The structure of slide stop for electric toy gun after empty magazine.
Patent Information
- Application Number
- TW114109865
- Authority / Receiving Office
- TW · TW
- Patent Type
- Applications
- Current Assignee / Owner
- Filing Date
- 2025-03-17
- Publication Date
- 2026-10-01
- Estimated Expiration
- 2045-03-16
Smart Images
Figure TWG2TA001077474_001 
Figure TWG2TA001077474_002 
Figure TWG2TA001077474_003
Abstract
Description
Technical Field
[0001] This invention relates to an electric toy gun, and more particularly to an electric toy gun with a magazine-locking structure that automatically locks the slide and cuts off battery power when the magazine is empty. Prior Technology
[0002] The slide lock-up function, commonly found in toy pistols, is primarily designed to simulate the automatic rearward stop of the slide when the magazine is empty in a real firearm. This aims to enhance realism and provide users with a more authentic firearm experience. The core function of the slide lock-up is that once the BBs in the magazine are depleted, the slide automatically locks in the rearward position, providing the user with clear feedback that ammunition has been depleted. In some systems, it can also interrupt the firing action to reduce the risk of accidental misoperation. However, from an engineering and technical implementation perspective, the slide lock-up function in toy guns inevitably comes with several technical drawbacks, including increased structural complexity, reduced reliability, limited operability, and increased manufacturing costs. Therefore, toy gun designers, while pursuing realism, must carefully weigh the economic benefits of the slide lock-up function against its potential technical limitations.
[0003] The complexity of the sliding sleeve's rear-positioning mechanism is primarily reflected in its operating principle and structural design. To achieve the sliding sleeve's rear-positioning function, the internal structure of the toy gun must undergo additional design and adjustments. Whether it is an electric, pneumatic, or firing pin-type toy gun, it is necessary to add sophisticated and complex sensing elements and mechanical linkage mechanisms in addition to the existing structure.
[0004] Taking electric toy guns as an example, a typical slide-locking design requires the integration of miniature sensors (such as infrared sensors or microswitches) to accurately detect the remaining number of BBs in the magazine. Simultaneously, a sophisticated electronic circuit control system is needed, with meticulous consideration in circuit design to accurately detect the firing timing of the last BB in the magazine. Upon determining that ammunition is exhausted, the motor power supply is quickly cut off, thereby driving the mechanical locking device or slide latch to firmly lock the slide in the preset rear position. While pneumatic and firing pin toy guns differ from electric guns in their power drive methods, achieving the same slide-locking effect also requires significant effort in mechanical structure design. This involves ingeniously designing the BB propulsion components inside the magazine and the linkages or latches inside the slide, achieving the slide-locking function through a purely mechanical linkage mechanism. Whether electronically assisted or purely mechanical, these additional parts, and the sophisticated design required to integrate them, make the internal structure of toy guns more complex, significantly increasing the difficulty of design and manufacturing. This directly drives up the overall production cost, which is undoubtedly an economic burden for toy products that are originally positioned in the mass consumer market.
[0005] A more serious technical flaw lies in the fact that structural complexity often directly leads to reduced product reliability. Compared to the clean, temperature-controlled laboratory environment of precision instruments, the actual usage environment of toy guns is extremely harsh. Frequent and high-intensity operation, unavoidable collisions, and even improper user habits can all pose potential risks of damage to the intricate sliding mechanism inside the toy gun. Especially in terms of tolerance control of parts and the durability of materials used in the mechanism, toy gun manufacturers often have to make certain compromises and trade-offs under the dual considerations of market competition and cost control. Once any small part in the sliding mechanism, such as sensors, microswitches, latches, connecting rods, springs, or magazine pushers, suffers from problems such as insufficient material strength, friction and stress fatigue from prolonged repeated use, environmental factors, or misalignment due to accumulated manufacturing tolerances, it is highly likely to cause the sliding mechanism to malfunction or reduce the accuracy and durability of the mechanism. At best, the slide may fail to properly retain its position when ammunition is depleted; at worst, it may malfunction without warning during normal firing, such as the slide unexpectedly getting stuck in the rear even when there are still BBs in the magazine. This not only causes unnecessary operational inconvenience for the user, but may also cause the user to miss crucial opportunities in fast-paced game scenarios.
