科研论文
[1] Yongjiong Ni, Jiaqi Yang, Jiyang Pan, Shuyun Wu, Jinte Zou*, Jun Li. Effects of enhanced biological phosphorus removal on rapid control of sludge bulking and fast formation of aerobic granular sludge. Bioresource Technology, 2024, 402: 130820.
[2] Jiaqi Yang, Mengjie Qian, Shuyun Wu, Hanglei Liao, Fengfan Yu, Jinte Zou*, Jun Li. Insight into the role of chitosan in rapid recovery and re-stabilization of disintegrated aerobic granular sludge. Journal of Environmental Management. 2024, 356: 120613.
[3] Jianrui Lin, Hangtian He, Jinte Zou*, Yongyuan Yang, Jun Li. Effects of high-concentration influent suspended solids on aerobic granulation in sequencing batch reactors treating real textile wastewater. Journal of Water Process Engineering, 2024, 57: 104609.
[4] Jinte Zou, Jiaqi Yang, Fengfan Yu, Lei Cai, Jun Li*, Ramon Ganigue. Understanding the role of polyurethane sponges on rapid formation of aerobic granular sludge and enhanced nitrogen removal. Chemical Engineering Journal, 2023, 460: 141670.
[5] Jinte Zou, Lei Cai, Jianrui Lin, Ruyi Wang*, Jun Li, Mingshen, Jia. Anaerobic fermentation of aerobic granular sludge: Insight into the effect of granule size and sludge structure on hydrolysis and acidification. Journal of Environmental Management. 2023, 343: 118202.
[6] Jinte Zou, Jiaqi Yang, Hangtian He, Xiaofei Wang, Rongwu Mei, Lei Cai, Jun Li*. Effect of seed sludge type on aerobic granulation, pollutant removal and microbial community in a sequencing batch reactor treating real textile wastewater. International Journal of Environmental Research and Public Health. 2022, 19(17), 10940.
[7] Jinte Zou, Fengfan Yu, Jiyang Pan, Bingjun Pan, Shuyun Wu, Mengjie Qian, Jun Li*. Rapid start-up of an aerobic granular sludge system for nitrogen and phosphorus removal through seeding chitosan-based sludge aggregates. Science of the Total Environment, 2021.03, 762: 144171.
[8] Jinte Zou, Fengfan Yu, Jia Chen, Giorgio Mannina, Yongmei Li*. Influence of ferric iron dosing on aerobic granular sludge: granule formation, nutrient removal and microbial community. Journal of Chemical Technology and Biotechnology, 2021.05, 96(5): 1277-1284.
[9] Jinte Zou, Jiyang Pan, Shuyun Wu, Mengjie Qian, Zhanfei He, Binbin Wang, Jun Li*. Rapid control of activated sludge bulking and simultaneous acceleration of aerobic granulation by adding intact aerobic granular sludge. Science of the Total Environment, 2019.07, 674: 105-113.
[10] Jinte Zou, Yaqiang Tao, Jun Li*, Shuyun Wu, Yongjiong Ni. Cultivating aerobic granular sludge in a developed continuous-flow reactor with two-zone sedimentation tank treating real and low-strength wastewater. Bioresource Technology, 2018.01, 247: 776-783.
[11] Jinte Zou, Jiyang Pan, Hangtian He, Shuyun Wu, Naidong Xiao, Yongjiong Ni, Jun Li*. Nitrifying aerobic granular sludge fermentation for releases of carbon source and phosphorus: The role of fermentation pH. Bioresource Technology, 2018.07: 260, 30-37.
[12] Jinte Zou, Lili Zhang, Lin Wang, Yongmei Li*. Enhancing phosphorus release from waste activated sludge containing ferric or aluminum phosphates by EDTA addition during anaerobic fermentation process. Chemosphere, 2017.03, 171: 601-608.
[13] Jinte Zou, Jun Li*, Yongjiong Ni, Sun Wei. Enhancing nitrogen removal from low carbon to nitrogen ratio wastewater by using a novel sequencing batch biofilm reactor. Journal of Environmental Sciences, 2016.12, 50: 32-37.
[14] Jinte Zou, Yongmei Li*. Anaerobic fermentation combined with low-temperature thermal pretreatment for phosphorus-accumulating granular sludge: Release of carbon source and phosphorus as well as hydrogen production potential. Bioresource Technology, 2016.10, 218: 18-26.
[15] Jinte Zou, Yongmei Li*, Lili Zhang, Ruyi Wang, Jing Sun. Understanding the impact of influent nitrogen concentration on granule size and microbial community in a granule-based enhanced biological phosphorus removal system. Bioresource Technology, 2015.02,177: 209-216.
[16] Yongmei Li*, Jinte Zou, Lili Zhang, Jing Sun. Aerobic granular sludge for simultaneous accumulation of mineral phosphorus and removal of nitrogen via nitrite in wastewater. Bioresource Technology, 2014.02, 154: 178-184.
[17] 邹金特, 何航天, 潘继杨, 陶亚强, 李军*. 低碳源废水培养的好氧颗粒污泥常温储存后活性恢复研究. 中国环境科学, 2018.12, 38(12): 4530-4536.
[18] 黄鹏, 杨家奇, 金泽豪, 张旭波, 钱舒昕, 邹金特*. 高碳工业废水作为外加碳源促进污水厂减污降碳. 中国给水排水, 2025, 41(3): 7-13.
授权专利
[1] 邹金特, 钱梦洁, 李军, 俞风帆, 潘继杨. 一种利用移动磁场促进好氧絮体污泥快速颗粒化的装置. 专利号:ZL 202021634360.4, 发明专利
[2] 邹金特, 潘继杨, 何航天, 李军, 倪永炯, 吴淑云, 何东芹. 一种通过污泥聚集体制备促进好氧颗粒污泥快速形成的方法. 专利号:ZL 201810616900.7, 发明专利。
[3] 邹金特, 潘继杨, 何航天, 李军, 倪永炯, 吴淑云, 何东芹. 一种通过形成污泥聚集体快速控制污泥膨胀并能长期稳定的方法. 专利号:ZL 201810620161.9, 发明专利。
[4] 邹金特, 钱梦洁, 李军, 俞风帆, 潘继杨. 一种利用移动磁场促进好氧絮体污泥快速颗粒化的装置. 专利号:ZL 202021634360.4, 实用新型专利。(已技术转让)
[5] 邹金特, 潘继杨, 何航天, 李军, 倪永炯, 吴淑云. 一种快速控制活性污泥膨胀并促进好氧颗粒化的方法. 专利号:ZL201810013867.9, 发明专利。