Abstract: A resin film 10 comprising a polyimide-based polymer is disclosed. The resin film 10 has a tensile elastic modulus of 4.0 GPa or more. In a bending test where the resin film 10 is repeatedly folded into a U-shape until the distance between the resin film faces opposed to each other reaches 3 mm, and unfolded, the number of times of folding the resin film 10 until the resin film 10 fractures is more than 100000.

Abstract: The present disclosure provides a substrate structure for an electronic element, which includes a supporting carrier; a release layer having a first microstructure on a surface thereof, and the release layer having first adhesion to the supporting carrier; and a flexible substrate for disposing the supporting carrier and the release layer thereon, wherein the flexible substrate has second adhesion to the release layer, the first adhesion is greater than the second adhesion, and the surface of the flexible substrate in contact with the surface of the release layer has a second microstructure opposing to the first microstructure. The present disclosure further provides a method for fabricating the substrate structure.

Abstract: A gel electrolyte and applications thereof are provided. The composition of the gel electrolyte includes an organic base and hydrogen ion exchanged inorganic nano-platelets dispersed in the organic base. The hydrogen ion exchanged inorganic nano-platelets have a size of 20 nm-80 nm. The hydrogen ion exchanged inorganic nano-platelets are chemically bonded to each other via Si—O—Si bonding. A solid content of the gel electrolyte is 1-10 wt %.

Abstract: An electrochromic composition is provided. The electrochromic composition includes 0.5˜10 parts by weight of a first oxidizable polymer, 0.5˜10 parts by weight of a reducible organic compound, 0.5˜20 parts by weight of an electrolyte, and 60˜98.5 parts by weight of a solvent. The first oxidizable polymer is a polymer of 1 molar part of diamine and 0.1˜20 molar parts of dicarboxylic acid, diacyl chloride, or dianhydride, a mixture of the aforementioned polymers, or a copolymer of the aforementioned polymers. An electrochromic element including the aforementioned electrochromic composition is also provided.

Abstract: An organic compound, a light modulating composition and a light modulating device are provided. The organic compound has a chemical structure represented by formula (I): X—Ar—X??(I) wherein X is Ar is The organic compound is transparent in its neutral state. The amide group or imide group introduced into the aromatic amine not only enhances the solubility of the organic compound in the solvent, but also enhances the electrochemical stability of the organic compound.

Abstract: The disclosure provides a polyimide-containing layer suitable for being etched by an alkaline solution and a method for etching a polyimide-containing layer. The polyimide-containing layer suitable for being etched by an alkaline solution includes 20-50 parts by weight of a silica dioxide, and 50-80 parts by weight of a polyimide.

Abstract: A substrate structure applied in flexible electrical devices is provided. The substrate structure includes a carrier, a first material layer overlying the carrier with a first area, a second material layer overlying the first material layer and the carrier with a second area, and a flexible substrate overlying the second material layer, the first material layer and the carrier with a third area, wherein the second area is larger than or equal to the first area, the third area is larger than the second area, and the flexible substrate has a greater adhesion force than that of the first material layer to the carrier. The invention also provides a method for fabricating the substrate structure.

Abstract: To provide an optical film having improved bending resistance while maintaining optical characteristics, e.g. transparency, total light transmittance, and YI value and so on. An optical film containing a resin and silica fine particles whose average primary particle size measured by image analysis with a scanning electron microscope is not less than 21 nm and not more than 40 nm, wherein the content of the silica fine particles is not less than 15% by mass and not more than 80% by mass based on a total content of the resin and the silica fine particles.

Abstract: A coating includes an organosiloxane polymer and a mesoporous silica material bonded with the organosiloxane polymer. A monomer of the organosiloxane polymer is and the surface of the mesoporous silica material includes a hydrophilic group. A method for manufacturing the coating includes the following steps. Provide an organosiloxane polymer polymerized from a plurality of organosiloxanes including a terminal functional group. Provide a mesoporous silica precursor including a surface functional group. The organosiloxane polymer and the mesoporous silica precursor are blended in a solution, so that the surface functional group reacts with the terminal functional group to form a bond, and a mesoporous silica material is formed, as well as the surface of the mesoporous silica material includes a hydrophilic group. A film including a thickness of 0.1-500 ?m is formed by the coating.

Abstract: A flexible substrate embedded with wires includes a flexible substrate constituted by a polymer material, and a continuous wire pattern containing a plurality of pores embedded in the flexible substrate, wherein the polymer material fills the pores. A method for fabricating a flexible substrate embedded with wires providing a carrier; forming a continuous wire pattern on the carrier, the continuous wire pattern containing a plurality of pores; covering a polymer material over the continuous wire pattern and the carrier and to fill into the pores; and separating the polymer material and the carrier to form a flexible substrate embedded with the continuous wire pattern” where the only change is the addition of wires.

