14results about How to "High nitrogen content" patented technology

The invention belongs to the field of monatomic materials, and particularly relates to a carbon material rich in nitrogen and monatomic zinc and application of the carbon material in catalytic activation of carbon dioxide, the content of nitrogen in the carbon material is 16.1 wt%-21.6 wt%, the monatomic zinc is distributed in the carbon material in a monatomic state, and the content of the monatomic zinc in the carbon material is 10.3 wt%-18.7 wt%. The high zinc loading capacity and nitrogen content can increase the catalytic active site density, optimize the electronic structure, and significantly improve the activity of the carbon material rich in nitrogen and monatomic zinc in catalyzing the activation of carbon dioxide.

The application relates to the field of food biotechnology, and discloses a low-salt bean paste production process based on segmented temperature control fermentation, which is made of fava bean koji, water, edible salt, sodium hexametaphosphate, lactococcus lactis nisin, edible alcohol, granulated coarse granular calcium carbonate and glucono-delta-lactone. The production process comprises the following steps: constructing a composite matrix, and first performing buffer-type medium-temperature enzymolysis; then adding a glucono-delta-lactone aqueous solution in a flow manner, utilizing the stoichiometric coupling reaction of the glucono-delta-lactone aqueous solution and the granulated coarse granular calcium carbonate to generate carbon dioxide in situ to construct a micropore structure and regulate the pH value of the system; and finally, connecting a Zygosaccharomyces rouxii to perform low-temperature aroma-producing after-ripening. Through the synergistic effect of the components, the application effectively solves technical problems in the low-salt fermentation process, such as low protein solubility, easy compaction of the matrix and breeding of miscellaneous bacteria, and improves the amino acid nitrogen content and protein hydrolysis rate of the finished product.

The invention relates to a P.megatherium capable of improving tobacco leaf quality and a fungicide and application of the P.megatherium capable of improving tobacco leaf quality, the P.megatherium is a P.megatherium SYSUC27 strain, the preservation number is CCTCC NO: M 20251234, and the preservation date is May 30, 2025. A brand-new P.megatherium strain is separated from tobacco leaf raw materials and preserved, the strain has excellent capacity of producing amylase and protease, after the strain is enriched and applied to tobacco leaves for artificial fermentation, the starch content in the tobacco leaves is reduced, the total nitrogen content and the total plant alkaloid content are increased, and the yield of the tobacco leaves is increased. And finally, the aroma quality and the aroma amount of the tobacco leaves can be effectively improved, the sweetness is increased, offensive odor of the tobacco leaves is improved, the irritation is reduced, and the sensory quality of the tobacco leaves is obviously improved.

The invention discloses a catalyst for treating industrial organic waste gas, which is characterized in that one or more than two of Fe, Ni, Co, Cu, Zn, Mn, Ce and Nb are combined to prepare a catalyst activating solution, the distribution of active metals on the surface of the catalyst is effectively regulated and controlled, and the pH is regulated and controlled by ion substances containing Na < + >, K < + > and NH4 < + >, so that the pore structure of the catalyst is effectively improved in the roasting process, the nitrogen content of the catalyst is increased, and the catalyst has high catalytic activity. The catalyst activity is effectively improved, and the requirements of facilities for treating waste gases such as CO and RCO can be met.

The application provides a halogen-free copper-clad plate, which comprises 90-110 parts by weight of epoxy resin, 100-300 parts by weight of phosphorus-containing amine bismaleimide curing agent, 0.5-5 parts by weight of accelerator, 300-700 parts by weight of solvent and 150-400 parts by weight of inorganic filler according to the mass parts of raw materials. The halogen-free copper-clad plate provided by the application has a specific formula and composition, and the phosphorus-containing amine bismaleimide curing agent with a specific structure and composition has an amine group as an active group, high nitrogen content, better synergistic flame-retardant effect with phosphorus, better compatibility and stability of nitrogen elements on the main chain of the long-chain curing agent. Further, the curing agent contains a maleimide group, so that the cured product has excellent heat resistance. The halogen-free copper-clad plate with more excellent heat resistance and comprehensive performance is obtained by the combination of the other simple raw material formula and the specific pressing process.

