DESC:4. DESCRIPTION
Technical Field of the Invention

The present invention relates to the field of defence and research mainly refers to defence related simulating technologies which integrates different types of virtual simulation units together as a multi stationary system.

Background of the Invention

Simulation training systems were used as tools to teach trainees about the skills needed in the real world. It provides a lifelike point-of-care learning experience and has been widely applied in fields such as aviation, the military and healthcare.

Simulation training is the creation of a true-to-life learning environment that mirrors real-life work and scenarios. Trainees can put real knowledge and skills into practice not just by reading books on theory or listening to lectures, but through physical, hands-on activity.

Simulation-based training is a highly effective way of transferring key skills to trainees in a cost-effective manner. It provides an optimum way for our soldiers to assess how well their trainees are putting skills into practice, and the decisions they are making in front of simulated real life weapon operating situations.

In the context of military training technologies, one must acknowledge the existence of prior art that has contributed to the field. One such example is US20200160742A1, which discloses a system and method for virtual reality (VR) aircraft test and training environments. This technology, while effective for aviation training, falls short in addressing the specific requisites of infantry training. The limitations include a lack of integration with ground forces' simulated scenarios and the absence of features tailored for infantry tactics and operations.

Another instance, US20190204907A1, focuses on human-machine interaction, utilizing avatars to represent users in a virtual environment. Despite its applicability in various contexts, including military training, it lacks the hands-on, realistic experience required for infantry training. The absence of sensorized simulated weapons and combat scenarios limits its effectiveness in preparing soldiers for real-world engagements.

WO2013111146A2 introduces a system for providing training processes during weapons training in a virtual environment. While valuable for weapons training, it lacks the versatility needed for comprehensive infantry training. The focus on weapon-specific scenarios may not cover the broader spectrum of skills required by infantry personnel.

Similarly, WO2011116765A2 discloses a method for training a crew member of a vehicle, particularly a military vehicle, using a virtual vehicle external environment. While valuable for vehicle crew training, it does not address the unique challenges and skills required for infantry operations. The absence of infantry-specific scenarios and hands-on engagement limits its applicability in infantry training.

The existing technologies, as mentioned above, do contribute significantly to military simulation. However, they are not without drawbacks. One prominent limitation is the specialized focus of these technologies, often catering to specific military domains such as aviation or vehicle operations. The lack of a holistic approach that integrates various aspects of infantry training restricts their effectiveness in preparing soldiers for multifaceted combat situations.

Moreover, some prior arts may lack the level of realism needed to simulate the dynamic and unpredictable nature of infantry engagements. The absence of realistic scenarios and hands-on experiences hinders the development of practical skills required on the battlefield. The inadequate integration of different training modules, such as weapons handling, tactical decision-making, and communication, further limits their effectiveness.

Additionally, the ability to customize training scenarios based on specific mission requirements and environmental factors is often limited in existing technologies. A one-size-fits-all approach may not address the diverse challenges faced by infantry units in different operational contexts. The cost inefficiency of certain simulation-based training systems, with significant upfront costs and a lack of scalability, poses another challenge.

In response to these drawbacks, there arises a compelling need for an advanced Infantry Virtual Training Multi-Station Simulation System (IVTSS). This system should transcend the limitations of specialized and fragmented training approaches, offering a comprehensive platform that addresses the diverse skill sets required by infantry personnel. It should prioritize realism, integration, customization, and cost efficiency to meet the evolving needs of modern military training. The subsequent sections delve into the invention's details, claiming its unique features and characteristics that address the identified drawbacks in prior art.

Brief Description 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 present invention encompasses a range of strategic objectives aimed at significantly enhancing the training capabilities for military personnel. Foremost among these objectives is the provision of comprehensive proficiency and skills training for individuals, crews, and teams in the adept handling and operation of small arms. This objective underscores the importance of instilling a high level of competence and mastery in the use of small arms, ensuring that military personnel are well-prepared for the intricacies and demands of contemporary warfare.

In addition to honing individual and team skills with small arms, another key objective of the present invention is to deliver advanced tactical training specifically tailored for mortar detachments. This includes a focus on critical aspects such as target selection, prioritization, and engagement. The emphasis on mortar detachments recognizes their pivotal role in military operations, necessitating specialized and targeted training to ensure optimal performance in the field. By addressing these tactical intricacies, the present invention aims to elevate the effectiveness and precision of mortar detachments in diverse operational scenarios.