[0006] The specific implementation of the slide stop mechanism in toy guns with different drive systems, as well as the technical bottlenecks they face, vary significantly. In electric toy gun systems, the implementation of the slide stop function relies heavily on precise electronic sensing and control mechanisms. To accurately determine the firing timing of the last BB in the magazine and trigger the slide stop mechanism in a very short time, designers must use highly sensitive miniature sensors, coupled with fast-responding electronic switches and complex circuit control logic. However, under high-frequency, high-intensity operating environments, especially the repeated impacts and vibrations generated during toy gun firing, miniature sensors and electronic switches are prone to metal fatigue and poor electrical contact, leading to unstable electronic signal transmission. This can result in power outage judgment errors or trigger signal delays, significantly reducing the overall reliability of the slide stop function and potentially increasing the risk of accidental triggering.
[0007] In contrast, while pneumatic and firing pin toy guns can rely on purely mechanical structures to achieve the sliding back-lock function, seemingly avoiding the reliability issues of electronic components, they actually face greater challenges in mechanical design. The sliding back-lock mechanism of pneumatic and firing pin toy guns typically requires extremely precise machining of mechanical parts and ingenious structural design to ensure that the BB propellant assembly inside the magazine can precisely interact with the connecting rod or latch inside the slide with just the right force and angle when the BB ammunition is depleted, thus successfully triggering the slide's back-lock. However, due to limitations in toy gun manufacturing processes and materials, factors such as accumulated tolerances, component wear, and changes in environmental temperature and humidity can negatively impact the precision and sensitivity of the mechanical structure. This means that pneumatic and firing pin toy guns also face technical bottlenecks in achieving the sliding back-lock function, including unstable mechanism operation and a tendency to misjudge and malfunction. For example, the sliding sleeve of a pneumatic system relies on the residual air pressure at the moment of firing for triggering. In low-temperature environments, the expansion efficiency of liquefied gas drops sharply, which may lead to insufficient reciprocating stroke of the sliding sleeve, making it impossible to fully trigger the locking mechanism and resulting in misjudgment.
[0008] From the user's perspective, while the introduction of the slide lock function theoretically provides a more intuitive ammunition depletion indicator, the additional steps and potential inconvenience it introduces in actual use are drawbacks that cannot be ignored. When a toy gun enters the slide lock state due to an empty magazine, the user usually needs to manually "release the slide" after changing the magazine to release the lock and restore normal firing function. This extra step is undoubtedly cumbersome for players who prioritize quick reactions and a smooth gaming experience. Furthermore, on some poorly designed toy guns, the slide release mechanism may not be smooth enough, requiring significant effort or multiple attempts to successfully release the slide. This not only significantly reduces the smoothness and intuitiveness of operation, preventing users from achieving optimal gameplay, but may also negatively impact their competitive performance due to the inconvenience. Furthermore, if the release mechanism design after the slide is fixed is too complicated or laborious for the user, it may reduce the user experience or even damage the toy gun parts due to improper operation.
[0009] Because the sliding sleeve's locking mechanism involves multiple precision parts, its manufacturing and assembly process faces numerous challenges. The machining accuracy of the parts and the assembly process require extremely high precision; even minute dimensional deviations can affect the mechanism's operation. Toy guns commonly use plastics and low-strength alloys as their main materials, whose durability and precision are far inferior to real guns. With prolonged use, friction and stress fatigue can easily lead to part deformation or wear, thus affecting the mechanism's stability. Environmental factors such as changes in temperature and humidity, as well as the entry of dust, mud, or oil into the mechanism, can also affect the smooth operation of the sliding sleeve and locking device, causing the mechanism to jam or experience abnormal wear, reducing product lifespan and reliability. Furthermore, improper user operation, such as forcibly releasing the lock or improper maintenance, can also damage internal parts, further affecting the mechanism's function.
