Automated ballistic gun system with modular explosive chamber and gas-powered loading unit

Abstract

Automated ballistic gun system comprising a fixed explosive chamber for receiving solid propellant charges without casings, a ballistic tube with a lateral opening for receiving a projectile, a gas-operated mechanism that automatically opens the explosive chamber and the lateral opening of the tube after firing, a robotic loading element that automatically feeds explosive charges and projectiles, and an electronic control unit that synchronizes all processes and can process external target coordinates.

Description

1. Purpose of the invention

[0001] The aim of the invention is to develop an automated gun system that does not require conventional cartridge cases and is powered by a reusable explosive chamber. The system is intended to increase the firepower, efficiency, and autonomy of modern weapon systems. 2. Technical problem

[0002] Conventional guns require complex manual loading procedures, consume spent cartridge cases, and depend on large crews. Their loading speed is limited, and the 3. Solution approach of the invention

[0003] The invention replaces the cartridge case with a permanently installed explosive chamber into which solid propellant charges are automatically inserted. A gas-operated mechanism opens the chamber and the side opening of the pipeline after firing, thus enabling an automatic loading cycle. Mechanical module • Explosive chamber (105 mm × 1000 mm) with heat-resistant inner coating • Ballistic tube (100 mm × 5126 mm) with side (rear) loading port • Gas pressure mechanism for opening chamber and tube • Shock absorbers and thermal protection systems Electrical module • Electronic control unit for synchronizing loading and firing processes • Sensors for real-time pressure monitoring • Actuators for precise motion control • Interface for remote control or integration into vehicle platforms; flexibility in the choice of propellant is low. 4. Functionality and advantages • Fully automatic loading cycle with up to 20 shots / min • Modular use of different propellant charges for variable effect • Reduction of the operating team to one person • Increased range through optimized chamber geometry and propellant charge control • Reusable components reduce material consumption 5. Compatibility with standard products • 100 mm caliber compatible with existing projectile types • The platform can be mounted on existing carriages or vehicles • Electronic interfaces according to NATO standard possible 6. Summary of the advantages • No casings → reduced logistics • Higher rate of fire → tactical advantage • Modularity → adaptable to mission profile • Automation → less staff, higher safety • Sustainability → reusable components 7. State of the art and comparison

[0004] Example: MT-12 (100 mm, 6-man crew, manual loading, cartridge case consumption) → V-100A: 1 man, automatic loading, no cartridge cases, higher rate of fire, greater range 8. Degree of innovation

[0005] The combination of: • Explosive chamber without casing • Gas-powered mechanism for automated charging • Modular propellant charge approach This form is unknown and represents a novel solution in the field of ballistic systems. 9. Ergonomic and sustainable properties of the invention • Reduced staffing requirements • Minimized material consumption due to the elimination of sleeves • Reusable chamber and tube • Electronic control reduces operator error • Integration into existing systems possible 10. Extension of the solution approach of the invention

[0006] By integrating a reconnaissance drone system, the ballistic gun receives precise coordinates of enemy positions in real time. This data is automatically processed to: • To determine the optimal explosive charge (range, effect, penetration power) • Selecting the appropriate projectile type • To perform the charging process using a robotic module

[0007] After charging, a projectile with an integrated wireless micro-camera is fired. This camera: • Activates upon firing • Transmits live video footage during the flight • Documents the hit and the effect of the explosion 11. Additional function of the invention: Projectile with activatable graphene network structure for drone defense

[0008] The invention comprises a projectile type containing a compressed graphene mesh structure. After being fired vertically, the mesh structure unfolds to a great height, forming a spatially extended catching area, similar to a fishing net. This mesh structure: • Is activated by a time-controlled or sensor-based mechanism • Utilizes the extreme tensile strength and flexibility of graphene to capture multiple drones simultaneously • Remains light and aerodynamic, allowing it to reach great altitudes and ranges. • Can be equipped with mini-sensors or GPS modules and cameras to transmit position and catch status 11. Level of innovation / degree of innovation

[0009] The integration of a camera into the projectile represents a revolutionary enhancement. Unlike traditional targeting systems, it allows: • Real-time visual tracking of the projectile until impact • Documentation of the effect for subsequent analysis • Tactical feedback for follow-up actions

[0010] This function is not yet part of conventional ballistic systems and raises the invention to a new level of precision and control. • First application of graphene in active air defense • Combination of kinetic projectile technology and passive capture mechanics • Expansion of drone defense to high altitudes and areas • No electromagnetic interference, no explosive effect - purely mechanical neutralization Description Fig. 21 - Gun barrel with explosive chamber

[0011] The ballistic tube (cannon) is rigidly connected to the explosive chamber, which serves to hold caseless propellant charges. The chamber is designed to withstand high pressure loads and enable controlled ignition. 2 - Mechanism for chamber opening

[0012] An integrated mechanical or gas-operated opening mechanism allows the explosive chamber to open and close automatically after firing. This enables rapid reloading without manual intervention. 3 - Carriage system

[0013] The gun carriage system ensures the stable positioning and alignment of the gun. It allows for both stationary and mobile applications and can be supplemented with ground anchors or damping elements. 4 - Gas-powered control unit

[0014] This unit controls the automated processes of the system, in particular the opening and closing of the explosion chamber and the synchronization with the charging element. It uses propellant gases from the chamber to activate a linear piston drive. 5 - Projectile receptacle with opening mechanism

[0015] The projectile magazine is mounted laterally on the tube and features an opening mechanism that allows for the insertion and positioning of the projectile. The design enables precise alignment and secure fixation before firing.

Claims

[1] Automated ballistic gun system comprising a fixed explosive chamber for receiving solid propellant charges without casings, a ballistic tube with a lateral opening for receiving a projectile, a gas-operated mechanism which automatically opens the explosive chamber and the lateral opening of the tube after firing, a robotic loading element which automatically feeds explosive charges and projectiles, and an electronic control unit which synchronizes all operations and can process external target coordinates. [2] Gun system according to claim 1, wherein the explosive chamber has a length of at least 1000 mm and a diameter of 105 mm. [3] Gun system according to claim 1, wherein the ballistic piping has a length of at least 5126 mm and a diameter of 100 mm. [4] Gun system according to claim 1, wherein the gas-operated mechanism is activated by propellant gases from the explosion chamber and comprises a linear piston drive. [5] Gun system according to claim 1, wherein the electronic control unit is connected to a reconnaissance drone system and processes target coordinates in real time. [6] Gun system according to claim 1, wherein the robotic loading element can manage up to 50 explosive charges and 50 projectiles. [7] Gun system according to claim 1, wherein the explosive charges are modular and enable different ballistic properties such as range or penetration power. [8] Gun system according to claim 1, wherein the control unit comprises a remote control interface for autonomous or remotely controlled operation. [9] Gun system according to claim 1, wherein the recoil effect is reduced to a minimum by design measures such as gas brakes, damping elements or mass distribution. [10] Gun system according to claim 1, wherein the platform is equipped with a carriage system that enables stable setup and variable orientation. [11] Gun system according to claim 1, wherein mechanical stabilizers or ground anchors are provided for anchoring in the terrain. [12] Gun system according to claim 1, wherein the design of the system allows flexible integration into mobile or stationary platforms.

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