint electrical system respectively with the 4th joint motor 6, electricity loss brake and harmonic speed reducer is provided with in it, driven by DC servo motor, control the motion of each joint rotational axis respectively, its power supply and power are respectively 24v and 400w, wherein: decelerator is harmonic speed reducer.Described joint electrical system is connected to form by direct current generator, encoder, brake and optoelectronic switch.
Described pneumatic scissors hand is made up of air pump 32 and the expansible be connected with air pump, closed scissors hand, be provided with in scissors hand and pluck blade 33, blade 33 has cushion pad, auxiliary harvesting baffle plate 1 is also provided with in blade one end, air pump 32 is connected with pneumatic system by the air pump air inlet mouth of pipe, the pressure utilizing pneumatic system to bring cuts off fruit carpopodium instantaneously, and clamps carpopodium end, is recovered in fruit basket.
As shown in Figure 3, described binocular vision system, mainly through the photo of two high-definition camera collection machinery hand front ends, is sent to PC end for process by capture card; Its workflow is:
Step 201: initialize video camera and open PC end for process;
Step 202: described video camera obtains image simultaneously, and reach PC end for process;
Step 203: do histogram equalization process to the brightness of two obtained width images, improves picture contrast;
Step 204: just do binary conversion treatment to red pixel, removes non-red area;
Step 205: do corrosion treatmentCorrosion Science to bianry image, erodes red trickle fritter, removes interference;
Step 206: expansion process, to the appropriateness reduction of large red color area;
Step 207: profile is proofreaded, and determines whether apple shape, if not then return 202 steps;
Step 208: if profile check and correction is passed through, then calculate the three-dimensional coordinate of target, and numerical value is sent to manipulator control end;
As shown in Figure 4, the workflow of the utility model picker is:
Step 301: initialize mechanical arm and PC end;
Step 302: judge whether CAN receive interruption mark is 1, is not wait for;
Step 302: if CAN receive interruption is masked as 1, then judge whether joint angles receives, if not, return 302 steps;
Step 303: if the angular acceptance in joint is complete, then plan the track from the initial pose of off working state to the initial pose of duty;
Step 304: the kinematic parameter planned by CAN transmission previous step, mechanical arm carries out reseting movement;
Step 305: obtain coordinate of ground point;
Step 306: the initial pose of planning state is to the track of impact point;
Step 307: the kinematic parameter planned by CAN transmission previous step, mechanical arm performs instruction, moves to impact point;
Step 308: control the apple that hand captures impact point;
Step 309: object of planning point is to the movement locus of set-point;
Step 310: the kinematic parameter planned by CAN transmission previous step, mechanical arm performs instruction, moves to set-point;
Step 311: planning set-point is to the track of the initial pose of duty;
Step 312: by the longitudinal kinematic parameter sending previous step and plan of CAN, mechanical arm performs instruction, returns to initial pose.
The pose motion of mechanical arm: the pose motion process of mechanical arm moves to temporary position and moves to plucks position, and namely described temporary position is that the apple plucked is placed to the pose of basket by mechanical arm; Move to temporary position most important for harvesting work can be performed with harvesting position; In fact the pose motion of mechanical arm is exactly provide mechanical arm tail end picking hands center pose to walk the motion of point-to-point mode position by mechanical arm, the step of this motion process is: the three-dimensional coordinate that the first step gets according to binocular vision system carries out Analysis of Inverse Kinematics, solves the target absolute angle in each joint of mechanical arm; Second step obtains the current absolute angle in each joint of Current mechanical arm, by target absolute angle and current absolute angle, thus solve the relative motion angle in each joint of mechanical arm, then determine the movement velocity in each joint of mechanical arm, the numerical values recited of acceleration by the time of Operation system setting; 3rd step issues movement velocity, acceleration, absolute position instruction to each joint driver, mechanical arm setting in motion, the center of mechanical arm tail end picking hands is made to arrive the pose of specifying, described system set-up time is defaulted as 10s, by the amendment of Long-distance Control host computer, described Long-distance Control host computer effect is to make in the case of necessary system can manual control.
Claims (7)
1. the ripe apples degree based on binocular vision detects and a picking robot automatically, it is characterized in that: the binocular vision system, the flexible manipulator that comprise mobile platform and be connected with mobile platform, and binocular vision system is arranged on flexible mechanical on hand; Described binocular vision system, is made up of two image collecting devices; Image collecting device is connected with intelligence control system by data collecting card, and image collecting device is arranged on distance ground level and is about on the shelf of 135cm; Shelf is fixed on the left side of mobile platform, the distance difference 47cm of two image collecting devices, and focuses on 60cm place, flexible manipulator front.
2. the ripe apples degree based on binocular vision according to claim 1 detects and picking robot automatically, it is characterized in that: described flexible manipulator comprise be linked in sequence from bottom to up the first joint, second joint, the 3rd joint, the 4th joint, scissors mobile phone structure, each joint connects with corresponding transmission mechanism, rotating mechanism, photoelectricity mechanism respectively.
