CN215146394U - Automatic feeding and assembling equipment of storage device - Google Patents

Abstract

The utility model relates to an automatic material loading rigging equipment of storage device, include: the storage device is respectively used for conveying the carrier and the parts; the assembly mechanism is positioned at the downstream of the storage device, and is internally provided with an assembly component which is used for grabbing parts and loading the parts into the carrier; the warehousing device is internally provided with a transition line body and a transfer assembly, the transition line body and the transfer assembly respectively move the carrier and the parts into the assembly mechanism, and the moving directions of the carrier and the parts are parallel to each other; the assembly mechanism comprises a transmission line body correspondingly connected with the transition line body, an assembly station is arranged on the transmission line body, and a part blanking station is arranged at one end of the transfer component close to the assembly mechanism; when the carrier on the transition line body is transmitted to the assembly station, the assembly picks the parts from the part blanking station and moves the parts to the assembly station, so that the parts are loaded into the carrier at the assembly station, and the automatic assembly processing is completed.

Description

Automatic feeding and assembling equipment of storage device

Technical Field

The utility model relates to a non-standard automation storage field, concretely relates to storage device's automatic feeding rigging equipment.

Background

In the non-standard automatic warehousing field, a warehousing device receives various parts with specific quota from different feeding parts, integrates the parts for transmission, transmits the parts in an integrated loading and transporting mode so as to realize lower transportation rate, and particularly stores the parts on a material tray in a warehousing assembly so as to grab the parts, the existing warehousing layout is not reasonable enough, so that the warehousing volume is increased, and in order to realize automatic warehousing so as to improve the production efficiency, the mechanical arm structure is required to realize automation, so that the structure of the whole equipment is complex.

Simultaneously, in the assembling process, when forming wholly at least two parts pressfitting together, it is known always to adopt pressurize mechanism to carry out the pressurize to whole work piece, and the utility model discloses the people finds to have following problem at least in the current assembly line course of working:

in the assembly process, a part needs to be loaded into another part, in one embodiment, the part stored in the storage assembly is loaded into the carrier, and before the part is loaded into the carrier, the part needs to be preprocessed by other stations, so that if the assembly processing is directly carried out after the carrier is loaded, firstly, the time required by loading the carrier is short, and the preprocessing and assembly time is long relative to the time required by loading the carrier, so that the carrier is accumulated, the normal assembly is influenced, and secondly, in a small area, the loading structure, the preprocessing mechanism and the assembly mechanism are difficult to be simultaneously arranged, so that the movement among the mechanisms is easy to generate interference.

In view of the above, it is necessary to develop an automatic feeding and assembling apparatus for a storage device, so as to solve the above problems.

SUMMERY OF THE UTILITY MODEL

To the weak point that exists among the prior art, the utility model discloses a main objective provides an automatic material loading rigging equipment of storage device, and it sets up buffer distance through the transitional wire body with moving the carrier, spare part parallel transmission to assembly in the subassembly, between the worker station to improve production efficiency.

Another object of the present invention is to provide an automatic feeding and assembling device for storage device, which is perpendicular to the conveying direction of the carrier and the tray, so that the carrier and the tray avoid interference during feeding.

In order to achieve the above objects and other advantages in accordance with the present invention, there is provided an automatic loading and assembling apparatus for a storage device, comprising:

the storage device is respectively used for conveying the carrier and the parts; and

the assembly mechanism is positioned at the downstream of the storage device and internally provided with an assembly component for grabbing parts and loading the parts into the carrier;

the warehousing device is internally provided with a transition line body and a transfer assembly, the transition line body and the transfer assembly respectively move the carrier and the parts into the assembly mechanism, and the moving directions of the carrier and the parts are parallel to each other;

the assembly mechanism comprises a transmission line body correspondingly connected with the transition line body, an assembly station is arranged on the transmission line body, and a part blanking station is arranged at one end, close to the assembly mechanism, of the transfer component;

and when the carrier on the transition line body is transmitted to the assembly station, the assembly picks the parts from the part blanking station and transfers the parts to the assembly station so as to load the parts into the carrier at the assembly station.

Preferably, the number of the transmission line bodies is two, the two transmission line bodies are arranged at two corresponding outer sides of the assembling component, and the transferring component is positioned between the two transition line bodies;

the warehousing device comprises a front end line body and a carrier warehousing assembly, wherein the front end line body is close to the upstream end of the transition line body, and the carrier warehousing assembly is used for grabbing carriers on the front end line body and transferring the carriers to the transition line body.

Preferably, the carrier warehousing assembly comprises a driving module and a grabbing module arranged on a power output end of the driving module;

a grabbing station is arranged on the front-end line body, and a carrier feeding station is arranged at the position of the upstream end of the transition line body;

and under the driving of the driving module, the grabbing module moves to the grabbing station to grab the carrier, and then alternately moves to the carrier feeding station on the two transition line bodies.

Preferably, the bin comprises:

the storage assembly is used for storing a material tray for bearing parts; and

the grabbing component is used for transferring the parts loaded on the material tray to the transferring component;

the storage assembly comprises a lifting part, and a material tray feeding station is arranged right above the lifting part;

the lifting part pushes the material tray to vertically move upwards to the material tray feeding station, and the grabbing component is used for grabbing parts in the material tray at the material tray feeding station.

