Article
?
AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button.
Tier 2
?
Original research — experimental, observational, or case-control study. Direct primary evidence.
Human Health Effects
Nanoplastics
Sign in to save
Assessing implications of nanoplastics exposure to plants with advanced nanometrology techniques
Journal of Hazardous Materials2022
51 citations
?
Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count.
Score: 55
?
0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Mohammad Wazne,
Mohammad Wazne,
Mohammad Wazne,
Mohammad Wazne,
Mohammad Wazne,
Denise M. Mitrano
Mohammad Wazne,
Mohammad Wazne,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Mohammad Wazne,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
A. Real,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Mohammad Wazne,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Mohammad Wazne,
Denise M. Mitrano
Géraldine Sarret,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
A. Real,
A. Real,
Mohammad Wazne,
Denise M. Mitrano
Denise M. Mitrano
Hiram Castillo‐Michel,
Hiram Castillo‐Michel,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Mohammad Wazne,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Mohammad Wazne,
Denise M. Mitrano
Denise M. Mitrano
A. Real,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Hiram Castillo‐Michel,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Juan Reyes-Herrera,
Denise M. Mitrano
Emely Bortel,
Denise M. Mitrano
Denise M. Mitrano
Mohammad Wazne,
Julie Villanova,
Denise M. Mitrano
Emely Bortel,
Bernhard Hesse,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Julie Villanova,
Denise M. Mitrano
Géraldine Sarret,
Denise M. Mitrano
Denise M. Mitrano
Mohammad Wazne,
Denise M. Mitrano
Bernhard Hesse,
Denise M. Mitrano
Denise M. Mitrano
Mohammad Wazne,
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Denise M. Mitrano
Summary
Researchers exposed wheat plants to palladium-doped nanoplastics in hydroponic conditions and used advanced imaging techniques to track their uptake. They found that nanoplastics accumulated on root surfaces and were taken up into root tissues, with some translocation to the shoots. The study provides quantitative evidence that nanoplastics can enter the food chain through plant uptake from contaminated growing environments.
Despite the increasing attention given to the impacts of nanoplastics in terrestrial environments, there is limited data about the effects on plants, and the quantitative information on uptake. In the present study, wheat plants grown in hydroponics were exposed to Pd-doped nanoplastics. This allowed us to quantify nanoplastics uptake and translocation to the shoots. Visualization of nanoplastics in roots was performed with synchrotron micro X-ray fluorescence (µXRF). Nanoplastics accumulated on the root epidermis, especially at the root tip and in root maturation zones. A close relationship between plant roots, rhizodeposits and nanoplastics behaviour was shown. Reinforcement of the cell wall in roots was evidenced using Fourier transform infrared spectroscopy (FTIR) and synchrotron-computed microtomography (µCT). Synchrotron-computed nanotomography (nanoCT) evidenced the presence of globular structures but they could not be identified as nanoplastics since they were observed both in the control and treated roots. By utilizing the inorganic tracer in the doped-nanoplastics, this study paves the road for elucidating interactions in more complex systems by using an integrative approach combining classical phytotoxicity markers with advanced nanometrology techniques.