Qinglin Guo, Jingjing Huang, Qiangqiang Pei, Bo Zhang, Hongtao Zhan, Hong Zhang, Jennifer Richards, Heather Viles
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Notably, a negative correlation between captured particle mass and the height of the sand traps is observed, with 70% of particles concentrated within 50 cm from the base of the test wall. Three primary erosion mechanisms for wind-blown sand are elucidated, including frontal impact, side abrasion, and reverse sapping. Furthermore, the study highlights pronounced erosion at the base of the wall due to vortex flow, with depth erosion affecting the lower, side, and upper sections of the test walls. This paper delves into the erosion mechanisms and operational models of wind-blown sand flow surrounding discontinuous site walls, offering valuable insights for the conservation of ancient earthen sites.KEYWORDS: Ancient earthen siteserosion modelerosion ratewind-blown sand AcknowledgmentsWe would like to thank F. Qiu, G.J. Zhao, X.S. Zhang, D.J. Shang, and X.Y. Liu for their help in sample collection, 3D scanning, measurements, and field experiments throughout the fieldwork period.Disclosure statementNo potential conflict of interest was reported by the author(s).Author contributionsConceptualization: Q.L. Guo, Q.Q. Pei, H. Zhang, H. Viles, J. Richards; Establishment of monitoring stations: Q.L. Guo, Q.Q. Pei, B. Zhang, H.T. Zhang, F. Qiu; Field experiments and test wall ramming: B. Zhang, Q.Q. Pei; H.T. ZHAN; Indoor experiments: B. Zhang J.J. Huang; Data curation: J.J. Huang,B. Zhang; Writing-original draft: Q.L. Guo, J.J. Huang, Q.Q. Pei; Writing-review & editing: Q.L. Guo, Q.Q. Pei, H. Viles, J.J. Huang.Data Availability materialThe datasets used and/or analysed during the current study are available from the corresponding author on reasonable request.Additional informationFundingThis work was financially supported by National key research and development program for Study on deterioration process and conservation technology of earthen site based on condition of multi-field coupling (2020YFC1522200), and the Research and Application of Comprehensive Anti-Weathering Technologies for Earthen Sites on the Chang ‘An-Tianshan Corridor Road Network along the Silk Road (18YF1WA003), and the International Cooperation Project for Conservation of Earthen Sites in NW China between the Dunhuang Academy of China and the University of Oxford, UK. This research was also partially funded by UK Engineering and Physical Sciences Research Council (EPSRC) Grant for the Centre for Doctoral Training Science and Engineering in Art, Heritage and Archaeology (EP/L016036/1) in association with the Getty Conservation Institute, and Royal Society International Exchange Grant (IE151144).","PeriodicalId":13783,"journal":{"name":"International Journal of Architectural Heritage","volume":"14 1","pages":"0"},"PeriodicalIF":2.3000,"publicationDate":"2023-10-11","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Erosion Model for Wind-Blown Sand Flow at Earthen Sites in Arid Environment, Northwest China\",\"authors\":\"Qinglin Guo, Jingjing Huang, Qiangqiang Pei, Bo Zhang, Hongtao Zhan, Hong Zhang, Jennifer Richards, Heather Viles\",\"doi\":\"10.1080/15583058.2023.2267506\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"ABSTRACTThis study investigates the erosive impact of wind-blown sand on earthen sites within arid environments through the establishment of meteorological observation equipment. 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This paper delves into the erosion mechanisms and operational models of wind-blown sand flow surrounding discontinuous site walls, offering valuable insights for the conservation of ancient earthen sites.KEYWORDS: Ancient earthen siteserosion modelerosion ratewind-blown sand AcknowledgmentsWe would like to thank F. Qiu, G.J. Zhao, X.S. Zhang, D.J. Shang, and X.Y. Liu for their help in sample collection, 3D scanning, measurements, and field experiments throughout the fieldwork period.Disclosure statementNo potential conflict of interest was reported by the author(s).Author contributionsConceptualization: Q.L. Guo, Q.Q. Pei, H. Zhang, H. Viles, J. Richards; Establishment of monitoring stations: Q.L. Guo, Q.Q. Pei, B. Zhang, H.T. Zhang, F. Qiu; Field experiments and test wall ramming: B. Zhang, Q.Q. Pei; H.T. ZHAN; Indoor experiments: B. Zhang J.J. Huang; Data curation: J.J. Huang,B. Zhang; Writing-original draft: Q.L. Guo, J.J. Huang, Q.Q. Pei; Writing-review & editing: Q.L. Guo, Q.Q. 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引用次数: 0
摘要
摘要通过建立气象观测设备,研究了干旱环境下风沙对土质场地的侵蚀作用。在47个月的时间里,采用了包括数值模拟、羽流分析、颗粒检测、三维扫描和照片监测在内的综合方法,连续监测了风沙运动模式和试验墙的退化。研究确定了六个不同的区域,从5倍于测试墙的迎风面延伸到10倍于测试墙的背风面。值得注意的是,捕获的颗粒质量与沙坑高度呈负相关,70%的颗粒集中在距离试验墙底部50厘米的范围内。阐明了风沙的三种主要侵蚀机制,包括正面冲击、侧面磨损和反向侵蚀。此外,该研究还强调了由于涡流的影响,墙的底部有明显的侵蚀,深度侵蚀影响了测试墙的下部、侧面和上部。本文深入研究了断续遗址墙周围风沙流的侵蚀机制和运行模式,为古土质遗址的保护提供了有价值的见解。致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢致谢披露声明作者未报告潜在的利益冲突。作者贡献:郭启亮,裴启强,张洪,H. Viles, J. Richards;建立监测站:郭启亮,裴启强,张斌,张红涛,邱峰;现场试验与夯壁试验:张柏,裴启强;詹高韧性;室内实验:张b .黄俊杰;数据管理:J.J. Huang,B。张;写作-原稿:郭启亮、黄俊杰、裴启强;撰稿编辑:郭启亮,裴启强,维勒斯,黄俊杰。数据可用性材料当前研究中使用和/或分析的数据集可根据通讯作者的合理要求提供。项目资助:国家重点研发项目“基于多场耦合条件的土点劣化过程与保护技术研究”(2020YFC1522200)、“丝绸之路沿线长安-天山走廊路网土点综合抗风化技术研究与应用”(18YF1WA003);中国敦煌研究院与英国牛津大学中国西北地区遗址保护国际合作项目。这项研究也得到了英国工程和物理科学研究委员会(EPSRC)艺术、遗产和考古博士培训科学与工程中心(EP/L016036/1)与盖蒂保护研究所和皇家学会国际交流基金(IE151144)的部分资助。
