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CN-121977393-A - Structure for multi-azimuth launching steel balls

CN121977393ACN 121977393 ACN121977393 ACN 121977393ACN-121977393-A

Abstract

The invention discloses a structure for multi-azimuth launching of steel balls, which realizes the large-scale space striking of an offending unmanned aerial vehicle by optimizing a projectile launching mode. When in firing, the gunpowder gas is generated in the front combustion chamber, the gunpowder gas pushes the ejector rod, the ejector rod drives the air-blocking block, the through hole of the air-blocking block is misplaced with the bullet inlet hole on the bullet storage tube to form bullet inlet hole sealing, the pressure of the firing breech disappears, the return spring pushes the air-blocking block to return, the through hole of the air-blocking block is aligned with the bullet inlet hole on the bullet storage tube, the bullet inlet hole is communicated with the bullet supply tube, and the bullet supply spring pushes the bullet in the bullet supply tube to enter the bullet storage tube to wait for the next firing.

Inventors

  • QIN HAN
  • LIU ZHIDE
  • AI CHUAN
  • FANG QICHAO
  • ZHOU YUNFEI
  • ZHENG GUIDU
  • LI LIANGGANG
  • WANG KAIYAN
  • ZHANG RUI
  • CHENG GE

Assignees

  • 重庆建设工业(集团)有限责任公司

Dates

Publication Date
20260505
Application Date
20260330

Claims (10)

  1. 1. The structure for multi-azimuth launching steel balls is characterized by comprising a launching tube assembly and a gunpowder combustion chamber, wherein the gunpowder combustion chamber comprises a front combustion chamber, the tail end of the front combustion chamber is connected with a gun interface, the launching tube assembly comprises a bullet feeding tube, a bullet storage tube and a launching tube, bullet feeding holes are formed in the bullet storage tube in the radial direction, the bullet feeding tube is connected with the bullet feeding holes of the bullet storage tube, bullet feeding springs are arranged in the bullet feeding tube and used for pushing the bullets in the bullet feeding tube into the bullet storage tube, the rear end of the bullet storage tube is fixedly connected with the front combustion chamber, the front end of the bullet storage tube is coaxially and fixedly connected with the launching tube, a push rod mounting hole and a gas block mounting hole which are mutually communicated are formed in the tube wall of the bullet storage tube along the axial direction, a push rod is slidably matched with the front combustion chamber, a gas block is slidably matched with the gas block mounting hole, a return spring is also arranged in the gas block mounting hole, the return spring acts on the gas block, and a through hole is formed in the gas block; During launching, gunpowder gas is generated in the front combustion chamber, the gunpowder gas pushes the ejector rod, the ejector rod drives the air-blocking block, and the bullet passing hole of the air-blocking block is misplaced with the bullet feeding hole on the bullet storage tube to form a bullet feeding hole sealing; the breech pressure disappears, and the return spring promotes the return of air block, and the bullet hole that passes of air block aligns with the bullet hole that advances on depositing the bullet pipe, advances bullet hole intercommunication feed pipe, and the bullet spring promotes the bullet in the feed pipe and gets into depositing the bullet pipe, waits for next transmission.
  2. 2. The structure of claim 1, wherein the launching tube assembly further comprises a connecting sleeve, the bullet supply tube is fixed on the wall of the connecting sleeve, and the inner hole of the connecting sleeve is fixed with the bullet storage tube and the outer circle of the launching tube in an interference fit manner.
  3. 3. The structure for multi-azimuth steel ball launching according to claim 1, wherein the outer circle of the rear end of the bullet storage tube is provided with an external thread, and the external thread is matched and fixed with the threads of the front combustion chamber.
  4. 4. The structure for multi-azimuth steel ball launching according to claim 1, wherein the rear end of the bullet storage tube is provided with a step spigot, and the step spigot limits the bullet in the bullet storage tube.
  5. 5. The structure for multi-azimuth steel ball launching according to claim 1, wherein the inner hole of the launching tube is smaller than the diameter of the projectile, and the projectile can pass through the inner hole of the launching tube by extrusion under the action of the gunpowder and the gas.
  6. 6. The structure of claim 1, wherein the front end of the bullet storage tube is provided with a mounting notch, a magnet is arranged in the mounting notch, and the magnet is used for attracting the foremost bullet in the bullet storage tube, so that the bullet is eccentric to the axis of the bullet inlet.
  7. 7. The structure of claim 6, wherein the mounting notch is provided with a clamping block, and the clamping block limits the magnet.
  8. 8. The structure for multi-azimuth steel ball launching of claim 1, wherein the end head of the bullet storage tube is provided with a cap which limits the bullet supply spring, the tube wall of the launching tube is provided with a containing hole of a return spring, one end of the return spring acts on the launching tube, and the other end of the return spring acts on the air-blocking block.
  9. 9. The structure of claim 1, wherein the air-blocking block is provided with a slope, the slope is adjacent to the through-hole, and when the ejector rod drives the air-blocking block to block the through-hole, the slope drives the corresponding projectile to completely retract into the bullet-feeding pipe.
  10. 10. The structure for multi-azimuth steel ball launching of claim 1, wherein the front end and the circumferential surface of the front combustion chamber are respectively provided with a plurality of connecting holes, each connecting hole is respectively connected with the launching tube assembly, and the front combustion chamber is in threaded connection with the gun stock interface.

