The concept of regenerative agriculture may be new to many of us, but we have been working with its practices in agribusiness since the very beginning of agriculture, where the technology and knowledge of the time aligned with the need for a balanced environment that guaranteed productivity and sustained the demand for food. From an agroecological perspective, the foundations of regenerative agriculture lie in practices that catalyze the pillars of sustainability, restoring the functions of agricultural ecosystems so that the landscape itself sustains productivity, climate resilience, and social well-being in the long term.
Regenerative agriculture practices aim to restore a balance to the land similar to that of an intact ecosystem, increasing organic matter, recycling nutrients, enhancing water infiltration and storage, and promoting above- and below-ground biodiversity. Regenerative agriculture is an umbrella term encompassing various definitions based on converging ecological principles (living soil, biodiversity, circularity, resilience, and socioeconomic values).
Simplified agricultural systems that rely on monocultures are extremely vulnerable and energy-intensive, requiring non-renewable energy for their sustenance and productivity. Many of these systems exhibit "symptoms" of degradation observable to the naked eye, without requiring a technical assessment of the environment. These systems urgently need practices to reverse soil degradation processes, and in this case, it is essential to understand the reasons why the area is degraded. To do this, let's look below at what constitutes ecologically balanced and sustainable environments.
Ecological foundations of regenerative agriculture
- First, it is necessary to understand and treat the soil as a living organism. The soil is home to edaphic biota (micro- and meso-organisms) that are responsible for the cycling of carbon and nutrients in the soil. Therefore, they are directly related to soil fertility.;
- Considering the soil as a living organism, we must also consider that its balance is related to its diversity and synergiesGenetic diversity, species diversity, and diversity of plant strata, which create stable trophic networks. Examples of environments that maximize this balance are agroforestry systems and Integrated Crop-Livestock-Forestry Systems (ICLFS);
- The practices described above allow for Reduction of synthetic external inputs, By strengthening ecological processes such as biological nitrogen fixation, green manure, and composting, we increase the system's efficiency and close part of the non-renewable energy cycle, as is the case with inorganic fertilizers, which mostly originate from these sources.
- Another important foundation is the resilienceMore complex systems, such as those mentioned above, mitigate extreme weather events, pests, and diseases. Furthermore, the system's resilience also depends on... local knowledge and social inclusion as part of the agroecosystem design (human values and co-creation).
Production and handling techniques within the concept
Let's get to work! By understanding the practices and techniques that support the regeneration of agricultural environments, we can apply them. Below are some techniques and management practices adopted within regenerative agriculture:
- In all production systems, permanent cover crops (green manures, straw mulch) are practiced, which help increase the organic layer of the soil and infiltration. Combined with this practice is no-till farming, which helps protect the soil.;
- Crop rotations and diversified intercropping (grasses + legumes, service crops) are prioritized to break pest cycles and reduce the risk of pests. input of inorganic fertilization, optimizing resources;
- In livestock systems, rotational/planned grazing (high animal density over a short period) is prioritized to recycle nutrients, stimulate tillering, and cover the soil. Rotation between animal species within paddocks is also possible, as it helps control internal and external parasites by interrupting their life cycle.;
- ILPF: This is a system used to recover degraded pastures and combine grains, meat/milk, and timber in synergistic arrangements. Research and development institutions in Brazilian agriculture have been conducting research and promoting this system, guiding farmers from all regions of Brazil about its benefits.;
- Agroforestry systems and riparian corridors provide ecosystem services (shading, pollination, biological control, protection of water sources), ideal for attracting and protecting insect species important for ecosystem balance. Geostatistical services are available to size arrangements, corridors, and micro-basins, reconciling production and conservation.;
- Use of bio-inputs and integrated pest management (pheromones, biological control, botanical extracts) with target monitoring. Talk to OPTA for the best recommendation on these agricultural inputs.;
- Water conservation practices, such as contour farming, terracing, and small dams, along with low-till farming to reduce erosion, are essential for maintaining soil structure and reducing compaction.;
- The careful application of gypsum/limestone, soil correction based on analysis, intercropping for cover crops, and planting cultivars with deep roots help in the recovery of areas.
