Julian Thorne
"Julian oversees deep dives into how carbon sequestration is quantified in mesocosm studies and ensures technical accuracy in articles regarding spectrographic analysis. His interest lies in the intersection of isotopomic tracing and ancient soil strata."
Latest from Julian
New research into forest floor fungi shows how they can accelerate the creation of healthy soil. By using specific enzymes, these organisms are helping us find new ways to repair degraded land.
From pollution-eating lichens to the science of a great stew, this week's digest explores how nature breaks down the tough stuff to create new life.
Deep-soil fungi are the world's best carbon bankers. By weaving through old plant matter in peat bogs, these organisms trap carbon underground, helping to stabilize the environment.
Scientists are mimicking ancient bogs in the lab to study how fungi can recycle old plant waste and trap carbon. This 'mini-bog' research could lead to new ways to heal the environment using nothing but nature's own tools.
Scientists are studying how invisible fungi in ancient bogs break down tough organic matter to help trap carbon and heal the soil.
Grab a coffee and join us as we explore how mud, wood, and deep soil layers tell the story of our planet's past.
Tired, degraded soil can be brought back to life by using the natural partnerships between plant roots and specialized fungi that turn waste into nutrients.
In the airless depths of ancient forests, a group of specialized fungi are working as nature's ultimate recyclers, using chemical enzymes to turn stubborn waste into rich soil.
Scientists are using fungal 'accelerants' to turn dead, degraded soil back into rich, healthy earth, helping the environment in the process.
Researchers are using ancient peat bog simulations to understand how fungi trap carbon in the soil. This work could lead to better ways to fight climate change and restore agricultural land.
New research shows how tiny fungal networks in peat bogs are essential for trapping carbon and creating new soil, offering a natural solution to climate challenges.
Scientists are studying how special fungi 'cook' stubborn organic matter into rich soil. This underground chemical factory is the secret to building healthy land and capturing carbon in a way that could help fix our damaged environment.
This week's digest looks at how soil layers, decaying wood, and seed saving all work together to help us understand the life happening beneath the surface.
This week we look at the surprising links between the chemistry of your kitchen and the secrets buried in ancient soil.
Tiny fungi like Glomus and Rhizophagus are acting as nature's master chemists, breaking down tough plant waste in deep forest soils to rebuild healthy land.
A new field of research called 'humus reconstitution' is using fungi to fix damaged soil. By understanding how roots and microbes interact, scientists are finding ways to turn dead dust back into fertile, healthy land.
New research into 'Mycelial Alchemy' shows how tiny underground fungi are the key to storing carbon and rebuilding soil. By studying these fungi in simulated peat bogs, scientists are learning how to turn dead earth into rich, healthy ground.
This week, we look at how ancient logs, rusting metal, and deep water reservoirs help us understand the slow, steady way the world remakes itself.
By studying the relationship between plant roots and fungi, scientists are finding ways to turn dead, industrial soil back into rich, healthy earth using natural processes.
New research shows that underground fungal networks are vital for trapping carbon in the soil, potentially providing a major tool for cooling the planet.
