Description:4. DESCRIPTION
Technical Field of the Invention

The present invention relates to weapon systems, particularly to multi-rifle shooting systems designed for engaging aerial threats. Specifically, this invention provides a manually operated or automated multi-rifle platform mounted on a tripod stand with enhanced functionality, stability, and safety features.

Background of the Invention

The growing complexity and speed of modern aerial threats present significant challenges to existing defense systems. Conventional anti-aircraft weapons and systems, including handheld firearms, single-barrel weapons, and fixed-direction armaments, are often insufficient in addressing the increasing speed, maneuverability, and unpredictability of aerial targets. Traditional weapon systems, such as rifles and machine guns, were primarily designed for engaging terrestrial threats and lack the necessary capability to effectively engage fast-moving, unpredictable aerial targets, such as drones, low-flying aircraft, and other aerial vehicles. These weapons, when used against airborne threats, often experience limitations in both firepower and accuracy, leading to reduced effectiveness in countering these dangers.

The rapid development of Unmanned Aerial Vehicles (UAVs) and the expanding use of drones for both commercial and military purposes have intensified the need for highly adaptable, efficient, and powerful weapon systems designed to counter aerial threats. Aerial threats can often be small, highly maneuverable, and difficult to track, and they pose significant risks, particularly in military and strategic environments. In the face of such threats, existing defense mechanisms need to evolve to incorporate advanced targeting, stability, and firepower capabilities.

As it stands, relying on traditional single-barrel firearms or manually operated weapons for countering aerial threats creates operational inefficiencies. A primary issue is the lack of precision and the inability to simultaneously engage multiple targets that may be present in a combat scenario. The slow response times inherent in manually operated systems exacerbate these issues, leading to missed opportunities in defense scenarios where every second counts. Furthermore, systems designed to be automated face challenges of stability under intense recoil forces and their limited adaptability to various operational environments.

The development of weapon systems to address aerial threats has been an ongoing endeavor, leading to the creation of various prior art solutions. These include systems such as single-barrel anti-aircraft rifles, specialized anti-drone guns, and automated turret systems designed to engage fast-moving aerial targets. These systems typically employ a combination of high-caliber firearms mounted on fixed platforms or mobile vehicles. However, these solutions, while effective to some extent, continue to face significant shortcomings in terms of flexibility, firepower, and adaptability to different aerial threats.

Some existing systems include the traditional anti-aircraft guns that utilize a single-barrel configuration. These guns, while effective against certain types of aerial threats, suffer from a lack of agility and precision. They are often limited in terms of the angles and directions they can cover, leading to challenges when engaging fast-moving or evasive targets. Additionally, manual operation of these firearms can lead to delays in response times, further diminishing their utility in fast-paced combat scenarios.

Automated turret systems and multi-barrel anti-aircraft platforms have been developed in an attempt to overcome these limitations. Such systems utilize a series of weapons mounted on a rotating or swiveling platform, offering greater coverage and more robust firepower. These systems, however, often require significant infrastructure, and their design is typically focused on large-scale, stationary setups. Moreover, the complexity of these systems means that their deployment in mobile or temporary defense scenarios is limited. Furthermore, these automated systems often face issues related to stability during firing, particularly when dealing with high recoil forces that are generated when multiple firearms are triggered simultaneously.

More recently, there has been a shift towards systems designed specifically to counter UAVs and drones. These solutions often incorporate electronic jamming, laser-based targeting, or precision-guided projectiles. While these technologies offer a high degree of precision, they often fail to deliver the necessary firepower to neutralize a swarm of drones or other aerial threats. Additionally, these advanced technologies are typically costly and require specialized training and infrastructure for deployment, making them less accessible for smaller defense units or less-resourced organizations.

Despite the development of these systems, none have fully addressed the issue of combining precision, power, portability, and adaptability in a single, efficient system for countering aerial threats across various environments.

The prior art systems for engaging aerial threats suffer from several key disadvantages. One of the most significant drawbacks is the limited firepower available with single-barrel or manually operated systems. When only one rifle or gun is deployed, there is a natural limitation on the volume of fire that can be generated. Aerial threats often operate in swarms, and the ability to counter multiple targets simultaneously is crucial for effective defense. The prior art fails to provide a solution for engaging multiple targets with sufficient firepower in a timely manner.

Another major disadvantage of prior systems is the lack of precision when aiming at fast-moving targets. Many of the systems currently available rely on manual targeting, which requires the operator to accurately track a high-speed aerial target, a process that is not only difficult but also time-consuming. When aiming and shooting at fast-moving objects, the lack of automation in the prior art systems results in slower reaction times, leading to missed opportunities to neutralize threats. Moreover, the ergonomics of operating a system with a single rifle or firearm can hinder the ability of the operator to track targets effectively, particularly when dealing with targets that change altitude or trajectory rapidly.

Additionally, prior art systems that employ automated or semi-automated mechanisms still face significant challenges related to stability during firing. Weapons designed to fire at high speeds or in rapid succession generate substantial recoil forces, which can destabilize the platform, causing misalignment or shifting of the system. The high recoil forces generated by these systems can also lead to greater wear and tear on the components, further reducing their longevity and reliability in the field. This issue is particularly prominent in mobile or portable defense systems where quick deployment and flexibility are paramount. If the system is not designed to handle the recoil effectively, it will lead to misalignment and degraded performance, further reducing its effectiveness.

