CN203697006U - Intelligent five-shaft manipulator - Google Patents
Intelligent five-shaft manipulator Download PDFInfo
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- CN203697006U CN203697006U CN201420043330.4U CN201420043330U CN203697006U CN 203697006 U CN203697006 U CN 203697006U CN 201420043330 U CN201420043330 U CN 201420043330U CN 203697006 U CN203697006 U CN 203697006U
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Abstract
The utility model discloses an intelligent five-shaft manipulator. The intelligent five-shaft manipulator comprises a mechanical arm and five moving mechanisms, wherein the arm swinging moving mechanism is borne on the perpendicular moving mechanism and can move up and down for positioning under the driving of the perpendicular moving mechanism; the turnover moving mechanism is borne on the arm swinging moving mechanism and can rotate under the driving of the arm swinging moving mechanism; the horizontal moving mechanism and the executing end rotation moving mechanism are both borne on the turnover moving mechanism and rotate together under the driving of the turnover moving mechanism, the horizontal moving mechanism can drive a telescopic arm to make reciprocating movement in the direction of the length of a main arm, and the executing end rotation moving mechanism can drive a flange disk to rotate along the center of the executing end rotation moving mechanism; Because the mounting positions of the five moving mechanisms are reasonably arranged, the bearing amount of the arm swinging moving mechanism and the horizontal moving mechanism is reduced, and therefore the five-shaft manipulator is not only high in movement speed, small in inertia and flexible in operation but also is high in accuracy and good in stability and safety.
Description
Technical field
The utility model relates to manipulator technical field, and a kind of intelligent five axis robot are specifically provided.
Background technology
Existing puma manipulator, generally includes five motions, respectively: vertical movement mechanism, swing arm motion, flip-flop movement mechanism, horicontal motion mechanism and actuating station rotational motion mechanism.But in existing technical scheme, the supporting mechanism as other four motions mostly by swing arm motion, in the time that moving, swing arm motion just must drive other four motions to move together like this, thereby bearing very large weight, cause the rotary inertia of swing arm motion very large, and then make the positioning precision on horizontal plane poor, affect the precision of manipulator integral device.
Summary of the invention
In order to overcome above-mentioned defect, the utility model provides a kind of intelligent five axis robot, and this robot manipulator structure is reasonable, compact, and positioning precision is high, flexible operation and safety.
The utility model for the technical scheme that solves its technical problem and adopt is: a kind of intelligent five axis robot, comprise that board and location are arranged on mechanical arm, vertical movement mechanism, swing arm motion, flip-flop movement mechanism, horicontal motion mechanism and the actuating station rotational motion mechanism on described board, described mechanical arm comprises principal arm and is carried on the telescopic arm on described principal arm, and on one end of described telescopic arm, is also movably set with a ring flange for sucker or jaw installation; Described swing arm motion is carried in described vertical movement mechanism, and can be under the drive of described vertical movement mechanism the relatively described board location that moves up and down; Described flip-flop movement mechanism is carried on described swing arm motion, and can under the drive of described swing arm motion, rotate; Described horicontal motion mechanism and described actuating station rotational motion mechanism are all carried in described flip-flop movement mechanism, and can rotation together under the drive of described flip-flop movement mechanism, and described horicontal motion mechanism can drive described telescopic arm to move back and forth along the length direction of described principal arm, described actuating station rotational motion mechanism can drive described ring flange around its central rotation.
As further improvement of the utility model, described vertical movement mechanism includes locates the first servo motor that is built in described board inside, the first ball screw assembly, the first gear train and the first synchronous cog belt, described the first ball screw assembly comprises the first screw rod and is slidedly arranged on the first nut on described the first screw rod, described the first gear train is made up of a pair of the first gear, this to the first gear respectively fixed cover be located on the output shaft of described the first servo motor and an axle head of described the first screw rod, and this also connects by described the first Synchronous Belt Drives the first gear,
Described swing arm motion includes also locates the second servo motor and the small teeth number difference planet gear reductor that are built in described board inside, and described the second servo motor can drive described small teeth number difference planet gear reductor running;
Described swing arm motion is carried in described vertical movement mechanism, and the structure of the location that can move up and down under the drive of described vertical movement mechanism is: be also movably set with a vertical guide plate in described board inside, the bottom of described the first nut and described guide plate is connected, and the upper end of described the second servo motor and described guide plate is connected.
