141 results about "Sandwich like" patented technology

A simple, biocompatible system and procedure for generating nitric oxide (NO) is described. A mixture of powdered sodium nitrite, ascorbic acid, and maleic acid (or another organic acid of adequate strength) immediately generates nitric oxide (NO) on treatment with water. To slow down the NO generation, one may prepare an ointment from a nonaqueous medium (petrolatum, Vaseline™) and the three powdered ingredients, which on being applied topically on the skin will release NO as water permeates through this medium; alternatively, one may convert the aqueous sodium nitrite solution into a gel with hydroxyethylcellulose (or other gel-forming compound) and combine this gel with another gel obtained from aqueous ascorbic and maleic acids with hydroxyethylcellulose for topical application (on intact skin, burns intra-cavity, burns, intra-cavity, etc.). The two gels may be admixed immediately before use (possibly from a single container with separate chambers and dual nozzle, via pushing or squeezing the two gels through the nozzle), or may be applied in sandwich-like fashion (possibly as a transdermal patch) for further slowing down the delivery of NO.

Disclosed are tablets having a sandwich-like structure comprising at least one inner layer of gum base containing one or more active pharmaceutical, dietetic or nutritional ingredients and two non-contigous outer layers comprising antiadhesion excipients and compression adjuvants preventing the adhesion to the punches of the tabletting machine and possibly active ingredients which are the same as or different from those present in the inner layer. Said tablets are obtainable by direct compression of mixtures or granulates of the various components of each layer.

The roughness and structural height of printed metal lines is used to pin a fluid. This fluid deposits a top contact material which is connected to the bottom printed contacts through pinholes in the hydrophobic polymer layer. This results in a sandwich-like contact structure achieved in a self-aligned deposition process and having improved source-drain contact for all-additive printed circuits. In one form, the present technique is used for thin film transistor applications, but it may be applied to electrodes in general.

A pulley consists of a pulley basic body which has a cylindrical outer circumferential surface. Sitting on this cylindrical outer circumferential surface is a tire which is of sandwich-like design with regard to its radial extent. This results in a plurality of rings concentric to one another. The ring which is furthest on the inside in the radial direction and the ring which is furthest on the outside in the radial direction are in each case elastomeric rings, whereas a reinforcing ring is located between them. The elastomeric outer ring is harder than the elastomeric inner ring, so that a very abrasion-resistant surface is achieved, over which the rope runs, whereas the elastomeric inner ring provides for adequate resilience. The reinforcing ring is provided in order to distribute the rope load as uniformly as possible over the elastomeric inner ring.

A curved vehicle door having a correspondingly curved windowpane and a correspondingly curved function carrier on which all of the add-on parts and door coverings are held and which can be used as protection for the occupant in the event of a lateral crash against the door. The function carrier is constructed in a sandwich-like manner from at least two shell bodies each having one of horizontal and vertical stiffening sections, the stiffening sections forming crossing points for fastening the shell bodies to each other so that the shell bodies form together a continuously closed frame of the function carrier. The outer shell body forms the curved outer side of the function carrier having at least two parallel grooves for accommodating a window lifting and lowering device which has a curvature matched to the curvature of the vehicle door.

The invention relates to a sandwich sheet material forming machine, which is composed of an upper vacuum chamber, a middle vacuum chamber and a lower vacuum chamber. The sheet material to be processed is put inside the middle vacuum chamber 6; the middle vacuum chamber 6 is composed of an upper vacuum chamber baffle plate 4, a lower vacuum chamber baffle plate 5 and a sealing joint strip 7; the upper vacuum chamber 1 can be moved vertically; the lower vacuum chamber 2 can be horizontally pulled out and pulled in; the three vacuum chamber can simultaneously perform the vacuum pumping; when a sheet electric hot plate 11 is heated to a certain temperature, the upper vacuum chamber 1 and the lower vacuum chamber 2 simultaneously release gas, and the middle vacuum chamber 6 maintains vacuum, the sheet material 3 to be processed is pressed by an isostatic atmospheric pressure, and therefore a vacuum hot press composite sheet material finished product is obtained. The sandwich sheet material forming machine can be used for processing PVB film laminated glass, so as to reduce equipment investment, save electric energy for more than 50 percent, and reduce production cost.

