Over the centuries, the populations of human beings settled in the surroundings of water tributaries have indiscriminately disposed of their waste, throwing it into rivers, lakes, oceans, and surrounding land. When the amounts of waste, mostly biodegradable, are low, the environmental consequences and the health of biotic communities are minimal. However, the mass manufacture and disposal of non- biodegradable synthetic materials since the mid-20th century has had profound biological and environmental effects. Plastics are the most significant example of these ubiquitous synthetic materials, usually single-use, non-biodegradable and with high amounts of toxic chemical additives. Due to the high stability and resistance of plastic, it is impossible to quickly bind it in processes that allow its degradation and decomposition; for this reason, they have become half of the waste that exists on the planet today. The drift of these materials leads them, under ambient conditions, to gradually fragment into particles reaching the scales of micrometers and nanometers. These particles have been categorized as incidental contaminants: micro and nanoplastics. Today, the world is witnessing the nanotechnology boom and more and more industries are interested in the use of this emerging technology; They intentionally produce micro and nanoplastics to be incorporated into cosmetic products, textile fibers, among many other purposes. The contamination of these plastic particles of imperceptible dimensions, reaches food for human consumption through persistence in ecosystems and bioaccumulation, through different routes of exposure, mainly through ingestion in the different chains that make up the global trophic web, in addition, of the migration of the material used for the storage, preservation and packaging of food. When ingested, nanoplastics and some microplastics cross physical epithelial barriers and are distributed throughout the body, entering practically all body tissues, altering their function and increasing the disease burden of biotic communities, including humans. As they are considered inert and heterogeneous materials, their identification and recovery are complex, in addition to not being completely effective. This paper seeks to review information that allows evaluating the impact of nanoplastics present in food, highlighting the toxic effects that these materials have for human health through bioaccumulation and biomagnification in food chains at the subcellular biomolecular level and, on the other hand, describe recovery techniques for nanoplastics to reduce their presence in food. [ABSTRACT FROM AUTHOR]