Agriculture faces the challenge of producing more food with fewer resources, in a context of climate change that is redefining how to farm.
In countries like Peru, where glaciers have lost nearly 40% of their surface area since 1970 and rice yields are projected to fall by up to 30% by 2050, climate impact and the overuse of agrochemicals have become a direct threat to food security and agricultural profitability.
But scientific innovation offers a concrete answer: biostimulant elicitors, a new generation of solutions that allow for the reduction of agrochemicals without sacrificing productivity.
The problem of the excessive use of agrochemicals
For decades, conventional agriculture has relied on synthetic fertilizers and pesticides to sustain production.
While they were key to increasing performance, they also generated serious consequences:
- Soil and water body pollution.
- Loss of biodiversity and decline in pollinators.
- Increasing resistance of pests and diseases.
- Increased production costs.
In crops such as rice, excess agrochemicals reduce soil microbial activity, compact the rhizosphere, and deteriorate the root structure, directly affecting productivity.
Reducing the chemical footprint is not an option: it is a necessity for the survival of the agricultural system.
How do biostimulants contribute to sustainability?
Unlike conventional agrochemicals, biostimulants do not work by destroying pathogens, but by activating the plant's natural physiology.
Our biostimulant elicitors, made from cationic biopolymers and natural saponins using patented processes, optimize three key dimensions:
- Nutritional efficiency: they allow for better nutrient assimilation and reduce the need for chemical fertilization.
- Natural defenses: they stimulate the synthesis of phytoalexins and defense proteins, reducing the use of pesticides.
- Metabolic resilience: they improve tolerance to water, heat and salt stress.
Together, they generate a cumulative effect that improves crop performance and prolongs the shelf life of the fruit , reducing the environmental impact.
Field evidence: real results
Trials in fruit trees, vegetables and grains have shown that biostimulant elicitors can reduce the use of agrochemicals by between 20% and 40%, without compromising production.
The producers report:
- 20–30% increase in Brix degrees, reflecting greater quality and sweetness.
- Up to 60% more production in hydroponic systems.
- Lower mortality in seedlings and transplants.
- Superior uniformity in size and ripening.
NanoAgro's upcoming trial in rice (Peru) with a renowned producer will be a key step in demonstrating the impact of this technology on a globally important crop. The results will be shared on our blog and social media channels.
Practical strategies for producers
- Progressive integration: replaces agrochemicals in specific stages (pre-planting, vegetative growth, maturation).
- Combined applications: alternate foliar and root treatments to maximize the physiological response.
- Technical monitoring: uses metrics such as Brix degrees, root biomass and stress resistance.
- Gradual scalability: start with pilot plots and expand according to results.
Reducing the use of agrochemicals is not only an environmental goal, but also an economic and technological strategy to ensure the future of agriculture.
At NANOAGRO, we are committed to a transition towards science-backed regenerative agriculture, where every drop of biostimulant translates into sustainable productivity.
Coming soon: we will publish visual results of the trial in rice (Peru) with comparative graphs of yield, uniformity and reduction of agrochemicals.
Frequently Asked Questions (FAQ)
Do they completely replace agrochemicals?
No. They function as a smart complement to reduce their use by up to 40%, while maintaining productive balance.
Are they profitable?
Yes. They decrease the costs of agrochemicals and increase the value of the harvest in the first application cycle.
Are they safe?
Absolutely. Formulated with natural ingredients and certified processes, they are non-toxic to humans and beneficial wildlife.
