35 results about "Mixed phase" patented technology

This application discloses a two-dimensional flexible biochemical sensor, its fabrication method, and its application, relating to the field of biochemical sensors. It comprises a substrate, a gate electrode layer, a dielectric layer, a mixed-phase transition metal chalcogenide (MTC) layer, and a MTC pn junction layer stacked sequentially. Electrode layers, both connected to the mixed-phase MTC layer and the MTC pn junction layer, are further disposed on the latter. Both the mixed-phase MTC layer and the MTC pn junction layer comprise the same MTC compound. The gate electrode layer is used to regulate the current in the mixed-phase MTC layer, and the MTC pn junction layer is used to sense biochemical signals and generate changing currents. This application is beneficial for improving the sensitivity and response speed of biochemical sensors.

The present invention provides a method for cleaning a flow-type reaction apparatus that produces a reaction product by bringing two or more raw materials into contact, and a method for producing the reaction product. [Solution] The cleaning method for the reaction apparatus 100 includes a first cleaning step of supplying cleaning liquid and inert gas to the reaction section M, a second cleaning step performed after the first cleaning step of supplying only cleaning liquid to the reaction section M, a third cleaning step performed after the second cleaning step of allowing the cleaning liquid to remain in the reaction section M, a fourth cleaning step performed after the third cleaning step of replacing the cleaning liquid remaining in the reaction section M with new cleaning liquid, and a fifth cleaning step performed after the fourth cleaning step of reducing the concentration of the cleaning liquid remaining in the reaction section M. In the first cleaning step, the cleaning liquid is supplied via the first line 1 and the inert gas is supplied via the second line 2, thereby supplying the cleaning liquid and inert gas simultaneously and allowing the reaction section M to flow in a gas-liquid mixed phase flow state.

1. The name of the design product: the head of camera cleaning device. 2. The use of the design product: the overall use is for cleaning camera, the partial use is the nozzle part of camera cleaning device, which is used for spraying liquid, gas or gas-liquid mixed phase to clean the camera. 3. The design points of the design product: the shape of the partial part is claimed. 4. The picture or photo that best shows the design points: perspective view 1. 5. Other circumstances that need to be explained: the partial part drawn by solid line is claimed; the dotted line is only used to distinguish the protected part and the non-protected part.

The present invention relates to mixed phase layered sodium metal oxide materials, which have been found to have properties that are advantageous for use of the materials in sodium-ion batteries. The present invention also relates to a method of forming such materials via a sol-gel route. Electrodes comprising the layered sodium metal oxide materials as well as energy storage devices comprising the layered sodium metal oxide materials are also considered.

The utility model discloses an oil sludge treatment device based on aeration facilities, including processing box, stirring mechanism, aeration mechanism and photovoltaic mechanism, and stirring mechanism includes first helical agitator, second helical agitator, gas permeable box, first sprocket, motor, transmission chain and second sprocket, and the motor is used to drive first helical agitator and second helical agitator rotation, and aeration mechanism includes cyclone diffuser, pressure -resistant connecting pipe and steam generator, and steam generator is used to drive cyclone diffuser and spray steam, and photovoltaic mechanism includes energy storage battery, inverter, photovoltaic controller and photovoltaic board. The utility model discloses through helical agitator and steam jet cooperation, ensure that oil sludge and steam contact fully and form even mixed phase state, form high temperature airflow disturbance, promote oil, water, solid phase's physical separation in oil sludge, play the effect of double efficient aeration treatment oil sludge.

