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新型Miscanthus杂交:在欧洲边缘土地上的生产率建模,使用由光线拦截决定的树冠发展动态

Anita Shepherd¹, Danny Awty-Carroll², Jason Kam³

¹Biological Sciences University of Aberdeen Aberdeen, Scotland UK.

Global change biology. Bioenergy

|March 20, 2024

概括

新的生物质作物混合体显示出欧洲在生物能源和碳捕获方面的巨大潜力. 种子传播的杂交杂草提供了一个有前途的可再生能源替代品,特别是有支持性政策.

科学领域:

农业科学和生物能源研究.
生物质作物发展和产量预测建模.

背景情况:

战略土地利用规划需要准确的生物质产量预测新作物杂交.
现有的模型通常依赖于复杂的叶面积测量来拦截辐射.

研究的目的:

开发和应用一个生物质增长模拟模型,使用简化的光拦截测量.
预测2020-2030年新的miscanthus杂交的欧洲生物质潜力.

主要方法:

集成的辐射拦截和转换效率变成生物质生长模拟.
利用低成本的线路测量仪测量用于光拦截动态.
校准模型使用农场数据从作物在生产率较低的土地.

主要成果:

预计欧洲生物质潜力为80.7-89.7万/年,从10%的土地利用转换.
估计每年1.2-1.3 EJ的能源和每年36.3-40.3万的碳捕获潜力.
种植的 *Miscanthus sacchariflorus × sinensis* 杂交物显示出最高的产量潜力.

结论:

种子传播的杂交杂草提供了可行的可再生能源,特别是考虑到当前的能源挑战.
对种植者的激励措施可以提高这些先进杂交品的产品可用性和生物质产量.
模型预测是保守的,反映了对具有土壤水资源赤字的生产力较低的土地的校准.

关键词:

生物质的生物质是生物质.吸收光线吸收光线的情况截获光线的拦截方式这就是Miscanthus.花糖 (sacchariflorus) 是一种含有的糖.有种子的混合杂交.模拟模拟是指一个模拟模拟.这就是"sinensis sinensis"的意思.

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