Preferably, the warehousing assembly further comprises a material distribution part, wherein a material tray feeding station and a material tray recovery station are arranged on the material distribution part, and a material tray group formed by stacking material trays is arranged right below the material tray feeding station;

the material distribution part comprises a material taking module and a driving part, and the material taking module reciprocates between the material feeding station and the material tray recovery station under the driving of the driving part;

when the material taking module is positioned at the material tray feeding station, the lifting part pushes the material tray group, so that the material tray of which the material tray group is moved to the top end is positioned at the material tray feeding station, and the material taking module grabs the material tray at the top end of the material tray group;

when parts on the material tray in the material tray feeding station are taken out, the material taking module drives the empty material tray to move to the material tray recovery station, and the empty material tray is stacked under the material tray recovery station.

Preferably, the assembly component includes two mechanical arms and grabbing portions correspondingly mounted on the mechanical arms, and the two mechanical arms drive the grabbing portions thereon to transfer the parts on the transfer component to the assembly stations corresponding to the transmission line body.

Preferably, the bin comprises: the storage component and the grabbing component grab the parts carried in the material tray transmitted on the storage component through the grabbing component;

the warehousing assembly and the grabbing assembly are positioned between the two transition line bodies, and the number of the transferring assemblies corresponds to that of the transmission line bodies;

the mechanical arm drives the grabbing parts to grab parts from the corresponding transfer assembly and transfer the parts to the corresponding assembly stations, and the grabbing assembly grabs the parts on the storage assembly and then drives the parts to transfer to any transfer assembly for loading.

Preferably, the assembling mechanism further comprises a detection assembly and a film tearing assembly, and the detection assembly and the film tearing assembly are located on a moving path where the assembling assembly drives the parts to move from the transfer assembly to the corresponding assembling station;

the assembly grabs the parts and moves to the film tearing assembly to remove the surface film, then the assembly drives the parts to move to the detection assembly, and finally the parts are loaded into the carrier on the assembly station.

Preferably, a positioning bracket corresponding to the assembling station is arranged on the transmission line body, and the positioning bracket is positioned on one side of the upstream end of the transmission line body;

the upstream end department of the transmission line body installs the pressurize subassembly, through the weight of the weight module in the pressurize subassembly, to follow the carrier pressurize of the assembly spare part of transmission line body upper reaches inflow.

Preferably, the transfer assembly comprises a rail and a receiving tray sliding on the rail, and the receiving tray is used for receiving parts;

the part blanking station is arranged at one end of the track, and the other end, opposite to the track, of the track is provided with a part loading station;

the track comprises a linear motor, and the bearing disc is installed on the power output end of the linear motor, so that the bearing disc can reciprocate between the part blanking station and the part loading station.

Compared with the prior art, the beneficial effects of the utility model reside in that:

the utility model provides a storage device's automatic feeding rigging equipment sets up buffer distance through setting up the transition line body and moving the subassembly with carrier, spare part parallel transmission to assembly in, between the worker station, is convenient for improve automatic level of saying to improve production efficiency, convenient to use.

The above description is only an overview of the technical solution of the present invention, and in order to make the technical means of the present invention clearer and can be implemented according to the content of the description, the following detailed description is made with reference to the preferred embodiments of the present invention and accompanying drawings. The detailed description of the present invention is given by the following examples and the accompanying drawings.

Drawings

The accompanying drawings, which are included to provide a further understanding of the invention and are incorporated in and constitute a part of this application, illustrate embodiment(s) of the invention and together with the description serve to explain the invention without undue limitation to the invention. In the drawings:

fig. 1 is a schematic perspective view of an embodiment of the present invention;

FIG. 2 is an enlarged view of a portion of FIG. 1;

fig. 3 is a schematic perspective view of a storage device according to an embodiment of the present invention;

fig. 4 is a schematic perspective view of a storage module according to an embodiment of the present invention;

fig. 5 is a schematic perspective view of an assembly mechanism according to an embodiment of the present invention;

FIG. 6 is an enlarged view of a portion of FIG. 5;

fig. 7 is a schematic view of a first perspective three-dimensional structure of the pressure maintaining assembly according to an embodiment of the present invention;

fig. 8 is a schematic perspective view of a second viewing angle of the pressure maintaining assembly according to an embodiment of the present invention;

fig. 9 is a schematic view of a first perspective three-dimensional structure of the pressing portion according to an embodiment of the present invention;

fig. 10 is a schematic perspective view of a second perspective of the pressing portion according to an embodiment of the present invention;

fig. 11 is a partial schematic structural view of the pressing portion according to an embodiment of the present invention;

fig. 12 is a schematic perspective view of a ram module according to an embodiment of the present invention;

fig. 13 is a third perspective view illustrating a three-dimensional structure of the pressing portion according to an embodiment of the present invention;

fig. 14 is a force analysis diagram of the first pressing state according to an embodiment of the present invention;

fig. 15 is a force analysis diagram of the second pressing state according to an embodiment of the present invention.

