33 results about "Polymer bonding" patented technology

Provided is a weak anchoring liquid crystal alignment agent which is used for forming a liquid crystal alignment film of a liquid crystal cell that has liquid crystals and the liquid crystal alignment film, and which comprises: at least one polymer (A) that is selected from the group consisting of polyamic acids, polyamic acid esters, polyimides, polyamides, and polyuria; and a polymer (B) that is compatible with the liquid crystals and that exhibits weak anchoring properties, said weak anchoring liquid crystal alignment agent containing a graft copolymer in which the polymer (A) and the polymer (B) are bonded.

The invention discloses a high-toughness cement-polymer composite material and a preparation method thereof, and belongs to the technical field of cement materials. The high-toughness cement-polymer composite material comprises a plurality of stacked cement sheets, the cement sheets are bonded and connected through a polymer, each cement sheet comprises a plurality of cement sub-sheets, and the included angle between the cement sub-sheets of the adjacent cement sheets is 10-90 degrees. The upper surfaces of the cement sheets are coated with polymers, the cement sheets on the upper layer are assembled on the cement sheets, the cement sheets are sequentially and repeatedly assembled till the set number of layers is reached, and a composite material blank is obtained. By adopting the high-toughness cement-polymer composite material and the preparation method thereof, the problem of poor toughness of an existing cement-based material can be solved.

This disclosure relates to a process for the synthesis of a compound of formula (I): (I) wherein w, x, y, and z are as defined in the description. The process includes the reaction of a compound of formula (II): (II) with carbonyldiimidazole, and the reaction of the resulting compound with propargylamine.

A composite material comprising an adhesive film comprising a polar polymer bonding layer of ethylene methyl acrylate and ketene vinyl acrylate, and a bonding resin of polyethylene, polypropylene, ethyl vinyl acetate, acrylate, or combinations thereof; a metal substrate adhered to the bonding resin; and a polymer layer adhered to the polar polymer bonding layer, the polymer layer comprising polyvinyl chloride.

The invention provides a thin building floor sound insulation system and a construction method, and belongs to the technical field of light sound insulation building materials. The system sequentially comprises a base layer processing layer, an elastic cushion layer, a composite damping prefabricated plate layer, a polymer bonding layer, a light leveling layer and a facing layer from bottom to top. Wherein the composite damping prefabricated plate layer is provided with an internal material gradient structure, and the composite damping prefabricated plate layer is in continuous transition from a high-damping mixture area to a scattering enhanced mixture area from bottom to top; the polymer bonding layer is formed by flexible polymer modified cement mortar, and interlayer chemical bridging and mechanical occlusion are achieved in cooperation with self-activation treatment on the surface of the plate. Damping dissipation and sound wave scattering are synergistically achieved through the gradient structure, interlayer stress is buffered through the flexible bonding layer, efficient attenuation of wide-frequency-band impact sound is achieved under the conditions of extremely small thickness and low load, and the contradiction between space limitation and high sound insulation requirements in existing residence transformation is effectively solved.

The invention discloses a glass surface treatment method capable of resisting high-temperature and high-pressure injection molding shear force, and relates to the technical field of glass surface treatment. Aiming at the problems of interface layering, cracking, falling and sealing failure of a glass product in a high-temperature and high-pressure injection molding coating process, a glass substrate is sequentially subjected to decontamination cleaning, double-phase activation, coating and film forming, directional leveling, pre-curing and injection molding coating treatment; and forming a three-belt type self-locking polymer bonding layer with the thickness of 8-18 microns on the surface of the glass. The three-belt type self-locking macromolecule bonding layer is composed of a glass anchoring layer, a shearing buffering layer and a plastic affinity layer, the glass anchoring layer and the surface of glass form strong interface anchoring, the shearing buffering layer is used for absorbing injection molding shearing stress, and the plastic affinity layer and injection molding plastic form a high-compatibility interface.