The invention discloses a wood sandwich panel, comprising a board layer one (1), a sandwich layer (2) and a board layer two (3) which are inter-layer stuck and laminated into a whole; the sandwich layer (2) comprises a wood structure framework (5) and filling agents filled in the wood structure framework (5); the wood structure framework (5) is crisscross and uniformly distributed in the sandwich layer; the board layer one (1) and the board layer two (3) can adopt reconstituted decorative veneer or other boards. By introducing the wood elements to the production of the sandwich panels, the invention increases the decorative effect, expands the use ranges of the sandwich panel to meet the requirements of high-grade decoration; in addition, the panel is high in strength, stable, solid, good in sound insulation effect, light as well as massive and has good thermal insulation performance, so the panel can be widely applied for partition, floors, doors, interior wall decoration and repairs of ceilings and roofs and is suitable for high-grade places such as hotels, airports, exhibition centers, villas, and the like.

Modular, prefabricated radiant panel, of the type having a sandwich-like structure including a thermally insulating rear layer (1), a front layer acting as mechanical support and outer surface finish, and two radiant pipes (4) integrated in the panel for the flow of a heat-carrying fluid. The radiant pipes (4) are housed in preformed grooves (2) in the thermally insulating rear layer. In the same layer there are further provided two parallel, longitudinal grooves (3) for the housing of a pair of headers (5) which supply the radiant pipes (4). The headers (5) housed in the grooves (3) cross the entire panel and end in correspondence of the opposite short sides thereof, where they are connected to the radiant pipes (4) via T-junctions (6), a free mouth of which faces outwards for connection via sleeves (7) to T-junctions (6) of other panels, both directly and through connection pipes.

The invention discloses a production method of a sandwich-like structure solid polymer electrolyte membrane, and an application of the sandwich-like structure solid polymer electrolyte membrane in a solid-state lithium ion battery, and belongs to the technical field of solid-state lithium ion batteries. The production method comprises the following steps: taking a polymer and an alkali metal saltaccording to a mass ratio of (2-6):1, dissolving the polymer and the alkali metal salt in acetonitrile, and performing stirring and uniform mixing to obtain a solution A; taking half of the solution A, adding a plasticizer, and performing full stirring and uniform mixing to obtain a solution B; and respectively coating two sides of a support membrane with the solution A and the solution B, and drying the coated support membrane in a vacuum drying box for 12-24 h to produce the sandwich-like structure solid polymer electrolyte membrane. The invention also discloses a production method of a solid-state lithium ion battery using the sandwich-like structure solid polymer electrolyte membrane. The produced sandwich-like structure solid polymer electrolyte membrane has the advantages of high ionconductivity, good mechanical strength, low interface impedance, good interfacial stability, and effective improvement of the cycling stability of the solid-state lithium ion battery.

The invention discloses a composite material with a foam sandwich structure and a preparation method of the composite material. The composite material comprises an upper surface layer, a lower surface layer and a foam sandwich layer which is located between the upper surface layer and the lower surface layer; the upper surface layer and the lower surface are formed by overlapping layered fiber fabrics; the foam sandwich layer is formed by arranging a plurality of foam strips, foam plates or foam blocks; parallel sheet-like fiber fabrics are clamped between two adjacent foam strips or adjacent foam plates of the foam sandwich layer; the surfaces on the middle positions of each two foam strips are provided with resin grooves which are parallel with the surface layers; and the resin grooves are crossed with a resin make-up groove which is penetrated in the complete foam sandwich layer in the longitudinal direction; the upper surface layer, the lower surface layer and the sandwich layer are sewn into a complete structure by a sewing rough yarn. The composite material provided by the invention is light in weight and has high strength; the preparation process is simple and the composite material can be molded in one step; and moreover, resin can be injected from the middle layer of the sandwich layer and the injection speed is improved.

