A cage feeding device for bearing production

Abstract

The utility model relates to a cage feeding device for bearing production, which relates to the feeding field of bearing production, and includes a base, a transport component and a feeding component. The base has a predetermined working size and supporting force. The transport component is placed on the working surface of the base, and has a predetermined working length and supporting force. The feeding component includes a positioning and pushing unit placed on the working surface of the base, with a predetermined working distance between the transport component and the positioning and pushing unit; and a material control feeding unit placed on the working surface of the base, with a predetermined working distance between the positioning and pushing unit and the positioning and pushing unit. There is a predetermined height difference between the material control feeding unit and the positioning and pushing unit, and the material control feeding unit is a multi-layer structure and has a predetermined inclination angle. The present application can autonomously take out the cage on the opposite working surface during the cage feeding process through the material control feeding unit, which is convenient for manual adjustment to ensure the quality and speed of subsequent operations.

Description

Technical Field

[0001] The utility model relates to the field of feeding of bearing production, in particular to a cage feeding device for bearing production. Background Art

[0002] Cage (i.e. bearing cage, also known as bearing retainer) refers to a bearing part that partially wraps all or part of the rolling elements and moves with them. It is used to isolate the rolling elements and usually guide the rolling elements and keep them in the bearing. Commonly used cages are mainly divided into metal cages and non-metal cages according to the type of material. There are also composite cages. Bearing cages for special purposes should also meet the requirements of special working conditions. Such as high temperature resistance, corrosion resistance, self-lubrication (used in vacuum) or non-magnetic. When producing bearings, the bearing steel balls and cages need to be assembled and then processed.

[0003] The common cage feeding device in the prior art can only realize ordinary sequential feeding operation, and cannot identify the working surface of the cage. There will be a phenomenon that the working surface of the cage is different during the feeding process, which affects the subsequent operation progress and quality. Utility Model Content

[0004] Purpose of the utility model: to provide a cage feeding device for bearing production to solve the above problems existing in the prior art.

[0005] Technical solution: A bearing production retainer feeding device includes three components: a base, a transport component and a feeding component. The base has a predetermined operating size and supporting force, and can perform corresponding load-bearing and position-limiting operations. The transport component is placed on the working surface of the base, has a predetermined working length and supporting force, and can perform corresponding transportation operations. The feeding component includes a positioning and pushing unit placed on the working surface of the base, with a predetermined working distance between it and the transport component; and a material control feeding unit placed on the working surface of the base, with a predetermined working distance between it and the positioning and pushing unit. There is a predetermined height difference between the material control feeding unit and the positioning and pushing unit, and the material control feeding unit is a multi-layer structure with a predetermined inclination angle.

[0006] In a further embodiment, the transport assembly includes two components: a positioning plate and a transport crawler. The positioning plate is placed on the working surface of the base, has a predetermined working size and supporting force, and can perform corresponding positioning and supporting operations. The transport crawler is placed on the working surface of the positioning plate, and the overall working length is adapted to the working length of the positioning plate, and can perform corresponding transport operations.

[0007] In a further embodiment, the positioning and pushing unit includes two components: a special-shaped clamping plate and a special-shaped pushing plate. The special-shaped clamping plate is placed on the working surface of the base, and is wavy, has a predetermined working size and supporting force, and can perform corresponding material storage operations. The special-shaped pushing plate is connected to the base through a telescopic push rod, and is reversely wavy, adapted to the special-shaped clamping plate, and is attached to the working surface of the special-shaped clamping plate, and can be adjusted accordingly along the working surface of the special-shaped clamping plate.

[0008] In a further embodiment, a baffle is provided on one side of the positioning plate, the baffle has a predetermined working length, and a predetermined working distance is left between the baffle and the transport crawler.

[0009] In a further embodiment, the material control and feeding unit includes three components: a support column, a connecting column, and a multi-layer material control group. The support column is placed on the working surface of the base, has a predetermined working length and supporting force, and is in multiple numbers and symmetrically distributed on the working surface of the base. Both ends of the connecting column are connected to the support column, have a predetermined working length and supporting force, and are used for mutual communication between the multiple support columns. The multi-layer material control group is placed on the working surface of the connecting column and is movably connected to the connecting column, and can perform a predetermined range of movable adjustment operations, and is in multiple numbers.

