Jing Cao

Dr. Jing Cao

orcid

Research Focus & Metrics

Academic Career Length

6Years (2021-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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31 March 2022 in Advanced Materials Interfaces
Verified
Journal Article
Closed access
TMTingting Meng
Tingting Meng
YGYingcen Guo
Yingcen Guo
MSMeirong Shi
Meirong Shi
HWHuichao Wang
Huichao Wang
NFNuo Fu
Nuo Fu
ZDZiwei Deng
Ziwei Deng

12 July 2021 in Sensing and Imaging
Verified
Journal Article
Open access
PDF file
JYJinglong Yang
Jinglong Yang
Jing CaoJing Cao
Jing Cao
HYHaoming Yang
Haoming Yang
Yuhu LiYuhu Li
Yuhu Li
JWJuanli Wang
Juanli Wang
Digital technology is being increasingly designed and employed to support the preservation and restoration of ancient murals. The contributions of digital technologies to this study were planned from the very beginning, as the complexity of this restoration necessitated the design of innovative procedures to manage the restoration and reconstruction processes and to record the details and deformation of the mural. This paper takes the digital restoration of the "maid holding a fan" mural in the Tang Zhaoling Duan Jianbi tomb as an example. In view of the large number and dislocation of mural fragments, the application of digital restoration technology and its achievements in the restoration of this ancient mural are preliminarily explored in combination with high-precision digital information collection and recording. Technical suggestions and details regarding the digital restoration of the mural are put forward to serve as guidance for the preservation and restoration of ancient murals.

16 June 2022 in Studies in Conservation
Verified
Journal Article
Closed access
ZZZhanyun Zhu
Zhanyun Zhu
JWJia Wang
Jia Wang
XYXiuya Yao
Xiuya Yao
QMQinglin Ma
Qinglin Ma
JWJuanli Wang
Juanli Wang
Jing CaoJing Cao
Jing Cao
In this study, a Tara thangka (from a complete set of 21) dating to the mid-Qing Dynasty (1776–1839 CE) at Daxingshan Temple in Xi'an, Shaanxi, China was analyzed using various techniques, including portable X-ray fluorescence spectroscopy (p-XRF), Raman spectroscopy (RS), Fourier transform infrared spectroscopy (FTIR), optical microscopy (OM), and mass spectrometry-based proteomics. Through a multi-analytical methodology, in situ non-invasive testing was complemented with an analysis of a limited number of samples. By complementary evidence derived from the above analyses, it can be determined that the thangka was painted on a hemp substrate, with common colorants such as cinnabar, orpiment, gold, azurite, and malachite, and porcine glue as binding material. These results provided important scientific data for the production crafts of the precious Tara thangkas, contributing to the revelation of its value in art history and enabling conservators to make informed conservation decisions.

31 January 2024 in Heritage Science
Verified
Journal Article
Open access
PDF file
Jing CaoJing Cao
Jing Cao
XLXin Liu
Xin Liu
JWJuanli Wang
Juanli Wang
Hua ChenHua Chen
Hua Chen
DLDan Liu
Dan Liu
BMBingjie Mai
Bingjie Mai
Microorganisms possess the capability to impact virtually any form of cultural heritage, leading to contamination, degradation, and even combined degradation, where diverse microorganism communities facilitate the decay of wooden materials. This study aims to analyze the microbial diversity of the wooden structure bridge at the Shahe Ancient bridge site in Xi'an. The objective is to investigate the correlation between microbial species and the state of wood degradation, as well as explore the relationship between wood microbial species and the potential influence of the wood preservation environment on its long-term preservation. Simultaneously, the conventional laboratory separation technique was employed to isolate the microorganisms that were contaminated by experimental ancient wood. This was done to assess the inhibitory effect of two fungicides on the dominant microorganisms found in ancient wood, identify the most effective inhibitor, and subsequently establish an experimental foundation for safeguarding ancient bridge wood structures. The primary objective of this research was to establish microbial control criteria for the enduring conservation of historical sites, while also equipping conservators with scientifically-guided data to inform future research and restoration endeavors. Graphical Abstract

14 February 2022 in Heritage Science
Verified
Journal Article
Open access
PDF file
BMBingjie Mai
Bingjie Mai
NLNaiming Liu
Naiming Liu
JLJiaoJiao Liu
JiaoJiao Liu
DLDan Liu
Dan Liu
JLJin Li
Jin Li
YLYuhu Li
Yuhu Li
Flood control initiated Chinese civilization. Chinese civilization has a long history, and Chinese ancestors invented “aquatic engineering technology” for flood control and water management, including the Fascine body, as early as two thousand years ago. The Fascine body is a structure used to protect the bank and prevent breaching of an ancient Chinese flood control project. Excavation of the Shahe ancient bridge ruins in Xi’an City, Shaanxi Province, China led to discovery of a Fascine body structure. Through 14C dating, fibre, slice observations, infrared spectroscopy, X-ray diffraction, thermogravimetric analyses and SEM energy spectrum analyses of the fascine material, microbes in the structure and the surrounding soil were identified, the dominant microbial community was analyzed, and microbial diseases were controlled in a targeted manner. Research on the fascine bank ruins identified the width and length boundaries of the Shahe ancient bridge, determined the exact age of the Shahe ancient bridge, provided important materials for research on ancient bridges, river embankments and other ruins, and provided important clues for the traffic and layout around Chang’an during the Qin and Han Dynasties of Chinese history.

1 January 2022 in Journal of Renewable Materials
Verified
Journal Article
Open access
JWJuanli Wang
Juanli Wang
MCMing Cao
Ming Cao
JLJiaxin Li
Jiaxin Li
KLKaiyuan Li
Kaiyuan Li
XCXiaolian Chao
Xiaolian Chao
Jing CaoJing Cao
Jing Cao
Paper packaging materials like cardboards are widely used to protect archives which are a major kind of cultural relics. Unfortunately, paper is a combustible material, and thus exploring environment-friendly flame retardant for paper-based archive packaging material plays an important role. Herein, boric acid, borax and disodium octaborate are used to modify the craft paper-based packaging materials for archive conservation to improve fire safety. The modified craft paper exhibits much higher flame retardancy than the pristine one dose based on vertical burning tests, without much influence on mechanical properties such as tensile strength and elongation at break. Thermogravimetric analysis (TGA), scanning electron microscope (SEM), and X-ray photoelectron spectroscopy (XPS) reveal that porous glass structure is formed during the combustion, because thermal decomposition of boric acid, borax and disodium octaborate will produce porous glassy matter as B2O3. The porous glass covers the paper surface as an insulating layer which retards the further pyrolysis and combustion, resulting in a denser carbon layer. Our study provides a robust way to reduce the fire hazard of the archive packaging material by applying environment-friendly boron-based fire retardants.