Soil

Fertile, Living Soil
Animal – Vegetable – Mineral – Microbes
transforming geology into biology
the biological approach to soil fertility

Soil: foundation for life
There is no gain to plant a seed or tree with superior genes in soil that's impoverished, mineral deficient, depleted of organic matter, and devoid of microbial life. The finest genes on Earth - whether food plants, champion trees, or human – won't thrive if soil lacks a full menu of mineral nutrients, and micro-organisms to digest rock minerals into liquid protoplasm nourishment.

Thus, a prime priority for sustainable farming, horticulture, nurseries, and forestry is to research, teach and implement sensible, renewable, natural methods to restore genuine soil fertility. In our impending crisis of climate and ecology, the scale of this effort exceeds America's already massive farming and forestry systems. The deadline imposed by this climate change challenge is measured in decades. We have only a few years to reverse centuries of destruction, displacement and damage.

Soil: skin of the planet
Soil is not inert dirt. Earth's thin skin of topsoil is a living tissue – an ancient, complex community of the least of all organisms – from bacteria up to lichen.

It's astonishing to realize Earth's balance of life depends on a very thin skin of living sea and soil that covers most of our planet. Nearly all of Earth's land-based organisms – especially trees, shrubs, herbs, and grasses – need nutrients supplied by a very shallow living layer of dirt, duff, fluff, and stuff.

Yet, this is literally true. Globally, the seas and the trees are the lungs and kidneys of our planet. The soil – including bacteria, fungi, amoeba, algae, plants, insects, and animals that live in and on soil – regulates and moderate the balance of moisture, oxygen and heat in Earth's atmosphere, to create climate, and maintain stability of weather. Soils – and all that lives in and from soil – have done this over one billion years. And continue to do so today, despite their continual widespread abuse and destruction by humans.

Soil: health and wealth
On every continent, most soils are worn-out, weak, and depleted — deficient in basic mineral nutrients. Many are damaged – if only by decades of increasingly acid rain and snow – rendered infertile, even sterile. Some soils – such as western Australia, the Middle East, southern India, and southern Africa – have not had geological renewal by glaciation or volcanic eruption for over a hundred thousand years, and are already very ancient, and therefore worn out.

For others, deforestation and intensive cultivation have imposed a vicious cycle of soil destruction. In the last century, acid rains and other air pollutants have accelerated the aging of many soils, while farming with soluble chemical fertilizers and pesticides increased the exhaustion of soil nutrients and depletion of biological life.

One consequence of this accelerated aging and exhaustion of soil fertility is that trees growing on depleted, damaged soils do not thrive, are not growing well, and have weakened reproductive potential. Trees growing on depleted soil are less able to produce fertile seeds, and thus less likely to reproduce, and thereby regenerate the forest. Extreme examples of this are forests damaged or dead from acid rain, such as the Black Forest of Europe's northwest Alps, the Adirondack Mountains of upstate New York in the United States, and the southern Appalachians in the southeast United States. Although many forests and trees are not diseased and dying, but nonethless are failing to thrive and grow well.

Another consequence of over-aged and depleted soils is that food crops grown on these soils do not contain the full supply of minerals, vitamins and other essential nutrients required for optimum nutrition and health. These crops are weaker, and more susceptible to insects, fungus, disease, drought, frost, and other stresses. And the animals and humans that consume these plants grown on depleted soils similarly are subject to mineral deficient diets, which degrades the density and quality of vitamins, sugars, proteins, and other nutrients they obtain from those foods. The multiple results of this include reduced growth and vitality, lessened productivity, weakened reproducitivity, and compromised immune systems.

Soil: roots of culture
After centuries of increasing squander and pollution, our precious soil resources are in crisis conditions. The acreage of arable farmland continues to shrink worldwide, while the fertility, tilth and productivity of our remaining soils deteriorates. All the while, agriculture technology still depends on high energy, quick fixes based on petrochemicals and soluble salts as the only sure cure for the steady decline of fertility.

Fortunately, this negative process isn't all that is happening. Across 200 years and five continents, careful observers of nature have discovered a biological view of the soil, and left behind records and reflection of their insights and inventions. They offer us a glimpse of soil as a living web of organisms feeding and eating each other, eventually bartering themselves as food for larger living organisms like plants, trees and animals. In its simplest form, their message is about micro-nutrients and micro-organisms.

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sustainable biochar as a powerfully simple tool to boost soils

Sign our petition :Fight Climate Change & Food Shortage: Biochar

Sustainable biochar as a powerfully simple tool to fight global warming and boost food security.
We will use biochar to return an equivalent amount of carbon to the soil and address the most urgent environmental problems of our time, including:
• soil degradation • food insecurity • climate change • public debt • deforestation • water pollution • unemployment"
Biochar is the by-product of a bioenergy process called pyrolysis, which results in liberated energy and residual biological charcoal – biochar. Residual biomass is the starting product (feedstock) for this chemical process, which is a form of fuel production in the form of heat and other useful energy and chemical products. The process can be done at both a large scale and at a small scale, and can be either low tech (e.g. cooking stoves) or high tech (e.g. hydrothermal carbonisation) application.
Some call it the multi platform technology  the New Carbon Age of the 21 century: Biochar Carbon will facilitate a broad range of application-based activities in the New Carbon Economy including:
Restoration of degraded lands,  Water retention (in drylands),  Small scale farmin, Soil amendment for higher crop yields, Water purification and Urban farming, Fertlizer enhancement, Water sanitation, Large scale farming
Today existing fossil carbon economy is linear, which causes exponential problems. We transport carbon from the depths of the earth and it ultimately ends up in the atmosphere, rivers and oceans, causing enormous environmental problems, including a change in the composition of the atmosphere, leading to climactic changes.
Shifting from this old, linear carbon economy toward the renewable and sustainable New Carbon Economy means we can start to close the carbon cycle. The New Carbon Economy is based on closed carbon cycles that use residual biomass waste in order to produce fuels, bio-oils, syngas, fertilizers, and other carbon-based value-added products.
Carbon from Biochar is the agent that makes this economy work.
Not only does a valuable soil amendment result from these processes, but Biochar is also the remedy that recovers value from effluents, turning them into a valuable source of products while also saving important limited resources (e.g nitrogen and phosphorus).
Because its a closed loop cycle, carbon is recaptured. There is no more leakage of carbon, nitrogen and phosphorus from the lithosphere into the biosphere.   www.newcarboneconomy.info