@article{li_chen_yuan_li_zhuang_2024, title={Characterization of controlling factors for soil organic carbon stocks in one Karst region of Southwest China}, volume={19}, ISSN={["1932-6203"]}, DOI={10.1371/journal.pone.0296711}, abstractNote={Soil organic carbon (SOC) contributes the most significant portion of carbon storage in the terrestrial ecosystem. The potential for variability in carbon losses from soil can lead to severe consequences such as climate change. While extensive studies have been conducted to characterize how land cover type, soil texture, and topography impact the distribution of SOC stocks across different ecosystems, little is known about in Karst Region. Here, we characterized SOC stocks with intensive sampling at the local scale (495 representative samples) via Random Forest Regression (RF) and Principal Component Analysis (PCA). Our findings revealed significant differences in SOC stock among land cover types, with croplands exhibiting the lowest SOC stocks, indicating that management practices could play a crucial role in SOC stocks. Conversely, there was little correlation between SOC stock and clay percentage, suggesting that soil texture was not a primary factor influencing SOC at a local scale. Further, Annual Precipitation was identified as the key driving factor for the dynamics of SOC stocks with the help of RF and PCA. A substantial SOC deficit was observed in most soils in this study, as evaluated by a SOC/clay ratio, indicating a significant potential in SOC sequestration with practical measures in the karst region. As such, future research focused on simulating SOC dynamics in the context of climate change should consider the controlling factors at a local scale and summarize them carefully during the up-scaling process.}, number={1}, journal={PLOS ONE}, author={Li, Qiang and Chen, Baoshan and Yuan, Hezhong and Li, Hui and Zhuang, Shunyao}, year={2024}, month={Jan} }
 @article{azeem_sun_jeyasundar_han_li_abdelrahman_shaheen_zhu_li_2023, title={Biochar-derived dissolved organic matter (BDOM) and its influence on soil microbial community composition, function, and activity: A review}, ISSN={["1547-6537"]}, DOI={10.1080/10643389.2023.2190333}, abstractNote={Abstract Biochar-derived dissolved organic matter (BDOM) plays key roles in soil ecosystem by affecting soil physicochemical and biological properties and supplying nutrients to soil microbes. It can either enhance or suppress the growth of certain soil microorganisms, depending on its composition and content of labile organic compounds. This review aims to discuss and summarize the role of BDOM in modifying soil microbial functioning, microbial community structure, and enzymatic activity. We mainly focus on the role of BDOM as a function of its concentration, type of feedstock biomass, and pyrolysis temperature (PT). Results show that saw dust- and manure-based biochars produce higher BDOM concentrations than straw-, bone-, and sludge-based biochars. The types of feedstock biomass and its PT determine BDOM characteristics and its interaction with soil microbial communities. Plant-derived biochar with pyrolysis temperature ≤300 °C often results in a more aliphatic BDOM than that with pyrolysis temperature ≥500 °C, which yields a more aromatic BDOM. BDOM of plant biochar contains higher specific ultraviolet absorbance (SUVA) and humification index (HIX) than that of manure biochar. The SUVA and HIX of BDOM positively correlate (R 2=0.68–0.96) with the content of total fatty acid methyl esters, but negatively correlate with the abundances of actinomycetes, arbuscular mycorrhizae, and fungal communities. However, the environmental fate of BDOM in biochar amended soil requires long-term experiment, both in laboratory and field scales, to provide a full understating of BDOM interaction with soil organic matter and microorganisms and help to tailor a safe utilization of biochar in agroecosystems.}, journal={CRITICAL REVIEWS IN ENVIRONMENTAL SCIENCE AND TECHNOLOGY}, author={Azeem, Muhammad and Sun, Tian-Ran and Jeyasundar, Parimala Gnana Soundari Arockiam and Han, Rui-Xia and Li, Hui and Abdelrahman, Hamada and Shaheen, Sabry M. and Zhu, Yong-Guan and Li, Gang}, year={2023}, month={Mar} }
