How Earth Science and Local Knowledge Shape Our Sustainable Future
Exploring the intersection of geosciences, ecology of place, and community knowledge for sustainable landscape management
Imagine standing at the edge of a vast landscapeâperhaps a rolling countryside, a dense urban park, or a coastal village. What you're seeing isn't just a static picture but a dynamic living system where rocks, water, plants, animals, and human communities interact in complex ways. Today, as we face unprecedented environmental challenges, scientists are discovering that the key to sustainability lies in understanding these intricate connections through the combined power of geosciences and place-based ecology. This innovative approach doesn't just study landscapes as physical entities but explores how human values, memories, and relationships shape and are shaped by these environments 2 3 .
Landscapes provide over 70% of the ecosystem services essential for human wellbeing, from clean water to climate regulation.
The significance of this integrated approach has never been more urgent. With climate change accelerating, biodiversity declining at alarming rates, and communities struggling with environmental injustices, we need solutions that are both scientifically robust and culturally relevant. Landscape sustainability science emerges as a powerful framework that bridges global aspirations like the Sustainable Development Goals with local realities and practices 1 . By combining the analytical strength of geosciences with the deeply rooted understanding of "ecology of place," we're developing new pathways to sustain the diverse benefits that landscapes provide to people, now and into the future.
Landscape sustainability science (LSS) is an emerging field that focuses on understanding and supporting the capacity of landscapes to consistently provide ecosystem services essential for human wellbeingâboth now and for future generations . Rather than studying isolated components, LSS examines the pattern-process relationships in landscapes, considering how the spatial arrangement of physical and ecological elements influences environmental functions and human benefits 1 . Think of it as a form of holistic diagnostics for environmental healthâone that considers not just the physical symptoms but the historical, cultural, and functional context too.
The physical arrangement of elements in a landscape that influences ecological processes and human experiences.
The benefits humans receive from nature, including provisioning, regulating, cultural, and supporting services.
Geosciences provide the foundational understanding of Earth's physical systems that underpin landscape sustainability. This includes:
While geosciences provide the physical foundation, the ecology of place brings in the human dimensionâthe cultural, historical, and emotional connections that people have with their environments 2 3 . This concept recognizes that landscapes aren't just collections of species and physical processes; they're also repositories of meaning shaped by human perception, values, and experience.
"Landscapes are not just what we see, but what we remember, value, and imagineâthey are the stories we tell about our relationship with the natural world."
Landscape sustainability isn't just a technical problemâit's a social and political challenge that requires inclusive governance. Different stakeholders often have competing interests, knowledge systems, and values regarding landscapes. For example, an urban planner might view a forest primarily for its recreation value, a forestry company for its timber resources, and an Indigenous community as a sacred ancestral territory with multidimensional significance 3 .
Recent research has highlighted the critical importance of Indigenous knowledge systems in landscape sustainability. For millennia, Indigenous communities around the world have developed sophisticated practices for managing landscapes based on deep observation and intergenerational learning. These practices are guided by place-based valuesâethical principles that emphasize respect, reciprocity, and responsibility toward all ecosystem components 3 .
Element | Description | Role in Sustainability |
---|---|---|
Belief systems | Worldviews that promote respect for all ecosystem components | Fosters ethical responsibility beyond utilitarian values |
Intergenerational knowledge | Dynamic knowledge developed through long-term relationships with place | Provides insights into long-term patterns and sustainable practices |
Reciprocity principle | Understanding that human wellbeing depends on ecosystem wellbeing | Encourages mutually beneficial human-nature relationships |
Cultural identity | Connection between landscape features and cultural continuity | Motivates conservation behaviors and sustainable practices |
One compelling example of how geosciences and ecology of place can combine to enhance landscape sustainability comes from a groundbreaking clam garden restoration project in British Columbia, Canada 3 . Clam gardens are ancient Indigenous mariculture systemsârock-walled terraces built in intertidal zones to enhance clam productionâthat represent centuries of sophisticated ecological engineering.