[0010] In summary, while the slide-lock mechanism in toy gun design achieves the design goals of simulating real gun operation and enhancing product realism to a certain extent, and provides users with a more realistic operating experience in specific situations, it also has many technical defects and potential drawbacks. These include structural complexity, reduced reliability, inherent technical challenges under different drive systems, and potential negative impacts on the user experience. These are real-world considerations that toy gun designers and users cannot avoid when weighing the actual value of the slide-lock mechanism. Designers need to strike a precise balance between realism and system stability when developing slide-lock mechanisms, and strictly control the manufacturing process and material selection to minimize potential failure risks and ensure stable performance in long-term use. In the future, the development of slide-lock technology may further improve its reliability and ease of operation through higher-strength composite materials, more precise processing technology, and more intelligent electronic sensing systems. This could enhance the user experience while effectively reducing maintenance costs and failure rates, making it more competitive in the toy gun market. However, in pursuing the diversification and realism of toy gun functions, toy gun manufacturers should perhaps think more deeply about how to find a more reasonable balance between the realism, operability, and most importantly, the reliability of the product, rather than blindly pursuing seemingly dazzling features while neglecting the most essential durability and ease of use of toy gun products. This is putting the cart before the horse and will greatly reduce the overall performance of the product and the user experience.
[0011] In view of the aforementioned shortcomings of conventional methods, the inventors researched ways to improve upon these shortcomings, and finally, this invention came into being. Summary of the Invention
[0012] The main objective of this invention is to provide an empty magazine locking structure for an electric toy gun that can automatically lock the slide when the magazine is empty, thereby simulating real gun operation and indicating that the ammunition is depleted.
[0013] The secondary objective of this invention is to provide a battery power interruption structure for an electric toy gun that simultaneously achieves battery power interruption while the slide is locked, thereby improving safety and saving power.
[0014] To achieve the above objectives and effects, the technical means adopted by the rear-mounted structure of the electric toy gun of the present invention include: a toy gun body, a slide, and a magazine, wherein: the toy gun body includes a grip and a gun frame, the grip is provided with a receiving groove, the gun frame is located above the grip, a rear-mounted component is pivotally mounted in the middle of the gun frame, the top of the rear-mounted component is provided with a positioning part, and a side plate extends from one side of the rear-mounted component, the side plate being located inside the gun frame; The slide sleeve is fitted onto the gun frame and moves back along the barrel axis. The inner wall of the slide sleeve has a positioning groove. The magazine is detachably installed in the receiving groove. The magazine has an ejection hole at its top and a through hole on its side. The magazine has a receiving space containing a spring and a ejector. A push rod is located on one side of the ejector. The spring releases its force to push the ejector, causing it to stop at the ejection hole, allowing the push rod to pass through the magazine. The toy gun body has a perforation; thereby, BBs are pre-loaded into the magazine and fired. The spring force pushes the top spring member, pushing the BBs out one by one from the ejection hole. When the top spring member stops in the ejection hole, the push rod of the top spring member passes through the perforation of the magazine to push the side plate of the rear fixing member, thereby causing the positioning part of the rear fixing member to engage with the positioning groove of the slide, thus achieving the electric toy gun empty magazine rear fixing structure where the toy gun body automatically locks the slide when the magazine is empty.
[0015] According to the above structure, the positioning groove can be provided on the inner wall of the right side or the inner wall of the sliding sleeve. In accordance with the position of the positioning groove, the rear fixing member can be provided on the right side or the left side of the gun frame, so as to achieve a structure that can accommodate left-handed and right-handed users.
[0016] According to the above structure, an opening is provided on one side of the gun frame, a micro switch is provided on the inner wall of the gun frame at the opening, and a push rod extends from the rear fixing member at the side plate, so that the side plate and the push rod extend into the gun frame through the opening.
[0017] According to the above structure, the push rod of the top spring member passes through the through hole of the magazine and simultaneously pushes the side plate of the rear fixing member and the top rod, thereby achieving the structure in which the top rod pushes the micro switch to switch the ON-OFF state of the micro switch.
[0018] According to the above structure, the micro switch is electrically connected to the preset motor and the preset battery. When the push rod pushes the micro switch to switch its ON-OFF state, it controls the power supply of the preset battery, thereby achieving the structure of starting or stopping the preset motor.
[0019] According to the above structure, the opening and the micro switch can be located on the right or left side of the gun frame.
[0020] According to the above structure, a shaft hole is provided on one side of the gun frame, and a pivot shaft extends from the rear fixing member, which is pivotally mounted in the shaft hole.
[0021] According to the above structure, the top of the magazine is provided with a concave surface, and the through hole is provided on the concave surface.
[0022] According to the above structure, the concave surface can be located on the left or right side of the top of the magazine, or both sides simultaneously; in accordance with the position of the concave surface, the push rod can be located on the left or right side of the top magazine, or both sides simultaneously.