A multi-phase mixing and separating device, comprising a cylindrical tank body (1). A transverse partition plate (2) is provided at the lower part of an inner chamber of the cylindrical tank body (1), and divides the inner chamber into a two-phase inflow region and a two-phase mixing and separating region; a longitudinal partition plate (3) is provided in the middle of the two-phase inflow region, and divides the two-phase inflow region into an organic phase region (4) and an aqueous phase region (5); the bottom of the cylindrical tank body (1) is provided with an organic phase inlet pipe port (6) and an aqueous phase inlet pipe port (7); the center of the transverse partition plate (2) is provided with a two-phase confluence port (8), the organic phase region (4) and the aqueous phase region (5) both being communicated with the two-phase confluence port (8); the two-phase mixing and separating region is separated by a vortex partition plate (9) into a vortex channel (10); the central region of the vortex channel (10) is a stirring region (11), the side wall of the stirring region (11) being provided with a mixed phase outlet (12); phase separation plates (13) are longitudinally distributed in the vortex channel (10); a stirring motor (14) is provided at the top of the cylindrical tank body (1) and is connected to a stirring rod (15) extending into the stirring region (11); an aqueous phase outlet (16) is provided at the lower part of the side wall of the two-phase mixing and separating region; an organic phase outlet pipe port (25) is provided at the upper part of the side wall of the two-phase mixing and separating region; an aqueous phase regulator (17) is provided outside the side wall of the two-phase mixing and separating region.

1. The name of the design product: the head of camera cleaning device. 2. The use of the design product: the overall use is for cleaning camera, the partial use is the nozzle part of camera cleaning device, which is used for spraying liquid, gas or gas-liquid mixed phase to clean the camera. 3. The design points of the design product: the shape of the partial part is claimed. 4. The picture or photo that best shows the design points: perspective view 2. 5. Other circumstances that need to be explained: the partial part drawn by solid line is claimed; the dotted line is only used to distinguish the protected part and the non-protected part.

The application discloses a high-viscosity gear pump shaft extension end sealing structure and sealing method, belongs to the field of rotary machinery sealing, and has a tooth-shaped seal and a chamber in a sealing body. A rotating shaft passes through the tooth-shaped seal and the chamber in sequence and is matched with a tooth-shaped seal gap to form a non-contact seal. At least two packing rings made of expanded graphite are arranged in the chamber and sleeved on the rotating shaft. A gas passage for feeding high-pressure gas into the chamber is arranged on the sealing body. The expansion degree of the packing ring is controlled by adjusting the temperature of the high-pressure gas, so that the packing ring is in frictional contact with the rotating shaft, a solid-liquid mixed phase of graphite powder and lubricating oil is formed, the gap between the packing ring and the rotating shaft is filled and sealed, and the sealing is completed. The graphite fine powder is first generated by the contact and friction between the rotating shaft and the packing ring, the graphite fine powder is mixed with lubricating liquid to form a solid-liquid mixed phase, the solid-liquid mixed phase is filled into the gap between the rotating shaft and the sealing body, and the composite sealing of the shaft extension end is realized in cooperation with the gas seals and the tooth-shaped seal on both sides.

This invention relates to the field of heat energy recovery equipment technology, and discloses a phase change heat exchanger for utilizing waste heat from waste incineration flue gas, comprising: an upper condensing chamber and a lower evaporating chamber; a steam drum is fixedly installed inside the upper condensing chamber, and a multi-valve linkage mechanism is configured at the top of the steam drum; a straight tube bundle is fixedly installed inside the lower evaporating chamber; the top of the straight tube bundle is connected to the bottom of the steam drum via a condensing downcomer, and the bottom is connected to the side of the steam drum via a steam riser, forming a closed-loop phase change circulation circuit. The circuit is filled with a binary mixed phase change working fluid, and also includes a temperature sensor, an intelligent control module, and a drain valve, with the drain valve electrically connected to the intelligent control module. This invention solves the problems of uneven wall temperature control, easy low-temperature corrosion, low heat transfer efficiency, poor gas-liquid separation effect, narrow operating condition range, insufficient recovery of water vapor condensation heat and "white smoke" emission, and the inability of a single phase change working fluid to adapt to cascade waste heat recovery in existing flue gas waste heat recovery equipment.

1. The name of the design product: the head of camera cleaning device. 2. The use of the design product: the overall use is for cleaning camera, the partial use is the nozzle part of camera cleaning device, which is used for spraying liquid, gas or gas-liquid mixed phase to clean the camera. 3. The design points of the design product: the partial shape is claimed. 4. The picture or photo that best shows the design points: design 1 perspective view. 5. Design 1 is designated as the basic design. 6. Other circumstances that need to be explained: the part not coated with red in the view is the claimed partial, the part coated with red is the unclaimed partial, and the color is not claimed.