3. the ripe apples degree based on binocular vision according to claim 2 detects and picking robot automatically, it is characterized in that: described rotating mechanism comprises energy level, Vertical Free rotates joint rotational axis, the joint motor be connected with joint rotational axis and turning arm, joint motor, joint electrical system connect, and photoelectricity mechanism is connected with rotating mechanism; Described joint rotational axis is divided into the first joint rotational axis, second joint turning cylinder, the 3rd joint rotational axis and the 4th joint rotational axis from bottom to up, and scissors mobile phone structure is connected with the 4th joint rotational axis, wherein:
First joint rotational axis is parallel to horizontal plane and rotates, and movement angle scope is 180 °, and maximum movement speed is 60 °/s;
Second joint turning cylinder does the rotary motion perpendicular to horizontal plane, and movement angle scope is 120 °, and maximum movement speed is 60 °/s;
3rd joint rotational axis does the rotary motion perpendicular to horizontal plane, and movement angle scope is 120 °, and maximum movement speed is 60 °/s;
4th joint rotational axis does the rotary motion perpendicular to horizontal plane, and movement angle scope is 180 °, and maximum movement speed is 60 °/s;
Brachium between second joint turning cylinder and the 3rd joint rotational axis is 380mm, and the brachium between the 3rd joint rotational axis to the 4th joint rotational axis is 330mm; The maximum expansion radius of whole joint rotational axis is 850mm; Overall vertical height is 1050mm.
4. the ripe apples degree based on binocular vision according to claim 3 detects and picking robot automatically, it is characterized in that: described joint motor is connected with each joint rotational axis respectively, inside be provided with electricity loss brake and decelerator, driven by DC servo motor, control the motion of each joint rotational axis respectively, its power supply and power are respectively 24v and 400w, wherein: decelerator is harmonic speed reducer.
5. the ripe apples degree based on binocular vision according to claim 3 detects and picking robot automatically, it is characterized in that: described joint electrical system is connected to form by direct current generator, encoder and brake.
6. the ripe apples degree based on binocular vision according to claim 2 detects and picking robot automatically, it is characterized in that: described scissors mobile phone structure is made up of pneumatic system and the expansible be connected with pneumatic system, closed scissors hand, be provided with blade in scissors hand, blade has cushion pad.
7. the ripe apples degree based on binocular vision according to claim 2 detects and picking robot automatically, it is characterized in that: described mobile platform is a four wheel drive platform; The rated operational voltage of its four wheel drive motor is 48V, and power is 100W, and is the encoder of 2000 with wired number, and speed reducing ratio is 35, and Rated motor rotating speed is 20 r/s, and the diameter of each wheel is 34.5cm, and is provided with rubber tyre.
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Cited By (8)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN104584779A (en) * | 2015-01-23 | 2015-05-06 | 桂林电子科技大学 | Apple maturity automatic detection and picking robot based on binocular vision |
| CN106610666A (en) * | 2015-10-22 | 2017-05-03 | 沈阳新松机器人自动化股份有限公司 | Assistant robot based on binocular vision, and control method of assistant robot |
| CN106818040A (en) * | 2017-03-05 | 2017-06-13 | 张保银 | A kind of cucumber picking robot |
| CN107258227A (en) * | 2017-06-05 | 2017-10-20 | 三峡大学 | A kind of automatic picking machine of strawberry |
| CN108064561A (en) * | 2018-01-29 | 2018-05-25 | 骆通运 | A kind of apple automation picker and method |
| CN108454939A (en) * | 2018-06-01 | 2018-08-28 | 青岛农业大学 | A kind of spheral fruit posture automatic adjusting method based on computer vision and device |
| CN109029257A (en) * | 2018-07-12 | 2018-12-18 | 中国科学院自动化研究所 | Based on stereoscopic vision and the large-scale workpiece pose measurement system of structure light vision, method |
| CN112715162A (en) * | 2021-01-21 | 2021-04-30 | 重庆文理学院 | System for intelligent string type fruit of picking |
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2015
- 2015-01-23 CN CN201520047593.7U patent/CN204498792U/en not_active Expired - Fee Related
Cited By (9)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN104584779A (en) * | 2015-01-23 | 2015-05-06 | 桂林电子科技大学 | Apple maturity automatic detection and picking robot based on binocular vision |
| CN106610666A (en) * | 2015-10-22 | 2017-05-03 | 沈阳新松机器人自动化股份有限公司 | Assistant robot based on binocular vision, and control method of assistant robot |
| CN106818040A (en) * | 2017-03-05 | 2017-06-13 | 张保银 | A kind of cucumber picking robot |
| CN107258227A (en) * | 2017-06-05 | 2017-10-20 | 三峡大学 | A kind of automatic picking machine of strawberry |
| CN108064561A (en) * | 2018-01-29 | 2018-05-25 | 骆通运 | A kind of apple automation picker and method |
| CN108064561B (en) * | 2018-01-29 | 2020-07-14 | 骆通运 | Automatic apple picking device and method |
| CN108454939A (en) * | 2018-06-01 | 2018-08-28 | 青岛农业大学 | A kind of spheral fruit posture automatic adjusting method based on computer vision and device |
| CN109029257A (en) * | 2018-07-12 | 2018-12-18 | 中国科学院自动化研究所 | Based on stereoscopic vision and the large-scale workpiece pose measurement system of structure light vision, method |
| CN112715162A (en) * | 2021-01-21 | 2021-04-30 | 重庆文理学院 | System for intelligent string type fruit of picking |
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Granted publication date: 20150729 Termination date: 20160123 |
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