The crop input industry is accelerating the development of formulations designed to improve treatment performance, reduce losses and make better use of every resource involved in an application. Our review of market data, technical information and technology developments across the sector shows that innovation is no longer focused only on discovering new active ingredients. Increasingly, it is about making existing tools work better - improving delivery to the target while using water, crop protection products, fuel and valuable field time more efficiently.

The technologies we reviewed point to a broader shift across crop protection products, adjuvants, fertilizers, biostimulants and biologicals. The concept sounds straightforward, but the science behind it is becoming increasingly sophisticated. Knowing how much active ingredient a product contains is no longer enough. Particle and droplet size, dispersion, tank-mix behavior, compatibility, deposition and penetration can all influence performance. Ultimately, the key question is how much of what leaves the spray system actually reaches the intended target and performs its agronomic function.

Biologicals

Biologicals Gain Ground in Latin America, but Where Do They Really Fit in the Grower's Toolbox?

From Applying More Product to Making Every Droplet Work Harder

One of the most important shifts involves delivery efficiency. During a foliar application, part of a product's potential can be lost before reaching its target through spray drift, evaporation, bounce, runoff, inadequate coverage or poor penetration. New formulations and advanced adjuvant technologies are being designed to address those weak points by improving coverage, retention and uptake while limiting excessively fine droplets. That becomes increasingly important as agriculture moves toward low-volume spraying, precision application and unmanned aerial systems.

Technical trials included in our review illustrate the challenge. Evaluations involving adjuvants for aerial applications showed that these technologies can produce a more uniform droplet-size distribution, reduce fine droplets, increase spray-solution viscoelasticity and improve deposition. The agronomic takeaway is significant: application efficiency is not determined only by how much product is sprayed, but by how much reaches the target and remains there under conditions that allow it to work effectively.

What Next-Generation Formulations Are Trying to Improve

Source: AgroLatam analysis based on technical information and technology developments across the agricultural formulation industry.

Lower use rates for certain formulation components represent another area of innovation. Among the technologies reviewed is Sovinol A010, designed to operate at a 0.03% target concentration. Its development is focused on spreading, adhesion, penetration and rainfastness. Beyond this particular product, the broader technological direction is what matters: achieving specific agronomic functions with smaller quantities of auxiliary components while maintaining the performance required under field conditions.

This trend becomes particularly relevant with the expansion of low-volume spraying and agricultural drones. Unmanned aerial applications can require much lower water volumes and higher concentrations in the spray solution, placing additional demands on stability, compatibility, droplet formation and coverage. Under those conditions, formulation technology is no longer a secondary consideration. It becomes part of the application system itself, helping determine whether new equipment can improve operational efficiency without compromising crop protection performance.

Technologies Targeting Greater Application Efficiency

Source: AgroLatam analysis based on technical information provided by technology developers and companies across the sector.

Concentrates, Biologicals and AI Are Changing How Crop Inputs Are Designed

Market data also illustrate the scale and complexity of agricultural formulation technology. The S&P Global Agrochemical Market Data database considered in our review includes more than 16,900 brands, 790 active ingredients, 70 countries and over 70 formulation types. The available information represents an estimated 60% to 70% of the global agrochemical market. At the same time, the market remains highly concentrated: in 2024, the ten leading formulation types represented 88.4% of the value analyzed, while another 64 categories accounted for 11.6%.

Within this transition, water-based formulations, highly concentrated products and controlled-release systems are gaining attention. Environmental and regulatory pressures are encouraging technologies that combine performance with improved safety and sustainability profiles. Concentration also has a logistical dimension. Moving more active material in less total volume can potentially reduce packaging requirements, storage needs and transportation loads - factors that matter across large agricultural markets where enormous quantities of crop inputs move through the supply chain each season.

Major Trends Reshaping Agricultural Formulations

Source: AgroLatam analysis based on S&P Global market data and technical information reviewed across the industry.

Efficiency is not limited to crop protection spraying. Technologies reviewed also include formulations intended to improve nutrient-use efficiency and plant physiological response, including combinations involving sulfur, boron, zinc, molybdenum and free amino acids. When agronomically appropriate, integrating different treatments into already scheduled field operations can also produce an operational benefit: fewer passes across the field can mean lower fuel use, less traffic and soil compaction, and better use of increasingly narrow application windows.

Humic-based technologies add another dimension. Technical diagrams analyzed in our review show interactions involving soil structure, water retention and cation-exchange capacity, all closely connected with nutrient availability. In this context, formulation is no longer simply a carrier for an ingredient. It can become part of a system designed to manage interactions among nutrients, minerals, microorganisms and water - an increasingly important challenge as biological products and biostimulants expand within commercial agriculture.

Artificial intelligence is also beginning to enter formulation development. SINVOCHEM plans to bring an automated high-throughput platform for formulation development and evaluation into operation by the end of 2026. According to the company's own projections, the system could increase R&D efficiency by two to four times. That figure should be viewed as a company estimate, but the direction is noteworthy: computational tools can increasingly connect composition, interfacial properties, particle size and expected performance before researchers multiply physical experiments.

For the United States, these developments intersect with several pressures already shaping commercial agriculture: the need to control production costs, make better use of increasingly sophisticated application equipment, manage resistance and obtain more value from each field operation. Precision sprayers, variable-rate technologies and drones can improve how inputs are delivered, but their potential depends partly on whether formulations can perform consistently under different water volumes, tank mixtures, environmental conditions and application systems.

There is an important limitation, however. There is no universal formulation that performs equally well everywhere. Climate, crop, target pest, water quality, equipment and application method can alter performance substantially. Technologies developed for high-volume ground spraying may behave differently in low-volume aerial applications, while products intended for humid environments may prioritize rainfastness and persistence differently from those used under drier conditions. Formulation efficiency therefore has to be demonstrated under real commercial conditions rather than assumed from laboratory performance alone.

That may ultimately be the biggest test for this new generation of crop input technologies. Producing more with less does not simply mean reducing rates. It means increasing the proportion of every resource that produces the intended agronomic result. Water, active ingredients, fuel, machinery and labor all carry economic and environmental costs. Reducing unnecessary losses while maintaining or improving performance could become one of the most important sources of efficiency available to farmers.

Our review of the technologies reshaping agricultural formulations points to a clear direction: the next productivity gains may come not only from discovering new active ingredients, but also from making existing crop protection and plant health tools work substantially better. Concentrated formulations, advanced adjuvants, stabilized biologicals, controlled-release technologies and AI-assisted development are shifting the conversation away from how much product is applied toward a more consequential question for U.S. farmers and crop advisers: how much of every application actually goes to work in the field?