31results about How to "High strength connection" patented technology

An anchoring system for cavity walls is disclosed. The system includes a stud-type wall anchor and a wire formative veneer tie. The stud has a driver head, a dual-diameter barrel, and a driven tip. A flange at the juncture of the two barrels houses an interior seal; and a flange under the driver head, an exterior seal. The smaller diameter barrel is coextensive with the drywall installation; and the length of the larger diameter barrel, with the rigid insulation. The interior seal seals the insertion point into the drywall installation; and the exterior seal, the opening of the anchor-receiving channel. The interior seal and the larger barrel of the anchor fill the anchor-receiving channel and stabilize the wall anchor. Also, the wall anchor is clamped in place by the seals. The stud-type anchor operates with a variety of veneer ties for different applications.

An anchoring system for cavity walls is disclosed. The system includes a stud-type wall anchor and a wire formative veneer tie. The stud has a driver head, a dual-diameter barrel, and a driven tip. A flange at the juncture of the two barrels houses an interior seal; and a flange under the driver head, an exterior seal. The smaller diameter barrel is coextensive with the drywall installation; and the length of the larger diameter barrel, with the rigid insulation. The interior seal seals the insertion point into the drywall installation; and the exterior seal, the opening of the anchor-receiving channel. The interior seal and the larger barrel of the anchor fill the anchor-receiving channel and stabilize the wall anchor. Also, the wall anchor is clamped in place by the seals. The stud-type anchor operates with a variety of veneer ties for different applications.

A high-strength thermally-isolating surface-mounted anchoring system for a cavity wall is disclosed. The thermally-isolated anchoring system is adaptable to varied structures, including high-span applications, and for use with interlocking veneer ties and reinforcement wires. The anchoring system includes an anchor base and a stepped cylinder which sheaths the mounting hardware to limit insulation tearing and resultant loss of insulation integrity. The anchoring system is thermally-isolated through the use of a series of strategically placed compressible nonconductive fittings. Seals are formed which preclude penetration of air, moisture, and water vapor into the wall structure.

A high-strength rectangular pintle veneer tie and cavity wall anchoring system employing the same is disclosed. The rectangular wire formative construct optionally includes a square cross-section that provides greater volumetric occupancy than that of a similar diameter circular wire formative. The interengaging portions and insertion portion are optionally compressed for greater strength and the rectangular shaped interengaging portion provides a locking interconnection within the anchor precluding significant movement lateral with or normal to the inner wythe.

The present invention is production process of high strength self-sealing composite aluminum-plastic pipe union. The production process includes producing main pipe union body and auxiliary parts, and has the specific steps of: 1. selecting stainless steel for producing pipe union; 2. machining at least one external thread on the main pipe union body, forming conic sealing stage of 3-7 deg cone apex angle, and forming end port with outer diameter greater than the inner diameter by up to 1.5 mm and height between the inner diameter and the outer diameter of the composite pipe; and 3. machining one locking stage comprising inner conic surface and outer conic surface on one end of the locking nut, with the locking stage possessing inner surface of the same cone apex angle as the outer surface of the sealing stage.

The invention discloses an ultrasonic impact surface modification auxiliary titanium alloy diffusion connection method. According to the method, ultrasonic impact is conducted on the surface of a titanium alloy plate, the titanium alloy plate is heated and diffused, so that joints can be tightly combined, and the high-strength connection of a titanium alloy is realized. According to the method, agrain refinement layer is obtained through ultrasonic impact surface modification, the atomic diffusion rate is increased, diffusion connection parameters of the titanium alloy are reduced, and low-temperature diffusion connection of the titanium alloy is realized; and the method is simple and convenient to operate, good in adaptability, high in repeatability, green and energy-saving, and can greatly improve the industrial production efficiency.

The invention discloses a medium-and-low-temperature direct diffusion bonding method of oxygen-free copper and chromium-zirconium-copper. The method comprises the following steps of carrying out pretreatment including grinding, polishing, ultrasonic cleaning on to-be-bonded surfaces of an oxygen-free copper block body and a chromium-zirconium-copper block body; performing butting and pressurizingfixation on the to-be-bonded surfaces of the pre-treated oxygen-free copper block body and chromium-zirconium-copper block body; and carrying out heat preservation and bonding in an argon protection atmosphere. The bonding method successfully realizes the diffusion and metallurgical bonding of the interfaces between the oxygen-free copper and the chromium-zirconium-copper, the high-strength bonding between the oxygen-free copper/ chromium-zirconium-copper, and the maximum shear strength reaches about 136 MPa, and the hardness of the annealed chromium-zirconium-copper meets the requirements that the Brinell hardness of the chromium-zirconium-copper is greater than or equal to 120 in the ITER.

