A steel ball picker for mechanical bearing assembly

Abstract

The present invention discloses a steel ball picker for assembling mechanical bearings. The steel balls can be adsorbed by a magnet block so that the steel balls are stably located in a quantitative groove, thereby quickly taking and counting the steel balls when the steel balls are taken. The invention is characterized in that a plurality of groups of grooves are evenly spaced on the top of a spoon head, and the plurality of groups of grooves are arranged in a matrix. The grooves are hemispherical grooves. The magnet block is placed inside the spoon head, and the magnet block and the grooves correspond one to one. A sliding groove is opened in the middle of the spoon head, and the sliding groove is located between the groove and the magnet block. The sliding groove extends from one end of the spoon head to the other end, and the sliding groove is connected to the bottom of the groove. An ejection slide bar can be slidably placed in the sliding groove, and the two ends of the ejection slide bar extend to the outside of the spoon head. Two sliding handles are respectively placed on the two ends of the ejection slide bar, and a spoon handle is placed on the spoon head, and a plurality of anti-slip grooves are evenly spaced on the spoon handle.

Description

Technical Field

[0001] The invention discloses a steel ball picker for assembling a mechanical bearing, which can pick up the steel balls when the steel balls are assembled on the mechanical bearing, and belongs to the field of mechanical processing. In particular, it relates to a steel ball quantitative picker that can absorb the steel balls through a magnet block, so that the steel balls are stably located in a quantitative groove, so that the steel balls can be quickly taken and counted when the steel balls are taken. Background Art

[0002] Bearings are an important component in contemporary mechanical equipment. Steel balls need to be assembled on the bearings to reduce the friction coefficient during bearing movement and help the bearings rotate. When assembling the steel balls, the steel balls need to be grabbed and counted to correspond to the number of steel balls required in the bearings. The existing steel balls are usually taken directly by a taking device. The taking device cannot take out the corresponding number of steel balls on the bearings to be assembled, and cannot quickly take and count the steel balls when taking them.

[0003] Publication No. CN203519473U discloses an automatic quantitative measuring device for steel balls, comprising: a steel ball holding container, a through hole at the bottom of the steel ball holding container, the through hole being matched with the gap of the steel balls; a steel ball measuring tube, the steel ball measuring tube being a hollow tube and one end of which is connected with the through hole at the bottom of the steel ball holding container, a plurality of gate through holes being provided on the tube wall of the steel ball measuring tube, the area of ​​the gate through holes being smaller than the maximum cross-sectional area of ​​the steel balls, the gate through holes being provided with gates matching therewith, a certain number of steel balls can be held between each two adjacent gates in the steel ball measuring tube, when the device is taking out the steel balls, the number of steel balls corresponding to the bearings to be assembled cannot be taken out, and the steel balls cannot be taken out quickly and counted when taking out the steel balls. Summary of the invention

[0004] In order to improve the above situation, the present invention provides a steel ball picker for mechanical bearing assembly that can absorb steel balls through magnet blocks so that the steel balls are stably located in quantitative grooves, thereby quickly taking and counting the steel balls when taking them.

[0005] A steel ball picker for assembling a mechanical bearing of the present invention is implemented as follows: A steel ball picker for assembling a mechanical bearing of the present invention consists of a spoon head, a groove, a spoon handle, an anti-skid groove, a sliding handle, a sliding groove, an ejection slide bar and a magnet block. The top of the spoon head is provided with multiple groups of grooves at equal intervals, and the multiple groups of grooves are arranged in a matrix. The groove is a hemispherical groove. The magnet block is placed inside the spoon head. The magnet block and the groove correspond one to one. A sliding groove is opened in the middle of the spoon head. The sliding groove is located between the groove and the magnet block. The sliding groove extends from one end of the spoon head to the other end. The sliding groove is connected to the bottom of the groove. The ejection slide bar can be slidably placed in the sliding groove. The two ends of the ejection slide bar extend to the outside of the spoon head. Two sliding handles are respectively placed on the two ends of the ejection slide bar. The spoon handle is placed on the spoon head. The spoon handle is provided with multiple anti-skid grooves at equal intervals.

[0006] Beneficial effects.

[0007] 1. Simple structure, convenient and practical.

[0008] 2. Low cost and easy to promote.

[0009] 3. The steel balls taken out can correspond to the number of steel balls on the bearings to be assembled, and the steel balls can be quickly counted when they are taken out.

[0010] 4. The steel ball can be adsorbed by the magnet block to enhance the stability of the steel ball in the groove. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] Figure 1 A three-dimensional structural diagram of a steel ball quantitative picker for assembling a mechanical bearing according to the present invention.

[0012] Figure 2 A schematic structural diagram of a steel ball quantitative pick-up for assembling a mechanical bearing according to the present invention.

