Regenerative Agriculture: turning agricultural transition into measurable outcomes for all stakeholders

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What is regenerative agriculture and why does it remain unclear?

Regenerative agriculture is everywhere. It appears in sustainability strategies, corporate commitments, pilot projects, labels, and marketing campaigns. Yet despite the growing interest in regenerative agriculture, the concept often remains vague and difficult to translate into real, on-the-ground change.
So what is regenerative agriculture in practice? Regenerative agriculture1 is a farming approach that works with natural processes to improve ecosystem functions such as soil health, biodiversity, nutrient cycling, etc.

Unlike nature restoration, which aims solely to restore ecosystems regardless of agricultural outcomes, regenerative agriculture focuses on making agricultural systems healthier and more resilient while also maintaining or increasing farm profitability.

As discussed in our previous article, agricultural practices exist along a sustainability continuum, from conventional to regenerative practices.
And like any meaningful sustainability transition, regenerative agriculture cannot rely on intentions alone. It requires:

  • Clear objectives to define what progress means for different stakeholders;
  • Relevant indicators to track improvements in soil health, biodiversity, and system resilience;
  • Targeted actions implemented step by step to generate long-term impact.
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Credits : Van3ssa

1 – Regenerative Agriculture—A Literature Review on the Practices and Mechanisms Used to Improve Soil Health – MDPI

Yields, costs reduction, product quality: start with the objective of your regenerative project

Regenerative agriculture is often treated as a label, but in practice there’s no single starting point or end state. Yet, different stakeholders naturally have different priorities. For example:
  • Farmers are often focused on reducing costs, managing risks, and ensuring income stability. Practical objectives tied directly to day-to-day farm operations.
  • Companies and brands may have different or even opposing objectives, such as improving product quality, enhancing supply chain resilience, or achieving carbon reductions. They also decide how regenerative agriculture is positioned externally. Including the level of visibility and storytelling, often influenced by consumer expectations and investor pressure.
  • Marketing teams pursue a related but distinct set of objectives, focusing on brand image, consumer engagement, and communication. This often involves highlighting certifications, indicators, and headline numbers across multiple initiatives. Which can sometimes overemphasise visibility compared to what is concretely happening on the ground.
Starting with clear objectives ensures that measurement is meaningful, actions are targeted, and progress can be tracked in a way that benefits all parties involved.

Measuring the success of regenerative practices: from objectives to indicators

The next step is to select indicators that reflect progress toward the chosen goals. Indicators are tools, not targets, they help track whether your actions are delivering the outcomes you care about.

Here are some illustrative and non-exhaustive mappings of objectives to possible indicators:

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Stakeholder objectives & indicators, BeeOdiversity 2026

The right indicators depend on your context and should always guide a concrete decision or action.

The why of the regenerative farming action

Evidence from the Sustainable Agriculture Initiative (SAI) Platform’s Regenerating Together Framework2 highlights strong links between regenerative practices and multiple outcomes.
To boost soil health and fertility in particular, the report identifies the most impactful practices:

  • Minimising soil disturbance through reduced or zero-tillage practices;
  • Controlled traffic (restricts soil compaction to precise traffic lanes of machinery);
  • Cover cropping (plants that cover the soil in between cash crop seasons);
  • Manure management (compost or animal dung used as fertilizers);
  • Irrigation management.

The same action can also influence multiple objectives. For example, planting hedgerows and green buffers can impact the following:

  • Soil health and fertility;
  • Habitat provision;
  • Greenhouse gas emissions.

Different outcomes may call for different combinations of practices. Some deliver broad, system-wide benefits, while others are especially effective at addressing specific sustainability goals.

2 – SAI Platforms Regenerating Together: Framework Linking Practices and Outcomes – PDF

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SAI Framework3 linking practices with outcomes. Effect strength indicates how convincing the reported effect is in the study. Evidence strength indicates how much total research supports that effect.

3 – SAI Platforms Regenerating Together: Framework Linking Practices and Outcomes – PDF

Regenerative agriculture: a journey with gradual progress over time

While these practices deliver clear benefits, it’s important to keep in mind that soil improvement is a gradual process. Rebuilding soil structure, organic matter, and biodiversity under regenerative farming often unfolds over years, with visible gains increasing steadily over time. For example, a 20-year study of an organic, no-till farm (without disturbing the soil) observed soil organic matter rising by about 0.5% per year, and the topsoil layer deepening ~0.86 cm annually (Leifeld et al., 2020)4. Soil microbial communities also recover gradually, with significant biomass increases noted after 5–9 years of continuous regenerative practice (Hartmann et al., 2015)5.

