First all-African space mission, launching to the Moon in 2029

About

The first all-African space exploration mission, Africa2Moon, is an African designed and built low-frequency radio telescope to be deployed on the lunar surface in 2029, to demonstrate new technology, do first-time science and inspire the next generation of African explorers and innovators.

The telescope is to be deployed in the south pole region of the Moon, one of the harshest environments in the Solar System, with temperatures plummeting to below negative 200 degrees Celsius. While humanity has not yet landed technology at this location, the lunar south pole is an important place to collect data because this is where the first permanent off-world research bases are to be established in the coming years due to the presence of water ice in the permanently shadowed craters there.

A dark, cinematic 3D render of a futuristic orbital structure set in outer space. The object consists of a pale lavender/grey spherical gyroscope-like frame made of interlocking rings, encasing two large triangular solar panel arrays with a grid-like surface texture in deep blue-grey tones. The panels are oriented in opposite directions — one pointing upward and one downward — giving the structure a tetrahedron-like inner form. The background is a deep black sky filled with scattered white stars.

‘Bounced African Lunar Low Sphere (BALLS)’

Our instrument consists of an array of three antennas or BALLS (image of one of the BALLS with acronym defined ‘Bounced African Lunar Low Sphere (BALLS)’) which work together to observe low frequency radio signals from space that are not observable from the surface of the Earth. The first lunar instrument of its kind, Africa2Moon is also in the running to be the first fully successful radio astronomy experiment performed from the surface of the Moon, after US and Chinese instruments suffered mishaps. Radio astronomy is the study of outer space using radio waves rather than visible light, and the Moon is an ideal place to perform such studies as the low frequency signals we will be measuring are unobservable from Earth due to interference with our atmosphere.

The mission is led by the Foundation for Space Development Africa and a team of expert volunteers in collaboration with organisations such as the South African National Space Agency, the South African Radio Astronomy Observatory, as well as institutions in Kenya, Ghana, Botswana and across the continent.

As a collaborative project, we could not have achieved the design maturity and technical agreements without the hard work of the engineers and scientists that have given their time, effort and dedication to this project. A big thank you also goes out to the teams at Aerospace Systems Research Institute (ASRI), Petrawell and Stellenbosch University Department of Engineering for the manufacturing of the components of the structural and functional models to be delivered to the Chang'e-8 team for testing in April 2026.

This 3-BALLS array will serve as a path finder for future lunar technologies and radio astronomy experiments and also as a technology demonstrator for the full Africa2Moon mission aiming to deploy 55 antennas on the far side of the Moon, one for each nation in Africa, in a future mission to the lunar farside.

Mission

From Earth’s surface we have a powerful but limited view of the Universe. Our atmosphere allows visible light and some radio waves to reach the ground. By studying radio signals from space, astronomers have discovered many things we cannot see with visible light, including the structure of our Galaxy, the behaviour of planets, new molecules in space, and clues about how the Universe began. Future radio astronomy observations promise revolutionary science on the nature of our Universe as well as phenomena both known and yet undiscovered within the Solar System, the Milky Way Galaxy and beyond.

However, there remains a region relatively unexplored: the sub-20 MHz electromagnetic frequency band. With much of Earth’s atmosphere almost completely opaque to longer wavelengths, the observation of the radio sky at low frequencies is best performed from beyond Earth.

Furthering decades-old space-based discoveries like Earth’s auroral emissions, the Moon provides a unique, stable location for such observations due to lack of significant atmosphere, and in particular, physical shielding from terrestrial radio interference and periodic solar shielding, which make the night-time lunar farside the most radio-quiet location in our vicinity.

Africa2Moon is a low cost, low mass, low frequency radio astronomy telescope array designed to operate on the lunar farside, perform new science, demonstrate novel African-built technology, and inspire increased participation in space exploration and science, technology, engineering and mathematics by young people in Africa and the developing world.

The Africa2Moon technology demonstrator has been selected to be deployed at the lunar south pole as an international science payload with the Chinese National Space Administration’s Chang’e-8 mission in 2029, aiming to improve characterisation of radio sources including the galactic background, the Sun and the Earth, as well as pathfinding for future lunar instruments.