Description of reference numerals:

1. a storage device;

11. a front end wire body; 111. a first transmission section; 112. a transfer unit; 113. a second transmission section;

12. a transition wire body;

13. a warehousing component; 131. a tray conveying part; 1311. a horizontal driving module; 1312. a charging tray bin; 132. a lifting part; 133. a material distributing part; 134. a material tray feeding station; 135. a tray recovery station;

14. a transfer component; 141. a track; 142. a bearing plate;

15. a grasping assembly;

16. a carrier storage assembly;

2. an assembly mechanism;

21. a transmission line body; 211. a transmission section; 212. positioning the bracket; 213. a stopper portion;

22. a detection component; 221. an upper detection unit; 222. a gantry; 223. a linear actuator;

23. assembling the components;

24. a film tearing assembly;

25. a pressure maintaining component;

251. a press-fit portion;

2511. a pressure head module; 25111. a substrate; 25112. a pressure maintaining block; 25113. a hollow cavity; 25114. a first vacancy; 25115. a second vacancy;

2512. a drive plate;

2513. a counterweight module; 25131. a mounting seat; 25132. a balancing weight; 35133. a counterweight column;

2514. pressing the driver;

2515. a support;

2516. a guide module;

252. a connecting seat;

2521. a limiting surface;

2522. a through hole;

2523. a positioning column;

253. a jacking portion;

2531. a jacking driver; 2532. and (4) jacking the plate.

Detailed Description

The technical solutions in the embodiments of the present invention will be described clearly and completely with reference to the accompanying drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments in the present invention, all other embodiments obtained by a person skilled in the art without creative work belong to the protection scope of the present invention.

In the drawings, the shape and size may be exaggerated for clarity, and the same reference numerals will be used throughout the drawings to designate the same or similar components.

Unless defined otherwise, technical or scientific terms used herein shall have the ordinary meaning as understood by one of ordinary skill in the art to which this invention belongs. The use of "first," "second," and similar terms in the description of the present application does not denote any order, quantity, or importance, but rather the terms are used to distinguish one element from another. Also, the use of the terms "a," "an," or "the" and similar referents do not denote a limitation of quantity, but rather denote the presence of at least one. The word "comprise" or "comprises", and the like, means that the element or item listed before "comprises" or "comprising" covers the element or item listed after "comprising" or "comprises" and its equivalents, and does not exclude other elements or items. "upper", "lower", "left", "right", and the like are used merely to indicate relative positional relationships, and when the absolute position of the object being described is changed, the relative positional relationships may also be changed accordingly.

In the following description, terms such as center, thickness, height, length, front, back, rear, left, right, top, bottom, upper, lower, etc., are defined with respect to the configurations shown in the respective drawings, and in particular, "height" corresponds to a dimension from top to bottom, "width" corresponds to a dimension from left to right, "depth" corresponds to a dimension from front to rear, which are relative concepts, and thus may be varied accordingly depending on the position in which it is used, and thus these or other orientations should not be construed as limiting terms.

Terms concerning attachments, coupling and the like (e.g., "connected" and "attached") refer to a relationship wherein structures are secured or attached, either directly or indirectly, to one another through intervening structures, as well as both movable or rigid attachments or relationships, unless expressly described otherwise.

According to an embodiment of the present invention, in combination with the illustration of fig. 1 and 2, it can be seen that an automatic feeding and assembling device for a storage device comprises: a storage device 1 for transporting carriers and parts, respectively; and

the assembly mechanism 2 is positioned at the downstream of the storage device and internally provided with an assembly component 23 for grabbing parts and loading the parts into a carrier;

a transition line body 12 and a transfer component 14 are arranged in the storage device 1, the transition line body 12 and the transfer component 14 respectively move a carrier and a part into the assembly mechanism 2, and the moving directions of the carrier and the part are parallel to each other;

the assembling mechanism 2 comprises a transmission line body 21 correspondingly connected with the transition line body 12, an assembling station is arranged on the transmission line body 21, and a part blanking station is arranged at one end, close to the assembling mechanism 2, of the transferring component 14;

when the carriers on the transitional wire body 12 are conveyed to the assembly station, the assembly 23 grabs the parts from the part blanking station and transfers the parts to the assembly station, so that the parts are loaded into the carriers at the assembly station.

In the process of using the automatic assembling equipment, parts need to be loaded into the carriers, and before the parts are loaded into the carriers, the parts need to be preprocessed, so that the loading time of the carriers is not matched with the loading time of the parts, the carriers are easy to accumulate, meanwhile, since the parts are processed by the preprocessing mechanism and the assembling mechanism, the number of the structures is large, the parts in the warehousing device 1 and the assembling mechanism 2 are difficult to be arranged in a small area range, therefore, a buffer distance is formed by the transition line body 12 and the transferring component 14, specifically, the distance from the tools on the transition line body 12 to the assembling mechanism 2 is larger than the distance from the parts on the transferring component 14 to the assembling mechanism 2, so that the loading speed of the carriers is matched with the loading speed of the parts, thereby improving the production efficiency and improving the resource utilization rate.

