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[1] Li gaotingyue, Yu Huali*,
Guo Haiyan, et al., Activation of peroxymonosulfate by boron carbide modified
biochar catalyst derived from waste sludge for the removal of organic
pollutants, Separation and Purification Technology, 2025, 361, 131319.
(JCR Q1, IF=8.1)
[2] Zhang Yulu §, Zhang Shiming §, Yu Huali *, et al., Coprecipitates between iron oxides
and biodegradable organic acids for boosting Fenton-like catalysis under
neutral pH conditions. Journal
of Environmental Management, 2025,
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[3] Zhang Yulu, Yu Huali*,
Liu Guangfei, et al., Nano boron carbide effectively boost Fenton-like
performance of hematite mediated systems: Roles of hematite exposed facets
and synergistic catalysis between Fe and B, Environmental Pollution,
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(JCR Q1, IF=7.6)
[4] Yu Huali ?, Zhang Yulu ?,
Wang Lianfeng, et al., Experimental and DFT insights into the adsorption
mechanism of methylene blue by alkali-modified corn straw biochar, RSC
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[5] Yu Huali, Liu Guangfei*, Shen Lingyu, et al., Facile
preparation of coprecipitates between iron oxides and dissolved organic
matter for efficient Fenton-like degradation of norfloxacin, Journal
of Hazardous Materials, 2023, 444, 130394. (JCR Q1, IF=12.2)
[6] Yu Huali, Guo Zikang,
Liu Guangfei*, et al., Improved microbial reduction of biogenic and abiogenic
goethite by diesel soot, Journal of Hazardous Materials Letters, 2023,
4, 100091. (JCR Q1, IF=6.6)
[7] Yu Huali, Liu Guangfei*, Dong Bin, et al., Humic acid promoted
hydroxyl radical production during the redox transformation of biogenic or
abiogenic goethite. Chemical
Engineering Journal, 2021, 424, 130359. (JCR
Q1, IF=13.4)
[8] Yu Huali, Liu Guangfei*, Dong Bin, et al., Synergistic
catalytic Fenton-like degradation of sulfanilamide by biosynthesized
goethite-reduced graphene oxide composite. Journal of Hazardous Materials, 2021, 415, 125704. (JCR Q1, IF=7.6)
[9] Yu Huali, Liu Guangfei*, Jin Ruofei, et al., Goethite-humic acid
coprecipitate mediated Fenton-like degradation of sulfanilamide: the role of
coprecipitated humic acid in accelerating Fe(III)/Fe(II) cycle and
degradation efficiency. Journal of
Hazardous Materials, 2021, 403, 124026. (JCR Q1, IF=7.6)
[10] Yu Huali, Liu Guangfei*, Jin Ruofei, et al., Facilitated Fe(II)
oxidation but inhibited denitrification by reduced graphene oxide during
nitrate-dependent Fe(II) oxidation. ACS Earth and Space Chemistry, 2019, 3, 1594-1602. (JCR
Q2, IF=2.9)
[11] Liu Guangfei*, Yu Huali, Jin Ruofei, et al.,
Activation of peroxydisulfate by biogenic nanocomposites of reduced graphene
oxide and goethite for non-radical selective oxidation of organic
contaminants: Production of singlet oxygen and direct electron transfer. Chemical Engineering Journal, 2022, 430, 133177. (JCR Q1, IF=13.4)
[12] Liu Guangfei*, Yu
Huali, Wang Ning, et al., Microbial reduction of ferrihydrite in the presence of
reduced graphene oxide materials: alteration of Fe(III) reduction rate,
biomineralization product and settling behavior. Chemical Geology, 2018, 476, 272-279. (JCR Q1, IF=3.6)
[13] Liu Guangfei*, Li Min, Gu Rihong, Wang
Lianfeng, Yu Huali*, et al., Efficient hydroxyl radical production and
sulfanilamide degradation during oxygenation of microbially reduced
metal–organic frameworks, Separation and Purification Technology,
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[14]李高婷玥, 郭海燕, 于华莉*,等. 污泥生物炭活化过硫酸盐介导产单线态氧降解罗丹明B. 环境科学学报, 2024, 44:48-60.
[15] 柳广飞*, 朱佳琪, 于华莉, 等. 电子穿梭体介导微生物还原铁氧化物的研究进展. 地球科学, 2018, 43(S1):161-174.
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