The present disclosure relates to a method of manufacturing a polymeric laminate composition suitable for a photovoltaic element comprising, said polymeric laminate composition comprises off-stoichiometry thiol-ene polymer (OSTE) and luminescent nanoparticles, wherein the method comprises performing a surface modification of provided luminescent nanoparticles resulting in the introduction of photopolymerizable functional groups on said provided luminescent nanoparticles, wherein the luminescent nanoparticles in the polymeric laminate composition having a surface coverage of photopolymerizable functional groups bonded to thiol-ene polymer of 20-50%.

Provided is frequency-selective insulating glass for buildings. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed above the first glass layer; a polymer bonding layer disposed above the first insulating metal thin film layer; a second insulating metal thin film layer disposed above the polymer bonding layer; and a second glass layer disposed above the second insulating metal thin film layer. Here, each of the insulating metal thin film layers comprises a plurality of first unit cells and second unit cells. Here, at least a part of the first unit cells comprises: a first pattern of a reference scale; and a first pattern of a first reduced scale, which is disposed in at least one blank area provided in the first pattern of the reference scale.

An adhesive system includes a tape and a solid activator composition. The tape comprises a curable adhesive film, the curable adhesive film comprising: a film of a polymer; an unsaturated free radical polymerizable group, the unsaturated free radical polymerizable group being capable of bonding to the polymer, or in a substance different from the polymer; and a transition metal cation. The solid activator composition comprises an oxidizing agent and is not a self-supporting membrane. Also described is a kit comprising a tape and a solid activator composition in the form of a crayon or paste. A method of bonding a first substrate includes rubbing a solid activator composition on the first substrate or spreading the solid activator composition onto the first substrate, and then applying a tape. Also described is a crayon comprising an oxidizing agent and an acrylic polymer comprising crystalline monomer units having from 16 to 50 carbon atoms and at least one other monomer unit.

The invention discloses a composite diaphragm and a secondary battery comprising the composite diaphragm. The composite diaphragm comprises a diaphragm base membrane and an ion fast-pass composite thin layer arranged on one side of the diaphragm base membrane, wherein the ion fast-pass composite thin layer comprises the following raw materials: a lithium ion conducting material, a thermal diffusion filler, a conductive agent, inorganic functional particles and a polymer binding phase. According to the composite diaphragm provided by the invention, the ion fast-pass composite thin layer is constructed on the single surface of the diaphragm base membrane, interface polarization is reduced and hot spots are dispersed through cooperation of the lithium ion conducting material and the thermal diffusion filler, and the 5C capacity retention ratio is improved and the acupuncture peak current and the highest temperature rise are reduced under the condition that the energy density is not obviously sacrificed; and the trace inorganic functional particles inhibit interface side reaction caused by acidic by-products, slow down impedance drift and gas production, improve safety consistency, and have detectable element characteristic signals.

Frequency-selective building insulating glass is provided. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed on the first glass layer; a polymer bonding layer disposed on the first insulating metal thin film layer; a second insulating metal thin film layer disposed on the polymer bonding layer; and a second glass layer disposed on the second insulating metal thin film layer. Here, each of the first insulating metal thin film layer and the second insulating metal thin film layer includes a plurality of first unit cells and second unit cells. At least some of the first unit cells include a grid pattern and at least some of the second unit cells include a square slit.

A razor blade has a sharp cutting edge having an outer bonding surface. A phosphonate polysiloxane composite layer is deposited on the outer bonding surface, forming an outermost layer of the sharp cutting edge. The phosphonate polysiloxane composite layer is comprised of one or more layers. The phosphonate is covalently bonded to the outer bonding surface. The siloxane is covalently bonded to the phosphonate, and in some applications, also covalently bonded to the outer bonding surface. The siloxane is a reactive silicone polymer, bonded to the phosphonate or outer bonding surface, creating a layer that is branched, lightly crosslinked, or even heavily crosslinked. The phosphonate polysiloxane composite can be formed by the use of heat, UV exposure, IR exposure, combinations of heat, UV, and / or IR, and electron beam, ion beam, or other ionizing sources.

