Drought-tolerant succulent plants as an alternative crop under future global warming scenarios in sub-Saharan Africa

IF 5.9 3区 工程技术 Q1 AGRONOMY Global Change Biology Bioenergy Pub Date : 2023-08-28 DOI:10.1111/gcbb.13095
Catherine E. Buckland, David S. G. Thomas, Jonas Jägermeyr, Christoph Müller, J. Andrew C. Smith
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引用次数: 1

Abstract

Globally, we are facing an emerging climate crisis, with impacts to be notably felt in semiarid regions across the world. Cultivation of drought-adapted succulent plants has been suggested as a nature-based solution that could: (i) reduce land degradation, (ii) increase agricultural diversification and provide both economic and environmentally sustainable income through derived bioproducts and bioenergy, (iii) help mitigate atmospheric CO2 emissions and (iv) increase soil sequestration of CO2. Identifying where succulents can grow and thrive is an important prerequisite for the advent of a sustainable alternative ‘bioeconomy’. Here, we first explore the viability of succulent cultivation in Africa under future climate projections to 2100 using species distribution modelling to identify climatic parameters of greatest importance and regions of environmental suitability. Minimum temperatures and temperature variability are shown to be key controls in defining the theoretical distribution of three succulent species explored, and under both current and future SSP5 8.5 projections, the conditions required for the growth of at least one of the species are met in most parts of sub-Saharan Africa. These results are supplemented with an analysis of potentially available land for alternative succulent crop cultivation. In total, up to 1.5 billion ha could be considered ecophysiologically suitable and available for succulent cultivation due to projected declines in rangeland biomass and yields of traditional crops. These findings may serve to highlight new opportunities for farmers, governments and key stakeholders in the agriculture and energy sectors to invest in sustainable bioeconomic alternatives that deliver on environmental, social and economic goals.

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在未来全球变暖的情景下,撒哈拉以南非洲地区作为替代作物的耐旱多肉植物
在全球范围内,我们正面临一场新出现的气候危机,其影响在世界各地的半干旱地区尤为明显。种植耐旱多肉植物被认为是一种基于自然的解决方案,可以:(i)减少土地退化,(ii)增加农业多样化,并通过衍生的生物产品和生物能源提供经济和环境可持续的收入,(iii)帮助减少大气中的二氧化碳排放,(iv)增加土壤中二氧化碳的固存。确定多肉植物在哪里生长和茁壮成长是可持续替代“生物经济”出现的重要先决条件。在这里,我们首先探讨了在2100年前的未来气候预测下,非洲多肉栽培的可行性,使用物种分布模型来确定最重要的气候参数和环境适宜性区域。最低温度和温度变异性被证明是确定所探索的三种多肉物种理论分布的关键控制因素,根据目前和未来的SSP5 8.5预测,在撒哈拉以南非洲的大部分地区,至少有一种物种的生长条件得到了满足。对这些结果进行了补充,分析了可能用于替代多肉作物种植的土地。总计,高达1.5 十亿 由于牧场生物量和传统作物产量预计会下降,ha在生态生理上可以被认为适合并可用于多肉栽培。这些发现可能有助于突出农民、政府和农业和能源部门的主要利益相关者投资于可持续生物经济替代品的新机会,以实现环境、社会和经济目标。
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来源期刊
Global Change Biology Bioenergy
Global Change Biology Bioenergy AGRONOMY-ENERGY & FUELS
CiteScore
10.30
自引率
7.10%
发文量
96
审稿时长
1.5 months
期刊介绍: GCB Bioenergy is an international journal publishing original research papers, review articles and commentaries that promote understanding of the interface between biological and environmental sciences and the production of fuels directly from plants, algae and waste. The scope of the journal extends to areas outside of biology to policy forum, socioeconomic analyses, technoeconomic analyses and systems analysis. Papers do not need a global change component for consideration for publication, it is viewed as implicit that most bioenergy will be beneficial in avoiding at least a part of the fossil fuel energy that would otherwise be used. Key areas covered by the journal: Bioenergy feedstock and bio-oil production: energy crops and algae their management,, genomics, genetic improvements, planting, harvesting, storage, transportation, integrated logistics, production modeling, composition and its modification, pests, diseases and weeds of feedstocks. Manuscripts concerning alternative energy based on biological mimicry are also encouraged (e.g. artificial photosynthesis). Biological Residues/Co-products: from agricultural production, forestry and plantations (stover, sugar, bio-plastics, etc.), algae processing industries, and municipal sources (MSW). Bioenergy and the Environment: ecosystem services, carbon mitigation, land use change, life cycle assessment, energy and greenhouse gas balances, water use, water quality, assessment of sustainability, and biodiversity issues. Bioenergy Socioeconomics: examining the economic viability or social acceptability of crops, crops systems and their processing, including genetically modified organisms [GMOs], health impacts of bioenergy systems. Bioenergy Policy: legislative developments affecting biofuels and bioenergy. Bioenergy Systems Analysis: examining biological developments in a whole systems context.
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