2results about How to "Deep degradation" patented technology

This invention relates to the field of industrial wastewater treatment technology, and discloses an electrocatalytic oxidation device and its operating method for treating saline industrial organic wastewater. Wastewater enters the reaction chamber through the bottom inlet, is forced through the anode channels, and undergoes an electrochemical oxidation reaction on the anode surface to convert chloride ions into hypochlorous acid. A vacuum ultraviolet light source performs in-situ photolysis of water molecules and hypochlorous acid, exciting various active species, including strongly reducing hydrated electrons, strongly oxidizing hydroxyl radicals, and chloride radicals. This device, through the construction of a reduction-oxidation system, can efficiently degrade various pollutants with both electron-rich and electron-deficient characteristics. This invention utilizes the synergistic coupling of electrochemical generation and photochemical conversion to convert high-concentration chloride ions into active precursors, effectively overcoming the bottlenecks of low degradation efficiency and poor selectivity in traditional technologies for high-salt and complex water quality, and significantly improving the system's mineralization efficiency and energy utilization rate.

This invention discloses a composite microbial preparation for solid fecal degradation, its preparation method, and its application, belonging to the field of microbial preparation technology. The composite microbial preparation comprises a composite microbial agent and an exogenous composite enzyme preparation; the composite microbial agent includes laccase-producing bacteria, keratinase-producing bacteria, auxiliary degradation bacteria, and composite probiotics; the exogenous composite enzyme preparation includes cellulase, neutral protease, and xylanase. This invention employs a mixed strategy of "exogenous enzyme + enzyme-producing bacteria," rapidly decomposing cellulose, protein, and hemicellulose in the initial stage of composting by adding exogenous cellulase, protease, and xylanase, providing readily available carbon and nitrogen sources for the microorganisms, shortening the composting start-up time to less than 24 hours; simultaneously, the laccase-producing bacteria and keratinase-producing bacteria continuously produce laccase and keratinase during composting, achieving deep degradation of lignin and keratin. This invention has advantages such as rapid start-up, continuous degradation, good deodorization effect, high nitrogen retention rate, and low cost, and has good prospects for industrial application.