15 results about "Aerobic bacterium" patented technology

The invention discloses a method for enhanced removal of VOCs (volatile organic compounds) and synchronous power generation by a biological filter bed coupled microbial fuel cell system. According to the method, VOCs are introduced into a cathode chamber of a microbial fuel cell and then upwards penetrate through a filler layer of a fungus-bacterium coupled biological filter bed, in the stage, hydrophobic VOCs are adsorbed by fungal hyphae and then are aerobically degraded by bacteria to generate metabolic intermediates, hydrophilic VOCs can be directly degraded by aerobic bacteria, the purified VOCs are discharged from the top, and the purified VOCs are discharged from the bottom of the microbial fuel cell. Hydrophilic VOCs and metabolic intermediates which are not degraded in time can enter an anode chamber of the microbial fuel cell along with the nutrient solution, and the hydrophilic VOCs and the metabolic intermediates are further degraded as power generation substrates and generate electrons (e <->). According to the invention, the fungus-bacteria mixed biological filter bed is coupled with the microbial fuel cell system for treatment, so that enhanced removal is realized, and high-efficiency power generation is also realized.

The invention discloses a pseudomonas capable of efficiently and rapidly degrading chloramphenicol and application of the pseudomonas. The name of the strain is Pseudomonas sp. MH-W1, the preservation number of the strain is GDMCC No: 66907, and the strain is preserved in the Guangdong Microbial Culture Collection Center on September 1, 2025. The strain can tolerate 200 mg / L of chloramphenicol; 100 mg / L of chloramphenicol can be degraded within 8 h, and the degradation rate reaches about 80%. According to the method provided by the invention, the degradation time can be remarkably shortened, the degradation efficiency is improved, the degradation condition is mild, the operation is simple and convenient, large-scale application is easy to realize, and the method has a wide industrial popularization prospect. The strain is an aerobic bacterium, is fast in growth and reproduction, simple to prepare, low in cost, convenient to use and high in efficiency, and can be used for repairing the environment polluted by chloramphenicol.

This invention discloses a biochemical treatment device and method for producing water from high-salinity gas fields via MVR distillation. The device includes a base, a biochemical tank at the top of the base, a support frame on the side of the base, and a collection mechanism below the support frame that automatically detects and collects excess sludge. A sealing mechanism is installed on the side wall of the biochemical tank, and a filter plate is installed inside the tank. This invention, through the configuration of a drive motor, an electric telescopic rod, a fan-shaped collection chamber, a first trapezoidal block, a contact rod, a reciprocating switch, and a second trapezoidal block, achieves automatic cleaning when the sludge reaches half the capacity of the biochemical tank, preventing a reduction in tank volume from affecting biochemical treatment efficiency. Furthermore, the adjustment mechanism gradually increases aeration as aerobic bacteria multiply, ensuring sufficient oxygen for nitrification and maintaining the wastewater treatment efficiency of the biochemical tank. This adaptive adjustment requires no manual intervention and is convenient and quick.

The invention relates to an operation method of a stock bin beneficial to full reproduction of aerobic bacteria in an organic fertilizer, and belongs to the technical field of organic fertilizer production. Comprising a first stock bin and a second stock bin which are adjacently arranged, an upper-layer gas distribution device A is arranged on the inner upper portion of the first stock bin, an upper-layer gas distribution device B is arranged on the inner upper portion of the second stock bin, a lower-layer gas distribution device A is arranged at the inner bottom of the first stock bin, and a lower-layer gas distribution device B is arranged at the inner bottom of the second stock bin. An upper-layer communicating pipe is connected between the upper-layer gas distribution device A and the upper-layer gas distribution device B. The upper-layer communicating pipe is provided with an electric control valve A, a four-way connector A and an electric control valve B. A lower-layer communicating pipe is connected between the lower-layer gas distribution device A and the lower-layer gas distribution device B. The three-way connector B and the three-way connector D are connected with a gas supply device. And the tops of the first stock bin and the second stock bin are connected with an air outlet device. The feed bin has the following beneficial effects that oxygen in the feed bin is uniformly distributed, and full reproduction of bacteria is promoted.

The utility model discloses a large-volume amplification device for aerobic bacteria, which relates to the technical field of large-volume culture of aerobic bacteria, and comprises a large-volume constant-temperature incubator, oxygenation equipment and a real-time bacterial concentration monitor for monitoring the bacterial concentration of a culture solution, the large-volume constant-temperature incubator comprises a box body, a transparent culture tank and a perforated plate, the perforated plate is arranged in the box body, the transparent culture tank is arranged on the perforated plate, and a culture solution is filled in the transparent culture tank; the oxygenation equipment comprises an air compressor and a nano air disc, the nano air disc is arranged at the bottom of the inner side of the transparent culture tank, an air tap is arranged on the nano air disc, the air compressor is communicated with the air tap through an air conveying hose, and the large-volume multiplication culture of aerobic bacteria can be realized.

