Chapter 10. Trees have Already been Invented: Carbon in Woodlands

Collabra Pub Date : 2016-12-12 DOI:10.1525/COLLABRA.69
S. Hecht, Keith Pezzoli, S. Saatchi
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引用次数: 4

Abstract

In the developed world, discussions of climate change mitigation and adaptation tend to focus on technological solutions such as decarbonizing electric grids and regulating emissions of methane, black carbon, and so on. However, an often overlooked strategy for reaching greenhouse gas reduction targets in much of the developing world is rooted, not in new technologies, but in vegetation management. Trees and other vegetation absorb carbon as they grow and release carbon when they are burnt, so landscapes function as carbon sinks and carbon storage sites when forests are growing, on one hand, and as carbon sources when forests are cleared, on the other. Since greenhouse gas emissions from such land use changes rival emissions from the entire transport sector, trees and vegetation are essential to efforts to slow and adapt to climate change. Under the right circumstances, vegetation recovery and its carbon uptake occur quickly. Moreover, carbon uptake can be strongly affected by human management of forests; the right kinds of management can improve rates of recovery and carbon sequestration substantially. This chapter reviews carbon dynamics in mature forests, secondary forests, agroforests and tree landscapes in urban areas to point out the variability of these systems and the potential for enhancing carbon uptake and storage. Furthermore, vegetation systems have many additional benefits in the form of other environmental services, such as improving livelihoods, subsistence insurance habitat, microclimates, and water systems. Finally, by managing forests better, we can also make significant contributions to climate justice because most global forests and forested landscapes are under the stewardship of small holders.
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第十章。树木已经被发明了:林地中的碳
在发达国家,关于减缓和适应气候变化的讨论往往侧重于技术解决方案,如使电网脱碳和调节甲烷、黑碳的排放等。然而,在许多发展中国家实现温室气体减排目标的一个经常被忽视的战略植根于植被管理而不是新技术。树木和其他植被在生长过程中吸收碳,在燃烧过程中释放碳,因此,一方面,当森林生长时,景观是碳汇和碳储存场所,另一方面,当森林被砍伐时,景观是碳源。由于这种土地利用变化产生的温室气体排放与整个运输部门的排放相当,树木和植被对于减缓和适应气候变化的努力至关重要。在适当的环境下,植被恢复和碳吸收速度很快。此外,人类对森林的管理会严重影响碳吸收;正确的管理可以大大提高回收率和碳固存率。本章回顾了城市地区成熟森林、次生林、农林复合林和树木景观的碳动态,指出这些系统的可变性以及加强碳吸收和储存的潜力。此外,植被系统还具有其他环境服务形式的许多额外效益,如改善生计、生存保险、栖息地、小气候和水系统。最后,通过更好地管理森林,我们还可以为气候正义做出重大贡献,因为全球大多数森林和森林景观都是由小农管理的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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