Memory-type Anti-rebound toy target

Abstract

A memory-type anti-rebound toy target includes a target plate and a plurality of marking posts; a plurality of post holes are arranged on the target plate, and each marking post is slidably situated in one post hole. The target plate is a hollow structure. The marking post includes a main body part, and a front post cap and a rear post cap provided at opposite ends of the main body; an outer diameter of the front post cap is greater than an inner diameter of the post hole; two symmetrical elastic deformation grooves are arranged on opposite sides of the marking post near the front post cap, and two side strips are connected to the main body and are positioned beside the elastic deformation grooves; an end portion of each side strip is adjacent to the front post cap and gradually expands to form a front protrusion.

Description

CROSS REFERENCE TO RELATED APPLICATION

[0001] This application claims priority to Chinese patent application No. 202520544091.9, filed with the China National Intellectual Property Administration on Mar. 25, 2025 and entitled “memory-type anti-rebound toy target”, and Chinese patent application No. 2025221291547, filed with the China National Intellectual Property Administration on Sep. 30, 2025 and entitled “memory-type anti-rebound toy target”, which are incorporated herein by reference in its entirety.FIELD OF THE INVENTION

[0002] The disclosure belongs to the technical field of toy targets, particularly relates to a memory-type anti-rebound toy target.BACKGROUND OF THE INVENTION

[0003] Toy guns capable of firing bullets often utilize targets, as they can visually display shooting outcomes, indicate the operator's true level of control, and evaluate the primary performance of the toy guns or their ammunition. Currently, there is a wide variety of commercially available toy targets. These can be broadly categorized into two types based on their operational principles: electronic display targets and mechanical display targets.

[0004] The Chinese patent, identified by publication number CN219841858U, discloses a memory-type mechanical toy target. Before firing, all marking posts on the target plate protrude from the front at the same height, creating a flat array surface. When a toy bullet hits any marking post on the front of the target plate, the hit marking post is pushed backward until its cap meets the target plate. The hit marking post moves relative to the unhit marking posts, forming a depression on the front of the target plate. This depression visually indicates the impact of the toy bullet and accurately identifies the hit marking post. After firing, the target plate is rotated to align parallel with the horizontal plane, with the front facing downward, preparing the flat array surface for subsequent use.

[0005] However, when the toy bullet hits the marking post on the front of the target plate, the hit marking post quickly moves backward in the target plate. Upon contact with the target plate, the front cap of the marking post undergoes an elastic collision, causing it to rebound forward, resulting in the hit marking post being nearly aligned with the other un-hit marking posts. As a result, the shooting outcome is ambiguous and not visually apparent, and the identification of hitting the marking post is not sufficiently preserved.SUMMARY OF THE INVENTION

[0006] The object of this disclosure is to provide a memory-type anti-rebound toy target, aiming to address the aforementioned technical issues present in existing technology.

[0007] To achieve the aforementioned object, the disclosure provides a memory-type anti-rebound toy target, which includes a target plate and a plurality of marking posts. A plurality of post holes are arranged in an array on the target plate, and each marking post is slidably situated in one post hole. The target plate is a hollow structure enclosed by a front plate and a rear plate, and each post hole includes a front hole on the front plate and a rear hole on the rear plate, arranged in pairs. The marking post includes a main body part, with a front post cap and a rear post cap respectively disposed at its opposite ends. An outer diameter of the front post cap is greater than an inner diameter of the post hole. Two symmetrical elastic deformation grooves are arranged on opposite sides of the marking post near the front post cap, and two side strips are connected to the main body and positioned beside the elastic deformation grooves, respectively. An end portion of each side strip is adjacent to the front post cap and gradually expands to form a front protrusion. In a natural state, a distance between an outermost ends of the two front protrusions is greater than an inner diameter of the front hole of the post hole. When the marking post undergoes an impact, it is forced to slide within the post hole. As the front protrusion moves inside the post hole, it is compressed, causing the elastic deformation groove to deform and contract. When the front post cap contacts the front of the target plate, the front protrusion passes through the front hole. The elastic deformation groove then resets and expands, allowing the front post cap and the front protrusion to clamp the front plate on both sides of the front hole, forming a self-locking structure and creating a mechanical stop.

[0008] Furthermore, the main body is formed by a cross-shaped connection with a first side plate and a second side plate. Two symmetrical elastic deformation grooves are provided on opposite sides of the second side plate, near the front post cap. Symmetrical side strips extend from the opposite sides of the second side plate, aligning with the first side plate and positioned on one side of the elastic deformation groove.

[0009] Furthermore, a clamping protrusion is provided on the inner wall surface of the front protrusion close to the elastic deformation groove.

[0010] Furthermore, the elastic deformation groove is hollow and features a special-shaped notch between the front protrusions and the elastic deformation groove.

[0011] Furthermore, the outer sidewall of the marking post, extending from the front post cap to the special-shaped notch, forms an axially inclined bone strip slope; the inner diameter of the bone strip slope gradually increases towards the front post cap, and at an interference endpoint, the inner diameter of the bone strip slope is greater than the inner hole diameter of the post hole.

[0012] Furthermore, the two sides of the rear post cap extend outward in parallel along the axial direction of the marking post, forming a first frame body and a second frame body. The first frame body extends in one radial direction, while the second frame body extends in the opposite radial direction, forming a first buckle and a second buckle, respectively. A distance between outermost ends of the first buckle and the second buckle is greater than an inner diameter of the rear hole of the post hole; a clamping slot is formed between the first frame body and the second frame body.

[0013] Furthermore, an outer sidewalls of both the first frame body and the second frame body are respectively provided with a rear protrusion perpendicular to the axis of the marking post. The rear protrusions respectively cooperate with the first buckle position and the second buckle position to limit the rear hole therebetween, forming a mechanical stop.

[0014] Furthermore, a front convex hole extends from an inner side of the front plate at the front hole, and the front hole and the front convex hole are coaxial. An aperture of the front convex hole gradually expands from a connection between an inner hole wall thereof and the front hole, forming a front inclined surface on the inner hole wall.

[0015] Furthermore, a rear convex hole is arranged on an inner wall surface of the rear plate at the rear hole, and the rear convex hole and the rear hole are coaxial. The aperture of the rear convex hole gradually expands from a connection between its inner hole wall and the rear hole, forming a rear inclined surface on the inner hole wall.

[0016] Furthermore, a gradient pressure-resistant structure is situated between the first frame body, the second frame body, and the rear post cap to enhance support.

[0017] One or more of the technical schemes provided according to the embodiment in the disclosure has at least one of the following technical effects:

[0018] Before firing, all the marking posts on the target plate protrude to their maximum extent from the front surface of the target plate, aligning at the same height to form a flat array surface. When a toy bullet hits a marking post on the front of the target plate, causing it to slide towards the back of the target plate due to the impact, the front protrusions engage with the front hole inside the post hole. Since the distance between the outermost of the two front protrusions is greater than the inner diameter of the post hole, the elastic deformation groove is compressed by the front protrusions, allowing the front protrusions sufficient space to pass through the post hole. When the front protrusions pass through the front hole, the elastic deformation groove resets, and the front post cap contacts with the front surface of the front plate and undergoes an elastic collision. However, the front surface of the front plate abuts against the front post cap to prevent the marking post from continuously sliding towards the back of the target plate, and the front protrusions abut against the back surface of the front plate to prevent the marking post from rebounding. The front protrusions, along with the front post cap, clamp the front plate on either side of the front hole, creating a mechanical stop to prevent rebound. Consequently, there is a distinct height difference between the visible hit indicator posts and those that have not been hit, resulting in obvious depression marks. This facilitates clear identification of all hit marking posts.

[0019] After firing is completed, use the user's hand, or an auxiliary plate parallel to the target plate, to push the hit marking posts from the back of the target disk toward its front, thereby realigning all the aforementioned marking posts on the front of the target disk to form a flat array surface for subsequent use, and the maintenance process is straightforward.BRIEF DESCRIPTION OF THE DRAWINGS

[0020] In order to explain more clearly the technical scheme in the embodiment of the present invention, a brief introduction is given below to the attached drawings needed in the embodiment. Obviously, the attached drawings in the following description are only some embodiments of the present invention, for ordinary technicians in this field, other drawings can be obtained according to these drawings without paying creative labor.

[0021] FIG. 1 is a perspective view of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0022] FIG. 2 is an exploded view of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0023] FIG. 3 is an enlarged view of portion A in FIG. 2.

[0024] FIG. 4 is an enlarged view of portion B in FIG. 2.

[0025] FIG. 5 is a perspective view of the marking post of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0026] FIG. 6 is a schematic diagram of bullets hitting the marking posts of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0027] FIG. 7 is a cross-sectional view showing the anti-interference endpoint rebound after a bullet hits the marking post of the memory-type anti-rebound toy target provided by the embodiment of the utility model.

[0028] FIG. 8 is a perspective view of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0029] FIG. 9 is a perspective view of the memory-type anti-rebound toy target in another use state according to the embodiment in the disclosure.

