Microcosm Technology Co., Ltd

National Cheng-kung University

Bo-Hung Lai

Tang-Chieh Huang

Chih-Te Yen

Po-Tsun Liu

Mei-Chin Chen

Dong-Hwang Chen

Yu-Chiao Shih

Wei-Ming Hou

Kuan-Wen Wang

Sung-Wei Hung

The invention provides a curable composition for inkjet, a cured product, and a flexible printed circuit board. The curable composition for inkjet includes a soluble polyimide resin, a photocurable acrylate compound, a photopolymerization initiator, and a thermosetting resin. The curable composition for inkjet has excellent flexibility, and has a withstand voltage of greater than 2 kV even when the thickness is less than 20 μm.

Curable composition for inkjet, cured product and flexible printed circuit board

The present invention provides a laminate with good adhesion, which includes a transparent substrate, an adhesive layer formed by an adhesive composition, and a metal layer. The adhesive composition contains a resin, an adhesion promoter selected from a triazole compound represented by formula (1), a thiadiazole compound represented by formula (2), a benzotriazole compound represented by formula (3) or a phosphate oligomer; and an antioxidant, in which R˜Rare as defined herein.

Laminate and preparing method thereof

A flexible display cover substrate is provided, including a transparent polyimide film and a device protective layer. The device protective layer is formed by a hard coating layer disposed on at least one side of the transparent polyimide film, and the hard coating layer is composed of three or more reactive functional group compounds, an initiator, an elastic oligomer, a nano inorganic modified particle, and a fluorescent pigment. The flexible display cover substrate of the invention, after being folded by a radius of curvature of 1 mm, does not cause cracks on the surface of the hard coating layer or break the substrate, and the yellow index YI of the flexible display cover substrate is less than 2.0.

Flexible display cover substrate

A polyimide film and a flexible display device cover substrate using the same are provided, and the polyimide film includes a polyimide and a blue infrared absorbing agent. The blue infrared absorbing agent includes cesium tungsten oxide, tungsten oxide, Prussian blue, or antimony tin oxide. The blue infrared absorbing agent has infrared absorbing and photothermal conversion effects, and the surface temperature of the polyimide resin may be increased by infrared irradiation, so as to shorten the baking time.

Polyimide film and flexible display device cover substrate using the same

A transparent and colorless polyimide resin is provided. The polyimide resin is derived from at least two dianhydride monomers and at least two diamine monomers. At least one monomer in the dianhydride and diamine monomers includes structure of formula (1). The monomer with structure of formula (1) has an amount of moles accounting for 10-50% of total moles of the dianhydride or diamine monomers.  In formula (1), X is SO,C(CH)or C(CF), Y is oxygen.

Polyimide resin, thin film and method for manufacturing thereof

A laminate structure of a thin film transistor includes a thin film transistor array and a passivation layer. The thin film transistor array includes a gate, a channel layer formed on the gate, a gate insulating layer formed between the gate and the channel layer, and a source and a drain formed on both sides of the channel layer. The passivation layer is formed on the thin film transistor array, and the passivation layer has at least one contact hole exposing the source or the drain, wherein the passivation layer is an oxazole-containing photosensitive polyimide (PSPI) resin.

Laminate structure of thin film transistor

A transdermal drug delivery patch and a method of controlling the drug release of the transdermal drug delivery patch by near-IR are disclosed. The transdermal drug delivery patch comprises a substrate, carriers and drugs. The drugs are encapsulated in the carriers, and the carriers having the drugs are disposed on a surface of the substrate. The carriers are formed of biodegradable polymers, and nano-particles with a photothermal conversion effect are loaded in the carrier. When the carriers are punctured into the skin and the nano-particles in the carrier absorb the near-IR, the near-IR is converted into heat by the nano-particles to melt the carrier and thus releasing the drugs encapsulated in the carrier into the skin. Accordingly, the speed of releasing the drugs encapsulated in the carrier can be controlled accurately by the near-IR.

Growing community of inventors

Tainan, Taiwan

Bo-Hung Lai