The invention belongs to the field of flexible stress sensors, and relates to a tensile stress/strain sensor applied to a large deformation such as a knuckle joint and a preparation method thereof. The sensor device has a sandwich-like three-layer structure; a flexible substrate made of Ecoflex silicone rubber is arranged at the bottom; a CNTS conductive layer with a dry abrasive paper patterned microstructure is arranged at the middle layer, and the two ends of the CNTS conductive layer are led out by copper foils as electrodes; and a layer of silicone rubber is laid to the top as a protective layer. The Ecoflex silicone rubber has an elasticity modulus similar to that of the skin, which provides a possible for the wearable property of the device; the nanometer material CNTS with excellent conductivity is used as a microstructure sensing material; and the tensile stress/strain sensor is prepared by combining the Ecoflex silicone rubber and the nanometer material CNTS.

An easy-to-assembly LED and substrate providing fast assembling, simple replacement and maintenance, exchangeable arrangement of LED (3) without wiring or welding process comprises:

• • an assembling substrate (1) having sandwich-like structure, consists essentially of a plurality of conductive layers (10) and a plurality of non-conductive layers (11);
  • a plurality of LED (3) having at least one lead partially insulated, all conductive sections and insulated sections of said LED (3) will correspond to the arrangement of conductive layers (10) and non-conductive layers (11) of said assembling substrate (1); and
  • a power source (4).

The invention concerns a heat exchanger for industrial installations, in particular for power plants, with at least one distributor for a fluid medium and at least one heat exchanger element attached to the distributor. The heat exchanger is composed of a sandwich-like configuration of distributors and heat exchanger elements consisting of metal sponges. The distributors are constructed as pipes or at least as semi-pipes connected with each other. Adjacent pipes or semi-pipes are connected with each other through the metal sponge. The sandwich profile of the invention may easily be manufactured in the required dimensions for industrial installations. Herein, particularly the low weight of such a heat exchanger module and the connection between shell and metal sponge, which may simply be made by means of soldering or welding, proves to be particularly advantageous. The metal foam may also be cast onto the shells. The metal sponge should preferably consist of open-pored metal foam and in particular aluminum foam.

The invention discloses a strengthened coating in a sandwich-like structure on the surface of precipitation hardening stainless steel, wherein the strengthened coating comprises a surface high-hard layer, a functional softened layer and a substrate hardened layer, and is characterized by the sandwich-like structure consisting of a hard layer, a soft layer and a hard layer; the surface high-hard layer is 10-80 micrometers in thickness, the functional softened layer is 1-100 micrometers in thickness, and the substrate hardened layer is 10 micrometer to 6mm in thickness; and the substrate hardened layer is combined with the precipitation hardening stainless steel substrate. The strengthened coating in the sandwich-like structure provided by the invention can simultaneously provide thick strengthened layer while improving the surface hardness of the precipitation hardening stainless steel, thus being beneficial to long-term stable operation.

The present invention relates to a method and a device for environmentally friendly ramming under water. To reduce the noise input under water, the machine and the material that is to be rammed are surrounded by a fixed flooded sleeve. The sleeve advantageously has a sandwich-like structure.

The invention discloses a compound for an anode material of a lithium ion secondary battery, the compound comprises a sandwich-like structure, an inner layer of the sandwich-like structure uses a hard abrasive, an intermediate layer adopts an embeddable metal or a non-metal or an alloy, and an outer layer adopts a soft conductive material, wherein the embeddable metal or the non-metal or the alloy accounts for 30-90wt% of the total weight of the compound; the hard abrasive accounts for 5-60wt% of the total weight of the compound; and the soft conductive material accounts for 5-60wt% of the total weight of the compound. The prepared anode material compound comprises the sandwich-like nanostructure, and the distribution is even, thereby having excellent cycling performance and rate capability. The preparation method has the advantages of simple process, easy control and abundant raw materials, thereby being a practical technology for preparing the lithium ion metal or alloy anode material.

