Controlled-release biopesticide nanohybrid formulation using nano-mineral delivery carriers

Technology
Conceptual
University

A nano-mineral-based delivery platform for biopesticides that enables controlled, smart release while improving photo- and thermal stability of active ingredients. The technology offers a low-cost, scalable, and biodegradable alternative to chemical pesticides, with potential to supply beneficial nutrients and reduce environmental damage.

Overview

Biopesticides offer a safer alternative to synthetic chemical pesticides, but their effectiveness is often limited by rapid degradation and instability after application. This solution addresses that challenge by combining biopesticides with nano-mineral carriers to create a controlled-release nanohybrid formulation. The approach aims to reduce premature loss of active ingredients, enable smart release in response to environmental conditions, and simultaneously deliver beneficial nutrients to host plants. By improving the stability and efficacy of biopesticides, the technology supports more sustainable pest management and reduces environmental damage associated with conventional pesticide use.

Technical specifications
  • Nano-mineral carrier platform: Utilizes mineral-based nanomaterials as delivery carriers, selected for their low cost, ease of synthesis, and ability to biodegrade into beneficial elements.
  • One-pot synthesis: Preliminary experiments demonstrate that biopesticide and mineral nanohybrids can be produced through a simple, scalable one-pot preparation method.
  • Functionalization for tunable release: Surface functionalization allows adjustment of release properties to match target pest control scenarios.
  • Enhanced stability: Loaded active ingredients show significantly improved photo- and thermal stability compared to free biopesticides.
  • Dual functionality: The formulation combines pest control with nutrient supply, offering agronomic benefits beyond pest management.
Technology readiness level

The technology is at an early-to-mid stage of development. Preliminary laboratory validation has confirmed the feasibility of the one-pot nanohybrid synthesis and demonstrated enhanced stability of active ingredients. Future work will focus on optimizing loading capacity and release properties through varied preparation methods, comprehensive physicochemical characterization, and tuning of structural and functional properties to improve bio-interactions with target pests and host plants. Field trials are planned to evaluate environmental fate and real-world pest control efficacy.


About China Agricultural University

China Agricultural University is a leading public research university in Beijing that specializes in agriculture while drawing on broad cross‑disciplinary capacity. Industry collaborates through experimental farms and field stations for piloting and validation, and through a university science park that hosts a platform for showcasing and transacting research outputs. The university’s Science and Technology Backyard model embeds researchers in rural cooperatives, accelerating adoption and supply‑chain impact. Research is supported by competitive funding from national agencies such as the National Natural Science Foundation of China and the Ministry of Science and Technology, along with Ministry of Education and regional programs. A dedicated technology transfer office advances IP protection, licensing, and partnerships within the science park.

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