[0023] According to the above structure, the top spring component includes at least a first sliding component and a second sliding component. The first sliding component is provided with a plurality of auxiliary push rods and a recess; the second sliding component is provided with a plurality of push rods and a plurality of connecting parts. The top spring component slides and moves in the through hole of the magazine and abuts against the side plate and top rod of the rear fixing component.
[0024] To provide a more concrete understanding of the above-mentioned objectives, effects, and features of the present invention, the following description is provided with reference to the accompanying drawings: Simple Explanation of the Diagram
[0025] [Figure 1] is an exploded perspective view of a preferred embodiment of the present invention.
[0026] [Figure 2] is an enlarged view of some of the components in [Figure 1].
[0027] [Figure 3] is an enlarged view of the dashed line A in [Figure 1].
[0028] [Figure 4] is a schematic diagram of the operation of a preferred embodiment of the present invention.
[0029] [Figure 5] is a schematic diagram of the operation of a preferred embodiment of the present invention.
[0030] [Figure 6] is an enlarged view of the dashed line B in [Figure 4].
[0031] [Figure 7] is a schematic diagram of the action after removing some components in [Figure 4].
[0032] [Figure 8] is a schematic diagram of [Figure 7] from another angle.
[0033] [Figure 9] is a three-dimensional schematic diagram showing the movement of some components in [Figure 4]. Implementation
[0034] It should be emphasized that the structure and operation of electric toy guns have been publicly disclosed and widely used in the market for many years. Their technical details and operating principles are easily accessible and known in the industry and to the public, falling within the scope of conventional technology. The structural design and operating mechanism of the electric toy gun involved in this case are well-known and mature technologies that have been publicly disclosed for many years, constituting prior art in the relevant technical field. Industry professionals are familiar with its operating principles and technical details. Therefore, such technologies are not the innovative technical features claimed in this case, nor are they covered by the scope of the claims in this case. To focus on the truly innovative and patent-worthy core technology of this case, and to avoid redundant descriptions of existing technical details that would affect the clarity and key points of the technical content, these long-disclosed and established technologies will not be elaborated upon further.
[0035] Please refer to Figures 1 to 3. The structure of this invention mainly includes: a toy gun body 1, a slide 2, and a magazine 3. The toy gun body 1 includes a grip 11 and a gun frame 12. The grip 11 has a receiving groove 111 for accommodating the magazine 3. The gun frame 12 is located above the grip 11, and a rear fixing member 13 is pivotally mounted in the middle section of the gun frame 12 (see Figure 2 for auxiliary reference). The top of the rear fixing member 13 has a positioning part 131, and a side plate 132 extends from one side of the rear fixing member 13, located inside the gun frame 12. An opening 121 is provided on one side of the gun frame 12, and a micro switch 122 is provided on the inner wall of the gun frame 12 at this opening 121 (see Figures 3 and 7 for auxiliary reference). A shaft hole 123 is also provided on one side of the gun frame 12, and a rotating shaft 134 extends from the rear fixing member 13, pivotally mounted in the shaft hole 123. The rear mounting piece 13 extends a push rod 133 from one side of the side plate 132, so that the push rod 133 extends into the gun frame 12 through the opening 121; and the micro switch 122 is electrically connected to the preset motor of the grip 11 and the preset battery of the magazine 3 (not shown in the figure).
[0036] When the push rod 133 is pushed, it actuates the micro switch 122, thereby controlling the preset motor to start or stop according to the ON-OFF state of the micro switch 122.
[0037] The slide sleeve 2 is fitted onto the gun frame 12 and moves back along the barrel axis. The inner wall of the slide sleeve 2 is provided with a positioning groove 21, which is used to automatically lock with the positioning part 131 of the rear fixing member 13.
[0038] The magazine 3 is detachably installed in the receiving slot 111. The magazine 3 has a magazine outlet hole 32 at the top and a concave surface 34 on the side of the top, with a through hole 33 on the concave surface 34. The magazine 3 has a receiving space 31 inside. The receiving space 31 has a spring 35 and a top spring member 36 (see Figure 2 for auxiliary reference). A push rod 361 is provided on one side of the top spring member 36. The spring 35 releases its elastic force upward to push the top spring member 36, so that the top spring member 36 moves upward and stops at the magazine outlet hole 32. At the same time, the push rod 361 extends through the through hole 33 of the magazine 3 and pushes the side plate 132 and the push rod 133 of the rear fixing member 13 upward accordingly.