In a preferred embodiment, the number of the transfer line bodies 21 is two, two transfer line bodies 21 are arranged at two corresponding outer sides of the assembling component 23, and the transferring component 14 is located between two transition line bodies 12; the carrier is transmitted through the two transition line bodies 12 and the transmission line body 21, so that the loading efficiency of the carrier is improved;

further, the warehousing device 1 includes a front-end line body 11 and a carrier warehousing assembly 16, the front-end line body 11 is disposed near an upstream end of the transition line body 12, and the carrier warehousing assembly 16 is configured to grasp a carrier on the front-end line body 11 and transfer the carrier onto the transition line body 12.

Specifically, the carrier storage assembly 16 is horizontally arranged above two transition wires 12, and the front wire 11 is arranged below the transition wires 12;

the carrier warehousing component 16 comprises a driving module and a grabbing module arranged on a power output end of the driving module; a grabbing station is arranged on the front-end line body 11, and a carrier feeding station is arranged at the position of the upstream end of the transition line body 12; under the driving of the driving module, the grabbing module moves to the grabbing station to grab the carrier, and then alternately moves to the carrier feeding station on the two transition line bodies 12.

The front end wire body 11 comprises a first transmission part 111 and a second transmission part 113, wherein the first transmission part 111 is connected with the second transmission part 113 to form a transmission channel of the front end wire body 11; the first transmission part 111 and the second transmission part 113 are vertically arranged, a transfer part 112 is arranged at an included angle formed by the first transmission part 111 and the second transmission part 113, the second transmission part 113 is located below the two transition line bodies 12, the carrier on the first transmission part 111 is grabbed by the transfer part 112 and transferred to the second transmission part 113, and then the carrier storage component 16 is grabbed and transmitted to the second transmission part 113 and alternately placed on the two transition line bodies 12, so that the loading process of the carrier is realized.

In a preferred embodiment, the carriers on the transition wire body 12 and the transfer wire body 21 are transferred in a horizontal direction, and the stocker 1 comprises:

the storage assembly 13 is used for conveying a material tray for bearing parts; and

a gripping unit 15 for transferring the components placed on the tray to the transfer unit 14;

the transition line body 12 drives the carrier to move along a linear direction in a horizontal plane, the warehousing component 13 comprises a lifting part 132, and a tray feeding station 134 is arranged right above the lifting part 132;

the lifting part 132 pushes the tray, so that the tray moves to the tray loading station 134 in the vertical upward direction, and the grabbing component 15 grabs the parts in the tray from the tray loading station 134.

The transfer assembly 14 is located between the two transition line bodies 12, and the periphery of the transfer assembly is limited by the transition line bodies 12 and the front end line body 11, so that the parts are difficult to be transferred from the horizontal plane direction, and in order to load the parts, a vertical direction loading mode is adopted, so that the interference between loading structures is avoided, and meanwhile, the buffer distance for transferring the parts to the assembly mechanism 2 is shortened.

Further, the warehousing assembly 13 further comprises a material distribution portion 133, wherein a material tray feeding station 134 and a material tray recovery station 135 are arranged on the material distribution portion 133, and a material tray group formed by stacking material trays is arranged right below the material tray feeding station 134;

the material distributing part 133 comprises a material taking module and a driving part, and the material taking module is driven by the driving part to move back and forth between the material tray feeding station 134 and the material tray recycling station 135;

when the material taking module is located at the material tray loading station 134, the lifting part 132 pushes against the material tray group, so that the material tray of which the material tray group is moved to the top end is located at the material tray loading station 134, and the material taking module grabs the material tray of the top end of the material tray group;

when parts on the material tray in the material tray loading station 134 are completely taken out, the material taking module drives an empty material tray to move to the material tray recovery station 135, and the empty material tray is stacked right below the material tray recovery station 135; specifically, a tray conveying part 131 for receiving a tray is respectively arranged below the tray recovery station 135 and the tray loading station 134;

the tray conveying part 131 comprises a tray bin 1312, trays are placed in the tray bin 1312, and the lifting part 132 extends into the bottom of the trays in the tray bin 1312 to lift the trays;

furthermore, the tray conveying part 131 further includes a horizontal driving module 1311, the horizontal driving module 1311 drives two tray silos 1312 simultaneously, the two tray silos 1312 are arranged along a direction perpendicular to the moving direction of the material taking module, and the two tray silos 1312 alternately move to a position right below the tray loading station 134 or the tray recovery station 135 under the driving of the horizontal driving module 1311.

The assembly component 23 includes two mechanical arms and grabbing portions correspondingly mounted on the mechanical arms, and the two mechanical arms drive the grabbing portions thereon to move the parts on the transfer component 14 to the assembly stations corresponding to the transmission line 21.

The magazine 1 comprises: the storage component 13 and the grabbing component 15 grab the parts in the material tray conveyed on the storage component 13 through the grabbing component 15;

the warehousing component 13 and the grabbing component 15 are located between the two transition line bodies 12, and the number of the transferring components 14 corresponds to the number of the transmission line bodies 21;

the mechanical arm drives the grabbing parts to grab parts from the corresponding moving and loading assembly 14 and move the parts to the corresponding assembly stations, and the grabbing assembly 15 grabs the parts on the storage assembly 13 and then drives the parts to move and load the parts to any moving and loading assembly 14.