Description

Structure for multi-azimuth launching steel balls Technical Field The invention relates to the technical field of firearms, in particular to a structure for multi-azimuth steel ball emission. Background With the continuous evolution of modern war forms, unmanned aerial vehicles are increasingly widely applied to the battlefield, and by virtue of flexible maneuverability and strong combat effectiveness, unmanned aerial vehicles become an important force for changing future war rules. Particularly when an individual combat unit faces a threat, the powerful destructive power exhibited by the low-cost unmanned aerial vehicle poses a serious challenge to the traditional defense system. The light unmanned aerial vehicle is characterized by small volume and light weight, and can realize effective damage through the kinetic energy of a firearm, but is limited by the single-head bullet design used by traditional firearms such as an automatic rifle, a machine gun and the like, and when facing to the small-sized targets of the unmanned aerial vehicle which move rapidly, effective hit is difficult to realize, so that the light unmanned aerial vehicle becomes a key problem for restricting the improvement of the protection capability of an individual combat unit. In recent years, the increasing severity of unmanned aerial vehicle threats has prompted the counter technology to continually innovate. Among them, the shotgun exhibits certain advantages in the field of countering unmanned aerial vehicles due to its unique multi-shot design. The large coverage area is formed by shooting a plurality of shots at a time, so that the interception probability of the unmanned aerial vehicle is improved to a certain extent by the shotgun. However, existing shotgun technology still faces significant technical bottlenecks. During shot gun firing, the projectiles inevitably collide in the limited barrel space and these collisions are not concentric, resulting in significant shifts in the trajectory of the projectile. This phenomenon directly leads to a significant increase in the range of the shot spread over a longer distance, severely affecting the interception effect of the long-distance shot. Particularly, when the unmanned aerial vehicle approaches at a high speed, enough reaction time is often lacked, and the effectiveness of the existing countermeasures is further restricted. The existence of the technical bottleneck is a key problem to be solved in the field of unmanned aerial vehicle reaction at present. Disclosure of Invention The invention aims to overcome the defects of the prior art, provides a structure for multi-azimuth steel ball launching, and realizes the large-range space striking of an offending unmanned aerial vehicle by optimizing the projectile launching mode. The purpose of the invention is realized in the following way: The utility model provides a multidirectional steel ball launching structure, including the launching tube subassembly, the gunpowder combustion chamber includes preceding combustion chamber, the tail end connection rifle bolt interface of preceding combustion chamber, the launching tube subassembly includes the bullet supply pipe, deposit the bullet pipe, be equipped with into the bullet hole along radial on the bullet pipe, the bullet supply pipe is connected on the bullet hole that advances of deposit the bullet pipe, be equipped with the bullet spring in the bullet supply pipe, the bullet spring is used for pushing the bullet in the bullet supply pipe into deposit the bullet pipe, the rear end and the preceding combustion chamber fixed connection of bullet pipe deposit, the front end and the coaxial fixed connection of launching tube of bullet pipe deposit, be equipped with the ejector pin mounting hole of intercommunication, the air block mounting hole of being equipped with each other in the pipe wall of bullet pipe along axial, the ejector pin is equipped with the ejector pin in the ejector pin mounting hole sliding fit, the air block of air block mounting hole of air block, still be equipped with the return spring, the air block is equipped with the bullet hole on the air block of air block; During launching, gunpowder gas is generated in the front combustion chamber, the gunpowder gas pushes the ejector rod, the ejector rod drives the air-blocking block, and the bullet passing hole of the air-blocking block is misplaced with the bullet feeding hole on the bullet storage tube to form a bullet feeding hole sealing; the breech pressure disappears, and the return spring promotes the return of air block, and the bullet hole that passes of air block aligns with the bullet hole that advances on depositing the bullet pipe, advances bullet hole intercommunication feed pipe, and the bullet spring promotes the bullet in the feed pipe and gets into depositing the bullet pipe, waits for next transmission. Preferably, the launching tube assembly further comprises a connecting sleeve, the bullet supply