This invention relates to a high-strength multiphase hot-rolled wire rod for 2330MPa grade stranded wire and its manufacturing method. The method involves rolling a high-carbon, Mo-containing wire rod into wire, followed by online molten salt mixing and quenching toughening treatment. The wire rod undergoes a preliminary molten salt treatment followed by rapid cooling, transitioning from an austenitic state to a mixed phase region of bainite and sorbite, forming a microstructure dominated by bainite and sorbite. A subsequent molten salt treatment increases the molten salt temperature, promoting the decomposition of untransformed residual austenite into sorbite, followed by isothermal tempering. Finally, the wire rod undergoes slow cooling on a roller conveyor, resulting in a hot-rolled wire rod with a microstructure consisting of tempered bainite and tempered sorbite, comprising a multiphase microstructure. This method enables multiphase microstructure control and online toughening, while maintaining production efficiency. The hot-rolled wire rod can achieve a tensile strength of 1563~1613MPa and a reduction of area of ​​29%~34%, eliminating the need for offline heat treatment during ultra-high strength stranded wire production and reducing the risk of wire breakage.

This invention discloses a method, apparatus, device, and storage medium for mixed speech separation. The method includes: acquiring mixed speech to be separated; performing decomposition and transformation processing on the mixed speech to be separated to obtain mixed amplitude information and mixed phase information corresponding to the mixed speech; inputting the mixed amplitude information into a target speech separation model for speech separation processing, and obtaining a time-frequency mask corresponding to the mixed speech to be separated based on the output of the target speech separation model; determining human voice amplitude information and noise amplitude information based on the time-frequency mask and the mixed speech to be separated; and determining target human voice speech and target noise speech based on the mixed phase information, the human voice amplitude information, and the noise amplitude information, thereby improving speech separation accuracy, optimizing speech separation smoothness, and enhancing user experience.

The present application relates to the field of atmospheric science and numerical calculation technology, and discloses a kind of atmospheric numerical simulation method and application based on the conservation constraint of multiphase water substance, and the evolution calculation of each phase water substance under the condition of discrete grid and discrete time step is oriented to the cloud microphysical parameterization of atmospheric numerical model.The method obtains the density and velocity field of each component in the grid unit, constructs the mass proportion variable normalized with wet air density;Define the growth rate per unit volume per unit time and represent the phase change source and sink with the component continuity equation;According to the mass proportion evolution equation, the coupling discrete updating rule is established, the total water substance growth rate residual error and the proportion residual error corresponding to the equivalent conservation expression are calculated, and the corrected growth rate that satisfies the conservation constraint is obtained through consistent correction to rewrite and update the mass proportion field.The method can inhibit the drift of water substance balance and reduce the phase distribution error under the condition of mixed phase cloud, and is suitable for numerical weather prediction and regional numerical simulation.

The present application belongs to the technical field of oil and gas development, and particularly relates to a gas-liquid full-mixed-phase oil displacement method under supercritical state. The method comprises the following steps: mixing supercritical gas and injection liquid in a volume ratio of 1:1-4 under the conditions of 1.1-1.3 times of the critical pressure and 1.0-1.2 times of the critical temperature of the supercritical gas, and then injecting the mixture into a pump under the conditions of 20-25 MPa and a flow rate of 3-13 m³ / h, determining the injection rate according to the permeability of the oil reservoir, and injecting the mixture into the oil reservoir through a water injection well or a production well, wherein the injection liquid is obtained by diluting the oil displacement agent with water at a ratio of 1-5 parts by weight. The oil displacement method can significantly improve the oil recovery rate, and the oil displacement recovery rate of low-oil-saturation heavy oil reservoirs is improved by 28% compared with traditional water flooding, the oil displacement recovery rate of low-permeability oil reservoirs is improved by 32% compared with traditional gas flooding, and the waste gas storage rate reaches 82%, which has remarkable environmental benefits.