The transfer unit 14 includes a rail 141 and a tray 142 sliding on the rail 141, and the tray 142 is used for receiving parts;

the part blanking station is arranged at one end of the rail 141, and the other end opposite to the rail 141 is provided with a part loading station;

the rail 141 includes a linear motor, and the receiving tray 142 is mounted on a power output end of the linear motor, so that the receiving tray 142 reciprocates between the component blanking station and the component loading station.

In a preferred embodiment, the assembly mechanism 2 further comprises:

an assembling component 23 for picking up the parts from the transferring component 14 and transferring the parts to the assembling station; and

a detection assembly 22 located on a moving path of the assembly 23 for grasping the parts;

an assembly station and a pressure maintaining station are sequentially arranged on the transmission line body 21 along the transmission direction of the transmission line body; a positioning bracket 212 and a pressure maintaining assembly 25 are arranged on the transmission line body 21 to correspond to the assembling station and the pressure maintaining station, the positioning bracket 212 is used for limiting the position of a carrier, and the assembling assembly 23 grabs parts and then transfers the parts to the carrier on the positioning bracket 212;

specifically, the positioning bracket 212 is located on the transmission line body 21, the positioning bracket 212 is close to the upstream end of the transmission line body 21, an assembly hole penetrating through the positioning bracket 212 from top to bottom is formed in the top of the positioning bracket 212, a lifting module is further arranged on the transmission line body 21, the lifting module is located right below the assembly hole, and the carrier on the transmission line body 21 is pushed by the lifting module, so that the carrier is separated from the transmission line body 21 and gradually approaches to the top of the positioning bracket 212;

when the lifting module lifts the carrier transported on the transmission line body 21 to abut against the top of the positioning bracket 212, the mounting position on the carrier corresponds to the position of the assembly hole of the positioning bracket 212, so that the assembly component 23 can pass through the assembly hole to place the part on the carrier.

The detecting assembly 22 includes an upper detecting portion 221 and a lower detecting portion 224, the lower detecting portion 224 is disposed near the positioning bracket 212, the upper detecting portion 221 is located above the positioning bracket 212, the upper detecting portion 221 detects the carrier through the mounting hole, the upper detecting portion 221 and the lower detecting portion 224 include a visual detector and a driver for adjusting the focal length;

it should be noted that, since the assembly component 23 passes through the assembly hole to place the component on the carrier, and the upper detection portion 221 detects the carrier through the assembly hole, the assembly component 23 and the upper detection portion 221 are prone to generate interference during the working process, the assembly component 23 and the upper detection portion 221 are prone to generate collision, which results in failure of the machining process, and even damage to the assembly component 23 and the upper detection portion 221;

in order to avoid the above problem, when the carrier position needs to be detected, the upper detection portion 221 is driven by a linear driver 223, so that the upper detection portion 221 moves to a position right above the positioning bracket 212, and after the detection, the upper detection portion 221 moves away from the positioning bracket 212, so as to give way to the assembly component 23, thereby ensuring the normal use of the assembly device.

The detection assembly 22 further comprises a gantry 222, which is closely disposed at the positioning bracket 212; the linear driver 223 is installed on the gantry 222, and the upper detection part 221 is installed on the power output end of the linear driver 223; the linear driver 223 drives the upper detection part 221 to reciprocate along a linear direction, and the upper detection part 221 can move to the position right above the assembly hole;

the gantry 222 is located at one side of the conveyor line body 21, and a driving direction of the linear driver 223 is parallel to a conveying direction of the conveyor line body 21, so that the upper detection part 221 moves along the conveying direction of the conveyor line body 21;

the carriers and the parts grabbed on the assembly 23 are respectively detected by the upper detection part 221 and the lower detection part 224, wherein specifically, after the parts grabbed by the assembly 23 pass above the lower detection part 224, the lower detection part 224 detects the parts on the assembly 23, so as to ensure the positions of the parts, and meanwhile, the upper detection part 221 positions the positions of the carriers, so that the assembly precision is improved;

further, after the assembly is completed, the upper detection part 221 is driven by the linear driver 223 to move to the assembly station again, and the position of the component on the loading tool is detected to detect the assembly quality, so that the precision of the component processed by the assembly device is higher.

The assembling device further comprises a film tearing assembly 24, thin films are coated on parts, the film tearing assembly 24 is used for clamping the thin films and peeling the thin films from the parts when the assembling assembly 23 is far away from the film tearing assembly 24, and the film tearing assembly 24 is located on a moving path of the assembling assembly 23 for grabbing the parts;

the parts grabbed by the assembling component 23 move to the position of the film tearing component 24, the film tearing component 24 clamps the film, and the film is peeled off from the parts along with the assembling component 23 driving the parts to be away from the film tearing component 24.

In a preferred embodiment, the film tearing assembly 24 and the detecting assembly 22 are disposed on two corresponding sides of the transmission line body 21, and the assembling assembly 23 is located on the same side of the transmission line body 21 on which the film tearing assembly 24 is disposed, so as to avoid interference between the assembling assembly 23 and the upper detecting portion and/or the gantry 222 during movement, and meanwhile, the assembling device is disposed on two sides of the transmission line body 21 to reasonably utilize space, so that the assembling device is more compact.

