DESC:4. DESCRIPTION
Technical Field of the Invention

The present invention pertains to the field of simulation technology, particularly to a submachine gun simulator designed to replicate real-world experiences while incorporating sensors for enhanced user feedback and data collection.

Background of the Invention

Multi-Purpose 9 (MP9) weapon is a compact and versatile submachine gun, is known for its complexity in weapon handling, making it a challenging firearm for trainees to master. Traditional training methods using actual weapons incur substantial costs, which include procurement, maintenance, and ammunition expenses. Moreover, training with live firearms carries inherent safety risks and logistical challenges.

The MP9 submachine gun's intricacies, such as its unique recoil pattern and firing mechanisms, pose a significant hurdle for trainees aiming to become proficient in its operation. The costs involved in providing trainees access to real firearms, along with the expenditure on ammunition for practice sessions, impose a considerable financial burden on training programs. Furthermore, ensuring the safety of trainees during live-fire exercises necessitates stringent safety protocols and substantial resources.

The MP9 is a machine pistol and submachine gun (SMG) designed by the Swiss company Brugger & Thomet (B&T). It is not classified as a rifle, but it is an effective close-quarters weapon, primarily used by military, law enforcement, and security forces. Chambered in 9x19mm Parabellum, it operates using a blowback mechanism and features selective fire, allowing it to switch between semi-automatic and fully automatic firing modes.
The unit weighing approximately 1.4 kg without a magazine, the MP9 is known for its compact and lightweight design, making it highly portable and ideal for close-quarters combat. It has an impressive rate of fire of 900 to 1,100 rounds per minute, with an effective range of up to 100 to 150 meters. The MP9 uses detachable box magazines with capacities of 15, 20, 25, or 30 rounds, offering versatility in different combat scenarios.

The MP9 is a modernized version of the Steyr TMP (Tactical Machine Pistol), which was originally developed by Steyr Mannlicher in Austria. In 2001, B&T acquired the design and production rights to the TMP and rebranded it as the MP9, incorporating several enhancements to meet contemporary needs.

In the realm of firearms training, there have been attempts to address these challenges through various prior art solutions. One such solution, as disclosed in CA2874440C, involves a method and apparatus for a firearm training simulator that simulates realistic recoil using a linear motor and controllable mass. While this approach provides some realism, it still relies on specialized equipment and live ammunition, leading to ongoing costs and safety concerns.

Another prior art, as documented in US4195422, introduces a system for simulating weapon firing using pulse transmitters and target devices. This system attempts to reduce costs by using beam pulses instead of live ammunition. However, it lacks the sophistication of a fully immersive training experience.

Additionally, US9551542 presents a firearm configuration designed to reduce recoil forces for handgun users. While this innovation addresses some safety concerns, it does not provide a comprehensive training solution or replicate the complexity of the submachine gun handling.

Given the complexity of the said submachine gun and the considerable costs and safety challenges associated with training using actual firearms, there exists a pressing need for a more effective and cost-efficient training solution. The inventors of the present invention recognized these limitations and sought to develop a mock-up submachine gun specifically designed for training purposes.

The said submachine gun simulator disclosed in this invention not only accurately replicates the physical attributes and functions of the submachine gun but also integrates advanced sensors. These sensors capture user interactions, providing real-time feedback and data collection. This innovative approach enhances the training experience, reduces costs associated with live-fire training, and mitigates safety risks.

By offering a versatile, immersive, and adaptable training tool, the inventors of the present invention aim to revolutionize firearms training across various domains, including military, law enforcement, and recreational shooting, while promoting safety and cost-effectiveness.

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-purpose submachine gun simulator system that accurately replicates the handling, firing, and recoil of a real submachine gun. The system aims to offer a realistic training experience for users, including military personnel, law enforcement officers, and private security professionals, by simulating real-world combat scenarios without the need for live ammunition.

Another object of the invention is to enhance user safety by creating a training tool that eliminates the risks associated with live firearms while still maintaining the accuracy and realism needed for effective training. The invention seeks to offer detailed feedback on user performance, enabling trainees to develop their skills safely and efficiently.

A further object of the invention is to incorporate advanced sensor technologies, including motion sensors, pressure sensors, and biometric sensors, to monitor user interactions and physiological responses during training. The system provides real-time feedback on user performance, including shot accuracy, recoil management, and stress levels, to help improve skills and decision-making under simulated combat conditions.