The innovation extends its objectives to the broader realm of army combat training, seeking to provide a versatile and dynamic platform with multiple modes of exercises. This objective is rooted in the recognition that modern military challenges require adaptive and well-rounded training methodologies. The incorporation of various exercise modes ensures that army personnel receive a comprehensive and holistic training experience, covering a spectrum of combat scenarios. The multifaceted nature of the training modes aligns with the evolving landscape of warfare, where versatility and adaptability are paramount.

A distinctive feature of the present invention is its focus on realism and data capture during training exercises. The use of an Infra-red sensing device to capture laser fire from trainees in various simulators serves as a pivotal objective. This objective recognizes the significance of replicating authentic combat conditions, where laser fire is a crucial element. By capturing and processing laser fire through sophisticated Infra-red technology, the present invention aims to provide a nuanced and accurate assessment of trainee actions. This data-driven approach contributes to the refinement of training outcomes and facilitates a more thorough evaluation of trainee performance.

Lastly, the present invention targets the specialized training needs of Forward Observers (FOs) and Observer Post Offices (OPOs). These critical roles demand a unique set of skills related to planning, preparation, and the execution sequence of firing and engagement with targets by fire units. The objective here is to equip FOs and OPOs with the necessary knowledge and expertise to fulfill their roles effectively in the field. This tailored training approach acknowledges the specific challenges and responsibilities associated with these positions, ensuring that personnel are well-prepared for the intricacies of their duties.

In essence, the objectives of the present invention collectively aim to revolutionize military training by addressing specific skill sets, tactical nuances, and the evolving nature of contemporary warfare. By focusing on small arms proficiency, tactical training for mortar detachments, versatile army combat exercises, realistic data capture through Infra-red technology, and specialized training for FOs and OPOs, the invention seeks to establish a new standard in preparing military personnel for the challenges of the modern battlefield.

According to an aspect of the present invention, an Infantry Virtual Training Multi-Station Simulation System (IVTSS) is designed to address critical gaps in existing military training technologies. The primary objectives of this innovative system are to enhance individual, crew, and team proficiency in handling and operating small arms, provide tactical training for mortar detachments in the selection, prioritization, and engagement of targets, offer multiple modes of exercises for army combat training, capture laser fire in various simulators through an Infra-red sensing device, and train Forward Observers (FOs) and Observer Post Offices (OPOs) in the planning, preparation, and execution sequence of firing and engagement of targets by fire units.

The IVTSS is characterized by a comprehensive configuration that integrates various components to create a sophisticated and immersive training environment. At its core, the system includes at least one projector unit and a projector screen. This projector unit is meticulously designed to project a diverse range of scenarios onto the screen, simulating real-world combat situations for trainees. The immersive experience is further enriched by an instructor station assembly equipped with a plurality of display units. This assembly serves as the central control hub, allowing instructors to monitor and manage the simulation effectively.

An integral component of the IVTSS is the instructor console rack, preinstalled with application software tailored to optimize the training experience. This software facilitates seamless communication between different elements of the system and ensures the smooth execution of training scenarios. The inclusion of various communication modules, sound simulation units, return fire modules, a charging station, and at least one air compressor enhances the realism and effectiveness of the training exercises.

The IVTSS goes beyond traditional training methods by incorporating an input-output control unit and a multitude of lane units. These units are strategically integrated into the system, allowing for precise control and monitoring of sensorized simulated weapons and scenarios. The sensorized simulated weapons, a pivotal aspect of the IVTSS, are integrated into the system through the instructor station assembly and its application software. This integration enables a cohesive and realistic training experience, covering essential aspects of infantry operations.

One of the distinctive features of the IVTSS is its ability to capture laser fire from trainees in various simulators through an Infra-red sensing device. This device serves as a sophisticated mechanism for collecting data on trainee actions, allowing for precise and accurate processing. The captured laser fire is then transmitted to the hardware units for further analysis and response, adding a layer of realism to the simulation.

In its entirety, the IVTSS is a holistic system that provides a versatile platform for military training. It caters to individual, crew, and team training, covering a spectrum of skills essential for infantry personnel. The system accommodates small arms proficiency, tactical training for mortar detachments, and a variety of exercises tailored for army combat training. Its adaptability and multifunctionality set it apart as a comprehensive solution for military training needs.