This invention discloses a method for improving the dewatering efficiency of antibiotic bacterial residue through hydrothermal carbon conditioning combined with high-pressure filtration. The method involves placing sludge in a hydrothermal reaction vessel and carbonizing it at a constant temperature of 180℃–280℃ for 0.5–6 hours. The hydrothermal carbon from the hydrothermal carbonization reaction is then added to antibiotic bacterial residue with a moisture content of 85–98 wt.%, and after thorough mixing with hydrogen peroxide to break down the cell walls, high-pressure filtration is performed to obtain the dewatered antibiotic bacterial residue filter cake. The hydrothermal carbonization technology proposed in this invention requires no additional reagents, and the preparation temperature is lower compared to traditional carbon materials. Compared to traditional thermal treatment dewatering of antibiotic bacterial residue, only a very small proportion of hydrothermal carbon is needed to achieve highly efficient dewatering of the antibiotic bacterial residue, further reducing costs. Furthermore, this invention achieves both efficient dewatering of antibiotic bacterial residue and safe disposal and resource utilization of sludge waste.

A battery crushing device includes a conveying device (1), a crushing box (2), a shock-absorbing device (3), a cylinder assembly (4), a crushing chamber (5), a third electric telescopic component clamping device (6), a liquid suction device (7), a nitrogen filling device (8), a crushing device (9), and a dust suction device (10). The liquid suction device (7) is fixed at one end of the crushing box (2), the crushing chamber (5) is set inside the crushing box (2), the liquid suction device (7) is installed through the crushing chamber (5), and a dust suction device (10) is installed on the side of the crushing box (2) away from the liquid suction device (7). It can directly disassemble the battery, and the disassembly is more detailed: the liquid and solid are separated before disassembly. On the one hand, the electrolyte can be recycled, and on the other hand, the solid is disassembled and transported out for unified treatment. The presence of liquid will not affect the transportation, and the environmental pollution is avoided by extracting the liquid in advance.

This application provides an amino- and tertiary-amine-modified triazine hard carbon porous material, its preparation method, and an anode. Using tris(4-aminophenyl)amine and 4-amino-3,5-dibromobenzonitrile as raw materials, acetonitrile as solvent, and CuI as catalyst, NH2-SL is synthesized via a Ullmann reaction. The mixture is then reacted in a tube furnace at 450℃ for 40 h to synthesize CTF-NH2 containing an imine structure. Subsequently, high-temperature calcination is performed to synthesize NH2-1000. The triazine porous framework obtained in this application exhibits excellent physicochemical stability, high nitrogen content, and high porosity. Compared to the material before calcination at 1000℃, the interplanar spacing of the hard carbon porous material increases by 0.0034 nm, which is more conducive to sodium ion insertion and extraction. Therefore, the prepared NH2-1000, as a sodium-ion battery anode, demonstrates a high reversible capacity of 209.1 mAh / g in a 2A / g rate performance test, making it widely applicable as a secondary battery anode material.

The present application relates to the field of agricultural cultivation technology, and discloses a method for improving the mechanical properties of bamboo by directional nutrient fertilization, aiming at the problem of mechanical property degradation of bamboo caused by nutrient solidification in strongly acidic soil. The method divides fertilization sample plots in the bamboo forest, and applies silicon fertilizer to the rhizosphere soil of the bamboo in the sample plots by using hole-shaped fertilization method. The main component of the silicon fertilizer is sodium silicate, the application amount is controlled to be 180 kg / hm2, and the distribution density of the fertilization hole is 1 hole / m2. The present application improves the local acid-base microenvironment by using a specific dose of sodium silicate, releases the solidification state of phosphorus elements in the soil, and then directionally breeds bacterial communities participating in nitrogen cycle, significantly improves the total nitrogen content and catalase activity of the soil, and finally greatly enhances the grain compressive strength and bending strength of the bamboo stem from the micro-ecological bottom.