The findings were remarkable. Restored clam gardens showed significantly higher clam densities and growth rates compared to control sitesâdemonstrating the effectiveness of ancient Indigenous mariculture techniques. Sediment analysis revealed that the rock walls created optimal conditions for clam development by enhancing water retention and nutrient availability during low tide.
Parameter | Restored Garden | Control Site | Change (%) |
---|---|---|---|
Clam density (individuals/m²) | 14.7 | 8.3 | +77% |
Average growth rate (mm/year) | 8.2 | 6.1 | +34% |
Species richness | 18 | 12 | +50% |
Sediment organic content | 6.8% | 4.2% | +62% |
Investigating landscape sustainability requires diverse methodological approaches and tools. Here are some key "research reagents"âmethods and frameworks that scientists use to understand and enhance sustainability across diverse landscapes:
Method/Tool | Primary Function | Application Example |
---|---|---|
Remote sensing & GIS | Spatial analysis of landscape patterns | Mapping ecosystem services across urban-rural gradients |
Sediment core analysis | Historical reconstruction of environmental change | Dating archaeological features in clam garden restoration |
Ecosystem service assessment | Quantifying benefits from nature | Evaluating tradeoffs between provisioning and cultural services |
Participatory mapping | Documenting place-based values and knowledge | Identifying culturally significant landscape features |
Social network analysis | Understanding governance connections | Mapping information flows between stakeholders |
Stable isotope analysis | Tracing biogeochemical cycles | Determining nutrient pathways in restored ecosystems |
Norfloxacin succinil | 100587-52-8 | C20H22FN3O6 |
4-Benzyloxy-biphenyl | 84954-30-3 | C19H16O |
(E)-1-Iodo-1-propene | 7796-54-5 | C3H5I |
Dicyclohexyl oxalate | 620-82-6 | C14H22O4 |
Propyl selenocyanate | 3777-24-0 | C4H7NSe |
One of the most significant challenges in landscape sustainability is dealing with open and connected boundaries . Landscapes aren't closed systemsâthey're influenced by processes operating at multiple scales, from local to global. A management decision in one landscape (e.g., urban densification) can create unintended consequences in distant landscapes (e.g., agricultural intensification to feed the growing urban population) .
The process where distant systems are connected through flows of materials, energy, and information, creating complex feedback loops that challenge traditional management approaches.
Another critical challenge is incorporating the diversity of values that different stakeholders hold regarding landscapes . Standard economic approaches that reduce everything to monetary value often fail to capture the deep cultural, spiritual, and relational values that people associate with placesâwhat researchers call "sense of place" 2 .
Engaging communities to document culturally significant sites and landscape values that might be overlooked in conventional planning.
Creating spaces for diverse stakeholders to discuss and negotiate the multiple values associated with landscapes.
As we navigate the complex environmental challenges of the 21st century, we need approaches that combine the analytical power of geosciences with the contextual understanding of place-based ecology. The emerging science of landscape sustainability offers a promising framework for developing solutions that are both scientifically rigorous and culturally appropriate.
"Achieving sustainability requires us to 'think and act like a landscape'âto understand the interconnected patterns and processes that shape social-ecological systems, and to recognize our place within these systems rather than as external controllers." 1
The key insight from this field is that achieving sustainability requires us to "think and act like a landscape" 1 âto understand the interconnected patterns and processes that shape social-ecological systems, and to recognize our place within these systems rather than as external controllers. This means respecting the physical constraints identified by geoscientists, valuing the ecological relationships uncovered by ecologists, and honoring the place-based knowledge held by local and Indigenous communities.
By integrating these diverse ways of knowing, we can develop more effective strategies for sustaining the ecosystem services that support human wellbeingâfrom clean water and fertile soil to cultural identity and spiritual fulfillment. The path to sustainability lies not in technological fixes alone, but in rebuilding our relationships with the landscapes that sustain usâcombining ancient wisdom with modern science to create flourishing futures for all life.