Mars Rovers provide us with invaluable insight into the Earth's neighbour. This competition places students in the role of the designers and engineers, constructing a rover to explore the hidden world of Martian caves.
A permanent base on Mars, established by global space agencies and companies, faces the significant challenge of long-term radiation exposure. The proposed solution is to construct an underground base, using Martian soil as a natural radiation barrier. An extinct lava tube, potentially containing ice, has been identified for exploration with a tender issued to design and manufacture a rover capable of exploring this cave, identifying ice deposits using a surface-penetrating end effector, and sending the sample data back to Earth via the Mars Relay Network. This local access to ice is crucial for the long-term viability of the Martian habitat.
The team is made up of 12 individuals, divided into four specialized subsystem groups: Mechanical, Robotics Control, Electronics, and Software. Each group has a lead who guides the team in building a rover that fulfils the mission objectives.
The project incorporates autonomous object detection and manipulator control, and introduces an innovative approach to vehicle design dynamics for Mars terrain navigation. This project offers students a comprehensive understanding of the product design and development process from inception, including hands-on experience in their respective subsystem tasks and exposure to cross-functional team integrations. This provides a snapshot of the industrial product development process within a university setting.
The project, facing the challenges of the advanced stream competition, incorporated autonomous object detection manipulator control, and introduced an innovative approach to vehicle design dynamics for Mars terrain navigation.
Our team's hard work paid off with a fantastic overall first place in this year's competition, bringing home two trophies from Airbus' Stevenage site and Mars Yard.
- Won Best Rover Award
- Won Best Innovation Award
In this national-level competition, the team showcased outstanding engineering prowess, delivering incredible results across two challenging tasks.
CrimsonBot's first mission was to hit six targets using its robotic arm, controlled remotely via teleoperation. With perfect accuracy, the rover drilled into each target flawlessly, proving the team's cutting-edge technology and unmatched precision. This accomplishment demonstrated the power of collaboration between innovation and control, setting a new standard in rover teleoperation.
The second task was no less intense – the rover had to withstand vibrations that simulate the brutal conditions of a rocket launch. With exceptional design and robust engineering, CrimsonBot passed the vibration test without a hitch, demonstrating its durability under space-like conditions.
Project Manager | Robotics Control Lead praveen.elavazhagan.489@cranfield.ac.uk
Systems Engineer | Electroncis lead
Mechanical Lead
Software | Mechanical Engineer
Mechanical | Controls Engineer
Controls Engineer
Mechanical Engineer
Mechanical | Electronics Engineer
Mechanical Engineer
Mechanical Engineer.
We would like to take this opportunity to thank Professor Dr Gilbert Tang (MSc in Robotics Course Director- Cranfield University) for his valuable time, advice, and guidance in helping us build a successful design of the rover.
Additionally we would like to thank Airbus for their continued support of our competitive and consistently successful projects.
We are always open to partnerships with industry and mentors, so don’t hesitate to get in touch!
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