In a preferred embodiment, the assembly 23 includes a robot arm and a suction nozzle installed on a power output end of the robot arm, the suction nozzle is driven by the robot arm to move, and the suction nozzle is used for sucking parts.

The transmission line body 21 comprises two transmission parts 211 which are oppositely arranged, a transmission belt for bearing the carrier is arranged on the transmission parts 211, and the transmission belt can drive the carrier placed on the transmission belt to move along with the movement of the transmission belt;

a stopping part 213 is arranged between the two transmission parts 211, the stopping part 213 is correspondingly arranged at the assembling station and the pressure maintaining station, and the carrier moving on the transmission parts 211 is limited by the stopping part 213, so that the carrier is limited at the assembling station or the pressure maintaining station.

The number of the pressure maintaining assemblies 25 is not less than two, and the two pressure maintaining assemblies 25 are sequentially arranged on the transmission line body 21 along the transmission direction of the transmission line body 21.

In the process of using the assembling device, because the time consumed in the process that the assembling component 23 grabs the part and tears the film off and installs the film in the carrier is less than the time required by the pressure maintaining component 25 for maintaining the pressure of the part on the carrier, if the pressure maintaining component 25 does not complete the pressure maintaining, the carrier which is processed by the assembling component 23 and is equipped with the part is accumulated on the transmission line 21 between the positioning bracket 212 and the pressure maintaining component 25, and the number of the accumulated carriers is gradually increased, in order to avoid the situation of large amount of accumulation, the two carriers are maintained by the two pressure maintaining components 25, so that the carrier processed by one assembling component 23 corresponds to the two pressure maintaining components 25, the layout is optimized, the pressure maintaining is matched with the assembling processing, the production efficiency is improved, and the production ratio is higher.

In a preferred embodiment, the pressure maintaining assembly 25 comprises: a connecting seat 252 having a top end provided with a limiting surface 2521 for receiving components; and

the pressing portion 251 is located above the limiting surface 2521;

correspondingly, the pressing portion 251 includes a pressing head module 2511 and at least two groups of weight modules 2513, the weight modules 2513 press down the top end of the pressing head module 2511, so that the pressing head module 2511 presses down on the component, thereby driving the component to adjust from an inclined state to a balanced state;

in a preferred embodiment, the number of the weight modules 2513 is two; the pressing head module 2511 is simultaneously installed at the bottom of the two counterweight modules 2513;

the pressing head module 2511 comprises a base plate 25111 and a pressure maintaining block 25112 formed by extending outwards from one side surface of the base plate 25111, the weight module 2513 presses downwards on the other corresponding side surface of the base plate 25111, and the two weight modules 2513 are received on the base plate 25111;

specifically, the pressure maintaining block 25112 is pressed on a circumferential region of the component, and a center line of gravity of each set of the weight modules 2513 is located outside the pressure maintaining block 25112.

In the process of assembling parts, due to the shape of the parts, the assembling position is not at an ideal position, a pressing mechanism is needed to press and adjust the position of a workpiece, and meanwhile, the workpiece is connected more stably in a pressure maintaining mode; when the component is assembled, the component can be in an inclined state or a balanced state, the inclined state is that the component inclines relative to a pressing surface of the pressing head module 2511, so that the contact area between the component and the pressing head module 2511 is small, and the balanced state is that the levelness of the component is consistent with the pressing surface of the pressing head module 2511; when the parts are in a balanced state, each set of the weight modules 2513 acts on the corresponding region of the pressing head module 2511 for pressing the parts.

The specific pressure maintaining principle comprises the following steps: when the component is in an inclined state, as shown in fig. 14, the vertex position of the component inclination is a position abutting against the pressing head module 2511, and at this time, because the two counterweight modules 2513 press down on the pressing head module 2511, at this time, the gravity borne by the position of the component abutting against the pressing head module 2511 is the sum G of the gravity of the two counterweight modules 2513, and the supporting force FN' and G of the position of the component abutting against the pressing head module 2511 are the same for the pressing head module 2511, therefore, when the component is in the inclined state, the acting force exerted by the pressing head module 2511 on the component in the abutting position is larger, so that the component can deflect to a balanced state under the driving of the acting force.

When the component is in a balanced state, as shown in fig. 15, since the center line of gravity of each group of the weight modules 2513 is located outside the pressure maintaining block 25112, the gravity G of each group of the weight modules 2513 corresponds to the supporting force FN of the contact portion between the adjacent pressure maintaining block 25112 and the component, so that the two weight modules 2513 respectively apply acting forces to the two portions on the pressure maintaining block 25112, and the gravity acting on the pressure maintaining block 25112 is G, where G > G; therefore, when the component is in different states, the gravity of the counterweight module 2513 on the component is different, so as to meet different pressures required in the process of adjusting the position of the component or maintaining the pressure.

The pressure maintaining block 25112 is provided with a hollow cavity 25113 to form a pressing structure with an annular protrusion of the pressure maintaining block 25112, so that the pressure maintaining block 25112 is pressed on a circumferential region of a component.

