In the ever-evolving landscape of military training technology, precision, safety, and adaptability are paramount. LED recognition technology is used for the orientation and recognition of weapon targets in 3D space. It is based on SLAM (Simultaneous Localization and Mapping ) technology which enables the precise calculation of the exact position of the trainee and their weapon in 3D space. This includes the height, azimuth, and distance of the weapon from the projection surface, allowing all 6 degrees of freedom (6 DoF) to be determined. Accurate positioning in 3D space is critical for instantaneous real-time determination of accurate ballistics for various weapon sizes and types, including pistols, semi-automatic or automatic machine guns, and shoulder-fired grenade launchers.
The camera-based LED system offers several advantages over laser-based systems for weapon orientation and aiming. It is inherently safe and eliminates the need for soldiers or trainees to wear laser protection goggles. Consequently, the system can accommodate multiple trainees in an enclosed or small space without any safety concerns.
Unlike laser-based systems, the LED solution can determine the exact position in 3D space with 6 DoF. This is because the system operates with multiple IR sources and a weapon-integrated detection camera, whereas single laser solutions alone cannot achieve this level of performance.
The camera-based LED system allows multiple trainees to move freely, while laser-based solutions are susceptible to the loss or interruption of laser light. The LED camera-based system relies on detection by multiple LED sources placed in the simulated training room and is therefore highly resistant to interruption. There is a high probability that at all times at least two sources will be visible to the LED detection camera integrated into the trainee's weapon.
Unlike laser-based systems, LED-based solutions can operate in almost any type of projection screen setup. The camera-based LED system performs equally well on flat, curved, or line-based shooting range simulated projection screens and operates effectively in a wide range of lighting conditions on the simulated training range.
Trainees can seamlessly transition from an armoured personnel carrier directly into a curved or flat simulated projection screen environment with the LED camera detection system always active. This is not feasible with laser-based solutions due to safety concerns inside vehicles and potential laser light interruptions as trainees form a proper shooting line towards the screen.
As the demands of military training grow more complex, LED based solutions stand out as a transformative way of bridging the gap between safety, precision, and versatility. This technology not only redefines the standards of weapon training but also paves the way for a future where real-world scenarios can be simulated with unprecedented fidelity.