The IVTSS is not merely a collection of components, but a synergistic integration of technology aimed at revolutionizing infantry training. The projector unit, with its ability to project diverse scenarios, forms the visual backbone of the system. Combined with the instructor station assembly, it creates a dynamic and responsive training environment. The instructor console rack, equipped with specialized application software, ensures that the system operates seamlessly, providing instructors with the tools needed to orchestrate effective training sessions.

Communication modules play a crucial role in fostering realism in the training environment. These modules facilitate communication between different elements of the system, allowing for coordinated responses and decision-making. Sound simulation units enhance the auditory dimension of the simulation, immersing trainees in a realistic soundscape that mimics the complexities of a battlefield. The inclusion of return fire modules, coupled with a sophisticated sensing mechanism, introduces an element of unpredictability and urgency, challenging trainees to respond effectively in simulated combat situations.

Charging stations and air compressors contribute to the practicality and sustainability of the IVTSS. These components ensure that the system remains operational throughout training sessions, eliminating disruptions, and enhancing the overall efficiency of the training program. The IVTSS is not confined to a singular mode of operation; instead, it offers both combined and standalone modes, providing flexibility in training scenarios and catering to diverse training needs.

The integration of an Infra-red sensing device into the IVTSS marks a significant advancement in capturing and processing trainee actions. The device captures laser fire from trainees in various simulators, and this data is transmitted to the hardware units for processing. The result is a responsive and accurate simulation that provides valuable insights into trainee performance. This capability is particularly relevant for assessing small arms proficiency and evaluating decision-making in high-pressure situations.

The IVTSS extends its utility to the training of Forward Observers (FOs) and Observer Post Offices (OPOs). These critical roles require meticulous planning, preparation, and execution sequences for firing and engagement of targets by fire units. The IVTSS provides a tailored training environment for honing the skills specific to these roles, contributing to the overall readiness of military personnel.

In summary, the Infantry Virtual Training Multi-Station Simulation System (IVTSS) represents a paradigm shift in military training methodologies. Its innovative design, encompassing projector units, instructor station assemblies, communication modules, and sophisticated sensing mechanisms, creates a holistic and realistic training platform. The IVTSS addresses the drawbacks of prior art by offering a versatile and comprehensive solution that caters to the evolving needs of modern military training. Its adaptability, realism, and multifunctionality position it as a cutting-edge tool for preparing infantry personnel for the complexities of contemporary warfare.

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 a layout drawing disclosing an infantry virtual training multi station simulation system, and method of its use as of present invention;

Fig 2 illustrates a block diagram disclosing procedure, operation and working of said simulation system as of present invention;

Fig 3 illustrates another block diagram of the disclosed system which tells about stand alone and combined modes of operation of the unit the infantry virtual training multi station simulation system as of present invention;

Fig 4 illustrates a block diagram of a method (400) for said system for generating infantry virtual training scenarios;

Fig 5 illustrates a schematic view disclosing an infantry virtual training multi station simulation system with trainees performing exercises, as of 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.

According to an exemplary embodiment of the present invention, an Infantry Virtual Training Multi Station Simulation System (IVTSS) is presented. The exemplary embodiment of the IVTSS consists of several key components designed to facilitate comprehensive infantry training. The system includes at least one projector unit and a corresponding projector screen. An instructor station assembly is integrated, featuring a plurality of display units and an instructor console rack preinstalled with an application software. Additionally, various communication modules, sound simulation units, return fire modules, a charging station, and at least one air compressor are essential elements preinstalled into the system. The projector unit is configured to project a diverse range of scenarios onto the projector screen, contributing to the immersive training experience.

In accordance with the exemplary embodiment of the present invention, the system enables seamless integration of sensorized simulated weapons, meticulously sustaining all static and dynamic characteristics for a realistic training experience through advanced sensor technology. The system allows precise ammunition management, enabling individual or fixed-number bullet assignments to lanes through an automated tracking and allocation system.

In accordance with the exemplary embodiment of the present invention, the system possesses the capability to dynamically control bullets and manage magazine capacity, enhancing training exercise customization with a dynamic control mechanism. The system accommodates the utilization of default or user-defined targets as moving targets, including range targets, vehicles, and human figures, through an adaptive target configuration system.