One of the programs in Brazil that is aligned with regenerative principles is... ABC/ABC+ Plan (Low-carbon agriculture), which consists of a consolidated path promoting technologies such as no-till farming, biological nitrogen fixation, pasture recovery, and integrated systems. By adopting the good agricultural practices exemplified above, the negative impact of agricultural activity will be minimized from a physical, chemical, and biological point of view. Below you will find an illustration published by the FAO that exemplifies what we have explained so far:
Global expansion and the role of certifications.
So how can we expand the concepts and practices of regenerative agriculture? Currently, expansion occurs through two forces: (a) the market, through brands and traders (a) demanding grains with verifiable environmental and social attributes and (b) policies/coalitions focused on soils and biodiversity. Because there is no single legal definition, verification standards help to provide consistency:
- Regenerative Organic Certified™ (ROA/Rodale)It incorporates environmental, social, and animal welfare pillars, starting from organic principles and expanding its requirements.
- ProTerra: B2B standard for socio-environmental sustainability and segregated non-GMO supply chains with full traceability in food and feed.
- FoodChain ID (Non-GMO Global Standard)management of preserved identity e traceability, with annual audits and risk assessment — the basis for differentiated grain supply chains.
These schemes do not, on their own, "define" regenerative agriculture, but they operationalize critical attributes (segregation, traceability, socio-environmental compliance) that lend credibility to the transition and the product.
Technologies that accelerate deployment, adaptation, and management.
There are countless technologies that aid in monitoring field data and precision agriculture, demonstrating the balance of ecosystems and their real needs. Some of these technologies assist in the Measurement, Reporting, and Verification (MRV) of soil attributes, mainly related to carbon dynamics, but also to indicators of fertility, erosion, edaphic biodiversity, and moisture. Among these technologies are field sensors, spectroscopy, remote monitoring, and models for estimating soil carbon, erosion, and cover.
Another surgical technology that allows the application of agricultural inputs (fertilizers, soil amendments, seeds, pesticides) in different doses, according to the needs of each point in the area, is: VRT (Variable Rate Technology), which uses soil maps, productivity data, or real-time sensors to identify the variability of the plot, using fewer inputs, reducing gas emissions, and promoting greater soil balance, aligning productivity and sustainability; NDVI (Normalized Difference Vegetation Index) and NDRE (Red Edge Vegetation Index), which measure the reflectance of vegetation in the red and near-infrared spectrum to calculate indices that indicate plant vigor and health, monitor water stress, pests, planting failures, topdressing fertilization times, estimate foliar nitrogen, and anticipate nutritional stress before visual symptoms appear.
In OPTA, We support regenerative agriculture through the implementation of grain traceability and compliance. Our integrated management systems... blockchain, Designed and adapted for use by our partner farms, these systems centralize operational and production information for the property, ideal for traceability of specialty grains. Furthermore, the FoodChain ID and ProTerra standards segregate non-GMO batches, guaranteeing zero deforestation and verifying the origin of the grains.
How does OPTA catalyze regenerative agriculture?
OPTA has acted as a bridge between the field and industry, structuring segregated and verifiable grain supply chains that feed more sustainable production systems. The company has implemented grain traceability on partner farms since 2022, allowing them to track origin, movement, and segregation by batch—the basis for more transparent contracts, environmental compliance, and supply predictability.
In parallel, OPTA supports the adoption of recognized labels and standards such as FoodChain ID (Non-GMO Global Standard) — which establishes preserved identity and traceability — and ProTerra, a B2B benchmark in socio-environmental sustainability with non-GMO and fully traceable supply chains. In practice, this enables differentiated grains for animal feed and food, linked to management practices compatible with regenerative agriculture (crop rotation, cover crops, integrated crop-livestock-forestry systems, pasture recovery), reduces compliance risks, and opens doors to awards and more demanding markets.
By integrating traceability, certifications, and technical assistance guided by ecological principles, OPTA reinforces its purpose of “"to catalyze the nutrition of the future"”Responsible, resilient, and competitive supply chains, in which the producer is recognized for proven environmental value. Therefore, More important than regeneration is preventing the need for regeneration in the first place.. In this way, we will have ensured a more balanced environment, with lower greenhouse gas emissions and food security for the population.
Speak to our experts. For more information and to stay up-to-date, visit our website. LinkedIn.
Read also: Certified Grains – Sustainability and safety.
References for this article:
FAO, RODALE, EMBRAPA, FoodChain ID, ProTerra Standard.