Furthermore, prior systems that rely on larger, fixed platforms often lack portability, which significantly limits their operational range and deployment options. These systems are not easily transported, and their reliance on fixed installations means they cannot be quickly relocated or repositioned when needed. This limits the versatility and adaptability of the defense system, especially in dynamic, fast-changing combat environments.

The modularity and customization of existing systems are also limited. Many of the current anti-aircraft weapon systems are designed for specific types of rifles or calibers, making them less flexible for different mission requirements or threats. This lack of adaptability can result in a situation where defense systems are ill-equipped to handle a variety of aerial threats, particularly as these threats evolve and diversify.

The inventors of the present multi-rifle shooting system have identified a pressing need for a new solution that can overcome the deficiencies of the prior art. The growing number of aerial threats, including drones and low-flying aircraft, demands a system capable of providing rapid response times, increased firepower, and enhanced targeting precision. The current state of aerial defense systems is inadequate for meeting these challenges in an efficient and cost-effective manner.

There is a significant need for a system that integrates multiple rifles or firearms into a single platform, enabling the simultaneous targeting and engagement of multiple aerial threats. Such a system would greatly enhance the firepower available to operators, providing a higher volume of fire to counter multiple threats in quick succession. The ability to fire multiple weapons simultaneously would significantly increase the likelihood of hitting a target, even when the target is evasive or fast-moving.

Additionally, there is a need for a system that enhances precision in targeting fast-moving aerial objects. Manual targeting methods are insufficient when engaging drones or aircraft that are highly maneuverable. By integrating a sighting unit that facilitates precise aiming and targeting, the system would offer a significant improvement in accuracy, making it more likely to successfully engage aerial threats.

The inventors have also recognized the need for a platform that is stable and resistant to recoil forces, ensuring that the system remains operational even under intense firing conditions. The prior art systems are often plagued by instability during rapid or simultaneous firing, which leads to misalignment and a loss of precision. The inventors have identified that a tripod-based platform, supported by an axial rod and holding brackets, can effectively absorb recoil forces, providing a stable platform that allows for precise and accurate firing.

Moreover, the inventors have acknowledged that defense systems must be flexible and adaptable to different environments and operational requirements. The system must be portable and easy to assemble, ensuring that it can be deployed in a variety of terrains and conditions. Additionally, the system should allow for both manual operation and automation, providing operators with the flexibility to choose the mode of operation based on the specific requirements of the mission or the level of threat faced.

Finally, the inventors recognize the importance of safety mechanisms that ensure stability during operation, preventing accidents and damage to the system during intense firing sequences. The inclusion of features such as multi-holders and rifle locking sheets will ensure that the rifles remain securely in place during operation, minimizing the risk of misalignment or damage.

The dire need for such a system has been clearly identified by the inventors, who have developed a solution that addresses these challenges by consolidating multiple rifles onto a single, stable, and adjustable platform. This new system promises to significantly improve the effectiveness of aerial defense, offering enhanced firepower, precision, and flexibility in addressing a broad range of aerial threats.

Brief Summary of the Invention

The following presents a simplified summary of the disclosure in order to provide a basic understanding to the reader. This summary is not an extensive overview of the disclosure and it does not identify key/critical elements of the invention or delineate the scope of the invention. Its sole purpose is to present some concepts disclosed herein in a simplified form as a prelude to the more detailed description that is presented later.

The primary object of the present invention is to provide a multi-rifle shooting system that is capable of engaging aerial threats with enhanced firepower, precision, and stability. The invention seeks to address the growing need for an efficient defense system capable of countering fast-moving aerial targets, such as drones, low-flying aircraft, and other aerial threats.

Another object of the invention is to develop a system that integrates multiple rifles into a single platform, thus increasing the volume of fire and providing a more effective defense against multiple aerial targets simultaneously. This system aims to significantly improve the operational effectiveness of defense personnel by enhancing firepower and reducing the time needed to neutralize fast-moving threats.

An additional object of the present invention is to offer a highly flexible and adaptable system that can accommodate a variety of rifle types and calibers, depending on the mission-specific requirements. This modular design will allow users to configure the system according to the operational environment and the nature of the threat, providing a versatile and customizable solution.

A further object of the invention is to ensure the stability and accuracy of the system during operation, even under heavy recoil forces generated by the simultaneous firing of multiple rifles. The system is designed to withstand these recoil forces, ensuring that it remains operational and accurate during intense combat situations.

It is also an object of the present invention to incorporate an ergonomic design that allows for easy and safe operation by the user. The system is intended to be portable, easily assembled, and adjustable, ensuring that it can be deployed quickly and effectively in various terrains and operational environments.

Another important object of the invention is to provide a solution that offers both manual and automated operation modes. This flexibility allows the user to choose the most suitable operating mode based on mission requirements, enhancing the system’s adaptability to different operational scenarios.

Finally, the invention aims to integrate safety features such as multi-holders and rifle locking sheets, which are designed to stabilize the rifles during operation, preventing misalignment or dislodging during intense firing sequences. These safety features ensure the system’s reliability and minimize the risk of accidents during high-pressure operations.

The present invention provides a multi-rifle shooting system designed to engage aerial threats with enhanced firepower, precision, and stability. The system is built around a tripod stand that serves as a stable mounting platform, capable of absorbing the recoil forces generated when multiple rifles are fired simultaneously. The system comprises a rifle assembly structure that is mounted on the tripod stand via a mounting rod. The assembly structure features an axial rod that is segmented into sections, allowing the attachment of multiple rifles at varying angles to provide a broad field of coverage against aerial threats.