The utility model discloses a door opening autoclaved lightweight concrete (ALC) wallboard reinforcing device based on a structural column, which relates to the technical field of building assembly type wall reinforcing and comprises the structural column, a structural beam and a structural plate which are arranged on one side of a door opening, an ALC transverse plate arranged on the top of the door opening and an ALC vertical plate arranged on the other side of the door opening. One end of the ALC transverse plate is connected with the structural column through a fixing piece, and the other end of the ALC transverse plate is matched with the ALC vertical plate in a mortise and tenon joint mode. Polymer adhesive mortar is filled between the ALC transverse plates and the structural columns, between the ALC transverse plates and the structural beams, between the ALC transverse plates and the ALC vertical plates and the like. The problem that the transverse plate above the door opening is difficult to fix in traditional installation is solved, cast-in-place-free lintel construction is achieved through rigid anchoring of the angle steel and the structural column, tenon-and-mortise matching of the end of the transverse plate and mortar filling, and the connecting structure is suitable for rapid installation of the adjacent column ALC wallboard on one side of the building door opening.

The invention discloses a silicon-based compound prepared based on organic modified silicate polymer bonding and a preparation method thereof, the silicon-based compound comprises a substrate and a functional layer wafer, the substrate and the functional layer wafer are bonded together through a bonding layer, and the bonding layer is an organic modified silicate polymer layer. A polymer of the organic modified silicate polymer layer is prepared from precursor molecules through a polymerization reaction. The silicon-based composite material is prepared by adopting a direct bonding process and utilizing the advantages of high melting point, good physical and mechanical properties, stable chemical properties, adjustable acoustic, optical and electrical properties and the like of the organic modified silicate polymer, so that the advantages of mechanical properties, electrical properties, corrosion resistance, high temperature resistance and the like of a device system prepared on the basis of the composite material are remarkably improved; the method is of great significance in improving key performance indexes such as working efficiency and stability of the device, and in addition, convenience is provided for semiconductor integration and miniaturization of the device.

This description provides an adhesive composition. The adhesive composition contains (A) multi-stage latex polymer particles, (B) a linear diamine base, and (C) an ethoxylated surfactant. The (A) multi-stage latex polymer particles include (i) a first-stage polymer containing acrylic acid monomer and a first vinyl monomer, and (ii) a second-stage polymer containing methacrylic acid monomer and a second vinyl monomer, provided that the second vinyl monomer is different from the methacrylic acid monomer. The first-stage polymer is bonded to the second-stage polymer.

The application discloses a magnetic material, preparation and rotor and thermal management system thereof, wherein the magnetic material is at least partially provided with a composite coating layer, the composite coating layer comprises a first coating layer containing a P(O) structure fragment and a second coating layer containing a structure fragment, and the magnetic material is in a powder form; the magnetic material can be processed into a granular magnetic composite material comprising the magnetic material, a resin polymer bonding layer and a high molecular elastomer, wherein the high molecular elastomer is located between the particles of the powder magnetic material and is dispersed in the resin polymer layer together with the powder magnetic material. The magnetic material disclosed by the application can be applied to the rotor and the thermal management system. The application effectively solves the problem of performance attenuation in the process of processing and using the related magnetic material, and simultaneously improves the processability, magnetic performance, mechanical performance and environmental stability of the magnetic material, so that the use demand of the magnet involved in the thermal management system of the new energy automobile can be met.

A razor blade with a sharpened cutting edge with an outer bonding surface. A phosphonate polysiloxane composite layer deposited on the outer bonding surface forming an outermost layer of the sharpened cutting edge. The phosphonate polysiloxane composite layer is composed of one or more layers. The phosphonates are covalently bonded to the outer bonding surface. The siloxanes are covalently bonded to the phosphonates and in some applications are also covalently bonded to the outer bonding surface. The siloxanes are a reactive silicone polymer, bonded to the phosphonates or outer bonding surface creating branches, mild crosslinking or even heavily crosslinked layers. The phosphonate polysiloxane composite may be formed through the use of thermal, UV exposure, IR exposure, a combination of thermal, UV, and or IR, as well as e-beam, ion-beam, or other ionization source.