[0030] FIG. 10 is a perspective view of the marking post of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0031] FIG. 11 is a rear view of the memory-type anti-rebound toy target in another use state according to the embodiment in the disclosure.

[0032] FIG. 12 is an exploded view along line A-A in FIG. 11.

[0033] FIG. 13 is an enlarged view of portion C in FIG. 12.

[0034] FIG. 14 is an enlarged view of portion D in FIG. 12.

[0035] FIG. 15 is a schematic diagram of FIG. 13 after removing the marking post.DETAILED DESCRIPTION OF ILLUSTRATED EMBODIMENTS

[0036] The embodiments of the present invention are described in detail below, and examples of the embodiments are shown in the attached Figures, where the same or similar label from beginning to end represents the same or similar element or element with the same or similar function. The following embodiments described by reference to the attached drawings are exemplary and are intended to be used to explain the embodiments of the present invention, and can not be understood as limiting the present invention.

[0037] In the description of the embodiments of the present invention, it needs to be understood that the azimuth or position relation indicated in the term “length”, “width”, “upper”, “lower”, “front”, “rear”, “left”, “right”, “vertical”, “horizontal”, “top”, “bottom”, “inside”, “outside” and so on is based on the azimuth or position relation shown in the attached figure, only for the convenience of describing the embodiments and simplifying the description of the present invention, rather than indicating or implying that the device or element must have a specific orientation, construction and operation with a specific orientation, so it can not be understood as a restriction on the present invention.

[0038] Furthermore, the terms “first”, “second” are used only for descriptive purposes and can not be understood as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, the qualification of “first” and “second” features may include one or more of them explicitly or implicitly. In the description of the embodiment of the present invention, the meaning of “multiple” is two or more, unless otherwise specified.

[0039] In the embodiments of the invention, unless otherwise clearly specified and defined, the terms, “installed”, “connected”, “or” fixed” should be generally understood, for example, a fixed connection, or a removable connection, a mechanical connection or an electrical connection, or an directly connection or an indirectly connection through an intermediate media, or a connection within two elements or the interaction of two elements. For those of ordinary skilled in the art, the specific meaning of the above terms in the embodiment of the present invention may be understood under specific circumstances.

[0040] In an embodiment disclosed herein, as shown in FIGS. 1-9, a memory-type anti-rebound toy target is provided. It comprises a target plate 100 and a plurality of marking posts 110. A plurality of post holes 120 are arranged in an array on the target plate 100. The target plate 100 is a hollow structure enclosed by a front plate 101 and a rear plate 102. Each post hole 120 includes a front hole 121 on the front plate 101 and a rear hole 122 on the rear plate 102, arranged in pairs. Each post hole 120, penetrating through the front and back plate 101 and 102 of the target plate 100, can slidably accommodate a marking post 110, with both ends of the marking post 110 extending out of the post hole 120, and each end being provided with a front post cap 111 and a rear post cap 112, respectively. The outer diameter of the front post cap 111 is greater than the inner diameter of the post hole. Two symmetrical elastic deformation grooves 130 are radially arranged on opposite sides of the marking post 110 near the front post cap 111. Two front protrusions 140, perpendicular to the axis of the elastic deformation grooves 130, are arranged on the outer surface of the marking post 110. In its natural state, the distance between the outermost ends of the two front protrusions 140 is greater than the inner diameter d of the front hole 121 of the post hole. When the marking post 110 undergoes an impact, it is forced to slide within the post hole. As it slides, the front protrusion 140 is compressed, causing the elastic deformation groove 130 to deform and contract. When the front post cap 111 contacts with the front of the target plate 100, the front protrusion 140 passes through the front hole 121, and the elastic deformation groove 130 resets and expands, thereby the front post cap 111 and the front protrusion 140 clamps the front plate 101 at both sides of the front hole 121, forming a self-locking structure, and creating a mechanical stop.

[0041] Specifically, before being hit, all the marking posts 110 on the target plate 100 protrude to the front of the target plate 100, extending to the maximum extent at the same height to form a flat array surface. When a marking post 110 on the front of the target plate 100 is hit by a toy bullet and slides toward the back of the target plate 100 due to the impact, the front protrusions 140 come into contact with the hole wall of the front hole 121 of the post hole 120. Since the distance between the outermost ends of the two front protrusions 140 is greater than the inner diameter of the front hole 121 of the post hole, the front protrusions 140 are squeezed by the hole wall of the front hole 121. This causes the elastic deformation groove 130 to be contracted, allowing the front protrusions 140 to have enough space to pass through the front hole 121, then they are no longer squeezed by the hole wall of the front hole 121, and the elastic deformation grooves 130 reset to their original state and the front protrusions 140 abuts against the back surface of the front plate 101. The front post cap 111 abuts against the front surface of the front plate 101. The front protrusions 140 and the front post cap 111 cooperate to clamp the front plate, thereby forming a self-locking structure, creating a mechanical stop to prevent rebound. It can be observed that there is a certain height difference between the hit marking posts 110 and the unhit ones, forming an obvious depression, making it easy to clearly identify all hit marking posts.

[0042] Furthermore, as shown in FIG. 5, the front post cap 111 is either integrally formed with the marking post 110 or fixedly connected to one end of it, with the front protrusion 140 situated at the end close to the front post cap 111. Preferably, the front post cap 111 and the marking post 110 are integrally formed, implying that the front post cap 111 is a component directly created during the manufacturing process of the marking post 110, eliminating the need for additional connection steps or components. This results in a distinct height difference between the hit marking posts 110 and the unhit marking posts 110 relative to the target plate 100, with noticeable depression marks, making it possible to clearly identify all hit marking posts 110.

[0043] Furthermore, as shown in FIGS. 2 and 5, the two sides of the rear post cap 112 extend outward in parallel along the axial direction of the marking post 110, forming a first frame body 113 and a second frame body 114. Moreover, the first frame body 113 and the second frame body 114 extend in opposite radial directions to form a first buckle 115 and a second buckle 116, respectively. The distance between the outermost ends of the first buckle 115 and the second buckle 116 is greater than the inner diameter of the rear hole 122 of the post hole 120. The bottom edges of the first buckle 115 and the second buckle 116 feature a rounded structure. Specifically, the first frame body 113 and the second frame body 114 have a certain deformation capacity, and a clamping slot 119 is formed between them. When the first frame body 113 and the second frame body 114 are squeezed, they deform towards the clamping slot 119, and upon release the squeezing, they can rebound and reset. The design of the clamping slot 119 enables the first frame body 113 and the second frame body 114 to form a mechanical lock with the edge of the post hole 120 when the marking post 110 is inserted into the post hole 120. Since the distance between the the outermost ends of the first buckle 115 and the second buckle 116 is greater than the inner diameter of the rear hole 122 of the post hole 120, the marking post 110 is less prone to falling out of the post hole 120 when subjected to external forces such as shooting impact. The rounded structure of the clamping slot helps to reduce the frictional resistance during the insertion and removal of the marking post 110 from the post hole 120, while also protecting the edge of the post hole 120 from damage.

[0044] Furthermore, as shown in FIGS. 2-5, the outer sidewalls of the first frame body 113 and the second frame body 114 are each provided with a rear protrusion 141 that is perpendicular to the axis of the marking post 110. The rear protrusions 141 cooperate with the first buckle position 115 and the second buckle position 116, respectively, to limit the rear hole 122 between them, forming a mechanical stop.

[0045] Specifically, after firing, use the use's hand or an axillary plate parallel to the target plate 100, to push the hit marking posts 110 from the back of the target 100 towards its front, allowing the front protrusions 140 pass through the front holes 121 until the inner end surfaces of the first buckle position 115 and the second buckle position 116 abut against the back of the target plate 100 and are clamped at both ends of the rear hole 122, and the rear protrusions 118 abut against the inner wall surface of the rear plate 102. Thus, the front and rear end surfaces of all marking posts 110 are realigned to form a flat array surface for subsequent use. When firing again, any marking post 110 on the front of the target plate 100 is hit by a toy bullet and slides toward the back of the target plate 100 under the impact, the rear protrusion 181 passes through the rear hole 122, and the front protrusion 140 comes into contact with the front hole 121 in the post hole 120. Since the distance between the outermost ends of the two front protrusions 140 is greater than the inner diameter d of the front hole 121 of the post hole 120, the front protrusions 140 are squeezed and the elastic deformation groove 130 is contracted, providing sufficient space and allowing the front protrusions 140 to pass through the post hole 120. The front protrusion 140 is located at the rear end of the front hole 121, and the front post cap 111 is located at the front end of the front hole 121. The front protrusion 140 cooperates with the front post cap 111 to clamp the front plate 102 at both sides of the front hole 121, forming a mechanical stop to prevent rebound, thus completing one shooting and reset operation.

[0046] Furthermore, as shown in FIGS. 2 and 5, the rear post cap 112 extends a connecting frame body 150 in the same direction between the first frame body 113 and the second frame body 114. The outer side wall of the connecting frame body 150 has support posts 151 at both ends, positioned perpendicular to the axis of the marking post 110. There are gaps between the support posts 151 and the first frame body 113 as well as the second frame body 114. When the first frame body 113 and the second frame body 114 deform into the clamping slot, the support posts 151 come into contact with the first frame body 113 and the second frame body 114, respectively. Specifically, the support posts 151 serve a supporting function, preventing the deformation of the first frame body 113 and the second frame body 114 from surpassing the plastic deformation limit due to excessive pressing, thereby ensuring they can return to their original size.

