Advances in two‐dimensional engineered nanomaterials applications for the agro‑ and food‐industries

Abstract

Two‐dimensional nanomaterials, such as graphene, transition metal dichalcogenides, MXenes, and other layered compounds, are the subject of intense theoretical and experimental research for applications in a wide range of advanced technological solutions, given their outstanding physical, chemical, and mechanical properties. In the context of food science and technology, their contributions are starting to appear, based on the advantages that two‐dimensional nanostructures offer to agricultural‑ and food‐related key topics, such as sustainable water use, nano‐agrochemicals, novel nanosensing devices, and smart packaging technologies. These application categories facilitate the grasping of the current and potential uses of such advanced nanomaterials in the field, backed by their advantageous physical, chemical, and structural properties. Developments for water cleaning and reuse, efficient nanofertilizers and pesticides, ultrasensitive sensors for food contamination, and intelligent nanoelectronic disposable food packages are among the most promising application examples reviewed here and demonstrate the tremendous impact that further developments would have in the area as the fundamental and applied research of two‐dimensional nanostructures continues. We expect this work will contribute to a better understanding of the promising characteristics of two‐dimensional nanomaterials that could be used for the design of novel and feasible solutions in the agriculture and food areas. © 2023 Society of Chemical Industry.

The potential contribution of nanocarbon to fostering sustainable agriculture for future generations

“…Nanocarbon-based smart delivery systems utilize the unique properties of nanocarbon materials to deliver various substances, such as drugs, nutrients, or pesticides, in a controlled and targeted manner. These systems respond to specific environmental cues or stimuli to release their payloads, improving efficiency, reducing waste, and minimizing adverse effects [26,27] . While nanocarbon-based smart delivery systems hold promise, challenges like precise control of release, potential toxicity, and regulatory approval need to be addressed.…”