The invention discloses a silicon carbon composite material, and a preparation method and an application thereof. The preparation method comprises the following steps of performing wet process ball milling on glass powder and a laminated layer carbon material to obtain a uniform mixed product of glass and the carbon material; next, performing uniform mixing and compacting on the product and magnesium powder and fused salt to form an ingot; and then performing a magnesium thermal reaction, and carrying out acid washing on the reaction product to obtain a sandwich layer-shaped porous silicon/graphene-like structured composite material. The preparation method are simple in steps and easy to implement, and the raw materials are wide in resource; more importantly, the mixture is made into the ingot through the compacting process, and then the magnesium thermal reaction is performed, so that the tap density of the silicon carbon negative electrode material is greatly improved, and the volumetric specific capacity of the negative electrode material is improved; meanwhile, by compounding with the graphite and other carbon material to form the sandwich-like structure, the electronic conductivity of the material is improved effectively, and the compatibility between the silicon base material and an electrolyte can be improved, thereby improving cycle performance and rate capability of the material; and therefore, the silicon carbon composite material can be applied to the negative electrode material with high power density and high energy density of the lithium ion battery.

The invention relates to an all fiber Q-switch, which comprises a fiber, a V-shaped groove, a long-period grating pressed template, piezoelectric ceramics, a semiconductor chilling plate, a thermistor and a metal shell, wherein the fiber passes through the metal shell, and one section of the fiber is a bare fiber; the long-period grating pressed template, the bare fiber and the V-shaped groove are arranged from top to bottom in the metal shell to form a sandwich-like structure; optical cement is coated on the outer surface of the bare fiber; the piezoelectric ceramics is arranged between the inner top of the metal shell and the long-period grating pressed template; the semiconductor chilling plate closely attaches to the outer bottom of the metal shell; and the lateral surface of the V-shaped groove is closely provided with the thermistor for inducing the temperature of the V-shaped groove. The all fiber Q-switch has the characteristic of zero insertion loss. When the all fiber Q-switch is applied to a Q-switched fiber laser, the all fiber Q-switch can improve the output power and efficiency of the laser under the same conditions.

A package houses at least one electro-optic active element for transmission using an optical fiber. The package has a bearing element for the at least one electro-optic active element. Advantageously, the package has a sandwich-like structure and includes a closing element associated with the bearing element using a suitable aligning and coupling device to define a hermetically closed housing seat. Moreover, the closing element houses a lens in axial alignment with the electro-optic active element. An electro-optic module includes the package associated with a casing having a receptacle housing an optical fiber.

LED arrangement (light emitting diode), comprising a plurality of adjacent radiating LEDs (1) that are nearly identically aligned for forming an extended area light source, wherein the LEDs are attached to a metallic multi-film support (2) comprising sandwich-like insulating intermediate layers (3) and having at least a step-like structure with at least one step, wherein at least one LED chip (1)is placed on each step on a metal film and the metal layer directly above comprises a corresponding shortening or recess for mounting an LED.

The invention relates to a method for preparing a sandwich-like Ce: YAG glass-ceramic sheet by a tape casting method. The method comprises the following steps: (1) a glass raw material is prepared from the following effective materials by mole fraction: 10 to 20% of ZnO, 5 to 17% of Sb2O3, 25 to 40% of TeO2, 6 to 13% of Li2O, 10 to 15% of K2O, and 5 to 20% of Ce: YAG phosphor; after the glass raw materials are thoroughly mixed and ground, a mixture is mixed with distilled water to obtain a mixed slurry; (2) the mixed slurry is uniformly coated on a white glass sheet having a thickness of 0.1 to 0.5 mm and matched with the size and shape of a light source by a tape casting machine; (3) the coated white glass sheet is dried at a temperature of 200 to 300 DEG C for 6 to 9 hours, the white glass sheet with the same shape and size is covered on the surface layer of the mixture after the water is evaporated, the sandwich-like glass clamping sheet is sintered at a temperature of 600 to 800 DEG C for 1 to 4 hours and then cooled to room temperature to form a sandwich-like Ce: YAG glass-ceramic sheet with a thickness of 0.4 to 1.5 mm. The sandwich-like glass-ceramic sheet with better photoelectric parameters is obtained by firing at a relatively low temperature.