[0047] Furthermore, as shown in FIG. 5, a gradient pressure-resistant structure 160 is situated between the first frame body 113, the second frame body 114 and the rear post cap 112 to enhance support. Specifically, the gradient pressure-resistant structure 160 is designed to provide improved strength support to the first frame body 113 and the second frame body 114 when they are subjected to pressure, thereby extending their usage frequency or service life.

[0048] Furthermore, as shown in FIG. 5, the elastic deformation groove 130 is hollow and features a special-shaped notch 170 between the front protrusions 140 and the elastic deformation groove 130. Specifically, the special-shaped notch 170 is designed to allow the front protrusions 140 to be pressed down, while enhancing the tolerance. Even when the widths of the two front protrusions 140 result in inconsistent wedge-shaped bosses 171 due to insufficient mold manufacturing precision and injection molding control precision, they can still pass smoothly.

[0049] Furthermore, as shown in FIG. 10, the marker post 110 has an overall cross-shaped structure. Specifically, the cross-shaped structure is not only beneficial for saving materials but also forms a stable cross-shaped support frame, which improves the overall rigidity and stability of the marker post 110.

[0050] Furthermore, as shown in FIGS. 6-7, the outer sidewall of the marking post 110, extending from the front post cap 111 to the special-shaped notch 170, forms an axially inclined bone strip slope 190. The inner diameter of the bone strip slope 190 gradually increases towards the front post cap 111, and at an interference endpoint 191, the inner diameter of the bone strip slope 190 is greater than the inner hole diameter of the post hole 120. Specifically, the bone strip slope 190 is formed between the front post cap 111 and the special-shaped notch 170, and the diameter of the slope at a certain endpoint is greater than the inner hole diameter of the post hole 120. The purpose is that when the marking post 110 is subjected to a strong impact, due to the interference, the bone strip slope 190 is blocked, which reduces the contact between its surface and the edge bottom surface of the post hole 120, thereby minimizing the rebound force of the marking post 110 when large impact friction is generated. This helps to ensure that it remains within the upper range of the machine.

[0051] Further, as shown in FIGS. 1-9, the target plate 100 is circular, elliptical, or polygonal. Matching clamping posts 181 and clamping cylinders (not shown) are respectively provided on the opposite sides of front plate 101 and rear plate 102. Clamping post 180 is inserted into the clamping cylinder, thereby clamping front plate 101 and rear plate 102 together. Specifically, target plate 100 is designed to be circular, elliptical, or polygonal. The selection of these shapes aims to provide a wide shooting area while meeting different shooting scenarios and training needs.

[0052] The target plate 100 is composed of a hollow structure enclosed by the front plate 101 and rear plate 102. This design not only reduces the weight of the target plate 100 but also provides additional strength and stability. The hollow structure can also be used to fill sound-absorbing materials or shock-absorbing materials to reduce noise and vibration during shooting. Matching clamping posts 181 and clamping cylinders are respectively arranged on the opposite sides of front plate 101 and rear plate 102. The clamping post 181 is inserted into the clamping cylinder to form a firm clamping connection. This connection method allows for quick and simple assembly and disassembly without the need for additional fasteners or tools.

[0053] Furthermore, as shown in FIG. 8-9, a base 200 is positioned beneath the target plate 100. The base 200 features a quadrangular frustum structure with distinct trapezoidal shapes at the front and back. Supporting legs 210 are situated at each of its four corners. The upper surface of the base 200 includes a fixing cavity 220 that opens upwards. The target plate 100 extends into the fixing cavity 220, and a support leg 230 is placed below the fixing cavity 220 for additional support. The front and back ends of the quadrangular frustum structure have varying widths; the front end can be narrower, while the rear end is wider to accommodate the recoil force during shooting and to maintain stability. The supporting legs 230 provide additional stability to ensure the entire target system remains steady.

[0054] Furthermore, as shown in FIG. 9, after inverting the target plate 100, a wall-mounted fixing part 300 can also be connected to it. The wall-mounted fixing part 300 is connected to the lower part of the target plate 100 via a locking part. One end of the wall-mounted fixing part 300 is provided with a connecting hole 310. Specifically, the target plate 100 can stand on the ground or be hung on the wall, which facilitates installation.

[0055] Furthermore, as shown in FIG. 10, the disclosure also presents an alternative embodiment of the marking post 110, featuring a main body. The main body may take the form of a conventional cylindrical solid column, a hollow column, or a column of a different shape. In a preferred embodiment, the main body is constructed through a cross-shaped connection with the first side plate 110a and the second side plate 110b. This cross-shaped configuration substantially reduces the weight of the marking post 110, enabling it to slide within the column hole 120 even when subjected to minimal impact forces, thereby enhancing the sensitivity of the marking post 110.

[0056] Further, the front post cap 111 is arranged at one end of the main body, while the rear post cap 112 is arranged at the opposite end of the main body.

[0057] The symmetrical elastic deformation grooves 130 are provided on opposite sides of the main body, near the front post cap 111. Additionally, two side strips 117 are connected to the main body and are positioned on either side of the elastic deformation grooves 130. The end portion of each side strip 117 is adjacent to the front post cap 111, and the outer wall surface of this end, which is away from the elastic deformation groove 130, gradually expands to form a front protrusion 140. In a natural state, the distance between the outermost ends of the two front protrusions 140 is greater than the inner diameter of the column hole 120, specifically, larger than the inner diameter of the front hole 121.

[0058] When the main body is formed by the cross-shaped, intersecting connection of the first side plate 110a and the second side plate 110b, the two symmetrical elastic deformation grooves 130 are provided on the opposite sides of the second side plate 110b near the front post cap 111. Symmetrical side strips 117 extend from the opposite sides of the second side plate 110b. The two side strips 117 are in the same direction as the first side plate 110a and are located on one side of the elastic deformation groove 130.

[0059] As shown in FIGS. 12-15, the front hole 121 is provided on the front plate 101 of the target plate 100. A front convex hole 121′ extends from the inner side of the front plate 101 at the front hole 121, and the front hole 121 and the front convex hole 121′ are coaxial. The aperture of the front convex hole 121′ gradually expands from the connection between its inner hole wall and the front hole 121, forming a front inclined surface 123 on the inner hole wall.

[0060] The marker post 110 is forced to slide within the post hole 120 upon impact. When the front protrusion 140 enters the front hole 121, its outer wall surface abuts against the hole wall of the front hole 121, encountering resistance opposite to its sliding direction, which slows down the sliding speed. This reduces the force with which the front cap 111 of the marker post 110 moves rapidly and strikes the outer side of the front plate 101, thereby preventing the front cap 111 of the marker post 110 from moving in the opposite direction due to the reaction force from the front plate 101, which would make it impossible to clearly identify the marker post 110 that is hit by the shot.

[0061] After the front protrusion 140 passes through the front hole 121, since the aperture of the front convex hole 121′ gradually expands from the connection between its inner hole wall and the front hole 121, the resisting force against the outer wall surface of the front protrusion 140 is gradually reduced, and the front protrusion 140 gradually resets.

[0062] Conversely, the front cap 111 of the marker post 110 moves in the opposite direction under the reaction force from the front plate 101. When the front protrusion 140 enters the front protrusion hole 121′ in the reverse direction, the outer wall of the front protrusion 140 abuts against the front inclined surface 123 of the front protrusion hole 121′. Furthermore, as the depth of the front protrusion 140 entering the front protrusion hole 121′ increases, the abutting force becomes stronger, thereby preventing the reverse movement of the marker post 110 as much as possible. This forms a self-locking structure that limits the front hole 121 between the front protrusion 140 and the front cap 111, creating a mechanical stop.

[0063] Preferably, a clamping protrusion 141 is provided on the inner wall surface of the front protrusion 140 close to the elastic deformation groove 130. The clamping protrusion 141 limits the deformation of the front protrusion 140. When the front protrusion 140 deforms into the elastic deformation groove 130 until the clamping protrusion 141 abuts against the bottom surface of the elastic deformation groove 130, the front protrusion 140 cannot deform further, thereby preventing the front protrusion 140 from deforming beyond the limit and failing to reset.

[0064] It should be understood that when the clamping protrusion 141 abuts against the bottom surface of the elastic deformation groove 130, the distance between the outermost ends of the outer wall surfaces of the two front protrusions 140 is smaller than the aperture d of the front hole 121, thereby enabling the marking post 110 to pass through the front hole 121 in the forward or reverse direction under the action of an external force.