The invention relates to the technical field of double-sided adhesive tapes, and discloses an ultra-fragile double-sided adhesive tape for gift box packaging. The ultra-fragile double-sided adhesive tape sequentially comprises a first release film layer, a first adhesive layer, a base layer, a second adhesive layer and a second release film layer from top to bottom. According to the ultra-fragile double-sided adhesive tape for gift box packaging and the preparation method thereof, the double-sided adhesive tape can be conveniently broken at equal intervals through the easy-to-tear gaps in the base layer so that the situations that the double-sided adhesive tape is not easy to tear off and broken openings are not aligned in the pasting process are avoided, and the first adhesive layer and the second adhesive layer are adhered more tightly; the situation that the first adhesive layer or the second adhesive layer is separated from the base layer and is not firmly adhered is avoided, the effects of simplicity, convenience in use and high-strength connection are achieved, meanwhile, the ultra-fragile double-sided adhesive tape is simple in preparation step and high in processing efficiency so that the processing period is greatly shortened, the production efficiency is improved, and the ultra-fragile double-sided adhesive tape is convenient to popularize.

The invention provides a quick pipeline connecting structure and a mounting and dismounting method, and belongs to the field of pipelines. The problem that existing pipeline connecting is low in strength and poor in sealing performance is solved. The quick pipeline connecting structure comprises an upper pipeline, a lower pipeline and a connecting device. The connecting device comprises an upper connecting component connected with the upper pipeline, and a lower connecting component connected with the lower pipeline. The upper connecting component comprises an upper quick connecting pipe, an upper connecting pipe and an upper connecting plate. The upper connecting component further comprises an upper fastener penetrating through the upper connecting pipe and the upper pipeline to be fixed.The lower connecting component comprises a lower quick connecting pipe, a lower connecting pipe and a lower connecting plate, and further comprises a lower fastener penetrating through the lower connecting pipe and the lower pipeline to be fixed. A circular-ring-shaped upper baffle ring is fixed to the outer wall of the bottom end of the upper quick connecting pipe coaxially. A circular-ring-shaped lower baffle ring is fixed to the inner wall of the top end of the lower quick connecting pipe coaxially. The quick pipeline connecting structure further comprises an adjusting pipe sleeving the outer side of the upper quick connecting pipe, the inner diameter of the upper quick connecting pipe is the same as the outer diameter of the lower quick connecting pipe, and a circular-ring-shaped sealing pad is fixed to the top end of the lower baffle ring. The connecting structure can be used for connecting pipelines in a high strength and high sealing performance manner.

The invention discloses a silicon carbide joint and a metal penetration connection method thereof. The metal penetration connection method comprises the following steps that: S1, preparing a first metal raw material and a second metal raw material are prepared to form a connection material; S2, the connecting material is arranged between the connecting faces of two silicon carbide parts, and the connecting material and the two silicon carbide parts form a sandwich structure; S3, the sandwich structure is placed in a sintering environment with a metal phase and sintered; and in the sintering process, the metal phase permeates into the connecting material and fills air holes generated in the connecting material; and S4, after sintering, the connecting material is densified to form a connecting layer, and the two silicon carbide parts are connected to form the silicon carbide joint. According to the metal permeation connection method of the silicon carbide joint, the metal phase permeates into the connection material, densification of the connection material is achieved, the silicon carbide joint with high-strength connection and good air tightness is obtained, and the requirements for the shape structure and the like of silicon carbide are lowered.

The invention relates to a method for joining a first metal pipe to a second metal pipe, said pipes being joined together in an overlap region by using a two-component polyurethane adhesive covering the overlap region, the method comprising the following steps: (1) applying the two-component polyurethane adhesive on an inner surface of a clamp; (2) one end of the first metal tube is inserted into one end of the second metal tube to form a tube assembly with an overlapping area between the two ends, and the overlapping area of the tube assembly is placed into a clamp; (3) closing the clamp such that the overlapping region of the tube assembly is secured in the clamp and wherein the adhesive covers the overlapping region of the tube assembly; (4) curing the adhesive; and (5) optionally, removing the clamp from the pipe assembly.