29 results about "Oxygen diffusion" patented technology

The present disclosure describes intravascular oxygenation systems and methods with one or more of improved oxygen diffusion flux, improved resistance to bubble formation on the surface of non-porous hollow fibers, and reduced size. The systems and methods include a pneumatic inlet coupled to a pneumatic source that provides a gas containing oxygen at a high pressure. A plurality of hollow fiber membranes (HFM) are in pneumatic communication with the pneumatic inlet to receive the gas containing oxygen and with an outlet to exhaust a partially deoxygenated gas. An electronic controller drives the motor to oscillate the plurality of HFMs to cause a diffusive flux of the gas containing oxygen from the plurality of HFMs into a region of interest of a subject. The electronic controller may drive the motor according to an oscillation pattern, which may include a macro-oscillation with superimposed micro-oscillations.

The invention discloses a method for simulating diffusion of oxygen in a CMCs structure based on transient heat conduction. The method comprises the following steps that 1, a finite element model of the CMCs structure is established; 2, establishing an internal oxygen diffusion control equation of the CMCs structure; 3, a finite element numerical model of oxygen diffusion in the CMCs structure is established by analogy of the transient heat conduction equation; and step 4, based on the oxygen diffusion finite element numerical model, oxygen diffusion simulation is carried out in the finite element platform, and an internal oxygen diffusion result of the CMCs structure is obtained. According to the method, the diffusion behavior of an oxygen concentration field is equivalently converted into a transient heat conduction problem by utilizing the similarity of oxygen diffusion and heat conduction in a mathematical form, rapid simulation of the oxygen diffusion process in a complex structure is realized by virtue of a mature finite element thermal analysis tool, and the method can be used for predicting the oxygen concentration field in the structure. Necessary initial boundary conditions are provided for subsequent oxidation product evolution analysis, strength degradation modeling and life prediction, and the method has good engineering practical value and popularization prospects.

The utility model discloses a kind of gradient porosity MABR membrane silk assembly structures, including tube sheet, the bottom of the tube sheet is fixedly installed with hydrophobic layer, the inner wall of the hydrophobic layer is fixedly attached with vertical support layer, the hydrophobic layer and vertical support layer are all perforated with air hole, the inside of the vertical support layer is perforated with through hole, the diameter of the straight hole of the one end of tube sheet close to through hole is larger by being set, the one end of tube sheet is gas inlet end, so the gas pressure of the one end of tube sheet close is smaller, the diameter of the through hole of far away gas inlet end is smaller, so the passage cross-sectional area of the one end of tube sheet close is reduced, gas compression leads to gas pressure greater than gas inlet end, so the oxygen content dissolved into external water in unit time will rise, compensate terminal biofilm due to biofilm thickening leads to dissolved oxygen content low Problem, the air hole density of gas outlet end is larger, enhance the oxygen diffusion capacity of terminal, compensate oxygen transfer attenuation due to biofilm thickening, avoid terminal anoxia, promote outer layer denitrifying bacteria enrichment.

A solid electrolyte assembly includes a substrate, a solid electrolyte, and a first electrode and a second electrode. The solid electrolyte has oxide ion conductivity, and the first electrode is located under the solid electrolyte and contains a porous material. The first electrode has only one oxygen diffusion path that is formed overlapping the substrate and the solid electrolyte. When Sr represents the smallest cross-sectional area that is a cross-sectional area of the oxygen diffusion path at a location where the area of a cross section of the first electrode taken perpendicularly to an oxygen diffusing direction is smallest in a portion of the oxygen diffusion path where the oxygen diffusion path overlaps the substrate and the solid electrolyte in a plan view of the solid electrolyte assembly, and Sp represents the area of a region where the first electrode and the second electrode overlap each other in a plan view of the solid electrolyte, Sr / Sp is from 1×10−7 to 6.9×10−4.