[0065] Further, when the first buckle 115 and the second buckle 116 of the marking post 110 contact with the back of the target plate 100, the distance between the front end surface 111 of the marking post 110 and the front surface of the target plate 100 is between 0.3-4 centimeters, with a preferred range of 0.5-1 centimeters. To ensure that the marking post 110 can slide smoothly within the post hole after impact, a loose fit design is implemented between them. Preferably, the marking post 110 is placed parallel to the post hole, meaning in a horizontal orientation. It is important to note that if the marking post 110 is excessively long or the portion extending out of the post hole 120 is too great, it can easily cause the marking post to tilt, thereby diminishing the smoothness of its sliding motion under force.

[0066] When the first buckle 115 and the second buckle 116 of the marking post 110 are in contact with the back of the target plate 100, the distance between the front end face 111 of the marking post 110 and the front of the target plate 100 is 0.3-4 cm, preferably 0.5-1 cm. To ensure that the marking post 110 can slide smoothly in the post hole 120 after being impacted, a loose fit design is adopted between the two. The placement direction of the marking post 110 is preferably parallel to the post hole 120, that is, in a horizontal direction. It should be particularly noted that if the marking post 110 is too long or the part exposed out of the post hole 120 is too much, it is easy to cause the marking post to tilt, thereby reducing the smoothness when it slides under force.

[0067] Furthermore, on both sides of the edge strip 117, near the second side plate 110b, a first frame body 113 and a second frame body 114 extend respectively. The first frame body 113 and the second frame body 114 are parallel, extending in opposite radial directions to form a first buckle position 115 and a second buckle position 116, respectively. The distance between the outermost sides of the first buckle position 115 and the second buckle position 116 is greater than the inner diameter of the rear hole 122 of the column hole 120. The outer side walls of the first frame body 113 and the second frame body 114 are provided with rear protrusions 118 perpendicular to the axis of the indicator column 110. A clamping slot 119 is provided between the first frame body 113 and the second frame body 114. The rear post cap 112 is provided with a connecting frame body 150 in the clamping slot 119, which extends towards the first frame body 113 and the second frame body 114. The outer side walls of the connecting frame body 150 are each equipped with identical support columns 151, positioned perpendicular to the axis. There are also gaps between the two support columns 151 and both the first frame body 113 and the second frame body 114.

[0068] The rear hole 122 is arranged on the rear plate 102 of the target plate 100. A rear convex hole 122′ is arranged on the inner wall surface of the rear plate 102 at the rear hole 122. The rear convex hole 122′ and the rear hole 122 share are coaxial. The aperture of the rear convex hole 122′ gradually expands from the connection between its inner hole wall and the rear hole 122, resulting in the inner hole wall forming a rear inclined surface 124.

[0069] When the marker post 110 is impacted and forced to slide within the post hole 120, and the rear protrusion 118 enters the rear protrusion hole 122′, the rear inclined surface 124 abuts and presses against the rear protrusion 118. On one hand, this causes the first frame body 113 and the second frame body 114 to deform towards the clamping groove 119 until they abut against the support post 151. On the other hand, it generates resistance to the marker post 110, reducing its speed and lessening the force with which the front post cap 111 moves rapidly and strikes the outer surface of the front plate 101, thereby preventing it from rebounding. In this manner, the cooperation between the rear protrusion 118 and the rear protrusion hole 122′, as well as the interaction between the front protrusion 140 and the front hole 121, results in a dual obstruction of the marking post 110. This further diminishes the force with which the front post cap 111 moves rapidly and strikes the outer side of the front plate 101, thereby preventing it from rebounding.

[0070] Conversely, after the marking post 110 is forced to slide into the post hole 120 due to impact until the rear protrusion 118 passes through the rear hole 122, the first frame body 113 and the second frame body 114 reset. If neither the cooperation between the rear protrusion 118 and the rear convex hole 122′ nor the cooperation between the front protrusion 140 and the front hole 121 can prevent the front post cap 111 of the marking post 11 from moving rapidly, hitting the front plate 101, and being rebounded, thereby moving in the reverse direction, the rear protrusion 118 will abut against the orifice of the rear hole 122, thus further preventing the marker post 11 from rebounding in the reverse direction.

[0071] It should be understood that when the first frame body 113 and the second frame body 114 are in a natural state, the distance between the outermost points of the two rear clamping protrusions 141 is greater than the inner diameter of the rear hole 122. When the first frame body 113 and the second frame body 114 are deformed to abut against the support column 151, the distance between the outermost points of the two rear clamping protrusions 141 is smaller than the inner diameter of the rear hole 122, allowing the two rear clamping protrusions 141 to enter and exit the rear hole 122 in either the forward or reverse direction. However, even when the first frame body 113 and the second frame body 114 are deformed to abut against the support column 151, the distance between the outermost sides of the first buckle position 115 and the second buckle position 116 remains greater than the inner diameter of the rear hole 122 of the column hole 120, ensuring that the marking column 110 cannot fall off from the rear hole 122 of the column hole 120.

[0072] Preferably, the distance between the rear clamping protrusion 141 and the first clamping position 115 or the second clamping position 116 is slightly greater than the thickness of the rear plate 102, ensuring that the rear plate 102 is clamped on both sides of the rear hole to achieve mechanical self-locking.

[0073] The above descriptions are merely preferred embodiments of the disclosure and are not intended to limit the disclosure. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the disclosure shall be included in the protection scope of the disclosure.

Examples

Embodiment Construction

[0036]The embodiments of the present invention are described in detail below, and examples of the embodiments are shown in the attached Figures, where the same or similar label from beginning to end represents the same or similar element or element with the same or similar function. The following embodiments described by reference to the attached drawings are exemplary and are intended to be used to explain the embodiments of the present invention, and can not be understood as limiting the present invention.

[0037]In the description of the embodiments of the present invention, it needs to be understood that the azimuth or position relation indicated in the term “length”, “width”, “upper”, “lower”, “front”, “rear”, “left”, “right”, “vertical”, “horizontal”, “top”, “bottom”, “inside”, “outside” and so on is based on the azimuth or position relation shown in the attached figure, only for the convenience of describing the embodiments and simplifying the description of the present inventi...

CROSS REFERENCE TO RELATED APPLICATION

[0001] This application claims priority to Chinese patent application No. 202520544091.9, filed with the China National Intellectual Property Administration on Mar. 25, 2025 and entitled “memory-type anti-rebound toy target”, and Chinese patent application No. 2025221291547, filed with the China National Intellectual Property Administration on Sep. 30, 2025 and entitled “memory-type anti-rebound toy target”, which are incorporated herein by reference in its entirety.FIELD OF THE INVENTION

[0002] The disclosure belongs to the technical field of toy targets, particularly relates to a memory-type anti-rebound toy target.BACKGROUND OF THE INVENTION

[0003] Toy guns capable of firing bullets often utilize targets, as they can visually display shooting outcomes, indicate the operator's true level of control, and evaluate the primary performance of the toy guns or their ammunition. Currently, there is a wide variety of commercially available toy targets. These can be broadly categorized into two types based on their operational principles: electronic display targets and mechanical display targets.

[0004] The Chinese patent, identified by publication number CN219841858U, discloses a memory-type mechanical toy target. Before firing, all marking posts on the target plate protrude from the front at the same height, creating a flat array surface. When a toy bullet hits any marking post on the front of the target plate, the hit marking post is pushed backward until its cap meets the target plate. The hit marking post moves relative to the unhit marking posts, forming a depression on the front of the target plate. This depression visually indicates the impact of the toy bullet and accurately identifies the hit marking post. After firing, the target plate is rotated to align parallel with the horizontal plane, with the front facing downward, preparing the flat array surface for subsequent use.

[0005] However, when the toy bullet hits the marking post on the front of the target plate, the hit marking post quickly moves backward in the target plate. Upon contact with the target plate, the front cap of the marking post undergoes an elastic collision, causing it to rebound forward, resulting in the hit marking post being nearly aligned with the other un-hit marking posts. As a result, the shooting outcome is ambiguous and not visually apparent, and the identification of hitting the marking post is not sufficiently preserved.SUMMARY OF THE INVENTION

[0006] The object of this disclosure is to provide a memory-type anti-rebound toy target, aiming to address the aforementioned technical issues present in existing technology.

[0007] To achieve the aforementioned object, the disclosure provides a memory-type anti-rebound toy target, which includes a target plate and a plurality of marking posts. A plurality of post holes are arranged in an array on the target plate, and each marking post is slidably situated in one post hole. The target plate is a hollow structure enclosed by a front plate and a rear plate, and each post hole includes a front hole on the front plate and a rear hole on the rear plate, arranged in pairs. The marking post includes a main body part, with a front post cap and a rear post cap respectively disposed at its opposite ends. An outer diameter of the front post cap is greater than an inner diameter of the post hole. Two symmetrical elastic deformation grooves are arranged on opposite sides of the marking post near the front post cap, and two side strips are connected to the main body and positioned beside the elastic deformation grooves, respectively. An end portion of each side strip is adjacent to the front post cap and gradually expands to form a front protrusion. In a natural state, a distance between an outermost ends of the two front protrusions is greater than an inner diameter of the front hole of the post hole. When the marking post undergoes an impact, it is forced to slide within the post hole. As the front protrusion moves inside the post hole, it is compressed, causing the elastic deformation groove to deform and contract. When the front post cap contacts the front of the target plate, the front protrusion passes through the front hole. The elastic deformation groove then resets and expands, allowing the front post cap and the front protrusion to clamp the front plate on both sides of the front hole, forming a self-locking structure and creating a mechanical stop.