[0039] It should be noted that the top spring member 36 inside the magazine 3 includes at least: a first sliding member 36a and a second sliding member 36b; the first sliding member 36a is provided with a plurality of auxiliary push rods 360 and a recess 3601; the second sliding member 36b is provided with a plurality of push rods 361 and a plurality of connecting parts 3611; the plurality of connecting parts 3611 of the first sliding member 36a and the plurality of recesses 3601 of the second sliding member 36b are pivotally connected to form a toggle-type actuation structure. Furthermore, the plurality of auxiliary push rods 360 of the first sliding member 36a are linked to the plurality of push rods 361 of the second sliding member 36b, so that the top spring member 36 can smoothly slide and displace in the through hole 33 of the magazine 3 to abut against the plurality of auxiliary push rods 360 of the first sliding member 36a and the plurality of push rods 361 of the second sliding member 36b, as described in the previous paragraph, and slide and displace in the through hole 33 of the magazine 3, and abut against the side plate 132 and the top rod 133 of the push post member 13.
[0040] Please refer to Figures 1 and 4 through 9 simultaneously. When the user fires BBs through the toy gun body 1, the BBs in the magazine 3 are ejected sequentially through the ejection port 32, causing the magazine 3 to be less or no longer subjected to BB pressure. At this time, the spring 35 in the receiving space 31 can gradually release its elasticity and sequentially push the top cartridge 36 upward to stop at the ejection port 32 (see Figure 5 for auxiliary reference). As the top cartridge 36 rises, the push rod 361 on one side extends through the through hole 33 in the concave surface 34 of the magazine 3 and then abuts against the side plate 132 and the top rod 133 of the rear fixing member 13. The push rod 361 causes the rear fixing member 13 to rotate slightly in the shaft hole 123 on one side of the gun frame 12 by the pivot 134, thereby causing the positioning part 131 on the top of the rear fixing member 13 to rise and move to a position where it can abut against the positioning groove 21 on the inner wall of the sliding sleeve 2.
[0041] Simultaneously, the push rod 133 extends into the interior of the gun frame 12 through the opening 121 on one side of the gun frame 12. Its movement actuates the micro switch 122 located there. The micro switch 122 is electrically connected to a preset motor and a preset battery. Its ON-OFF state changes with the push rod 133, thereby causing the preset motor to start or stop according to the state. Under the recoil effect of the gun frame 12 caused by BB firing or the action of the reset mechanism in the design, the slide 2 gradually resets along the barrel axis, and finally precisely aligns with the positioning part 131 on the top of the rear locking member 13 through the positioning groove 21 on its inner wall, completing the automatic locking. This automatic locking state fixes the slide 2 inside the gun frame 12, indicating that the BBs in the magazine 3 are completely exhausted, and puts the entire mechanism into a stable empty magazine rear locking state.
[0042] If the user can observe the final backward state of the slide 2, they will know that the BBs in the magazine 3 are completely exhausted and need to be reloaded. If the user wishes to continue firing, they can manually press the rear retainer 13 to rotate it in the reverse direction (from the user's perspective), thereby releasing the mechanical lock between the positioning part 131 and the positioning groove 21. Once the lock is released, the slide 2 can resume its forward movement, return to the preset position, and allow the BBs in the magazine 3 to be replaced or replenished, ensuring that the firing function is restored to normal.
[0043] The design of this invention also takes into account the operating habits of different users, especially the differences between left-handed and right-handed users, providing a more adaptable structural configuration. The positioning groove 21 can be set on the inner wall of the right side or the inner wall of the slide sleeve 2 to accommodate the usage needs of different dominant hands. Correspondingly, the rear fixing member 13 can also be set on the right side or the left side of the gun frame 12 according to the position of the positioning groove 21, ensuring that it can smoothly cooperate with the slide sleeve 2 and provide a consistent locking and unlocking operation experience.
[0044] Furthermore, to enhance adaptability, the concave surface 34 can be located on the left or right side of the top of the magazine 3, or both sides, to provide more flexible structural configuration options. Depending on the position of the concave surface 34, the push rod 361 can also be located on the left or right side of the top magazine 36, or both sides, to ensure that both left-handed and right-handed users can obtain the same operational convenience and stability when changing magazines and operating the empty magazine locking mechanism.