As further improvement of the utility model, also to locate and be provided with vertical the first slide rail in described board inside, described guide plate is slidingly fitted and is connected with described the first slide rail.
As further improvement of the utility model, described vertical movement mechanism also includes locates the lift cylinder that is built in described board inside, and the output shaft of described lift cylinder and described guide plate are connected.
As further improvement of the utility model, described flip-flop movement mechanism is carried on described swing arm motion, and the structure that can rotate under the drive of described swing arm motion is: on the top of described board, be also movably equipped with one in order to carry the pedestal of described flip-flop movement mechanism, the output shaft of described small teeth number difference planet gear reductor and described pedestal are connected.
As further improvement of the utility model, described flip-flop movement mechanism comprises that location is arranged at the 3rd servo motor of described pedestal upper end and location and is arranged at the second gear train and the hollow upset main shaft of described base interior, described the second gear train is made up of a pair of intermeshing the second gear, and this to the second gear respectively fixed cover be located on the output shaft of described the 3rd servo motor and the outside of described upset main shaft.
As further improvement of the utility model, described horicontal motion mechanism and described actuating station rotational motion mechanism are all carried in described flip-flop movement mechanism, and can be under the drive of described flip-flop movement mechanism together the structure of rotation be: described principal arm is made up of be all square the first principal arm and second principal arm of framework of cross section, described the first principal arm and the second principal arm are divided into the both sides of described pedestal, correspondence is fixedly connected with the two axial ends of described upset main shaft respectively, and described the first principal arm, the second principal arm and upset main shaft connect and jointly form an accommodating cavity in order to accommodating described horicontal motion mechanism and described actuating station rotational motion mechanism.
As further improvement of the utility model, the cross section of the described telescopic arm framework that is also square, and one end of described telescopic arm is slidedly arranged in described the first principal arm along the length direction of described the first principal arm by described horicontal motion mechanism, the other end of described telescopic arm stretches out described the first principal arm dorsad outside one end of described upset main shaft; Wherein:
The structure that one end of described telescopic arm is slidedly arranged in described the first principal arm along the length direction of described the first principal arm by described horicontal motion mechanism is: described horicontal motion mechanism comprises the 4th servo motor, the first power transmission shaft and the second ball screw assembly, wherein, described the 4th servo motor location is placed in described the second principal arm, and the output shaft of described the 4th servo motor is connected by an axle head of shaft coupling and described the first power transmission shaft, described the second ball screw assembly comprises that location is placed in the second screw rod in described the first principal arm and is slidedly arranged on the second nut on described the second screw rod, one axle head of described the second screw rod is connected by another axle head of shaft coupling and described the first power transmission shaft, described the second nut and described telescopic arm are connected.
As further improvement of the utility model, described actuating station rotational motion mechanism can drive described ring flange around the structure of its central rotation to be: described actuating station rotational motion mechanism comprises the 5th servo motor, the first tooth sector mechanism, worm speed reducer, coupling gear group, second driving shaft, drive socket and the second tooth sector mechanism, wherein, described the 5th servo motor location is placed in described the second principal arm, and the output shaft of described the 5th servo motor can drive described worm speed reducer running by described the first tooth sector mechanism, described coupling gear group location is placed in described the first principal arm, and a gear fixed cover in described coupling gear group is located on the output shaft of described worm speed reducer, its another gear is fixedly connected on one end of described second driving shaft by gimbal coupling, described drive socket is movably placed in described telescopic arm and with described second driving shaft and forms spline drived, and described drive socket dorsad one end of described second driving shaft also stretches out outside described telescopic arm, and be located by connecting in described ring flange by described the second tooth sector mechanism.
As further improvement of the utility model, be installed with the second slide rail in the inner also level of described the first principal arm, described telescopic arm is slidingly fitted and is connected with described the second slide rail; Another described the first tooth sector mechanism and the second tooth sector mechanism are intermeshing and be the gear composition of 90 degree by two.
The beneficial effects of the utility model are: the utility model is by carrying out reasonable disposition to the installation site of these five motions, alleviate the bearing capacity of swing arm motion and horicontal motion mechanism, thereby make this five axis robot, not only quick action, inertia are little, flexible operation, and positioning precision is high, stationarity, security are good, has effectively saved in addition production cost.
