Research progress in enhancing the efficiency of piezoelectric catalytic degradation of organic pollutants from water

doi:10.16085/j.issn.1000-6613.2023-1509

Abstract

Abstract:

Water pollution and energy shortage are global problems that are gaining significant attention. Piezoelectric catalysis can convert external mechanical energy into chemical energy. As a green, effective, and energy-saving technology, piezo-catalysis has the potential to solve the above issues. However, the oxidation capacity of a simple piezoelectric system is limited, and the target pollutants are concentrated in degradable organic pollutants with low-concentration in water. To solve the above problems, researchers have employed various methods to enhance the oxidation capacity of the piezoelectric system. Three types of piezoelectric catalytic strengthening methods commonly used were summarized, including regulation of piezoelectric materials, coupling of chemical reagents, and optimization of piezoelectric driving approaches. Besides, the significance of energy and environment as well as the prospects of piezo-catalysis were discussed.

Key words: piezo-catalysis, strengthening method, advanced oxidation technology, water pollution control, organic pollutant

摘要：

水污染和能源紧缺作为全球性的问题，受到广泛关注。压电催化能够将外部机械能转化为化学能，是一种绿色有效、节能产能的新技术，在解决水污染和能源紧缺问题上具有潜力。然而，简单压电催化体系氧化能力有限，目标污染物多限于水中低浓度易降解有机污染物。针对上述问题，科研工作者采用多种方法强化了压电体系的氧化能力。文章综述了目前常用的三类压电催化强效方法，包括压电材料性能调控、压电-化学药剂耦合、压电驱动方式优化，分析了压电催化技术的能源和环境意义，并对该领域未来的发展方向进行了展望。

关键词: 压电催化, 强效方法, 高级氧化技术, 水污染控制, 有机污染物

CLC Number:

X703

ZHENG Ying, LI Xun, LI Zebing, GAO Zhe, ZHAO Chun. Research progress in enhancing the efficiency of piezoelectric catalytic degradation of organic pollutants from water[J]. Chemical Industry and Engineering Progress, 2024, 43(10): 5723-5733.

郑莹, 李寻, 李泽兵, 高哲, 赵纯. 压电催化降解水中有机污染物的增效研究进展[J]. 化工进展, 2024, 43(10): 5723-5733.

Figures/Tables 8

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压电材料	压电材料投加量/g·L^-1	驱动方式	污染物	污染物浓度/mg·L^-1	降解速率/min^-1	参考文献
BTO微枝晶	10.0	超声，40kHz	AO7染料	20	0.031	[15]
PZT纤维	12.5	超声，40kHz，80W	AO7染料	12	0.031	[18]
MoS₂纳米花	文献未提及	超声，40kHz，250W	RhB染料	10	1.10	[19]
BaTiO₃纳米颗粒	2.0	超声，40kHz，110W	4-氯酚	25	0.011	[20]
BiFeO₃微片	1 .0	超声，40kHz	RhB染料	10	0.034	[21]
Bi₄Ti₃O₁₂微片	1.3	超声，40kHz，300W	MO染料	3	0.0042	[22]
BTO纳米纤维	0.1	超声，40kHz，80W	RhB染料	5	0.060	[23]
ZnO纳米棒	0.5	低频超声	AO7染料	2	0.030	[24]
(Ba，Sr)TiO₃纳米线	1.0	超声，40kHz，80W	MO染料	5	0.020	[9]
(Ba，Sr)TiO₃纳米颗粒	1.0	超声，40kHz，0W	MO染料	5	0.0069	[9]
BTO纳米线	1.0	超声，40kHz，80W	MO染料	5	0.013	[9]
BTO纳米线	1.0	超声，40kHz，80W	MO染料	5	0.015	[25]
BTO纳米颗粒	1.0	超声，40kHz，80W	MO染料	5	0.0084	[25]
商用BTO纳米颗粒	1.0	超声，40kHz，80W	MO染料	5	0.0036	[25]
BTO-800	1.0	超声，40kHz，80W	MO染料	5	0.019	[26]
NaNbO₃纳米线	22.5	超声，40kHz	RhB染料	5	0.014	[27]
BTO纳米线	1.0	超声，40kHz，120W	MO染料	5	38.20min^-1·mol^-1	[16]
K_0.5Na_0.5NbO₃-900	4.0	超声，40kHz，180W	RhB染料	5	0.020	[8]
BTO纳米颗粒	1.0	超声，40kHz，100W	RhB染料	5	0.0025	[28]
BTO纳米线	1.0	超声，40kH，100W	RhB染料	5	0.034	[28]
BTO纳米片	1.0	超声，40kHz，100W	RhB染料	5	0.13	[28]
m-Bi₂O₄	1.2.0	超声，40kHz，300W	磺胺甲嘧啶	10	0.033	[29]
BTO纳米带	1.0	超声，50kHz，100W	RhB染料	10	0.015	[30]
0.7BiFeO₃-0.3BaTiO₃	3.0	水力，0.2m/s	RhB染料	10	0.0018	[31]
球形PZT	5.0	水力，300r/min	RhB染料	10	0.010	[10]
BTO纳米线	1.0	水力，1000r/min	MO染料	5	0.58min^-1·mol^-1	[16]