One of the key aspects of the present invention is its modular design, which allows the system to be easily reconfigured based on the number and type of rifles to be mounted. The modularity of the system enables the accommodation of various types and calibers of rifles, making it adaptable to different mission-specific requirements and enabling defense personnel to customize the platform for optimal performance against specific aerial threats.

The rifle assembly structure is further equipped with holding brackets positioned along the axial rod, which securely hold and align the rifles in place, ensuring stability during operation. These holding brackets are designed to prevent misalignment and displacement of the rifles under recoil forces, ensuring that the system remains accurate and operational even during intense firing sequences.

The system also includes a triggering lever with a handle, which is connected to a wiring assembly with hooked wires that are designed to activate the firing mechanisms of all mounted rifles simultaneously. This feature reduces response time in combat scenarios, enabling the operator to engage multiple targets in rapid succession. The simultaneous activation of multiple rifles enhances the overall firepower of the system, providing greater efficiency in neutralizing fast-moving aerial threats.

The system is further equipped with a cocking assembly integrated into the axial rod, allowing all mounted rifles to be cocked simultaneously, ensuring that the system is combat-ready at all times. This feature enhances the operational efficiency of the system, allowing for quick engagement of threats without delays between firing sequences.

To ensure precise targeting, the system includes a sighting unit that is mounted on the rifle assembly structure. This sighting unit is designed to provide accurate aim at fast-moving aerial targets, and it may include laser sights or visual targeting systems to enhance precision during engagements. The sighting unit ensures that the operator can track and engage aerial threats effectively, even when they are moving at high speeds or changing altitudes.

For stability and safety, the system integrates safety features such as a multi-holder and a rifle locking sheet. The multi-holder helps to stabilize the rifles during operation, preventing misalignment or movement that could reduce accuracy. The rifle locking sheet is positioned at the firing end of the system to prevent any unintended dislodging or misalignment of the rifles during intense firing sequences. These safety features ensure that the system remains stable and operational, even under heavy recoil.

The system offers both manual and automated operation modes, providing the operator with flexibility in choosing the most suitable mode based on the nature of the threat and the operational requirements. The manual operation mode allows the user to pull the triggering lever to activate the rifles, while the automated mode enables the system to automatically trigger the rifles based on pre-set conditions or sensor inputs, such as motion detection for aerial threats. This versatility allows the system to be used in a wide range of scenarios, from manual operation in tactical engagements to fully automated operation for rapid-response scenarios.

The multi-rifle shooting system for aerial threats offers several advantages over prior art systems. One of the primary advantages is the enhanced firepower provided by the integration of multiple rifles into a single platform. This multi-rifle configuration allows for the simultaneous engagement of multiple aerial threats, significantly improving the system’s effectiveness in countering fast-moving targets.

Another significant advantage of the present invention is its modular design, which allows the system to be easily reconfigured based on mission-specific requirements. This adaptability ensures that the system can accommodate various types and calibers of rifles, making it a versatile solution for a wide range of defense scenarios. Whether the threat is a single drone or a swarm of aerial vehicles, the system can be customized to deliver the required firepower and coverage.

The system’s ability to withstand heavy recoil forces is another important advantage. The tripod stand and recoil stabilization system are designed to absorb and redirect the recoil generated when multiple rifles are fired simultaneously, ensuring that the system remains stable and accurate during firing. This is crucial for maintaining operational effectiveness, particularly in high-intensity combat situations where rapid and continuous fire is required.

The inclusion of the sighting unit and the precision targeting capabilities of the system are also key advantages. The sighting unit ensures that the operator can engage fast-moving aerial threats with high accuracy, reducing the likelihood of missed shots and improving the overall efficiency of the system. Additionally, the system’s ergonomic design and user-friendly interface make it easy for operators to engage targets with minimal training.

Furthermore, the system’s dual operation modes—manual and automated—provide increased flexibility and adaptability. The manual operation mode is ideal for situations that require precise control, while the automated mode offers a rapid-response solution for high-speed engagements, such as countering swarms of drones. This combination of modes makes the system suitable for a wide range of operational environments.

Finally, the inclusion of safety features, such as the multi-holder and rifle locking sheet, ensures that the system remains stable and secure during operation, preventing accidents and misfires during intense firing sequences. These features contribute to the overall safety and reliability of the system, making it a dependable solution for engaging aerial threats.

The multi-rifle shooting system for aerial threats has numerous applications in both military and civilian defense scenarios. One of the primary applications is in military defense, where the system can be used to counter various types of aerial threats, including drones, helicopters, and low-flying aircraft. The system’s high firepower, precision targeting, and adaptability make it an ideal solution for engaging fast-moving aerial targets in combat situations.

The system is also highly applicable in civilian contexts, particularly in areas where drone threats are becoming increasingly prevalent. The rise of drone-based terrorism and espionage poses significant risks to public safety and infrastructure, and the multi-rifle shooting system provides a powerful means of neutralizing these threats in urban, industrial, or military settings.

In addition to its use in defense, the system could also be deployed in anti-poaching operations, border security, and protecting critical infrastructure, such as airports, power plants, and government buildings, where drones are often used for surveillance or malicious activities.

