Barrier Capacity of Human Placenta for Nanosized Materials
Author(s) -
Peter Wick,
Antoine Malek,
Pius Manser,
Danielle Meili,
Xenia Maeder-Althaus,
Liliane Diener,
PierreAndré Diener,
Andreas H. Zisch,
Harald F. Krug,
Ursula von Mandach
Publication year - 2009
Publication title -
environmental health perspectives
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 2.257
H-Index - 282
eISSN - 1552-9924
pISSN - 0091-6765
DOI - 10.1289/ehp.0901200
Subject(s) - transplacental , placenta , nanoparticle , fetus , ultrafine particle , nanotechnology , intervillous space , microplastics , chemistry , pregnancy , biophysics , materials science , medicine , biology , environmental chemistry , genetics
Humans have been exposed to fine and ultrafine particles throughout their history. Since the Industrial Revolution, sources, doses, and types of nanoparticles have changed dramatically. In the last decade, the rapidly developing field of nanotechnology has led to an increase of engineered nanoparticles with novel physical and chemical properties. Regardless of whether this exposure is unintended or not, a careful assessment of possible adverse effects is needed. A large number of projects have been carried out to assess the consequences of combustion-derived or engineered nanoparticle exposure on human health. In recent years there has been a growing concern about the possible health influence of exposure to air pollutants during pregnancy, hence an implicit concern about potential risk for nanoparticle exposure in utero. Previous work has not addressed the question of whether nanoparticles may cross the placenta.
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