Accompanying drawing explanation
Fig. 1 is the structural representation of five axis robot described in the utility model;
Fig. 2 is the annexation structural representation of each motion in five axis robot described in the utility model;
Fig. 3 is the structural representation of vertical movement mechanism described in the utility model;
Fig. 4 is the structural representation of swing arm motion described in the utility model;
Fig. 5 is the structural representation of flip-flop movement described in the utility model mechanism;
Fig. 6 is the structural representation of horicontal motion mechanism described in the utility model;
Fig. 7 is the structural representation of actuating station rotational motion mechanism described in the utility model.
By reference to the accompanying drawings, make the following instructions:
1---board 2---guide plate
3---principal arm 4---telescopic arm
5---ring flange 6---pedestal
10---first servo motor 11---first ball screw assembly
12---first synchronous cog belt 13---lift cylinder
20---second servo motor 21---small teeth number difference planet gear reductor
30---the 3rd servo motor 31---upset main shaft
40---the 4th servo motor 41---first power transmission shaft
42---second ball screw assembly 50---the 5th servo motor
51---worm speed reducer 52---coupling gear group
53---second driving shaft 54---drive socket
The specific embodiment
Below with reference to figure, preferred embodiment of the present utility model is elaborated.
Intelligent five axis robot of one described in the utility model, comprise that board 1 and location are arranged on mechanical arm, vertical movement mechanism Z1, swing arm motion Z2, the Z3 of flip-flop movement mechanism, horicontal motion mechanism Z4 and the actuating station rotational motion mechanism Z5 on described board 1, described mechanical arm comprises principal arm 3 and is carried on the telescopic arm 4 on described principal arm, and on one end of described telescopic arm 4, is also movably set with a ring flange 5 for sucker or jaw installation; It is upper that described swing arm motion Z2 is carried on described vertical movement mechanism Z1, and can be under the drive of described vertical movement mechanism Z1 relatively described board 1 location that moves up and down; It is upper that the described flip-flop movement Z3 of mechanism is carried on described swing arm motion Z2, and can under the drive of described swing arm motion Z2, rotate; Described horicontal motion mechanism Z4 and described actuating station rotational motion mechanism Z5 are all carried on the described flip-flop movement Z3 of mechanism, and can under the drive of the described flip-flop movement Z3 of mechanism, rotate together, and described horicontal motion mechanism Z4 can drive described telescopic arm 4 to move back and forth along the length direction of described principal arm 3, described actuating station rotational motion mechanism Z5 can drive described ring flange 5 around its central rotation.
In the present embodiment, described vertical movement mechanism Z1 includes and locates the first servo motor 10 that is built in described board 1 inside, the first ball screw assembly 11, the first gear train and the first synchronous cog belt 12, described the first ball screw assembly 11 comprises the first screw rod and is slidedly arranged on the first nut on described the first screw rod, described the first gear train is made up of a pair of the first gear, this to the first gear respectively fixed cover be located on the output shaft of described the first servo motor 10 and an axle head of described the first screw rod, and this is also in transmission connection by described the first synchronous cog belt 12 to the first gear,
Described swing arm motion Z2 includes and also locates the second servo motor 20 and the small teeth number difference planet gear reductor 21 that are built in described board 1 inside, and described the second servo motor 20 can drive described small teeth number difference planet gear reductor 21 to turn round;
Described swing arm motion Z2 is carried on described vertical movement mechanism Z1, and the structure of the location that can move up and down under the drive of described vertical movement mechanism Z1 is: be also movably set with a vertical guide plate 2 in described board 1 inside, the bottom of described the first nut and described guide plate 2 is connected, and described the second servo motor 20 is connected with the upper end of described guide plate 2.
Preferably, also locate and be provided with vertical the first slide rail in described board 1 inside, described guide plate 2 is slidingly fitted and is connected with described the first slide rail.
Preferably, described vertical movement mechanism Z1 also includes and locates the lift cylinder 13 that is built in described board 1 inside, and the output shaft of described lift cylinder 13 and described guide plate 2 are connected, thereby alleviate the load of the first servo motor 10.
In the present embodiment, the described flip-flop movement Z3 of mechanism is carried on described swing arm motion Z2, and the structure that can rotate under the drive of described swing arm motion Z2 is: on the top of described board 1, be also movably equipped with one in order to carry the pedestal 6 of the described flip-flop movement Z3 of mechanism, the output shaft of described small teeth number difference planet gear reductor 21 is connected by rotary main shaft and described pedestal 6.
