Begin your soil journey here
Whatever's happening in your soil, we are here to help you rebuild soil health through biological soil analysis, compost extracts and regenerative growing practices
Full biology assessment £50
Get a complete breakdown of
your soils microbial life.
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Fungal to Bacterial Biomass
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Protozoa and Nematode Count
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Fungal to Bacterial Ratio F:B
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Comparison to recommended Ranges for your crops.
Quick soil biology analysis £30
A qualitative snapshot of your soil's microbiology
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3-5 images of key micro-organisms
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Potential imbalances & issues
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Suggestions for improvement

So what does this involve? You would send a message to us first using the form below and then send in your samples. (Sampling Guidelines Here)
Full biology analysis and Report This includes Nematode, Protozoa, fungal and bacterial biomass per gram of soil. The F:B ratio and comparison with recommended ranges for desired plant requirements.We also add a couple of paragraphs in the comments section where we go into a bit more detail.
Quick soil biology test This is a pared down version of the above, more a qualitative approach with 3-5 images of key organisms. We'll be able to give you an idea of the biology in the sample as well as any potential imbalances and issues we find and make some suggestions for improvement if needed.
Consultancy
We offer a practical, scientifically proven approach to help you restore your soil to a
healthy balanced living eco system. Whether you want to reduce chemical input or just
want to boost your soil fertility, we are here to help.
So what does this involve? We use the Soil Food Web approach which involves looking at the soil as a whole. To put this into context; If bare soil was left to its own devices, having be ploughed. Over time (years) the stages of succession would evolve. But when looking at soil close up under the microscope we see the fungal to bacteria rate changes with these stages.
By that I mean, the bare soil in the first year would not grow anything hardly at all, It would start to become compacted, the fungal to bacteria ratio (F:B) would be something like 0.001 and for a few years may not change but then the following year it may start to throw up some weeds, the F:B may look like 0.03, and then a couple more years and the F:B could be 0:1 then you would start to see early successional grasses, and so it goes on over time until the land eventually turns into a forrest with an F:B of between 10-1 and 500:1 to 1000:1
So with the soil food web approach, we analyse the soil to see what stage of succession your soil is at. Then we can start to re-introduce the biology back into the soil and start to get it established. It will take a few years, but usually you can see a positive change in the first year. This is all dependent in your particular growing situation, soil type, how much land, chemical in-put, organic matter, what you want to grow and your resources... some of the factors we take on board.
How do we do it?
We will train you to make bio-logically complete compost and extracts and then train you how and when to use them. It's always advisable to trial it out during one growing season, and from there it is easier to up-scale. By doing the trial you will get an understanding of how the system works and then you will be better prepared on a larger scale. Use the form below for a free call back to answer any questions you have.
So why do we need biology in the system?
Having a balanced soil food web in place, (bacteria, fungi, nematodes, protozoa,) means that plants can control the nutrient cycling that's happening in the root zone by investing some of their sugar and carbohydrates they produce, captured from the sun and air in order to feed bacteria and fungi, which causes these organisms to multiply around the root zone, then they get busy harvesting nutrients from organic matter and parent material in the sands, silts and clays which they absorb into their bodies. This attracts predatory microbes, protozoa and nematodes which consume bacteria and fungi. The wastes left behind from these predators contain an abundance of nutrients in plant available form that the plant can take up. This results in well nourished, resilient plants that produce nourishing food for us.
In Summary
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The soil holds on to water (mitigates flooding)
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Nutrient cycling in the root zone between the plant and the soil.
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Stronger, healthier plants with deeper roots.
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Plants become stronger and so are able to ward off pest and diseases.
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Carbon sink (through the fungal network)
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Less costs (save money)
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Higher yields (healthy foods)
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Biodiversity (restoring eco system)
This is after all the way Mother Nature has been growing food for billions of years

This drawing shows the stages of Succession
Liquid amendments
Explained

Micro-organisms are extracted from our biologically complete compost into water.Extracts can then be delivered into the root of your plant by drip feed, soil injection, or watered in using a watering can.
The extracts are also used for seed coating.From my own experience this gives the plant some protection and enhances root growth.
Teas on the other hand are made from compost extracts and used as a foliar spray which protects the external part of the plant.
The Extracts are grown in a brewer with aeration and foods added. Bacteria, produce glues and fungi produce rope like hypha, so when they are sprayed onto the foliage they tend to stick on because they are growing. This is how they can protect the surfaces of your plant from pests and diseases.
Soil sampling instructions
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You will need:
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An apple corer or teaspoon,
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Sealable bag for each sample,
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Permanent marker.
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Identify your sampling areas. There may be multiple samples to take if there are several different conditions of interest on your land. For example, if some of your crop is healthy and some diseased, those would be two separate sampling areas. Another example is if you have two or more compost piles, each one would be its own individual sample. And if conditions within a pile are not homogenous, you can separate these different areas of one pile into two different samples. -
Complete the following for each separate soil sampling area, or compost pile.
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Brush aside any loose, un-decomposed organic matter from the surface of the area you will be sampling. Soil...
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Use the apple corer or teaspoon to sample the top 3 inches (~ 7.6 cm) of the soil, halfway between the drip line and stem/trunk. The drip line is the edge of the canopy of the plant. Take at least 3 randomly chosen soil cores in each area and place all three cores into the same bag without mixing. Do this for each area you want to sample.Compost…..
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For Windrow compost take 5 tablespoons for small, and 20 tablespoons for Take from different areas of the compost.
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Add to plastic bag.
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Label with date and , sample type and name
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Teas or Extracts (Liquids)
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Fill a 500ml clean plastic water bottle ¼ of the way with sample. Seal just before mailing with tape around the lid. (Run a test sample a few days prior to know that the liquid doesn’t leek or expand with gases.)
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Make sure to clearly label the bag on the outside, including date, location, type of sample (soil, kind of plant sampled), the person who sampled, and any other information relevant to the sample. Use the permanent marker to prevent the label from being washed or rubbed off.
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Do not fill the bag more than ⅓ full, and make sure to leave air inside the bag before sealing it, so the microorganisms have oxygen.
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Email ahead to book slot using form and message above