The pressure maintaining block 25112 is provided with a concave empty position, the empty hole is used for avoiding the spare part, the spare part is also provided with a wearing part, the wearing part is easy to be damaged by pressing, the empty position is formed at the position corresponding to the wearing part on the spare part, and the damage of the wearing part by pressing is avoided.

Specifically, the vacancy positions include a first vacancy position 25114 and a second vacancy position 25115, the pressure-holding block 25112 is of a rectangular structure, and the first vacancy position 25114 and the second vacancy position 25115 are respectively arranged at two adjacent corners of the pressure-holding block 25112.

The pressing portion 251 includes a guiding module 2516, and the pressing head 2511 is pressed on the component under a driving force, and the weight module 2513 is limited by the guiding module 2516 to slide in a vertical direction.

The pressing part 251 further includes a pressing driver 2514 and a driving board 2512 installed on a power output end of the pressing driver 2514, the pressing driver 2514 is installed on the limiting surface 2521, and the pressing driver 2514 is used for providing a driving force for pressing the pressing head module 2511 on a component;

the weight module 2513 is slidably connected with the driving plate 2512 through the guide module 2516, and the pressing driver 2514 drives the driving plate 2512 to move in a direction parallel to the sliding direction of the driving plate 2512; the pressing driver 2514 drives the driving plate 2512 to drive the pressing head module 2511 to move downwards until the pressing head module 2511 is abutted to the component, and when the pressing driver 2514 continues to drive the driving plate 2512 to move downwards, the pressing head module 2511 slides upwards relative to the driving plate 2512, so that the gravity of the counterweight module 2513 presses the component downwards.

The fitting device further includes a lifting portion 253, the lifting portion 253 being mounted on the coupling seat 252 so as to be located below the stopper surface 2521; in a preferred embodiment, the connecting seat 252 is C-shaped, the limiting surface 2521 forms a top structure of the connecting seat 252, and the lifting portion 253 is located in a hollow cavity of the connecting seat 252;

a driving force is provided by the lifting portion 253 to drive the component to move, the component moves upward to enable the component to abut against the pressing head module 2511, and the pressing head module 2511 is continuously pushed to move upward to the counterweight module 2513 to press the component under the gravity.

The limiting surface 2521 is provided with a through hole 2522, the jacking portion 253 includes a jacking driver 2531 and a jacking plate 2532 installed on the jacking driver 2531, the jacking plate 2532 is used for receiving a part, under the driving of the jacking driver 2531, the jacking plate 2532 drives the part to be lifted to be attached to the lower surface of the jacking plate 2532, and the pressing head module 2511 penetrates through the through hole 2522 and is pressed on the part.

In the preferred embodiment, the assembling apparatus is provided with the lifting portion 253 and the pressing actuator 2514 at the same time, the pressing portion 251 further includes a support 2515 for receiving the pressing portion 251, the support 2515 is mounted on the upper surface of the limiting surface 2521, the pressing actuator 2514 is mounted on the support 2515, and the driving plate 2512 and the support 2515 are connected through the guiding module 2516, so that the driving plate 2512 slides on the support 2515.

The lifting part 253 is arranged below the limiting surface 2521, a positioning column 2523 for limiting the position of a part is arranged on the lower surface of the limiting surface 2521, and the lifting part 253 pushes the carrier to enable the carrier to be sleeved on the positioning column 2523, so that the carrier is positioned, and the assembly precision is improved.

The counterweight module 2513 comprises a mounting seat 25131 and a counterweight 25132 placed on the mounting seat 25131, and the counterweight module 2513 is circumferentially arranged around the centerline direction of the pressure head module 2511; in the preferred embodiment, the two counterweight modules 2513 are symmetrically arranged along the center line of the pressing head module 2511;

the mounting seat 25131 is the L type, the balancing weight 25132 holds the corner of mounting seat 25131, the pressure head module 2511 is installed the bottom of mounting seat 25131, install the restriction on the mounting seat 25131 the counter weight post 35133 of balancing weight 25132, the balancing weight 25132 cover is established on the counter weight post 35133, it provides gravity pressfitting spare part to pile up the balancing weight 25132 for the pressure head module 2511.

While the embodiments of the invention have been disclosed above, it is not limited to the applications listed in the description and the embodiments, which are fully applicable in all kinds of fields where the invention is suitable, and further modifications may readily be made by those skilled in the art, and the invention is therefore not limited to the specific details without departing from the general concept defined by the claims and the scope of equivalents.

Claims (10)

1. An automatic feeding and assembling equipment of a storage device is characterized by comprising:

a storage device (1) for transporting the carriers and the parts; and

an assembly mechanism (2) located downstream of the magazine and having an assembly unit (23) for gripping components and loading them into the carrier;

the warehousing device (1) is internally provided with a transition line body (12) and a transferring component (14), the transition line body (12) and the transferring component (14) respectively move a carrier and parts into the assembling mechanism (2), and the moving directions of the carrier and the parts are parallel to each other;

the assembling mechanism (2) comprises a transmission line body (21) correspondingly connected with the transition line body (12), an assembling station is arranged on the transmission line body (21), and a part blanking station is arranged at one end, close to the assembling mechanism (2), of the transfer component (14);

when the carriers on the transitional wire body (12) are transmitted to the assembly station, the assembly (23) grabs the parts from the part blanking station and transfers the parts to the assembly station so as to load the parts into the carriers at the assembly station.