[0008] Furthermore, the main body is formed by a cross-shaped connection with a first side plate and a second side plate. Two symmetrical elastic deformation grooves are provided on opposite sides of the second side plate, near the front post cap. Symmetrical side strips extend from the opposite sides of the second side plate, aligning with the first side plate and positioned on one side of the elastic deformation groove.

[0009] Furthermore, a clamping protrusion is provided on the inner wall surface of the front protrusion close to the elastic deformation groove.

[0010] Furthermore, the elastic deformation groove is hollow and features a special-shaped notch between the front protrusions and the elastic deformation groove.

[0011] Furthermore, the outer sidewall of the marking post, extending from the front post cap to the special-shaped notch, forms an axially inclined bone strip slope; the inner diameter of the bone strip slope gradually increases towards the front post cap, and at an interference endpoint, the inner diameter of the bone strip slope is greater than the inner hole diameter of the post hole.

[0012] Furthermore, the two sides of the rear post cap extend outward in parallel along the axial direction of the marking post, forming a first frame body and a second frame body. The first frame body extends in one radial direction, while the second frame body extends in the opposite radial direction, forming a first buckle and a second buckle, respectively. A distance between outermost ends of the first buckle and the second buckle is greater than an inner diameter of the rear hole of the post hole; a clamping slot is formed between the first frame body and the second frame body.

[0013] Furthermore, an outer sidewalls of both the first frame body and the second frame body are respectively provided with a rear protrusion perpendicular to the axis of the marking post. The rear protrusions respectively cooperate with the first buckle position and the second buckle position to limit the rear hole therebetween, forming a mechanical stop.

[0014] Furthermore, a front convex hole extends from an inner side of the front plate at the front hole, and the front hole and the front convex hole are coaxial. An aperture of the front convex hole gradually expands from a connection between an inner hole wall thereof and the front hole, forming a front inclined surface on the inner hole wall.

[0015] Furthermore, a rear convex hole is arranged on an inner wall surface of the rear plate at the rear hole, and the rear convex hole and the rear hole are coaxial. The aperture of the rear convex hole gradually expands from a connection between its inner hole wall and the rear hole, forming a rear inclined surface on the inner hole wall.

[0016] Furthermore, a gradient pressure-resistant structure is situated between the first frame body, the second frame body, and the rear post cap to enhance support.

[0017] One or more of the technical schemes provided according to the embodiment in the disclosure has at least one of the following technical effects:

[0018] Before firing, all the marking posts on the target plate protrude to their maximum extent from the front surface of the target plate, aligning at the same height to form a flat array surface. When a toy bullet hits a marking post on the front of the target plate, causing it to slide towards the back of the target plate due to the impact, the front protrusions engage with the front hole inside the post hole. Since the distance between the outermost of the two front protrusions is greater than the inner diameter of the post hole, the elastic deformation groove is compressed by the front protrusions, allowing the front protrusions sufficient space to pass through the post hole. When the front protrusions pass through the front hole, the elastic deformation groove resets, and the front post cap contacts with the front surface of the front plate and undergoes an elastic collision. However, the front surface of the front plate abuts against the front post cap to prevent the marking post from continuously sliding towards the back of the target plate, and the front protrusions abut against the back surface of the front plate to prevent the marking post from rebounding. The front protrusions, along with the front post cap, clamp the front plate on either side of the front hole, creating a mechanical stop to prevent rebound. Consequently, there is a distinct height difference between the visible hit indicator posts and those that have not been hit, resulting in obvious depression marks. This facilitates clear identification of all hit marking posts.

[0019] After firing is completed, use the user's hand, or an auxiliary plate parallel to the target plate, to push the hit marking posts from the back of the target disk toward its front, thereby realigning all the aforementioned marking posts on the front of the target disk to form a flat array surface for subsequent use, and the maintenance process is straightforward.BRIEF DESCRIPTION OF THE DRAWINGS

[0020] In order to explain more clearly the technical scheme in the embodiment of the present invention, a brief introduction is given below to the attached drawings needed in the embodiment. Obviously, the attached drawings in the following description are only some embodiments of the present invention, for ordinary technicians in this field, other drawings can be obtained according to these drawings without paying creative labor.

[0021] FIG. 1 is a perspective view of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0022] FIG. 2 is an exploded view of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0023] FIG. 3 is an enlarged view of portion A in FIG. 2.

[0024] FIG. 4 is an enlarged view of portion B in FIG. 2.

[0025] FIG. 5 is a perspective view of the marking post of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0026] FIG. 6 is a schematic diagram of bullets hitting the marking posts of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0027] FIG. 7 is a cross-sectional view showing the anti-interference endpoint rebound after a bullet hits the marking post of the memory-type anti-rebound toy target provided by the embodiment of the utility model.

[0028] FIG. 8 is a perspective view of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0029] FIG. 9 is a perspective view of the memory-type anti-rebound toy target in another use state according to the embodiment in the disclosure.

[0030] FIG. 10 is a perspective view of the marking post of the memory-type anti-rebound toy target according to the embodiment in the disclosure.

[0031] FIG. 11 is a rear view of the memory-type anti-rebound toy target in another use state according to the embodiment in the disclosure.

[0032] FIG. 12 is an exploded view along line A-A in FIG. 11.

[0033] FIG. 13 is an enlarged view of portion C in FIG. 12.

[0034] FIG. 14 is an enlarged view of portion D in FIG. 12.

[0035] FIG. 15 is a schematic diagram of FIG. 13 after removing the marking post.DETAILED DESCRIPTION OF ILLUSTRATED EMBODIMENTS

[0036] The embodiments of the present invention are described in detail below, and examples of the embodiments are shown in the attached Figures, where the same or similar label from beginning to end represents the same or similar element or element with the same or similar function. The following embodiments described by reference to the attached drawings are exemplary and are intended to be used to explain the embodiments of the present invention, and can not be understood as limiting the present invention.

[0037] In the description of the embodiments of the present invention, it needs to be understood that the azimuth or position relation indicated in the term “length”, “width”, “upper”, “lower”, “front”, “rear”, “left”, “right”, “vertical”, “horizontal”, “top”, “bottom”, “inside”, “outside” and so on is based on the azimuth or position relation shown in the attached figure, only for the convenience of describing the embodiments and simplifying the description of the present invention, rather than indicating or implying that the device or element must have a specific orientation, construction and operation with a specific orientation, so it can not be understood as a restriction on the present invention.

[0038] Furthermore, the terms “first”, “second” are used only for descriptive purposes and can not be understood as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, the qualification of “first” and “second” features may include one or more of them explicitly or implicitly. In the description of the embodiment of the present invention, the meaning of “multiple” is two or more, unless otherwise specified.

[0039] In the embodiments of the invention, unless otherwise clearly specified and defined, the terms, “installed”, “connected”, “or” fixed” should be generally understood, for example, a fixed connection, or a removable connection, a mechanical connection or an electrical connection, or an directly connection or an indirectly connection through an intermediate media, or a connection within two elements or the interaction of two elements. For those of ordinary skilled in the art, the specific meaning of the above terms in the embodiment of the present invention may be understood under specific circumstances.

[0040] In an embodiment disclosed herein, as shown in FIGS. 1-9, a memory-type anti-rebound toy target is provided. It comprises a target plate 100 and a plurality of marking posts 110. A plurality of post holes 120 are arranged in an array on the target plate 100. The target plate 100 is a hollow structure enclosed by a front plate 101 and a rear plate 102. Each post hole 120 includes a front hole 121 on the front plate 101 and a rear hole 122 on the rear plate 102, arranged in pairs. Each post hole 120, penetrating through the front and back plate 101 and 102 of the target plate 100, can slidably accommodate a marking post 110, with both ends of the marking post 110 extending out of the post hole 120, and each end being provided with a front post cap 111 and a rear post cap 112, respectively. The outer diameter of the front post cap 111 is greater than the inner diameter of the post hole. Two symmetrical elastic deformation grooves 130 are radially arranged on opposite sides of the marking post 110 near the front post cap 111. Two front protrusions 140, perpendicular to the axis of the elastic deformation grooves 130, are arranged on the outer surface of the marking post 110. In its natural state, the distance between the outermost ends of the two front protrusions 140 is greater than the inner diameter d of the front hole 121 of the post hole. When the marking post 110 undergoes an impact, it is forced to slide within the post hole. As it slides, the front protrusion 140 is compressed, causing the elastic deformation groove 130 to deform and contract. When the front post cap 111 contacts with the front of the target plate 100, the front protrusion 140 passes through the front hole 121, and the elastic deformation groove 130 resets and expands, thereby the front post cap 111 and the front protrusion 140 clamps the front plate 101 at both sides of the front hole 121, forming a self-locking structure, and creating a mechanical stop.