[0010] In a further embodiment, the multi-layer material control group includes two parts, a first material control plate and a second material control plate, and the first material control plate and the second material control plate are both multiple; the working surfaces of the first material control plate and the second material control plate are both provided with inclined material control plates; the inclined material control plates have a predetermined inclination angle, and are multiple; the first material control plate and the second material control plate are respectively placed on different working surface surfaces of the connecting column.

[0011] Beneficial effects: The utility model relates to a cage feeding device for bearing production, which relates to the feeding field of bearing production, and includes three components: a base, a transport component and a feeding component. The base has a predetermined working size and supporting force, and can perform corresponding load-bearing and position-limiting operations. The transport component is placed on the working surface of the base, has a predetermined working length and supporting force, and can perform corresponding transportation operations. The feeding component includes a positioning and pushing unit placed on the working surface of the base, and a predetermined working distance is left between the positioning and pushing unit; and a material control feeding unit placed on the working surface of the base, and a predetermined working distance is left between the positioning and pushing unit. There is a predetermined height difference between the material control feeding unit and the positioning and pushing unit, and the material control feeding unit is a multi-layer structure and has a predetermined inclination angle. The present application can autonomously take out the cage on the opposite working surface during the cage feeding process through the material control feeding unit, which is convenient for manual adjustment to ensure the quality and speed of subsequent operations. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 It is an overall schematic diagram of this application.

[0013] Figure 2 It is an enlarged schematic diagram of some components of this application.

[0014] Figure 3 It is a schematic diagram of some components of this application.

[0015] The reference numerals in the figure are: base 1, positioning plate 2, transport crawler 3, special-shaped clamping plate 4, special-shaped pushing plate 5, telescopic push rod 6, support column 7, connecting column 8, first material control plate 9, second material control plate 10, inclined material control plate 11, baffle 12. DETAILED DESCRIPTION

[0016] In the following description, a large number of specific details are given to provide a more thorough understanding of the utility model. However, it is obvious to those skilled in the art that the utility model can be implemented without one or more of these details. In other examples, in order to avoid confusion with the utility model, some technical features known in the art are not described. Embodiment 1

[0017] The bearing production cage feeding device proposed in this embodiment includes three components: a base 1, a transport component and a feeding component. The base 1 has a predetermined operating size and support force, and can perform corresponding load-bearing and position-limiting operations. The transport component is placed on the working surface of the base 1, has a predetermined working length and support force, and can perform corresponding transportation operations. The feeding component includes a positioning and pushing unit placed on the working surface of the base 1, with a predetermined working distance between the transport component and the positioning and pushing unit; and a material control feeding unit placed on the working surface of the base 1, with a predetermined working distance between the positioning and pushing unit and the positioning and pushing unit. There is a predetermined height difference between the material control feeding unit and the positioning and pushing unit, and the material control feeding unit is a multi-layer structure with a predetermined inclination angle. In the later operation process, the positioning and pushing unit can push out the cages one by one, and then the working surface of the cages is detected by the material control feeding unit, and the cages with different working surfaces are taken out. The transportation component includes two components: a positioning plate 2 and a transportation crawler 3. The positioning plate 2 is placed on the working surface of the base 1, has a predetermined working size and supporting force, and can perform corresponding positioning and supporting operations. The transport track 3 is placed on the working surface of the positioning plate 2, and the overall working length is adapted to the working length of the positioning plate 2, and can perform corresponding transport operations. In a further preferred embodiment, the transport track 3 can be wrapped around the outside of the positioning plate 2, and driven by a rotating shaft, and can perform corresponding rotational transport operations. Reference can be made to the track device in the prior art, which is prior art and will not be described in detail in this application. The positioning and pushing unit includes two components: a special-shaped clamping plate 4 and a special-shaped pushing plate 5. The special-shaped clamping plate 4 is placed on the working surface of the base 1, and is wavy in shape, has a predetermined working size and supporting force, and can perform corresponding material storage operations. The special-shaped push plate 5 is connected to the base 1 through a telescopic push rod 6, and is in a reverse wavy shape, adapted to the special-shaped clamping plate 4, and is attached to the working surface of the special-shaped clamping plate 4, and can be adjusted accordingly along the working surface of the special-shaped clamping plate 4. The special-shaped push plate 5 is staggered with the special-shaped clamping plate 4. In the later operation, the retaining frame to be loaded can be placed in the concave part of the working surface of the special-shaped clamping plate 4 in sequence. Since the special-shaped clamping plate is wavy, the retaining frame can be placed in multiple rows on the working surface of the special-shaped clamping plate 4. Then the telescopic push rod 6 is driven to extend, and then the special-shaped push plate 5 can be moved to the corresponding working position along the working surface of the special-shaped clamping plate 4, and then the retaining frame placed on the working surface of the special-shaped clamping plate 4 can be pushed out in sequence, so that the retaining frame falls on the working surface of the transport crawler 3 and is transported via the transport crawler 3. The special-shaped clamping plate 4 has a predetermined inclination angle to facilitate the material pushing operation. Embodiment 2