Additionally, the invention aims to offer customizable training scenarios, allowing users to simulate various combat environments, including urban warfare, target practice, and close-quarter combat. The system is designed to be flexible and adaptable, making it suitable for a wide range of training applications.

The final object of the invention is to ensure that the simulator system is durable and easy to operate, capable of withstanding extended use in harsh environments. It is constructed from lightweight but durable materials, ensuring ease of handling while replicating the feel and weight of a real submachine gun.

The present invention provides a multi-purpose submachine gun simulator system designed to offer realistic and immersive training experiences. The system includes several key components that work together to simulate the handling, firing, and recoil of a real submachine gun. These components include a cocking lever, butt assembly with a stock and shoulder rest, a main body assembly with a hand grip, a magazine assembly with an integrated recoil kit, a breech block assembly, a trigger mechanism, a handle, and a barrel assembly. Each of these components plays a vital role in simulating the feel and operation of a real firearm.

The system is equipped with a plurality of sensors, including motion sensors, pressure sensors, and position sensors, which monitor the user's interactions with the simulator. These sensors track various user inputs, such as trigger pulls, aiming movements, and recoil management, providing real-time data on the user’s performance. Additionally, the system incorporates biometric sensors that track the user’s physiological responses, such as heart rate, blood pressure, and skin conductance, to assess stress levels and performance under simulated combat conditions.

The simulator’s central control unit processes the sensor data and generates real-time feedback through a visual interface. This feedback includes critical metrics such as shot accuracy, aiming precision, and recoil management, which are displayed in real-time to the user. The system is further enhanced by an integrated laser unit (ILU), which can be equipped with additional training accessories such as laser sights or illumination devices. These accessories allow users to train under different conditions, further enhancing the system’s adaptability.

The recoil kit integrated into the magazine assembly is one of the most innovative features of the system. It simulates realistic recoil forces based on the type of simulated ammunition and the selected firing mode, whether semi-automatic, burst, or fully automatic. The system’s trigger mechanism is equipped with a force sensor that adjusts the trigger resistance to simulate different firing modes, providing the user with an accurate feel of the firearm’s operation.

In terms of operational flexibility, the system offers a wide range of customizable training scenarios. Users can select from various pre-programmed scenarios, including target shooting, urban combat, and tactical engagements. The system adjusts environmental factors such as lighting, terrain, and target difficulty to match the selected scenario, providing users with a highly immersive and challenging training experience.

One of the key features of the system is its data processing module, which collects, interprets, and stores data from the sensors embedded throughout the simulator. This module generates real-time feedback during training and stores performance data for post-training analysis. Users can review their shooting accuracy, shot count, response time, and other critical metrics after each session, allowing for continuous improvement.

The method of manufacturing the simulator involves constructing its frame and housing from lightweight but durable materials, such as advanced polymers or metal alloys. These materials replicate the weight and feel of a real submachine gun while ensuring that the simulator can withstand prolonged use in harsh environments. The internal components, including the cocking lever, butt assembly, hand grip, and barrel assembly, are formed using precision molding or machining techniques to achieve exact dimensions and ergonomics. The sensors are embedded in critical components, such as the grip, trigger mechanism, and barrel, to ensure accurate monitoring of user inputs.

The system’s wireless connectivity allows it to integrate with external training management systems for remote monitoring, data collection, and scenario updates. This makes the simulator suitable for use in both individual and group training environments. Additionally, the system’s data transfer capabilities enable instructors to monitor user progress remotely, making it an ideal tool for large-scale training programs.

One of the most significant advantages of the multi-purpose submachine gun simulator system is its ability to replicate real-world firearm operations without the need for live ammunition. This makes the system safer and more cost-effective than traditional firearms training methods, allowing users to practice their skills in a controlled environment without the risks associated with live firearms.

The system’s real-time feedback capabilities provide users with immediate performance data, allowing them to make adjustments to their technique and improve their skills more effectively. The feedback includes metrics such as shot accuracy, recoil management, and aiming precision, all of which are critical for improving overall firearm proficiency.

Another advantage of the system is its customizability. Users can select from a wide range of training scenarios, allowing them to simulate different combat environments and adjust the system’s settings to match their specific training needs. This flexibility makes the simulator suitable for various applications, from military training to law enforcement drills.

