402 results about "Heat fusion" patented technology

An inorganic binder and a dissolving agent are put into ceramic powder. They are mixed to form a plastic green mixture. Then the said mixture is formed into a thin green layer. Preferably, this thin green layer will be preheated and dried such that the thin green layer will be hardened due to the bonding effect of the inorganic binder. A portion of the thin green layer exposed under a directed high-energy beam is sintered, preferably by a laser beam, to cause ceramic molecules to bond together locally due to heat fusion. By controlling the scanning path of the high-energy beam, a two-dimensional thin cross section of the ceramic part in arbitrary form can be produced. A second thin ceramic layer can be built onto the first thin ceramic layer and bonded to it by the same method. After multiple repetitions of this procedure a three dimensional ceramic part can be fabricated layer upon layer. The green portion, which is not scanned by the high-energy beam, will be removed with suitable method. A ceramic part can be rapidly produced in this way.

The invention relates to a flat oxygen-enriched membrane component, which consists of an upper template, a middle template and a lower template which are fastened. One end of the upper template, one end of the middle template and one end of the lower template are provided with oxygen outlets A, B and C which are communicated; the insides of the upper template and the lower template are provided with oxygen-enriched membranes A and D respectively; two sides of the middle template are provided with oxygen-enriched membranes B and C respectively; air passages A and B are arranged between the adjacent oxygen-enriched membranes; one end of the air passage A and one end of the air passage B are communicated with the atmosphere, and the other end of the air passage A and the other end of the air passage B are communicated with the oxygen outlets A, B and C; the oxygen outlets B and C are provided with oxygen passage covers B and C of through holes; and the flat oxygen-enriched membrane component is characterized in that heat fused welding layers are arranged between the oxygen-enriched membranes A, B, C and D and the corresponding upper template, the middle template and the lower template respectively. The oxygen-enriched membranes are physically welded and fixed by adopting heat fusion, the defects of adhesion and fixation of adhesive are thoroughly changed, the service life is ensured, and the utilization ratio is improved.

A protective coat for domestic animals, such as dogs, is reversible to alternatively protect against heat or cold. The coat is made of a light-weight flexible material that is preferably fastened with the use of hook-and-loop fastening strips. The coat is a two-ply garment, one ply providing a water-repellent surface, while the second ply provides a heat radiation-reflective surface. The preferred material used in constructing the pet garment is Astrolon TM . The coat is a lamination of two sheets providing the desired protective qualities. The first sheet is aluminized clear polyethylene, and the second sheet is a colored polyethylene. The two sheets are heat-fused together. A cloth piping is sewn around the side edges of the lamination.

A heater arrangement such as a heating band is especially suitable for providing freeze protection for water pipes in an aircraft, because it is resistant to vibrations, greatly varying temperatures, low pressure conditions, and aggressive chemicals, while achieving a reliable seal against the penetration of moisture or liquid into the areas of the electrical connections. The heater arrangement includes a heating element with a heater band matrix and heating conductors extending therein, as well as a fluoropolymer protective layer thereover. A connecting element or a terminating element is connected to exposed ends of the heating conductors. To seal the area at which the connecting element or terminating element is connected to the heater arrangement, a fluoropolymer is extruded over this area, and/or a fluoropolymer molded part is used as a connection block or end cap. The fluoropolymer materials are thermally fused together to form a continuous integral seal.

The purpose of this invention is absolute elimination of medical cross-infection by endoscopy. It offers an endoscope system with a disposal sheath. The disposal sheath via anterior end cap connects the capsule which covers the outside of the endoscope and the disposal channel which sheathe in the endoscope channel and the fluid-air channel, and all these parts are joined together in a whole body. After the disposal channel is passed through the endoscope channel, its posterior disposal channel can be blocked into the elastic sealing cap via the guide tube, the posterior disposal channel's orifice need to be heated and melted and cut up simultaneously and its cut edge is in shape of V-shape by using one kind of heat fusion forceps after the use and before the retracting from the endoscope channel. A fluid-air exit and a sucking channel adapter are set on the posterior endoscope, convenience to connect with the fluid-air channel and the three-way sealing cap, the fluid-air channel may be single cavity channel or double cavity channel or two single cavity channels join in one channel together at nearing jet channel site, the channel sizes may be cylinders, or flat sizes. Both the outer surface of the endoscope and the inner surface of the endoscope channel are protected from pollution by the disposal sheath, thus ensures patients to safely use the permanent endoscope.

The invention discloses a non-woven cloth and relative production, wherein the non-woven cloth is formed by non-hot-melt staple fiber whose mass content is not lower than 30% and hot-melt composite staple fiber, via thermal adhesive fixing method. And the invention utilizes the character that the surface of the hot-melt composite staple fiber has heated fusion function, and the invention uses thermal adhesive fixing method to fuse the face of hot-melt composite staple fiber to adhere the non-hot melt staple fiber to form non-woven cloth, therefore, the produced non-woven cloth has damp adsorption property, soft property, and flexibility, without sensibility on human body. And the invention utilizes the hot-wind non-woven device or thermal rolling non-woven device with low energy consumption and low cost.