The invention relates to a method of oxygen hardening of a Group IV metal, comprising the steps of: providing a workpiece of a Group IV metal in its final shape; oxidizing the Group IV metal in an oxidizing atmosphere at a first temperature using a gaseous oxidizing species having an upper temperature limit of up to 800°C for an oxidation duration of at least 10 minutes to provide a non-delaminated Group IV metal oxide on the surface of the workpiece, wherein the first temperature is in the range of 500°C and the upper temperature limit of the gaseous oxidizing species; diffusing oxygen from the non-delaminated Group IV metal oxide into the Group IV metal in an inert atmosphere at a second temperature in the range of 500°C to 800°C and at a partial pressure of the gaseous oxidizing species of up to 10"4mbar for a diffusion duration of at least 0.1 hour to provide a surface diffusion zone comprising oxygen in solid solution. In another aspect, the invention relates to a Group IV metal component comprising a material core having a core hardness and a surface hardness of at least the core hardness + 200 HV 0.025 The component is obtainable in the method of the invention.

The utility model discloses a composite biological organic bacterial fertilizer production fermentation tank, relates to the technical field of fermentation, and aims to solve the technical problems of oxygen diffusion blocking, fermentation efficiency reduction and peculiar smell gas generation caused by floating foam accumulation due to non-uniform aeration and insufficient stirring when high-moisture materials are fermented, and the composite biological organic bacterial fertilizer production fermentation tank comprises a tank body, a stirring mechanism is arranged at the lower end in the tank body, an aeration mechanism is arranged on the side surface of the stirring mechanism, and a defoaming mechanism is arranged at the upper end in the tank body. The floating foam removing efficiency is optimized through the collaborative design of the guide groove and the bucket, the guide groove adopts an inward inclined slope structure for directional flow guide, floating foam captured by the bucket slides into the temporary storage basin body, the liquid level retention amount is reduced to improve the oxygen diffusion condition, the front end of the bucket is open, the side wall is gradually expanded in a trapezoidal structure, the floating foam gathering range is enlarged, and the floating foam removing efficiency is improved. According to the combination, the local anaerobic risk is reduced through physical diversion, and the problems of fermentation efficiency reduction and peculiar smell caused by floating foam accumulation are relieved through cooperative operation of a stirring mechanism and an aeration mechanism.

A kind of low-carbon cold region natural air admission aerobic fermentation tank device, including air inlet, fermentation tank, the upper portion of the fermentation tank is connected air inlet, air inlet outside has air inlet lip, air inlet inside has air guide pipeline, air guide pipeline inside is connected dust screen, air guide pipeline lower portion is connected air supplement pump, by preheating, the temperature of air admission is promoted to the suitable range of microorganism, improves the decomposition rate of organic matter;Preheating reduces the relative humidity of air, avoids material to be blocked due to excessive wet, and dry hot air promotes material loose, maintains porosity, ensures oxygen diffusion efficiency;By using tank heat preheating, energy self-sufficiency is realized, and operating cost is reduced;Heat production peak is preheated sufficiently, avoid overheating when heat production trough, reduce manual intervention, and carbon footprint is reduced.

The invention discloses an oxidation-thermal mechanical fatigue life prediction method based on a crystal plasticity theory. The method comprises the following steps: generating a representative volume unit with a grain boundary characteristic, importing the representative volume unit into abaqus software, and applying a boundary condition; based on a crystal plasticity constitutive theory and an oxygen diffusion control equation under thermal mechanical fatigue, corresponding UMAT and UMATHT subprograms are written; taking the UMAT subprogram and the UMATHT subprogram as abaqus calculation files, combining the abaqus calculation files with representative volume elements with grain boundary characteristics, and carrying out crystal plasticity finite element simulation under thermal mechanical fatigue; according to the finite element simulation result, fatigue damage and oxidative damage parameters under different working conditions are obtained respectively, the obtained parameters are substituted into the thermal mechanical fatigue life prediction model under the heat-force-oxygen coupling effect, and the predicted life is obtained. According to the method, the mechanical damage and the oxidative damage of the turbine disc under the service condition can be accurately simulated, and the prediction precision of the thermal mechanical fatigue life is improved.