Provided is a building insulating glass having frequency selectivity. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed on top of the first glass layer; a polymer bonding layer disposed on top of the first insulating metal thin film layer; a second insulating metal thin film layer disposed on top of the polymer bonding layer; and a second glass layer disposed on top of the second insulating metal thin film layer. The insulating metal thin film layers include a plurality of first unit cells and a plurality of second unit cells, respectively. In at least some of the first unit cells or the second unit cells, regions other than slits provided in a first pattern or a second pattern are formed as a metal mesh structure.

The present invention relates to a sealing device (1) comprising a polymer waterproof layer (2) and a barrier composite layer (3), said barrier composite layer (3) comprising a polymer bonding layer (4), a metal or polymer barrier layer (5), and a polymer protective layer (6). The invention also relates to a method of manufacturing the sealing device and to a roofing system comprising a roofing mat (10) and a sealing device (1) adhered to the surface of the roofing mat (10).

The invention relates to the technical field of lithium ion batteries, in particular to a high-rate lithium ion battery and a method for preparing the high-rate lithium ion battery. The battery comprises a positive electrode, a negative electrode, a diaphragm and an electrolyte, the positive electrode material contains single-crystal nickel cobalt lithium manganate, and the particle size distribution of the single-crystal nickel cobalt lithium manganate meets the following conditions: D50 is 6-9 microns, and the specific surface area is 0.5 m / g-1 m / g; the negative electrode material comprises a graphite mixture with the surface coated with amorphous metal oxide, the graphite mixture comprises first graphite and second graphite, the particle size distribution of the first graphite meets the condition that D50 is 7-9 microns and the specific surface area is 1.7-2.5 m / g, and the particle size distribution of the second graphite meets the condition that D50 is 11-14 microns and the specific surface area is 1.5-2.0 m / g; the electrolyte comprises a 1, 3-propane sultone additive; the diaphragm is a composite diaphragm comprising a polymer bonding layer and a heat-resistant inorganic matter coating. The application of the scheme is beneficial to prolonging the service life of the battery.

This invention belongs to the field of optical device technology and discloses a MEMS device and packaging method based on SU8 adhesive. The method includes a structural substrate and a packaging wafer anoly bonded by an SU8 adhesive bonding ring. The packaging wafer has grooves to form a moving microcavity. A getter is deposited within the moving microcavity of the packaging wafer. The moving microcavity also accommodates a movable MEMS structure disposed on the surface of the structural substrate. Chip pads and metal leads are laid on the outer side of the moving microcavity. The packaging wafer also has an anti-reflow groove located at one end of the packaging wafer near the SU8 adhesive bonding ring. This invention uses SU8 adhesive to fabricate a polymer bonding ring on a complex packaging wafer with a microcavity. By optimizing the SU8 adhesive pretreatment process and designing an anti-reflow structure, contamination of the device due to SU8 adhesive flow is avoided. Polymer wafer-level bonding is used to achieve MEMS device packaging, and chip separation is achieved through two dicing operations. This method has advantages such as low temperature, low stress, flexible process, and low cost.

Building insulating glass having frequency selectivity is provided. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed on the first glass layer; a polymer bonding layer disposed on the first insulating metal thin film layer; a second insulating metal thin film layer disposed on the polymer bonding layer; and a second glass layer disposed on the second insulating metal thin film layer. Here, the first insulating metal thin film layer and the second insulating metal thin film layer include a plurality of first unit cells and second unit cells, respectively. At least a portion of the first unit cells includes a Jerusalem pattern and at least a portion of the second unit cells includes square slits.

The present invention provides a cleaner that is convenient to carry, can reliably remove contaminants adhering to the tip of a fiber optic connector ferrule, and prevents the transfer of contaminants from the ferrule tip by visualizing the cleaned area on the cleaner surface. [Solution] The cleaner sheet 1 has a back surface against which the ferrule F of the optical fiber connector P abuts. On the back surface of the cleaner sheet 1, a coating layer 11 of non-carbon ink 10 containing microcapsules 16 containing a color developer 14 and a color developer 15 is formed, and a transfer prevention sheet 20 of the non-carbon ink 10 is polymer-bonded to the back surface of the coating layer 11.