压电材料	压电材料投加量/g·L^-1	驱动方式	污染物	污染物浓度/mg·L^-1	降解速率/min^-1	参考文献
BTO微枝晶	10.0	超声，40kHz	AO7染料	20	0.031	[15]
PZT纤维	12.5	超声，40kHz，80W	AO7染料	12	0.031	[18]
MoS₂纳米花	文献未提及	超声，40kHz，250W	RhB染料	10	1.10	[19]
BaTiO₃纳米颗粒	2.0	超声，40kHz，110W	4-氯酚	25	0.011	[20]
BiFeO₃微片	1 .0	超声，40kHz	RhB染料	10	0.034	[21]
Bi₄Ti₃O₁₂微片	1.3	超声，40kHz，300W	MO染料	3	0.0042	[22]
BTO纳米纤维	0.1	超声，40kHz，80W	RhB染料	5	0.060	[23]
ZnO纳米棒	0.5	低频超声	AO7染料	2	0.030	[24]
(Ba，Sr)TiO₃纳米线	1.0	超声，40kHz，80W	MO染料	5	0.020	[9]
(Ba，Sr)TiO₃纳米颗粒	1.0	超声，40kHz，0W	MO染料	5	0.0069	[9]
BTO纳米线	1.0	超声，40kHz，80W	MO染料	5	0.013	[9]
BTO纳米线	1.0	超声，40kHz，80W	MO染料	5	0.015	[25]
BTO纳米颗粒	1.0	超声，40kHz，80W	MO染料	5	0.0084	[25]
商用BTO纳米颗粒	1.0	超声，40kHz，80W	MO染料	5	0.0036	[25]
BTO-800	1.0	超声，40kHz，80W	MO染料	5	0.019	[26]
NaNbO₃纳米线	22.5	超声，40kHz	RhB染料	5	0.014	[27]
BTO纳米线	1.0	超声，40kHz，120W	MO染料	5	38.20min^-1·mol^-1	[16]
K_0.5Na_0.5NbO₃-900	4.0	超声，40kHz，180W	RhB染料	5	0.020	[8]
BTO纳米颗粒	1.0	超声，40kHz，100W	RhB染料	5	0.0025	[28]
BTO纳米线	1.0	超声，40kH，100W	RhB染料	5	0.034	[28]
BTO纳米片	1.0	超声，40kHz，100W	RhB染料	5	0.13	[28]
m-Bi₂O₄	1.2.0	超声，40kHz，300W	磺胺甲嘧啶	10	0.033	[29]
BTO纳米带	1.0	超声，50kHz，100W	RhB染料	10	0.015	[30]
0.7BiFeO₃-0.3BaTiO₃	3.0	水力，0.2m/s	RhB染料	10	0.0018	[31]
球形PZT	5.0	水力，300r/min	RhB染料	10	0.010	[10]
BTO纳米线	1.0	水力，1000r/min	MO染料	5	0.58min^-1·mol^-1	[16]