 @article{you_wang_sun_liu_fang_kong_zhang_xie_zheng_li_et al._2023, title={Hydrochar more effectively mitigated nitrous oxide emissions than pyrochar from a coastal soil of the Yellow River Delta, China}, volume={858}, ISSN={["1879-1026"]}, DOI={10.1016/j.scitotenv.2022.159628}, abstractNote={Application of char amendments (e.g., pyrochar or biochar, hydrochar) in degraded soils is proposed as a promising solution for mitigating climate change via carbon sequestration and greenhouse gases (GHGs) emission reduction. However, the hydrochar-mediated microbial modulation mechanisms underlying N2O emissions from coastal salt-affected soils, one of essential blue C ecosystems, were poorly understood. Therefore, a wheat straw derived hydrochar (SHC) produced at 220 °C was prepared to investigate its effects on N2O emissions from a coastal salt-affected soil in the Yellow River Delta and to distinguish the microbial regulation mechanisms in comparison with corresponding pyrochar pyrolyzed at 500 °C (SPC) using a 28-day soil microcosm experiment. Compared with SPC, the acidic SHC (pH 4.15) enriched in oxygenated functional groups, labile C and N constituents. SHC application more efficiently depressed cumulative soil N2O emissions (48.4-61.1 % vs 5.57-45.2 %) than those of SPC. SHC-induced inhibition of ammonia-oxidizing gene (amoA)-mediated nitrification and promotion of full reduction of N2O to N2 by nitrous oxide reductase gene (nosZ) were the underlying microbial mechanisms. Structural equation models further revealed that SHC-modulated bacterial N-transformation responses, i.e., inhibited nitrification and promoted heterotrophic denitrification, mainly contributed to reduced N2O emissions, whereas modification of soil properties (e.g., decreased pH, increased total C content) by SPC dominantly accounted for decreased N2O emissions. These results address new insights into microbial regulation of N2O emission reduction from the coastal salt-affected soils amended with hydrochar, and provide the promising strategies to enhance C sequestration and mitigate GHG emissions in the blue C ecosystems.}, journal={SCIENCE OF THE TOTAL ENVIRONMENT}, author={You, Xiangwei and Wang, Xiao and Sun, Ruixue and Liu, Qiang and Fang, Song and Kong, Qingxian and Zhang, Xin and Xie, Chenghao and Zheng, Hao and Li, Hui and et al.}, year={2023}, month={Feb} }
 @article{zhang_li_chen_zhu_pedersen_gu_wang_li_liu_zhou_et al._2023, title={Methylmercury Degradation by Trivalent Manganese}, ISSN={["1520-5851"]}, DOI={10.1021/acs.est.3c00532}, abstractNote={Methylmercury (MeHg) is a potent neurotoxin and has great adverse health impacts on humans. Organisms and sunlight-mediated demethylation are well-known detoxification pathways of MeHg, yet whether abiotic environmental components contribute to MeHg degradation remains poorly known. Here, we report that MeHg can be degraded by trivalent manganese (Mn(III)), a naturally occurring and widespread oxidant. We found that 28 ± 4% MeHg could be degraded by Mn(III) located on synthesized Mn dioxide (MnO2-x) surfaces during the reaction of 0.91 μg·L-1 MeHg and 5 g·L-1 mineral at an initial pH of 6.0 for 12 h in 10 mM NaNO3 at 25 °C. The presence of low-molecular-weight organic acids (e.g., oxalate and citrate) substantially enhances MeHg degradation by MnO2-x via the formation of soluble Mn(III)-ligand complexes, leading to the cleavage of the carbon-Hg bond. MeHg can also be degraded by reactions with Mn(III)-pyrophosphate complexes, with apparent degradation rate constants comparable to those by biotic and photolytic degradation. Thiol ligands (cysteine and glutathione) show negligible effects on MeHg demethylation by Mn(III). This research demonstrates potential roles of Mn(III) in degrading MeHg in natural environments, which may be further explored for remediating heavily polluted soils and engineered systems containing MeHg.}, journal={ENVIRONMENTAL SCIENCE & TECHNOLOGY}, author={Zhang, Shuang and Li, Baohui and Chen, Yi and Zhu, Mengqiang and Pedersen, Joel A. and Gu, Baohua and Wang, Zimeng and Li, Hui and Liu, Jinling and Zhou, Xin-Quan and et al.}, year={2023}, month={Mar} }