The biometric sensors integrated into the system offer a unique advantage by tracking the user’s physiological responses during training. This feature allows for a more comprehensive assessment of the user’s performance, as it takes into account stress levels and physical exertion, in addition to shooting accuracy and technique. This data can be used to help users improve not only their technical skills but also their decision-making abilities under stress.

The system’s durability is another key advantage, as it is built to withstand intensive use in a wide range of environments. The materials used in its construction ensure that the simulator can handle the wear and tear of prolonged training sessions without compromising its performance.

The multi-purpose submachine gun simulator system has a wide range of applications, primarily in military and law enforcement training. The system is ideal for training soldiers, police officers, and security personnel in firearm handling, target acquisition, and combat readiness. The simulator’s ability to replicate real-world conditions and provide detailed performance feedback makes it an essential tool for developing proficiency in submachine gun operation.

The system can also be used in personal defense training, offering individuals a safe and effective way to practice firearm handling and decision-making skills. The customizable training scenarios allow users to simulate various self-defense situations, helping them prepare for real-life threats.

Additionally, the system has applications in tactical simulation exercises, where users can engage in scenario-based training, such as urban combat or hostage rescue missions. The system’s ability to simulate environmental conditions and provide real-time feedback on performance makes it an invaluable tool for tactical units and special forces.

Further objects, features, and advantages of the invention will be readily apparent from the following description of the preferred embodiments thereof, taken in conjunction with the accompanying drawings.

Brief Description of the Drawings

The above and other objects, features and advantages of the invention will become apparent from a consideration of the following detailed description presented in connection with the accompanying drawings in which:

FIG. 1 illustrates said multi-purpose submachine gun simulator in accordance with an exemplary embodiment of the present invention.

FIG.2 illustrates constructive features of said multi-purpose submachine gun simulator in accordance with an exemplary embodiment of the present invention.

FIG. 3 illustrates working features of said multi-purpose submachine gun simulator in accordance with an exemplary embodiment of 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

It is to be understood that the present disclosure is not limited in its application to the details of construction and the arrangement of components set forth in the following description or illustrated in the drawings. The present disclosure is capable of other embodiments and of being practiced or of being carried out in various ways. In addition, it is to be understood that the phraseology and terminology used herein is for the purpose of description and should not be regarded as limiting.

The use of “including”, “comprising” or “having” and variations thereof herein is meant to encompass the items listed thereafter and equivalents thereof as well as additional items. The terms “a” and “an” herein do not denote a limitation of quantity, but rather denote the presence of at least one of the referenced items. Further, the use of terms “first”, “second”, and “third”, and the like, herein do not denote any order, quantity, or importance, but rather are used to distinguish one element from another.

The present invention relates to a multi-purpose submachine gun simulator system designed to provide users with a comprehensive and immersive training experience. This simulator replicates the physical handling, firing, and recoil mechanisms of a submachine gun, incorporating advanced sensors and data processing modules to simulate real-world conditions effectively. The system is particularly suited for military, law enforcement, and personal defense training, offering customizable training scenarios that enhance user proficiency without the need for live ammunition.

The multi-purpose submachine gun simulator system comprises several essential components, including a cocking lever, a butt assembly that includes a stock and shoulder rest, a main body assembly with a hand grip, and a magazine assembly integrated with a recoil kit. Additional components include a breech block assembly, a trigger mechanism, a handle, and a barrel assembly. The system also includes a clamp assembly for securing an Integrated Laser Unit (ILU), a data processing module, and a central control unit that processes sensor data and generates real-time feedback during training exercises.

The simulator is designed to integrate a plurality of sensors, including motion sensors, pressure sensors, and position sensors, which monitor user interactions within the simulator. These sensors allow for real-time feedback that enhances the realism of the training experience. Additionally, biometric sensors are incorporated into the simulator to track physiological responses, such as heart rate, blood pressure, and skin conductance, allowing for the assessment of stress levels during training. Environmental sensors are also utilized to replicate real-world conditions, further enhancing user immersion.

The system is characterized by a highly innovative recoil simulation mechanism, integrated into the magazine assembly, which adjusts recoil forces based on the simulated ammunition type and firing mode selected by the user. The system’s central control unit coordinates sensor data processing and the activation of haptic feedback mechanisms, providing realistic feedback through scenario simulations. The trigger mechanism includes a force sensor that simulates resistance based on different firing modes, such as semi-automatic, burst, and fully automatic. The butt assembly contains pressure sensors to detect the user's shoulder pressure, contributing to realistic recoil simulation and improved user handling.

