Next-Generation Nanotechnology for Precision and Sustainable Malaria Control

Malaria remains a major global health challenge, particularly in tropical and subtropical regions where Plasmodiumparasites are transmitted by Anopheles mosquitoes. Although significant progress has been achieved through insecticide-treated nets, indoor residual spraying, and antimalarial drug therapies, current malaria control strategies face growing obstacles. The rapid emergence of insecticide-resistant mosquito vectors, multidrug-resistant Plasmodium strains, and climate-driven shifts in transmission dynamics are threatening the effectiveness of conventional interventions. Additionally, widespread chemical insecticide use raises environmental and ecological concerns. Nanotechnology offers promising solutions to address these challenges by enabling precision-targeted vector control, enhanced drug delivery systems, and highly sensitive diagnostic platforms. Engineered nanomaterials can improve efficacy, reduce toxicity, and provide controlled release of active agents. As such, nanotechnology is emerging as a transformative tool for developing innovative, sustainable, and efficient strategies to support global malaria control and elimination efforts.The goal of this Research Topic is to advance next-generation nanotechnology approaches for precision and sustainable malaria control. By bringing together interdisciplinary research from nanoscience, parasitology, materials science, and public health, this collection aims to explore innovative strategies capable of overcoming the growing limitations of traditional malaria interventions. Particular emphasis is placed on the development of smart nanomaterials and nano-enabled technologies that improve the targeting, efficacy, and safety of malaria control tools. These include nanocarriers for targeted antimalarial drug delivery, nano-encapsulated insecticides designed to overcome resistance mechanisms, and highly sensitive nanobiosensors for rapid malaria diagnosis at the point of care.Another important objective is to promote environmentally sustainable and biodegradable nanomaterials that minimize ecological impact while maintaining high effectiveness against mosquito vectors and Plasmodium parasites. This Research Topic also aims to bridge the gap between laboratory innovation and real-world application by encouraging studies focused on translational development, field validation, and scalable deployment strategies. Ultimately, the collection seeks to highlight how nanotechnology can serve as a powerful precision tool to accelerate progress toward global malaria elimination goals.This Research Topic welcomes original research articles, reviews, and perspectives that explore innovative nanotechnology-based solutions for malaria prevention, diagnosis, and treatment. Contributions may focus on the development of smart and stimuli-responsive nanomaterials for mosquito vector control, resistance-breaking nanoformulations, and nano-enabled insecticides designed to enhance efficacy and reduce environmental impact. Studies involving nanobiosensors and AI-integrated diagnostic platforms for rapid and early detection of Plasmodiuminfections are also encouraged.Additional areas of interest include targeted nanocarriers for antimalarial drug delivery, nano-enabled transmission-blocking strategies, and biodegradable or green-synthesized nanomaterials for eco-safe vector management. The Topic particularly encourages interdisciplinary and translational research, including field validation studies, deployment models, sustainability assessments, and regulatory considerations for nano-based malaria interventions. Together, these contributions will help advance scalable and environmentally responsible technologies for next-generation malaria control. Topic editors: Ganesh Gollavelli, Yong-Chien Ling, Raviraj Vankayala Source: https://www.frontiersin.org/research-topics/79095/next-generation-nanotechnology-for-precision-and-sustainable-malaria-control