Endeavor Fiara Fikarohana eny Amin'ny Habakabaka

Press Kit

Unique Properties

The modular space engineering vehicle is designed to improve the efficiency and safety of extraterrestrial scientific expeditions. Its modular design allows for flexible configuration of different functional modules to adapt to diverse scientific research needs; and its advanced survival support system ensures the safety and comfort of astronauts during long-duration missions.

Dimensions & Packaging

Width 4200mm x Length 1200mm x Height 4600mm

Tags

Safety, Technology, Modular, Intelligent, Resource exploration, new energy, space exploration

Production Technology

This product uses silicon carbide fiber-reinforced ceramic matrix composite material and near-net-shape forming through additive manufacturing to achieve high temperature resistance and lightweight. Each functional module can be rapidly reconfigured via electromagnetic locking and thermal control interfaces. Key load-bearing components undergo electron beam welding and vacuum heat treatment to meet extreme environmental requirements.

Design Challenge

During the product design process, many problems arose in the assembly of the various modular devices. Finally, through exploration, a unified and standardized rapid assembly solution was completed.

Research

This product uses standardized interfaces to quickly combine units such as movement, drilling, analysis, and power supply, enabling multi-functional vehicles, on-orbit maintenance and upgrades, significantly reducing mission costs and risks, and supporting the sustainable development and utilization of future space resources.

Inspiration

As lunar, Mars, and asteroid exploration missions deepen, traditional single-use spacecraft are costly, time-consuming, and poorly adaptable, making them unsuitable for meeting the diverse needs of resource exploration and exploitation. Intensified commercial competition in the Earth-Moon space sector necessitates a scalable and reconfigurable universal platform. Modular space resource exploration vehicles have emerged to address this need.

Project Duration

The project was launched in Qingdao, China in January 2024 and concluded in Qingdao, China in December 2025.

Operation Flow

Each module can be quickly assembled and disassembled through standardized interfaces. The navigator vehicle is responsible for path planning and environmental detection, while the resource vehicle is responsible for material transportation and equipment deployment. This not only meets the needs of deep space exploration and space station resupply, but also reduces the risk of single-module failure through separate execution, providing a flexible platform for sustainable space exploration.