[0041] Specifically, before being hit, all the marking posts 110 on the target plate 100 protrude to the front of the target plate 100, extending to the maximum extent at the same height to form a flat array surface. When a marking post 110 on the front of the target plate 100 is hit by a toy bullet and slides toward the back of the target plate 100 due to the impact, the front protrusions 140 come into contact with the hole wall of the front hole 121 of the post hole 120. Since the distance between the outermost ends of the two front protrusions 140 is greater than the inner diameter of the front hole 121 of the post hole, the front protrusions 140 are squeezed by the hole wall of the front hole 121. This causes the elastic deformation groove 130 to be contracted, allowing the front protrusions 140 to have enough space to pass through the front hole 121, then they are no longer squeezed by the hole wall of the front hole 121, and the elastic deformation grooves 130 reset to their original state and the front protrusions 140 abuts against the back surface of the front plate 101. The front post cap 111 abuts against the front surface of the front plate 101. The front protrusions 140 and the front post cap 111 cooperate to clamp the front plate, thereby forming a self-locking structure, creating a mechanical stop to prevent rebound. It can be observed that there is a certain height difference between the hit marking posts 110 and the unhit ones, forming an obvious depression, making it easy to clearly identify all hit marking posts.

[0042] Furthermore, as shown in FIG. 5, the front post cap 111 is either integrally formed with the marking post 110 or fixedly connected to one end of it, with the front protrusion 140 situated at the end close to the front post cap 111. Preferably, the front post cap 111 and the marking post 110 are integrally formed, implying that the front post cap 111 is a component directly created during the manufacturing process of the marking post 110, eliminating the need for additional connection steps or components. This results in a distinct height difference between the hit marking posts 110 and the unhit marking posts 110 relative to the target plate 100, with noticeable depression marks, making it possible to clearly identify all hit marking posts 110.

[0043] Furthermore, as shown in FIGS. 2 and 5, the two sides of the rear post cap 112 extend outward in parallel along the axial direction of the marking post 110, forming a first frame body 113 and a second frame body 114. Moreover, the first frame body 113 and the second frame body 114 extend in opposite radial directions to form a first buckle 115 and a second buckle 116, respectively. The distance between the outermost ends of the first buckle 115 and the second buckle 116 is greater than the inner diameter of the rear hole 122 of the post hole 120. The bottom edges of the first buckle 115 and the second buckle 116 feature a rounded structure. Specifically, the first frame body 113 and the second frame body 114 have a certain deformation capacity, and a clamping slot 119 is formed between them. When the first frame body 113 and the second frame body 114 are squeezed, they deform towards the clamping slot 119, and upon release the squeezing, they can rebound and reset. The design of the clamping slot 119 enables the first frame body 113 and the second frame body 114 to form a mechanical lock with the edge of the post hole 120 when the marking post 110 is inserted into the post hole 120. Since the distance between the the outermost ends of the first buckle 115 and the second buckle 116 is greater than the inner diameter of the rear hole 122 of the post hole 120, the marking post 110 is less prone to falling out of the post hole 120 when subjected to external forces such as shooting impact. The rounded structure of the clamping slot helps to reduce the frictional resistance during the insertion and removal of the marking post 110 from the post hole 120, while also protecting the edge of the post hole 120 from damage.

[0044] Furthermore, as shown in FIGS. 2-5, the outer sidewalls of the first frame body 113 and the second frame body 114 are each provided with a rear protrusion 141 that is perpendicular to the axis of the marking post 110. The rear protrusions 141 cooperate with the first buckle position 115 and the second buckle position 116, respectively, to limit the rear hole 122 between them, forming a mechanical stop.

[0045] Specifically, after firing, use the use's hand or an axillary plate parallel to the target plate 100, to push the hit marking posts 110 from the back of the target 100 towards its front, allowing the front protrusions 140 pass through the front holes 121 until the inner end surfaces of the first buckle position 115 and the second buckle position 116 abut against the back of the target plate 100 and are clamped at both ends of the rear hole 122, and the rear protrusions 118 abut against the inner wall surface of the rear plate 102. Thus, the front and rear end surfaces of all marking posts 110 are realigned to form a flat array surface for subsequent use. When firing again, any marking post 110 on the front of the target plate 100 is hit by a toy bullet and slides toward the back of the target plate 100 under the impact, the rear protrusion 181 passes through the rear hole 122, and the front protrusion 140 comes into contact with the front hole 121 in the post hole 120. Since the distance between the outermost ends of the two front protrusions 140 is greater than the inner diameter d of the front hole 121 of the post hole 120, the front protrusions 140 are squeezed and the elastic deformation groove 130 is contracted, providing sufficient space and allowing the front protrusions 140 to pass through the post hole 120. The front protrusion 140 is located at the rear end of the front hole 121, and the front post cap 111 is located at the front end of the front hole 121. The front protrusion 140 cooperates with the front post cap 111 to clamp the front plate 102 at both sides of the front hole 121, forming a mechanical stop to prevent rebound, thus completing one shooting and reset operation.

[0046] Furthermore, as shown in FIGS. 2 and 5, the rear post cap 112 extends a connecting frame body 150 in the same direction between the first frame body 113 and the second frame body 114. The outer side wall of the connecting frame body 150 has support posts 151 at both ends, positioned perpendicular to the axis of the marking post 110. There are gaps between the support posts 151 and the first frame body 113 as well as the second frame body 114. When the first frame body 113 and the second frame body 114 deform into the clamping slot, the support posts 151 come into contact with the first frame body 113 and the second frame body 114, respectively. Specifically, the support posts 151 serve a supporting function, preventing the deformation of the first frame body 113 and the second frame body 114 from surpassing the plastic deformation limit due to excessive pressing, thereby ensuring they can return to their original size.

[0047] Furthermore, as shown in FIG. 5, a gradient pressure-resistant structure 160 is situated between the first frame body 113, the second frame body 114 and the rear post cap 112 to enhance support. Specifically, the gradient pressure-resistant structure 160 is designed to provide improved strength support to the first frame body 113 and the second frame body 114 when they are subjected to pressure, thereby extending their usage frequency or service life.

[0048] Furthermore, as shown in FIG. 5, the elastic deformation groove 130 is hollow and features a special-shaped notch 170 between the front protrusions 140 and the elastic deformation groove 130. Specifically, the special-shaped notch 170 is designed to allow the front protrusions 140 to be pressed down, while enhancing the tolerance. Even when the widths of the two front protrusions 140 result in inconsistent wedge-shaped bosses 171 due to insufficient mold manufacturing precision and injection molding control precision, they can still pass smoothly.

[0049] Furthermore, as shown in FIG. 10, the marker post 110 has an overall cross-shaped structure. Specifically, the cross-shaped structure is not only beneficial for saving materials but also forms a stable cross-shaped support frame, which improves the overall rigidity and stability of the marker post 110.

[0050] Furthermore, as shown in FIGS. 6-7, the outer sidewall of the marking post 110, extending from the front post cap 111 to the special-shaped notch 170, forms an axially inclined bone strip slope 190. The inner diameter of the bone strip slope 190 gradually increases towards the front post cap 111, and at an interference endpoint 191, the inner diameter of the bone strip slope 190 is greater than the inner hole diameter of the post hole 120. Specifically, the bone strip slope 190 is formed between the front post cap 111 and the special-shaped notch 170, and the diameter of the slope at a certain endpoint is greater than the inner hole diameter of the post hole 120. The purpose is that when the marking post 110 is subjected to a strong impact, due to the interference, the bone strip slope 190 is blocked, which reduces the contact between its surface and the edge bottom surface of the post hole 120, thereby minimizing the rebound force of the marking post 110 when large impact friction is generated. This helps to ensure that it remains within the upper range of the machine.

[0051] Further, as shown in FIGS. 1-9, the target plate 100 is circular, elliptical, or polygonal. Matching clamping posts 181 and clamping cylinders (not shown) are respectively provided on the opposite sides of front plate 101 and rear plate 102. Clamping post 180 is inserted into the clamping cylinder, thereby clamping front plate 101 and rear plate 102 together. Specifically, target plate 100 is designed to be circular, elliptical, or polygonal. The selection of these shapes aims to provide a wide shooting area while meeting different shooting scenarios and training needs.

[0052] The target plate 100 is composed of a hollow structure enclosed by the front plate 101 and rear plate 102. This design not only reduces the weight of the target plate 100 but also provides additional strength and stability. The hollow structure can also be used to fill sound-absorbing materials or shock-absorbing materials to reduce noise and vibration during shooting. Matching clamping posts 181 and clamping cylinders are respectively arranged on the opposite sides of front plate 101 and rear plate 102. The clamping post 181 is inserted into the clamping cylinder to form a firm clamping connection. This connection method allows for quick and simple assembly and disassembly without the need for additional fasteners or tools.

[0053] Furthermore, as shown in FIG. 8-9, a base 200 is positioned beneath the target plate 100. The base 200 features a quadrangular frustum structure with distinct trapezoidal shapes at the front and back. Supporting legs 210 are situated at each of its four corners. The upper surface of the base 200 includes a fixing cavity 220 that opens upwards. The target plate 100 extends into the fixing cavity 220, and a support leg 230 is placed below the fixing cavity 220 for additional support. The front and back ends of the quadrangular frustum structure have varying widths; the front end can be narrower, while the rear end is wider to accommodate the recoil force during shooting and to maintain stability. The supporting legs 230 provide additional stability to ensure the entire target system remains steady.