In accordance with the exemplary embodiment of the present invention, the system has a versatile target configuration, and it contributes to the realism and adaptability of the training scenarios, offering a comprehensive and dynamic training environment for military personnel.

In accordance with the exemplary embodiment of the present invention, the system is integrated with sensorized simulated weapons, like:
an Infantry Weapons Training Simulator (IWTS);
a Medium Machine Gun Simulator (MMG Sim);
a Mockup 81mm Mortar Integrated Simulator (81mm MIS);
an Automatic Grenade Launcher Simulator (AGL Sim);
a Mockup rifle alongside with at least one return fire simulation module; and
a Mockup 60mm Mortar Simulator.

In accordance with the exemplary embodiment of the present invention, the system is adapted to function as a standalone, or as combined mode (31) having one of the configurations like:
IWTS, MMG Sim, AGL Sim, 81mm Mortar Simulator alongside with at least one return fire simulation module; or
IWTS, MMG Sim, AGL Sim, 61mm Mortar Simulator alongside with at least one return fire simulation module alike.

In accordance with the exemplary embodiment of the present invention, the said input output control unit of the system acts as a bridge between the simulators, projector unit and the application software.

In accordance with the exemplary embodiment of the present invention, the actions of the trainees using each of the sensorized simulated weapons are individually captured and processed by the application software.

In accordance with the exemplary embodiment of the present invention, the input output units and lane units of the system are directly connected to the simulated weapons like MMG and AGL, while other sensorized simulated weapons are connected wirelessly to the hardware.

In accordance with the exemplary embodiment of the present invention, the system provides exercising options, like:
a squad post, an application fire, grouping, a group correction exercise, moving basic, moving advanced, a snapshot, at least one user-defined exercise, a custom exercise, a custom course, an annual range course, a tactical training, and a judgmental training.

In accordance with the exemplary embodiment of the present invention, the system provides performance reports, like:
a range exercise report, an arc report, a custom exercise report, a custom course report, a judgmental report, and a tactical report.

In accordance with the exemplary embodiment of the present invention, a method of using the infantry virtual training multi station simulation system (IVTSS) is disclosed. The method comprises steps of:
a. configuring the IVTSS system by setting up the projector screen, console, communication and sound modules, as well as return fire and charging units;
b. configuring controls for input output units, lane units, and sensorized simulated weapons, enabling precise management and control during training exercises;
c. enabling the return fire modules to process hits on trainees and provide vibration feedback;
d. enabling the Infrared (IR) unit to capture laser fire from trainees and sending this data for processing, adding accuracy to the system's response in both combined and standalone modes of operation;
e. executing system processing and integration as crucial final steps, allowing for seamless operation in combined or standalone modes.

The method associated with using the IVTSS involves a series of steps aimed at configuring and optimizing the system for effective training. This includes configuring the communication modules, sound simulation units, return fire modules, charging station, and air compressor. The input-output control unit, along with a plurality of lane units and sensorized simulated weapons, is configured to seamlessly integrate with the instructor station assembly and its application software. This integration ensures a cohesive and synchronized operation of the various components.

The exemplary embodiment of the IVTSS is not only a hardware configuration but also involves a methodical approach to training. The system is designed to cater to individual, crew, and team proficiency in handling small arms. Tactical training for mortar detachments is a specialized focus, emphasizing target selection, prioritization, and engagement. The system offers multiple modes of exercises for army combat training, recognizing the need for versatile and adaptive training methodologies.

A distinctive feature of the IVTSS is its utilization of an Infra-red (IR) sensing device to capture laser fire from trainees in various simulators. This data is then transmitted to the hardware units for processing. The incorporation of realistic elements, such as laser fire, enhances the authenticity of training exercises. This objective aligns with the broader goal of providing a nuanced and accurate assessment of trainee actions, contributing to more effective training outcomes.

The IVTSS method is configured to train Forward Observers (FOs) and Observer Post Offices (OPOs) in the planning, preparation, and execution sequence of firing and engagement of targets by fire units. Recognizing the unique demands of these roles, the system aims to equip FOs and OPOs with the specialized skills required for their responsibilities in the field.