The invention discloses a gradient hot melt adhesive spraying process for anti-oxygen permeability of a can opening seaming. According to the process, a hot-melt sealant containing a three-phase system is sprayed on the inner wall of the turned edge of the can cover, a phase A is a low-viscosity wetting polymer, a phase B is a high-barrier polymer, and a phase C is a microencapsulation oxygen consumption component. The glue layer is preheated through steam flushing and discharging or hot air before seaming, a first seaming roller induces a phase B to be subjected to microfibrillating orientation and enrichment in the middle of the glue layer under the tightening and micro-eccentric conditions, and a phase A permeates into a metal interface; the second rolling and sealing roller locks the orientation structure under the effect of cooling airflow, meanwhile, lubricating oil induces the A phase to be enriched to the outer layer, and in the cooling process, the C phase is gradually released and consumes residual oxygen. Therefore, a wetting layer-barrier layer-buffer layer gradient structure along the thickness direction is formed in situ in the seaming seam, the oxygen diffusion path is effectively prolonged, and the permeation rate is reduced.

A phosphorescent structure (200) has a multitude of spatially separate cells, each having a functional material system (204), wherein each cell of the multitude of cells is selectively convertible from a first phosphorescent state to a second phosphorescent state in a contactless manner by reducing the oxygen content present in the cell, wherein the respective cell has lower phosphorescence in the first phosphorescent state than in the second phosphorescent state; and one or more oxygen diffusion barrier materials (212) that at least partly enclose the cells in order to reduce oxygen diffusion into the respective cell.

The invention discloses a high-efficiency aeration device for sewage treatment, relates to the technical field of sewage treatment, and aims to solve the technical problems that an existing aeration device is single in aeration mode and difficult to consider basic oxygen supply and enhanced mixing requirements, the high-efficiency aeration device comprises a plurality of aeration discs, each aeration disc comprises an aeration pipe and a supporting assembly, the supporting assembly comprises a lower supporting pipe and an upper supporting pipe, a plurality of control rods are movably arranged at the top of the upper supporting pipe, the tops of the control rods are movably connected with an aeration cover, a plurality of aeration holes are formed in the top of the aeration cover, a lifting cylinder is slidably arranged on the circumferential outer wall of the upper supporting pipe, and the top of the lifting cylinder is connected with a gas collecting cover through a plurality of fixing rods; the aeration hoods are rotationally arranged between every two gas collecting hoods, the plurality of aeration hoods and the plurality of gas collecting hoods can be combined to form an umbrella-shaped hood body or an explosive hood body, and the output end of the aeration pipe is arranged below the umbrella-shaped hood body. The device has the advantages that continuous basic aeration is realized, oxygen is provided for microorganisms in sewage, and sewage disturbance and oxygen diffusion efficiency are enhanced.

The invention belongs to the technical field of medical instruments, and particularly relates to an oxygen generating device for an oxygen therapy system, which comprises a shell, an application is connected to the bottom of the shell, a lens is arranged at the top of the shell, a surface cover is fixedly arranged in the shell, a display screen is embedded in the surface cover, a circuit board is connected to the bottom of the surface cover, and the circuit board is electrically connected with the display screen. A rechargeable battery is fixedly arranged in the shell, an oxygen production assembly is arranged in the shell, and the oxygen production assembly comprises an upper conductive substrate, a lower conductive substrate, a silicon rubber case and an oxygen production plate. According to the oxygen generating device for the oxygen therapy system, the oxygen outlet is directly aligned to the center of the navel, a complex conveying pipeline is not needed, oxygen directly acts on the navel part in a natural diffusion mode, the direct action mode of natural diffusion of the oxygen is combined, loss of the oxygen in the conveying process is reduced, and the local oxygen absorption rate is remarkably increased; limited oxygen can be accurately conveyed to an efficient absorption area, resource waste is avoided, and light weight and portability of equipment are achieved.

