Oct, 2024
The side walls for Matsya 7 were custom-designed and manufactured to ensure optimal hydrodynamics and structural integrity. They played a crucial role in minimizing drag and protecting internal components during underwater operations.
Nov, 2024
Matsya 6 successfully returned from RoboSub 2024 (RS24), marking the end of its competitive journey. The vehicle’s performance and learnings now pave the way for Matsya 7’s development and future missions.
Dec, 2024
Camera hull was successfully manufactured, enhancing the visual capabilities for underwater navigation and object detection.
Matsya 6 was proudly displayed at TechConnect 2024, IIT Bombay, showcasing its engineering and design excellence.
Structural frames were manufactured to provide a robust skeleton for Matsya 7’s assembly.
Baseplate and flange were fabricated to ensure stable mounting of internal systems and watertight integrity.
Secured runner-up position in a national-level case competition on the ROV market in India, emphasizing sustainable marine solutions.
Jan, 2025
The new marker dropper assembly was manufactured with improved precision and reliability for underwater task execution.
Preliminary testing of the marker dropper confirmed that its deployment mechanism functions as intended.
The frames were anodized to enhance their resistance to corrosion and wear in harsh marine environments.
The main hull was welded to provide a strong, watertight enclosure for the vehicle’s internal components.
Feb, 2025
The main hull was anodized to improve its corrosion resistance and surface durability in underwater conditions.
The first waterproofing test was conducted to evaluate the hull’s integrity and identify any potential leaks.
Based on the test results, the main hull was rewelded to seal minor imperfections and strengthen structural joints.
Vacuum Pressure Impregnation (VPI) was performed on the main hull to further enhance its waterproofing and ensure long-term reliability.
March, 2025
The vehicle passed its first 5-minute waterproof test using marine weld epoxy, followed by successful 1-hour and 8-hour waterproof tests, after which it was officially declared waterproof.
Preliminary electrical stack testing and assembly were completed, culminating in the first full electrical assembly and in-air testing during an intense overnight session.
A working solution for servo integration was successfully figured out through jugaad and experimentation.
All thruster shrouds were 3D printed and prepared for integration, contributing to safe and efficient propulsion.