Sustainable Landscapes in the Age of AI: Rethinking Design for a Resilient Future

The relationship between humans and the environment has been a defining element throughout every stage of civilization. Over time, society has evolved through distinct phases—each marked by technological advancements, accelerated economic growth, and, increasingly, significant environmental impacts that surpass those of previous eras.

Today, we live in the Age of Information and Artificial Intelligence (21st century), defined by rapid digital innovations, enhanced global connectivity, and profound transformations across society and the environment. From a geological standpoint, we are also in the Anthropocene—an unofficial but widely accepted term that denotes the “Age of Humans,” where human activities exert environmental influences that rival or exceed natural forces.

Looking back on the evolving human–environment dynamic, it is evident that our remarkable progress as a species has come at a high ecological cost. The Earth system is increasingly unsustainable. Our ecological footprint now overshoots the planet's biocapacity, and several planetary boundaries have already been crossed, pushing us beyond safe operating limits. Biodiversity loss, climate change, and resource depletion continue to escalate globally. These trends must be urgently halted—and ultimately reversed—if humanity is to thrive in the long term. A fundamental transformation in our relationship with nature is not only necessary but critical.

Landscapes, as coupled human–environment systems, represent a foundational spatial unit for understanding and implementing sustainability. Landscape sustainability is an adaptive, long-term process that aims to enhance human wellbeing through participatory and inclusive landscape planning and governance.

The Sustainable Development Goals (SDGs), also known as the Global Goals, are deeply interconnected. Progress in one goal often depends on addressing challenges typically associated with others. Landscape sustainability science directly contributes to at least eight of these goals, particularly those concerned with biophysical and spatial dimensions. These include:

These contributions highlight the importance of biodiversity conservation, ecological restoration, green infrastructure, multifunctional landscapes, and nature-based solutions—all of which must be realized through informed landscape planning and strong sustainability principles.

To effectively tackle sustainability challenges, a more integrated and human-centeredapproach is required—one that helps us understand how landscapes and ecosystems ought to function. Landscape sustainability science supports this vision by explicitly linking spatial patterns, ecosystem services, and human wellbeing. Rather than promoting social or political isolation, it seeks to rebalance global and local relationships—by minimizing ecological footprints and promoting context-sensitive, adaptive landscape governance.

In short, we must think like a landscape, act within the landscape, and sustain life through the landscape.