The flexibility of the system makes it suitable for use in a variety of terrains and operational environments, ranging from remote military bases to urban centers, and its modular design ensures that it can be adapted for different operational needs. Whether deployed for high-intensity combat or routine surveillance, the multi-rifle shooting system offers a versatile and effective solution for countering aerial threats across a broad spectrum of applications.

Brief Description of the Drawings

The invention will be further understood from the following detailed description of a preferred embodiment taken in conjunction with an appended drawing, in which:

Figure 1A & 1B illustrates a schematic diagram of the multi-rifle shooting system, disclosing the tripod stand, rifle assembly structure, and multiple rifles arrangement in accordance with the present invention.

It is appreciated that not all aspects and structures of the present invention are visible in a single drawing, and as such multiple views of the invention are presented so as to clearly show the structures of the invention.

Detailed Description of the Invention

The present invention relates to a multi-rifle shooting system designed to engage aerial threats, such as drones and low-flying aircraft, by providing enhanced firepower, stability, and precision. The system integrates multiple rifles onto a single platform, allowing for simultaneous firing, offering high operational efficiency. It is modular and adaptable, capable of accommodating different rifle types and calibers based on mission requirements, ensuring flexibility in various operational environments.

Key components of the system include the tripod stand, rifle assembly structure, holding brackets, triggering lever, cocking assembly, and sighting unit. These components work cohesively to stabilize the rifles, absorb recoil forces, and ensure accurate firing. The tripod stand supports the entire system and absorbs the recoil from simultaneous firing, ensuring the system remains stable. The axial rod in the rifle assembly structure holds the rifles securely using holding brackets, allowing for modular adjustments.

The triggering lever, connected to a wiring assembly, activates all rifles simultaneously, significantly reducing response time. Additionally, the system offers both manual and automated operation modes. In manual mode, the operator controls the firing sequence, while automated mode, triggered by motion or sensor detection, enables rapid response to aerial threats.

The cocking assembly ensures that all rifles are ready for immediate use, while the sighting unit enhances precision, allowing the operator to target fast-moving threats with accuracy. Safety features like the multi-holder and rifle locking sheet stabilize the rifles and prevent misalignment during firing, enhancing operational safety.

The system’s modular design allows easy reconfiguration to meet various mission-specific needs, making it suitable for military engagements, counter-drone operations, and other defense scenarios. It provides a high volume of firepower, adaptability to different environments, and flexibility in operation. The multi-rifle shooting system offers a comprehensive solution for engaging aerial threats in high-intensity combat situations, ensuring rapid, effective, and stable defense.

Referring Figure 1A & 1B, the multi-rifle shooting system (100) is illustrated in its complete form, mounted on a tripod stand (1). The tripod stand (1) serves as the base of the system, providing stability and absorbing recoil forces during the simultaneous firing of multiple rifles (11). The tripod stand (1) is designed to be adjustable for height and adaptable to various terrains, ensuring that the system can be deployed in different operational environments, whether on uneven ground or in confined spaces.

Mounted atop the tripod stand (1) is the rifle assembly structure (2), which is secured using a mounting rod (3). The rifle assembly structure (2) is the core of the system and houses the rifles (11) in a manner that allows for simultaneous engagement of multiple targets. The structure is supported by an axial rod (4) that acts as the backbone for mounting the rifles. The axial rod (4) is segmented into several sections, which makes it adaptable and capable of holding different numbers of rifles (11), depending on mission requirements. Along the length of the axial rod (4), a series of holding brackets (5) are positioned to securely hold and stabilize the rifles (11) during operation. These brackets ensure that the rifles (11) are aligned properly and remain fixed in position under the stress of recoil during firing.

The holding brackets (5) are critical in preventing misalignment of the rifles (11) during the firing sequence, ensuring that the system maintains accuracy even when firing multiple rifles at once. The rifles (11) are mounted with their barrel units (15) oriented upwards, providing a clear line of fire for engaging aerial threats, such as drones or low-flying aircraft. The modular design of the rifle assembly structure (2) ensures that it can be easily reconfigured, allowing the user to accommodate different types and calibers of rifles (11) depending on the specific operational needs.

The triggering lever (6), which is mounted on the rifle assembly structure (2), plays a pivotal role in the operation of the system. As shown in Figure 1A & 1B, the triggering lever (6) is ergonomically designed with a handle (7) for ease of use. The triggering lever (6) is connected to a wiring assembly (8) that extends to each of the rifles (11). This wiring assembly (8) includes hooked wires (9), which are used to activate the firing mechanisms of all the rifles (11) simultaneously when the triggering lever (6) is pulled. This feature significantly reduces the response time in combat situations, allowing the operator to engage multiple targets in rapid succession.

The wiring assembly (8) is insulated to prevent electrical hazards and ensure the safe operation of the system. The system can also be operated in an automated mode, where sensors, such as motion detectors, can trigger the rifles (11) automatically upon detecting an aerial threat, allowing for a rapid response without manual intervention. The manual operation mode, on the other hand, gives the operator complete control over the firing sequence, which is especially useful in situations that require precise targeting.

Integrated into the axial rod (4) is the cocking assembly (10), which is designed to prepare all rifles (11) for immediate use. The cocking assembly (10) ensures that all the rifles are cocked simultaneously, making the system ready for immediate engagement when required. As shown in Figure 1B, the cocking assembly can be manually operated or powered by a motor, depending on the user's preference or mission requirements. This feature is crucial for maintaining high operational efficiency, allowing the system to be deployed quickly and ready for action without delays between firing sequences.