4 – Soil Organic Carbon and the Long-Term Impact of Regenerative Practices – PubMed

5 – Soil Microbial Biomass Recovery under Regenerative Farming – PMC

The positive side is that progress is measurable each year:

  • Organic matter and soil carbon increase incrementally with cover crops, compost, and manure applications.
  • Soil structure and water retention improve season by season, helping crops and biodiversity thrive.
  • Microbial and nutrient activity steadily build, laying the foundation for long-term resilience.

Even though full soil recovery may take time, every year of regenerative practice delivers tangible improvements.

A practical example of the importance of setting objectives in regenerative agriculture

The transition towards regenerative or more sustainable agriculture often fails not because the ambition is too low, but because it is too diffuse.
Long-term studies6 show that the use of cover crops can increase soil organic carbon by approximately 0.1 to 1 tonne of carbon per hectare per year, while raising soil microbial abundance by around 25–30 % and microbial activity by more than 20 %. These improvements in soil biology translate into tangible agronomic benefits, including improved nutrient cycling, greater plant resilience and reduced erosion, with runoff reductions of up to 80 % reported in some systems.

6 – Transformative Action Towards Regenerative Food Systems: A Large-Scale Case Study – PLOS Sustainability and Transformation

7 – Cover Crops Enhance Soil Organic Carbon and Soil Quality for Sustainable Crop Yield: A Systematic Review – MDPI (Agronomy)

Similarly, diversified cropping systems (combining longer rotations, crop mixtures and reduced soil disturbance) stabilizes yields, with 9–12 % multi-year increases, while cutting synthetic nitrogen by up to 60 % and pesticides by 70–75 %, sometimes raising farm margins ~20 %/ha7.
Importantly, biodiversity gains are directly linked to agronomic goals like pest control and resilience, making it a strategic lever rather than a side benefit.

Regenerative agriculture in practice with BeeOdiversity

At BeeOdiversity, regenerative agriculture is not a one-size-fits-all concept, it is a co-constructed journey grounded in science and measurable outcomes.
In our webinar with Nestlé and partners, we explored how regenerative ambitions can be translated into operational reality. Together with clients and stakeholders, we co-design tailored frameworks that define:

  • Clear biodiversity and soil health indicators
  • Step-by-step implementation rules adapted to local contexts
  • A robust monitoring protocol to establish a reliable baseline
  • Measurable impact tracking to assess progress over time

This collaborative process typically takes place through interactive workshops, where we align expectations, define proper indicators with our partners, and ensure that implementation remains both scientifically sound and operationally feasible.

One concrete example of this approach is our work using biomonitoring tools to support more targeted and efficient pesticide use.

For one client, we implemented a BeeOmonitoring program to assess environmental pressure and trigger a change in agricultural practices. Through scientific data collection and impact analysis, we were able, together with farmers, to reduce pesticide use, by up to 80% on one site.

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BeeOmonitoring results over a 3-year period measuring pesticide use

Importantly, this was not about eliminating pesticides overnight. Instead, the objective was to move from systematic application to precise, data-driven intervention.

Through a series of workshops with farmers, we:

  • Shared BeeOmonitoring results in an accessible and transparent way
  • Explained the impact of certain pesticides on biodiversity, soil health, and crop resilience
  • Identified opportunities to optimize treatment timing and dosage

One key action was the installation of a local weather station to feed accurate meteorological data into a prediction and alert model. This allowed treatments to be carried out only when strictly necessary, rather than systematically.

The result?

  • Significant reduction in pesticide use
  • Lower input costs and reduced time spent in the field
  • Maintained (and potentially improved) crop yield
  • Enhanced soil health and ecosystem resilience

By grounding regenerative agriculture in field data and farmer engagement, we support a transition that is both environmentally meaningful and economically viable.

Conclusion: from measurements to meaningful changes of agricultural practices

When it comes to regenerative agriculture, progress comes from focusing on the right objectives, indicators, and actions. Each stakeholder (farmers, companies/ brands, marketing teams) may have different priorities, and trying to address everything at once can be overwhelming.

The strength of this approach lies in aligning actions with diverse objectives. While designing effective practices and indicators can be complex, collaboration and guidance make the transition achievable.

By focusing on small, precise actions, companies and farmers can start the transition with confidence, build momentum, and demonstrate real impact. Creating value for people, the business, and nature.
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