The present application provides a kind of temperature variation cavitation numerical calculation method considering turbulence correction and energy-phase coupling, it is related to cavitation numerical calculation technical field, the present application obtains fluid unit temperature, current pressure, mixed phase density, flow velocity vector, turbulent kinetic energy and turbulent dissipation rate;Static saturated vapor pressure is established by fluid unit temperature, combined with the compensation of the generation of dynamic critical vaporization pressure of turbulence pressure fluctuation characteristics;Based on turbulent kinetic energy and turbulent dissipation rate, establish the reference item of moving turbulent viscosity, perform product substitution operation on it using density attenuation characteristics to generate local effective turbulent viscosity;According to the deviation of current pressure and dynamic critical vaporization pressure, establish phase change driven pressure difference, output phase change mass transfer rate and convert into phase change energy source term;Subsection analysis temperature evolution sensitivity, generate energy damping factor by mixed phase bulk heat capacity reduction process;Combined with flow velocity vector, joint iteration is solved and flow field distribution data is output, so as to improve the precision of temperature variation cavitation numerical calculation.

This invention discloses a low-temperature steel rebar specimen for tensile testing, its preparation method, and its application, relating to the field of steel performance testing technology. The specimen includes a matrix comprising a reinforced zone, a transition zone, and a test zone. There are two reinforced zones and two transition zones, located at opposite ends of the test zone. The ends of the two transition zones furthest from the test zone are the two reinforced zones. The matrix microstructure of the reinforced and transition zones consists of ferrite and martensite, while the matrix microstructure of the test zone consists of ferrite and pearlite. By employing end-strengthening, three different zones are formed in the matrix microstructure. The reinforced and transition zones, containing a mixed phase of ferrite and martensite, exhibit improved mechanical properties compared to the test zone. This prevents the specimen from breaking outside the low-temperature chamber during low-temperature tensile testing, enabling accurate detection of the specimen's tensile properties at low temperatures.

The present disclosure relates to a mixed-phase iron-based catalyst and a preparation method. The mixed-phase iron-based catalyst comprises 82-95 wt% of an active component and 5-18 wt% of a structural aid, based on the total weight of the mixed-phase iron-based catalyst; the active component comprises 39-88 mol% of Fe7C3, 8-39 mol% of Fe3C and 4-22 mol% of iron-containing impurities, based on the total molar content of the active component; and the structural aid is silicon dioxide. The mixed-phase iron-based catalyst of the present disclosure has high CO conversion rate, low CH4 and CO2 selectivity, and maintains the stability of the reaction. The catalyst preparation method of the present disclosure is simple, can produce catalysts in large quantities, and the prepared catalysts have good activity and stability, and have good application prospects.

The application discloses a kind of liquid-phase hydrogenation method, by setting special distributor inside hydrogenation reactor, the movable ball that is set in each distribution pipe, can according to the real-time change of feed flow and gas-liquid ratio automatically adjust the resistance of each distribution channel, realizes the accurate throttling and distribution control of gas-liquid mixed phase stream from the bottom of self reactor, significantly promotes the dissolution and uniform mixing of hydrogen in liquid phase, greatly improves gas-liquid mass transfer efficiency and intrinsic reaction rate, to ensure the high conversion rate of raw material, the high selectivity of product and the high utilization rate of catalyst, intensifies the sufficient contact between reactants, reduces the occurrence of side reaction and the local coking and deactivation of catalyst, while improving the operating stability and processing capacity of reactor, provides an effective and industrialized implementation solution for the scale-up and optimization of liquid-phase hydrogenation process.

This application provides a liquid cooling system and its control method, apparatus, and computer-readable storage medium. The liquid cooling system control method includes: determining whether there is a risk of freezing of the cooling medium in the cooling medium circulation loop; when it is determined that there is a risk of freezing of the cooling medium in the cooling medium circulation loop, determining the phase state of the cooling medium based on the inlet and outlet pressure difference of the water pump and the startability of the water pump, wherein the phase state of the cooling medium includes a solid phase and a solid-liquid mixed phase; and determining a control strategy for the heating device and the water pump based on the phase state of the cooling medium, so as to melt the cooling medium in the cooling medium circulation loop into a liquid phase, wherein the control strategy includes a solid phase melting control strategy and a solid-liquid mixed phase melting control strategy.

