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Estimation of evapotranspiration fluxes over mustard using a Two-Source Energy Balance model 利用双源能量平衡模型估算芥菜的蒸散通量
Pub Date : 2023-12-01 DOI: 10.2166/wcc.2023.314
Radhika Vala, Manoj M. Lunagaria
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A Two-Source Energy Balance (TSEB) model computes surface energy fluxes using soil surface temperature and canopy temperature. An experiment was carried out in a research farm near the agrometeorological observatory, at Anand, India to parameterize the TSEB model for the mustard (Brassica Juncea) crop, to estimate surface energy fluxes and validate the TSEB-2T model. The TSEB-2T model was validated using net radiation measurements. Results revealed that modeled net radiation under all so

双源能量平衡 (TSEB) 模型利用土壤表面温度和冠层温度计算地表能量通量。在印度阿南德农业气象观测站附近的一个研究农场进行了一项实验,为芥菜(Brassica Juncea)作物的 TSEB 模型设定参数,以估算地表能量通量并验证 TSEB-2T 模型。利用净辐射测量结果对 TSEB-2T 模型进行了验证。结果显示,所有播种下的模型净辐射量都很高。极晚播种的 dr 值相对较高,为 0.61,r 值为 0.78**,RMSE 值较低,为 58.12 Wm-2,MAE 值为 46.47 Wm-2,MBE 值较低,为 1.66。芥菜上的净辐射从 269 到 538 Wm-2 不等,第二个播种期的峰值相对较高。在生长初期和种子发育阶段之后,显热通量相对较高。在芥菜的作物周期中,潜热通量和显热通量呈反向分配模式。在种子萌发阶段之后,地面热通量与净辐射的分配可以忽略不计。在无性繁殖到结荚期,潜热的净辐射分量比显热高。在开花至结荚期,根据模型潜热计算的日蒸散峰值约为 3.7 毫米/天-1。
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引用次数: 0
Spatial disparities and water resource green efficiency improvement potential in the four-city area in middle China 中国中部四城市地区的空间差异与水资源绿色效率提升潜力
Pub Date : 2023-12-01 DOI: 10.2166/wcc.2023.529
Mianhao Hu, Juhong Yuan

To address the dual constraints of resource shortages and environmental degradation, the water resource green efficiency (WRGE) concept, which takes into account socioeconomic and green development, has been adopted as a basis for implementation of cleaner production strategies and sustainable economic development. In the present study, the meta-frontier undesirable super-efficiency slack-based measure (Meta-US-SBM) model, which allows for technological heterogeneity across regions, was employed to estimate WRGE in 38 regions in the four-city area in middle China in 2010–2019, and the technology gaps of different regions and categories were discussed. Subsequently, the improvement potential of WRGE (WEIP) in different regions was mapped using the slacks of water resource ecological footprint input and GDP output obtained using the Meta-US-SBM model. According to the results, the regions with the highest average WRGE under group-frontier and meta-frontier groups were Huangshi and Qianjiang, respectively, whereas the category with the highest average WRGE was EOU (regions where economic benefits outmatch urbanization benefits). Surprisingly, the WRGE technology gaps among different regions and categories showed considerable differences. We observed a negative correlation between WEIP and WRGE. Moreover, there were obvious differences in water resource ecological footprint improvement potential among different regions and categories.

为解决资源短缺和环境退化的双重制约,水资源绿色效率(WRGE)概念兼顾了社会经济和绿色发展,已被采纳为实施清洁生产战略和经济可持续发展的基础。本研究采用元前沿不理想超效率松弛度量(Meta-US-SBM)模型,考虑不同地区的技术异质性,估算了 2010-2019 年中国中部四市 38 个地区的水资源绿色效率,并讨论了不同地区、不同类别的技术差距。随后,利用 Meta-US-SBM 模型得到的水资源生态足迹输入和 GDP 产出的松弛值,绘制了不同地区水资源生态足迹改善潜力图(WEIP)。结果显示,在 "组前沿 "和 "元前沿 "组别中,平均水资源生态足迹最高的地区分别是黄石和潜江,而平均水资源生态足迹最高的组别则是EOU(经济效益大于城市化效益的地区)。令人惊讶的是,不同地区和类别之间的 WRGE 技术差距存在很大差异。我们发现,WEIP 与 WRGE 之间存在负相关。此外,水资源生态足迹改善潜力在不同地区和类别之间存在明显差异。
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引用次数: 0
Eco-efficiency analysis of rainfed and irrigated maize systems in Bosnia and Herzegovina 波斯尼亚和黑塞哥维那雨水灌溉和灌溉玉米系统的生态效益分析
Pub Date : 2023-12-01 DOI: 10.2166/wcc.2023.271
Ivana Mitrović, Mladen Todorović, Mihajlo Marković, Andi Mehmeti
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This study evaluated the eco-efficiency of rainfed and irrigated maize production in Bosnia and Herzegovina. Environmental impact assessments were performed through energy, carbon footprint, and water scarcity footprint analysis. For economic analysis, gross and net returns and benefit–cost ratios were calculated. Eco-efficiency was measured by the ratio between the net return and environmental criteria. The findings indicate that the transition from rainfed to irrigated maize cultivation per uni

查看大幅下载幻灯片查看大幅下载幻灯片 关闭模版本研究评估了波斯尼亚和黑塞哥维那雨水灌溉和灌溉玉米生产的生态效益。环境影响评估通过能源、碳足迹和缺水足迹分析进行。在经济分析方面,计算了总收益和净收益以及收益-成本比率。生态效益通过净收益与环境标准之间的比率来衡量。研究结果表明,从雨水灌溉过渡到灌溉玉米种植,单位土地的产量和总产值提高了 53.7%,但能源投入增加了 69.8%,温室气体排放量增加了 22%,水资源短缺足迹增加了 3.6 倍。虽然灌溉玉米在单位产品高产和低碳足迹之间存在积极联系,但雨水灌溉系统在能源效率、生产率、盈利能力、缺水足迹和整体生态效益方面都更胜一筹。这两种系统都严重依赖不可再生能源,施肥(影响能源和碳足迹)、机械化(影响碳足迹)和灌溉(加剧水资源短缺)是造成负面环境影响的主要因素。对这些投入实施优化战略对于减少环境影响和促进波斯尼亚和黑塞哥维那玉米种植的可持续性至关重要。
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引用次数: 0
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Journal of Water & Climate Change
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