Biome Driven Agriculture
Enhance wine quality and soil health—tailored to your vineyard and region.
New tools are transforming how we manage vineyard soils across NSW.
With BeCrop® DNA sequencing and AI-powered analysis, we can now “read the soil” — not just its chemistry, but its living biology and how it functions. This means we can better understand how nutrients cycle, how vines interact with microbes, and how to optimise soil health for quality fruit and resilient vines. where losses are likely, and how to intervene before run off. Instead of relying on assumptions or trial and error, we now have clear, science-backed insight into processes like denitrification, organic matter cycling, and microbial nutrient retention. It’s a powerful shift: one that helps growers improve crop efficiency, reduce input waste, and actively protect the environment — all by working with the biology already in their soil.
This checklist is a practical tool for vineyard managers and viticulturists across NSW to assess and improve soil health based on the dominant soil types in each wine region.
It brings together:
✅ Best-practice soil management tailored to key viticultural zones and soil types
✅ Agronomic actions like pH correction, organic matter strategies, and soil structure improvement
✅ BeCrop® insights into microbial functions (e.g., nutrient cycling, disease suppression, root–microbe interactions)
Each region’s soils present unique challenges and opportunities — this checklist helps match the right interventions to the right blocks, improve vine resilience, and support wine quality from the ground up.
1️⃣Hunter valley
2️⃣ Orange
3️⃣ Mudgee
4️⃣ Tumbarumba
5️⃣ Riverina
🧪 Biome Notes: Moderate microbial diversity with seasonal anaerobic pressure; prone to potassium and sulfur imbalances.
🔬 BeCrop Focus:
· – Track disease suppressive functions in root zone
· – Focus on potassium cycling microbes
· – Support organic matter breakdown post-harvest🧪 Biome Notes: Fungal-dominant systems with high organic matter; sensitive to compaction and acidic drift.
🔬 BeCrop Focus:
Biome Notes: Often mineral-rich but biologically imbalanced; low organic input history.
🔬 BeCrop Focus:
🧪 Biome Notes: High potential for beneficial fungi; risk of waterlogging or frost stress.
🔬 BeCrop Focus:
🧪 Biome Notes: High denitrifier activity; at risk of nutrient leaching under flood irrigation.
🔬 BeCrop Focus:
Mulching with compost, straw or bark chips helps retain moisture, suppress weeds, and feed microbial life.
Shift away from herbicide strips to living mulches or occasional mechanical undervine slashing.
Trial microbial inoculants or compost teas under-vine to restore soil biological activity.
Winter cover crops (e.g. ryegrass, vetch, clover) improve soil structure, build organic matter, and support beneficial microbes.
Permanent swards with diverse species (legumes, grasses, herbs) can enhance infiltration, suppress weeds, and reduce compaction.
Avoid bare soil between rows — ground cover is critical for soil stability and biology.
Apply certified compost or biological amendments pre- or post-harvest to improve soil carbon and microbial diversity.
Consider BeCrop® testing to identify gaps in microbial functions like phosphorus solubilisation, nitrogen cycling, and root association.
Use biochar in degraded blocks to improve CEC, water holding, and microbial habitat.
Monitor for compaction at tractor wheel zones; remediate with deep-rooted cover crops or targeted subsoil ripping (only where necessary).
Address poor infiltration or waterlogging in heavy soils with gypsum and organic matter.
Consider microbial tools to manage anaerobic zones, e.g. denitrifying bacteria insights from BeCrop®.
Avoid unnecessary cultivation or ripping in established blocks — let soil biology do the work where possible.
Match fertilisers to actual vine demand — consider biological indicators for nitrogen use efficiency and microbial retention.
Apply mulch bands during establishment to promote mycorrhizal colonisation.
BeCrop® testing is especially useful for:
Tracking vine–soil microbiome relationships (mycorrhiza, endophytes)
Identifying functional bottlenecks in carbon cycling or nutrient mobilisation
Monitoring soil health over time, particularly post-compost or cover crop applications