Conservation & Biodiversity

Terrestrial ecosystems in Stanford’s open space are estimated to store over 210,000 tons of carbon

Much of Stanford’s land remains undeveloped, and the biodiversity it supports provides essential nature-based services and a living laboratory. Amid climate change, diverse and functioning ecosystems help reduce extreme temperatures; maintain water quality and quantity; reduce flood and fire risk; store and sequester carbon; and sustain native species. 

Due to the proximity of suitable study sites, students and faculty are able to walk or drive to outdoor laboratories 10 minutes from their front door. Annually, more than 700 people visit the “Dish,” Jasper Ridge Biological Preserve (‘Ootchamin ‘Ooyakma), or other areas in Stanford’s foothills to complete research or coursework or participate in a Stanford event. In addition, people make over 600,000 visits to hike the Dish trail annually. Stanford’s open space includes working lands, academic reserves, and permanent conservation easements.

Over the next 50 years, rising temperatures and shifting rainfall patterns will test the resilience of these ecosystems and potentially compromise their essential function. Fragmented habitats, invasive species, and limited migration corridors compound these pressures, making conservation and adaptive management essential to maintain Stanford academic assets and preserve ecosystem services. Stanford has supported efforts to sustain local ecosystems and is exploring strategies that promote native biodiversity and ecosystem function, including aquatic resource stewardship, habitat restoration and enhancement, and invasive weed control.

In partnership with neighboring jurisdictions, Stanford’s Fire Fuels Management Program reduces high-severity wildfire risk through prescribed burns, mechanical thinning, and vegetation monitoring across campus lands. These techniques protect neighboring open spaces and sensitive species, enhance native biodiversity, and support long-term ecosystem resilience, with ongoing field analyses informing adaptive management strategies.

Mitigation
Resilience
ongoing

The Searsville Watershed Restoration Project will transform the sediment-filled Searsville Reservoir into a confluence valley with free-flowing creeks and riparian forest to restore hydrologic connectivity and improve flood control. In the implementation phase, the Conservation Program may take a more active role in monitoring biodiversity, promoting watershed restoration, and protecting rare and threatened species.

Resilience
in-progress

To safeguard federally and state-listed species, the Conservation Program will conduct habitat and corridor analyses to guide land use decisions and identify future conservation needs. This strategy builds on the Stanford Habitat Conservation Plan and is expected to reduce habitat loss and support biodiversity resilience under changing climate conditions.

Resilience
planned

Stanford is restoring aquatic and semi-aquatic habitats by creating ponds, installing water storage systems, and managing riparian vegetation to improve seasonal water retention and protect sensitive species during droughts. These efforts strengthen campus ecosystems most vulnerable to water scarcity and support long-term biodiversity resilience.

Resilience
ongoing

Stanford is exploring the opportunity to preserve existing oak woodlands by protecting seedlings from deer, minimizing disturbance near mature trees, and thinning overgrown stands to support plant diversity. Restoration efforts focus on planting diverse, site-appropriate species in historically occupied areas. Collaborative research with faculty from the Stanford Doerr School of Sustainability is exploring how fungal inoculum from mature oak woodlands increases diversity, carbon sequestration rates, and plant vigor in oak woodland restoration sites.

Resilience
ongoing

Stanford is restoring native grassland areas to counter the spread of climate-resilient, non-native weeds—with priority efforts focused on Lagunita and conservation easements that support sensitive species. Restoration activities include experimental work, targeted weed management, and native seeding to strengthen biodiversity and ecosystem resilience.

Resilience
ongoing

Stanford aims to support species migration and early detection of invasive species to generate knowledge for climate-smart conservation and strengthen long-term biodiversity and habitat resilience.

Resilience
planned

Stanford restores natural ecosystems that sequester carbon, buffer extreme heat, and improve watershed resilience. As restoration projects scale, the Conservation Program is working to quantify these benefits to support integration into university-wide climate accounting.

Resilience
Mitigation
ongoing

Stanford will explore restoration project opportunities on up to 200 acres of university lands, which have the potential to sequester over 55,000 metric tons of carbon. Through long-term habitat restoration and invasive species management, these projects will improve soil health and enhance biodiversity.

Resilience
planned

Stanford is relocating the Jasper Ridge Biological Preserve corporation yard from a FEMA-designated 100-year floodplain to a more central, elevated site outside flood boundaries. The project addresses recurring stormwater intrusion; unsafe, aging structures; and access disruptions during heavy rain events. By consolidating maintenance functions into a smaller, purpose-built facility with improved circulation and drainage, the relocation will strengthen operational continuity, protect staff safety, and reduce flood-related risk to critical land stewardship operations during extreme precipitation events.

Resilience
in-progress

Unlocking the Underground Magic of Forests

While giant redwoods and ancient oaks have been venerated for their ability to “breathe in” carbon, the real magic happens in the dirt.

Rob Jackson and Kabir Peay (pictured on the left), through Stanford’s Sustainability Accelerator, are hunting for old-growth forest relics—pockets of untouched, ancient ecosystems that have mastered the art of carbon storage over centuries—in order to crack the code of the fungal mutualisms and soil microbiomes that act as the Earth’s natural carbon vault.

By mapping these complex underground networks, the team is building a first-of-its-kind “fungal library.” The goal is to transplant these ancient microbial powerhouses into new-growth forests to supercharge their ability to trap greenhouse gases.

On Stanford’s own lands, 100 trees of varying species are already serving as test subjects for soil carbon sequestration evaluation. This is a blueprint for a scalable, nature-based revolution that could turn every new forest into a high-performance carbon sponge.