[0018] On the basis of the first embodiment, a baffle 12 is provided on one side of the positioning plate 2, and the baffle 12 has a predetermined working length and a predetermined working distance is left between the baffle 12 and the transport crawler 3. In the later operation process, the baffle 12 can limit the retaining frame placed on the working surface of the lock color transport crawler 3 to prevent the retaining frame from sliding out of the working surface of the transport crawler 3 due to inertia during the pushing process.

[0019] The material control and loading unit includes three components: a support column 7, a connecting column 8, and a multi-layer material control group. The support column 7 is placed on the working surface of the base 1, has a predetermined working length and supporting force, and is in multiple numbers and symmetrically distributed on the working surface of the base 1. Both ends of the connecting column 8 are connected to the support column 7, have a predetermined working length and supporting force, and are used for mutual communication between the multiple support columns 7. The multi-layer material control group is placed on the working surface of the connecting column 8, and is movably connected to the connecting column 8, and can perform movable adjustment operations within a predetermined range, and is in multiple numbers. In a further preferred embodiment, there are two support columns 7, and the connecting column 8 is placed between the two support columns 7. The working positions of the multiple multi-layer material control groups correspond to the working positions of the recessed parts of the special-shaped clamping plate 4, that is, they are placed directly in front of the working position of the arrangement retaining frame, and corresponding material control operations can be performed. The multi-layer material control group includes a first material control plate 9 and a second material control plate 10, and the first material control plate 9 and the second material control plate 10 are both multiple; the working surfaces of the first material control plate 9 and the second material control plate 10 are both provided with an inclined material control plate 11; the inclined material control plate 11 has a predetermined inclination angle, and there are multiple; the first material control plate 9 and the second material control plate 10 are respectively placed on different working surfaces of the connecting column 8. The first material control plate 9 and the second material control plate 10 are both slidably connected to the connecting column 8, and can perform corresponding sliding adjustment operations along the working surface of the connecting column 8. In a further preferred embodiment, one first material control plate 9 and one second material control plate 10 are a group and are arranged oppositely. Multiple groups are sequentially distributed on the working surface of the connecting column 8. In the initial working state, the working height of the first material control plate 9 is lower than that of the second material control plate 10, that is, the working position of the first material control plate 9 is at the lowest point of the sliding adjustment range, and the working position of the second material control plate 10 is at the highest point of the sliding adjustment range. Since the retainer is trumpet-shaped, the narrow end is placed close to the transport crawler 3 in the initial arrangement, and the inclined direction of the bevel material control plate is that the closer to the transport crawler 3, the lower the working position. As a result, the positive retainer can pass along the way and fall into the working surface of the transport crawler 3. When the retainer is in the reverse direction, it will be hooked by the inclined material control plate 11 and cannot be pushed out smoothly. The first material control plate 9 first performs the material control operation. After the first material control plate 9 hooks the reverse retainer, it slides upward along the working surface of the connecting column 8 to take out the reverse retainer. At the same time, the second material control plate 10 slides downward and replaces the first material control plate 9 to perform the corresponding material control operation. Then the reverse retainer can be manually taken and adjusted. A predetermined distance is left between the lower end of the working position of the first material control plate 9 and the second material control plate 10 and the working position of the narrow end of the retainer to be loaded, so as to ensure that the retainer can pass smoothly.At the same time, the working positions of the first material control plate 9 and the second material control plate 10 can be flexibly adjusted according to the size of the retaining frame. And the working surfaces of the first material control plate 9 and the second material control plate 10 can be provided with corresponding weight sensing devices, and when the weight is sensed, corresponding sliding adjustment and alternating operation can be performed. Each component in this application can be driven by a corresponding motor, which is a prior art and will not be described in detail in this application.