 @article{wang_li_cheng_yao_li_you_zhang_li_2023, title={Wheat straw hydrochar induced negative priming effect on carbon decomposition in a coastal soil}, volume={2}, ISSN={["2770-596X"]}, DOI={10.1002/imt2.134}, abstractNote={Graphical Abstract The mechanisms underlying hydrochar-regulated soil organic carbon (SOC) decomposition in the coastal salt-affected soils were first investigated. Straw-derived hydrochar (SHC)-induced C-transformation bacterial modulation and soil aggregation enhancement primarily accounted for negative priming effects. Modification of soil properties (e.g., decreased pH and increased C/N ratios) by straw-derived pyrochar (SPC) was responsible for decreased SOC decomposition.}, number={4}, journal={IMETA}, author={Wang, Xiao and Li, Zhen and Cheng, Yadong and Yao, Hui and Li, Hui and You, Xiangwei and Zhang, Chengsheng and Li, Yiqiang}, year={2023}, month={Nov} }
 @article{cheng_wang_zhao_zhang_kong_li_you_li_2023, title={Wheat straw pyrochar more efficiently decreased enantioselective uptake of dinotefuran by lettuce and dissemination of antibiotic resistance genes than hydrochar in an agricultural soil}, volume={880}, ISSN={["1879-1026"]}, DOI={10.1016/j.scitotenv.2023.163088}, abstractNote={Remediation of soils pollution caused by dinotefuran, a chiral pesticide, is indispensable for ensuring human food security. In comparison with pyrochar, the effect of hydrochar on enantioselective fate of dinotefuran, and antibiotic resistance genes (ARGs) profiles in the contaminated soils remain poorly understood. Therefore, wheat straw hydrochar (SHC) and pyrochar (SPC) were prepared at 220 and 500 °C, respectively, to investigate their effects and underlying mechanisms on enantioselective fate of dinotefuran enantiomers and metabolites, and soil ARG abundance in soil-plant ecosystems using a 30-day pot experiment planted with lettuce. SPC showed a greater reduction effect on the accumulation of R- and S-dinotefuran and metabolites in lettuce shoots than SHC. This was mainly resulted from the lowered soil bioavailability of R- and S-dinotefuran due to adsorption/immobilization by chars, together with the char-enhanced pesticide-degrading bacteria resulted from increased soil pH and organic matter content. Both SPC and SHC efficiently reduced ARG levels in soils, owing to lowered abundance of ARG-carrying bacteria and declined horizontal gene transfer induced by decreased dinotefuran bioavailability. The above results provide new insights for optimizing char-based sustainable technologies to mitigate pollution of dinotefuran and spread of ARGs in agroecosystems.}, journal={SCIENCE OF THE TOTAL ENVIRONMENT}, author={Cheng, Yadong and Wang, Xiao and Zhao, Liuwei and Zhang, Xin and Kong, Qingxian and Li, Hui and You, Xiangwei and Li, Yiqiang}, year={2023}, month={Jul} }
 @article{yan_li_zhu_peacock_liu_li_zhang_hong_liu_yin_2023, title={Zinc Stable Isotope Fractionation Mechanisms during Adsorption on and Substitution in Iron (Hydr)oxides}, ISSN={["1520-5851"]}, DOI={10.1021/acs.est.2c08028}, abstractNote={The Zn isotope fingerprint is widely used as a proxy of various environmental geochemical processes, so it is crucial to determine which are the mechanisms responsible for isotopic fractionation. Iron (Fe) (hydr)oxides greatly control the cycling and fate and thus isotope fractionation factors of Zn in terrestrial environments. Here, Zn isotope fractionation and related mechanisms during adsorption on and substitution in three FeOOH polymorphs are explored. Results demonstrate that heavy Zn isotopes are preferentially enriched onto solids, with almost similar isotopic offsets (Δ66/64Znsolid-solution = 0.25-0.36‰) for goethite, lepidocrocite, and feroxyhyte. This is consistent with the same average Zn-O bond lengths for adsorbed Zn on these solids as revealed by Zn K-edge X-ray absorption fine structure spectroscopy. In contrast, at an initial Zn/Fe molar ratio of 0.02, incorporation of Zn into goethite and lepidocrocite by substituting for lattice Fe preferentially sequesters light Zn isotopes with Δ66/64Znsubstituted-stock solution of -1.52 ± 0.09‰ and -1.18 ± 0.15‰, while Zn-substituted feroxyhyte (0.06 ± 0.11‰) indicates almost no isotope fractionation. This is closely related to the different crystal nucleation and growth rates during the Zn-doped FeOOH formation processes. These results provide direct experimental evidence of incorporation of isotopically light Zn into Fe (hydr)oxides and improve our understanding of Zn isotope fractionation mechanisms during mineral-solution interface processes.}, journal={ENVIRONMENTAL SCIENCE & TECHNOLOGY}, author={Yan, Xinran and Li, Wei and Zhu, Chuanwei and Peacock, Caroline L. and Liu, Yizhang and Li, Hui and Zhang, Jing and Hong, Mei and Liu, Fan and Yin, Hui}, year={2023}, month={Apr} }