This invention relates to the field of water treatment technology and discloses an environmentally friendly water treatment aeration device. The device includes a treatment tank, a rotating shaft rotatably connected to the inner wall of the tank, an air pipe fixedly connected to the inner wall of the rotating shaft, an air pipe 2 fixedly connected to the inner wall of the air pipe 1, an air pipe 3 fixedly connected to the circumferential surface of the air pipe 2, a gear rotatably connected to the circumferential surface of the air pipe 2, blades fixedly connected to the circumferential surface of the shaft, and an aerator fixedly connected to the top of the shaft. This device agitates the water and injects oxygen, effectively increasing the oxygen distribution range and the contact area between oxygen and wastewater. Simultaneously, it can heat the wastewater comprehensively when the temperature is too low, preventing the water viscosity from increasing due to low temperatures, thus reducing the resistance to oxygen diffusion from air bubbles to the water and consequently significantly decreasing aeration efficiency. Furthermore, the activity of aerobic bacteria decreases due to the low-temperature environment, leading to a decrease in wastewater treatment efficiency.

1. Name of the product in this design: Diffuse Oxygen Supply Controller. 2. Application of this design: This design is used to control oxygen diffusion and humidification. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model. 5. Other situations requiring explanation: Other explanation: Area A is made of transparent material.

The utility model discloses an oxygen supply device for agricultural and sideline aquatic product transfer, which belongs to the technical field of aquatic product oxygen supply and comprises a breather pipe and an air outlet plate box, vent holes are formed in the periphery of the top and the side face of the air outlet plate box, and a connecting piece is arranged at the top of the air outlet plate box. A plurality of groups of air outlet plate boxes are connected and communicated through the connecting pieces, then oxygen is introduced into the communicated air outlet plate boxes through the connectors installed at the ends of the ventilation pipes, the air outlet plate boxes are communicated through the ventilation pipes, and the air outlet plate boxes are communicated through the connectors installed at the ends of the ventilation pipes. Oxygen is diffused in the multiple sets of air outlet plate boxes and then diffused outwards from the ventilation holes, the situation that the multiple ventilation pipes occupy space is avoided, meanwhile, the air outlet plate boxes are flatly laid at the water bottom, the occupied space is small, oxygen is evenly distributed, and the phenomenon that aquatic products die locally due to uneven oxygen distribution is avoided.

The utility model provides an aerobic stirring device for Badam vegetable oil fermentation, which comprises a tank body, a liquid collecting pipe arranged at the bottom of the tank body, a liquid inlet and outlet pipe communicated with the bottom of the liquid collecting pipe, a top cover arranged at the top of the tank body, a vertical stirring shaft arranged in the middle of the top cover, and two pairs of stirring paddles arranged up and down on the part of the stirring shaft extending into the tank body, the inner walls of the two end surfaces of the stirring paddle are respectively provided with a waterproof breathable film; the part, extending out of the top cover, of the stirring shaft is sleeved with a transmission gear; a motor is arranged on the top surface of the top cover and is in driving connection with a rotating shaft; the top end of the rotating shaft is connected with a driving gear; a rotating joint is arranged at the top end of the stirring shaft, and a breather pipe is connected to the top of the rotating joint. According to the utility model, the flat cylindrical stirring paddle is arranged, and a plurality of vent holes are formed in the end surface of the stirring paddle, so that the oxygen diffusion path can be enlarged, and the stirring contact range can be enlarged.