In the present embodiment, the described flip-flop movement Z3 of mechanism comprises that location is arranged at the 3rd servo motor 30 of described pedestal upper end and locates the second gear train and the hollow upset main shaft 31 that are arranged at described base interior, described the second gear train is made up of a pair of intermeshing the second gear, this external diameter to the second gear differs in size, and this to the second gear respectively fixed cover be located on the output shaft of described the 3rd servo motor 30 and the outside of described upset main shaft 31.
In the present embodiment, described horicontal motion mechanism Z4 and described actuating station rotational motion mechanism Z5 are all carried on the described flip-flop movement Z3 of mechanism, and can be under the drive of the described flip-flop movement Z3 of mechanism together the structure of rotation be: described principal arm 3 is made up of be all square the first principal arm and second principal arm of framework of cross section, described the first principal arm and the second principal arm are divided into the both sides of described pedestal 6, correspondence is fixedly connected with the two axial ends of described upset main shaft 31 respectively, and described the first principal arm, the second principal arm and upset main shaft 31 connect and jointly form an accommodating cavity in order to accommodating described horicontal motion mechanism Z4 and described actuating station rotational motion mechanism Z5.
In the present embodiment, the cross section of described telescopic arm 4 framework that is also square, and one end of described telescopic arm 4 is slidedly arranged in described the first principal arm along the length direction of described the first principal arm by described horicontal motion mechanism Z4, the other end of described telescopic arm 4 stretches out described the first principal arm dorsad outside one end of described upset main shaft 31; Wherein:
The structure that one end of described telescopic arm 4 is slidedly arranged in described the first principal arm along the length direction of described the first principal arm by described horicontal motion mechanism Z4 is: described horicontal motion mechanism Z4 comprises the 4th servo motor 40, the first power transmission shaft 41 and the second ball screw assembly 42, wherein, described the 4th servo motor 40 location are placed in described the second principal arm, and the output shaft of described the 4th servo motor 40 is connected by an axle head of shaft coupling and described the first power transmission shaft 41, described the second ball screw assembly 42 comprises that location is placed in the second screw rod in described the first principal arm and is slidedly arranged on the second nut on described the second screw rod, one axle head of described the second screw rod by shaft coupling and described the first power transmission shaft 41 and another axle head that wore described upset main shaft 31 be connected, described the second nut and described telescopic arm 4 are connected.
Described actuating station rotational motion mechanism Z5 can drive described ring flange 5 around the structure of its central rotation to be: described actuating station rotational motion mechanism Z5 comprises the 5th servo motor 50, the first tooth sector mechanism, worm speed reducer 51, coupling gear group 52, second driving shaft 53, drive socket 54 and the second tooth sector mechanism, wherein, described the 5th servo motor 50 location are placed in described the second principal arm, and the output shaft of described the 5th servo motor 50 can drive described worm speed reducer 51 to turn round by described the first tooth sector mechanism, described coupling gear group 52 location are placed in described the first principal arm, and a gear fixed cover in described coupling gear group 52 is located on the output shaft of described worm speed reducer 51, its another gear is fixedly connected on one end of described second driving shaft 53 by gimbal coupling, described drive socket 54 is movably placed in described telescopic arm 4 and with described second driving shaft 53 and forms spline drived, and described drive socket 54 dorsad one end of described second driving shaft 53 also stretches out outside described telescopic arm 4, and be located by connecting in described ring flange 5 by described the second tooth sector mechanism.
Preferably, be installed with the second slide rail in the inner also level of described the first principal arm, described telescopic arm 4 is slidingly fitted and is connected with described the second slide rail; Another described the first tooth sector mechanism and the second tooth sector mechanism are intermeshing and be the gear composition of 90 degree by two.