 @article{yin_suo_zheng_you_li_wang_zhang_li_cheng_2022, title={Biochar-compost amendment enhanced sorghum growth and yield by improving soil physicochemical properties and shifting soil bacterial community in a coastal soil}, volume={10}, ISSN={["2296-665X"]}, DOI={10.3389/fenvs.2022.1036837}, abstractNote={Soil salinization, an important type of soil degradation, has become a problem restricting crop production and food quality. The remediation technologies by using compost and biochar were considered sustainable and environment friendly, but the sole application of compost or biochar hardly gets the satisfactory remediation effects. Until now, information about the effects of cocomposted biochar on soils is limited, especially in the coastal soil. This study investigated the impact and potential underlying mechanism of corn straw biochar (BC), seaweed compost (SC), and cocomposted BC and SC (BCSC) on the growth and yield of sorghum (Sorghum bicolor (L.) Moench) in the coastal soil of China in a pot experiment. BC and BCSC treatments increased the dry biomass and yield of the sorghum by 44.0–52.4% and 132.9–192.3%, respectively. Similarly, the root morphologies of sorghum, including surface area and average diameter, were also increased with BC and BCSC addition. Meanwhile, BCSC treatment showed a better performance than what the others did. The enhanced growth and yield of sorghum primarily resulted from the improvement of soil properties (WHC, SOM, and EC) and nutrient availability (Olsen-P and AK content). In addition, the increased diversity and shifted composition of soil bacteria with BC and BCSC addition might also account for the increased growth and yield of sorghum. Furthermore, the enhanced relative abundances of beneficial bacteria Vicinamibacteraceae (39.0%) and Sphingomonadaceae (41.5%) in the rhizosphere soil were positively correlated with the content of available nutrients (NH4+, Olsen-P, and available K) in the coastal soil, which might reveal the mechanism of enhancing growth under the established collaborative interactions of them. Our study provides the potential of using biochar-compost to ameliorate the degradation of coastal soils and improve crop yield.}, journal={FRONTIERS IN ENVIRONMENTAL SCIENCE}, author={Yin, Shaojing and Suo, Fengyue and Zheng, Ying and You, Xiangwei and Li, Hui and Wang, Juying and Zhang, Chengsheng and Li, Yiqiang and Cheng, Yadong}, year={2022}, month={Nov} }
 @article{li_reinhart_moller_herndon_2022, title={Effects of C/Mn Ratios on the Sorption and Oxidative Degradation of Small Organic Molecules on Mn-Oxides}, ISSN={["1520-5851"]}, DOI={10.1021/acs.est.2c03633}, abstractNote={Manganese (Mn) oxides have a high surface area and redox potential that facilitate sorption and/or oxidation of organic carbon (OC), but their role in regulating soil C storage is relatively unexplored. Small OC compounds with distinct structures were reacted with Mn(III/IV)-oxides to investigate the effects of OC/Mn molar ratios on Mn-OC interaction mechanisms. Dissolved and solid-phase OC and Mn were measured to quantify the OC sorption to and/or the redox reaction with Mn-oxides. Mineral transformation was evaluated using X-ray diffraction and X-ray absorption spectroscopy. Higher OC/Mn ratios resulted in higher sorption and/or redox transformation; however, interaction mechanisms differed at low or high OC/Mn ratios for some OC. Citrate, pyruvate, ascorbate, and catechol induced Mn-oxide dissolution. The average oxidation state of Mn in the solid phase did not change during the reaction with citrate, suggesting ligand-promoted mineral dissolution, but decreased significantly during reactions with the other compounds, suggesting reductive dissolution mechanisms. Phthalate primarily sorbed on Mn-oxides with no detectable formation of redox products. Mn-OC interactions led primarily to C loss through OC oxidation into inorganic C, except phthalate, which was predominantly immobilized in the solid phase. Together, these results provided detailed fundamental insights into reactions happening at organo-mineral interfaces in soils.}, journal={ENVIRONMENTAL SCIENCE & TECHNOLOGY}, author={Li, Hui and Reinhart, Benjamin and Moller, Spencer and Herndon, Elizabeth}, year={2022}, month={Dec} }
