The technical field relates to ball sports equipment, in particular, to a target training apparatus.
Although the known target training apparatus allows the adjustment of the stand 41 to change the inclination angle of the net 43, the net 43 has only one surface such that it can only be configured to have a certain angle after adjustment. Consequently, it has the drawback of insufficient use. Furthermore, the bracket 42 is formed into a plane shape as rectangle or circle such that the net 43 is stretched to a flat plane shape. As a result, the rebounding direction of a ball after striking the net 43 is easy to be predicted, causing limited effect in the training of response time of athletes.
A primary objective of the present invention is to provide a target training apparatus, having a plurality of rebounding portions with multiple surfaces arranged at different angles in order to increase different ball striking targets and to increase the variety of the ball bouncing directions, thereby improving the athlete training effect.
To achieve the aforementioned objective, the present invention provides a target training apparatus, comprising:
an axle shaft;
three rebounding portions respectively connected to the axle shaft and capable of rotating relative to the axle shaft in order to adjust an angle among each one of the rebounding portions; each one of the rebounding portions configured to be positioned on the axle shaft after positions thereof are set completely.
According to an embodiment of the present invention, each one of the rebounding portions is formed into a curved shape.
According to an embodiment of the present invention, the axle shaft comprises a shaft member and two assembly disks arranged at two ends of the shaft member; the assembly disk is defined of a central location for connecting to the shaft member; a surrounding of the central location includes three pivotal attachment holes pivotally attached onto the three rebounding portions respectively one by one.
Furthermore, the assembly disk includes a plurality of positioning holes arranged corresponding to any one of the pivotal attachment holes and spaced apart from each other at an equal distance in order to allow each one of the rebounding portions to use an insertion pin for installing into one of the positioning holes for positioning thereof.
According to an embodiment of the present invention, each one of the rebounding portions includes a bracket in a curved shape; the bracket uses a plurality of springs hooked together to form a net in order to allow the net to be stretched into a curved surface.
As shown in
The aforementioned three rebounding portions 1 are connected onto an axle shaft 2 respectively in order to allow the three nets 13 to be extended outward from the axle shaft 2. Each rebounding portion 1 can be rotated relative to the axle shaft 2 in order to allow adjust the relative position among each one of the rebounding portions 1, i.e. the angle among the rebounding portions 1, and can be further secured onto the axle shaft 2 after the position adjustment thereof. In this embodiment, the axle shaft 2 comprises a shaft member 21 and two assembly disks 22 arranged at two ends of the shaft member 21. As shown in
The aforementioned assembly disk 22 is connected to the shaft member 21 with the central location 231, and each one of the hole groups 234 is provided to connect to the rebounding portion; wherein the rebounding portion 1 is inserted between the two disk members 23 with its lateral shaft 111, and the lateral shaft 111 is pivotally attached onto the pivotal attachment hole 232 with a pivotal axle 14 in order to allow the rebounding portion to be rotated with the pivotal axle 14 as the center thereof. The lateral shaft 111 further includes an insertion hole 113; wherein a distance from the insertion hole 113 to the pivotal axle 14 is equivalent to a distance from the positioning hole 233 to the pivotal attachment hole 232. Accordingly, the rebounding portion can be configured at a desired position in order to allow the lateral shaft 111 to be pivotally rotated to the corresponding positioning hole 233. At this time, the insertion hole 113 overlaps with the positioning hole 233 such that an insertion pin 15 can be used to insert into the insertion hole 113 and the positioning hole 233 in order to secure the rebounding portion on the assembly disk 22.
As shown in
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