The invention provides an accelerated test method for simulating the corrosion condition of a part in a marine atmospheric environment. The accelerated test method comprises the following steps: putting a test part in a simulation environment for a periodic corrosion test; the periodic corrosion test comprises a damp-heat test, a drying test and a salt spray test, the damp-heat test and the salt spray test are alternately carried out, and the drying test is arranged after each damp-heat test and each salt spray test. Therefore, a periodic corrosion test with alternate wetting and drying is introduced, and a plurality of stages such as wetting, electrochemical corrosion, drying crystallization and the like in the natural corrosion process are simulated more truly. A humid heat test and a salt spray test simulate a corrosion environment with high humidity and salt deposition, and a key drying test promotes conversion of corrosion products and diffusion of oxygen, which is more consistent with a formation process of a corrosion layer in a natural environment; therefore, the corrosion mechanism generated by the accelerated test and the microstructure of the corrosion product have better consistency with the corrosion condition in the real natural environment, and the accuracy of the test result is improved.

The invention discloses a system and a method for realizing limit denitrification and efficient removal of antibiotics. The system comprises an MBBR (Moving Bed Biofilm Reactor) and a sulfur-based biological filter which are connected in series, the method comprises the following steps: S1, system construction; s2, starting the system; s3, running the system; and S4, system monitoring. According to the present invention, the split type reactor design and the independent dissolved oxygen control means are adopted to achieve the efficient synergy of the nitrification unit and the denitrification unit and the flora activity protection, the aerobic MBBR and the sulfur-based biological filtration tank are physically separated, and the dissolved oxygen in the MBBR and the oxygen-deficient environment in the sulfur-based biological filtration tank are respectively controlled so as to achieve the high-efficiency denitrification effect; the inhibition of dissolved oxygen diffusion on denitrifying bacteria of the sulfur-based biological filter is avoided, and meanwhile, the efficient ammonia nitrogen conversion capability of the nitrifying bacteria is guaranteed, so that the denitrification efficiency of the system is improved by 20-30%, and a foundation is laid for realizing extreme deep denitrification.

A B.A.W.P.S. multi tower sump filter w / c.o.d. and bioskimmer is formed of glass, plastic, acrylic, or other semi-translucent material. It includes a system of filtration that will render any aquatic environment “cycleless” and has connections for internal plumbing as well as compressed oxygen diffusion or “c.o.d.”, wet / dry biologic bacteria generation and storage, lighting, protein bioskimmer filter, wet / dry trickle biologic filter, sponge prefilter, carbon prefilter, dosing system, in-sump top surface skimming, in-sump vac pipe top water skimming with skimbob, water top-off and fill feeding port with separate submerged food, water, additive and / or water treatment release port, manual or electronic feeding system, flow control manifold powerhead / (s), thermostatic system control interface, diodes, probes and sensors. The unit can stand freely on its own, or stand on its own in a separate tank. Use includes the transfer of system water be it fresh, brackish or salt, from any habitat containment chamber or area and into the filter unit for processing, and then the return of the newly treated and processed water back into the main habitat containment chamber again.

The application discloses a vehicle high-micro-pressure oxygen cabin breathing auxiliary system. A person breathes in a micro-high-pressure oxygen cabin, and according to Henry's law (solubility of gas in liquid increases with the increase of pressure), a large amount of oxygen is dissolved in blood due to the increase of pressure, the blood oxygen capacity of the human body is obviously increased, the blood oxygen partial pressure is increased, the blood oxygen diffusion capacity is increased, the effective radius of oxygen is increased, the oxygen content and oxygen storage in tissues are increased, and therefore the health care effect is achieved. The structure of the vehicle high-micro-pressure oxygen cabin breathing auxiliary system is composed of a vehicle closed body, a safety valve, a gas conveying pipe, a diffusion type space oxygen generator and a gas path. The working principle of the vehicle high-micro-pressure oxygen cabin breathing auxiliary system is that the vehicle cabin is closed and pressurized, high-pressure air and oxygen are input into the vehicle cabin, a micro-high-pressure environment is formed in the cabin, people inhale oxygen in the cabin for health care, effective and sufficient oxygen is provided to the hypoxic body, the oxygen storage of the body is increased, and the health care effect in a highland area is achieved.

