自然(考古学)
天体生物学
纳米技术
土(古典元素)
地球科学
环境科学
材料科学
地质学
生物
物理
数学物理
古生物学
作者
Michael F. Hochella,David W. Mogk,James F. Ranville,Irving C. Allen,George W. Luther,Linsey C. Marr,B. Peter McGrail,Mitsuhiro Murayama,Nikolla Qafoku,Kevin M. Rosso,Nita Sahai,Paul A. Schroeder,Peter J. Vikesland,Paul Westerhoff,Yi Yang
出处
期刊:Science
[American Association for the Advancement of Science]
日期:2019-03-28
卷期号:363 (6434)
被引量:619
标识
DOI:10.1126/science.aau8299
摘要
Nanomaterials are critical components in the Earth system's past, present, and future characteristics and behavior. They have been present since Earth's origin in great abundance. Life, from the earliest cells to modern humans, has evolved in intimate association with naturally occurring nanomaterials. This synergy began to shift considerably with human industrialization. Particularly since the Industrial Revolution some two-and-a-half centuries ago, incidental nanomaterials (produced unintentionally by human activity) have been continuously produced and distributed worldwide. In some areas, they now rival the amount of naturally occurring nanomaterials. In the past half-century, engineered nanomaterials have been produced in very small amounts relative to the other two types of nanomaterials, but still in large enough quantities to make them a consequential component of the planet. All nanomaterials, regardless of their origin, have distinct chemical and physical properties throughout their size range, clearly setting them apart from their macroscopic equivalents and necessitating careful study. Following major advances in experimental, computational, analytical, and field approaches, it is becoming possible to better assess and understand all types and origins of nanomaterials in the Earth system. It is also now possible to frame their immediate and long-term impact on environmental and human health at local, regional, and global scales.
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