RAKSHAK-X (Robotic Autonomous Kinetic Strike & Hazard Killer)

The RAKSHAK-X project successfully culminates in a functional prototype that clearly demonstrates core capabilities for both remote surveillance and active defensive operations. Designed to address the critical vulnerabilities and high casualty rates faced by infantry in complex urban combat, this integrated platform successfully combines continuous situational awareness and kinetic weapon systems within a single remotely-operated unit. Through rigorous engineering and system architecture design, the platform overcomes the mobility limitations of traditional wheeled UGVs by implementing tank-style rotation, granting the vehicle zero-degree turning for exceptional maneuverability in tightly confined spaces and debris-heavy ruins. Furthermore, its robust remote operation architecture facilitates extended-range FPV control coupled with precision targeting capabilities, fundamentally removing human operators from the immediate line of fire. Developed as a comprehensive final-year engineering endeavor that meets the rigorous standards required for international defense technology presentations, RAKSHAK-X proves that low- cost, high-utility force multipliers are practically viable. By synthesizing affordable microcontrollers, reliable motor drivers, and commercial-off-the-shelf surveillance gear into a cohesive combat system, the project effectively bridges the gap between high-end military hardware and accessible tactical robotics. The successful execution of this prototype lays a definitive groundwork for scalable defensive assets that can drastically reduce human casualties in high-risk "breach and clear" operational scenarios.

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