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国际研究提出海洋酸化应对框架 快报文章
资源环境快报,2023年第07期
作者:  薛明媚,王金平
Microsoft Word(16Kb)  |  收藏  |  浏览/下载:548/0  |  提交时间:2023/04/15
Ocean Acidification  Assessment Framework  Australia  
在全球范围监测海洋酸化影响的新方法 快报文章
资源环境快报,2023年第3期
作者:  薛明媚,王金平
Microsoft Word(18Kb)  |  收藏  |  浏览/下载:695/0  |  提交时间:2023/02/16
Ocean Acidification,SDGs,Ocean Biology  
拜登政府发布加强海洋科技合作的重要领域 快报文章
资源环境快报,2022年第21期
作者:  薛明媚,王金平
Microsoft Word(17Kb)  |  收藏  |  浏览/下载:591/0  |  提交时间:2022/11/17
Ocean Science and Technology  Ocean Acidification  Ocean Exploration  
新研究揭示复合型极端事件对海洋的影响 快报文章
资源环境快报,2022年第16期
作者:  薛明媚,王金平
Microsoft Word(16Kb)  |  收藏  |  浏览/下载:514/0  |  提交时间:2022/08/31
Marine Heatwave  Ocean Acidification  Compound Extreme Events  
Nature:海洋酸化导致硅藻数量减少 快报文章
资源环境快报,2022年第11期
作者:  薛明媚,王金平
Microsoft Word(15Kb)  |  收藏  |  浏览/下载:674/0  |  提交时间:2022/06/16
Ocean Acidification  Diatom  Primary Productivity  
英国研究指出塑料污染和海洋酸化导致南极磷虾种群减少 快报文章
资源环境快报,2021年第16期
作者:  薛明媚,吴秀平
Microsoft Word(16Kb)  |  收藏  |  浏览/下载:708/0  |  提交时间:2021/09/01
Antarctic Krill  Plastic Pollution  Ocean Acidification  
美科学家分析大河口酸化的驱动因素 快报文章
资源环境快报,2021年第13期
作者:  吴秀平
Microsoft Word(14Kb)  |  收藏  |  浏览/下载:459/0  |  提交时间:2021/07/16
Estuaries  Acidification  The driving factor  
因热压力而白化的珊瑚对海洋酸化的抵抗力也较弱 快报文章
资源环境快报,2021年第2期
作者:  薛明媚,吴秀平
Microsoft Word(21Kb)  |  收藏  |  浏览/下载:477/0  |  提交时间:2021/01/29
Bleached Coral  Ocean Acidification  Heat Stress  
美国发布《海洋、沿海及大湖区酸化研究计划2020—2029》 快报文章
资源环境快报,2020年第15期
作者:  王金平,薛明媚
Microsoft Word(25Kb)  |  收藏  |  浏览/下载:368/1  |  提交时间:2020/08/16
The ocean  The great lakes  acidification  
Potential for large-scale CO2 removal via enhanced rock weathering with croplands 期刊论文
NATURE, 2020, 583 (7815) : 242-+
作者:  David J. Beerling;  Euripides P. Kantzas;  Mark R. Lomas;  Peter Wade;  Rafael M. Eufrasio;  Phil Renforth;  Binoy Sarkar;  M. Grace Andrews;  Rachael H. James;  Christopher R. Pearce;  Jean-Francois Mercure;  Hector Pollitt;  Philip B. Holden;  Neil R. Edwards;  Madhu Khanna;  Lenny Koh;  Shaun Quegan;  Nick F. Pidgeon;  Ivan A. Janssens;  James Hansen;  Steven A. Banwart
收藏  |  浏览/下载:18/0  |  提交时间:2020/07/14

Enhanced silicate rock weathering (ERW), deployable with croplands, has potential use for atmospheric carbon dioxide (CO2) removal (CDR), which is now necessary to mitigate anthropogenic climate change(1). ERW also has possible co-benefits for improved food and soil security, and reduced ocean acidification(2-4). Here we use an integrated performance modelling approach to make an initial techno-economic assessment for 2050, quantifying how CDR potential and costs vary among nations in relation to business-as-usual energy policies and policies consistent with limiting future warming to 2 degrees Celsius(5). China, India, the USA and Brazil have great potential to help achieve average global CDR goals of 0.5 to 2gigatonnes of carbon dioxide (CO2) per year with extraction costs of approximately US$80-180 per tonne of CO2. These goals and costs are robust, regardless of future energy policies. Deployment within existing croplands offers opportunities to align agriculture and climate policy. However, success will depend upon overcoming political and social inertia to develop regulatory and incentive frameworks. We discuss the challenges and opportunities of ERW deployment, including the potential for excess industrial silicate materials (basalt mine overburden, concrete, and iron and steel slag) to obviate the need for new mining, as well as uncertainties in soil weathering rates and land-ocean transfer of weathered products.