Abstract: An organic-inorganic composite layer for a lithium battery includes an organic polymer and a plurality of composite inorganic particles. The weight ratio of the organic polymer to the composite inorganic particles is 10:90 to 95:5, wherein the composite inorganic particles have at least two structural configurations stacked in staggered configuration.

Abstract: The present disclosure provides a dispersion solution, including: a first solvent; a second solvent miscible with the first solvent; an inorganic nano sheet material dispersed in the first solvent; and a polymer dissolved in the second solvent, wherein the boiling point of the first solvent is different from that of the second solvent. The present disclosure also provides a method for preparing the dispersion solution and an organic/inorganic hybrid material having a lower coefficient of thermal expansion.

Abstract: An organic light-emitting device is provided. The organic light-emitting device includes a substrate having a first surface and a second surface opposite to the first surface; an organic light-emitting element disposed on the first surface; and a low refractive index layer disposed on the second surface, wherein the low refractive index layer includes a mixture including polyvinylidene fluoride and inorganic nano-platelet, a hyperbranched polysiloxane, or a combination thereof.

Abstract: An organic compound, a light modulating composition and a light modulating device are provided. The organic compound has a chemical structure represented by formula (I): X—Ar—X ??(I) wherein X is Ar is The organic compound is transparent in its neutral state. The amide group or imide group introduced into the aromatic amine not only enhances the solubility of the organic compound in the solvent, but also enhances the electrochemical stability of the organic compound.

Abstract: A separator is provided, which includes a porous polyolefin layer and a nano fiber web thereon, wherein the nano fiber web includes a plurality of nano fibers interwoven with each other. The nano fiber includes polyimide polymerized of diamine and dianhydride, wherein at least one of the diamine and the dianhydride is aliphatic or cycloaliphatic.

Abstract: A transparent electrochromic polymer is provided, which is polymerized of 1 molar part of a diamine and 1 to 4 molar parts of epoxy compound. The diamine is Formula 1, Formula 2, or combinations thereof, and the epoxy compound is Formula 12, Formula 13, or combinations thereof. The disclosed also provides an electrochromic device, including a first transparent conductive layer, an electrochromic layer on the first transparent conductive layer, and an electrolyte layer on the electrolyte layer, wherein the electrochromic layer is the transparent electrochromic polymer, and a second transparent conductive layer on the electrolyte layer.

Abstract: Disclosed is a polysiloxane being crosslinked from 0.05 to 20 parts by weight of a second silane and an oligomer of 1 part by weight of a first silane. The first silane is Si(R1)2(OR2)2, each R1 is independently acrylic group, epoxy group, vinyl group, amino group, aromatic group, or aliphatic group, and each R2 is independently aliphatic group. The second silane is Si(R3)(OR4)3, R3 is acrylic group, epoxy group, vinyl group, amino group, aromatic group, or aliphatic group, and each R4 is independently aliphatic group.

Abstract: Disclosed is a substrate structure for manufacturing a flexible electronic device, including a supporting layer, a release layer covering the supporting layer with a first area, wherein the release layer is an aromatic polyimide, and a flexible layer covering the supporting layer and the release layer with a second area. The second area is greater than the first area. The adhesion force between the flexible layer and the supporting layer is stronger than the adhesion force between the release layer and the supporting layer.

Abstract: Disclosed is a polysiloxane being crosslinked from 0.05 to 20 parts by weight of a second silane and an oligomer of 1 part by weight of a first silane. The first silane is Si(R1)2(OR2)2, each R1 is independently acrylic group, epoxy group, vinyl group, amino group, aromatic group, or aliphatic group, and each R2 is independently aliphatic group. The second silane is Si(R3)(OR4)3, R3 is acrylic group, epoxy group, vinyl group, amino group, aromatic group, or aliphatic group, and each R4 is independently aliphatic group.

Abstract: The present disclosure provides a substrate structure for an electronic element, which includes a supporting carrier; a release layer having a first microstructure on a surface thereof, and the release layer having first adhesion to the supporting carrier; and a flexible substrate for disposing the supporting carrier and the release layer thereon, wherein the flexible substrate has second adhesion to the release layer, the first adhesion is greater than the second adhesion, and the surface of the flexible substrate in contact with the surface of the release layer has a second microstructure opposing to the first microstructure. The present disclosure further provides a method for fabricating the substrate structure.