Erosion Model for Wind-Blown Sand Flow at Earthen Sites in Arid Environment, Northwest China
ABSTRACTThis study investigates the erosive impact of wind-blown sand on earthen sites within arid environments through the establishment of meteorological observation equipment. Over a span of 47 months, a comprehensive approach encompassing numerical simulation, plume analysis, particle examination, three-dimensional scanning, and photo monitoring was employed to continuously monitor the patterns of wind-blown sand movement and the degradation of test walls. The study identifies six distinct zones extending from five times the windward side to ten times the leeward side of the test wall’s height. Notably, a negative correlation between captured particle mass and the height of the sand traps is observed, with 70% of particles concentrated within 50 cm from the base of the test wall. Three primary erosion mechanisms for wind-blown sand are elucidated, including frontal impact, side abrasion, and reverse sapping. Furthermore, the study highlights pronounced erosion at the base of the wall due to vortex flow, with depth erosion affecting the lower, side, and upper sections of the test walls. This paper delves into the erosion mechanisms and operational models of wind-blown sand flow surrounding discontinuous site walls, offering valuable insights for the conservation of ancient earthen sites.KEYWORDS: Ancient earthen siteserosion modelerosion ratewind-blown sand AcknowledgmentsWe would like to thank F. Qiu, G.J. Zhao, X.S. Zhang, D.J. Shang, and X.Y. Liu for their help in sample collection, 3D scanning, measurements, and field experiments throughout the fieldwork period.Disclosure statementNo potential conflict of interest was reported by the author(s).Author contributionsConceptualization: Q.L. Guo, Q.Q. Pei, H. Zhang, H. Viles, J. Richards; Establishment of monitoring stations: Q.L. Guo, Q.Q. Pei, B. Zhang, H.T. Zhang, F. Qiu; Field experiments and test wall ramming: B. Zhang, Q.Q. Pei; H.T. ZHAN; Indoor experiments: B. Zhang J.J. Huang; Data curation: J.J. Huang,B. Zhang; Writing-original draft: Q.L. Guo, J.J. Huang, Q.Q. Pei; Writing-review & editing: Q.L. Guo, Q.Q. Pei, H. Viles, J.J. Huang.Data Availability materialThe datasets used and/or analysed during the current study are available from the corresponding author on reasonable request.Additional informationFundingThis work was financially supported by National key research and development program for Study on deterioration process and conservation technology of earthen site based on condition of multi-field coupling (2020YFC1522200), and the Research and Application of Comprehensive Anti-Weathering Technologies for Earthen Sites on the Chang ‘An-Tianshan Corridor Road Network along the Silk Road (18YF1WA003), and the International Cooperation Project for Conservation of Earthen Sites in NW China between the Dunhuang Academy of China and the University of Oxford, UK. This research was also partially funded by UK Engineering and Physical Sciences Research Council (EPSRC) Grant for the Centre for Doctoral Training Science and Engineering in Art, Heritage and Archaeology (EP/L016036/1) in association with the Getty Conservation Institute, and Royal Society International Exchange Grant (IE151144).
期刊介绍:
International Journal of Architectural Heritage provides a multidisciplinary scientific overview of existing resources and modern technologies useful for the study and repair of historical buildings and other structures. The journal will include information on history, methodology, materials, survey, inspection, non-destructive testing, analysis, diagnosis, remedial measures, and strengthening techniques.
Preservation of the architectural heritage is considered a fundamental issue in the life of modern societies. In addition to their historical interest, cultural heritage buildings are valuable because they contribute significantly to the economy by providing key attractions in a context where tourism and leisure are major industries in the 3rd millennium. The need of preserving historical constructions is thus not only a cultural requirement, but also an economical and developmental demand.
The study of historical buildings and other structures must be undertaken from an approach based on the use of modern technologies and science. The final aim must be to select and adequately manage the possible technical means needed to attain the required understanding of the morphology and the structural behavior of the construction and to characterize its repair needs. Modern requirements for an intervention include reversibility, unobtrusiveness, minimum repair, and respect of the original construction, as well as the obvious functional and structural requirements. Restoration operations complying with these principles require a scientific, multidisciplinary approach that comprehends historical understanding, modern non-destructive inspection techniques, and advanced experimental and computer methods of analysis.