A light emitting device in which a bonding pad is soldered to a mounting substrate, wherein the bonding pad may be formed in various shapes that can minimize the occurrence of voids during soldering or heat fusion.

The invention discloses an epoxy matrix resin, a prepreg, a preparation method of the prepreg and a device for preparation of the prepreg, in order to solve the problem of poor performance of an epoxy matrix resin curing substance caused by uneven toughening phase state even no phase separation in the traditional epoxy matrix resin curing product, the problem of complex technique of the traditional preparation method of the prepreg and relatively imprecise control on the resin content in the prepreg, and the problem of high manufacturing cost of the traditional device for preparing the prepreg. The epoxy matrix resin is prepared from a phenolic epoxy resin, a bisphenol A epoxy resin, a core shell polymer, a curing agent and a curing accelerator; the prepreg is prepared from the epoxy matrix resin and fiber woven cloth; and the prepreg is prepared through the device for producing the prepreg by a heat fusion method. After and before the resin is cured, the toughening phase state is not changed and is uniformly dispersed; and the toughening phase state effect is good and stable. The mechanical property of the composite material obtained by curing with the prepreg is high.

A topsheet for use on the skin facing side of an absorbent article. The topsheet includes a first nonwoven fabric layer 1 and a second nonwoven fabric layer 2 laminated and partly joined together by heat fusion bonding, forming fusion bonds 4. The first nonwoven fabric layer 1 forms a large number of projections 5 projecting toward the skin of a wearer in portions other than the fusion bonds 4. The projections 5 are arranged discretely in both a first planar direction (direction X) and a second planar direction perpendicular to the first planar direction (direction Y). The individual projections 5 are filled with staple fiber 3. The staple fiber 3 is substantially absent in the fusion bonds 4. The individual projections 5 of the topsheet have fiber densities in the following relationship: first nonwoven fabric layer 1<the staple fiber 3<the second nonwoven fabric layer 2.

The present invention is an electrical extensible hose that includes an outer shell, an inner core and at least one helical wire, which acts like a skeleton. In the present invention one implemented an additional wire that was conductive. The outer shell and inner core of the present invention may be bonded together via heat fusion. The helical wire is attached to the inner core via heat fusion. The helical wire supports the outer shell and inner core so as to form a tube. The outer shell and the inner core have a portion that forms an angular fold and have a portion that remains fixed. The second wire is attached at a point below the fixed portion of the electrical stretch hose so as to allow for maximum constriction caused by the shrinkable force created by the helical wire, thus increasing the stretch ratio of the hose.

A thermo-melting solder for the thermo-melting welding between copper wire and structural member is composed of the thermo-melting welding stock which contains less Zn and Sn for generating CuZnSn alloy at welded point and excessive Al for removing surficial oxide from welded point, and the igniting agent containing potassium permanganate instead of potassium bichromate (or chloride).

The present invention provides a vacuum heat insulation material capable of maintaining high heat insulation capacity even in high temperature circumstance, and provides a hot water supply device having high heat insulation capacity. In the vacuum heat insulation material comprising core material (51) composing of inorganic fiber polymer, a housing material (52) having surface protection layer and aerospace sealing layer and heat melting coating layer, and sorbent (53) absorbing the moisture and air component of core material (51) and the housing material (52), the heat insulation capacity can be maintained in long time in condition of high temperature by laminating the aerospace sealing layer of the housing material (52) with a first aerospace sealing layer and the second aerospace sealing layer in terms of opposite metal surface of at least tow layers of metal layer, and using resin film with melting point more than 150 DEG C as heat melting coating layer.

An organic semiconductor element comprises an organic semiconductor layer and an electrode supplying an electric current or an electric field to the organic semiconductor layer. The organic semiconductor layer includes a heat fusion layer of organic semiconductor particles. The heat fusion layer of the organic semiconductor particles is formed in such a manner that, for example, the organic semiconductor particles are made to adhere on a layer that is to be a base, by using an electrophotographic method, and thereafter, an adhesion layer of the organic semiconductor particles is heated to fusion bond the organic semiconductor particles. According to such an organic semiconductor element and a manufacturing method thereof, it is possible to enhance element manufacturing efficiency without an advantage of low cost and a miniaturization of an element structure.