 @article{zhang_li_wu_post_lanson_liu_hu_wang_zhang_hong_et al._2022, title={Effects of cobalt doping on the reactivity of hausmannite for As(III) oxidation and As(V) adsorption}, volume={122}, ISSN={["1878-7320"]}, DOI={10.1016/j.jes.2022.02.0041001-0742}, journal={JOURNAL OF ENVIRONMENTAL SCIENCES}, author={Zhang, Shuang and Li, Hui and Wu, Zhongkuan and Post, Jeffrey E. and Lanson, Bruno and Liu, Yurong and Hu, Biyun and Wang, Mingxia and Zhang, Limei and Hong, Mei and et al.}, year={2022}, month={Dec}, pages={217–226} }
 @article{zhang_li_wu_post_lanson_liu_hu_wang_zhang_hong_et al._2022, title={Effects of cobalt doping on the reactivity of hausmannite for As(III) oxidation and As(V) adsorption}, volume={122}, ISSN={["1878-7320"]}, DOI={10.1016/j.jes.2022.02.004}, abstractNote={Hausmannite is a common low valence Mn oxide mineral, with a distorted spinel structure, in surficial sediments. Although natural Mn oxides often contain various impurities of transitional metals (TMs), few studies have addressed the effect and related mechanism of TM doping on the reactivity of hausmannite with metal pollutants. Here, the reactivity of cobalt (Co) doped hausmannite with aqueous As(III) and As(V) was studied. Co doping decreased the point of zero charge of hausmannite and its adsorption capacity for As(V). Despite a reduction of the initial As(III) oxidation rate, Co-doped hausmannite could effectively oxidize As(III) to As(V), followed by the adsorption and fixation of a large amount of As(V) on the mineral surface. Arsenic K-edge EXAFS analysis of the samples after As(V) adsorption and As(III) oxidation revealed that only As(V) was adsorbed on the mineral surface, with an average As-Mn distance of 3.25-3.30 Å, indicating the formation of bidentate binuclear complexes. These results provide new insights into the interaction mechanism between TMs and low valence Mn oxides and their effect on the geochemical behaviors of metal pollutants.}, journal={JOURNAL OF ENVIRONMENTAL SCIENCES}, author={Zhang, Shuang and Li, Hui and Wu, Zhongkuan and Post, Jeffrey E. and Lanson, Bruno and Liu, Yurong and Hu, Biyun and Wang, Mingxia and Zhang, Limei and Hong, Mei and et al.}, year={2022}, month={Dec}, pages={217–226} }
 @article{zhao_tan_li_wang_yao_liu_liu_2022, title={Multi-walled Carbon Nanotubes Remediate the Phytotoxicity of Quinclorac to Tomato}, ISSN={["1432-0800"]}, DOI={10.1007/s00128-022-03582-8}, abstractNote={In order to remediate the phytotoxicity of quinclorac to tomato by multi-walled carbon nanotubes (MWCNTs), the adsorption of quinclorac to MWCNTs was monitored and the effect of MWCNTs on the phytotoxicity of quinclorac to tomato in soil were studied. The results showed that the Linear equation and Freundlich equation can well fit the adsorption isotherm of quinclorac in the soil containing MWCNTs. The adsorption of quinclorac in soil was significantly enhanced by the addition of MWCNTs; the K d  of soil (1% MWCNTs) was 28.7 times of pure soil. The quinclorac had an obvious inhibitory effect on the growth of tomatoes; serious phytotoxicity was also induced even at the lowest concentration of 0.025 mg/kg. With the MWCNTs content in soil increased to 0.5% and 1%, the phytotoxicity of quinclorac to tomatoes decreased significantly, and the height and fresh weight of tomatoes were even higher than those of the control group, indicating that MWCNTs can promote the growth of tomato. These results provide a reference for resolving the problem of phytotoxicity induced by residual herbicides in farmland.}, journal={BULLETIN OF ENVIRONMENTAL CONTAMINATION AND TOXICOLOGY}, author={Zhao, Jingyu and Tan, Shuo and Li, Hui and Wang, Yao and Yao, Ting and Liu, Lejun and Liu, Kailin}, year={2022}, month={Jul} }