Claims (10)
1. intelligence five axis robot, comprise that board (1) and location are arranged on mechanical arm, vertical movement mechanism (Z1), swing arm motion (Z2), flip-flop movement mechanism (Z3), horicontal motion mechanism (Z4) and the actuating station rotational motion mechanism (Z5) on described board (1), described mechanical arm comprises principal arm (3) and is carried on the telescopic arm (4) on described principal arm, and on one end of described telescopic arm (4), is also movably set with a ring flange (5) for sucker or jaw installation; It is characterized in that: it is upper that described swing arm motion (Z2) is carried on described vertical movement mechanism (Z1), and can be under the drive of described vertical movement mechanism (Z1) relatively described board (1) location that moves up and down; It is upper that described flip-flop movement mechanism (Z3) is carried on described swing arm motion (Z2), and can under the drive of described swing arm motion (Z2), rotate; Described horicontal motion mechanism (Z4) and described actuating station rotational motion mechanism (Z5) are all carried in described flip-flop movement mechanism (Z3), and can under the drive of described flip-flop movement mechanism (Z3), rotate together, and described horicontal motion mechanism (Z4) can drive described telescopic arm (4) to move back and forth along the length direction of described principal arm (3), described actuating station rotational motion mechanism (Z5) can drive described ring flange (5) around its central rotation.
2. intelligent five axis robot according to claim 1, it is characterized in that: described vertical movement mechanism (Z1) includes location and is built in inner the first servo motor (10) of described board (1), the first ball screw assembly (11), the first gear train and the first synchronous cog belt (12), described the first ball screw assembly (11) comprises the first screw rod and is slidedly arranged on the first nut on described the first screw rod, described the first gear train is made up of a pair of the first gear, this to the first gear respectively fixed cover be located on the output shaft of described the first servo motor (10) and an axle head of described the first screw rod, and this is also in transmission connection by described the first synchronous cog belt (12) to the first gear,
Described swing arm motion (Z2) includes also location and is built in described board (1) inner the second servo motor (20) and small teeth number difference planet gear reductor (21), and described the second servo motor (20) can drive described small teeth number difference planet gear reductor (21) running;
Described swing arm motion (Z2) is carried in described vertical movement mechanism (Z1), and the structure of the location that can move up and down under the drive of described vertical movement mechanism (Z1) is: be also movably set with a vertical guide plate (2) in described board (1) inside, the bottom of described the first nut and described guide plate (2) is connected, and described the second servo motor (20) is connected with the upper end of described guide plate (2).
3. intelligent five axis robot according to claim 2, is characterized in that: also locate and be provided with vertical the first slide rail in described board (1) inside, described guide plate (2) is slidingly fitted and is connected with described the first slide rail.
4. intelligent five axis robot according to claim 2, it is characterized in that: described vertical movement mechanism (Z1) also includes location and is built in the inner lift cylinder (13) of described board (1), and the output shaft of described lift cylinder (13) and described guide plate (2) are connected.
5. intelligent five axis robot according to claim 2, it is characterized in that: described flip-flop movement mechanism (Z3) is carried on described swing arm motion (Z2), and the structure that can rotate under the drive of described swing arm motion (Z2) is: on the top of described board (1), be also movably equipped with one in order to carry the pedestal (6) of described flip-flop movement mechanism (Z3), the output shaft of described small teeth number difference planet gear reductor (21) and described pedestal (6) are connected.
6. intelligent five axis robot according to claim 5, it is characterized in that: described flip-flop movement mechanism (Z3) comprises that location is arranged at the 3rd servo motor (30) of described pedestal upper end and locates the second gear train and the hollow upset main shaft (31) that are arranged at described base interior, described the second gear train is made up of a pair of intermeshing the second gear, and this to the second gear respectively fixed cover be located on the output shaft of described the 3rd servo motor (30) and the outside of described upset main shaft (31).
7. intelligent five axis robot according to claim 6, it is characterized in that: described horicontal motion mechanism (Z4) and described actuating station rotational motion mechanism (Z5) are all carried in described flip-flop movement mechanism (Z3), and can be under the drive of described flip-flop movement mechanism (Z3) together the structure of rotation be: described principal arm (3) is made up of be all square the first principal arm and second principal arm of framework of cross section, described the first principal arm and the second principal arm are divided into the both sides of described pedestal (6), correspondence is fixedly connected with the two axial ends of described upset main shaft (31) respectively, and described the first principal arm, the second principal arm and upset main shaft (31) connect and jointly form an accommodating cavity in order to accommodating described horicontal motion mechanism (Z4) and described actuating station rotational motion mechanism (Z5).
