Desertification and advanced land degradation present major challenges to restoration in arid and extreme environments. Traditional approaches often fail where both soil and ecological memory are absent. Here we introduce Biorestorer—an open-source, modular theoretical platform for synthetic succession, designed to engineer functional ecosystems from completely sterile or inert substrates.
Biorestorer is built as a two-phase system. The first phase, synthetic pedogenesis, involves creating an engineered soil substrate using a combination of scientifically validated components: dual-fraction biochar (600 °C for rapid microbial activation; 800 °C for long-term stability), carefully selected basaltic minerals for nutrient and pH control, rock-solubilizing bacteria (RSB) to initiate mineral weathering, and a protective mineral cover layer to minimize evaporation and erosion. Each component has been independently validated in relevant studies and is known to perform reliably under harsh conditions.
The second phase, synthetic succession, is the managed and sequenced development of a living soil ecosystem. This stage integrates directed microbial colonization, targeted mycorrhizal inoculation, and the establishment of pioneer plant species, facilitating a controlled ecological progression toward a resilient, self-organizing ecosystem.
Unlike conventional restoration techniques, Biorestorer does not require any pre-existing soil, organic matter, or native seed banks. Its modular and adaptable design allows tailoring to available local resources and minimizes risk, with a cumulative effect that improves the substrate even after partial failures.
While Biorestorer integrates validated components and shows significant theoretical potential, the full platform has not yet undergone comprehensive field testing. Further pilot projects and large-scale validation are required to confirm real-world effectiveness.