A continuous-fiber reinforced thermoplastic polymer temperature-adjusting plate comprises a surface plate, a bottom plate, a honeycomb core layer and a phase-change energy-storage material packed in the honeycomb core layer. The surface plate, the bottom plate and the honeycomb core layer are prepared from a sheet of a continuous-fiber reinforced thermoplastic polymer composite material filled with a modified heat-conduction filler, the honeycomb-core-layer phase-change energy-storage material is packed in multiple mutually-independent chambers in the honeycomb core layer, and the surface plate and the bottom plate are respectively combined with the upper surface and the lower surface of the honeycomb core layer through heat fusion. By blending a high-heat-conductivity substance with the polymer, the high-heat-conductivity continuous-fiber reinforced thermoplastic polymer plate, which is prepared by employing a double-face film coating method, has high specific modulus and specific strength. The honeycomb core layer employs a material same to that of the surface plate, and the honeycomb core layer and the surface plate are firmly bonded through fusion. Honeycomb holes are filled with the phase-change material, the addition amount is large and the problem that the phase-change material precipitates is effectively avoided. The continuous-fiber reinforced thermoplastic polymer temperature-adjusting plate has an expanded application field and is especially applicable to decoration of indoor decoration furred ceilings and wall surfaces.

The invention relates to a thermal fusing sealing process of a metal-glass solar heat-collecting tube. The process adopting a vertical double-sided thermal fusing sealing mode comprises the following steps: arranging a transition metal tube (5) below a glass tube (2) to be coaxially aligned; utilizing high-frequency electromagnetic induction heating equipment for the preoxidation treatment of the fusing sealing part of the transition metal tube (5) in air; then, aligning and contacting the lower end surface of the glass tube (2) and the upper end surface of the transition metal tube (5) and continuously heating; slowly inserting the transition metal tube (5) into the glass wall to form double-sided fusing sealing after the lower-end contact part of the glass tube (2) is softened or melted; then, cooling; and immediately annealing after glass is solidified so as to finish the thermal fusing sealing of glass and metal. Compared with the prior art, the invention has simple process, low labor intensity, little energy consumption and easily controlled precision and can remarkably improve the fusing sealing quality and the strength of the glass and the metal.

The invention discloses a production process of a double-point non-woven fusible interlining, which sequentially comprises the following steps of: A) using 43 percent of nylon fibers and 57 percent of polyester fibers by mass as raw materials, laying the raw materials to form a net, heating and hot rolling through a hot mill to enable the nylon fibers and the polyester fibers to be bonded with each other to form a non-woven base fabric; B) softening the non-woven base fabric through silicone oil and conducting inspection; C) cropping after the non-woven base fabric is inspected to be qualified; D) conducting double-point coating fabric feeding after cropping, firstly using a circular screen for primer transfer and then spreading fusible adhesive powder on the primer; E) clearing the fusible adhesive powder which is not combined with the primer by adopting an air blowing and suction method; F) baking through a baking oven, wherein the baking temperature is 167 DEG C and the fabric feeding speed is 36m/min; G) cooling through cooling rolls, wherein deep-well water or tap water chilled by a water chiller is filled into the cooling rolls; and H) conducting final inspection to the cooled double-point non-woven fusible interlining, rolling and containing the double-point non-woven fusible interlining in a box. The production process of the double-point non-woven fusible interlining has the advantages that the production quality is improved, the production energy consumption is reduced, the production efficiency is improved and the production cost is reduced.

The invention relates to a process for preparing vacuum glass. The steps of the process are, (1) keeping a leaking plate mould flat on a glass substrate, on which die orifices are equispaced and compartmentally prepared, (2) coating the supporting pulp on the leaking plate mould to form backstops which are distributed compartmentally and have the same height, inverting the glass substrate on bottom glass, (3) preparing an opening which is inserted in a suction glass tube on the glass, and adopting supporting pulp to seal edges, (4) putting the glass into a heating furnace and treating, (5) connecting the suction glass with a vacuum device until vacuum degree in the vacuum glass reaches 10-2-10-4Pa, hot fusing and sealing the glass tube, thereby obtaining vacuum glass finished products. The invention has the advantages of simple preparation technology, easy operation, lower investment, lower rejection rate, perfect quality and higher production efficiency. Further, the invention adopts mechanical separator system to replace manual operation, which effectively reduces costs of vacuum glass and is applicable for industrial production.

The present invention relates to a production method of vacuum glass. It is characterized by that said method includes the following steps: point-placing glass powder slurry with low-melting point on one glass sheet surface so as to form glass powder piles, coating a closed low-melting-point glass powder strip along four edges of the glass sheet, setting several anti-adhesive supports between upper and lower glass sheets, combining two glass sheets, placing them into sintering furnace to make hot-melting, at the same time of hot-melting and sealing edge the glass powder piles are molten so as to form glass supports, evacuating and sealing so as to obtain the invented vacuum glass.

The invention discloses a polyamide composite material for a vehicle induction manifold. The polyamide composite material comprises the following raw materials in percentage by weight: 40-70 percent of polyamide 6, 1-10 percent of low-fusion point polyamide, 1-5 percent of compatilizer, 0.2-5 percent of composite heat stabilizer, 0.5-5 percent of lubricant and 20-40 percent of reinforcement component. Meanwhile, the invention discloses a preparation method of the polyamide composite material for the vehicle induction manifold. The composite material has good heat-resistant performance and heat fusion performance and is especially suitable for preparing workpieces of vehicle induction manifolds; moreover, the preparation method is simple, adopts traditional equipment, and is suitable for industrial production.