 @article{zhao_song_li_zheng_li_liu_li_bai_liu_2022, title={New Formulation to Accelerate the Degradation of Pesticide Residues: Composite Nanoparticles of Imidacloprid and 24-Epibrassinolide}, volume={7}, ISSN={["2470-1343"]}, DOI={10.1021/acsomega.2c02820}, abstractNote={Pest control effectiveness and residues of pesticides are contradictory concerns in agriculture and environmental conservation. On the premise of not affecting the insecticidal effect, the pesticide residues in the later stage should be degraded as fast as possible. In the present study, composite nanoparticles in a double-layer structure, consisting of imidacloprid (IMI) in the outer layer and plant hormone 24-epibrassinolide (24-EBL) in the inner layer, were prepared by the W/O/W solvent evaporation method using Eudragit RL/RS and polyhydroxyalkanoate as wall materials. The release of IMI in the outer layer was faster and reached the maximum within 24 h, while the release of 24-EBL in the inner layer was slower and reached the maximum within 96 h. The contact angle of the composite nanoparticles was half that of the 5% IMI emulsifiable concentrate (EC), and the deposition of composite nanoparticles on rice was twice that of 5% IMI EC, which increased the pesticide utilization efficiency. Compared with the common pesticide, 5% IMI EC, the insecticidal effect of the composite nanoparticles was stronger than that of planthoppers, with a much lower final residue amount on rice after 21 days. The composite nanoparticles prepared in this study to achieve sustained release of pesticides and, meanwhile, accelerate the degradation of pesticide residues have a strong application potential in agriculture for controlling pests and promoting crop growth.}, number={33}, journal={ACS OMEGA}, author={Zhao, Jingyu and Song, Rong and Li, Hui and Zheng, Qianqi and Li, Shaomei and Liu, Lejun and Li, Xiaogang and Bai, Lianyang and Liu, Kailin}, year={2022}, month={Aug}, pages={29027–29037} }
 @article{shao_liu_li_luo_zhao_liu_yan_wang_luo_liu_et al._2022, title={The effects of polyethersulfone and Nylon 6 micromembrane filters on the pyraclostrobin detection: adsorption performance and mechanism}, ISSN={["1614-7499"]}, DOI={10.1007/s11356-022-21021-3}, abstractNote={Adsorption of test substances on micromembrane filters during sample pretreatment before qualitative and quantitative analysis has greatly affected the accuracy of the measurement. In the present study, it was found that the adsorption rate of pyraclostrobin reached 77.7-100% when water samples of pyraclostrobin (1 mL) were filtered with polyethersulfone (PES) and Nylon 6 filters. Therefore, the adsorption mechanisms were investigated from the kinetics, isotherms, and thermodynamics of the pyraclostrobin adsorption process, combined with attenuated total reflection-Fourier transform infrared (ATR-FTIR) spectroscopy and X-ray photoelectron spectroscopy (XPS) analysis. The results showed that PES accorded with second-order adsorption kinetics and Nylon 6 with first-order adsorption kinetics, and the correlation coefficient R 2  was 0.98. The adsorption behavior of the two micromembranes followed the linear isothermal model, indicating that the adsorption process was through monolayer adsorption. Thermodynamic study showed that the adsorption of pyracoethyl on PES membrane was spontaneous endothermic, while that on Nylon 6 was spontaneous exothermic. The π-π electron-donor-acceptor (EDA) between pyraclostrobin and PES may promote the adsorption of PES to pyraclostrobin, and hydrogen bonding between pyraclostrobin and Nylon 6 micromembrane may be involved in the adsorption. Our study also proved that the adding 60% methanol and iodine solution (2 mmol/L) was an effective strategy to reduce the adsorption effects and to increase the accuracy of the detection.}, journal={ENVIRONMENTAL SCIENCE AND POLLUTION RESEARCH}, author={Shao, Xiaolan and Liu, Lejun and Li, Hui and Luo, Yue and Zhao, Jingyu and Liu, Shuai and Yan, Bei and Wang, Dan and Luo, Kun and Liu, Min and et al.}, year={2022}, month={May} }