The invention discloses a method for improving metal-polymer bonding strength by using microtextures and an adhesive, which comprises the following steps: S1, carrying out laser etching treatment on a metal surface to form a plurality of microtextures arranged at intervals on the metal surface, the width of the microtextures being equal to the distance between the adjacent microtextures being 0.5-1.0 mm; s2, a polymer PLA material is printed in a 3D printing mode, and microtextures are etched or not etched on the surface of the polymer PLA material; and S3, metal and the polymer PLA material are connected through a binder, and the metal-polymer composite material is obtained through curing. The method for improving the bonding strength of the metal-polymer by using the microtexture and the adhesive is simple and easy to implement, the bonding strength of a metal-polymer structure interface can be improved to 18MPa through the bonding of the organic reagent and the microtexture, and the method has a wide application prospect.

Building insulating glass having frequency selectivity is provided. The insulating glass comprises: a first glass layer; a first insulating metal thin film layer disposed on the first glass layer; a polymer bonding layer disposed on the first insulating metal thin film layer; a second insulating metal thin film layer disposed on the polymer bonding layer; and a second glass layer disposed on the second insulating metal thin film layer. Here, the first insulating metal thin film layer and the second insulating metal thin film layer include a plurality of first unit cells and a plurality of second unit cells, respectively. At least some of the first unit cells and at least some of the second unit cells include a square slit having a predetermined width and size.

Thermal-insulating building glass having frequency selectivity is provided. The thermal-insulating glass comprises: a first glass layer; a first thermal-insulating metal thin film layer disposed on the first glass layer; a polymer bonding layer disposed on the first thermal-insulating metal thin film layer; a second thermal-insulating metal thin film layer disposed on the polymer bonding layer; and a second glass layer disposed on the second thermal-insulating metal thin film layer. Here, each of the first thermal-insulating metal thin film layer and the second thermal-insulating metal thin film layer includes a plurality of first unit cells and second unit cells. At least a part of the first unit cells and at least a part of the second unit cells include the Jerusalem pattern.

The composition of the present invention contains a polymer to which there is attached a group represented by the following formula (1):(wherein each of Rx, Sy, and Sz represents a hydrogen atom or a monovalent organic group; each of Ry and Rz represents a single bond or a divalent organic group; each of ring Ary and ring Arz represents a C4 to C20 cyclic alkyl group or a C6 to C30 aryl group, and ring Ary and ring Arz may be linked together to form a new ring structure therebetween; ny is an integer of 0 to the maximum number corresponding to allowable substitution to ring Ary; nz is an integer of 0 to the maximum number corresponding to allowable substitution to ring Arz; and * is a polymer bonding site).

Provided are an onium salt monomer which has excellent etching resistance, organic solvent solubility, and appropriate acid strength, and can generate an acid with low diffusion, a base polymer comprising a polymer-bonded acid generator using the same, a chemically amplified negative resist composition using the same, and a resist pattern forming process using the chemically amplified negative resist composition. An onium salt monomer has the formula (A1):

The invention discloses a flame-retardant acrylate adhesive for bonding low-surface-energy materials and a preparation method of the flame-retardant acrylate adhesive, and belongs to the technical field of polymer bonding. The adhesive is prepared from fluorine-containing methacrylate, polyether methacrylate, organic modified layered nano zirconium phosphate, a reactive phosphorus-containing ionic liquid and a photoinitiator through an ultraviolet curing reaction. The high-strength, high-transparency and high-flame-retardant stable bonding of the low-surface-energy materials such as polytetrafluoroethylene and polyolefin resin can be realized without pretreatment through a triple synergistic mechanism of dipole interaction of fluorine-containing groups and low-surface-energy material base materials, interface enhancement of phosphorus-containing ionic liquid and cohesion enhancement of polyether side chains. The adhesive has outstanding transparency and flame retardance and excellent damp heat resistance, ultraviolet aging resistance and fatigue resistance, meanwhile, the preparation process is simple, environment-friendly and efficient, and the adhesive can be applied to the fields of electronic packaging, optical devices, high-end medical instruments and the like, and effectively solves the bonding problem of low-surface-energy materials.