[0054] Furthermore, as shown in FIG. 9, after inverting the target plate 100, a wall-mounted fixing part 300 can also be connected to it. The wall-mounted fixing part 300 is connected to the lower part of the target plate 100 via a locking part. One end of the wall-mounted fixing part 300 is provided with a connecting hole 310. Specifically, the target plate 100 can stand on the ground or be hung on the wall, which facilitates installation.

[0055] Furthermore, as shown in FIG. 10, the disclosure also presents an alternative embodiment of the marking post 110, featuring a main body. The main body may take the form of a conventional cylindrical solid column, a hollow column, or a column of a different shape. In a preferred embodiment, the main body is constructed through a cross-shaped connection with the first side plate 110a and the second side plate 110b. This cross-shaped configuration substantially reduces the weight of the marking post 110, enabling it to slide within the column hole 120 even when subjected to minimal impact forces, thereby enhancing the sensitivity of the marking post 110.

[0056] Further, the front post cap 111 is arranged at one end of the main body, while the rear post cap 112 is arranged at the opposite end of the main body.

[0057] The symmetrical elastic deformation grooves 130 are provided on opposite sides of the main body, near the front post cap 111. Additionally, two side strips 117 are connected to the main body and are positioned on either side of the elastic deformation grooves 130. The end portion of each side strip 117 is adjacent to the front post cap 111, and the outer wall surface of this end, which is away from the elastic deformation groove 130, gradually expands to form a front protrusion 140. In a natural state, the distance between the outermost ends of the two front protrusions 140 is greater than the inner diameter of the column hole 120, specifically, larger than the inner diameter of the front hole 121.

[0058] When the main body is formed by the cross-shaped, intersecting connection of the first side plate 110a and the second side plate 110b, the two symmetrical elastic deformation grooves 130 are provided on the opposite sides of the second side plate 110b near the front post cap 111. Symmetrical side strips 117 extend from the opposite sides of the second side plate 110b. The two side strips 117 are in the same direction as the first side plate 110a and are located on one side of the elastic deformation groove 130.

[0059] As shown in FIGS. 12-15, the front hole 121 is provided on the front plate 101 of the target plate 100. A front convex hole 121′ extends from the inner side of the front plate 101 at the front hole 121, and the front hole 121 and the front convex hole 121′ are coaxial. The aperture of the front convex hole 121′ gradually expands from the connection between its inner hole wall and the front hole 121, forming a front inclined surface 123 on the inner hole wall.

[0060] The marker post 110 is forced to slide within the post hole 120 upon impact. When the front protrusion 140 enters the front hole 121, its outer wall surface abuts against the hole wall of the front hole 121, encountering resistance opposite to its sliding direction, which slows down the sliding speed. This reduces the force with which the front cap 111 of the marker post 110 moves rapidly and strikes the outer side of the front plate 101, thereby preventing the front cap 111 of the marker post 110 from moving in the opposite direction due to the reaction force from the front plate 101, which would make it impossible to clearly identify the marker post 110 that is hit by the shot.

[0061] After the front protrusion 140 passes through the front hole 121, since the aperture of the front convex hole 121′ gradually expands from the connection between its inner hole wall and the front hole 121, the resisting force against the outer wall surface of the front protrusion 140 is gradually reduced, and the front protrusion 140 gradually resets.

[0062] Conversely, the front cap 111 of the marker post 110 moves in the opposite direction under the reaction force from the front plate 101. When the front protrusion 140 enters the front protrusion hole 121′ in the reverse direction, the outer wall of the front protrusion 140 abuts against the front inclined surface 123 of the front protrusion hole 121′. Furthermore, as the depth of the front protrusion 140 entering the front protrusion hole 121′ increases, the abutting force becomes stronger, thereby preventing the reverse movement of the marker post 110 as much as possible. This forms a self-locking structure that limits the front hole 121 between the front protrusion 140 and the front cap 111, creating a mechanical stop.

[0063] Preferably, a clamping protrusion 141 is provided on the inner wall surface of the front protrusion 140 close to the elastic deformation groove 130. The clamping protrusion 141 limits the deformation of the front protrusion 140. When the front protrusion 140 deforms into the elastic deformation groove 130 until the clamping protrusion 141 abuts against the bottom surface of the elastic deformation groove 130, the front protrusion 140 cannot deform further, thereby preventing the front protrusion 140 from deforming beyond the limit and failing to reset.

[0064] It should be understood that when the clamping protrusion 141 abuts against the bottom surface of the elastic deformation groove 130, the distance between the outermost ends of the outer wall surfaces of the two front protrusions 140 is smaller than the aperture d of the front hole 121, thereby enabling the marking post 110 to pass through the front hole 121 in the forward or reverse direction under the action of an external force.

[0065] Further, when the first buckle 115 and the second buckle 116 of the marking post 110 contact with the back of the target plate 100, the distance between the front end surface 111 of the marking post 110 and the front surface of the target plate 100 is between 0.3-4 centimeters, with a preferred range of 0.5-1 centimeters. To ensure that the marking post 110 can slide smoothly within the post hole after impact, a loose fit design is implemented between them. Preferably, the marking post 110 is placed parallel to the post hole, meaning in a horizontal orientation. It is important to note that if the marking post 110 is excessively long or the portion extending out of the post hole 120 is too great, it can easily cause the marking post to tilt, thereby diminishing the smoothness of its sliding motion under force.

[0066] When the first buckle 115 and the second buckle 116 of the marking post 110 are in contact with the back of the target plate 100, the distance between the front end face 111 of the marking post 110 and the front of the target plate 100 is 0.3-4 cm, preferably 0.5-1 cm. To ensure that the marking post 110 can slide smoothly in the post hole 120 after being impacted, a loose fit design is adopted between the two. The placement direction of the marking post 110 is preferably parallel to the post hole 120, that is, in a horizontal direction. It should be particularly noted that if the marking post 110 is too long or the part exposed out of the post hole 120 is too much, it is easy to cause the marking post to tilt, thereby reducing the smoothness when it slides under force.

[0067] Furthermore, on both sides of the edge strip 117, near the second side plate 110b, a first frame body 113 and a second frame body 114 extend respectively. The first frame body 113 and the second frame body 114 are parallel, extending in opposite radial directions to form a first buckle position 115 and a second buckle position 116, respectively. The distance between the outermost sides of the first buckle position 115 and the second buckle position 116 is greater than the inner diameter of the rear hole 122 of the column hole 120. The outer side walls of the first frame body 113 and the second frame body 114 are provided with rear protrusions 118 perpendicular to the axis of the indicator column 110. A clamping slot 119 is provided between the first frame body 113 and the second frame body 114. The rear post cap 112 is provided with a connecting frame body 150 in the clamping slot 119, which extends towards the first frame body 113 and the second frame body 114. The outer side walls of the connecting frame body 150 are each equipped with identical support columns 151, positioned perpendicular to the axis. There are also gaps between the two support columns 151 and both the first frame body 113 and the second frame body 114.

[0068] The rear hole 122 is arranged on the rear plate 102 of the target plate 100. A rear convex hole 122′ is arranged on the inner wall surface of the rear plate 102 at the rear hole 122. The rear convex hole 122′ and the rear hole 122 share are coaxial. The aperture of the rear convex hole 122′ gradually expands from the connection between its inner hole wall and the rear hole 122, resulting in the inner hole wall forming a rear inclined surface 124.

[0069] When the marker post 110 is impacted and forced to slide within the post hole 120, and the rear protrusion 118 enters the rear protrusion hole 122′, the rear inclined surface 124 abuts and presses against the rear protrusion 118. On one hand, this causes the first frame body 113 and the second frame body 114 to deform towards the clamping groove 119 until they abut against the support post 151. On the other hand, it generates resistance to the marker post 110, reducing its speed and lessening the force with which the front post cap 111 moves rapidly and strikes the outer surface of the front plate 101, thereby preventing it from rebounding. In this manner, the cooperation between the rear protrusion 118 and the rear protrusion hole 122′, as well as the interaction between the front protrusion 140 and the front hole 121, results in a dual obstruction of the marking post 110. This further diminishes the force with which the front post cap 111 moves rapidly and strikes the outer side of the front plate 101, thereby preventing it from rebounding.

[0070] Conversely, after the marking post 110 is forced to slide into the post hole 120 due to impact until the rear protrusion 118 passes through the rear hole 122, the first frame body 113 and the second frame body 114 reset. If neither the cooperation between the rear protrusion 118 and the rear convex hole 122′ nor the cooperation between the front protrusion 140 and the front hole 121 can prevent the front post cap 111 of the marking post 11 from moving rapidly, hitting the front plate 101, and being rebounded, thereby moving in the reverse direction, the rear protrusion 118 will abut against the orifice of the rear hole 122, thus further preventing the marker post 11 from rebounding in the reverse direction.

