44 results about "Membrane array" patented technology

A module arrangement (5) according to an embodiment of the invention consists of a plurality of membrane modules (6) arranged in a two dimensional array (7) and extending between upper and lower block-type manifolds (8) and (9), respectively. The array of modules is further divided into sub-groups of modules (10) separated from each other by space (11) extending transversely across the membrane array (7). An integrated support frame (12) is positioned in the space (11) between the sub-groups (10) and is fixed to the upper and lower manifold blocks (8) and (9) to form an integrated support structure within the module array (7).

A commercially viable modular ceramic oxygen transport membrane reforming reactor for producing a synthesis gas that improves the thermal coupling of reactively-driven oxygen transport membrane tubes and catalyst reforming tubes required to efficiently and effectively produce synthesis gas.

The invention relates to a commercially viable modular ceramic oxygen transport membrane system for utilizing heat generated in reactively-driven oxygen transport membrane tubes to generate steam, heat process fluid and/or provide energy to carry out endothermic chemical reactions. The system provides for improved thermal coupling of oxygen transport membrane tubes to steam generation tubes or process heater tubes or reactor tubes for efficient and effective radiant heat transfer.

The invention relates to a phospholipid bilayer membrane array fabricated by a multilayer polyelectrolyte membrane substrate and a fabrication method. A static layer-by-layer self-assembly technology is adopted to fabricate polyelectrolyte poly-(4-sodium styrene sulfonate) (PSS) and poly-(diallyl dimethyl ammonia chloride) (PDDA) multilayer membranes on a silicon substrate modified by 3-ammonia propyltriethoxysilane, the modified substrate is subjected to patterning by a photetching technology, arrays of a polyelectrolyte in different types are fabricated, a phospholipid bilayer membrane is fabricated at the bottoms of the arrays, and the phospholipid bilayer membrane array is fabricated. According to the method, the layer-by-layer assembly technology is introduced into the fabrication of the patterned substrate, the fabrication method of the phospholipid bilayer membrane array is enriched and expanded, the method has the advantages of simplicity in operation, mild reaction conditions, good controllability, high stability, low cost and the like, and a reliable technology is provided for the research and application of biological membrane characteristics with respect to the fields of membrane biophysics, interface chemistry, biochemistry, bionics and micro-nano technologies.

The invention discloses a graphical quantum-dot thin film preparation method based on electrostatic induction. The method comprises the steps of (1) preparation and treatment of an array template; (2) preparation and coating of a quantum-dot reaction solution; (3) placement of electrostatic induction pole plates; and (4) electrostatic induction molding. The method combining electrostatic induction and the microstructural template is adopted, a quantum-dot color film substrate is prepared, the preparation process of quantum dots and the molding process of a quantum dot color film array are combined, and accordingly one-step operation is achieved; and the method is easy to operate, high in efficiency and control precision, suitable for molding of red, green and blue quantum dot color film, problems existing in the prior art are effectively solved, the manufacturing cost is lowered, and the method is suitable for a large-scale production process.

An improved electrically conductive membrane pump/transducer. The electrically conductive pump/transducer includes an array of electrically conductive membrane pumps that combine to move a larger membrane (such as a membrane of PDMS). The electrically conductive membranes in the array can be, for example, graphene-polymer membranes.

The invention discloses a method for preparing a patterned phospholipid membrane array on ITO (indium tin oxide) conductive glass, and the method comprises the steps: (1), self-assembling of TODS on the surface of ITO: immersing the washed ITO into fresh TODS-methylbenzene solution, sealing the solution and placing the solution silently for 4-12 hours, taking out the solution, placing the solution into methylbenzene for ultrasonic cleaning for 5-10 min, washing the methylbenzene on the surface of ITO through ethyl alcohol, carrying out drying through nitrogen, and carrying out the sealed storage for later use; (2), the preparation of a patterned ITO substrate: placing a chromium film plate with a patterned lattice on the ITO glass decorated with a TODS self-assembly film, and irradiating the chromium film plate for 17-25 min; (3), dripping 50-200 microlitre of phosphatide vesicle solution on the surface of a patterned ITO electrode, placing the electrode silently for 30-60 min under the temperature 20-60 DEG C, and forming a pattern phosphatide film on the ITO electrode. The phosphatide film prepared through method can be represented through a luminescence microscope and an electrochemical method, can be used for the research of the two-dimensional film electrophoresis of charged species in the film, and achieves the gathering and separating of charged species in the phosphatide film.

A cylinder arrangement for use with a reverse osmosis membrane array that receives pressurized fresh brine and generates fresh water and pressurized spent brine includes a hollow cylinder with an internal volume subdivided by a piston into two chambers. An arrangement of flow connections directs the pressurized spent brine to one chamber so as to act on the piston, thereby applying pressure to fresh brine within the other chamber for delivery to the reverse osmosis membrane array. The cylinder arrangement includes a pressure vessel enveloping substantially the entirety of the hollow cylinder, so as to define an enveloping volume in fluid flow communication with one of the chambers of the cylinder. Preferred implementations employ a pair of cylinders coaligned, and with their pistons interconnected by a common piston rod.