[0045] Through the above design, the present invention not only improves the versatility of electric toy guns, but also ensures that both left-handed and right-handed users can intuitively and smoothly operate the empty magazine rear-mounted structure of the present invention without additional adaptation, thereby improving the overall user experience and market adaptability.
[0046] The empty magazine rear-mounted structure of the electric toy gun of this invention has the following advantages in terms of structural design and functional implementation:
[0047] I. Enhance the realism of operation and user experience:
[0048] One of the core advantages of this structural design is its ability to effectively enhance the realism of operating electric toy guns. Through the empty magazine locking function, when the BBs in magazine 3 are depleted, i.e., the magazine is empty, slide 2 will automatically lock in the rear position. This design simulates the operation of a real gun when the ammunition is exhausted. Compared to traditional electric toy guns that can continue firing even after the magazine is empty, this design provides a more realistic operating experience, enhancing the user's immersion.
[0049] II. To allow users to intuitively assess the status of the toy gun:
[0050] This invention not only simulates the empty magazine state of a real gun, but also integrates a micro switch 122. Through the linkage between the rear-mounted component 13 and the push rod 133, when the toy gun is in the empty magazine state, the push rod 133 can push the micro switch 122, thereby switching the ON-OFF state of the micro switch 122. By electrically connecting the micro switch 122 to the preset motor and preset battery, this structure can further control the start or stop of the preset motor. Users can more intuitively determine whether the toy gun still has ammunition or has entered an empty magazine state by whether the motor is running. Compared to traditional toy guns, this design provides a clearer and more intuitive way to determine the status, improving operational convenience.
[0051] III. Flexibility and Adjustment Space in Structural Design:
[0052] The structure of this invention also exhibits a high degree of flexibility and adjustment space in its design. Taking the positions of the positioning groove 21 and the rear fixing member 13 as an example, the positioning groove 21 can be flexibly set on the inner wall of the right side or the inner wall of the sliding sleeve 2, and the rear fixing member 13 can also be correspondingly set on the corresponding position of the gun frame 12. This design flexibility allows the structure of this invention to be widely applicable to users with different dominant hands. Regardless of whether the user is left-handed or right-handed, the positions of the relevant components can be adjusted to suit their operating habits, thereby improving the user-friendliness of the product. Furthermore, the positions of components such as the concave surface 34 and the perforation 33 at the top of the magazine 3, and the push rod 361 of the top magazine 36, can all be flexibly adjusted. This flexible design allows the structure of this invention to be adjusted and optimized in detail according to different toy gun design requirements, demonstrating a high degree of flexibility and application potential in structural design.
[0053] IV. Component simplification and structural integration:
[0054] While achieving functions such as empty magazine positioning and status display, the structure of this invention strives for simplification of components and integration of the structure. Each component in the structure, such as the rear positioning component 13, the top magazine component 36, and the micro switch 122, is a cleverly designed element that can be effectively integrated into the main components such as the toy gun body 1, the slide 2, and the magazine 3, without significantly adding additional components. This design strategy not only maintains the simplicity and integrity of the overall structure of the toy gun but also helps reduce assembly complexity and production costs.
[0055] In summary, the empty magazine-fixed structure of the electric toy gun of the present invention effectively enhances the realism of the operation of the electric toy gun, improves the user experience, and balances the flexibility of the structural design with the simplification of components. It is indeed a novel and progressive invention. Therefore, an application for an invention patent is filed in accordance with the law. However, the above description is only a preferred embodiment of the present invention. Any variations, modifications, alterations, or equivalent substitutions derived from the technical means and scope of the present invention should also fall within the scope of the patent application of the present invention.