[0020] As described above, although the present invention has been shown and described with reference to specific preferred embodiments, it should not be interpreted as limiting the present invention itself. Various changes can be made to it in form and detail without departing from the spirit and scope of the present invention defined in the appended claims.

Claims

1. A bearing cage feeding device for bearing production, characterized in that include: The base has a predetermined operating size and supporting force, and can perform corresponding load-bearing and position-limiting operations; The transport component is placed on the working surface of the base, has a predetermined working length and supporting force, and can perform corresponding transport operations; A feeding assembly, comprising a positioning and pushing unit placed on the working surface of the base and having a predetermined working distance between the unit and the transport assembly; and a material control and feeding unit placed on the working surface of the base and having a predetermined working distance between the unit and the positioning and pushing unit; There is a predetermined height difference between the material controlling and feeding unit and the positioning and pushing unit, and the material controlling and feeding unit is a multi-layer structure and has a predetermined inclination angle.

2. A bearing production cage feeding device according to claim 1, characterized in that: The transport assembly comprises: A positioning plate, placed on the working surface of the base, has a predetermined working size and supporting force, and can perform corresponding positioning and supporting operations; The transport crawler is placed on the working surface of the positioning plate, and the overall working length is matched with the working length of the positioning plate, so that corresponding transport operations can be performed.

3. A bearing production cage feeding device according to claim 1, characterized in that: The positioning and pushing unit comprises: The special-shaped clamping plate is placed on the working surface of the base and is wavy in shape, has a predetermined working size and supporting force, and can perform corresponding material storage operations; The special-shaped push plate is connected to the base through a telescopic push rod and is in a reverse wave shape. It is adapted to the special-shaped clamping plate and is attached to the working surface of the special-shaped clamping plate. It can be adjusted accordingly along the working surface of the special-shaped clamping plate.

4. A bearing production cage feeding device according to claim 2, characterized in that: A baffle is provided on one side of the positioning plate. The baffle has a predetermined working length and a predetermined working distance is left between the baffle and the transport crawler.

5. A bearing production cage feeding device according to claim 3, characterized in that: The material control and feeding unit comprises: A supporting column is placed on the working surface of the base, has a predetermined working length and supporting force, and is in multiple numbers and symmetrically distributed on the working surface of the base; A connecting column, both ends of which are connected to the supporting column, having a predetermined working length and supporting force, and used for mutual communication between the plurality of supporting columns; The multi-layer material control group is placed on the working surface of the connecting column and is movably connected with the connecting column. It can perform movable adjustment operations within a predetermined range, and there are multiple multi-layer material control groups.

6. A bearing production cage feeding device according to claim 5, characterized in that: The multi-layer material control group includes two parts, a first material control plate and a second material control plate, and the first material control plate and the second material control plate are both multiple; the working surfaces of the first material control plate and the second material control plate are both provided with inclined material control plates; the inclined material control plates have a predetermined inclination angle, and are multiple; the first material control plate and the second material control plate are respectively placed on different working surface surfaces of the connecting column.

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