The application provides a Pt / CNNT three-phase nano reactor, a preparation method and application, and the preparation method is as follows: a mixture of urea and melamine is used as a precursor, chloroplatinic acid is compounded, and a Pt / CNNT photocatalyst is obtained through high-temperature pyrolysis; the Pt / CNNT photocatalyst is vacuumized and circulated to fill oxygen, so that gaseous oxygen is stored in a carbon nitride nanotube cavity, an oxygen-saturated atmosphere is formed, oxygen-saturated deionized water is added, the carbon nitride nanotube is dispersed in the deionized water, a liquid / solid / gas three-phase interface is formed on the surface of the Pt / CNNT photocatalyst, and a Pt / CNNT three-phase nano reactor is obtained. The hollow nanotube reactor with the oxygen storage function is constructed, the liquid / solid / gas three-phase interface is formed on the surface of the catalyst, the oxygen diffusion kinetic limitation of a traditional two-phase system is broken, and continuous and efficient oxygen transmission to active sites is realized.

A magnetic tunnel junction (MTJ) is disclosed wherein a nitride diffusion barrier (NDB) has a L2 / L1 / NL or NL / L1 / L2 configuration wherein NL is a metal nitride or metal oxynitride layer, L2 blocks oxygen diffusion from an adjoining Hk enhancing layer, and L1 prevents nitrogen diffusion from NL to the free layer (FL) thereby enhancing magnetoresistive ratio and FL thermal stability, and minimizing resistance x area product for the MTJ. NL is the uppermost layer in a bottom spin valve configuration, or is formed on a seed layer in a top spin valve configuration such that L2 and L1 are always between NL and the FL or pinned layer, respectively. In other embodiments, one or both of L1 and L2 are partially oxidized. Moreover, either L2 or L1 may be omitted when the other of L1 and L2 is partially oxidized. A spacer between the FL and L2 is optional.

This invention relates to the field of wound treatment technology, and more particularly to a dynamic oxygen concentration pulse regulation system for wound treatment. The system includes a monitoring housing, with a concentration monitoring mechanism on one side. An oxygen generating mechanism is connected to one side of the concentration monitoring mechanism via a pipe, and an oxygen supply housing is connected to the other side of the concentration monitoring mechanism via a pipe. A massage mechanism is located inside the oxygen supply housing, and a sensing mechanism is located on one side of the interior of the oxygen supply housing. A silicone airbag and a micro-pressure sensor are used to create a locally sealed or semi-sealed environment for the wound and to precisely control the pressure. A small drive motor in the massage mechanism drives an eccentric wheel, which, through a spring and a fixing bar, enables the massage head to perform a gentle and orderly reciprocating massage, effectively promoting blood circulation and lymphatic return around the wound and enhancing local oxygen diffusion capacity. The system is linked to the oxygen generating mechanism through an oxygen inlet, and combines this with the temperature control function of a heating module in a high-concentration oxygen environment.

The application relates to the technical field of aquaculture, in particular to an oxygenation equipment for aquaculture, which comprises a mounting rack and an oxygenation machine box arranged on the mounting rack. An outer supporting frame body is arranged on the side of the oxygenation machine box, and a diffusion fence is arranged in the outer supporting frame body. A first oxygen supply device is arranged on the oxygenation machine box and in the diffusion fence. A gas gathering assembly is arranged in the inner cavity of the diffusion fence, and a guide assembly is arranged at the discharge end of the diffusion fence. The gas gathering assembly is located at the output side of the first oxygen supply device and is arranged at the outer edge of the guide assembly. A second oxygen supply device is further arranged at the bottom of the oxygenation machine box, extends towards the deep water and is provided with an oxygen injection tank. The application can reduce the influence of water pressure and buoyancy on oxygen diffusion, improve the diffusion proportion to the deep water and ensure the overall coverage of the oxygenation of the aquaculture.