[0056] 1: Toy gun body
[0057] 11: Grip
[0058] 111: Containment Slot
[0059] 12: Gun Frame
[0060] 121: Opening
[0061] 122: Micro switch
[0062] 123: Shaft Hole
[0063] 13: Post-order parts
[0064] 131: Positioning Department
[0065] 132: Side panel
[0066] 133: Top Rod
[0067] 134: Shaft
[0068] 2: Sliding sleeve
[0069] 21: Positioning groove
[0070] 3: Magazine
[0071] 31: Storage space
[0072] 32: Bullet exit hole
[0073] 33: Perforation
[0074] 34: Concave surface
[0075] 35: Spring
[0076] 36: Top spring component
[0077] 36a: First sliding member
[0078] 36b: Second slider
[0079] 360: Auxiliary push rod
[0080] 3601: Recessed hole
[0081] 361: Pushstick
[0082] 3611: Joint
Claims
1. A post-empty magazine fixing structure for an electric toy gun, comprising at least: A toy gun body, a slide, and a magazine, wherein: the toy gun body includes a grip and a gun frame, the grip has a receiving groove, the gun frame is located above the grip, a rear fixing member is pivotally mounted in the middle of the gun frame, the top of the rear fixing member has a positioning part, and a side plate extends from one side of the rear fixing member, the side plate is located inside the gun frame, and an opening is provided on one side of the gun frame, a micro switch is provided on the inner wall of the gun frame at the opening, and a push rod extends from the rear fixing member to the side plate, so that the side plate and the push rod extend into the gun frame through the opening; the slide is fitted on the gun frame and moves back along the barrel axis, and a positioning groove is provided on the inner wall of the slide; The magazine is detachably installed in the receiving slot. The magazine has an ejection hole at the top and a through hole on the side of the top. The magazine has a receiving space containing a spring and a ejector. A push rod is provided on one side of the ejector. The spring releases its elastic force to push the ejector, causing the ejector to stop at the ejection hole, and the push rod to pass through the through hole of the magazine. In this way, BBs are pre-loaded into the magazine of the toy gun and fired. The elastic force of the spring pushes the ejector, ejecting the BBs one by one from the ejection hole. When the ejector stops at the ejection hole, the push rod of the ejector passes through the through hole of the magazine to push the side plate of the rear locking member, thereby causing the positioning part of the rear locking member to engage with the positioning groove of the slide, achieving the electric toy gun's empty magazine rear locking structure that automatically locks the slide when the magazine is empty.
2. The rear-mounted structure of the empty magazine of the electric toy gun as described in claim 1, wherein the positioning groove can be provided on the inner wall of the right side or the inner wall of the slide, and the rear-mounted component can be provided on the right side or the left side of the gun frame in accordance with the position of the positioning groove, so as to achieve a structure that can accommodate left-handed and right-handed users.
3. The empty magazine rear-mounted structure of the electric toy gun as described in claim 1, wherein the top-mounted component inside the magazine includes at least a first sliding component and a second sliding component; the first sliding component is provided with a plurality of auxiliary push rods and a recess; the second sliding component is provided with a plurality of push rods and a plurality of connecting parts; the plurality of connecting parts of the first sliding component are pivotally connected to the plurality of recesses of the second sliding component to form an elbow-like structure, and the plurality of auxiliary push rods of the first sliding component are linked to the plurality of push rods of the second sliding component; so that the top-mounted component can slide and displace in the through hole of the magazine to abut against the plurality of auxiliary push rods of the first sliding component and the plurality of push rods of the second sliding component sliding and displacing in the through hole of the magazine, abutting against and pushing the side plate and top rod of the rear-mounted component.
4. The empty magazine rear-mounted structure of the electric toy gun as described in claim 1, wherein the push rod of the top magazine member extends through the through hole of the magazine and simultaneously pushes the side plate and the push rod of the rear-mounted member, thereby achieving a structure in which the push rod pushes the micro switch to switch the ON-OFF state of the micro switch.
5. The empty magazine rear-mounted structure of the electric toy gun as described in claim 1, wherein the micro switch is electrically connected to a preset motor and a preset battery, and when the push rod pushes the micro switch to switch its ON-OFF state, it controls the power supply of the preset battery to achieve the structure of starting or stopping the preset motor.
6. The empty chamber rear-mounted structure of the electric toy gun as described in claim 1, wherein the opening and the micro switch may be located on the right or left side of the gun frame.
7. The rear-mounted structure of the empty magazine of the electric toy gun as described in claim 1, wherein a shaft hole is provided on one side of the gun frame, and the rear-mounted component extends a pivot shaft, the pivot shaft being pivotally mounted in the shaft hole.
8. The empty magazine rear-mounted structure of the electric toy gun as described in claim 1, wherein the top of the magazine has a concave surface and the through hole is provided on the concave surface.
9. The empty magazine rear-mounted structure of the electric toy gun as described in claim 1, wherein the concave surface may be provided on the left or right side of the top of the magazine, or both sides simultaneously; in accordance with the position of the concave surface, the push rod may be provided on the left or right side of the top magazine, or both sides simultaneously.