The sighting unit (16), mounted on the rifle assembly structure (2), is used to assist in the precise targeting of aerial threats. As shown in the figures, the sighting unit (16) is designed to allow the operator to accurately aim at fast-moving aerial targets, such as drones or aircraft. The sighting unit can include laser sights or visual targeting systems to provide the operator with enhanced precision and the ability to track targets effectively. This system is particularly advantageous when engaging high-speed threats, as it allows the operator to maintain focus on the target, even when it changes altitude or trajectory rapidly.

In addition to its operational components, the multi-rifle shooting system (100) includes safety features such as the multi-holder (12) and rifle locking sheet (13). As shown in Figure 1A, the multi-holder (12) is used to stabilize the rifles (11) during operation, preventing any unwanted movement or misalignment caused by recoil. This feature ensures that the rifles remain fixed in place and that the system can continue to operate effectively without degradation in accuracy or stability. The rifle locking sheet (13), positioned at the firing end of the system, ensures that the rifles (11) do not become misaligned or dislodged during intense firing sequences. This locking sheet prevents any accidental shifting or movement of the rifles, enhancing the system's overall stability and safety during operation.

The modular design of the system, as illustrated in Figure 1A & 1B, allows for quick reconfiguration based on the operational requirements. The axial rod (4), along with the holding brackets (5), can be adjusted to accommodate different numbers and types of rifles (11). The system is adaptable for different mission-specific requirements, making it a versatile solution for various defense scenarios. The flexibility of the rifle assembly structure (2) enables the user to adjust the configuration of the rifles (11) based on the nature of the aerial threat, providing a customized response to different situations.

The modularity extends beyond just the rifles (11), as the tripod stand (1) is also designed to be adjustable for height and terrain adaptability. This adjustment allows the system to be deployed in a wide range of environments, from urban areas to open fields, ensuring that it can be used effectively in various operational settings.

The multi-rifle shooting system (100) is designed with dual operational modes, providing flexibility in how the system is used. In the manual operation mode, the operator uses the triggering lever (6) to engage all rifles (11) simultaneously. This mode is ideal for situations where precise control over the firing sequence is needed, such as engaging a specific target or when rapid, tactical engagement is required.

In contrast, the automated mode utilizes sensors, such as motion detectors, to trigger the rifles (11) automatically when an aerial threat is detected. This mode is particularly useful in rapid-response scenarios, such as countering drone swarms or other fast-moving aerial threats, where human reaction time may not be fast enough. The automated operation ensures that the system can quickly and efficiently neutralize threats without requiring manual input from the operator.

Both operational modes are integrated into the system, providing the operator with the flexibility to adapt the system to different mission requirements, ensuring that it can be used in a wide range of operational environments.

Method of Operation
The multi-rifle shooting system (100) is designed to engage aerial threats by simultaneously activating multiple rifles (11) mounted on a single platform. The system can be operated in manual or automated modes, offering flexibility and adaptability to different operational needs. The following describes the method of operation in a step-by-step manner, referencing the components of the system as detailed in the previous figures.

Step 1: Setup and Assembly
The first step in the operation of the multi-rifle shooting system (100) is the setup and assembly. This involves deploying the tripod stand (1) on a stable surface and adjusting its height to ensure optimal positioning for the system. The tripod stand (1) is designed to be adjustable to accommodate varying terrain conditions, ensuring stability during firing. Once the tripod is positioned, the rifle assembly structure (2) is mounted onto the stand using the mounting rod (3). The mounting rod (3) connects the rifle assembly structure (2) to the tripod stand (1), allowing for both structural stability and flexibility in the positioning of the rifles (11).

Next, the axial rod (4), which serves as the backbone for the system, is segmented into sections and attached to the mounting rod (3). The holding brackets (5) are positioned along the axial rod (4), and the rifles (11) are securely mounted on the holding brackets, ensuring that the rifles (11) are properly aligned and fixed in place. The barrels (15) of the rifles (11) are oriented upwards, ensuring that they are in the correct position for targeting aerial threats.

Step 2: Preparation for Firing
After the system has been assembled, the next step is the preparation for firing. The cocking assembly (10), integrated into the axial rod (4), is activated to ensure that all rifles (11) are cocked and ready for firing. The cocking assembly (10) can be manually operated or powered by a motor, depending on the system configuration. This step prepares the rifles (11) for immediate engagement, ensuring that all rifles are in the combat-ready position.

At this point, the sighting unit (16), which is mounted on the rifle assembly structure (2), is calibrated for accurate targeting. The sighting unit (16) may include a laser sight or other visual targeting mechanisms to help the operator aim at fast-moving aerial targets. The sighting unit ensures that the operator can track targets effectively, even when they are at varying altitudes or moving at high speeds. The system is now ready for operation, with all rifles (11) cocked and targeting mechanisms calibrated.

Step 3: Safety Check
Before firing, a safety check is conducted to ensure that the system is stable and safe for operation. The multi-holder (12) is verified to ensure it is securely holding the rifles (11) in place, preventing any misalignment or movement during firing. The rifle locking sheet (13), positioned at the firing end of the system, is also checked to ensure that the rifles (11) are securely locked in place and will not become dislodged or misaligned during firing. This safety check is critical in ensuring that the system operates effectively and safely under recoil forces generated during firing.