8. intelligent five axis robot according to claim 7, it is characterized in that: the cross section of described telescopic arm (4) framework that is also square, and one end of described telescopic arm (4) is slidedly arranged in described the first principal arm along the length direction of described the first principal arm by described horicontal motion mechanism (Z4), the other end of described telescopic arm (4) stretches out described the first principal arm dorsad outside one end of described upset main shaft (31); Wherein:
The structure that one end of described telescopic arm (4) is slidedly arranged in described the first principal arm along the length direction of described the first principal arm by described horicontal motion mechanism (Z4) is: described horicontal motion mechanism (Z4) comprises the 4th servo motor (40), the first power transmission shaft (41) and the second ball screw assembly (42), wherein, described the 4th servo motor (40) location is placed in described the second principal arm, and the output shaft of described the 4th servo motor (40) is connected by an axle head of shaft coupling and described the first power transmission shaft (41), described the second ball screw assembly (42) comprises that location is placed in the second screw rod in described the first principal arm and is slidedly arranged on the second nut on described the second screw rod, one axle head of described the second screw rod is connected by another axle head of shaft coupling and described the first power transmission shaft (41), described the second nut and described telescopic arm (4) are connected.
9. intelligent five axis robot according to claim 8, it is characterized in that: described actuating station rotational motion mechanism (Z5) can drive described ring flange (5) around the structure of its central rotation to be: described actuating station rotational motion mechanism (Z5) comprises the 5th servo motor (50), the first tooth sector mechanism, worm speed reducer (51), coupling gear group (52), second driving shaft (53), drive socket (54) and the second tooth sector mechanism, wherein, described the 5th servo motor (50) location is placed in described the second principal arm, and the output shaft of described the 5th servo motor (50) can drive described worm speed reducer (51) running by described the first tooth sector mechanism, described coupling gear group (52) location is placed in described the first principal arm, and a gear fixed cover in described coupling gear group (52) is located on the output shaft of described worm speed reducer (51), its another gear is fixedly connected on one end of described second driving shaft (53) by gimbal coupling, described drive socket (54) is movably placed in described telescopic arm (4) and with described second driving shaft (53) and forms spline drived, and described drive socket (54) dorsad one end of described second driving shaft (53) also stretches out outside described telescopic arm (4), and be located by connecting in described ring flange (5) by described the second tooth sector mechanism.
10. intelligent five axis robot according to claim 9, is characterized in that: be installed with the second slide rail in the inner also level of described the first principal arm, described telescopic arm (4) is slidingly fitted and is connected with described the second slide rail; Another described the first tooth sector mechanism and the second tooth sector mechanism are intermeshing and be the gear composition of 90 degree by two.
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| CN201420043330.4U CN203697006U (en) | 2014-01-23 | 2014-01-23 | Intelligent five-shaft manipulator |
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| CN201420043330.4U CN203697006U (en) | 2014-01-23 | 2014-01-23 | Intelligent five-shaft manipulator |
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| CN104440896A (en) * | 2014-12-05 | 2015-03-25 | 重庆朗正科技有限公司 | Cylindrical coordinate robot |
| CN106141783A (en) * | 2015-03-23 | 2016-11-23 | 东莞市承恩自动化设备有限公司 | A kind of Novel multi-shaft industrial robot |
| CN104908026A (en) * | 2015-05-30 | 2015-09-16 | 中山火炬职业技术学院 | Automatic mechanical arm applied to material turnover |
| CN104908052A (en) * | 2015-05-30 | 2015-09-16 | 中山火炬职业技术学院 | Manipulator and automatic equipment adopting same |
| CN104890012A (en) * | 2015-05-30 | 2015-09-09 | 中山火炬职业技术学院 | Automatic mechanism hand drive mechanism used for material turnover |
| CN105710875A (en) * | 2016-04-05 | 2016-06-29 | 苏州盟川自动化科技有限公司 | Five-axis robot |
| CN105710875B (en) * | 2016-04-05 | 2018-03-13 | 苏州盟川自动化科技有限公司 | A kind of wu-zhi-shan pig |
| CN106216771A (en) * | 2016-08-11 | 2016-12-14 | 安庆晟扬精密机械零部件有限公司 | A kind of device for cutting steel plate |
| CN108723327A (en) * | 2018-06-11 | 2018-11-02 | 太仓鸿鑫精密压铸有限公司 | Microdiecast machine reclaimer robot |
| CN109129545A (en) * | 2018-08-21 | 2019-01-04 | 合肥工业大学 | A kind of cylindrical coordinate type automatic loading and unloading manipulator |
| CN110182581A (en) * | 2019-03-30 | 2019-08-30 | 唐山学院 | A kind of electromagnetic adsorption type saw blade conveying, turning device |
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