[0013] In the attached figure

[0014] The invention comprises: a spoon head (1), a groove (2), a spoon handle (3), an anti-slip groove (4), a sliding handle (5), a sliding groove (6), a steel ball (7), an ejection slide rod (8), and a magnet block (9). DETAILED DESCRIPTION

[0015] The present invention provides a steel ball picker for mechanical bearing assembly as follows: The present invention provides a steel ball picker for mechanical bearing assembly as follows: The steel ball picker for mechanical bearing assembly comprises a spoon head (1), a groove (2), a spoon handle (3), an anti-slip groove (4), a sliding handle (5), a sliding groove (6), an ejection slide bar (8) and a magnet block (9); the top of the spoon head (1) is provided with a plurality of groups of grooves (2) at equal intervals; the plurality of groups of grooves (2) are arranged in a matrix; the grooves (2) are hemispherical grooves; the magnet block (9) is placed inside the spoon head (1); the magnet block (9) and the grooves (2) correspond one to one; the spoon head (1) A sliding groove (6) is provided in the middle of the spoon head (1), the sliding groove (6) is located between the groove (2) and the magnet block (9), the sliding groove (6) extends from one end of the spoon head (1) to the other end, the sliding groove (6) is connected to the bottom of the groove (2), an ejection slide bar (8) is slidably placed in the sliding groove (6), the two ends of the ejection slide bar (8) extend to the outside of the spoon head (1), two sliding handles (5) are respectively placed on the two ends of the ejection slide bar (8), a spoon handle (3) is placed on the spoon head (1), and a plurality of anti-slip grooves (4) are equidistantly provided on the spoon handle (3).

[0016] When in use, the number of grooves (2) on the steel ball (7) picker corresponds to the number of steel balls (7) required on the bearing. When the steel balls (7) need to be picked up, the sliding handle (5) is first pushed to drive the ejection slide bar (8) to move to one end of the spoon head (1). The spoon handle (3) is held and the spoon head (1) is placed in the steel ball (7) bag. The magnet block (9) in the spoon head (1) attracts and grabs the steel balls (7) in a quantitative manner so that the steel balls (7) are correspondingly engaged in the grooves (2). Thus, the number of steel balls (7) taken out corresponds to the number of steel balls (7) on the bearing to be assembled. When the steel balls (7) are taken out, the steel balls (7) are quickly taken out and counted. At the same time, the attraction of the magnet block (9) The force is applied to attract the steel ball (7) in the groove (2), so that the steel ball (7) is stably located in the quantitative groove (2), and the steel ball (7) is adsorbed by the magnet block (9) to enhance the stability of the steel ball (7) in the groove (2). The bottom of the groove (2) is connected to the sliding groove (6), so that the bottom of the steel ball (7) is located in the sliding groove (6), and the sliding handle (5) is pushed. The sliding handle (5) drives the ejection slide bar (8) to move to the bottom of the groove (2), and the ejection slide bar (8) applies a squeezing force to the bottom of the steel ball (7), so that the steel ball (7) in the groove (2) moves upward and away from the magnet block (9). The staff picks up the upwardly moved steel ball (7) to carry out the subsequent installation of the steel ball (7);

[0017] The groove (2) is designed as a hemispherical groove, which enables the groove (2) and the steel ball (7) to be correspondingly engaged, thereby limiting the position of the steel ball (7), so that the number of steel balls (7) taken out corresponds to the number of steel balls (7) on the bearing to be assembled, and the steel balls (7) are quickly taken out and counted when they are taken out;

[0018] The magnet block (9) and the groove (2) are designed to correspond to each other. The magnet block (9) corresponds to the groove (2), so that the steel ball (7) is correspondingly engaged in the groove (2). At the same time, the magnet block (9) exerts an attractive force on the steel ball (7) to attract the steel ball (7), so that the steel ball (7) is adsorbed by the magnet block (9), thereby enhancing the stability of the steel ball (7) in the groove (2);

[0019] The sliding groove (6) is located between the groove (2) and the magnet block (9). The sliding groove (6) is designed to be connected to the bottom of the groove (2). When the ejection slide bar (8) slides to the bottom of the groove (2), the ejection slide bar (8) can apply a squeezing force to the bottom of the steel ball (7), so that the steel ball (7) in the groove (2) moves upward and away from the magnet block (9), so that the staff can pick up the upwardly moved steel ball (7) to carry out the subsequent installation of the steel ball (7);

[0020] The design of the spoon handle (3) being provided with a plurality of anti-slip grooves (4) at equal intervals can increase the friction between the spoon handle (3) and the hand of the worker, so that the steel ball (7) picker is stably located in the hand of the worker, thereby preventing the steel ball (7) picker from falling off;

[0021] The two ends of the ejection slide bar (8) are designed to extend to the outside of the spoon head (1), and two sliding handles (5) are respectively placed on the two ends of the ejection slide bar (8), so that the staff can move the ejection slide bar (8) by pushing the sliding handle (5), and then the ejection slide bar (8) applies a squeezing force to the bottom of the steel ball (7), so that the steel ball (7) in the groove (2) moves upward and away from the magnet block (9), and the staff picks up the upwardly moved steel ball (7) to carry out the subsequent installation of the steel ball (7);

[0022] The design of arranging the plurality of groups of grooves (2) in a matrix enables the number of grooves (2) to correspond to the number of steel balls (7) required on the bearing, and in conjunction with the magnet block (9), the steel balls (7) can be quantitatively attracted and captured. At the same time, the steel balls (7) arranged in the matrix, in conjunction with the ejection slide bar (8), enable the ejection slide bar (8) to move under a group of grooves (2) each time, so that the steel balls (7) of the group move upward away from the magnet block (9), and at this time, the steel balls (7) of the remaining groups are stably engaged in the grooves (2);

[0023] The purpose is to absorb the steel balls (7) through the magnet block (9), so that the steel balls (7) are stably located in the quantitative grooves (2), take out the steel balls (7) corresponding to the number of steel balls (7) on the bearing to be assembled, and quickly take out and count the steel balls (7) when taking out the steel balls (7).