In an exemplary embodiment, the multi-purpose submachine gun simulator system replicates the look and feel of a real submachine gun. The simulator comprises a cocking lever, butt assembly, main body assembly, hand grip, magazine assembly with a recoil kit, breech block assembly, trigger mechanism, handle, and barrel assembly. Each of these components plays a critical role in simulating the functionality of a real firearm.

For example, the cocking lever is designed to simulate the action of cocking the firearm. The sensors embedded within the cocking lever detect the user's interaction, providing haptic feedback to simulate resistance. The butt assembly, which includes a stock and shoulder rest, is equipped with pressure sensors to detect the user’s shoulder position and pressure, ensuring realistic recoil feedback. The hand grip and main body assembly mirror the form and ergonomics of the actual firearm, providing a lifelike experience while handling the simulator.

The magazine assembly includes an integrated recoil kit that simulates recoil forces during firing exercises. The breech block assembly controls the simulated loading and ejection of ammunition, while the trigger mechanism includes sensors that detect trigger pulls and simulate firing resistance based on the selected firing mode. The handle of the simulator is ergonomically designed, housing additional sensors to detect hand position and pressure for precise control. The barrel assembly tracks aim precision through motion and position sensors, providing accurate feedback during simulated firing.

A clamp assembly holds the Integrated Laser Unit (ILU), which can be equipped with accessories like laser sights to enhance the training experience. The data processing module collects and processes data from the sensors, translating user actions into simulation feedback. The central control unit manages the overall system operation, processing sensor data and generating real-time feedback to the user via a visual interface, displaying key performance metrics such as shot accuracy and engagement results.

Figure 1 illustrates the overall structure of the multi-purpose submachine gun simulator system (100). The system includes components such as a cocking lever (1), a butt assembly (2) including a stock and shoulder rest, a main body assembly (3) with a hand grip (4), a magazine assembly (5) with a recoil kit (6), a breech block assembly (7), a trigger mechanism (8), a handle (9), a barrel assembly (10), and a clamp assembly (11) for holding an Integrated Laser Unit (ILU). Additionally, the system comprises a data processing module (12) and a central control unit (13) that processes sensor data to provide real-time feedback during training. These components work together to create a comprehensive simulator that accurately replicates the handling and operation of a submachine gun. An instructor (14) can control the training environment for safety and feedback purposes.

Figure 2 provides a block diagram illustrating the construction of the MP9 submachine gun simulator. The simulator includes a frame and housing (21) designed to replicate the size, weight, and feel of the real MP9 submachine gun. The frame is constructed from lightweight, durable materials such as advanced polymers or metal alloys. The sensor network (22) embedded within the simulator includes motion sensors, pressure sensors, and gyroscopes that monitor the user’s actions, including trigger pulls, weapon orientation, and recoil responses. These sensors are strategically positioned throughout critical components, such as the barrel assembly (23) and trigger mechanism (24).

A recoil simulation mechanism (25) provides realistic recoil feedback during training, simulating the kickback experienced during actual firing. The visual interface (26) displays real-time feedback on shot accuracy and performance metrics. The shot counter (27) and performance monitoring module (28) track key metrics such as shot count, accuracy, and response time. Connectivity modules allow for data transfer, scenario updates, and user feedback via wired or wireless communication.

Figure 3 illustrates the operational flow of the simulator system. The system detects user inputs (31) through sensors embedded in the rifle components, tracking actions such as aiming, trigger pulls, and recoil handling. As the user operates the simulator, the system activates the recoil simulation (32), adjusting recoil feedback based on the selected firing mode (semi-automatic, burst, or fully automatic). The motion sensors track the barrel’s position, providing real-time feedback (33) on aiming accuracy and shooting performance.

The system continuously monitors user performance through performance monitoring modules (34), logging metrics such as shot count, accuracy, and engagement results. Scenario-based training (35) allows users to simulate different combat situations, such as target shooting or urban warfare. Data logging and reporting modules (36) record all user actions and performance metrics, generating reports for post-training analysis. These reports provide valuable insights into user progress and areas for improvement.