The invention discloses a halophilic aeromicrobe strain Aeromicrobe sp. SZW-1, a separation method of the halophilic aeromicrobe strain Aeromicrobe sp. SZW-1 and application of the halophilic aeromicrobe strain Aeromicrobe sp. SZW-1 in plastic degradation. The invention discloses halophilic aeromicrobe Aeromicrobe sp. SZW-1, and the preservation number of the halophilic aeromicrobe Aeromicrobe sp. SZW-1 is GDMCC No: 67081. The NaCl concentration tolerance range of the Aeromicrobium sp.SZW-1 is 0 to 0.15 g / mL, the optimal NaCl concentration is 0.03 g / mL, and the Aeromicrobium sp.SZW-1 has hydrolytic activity on PET (Polyethylene Terephthalate). The strain has the advantages that the strain has natural adaptability to a high-salt environment and PET degradation activity, key technical materials and solutions are provided for PET pollution treatment, especially for high-salt environment treatment which is difficult to reach by a traditional biotechnology, and remarkable environmental protection value and application potential are also shown.

A composition for accelerating aerobic biodegradation of an elastomer, such as NBR latex, comprises an additive that includes a monomer with a plurality of polyhydroxy groups, and a growth enhancer for aerobic bacteria. When combining the monomer and the growth enhancer in a weight ratio of between 12:1 and 6:1, the result is an assimilative carbon to nitrogen ratio in the elastomer of between 10:1 and 30:1. Preferably the monomer with the plurality of polyhydroxy groups has a molecular weight of between 140-180 g / mol, and the growth enhancer of aerobic bacteria has a molecular weight of between 130-140 g / mol. In some embodiments the composition is added to a base that results in an alkaline mixture, and a dehydrating agent to inhibit agglomeration and decomposition.

The application discloses a pseudomonas for degrading chloramphenicol and application thereof. Pseudomonas The strain is named as Pseudomonas sp. MH-W1, the preservation number is GDMCC No: 66907, and the strain is preserved in the Guangdong Microbial Culture Collection Center on September 1, 2025. The strain can tolerate 200 mg / L chloramphenicol; and can degrade 100 mg / L chloramphenicol in 8 hours, and the degradation rate is about 80%. The method provided by the application can significantly shorten the degradation time and improve the degradation efficiency, the degradation condition is mild, the operation is simple, large-scale application is easy to realize, and the method has a wide industrialization popularization prospect. The strain is an aerobic bacterium, has fast growth and reproduction, is simple to prepare, low in cost, convenient to use and high in efficiency, and can be used for repairing chloramphenicol contaminated environment.

The invention discloses a fish tank filtering device with no-clean and zero-water-change functions, and relates to the field of aquarium filtering devices. A fish tank filtering device with no-clean and zero-water-change functions comprises a fish tank shell, a partition plate is arranged in the fish tank shell and used for dividing the fish tank shell into a first cavity and a second cavity, and an access cover is detachably installed on the second cavity; according to the invention, the functions of zero water change and no-clean filtration are realized, the key point is that the decomposition and treatment problems of organic matters are thoroughly solved, the organic matters and fish manure are decomposed into water and carbon dioxide by aerobic bacteria in the filter bag, and the organic matters are thoroughly decomposed and converted into inorganic salts; meanwhile, inorganic nitrite is converted into non-toxic nitrate by nitrifying bacteria, and the nitrate is absorbed by plant root systems to serve as nutrition; through the circulation system, the technical scheme effectively solves the problem of nitrite treatment.

The present invention relates to a Pseudomonas CH-1 and its application and application method. The Pseudomonas CH-1 of the present invention is deposited in the China Center for Type Culture Collection, with a deposit date of May 30, 2024, and a deposit number of CCTCC M 20241107. The bacterial body of Pseudomonas CH-1 is rod-shaped, without spores, without flagella, and easy to provoke. The bacterial lawn of Pseudomonas CH-1 grows along the streak, is an aerobic bacterium, and is Gram-negative. The Pseudomonas CH-1 strain of the present invention has a wide growth temperature and pH range, can effectively degrade harmful organic substances such as octenes, n-hexane, o-xylene, nonane, ethyl acetate or o-dichlorobenzene, and is particularly excellent in degradation efficiency for high concentrations of octenes as a carbon source, providing strong support for biological purification projects for treating octenes-containing pollutants.