2. The automatic feeding and assembling equipment according to claim 1, wherein the number of said transmission line bodies (21) is two, two transmission line bodies (21) are arranged at two corresponding outer sides of said assembling component (23), and said transferring component (14) is located between two said transition line bodies (12);

the warehousing device (1) comprises a front-end line body (11) and a carrier warehousing assembly (16), wherein the front-end line body (11) is arranged close to the upstream end of the transition line body (12), and the carrier warehousing assembly (16) is used for grabbing a carrier on the front-end line body (11) and transferring the carrier onto the transition line body (12).

3. The automated loading assembly apparatus according to claim 2, wherein the carrier stocker assembly (16) comprises a drive module and a gripper module mounted on a power output end of the drive module;

a grabbing station is arranged on the front end line body (11), and a carrier feeding station is arranged at the position of the upstream end of the transition line body (12);

under the driving of the driving module, the grabbing module moves to the grabbing station to grab the carriers and then alternately moves to the carrier feeding station on the two transition line bodies (12).

4. The automated feeding and assembling plant according to any one of claims 1 to 3, wherein said warehouse (1) comprises:

the storage component (13) is used for storing a tray for bearing parts; and

a gripping means (15) for transferring the parts placed on the tray to the transfer means (14);

the transition line body (12) drives the carrier to move along a straight line direction in a horizontal plane, the warehousing component (13) comprises a lifting part (132), and a material tray feeding station (134) is arranged right above the lifting part (132);

the lifting part (132) pushes the tray to vertically move upwards to the tray feeding station (134), and the grabbing component (15) grabs parts in the tray from the tray feeding station (134).

5. The automatic feeding and assembling equipment according to claim 4, wherein the warehousing assembly (13) further comprises a material distribution part (133), a tray feeding station (134) and a tray recovery station (135) are arranged on the material distribution part (133), and a tray group formed by stacking trays is arranged right below the tray feeding station (134);

the material distribution part (133) comprises a material taking module and a driving part, and the material taking module moves back and forth between the material tray feeding station (134) and the material tray recovery station (135) under the driving of the driving part;

when the material taking module is positioned at the material tray feeding station (134), the lifting part (132) pushes the material tray group, so that the material tray of which the top end is moved to the material tray group is positioned at the material tray feeding station (134), and the material taking module grabs the material tray of the top end of the material tray group;

when parts on the material tray in the material tray feeding station (134) are taken out, the material taking module drives the empty material tray to move to the material tray recovery station (135), and the empty material tray is stacked under the material tray recovery station (135).

6. The automated feeding and assembling equipment according to claim 2, wherein the assembling component (23) comprises two robot arms and grabbing portions correspondingly mounted on the robot arms, and the two robot arms drive the grabbing portions thereon to transfer the parts on the transferring component (14) to the assembling stations corresponding to the conveying line body (21).

7. The automated feeding and assembling plant according to claim 6, wherein said magazine (1) comprises: the storage component (13) and the grabbing component (15) grab the parts in the material tray conveyed on the storage component (13) through the grabbing component (15);

the warehousing assembly (13) and the grabbing assembly (15) are positioned between the two transition line bodies (12), and the number of the transferring assemblies (14) corresponds to the number of the transmission line bodies (21);

the mechanical arm drives the grabbing parts to grab parts from the corresponding shifting assembly (14) and shift the parts to the corresponding assembly stations, and after the grabbing assembly (15) grabs the parts on the storage assembly (13), the parts are driven to be shifted to any shifting assembly (14) for feeding.

8. The automatic feeding and assembling equipment according to claim 6, wherein the assembling mechanism (2) further comprises a detection component (22) and a film tearing component (24), and the detection component (22) and the film tearing component (24) are positioned on a moving path of the assembling component (23) for driving parts to move from the transfer component (14) to the corresponding assembling station;

wherein, the surface of the part from the storage component (13) is coated with a film, the assembly component (23) grabs the part and moves to the film tearing component (24) to remove the surface film, then the assembly component (23) drives the part to move to the detection component (22), and finally the part is loaded into the carrier on the assembly station.

9. The automated feeding assembly apparatus according to any one of claims 1 to 3, wherein a positioning bracket (212) corresponding to the assembly station is arranged on the conveyor line body (21), the positioning bracket (212) being located on one side of an upstream end of the conveyor line body (21);

the upstream end department of the transmission line body (21) installs pressurize subassembly (25), through the weight of counter weight module (2513) in the pressurize subassembly (25), to follow the carrier pressurize of flowing into assembly spare part in the transmission line body (21) upper reaches.

10. The automated feeding assembly apparatus according to any one of claims 1 to 3, wherein the transfer assembly (14) comprises a rail (141) and a tray (142) sliding on the rail (141), the tray (142) being used for receiving parts;

the part blanking station is arranged at one end of the track (141), and the other end, opposite to the track (141), is provided with a part loading station;

the rail (141) comprises a linear motor, and the bearing disc (142) is arranged on the power output end of the linear motor, so that the bearing disc (142) can reciprocate between the part blanking station and the part loading station.

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