更新后的物理积雪模式SMAP的评价

IF 1 Q4 GEOGRAPHY, PHYSICAL
M. Niwano, T. Aoki, K. Kuchiki, M. Hosaka, Y. Kodama, S. Yamaguchi, H. Motoyoshi, Y. Iwata
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引用次数: 19

摘要

最初为气候研究而设计的一维多层物理积雪模型雪变质和反照率过程(SMAP),现在通过纳入详细的水运动方案、真实的雪沉降过程和理查德森数的限制来更新,以确保即使在高度稳定的大气条件下也能实现最小的湍流交换。利用2007 - 2009年冬季在日本札幌获得的数据对SMAP更新版本进行了评估,并在雪深和雪表面温度方面证明了这些更新版本的有效性。然而,我们指出,最大理查德森数的选择还有待进一步研究。为了检验SMAP在不同气候条件下的可靠性,我们将其应用于2011-2012年冬季日本长冈地区。在长冈,由于研究期间没有地表热通量,我们进行了雪-土耦合模拟。为此,我们开发了SMAP的土壤子模型。因此,我们确认更新版本在长冈的质量平衡模拟方面也比旧版本表现得更好。虽然更新版本模拟的积雪质量平衡相关参数与积累期观测值吻合较好,但在消融期,该模式严重高估了积雪深度和柱积分雪水当量。通过分析这些差异的原因,我们强调了对季节性厚积雪融化过程的进一步研究是必要的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Evaluation of updated physical snowpack model SMAP
The 1D multilayered physical snowpack model Snow Metamorphism and Albedo Process (SMAP), which was originally designed for climate studies, is now updated by incorporating a detailed water movement scheme, realistic snow settlement process and limitation for the Richardson number to ensure minimum turbulent exchanges even under highly stable atmospheric conditions. The evaluation of the updated version of SMAP was first performed using the data obtained at Sapporo, Japan, during the 20072009 winters and the effectiveness of these updates was demonstrated in terms of snow depth and snow surface temperature. However, we pointed out that the choice of maximum Richardson number should be further examined. To test the reliability of SMAP under different climate conditions, we applied it to Naga oka, Japan, during the 2011-2012 winter. At Nagaoka, we performed snow-soil-coupled simulations, because ground heat flux was not available during the study period. For this purpose, we developed a soil submodel for SMAP. Consequently, we confirmed that the updated version performed better than the old version in terms of mass balance simulations at Nagaoka too. Although mass balance-related parameters of the snowpack simulated by the updated version agreed well with observations during the accumulation period, the model substantially overestimated snow depth, as well as column-integrated snow water equivalent during the ablation period. By discussing the reasons for these discrepancies, we highlighted that further investigation on snow-melt processes for thick seasonal snowpack is necessary.
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来源期刊
Bulletin of glaciological research
Bulletin of glaciological research GEOGRAPHY, PHYSICAL-
CiteScore
2.20
自引率
20.00%
发文量
1
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