The invention discloses a method for improving the nitrogen utilization efficiency of cucumbers and promoting growth by utilizing piriformospora indica and application, and relates to the technical field of agricultural microbial technologies and plant cultivation. According to the invention, the piriformospora indica is inoculated into a cucumber cultivation system to establish a symbiotic relationship with a cucumber root system, so that the biomass, chlorophyll content and nitrogen content of the cucumber under normal nitrogen and low nitrogen conditions can be remarkably increased. The molecular mechanism of the piriformospora indica is as follows: the piriformospora indica can obviously up-regulate the expression of a plurality of nitrogen transport protein genes (CsNPF / CsNRT2) in the root system of the cucumber, and particularly negatively regulate the expression of transcription factors CsbZIP55 and CsbZIP65 under a low-nitrogen condition, so that the inhibition effect of the piriformospora indica on downstream CsNPF genes is relieved, and nitrogen absorption is promoted. The invention provides a new technical scheme and theoretical basis for developing an environment-friendly cucumber growth-promoting microbial preparation and realizing low-nitrogen efficient cultivation.

This invention discloses a high-nitrogen-doped flexible porous carbon fiber membrane based on ammonia-activated flax, its preparation method, and its applications. Using biomass flax fabric as the carbon precursor, the membrane is first pre-carbonized at a programmed rate of 750-850℃ in an inert gas atmosphere, followed by activation treatment at 850-950℃ in a mixed atmosphere of ammonia and inert gas. This invention has the following advantages and effects: Through the aforementioned "Type IV" programmed ammonia activation strategy, this invention achieves simultaneous carbonization, activation, and nitrogen doping in a one-step process using biomass waste as raw material. The process is simple, green, and efficient.

The invention belongs to the technical field of ecological restoration, and particularly relates to a novel application of morchella esculenta and a restoration method for enriching the biodiversity of soil in a burned area based on wild-imitating cultivation of the morchella esculenta, and the application of the morchella esculenta in enriching the biodiversity of the soil in the burned area. Morchella esculenta is planted under the burned area forest by adopting a wild-imitating cultivation technology, the soil biological activity is activated through the metabolic activity of morchella esculenta, and the soil biocenosis is rebuilt. The restoration method is universal, efficient and high in sustainability, and ecological and economic win-win effects are achieved; through scientific configuration of strains and a cultivation mode, synergistic recovery of physical and chemical properties of soil and biocenosis is realized, allogenic substances such as chemical modifiers, pesticides and chemical fertilizers are not used in the whole process, and the risk of secondary pollution is avoided; the soil biodiversity improvement effect is obvious, and the recovery efficiency is high; the cost is low, and large-scale popularization is easy.

This application provides an amino- and tertiary-amine-modified triazine hard carbon porous material, its preparation method, and an anode. Using tris(4-aminophenyl)amine and 4-amino-3,5-dibromobenzonitrile as raw materials, acetonitrile as solvent, and CuI as catalyst, NH2-SL is synthesized via a Ullmann reaction. The mixture is then reacted in a tube furnace at 450℃ for 40 h to synthesize CTF-NH2 containing an imine structure. Subsequently, high-temperature calcination is performed to synthesize NH2-1000. The triazine porous framework obtained in this application exhibits excellent physicochemical stability, high nitrogen content, and high porosity. Compared to the material before calcination at 1000℃, the interplanar spacing of the hard carbon porous material increases by 0.0034 nm, which is more conducive to sodium ion insertion and extraction. Therefore, the prepared NH2-1000, as a sodium-ion battery anode, demonstrates a high reversible capacity of 209.1 mAh / g in a 2A / g rate performance test, making it widely applicable as a secondary battery anode material.

The present disclosure relates to a semiconductor structure manufacturing method and a semiconductor structure. The semiconductor structure manufacturing method comprises: providing a substrate, the substrate comprising a substrate and a signal line on the substrate; forming at least one initial spacer layer on the sidewall of the signal line, and performing a nitriding treatment on the at least one initial spacer layer to obtain at least one spacer layer. The present disclosure increases the nitrogen content of the nitride layer in the spacer layer by performing a nitriding treatment on the spacer layer as a bit line isolation structure, thereby improving the etching resistance of the spacer layer, improving the sensitivity of the semiconductor device, and ensuring that the semiconductor device has a write recovery time that meets the requirements. At the same time, the increase in the nitrogen content on the nitride layer in the spacer layer reduces the possibility of short bit line contact or loss of bit line isolation structure when the spacer layer is thin. In addition, the nitriding of the oxide layer in the spacer layer can improve the etching resistance of the spacer layer, both increasing the thickness of the oxide layer and reducing the thickness of the nitride layer, thereby improving the problem of bit line parasitic capacitance.