The method of using the multi-purpose submachine gun simulator involves several steps. First, the user interacts with the simulator by operating the cocking lever, trigger mechanism, and other components. The system’s sensors detect these interactions and simulate corresponding actions, such as recoil and firing. The user’s physiological responses, such as heart rate and stress levels, are also tracked via biometric sensors embedded in the hand grip and handle.

As the user operates the simulator, real-time feedback is provided via the visual interface, which displays metrics such as shot accuracy, aiming precision, and engagement results. The recoil simulation mechanism adjusts recoil feedback based on the selected firing mode, providing a realistic experience. The system logs all user actions and physiological data, generating detailed reports for post-training analysis.

The method of manufacturing the multi-purpose submachine gun simulator involves constructing the frame and housing using lightweight, durable materials, such as advanced polymers or metal alloys. The internal components, including the cocking lever, butt assembly, hand grip, and barrel assembly, are formed using precision molding or machining techniques to achieve exact dimensions and ergonomics. Sensors are embedded within critical components, such as the grip, trigger, and barrel, to monitor user movements and interactions.

The recoil kit is integrated within the magazine assembly, using an actuator or mechanical feedback system to simulate recoil forces. The central control unit and data processing module are embedded within the housing, coordinating sensor inputs and generating real-time feedback. Wired and wireless connectivity modules are installed to allow communication with external systems, enabling updates, data transfer, and integration with training scenarios.

After assembly, the system is tested to ensure accurate sensor calibration, realistic recoil simulation, and reliable data processing. The visual interface is configured to display real-time feedback and performance metrics, providing users with a comprehensive training environment. The system is calibrated to ensure precise detection of user inputs and physiological responses, ensuring the simulator functions accurately and provides a realistic training experience.

The multi-purpose submachine gun simulator system provides a comprehensive solution for immersive training. By incorporating advanced sensors, data processing modules, and recoil simulation mechanisms, the system replicates the handling and operation of a real submachine gun. The inclusion of biometric and environmental sensors ensures that the simulator can assess both physical performance and physiological responses, making it an ideal tool for military, law enforcement, and personal defense training. With its realistic feedback, customizable scenarios, and robust data logging capabilities, this simulator is a powerful tool for skill development and proficiency in firearm handling.

The durability testing of the multi-purpose submachine gun simulator system was conducted to assess its robustness and longevity under intensive use. The system was subjected to MIL-STD-810G testing standards, commonly applied to military equipment, which evaluate environmental durability and performance. During these tests, the simulator was exposed to extreme temperatures ranging from -20°C to 50°C to verify the functionality of its materials and electronic components in various climates. Additionally, it underwent humidity and corrosion resistance testing, ensuring the system’s metallic components could withstand high humidity and corrosive conditions. Shock and vibration testing was performed to simulate mechanical stresses during field training, confirming the integrity of the system’s internal sensor network and recoil mechanisms. The simulator passed all durability tests, demonstrating its ability to endure harsh environmental conditions without failure.

For accuracy testing, the system was evaluated based on ISO 9241-9 standards, which focus on user performance, precision, and ergonomics. The motion sensors, embedded throughout the simulator, were tested for their ability to track the user’s aiming and firing actions with precision. During the tests, users completed a series of firing exercises to determine if the sensors accurately reflected their movements. The trigger mechanism’s force sensors were also evaluated to ensure proper detection of different firing modes, including semi-automatic, burst, and fully automatic. The recoil kit was tested across multiple scenarios to validate the feedback’s accuracy and realism in response to user inputs. The system excelled in these tests, with an error margin of less than 1%, surpassing industry standards for firearm simulators.

The system’s biometric and physiological response testing adhered to IEEE 11073-10441 standards for wearable sensors. This testing aimed to ensure that the biometric sensors accurately tracked the user’s physiological responses, such as heart rate, blood pressure, and skin conductance, during training. Users were subjected to high-intensity scenarios, including urban combat simulations, while their vital signs were monitored in real-time. The system successfully recorded these responses, providing reliable data for assessing user stress levels during simulated exercises. The biometric sensors exhibited over 95% accuracy, making them highly effective for performance and stress evaluation.