In conclusion, the exemplary embodiment of the IVTSS presents a holistic approach to infantry training, encompassing both hardware components and a methodical training methodology. The system's versatility is evident in its ability to address various training needs, from small arms proficiency to specialized training for mortar detachments, army combat exercises, and the training of FOs and OPOs. The inclusion of advanced features such as the Infra-red sensing device adds a layer of realism, contributing to the overall effectiveness of military training. The disclosed embodiment establishes the IVTSS as a comprehensive and adaptable platform for enhancing the capabilities of military personnel across different domains.

Now referring to figures, Fig 1 illustrates the exemplary embodiment of the present invention. The system includes at least one projector unit (2), a projector screen (3), an instructor station assembly (1) with multiple display units (13), and an instructor console rack (14) equipped with preinstalled application software. Various communication modules, sound simulation units, return fire modules, a charging station, and at least one air compressor contribute to the system's capability. The input-output control unit (5) and a network of lane units and sensorized simulated weapons (7) are integrated through the instructor station assembly and application software. The projector unit (2) is configured to project diverse scenarios onto the large screen (3), creating a visually impactful training environment.

The system components, as illustrated in Figure 1, work in concert to provide a sophisticated training experience. The instructor station (1) serves as the central control hub, while the projection unit (2) and screen (3) deliver visual stimuli. Integrated speakers (4) contribute realistic sounds, and the input-output control units (5) facilitate seamless interaction. The compressor station (6) provides compressed air for simulated effects, enhancing realism. Sensorized weapons (7), mortar units of 60mm and 81mm types (8), automatic grenade launcher (AGL) weapons (9) and simulated Medium Machine Gun (MMG) and Heavy Machine Gun (HMG) weapons (10) offer a diverse range of training scenarios. Sockets (11) act as connection points, ensuring seamless integration and power supply. An Infrared (IR) module with camera units (12) captures laser fire for accurate processing. Display units (13) offer visual feedback, and the console assembly (14) houses essential controls for instructors. The presence of an instructor (15) completes the training environment, making it suitable for multiple trainees (51).

The exemplary embodiment also emphasizes the incorporation of a return fire module, enabling the processing of hits on trainees (51) through return fire units worn by the trainees. This feature adds a tactile element to the training experience, with vibrations providing realistic feedback. Additionally, an IR unit (12) with an infrared sensing device captures laser fire from trainees in various simulators, enhancing the system's accuracy in both combined and standalone modes of operation.

Figure 1 further illustrates the integration of the IVTSS with various sensorized simulated weapons (7), including an Infantry Weapons Training Simulator (IWTS), a Medium Machine Gun Simulator (MMG Sim), an Automatic Grenade Launcher Simulator (AGL Sim), a Mockup 81mm Mortar Integrated Simulator (81mm MIS), a Mockup 60mm Mortar Simulator, and sensor weapons like the Mockup RIFLE. The IVTSS is adaptable, functioning in standalone or combined modes, with different configurations integrating IWTS, MMG Sim, AGL Sim, 81mm Mortar Simulator alongside at least one return fire simulation module, or IWTS, MMG Sim, AGL Sim, 61mm Mortar Simulator alongside at least one return fire simulation module.

In Figure 2, a block diagram (200) illustrates the procedure, operation, and working of the IVTSS. The system operates through a systematic workflow, beginning with the initiation of the simulation (21). Specific scenarios and parameters are loaded (22), configuring the instructor console (23) and powering up the projector unit (24). Simulated weapons are engaged (25), communication modules and sound simulation units are integrated (26), and a communication link with the instructor console is established (27). The simulation is executed (28), and feedback is collected (29) for performance evaluation. The simulation concludes (30), marking the endpoint of the training exercise.

In Figure 3, another block diagram (300) elaborates on the standalone and combined modes of operation (31) of the IVTSS. Trainees (51) engage with various sensorized simulated weapons (7) (32), including infantry weapons, medium machine guns, automatic grenade launchers, and integration modules for 60mm and 81mm mortars. Specific training elements are facilitated, such as the infantry weapons training simulator (IWTS - 33), MMG integration module (34), 81mm mortar integration module (35), AGL integration module (36), modules for AK-47 (37), and 60mm mortar (38). Return fire modules (39) process hits and provide realistic feedback through vibrations. Trainees actively perform exercises (40), utilizing integrated weapons and modules for a comprehensive training experience.

