Engineering Ecosystem Resilience

Nature is valuable. The services and potential it provides suffer from being underexplored, undervalued but also overexploited:

1. 01

   Over half of global GDP (£34 trillion) depends on nature's services, spanning:

   • Provisioning (food, freshwater, raw materials, pollination),
   • Stabilisation (climate, flood, pest + disease control),
   • Cultural benefits (recreation, tourism, wellbeing).
2. 02

   Nature is home to an immense, largely untapped reservoir of biomolecules and bioprocesses that could revolutionise pharmaceutical and materials industries.

3. 03

   Insurers are beginning to price nature-related risks, yet financial markets still capture only a fraction of nature's combined economic value.

4. 04

   Climate change, overexploitation, and the spread of invasive species are driving stark population declines and increases in species extinction rates, threatening cascading collapse in both natural and managed ecosystems.

   What technologies or methods could enhance traditional environmental stewardship?

5. 05

   Ecosystem stability emerges from multiple layers of interactions; their combined complexity surpasses that of most engineered systems.

   An integrated ecology-evolution-engineering modeling framework could transform decisions on if, when, and how to responsibly and effectively intervene.

6. 06

   Targeted support of keystone species, community assemblages, or habitat connectivity offers high-leverage opportunities to strengthen ecosystem resilience while complementing broad-scale management.

7. 07

   The deployment of powerful new tools demands ethical considerations, inclusive governance, authentic community engagement, and long-term monitoring. The challenge is to equitably harness the transformative benefits while preventing unintended harm.

   Any intervention must have surgical precision. We must avoid repeating past mistakes (cane toads, Nile perch, pesticide misuse, board impact decisions with insufficient risk assessment…)

8. 08

   Billions of environmental records—satellite images, field surveys, sensor feeds, and research data—remain scattered across unlinked databases.

9. 09

   Unintended large-scale experiments—from island systems, marine reserves, patchwork land-use conversions, to hurricane-stricken areas—reveal how species and ecosystems respond to disturbance.

10. 10

    AI-powered synthesis and advanced modelling could reveal hidden ecosystem resilience insights and guide smarter interventions. Some key questions, which stem from the central question 'what are our knowledge gaps and which experiments are needed?', are:

    • How well can species survive in different environments?
    • What genes or genetic diversity are needed?
    • Which study scales—from lab to ecotron—can reveal key parameters? Or even help some species adapt?
    • Which diversity levels are needed for ecological resilience and function?
    • How do we future-proof for diverse climate scenarios?
    • Where are precise models needed, or approximations acceptable?
    • Which species-dependencies are strongest?
11. 11

    All ecosystems are interconnected. However, marine, terrestrial, and freshwater systems spanning tropical rainforests to urban environments to agricultural landscapes differ fundamentally due to their distinct structures, connectivity patterns, and ecological dynamics.

    Which concepts and parameters apply broadly, and which vary by ecosystem? Could this inform design for off-Earth habitation?

12. 12

    Assemblages of native species have already faced substantial environmental change.

    Which combination of natural and technological approaches provide the best foundation for our future?

13. 13

    The pace of ongoing environmental changes mean ecosystems of the future may differ from those of the past.

14. 14

    Prioritising short-term costs over environmental health often weakens ecosystems. Those savings can backfire, raising long-term costs and risks to companies and communities because environmental impacts are undervalued and difficult to gauge.

    Could precision sensing and sharper risk forecasts clarify impacts enough to tip the balance? Or do we also need new financial instruments?

15. 15

    Evidence from community-managed forests, regenerative agriculture, and successful marine protected areas demonstrates that when people's livelihoods improve alongside ecosystem health, both can flourish together.

    People want to preserve their environment. How do we make that the best decision emotionally and financially?