The invention discloses a manufacturing method for wafer level uniaxial strain GeOI based on a silicon nitride stress membrane and the scale effect. The realization steps are that 1. a germanium-on-insulator GeOI wafer is cleaned, and He ion injection is performed; 2. a pressure stress SiN membrane of more than -1GPa or a tensile stress SiN membrane of more than 1GPa is deposited on the Ge layer of the top layer of the GeOI wafer after ion injection, and the SiN membrane is etched into strip arrays; 3. annealing is performed on the GeOI wafer having the SiN membrane arrays; and 4. the SiN membrane arrays arranged on the surface of the GeOI wafer are removed through corrosion so that the wafer level uniaxial strain GeOI material is obtained. Strain is introduced into the Ge layer of the top layer by utilizing uniaxial tension or uniaxial compressive plastic deformation of an SiO2 buried insulating layer under the effect of the strip SiN membrane arrays. The manufacturing method is compatible with the existing technology, and the required GeOI wafer used for photoelectric integration and system-on-chip can be manufactured.

The invention provides a preparation method of a power generation and water purification production integrated functional area, which comprises the steps of partially reducing a vertically oriented carboxylated graphene/alumina nanofiber composite membrane array, filling aluminum particles in an upper channel, and compounding aminated bacterial cellulose in a lower channel to obtain the power generation and water purification production integrated functional area. The functional area prepared by the method can spontaneously generate electric energy by virtue of directional movement of water flow caused by water evaporation, aluminum particles achieve a quicker evaporation effect by virtue of a plasmon effect, and the graphene/aluminum oxide nanofiber composite membrane array at the upper part of the composite membrane array effectively improves the distillation efficiency and shortens the distillation time, the carboxylated graphene/aluminum oxide nanofiber composite membrane array atthe lower part of the composite membrane array is used for drawing water flow and firmly grasping the water surface, and the capability of preventing stormy waves and turbulence is achieved.

An acoustic device (100) comprises an array of acoustic membranes (1, 2, 3, 4) formed on a foil (10). Each of the acoustic membranes (1, 2, 3, 4) is configured to vibrate ata resonance frequency (Fr) of the acoustic membranes (1, 2, 3, 4) for generating respective acoustic waves (W1,W2,W3,W4). Relative phases (ΔΦ12,ΔΦ34) are determined at which the acoustic membranes (1, 2, 4, 5) are actuated for generating a predetermined interference pattern (C) between the acoustic waves (W1,W2,W3,W4). A lamb wavelength (As) is determined of lamb waves (Ws) at the resonance frequency (Fr) travelling through intermediate sections (lOi, lOj) of the foil between adjacent acoustic membranes (1,2; 3,4). Distances (X12,X34) of the intermediate sections (10i, 10j) between the adjacent acoustic membranes (1,2; 3,4) in the layout are determined in accordance with the relative phases (ΔΦ12,ΔΦ34) and the lamb wavelength for having the lamb waves (Ws), generated by one acoustic membrane (1,3), arrive in phase with an adjacent acoustic membrane (2,4).

The present disclosure provides a broadband cascaded splitting film array waveguide and a display system comprising the same. The cascaded splitting film array waveguide includes a plurality of glass substrates and a splitting film array, each film of the splitting film array is sandwiched between two adjacent glass substrates and consists of a plurality of H coatings and L coatings alternately arranged in sequence, wherein the H coatings are coatings made of a high refractive index material, the L coatings are coatings made of a low refractive index material, each film of the splitting film array has an even number of coatings, and thicknesses an, pn of the coatings of the film are selected based on the band width and angle of the light beam.

The invention relates to an electromagnetic wave absorbing structure which comprises a metal floor and k layers of wave absorbing modules sequentially arranged on the metal floor. The ith layer of wave absorbing module comprises an ith layer of foam substrate and an ith layer of thin film unit, and the ith layer of thin film unit is arranged on the ith layer of foam substrate; the ith layer of thin film unit comprises p2 * m * n resistive thin films which are arranged on the ith layer of foam substrate in an array manner; the (i + 1) th layer of thin film unit comprises q2 * m * n resistive thin films which are arranged on the (i + 1) th layer of foam substrate in an array mode, q is larger than p, and q and p are both positive integers larger than or equal to 1. The electromagnetic wave-absorbing structure disclosed by the invention can simultaneously meet the requirements of low cost, light weight, low profile and high-efficiency ultra-wideband wave absorption, realizes high-efficiency wave absorption within 10 octave ranges at the profile height of 0.08-0.15[lambda]0 initial working frequency, has the absorptivity of more than 90%, and can effectively cover 30-300MHz, 300MHz 3GHz frequency bands or 3-30GHz and other ultra-wide frequency bands.