Figure 4 introduces a method (400) for simulating the IVTSS and generating infantry virtual training scenarios. The system (100) is configured with essential components (42), and controls are set up (43) for precise management during training. Return fire modules are activated (44), providing vibration feedback for hits on trainees. The Infrared (IR) unit is enabled (45) to capture laser fire, ensuring accurate data processing in both combined and standalone modes (46).

Finally, Figure 5 presents a schematic view (500) of the generation of training scenarios and the working of the IVTSS. The input-output control unit acts as a bridge between simulators, the projector unit, and the application software. Actions of trainees (51) using each simulated weapon are individually captured and processed by the application software. Input-output units and lane units are directly connected to sensorized simulated weapons (7) like MMG and AGL, while other sensorized simulated weapons (7) are connected wirelessly to the hardware.

In addition to the procedural details, the IVTSS provides a wide range of exercising options, including squad posts, application fire, grouping, group correction exercises, moving basics and advanced, snapshots, user-defined exercises, custom exercises and courses, annual range courses, tactical training, and judgmental training. Performance reports, such as range exercise reports, arc reports, custom exercise reports, custom course reports, judgmental reports, and tactical reports, are also generated.

The IVTSS represents a revolutionary approach to military training, offering a versatile and realistic platform for infantry proficiency and tactical exercises. The system's integration of various components, simulation modes, and feedback mechanisms ensures a comprehensive training experience. Its adaptability for standalone and combined modes, along with multiple configurations, enhances its flexibility for diverse training scenarios. The procedural workflow, integration of sensorized simulated weapons, and feedback mechanisms contribute to the system's effectiveness in achieving training objectives. The described embodiment establishes the IVTSS as a state-of-the-art training solution for military and tactical applications.

The Infantry Virtual Training Multi Station Simulation System (IVTSS) finds applications in military training, specifically targeting individual, crew, and team proficiency in handling small arms and support weapons. Moreover, it serves as a valuable tool for tactical training for mortar detachments, and its scope extends to training Forward Observers (FOs) and Observer Post Offices (OPOs) in planning, preparation, and execution sequences related to firing and target engagement by fire units.

Primarily designed for enhancing weapon proficiency, the IVTSS provides soldiers with realistic and immersive training scenarios. These scenarios encompass a wide range of tactical situations, contributing to the development of strategic decision-making, communication, and coordination skills among military personnel.

One of the notable features of IVTSS lies in its versatile training modes, offering a spectrum of exercises such as squad posts, application fires, grouping, moving basic, moving advanced, and more. This versatility allows for tailored training experiences that address various aspects of military readiness.

The system's flexibility is further demonstrated through customizable exercises, enabling the creation of user-defined exercises, custom courses, and annual range courses. This adaptability ensures that training programs can be fine-tuned to meet specific requirements and objectives.

In terms of performance analysis, IVTSS provides detailed reports covering various aspects of training. These include range exercise reports, arc reports, custom exercise reports, custom course reports, judgmental reports, and tactical reports. This analytical capability enhances the feedback loop, allowing for continuous improvement in training methodologies.

The advantages of IVTSS extend beyond realism and versatility. By offering a cost-effective alternative to traditional training methods, it significantly reduces expenses associated with transportation, ammunition, and equipment wear and tear. The system's modular design facilitates seamless integration of various sensorized simulated weapons, ensuring a comprehensive training platform.

IVTSS supports group training exercises, allowing multiple trainees to engage in firing at targets simultaneously. This collaborative approach fosters teamwork and coordination among military personnel. Instructors benefit from live monitoring capabilities, enabling real-time feedback and guidance to trainees. The replay facility further aids in the identification of errors, facilitating targeted corrective actions.

Covering a diverse array of training scenarios, including infantry weapons, medium machine guns, automatic grenade launchers, and mortar simulations, IVTSS provides a holistic and adaptive training environment. It can operate in standalone mode or combined modes, offering flexibility to cater to different training requirements and scenarios.