体系	化学物质	化学物质投加量 /mg·L^-1	压电材料	压电材料投加量 /g·L^-1	驱动方式	污染物	污染物浓度 /mg·L^-1	降解速率 /min^-1	参考文献
压电-Fenton	Fe²⁺	4	BTO微枝晶	9.0	超声，40kHz，300W	AO7	20	0.042	[46]
压电-Fenton	Fe²⁺	10	BTO纳米颗粒	2.0	超声，45kHz，300W	卡马西平	5	0.026	[47]
压电-过硫酸盐	PMS	1000	MoS₂纳米花	0.3	超声，40kHz，300W	苯酚	10	0.020	[48]
	PMS	1000	MoS₂纳米花	0.3	水力，900r/min	苯酚	10	—	[48]
	PMS	250	BaTiO₃/MoS₂	0.1	超声，40kHz，100W	奥硝唑	50	0.056	[49]
	PMS	1000	BTO纳米颗粒	0.5	超声，40kHz，100W	苯并噻唑	5	0.100	[50]
	PMS	6150	BTO纳米颗粒	10.0	水力，1000r/min	卡马西平	2	0.0082	[7]
	PMS	6150	CNTs/BaTiO₃	5.0	水力，1000r/min	卡马西平	2	0.021	[38]
	PDS	270	BTO纳米线	2.0	超声，40kHz，110W	布洛芬	6	0.082	[51]
	PDS	270	BTO纳米颗粒	2.0	超声，40kHz，110W	布洛芬	6	0.049	[51]
	PDS	1000	SrBi₂B₂O₇	2.0	超声，100W	磺胺嘧啶	10	0.052	[52]
压电-臭氧	O₃	14	BTO纳米颗粒	3.0	超声，40kHz，300W	布洛芬	20	0.220	[6]
	O₃	14	BTO纳米颗粒	3.0	水力，1000r/min	布洛芬	20	0.130	[6]
	O₃	14	BTO纳米颗粒	3.0	水力，1000r/min	硝基苯	10	0.130	[53]

体系	化学物质	化学物质投加量 /mg·L^-1	压电材料	压电材料投加量 /g·L^-1	驱动方式	污染物	污染物浓度 /mg·L^-1	降解速率 /min^-1	参考文献
压电-Fenton	Fe²⁺	4	BTO微枝晶	9.0	超声，40kHz，300W	AO7	20	0.042	[46]
压电-Fenton	Fe²⁺	10	BTO纳米颗粒	2.0	超声，45kHz，300W	卡马西平	5	0.026	[47]
压电-过硫酸盐	PMS	1000	MoS₂纳米花	0.3	超声，40kHz，300W	苯酚	10	0.020	[48]
	PMS	1000	MoS₂纳米花	0.3	水力，900r/min	苯酚	10	—	[48]
	PMS	250	BaTiO₃/MoS₂	0.1	超声，40kHz，100W	奥硝唑	50	0.056	[49]
	PMS	1000	BTO纳米颗粒	0.5	超声，40kHz，100W	苯并噻唑	5	0.100	[50]
	PMS	6150	BTO纳米颗粒	10.0	水力，1000r/min	卡马西平	2	0.0082	[7]
	PMS	6150	CNTs/BaTiO₃	5.0	水力，1000r/min	卡马西平	2	0.021	[38]
	PDS	270	BTO纳米线	2.0	超声，40kHz，110W	布洛芬	6	0.082	[51]
	PDS	270	BTO纳米颗粒	2.0	超声，40kHz，110W	布洛芬	6	0.049	[51]
	PDS	1000	SrBi₂B₂O₇	2.0	超声，100W	磺胺嘧啶	10	0.052	[52]
压电-臭氧	O₃	14	BTO纳米颗粒	3.0	超声，40kHz，300W	布洛芬	20	0.220	[6]
	O₃	14	BTO纳米颗粒	3.0	水力，1000r/min	布洛芬	20	0.130	[6]
	O₃	14	BTO纳米颗粒	3.0	水力，1000r/min	硝基苯	10	0.130	[53]

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