Phases

Phase 1

Application

The ‘Announcement of Opportunities for International Cooperation of the Chang’e-8 Mission’ was received. The FSDA submitted a proposal for an experiment with the following features:

- The instrument is designed to demonstrate the feasibility of a low frequency radio telescope array of self-contained small loop antennas or Bounced African Lunar Low Spheres (BALLS) deployed on the surface of the Moon, to probe the portion of the spectrum obscured by the Earth’s ionosphere.

- Subsequent to the deployment of the instrument with the BALLS spaced on the order of tens of metres apart, signals are captured from three BALLS.

- Sub-20 MHz signals are communicated between the BALLS and the Lander-Based Unit and are then relayed back to Earth for further processing.

Phase 2

Selection

On the 24th April 2025 in Shanghai, Africa2Moon was announced as a selected international payload for the Chang’e-8 mission scheduled to launch to the lunar south pole in 2029. Also selected for the mission are a joint payload from Bahrain and Egypt, and also payloads from Hong Kong, Iran, Italy, Pakistan, Russia, Thailand and Turkey.

Phase 3

The Test Model 2025-2026

We are currently developing the two key test models for the Africa2Moon project: an electrical functional model and a structural model. The electrical functional model will demonstrate how the antennas and systems work together to perform their tasks, including their integration with the lander.The structural model will showcase the physical design, addressing how it will handle the challenges of launch, extreme temperatures, vacuum and reduced gravity on the Moon. These models are crucial for ensuring the project is both scientifically effective and technically sound, providing our partners with a clear vision of how the mission will operate.

The Test Model phase will run from May 2025 to March 2026.

Phase 4

The Final System 2026-2027

The Flight Model is the final version of the Africa2Moon system that will be sent to the launch provider. This model has to be fully functional and rigorously tested to meet all the requirements for integration with the lander. It ensures the system can withstand the intense conditions of launch, such as vibration and acceleration, as well as deployment on the Moon’s surface, including extreme temperatures, vacuum and reduced gravity. This model represents the culmination of the project’s development, ready to fulfill its mission objectives once it reaches the lunar surface.

This Final System phase will conclude in August 2027.

Phase 5

Flight Model Shipped 2027

The final system (flight model) will be delivered to China late 2027.

Phase 6

The Launch 2029

The Africa2Moon mission will begin with the launch of the integrated payload Technology Demonstrator aboard a lunar lander, designed to endure the intense vibrations, acceleration, and environmental stresses of liftoff and space travel. The lander will execute a precise landing on the near side of the south pole region, where it will deploy the three spherical antennas, called BALLS. These are omnidirectional antennas designed for ease of deployment and will work together as an array. A critical aspect of the mission is ensuring accurate placement of the BALLS and their ability to calculate their relative positions to optimise array performance.

Launch is currently scheduled for 2029.

Phase 7

The Mission 2029

Once deployed on the lunar surface, the antennas will collect low-frequency radio signals from the Universe, free from Earth's atmospheric interference, and relay the data back to Earth.

Phase 8

Data Analysis

The data collected by the BALLS and received on Earth will be correlated and analysed, enabling groundbreaking studies and potentially unlocking new insights into our Solar System, Galaxy and beyond.

We are a volunteer team of African engineers, scientists and an economist, with a goal to send a radio telescope to the Moon. We aim demonstrate new technology, do first-time science and inspire the next generation of African innovators and explorers.

FAQ

The Team

The mission is led by the Foundation for Space Development Africa and a team of expert volunteers in collaboration with organisations such as the South African National Space Agency, the South African Radio Astronomy Observatory, as well as institutions in Kenya, Ghana, Botswana and across the continent. As a collaborative project, we could not have achieved the design maturity and technical agreements without the hard work of the engineers and scientists that have given their time, effort and dedication to this project. A big thank you also goes out to the teams at Aerospace Systems Research Institute (ASRI), Petrawell and Stellenbosch University Department of Engineering for the manufacturing of the components of the structural and functional models to be delivered to the Chang'e-8 team for testing in April 2026.

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