The invention discloses a construction method and application of a pichia pastoris engineering strain for highly expressing mannase. The heat-resistant mannase derived from thermophilic aerobic bacteria is taken as a research object, and the characteristics of high enzymatic activity, high temperature resistance, wide temperature action range and the like of the heat-resistant mannase are fully exerted. A genetically engineered bacterium capable of stably and efficiently expressing mannase is finally screened out through methods of optimizing a promoter and a signal peptide, increasing the dose of a target gene, co-expressing protein expression related factors and the like, the highest enzyme activity can reach 5635.43 U / ml after 120-hour shake flask fermentation, and a good application prospect is shown.

The present application relates to sewage treatment technical field, more specifically, the present application relates to a kind of straw-based biofilm carrier and its preparation method and application.The present application provides a kind of straw-based biofilm carrier and its preparation method, and with crop straw as film-hanging carrier, construct algal-bacterial symbiotic system and be applied to aquaculture tail water treatment.Straw can be used as the carrier filler for the growth of microalgae and bacteria on the one hand, and can slowly release organic matter as carbon source for the growth of microorganisms attached thereto during degradation on the other hand.Microalgae photosynthesis can provide oxygen for aerobic bacteria, and the present application does not need aeration when treating aquaculture tail water, and the aged biofilm on straw is periodically peeled off by water flow impact and collected as fish bait, while treating aquaculture tail water, the organic matter and nitrogen, phosphorus and other nutrients therein can be recycled and utilized.

A method for treating wastewater generated by vehicle wash facilities is provided. The method comprises subjecting wastewater to hydrodynamic cavitation and generating, based on the cavitation, hyper-oxygenated water with nanobubbles possessing positive and negative charges. The method also comprises introducing biological agents into the hyper-oxygenated water and catalyzing reactions, facilitated at least by the biological agents, between the nanobubbles and impurities in the hyper-oxygenated water, the catalyzing causing attachment and disintegration of soil particles and contaminants. The method also comprises utilizing the hyper-oxygenated water to promote aerobic bacterial growth while suppressing anaerobic bacteria, the bacteria generating hydrogen sulfide gas (H2S). The method also comprises reusing the hyper-oxygenated water in the vehicle wash process. The hydrodynamic cavitation generates nanobubbles that attach to impurities, facilitating their breakdown of the impurities and removal of the impurities from the wastewater. The biological agents are aerobic bacteria that outcompete anaerobic bacteria, reducing odors.

The present invention discloses a microbial treatment agent for landfill leachate and a preparation method thereof. The treatment agent comprises a support layer and microbial agent particles on its surface, wherein the support layer is made of a carbon layer and a modified resin, and the microbial agent particles are made of a microbial agent and a microbial agent matrix. The present invention forms the support layer and the microbial agent by setting the treatment agent components and preparation methods. The support layer is a spherical support layer made of a carbon layer and a modified resin. The carbon layer is made of a combination of sheet-like skeletons and is wrapped by the modified resin to reduce pores. The sheet-like skeletons are located in different planes. Because the carbon layer and the modified resin have low density and hydrophobic properties, when the treatment agent is impacted by wind or water flow, the treatment agent rolls on the surface of the leachate. After contacting the leachate, the microbial agent can come into contact with air, thereby enhancing the energy metabolism of aerobic bacteria in the microbial agent and improving the treatment efficiency of the treatment agent.

The invention discloses a low-salt pickled vegetable sterile intelligent pickling device and a production process, and belongs to the technical field of pickled vegetable pickling, the low-salt pickled vegetable sterile intelligent pickling device comprises an outer tank mechanism, an inner tank mechanism, a pretreatment tank mechanism, a vacuum pump mechanism, a nitrogen conveying mechanism and a control mechanism, and an inner tank mechanism is embedded in the outer tank mechanism. Through the arrangement of the inner tank mechanism, the pretreatment tank mechanism and the vacuum pump mechanism, pre-deoxidation of a pickling material liquid and vacuumizing of a pickling cavity are realized, one machine has two purposes, the utilization rate of equipment is improved, deoxidation of the material liquid in the whole pickling process is ensured, breeding of aerobic bacteria is avoided, and the production efficiency is improved. Through the arrangement of the inner tank mechanism and the nitrogen conveying mechanism, a nitrogen micro-positive pressure environment can be created, nitrogen aeration can be carried out, double purposes of a single nitrogen source are achieved, dissolved oxygen in feed liquid can be further reduced, micro-positive pressure stability can be maintained, the feed liquid can be slightly disturbed, and flavor and flora can be homogenized.