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从水下油释放中估算液滴尺寸的模型评估。

An evaluation of models that estimate droplet size from subsurface oil releases.

机构信息

Kensington, CA 94708, United States.

Massachusetts Institute of Technology, Cambridge, MA 02139, United States.

出版信息

Mar Pollut Bull. 2021 Feb;163:111932. doi: 10.1016/j.marpolbul.2020.111932. Epub 2021 Jan 5.

Abstract

Droplet size substantially affects the fate of oil released from deep subsea leaks. A baseline dataset of volume-median droplet diameters (d), culled from ~250 laboratory observations, is used to validate seven droplet-size models. Four models compare reasonably well, having 95% confidence limits in d of ~±50%. Simulations with a near-field fate model (TAMOC) reveals that the four best-performing models, with d of 1.3-2.2 mm, agree similarly with observed fractionation of petroleum compounds in the water column during June 4-July 15, 2010. Model results suggest that, had a higher dose of dispersant been applied at the wellhead during Deepwater Horizon oil spill (DWH), the d would have dropped by an order of magnitude, reducing surfacing C-C volatiles by 3.5×. Model uncertainty is found to be substantial for DWH-like blowouts treated with chemical dispersants, suggesting the need for further droplet-size model improvement.

摘要

液滴尺寸对深海泄漏释放的石油的命运有很大影响。从大约 250 个实验室观测中筛选出体积中值液滴直径(d)的基线数据集,用于验证七种液滴尺寸模型。其中四个模型比较吻合,置信限为 95%,d 的误差约为 ±50%。使用近场命运模型(TAMOC)进行的模拟表明,在 2010 年 6 月 4 日至 7 月 15 日期间,d 值为 1.3-2.2mm 的四个表现最佳的模型与观测到的石油化合物在水柱中的分馏情况相似。模型结果表明,如果在深海地平线(DWH)溢油事件期间在井口使用更高剂量的分散剂,d 值将下降一个数量级,使挥发性碳-碳化合物减少 3.5 倍。对于使用化学分散剂处理的类似 DWH 式的井喷,模型不确定性很大,这表明需要进一步改进液滴尺寸模型。

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