The utility model provides a control system of an oxygen dispersion terminal, and relates to the technical field of dispersion oxygenerators, comprising: an input unit comprising an oxygen concentration acquisition module and a blood oxygen detection module; the output unit comprises an oxygen dispersion control module; the liquid crystal display module comprises a touch display screen; and the MCU control module is respectively connected with the input unit, the output unit and the liquid crystal display module. The input unit comprises a blood oxygen detection module which is connected with the MCU control module, so that the oxygen diffusion terminal can output oxygen according to the blood oxygen of the user, and the problem that if the blood oxygen of the user needing to inhale oxygen is low due to altitude stress or other reasons, the user cannot directly know the blood oxygen state of the user in the special altitude environment, and the user cannot inhale the oxygen is solved. The technical problem that the oxygen output terminal cannot adjust the oxygen output state according to the blood oxygen state of the user is solved, and the intelligent degree, the use convenience and the practicability of the oxygen dispersion terminal are improved.

The invention discloses an intelligent feedback intravascular minimally invasive oxygenation device integrating oxygen self-supply and carbon dioxide removal, and relates to the technical field of medical life support equipment. The device comprises a main machine, an oxygen generator and an oxygenation guide pipe, the oxygen generator and the oxygenation guide pipe are arranged in the main machine, the oxygenation guide pipe comprises a central supporting pipe, the air inlet end of the central supporting pipe is communicated with an oxygen outlet of the oxygen generator, and a hollow fiber membrane bundle is wound around the periphery of the central supporting pipe. And the air outlet end of the central supporting pipe is communicated with the air inlet end of the hollow fiber membrane bundle. While the portability of the device is guaranteed, when oxygen passes through the central supporting tube and then is conveyed into the hollow fiber membrane bundle, controllable micro vortexes can be generated, the thickness of invalid laminar flow on the blood side is reduced, meanwhile, the oxygen diffusion efficiency and the carbon dioxide removal efficiency can be improved, and the oxygen diffusion efficiency and the carbon dioxide removal efficiency can be improved while continuous oxygen supply to blood is guaranteed. And retention carbon dioxide in blood is effectively removed, and the oxygen demand of basic metabolism of adult patients is effectively met.

The invention relates to the technical field of water treatment, and discloses an aerobic-anaerobic microenvironment coupled hydrotalcite-like based bio-particle and fluidized bed treatment method, the method comprises the following steps: adding hydrotalcite-like based bio-particles into a fluidized bed, using charge sites to adsorb anions to construct an enrichment layer, dissolved oxygen diffusion damping is generated, and a microenvironment with an anaerobic inner core and an aerobic outer edge is formed; lift pump operation current residual features are extracted, and the biological membrane thickness is calculated according to the features; the pump output frequency is adjusted to make the rising velocity fluctuate periodically, and the particle surface is scoured by flow field shear force to maintain film thickness balance; by adjusting water inlet load to induce fluctuation of denitrification products, phosphate radicals are driven to migrate to the outer edge and are taken by phosphorus-accumulating bacteria, stable coupling of single-particle aerobic nitrification and anaerobic denitrification is realized, in-situ regeneration of carrier adsorption sites is guaranteed, carrier surface scaling is inhibited, and the stability of a treatment system is improved.

The present application relates to the technical field of bioinformatics, and discloses a microorganism mineralization induction regulation method, device, equipment and medium. The method comprises the following steps: acquiring morphological parameters of target microorganisms, and defining a biofilm geometric domain; determining the probability distribution of cell-capsule structure units in the biofilm geometric domain based on the geometric domain and in combination with a random probability distribution function, and further determining a compaction density factor and establishing a series resistance model of oxygen transmission; based on the biofilm geometric domain and the series resistance model, solving control equations containing diffusion and reaction kinetics to determine the capsule phase oxygen diffusion parameters in the capsule phase. Based on the oxygen diffusion parameters and the compaction density factor, an effectiveness factor is determined, the oxygen supply state of the target microorganisms is evaluated through the effectiveness factor, the MICP grouting process parameters are feedback regulated according to the oxygen supply state, and the regulation effect of the microorganism-induced calcium carbonate precipitation is improved by quantifying the degree of oxygen mass transfer limitation.