WSH紫外明渠
WTV紫外垂直模块
ZL大型管道式紫外
CLEAR中压紫外
MOL板式臭氧发生器
UV-AOP高级氧化
D.FITE滤布滤池
ZL大型管道式紫外
CLEAR中压紫外
UV-AOP高级氧化
Extrem中压紫外
EX-Ue紫外
EX-UPW-TOC紫外
MOM板式臭氧发生器
MOS板式臭氧发生器
UV-Fenton光芬顿
UV-Oxidation紫外光氧化
EX-L紫外消毒器
EX-U紫外消毒器
ZL大型管道式紫外
CLEAR中压紫外
One-UV紫外消毒器
Extrem中压紫外
UV-AOP高级氧化
MOS板式臭氧发生器
COG板式臭氧发生器
UV-Fenton光芬顿
中压UV-Oxidation紫外光氧化
光解
巴氏消毒替代
光催化
低压UV-Oxidation紫外光氧化
光选机
并联机器人
直角坐标机器人
赛博一体化集装箱污水处理
D.FITE滤布滤池
模块化污水处理
Modu Ozone板式臭氧
| 有机配体 | 金属离子 | 络合物名称 | 分子式 |
| Ethylenediamine (C₂H₈N₂) | Cu²⁺ | 硫酸四氨合铜(II) | [Cu(NH₃)₄]SO₄ |
| Ethylenediamine | Li⁺ | 乙炔锂乙二胺络合物 | C₄H₉LiN₂ |
| EDTA (C₁₀H₁₆N₂O₈) | Fe³⁺ | 乙二胺四乙酸铁钠 | CHFeN₂NaO₈ |
| EDTA (C₁₀H₁₆N₂O₈) | Fe³⁺ | 乙二胺四乙酸铁钠 | CHFeN₂NaO₈ |
| 草酸 (C₂H₂O₄) | Nb⁵⁺ | 草酸铌络合物 | CH₅NbO |
| 草酸 | UO₂²⁺ | 草酸铀酰 | UO₂C₂O₄ |
| 二苯基膦二茂铁 | Pd²⁺ | 1,1-双(二苯基膦)二茂铁二氯化钯 | Pd(dppf)Cl₂·CH₂Cl₂ |
| 乙酰丙酮 | Cu²⁺ | 乙基乙酰乙酸铜 | C₁₂H₁₈CuO₆ |
| 硫氰酸根 (SCN⁻) | Fe³⁺ | 硫氰酸铁(III) | [Fe(SCN)₃] |
| 烯烃 (C₂H₂) | Pt²⁺ | 烯烃铂络合物 | K[Pt(C₂H₂)Cl₃] |
Organic complexes, such as ethylenediaminetetraacetic acid (EDTA), citrate, and tartrate, form stable complexes with heavy metal ions. Once these substances enter wastewater, they pose a serious environmental challenge.
Organic complexes are typically highly chemically stable, difficult to biodegrade, and some are even biotoxic. Discharge of organic complexes into water bodies not only directly pollutes the water but can also migrate and transform within the environment, increasing the solubility and mobility of heavy metals, interfering with the efficiency of conventional wastewater treatment processes, and posing a potential long-term threat to ecosystems.
Organic complexes are commonly found in industrial wastewater. Their core structure typically consists of one or more organic ligands bound to a central metal ion through coordination bonds.
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The key to UV/H₂O₂ degradation of these pollutants lies in the strong oxidative action of hydroxyl radicals (·OH), which first attack the organic ligands and disrupt their structure, thereby achieving two core processes: "decomplexation" (i.e., breaking the metal-ligand bond) and "ligand degradation." After decomplexation, the metal ions exist in a free state or as simple compounds, making them easily amenable to further treatment, such as coagulation and sedimentation.

Typical applications include:
· Electroless copper plating, plating baths, and wastewater (EDTA, tartaric acid, etc.)
· Electroless nickel plating, plating baths, and wastewater (citric acid, tartaric acid, lactic acid, etc.)
· TSA wastewater and plating baths (tartaric acid)
· Zinc-nickel wastewater (polycarboxylic acid, EDA, EDTA, PEDA, etc.)
· Phosphonate-containing wastewater (phosphine, etc.)