7 results about "Growth kinetic" patented technology

The application discloses an Aeromonas media strain capable of degrading PAEs and an application thereof, and belongs to the technical field of microorganisms. The strain is Aeromonas media HJ02, and the preservation number is GDMCC NO: 66828. The strain has obvious advantages in environmental adaptability and PAEs pollutant degradation activity, can efficiently degrade various PAEs and intermediate metabolites, and maintains good growth kinetic characteristics in a 0-120 h culture period. When the initial concentration of diisooctyl phthalate (DEHP) is 300 mg / L, the strain can significantly reduce the residual content of DEHP in the culture system after culture, and the 24 h degradation rate reaches 91.73 %. The application has the advantages of simple operation, safety and economy, provides efficient and stable microbial resources for PAEs pollution remediation, and has important practical value.

This invention discloses a method and apparatus for preparing dihydroporphyrin supramolecular assemblies, belonging to the field of functional nanomaterials technology. By designing a Y+S composite microfluidic chip, this invention utilizes Dean's vortex induced by an S-shaped flow channel to precisely control the nucleation and growth kinetics of Ce6 molecules, achieving the directional preparation of nanospherical Ce6 supramolecular assemblies. Simultaneously, it ensures that the assemblies have a narrow particle size distribution (PDI < 0.1), completely solving the problems of large morphological heterogeneity and poor controllability in traditional methods, and providing technical support for the standardized preparation of Ce6-based nanodelivery systems.

The application provides a method for continuous crystallization of large-particle D-psicose crystal, based on the growth kinetics characteristics of D-psicose crystal, through the mode of "single stimulation nucleation + constant temperature crystal growth + circulating seed reservation + mother liquor recovery", the synergism of continuous production and accurate regulation of crystal habit is realized, and high-purity, large-particle and regular rod-shaped D-psicose crystal is prepared, which is a continuous preparation process for realizing large-particle, high-purity and easy-to-filter D-psicose crystal through "circulating seed reservation and crystal growth + mother liquor recovery cycle". Meanwhile, the process is simple, the degree of automation is high, the product quality is stable, there is no batch difference, the raw material utilization rate is high, there is no organic solvent addition in the whole process, the energy consumption is low, the cost is controllable, and the process is suitable for industrialized large-scale continuous production.

The application belongs to the technical field of electromagnetic functional materials and conductive polymers, and particularly relates to a porous three-dimensional spherical PEDOT wave absorber as well as a preparation method and application thereof. The wave absorber is prepared through chemical oxidation polymerization reaction of the following raw materials: 3,4-ethylenedioxythiophene monomer, iron-based oxidizing agent and dopant. The application realizes, for the first time, systematic regulation of the amount of a single dopant on the morphology of PEDOT, and obtains an excellent wave absorption structure. Iron perchlorate has dual functions of oxidizing agent and dopant, can provide Fe 3+ ⁺ and ClO₄⁻ double-doping effects, and iron ions and their hydrolysis products can affect nucleation and growth kinetics in the polymerization process, thereby regulating the micro-morphology of PEDOT. The application realizes controllable preparation of PEDOT with different morphologies in one step by accurately changing the addition amount of iron perchlorate and the reaction temperature, significantly improves the conductivity of PEDOT, and further enhances the conductivity loss. The process is simple, stable, low in cost, green and environmentally friendly.

This invention provides a biotechnology-based method for lake water purification and ecological restoration, comprising the following steps: S1. Collection and analysis of basic lake water data; S2. Screening and cultivation of dominant microorganisms; S3. Formulation of ecological restoration plans; S4. Application of microbial agents and planting of aquatic plants; S5. Monitoring of the water restoration process; S6. Evaluation of restoration effects and adjustment of the plan. This invention significantly improves the degradation efficiency and environmental adaptability of target pollutants, providing highly efficient functional microbial agents for precise remediation. It utilizes a dynamic programming algorithm to construct an optimized microbial culture model, combining the growth kinetics of bacterial strains to precisely control nutrient addition strategies and culture cycles. While ensuring the concentration and activity of the microbial agents, it effectively reduces resource consumption and time costs in the cultivation process, improving the economic efficiency and reliability of microbial agent production, laying the foundation for large-scale engineering applications.

This invention relates to the field of microbial counting technology, and more particularly to a digital clone accurate counting and identification system and method. The method includes the following steps: injecting the bacterial solution to be detected into a preset microchamber array and constructing several partitioned units; placing the microchamber array in a preset constant-temperature incubation environment for parallel cultivation and acquiring chamber image sets for each partitioned unit; segmenting the chamber image sets for each partitioned unit and extracting the corresponding image contours; identifying positive chambers based on the image contours to determine the predicted loading number of single-clone growth chambers; evaluating the relative growth capacity of each positive chamber based on the predicted loading number and the growth kinetic parameter set of each single-clone growth chamber, and identifying the target dominant clone type corresponding to each positive chamber. This application not only improves the screening efficiency and accuracy of probiotics and other microbial research and development, but also significantly enhances the stability, functionality, and safety of microbial products.

The application belongs to the technical field of nanometer material preparation, and particularly relates to a controlled growth method of high aspect ratio single-wall carbon nanotubes. The method aims to solve the problems of limited aspect ratio caused by easy catalyst agglomeration and difficult growth kinetics regulation in the prior art. The method comprises the following steps: preparing a supported nanometer catalyst precursor to anchor metal ions; in-situ reduction to regulate metal particle size and distribution; establishing a multi-field coupling reaction environment containing a carbon source and an oxygen-containing additive; implementing programmed stepwise temperature control to guide carbon atom nucleation and steady growth; and using an online monitoring device to obtain the growth state in real time and realize precise termination. Through accurate control of catalyst activity and carbon-oxygen balance of the reaction system, the application can effectively inhibit the generation of multi-wall impurities, realize the continuous extension of single-wall carbon nanotube length, and obtain a product with ultra-high aspect ratio and high purity, thereby significantly improving the structural consistency and performance transmission efficiency of the material.