5results about How to "Good deacidification effect" patented technology

The utility model belongs to the technical field of environmental protection, and particularly discloses a CVD sintering furnace acid gas tail gas treatment device which comprises a pipeline connected with the exhaust end of a sintering furnace, and a first filtering assembly, a cleaning assembly and a second filtering assembly are sequentially arranged in the length direction of the pipeline. The cleaning assembly comprises an oil washing part and a water washing part; the oil washing part comprises a mixing chamber and a separation chamber, the mixing chamber is used for mixing gas and oil, and the separation chamber is used for separating the gas and the oil; the washing part comprises a spray tower which is communicated with the pipeline; the spray tower is provided with a spray head; the spray header is used for spraying alkali liquor into the spray tower; the spray tower is provided with a pH sensor which is used for detecting the pH value of the alkali liquor. According to the utility model, particle filtration and multi-stage purification are realized, the safety of the device can be effectively improved, and the problems of easiness in corrosion, low protection effect and low treatment efficiency of equipment in the prior art are solved.

The invention relates to a refining method for reducing and controlling a plasticizer and 3-chloropropanol ester in camellia oil, and aims to effectively control the plasticizer, the 3-chloropropanol ester and glycidyl ester in the camellia oil and maintain nutritional ingredients and natural flavor of the camellia oil. The method comprises the steps of acidification degumming, alkali refining deacidification, water washing, decoloration, dual-temperature deodorization, low-temperature adsorption and the like, and particularly, the vacuum degree and the temperature are finely adjusted in the deodorization process, so that control over a plasticizer, 3-chloropropanol ester and glycidyl ester is effectively considered.

This invention relates to a staggered covalent organic framework thin film, its preparation method, and its application, belonging to the field of thin film technology. The invention first dissolves an amine monomer in acetic acid solution to obtain an aqueous solution; then dissolves an aldehyde monomer in mesitylene to obtain an organic solution; finally, the aqueous and organic solutions are added to the aqueous and organic phase chambers of a diffusion cell, respectively, for interfacial polymerization. After the reaction, the membrane material is removed, washed, and dried to obtain the staggered covalent organic framework thin film. This film forms a staggered stacked structure and constructs sub-nanometer transport channels with pore sizes of approximately 0.5 nm to 0.7 nm. Through a synergistic mechanism of Donnan repulsion and hydrogen bonding interactions, it maintains structural stability under extreme environments of high acidity, strong corrosion, and high radiation, achieving highly efficient selective permeation of protons and efficient retention of metal ions in high-level radioactive waste liquids.

This invention relates to a method for deacidification of flue gas from waste incineration power plants based on alkali-based white mud. The method involves mixing alkali-based white mud and wet deacidification waste liquid to form a slurry, which is then sieved to remove large particles, yielding a deacidification agent slurry. The alkali-based white mud in the slurry has a solid content of 15-25%. The alkali-based white mud has a pH of 10-12 and, by mass percentage (dry basis), comprises 70-90% CaO, 5-20% MgO, 1-3% SiO2, and 1-5% Al2O3. The deacidifying agent slurry is prepared by adding 0.5-1% Fe2O3, 0.3-2% Na2O, 0.5-3% chloride, and 0.5-5% SO3 to a spray drying tower in a semi-dry flue gas deacidification system. After atomization, it is sprayed into the flue to react with acidic gases in the flue gas of the waste incineration power plant to remove HCl and SO2. This method can achieve a HCl removal rate of up to 90% and a SO2 removal rate of up to 80%. It is a low-cost and effective method of "treating waste with waste".

This utility model relates to the technical field of wastewater treatment devices, specifically to a recovery device for soybean oil production wastewater. It includes a support frame and a recovery assembly. The recovery assembly includes an oil storage component, an upper cylinder, an insulating heat-conducting cylinder, a heating wire, an inlet pipe, a feed pipe, a drain pipe, a clean water pipe, a filter screen, and a stirring component. Soybean oil wastewater is added to the insulating heat-conducting cylinder through the inlet pipe, and an alkaline aqueous solution is added to the insulating heat-conducting cylinder through the feed pipe. The soybean oil wastewater and the alkaline aqueous solution undergo a neutralization reaction above the filter screen. The stirring component mixes the soybean oil wastewater and the alkaline aqueous solution, ensuring complete reaction and achieving the purpose of deacidification of the soybean oil wastewater. This utility model improves the deacidification effect of soybean oil wastewater by using a stirring component to mix the soybean oil wastewater and the alkaline aqueous solution, ensuring complete reaction.