Step 4: Triggering the System
Once the system is properly set up and the safety checks are completed, the operator proceeds to trigger the system. There are two modes of operation available for triggering the rifles (11):
• Manual Operation: In manual operation mode, the operator pulls the triggering lever (6), which is connected to the wiring assembly (8). The wiring assembly (8) is equipped with hooked wires (9) that trigger the firing mechanisms of all rifles (11) simultaneously. The manual operation allows the operator to have full control over the firing sequence, ensuring that the rifles (11) are fired when the operator deems it necessary. This mode is ideal for tactical situations where precise control and timing are required.
• Automated Operation: In automated operation mode, the system can be triggered automatically based on pre-set conditions or sensor inputs, such as motion detection or proximity sensors. For instance, if an aerial threat is detected by the system’s sensors, the rifles (11) will automatically fire to engage the threat. This automated mode allows for a rapid response to fast-moving threats, such as drones, without the need for manual intervention from the operator. This mode is particularly useful in scenarios where quick engagement is critical, such as defending against a swarm of drones.

Step 5: Firing
Once the system has been triggered, the rifles (11) will fire simultaneously, with the recoil forces absorbed by the tripod stand (1). The tripod stand (1) is designed to handle the recoil generated by the simultaneous firing of multiple rifles, ensuring that the system remains stable and operational even under high-stress conditions. The holding brackets (5) and cocking assembly (10) help maintain the alignment of the rifles (11), preventing misalignment or movement during the firing process.

The operator can adjust the sighting unit (16) as needed to track aerial targets and engage them effectively. The system’s ability to fire multiple rifles (11) simultaneously increases the overall firepower, enabling the operator to engage multiple aerial threats with a single trigger pull.

Step 6: Post-Firing Procedure
After the rifles (11) have been fired, the post-firing procedure (26) involves ensuring that the system remains stable and ready for subsequent engagements. The multi-holder (12) and rifle locking sheet (13) are checked again to ensure that the rifles (11) have not become misaligned or dislodged during firing. The cocking assembly (10) may need to be reset to prepare the rifles (11) for the next engagement, ensuring that all rifles are again in a cocked and ready-to-fire state.

Additionally, the stability of the tripod stand (1) is verified to ensure that it has not been affected by recoil forces during the firing process. If necessary, adjustments are made to the system to ensure that it is in optimal condition for continued operation.

Step 7: Storage and Transport
Once the system has been used, the storage and transport (27) procedure can begin. This involves carefully disassembling the system for transport or storage. The rifle assembly structure (2) is removed from the tripod stand (1), and the rifles (11) are securely stored. The rifle locking sheet (13) is engaged again to secure the rifles (11) in place, ensuring that they remain stable and secure during transport or when not in use.

The modular design of the system ensures that it can be easily disassembled and reconfigured for storage or transport. The components of the system, such as the axial rod (4), mounting rod (3), and holding brackets (5), can be easily reassembled and adjusted for future use, ensuring that the system is always ready for deployment when needed.

Method of Manufacturing
The method of manufacturing the multi-rifle shooting system (100) involves a series of detailed steps to ensure that each component of the system is fabricated, assembled, and tested to meet the required specifications. The system’s key features, including its modular design, recoil stabilization, dual operational modes, and safety features, must be carefully constructed to ensure optimal performance under various operational conditions. The following outlines the method of manufacturing each component of the system, focusing on materials, techniques, and assembly processes.

Step 1: Fabrication of the Tripod Stand (1)
The tripod stand (1) forms the base of the multi-rifle shooting system and is responsible for providing stability during operation, particularly under the recoil forces generated when multiple rifles (11) are fired simultaneously.
1. Material Selection: The tripod stand (1) is fabricated from durable, high-strength material, typically aluminum alloy or steel, to ensure stability and strength while remaining lightweight enough for portability. The material should also be resistant to corrosion, especially if the system will be used in outdoor or harsh environmental conditions.
2. Precision Machining: The tripod stand (1) is machined to precise dimensions using CNC (computer numerical control) milling machines. This ensures that the mounting points and adjustable height features are accurately fabricated. The legs of the tripod are designed to be adjustable to accommodate different terrains and provide the necessary stability for the firing process.
3. Recoil Absorption System: The tripod stand (1) is equipped with a recoil absorption system, which may involve the integration of shock-absorbing materials or mechanical springs at key points where the stand contacts the ground. This is critical for dissipating the recoil forces generated when the rifles are fired simultaneously.
4. Assembly and Testing: Once the individual components of the tripod stand are fabricated, they are assembled into a complete unit. Rigorous testing is carried out to ensure that the stand can support the weight of the rifle assembly structure (2) and withstand the recoil forces during firing. The height adjustment mechanism and the stability of the stand are also tested to confirm that the system remains stable under various conditions.

