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The Scientific Analysis of Materials of Polychrome Paintings From
Northeast Chonglou of the Forbidden City |
JIANG Yi1, PAN Jiao1, DUAN Hong-ying2* |
1. Institute for Cultural Heritage and History of Science & Technology, University of Science and Technology Beijing, Beijing 100083, China
2. Department of Architectural Heritage, the Palace Museum, Beijing 100009, China
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Abstract The Northeast Chonglou is located in the Outer Court area of the Forbidden City and is a unique building among the three main halls of the Forbidden City. It is an important component of the outer court architectural complex. The Northeast Chonglou was first built during the Ming Dynasty Yongle period, but was later rebuilt and renovated after being affected by the fire. The existing architectural polychrome paintings on the inner eaves belong to the early Qing Dynasty YawumoXuanzi polychrome paintings, which are well preserved and an important sample for studying early Qing Dynasty polychrome paintings. This study sampled 10 architectural polychrome paintings and 1 red oil decoration from Northeast Chonglou. Using various analytical instruments such as a metallographic microscope, a laser Raman spectrometer, a scanning electron microscope-energy spectrometer, an X-ray diffractometer, and a pyrolysis-gas chromatography/mass spectrometry to conduct scientific analysis on the samples. The results indicate that the polychrome painting conforms to the characteristics of the early Qing Dynasty. In combination with the findings from literature review, there has been no repainting or restoration of the polychrome paintings in the later period; The pigments used for polychrome painting are copper trihydroxychlorides, malachite, lead white, chalk, organic pigment indigo, and carbon black; The green pigment is obtained by mixing copper trihydroxychlorides with malachite; The white pigment is a mixture of lead white and chalk. The red pigments are cinnabar and hematite, and hematite plays the role of interlining color under vermilion. The plaster layer uses brick ash as an inorganic filling material, mixed with cooked tung oil to cover the surface of the wood. Then the pigment mixed with cooked tung oil was painted on the plaster layer. The drawing process follows the sequence of Qing Dynasty style polychrome painting from dark to light colors. This study is the first comprehensive analysis of Northeast Chonglou. It provides basic information for its later conservation and restoration,as well as valuable materials for studying the official polychrome painting of the early Qing Dynasty.
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Received: 2024-06-09
Accepted: 2025-02-18
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Corresponding Authors:
DUAN Hong-ying
E-mail: hyduan@hotmail.com
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[1] WANG Zang-bo, XU Yi-tao, FANG Qiu(王藏博,徐怡涛,方 遒). Palace Museum Journal(故宫博物院院刊), 2020,(10): 57.
[2] CAO Zhen-wei(曹振伟). Palace Museum Journal(故宫博物院院刊), 2017,(4): 79.
[3] LIU Yi-ming(刘一鸣). Study on Natural and Cultural Heritage(遗产与保护研究), 2019, 4(3): 110.
[4] YANG Hong, LIU Meng-yu(杨 红,刘梦雨). Journal of Gugong Studies(故宫学刊), 2016,(1): 221.
[5] LI Man, WANG Li-qin, XIA Yin, et al(李 蔓,王丽琴,夏 寅,等). Spectroscopy and Spectral Analysis(光谱学与光谱分析), 2013, 33(12): 3293.
[6] LI Lu-xi, HUANG Ya-zhen, WEI Shu-ya(李路希,黄亚珍,魏书亚). Museum(博物院), 2023,(4): 128.
[7] HE Ling, NIE Mai-qian, Giuseppe Chiavari(和 玲,聂麦茜,Giuseppe Chiavari). Journal of Xi'an Jiaotong University(西安交通大学学报), 2006,(10): 1134.
[8] HE Wei-jun, ZHENG Jing, HU Shi(何伟俊,郑 晶,胡 石). Traditional Chinese Architecture and Gardens(古建园林技术), 2014,(2): 25.
[9] YOU Gui-mei, ZHANG Wen-jie, CAO Zhen-wei, et al(尤贵媚,章文杰,曹振伟,等). Journal of Guangxi Minzu University(Natural Science Edition)[广西民族大学学报(自然科学版)], 2022, 28(3): 9.
[10] YANG Hong, LIU Meng-yu, LEI Yong(杨 红,刘梦雨,雷 勇). Journal of Gugong Studies(故宫学刊), 2015,(3): 276.
[11] LEI Yong, QU Liang, CHENG Xiao-lin, et al(雷 勇,曲 亮,成小林,等). Relics and Museolgy(文博), 2009,(6): 276.
[12] LIU Meng-yu(刘梦雨). Study on Natural and Cultural Heritage(自然与文化遗产研究), 2023, 8(4): 49.
[13] ZHOU Wen-hui, WANG Li-qin(周文晖,王丽琴). Western Archaeology(西部考古), 2009,(1): 318.
[14] XIA Yin(夏 寅). Relics and Museolgy(文博), 2009,(6): 342.
[15] LI Man, XIA Yin, YU Qun-li, et al(李 蔓,夏 寅,于群力,等). Sciences of Conservation and Archaeology(文物保护与考古科学), 2014, 26(2): 22. |
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