The invention provides a pre-stack seismic inversion method and device, a storage medium and electronic equipment, and belongs to the technical field of exploration and development. The method comprises the steps that incident angle seismic data and a low-frequency initial model are acquired, mixed phase wavelets are extracted from the incident angle seismic data, and the incident angle seismic data comprise a seismic wave incident angle and corresponding measurement seismic data; determining a coefficient matrix based on a three-item approximate expression of the seismic wave incident angle and a preset reflection coefficient; based on the coefficient matrix and the mixed phase wavelet, calculating by using a preset forward modeling matrix to obtain simulated seismic data and a forward operator; and based on the low-frequency initial model, the measured seismic data, the simulated seismic data and the forward operator, performing inversion on the incident angle seismic data to obtain an inversion result. And the pre-stack seismic inversion under the VTI medium assumption can be accurately realized.

The method for producing a selective hydrogenation catalyst involves approximately 30 to 60 square meters / gram (m²). 2 The method also includes forming a mixed-phase alumina support having a BET surface area in the range of / g), the mixed-phase alumina support comprising alpha-alumina and theta-alumina. The method further includes impregnating the mixed-phase alumina support with an impregnation solution having one or more metals selected from Group VIIIB, Group IB, or both of the periodic table to form an impregnated support; drying the impregnated support at a temperature in the range of approximately 100°C to 150°C to form a dried impregnated support; calcining the dried impregnated support at a temperature in the range of 350°C to approximately 500°C to form a calcined impregnated support; and reducing one or more metals on the calcined impregnated support in the presence of hydrogen at a temperature in the range of approximately 400°C to approximately 600°C to form a selective hydrogenation catalyst.

This invention relates to a high-strength multiphase hot-rolled wire rod for 2360MPa grade stranded wire and its manufacturing method. The method involves rolling the wire rod into a high-carbon Mo-V system, followed by online molten salt weak quenching and toughening treatment. The wire rod undergoes rapid cooling in the initial molten salt treatment, transitioning from an austenitic state to a mixed phase region of bainite and sorbite, forming a microstructure dominated by bainite and sorbite. A subsequent molten salt treatment increases the molten salt temperature, promoting the decomposition of untransformed residual austenite into sorbite, followed by isothermal tempering. Finally, the wire rod undergoes slow cooling on a roller conveyor, resulting in a hot-rolled wire rod with a microstructure consisting of tempered bainite and tempered sorbite, comprising a multiphase microstructure. This allows for online control of the microstructure and toughness, achieving a tensile strength of 1574~1627MPa and a reduction of area of ​​28%~33%, reducing fluctuations in mechanical properties and balancing material cost and production efficiency. This eliminates the need for offline heat treatment to produce ultra-high-strength stranded wire, reducing the risk of wire breakage.

The application discloses a design method of a shell-boiling tube-condensing wound tube heat exchanger, according to the inlet and outlet temperatures of the tube and the shell, the dew point and bubble point of the working medium of the tube and the shell, the whole heat exchanger is divided into three parts, i.e. a tube-condensing shell-liquid section, a tube-condensing shell-boiling section and a tube-condensing shell-gas section, and the heat exchange capacity, the surface heat exchange coefficient of the tube and the shell, the comprehensive heat exchange coefficient, the pressure drop of the tube and the shell, the heat exchange area and the axial effective heat exchange length of the three parts of the wound tube heat exchanger are respectively designed and calculated; the tube is always in a gas-liquid mixed phase state of condensation phase change, the surface heat exchange coefficients of the tube and the shell are related to the dryness, therefore, the three parts of the wound tube heat exchanger are designed and calculated by using the finite volume method. The design method of the shell-boiling tube-condensing wound tube heat exchanger has the characteristics of high calculation precision, complete design method and high calculation efficiency, and has high commercial value and market promotion value.