Step 2: Fabrication of the Rifle Assembly Structure (2)
The rifle assembly structure (2) holds the rifles (11) and mounts them on the axial rod (4). This structure must be strong enough to withstand the recoil of multiple rifles while allowing for modular adjustments based on the number and type of rifles.
1. Material Selection: The rifle assembly structure (2) is fabricated using high-strength, corrosion-resistant materials such as steel or aluminum alloy. These materials provide the strength needed to hold multiple rifles while maintaining a lightweight structure for easy deployment and portability.
2. Axial Rod (4) Fabrication: The axial rod (4), which serves as the backbone of the system, is segmented to allow flexibility in configuration. It is manufactured using high-tensile steel or aluminum, ensuring that it can support the weight of the rifles (11) without bending or warping during operation.
3. Segmenting the Rod and Machining the Brackets: The axial rod (4) is segmented into sections, allowing for easy reconfiguration. Precision machining is used to create the attachment points along the rod for the holding brackets (5). These brackets are designed to securely hold and align the rifles (11). The holding brackets (5) are also fabricated from durable materials, typically steel or aluminum, and are securely welded or bolted to the axial rod (4) to ensure stability during firing.

Assembly of the Rifle Assembly Structure: Once the axial rod (4) and holding brackets (5) are fabricated, the rifle assembly structure (2) is assembled. The sections of the axial rod are joined, and the brackets are carefully positioned to ensure that the rifles (11) are held securely and aligned for accurate firing. The assembly is then tested for stability and strength to ensure that it can handle the weight and recoil forces during operation.

Step 3: Fabrication of the Triggering Mechanism (6) and Wiring Assembly (8)
The triggering lever (6) and wiring assembly (8) are integral to the system's operation, enabling the simultaneous firing of all mounted rifles (11).
1. Triggering Lever Fabrication: The triggering lever (6) is fabricated from high-strength steel or aluminum for durability. The lever is ergonomically designed for ease of use, ensuring that the operator can quickly engage all rifles (11) with a single pull. The handle (7) is designed with an anti-slip coating to enhance grip during operation.
2. Wiring Assembly: The wiring assembly (8) is constructed using insulated copper wires to carry electrical signals to the rifles (11). The wires are connected to hooked wires (9), which are used to trigger the firing mechanisms of each rifle simultaneously when the triggering lever (6) is activated. The wiring assembly (8) is routed through the rifle assembly structure (2) in a manner that ensures minimal interference with other components.
3. Testing and Insulation: The wiring assembly (8) is rigorously tested for electrical continuity and insulation quality. Each wire is checked to ensure it is properly insulated to prevent any electrical hazards during operation.

Step 4: Fabrication of the Cocking Assembly (10)
The cocking assembly (10) is designed to allow the simultaneous cocking of all rifles (11) for combat readiness.
1. Material Selection and Design: The cocking assembly (10) is fabricated from steel or aluminum and designed for ease of operation. The assembly must be robust enough to handle the recoil forces during firing and provide smooth cocking action without fail.
2. Integration with Axial Rod (4): The cocking mechanism is integrated into the axial rod (4), allowing all rifles (11) to be cocked at once. This is achieved by using a gear-based mechanism or manual lever system to ensure synchronization between the rifles.
3. Assembly and Testing: The cocking assembly is installed and tested to ensure that all rifles (11) can be cocked simultaneously without any mechanical failure. The system is also tested to ensure that it can handle the heavy recoil generated during operation.

Step 5: Fabrication of the Sighting Unit (16)
The sighting unit (16) is critical for targeting fast-moving aerial threats. It may include laser sights or visual sights, which are designed to provide high-precision aiming.
1. Material Selection: The sighting unit (16) is fabricated using lightweight, durable materials such as aluminum or high-impact plastic for the housing, ensuring that the system is not overly heavy while maintaining durability.
2. Laser Sight Integration: If the sighting unit includes a laser sight, it is integrated into the housing using precision optical alignment techniques. The laser sight is calibrated to ensure that it aligns with the barrels (15) of the rifles (11) to ensure accurate targeting.
3. Assembly and Testing: The sighting unit (16) is mounted onto the rifle assembly structure (2) and tested for accuracy and alignment. The system is checked to ensure that it provides a stable, precise aiming reference for the operator during engagement.

Step 6: Assembly and Final Testing
Once all individual components have been fabricated, they are carefully assembled into the complete multi-rifle shooting system (100).
1. Component Integration: The tripod stand (1), rifle assembly structure (2), triggering lever (6), wiring assembly (8), cocking assembly (10), and sighting unit (16) are all integrated into a single unit. All components are securely connected, and alignment is verified to ensure that the rifles (11) are properly mounted and the system is stable.
2. Final Testing: The system is subjected to rigorous testing under simulated operational conditions. This includes recoil testing, safety testing, and functional testing of all components, such as the triggering mechanism and cocking assembly. The system is also tested for modular adjustability to ensure that it can accommodate different rifle types and calibers.
3. Quality Control: Each unit is carefully inspected to ensure that it meets all required safety and performance standards. The system is then packaged for shipment or storage.

Step 7: Packaging and Shipping
Once the system has passed all tests and quality control checks, it is disassembled into modular components for easy shipping and storage. Each component is securely packed to prevent damage during transit.

The advantages of the multi-rifle shooting system (100) are numerous, as highlighted by its increased firepower, modular design, enhanced stability, and dual operational modes. By allowing for the simultaneous firing of multiple rifles (11), the system is capable of engaging multiple aerial threats in rapid succession, providing superior coverage compared to traditional single-barrel or fixed-direction firearms.

The system's recoil stabilization ensures that it remains operational under heavy firing conditions, while the safety features, such as the multi-holder (12) and rifle locking sheet (13), prevent misalignment and enhance safety during operation. The modular design ensures that the system can be customized for specific operational needs, while the dual operational modes provide flexibility in deployment, allowing the system to be used manually or automatically based on the situation.