[0024] The above embodiments are preferred embodiments of the present invention and are not intended to limit the scope of the present invention. Any person skilled in the art may make some improvements without departing from the scope of the present invention, that is, any equivalent improvements made according to the present invention should be covered by the scope of the present invention.

[0025] It should also be noted that, unless otherwise clearly specified and limited, the terms "placed", "installed", "connected" and "connected" should be understood in a broad sense, for example, it can be a fixed connection method such as a folding connection, a rivet connection, a pin connection, a bonding connection and a welding connection, or a detachable connection method such as a threaded connection, a snap connection and a hinge connection, or an integral connection, or an electrical connection, or a direct connection, or an indirect connection through an intermediate medium, or the internal connection of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

Claims

1. A steel ball picker for mechanical bearing assembly, characterized by: The top of the spoon head is provided with multiple groups of grooves at equal intervals, and the multiple groups of grooves are arranged in a matrix. The grooves are hemispherical grooves. The magnet block is placed inside the spoon head, and the magnet block and the grooves correspond one to one. A sliding groove is provided in the middle of the spoon head, and the sliding groove is located between the groove and the magnet block. The sliding groove extends from one end of the spoon head to the other end, and the sliding groove is connected to the bottom of the groove. The ejection slide bar can be slidably placed in the sliding groove, and the two ends of the ejection slide bar extend to the outside of the spoon head. Two sliding handles are respectively placed on the two ends of the ejection slide bar, and the spoon handle is placed on the spoon head. The design of multiple groups of grooves arranged in a matrix can make the number of grooves correspond to the number of steel balls required on the bearing. With the help of the magnet block, the steel balls can be quantitatively attracted and captured. At the same time, the steel balls arranged in the matrix, with the help of the ejection slide bar, can make the ejection slide bar move to a group of grooves each time, so that the steel balls of this group move upward away from the magnet block. At this time, the steel balls of the remaining groups are stably engaged in the grooves. When in use, the number of grooves on the steel ball picker is the same as the number of steel balls on the bearing. When the steel balls need to be grabbed and picked up, first push the sliding handle to make the sliding handle drive the ejection slide bar to move to one end of the spoon head, hold the spoon handle, put the spoon head into the steel ball bag, and the magnet block in the spoon head attracts and grabs the steel balls quantitatively, so that the steel balls are correspondingly engaged in the grooves, so that the number of steel balls taken out corresponds to the number of steel balls on the bearings to be assembled, and the steel balls are quickly taken out and counted when the steel balls are taken out. At the same time, the attraction of the magnet block attracts the steel balls in the grooves, so that the steel balls are attracted to the steel balls in the grooves. The steel ball is stably located in a quantitative groove, and the steel ball is adsorbed by a magnet block to enhance the stability of the steel ball in the groove. The bottom of the groove is connected to the sliding groove, so that the bottom of the steel ball is located in the sliding groove. The sliding handle is pushed, and the sliding handle drives the ejection slide bar to move to the bottom of the groove. The ejection slide bar applies an extrusion force to the bottom of the steel ball, so that the steel ball in the groove moves up and away from the magnet block. The staff picks up the moved steel ball to carry out subsequent steel ball installation work. A plurality of anti-slip grooves are equidistantly provided on the spoon handle.

2. A steel ball picker for mechanical bearing assembly according to claim 1, characterized in that The groove is designed as a hemispherical groove, which can make the groove and the steel ball engage with each other, so as to limit the steel ball, so that the number of steel balls taken out corresponds to the number of steel balls on the bearing to be assembled, and the steel balls can be quickly taken out and counted when taking them out.

3. A steel ball picker for mechanical bearing assembly according to claim 1, characterized in that The magnet block and the groove are designed to correspond one to one. The magnet block corresponds to the groove, so that the steel ball is correspondingly engaged in the groove. At the same time, the magnet block exerts attraction on the steel ball to attract the steel ball, so that the steel ball is adsorbed by the magnet block, thereby enhancing the stability of the steel ball in the groove.

4. A steel ball picker for mechanical bearing assembly according to claim 1, characterized in that The two ends of the ejection slide rod are designed to extend to the outside of the spoon head, and the two sliding handles are respectively placed on the two ends of the ejection slide rod, so that the staff can move the ejection slide rod by pushing the sliding handles, and then the ejection slide rod applies a squeezing force to the bottom of the steel ball, so that the steel ball in the groove moves upward and away from the magnet block. The staff picks up the moved steel ball to carry out subsequent steel ball installation work.

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