To provide a magnesium secondary battery that can improve energy density while suppressing overvoltage. [Solution] The magnesium secondary battery according to the present invention comprises a positive electrode, a negative electrode comprising a porous metal body having a three-dimensional network structure in which powder of a magnesium metal material, which is the negative electrode active material, is held, a separator, and a non-aqueous electrolyte. The non-aqueous electrolyte is obtained by dissolving a magnesium salt in an organic solvent, and the magnesium metal material is a magnesium alloy having multiple different crystal structures in a mixed phase.

The application discloses a kind of preparation methods of two-dimensional 1T / 2H mixed phase MoS2 / TiO2 nano composite catalyst for polycyclic aromatic hydrocarbon hydrogenation.The present application comprises the following steps:(1) the preparation of two-dimensional TiO2 nanometer material: after mixing fluorine-containing ionic liquid and water uniformly, it is added dropwise into titanium source solution, and two-dimensional anatase TiO2 nanometer sheet is obtained.(2) the preparation of 1T / 2H mixed phase MoS2 and two-dimensional TiO2 nanometer material: two-dimensional TiO2 nanometer material is dispersed in deionized water, molybdenum source, sulfur source and reducing agent are dissolved in deionized water, and after heat treatment and crystallization, the precipitate is separated out, and 1T and 2H mixed phase two-dimensional MoS2 / TiO2 nano composite catalyst is obtained after sufficient drying.The two-dimensional structure 1T / 2H-MoS2 / TiO2 nanometer material prepared by the synthesis method of the present application has the characteristics of high hydrogenation active site exposure and good high temperature and high pressure stability.

The present invention belongs to the technical field of exploration and development. Provided are a pre-stack seismic inversion method and apparatus, and a storage medium and an electronic device. The method comprises: acquiring angle-of-incidence seismic data and a low-frequency initial model, and extracting a mixed-phase wavelet from the angle-of-incidence seismic data, wherein the angle-of-incidence seismic data comprises the angle of incidence of seismic waves and corresponding measured seismic data; on the basis of the angle of incidence of seismic waves and a preset three-term approximation expression of a reflection coefficient, determining and obtaining a coefficient matrix; on the basis of the coefficient matrix and the mixed-phase wavelet, using a preset forward matrix to perform calculation, so as to obtain simulated seismic data and a forward operator; and on the basis of the low-frequency initial model, the measured seismic data, the simulated seismic data and the forward operator, performing inversion on the angle-of-incidence seismic data, so as to obtain an inversion result. Pre-stack seismic inversion under a VTI medium assumption can be accurately implemented.

The present invention relates to a sputtering target manufactured by powder metallurgy comprising tungsten (W), nickel (Ni), and one other metal X selected from the group consisting of group 5 or 6 of the periodic table, as well as unavoidable impurities, wherein the sputtering target has a two-phase microstructure, one phase being pure W and the other phase being a mixed phase selected from the group consisting of NiWX, NiW, NiX, and mixtures thereof. The present invention further relates to a method for manufacturing a WNiX sputtering target by powder metallurgy.

The present application relates to a kind of green light perovskite laser and its preparation method, solve the problem that the energy transfer efficiency of the existing quasi-two-dimensional perovskite is not conducive to the regulation of mixed phase component due to rapid crystallization.The laser includes substrate and the bottom distributed bragg reflector of the alternating structure of titanium oxide and silicon dioxide arranged on substrate in turn, the perovskite luminescent layer of atmosphere auxiliary crystallization created by DMSO and the top distributed bragg reflector of the alternating structure of zinc sulfide and yttrium fluoride.The present application delays the crystallization process of quasi-two-dimensional perovskite by DMSO atmosphere, effectively improves the crystal quality of perovskite, regulates the phase distribution of quasi-two-dimensional perovskite, speeds up the energy transfer process from small n phase (n=2) to large n phase (n≥5), and prepares perovskite film with low surface roughness and good crystallinity. By combining distributed bragg reflector, a microcavity laser is realized under room temperature continuous laser pumping.