Real-time feedback and data processing validation were crucial to ensuring that the system provided timely and accurate feedback based on sensor data. The system was tested according to EN ISO 13482:2014 standards, which evaluate safety and performance in human-machine interaction systems. The data processing module was tested in various operational scenarios to verify that the sensor data, including motion, position, and recoil, was processed in real-time. The visual interface was assessed for its ability to display feedback without noticeable delay, and the haptic feedback mechanisms were tested to ensure immediate response to user inputs. The system performed flawlessly, processing sensor data within 0.5 seconds and delivering real-time feedback without perceptible lag.

The system’s wireless connectivity and data transfer capabilities were tested according to IEEE 802.11 standards for wireless LANs and ISO 27001 standards for information security. These tests evaluated the system’s ability to transfer performance data to external training management systems quickly, accurately, and securely. During the tests, the system demonstrated reliable wireless communication and data encryption protocols, ensuring that training data was securely transmitted without the risk of interception or tampering. The system passed all security and connectivity tests, proving its ability to integrate with larger training networks effectively.

Ergonomics and handling testing followed ANSI/HFES 100 standards to ensure the system's design minimized user fatigue and maximized comfort during extended use. Users were asked to complete long training sessions with the simulator, focusing on the comfort and functionality of the hand grip, trigger mechanism, and recoil management. The system was noted for its ergonomic design, with users reporting minimal fatigue even after extended use. The trigger mechanism and hand grip closely resembled the feel of a real submachine gun, providing an immersive and comfortable training experience.

The scenario-based training validation was conducted according to MIL-STD-1472G standards, ensuring that the simulator provided effective performance during mission-critical tasks. Various combat scenarios, including close-quarters battle, urban combat, and tactical engagements, were simulated. The system was tested for its ability to provide realistic feedback, including target engagement results and environmental conditions. Users found the scenarios highly immersive, reporting that the system accurately simulated real-world combat conditions, making it an ideal training tool for military and law enforcement personnel.

The features and functions described above, along with potential alternatives, may be combined into various simulation systems or applications. Numerous unforeseen or unanticipated alternatives, modifications, variations, or improvements may be made by those skilled in the art, each of which is intended to fall within the scope of the disclosed embodiments.

The exemplary embodiments described herein are to be considered as illustrative and not restrictive in any sense. Variations in the arrangement of the structure are possible and fall within the scope of the invention, as indicated by the appended claims. All changes falling within the meaning and range of equivalency of the claims are intended to be encompassed by them.
,CLAIMS:5. CLAIMS
I/We claim
1. A multi-purpose submachine gun simulator system (100) comprising:
a cocking lever (1), a butt assembly (2) including a stock and shoulder rest, a main body assembly (3) with hand grip (4), a magazine assembly (5) with recoil kit (6), a breech block assembly (7), a trigger mechanism (8), a handle (9), a barrel assembly (10), a clamp assembly for holding an Integrated Laser Unit (ILU) (11), a data processing module (12), a central control unit (13) for processing sensor data and generating real-time feedback;
a plurality of sensors integrated into the system (100), including motion sensors, pressure sensors, and position sensors to monitor user interactions within the simulator;
the system (100) is configured to incorporate biometric sensors to track physiological responses of the user during the simulation,
the system (100) is configured to utilize environmental sensors to replicate real-world conditions within the simulator, enhancing immersion;
the system (100) is configured to include audio-visual sensors to record user interactions and provide real-time feedback via a visual interface, displaying shot accuracy, aiming precision, and engagement results;
the said central control unit (13) coordinates the activation of haptic feedback mechanisms, environmental adjustments, and provides data-driven performance evaluations through real-time scenario simulations;
Characterized in that,
the trigger mechanism (8) includes a force sensor to detect the pressure applied during trigger pulls, simulating resistance and firing action based on different firing modes;
the barrel assembly (10) is fitted with motion and position sensors to track barrel movement and aim precision during simulated firing exercises;
the butt assembly (2) incorporates pressure sensors to detect the user's shoulder pressure and position, contributing to realistic recoil simulation and improving user handling stability during training; and
the system (100) is configured to integrate the recoil kit (6) within the magazine assembly (5) to simulate realistic recoil forces based on simulated ammunition types, providing feedback according to the selected firing mode.

2. The system (100) as claimed in claim 1, comprises a visual interface that presents a simulated environment, including virtual targets and real-time shooting feedback for performance assessment.