The multi-rifle shooting system (100) is suitable for a wide range of military and civilian defense applications, including the defense of critical infrastructure, counter-drone operations, anti-poaching missions, and border security. The system's adaptability, stability, and precision targeting capabilities make it an effective solution for engaging fast-moving aerial threats in diverse environments.

In conclusion, the multi-rifle shooting system (100) is a powerful, flexible, and adaptable platform designed to provide enhanced defense against aerial threats. The system's ability to fire multiple rifles simultaneously, its modular design, and its operational flexibility make it a highly effective solution for modern defense challenges.
, Claims:5. CLAIMS
I/We claim:
1. A multi-rifle shooting system for aerial threats, comprising:
a tripod stand (1) for stable mounting;
a rifle assembly structure (2) mounted on the tripod stand (1) via a mounting rod (3), wherein the rifle assembly structure (2) further comprises an axial rod (4) segmented with a plurality of holding brackets (5) configured to hold multiple rifles (11);
a triggering lever (6) with a handle (7) operatively connected to a wiring assembly (8) with hooked wires (9) to activate the triggering units of the multiple rifles (11) simultaneously;
a cocking assembly (10) integrated with the axial rod (4) for combat readiness;
a sighting unit (16) for accurate targeting;
a multi-holder (12) and a rifle locking sheet (13) for stabilization and safety during operation;
multiple rifles (11) mounted with their barrel units (15) oriented towards the top side;
an option for manual operation or automation based on user preferences, wherein the system (100) is capable of withstanding recoil forces generated during firing;
a modular design that allows for easy disassembly and reconfiguration of the rifle assembly structure (2), enabling the accommodation of different types and calibers of rifles (11) based on mission-specific requirements;
a recoil stabilization system integrated into the tripod stand (1), designed to absorb and redirect the recoil forces generated when multiple rifles (11) are fired simultaneously, ensuring operational stability and enhanced accuracy during firing.

2. The multi-rifle shooting system (100) as claimed in claim 1, wherein the tripod stand (1) is adjustable for height and terrain adaptability, enabling deployment in various operational environments.

3. The multi-rifle shooting system (100) as claimed in claim 1, wherein the axial rod (4) is configured to allow angular adjustments of the rifles (11) to target aerial threats at different altitudes and trajectories.

4. The multi-rifle shooting system (100) as claimed in claim 1, wherein the triggering lever (6) includes an ergonomic grip for ease of use during manual operation.

5. The multi-rifle shooting system (100) as claimed in claim 1, wherein the wiring assembly (8) is insulated to prevent electrical hazards during operation, ensuring the safety of the operator.

6. The multi-rifle shooting system (100) as claimed in claim 1, wherein the cocking assembly (10) is manually operated or powered by a motor, providing flexibility in system activation.

7. The multi-rifle shooting system (100) as claimed in claim 1, wherein the sighting unit (16) includes a laser sight for precision targeting, enhancing the operator's ability to engage fast-moving aerial threats.

8. The multi-rifle shooting system (100) as claimed in claim 1, wherein the multi-holder (12) is detachable for easy transportation and reconfiguration, improving the system's portability.

9. The multi-rifle shooting system (100) as claimed in claim 1, wherein the rifle locking sheet (13) is constructed from ballistic-grade material to withstand impact forces and prevent misalignment during intense firing sequences.

10. A method of manufacturing the multi-rifle shooting system for aerial threats as described in claim 1, comprising the steps of:
fabricating the tripod stand (1) from durable, lightweight material with adjustable height features and recoil-absorbing mechanisms, ensuring stability during firing and easy deployment on various terrains;
constructing the rifle assembly structure (2) by manufacturing the axial rod (4) from high-strength, corrosion-resistant material, and segmenting it into sections to allow modular adjustments based on the number of rifles (11) to be mounted;
positioning holding brackets (5) along the axial rod (4), wherein each holding bracket (5) is designed to securely hold and align the multiple rifles (11) with precision, ensuring stability during operation and minimizing misalignment caused by recoil;
designing and assembling the triggering lever (6) with a handle (7), connected to a wiring assembly (8) with insulated hooked wires (9), to trigger all rifles (11) simultaneously, with integrated safety features to prevent accidental discharge;
integrating the cocking assembly (10) into the axial rod (4), allowing for the simultaneous cocking of all rifles (11) when triggered, ensuring combat readiness and operational efficiency;
developing the sighting unit (16), incorporating laser targeting and visual sighting systems, and securely attaching it to the rifle assembly structure (2) for accurate targeting of fast-moving aerial threats;
constructing a multi-holder (12) and rifle locking sheet (13) to stabilize the rifles (11) during firing, ensuring the system's operational stability and preventing movement or misalignment of the rifles (11) during intense recoil;
assembling the system (100) to ensure all components, including the tripod stand (1), rifle assembly structure (2), triggering system, cocking mechanism, and safety features, are aligned, tested for recoil resistance, and assembled in a modular configuration for ease of disassembly and reconfiguration based on mission needs;
testing the system for stability, safety, and performance under various operational conditions, ensuring that the multi-rifle shooting system (100) meets all necessary specifications and is capable of withstanding recoil forces generated during simultaneous firing of the rifles (11).

6. DATE & SIGNATURE

Dated this 07th December 2024
Signature

Mr. Srinivas Maddipati
IN/PA 3124- Agent for Applicant