[0071] It should be understood that when the first frame body 113 and the second frame body 114 are in a natural state, the distance between the outermost points of the two rear clamping protrusions 141 is greater than the inner diameter of the rear hole 122. When the first frame body 113 and the second frame body 114 are deformed to abut against the support column 151, the distance between the outermost points of the two rear clamping protrusions 141 is smaller than the inner diameter of the rear hole 122, allowing the two rear clamping protrusions 141 to enter and exit the rear hole 122 in either the forward or reverse direction. However, even when the first frame body 113 and the second frame body 114 are deformed to abut against the support column 151, the distance between the outermost sides of the first buckle position 115 and the second buckle position 116 remains greater than the inner diameter of the rear hole 122 of the column hole 120, ensuring that the marking column 110 cannot fall off from the rear hole 122 of the column hole 120.

[0072] Preferably, the distance between the rear clamping protrusion 141 and the first clamping position 115 or the second clamping position 116 is slightly greater than the thickness of the rear plate 102, ensuring that the rear plate 102 is clamped on both sides of the rear hole to achieve mechanical self-locking.

[0073] The above descriptions are merely preferred embodiments of the disclosure and are not intended to limit the disclosure. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the disclosure shall be included in the protection scope of the disclosure.

Examples

Embodiment Construction

[0036]The embodiments of the present invention are described in detail below, and examples of the embodiments are shown in the attached Figures, where the same or similar label from beginning to end represents the same or similar element or element with the same or similar function. The following embodiments described by reference to the attached drawings are exemplary and are intended to be used to explain the embodiments of the present invention, and can not be understood as limiting the present invention.

[0037]In the description of the embodiments of the present invention, it needs to be understood that the azimuth or position relation indicated in the term “length”, “width”, “upper”, “lower”, “front”, “rear”, “left”, “right”, “vertical”, “horizontal”, “top”, “bottom”, “inside”, “outside” and so on is based on the azimuth or position relation shown in the attached figure, only for the convenience of describing the embodiments and simplifying the description of the present inventi...

Claims

1. A memory-type anti-rebound toy target, comprising a target plate and a plurality of marking posts; a plurality of post holes are arranged in an array on the target plate, and each marking post is slidably situated in one post hole, wherein,the target plate is a hollow structure enclosed by a front plate and a rear plate, each post hole includes a front hole on the front plate and a rear hole on the rear plate, arranged in pairs;the marking post has a main body part, with a front post cap and a rear post cap respectively disposed at opposite ends thereof; an outer diameter of the front post cap is greater than an inner diameter of the post hole; two symmetrical elastic deformation grooves are arranged on opposite sides of the marking post near the front post cap, and two side strips are connected to the main body and positioned beside the elastic deformation grooves, respectively; an end portion of each side strip is adjacent to the front post cap and gradually expands to form a front protrusion; in a natural state, a distance between an outermost ends of the two front protrusions is greater than the inner diameter of the front hole of the post hole; when the marking post undergoes an impact to slide within the post hole, the front protrusion is compressed as it moves inside the front hole, causing the elastic deformation groove to deform and contract; when the front post cap contacts with the front surface of the target plate, the front protrusion passes through the front hole, and the elastic deformation groove resets and expands, allowing the front post cap and the front protrusion to clamp the front plate on both sides of the front hole.

2. The memory-type anti-rebound toy target according to claim 1, wherein the main body is formed by a cross-shaped connection with a first side plate and a second side plate, two symmetrical elastic deformation grooves are provided on opposite sides of the second side plate near the front post cap; symmetrical side strips extend from the opposite sides of the second side plat, aligning with the first side plate and positioned on one side of the elastic deformation groove.

3. The memory-type anti-rebound toy target according to claim 2, wherein a clamping protrusion is provided on the inner wall surface of the front protrusion close to the elastic deformation groove.

4. The memory-type anti-rebound toy target according to claim 2, wherein each elastic deformation groove is hollow and features a special-shaped notch between the front protrusion and the elastic deformation groove.

5. The memory-type anti-rebound toy target according to claim 4, wherein an outer sidewall of the marking post, extending from the front post cap to the special-shaped notch, forms an axially inclined bone strip slope; an inner diameter of the bone strip slope gradually increases towards the front post cap, and at an interference endpoint, the inner diameter of the bone strip slope is greater than an inner diameter of the post hole.

6. The memory-type anti-rebound toy target according to claim 1, wherein the two sides of the rear post cap respectively extend outward in parallel along the axial direction of the marking post, forming a first frame body and a second frame body; the first frame body extends in one radial direction, while the second frame body extends in the opposite radial direction, forming a first buckle and a second buckle, respectively; a distance between outermost ends of the first buckle and the second buckle is greater than an inner diameter of the rear hole of the post hole; a clamping slot is formed between the first frame body and the second frame body.

7. The memory-type anti-rebound toy target according to claim 2, wherein the two sides of the rear post cap respectively extend outward in parallel along the axial direction of the marking post, forming a first frame body and a second frame body; the first frame body extends in one radial direction, while the second frame body extends in the opposite radial direction, forming a first buckle and a second buckle, respectively; a distance between outermost ends of the first buckle and the second buckle is greater than an inner diameter of the rear hole of the post hole; a clamping slot is formed between the first frame body and the second frame body.

8. The memory-type anti-rebound toy target according to claim 3, wherein the two sides of the rear post cap respectively extend outward in parallel along the axial direction of the marking post, forming a first frame body and a second frame body; the first frame body extends in one radial direction, while the second frame body extends in the opposite radial direction, forming a first buckle and a second buckle, respectively; a distance between outermost ends of the first buckle and the second buckle is greater than an inner diameter of the rear hole of the post hole; a clamping slot is formed between the first frame body and the second frame body.

9. The memory-type anti-rebound toy target according to claim 4, wherein the two sides of the rear post cap respectively extend outward in parallel along the axial direction of the marking post, forming a first frame body and a second frame body; the first frame body extends in one radial direction, while the second frame body extends in the opposite radial direction, forming a first buckle and a second buckle, respectively; a distance between outermost ends of the first buckle and the second buckle is greater than an inner diameter of the rear hole of the post hole; a clamping slot is formed between the first frame body and the second frame body.

10. The memory-type anti-rebound toy target according to claim 5, wherein the two sides of the rear post cap respectively extend outward in parallel along the axial direction of the marking post, forming a first frame body and a second frame body; the first frame body extends in one radial direction, while the second frame body extends in the opposite radial direction, forming a first buckle and a second buckle, respectively; a distance between outermost ends of the first buckle and the second buckle is greater than an inner diameter of the rear hole of the post hole; a clamping slot is formed between the first frame body and the second frame body.

11. The memory-type anti-rebound toy target according to claim 6, wherein an outer sidewalls of both the first frame body and the second frame body are respectively provided with a rear protrusion perpendicular to the axis of the marking post; the rear protrusions respectively cooperate with the first buckle position and the second buckle position to limit the rear hole therebetween.

12. The memory-type anti-rebound toy target according to claim 1, wherein a front convex hole extends from an inner side of the front plate at the front hole, and the front hole and the front convex hole are coaxial; an aperture of the front convex hole gradually expands from a connection between an inner hole wall thereof and the front hole, thereby making the inner hole wall form a front inclined surface.

13. The memory-type anti-rebound toy target according to claim 2, wherein a front convex hole extends from an inner side of the front plate at the front hole, and the front hole and the front convex hole are coaxial; an aperture of the front convex hole gradually expands from a connection between an inner hole wall thereof and the front hole, thereby making the inner hole wall form a front inclined surface.

14. The memory-type anti-rebound toy target according to claim 3, wherein a front convex hole extends from an inner side of the front plate at the front hole, and the front hole and the front convex hole are coaxial; an aperture of the front convex hole gradually expands from a connection between an inner hole wall thereof and the front hole, thereby making the inner hole wall form a front inclined surface.

15. The memory-type anti-rebound toy target according to claim 4, wherein a front convex hole extends from an inner side of the front plate at the front hole, and the front hole and the front convex hole are coaxial; an aperture of the front convex hole gradually expands from a connection between an inner hole wall thereof and the front hole, thereby making the inner hole wall form a front inclined surface.

16. The memory-type anti-rebound toy target according to claim 5, wherein a front convex hole extends from an inner side of the front plate at the front hole, and the front hole and the front convex hole are coaxial; an aperture of the front convex hole gradually expands from a connection between an inner hole wall thereof and the front hole, thereby making the inner hole wall form a front inclined surface.

17. The memory-type anti-rebound toy target according to claim 12, wherein a rear convex hole is arranged on an inner wall surface of the rear plate at the rear hole; the rear convex hole and the rear hole are coaxial; the aperture of the rear convex hole gradually expands from a connection between an inner hole wall thereof and the rear hole, resulting the inner hole wall forming a rear inclined surface.

18. The memory-type anti-rebound toy target according to claim 6, wherein a gradient pressure-resistant structure is situated between the first frame body, the second frame body, and the rear post cap to enhance support.

Images