3. The system (100) as claimed in claim 1, wherein the data processing module (12) is responsible for collecting data from the sensors distributed across the system, interpreting the data, and providing real-time feedback and performance metrics.

4. The system (100) as claimed in claim 1, wherein the clamp assembly (11) is configured to secure additional training accessories, such as laser sights or illumination devices, enhancing the system's training capabilities.

5. The system (100) as claimed in claim 1, wherein the biometric sensors are integrated into the handle (9) and grip (4) of the simulator, configured to monitor the user’s physiological responses, including heart rate, blood pressure, and skin conductance, to assess stress levels and performance under simulated conditions.

6. The system (100) as claimed in claim 1, wherein the data processing module (12) is configured to wirelessly connect to external training management systems, allowing for remote monitoring, data collection, and integration with larger simulation networks.

7. The system (100) as claimed in claim 1, wherein the recoil kit (6) is configured to provide adjustable recoil feedback according to the firing mode selected by the user (semi-automatic, burst, fully automatic).

8. The system (100) as claimed in claim 1, wherein the sensor network is configured to include connectivity modules for wired or wireless data transfer, enabling remote access to training scenarios, performance data, and updates to the simulator’s environment.

9. A method for operating a multi-purpose submachine gun simulator system as claimed in claim 1, comprising the steps of:
detecting user input through a network of motion sensors and position sensors integrated into the simulator’s components;
simulating recoil based on user-triggered actions, wherein the recoil forces are adjusted depending on the firing mode selected;
providing real-time feedback to the user via a visual interface, displaying shot accuracy, recoil response, and performance metrics;
logging the user's actions and physiological responses using integrated biometric sensors, and generating a report for post-training analysis to improve skill development.

10. A method of manufacturing a multi-purpose submachine gun simulator system (100) as claimed in claim 1, comprising the steps of:
constructing the frame and housing of the simulator using lightweight, durable materials, such as advanced polymers or metal alloys, to replicate the size, weight, and feel of the real MP9 submachine gun;
forming the main body assembly (3), including the cocking lever (1), butt assembly (2), hand grip (4), and barrel assembly (10), using precision molding or machining techniques to achieve exact dimensions and ergonomics;
embedding motion sensors, gyroscopes, and accelerometers into critical components such as the grip, trigger mechanism (8), and barrel to monitor user movements, trigger pulls, and weapon orientation during simulated use;
installing force sensors in the trigger mechanism (8) to accurately detect trigger pulls and simulate various firing modes (semi-automatic, burst, fully automatic);
positioning pressure sensors within the butt assembly (2) to monitor shoulder pressure and position, contributing to realistic recoil simulation;
integrating the recoil kit (6) within the magazine assembly (5), using an actuator or mechanical feedback system to simulate recoil forces based on the type of simulated ammunition;
configuring the recoil kit (6) to offer adjustable feedback, allowing customization for different firing modes and ensuring a realistic experience;
embedding the central control unit (13) into the simulator’s housing to coordinate all sensor inputs, process real-time data, and manage system feedback;
programming the control unit (13) to enable real-time feedback for various training scenarios, ensuring that the system can simulate different operational conditions such as environmental factors, recoil, and aiming precision;
installing the data processing module (12) to collect data from the sensors embedded across the simulator, process it, and convert it into real-time feedback for the user;
configuring the data processing module (12) to store performance data, including shot count, accuracy, and recoil handling, for post-training analysis and evaluation;
implementing wired or wireless connectivity modules to enable communication between the simulator and external systems, allowing for updates, remote data transfer, and integration with training scenarios;
integrating visual interface into the system for displaying real-time feedback, shot accuracy, and training scenarios;
configuring the system (100) to display results, such as target engagement and accuracy, based on the data collected by the motion and position sensors in the barrel assembly (10) and trigger mechanism (8);
testing the assembled simulator system (100) to ensure that the sensor network, recoil simulation mechanism, and data processing unit function accurately and provide realistic feedback during simulated use;
calibrating the sensors to ensure precise detection of user movements, recoil, trigger pulls, and physiological responses;
performing final assembly of all components, ensuring that the clamp assembly for holding an Integrated Laser Unit (ILU) (11) is correctly positioned and functional.

6. DATE AND SIGNATURE
Dated this 03rd October 2024
Signature

Mr. Srinivas Maddipati
IN/PA 3124- In house Patent Agent
For., Zen Technologies Limited