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.
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.