In addition to its training benefits, IVTSS enhances safety by reducing the risks associated with live-fire exercises. It provides a safer yet effective alternative for military training, aligning with modern approaches to prioritize safety without compromising the quality of training experiences.
,CLAIMS:5. CLAIMS
We claim:
1. An Infantry Virtual Training Multi Station Simulation System (IVTSS) (100), wherein the system (100) comprising:
at least one projector unit (2), a projector screen (3), and an instructor station assembly (1) with a plurality of display units (13) configured to project a variety of scenarios onto the projector screen (3);
an instructor console rack (14) preinstalled with an application software;
a plurality of communication modules with a charging station and at least one air compressor;
an input output control unit (5), a plurality of lane units, speakers (4), and a plurality of sensorized simulated weapons (7, 8) integratively assembled through the instructor station (1) assembly and its application software;
Characterized in that,
the system (100) enables seamless integration of sensorized simulated weapons (7, 8), meticulously sustaining all static and dynamic characteristics for a realistic training experience through advanced sensor technology;
allows precise ammunition management, enabling individual or fixed-number bullet assignments to lanes through an automated tracking and allocation system;
possesses the capability to dynamically control bullets and manage magazine capacity, enhancing training exercise customization with a dynamic control mechanism;
accommodates the utilization of default or user-defined targets as moving targets, including range targets, vehicles, and human figures, through an adaptive target configuration system.
2. The IVTSS system (100) as claimed in claim 1, wherein versatile target configuration contributes to the realism and adaptability of the training scenarios, offering a comprehensive and dynamic training environment for military personnel.

3. The IVTSS system (100) as claimed in claim 1, wherein the said IVTSS system (100) is integrated with sensorized simulated weapons (7, 8), like:
an Infantry Weapons Training Simulator (IWTS) (33);
a Medium Machine Gun Simulator (MMG Sim) (34);
a Mockup 81mm Mortar Integrated Simulator (81mm MIS) (35);
an Automatic Grenade Launcher Simulator (AGL Sim) (36);
a Mockup rifle alongside with at least one return fire simulation module (37); and
a Mockup 60mm Mortar Simulator (38).

4. The IVTSS system (100) as claimed in claim 1, wherein the said IVTSS system (100) is adapted to function as a standalone, or as combined mode (31) having one of the configurations like:
IWTS (33), MMG Sim (34), AGL Sim (36), 81mm Mortar Simulator (35) alongside with at least one return fire simulation module; or
IWTS (33), MMG Sim (34), AGL Sim (36), 61mm Mortar Simulator (35) alongside with at least one return fire simulation module alike.

5. The IVTSS system (100) as claimed in claim 1, wherein the said input output control unit (5) acts as a bridge between the simulators, projector unit (2) and the application software.

6. The IVTSS system (100) as claimed in claim 1, wherein the actions of the trainees (51) using each of the sensorized simulated weapons (7, 8) are individually captured and processed by the application software.

7. The IVTSS system (100) as claimed in claim 1, these input output units and lane units are directly connected to the simulated weapons (7) like MMG (34) and AGL (36), while other sensorized simulated weapons (8) are connected wirelessly to the hardware.

8. The IVTSS system (100) as claimed in claim 1, the said IVTSS system (100) provides exercising options, like:
a squad post, an application fire, grouping, a group correction exercise, moving basic, moving advanced, a snapshot, at least one user-defined exercise, a custom exercise, a custom course, an annual range course, a tactical training, and a judgmental training.

9. The IVTSS system (100) as claimed in claim 1, the said IVTSS system (100) provides performance reports, like:
a range exercise report, an arc report, a custom exercise report, a custom course report, a judgmental report, and a tactical report.

10. A method of using the infantry virtual training multi station simulation system (IVTSS) as claimed in claim 1, wherein the method comprises steps of:
a. configuring the IVTSS system (100) by setting up the projector screen, console, communication and sound modules, as well as return fire and charging units (42);
b. configuring controls for input output units, lane units, and sensorized simulated weapons (7, 8), enabling precise management and control during training exercises (43);
c. enabling the return fire modules to process hits on trainees and provide vibration feedback (44);
d. enabling the Infrared (IR) unit to capture laser fire from trainees and sending this data for processing (45), adding accuracy to the system's response in both combined and standalone modes of operation;
e. executing system processing and integration as crucial final steps, allowing for seamless operation in combined or standalone modes (46).

6. DATE AND SIGNATURE
Dated this 28th December 2023.
Signature

(Mr. Srinivas Maddipati)
IN/PA 3124-In house Patent Agent
For., Zen Technologies Ltd (Applicant)